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    <title>The Harry Glorikian Show</title>
    <description>At The Harry Glorikian Show, I, Harry Glorikian, am your host. In short, I have talks with leaders in the healthcare &amp; life sciences industry about the ongoing data-driven transformation of their industry.

From new ways to diagnose &amp; treat patients, bring down costs &amp; creating new value, all the way to AI algorithms that increase efficiency &amp; accuracy, better data is revolutionizing healthcare.

I turn to doctors, hospital administrators, IT directors, entrepreneurs, &amp; others for help mapping out the changes &amp; their impact on everyone from patients to researchers.

Welcome to the show!</description>
    <copyright>Copyright Harry Glorikian 2023</copyright>
    <language>en</language>
    <pubDate>Tue, 15 Jul 2025 06:00:00 +0000</pubDate>
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    <itunes:summary>At The Harry Glorikian Show, I, Harry Glorikian, am your host. In short, I have talks with leaders in the healthcare &amp; life sciences industry about the ongoing data-driven transformation of their industry.

From new ways to diagnose &amp; treat patients, bring down costs &amp; creating new value, all the way to AI algorithms that increase efficiency &amp; accuracy, better data is revolutionizing healthcare.

I turn to doctors, hospital administrators, IT directors, entrepreneurs, &amp; others for help mapping out the changes &amp; their impact on everyone from patients to researchers.

Welcome to the show!</itunes:summary>
    <itunes:author>Harry Glorikian</itunes:author>
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    <itunes:keywords>Healthcare, Artificial Intelligence, Machine Learning, Analytics, Life Sciences, MoneyBall Medicine, Data, harry glorikian, predictive analytics, the future you, quantified self, wearables, big data, hospitals</itunes:keywords>
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      <itunes:name>Harry Glorikian</itunes:name>
      <itunes:email>glorikian@me.com</itunes:email>
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    <itunes:category text="Health &amp; Fitness">
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      <title>Dr. David Albert and The AI Revolution in Cardiology</title>
      <description><![CDATA[<p>🎙️ In this episode, we discuss:</p><p>00:00 The Journey of an Innovator</p><p>06:27 The Birth of a Smartphone ECG</p><p>11:29 Overcoming Resistance in Digital Health</p><p>16:20 The Evolution of ECG Technology</p><p>23:43 The Importance of Early Detection in Cardiac Care</p><p>26:20 Innovations in 12-Lead ECG Technology</p><p>29:00 AI and Machine Learning in Cardiac Diagnostics</p><p>34:23 Remote Monitoring and Patient Empowerment</p><p>38:34 Navigating AI Diagnostics: Sensitivity vs Specificity</p><p>41:26 Consumer Wearables vs. Medical Devices</p><p>43:14 Future of AI in Cardiology and Personal Health Awareness</p>
]]></description>
      <pubDate>Tue, 15 Jul 2025 06:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>🎙️ In this episode, we discuss:</p><p>00:00 The Journey of an Innovator</p><p>06:27 The Birth of a Smartphone ECG</p><p>11:29 Overcoming Resistance in Digital Health</p><p>16:20 The Evolution of ECG Technology</p><p>23:43 The Importance of Early Detection in Cardiac Care</p><p>26:20 Innovations in 12-Lead ECG Technology</p><p>29:00 AI and Machine Learning in Cardiac Diagnostics</p><p>34:23 Remote Monitoring and Patient Empowerment</p><p>38:34 Navigating AI Diagnostics: Sensitivity vs Specificity</p><p>41:26 Consumer Wearables vs. Medical Devices</p><p>43:14 Future of AI in Cardiology and Personal Health Awareness</p>
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      <itunes:title>Dr. David Albert and The AI Revolution in Cardiology</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:45:39</itunes:duration>
      <itunes:summary>In this episode of The Harry Glorikian Show, Dr. David Albert, founder of AliveCor, shares his journey in digital medicine. We discuss the evolution of mobile ECG technology and the integration of AI in cardiology. Dr. Albert emphasizes the importance of patient empowerment and the shift from traditional hospital care to home-based monitoring. 

We discuss the challenges and innovations in cardiac care and highlight the future of AI in predicting and preventing heart conditions.

For more information on AliveCor and their work, visit: https://alivecor.com/ </itunes:summary>
      <itunes:subtitle>In this episode of The Harry Glorikian Show, Dr. David Albert, founder of AliveCor, shares his journey in digital medicine. We discuss the evolution of mobile ECG technology and the integration of AI in cardiology. Dr. Albert emphasizes the importance of patient empowerment and the shift from traditional hospital care to home-based monitoring. 

We discuss the challenges and innovations in cardiac care and highlight the future of AI in predicting and preventing heart conditions.

For more information on AliveCor and their work, visit: https://alivecor.com/ </itunes:subtitle>
      <itunes:keywords>dr david albert, patient care, smartphones, digital medicine, healthcare innovation, health technology, mayo, cardiology, wearable technology, johns hopkins, ai, cardiac monitoring, alivecor, harry glorikian, ecg</itunes:keywords>
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      <title>Kyle Kiser is Using AI to Make Your Patient Experience Better</title>
      <description><![CDATA[<p>🎙️ In this episode, we discuss:</p><p>00:00 The Origin Story of Arrive Health</p><p>06:04 Rebranding and Evolving Mission</p><p>11:50 Real-Time Patient-Specific Drug Costs</p><p>18:08 Tackling Prior Authorization Challenges</p><p>22:56 Leveraging AI for Healthcare Efficiency</p><p>25:36 Understanding Scale and Impact</p><p>28:04 Collaboration with Payers and PBMs</p><p>30:27 Leveraging AI for Prior Authorization</p><p>32:43 Enhancing Access to Medications</p><p>36:27 Expanding Beyond Medications</p><p>38:19 Reframing Access to Care</p><p>40:51 Future Directions and Innovations</p><p>44:55 Wisdom for Innovators in Healthcare</p>
]]></description>
      <pubDate>Tue, 1 Jul 2025 06:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>🎙️ In this episode, we discuss:</p><p>00:00 The Origin Story of Arrive Health</p><p>06:04 Rebranding and Evolving Mission</p><p>11:50 Real-Time Patient-Specific Drug Costs</p><p>18:08 Tackling Prior Authorization Challenges</p><p>22:56 Leveraging AI for Healthcare Efficiency</p><p>25:36 Understanding Scale and Impact</p><p>28:04 Collaboration with Payers and PBMs</p><p>30:27 Leveraging AI for Prior Authorization</p><p>32:43 Enhancing Access to Medications</p><p>36:27 Expanding Beyond Medications</p><p>38:19 Reframing Access to Care</p><p>40:51 Future Directions and Innovations</p><p>44:55 Wisdom for Innovators in Healthcare</p>
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      <itunes:title>Kyle Kiser is Using AI to Make Your Patient Experience Better</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:40:13</itunes:duration>
      <itunes:summary>In this episode of The Harry Glorikian Show, Kyle Kiser discusses the origins and evolution of Arrive Health, a company focused on improving healthcare affordability and access through technology. 

We discuss the company&apos;s founding story, the significance of its rebranding, and how it leverages real-time data to assist providers in making informed prescription decisions. We also delve into the challenges of prior authorization and the role of AI in enhancing healthcare efficiency. 

Harry and Kyle discuss healthcare technology&apos;s evolution and impact on medication access and cost transparency. They explore their platform&apos;s growth, collaboration with payers and PBMs, and AI&apos;s role in streamlining prior authorization. The conversation emphasizes improved medication access, potential service expansion beyond pharmaceuticals, and a patient-centric approach to healthcare access. Kyle closes the talk with insights on future innovations for healthcare innovators, which are always great from the inside out! 

For more information on Arrive Health and their work, visit: https://arrivehealth.com/  </itunes:summary>
      <itunes:subtitle>In this episode of The Harry Glorikian Show, Kyle Kiser discusses the origins and evolution of Arrive Health, a company focused on improving healthcare affordability and access through technology. 

We discuss the company&apos;s founding story, the significance of its rebranding, and how it leverages real-time data to assist providers in making informed prescription decisions. We also delve into the challenges of prior authorization and the role of AI in enhancing healthcare efficiency. 

Harry and Kyle discuss healthcare technology&apos;s evolution and impact on medication access and cost transparency. They explore their platform&apos;s growth, collaboration with payers and PBMs, and AI&apos;s role in streamlining prior authorization. The conversation emphasizes improved medication access, potential service expansion beyond pharmaceuticals, and a patient-centric approach to healthcare access. Kyle closes the talk with insights on future innovations for healthcare innovators, which are always great from the inside out! 

For more information on Arrive Health and their work, visit: https://arrivehealth.com/  </itunes:subtitle>
      <itunes:keywords>patient care, prescription costs, pharmacy collaboration, drug pricing, healthcare innovation, healthcare technology, the harry glorikian show, arrive health, payer collaboration, drug affordability, cost transparency, ai in healthcare, patient experience, healthcare, provider workflow, health insurance, medication access, prior authorization</itunes:keywords>
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      <title>Making better  real-time  clinical decisions with AI</title>
      <description><![CDATA[<p>🎙️ In this episode we discuss:</p><p>01:06 The founding story of Retina AI</p><p>03:56 Why ophthalmology is uniquely suited for AI solutions</p><p>06:27 Recent Series B funding and what it means for the company</p><p>08:31 How AI integrates into real-world clinical workflows</p><p>12:04 AI alerts and notifications for clinical decision support</p><p>16:36 Working with pharmaceutical companies on clinical trials</p><p>19:15 Predicting disease progression for untreated patients</p><p>25:42 The transition from traditional AI to newer approaches</p><p>29:28 Expanding beyond eye care with the Ikerian rebrand</p><p>32:06 Using the eye as a window to detect other diseases</p><p>37:44 How physicians have responded to AI diagnostic tools</p><p>41:09 Predictions for AI in healthcare and eye care by 2028</p>
]]></description>
      <pubDate>Thu, 1 May 2025 19:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>🎙️ In this episode we discuss:</p><p>01:06 The founding story of Retina AI</p><p>03:56 Why ophthalmology is uniquely suited for AI solutions</p><p>06:27 Recent Series B funding and what it means for the company</p><p>08:31 How AI integrates into real-world clinical workflows</p><p>12:04 AI alerts and notifications for clinical decision support</p><p>16:36 Working with pharmaceutical companies on clinical trials</p><p>19:15 Predicting disease progression for untreated patients</p><p>25:42 The transition from traditional AI to newer approaches</p><p>29:28 Expanding beyond eye care with the Ikerian rebrand</p><p>32:06 Using the eye as a window to detect other diseases</p><p>37:44 How physicians have responded to AI diagnostic tools</p><p>41:09 Predictions for AI in healthcare and eye care by 2028</p>
]]></content:encoded>
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      <itunes:title>Making better  real-time  clinical decisions with AI</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/5e0c2f4b-b0be-4989-9ba2-583a613ae1d4/0bcd3d89-df87-4dc1-83b3-88bfc2b571a6/3000x3000/copy-20of-20harry-20glorikian-20cover-20art-20template.jpg?aid=rss_feed"/>
      <itunes:duration>00:38:57</itunes:duration>
      <itunes:summary>This conversation with Carlos Ciller, founder of Retina AI (now under Ikerian), explores how AI is changing clinical decision-making in real time. Carlos discusses their platform that serves as a diagnostic copilot for physicians, identifying patterns in medical images and alerting doctors to important findings. He explains how their system integrates with clinical workflows, helping physicians make faster decisions while freeing up time for patient care.

We also talk about how Ikerian is expanding beyond eye care into detecting neurodegenerative diseases through retinal biomarkers and the growing field where eye scans can reveal systemic health conditions. Carlos shares insights on the challenges of implementing AI in healthcare and his vision for the future where scanning devices might allow patients to monitor multiple health conditions through simple, accessible tests.

</itunes:summary>
      <itunes:subtitle>This conversation with Carlos Ciller, founder of Retina AI (now under Ikerian), explores how AI is changing clinical decision-making in real time. Carlos discusses their platform that serves as a diagnostic copilot for physicians, identifying patterns in medical images and alerting doctors to important findings. He explains how their system integrates with clinical workflows, helping physicians make faster decisions while freeing up time for patient care.

We also talk about how Ikerian is expanding beyond eye care into detecting neurodegenerative diseases through retinal biomarkers and the growing field where eye scans can reveal systemic health conditions. Carlos shares insights on the challenges of implementing AI in healthcare and his vision for the future where scanning devices might allow patients to monitor multiple health conditions through simple, accessible tests.

</itunes:subtitle>
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      <title>Future of Ultrasound: Innovations Ahead</title>
      <description><![CDATA[<p>Chapters</p><p>00:00 Introduction and Company Updates</p><p>02:49 The Digital Transformation of Ultrasound Imaging</p><p>06:00 Advancements in Technology and Market Growth</p><p>09:03 AI Integration in Medical Imaging</p><p>14:50 Impact on Global Health and Humanitarian Efforts</p><p>20:55 Challenges in Mainstream Adoption of Handheld Ultrasound</p><p>29:43 Strategic Sales Approaches in Medical Devices</p><p>34:11 Finding Product-Market Fit</p><p>36:12 Simplicity in Medical Technology</p><p>39:26 Unexpected Use Cases and Market Adoption</p><p>45:24 Future Innovations in Handheld Ultrasound</p><p>51:58 The Importance of Patient Data Ownership</p><p> </p>
]]></description>
      <pubDate>Tue, 15 Apr 2025 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Chapters</p><p>00:00 Introduction and Company Updates</p><p>02:49 The Digital Transformation of Ultrasound Imaging</p><p>06:00 Advancements in Technology and Market Growth</p><p>09:03 AI Integration in Medical Imaging</p><p>14:50 Impact on Global Health and Humanitarian Efforts</p><p>20:55 Challenges in Mainstream Adoption of Handheld Ultrasound</p><p>29:43 Strategic Sales Approaches in Medical Devices</p><p>34:11 Finding Product-Market Fit</p><p>36:12 Simplicity in Medical Technology</p><p>39:26 Unexpected Use Cases and Market Adoption</p><p>45:24 Future Innovations in Handheld Ultrasound</p><p>51:58 The Importance of Patient Data Ownership</p><p> </p>
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      <itunes:title>Future of Ultrasound: Innovations Ahead</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:51:26</itunes:duration>
      <itunes:summary>In this conversation, Joe DeVivo discusses the significant advancements and transformations at Butterfly Network, focusing on the digital evolution of ultrasound imaging, the integration of AI technologies, and the company&apos;s mission to improve global health access. He shares insights on the challenges faced in mainstream adoption and highlights the impact of their devices in humanitarian efforts around the world. In this conversation, Joe DeVivo discusses innovative strategies in the medical device industry, particularly focusing on sales approaches, product-market fit, and the importance of simplicity in technology. He shares insights on how unexpected use cases for handheld ultrasound devices are emerging as doctors adopt them in various settings. DeVivo also explores future innovations in ultrasound technology and emphasizes the critical role of patient data ownership in transforming healthcare.</itunes:summary>
      <itunes:subtitle>In this conversation, Joe DeVivo discusses the significant advancements and transformations at Butterfly Network, focusing on the digital evolution of ultrasound imaging, the integration of AI technologies, and the company&apos;s mission to improve global health access. He shares insights on the challenges faced in mainstream adoption and highlights the impact of their devices in humanitarian efforts around the world. In this conversation, Joe DeVivo discusses innovative strategies in the medical device industry, particularly focusing on sales approaches, product-market fit, and the importance of simplicity in technology. He shares insights on how unexpected use cases for handheld ultrasound devices are emerging as doctors adopt them in various settings. DeVivo also explores future innovations in ultrasound technology and emphasizes the critical role of patient data ownership in transforming healthcare.</itunes:subtitle>
      <itunes:keywords>ultrasound, digital imaging, healthcare technology, market adoption, joe devivo, medical devices, ultrasound innovation, ai in healthcare, product-market fit, simplicity in design, handheld ultrasound, ai, accessibility, butterfly network, global health, patient data, innovation, sales strategy</itunes:keywords>
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      <itunes:episode>138</itunes:episode>
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      <title>Revolutionizing Cardiovascular Care with AI</title>
      <description><![CDATA[<p>00:00 Introduction and Overview of Caristo Diagnostics</p><p>09:08 The Technology Behind Carry Heart</p><p>18:00 Clinical Implications and Risk Assessment</p><p>27:27 Actionable Steps for Patients</p><p>30:34 Optimizing Cardiovascular Drug Dosing</p><p>32:31 AI in Cardiovascular Medicine</p><p>33:50 Leveraging Historical Data for Risk Prediction</p><p>36:25 AI's Role in Molecular Pathway Analysis</p><p>39:03 GLP-1 and Cardiovascular Outcomes</p><p>41:56 Targeted Therapies in Cardiovascular Treatment</p><p>42:45 Building Trust in New Technologies</p><p>49:16 Regulatory Approvals and Future Prospects</p><p>54:15 Expanding Applications Beyond Cardiology</p><p>57:16 Looking Ahead: The Future of Caristo Diagnostics</p><p> </p>
]]></description>
      <pubDate>Tue, 1 Apr 2025 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>00:00 Introduction and Overview of Caristo Diagnostics</p><p>09:08 The Technology Behind Carry Heart</p><p>18:00 Clinical Implications and Risk Assessment</p><p>27:27 Actionable Steps for Patients</p><p>30:34 Optimizing Cardiovascular Drug Dosing</p><p>32:31 AI in Cardiovascular Medicine</p><p>33:50 Leveraging Historical Data for Risk Prediction</p><p>36:25 AI's Role in Molecular Pathway Analysis</p><p>39:03 GLP-1 and Cardiovascular Outcomes</p><p>41:56 Targeted Therapies in Cardiovascular Treatment</p><p>42:45 Building Trust in New Technologies</p><p>49:16 Regulatory Approvals and Future Prospects</p><p>54:15 Expanding Applications Beyond Cardiology</p><p>57:16 Looking Ahead: The Future of Caristo Diagnostics</p><p> </p>
]]></content:encoded>
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      <itunes:title>Revolutionizing Cardiovascular Care with AI</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/c441d754-0b5d-4c63-b4c5-ca093c797726/a904b79e-5f4f-48ae-857a-8aa35131cea2/3000x3000/ep-20137-20cover-20art.jpg?aid=rss_feed"/>
      <itunes:duration>00:56:28</itunes:duration>
      <itunes:summary>In this episode, Keith Channon discusses the advancements in cardiac diagnostics through Caristo Diagnostics and their innovative product, Carry Heart. The conversation delves into the persistent issue of heart attacks, the limitations of current diagnostic methods, and how Carry Heart utilizes advanced imaging technology to assess inflammation in coronary arteries, providing a more accurate risk assessment for patients. The discussion also covers the clinical implications of this technology and actionable steps for patients to reduce their risk of cardiovascular events. In this conversation, Keith Channon discusses the evolving landscape of cardiovascular medicine, focusing on the optimization of drug dosing, the integration of AI in risk prediction, and the importance of targeted therapies. He highlights the potential of new technologies to enhance patient outcomes and the need for regulatory approval to facilitate wider clinical use. The discussion also touches on the significance of understanding inflammation in cardiovascular disease and the future applications of these advancements beyond cardiology.</itunes:summary>
      <itunes:subtitle>In this episode, Keith Channon discusses the advancements in cardiac diagnostics through Caristo Diagnostics and their innovative product, Carry Heart. The conversation delves into the persistent issue of heart attacks, the limitations of current diagnostic methods, and how Carry Heart utilizes advanced imaging technology to assess inflammation in coronary arteries, providing a more accurate risk assessment for patients. The discussion also covers the clinical implications of this technology and actionable steps for patients to reduce their risk of cardiovascular events. In this conversation, Keith Channon discusses the evolving landscape of cardiovascular medicine, focusing on the optimization of drug dosing, the integration of AI in risk prediction, and the importance of targeted therapies. He highlights the potential of new technologies to enhance patient outcomes and the need for regulatory approval to facilitate wider clinical use. The discussion also touches on the significance of understanding inflammation in cardiovascular disease and the future applications of these advancements beyond cardiology.</itunes:subtitle>
      <itunes:keywords>ai in medicine, patient care, ct scans, inflammation, risk prediction, regulatory approval, carry heart, healthcare technology, risk assessment, cardiology, heart attack, glp-1, healthcare technology, coronary artery disease, targeted therapies, cardiovascular health, caristo diagnostics, drug dosing</itunes:keywords>
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      <title>Al&apos;s Transformative Role in Pharma ConcertAl CEO Jeff Elton</title>
      <description><![CDATA[<p>In this episode of The Harry Glorikian Show, host Harry Glorikian welcomes back Jeff Elton, CEO of Concert AI, to discuss the latest advancements in AI-driven healthcare solutions. They reflect on the recent JP Morgan Healthcare Conference, highlighting the optimism surrounding AI's role in transforming drug development and oncology. Jeff shares insights into Concert AI's innovative data ecosystems, partnerships, and the introduction of Kera, an AI platform designed to enhance clinical decision-making. The conversation also explores the challenges and opportunities in the evolving landscape of healthcare technology, emphasizing the importance of collaboration and adaptability in the face of rapid change.<br /><br />Takeaways:</p><p>The JP Morgan Healthcare Conference indicated a positive outlook for the industry.</p><p>AI is becoming a central theme in healthcare discussions.</p><p>Concert AI is developing a comprehensive data ecosystem for oncology.</p><p>The introduction of agentic AI models is set to revolutionize data processing.</p><p>Collaboration with NVIDIA is enhancing Concert AI's capabilities.</p><p>Kera is a significant advancement in AI-driven healthcare solutions.</p><p>The future of drug development will rely heavily on AI and data analytics.</p><p>Healthcare organizations must adapt to the rapid pace of technological change.</p><p>Building partnerships is crucial for addressing healthcare fragmentation.</p><p>The integration of AI in clinical trials can significantly reduce timelines.</p><p>Chapters</p><p> </p><p>00:00 The Annual Healthcare Pilgrimage</p><p>03:19 Optimism in the Pharma Industry</p><p>06:07 The Rise of AI in Healthcare</p><p>10:03 Concert AI's Evolution and Innovations</p><p>15:10 2024: A Standout Year for Concert AI</p><p>18:55 Balancing Growth and Innovation</p><p>22:33 Scaling Across Therapeutic Areas</p><p>26:26 The Future of Collaborations in Healthcare</p><p>28:37 Integrating Immune Status and Data Collaboration</p><p>31:04 Introducing Kera AI: The Future of Data Management</p><p>35:24 Innovations in Clinical Trials and Data Solutions</p><p>40:16 Rethinking Drug Development: Digital Twins and AI</p><p>42:36 Navigating Market Shifts and Talent Challenges</p><p>54:02 The Future of Concert AI and Healthcare Solutions</p><p> </p><p> </p>
]]></description>
      <pubDate>Tue, 11 Feb 2025 13:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>In this episode of The Harry Glorikian Show, host Harry Glorikian welcomes back Jeff Elton, CEO of Concert AI, to discuss the latest advancements in AI-driven healthcare solutions. They reflect on the recent JP Morgan Healthcare Conference, highlighting the optimism surrounding AI's role in transforming drug development and oncology. Jeff shares insights into Concert AI's innovative data ecosystems, partnerships, and the introduction of Kera, an AI platform designed to enhance clinical decision-making. The conversation also explores the challenges and opportunities in the evolving landscape of healthcare technology, emphasizing the importance of collaboration and adaptability in the face of rapid change.<br /><br />Takeaways:</p><p>The JP Morgan Healthcare Conference indicated a positive outlook for the industry.</p><p>AI is becoming a central theme in healthcare discussions.</p><p>Concert AI is developing a comprehensive data ecosystem for oncology.</p><p>The introduction of agentic AI models is set to revolutionize data processing.</p><p>Collaboration with NVIDIA is enhancing Concert AI's capabilities.</p><p>Kera is a significant advancement in AI-driven healthcare solutions.</p><p>The future of drug development will rely heavily on AI and data analytics.</p><p>Healthcare organizations must adapt to the rapid pace of technological change.</p><p>Building partnerships is crucial for addressing healthcare fragmentation.</p><p>The integration of AI in clinical trials can significantly reduce timelines.</p><p>Chapters</p><p> </p><p>00:00 The Annual Healthcare Pilgrimage</p><p>03:19 Optimism in the Pharma Industry</p><p>06:07 The Rise of AI in Healthcare</p><p>10:03 Concert AI's Evolution and Innovations</p><p>15:10 2024: A Standout Year for Concert AI</p><p>18:55 Balancing Growth and Innovation</p><p>22:33 Scaling Across Therapeutic Areas</p><p>26:26 The Future of Collaborations in Healthcare</p><p>28:37 Integrating Immune Status and Data Collaboration</p><p>31:04 Introducing Kera AI: The Future of Data Management</p><p>35:24 Innovations in Clinical Trials and Data Solutions</p><p>40:16 Rethinking Drug Development: Digital Twins and AI</p><p>42:36 Navigating Market Shifts and Talent Challenges</p><p>54:02 The Future of Concert AI and Healthcare Solutions</p><p> </p><p> </p>
]]></content:encoded>
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      <itunes:title>Al&apos;s Transformative Role in Pharma ConcertAl CEO Jeff Elton</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/c441d754-0b5d-4c63-b4c5-ca093c797726/07528282-7c42-49a7-a908-9df1fef7a831/3000x3000/concert-20ai-20jeff-20elton-20feb-202025.jpg?aid=rss_feed"/>
      <itunes:duration>00:56:53</itunes:duration>
      <itunes:summary>In this episode of The Harry Glorikian Show, host Harry Glorikian welcomes back Jeff Elton, CEO of Concert AI, to discuss the latest advancements in AI-driven healthcare solutions. They reflect on the recent JP Morgan Healthcare Conference, highlighting the optimism surrounding AI&apos;s role in transforming drug development and oncology. Jeff shares insights into Concert AI&apos;s innovative data ecosystems, partnerships, and the introduction of Kera, an AI platform designed to enhance clinical decision-making. The conversation also explores the challenges and opportunities in the evolving landscape of healthcare technology, emphasizing the importance of collaboration and adaptability in the face of rapid change.</itunes:summary>
      <itunes:subtitle>In this episode of The Harry Glorikian Show, host Harry Glorikian welcomes back Jeff Elton, CEO of Concert AI, to discuss the latest advancements in AI-driven healthcare solutions. They reflect on the recent JP Morgan Healthcare Conference, highlighting the optimism surrounding AI&apos;s role in transforming drug development and oncology. Jeff shares insights into Concert AI&apos;s innovative data ecosystems, partnerships, and the introduction of Kera, an AI platform designed to enhance clinical decision-making. The conversation also explores the challenges and opportunities in the evolving landscape of healthcare technology, emphasizing the importance of collaboration and adaptability in the face of rapid change.</itunes:subtitle>
      <itunes:keywords>oncology, partnerships, concert ai, jp morgan healthcare conference, drug development, ai, healthcare, technology, innovation, generative ai</itunes:keywords>
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      <itunes:episode>136</itunes:episode>
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      <title>Raffi Krikorian Says &quot;We Don&apos;t Have Much Time Left&quot; to Rein in AI</title>
      <description><![CDATA[<p>Harry's guest this week is Raffi Krikorian, chief technology officer and managing director at Emerson Collective, the social change organization founded by Laurene Powell Jobs. Krikorian is the former vice president of engineering at Twitter (now X), where he was responsible for getting rid of the Fail Whale and making the company’s backend infrastructure more reliable; the former director of Uber's Advanced Technology Center in Pittsburgh, where he oversaw the launch of the world's first fleet of self-driving cars; and then the chief technology officer at the Democratic National Committee, where he helped rebuild the party's technology infrastructure after the Russian hacking debacle of 2016. At Emerson Collective, Krikorian built the technology organization, leads the development of data products, and works to upgrade the back offices of the non-profits Emerson works with. On top of all that, he recently launched a podcast called <i>Technically Optimistic</i>, where he’s taking a deep dive into the way AI is challenging us all to think differently about the future of work, education, policy, regulation, creativity, copyright, and many other areas. The show is a must-listen for anyone who cares about how we can build on AI to transform society for the better while minimizing the collateral damage. Harry talked with Krikorian about why he moved to Emerson Collective, why and how he started the podcast, and what he really thinks about what government should be doing to prepare for the waves of social change AI will bring.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></description>
      <pubDate>Tue, 9 Apr 2024 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Raffi Krikorian, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <media:thumbnail height="720" url="https://image.simplecastcdn.com/images/67227717-a4a6-457d-bc13-33adf27472ac/c804d557-231a-4544-851e-df8aa3bb8a09/youtube-thumbnail-ep135.jpg" width="1280"/>
      <content:encoded><![CDATA[<p>Harry's guest this week is Raffi Krikorian, chief technology officer and managing director at Emerson Collective, the social change organization founded by Laurene Powell Jobs. Krikorian is the former vice president of engineering at Twitter (now X), where he was responsible for getting rid of the Fail Whale and making the company’s backend infrastructure more reliable; the former director of Uber's Advanced Technology Center in Pittsburgh, where he oversaw the launch of the world's first fleet of self-driving cars; and then the chief technology officer at the Democratic National Committee, where he helped rebuild the party's technology infrastructure after the Russian hacking debacle of 2016. At Emerson Collective, Krikorian built the technology organization, leads the development of data products, and works to upgrade the back offices of the non-profits Emerson works with. On top of all that, he recently launched a podcast called <i>Technically Optimistic</i>, where he’s taking a deep dive into the way AI is challenging us all to think differently about the future of work, education, policy, regulation, creativity, copyright, and many other areas. The show is a must-listen for anyone who cares about how we can build on AI to transform society for the better while minimizing the collateral damage. Harry talked with Krikorian about why he moved to Emerson Collective, why and how he started the podcast, and what he really thinks about what government should be doing to prepare for the waves of social change AI will bring.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></content:encoded>
      <enclosure length="56736969" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4f0-f71b-4f07-a16c-af37f911285c/episodes/5557d35c-5012-450a-9d6b-d6e6f8ff801d/audio/66865302-0312-46be-85c0-190fa9020687/default_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Raffi Krikorian Says &quot;We Don&apos;t Have Much Time Left&quot; to Rein in AI</itunes:title>
      <itunes:author>Raffi Krikorian, Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/67227717-a4a6-457d-bc13-33adf27472ac/49c79293-434f-4538-996b-baae03440c25/3000x3000/episode-135.jpg?aid=rss_feed"/>
      <itunes:duration>00:59:05</itunes:duration>
      <itunes:summary>Harry&apos;s guest this week is Raffi Krikorian, chief technology officer and managing director at Emerson Collective, the social change organization founded by Laurene Powell Jobs. Krikorian is the former vice president of engineering at Twitter (now X), where he was responsible for getting rid of the Fail Whale and making the company’s backend infrastructure more reliable; the former director of Uber&apos;s Advanced Technology Center in Pittsburgh, where he oversaw the launch of the world&apos;s first fleet of self-driving cars; and then the chief technology officer at the Democratic National Committee, where he helped rebuild the party&apos;s technology infrastructure after the Russian hacking debacle of 2016. At Emerson Collective, Krikorian built the technology organization, leads the development of data products, and works to upgrade the back offices of the non-profits Emerson works with. On top of all that, he recently launched a podcast called Technically Optimistic, where he’s taking a deep dive into the way AI is challenging us all to think differently about the future of work, education, policy, regulation, creativity, copyright, and many other areas. The show is a must-listen for anyone who cares about how we can build on AI to transform society for the better while minimizing the collateral damage. Harry talked with Krikorian about why he moved to Emerson Collective, why and how he started the podcast, and what he really thinks about what government should be doing to prepare for the waves of social change AI will bring.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week is Raffi Krikorian, chief technology officer and managing director at Emerson Collective, the social change organization founded by Laurene Powell Jobs. Krikorian is the former vice president of engineering at Twitter (now X), where he was responsible for getting rid of the Fail Whale and making the company’s backend infrastructure more reliable; the former director of Uber&apos;s Advanced Technology Center in Pittsburgh, where he oversaw the launch of the world&apos;s first fleet of self-driving cars; and then the chief technology officer at the Democratic National Committee, where he helped rebuild the party&apos;s technology infrastructure after the Russian hacking debacle of 2016. At Emerson Collective, Krikorian built the technology organization, leads the development of data products, and works to upgrade the back offices of the non-profits Emerson works with. On top of all that, he recently launched a podcast called Technically Optimistic, where he’s taking a deep dive into the way AI is challenging us all to think differently about the future of work, education, policy, regulation, creativity, copyright, and many other areas. The show is a must-listen for anyone who cares about how we can build on AI to transform society for the better while minimizing the collateral damage. Harry talked with Krikorian about why he moved to Emerson Collective, why and how he started the podcast, and what he really thinks about what government should be doing to prepare for the waves of social change AI will bring.</itunes:subtitle>
      <itunes:keywords>podcasting, technically optimistic, emerson collective, raffi krikorian, the harry glorikian show, artificial intelligence, ai, harry glorikian, technology, podcasts, laurene powell jobs</itunes:keywords>
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      <title>How ActiveLoop Is Building the Back End for Generative AI</title>
      <description><![CDATA[<p>Generative AI is going to change how we do things across the entire economy, including the fields Harry covers on the show, namely healthcare delivery, drug discovery, and drug development. But we’re still just starting to figure out exactly <i>how</i> it’s going to change things. For example, AI is already speeding up the process of discovering new biological targets for drugs and designing molecules to hit those targets—but whether that will actually lead to better medicines, or create a new generation of AI-driven pharmaceutical companies, are still unanswered questions. </p><p>One thing that’s for sure is that generative AI isn’t magic. You can’t just  sprinkle it like pixie dust over an existing project or dataset and expect wonderful things to happen automatically. In fact, just to use the data you already have, you have to you may have to invest a lot in the new infrastructure and tools needed to train a generative model. And that’s the part of the puzzle Harry focuses on in today's interview with David Buniatyan. He’s the founder of a company called ActiveLoop, which is trying to address the need for infrastructure capable of handling large-scale data for AI applications. He has a background in neuroscience from Princeton University, where he was part of a team working on reconstructing neural connectivity in mouse brains using petabyte-scale imaging data. At ActiveLoop, David has led the development of Deep Lake, a database optimized for AI and deep learning models trained on equally large datasets.</p><p>Deep Lake manages data in a tensor-native format, allowing for faster iterations when training generative models. David says the company’s goal is to take over the boring stuff. That means removing the burden of data management from scientists and engineers, so they can focus on the bigger questions—like making sure their models are training on the right data—and ultimately innovate faster.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></description>
      <pubDate>Tue, 26 Mar 2024 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <media:thumbnail height="720" url="https://image.simplecastcdn.com/images/67227717-a4a6-457d-bc13-33adf27472ac/a50bbfa5-d2ef-4a27-a412-cb688ac5d6a8/youtube-thumbnail-ep134.jpg" width="1280"/>
      <content:encoded><![CDATA[<p>Generative AI is going to change how we do things across the entire economy, including the fields Harry covers on the show, namely healthcare delivery, drug discovery, and drug development. But we’re still just starting to figure out exactly <i>how</i> it’s going to change things. For example, AI is already speeding up the process of discovering new biological targets for drugs and designing molecules to hit those targets—but whether that will actually lead to better medicines, or create a new generation of AI-driven pharmaceutical companies, are still unanswered questions. </p><p>One thing that’s for sure is that generative AI isn’t magic. You can’t just  sprinkle it like pixie dust over an existing project or dataset and expect wonderful things to happen automatically. In fact, just to use the data you already have, you have to you may have to invest a lot in the new infrastructure and tools needed to train a generative model. And that’s the part of the puzzle Harry focuses on in today's interview with David Buniatyan. He’s the founder of a company called ActiveLoop, which is trying to address the need for infrastructure capable of handling large-scale data for AI applications. He has a background in neuroscience from Princeton University, where he was part of a team working on reconstructing neural connectivity in mouse brains using petabyte-scale imaging data. At ActiveLoop, David has led the development of Deep Lake, a database optimized for AI and deep learning models trained on equally large datasets.</p><p>Deep Lake manages data in a tensor-native format, allowing for faster iterations when training generative models. David says the company’s goal is to take over the boring stuff. That means removing the burden of data management from scientists and engineers, so they can focus on the bigger questions—like making sure their models are training on the right data—and ultimately innovate faster.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></content:encoded>
      <enclosure length="60217588" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4f0-f71b-4f07-a16c-af37f911285c/episodes/cecbb5f5-f624-42d1-aa5d-6c5f89030876/audio/5ea949d6-81b9-4b86-9929-af724d5985a8/default_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>How ActiveLoop Is Building the Back End for Generative AI</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/67227717-a4a6-457d-bc13-33adf27472ac/ad3171f2-1691-4c39-82b2-d35274755eab/3000x3000/episode-134.jpg?aid=rss_feed"/>
      <itunes:duration>01:02:42</itunes:duration>
      <itunes:summary>Generative AI isn’t magic. You can’t just  sprinkle it like pixie dust over an existing project or dataset and expect wonderful things to happen automatically. In fact, just to use the data you already have, you have to you may have to invest a lot in the new infrastructure and tools needed to train a generative model. And that’s the part of the puzzle Harry focuses on in today&apos;s interview with David Buniatyan. He’s the founder of a company called ActiveLoop, which is trying to address the need for infrastructure capable of handling large-scale data for AI applications. He has a background in neuroscience from Princeton University, where he was part of a team working on reconstructing neural connectivity in mouse brains using petabyte-scale imaging data. At ActiveLoop, David has led the development of Deep Lake, a database optimized for AI and deep learning models trained on equally large datasets. He says the company’s goal is to take over the boring stuff. That means removing the burden of data management from scientists and engineers, so they can focus on the bigger questions—like making sure their models are training on the right data—and ultimately innovate faster.</itunes:summary>
      <itunes:subtitle>Generative AI isn’t magic. You can’t just  sprinkle it like pixie dust over an existing project or dataset and expect wonderful things to happen automatically. In fact, just to use the data you already have, you have to you may have to invest a lot in the new infrastructure and tools needed to train a generative model. And that’s the part of the puzzle Harry focuses on in today&apos;s interview with David Buniatyan. He’s the founder of a company called ActiveLoop, which is trying to address the need for infrastructure capable of handling large-scale data for AI applications. He has a background in neuroscience from Princeton University, where he was part of a team working on reconstructing neural connectivity in mouse brains using petabyte-scale imaging data. At ActiveLoop, David has led the development of Deep Lake, a database optimized for AI and deep learning models trained on equally large datasets. He says the company’s goal is to take over the boring stuff. That means removing the burden of data management from scientists and engineers, so they can focus on the bigger questions—like making sure their models are training on the right data—and ultimately innovate faster.</itunes:subtitle>
      <itunes:keywords>data management, tensorflow, the harry glorikian show, activeloop, tensor, ai, harry glorikian, databases, david buniatyan, generative ai</itunes:keywords>
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      <title>How Caristo is Using AI to Reduce Heart Attack Risk</title>
      <description><![CDATA[<p>If you learned that radiologists looking at CT scans for the traditional signs of coronary artery disease catch only 20 percent of the people who actually have a high risk of a heart attack, and if you learned that there’s a new AI-based test that can catch subtle signs of inflammation in the other 80 percent of patients—well, you’d probably want to get that test yourself, right? Harry's guests this week, Frank Cheng and Keith Channon, are from a UK-based company that has developed just such a test. Cheng is the company's CEO, and Channon is co-founder and chief medical officer. And under their leadership, Caristo has introduced a test called CariHeart that applies machine learning to the data in a three-dimensional CT scan of the heart. It looks for otherwise invisible signs of inflammation in the fat tissue around the major coronary arteries, and then it predicts the chances that the patient will suffer a heart attack in the next eight years. Doctors can use that information to decide whether a patient needs to take a cholesterol-lowering drug like a statin or an anti-inflammatory drug like colchicine. </p><p>Caristo’s test is being used on an experimental basis in the UK, and it hasn’t yet been approved for use in the US. But it’s a leading example of the way AI, put together with fundamental advances in our understanding of human biology, is really beginning to change the practice of medicine. Cheng and Channon say Caristo’s test isn’t intended to put cardiologists or radiologists out of work—it’s designed to help them be more effective. And given that cardiovascular disease is the number one cause of death around the world, any technology that can help catch signs of coronary artery disease earlier could save a lot of lives.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></description>
      <pubDate>Tue, 12 Mar 2024 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Keith Channon, Frank Cheng)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>If you learned that radiologists looking at CT scans for the traditional signs of coronary artery disease catch only 20 percent of the people who actually have a high risk of a heart attack, and if you learned that there’s a new AI-based test that can catch subtle signs of inflammation in the other 80 percent of patients—well, you’d probably want to get that test yourself, right? Harry's guests this week, Frank Cheng and Keith Channon, are from a UK-based company that has developed just such a test. Cheng is the company's CEO, and Channon is co-founder and chief medical officer. And under their leadership, Caristo has introduced a test called CariHeart that applies machine learning to the data in a three-dimensional CT scan of the heart. It looks for otherwise invisible signs of inflammation in the fat tissue around the major coronary arteries, and then it predicts the chances that the patient will suffer a heart attack in the next eight years. Doctors can use that information to decide whether a patient needs to take a cholesterol-lowering drug like a statin or an anti-inflammatory drug like colchicine. </p><p>Caristo’s test is being used on an experimental basis in the UK, and it hasn’t yet been approved for use in the US. But it’s a leading example of the way AI, put together with fundamental advances in our understanding of human biology, is really beginning to change the practice of medicine. Cheng and Channon say Caristo’s test isn’t intended to put cardiologists or radiologists out of work—it’s designed to help them be more effective. And given that cardiovascular disease is the number one cause of death around the world, any technology that can help catch signs of coronary artery disease earlier could save a lot of lives.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></content:encoded>
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      <itunes:title>How Caristo is Using AI to Reduce Heart Attack Risk</itunes:title>
      <itunes:author>Harry Glorikian, Keith Channon, Frank Cheng</itunes:author>
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      <itunes:duration>01:04:20</itunes:duration>
      <itunes:summary>Harry&apos;s guests this week are Frank Cheng, CEO of UK-based Caristo Diagnostics, and Keith Channon, Caristo&apos;s co-founder and chief medical officer. Under their leadership, Caristo has introduced an AI-based test called CariHeart that applies machine learning to the data in a three-dimensional CT scan of the heart. It looks for signs of inflammation in the fat tissue around the major coronary arteries—a risk factor that&apos;s often overlooked because it isn&apos;t always accompanied by plaque or narrowing of the arteries. Doctors can use that information to decide whether a patient needs to take a cholesterol-lowering drug like a statin or an anti-inflammatory drug like colchicine. Caristo’s test is being used on an experimental basis in the UK, and it hasn’t yet been approved for use in the US. But it’s a leading example of the way AI, put together with fundamental advances in our understanding of human biology, is really beginning to change the practice of medicine.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guests this week are Frank Cheng, CEO of UK-based Caristo Diagnostics, and Keith Channon, Caristo&apos;s co-founder and chief medical officer. Under their leadership, Caristo has introduced an AI-based test called CariHeart that applies machine learning to the data in a three-dimensional CT scan of the heart. It looks for signs of inflammation in the fat tissue around the major coronary arteries—a risk factor that&apos;s often overlooked because it isn&apos;t always accompanied by plaque or narrowing of the arteries. Doctors can use that information to decide whether a patient needs to take a cholesterol-lowering drug like a statin or an anti-inflammatory drug like colchicine. Caristo’s test is being used on an experimental basis in the UK, and it hasn’t yet been approved for use in the US. But it’s a leading example of the way AI, put together with fundamental advances in our understanding of human biology, is really beginning to change the practice of medicine.</itunes:subtitle>
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      <title>Why Deep Origin Is Betting on Both Physics and AI for Drug Discovery</title>
      <description><![CDATA[<p>Investors and companies in the life science industry have been betting a lot of money over the last few years on a single idea: that computation will help us get a lot better at developing new drugs. But the word “computation” covers a pretty broad range of techniques. And the reason that there are dozens if not hundreds of computational drug discovery startups popping up is that everyone has their own hypothesis about what <i>specific kind</i> of computation is going to be the most powerful.</p><p>For example, you might be convinced that the most important thing is to understand the physics of protein-protein interactions, at an atomic level. And so you would put your money into atomic-scale simulations that show how proteins fold or unfold to form different shapes under different conditions. Or you might think that it’s more important to model proteins at the molecular scale, to make predictions about whether and how a particular drug molecule might dock with a target protein. Or you might think that it’s smarter to try to model whole cells and see how different molecular pathways interact to affect different functions of the cell. Or you might not care about the details of physics- or chemistry-based models at all. In that case could just take a big generative AI model, similar to a large language model, and train it on huge amounts of unlabeled data about genes and proteins in diseases cells and healthy cells to see what kinds of predictions it comes up with.</p><p>It’s too early to say which of these computational approaches—and which level or scale of focus—is going to be the most fruitful. But maybe you don’t have to choose. Maybe you can bet on all of these different ideas, all at once. Harry's guests this week are the CEO and CSO of a startup that’s taking an all-of-the-above approach. It’s called Deep Origin, and it was formed last year from the merger of two companies founded by theoretical chemist Garegin Papoian and software builder Michael Antonov. </p><p>Antonov helped to found the virtual reality hardware company Oculus. After Facebook acquired Oculus, he got curious about longevity and how software could help untangle the trillions of gene-protein interactions that mediate health and disease. He founded a company called Formic Labs to dig into that problem, and last year the company changed its name to Deep Origin. Papoian, meanwhile, is a former academic scientist who’s who also took the helm as CEO of his startup AI and who’s interested in how to use software to model molecular dynamics and quantum chemistry. </p><p>Recently Antonov and Papoian decided to join forces, and Biosim AI merged into Deep Origin. They say the company’s philosophy is that physics-based modeling by itself won’t be enough to build a powerful drug discovery engine. But neither will generative AI, which requires more training data than lab scientists will ever be able to provide. They think the only reasonable approach today is to combine the two, and use both physics <i>and</i> AI to try to get better at predicting which molecules could become effective drugs.</p><p>Exactly how Antonov and Papoian came to their conclusion, and how that integration is playing out, was the main theme of this week's conversation. It’s important stuff, because if Deep Origin is right, then a lot of other more specialized biotech and techbio startups could be going down the wrong path. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></description>
      <pubDate>Tue, 27 Feb 2024 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Garegin Paporian, Michael Antonov)</author>
      <link>http://www.glorikian.com</link>
      <media:thumbnail height="720" url="https://image.simplecastcdn.com/images/67227717-a4a6-457d-bc13-33adf27472ac/916af425-17e9-4565-95ca-d7110a6254a1/youtube-thumbnail-ep132-large.jpg" width="1280"/>
      <content:encoded><![CDATA[<p>Investors and companies in the life science industry have been betting a lot of money over the last few years on a single idea: that computation will help us get a lot better at developing new drugs. But the word “computation” covers a pretty broad range of techniques. And the reason that there are dozens if not hundreds of computational drug discovery startups popping up is that everyone has their own hypothesis about what <i>specific kind</i> of computation is going to be the most powerful.</p><p>For example, you might be convinced that the most important thing is to understand the physics of protein-protein interactions, at an atomic level. And so you would put your money into atomic-scale simulations that show how proteins fold or unfold to form different shapes under different conditions. Or you might think that it’s more important to model proteins at the molecular scale, to make predictions about whether and how a particular drug molecule might dock with a target protein. Or you might think that it’s smarter to try to model whole cells and see how different molecular pathways interact to affect different functions of the cell. Or you might not care about the details of physics- or chemistry-based models at all. In that case could just take a big generative AI model, similar to a large language model, and train it on huge amounts of unlabeled data about genes and proteins in diseases cells and healthy cells to see what kinds of predictions it comes up with.</p><p>It’s too early to say which of these computational approaches—and which level or scale of focus—is going to be the most fruitful. But maybe you don’t have to choose. Maybe you can bet on all of these different ideas, all at once. Harry's guests this week are the CEO and CSO of a startup that’s taking an all-of-the-above approach. It’s called Deep Origin, and it was formed last year from the merger of two companies founded by theoretical chemist Garegin Papoian and software builder Michael Antonov. </p><p>Antonov helped to found the virtual reality hardware company Oculus. After Facebook acquired Oculus, he got curious about longevity and how software could help untangle the trillions of gene-protein interactions that mediate health and disease. He founded a company called Formic Labs to dig into that problem, and last year the company changed its name to Deep Origin. Papoian, meanwhile, is a former academic scientist who’s who also took the helm as CEO of his startup AI and who’s interested in how to use software to model molecular dynamics and quantum chemistry. </p><p>Recently Antonov and Papoian decided to join forces, and Biosim AI merged into Deep Origin. They say the company’s philosophy is that physics-based modeling by itself won’t be enough to build a powerful drug discovery engine. But neither will generative AI, which requires more training data than lab scientists will ever be able to provide. They think the only reasonable approach today is to combine the two, and use both physics <i>and</i> AI to try to get better at predicting which molecules could become effective drugs.</p><p>Exactly how Antonov and Papoian came to their conclusion, and how that integration is playing out, was the main theme of this week's conversation. It’s important stuff, because if Deep Origin is right, then a lot of other more specialized biotech and techbio startups could be going down the wrong path. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></content:encoded>
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      <itunes:title>Why Deep Origin Is Betting on Both Physics and AI for Drug Discovery</itunes:title>
      <itunes:author>Harry Glorikian, Garegin Paporian, Michael Antonov</itunes:author>
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      <itunes:duration>00:51:17</itunes:duration>
      <itunes:summary>If you believe that computation will help companies get better at developing new drugs, then what specific kind of computation and software should you invest in? Quantum chemistry simulations? Molecular dynamics simulations? Generative AI models? Harry&apos;s guests this week, Garegin Papaoian and Michael Antonov, lead a company called Deep Origin that&apos;s taking an all-of-the-above approach. The company’s philosophy is that physics-based modeling by itself won’t be enough to build a powerful drug discovery engine. But neither will generative AI, which requires more training data than lab scientists will ever be able to provide. They think the only reasonable approach today is to combine the two, and use both physics and AI to try to get better at predicting which molecules could become effective drugs. It’s important stuff, because if Deep Origin is right, then a lot of other more specialized biotech and techbio startups could be going down the wrong path. </itunes:summary>
      <itunes:subtitle>If you believe that computation will help companies get better at developing new drugs, then what specific kind of computation and software should you invest in? Quantum chemistry simulations? Molecular dynamics simulations? Generative AI models? Harry&apos;s guests this week, Garegin Papaoian and Michael Antonov, lead a company called Deep Origin that&apos;s taking an all-of-the-above approach. The company’s philosophy is that physics-based modeling by itself won’t be enough to build a powerful drug discovery engine. But neither will generative AI, which requires more training data than lab scientists will ever be able to provide. They think the only reasonable approach today is to combine the two, and use both physics and AI to try to get better at predicting which molecules could become effective drugs. It’s important stuff, because if Deep Origin is right, then a lot of other more specialized biotech and techbio startups could be going down the wrong path. </itunes:subtitle>
      <itunes:keywords>drug discovery, biosim ai, deep origin, the harry glorikian show, drug development, ai, molecular dynamics, harry glorikian, generative ai, quantum chemistry</itunes:keywords>
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      <title>How ConcertAI Came to Lead in Cancer Data</title>
      <description><![CDATA[<p>If you look back at all the health-tech and drug development companies Harry has hosted on the show, an interesting pattern starts to emerge: a very large number of those companies have gone on to enormous growth and success in their markets. It could be that being on the podcast is like a catapult to success—or it could be that we're pretty good at finding companies that are already on a promising trajectory. Either way, there's no better example than Concert AI. </p><p>The company’s CEO, Jeff Elton, first spoke with Harry back in July of 2021. At that time, the company was already one of the leaders in gathering and analyzing broad collections of data about cancer patients involved in clinical trials for new treatments. Its specialty was, and is, going beyond the very specific endpoints measured in clinical trials and looking to electronic medical records, genome sequencing data, insurance claims data, and other sources in order to build a more comprehensive picture of cancer patients and their journeys through the healthcare system. That kind of data can be very useful to companies trying to track the performance of their drugs after they’ve reached the market, and to researchers planning new clinical trials. </p><p>And since that first conversation, the company has grown by leaps and bounds. It’s taken over management of more data sources, including the massive CancerLinq database formerly maintained by the American Society of Clinical Oncology. It’s struck up partnerships with some of the leading technology startups, research centers, and drug companies working to beat cancer. And it’s leaning hard into the new wave of deep-learning AI tools and their potential to help find patterns in vast amounts of data about patients. It’s probably safe to say that ConcertAI has gathered up more data about cancer patients than any other company on the planet. And investors have been rushing to pour money into the company, on the conviction that data is going to be the key to getting more and better cancer drugs to market. That’s certainly Jeff Elton's conviction too, as you’ll hear in today's interview.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></description>
      <pubDate>Tue, 30 Jan 2024 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
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      <content:encoded><![CDATA[<p>If you look back at all the health-tech and drug development companies Harry has hosted on the show, an interesting pattern starts to emerge: a very large number of those companies have gone on to enormous growth and success in their markets. It could be that being on the podcast is like a catapult to success—or it could be that we're pretty good at finding companies that are already on a promising trajectory. Either way, there's no better example than Concert AI. </p><p>The company’s CEO, Jeff Elton, first spoke with Harry back in July of 2021. At that time, the company was already one of the leaders in gathering and analyzing broad collections of data about cancer patients involved in clinical trials for new treatments. Its specialty was, and is, going beyond the very specific endpoints measured in clinical trials and looking to electronic medical records, genome sequencing data, insurance claims data, and other sources in order to build a more comprehensive picture of cancer patients and their journeys through the healthcare system. That kind of data can be very useful to companies trying to track the performance of their drugs after they’ve reached the market, and to researchers planning new clinical trials. </p><p>And since that first conversation, the company has grown by leaps and bounds. It’s taken over management of more data sources, including the massive CancerLinq database formerly maintained by the American Society of Clinical Oncology. It’s struck up partnerships with some of the leading technology startups, research centers, and drug companies working to beat cancer. And it’s leaning hard into the new wave of deep-learning AI tools and their potential to help find patterns in vast amounts of data about patients. It’s probably safe to say that ConcertAI has gathered up more data about cancer patients than any other company on the planet. And investors have been rushing to pour money into the company, on the conviction that data is going to be the key to getting more and better cancer drugs to market. That’s certainly Jeff Elton's conviction too, as you’ll hear in today's interview.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></content:encoded>
      <enclosure length="57631198" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4f0-f71b-4f07-a16c-af37f911285c/episodes/278ee953-c343-4b31-9d65-611fa7edc593/audio/e52b745e-f871-4992-8598-6320c00652c1/default_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>How ConcertAI Came to Lead in Cancer Data</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>01:00:01</itunes:duration>
      <itunes:summary>If you look back at all the health-tech and drug development companies Harry has hosted on the show, an interesting pattern starts to emerge: a very large number of those companies have gone on to enormous growth and success in their markets. It could be that being on the podcast is like a catapult to success—or it could be that we&apos;re pretty good at finding companies that are already on a promising trajectory. Either way, there&apos;s no better example than Concert AI. The company’s CEO, Jeff Elton, first spoke with Harry back in July of 2021. At that time, the company was already one of the leaders in gathering and analyzing broad collections of data about cancer patients involved in clinical trials for new treatments. Its specialty was, and is, going beyond the very specific endpoints measured in clinical trials and looking to electronic medical records, genome sequencing data, insurance claims data, and other sources in order to build a more comprehensive picture of cancer patients and their journeys through the healthcare system. That kind of data can be very useful to companies trying to track the performance of their drugs after they’ve reached the market, and to researchers planning new clinical trials. And since that first conversation, the company has grown by leaps and bounds. It’s taken over management of more data sources, including the massive CancerLinq database formerly maintained by the American Society of Clinical Oncology. It’s struck up partnerships with some of the leading technology startups, research centers, and drug companies working to beat cancer. And it’s leaning hard into the new wave of deep-learning AI tools and their potential to help find patterns in vast amounts of data about patients. It’s probably safe to say that ConcertAI has gathered up more data about cancer patients than any other company on the planet. And investors have been rushing to pour money into the company, on the conviction that data is going to be the key to getting more and better cancer drugs to market. That’s certainly Jeff Elton&apos;s conviction too, as you’ll hear in today&apos;s interview.</itunes:summary>
      <itunes:subtitle>If you look back at all the health-tech and drug development companies Harry has hosted on the show, an interesting pattern starts to emerge: a very large number of those companies have gone on to enormous growth and success in their markets. It could be that being on the podcast is like a catapult to success—or it could be that we&apos;re pretty good at finding companies that are already on a promising trajectory. Either way, there&apos;s no better example than Concert AI. The company’s CEO, Jeff Elton, first spoke with Harry back in July of 2021. At that time, the company was already one of the leaders in gathering and analyzing broad collections of data about cancer patients involved in clinical trials for new treatments. Its specialty was, and is, going beyond the very specific endpoints measured in clinical trials and looking to electronic medical records, genome sequencing data, insurance claims data, and other sources in order to build a more comprehensive picture of cancer patients and their journeys through the healthcare system. That kind of data can be very useful to companies trying to track the performance of their drugs after they’ve reached the market, and to researchers planning new clinical trials. And since that first conversation, the company has grown by leaps and bounds. It’s taken over management of more data sources, including the massive CancerLinq database formerly maintained by the American Society of Clinical Oncology. It’s struck up partnerships with some of the leading technology startups, research centers, and drug companies working to beat cancer. And it’s leaning hard into the new wave of deep-learning AI tools and their potential to help find patterns in vast amounts of data about patients. It’s probably safe to say that ConcertAI has gathered up more data about cancer patients than any other company on the planet. And investors have been rushing to pour money into the company, on the conviction that data is going to be the key to getting more and better cancer drugs to market. That’s certainly Jeff Elton&apos;s conviction too, as you’ll hear in today&apos;s interview.</itunes:subtitle>
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      <title>T Cell Engagers: The New Cancer Drug?</title>
      <description><![CDATA[<p>One of the most amazing successes in the battle against cancer over the last two decades has been the introduction of antibody drugs that harness the body’s own immune system to kill tumor cells. Finding those drugs may sound like a biology problem rather than a machine learning or a big-data problem. But actually, these days, it’s both. Harry's guest this week is Leonard Wossnig, who’s the chief technology officer for a UK company called LabGenius. The company uses a combination of synthetic biology, high-throughput assays, and machine learning to hunt for new drugs within a subclass of antibody medicines called T cell engagers that, loosely speaking, can grab tumor cells with one end and then grab tumor-killing T cells from the bloodstream with the other end. And Wossnig says the key to the whole thing is having the best data possible—meaning, data about their candidate T cell engagers and <i>how</i> <i>specifically</i> they bind to their targets in the lab assays. LabGenius has built an automated platform called EVA that runs experiment after experiment and uses active learning to zero in on T cell engagers with just the right ability to bind to their intended targets. One of the big takeaways from the interview is that companies that want to use AI to speed up drug discovery need the biggest, cleanest, and most consistent data sets possible.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></description>
      <pubDate>Tue, 16 Jan 2024 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Leonard Wossnig, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <media:thumbnail height="720" url="https://image.simplecastcdn.com/images/67227717-a4a6-457d-bc13-33adf27472ac/a29db6a0-3ec6-41a3-afbb-913e5cbc45bf/youtube-thumbnail-ep130.jpg" width="1280"/>
      <content:encoded><![CDATA[<p>One of the most amazing successes in the battle against cancer over the last two decades has been the introduction of antibody drugs that harness the body’s own immune system to kill tumor cells. Finding those drugs may sound like a biology problem rather than a machine learning or a big-data problem. But actually, these days, it’s both. Harry's guest this week is Leonard Wossnig, who’s the chief technology officer for a UK company called LabGenius. The company uses a combination of synthetic biology, high-throughput assays, and machine learning to hunt for new drugs within a subclass of antibody medicines called T cell engagers that, loosely speaking, can grab tumor cells with one end and then grab tumor-killing T cells from the bloodstream with the other end. And Wossnig says the key to the whole thing is having the best data possible—meaning, data about their candidate T cell engagers and <i>how</i> <i>specifically</i> they bind to their targets in the lab assays. LabGenius has built an automated platform called EVA that runs experiment after experiment and uses active learning to zero in on T cell engagers with just the right ability to bind to their intended targets. One of the big takeaways from the interview is that companies that want to use AI to speed up drug discovery need the biggest, cleanest, and most consistent data sets possible.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts or Spotify! </strong></p><p>Here's how to do that on Apple Podcasts:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>On Spotify, the process is similar. Open the Spotify app, navigate to The Harry Glorikian Show, tap the three dots, then tap "Rate Show." Thanks!</p>
]]></content:encoded>
      <enclosure length="36911057" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4f0-f71b-4f07-a16c-af37f911285c/episodes/cf4b731b-2de7-48f3-8cb6-ff4531c92904/audio/8f19def4-9815-4981-9eb5-e9e7925040d1/default_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>T Cell Engagers: The New Cancer Drug?</itunes:title>
      <itunes:author>Leonard Wossnig, Harry Glorikian</itunes:author>
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      <itunes:duration>00:38:26</itunes:duration>
      <itunes:summary>One of the most amazing successes in the battle against cancer over the last two decades has been the introduction of antibody drugs that harness the body’s own immune system to kill tumor cells. Finding those drugs may sound like a biology problem rather than a machine learning or a big-data problem. But actually, these days, it’s both. Harry&apos;s guest this week is Leonard Wossnig, who’s the chief technology officer for a UK company called LabGenius. The company uses a combination of synthetic biology, high-throughput assays, and machine learning to hunt for new drugs within a subclass of antibody medicines called T cell engagers that, loosely speaking, can grab tumor cells with one end and then grab tumor-killing T cells from the bloodstream with the other end. And Wossnig says the key to the whole thing is having the best data possible—meaning, data about their candidate T cell engagers and how specifically they bind to their targets in the lab assays. LabGenius has built an automated platform called EVA that runs experiment after experiment and uses active learning to zero in on T cell engagers with just the right ability to bind to their intended targets. One of the big takeaways from the interview is that companies that want to use AI to speed up drug discovery need the biggest, cleanest, and most consistent data sets possible.</itunes:summary>
      <itunes:subtitle>One of the most amazing successes in the battle against cancer over the last two decades has been the introduction of antibody drugs that harness the body’s own immune system to kill tumor cells. Finding those drugs may sound like a biology problem rather than a machine learning or a big-data problem. But actually, these days, it’s both. Harry&apos;s guest this week is Leonard Wossnig, who’s the chief technology officer for a UK company called LabGenius. The company uses a combination of synthetic biology, high-throughput assays, and machine learning to hunt for new drugs within a subclass of antibody medicines called T cell engagers that, loosely speaking, can grab tumor cells with one end and then grab tumor-killing T cells from the bloodstream with the other end. And Wossnig says the key to the whole thing is having the best data possible—meaning, data about their candidate T cell engagers and how specifically they bind to their targets in the lab assays. LabGenius has built an automated platform called EVA that runs experiment after experiment and uses active learning to zero in on T cell engagers with just the right ability to bind to their intended targets. One of the big takeaways from the interview is that companies that want to use AI to speed up drug discovery need the biggest, cleanest, and most consistent data sets possible.</itunes:subtitle>
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      <title>How Pangea Is Using AI to Find New CNS Drugs in Nature</title>
      <description><![CDATA[<p>The combination of better data and more powerful computing is helping researchers reinvent the process of discovering new drugs. Within 5-10 years, we’ll likely see a huge wave of new medicines that were either discovered or designed using AI—drugs that will finally help us get control of our most stubborn health problems, from cancer to cardiovascular disease to obesity and metabolic disorders to neurodegenerative diseases. And the biotech startups that will do most to contribute are the ones that have both proprietary data, and original ways to use AI to sift through that data. Harry's guests this week are from a startup called Pangea Bio that’s working hard on both. As Pangea's co-founder and COO, John Boghossian, and its president of AI, Sona Chandra, explain, the company specializes in gathering data from the natural world, especially data about compounds manufactured inside the cells of plants and fungi. They narrow down the possibilities by working with indigenous cultures to find the plants or mushrooms that people have already been using for centuries in traditional medicine. They've also built three separate computational platforms that filter through all that data, to single out the small molecules that have the biggest effects in the human body, especially the central nervous system. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p>
]]></description>
      <pubDate>Tue, 19 Dec 2023 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, John Boghassian, Sona Chandra)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>The combination of better data and more powerful computing is helping researchers reinvent the process of discovering new drugs. Within 5-10 years, we’ll likely see a huge wave of new medicines that were either discovered or designed using AI—drugs that will finally help us get control of our most stubborn health problems, from cancer to cardiovascular disease to obesity and metabolic disorders to neurodegenerative diseases. And the biotech startups that will do most to contribute are the ones that have both proprietary data, and original ways to use AI to sift through that data. Harry's guests this week are from a startup called Pangea Bio that’s working hard on both. As Pangea's co-founder and COO, John Boghossian, and its president of AI, Sona Chandra, explain, the company specializes in gathering data from the natural world, especially data about compounds manufactured inside the cells of plants and fungi. They narrow down the possibilities by working with indigenous cultures to find the plants or mushrooms that people have already been using for centuries in traditional medicine. They've also built three separate computational platforms that filter through all that data, to single out the small molecules that have the biggest effects in the human body, especially the central nervous system. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p>
]]></content:encoded>
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      <itunes:title>How Pangea Is Using AI to Find New CNS Drugs in Nature</itunes:title>
      <itunes:author>Harry Glorikian, John Boghassian, Sona Chandra</itunes:author>
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      <itunes:summary>The combination of better data and more powerful computing is helping researchers reinvent the process of discovering new drugs. Within 5-10 years, we’ll likely see a huge wave of new medicines that were either discovered or designed using AI—drugs that will finally help us get control of our most stubborn health problems, from cancer to cardiovascular disease to obesity and metabolic disorders to neurodegenerative diseases. And the biotech startups that will do most to contribute are the ones that have both proprietary data, and original ways to use AI to sift through that data. Harry&apos;s guests this week are from a startup called Pangea Bio that’s working hard on both. As Pangea&apos;s co-founder and COO, John Boghossian, and its president of AI, Sona Chandra, explain, the company specializes in gathering data from the natural world, especially data about compounds manufactured inside the cells of plants and fungi. They narrow down the possibilities by working with indigenous cultures to find the plants or mushrooms that people have already been using for centuries in traditional medicine. They&apos;ve also built three separate computational platforms that filter through all that data, to single out the small molecules that have the biggest effects in the human body, especially the central nervous system. </itunes:summary>
      <itunes:subtitle>The combination of better data and more powerful computing is helping researchers reinvent the process of discovering new drugs. Within 5-10 years, we’ll likely see a huge wave of new medicines that were either discovered or designed using AI—drugs that will finally help us get control of our most stubborn health problems, from cancer to cardiovascular disease to obesity and metabolic disorders to neurodegenerative diseases. And the biotech startups that will do most to contribute are the ones that have both proprietary data, and original ways to use AI to sift through that data. Harry&apos;s guests this week are from a startup called Pangea Bio that’s working hard on both. As Pangea&apos;s co-founder and COO, John Boghossian, and its president of AI, Sona Chandra, explain, the company specializes in gathering data from the natural world, especially data about compounds manufactured inside the cells of plants and fungi. They narrow down the possibilities by working with indigenous cultures to find the plants or mushrooms that people have already been using for centuries in traditional medicine. They&apos;ve also built three separate computational platforms that filter through all that data, to single out the small molecules that have the biggest effects in the human body, especially the central nervous system. </itunes:subtitle>
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      <title>AI and Microbiomes 101 with Jona</title>
      <description><![CDATA[<p>There are about 30 trillion human cells in your body, but there are about <i>38 trillion </i>bacterial cells, mostly hanging out in your large intestine. And that’s not even counting all the viruses, fungi, protists, and other microbial cells that live on your skin, in your bloodstream, and all around your body. So in effect, what you think of as you is not really you. You’re actually a walking colony of many different organisms. All of which cooperate peacefully, for the most part—unless the balance goes awry, and then you can get very sick, very fast.</p><p>The microbiome has been getting more and more attention from researchers and doctors now that we’re starting to have the tools we need to identify and measure all those microbes and see what they’re up to. Harry's guest this week is serial healthcare and AI entrepreneur Leo Grady, whose company Jona is on a mission is to help patients and physicians keep up with the skyrocketing amount of scientific literature about the microbiome and try to translate it into real steps people can take to improve their health.</p><p>If you’re a Jona customer, you start by sending in a fecal sample. Then the company uses a large-scale gene sequencing technique called shotgun metagenomics to get a profile of all the microbes in your GI tract. Since everyone’s microbiome contains a different mix of microbes, the next step is to use large language models to sift through the published science about the microbiome and find the studies that relate to the specific bugs in your microbiome. Then the company gives patients and their doctors a report that parses out whether their microbiome makeup might be contributing to their health problems, and whether there might be any health or nutritional interventions that would help. It’s all in the early stages. And right now Jona’s test is mostly available through concierge medical services, executive health clinics, and other offices that do a lot of cash-pay tests. But Grady thinks that over the long term the service has the potential to turn the microbiome from a former black box into something closer to what he calls an “organ of data"—meaning a part of the body that doctors can, in a sense, visualize and analyze in the same way we can use MRI and other forms of imaging to scan our other organs.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p>
]]></description>
      <pubDate>Tue, 5 Dec 2023 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Leo Grady)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>There are about 30 trillion human cells in your body, but there are about <i>38 trillion </i>bacterial cells, mostly hanging out in your large intestine. And that’s not even counting all the viruses, fungi, protists, and other microbial cells that live on your skin, in your bloodstream, and all around your body. So in effect, what you think of as you is not really you. You’re actually a walking colony of many different organisms. All of which cooperate peacefully, for the most part—unless the balance goes awry, and then you can get very sick, very fast.</p><p>The microbiome has been getting more and more attention from researchers and doctors now that we’re starting to have the tools we need to identify and measure all those microbes and see what they’re up to. Harry's guest this week is serial healthcare and AI entrepreneur Leo Grady, whose company Jona is on a mission is to help patients and physicians keep up with the skyrocketing amount of scientific literature about the microbiome and try to translate it into real steps people can take to improve their health.</p><p>If you’re a Jona customer, you start by sending in a fecal sample. Then the company uses a large-scale gene sequencing technique called shotgun metagenomics to get a profile of all the microbes in your GI tract. Since everyone’s microbiome contains a different mix of microbes, the next step is to use large language models to sift through the published science about the microbiome and find the studies that relate to the specific bugs in your microbiome. Then the company gives patients and their doctors a report that parses out whether their microbiome makeup might be contributing to their health problems, and whether there might be any health or nutritional interventions that would help. It’s all in the early stages. And right now Jona’s test is mostly available through concierge medical services, executive health clinics, and other offices that do a lot of cash-pay tests. But Grady thinks that over the long term the service has the potential to turn the microbiome from a former black box into something closer to what he calls an “organ of data"—meaning a part of the body that doctors can, in a sense, visualize and analyze in the same way we can use MRI and other forms of imaging to scan our other organs.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p>
]]></content:encoded>
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      <itunes:title>AI and Microbiomes 101 with Jona</itunes:title>
      <itunes:author>Harry Glorikian, Leo Grady</itunes:author>
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      <itunes:summary>The microbiome has been getting more and more attention from researchers and doctors now that we’re starting to have the tools we need to identify and measure all those microbes and see what they’re up to. Harry&apos;s guest this week is serial healthcare and AI entrepreneur Leo Grady, whose company Jona is on a mission is to help patients and physicians keep up with the skyrocketing amount of scientific literature about the microbiome and try to translate it into real steps people can take to improve their health. If you’re a Jona customer, you start by sending in a fecal sample. Then the company uses a large-scale gene sequencing technique called shotgun metagenomics to get a profile of all the microbes in your GI tract. Since everyone’s microbiome contains a different mix of microbes, the next step is to use large language models to sift through the published science about the microbiome and find the studies that relate to the specific bugs in your microbiome. Then the company gives patients and their doctors a report that parses out whether their microbiome makeup might be contributing to their health problems, and whether there might be any health or nutritional interventions that would help. It’s all in the early stages. And right now Jona’s test is mostly available through concierge medical services, executive health clinics, and other offices that do a lot of cash-pay tests. But Grady thinks that over the long term the service has the potential to turn the microbiome from a former black box into something closer to what he calls an “organ of data”—meaning, a part of the body that doctors can, in a sense, visualize and analyze in the same way we can use MRI and other forms of imaging to scan our other organs.</itunes:summary>
      <itunes:subtitle>The microbiome has been getting more and more attention from researchers and doctors now that we’re starting to have the tools we need to identify and measure all those microbes and see what they’re up to. Harry&apos;s guest this week is serial healthcare and AI entrepreneur Leo Grady, whose company Jona is on a mission is to help patients and physicians keep up with the skyrocketing amount of scientific literature about the microbiome and try to translate it into real steps people can take to improve their health. If you’re a Jona customer, you start by sending in a fecal sample. Then the company uses a large-scale gene sequencing technique called shotgun metagenomics to get a profile of all the microbes in your GI tract. Since everyone’s microbiome contains a different mix of microbes, the next step is to use large language models to sift through the published science about the microbiome and find the studies that relate to the specific bugs in your microbiome. Then the company gives patients and their doctors a report that parses out whether their microbiome makeup might be contributing to their health problems, and whether there might be any health or nutritional interventions that would help. It’s all in the early stages. And right now Jona’s test is mostly available through concierge medical services, executive health clinics, and other offices that do a lot of cash-pay tests. But Grady thinks that over the long term the service has the potential to turn the microbiome from a former black box into something closer to what he calls an “organ of data”—meaning, a part of the body that doctors can, in a sense, visualize and analyze in the same way we can use MRI and other forms of imaging to scan our other organs.</itunes:subtitle>
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      <title>Modicus Prime Safeguards Drug Manufacturing</title>
      <description><![CDATA[<p>Quality control is one of those things that only a select few people pay attention to—until something goes wrong, then everyone cares. That's especially true in the drug manufacturing industry, where episodes like cross-contamination in a drug factory can shut down a production line and create instant shortages of important medicines. And if a contaminated medicines ever does get shipped out to clinics or stores, people’s lives can be at stake. So drug makers are usually pretty receptive toward any new technology that can help them detect manufacturing problems before they get out of hand.</p><p>That’s the market opening that Harry's guest Taylor Chartier says she saw back in 2020, during the coronavirus pandemic. Chartier watched the stories about the Baltimore company Emergent BioSolutions, which was manufacturing vaccines for Johnson & Johnson and AstraZeneca and had to throw out millions of doses of both vaccines due to suspected cross-contamination, and thought: there has to be a better way. So she started her own company. And today her startup Modicus Prime is partnering with top pharma companies to use new machine vision and AI capabilities to catch drug manufacturing problems faster.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 21 Nov 2023 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Taylor Chartier)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Quality control is one of those things that only a select few people pay attention to—until something goes wrong, then everyone cares. That's especially true in the drug manufacturing industry, where episodes like cross-contamination in a drug factory can shut down a production line and create instant shortages of important medicines. And if a contaminated medicines ever does get shipped out to clinics or stores, people’s lives can be at stake. So drug makers are usually pretty receptive toward any new technology that can help them detect manufacturing problems before they get out of hand.</p><p>That’s the market opening that Harry's guest Taylor Chartier says she saw back in 2020, during the coronavirus pandemic. Chartier watched the stories about the Baltimore company Emergent BioSolutions, which was manufacturing vaccines for Johnson & Johnson and AstraZeneca and had to throw out millions of doses of both vaccines due to suspected cross-contamination, and thought: there has to be a better way. So she started her own company. And today her startup Modicus Prime is partnering with top pharma companies to use new machine vision and AI capabilities to catch drug manufacturing problems faster.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Modicus Prime Safeguards Drug Manufacturing</itunes:title>
      <itunes:author>Harry Glorikian, Taylor Chartier</itunes:author>
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      <itunes:duration>00:44:32</itunes:duration>
      <itunes:summary>Quality control is one of those things that only a select few people pay attention to—until something goes wrong, then everyone cares. That&apos;s especially true in the drug manufacturing industry, where episodes like cross-contamination in a drug factory can shut down a production line and create instant shortages of important medicines. And if a contaminated medicines ever does get shipped out to clinics or stores, people’s lives can be at stake. So drug makers are usually pretty receptive toward any new technology that can help them detect manufacturing problems before they get out of hand. That’s the market opening that Harry&apos;s guest this week, Taylor Chartier, says she saw back in 2020, during the coronavirus pandemic. Chartier watched the stories about the Baltimore company Emergent BioSolutions, which was manufacturing vaccines for Johnson &amp; Johnson and AstraZeneca and had to throw out millions of doses of both vaccines due to suspected cross-contamination, and thought: there has to be a better way. So she started her own company. And today her startup Modicus Prime is partnering with top pharma companies to use new machine vision and AI capabilities to catch drug manufacturing problems faster.</itunes:summary>
      <itunes:subtitle>Quality control is one of those things that only a select few people pay attention to—until something goes wrong, then everyone cares. That&apos;s especially true in the drug manufacturing industry, where episodes like cross-contamination in a drug factory can shut down a production line and create instant shortages of important medicines. And if a contaminated medicines ever does get shipped out to clinics or stores, people’s lives can be at stake. So drug makers are usually pretty receptive toward any new technology that can help them detect manufacturing problems before they get out of hand. That’s the market opening that Harry&apos;s guest this week, Taylor Chartier, says she saw back in 2020, during the coronavirus pandemic. Chartier watched the stories about the Baltimore company Emergent BioSolutions, which was manufacturing vaccines for Johnson &amp; Johnson and AstraZeneca and had to throw out millions of doses of both vaccines due to suspected cross-contamination, and thought: there has to be a better way. So she started her own company. And today her startup Modicus Prime is partnering with top pharma companies to use new machine vision and AI capabilities to catch drug manufacturing problems faster.</itunes:subtitle>
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      <title>AI Isn&apos;t Magic, But It Can Save Lives, says HDAI&apos;s Nassib Chamoun</title>
      <description><![CDATA[<p>There’s a lot of talk out there about how artificial intelligence will change the way doctors and nurses take care of patients; you hear some of it right here on this show. But all of that still feels like a forecast rather than a present reality. When you look really closely, it’s hard to find concrete examples where AI is already helping healthcare providers make better decisions that improve patient outcomes and take costs out of the system.</p><p>That’s why Harry wanted to have Nassib Chamoun on the show. Chamoun is the founder and CEO of Health Data Analytics Institute (HDAI), which has been working with a major healthcare system, Houston Methodist, to test out a working platform called HealthVision. It's a collection of AI-driven models that use huge amounts of data, both from Medicare and from Houston’s own electronic health record system, to make predictions that help doctors and administrators spend less time poring over records and data, and more time interacting with actual patients and making good clinical and management decisions.</p><p>Nassib has a way of talking about HDAI and HealthVision that leaves out the hype and focuses on the real-world problems AI can solve for doctors and administrators—like how to identify the patients discharged from hospitals to their homes or to skilled nursing facilities who are at the highest risk of complications, and which interventions could help keep them alive and prevent readmission. Nassib tells Harry that “AI is not magic" and points out that even the most famous large language models, like ChatGPT, are just massive statistical representations of data created, collected, or curated by humans. And while these models are powerful, Nassib argues they’ll need guardrails around them to guarantee transparency and explainability and to prevent bias, before they can be useful in high-stakes fields like healthcare.</p><p>HDAI has raised tens of millions of dollars of capital and spent seven years developing HealthVision, and now the company is getting ready to grow beyond Houston Methodist and deploy the system at other big healthcare institutions like the Cleveland Clinic and the Dana-Farber Cancer Institute—so more providers will get a chance to test whether AI can keep patients healthier and make healthcare delivery more efficient.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 7 Nov 2023 14:42:43 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Nassib Chamoun)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>There’s a lot of talk out there about how artificial intelligence will change the way doctors and nurses take care of patients; you hear some of it right here on this show. But all of that still feels like a forecast rather than a present reality. When you look really closely, it’s hard to find concrete examples where AI is already helping healthcare providers make better decisions that improve patient outcomes and take costs out of the system.</p><p>That’s why Harry wanted to have Nassib Chamoun on the show. Chamoun is the founder and CEO of Health Data Analytics Institute (HDAI), which has been working with a major healthcare system, Houston Methodist, to test out a working platform called HealthVision. It's a collection of AI-driven models that use huge amounts of data, both from Medicare and from Houston’s own electronic health record system, to make predictions that help doctors and administrators spend less time poring over records and data, and more time interacting with actual patients and making good clinical and management decisions.</p><p>Nassib has a way of talking about HDAI and HealthVision that leaves out the hype and focuses on the real-world problems AI can solve for doctors and administrators—like how to identify the patients discharged from hospitals to their homes or to skilled nursing facilities who are at the highest risk of complications, and which interventions could help keep them alive and prevent readmission. Nassib tells Harry that “AI is not magic" and points out that even the most famous large language models, like ChatGPT, are just massive statistical representations of data created, collected, or curated by humans. And while these models are powerful, Nassib argues they’ll need guardrails around them to guarantee transparency and explainability and to prevent bias, before they can be useful in high-stakes fields like healthcare.</p><p>HDAI has raised tens of millions of dollars of capital and spent seven years developing HealthVision, and now the company is getting ready to grow beyond Houston Methodist and deploy the system at other big healthcare institutions like the Cleveland Clinic and the Dana-Farber Cancer Institute—so more providers will get a chance to test whether AI can keep patients healthier and make healthcare delivery more efficient.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>AI Isn&apos;t Magic, But It Can Save Lives, says HDAI&apos;s Nassib Chamoun</itunes:title>
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      <itunes:duration>01:12:56</itunes:duration>
      <itunes:summary>There’s a lot of talk out there about how artificial intelligence will change the way doctors and nurses take care of patients; you hear some of it right here on this show. But all of that still feels like a forecast rather than a present reality. When you look really closely, it’s hard to find concrete examples where AI is already helping healthcare providers make better decisions that improve patient outcomes and take costs out of the system. That’s why Harry wanted to have Nassib Chamoun on the show. Chamoun is the founder and CEO of Health Data Analytics Institute (HDAI), which has been working with a major healthcare system, Houston Methodist, to test out a working platform called HealthVision. It&apos;s a collection of AI-driven models that use huge amounts of data, both from Medicare and from Houston’s own electronic health record system, to make predictions that help doctors and administrators spend less time poring over records and data, and more time interacting with actual patients and making good clinical and management decisions.</itunes:summary>
      <itunes:subtitle>There’s a lot of talk out there about how artificial intelligence will change the way doctors and nurses take care of patients; you hear some of it right here on this show. But all of that still feels like a forecast rather than a present reality. When you look really closely, it’s hard to find concrete examples where AI is already helping healthcare providers make better decisions that improve patient outcomes and take costs out of the system. That’s why Harry wanted to have Nassib Chamoun on the show. Chamoun is the founder and CEO of Health Data Analytics Institute (HDAI), which has been working with a major healthcare system, Houston Methodist, to test out a working platform called HealthVision. It&apos;s a collection of AI-driven models that use huge amounts of data, both from Medicare and from Houston’s own electronic health record system, to make predictions that help doctors and administrators spend less time poring over records and data, and more time interacting with actual patients and making good clinical and management decisions.</itunes:subtitle>
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      <title>We Can All Live to 120...and Beyond</title>
      <description><![CDATA[<p>There’s a good chance that we’re all going to live a <i>lot</i> longer than we think. Or at least, that’s what Harry's guest Sergey Young argues in his book <i>The Science and Technology of Growing Young</i>. Young is an investor who leads a $100 million venture capital fund called the Longevity Vision Fund, and through his investing, he says he meets innovators who are coming up with the technologies that will extend our healthy lifespans not just by years but by decades. Those technologies include better drugs, of course, but also gene editing to rejuvenate our DNA and methods for regenerating or replacing old organs, just the way you’d replace the worn-out parts in an old car. All these technologies are coming faster than we think, Young says, and the big question is how widely they’ll be available and whether everyone who wants them will have access to them. That’s the theme of Young’s work at the Longevity Vision Fund, which focuses on companies creating affordable and accessible life extension technologies.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 24 Oct 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Sergey Young)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>There’s a good chance that we’re all going to live a <i>lot</i> longer than we think. Or at least, that’s what Harry's guest Sergey Young argues in his book <i>The Science and Technology of Growing Young</i>. Young is an investor who leads a $100 million venture capital fund called the Longevity Vision Fund, and through his investing, he says he meets innovators who are coming up with the technologies that will extend our healthy lifespans not just by years but by decades. Those technologies include better drugs, of course, but also gene editing to rejuvenate our DNA and methods for regenerating or replacing old organs, just the way you’d replace the worn-out parts in an old car. All these technologies are coming faster than we think, Young says, and the big question is how widely they’ll be available and whether everyone who wants them will have access to them. That’s the theme of Young’s work at the Longevity Vision Fund, which focuses on companies creating affordable and accessible life extension technologies.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>We Can All Live to 120...and Beyond</itunes:title>
      <itunes:author>Harry Glorikian, Sergey Young</itunes:author>
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      <itunes:duration>00:58:16</itunes:duration>
      <itunes:summary>There’s a good chance that we’re all going to live a lot longer than we think. Or at least, that’s what Harry&apos;s guest Sergey Young argues in his book The Science and Technology of Growing Young. Young is an investor who leads a $100 million venture capital fund called the Longevity Vision Fund, and through his investing, he says he meets innovators who are coming up with the technologies that will extend our healthy lifespans not just by years but by decades. Those technologies include better drugs, of course, but also gene editing to rejuvenate our DNA and methods for regenerating or replacing old organs, just the way you’d replace the worn-out parts in an old car. All these technologies are coming faster than we think, Young says, and the big question is how widely they’ll be available and whether everyone who wants them will have access to them. That’s the theme of Young’s work at the Longevity Vision Fund, which focuses on companies creating affordable and accessible life extension technologies.</itunes:summary>
      <itunes:subtitle>There’s a good chance that we’re all going to live a lot longer than we think. Or at least, that’s what Harry&apos;s guest Sergey Young argues in his book The Science and Technology of Growing Young. Young is an investor who leads a $100 million venture capital fund called the Longevity Vision Fund, and through his investing, he says he meets innovators who are coming up with the technologies that will extend our healthy lifespans not just by years but by decades. Those technologies include better drugs, of course, but also gene editing to rejuvenate our DNA and methods for regenerating or replacing old organs, just the way you’d replace the worn-out parts in an old car. All these technologies are coming faster than we think, Young says, and the big question is how widely they’ll be available and whether everyone who wants them will have access to them. That’s the theme of Young’s work at the Longevity Vision Fund, which focuses on companies creating affordable and accessible life extension technologies.</itunes:subtitle>
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      <title>Scott Penberthy &amp; Google AI for Healthcare</title>
      <description><![CDATA[<p>It's practically the theme of our show that AI is going to change almost everything about the way drugs get developed and the way healthcare gets delivered. But there’s probably nobody better placed to see how this transformation is already happening than Harry's guest this week, Scott Penberthy. </p><p>Scott works at Google Cloud, where he’s the director of Applied AI in the Office of the CTO. He and his team work with Google’s big corporate customers, including a variety of customers in healthcare and pharmaceutical R&D, to help them solve business problems that require large-scale computing and deep learning. </p><p>Scott compares Google’s cloud computing capabilities to a racecar that can be adapted to any type of race—whether that’s a customer like Ginkgo Bioworks that leans on computation to reprogram bacterial cells to pump out pharmaceuticals and other products, or a giant health network like Anthem that uses AI to deliver personalized services to members. Because Scott helps set up these partnerships, and because he gets the first look at the Google’s emerging products and services, he has a unique picture of how computing is changing the everyday practice of doing R&D and running a healthcare company. As he himself puts it, he’s in the catbird seat. So listen along as Scott and Harry geek out about how far things have come in AI's transformation of healthcare, and how much more is just around the corner. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 10 Oct 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Scott Penberthy)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>It's practically the theme of our show that AI is going to change almost everything about the way drugs get developed and the way healthcare gets delivered. But there’s probably nobody better placed to see how this transformation is already happening than Harry's guest this week, Scott Penberthy. </p><p>Scott works at Google Cloud, where he’s the director of Applied AI in the Office of the CTO. He and his team work with Google’s big corporate customers, including a variety of customers in healthcare and pharmaceutical R&D, to help them solve business problems that require large-scale computing and deep learning. </p><p>Scott compares Google’s cloud computing capabilities to a racecar that can be adapted to any type of race—whether that’s a customer like Ginkgo Bioworks that leans on computation to reprogram bacterial cells to pump out pharmaceuticals and other products, or a giant health network like Anthem that uses AI to deliver personalized services to members. Because Scott helps set up these partnerships, and because he gets the first look at the Google’s emerging products and services, he has a unique picture of how computing is changing the everyday practice of doing R&D and running a healthcare company. As he himself puts it, he’s in the catbird seat. So listen along as Scott and Harry geek out about how far things have come in AI's transformation of healthcare, and how much more is just around the corner. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="76832792" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4f0-f71b-4f07-a16c-af37f911285c/episodes/cd9ccdf4-abd7-4dda-ab38-9900e9502263/audio/c772e029-2f6b-4ee4-9f7e-b1fa025f62ef/default_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Scott Penberthy &amp; Google AI for Healthcare</itunes:title>
      <itunes:author>Harry Glorikian, Scott Penberthy</itunes:author>
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      <itunes:duration>01:20:01</itunes:duration>
      <itunes:summary>It&apos;s practically the theme of our show that AI is going to change almost everything about the way drugs get developed and the way healthcare gets delivered. But there’s probably nobody better placed to see how this transformation is already happening than Harry&apos;s guest this week, Scott Penberthy. Scott works at Google Cloud, where he’s the director of Applied AI in the Office of the CTO. He and his team work with Google’s big corporate customers, including a variety of customers in healthcare and pharmaceutical R&amp;D, to help them solve business problems that require large-scale computing and deep learning. Scott compares Google’s cloud computing capabilities to a racecar that can be adapted to any type of race—whether that’s a customer like Ginkgo Bioworks that leans on computation to reprogram bacterial cells to pump out pharmaceuticals and other products, or a giant health network like Anthem that uses AI to deliver personalized services to members. Because Scott helps set up these partnerships, and because he gets the first look at the Google’s emerging products and services, he has a unique picture of how computing is changing the everyday practice of doing R&amp;D and running a healthcare company. As he himself puts it, he’s in the catbird seat. So listen along as Scott and Harry geek out about how far things have come in AI&apos;s transformation of healthcare, and how much more is just around the corner. </itunes:summary>
      <itunes:subtitle>It&apos;s practically the theme of our show that AI is going to change almost everything about the way drugs get developed and the way healthcare gets delivered. But there’s probably nobody better placed to see how this transformation is already happening than Harry&apos;s guest this week, Scott Penberthy. Scott works at Google Cloud, where he’s the director of Applied AI in the Office of the CTO. He and his team work with Google’s big corporate customers, including a variety of customers in healthcare and pharmaceutical R&amp;D, to help them solve business problems that require large-scale computing and deep learning. Scott compares Google’s cloud computing capabilities to a racecar that can be adapted to any type of race—whether that’s a customer like Ginkgo Bioworks that leans on computation to reprogram bacterial cells to pump out pharmaceuticals and other products, or a giant health network like Anthem that uses AI to deliver personalized services to members. Because Scott helps set up these partnerships, and because he gets the first look at the Google’s emerging products and services, he has a unique picture of how computing is changing the everyday practice of doing R&amp;D and running a healthcare company. As he himself puts it, he’s in the catbird seat. So listen along as Scott and Harry geek out about how far things have come in AI&apos;s transformation of healthcare, and how much more is just around the corner. </itunes:subtitle>
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      <title>How to Build a Medtech Startup in High School</title>
      <description><![CDATA[<p>Building any kind of startup is hard. Starting a business in healthcare or medical technology is even more challenging, given the long timelines for product development and all the regulatory requirements companies have to meet. But imagine how much harder it would be to start a company if you were still just a senior in high school! </p><p>Recently Harry learned about a company called Vytal that’s building eye-tracking technology to measure brain health, and he knew he wanted to have the co-founders on the show. Not just because the technology is interesting, but because CEO Rohan Kalahasty and the CTO Sai Mattapali are both 18 years old, and both entering their senior years at Thomas Jefferson High School of Science and Technology in Fairfax County, Virginia. </p><p>Very few teenagers have ten employees and over a million dollars in seed capital. But that's exactly where Rohan and Sai are right now. Some of the challenges they’ve faced have been absolutely typical—like how to build a network of partners and how to meet government standards for new medical devices. And others have been a little unusual, like how to get time off from school to meet with investors and how to convince their parents that the business won’t take too much time away from their studies. Listen in to hear their whole startup story.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 26 Sep 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Rohan Kalahasty, Sai Mattapali)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Building any kind of startup is hard. Starting a business in healthcare or medical technology is even more challenging, given the long timelines for product development and all the regulatory requirements companies have to meet. But imagine how much harder it would be to start a company if you were still just a senior in high school! </p><p>Recently Harry learned about a company called Vytal that’s building eye-tracking technology to measure brain health, and he knew he wanted to have the co-founders on the show. Not just because the technology is interesting, but because CEO Rohan Kalahasty and the CTO Sai Mattapali are both 18 years old, and both entering their senior years at Thomas Jefferson High School of Science and Technology in Fairfax County, Virginia. </p><p>Very few teenagers have ten employees and over a million dollars in seed capital. But that's exactly where Rohan and Sai are right now. Some of the challenges they’ve faced have been absolutely typical—like how to build a network of partners and how to meet government standards for new medical devices. And others have been a little unusual, like how to get time off from school to meet with investors and how to convince their parents that the business won’t take too much time away from their studies. Listen in to hear their whole startup story.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>How to Build a Medtech Startup in High School</itunes:title>
      <itunes:author>Harry Glorikian, Rohan Kalahasty, Sai Mattapali</itunes:author>
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      <itunes:duration>00:40:16</itunes:duration>
      <itunes:summary>Building any kind of startup is hard. Starting a business in healthcare or medical technology is even more challenging, given the long timelines for product development and all the regulatory requirements companies have to meet. But imagine how much harder it would be to start a company if you were still just a senior in high school! Recently Harry learned about a company called Vytal that’s building eye-tracking technology to measure brain health, and he knew he wanted to have the co-founders on the show. Not just because the technology is interesting, but because CEO Rohan Kalahasty and the CTO Sai Mattapali are both 18 years old, and both entering their senior years at Thomas Jefferson High School of Science and Technology in Fairfax County, Virginia. Very few teenagers have ten employees and over a million dollars in seed capital. But that&apos;s exactly where Rohan and Sai are right now. Some of the challenges they’ve faced have been absolutely typical—like how to build a network of partners and how to meet government standards for new medical devices. And others have been a little unusual, like how to get time off from school to meet with investors and how to convince their parents that the business won’t take too much time away from their studies. Listen in to hear their whole startup story.</itunes:summary>
      <itunes:subtitle>Building any kind of startup is hard. Starting a business in healthcare or medical technology is even more challenging, given the long timelines for product development and all the regulatory requirements companies have to meet. But imagine how much harder it would be to start a company if you were still just a senior in high school! Recently Harry learned about a company called Vytal that’s building eye-tracking technology to measure brain health, and he knew he wanted to have the co-founders on the show. Not just because the technology is interesting, but because CEO Rohan Kalahasty and the CTO Sai Mattapali are both 18 years old, and both entering their senior years at Thomas Jefferson High School of Science and Technology in Fairfax County, Virginia. Very few teenagers have ten employees and over a million dollars in seed capital. But that&apos;s exactly where Rohan and Sai are right now. Some of the challenges they’ve faced have been absolutely typical—like how to build a network of partners and how to meet government standards for new medical devices. And others have been a little unusual, like how to get time off from school to meet with investors and how to convince their parents that the business won’t take too much time away from their studies. Listen in to hear their whole startup story.</itunes:subtitle>
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      <title>How exponential growth is changing the world</title>
      <description><![CDATA[<p>If you’re looking for help thinking about the implications of exponential change in all areas of technology, one of the best people you can turn to is Azeem Azhar. He's a writer, entrepreneur, and investor who publishes the incredibly popular and influential Substack newsletter <i>Exponential View, </i>which<i> </i>takes deep dives into AI and other subjects with world experts. In 2021 Azeem published a whole book along the same lines called <i>The Exponential Age: How Accelerating Technology is Transforming Business, Politics, and Society, </i>and he joined Harry on the show in early 2022 to talk about that. This summer, the book came out in paperback—and just this month, Azeem worked with Bloomberg Originals to launch a limited-run TV show and podcast called <i>Exponentially with Azeem Azhar. </i>So it seemed like a great time to revisit Harry's 2022 interview, which resonates with current events even more now than it did when we first aired it.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 12 Sep 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Azeem Azhar)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>If you’re looking for help thinking about the implications of exponential change in all areas of technology, one of the best people you can turn to is Azeem Azhar. He's a writer, entrepreneur, and investor who publishes the incredibly popular and influential Substack newsletter <i>Exponential View, </i>which<i> </i>takes deep dives into AI and other subjects with world experts. In 2021 Azeem published a whole book along the same lines called <i>The Exponential Age: How Accelerating Technology is Transforming Business, Politics, and Society, </i>and he joined Harry on the show in early 2022 to talk about that. This summer, the book came out in paperback—and just this month, Azeem worked with Bloomberg Originals to launch a limited-run TV show and podcast called <i>Exponentially with Azeem Azhar. </i>So it seemed like a great time to revisit Harry's 2022 interview, which resonates with current events even more now than it did when we first aired it.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>How exponential growth is changing the world</itunes:title>
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      <itunes:summary>If you’re looking for help thinking about the implications of exponential change in all areas of technology, one of the best people you can turn to is Azeem Azhar. He&apos;s a writer, entrepreneur, and investor who publishes the incredibly popular and influential Substack newsletter Exponential View, which takes deep dives into AI and other subjects with world experts. In 2021 Azeem published a whole book along the same lines called The Exponential Age: How Accelerating Technology is Transforming Business, Politics, and Society, and he joined Harry on the show in early 2022 to talk about that. This summer, the book came out in paperback—and just this month, Azeem worked with Bloomberg Originals to launch a limited-run TV show and podcast called Exponentially with Azeem Azhar. So it seemed like a great time to revisit Harry&apos;s 2022 interview, which resonates with current events even more now than it did when we first aired it.</itunes:summary>
      <itunes:subtitle>If you’re looking for help thinking about the implications of exponential change in all areas of technology, one of the best people you can turn to is Azeem Azhar. He&apos;s a writer, entrepreneur, and investor who publishes the incredibly popular and influential Substack newsletter Exponential View, which takes deep dives into AI and other subjects with world experts. In 2021 Azeem published a whole book along the same lines called The Exponential Age: How Accelerating Technology is Transforming Business, Politics, and Society, and he joined Harry on the show in early 2022 to talk about that. This summer, the book came out in paperback—and just this month, Azeem worked with Bloomberg Originals to launch a limited-run TV show and podcast called Exponentially with Azeem Azhar. So it seemed like a great time to revisit Harry&apos;s 2022 interview, which resonates with current events even more now than it did when we first aired it.</itunes:subtitle>
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      <title>How to make Generative AI in Healthcare Safe, with Huma.ai&apos;s Lana Feng</title>
      <description><![CDATA[<p>It’s been less than a year since OpenAI opened up ChatGPT to the general public, and less than six months since OpenAI introduced GPT-4, the large language model that currently powers ChatGPT. But in that brief time, the new crop of generative AI tools from OpenAI and competitors like Google and Anthropic has already started to transform the way we think about managing information. We’re entering an era when machines can generate, organize, and access information with a level of accuracy, speed, and originality that matches or exceeds the abilities of humans.</p><p>That doesn’t mean machines are making humans obsolete. But it does mean that organizations that deal in information need to figure out how to equip their people to use the new generative AI tools effectively.  If they don’t, they’re going to get outperformed by competitors that do that better. And in Harry's view, professionals in drug discovery, drug development, and healthcare don’t quite understand the scale of the change that’s coming. They need to get up to speed <i>right now</i> if they want to incorporate generative AI into their work in a way that’s effective and safe.</p><p>Fortunately there are plenty of people in the life sciences industry thinking about how to help with that. And one of them is Harry's guest this week, Lana Feng. She’s the CEO and co-founder of Huma.ai, and under her leadership the company has been working with OpenAI to find ways to adapt large language models for use inside biotech and pharmaceutical companies. GPT-4 and competing models are extremely powerful. But for a bunch of reasons that Lana explains in this episode, it wouldn’t be smart to apply them directly to the kinds of data gathering and data analysis that go on in the biopharma world. Huma.ai is working on that problem. They’re building on top of GPT-4 to make the model more private, more secure, more reliable, and more transparent, so that companies in drug development can really trust it with their data and not get tripped up by issues like the hallucination problem. Anybody who wants to understand how generative AI could change practices in the drug industry needs to know what the company is up to.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 29 Aug 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Lana Feng)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>It’s been less than a year since OpenAI opened up ChatGPT to the general public, and less than six months since OpenAI introduced GPT-4, the large language model that currently powers ChatGPT. But in that brief time, the new crop of generative AI tools from OpenAI and competitors like Google and Anthropic has already started to transform the way we think about managing information. We’re entering an era when machines can generate, organize, and access information with a level of accuracy, speed, and originality that matches or exceeds the abilities of humans.</p><p>That doesn’t mean machines are making humans obsolete. But it does mean that organizations that deal in information need to figure out how to equip their people to use the new generative AI tools effectively.  If they don’t, they’re going to get outperformed by competitors that do that better. And in Harry's view, professionals in drug discovery, drug development, and healthcare don’t quite understand the scale of the change that’s coming. They need to get up to speed <i>right now</i> if they want to incorporate generative AI into their work in a way that’s effective and safe.</p><p>Fortunately there are plenty of people in the life sciences industry thinking about how to help with that. And one of them is Harry's guest this week, Lana Feng. She’s the CEO and co-founder of Huma.ai, and under her leadership the company has been working with OpenAI to find ways to adapt large language models for use inside biotech and pharmaceutical companies. GPT-4 and competing models are extremely powerful. But for a bunch of reasons that Lana explains in this episode, it wouldn’t be smart to apply them directly to the kinds of data gathering and data analysis that go on in the biopharma world. Huma.ai is working on that problem. They’re building on top of GPT-4 to make the model more private, more secure, more reliable, and more transparent, so that companies in drug development can really trust it with their data and not get tripped up by issues like the hallucination problem. Anybody who wants to understand how generative AI could change practices in the drug industry needs to know what the company is up to.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>How to make Generative AI in Healthcare Safe, with Huma.ai&apos;s Lana Feng</itunes:title>
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      <itunes:summary>Professionals in drug discovery, drug development, and healthcare may not grasp the scale of the change that’s coming to their business thanks to generative AI models like GPT-4. They need to get up to speed fast if they want to stay competitive and incorporate generative AI into their work in a way that’s effective and safe. Fortunately there are plenty of people in the life sciences industry thinking about how to help with that. And one of them is Harry&apos;s guest this week, Lana Feng. 

She’s the CEO and co-founder of Huma.ai, and under her leadership the company has been working with OpenAI to find ways to adapt large language models for use inside biotech and pharmaceutical companies. GPT-4 and competing models are extremely powerful. But for a bunch of reasons that Lana explains in this episode, it wouldn’t be smart to apply them directly to the kinds of data gathering and data analysis that go on in the biopharma world. Huma.ai is working on that problem. They’re building on top of GPT-4 to make the model more private, more secure, more reliable, and more transparent, so that companies in drug development can really trust it with their data and not get tripped up by issues like the hallucination problem.</itunes:summary>
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She’s the CEO and co-founder of Huma.ai, and under her leadership the company has been working with OpenAI to find ways to adapt large language models for use inside biotech and pharmaceutical companies. GPT-4 and competing models are extremely powerful. But for a bunch of reasons that Lana explains in this episode, it wouldn’t be smart to apply them directly to the kinds of data gathering and data analysis that go on in the biopharma world. Huma.ai is working on that problem. They’re building on top of GPT-4 to make the model more private, more secure, more reliable, and more transparent, so that companies in drug development can really trust it with their data and not get tripped up by issues like the hallucination problem.</itunes:subtitle>
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      <title>Handheld Ultrasound by Butterfly Network: Faster, Cheaper, Better</title>
      <description><![CDATA[<p>Harry's guest this week is Joe DeVivo, the new CEO of Butterfly Network. The company's goal is to make it radically easier for doctors or medical technicians to perform an ultrasound exam on any part of the body, and radically cheaper for a patient to get one. The companyt makes an FDA-cleared, handheld ultrasound scanner called the Butterfly iQ. The first big thing that’s different about the iQ is that it uses silicon-based microelectromechanical sensors, instead of a traditional piezoelectric crystal element, to generate and receive the ultrasound waves. That means the device is fully digital, rather than analog.  The second big thing that’s different is that the iQ transmits the ultrasound data to a standard iPhone or iPad instead of a big, expensive ultrasound cart. The doctor or technician can see the live ultrasound image right on a handheld device, and use the image to aim the sensor correctly to get the best possible picture to make a diagnosis. All of that is bringing down the cost of equipping a clinic with ultrasound technology dramatically, and over time it should also bring down the cost of administering an ultrasound exam. It also opens up the possibility of adding AI assistance to the software, so that doctors or technicians can get usable images with less training. The net result is that Butterfly is making it economically feasible to use ultrasound for diagnostic imaging in a lot more places, including clinics in developing countries where ultrasound was out of reach before due to the high cost of the technology and a shortage of trained ultrasonographers.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 15 Aug 2023 18:10:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Joseph DeVivo)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest this week is Joe DeVivo, the new CEO of Butterfly Network. The company's goal is to make it radically easier for doctors or medical technicians to perform an ultrasound exam on any part of the body, and radically cheaper for a patient to get one. The companyt makes an FDA-cleared, handheld ultrasound scanner called the Butterfly iQ. The first big thing that’s different about the iQ is that it uses silicon-based microelectromechanical sensors, instead of a traditional piezoelectric crystal element, to generate and receive the ultrasound waves. That means the device is fully digital, rather than analog.  The second big thing that’s different is that the iQ transmits the ultrasound data to a standard iPhone or iPad instead of a big, expensive ultrasound cart. The doctor or technician can see the live ultrasound image right on a handheld device, and use the image to aim the sensor correctly to get the best possible picture to make a diagnosis. All of that is bringing down the cost of equipping a clinic with ultrasound technology dramatically, and over time it should also bring down the cost of administering an ultrasound exam. It also opens up the possibility of adding AI assistance to the software, so that doctors or technicians can get usable images with less training. The net result is that Butterfly is making it economically feasible to use ultrasound for diagnostic imaging in a lot more places, including clinics in developing countries where ultrasound was out of reach before due to the high cost of the technology and a shortage of trained ultrasonographers.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:summary>Harry&apos;s guest this week is Joe DeVivo, the new CEO of Butterfly Network. The company&apos;s goal is to make it radically easier for doctors or medical technicians to perform an ultrasound exam on any part of the body, and radically cheaper for a patient to get one. The companyt makes an FDA-cleared, handheld ultrasound scanner called the Butterfly iQ. The first big thing that’s different about the iQ is that it uses silicon-based microelectromechanical sensors, instead of a traditional piezoelectric crystal element, to generate and receive the ultrasound waves. That means the device is fully digital, rather than analog.  The second big thing that’s different is that the iQ transmits the ultrasound data to a standard iPhone or iPad instead of a big, expensive ultrasound cart. The doctor or technician can see the live ultrasound image right on a handheld device, and use the image to aim the sensor correctly to get the best possible picture to make a diagnosis. All of that is bringing down the cost of equipping a clinic with ultrasound technology dramatically, and over time it should also bring down the cost of administering an ultrasound exam. It also opens up the possibility of adding AI assistance to the software, so that doctors or technicians can get usable images with less training. The net result is that Butterfly is making it economically feasible to use ultrasound for diagnostic imaging in a lot more places, including clinics in developing countries where ultrasound was out of reach before due to the high cost of the technology and a shortage of trained ultrasonographers.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week is Joe DeVivo, the new CEO of Butterfly Network. The company&apos;s goal is to make it radically easier for doctors or medical technicians to perform an ultrasound exam on any part of the body, and radically cheaper for a patient to get one. The companyt makes an FDA-cleared, handheld ultrasound scanner called the Butterfly iQ. The first big thing that’s different about the iQ is that it uses silicon-based microelectromechanical sensors, instead of a traditional piezoelectric crystal element, to generate and receive the ultrasound waves. That means the device is fully digital, rather than analog.  The second big thing that’s different is that the iQ transmits the ultrasound data to a standard iPhone or iPad instead of a big, expensive ultrasound cart. The doctor or technician can see the live ultrasound image right on a handheld device, and use the image to aim the sensor correctly to get the best possible picture to make a diagnosis. All of that is bringing down the cost of equipping a clinic with ultrasound technology dramatically, and over time it should also bring down the cost of administering an ultrasound exam. It also opens up the possibility of adding AI assistance to the software, so that doctors or technicians can get usable images with less training. The net result is that Butterfly is making it economically feasible to use ultrasound for diagnostic imaging in a lot more places, including clinics in developing countries where ultrasound was out of reach before due to the high cost of the technology and a shortage of trained ultrasonographers.</itunes:subtitle>
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      <title>AHA: Ask Harry Anything!</title>
      <description><![CDATA[<p>This week Harry's guest is....Harry! We're flipping the script and giving Harry a chance to wax eloquent about AI in healthcare and drug research, the growing role of personal health monitoring devices, the unique features of the Boston life science ecosystem, the meaning of the recent downturn in biotech investment, the most common mistakes made by new entrepreneurs, and much more. This week's guest interviewer is Wade Roush, who hosts the tech-and-culture podcast <a href="http://www.soonishpodcast.org">Soonish</a> and has been the behind-the-scenes producer of <i>The Harry Glorikian Show</i> ever since Harry started the show in 2018.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 1 Aug 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Wade Roush)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week Harry's guest is....Harry! We're flipping the script and giving Harry a chance to wax eloquent about AI in healthcare and drug research, the growing role of personal health monitoring devices, the unique features of the Boston life science ecosystem, the meaning of the recent downturn in biotech investment, the most common mistakes made by new entrepreneurs, and much more. This week's guest interviewer is Wade Roush, who hosts the tech-and-culture podcast <a href="http://www.soonishpodcast.org">Soonish</a> and has been the behind-the-scenes producer of <i>The Harry Glorikian Show</i> ever since Harry started the show in 2018.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>AHA: Ask Harry Anything!</itunes:title>
      <itunes:author>Harry Glorikian, Wade Roush</itunes:author>
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      <itunes:duration>01:05:12</itunes:duration>
      <itunes:summary>This week Harry&apos;s guest is....Harry! We&apos;re flipping the script and giving Harry a chance to wax eloquent about AI in healthcare and drug research, the growing role of personal health monitoring devices, the unique features of the Boston life science ecosystem, the meaning of the recent downturn in biotech investment, the most common mistakes made by new entrepreneurs, and much more. This week&apos;s guest interviewer is Wade Roush, who hosts the tech-and-culture podcast Soonish and has been the behind-the-scenes producer of The Harry Glorikian Show ever since Harry started the show in 2018.</itunes:summary>
      <itunes:subtitle>This week Harry&apos;s guest is....Harry! We&apos;re flipping the script and giving Harry a chance to wax eloquent about AI in healthcare and drug research, the growing role of personal health monitoring devices, the unique features of the Boston life science ecosystem, the meaning of the recent downturn in biotech investment, the most common mistakes made by new entrepreneurs, and much more. This week&apos;s guest interviewer is Wade Roush, who hosts the tech-and-culture podcast Soonish and has been the behind-the-scenes producer of The Harry Glorikian Show ever since Harry started the show in 2018.</itunes:subtitle>
      <itunes:keywords>drug discovery, venture capital, the harry glorikian show, continuous glucose monitors, life sciences, drug development, ai, alphafold, healthcare, biotech, cambridge, entrepreneurship, boston, cgm</itunes:keywords>
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      <title>Debunking large language models in healthcare with Isaac Kohane</title>
      <description><![CDATA[<p>Harry's guest this week is Dr. Isaac Kohane, chair of the Department of Biomedical Informatics at Harvard Medical School and co-author of the new book <i>The AI Revolution in Medicine: GPT-4 and Beyond</i>. Large language models such as GPT-4 are obviously starting to change industries like search, advertising, and customer service—but Dr. Kohane says they're also quickly becoming indispensable reference tools and office helpmates for doctors. It's easy to see why, since GPT-4 and its ilk can offer high-quality medical insights, and can also quickly auto-generate text such as prior authorization, lowering doctors' daily paperwork burden. But it's all a little scary, since there are no real guidelines yet for how large language models should be deployed in medical settings, how to guard against the new kinds of errors that AI can introduce, or how to use the technology without compromising patient privacy. How to manage those challenges, and how to use the latest generation of AI tools to make healthcare delivery more efficient without endangering patients along the way, are among the topis covered in Dr. Kohane's book, which was co-written with Microsoft vice president Peter Lee and journalist Carey Goldberg.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 18 Jul 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Isaac Kohane)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest this week is Dr. Isaac Kohane, chair of the Department of Biomedical Informatics at Harvard Medical School and co-author of the new book <i>The AI Revolution in Medicine: GPT-4 and Beyond</i>. Large language models such as GPT-4 are obviously starting to change industries like search, advertising, and customer service—but Dr. Kohane says they're also quickly becoming indispensable reference tools and office helpmates for doctors. It's easy to see why, since GPT-4 and its ilk can offer high-quality medical insights, and can also quickly auto-generate text such as prior authorization, lowering doctors' daily paperwork burden. But it's all a little scary, since there are no real guidelines yet for how large language models should be deployed in medical settings, how to guard against the new kinds of errors that AI can introduce, or how to use the technology without compromising patient privacy. How to manage those challenges, and how to use the latest generation of AI tools to make healthcare delivery more efficient without endangering patients along the way, are among the topis covered in Dr. Kohane's book, which was co-written with Microsoft vice president Peter Lee and journalist Carey Goldberg.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="55951251" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4f0-f71b-4f07-a16c-af37f911285c/episodes/91434cda-e2ef-473f-8831-2b12fb0e4b62/audio/dd4bd5ca-a4d5-42b1-a214-e417fc9011b8/default_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Debunking large language models in healthcare with Isaac Kohane</itunes:title>
      <itunes:author>Harry Glorikian, Isaac Kohane</itunes:author>
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      <itunes:duration>00:58:16</itunes:duration>
      <itunes:summary>Harry&apos;s guest this week is Dr. Isaac Kohane, chair of the Department of Biomedical Informatics at Harvard Medical School and co-author of the new book The AI Revolution in Medicine: GPT-4 and Beyond. Large language models such as GPT-4 are obviously starting to change industries like search, advertising, and customer service—but Dr. Kohane says they&apos;re also quickly becoming indispensable reference tools and office helpmates for doctors. It&apos;s easy to see why, since GPT-4 and its ilk can offer high-quality medical insights, and can also quickly auto-generate text such as prior authorization, lowering doctors&apos; daily paperwork burden. But it&apos;s all a little scary, since there are no real guidelines yet for how large language models should be deployed in medical settings, how to guard against the new kinds of errors that AI can introduce, or how to use the technology without compromising patient privacy. How to manage those challenges, and how to use the latest generation of AI tools to make healthcare delivery more efficient without endangering patients along the way, are among the topis covered in Dr. Kohane&apos;s book, which was co-written with Microsoft vice president Peter Lee and journalist Carey Goldberg.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week is Dr. Isaac Kohane, chair of the Department of Biomedical Informatics at Harvard Medical School and co-author of the new book The AI Revolution in Medicine: GPT-4 and Beyond. Large language models such as GPT-4 are obviously starting to change industries like search, advertising, and customer service—but Dr. Kohane says they&apos;re also quickly becoming indispensable reference tools and office helpmates for doctors. It&apos;s easy to see why, since GPT-4 and its ilk can offer high-quality medical insights, and can also quickly auto-generate text such as prior authorization, lowering doctors&apos; daily paperwork burden. But it&apos;s all a little scary, since there are no real guidelines yet for how large language models should be deployed in medical settings, how to guard against the new kinds of errors that AI can introduce, or how to use the technology without compromising patient privacy. How to manage those challenges, and how to use the latest generation of AI tools to make healthcare delivery more efficient without endangering patients along the way, are among the topis covered in Dr. Kohane&apos;s book, which was co-written with Microsoft vice president Peter Lee and journalist Carey Goldberg.</itunes:subtitle>
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      <title>Non-standard Amino Acids in the Development of New Medical Therapies</title>
      <description><![CDATA[<p>In the same way that written English is built around an alphabet of just 26 letters, all life on Earth is built around a standard set of just 20 amino acids, which are the building blocks of all proteins. And just as we've invented special characters like emoji to go beyond our standard letters, it turns out that biologists can expand their repertoire of powers using non-standard amino acids—those that either occur rarely in nature, or that can only be made in the lab. GRO Biosciences, a spinout from the laboratory of the renowned synthetic biology pioneer George Church at Harvard Medical School, is one of the companies working to explore the exciting applications of non-standard amino acids (NSAAs), and Harry's guest this weeks is GRO's co-founder and CEO, Dan Mandell. He says NSAAs could help overcome some of the limitations that keep today’s gene and protein therapies from being used more widely, while also expanding the kinds of jobs that protein-based therapies can do.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Wed, 5 Jul 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Dan Mandell)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>In the same way that written English is built around an alphabet of just 26 letters, all life on Earth is built around a standard set of just 20 amino acids, which are the building blocks of all proteins. And just as we've invented special characters like emoji to go beyond our standard letters, it turns out that biologists can expand their repertoire of powers using non-standard amino acids—those that either occur rarely in nature, or that can only be made in the lab. GRO Biosciences, a spinout from the laboratory of the renowned synthetic biology pioneer George Church at Harvard Medical School, is one of the companies working to explore the exciting applications of non-standard amino acids (NSAAs), and Harry's guest this weeks is GRO's co-founder and CEO, Dan Mandell. He says NSAAs could help overcome some of the limitations that keep today’s gene and protein therapies from being used more widely, while also expanding the kinds of jobs that protein-based therapies can do.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Non-standard Amino Acids in the Development of New Medical Therapies</itunes:title>
      <itunes:author>Harry Glorikian, Dan Mandell</itunes:author>
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      <itunes:duration>01:00:16</itunes:duration>
      <itunes:summary>In the same way that written English is built around an alphabet of just 26 letters, all life on Earth is built around a standard set of just 20 amino acids, which are the building blocks of all proteins. And just as we&apos;ve invented special characters like emoji to go beyond our standard letters, it turns out that biologists can expand their repertoire of powers using non-standard amino acids—those that either occur rarely in nature, or that can only be made in the lab. GRO Biosciences, a spinout from the laboratory of the renowned synthetic biology pioneer George Church at Harvard Medical School, is one of the companies working to explore the exciting applications of non-standard amino acids (NSAAs), and Harry&apos;s guest this weeks is GRO&apos;s co-founder and CEO, Dan Mandell. He says NSAAs could help overcome some of the limitations that keep today’s gene and protein therapies from being used more widely, while also expanding the kinds of jobs that protein-based therapies can do.</itunes:summary>
      <itunes:subtitle>In the same way that written English is built around an alphabet of just 26 letters, all life on Earth is built around a standard set of just 20 amino acids, which are the building blocks of all proteins. And just as we&apos;ve invented special characters like emoji to go beyond our standard letters, it turns out that biologists can expand their repertoire of powers using non-standard amino acids—those that either occur rarely in nature, or that can only be made in the lab. GRO Biosciences, a spinout from the laboratory of the renowned synthetic biology pioneer George Church at Harvard Medical School, is one of the companies working to explore the exciting applications of non-standard amino acids (NSAAs), and Harry&apos;s guest this weeks is GRO&apos;s co-founder and CEO, Dan Mandell. He says NSAAs could help overcome some of the limitations that keep today’s gene and protein therapies from being used more widely, while also expanding the kinds of jobs that protein-based therapies can do.</itunes:subtitle>
      <itunes:keywords>synthetic biology, non-standard amino acids, george church, dan mandell, gene therapy, the harry glorikian show, gro biosciences, gro, nsaas, harry glorikian, antibody therapy</itunes:keywords>
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      <title>Dog Cancer Cure: Fidocure by Christina Kelly Lopes</title>
      <description><![CDATA[<p>Owning a dog can be a joy, but one sad downside is that dogs are highly prone to cancer—six million of them are diagnosed with the disease in the U.S. each year. Harry's guest this week, Christina Lopes, is co-founder and CEO of a company called One Health that's working to improve cancer outcomes for our canine friends. The company offers a precision cancer diagnosis and treatment service called FidoCure that takes what we’ve learned about genomic testing of tumors in humans and uses it in veterinary clinics. Vets can submit a dog’s tumor sample for DNA sequencing, and FidoCure's report will show whether the animal has specific mutations that could help determine which cancer drug will be most effective. Harry and Christina talk about how that process works, why dogs are more vulnerable to cancer in the first place, where she got the idea for the company, and how One Health's work could benefit dogs and humans alike.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 20 Jun 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Christina Lopes)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Owning a dog can be a joy, but one sad downside is that dogs are highly prone to cancer—six million of them are diagnosed with the disease in the U.S. each year. Harry's guest this week, Christina Lopes, is co-founder and CEO of a company called One Health that's working to improve cancer outcomes for our canine friends. The company offers a precision cancer diagnosis and treatment service called FidoCure that takes what we’ve learned about genomic testing of tumors in humans and uses it in veterinary clinics. Vets can submit a dog’s tumor sample for DNA sequencing, and FidoCure's report will show whether the animal has specific mutations that could help determine which cancer drug will be most effective. Harry and Christina talk about how that process works, why dogs are more vulnerable to cancer in the first place, where she got the idea for the company, and how One Health's work could benefit dogs and humans alike.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Dog Cancer Cure: Fidocure by Christina Kelly Lopes</itunes:title>
      <itunes:author>Harry Glorikian, Christina Lopes</itunes:author>
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      <itunes:duration>01:01:39</itunes:duration>
      <itunes:summary>Owning a dog can be a joy, but one sad downside is that dogs are highly prone to cancer—six million of them are diagnosed with the disease in the U.S. each year. Harry&apos;s guest this week, Christina Lopes, is co-founder and CEO of a company called One Health that&apos;s working to improve cancer outcomes for our canine friends. The company offers a precision cancer diagnosis and treatment service called FidoCure that takes what we’ve learned about genomic testing of tumors in humans and uses it in veterinary clinics. Vets can submit a dog’s tumor sample for DNA sequencing, and FidoCure&apos;s report will show whether the animal has specific mutations that could help determine which cancer drug will be most effective. Harry and Christina talk about how that process works, why dogs are more vulnerable to cancer in the first place, where she got the idea for the company, and how One Health&apos;s work could benefit dogs and humans alike.</itunes:summary>
      <itunes:subtitle>Owning a dog can be a joy, but one sad downside is that dogs are highly prone to cancer—six million of them are diagnosed with the disease in the U.S. each year. Harry&apos;s guest this week, Christina Lopes, is co-founder and CEO of a company called One Health that&apos;s working to improve cancer outcomes for our canine friends. The company offers a precision cancer diagnosis and treatment service called FidoCure that takes what we’ve learned about genomic testing of tumors in humans and uses it in veterinary clinics. Vets can submit a dog’s tumor sample for DNA sequencing, and FidoCure&apos;s report will show whether the animal has specific mutations that could help determine which cancer drug will be most effective. Harry and Christina talk about how that process works, why dogs are more vulnerable to cancer in the first place, where she got the idea for the company, and how One Health&apos;s work could benefit dogs and humans alike.</itunes:subtitle>
      <itunes:keywords>precision oncology, dogs, fidocure, cancer, dog, one health company, veterinary medicine, nature precision oncology, precision medicine, harry glorikian, cancer care, christina lopes</itunes:keywords>
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      <title>How Beacon Biosignals Brings Precision Medicine in Neurology to the Brain</title>
      <description><![CDATA[<p>Unlike cancer, brain diseases like epilepsy, Alzheimer’s disease, or depression don't tend to have  easily measured biomarkers that could help doctors tailor treatments, or that could help researchers develop more effective drugs. So in neurology and psychiatry, the precision medicine revolution hasn't really arrived yet. But Beacon Biosignals, where Harry's guest  Jacob Donoghue is the co-founder and CEO, is trying to change all that. Beacon is focused on making electroencephalography into a more reliable and useful data source for diagnosing and treating neurological disease. </p><p>EEG is a non-invasive way to measure electrical activity in the brain, and it’s been a common medical tool for almost 100 years. But takes a lot of training for a human doctor to interpret an EEG correctly. It’s slow, it’s expensive, and it’s a bit of a dark art—all of which makes it the perfect candidate for machine learning analysis. Donoghue says the goal at Beacon Biosignals is to use computation to get more value out of existing EEG data. By peering deeper into the data, he thinks it should be possible to identify subtypes of problems like epilepsy or Alzheimer’s, and help neurologists understand which patients will respond best to which therapies. On top of that, better EEG measurements could also give drug developers and regulators more clinical endpoints to measure when they’re trying to evaluate the safety and efficacy of new drugs for CNS diseases. If Beacon’s vision comes true, the precision medicine revolution might finally start to reach the brain.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 6 Jun 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Jacob Donoghue)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Unlike cancer, brain diseases like epilepsy, Alzheimer’s disease, or depression don't tend to have  easily measured biomarkers that could help doctors tailor treatments, or that could help researchers develop more effective drugs. So in neurology and psychiatry, the precision medicine revolution hasn't really arrived yet. But Beacon Biosignals, where Harry's guest  Jacob Donoghue is the co-founder and CEO, is trying to change all that. Beacon is focused on making electroencephalography into a more reliable and useful data source for diagnosing and treating neurological disease. </p><p>EEG is a non-invasive way to measure electrical activity in the brain, and it’s been a common medical tool for almost 100 years. But takes a lot of training for a human doctor to interpret an EEG correctly. It’s slow, it’s expensive, and it’s a bit of a dark art—all of which makes it the perfect candidate for machine learning analysis. Donoghue says the goal at Beacon Biosignals is to use computation to get more value out of existing EEG data. By peering deeper into the data, he thinks it should be possible to identify subtypes of problems like epilepsy or Alzheimer’s, and help neurologists understand which patients will respond best to which therapies. On top of that, better EEG measurements could also give drug developers and regulators more clinical endpoints to measure when they’re trying to evaluate the safety and efficacy of new drugs for CNS diseases. If Beacon’s vision comes true, the precision medicine revolution might finally start to reach the brain.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="40849709" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4f0-f71b-4f07-a16c-af37f911285c/episodes/969e19eb-a11a-4957-9e6c-2c23c68f9bd5/audio/2388e227-cad1-417b-a059-cb4ff26b4396/default_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>How Beacon Biosignals Brings Precision Medicine in Neurology to the Brain</itunes:title>
      <itunes:author>Harry Glorikian, Jacob Donoghue</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/67227717-a4a6-457d-bc13-33adf27472ac/55dd19c9-d590-47f2-a3d2-ac2feb66bc12/3000x3000/episode-115.jpg?aid=rss_feed"/>
      <itunes:duration>00:42:32</itunes:duration>
      <itunes:summary>Unlike cancer, brain diseases like epilepsy, Alzheimer’s disease, or depression don&apos;t tend to have  easily measured biomarkers that could help doctors tailor treatments, or that could help researchers develop more effective drugs. So in neurology and psychiatry, the precision medicine revolution hasn&apos;t really arrived yet. But Beacon Biosignals, where Harry&apos;s guest  Jacob Donoghue is the co-founder and CEO, is trying to change that. Beacon is focused on making electroencephalography into a more reliable and useful data source for diagnosing and treating neurological disease. EEG has been a common medical tool for almost 100 years, but interpreting an EEG readout is slow and expensive—all of which makes it the perfect candidate for machine learning analysis. By using computation to peer deeper into EEG data, Donoghue thinks it should be possible to identify subtypes of problems like epilepsy or Alzheimer’s, and help neurologists understand which patients will respond best to which therapies. On top of that, better EEG measurements could also give drug developers and regulators more clinical endpoints to measure when they’re trying to evaluate the safety and efficacy of new drugs for CNS diseases. If Beacon’s vision comes true, the precision medicine revolution might finally start to reach the brain.</itunes:summary>
      <itunes:subtitle>Unlike cancer, brain diseases like epilepsy, Alzheimer’s disease, or depression don&apos;t tend to have  easily measured biomarkers that could help doctors tailor treatments, or that could help researchers develop more effective drugs. So in neurology and psychiatry, the precision medicine revolution hasn&apos;t really arrived yet. But Beacon Biosignals, where Harry&apos;s guest  Jacob Donoghue is the co-founder and CEO, is trying to change that. Beacon is focused on making electroencephalography into a more reliable and useful data source for diagnosing and treating neurological disease. EEG has been a common medical tool for almost 100 years, but interpreting an EEG readout is slow and expensive—all of which makes it the perfect candidate for machine learning analysis. By using computation to peer deeper into EEG data, Donoghue thinks it should be possible to identify subtypes of problems like epilepsy or Alzheimer’s, and help neurologists understand which patients will respond best to which therapies. On top of that, better EEG measurements could also give drug developers and regulators more clinical endpoints to measure when they’re trying to evaluate the safety and efficacy of new drugs for CNS diseases. If Beacon’s vision comes true, the precision medicine revolution might finally start to reach the brain.</itunes:subtitle>
      <itunes:keywords>epilepsy, eeg, psychiatric disease, machine learning, the harry glorikian show, beacon biosignals, jacob donoghue, alzheimer&apos;s, depression, electroencephalography, neurology, sleep disorders, harry glorikian, neurological disease</itunes:keywords>
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      <title>Your Next Doctor is a Chatbot? Language Models, Google Researchers, &amp; MedPaLM-2</title>
      <description><![CDATA[<p>Large language models are already changing the business of search. But now they’re about to change the practice of medicine. Harry's guests, Vivek Natarajan and Shek Azizi, are both researchers on the Health AI team at Google, where they're pushing the boundaries of what large language models can achieve in specialized domains like  health. This spring their team announced it would start rolling out a new large language model called Med-PaLM 2 that’s designed to answer medical questions with high accuracy. (The model got an 85 percent score on the U.S. Medical License Exam, the test all doctors have to take before they’re allowed to practice.)  It's been clear for a while that consulting with an AI would eventually become an indispensable part of every medical journey—whether you’re a patient searching for information about your symptoms, or a doctor looking for an expert second opinion. And now that such a future is almost here, the work Vivek and Shek are doing at Google feels both exciting and a little bit scary.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 23 May 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Vivek Natarajan, Shek Azizi)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Large language models are already changing the business of search. But now they’re about to change the practice of medicine. Harry's guests, Vivek Natarajan and Shek Azizi, are both researchers on the Health AI team at Google, where they're pushing the boundaries of what large language models can achieve in specialized domains like  health. This spring their team announced it would start rolling out a new large language model called Med-PaLM 2 that’s designed to answer medical questions with high accuracy. (The model got an 85 percent score on the U.S. Medical License Exam, the test all doctors have to take before they’re allowed to practice.)  It's been clear for a while that consulting with an AI would eventually become an indispensable part of every medical journey—whether you’re a patient searching for information about your symptoms, or a doctor looking for an expert second opinion. And now that such a future is almost here, the work Vivek and Shek are doing at Google feels both exciting and a little bit scary.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="58124793" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4f0-f71b-4f07-a16c-af37f911285c/episodes/96fe391e-cc14-4a62-99e6-1d7204cfe310/audio/130d8d00-69f6-4104-8694-50a99064ff35/default_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Your Next Doctor is a Chatbot? Language Models, Google Researchers, &amp; MedPaLM-2</itunes:title>
      <itunes:author>Harry Glorikian, Vivek Natarajan, Shek Azizi</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/67227717-a4a6-457d-bc13-33adf27472ac/84ebc747-c8ea-49dc-94d7-f17156b27070/3000x3000/episode-114.jpg?aid=rss_feed"/>
      <itunes:duration>01:00:32</itunes:duration>
      <itunes:summary>Large language models are already changing the business of search. But now they’re about to change the practice of medicine. Harry&apos;s guests, Vivek Natarajan and Shek Azizi, are both researchers on the Health AI team at Google, where they&apos;re pushing the boundaries of what large language models can achieve in specialized domains like  health. This spring their team announced it would start rolling out a new large language model called Med-PaLM 2 that’s designed to answer medical questions with high accuracy. (The model got an 85 percent score on the U.S. Medical License Exam, the test all doctors have to take before they’re allowed to practice.)  It&apos;s been clear for a while that consulting with an AI would eventually become an indispensable part of every medical journey—whether you’re a patient searching for information about your symptoms, or a doctor looking for an expert second opinion. And now that such a future is almost here, the work Vivek and Shek are doing at Google feels both exciting and a little bit scary.</itunes:summary>
      <itunes:subtitle>Large language models are already changing the business of search. But now they’re about to change the practice of medicine. Harry&apos;s guests, Vivek Natarajan and Shek Azizi, are both researchers on the Health AI team at Google, where they&apos;re pushing the boundaries of what large language models can achieve in specialized domains like  health. This spring their team announced it would start rolling out a new large language model called Med-PaLM 2 that’s designed to answer medical questions with high accuracy. (The model got an 85 percent score on the U.S. Medical License Exam, the test all doctors have to take before they’re allowed to practice.)  It&apos;s been clear for a while that consulting with an AI would eventually become an indispensable part of every medical journey—whether you’re a patient searching for information about your symptoms, or a doctor looking for an expert second opinion. And now that such a future is almost here, the work Vivek and Shek are doing at Google feels both exciting and a little bit scary.</itunes:subtitle>
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      <title>Going Boldly into Biomanufacturing and Bioeconomy with Inscripta</title>
      <description><![CDATA[<p>Harry's guests this week are Sri Kosaraju, the CEO of Inscripta, and Richard Fox, a former Inscripta scientist who just rejoined the company as its SVP of Synthetic Biology. In reabsorbing Infinome—the Inscripta spinout Fox described to Harry in a spring 2021 episode of the show—Inscripta is placing a big bet on biomanufacturing, the creation and fermentation of genetically customized microbes that can pump out medical, agricultural, and nutraceutical products, and more. </p><p>Inscripta had previously focused on a benchtop "bio-foundry" machine called Onyx that that makes programmed edits to bacterial or yeast cells at thousands of different points in their genome in parallel. Now it's pivoting away from selling the machine and instead focusing on becoming a power user of its own technology. Its ultimate plan is market multiple biomanufactured products, starting with a synthetic form of bakuchiol, an alternative to the anti-aging compound retinol.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 9 May 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Sri Kosaraju, Richard Fox)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guests this week are Sri Kosaraju, the CEO of Inscripta, and Richard Fox, a former Inscripta scientist who just rejoined the company as its SVP of Synthetic Biology. In reabsorbing Infinome—the Inscripta spinout Fox described to Harry in a spring 2021 episode of the show—Inscripta is placing a big bet on biomanufacturing, the creation and fermentation of genetically customized microbes that can pump out medical, agricultural, and nutraceutical products, and more. </p><p>Inscripta had previously focused on a benchtop "bio-foundry" machine called Onyx that that makes programmed edits to bacterial or yeast cells at thousands of different points in their genome in parallel. Now it's pivoting away from selling the machine and instead focusing on becoming a power user of its own technology. Its ultimate plan is market multiple biomanufactured products, starting with a synthetic form of bakuchiol, an alternative to the anti-aging compound retinol.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Going Boldly into Biomanufacturing and Bioeconomy with Inscripta</itunes:title>
      <itunes:author>Harry Glorikian, Sri Kosaraju, Richard Fox</itunes:author>
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      <itunes:duration>00:55:16</itunes:duration>
      <itunes:summary>Harry&apos;s guests this week are Sri Kosaraju, the CEO of Inscripta, and Richard Fox, a former Inscripta scientist who just rejoined the company. In reabsorbing Infinome—the Inscripta spinout Fox described to Harry in a spring 2021 episode of the show—Inscripta is placing a big bet on biomanufacturing, the creation and fermentation of genetically customized microbes that can pump out medical, agricultural, and nutraceutical products, and more. Inscripta had previously focused on a benchtop &quot;bio-foundry&quot; machine called Onyx that that makes programmed edits to bacterial or yeast cells at thousands of different points in their genome in parallel. Now it&apos;s pivoting away from selling the machine and instead focusing on becoming a &quot;power user&quot; of its own technology—with the ultimate plan of marketing multiple biomanufactured products.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guests this week are Sri Kosaraju, the CEO of Inscripta, and Richard Fox, a former Inscripta scientist who just rejoined the company. In reabsorbing Infinome—the Inscripta spinout Fox described to Harry in a spring 2021 episode of the show—Inscripta is placing a big bet on biomanufacturing, the creation and fermentation of genetically customized microbes that can pump out medical, agricultural, and nutraceutical products, and more. Inscripta had previously focused on a benchtop &quot;bio-foundry&quot; machine called Onyx that that makes programmed edits to bacterial or yeast cells at thousands of different points in their genome in parallel. Now it&apos;s pivoting away from selling the machine and instead focusing on becoming a &quot;power user&quot; of its own technology—with the ultimate plan of marketing multiple biomanufactured products.</itunes:subtitle>
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      <title>Drug Discovery with 1910 Genetics: Knowing Your Tools</title>
      <description><![CDATA[<p>Harry's guest this week, Jen Nwankwo, is the founder and CEO of a drug discovery company in Boston called 1910 Genetics. Her PhD is in pharmacology, which shows through in her practical focus on fixing the drug discovery process to get more and better therapies into the hands of doctors. To hear Jen tell it, 1910 Genetics is focused on finding the most promising new drug candidates for stubborn health problems—and it takes a refreshingly agnostic approach to everything else. </p><p>The company doesn’t hunt for just small-molecule drugs or just protein therapies. It explores both. It doesn’t utilize just one form of neural networking or machine learning. It uses whatever model produces the best science for a given problem. It doesn’t hunt for drugs using just wet lab data or just computational simulations. It does both. It isn’t just assembling its own pipeline of drugs or just partnering with larger pharma companies. It’s working on both. Jen wasn’t even dead set on being an entrepreneur—she had to be talked into applying to the Y Combinator startup incubator and into accepting her Series A investment from Microsoft’s venture fun.</p><p>She says the way 1910 thinks about drug discovery is to start with the desired output -- say, a new molecule to block pain -- then figure out what sorts of data inputs exist. Then they find or create all the data they need to analyze the problem. Then they transform that data using whatever AI tools work best, until they get some decent drug candidates. She calls it Input, Transform, Output. It’s never that simple, of course. But at a time when AI and machine learning focused drug discovery companies are sprouting up faster than dandelions—each one touting some specific reason why its model is better than all the others—1910 Genetics is has a more inclusive approach to solving classic problems in pharmacology, and it’s one that should spread to other parts of the life science business. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 25 Apr 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Jen Nwankwo)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest this week, Jen Nwankwo, is the founder and CEO of a drug discovery company in Boston called 1910 Genetics. Her PhD is in pharmacology, which shows through in her practical focus on fixing the drug discovery process to get more and better therapies into the hands of doctors. To hear Jen tell it, 1910 Genetics is focused on finding the most promising new drug candidates for stubborn health problems—and it takes a refreshingly agnostic approach to everything else. </p><p>The company doesn’t hunt for just small-molecule drugs or just protein therapies. It explores both. It doesn’t utilize just one form of neural networking or machine learning. It uses whatever model produces the best science for a given problem. It doesn’t hunt for drugs using just wet lab data or just computational simulations. It does both. It isn’t just assembling its own pipeline of drugs or just partnering with larger pharma companies. It’s working on both. Jen wasn’t even dead set on being an entrepreneur—she had to be talked into applying to the Y Combinator startup incubator and into accepting her Series A investment from Microsoft’s venture fun.</p><p>She says the way 1910 thinks about drug discovery is to start with the desired output -- say, a new molecule to block pain -- then figure out what sorts of data inputs exist. Then they find or create all the data they need to analyze the problem. Then they transform that data using whatever AI tools work best, until they get some decent drug candidates. She calls it Input, Transform, Output. It’s never that simple, of course. But at a time when AI and machine learning focused drug discovery companies are sprouting up faster than dandelions—each one touting some specific reason why its model is better than all the others—1910 Genetics is has a more inclusive approach to solving classic problems in pharmacology, and it’s one that should spread to other parts of the life science business. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Drug Discovery with 1910 Genetics: Knowing Your Tools</itunes:title>
      <itunes:author>Harry Glorikian, Jen Nwankwo</itunes:author>
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      <itunes:duration>00:49:20</itunes:duration>
      <itunes:summary>Harry&apos;s guest Jen Nwankwo is the founder and CEO of the drug discovery company 1910 Genetics. The company focuses on finding the most promising new drug candidates for stubborn health problems—and it takes a refreshingly agnostic approach to everything else. 1910 doesn’t hunt for just small-molecule drugs or just protein therapies. It explores both. It doesn’t utilize just one form of neural networking or machine learning. It uses whatever model produces the best science for a given problem. It doesn’t hunt for drugs using just wet lab data or just computational simulations. It does both. It isn’t just assembling its own pipeline of drugs or just partnering with larger pharma companies. It’s working on both. At a time when AI and machine learning focused drug discovery companies are sprouting up faster than dandelions—each one touting some specific reason why its model is better than all the others—1910 Genetics is has a more inclusive approach to solving classic problems in pharmacology, and it’s one that should spread to other parts of the life science business. </itunes:summary>
      <itunes:subtitle>Harry&apos;s guest Jen Nwankwo is the founder and CEO of the drug discovery company 1910 Genetics. The company focuses on finding the most promising new drug candidates for stubborn health problems—and it takes a refreshingly agnostic approach to everything else. 1910 doesn’t hunt for just small-molecule drugs or just protein therapies. It explores both. It doesn’t utilize just one form of neural networking or machine learning. It uses whatever model produces the best science for a given problem. It doesn’t hunt for drugs using just wet lab data or just computational simulations. It does both. It isn’t just assembling its own pipeline of drugs or just partnering with larger pharma companies. It’s working on both. At a time when AI and machine learning focused drug discovery companies are sprouting up faster than dandelions—each one touting some specific reason why its model is better than all the others—1910 Genetics is has a more inclusive approach to solving classic problems in pharmacology, and it’s one that should spread to other parts of the life science business. </itunes:subtitle>
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      <title>Cry Me a Biomarker: Using Tears to Screen for Cancer</title>
      <description><![CDATA[<p>Tears are a signal of more than just our emotions. The liquid in tears comes from blood plasma, and contains a lot of the same proteins and other biomolecules that circulate in the bloodstream. But what this liquid doesn’t have are a lot of the extra components like antibodies that would get in the way if you were looking for specific biomarkers—such as the low-molecular-weight proteins released as a byproduct of the inflammation around tumors. </p><p>Harry's guests Anna Daily and Omid Moghadam are from a startup called Namida Lab that’s the first company to market a lab test using tears to predict cancer risk. Specifically, Namida’s test assesses the short-term risk that a patient might have breast cancer, as a way of helping them decide how soon to go in for a mammogram. </p><p>"Namida" is actually the Japanese word for tears, and beyond breast cancer, the company aims to build a whole business around risk assessment and diagnostics, using just the biomarkers in tears. Eventually it could be possible to collect a sample of your tears on a small strip of absorbent paper, send it in to Namida Lab, and find out whether you have colon cancer, pancreatic cancer, prostate cancer, or ovarian cancer. Namida’s big vision, as Moghadam and Daily tell it, is to use tear testing to make precision medicine and diagnostics more accessible and affordable, including to patients who might live far away from tertiary care centers.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 11 Apr 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Omid Moghadam, Anna Daily)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Tears are a signal of more than just our emotions. The liquid in tears comes from blood plasma, and contains a lot of the same proteins and other biomolecules that circulate in the bloodstream. But what this liquid doesn’t have are a lot of the extra components like antibodies that would get in the way if you were looking for specific biomarkers—such as the low-molecular-weight proteins released as a byproduct of the inflammation around tumors. </p><p>Harry's guests Anna Daily and Omid Moghadam are from a startup called Namida Lab that’s the first company to market a lab test using tears to predict cancer risk. Specifically, Namida’s test assesses the short-term risk that a patient might have breast cancer, as a way of helping them decide how soon to go in for a mammogram. </p><p>"Namida" is actually the Japanese word for tears, and beyond breast cancer, the company aims to build a whole business around risk assessment and diagnostics, using just the biomarkers in tears. Eventually it could be possible to collect a sample of your tears on a small strip of absorbent paper, send it in to Namida Lab, and find out whether you have colon cancer, pancreatic cancer, prostate cancer, or ovarian cancer. Namida’s big vision, as Moghadam and Daily tell it, is to use tear testing to make precision medicine and diagnostics more accessible and affordable, including to patients who might live far away from tertiary care centers.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Cry Me a Biomarker: Using Tears to Screen for Cancer</itunes:title>
      <itunes:author>Harry Glorikian, Omid Moghadam, Anna Daily</itunes:author>
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      <itunes:duration>00:42:12</itunes:duration>
      <itunes:summary>Tears are a signal of more than just our emotions. The liquid in tears comes from blood plasma, and contains a lot of the same proteins and other biomolecules that circulate in the bloodstream—including those released as a byproduct of the inflammation around tumors. Harry&apos;s guests Anna Daily and Omid Moghadam are from a startup called Namida Lab that’s the first company to market a lab test using tears to predict cancer risk. Specifically, Namida’s test assesses the short-term risk that a patient might have breast cancer, as a way of helping them decide how soon to go in for a mammogram. And beyond breast cancer, the company aims to build a whole business around risk assessment and diagnostics, using just the biomarkers in tears. Eventually it could be possible to collect a sample of your tears on a small strip of absorbent paper, send it in to Namida Lab, and find out whether you have colon cancer, pancreatic cancer, prostate cancer, or ovarian cancer. Namida’s big vision, as Moghadam and Daily tell it, is to use tear testing to make precision medicine and diagnostics more accessible and affordable, including to patients who might live far away from tertiary care centers.</itunes:summary>
      <itunes:subtitle>Tears are a signal of more than just our emotions. The liquid in tears comes from blood plasma, and contains a lot of the same proteins and other biomolecules that circulate in the bloodstream—including those released as a byproduct of the inflammation around tumors. Harry&apos;s guests Anna Daily and Omid Moghadam are from a startup called Namida Lab that’s the first company to market a lab test using tears to predict cancer risk. Specifically, Namida’s test assesses the short-term risk that a patient might have breast cancer, as a way of helping them decide how soon to go in for a mammogram. And beyond breast cancer, the company aims to build a whole business around risk assessment and diagnostics, using just the biomarkers in tears. Eventually it could be possible to collect a sample of your tears on a small strip of absorbent paper, send it in to Namida Lab, and find out whether you have colon cancer, pancreatic cancer, prostate cancer, or ovarian cancer. Namida’s big vision, as Moghadam and Daily tell it, is to use tear testing to make precision medicine and diagnostics more accessible and affordable, including to patients who might live far away from tertiary care centers.</itunes:subtitle>
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      <title>Insilico Brings Generative AI to Drug Development and Discovery</title>
      <description><![CDATA[<p>It may feel like generative AI technology suddenly burst onto the scene over the last year or two, with the appearance of text-to-image models like Dall-E and Stable Diffusion, or chatbots like ChatGPT that can churn out astonishingly convincing text thanks to the power of large language models. But in fact, the real work on generative AI has been happening in the background, in small increments, for many years. One demonstration of that comes from Insilico Medicine, where Harry's guest this week, Alex Zhavoronkov, is the co-CEO. </p><p>Since at least 2016, Zhavoronkov has been publishing papers about the power of a class of AI algorithms called generative adversarial networks or GANs to help with drug discovery. One of the main selling points for GANs in pharma research is that they can generate lots of possible designs for molecules that could carry out specified functions in the body, such as binding to a defective protein to stop it from working. Drug hunters still have to sort through all the possible molecules identified by GANs to see which ones will actually work <i>in vitro</i> or <i>in vivo, </i>but at least their pool of starting points can be bigger and possibly more specific.</p><p>Zhavoronkov says that when Insilico first started touting this approach back in the mid-2010s, few people in the drug business believed it would work. So to persuade investors and partners of the technology's power, the company decided to take a drug designed by its own algorithms all the way to clinical trials. And it’s now done that. This February the FDA granted orphan drug designation to a small-molecule drug Insilico is testing as a treatment for a form of lung scarring called idiopathic pulmonary fibrosis. Both the target for the compound, and the design of the molecule itself, were generated by Insilico’s AI. </p><p>The designation was a big milestone for the company and for the overall idea of using generative models in drug discovery. In this week's interview, Zhavoronkov talks about how Insilico got to this point; why he thinks the company will survive the shakeout happening in the biotech industry right now; and how its suite of generative algorithms and other technologies such as robotic wet labs could change the way the pharmaceutical industry operates.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 28 Mar 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Alex Zhavoronkov)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>It may feel like generative AI technology suddenly burst onto the scene over the last year or two, with the appearance of text-to-image models like Dall-E and Stable Diffusion, or chatbots like ChatGPT that can churn out astonishingly convincing text thanks to the power of large language models. But in fact, the real work on generative AI has been happening in the background, in small increments, for many years. One demonstration of that comes from Insilico Medicine, where Harry's guest this week, Alex Zhavoronkov, is the co-CEO. </p><p>Since at least 2016, Zhavoronkov has been publishing papers about the power of a class of AI algorithms called generative adversarial networks or GANs to help with drug discovery. One of the main selling points for GANs in pharma research is that they can generate lots of possible designs for molecules that could carry out specified functions in the body, such as binding to a defective protein to stop it from working. Drug hunters still have to sort through all the possible molecules identified by GANs to see which ones will actually work <i>in vitro</i> or <i>in vivo, </i>but at least their pool of starting points can be bigger and possibly more specific.</p><p>Zhavoronkov says that when Insilico first started touting this approach back in the mid-2010s, few people in the drug business believed it would work. So to persuade investors and partners of the technology's power, the company decided to take a drug designed by its own algorithms all the way to clinical trials. And it’s now done that. This February the FDA granted orphan drug designation to a small-molecule drug Insilico is testing as a treatment for a form of lung scarring called idiopathic pulmonary fibrosis. Both the target for the compound, and the design of the molecule itself, were generated by Insilico’s AI. </p><p>The designation was a big milestone for the company and for the overall idea of using generative models in drug discovery. In this week's interview, Zhavoronkov talks about how Insilico got to this point; why he thinks the company will survive the shakeout happening in the biotech industry right now; and how its suite of generative algorithms and other technologies such as robotic wet labs could change the way the pharmaceutical industry operates.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Insilico Brings Generative AI to Drug Development and Discovery</itunes:title>
      <itunes:author>Harry Glorikian, Alex Zhavoronkov</itunes:author>
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      <itunes:summary>It may feel like generative AI technology suddenly burst onto the scene over the last year or two, with the appearance of text-to-image models like Dall-E and Stable Diffusion, or chatbots like ChatGPT that can churn out astonishingly convincing text thanks to the power of large language models. But in fact, the real work on generative AI has been happening in the background, in small increments, for many years. One demonstration of that comes from Insilico Medicine, where co-CEO Alex Zhavoronkov has been writing and talking since 2016 about the power of generative AI algorithms called GANs to help design new drugs. This February, in a milestone moment for the company, the FDA granted orphan drug designation to a small-molecule drug for idiopathic pulmonary fibrosis that Insilico discovered using its own GANs. Zhavoronkov joins Harry to talk about how Insilico got to this point, why he thinks the company will survive the shakeout happening in the biotech industry right now, and how its suite of generative algorithms and other technologies such as robotic wet labs could change the way the pharmaceutical industry operates.</itunes:summary>
      <itunes:subtitle>It may feel like generative AI technology suddenly burst onto the scene over the last year or two, with the appearance of text-to-image models like Dall-E and Stable Diffusion, or chatbots like ChatGPT that can churn out astonishingly convincing text thanks to the power of large language models. But in fact, the real work on generative AI has been happening in the background, in small increments, for many years. One demonstration of that comes from Insilico Medicine, where co-CEO Alex Zhavoronkov has been writing and talking since 2016 about the power of generative AI algorithms called GANs to help design new drugs. This February, in a milestone moment for the company, the FDA granted orphan drug designation to a small-molecule drug for idiopathic pulmonary fibrosis that Insilico discovered using its own GANs. Zhavoronkov joins Harry to talk about how Insilico got to this point, why he thinks the company will survive the shakeout happening in the biotech industry right now, and how its suite of generative algorithms and other technologies such as robotic wet labs could change the way the pharmaceutical industry operates.</itunes:subtitle>
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      <title>Raphael Townshend on The Power of Small Molecule Drugs</title>
      <description><![CDATA[<p>There have been a lot of stories in the news over the last few months about AI chatbots like ChatGPT that can respond to your questions with convincing and well-written answers. These so-called large language models can tell you how to build a treehouse, how to bake a cake, or how to sleep better. But notice that word <i>large</i>. Behind the scenes, these models have learned which word tend to cluster together by sifting through hundreds of billions of pieces of data—basically the entire Internet, in the cast of ChatGPT, including all of Wikipedia and thousands of published books. Now imagine that another chatbot came along that could learn how to generate convincing text response by studying only, say, <i>18 sentences</i>. Something like that is what this week’s guest Raphael Townshend, the founder and CEO of Atomic AI, has accomplished when it comes to predicting the structure of RNA molecules.</p><p>RNA has been in the news a lot lately too. That's in part because some of the vaccines that helped us beat back the coronavirus pandemic were made from messenger RNA, a form of the molecule that instructs cells how to build proteins (in that case, antibodies to the virus). But RNA has many other functions in the body, and if we knew how to design small-molecule drugs to attach to binding pockets on any given RNA to interrupt or modulate its functions, it could open up a whole new realm of medical treatments. The problem is, if all you know about an RNA molecule is its nucleotide sequence, it’s very hard to predict where those binding pockets might be and what kind of drug might fit into them. </p><p>As a PhD student at Stanford, Townshend designed a deep learning model to tackle that problem. The model, called ARES, started with a proposed structure for an RNA molecule with a known nucleotide sequence, and predict how that proposal would compare to real-world data. ARES turned out to be stunningly accurate, and it acquired its skills by studying a remarkably small training set: just 18 examples of RNAs with known structures. So in a way, it was using the power of <i>small</i> data, together with a bit of physics. Now Atomic AI is building on that original model to create an engine for discovering new small-molecule drugs that could potentially interrupt any disease where RNA is a player.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 14 Mar 2023 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Raphael Townshend)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>There have been a lot of stories in the news over the last few months about AI chatbots like ChatGPT that can respond to your questions with convincing and well-written answers. These so-called large language models can tell you how to build a treehouse, how to bake a cake, or how to sleep better. But notice that word <i>large</i>. Behind the scenes, these models have learned which word tend to cluster together by sifting through hundreds of billions of pieces of data—basically the entire Internet, in the cast of ChatGPT, including all of Wikipedia and thousands of published books. Now imagine that another chatbot came along that could learn how to generate convincing text response by studying only, say, <i>18 sentences</i>. Something like that is what this week’s guest Raphael Townshend, the founder and CEO of Atomic AI, has accomplished when it comes to predicting the structure of RNA molecules.</p><p>RNA has been in the news a lot lately too. That's in part because some of the vaccines that helped us beat back the coronavirus pandemic were made from messenger RNA, a form of the molecule that instructs cells how to build proteins (in that case, antibodies to the virus). But RNA has many other functions in the body, and if we knew how to design small-molecule drugs to attach to binding pockets on any given RNA to interrupt or modulate its functions, it could open up a whole new realm of medical treatments. The problem is, if all you know about an RNA molecule is its nucleotide sequence, it’s very hard to predict where those binding pockets might be and what kind of drug might fit into them. </p><p>As a PhD student at Stanford, Townshend designed a deep learning model to tackle that problem. The model, called ARES, started with a proposed structure for an RNA molecule with a known nucleotide sequence, and predict how that proposal would compare to real-world data. ARES turned out to be stunningly accurate, and it acquired its skills by studying a remarkably small training set: just 18 examples of RNAs with known structures. So in a way, it was using the power of <i>small</i> data, together with a bit of physics. Now Atomic AI is building on that original model to create an engine for discovering new small-molecule drugs that could potentially interrupt any disease where RNA is a player.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Raphael Townshend on The Power of Small Molecule Drugs</itunes:title>
      <itunes:author>Harry Glorikian, Raphael Townshend</itunes:author>
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      <itunes:duration>00:42:20</itunes:duration>
      <itunes:summary>If we knew how to design small-molecule drugs to attach to binding pockets on any given RNA molecule to interrupt or modulate its functions, it could open up a whole new realm of medical treatments. The problem is, if all you know about an RNA molecule is its nucleotide sequence, it’s very hard to predict where those binding pockets might be and what kind of drug might fit into them. 
As a PhD student at Stanford, Raphael Townshend designed a deep learning model to tackle that problem. Called ARES, the model started with a proposed structure for an RNA molecule with a known nucleotide sequence, and predicted whether that structure would turn out to be correct compared to real-world data. It turned out to be stunningly accurate—and unlike the algorithms behind generative AI models like ChatGPT or DALL-E, it built up its skills based on a tiny data set consisting of just 18 examples of known RNA structures. Now Atomic AI is building on Townshend&apos;s original model to create an engine for discovering new small-molecule drugs that could potentially interrupt any disease where RNA is a player.</itunes:summary>
      <itunes:subtitle>If we knew how to design small-molecule drugs to attach to binding pockets on any given RNA molecule to interrupt or modulate its functions, it could open up a whole new realm of medical treatments. The problem is, if all you know about an RNA molecule is its nucleotide sequence, it’s very hard to predict where those binding pockets might be and what kind of drug might fit into them. 
As a PhD student at Stanford, Raphael Townshend designed a deep learning model to tackle that problem. Called ARES, the model started with a proposed structure for an RNA molecule with a known nucleotide sequence, and predicted whether that structure would turn out to be correct compared to real-world data. It turned out to be stunningly accurate—and unlike the algorithms behind generative AI models like ChatGPT or DALL-E, it built up its skills based on a tiny data set consisting of just 18 examples of known RNA structures. Now Atomic AI is building on Townshend&apos;s original model to create an engine for discovering new small-molecule drugs that could potentially interrupt any disease where RNA is a player.</itunes:subtitle>
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      <title>How the Glaucomfleckens are Humanizing Medicine, One Laugh at a Time</title>
      <description><![CDATA[<p>The medical news publication STAT calls Will Flanary “the Internet’s funniest doctor.” The guests we bring on the show usually talk about how technology is changing healthcare, but Will and his wife Kristin are changing healthcare in a very different way—through comedy. A former standup comic who trained as an ophthalmologist and runs a successful ophthalmology practice in Oregon City, Oregon, Will is better known by his alter ego “Dr. Glaucomflecken.” His short videos have millions of views on YouTube and TikTok, and feature a cast of quirky characters, all played by Will himself, who lightly satirize medical culture and the idiosyncracies of the US healthcare system. And now Will and Kristin have a hybrid comedy and interview podcast called “Knock, Knock, Hi” where they bring on guests who share their own weird and hilarious medical stories.</p><p>If you wanted to find a comparably successful crossover between medicine and comedy, you’d probably have to go all the way back to TV shows like M*A*S*H and Scrubs. But as funny as Will and Kristin’s comedy work can be, it comes from a pretty serious place. Will’s been on the patient side of medical care. He survived two bouts of testicular cancer. And in May of 2020, after WIll went into cardiac arrest, Kristin saved his life by administering CPR until emergency medical technicians could arrive and rush him to the hospital, where surgeons implanted a defibrillator. It was a nightmare experience. But Flanary’s collision after the surgery with the health insurance bureaucracy may have been even worse. All of it became grist for his comedy sketches, and today the Glaucomfleckens videos and podcast range across topics like what goes on behind the scenes in emergency rooms, how oncologists deliver bad news, or why doctors in different specialties sometimes have a hard time communicating. The basic insight behind Will and Kristin’s work is that in a country where the healthcare system often feels so broken and so full of crazy personalities, sometimes you just have to laugh.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 28 Feb 2023 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Will Flanary, Kristin Flanary)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>The medical news publication STAT calls Will Flanary “the Internet’s funniest doctor.” The guests we bring on the show usually talk about how technology is changing healthcare, but Will and his wife Kristin are changing healthcare in a very different way—through comedy. A former standup comic who trained as an ophthalmologist and runs a successful ophthalmology practice in Oregon City, Oregon, Will is better known by his alter ego “Dr. Glaucomflecken.” His short videos have millions of views on YouTube and TikTok, and feature a cast of quirky characters, all played by Will himself, who lightly satirize medical culture and the idiosyncracies of the US healthcare system. And now Will and Kristin have a hybrid comedy and interview podcast called “Knock, Knock, Hi” where they bring on guests who share their own weird and hilarious medical stories.</p><p>If you wanted to find a comparably successful crossover between medicine and comedy, you’d probably have to go all the way back to TV shows like M*A*S*H and Scrubs. But as funny as Will and Kristin’s comedy work can be, it comes from a pretty serious place. Will’s been on the patient side of medical care. He survived two bouts of testicular cancer. And in May of 2020, after WIll went into cardiac arrest, Kristin saved his life by administering CPR until emergency medical technicians could arrive and rush him to the hospital, where surgeons implanted a defibrillator. It was a nightmare experience. But Flanary’s collision after the surgery with the health insurance bureaucracy may have been even worse. All of it became grist for his comedy sketches, and today the Glaucomfleckens videos and podcast range across topics like what goes on behind the scenes in emergency rooms, how oncologists deliver bad news, or why doctors in different specialties sometimes have a hard time communicating. The basic insight behind Will and Kristin’s work is that in a country where the healthcare system often feels so broken and so full of crazy personalities, sometimes you just have to laugh.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>How the Glaucomfleckens are Humanizing Medicine, One Laugh at a Time</itunes:title>
      <itunes:author>Harry Glorikian, Will Flanary, Kristin Flanary</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/67227717-a4a6-457d-bc13-33adf27472ac/3e8e5092-9acf-4338-9f4b-34414b385f93/3000x3000/episode-108.jpg?aid=rss_feed"/>
      <itunes:duration>00:49:26</itunes:duration>
      <itunes:summary>The medical news publication STAT calls Will Flanary “the Internet’s funniest doctor.” The guests we bring on the show usually talk about how technology is changing healthcare, but Will and his wife Kristin are changing healthcare in a very different way—through comedy. A former standup comic who trained as an ophthalmologist and runs a successful ophthalmology practice in Oregon City, Oregon, Will is better known by his alter ego “Dr. Glaucomflecken.” His short videos have millions of views on YouTube and TikTok, and feature a cast of quirky characters, all played by Will himself, who lightly satirize medical culture and the idiosyncracies of the US healthcare system. And now Will and Kristin have a hybrid comedy and interview podcast called “Knock, Knock, Hi” where they bring on guests who share their own weird and hilarious medical stories.</itunes:summary>
      <itunes:subtitle>The medical news publication STAT calls Will Flanary “the Internet’s funniest doctor.” The guests we bring on the show usually talk about how technology is changing healthcare, but Will and his wife Kristin are changing healthcare in a very different way—through comedy. A former standup comic who trained as an ophthalmologist and runs a successful ophthalmology practice in Oregon City, Oregon, Will is better known by his alter ego “Dr. Glaucomflecken.” His short videos have millions of views on YouTube and TikTok, and feature a cast of quirky characters, all played by Will himself, who lightly satirize medical culture and the idiosyncracies of the US healthcare system. And now Will and Kristin have a hybrid comedy and interview podcast called “Knock, Knock, Hi” where they bring on guests who share their own weird and hilarious medical stories.</itunes:subtitle>
      <itunes:keywords>will flanary, youtube, the harry glorikian show, medical humor, lady glaucomflecken, humor, comedy, tiktok, harry glorikian, dr. glaucomflecken</itunes:keywords>
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      <title>Stephen Kingsmore&apos;s Quest to Test Every Baby with Genome Sequencing</title>
      <description><![CDATA[<p>There's a quiet revolution happening in the field of genetic screening of newborns. Within the last couple of years it’s become possible to sequence the entire genome of a newborn baby, all six billion base pairs of DNA, and diagnose potential genetic disorders in about 7 hours. That’s already happening in a handful of hospitals, with a focus on babies who are showing symptoms of rare genetic disorders. But within five years, says Harry's guest, Dr. Stephen Kingsmore, it should be possible to extend this rapid whole-genome sequencing to <i>every</i> baby in <i>every</i> hospital, whether they’re showing symptoms or not.</p><p>Kingsmore earned his medical degrees in Northern Ireland, trained in internal medicine and rheumatology at Duke, and studied genomic medicine at Children’s Mercy Hospital in Kansas City. And he’s now the president and CEO of the Institute for Genomic Medicine at Rady Children’s Hospital in San Diego. There, he’s been leading an aggressive push to prove that rapid whole-genome sequencing and diagnosis can not only save the lives of newborns, but save the healthcare system a lot of money by making hospital stays shorter and therapies more directed. He’s been able to use that argument to get Medicaid agencies in California and five other states, as well as a handful of private insurance companies, to cover whole-genome sequencing as the new standard of care for babies who end up in intensive care with unexplained illnesses. And if his newest project, BeginNGS, succeeds, it could lead to universal screening of all newborns for hundreds or even thousands of rare genetic disorders. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 14 Feb 2023 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Stephen Kingsmore)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>There's a quiet revolution happening in the field of genetic screening of newborns. Within the last couple of years it’s become possible to sequence the entire genome of a newborn baby, all six billion base pairs of DNA, and diagnose potential genetic disorders in about 7 hours. That’s already happening in a handful of hospitals, with a focus on babies who are showing symptoms of rare genetic disorders. But within five years, says Harry's guest, Dr. Stephen Kingsmore, it should be possible to extend this rapid whole-genome sequencing to <i>every</i> baby in <i>every</i> hospital, whether they’re showing symptoms or not.</p><p>Kingsmore earned his medical degrees in Northern Ireland, trained in internal medicine and rheumatology at Duke, and studied genomic medicine at Children’s Mercy Hospital in Kansas City. And he’s now the president and CEO of the Institute for Genomic Medicine at Rady Children’s Hospital in San Diego. There, he’s been leading an aggressive push to prove that rapid whole-genome sequencing and diagnosis can not only save the lives of newborns, but save the healthcare system a lot of money by making hospital stays shorter and therapies more directed. He’s been able to use that argument to get Medicaid agencies in California and five other states, as well as a handful of private insurance companies, to cover whole-genome sequencing as the new standard of care for babies who end up in intensive care with unexplained illnesses. And if his newest project, BeginNGS, succeeds, it could lead to universal screening of all newborns for hundreds or even thousands of rare genetic disorders. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Stephen Kingsmore&apos;s Quest to Test Every Baby with Genome Sequencing</itunes:title>
      <itunes:author>Harry Glorikian, Stephen Kingsmore</itunes:author>
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      <itunes:duration>00:42:51</itunes:duration>
      <itunes:summary>Within the last couple of years it’s become possible to sequence the entire genome of a newborn baby—all six billion base pairs of DNA—and diagnose potential genetic disorders in about 7 hours. That’s already happening in a handful of hospitals, with a focus on babies who are showing symptoms of rare genetic disorders. But within five years, says Harry&apos;s guest Dr. Stephen Kingsmore, it should be possible to extend this rapid whole-genome sequencing to every baby in every hospital, whether they’re showing symptoms or not. Kingsmore is president and CEO of the Institute for Genomic Medicine at Rady Children’s Hospital in San Diego, where he’s been leading an aggressive push to prove that rapid whole-genome sequencing and diagnosis can not only save the lives of newborns, but save the healthcare system a lot of money by making hospital stays shorter and therapies more directed.</itunes:summary>
      <itunes:subtitle>Within the last couple of years it’s become possible to sequence the entire genome of a newborn baby—all six billion base pairs of DNA—and diagnose potential genetic disorders in about 7 hours. That’s already happening in a handful of hospitals, with a focus on babies who are showing symptoms of rare genetic disorders. But within five years, says Harry&apos;s guest Dr. Stephen Kingsmore, it should be possible to extend this rapid whole-genome sequencing to every baby in every hospital, whether they’re showing symptoms or not. Kingsmore is president and CEO of the Institute for Genomic Medicine at Rady Children’s Hospital in San Diego, where he’s been leading an aggressive push to prove that rapid whole-genome sequencing and diagnosis can not only save the lives of newborns, but save the healthcare system a lot of money by making hospital stays shorter and therapies more directed.</itunes:subtitle>
      <itunes:keywords>genetic screening of newborns, neonatal intensive care, rady children&apos;s hospital, rapid genome sequencing, the harry glorikian show, illumina, stephen kingsmore, rapid whole genome sequencing, genomics, harry glorikian, nicu, san diego</itunes:keywords>
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      <title>Arterys Medical Imaging Jumpstarts the AI Revolution in Radiology</title>
      <description><![CDATA[<p>Last October, medical imaging company Arterys announced that it had been acquired by healthcare AI giant Tempus. That caught our attention here at The Harry Glorikian Show, because back in the fall of 2018—exactly 100 episodes ago, as it turns out—we welcomed Arterys co-founder and CEO Fabien Beckers as our guest. </p><p>At the time, Arterys had recently won FDA clearance for a cloud-based software platform that used deep learning to help radiologists automatically locate the contours of the ventricles of the heart. The company would go on to apply similar technology to MRI and CT images of all sorts of tissue, including the breast, chest, brain, and lungs. What made the platform doubly unique was that doctors could access it over the web, so hospitals didn’t have to maintain expensive on-premise software or hardware. </p><p>Today it would be hard to find a health tech company that <i>isn’t</i> using AI and cloud computing in some way, but it's easy to forget how recent those developments are; Arterys was the very first company to obtain FDA clearance for a cloud-based radiology platform. In light of the acquisition news, we decided to dip into the show’s archives and bring that you that original interview with Fabien Beckers, who's now head of digital pathology for the Alphabet company Verily Life Sciences.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 31 Jan 2023 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Fabien Beckers)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Last October, medical imaging company Arterys announced that it had been acquired by healthcare AI giant Tempus. That caught our attention here at The Harry Glorikian Show, because back in the fall of 2018—exactly 100 episodes ago, as it turns out—we welcomed Arterys co-founder and CEO Fabien Beckers as our guest. </p><p>At the time, Arterys had recently won FDA clearance for a cloud-based software platform that used deep learning to help radiologists automatically locate the contours of the ventricles of the heart. The company would go on to apply similar technology to MRI and CT images of all sorts of tissue, including the breast, chest, brain, and lungs. What made the platform doubly unique was that doctors could access it over the web, so hospitals didn’t have to maintain expensive on-premise software or hardware. </p><p>Today it would be hard to find a health tech company that <i>isn’t</i> using AI and cloud computing in some way, but it's easy to forget how recent those developments are; Arterys was the very first company to obtain FDA clearance for a cloud-based radiology platform. In light of the acquisition news, we decided to dip into the show’s archives and bring that you that original interview with Fabien Beckers, who's now head of digital pathology for the Alphabet company Verily Life Sciences.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="26732708" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4f0-f71b-4f07-a16c-af37f911285c/episodes/9cd6d3d4-5426-4180-ab8b-3ce54a120e7a/audio/e9f97520-854b-4de2-b755-fa3db89714c2/default_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Arterys Medical Imaging Jumpstarts the AI Revolution in Radiology</itunes:title>
      <itunes:author>Harry Glorikian, Fabien Beckers</itunes:author>
      <itunes:duration>00:27:50</itunes:duration>
      <itunes:summary>Last October, medical imaging company Arterys announced that it had been acquired by healthcare AI giant Tempus. That caught our attention here at The Harry Glorikian Show, because back in the fall of 2018—exactly 100 episodes ago, as it turns out—we welcomed Arterys co-founder and CEO Fabien Beckers as our guest. At the time, Arterys had recently won FDA clearance for a cloud-based software platform that used deep learning to help radiologists automatically locate the contours of the ventricles of the heart. The company would go on to apply similar technology to MRI and CT images of all sorts of tissue, including the breast, chest, brain, and lungs. What made the platform doubly unique was that doctors could access it over the web, so hospitals didn’t have to maintain expensive on-premise software or hardware. Today it would be hard to find a health tech company that *isn’t* using AI and cloud computing in some way, but it&apos;s easy to forget how recent those developments are; Arterys was the very first company to obtain FDA clearance for a cloud-based radiology platform. In light of the acquisition news, we decided to dip into the show’s archives and bring that you that original interview with Fabien Beckers, who&apos;s now head of digital pathology for the Alphabet company Verily Life Sciences.</itunes:summary>
      <itunes:subtitle>Last October, medical imaging company Arterys announced that it had been acquired by healthcare AI giant Tempus. That caught our attention here at The Harry Glorikian Show, because back in the fall of 2018—exactly 100 episodes ago, as it turns out—we welcomed Arterys co-founder and CEO Fabien Beckers as our guest. At the time, Arterys had recently won FDA clearance for a cloud-based software platform that used deep learning to help radiologists automatically locate the contours of the ventricles of the heart. The company would go on to apply similar technology to MRI and CT images of all sorts of tissue, including the breast, chest, brain, and lungs. What made the platform doubly unique was that doctors could access it over the web, so hospitals didn’t have to maintain expensive on-premise software or hardware. Today it would be hard to find a health tech company that *isn’t* using AI and cloud computing in some way, but it&apos;s easy to forget how recent those developments are; Arterys was the very first company to obtain FDA clearance for a cloud-based radiology platform. In light of the acquisition news, we decided to dip into the show’s archives and bring that you that original interview with Fabien Beckers, who&apos;s now head of digital pathology for the Alphabet company Verily Life Sciences.</itunes:subtitle>
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      <title>Measuring brain activity - Ryan Field on the Harry Glorikian Show</title>
      <description><![CDATA[<p>You can wear an Oura ring or a WHOOP armband to tell you how your body is adapting to exercise. A continuous glucose monitor can send your phone information about your blood sugar levels are changing. And during the pandemic, a lot of people bought home pulse oximeters to monitor their blood oxygenation levels. But there’s one part of the body where home health sensors haven’t reached yet, and that’s our brains. They're protected inside our thick skulls, which means it’s pretty hard to measure what’s going on in there. Until recently, the only real instruments available to doctors and neuroscientists were big hospital-based machines like X-Rays, CT-scans, EEGs, and MRIs.</p><p>But that might finally be changing. Harry's guest this week is Ryan Field, chief technology officer at Kernel. The vision of the L.A.-based company is to develop a consumer device that would work like a pulse oximeter, but for your brain. The first version, Kernel Flow, is shaped like a bicycle helmet, and it contains more than 50 low-power lasers that beam light through your scalp into your skull, into the outermost layers of your brain. Hundreds of detectors built in the helmet collect the light that’s scattered back to determine oxygen levels in the brain’s blood supply, which is an indirect measure of neural activity.</p><p>Field says the company isn't yet targeting specific consumer applications for the Kernel Flow. But it's already using the device in early studies designed to measure a user’s level of focus on a specific task, or how their brain activity changes in response to pain therapy or psychedelic drugs. Field says what Kernel has done is sort of like building the very first iPhone -- but if the only app the device came with was Maps. Now it's up to developers to figure out what else to do with it.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 17 Jan 2023 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>You can wear an Oura ring or a WHOOP armband to tell you how your body is adapting to exercise. A continuous glucose monitor can send your phone information about your blood sugar levels are changing. And during the pandemic, a lot of people bought home pulse oximeters to monitor their blood oxygenation levels. But there’s one part of the body where home health sensors haven’t reached yet, and that’s our brains. They're protected inside our thick skulls, which means it’s pretty hard to measure what’s going on in there. Until recently, the only real instruments available to doctors and neuroscientists were big hospital-based machines like X-Rays, CT-scans, EEGs, and MRIs.</p><p>But that might finally be changing. Harry's guest this week is Ryan Field, chief technology officer at Kernel. The vision of the L.A.-based company is to develop a consumer device that would work like a pulse oximeter, but for your brain. The first version, Kernel Flow, is shaped like a bicycle helmet, and it contains more than 50 low-power lasers that beam light through your scalp into your skull, into the outermost layers of your brain. Hundreds of detectors built in the helmet collect the light that’s scattered back to determine oxygen levels in the brain’s blood supply, which is an indirect measure of neural activity.</p><p>Field says the company isn't yet targeting specific consumer applications for the Kernel Flow. But it's already using the device in early studies designed to measure a user’s level of focus on a specific task, or how their brain activity changes in response to pain therapy or psychedelic drugs. Field says what Kernel has done is sort of like building the very first iPhone -- but if the only app the device came with was Maps. Now it's up to developers to figure out what else to do with it.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="55422244" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4f0-f71b-4f07-a16c-af37f911285c/episodes/5930cda4-4c49-4649-bc27-95ed3f72cb5a/audio/18b05b7e-d803-43d8-b4b6-ac577dad20c0/default_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Measuring brain activity - Ryan Field on the Harry Glorikian Show</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/67227717-a4a6-457d-bc13-33adf27472ac/09fe925b-2d12-4400-ae5b-42f2693d0c53/3000x3000/episode-105.jpg?aid=rss_feed"/>
      <itunes:duration>00:57:43</itunes:duration>
      <itunes:summary>Harry&apos;s guest this week is Ryan Field, chief technology officer at a Los Angeles startup called Kernel. The company is developing a bicycle-helmet-shaped device that measures neural activity in the brain in real time. The first version, called Kernel Flow, contains more than 50 low-power lasers that beam light through the scalp and skull into the outermost layers of the brain. Hundreds of detectors built in the helmet collect the light that’s scattered back to measure oxygen levels in the brain’s blood supply, which is an indirect measure of neural activity. Field says the company doesn&apos;t have specific applications for the technology in mind, but he&apos;s betting that researchers and developers will come up with multiple ways to use Kernel Flow to help consumers gauge their state of mind or visualize how their brains are responding to different activities and therapies.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week is Ryan Field, chief technology officer at a Los Angeles startup called Kernel. The company is developing a bicycle-helmet-shaped device that measures neural activity in the brain in real time. The first version, called Kernel Flow, contains more than 50 low-power lasers that beam light through the scalp and skull into the outermost layers of the brain. Hundreds of detectors built in the helmet collect the light that’s scattered back to measure oxygen levels in the brain’s blood supply, which is an indirect measure of neural activity. Field says the company doesn&apos;t have specific applications for the technology in mind, but he&apos;s betting that researchers and developers will come up with multiple ways to use Kernel Flow to help consumers gauge their state of mind or visualize how their brains are responding to different activities and therapies.</itunes:subtitle>
      <itunes:keywords>kernel flow, td-fnirs, brain imaging, the harry glorikian show, bryan johnson, brain, harry glorikian, brain-computer interfaces, kernel, fmri, ryan field</itunes:keywords>
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      <title>Grail&apos;s Josh Ofman on the Revolution of Cancer Screening</title>
      <description><![CDATA[<p>Out of all the dozens of types of cancer that occur in humans, we habitually screen for only five: breast, cervical, colon, prostate, and lung. But what if there were a single test that could detect 50 types of cancer, based on a simple blood draw? That's exactly what's possible today, thanks to the Galleri test, introduced by Illumina spinoff Grail in 2021. The $949 test, which won breakthrough designation from the FDA in 2019, uses machine learning to assess the patterns of methyl groups—molecules that attach to chromosomes and control gene activity—in free-floating DNA shed by tumors. </p><p>This week Harry interviews Grail's president, Dr. Josh Ofman. He says that the company is working to bring down the price of the test, and that if multi-cancer early detection tests like Galleri are eventually approved for population-level screening, it could help avert 100,000 deaths per year.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 3 Jan 2023 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Josh Ofman)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Out of all the dozens of types of cancer that occur in humans, we habitually screen for only five: breast, cervical, colon, prostate, and lung. But what if there were a single test that could detect 50 types of cancer, based on a simple blood draw? That's exactly what's possible today, thanks to the Galleri test, introduced by Illumina spinoff Grail in 2021. The $949 test, which won breakthrough designation from the FDA in 2019, uses machine learning to assess the patterns of methyl groups—molecules that attach to chromosomes and control gene activity—in free-floating DNA shed by tumors. </p><p>This week Harry interviews Grail's president, Dr. Josh Ofman. He says that the company is working to bring down the price of the test, and that if multi-cancer early detection tests like Galleri are eventually approved for population-level screening, it could help avert 100,000 deaths per year.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Grail&apos;s Josh Ofman on the Revolution of Cancer Screening</itunes:title>
      <itunes:author>Harry Glorikian, Josh Ofman</itunes:author>
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      <itunes:duration>01:03:25</itunes:duration>
      <itunes:summary>Out of all the dozens of types of cancer that occur in humans, we habitually screen for only five: breast, cervical, colon, prostate, and lung. But what if there were a single test that could detect 50 types of cancer, based on a simple blood draw? That&apos;s exactly what&apos;s possible today, thanks to the Galleri test, introduced by Grail in 2021. The $949 test, which won breakthrough designation from the FDA in 2019, uses machine learning to assess the patterns of methyl groups—molecules that attach to chromosomes and control gene activity—in free-floating DNA shed by tumors. This week Harry interviews Grail&apos;s president, Dr. Josh Ofman, who says that if multi-cancer early detection tests like Galleri are eventually approved for population-level screening, it could help avert 100,000 deaths per year.</itunes:summary>
      <itunes:subtitle>Out of all the dozens of types of cancer that occur in humans, we habitually screen for only five: breast, cervical, colon, prostate, and lung. But what if there were a single test that could detect 50 types of cancer, based on a simple blood draw? That&apos;s exactly what&apos;s possible today, thanks to the Galleri test, introduced by Grail in 2021. The $949 test, which won breakthrough designation from the FDA in 2019, uses machine learning to assess the patterns of methyl groups—molecules that attach to chromosomes and control gene activity—in free-floating DNA shed by tumors. This week Harry interviews Grail&apos;s president, Dr. Josh Ofman, who says that if multi-cancer early detection tests like Galleri are eventually approved for population-level screening, it could help avert 100,000 deaths per year.</itunes:subtitle>
      <itunes:keywords>multi cancer early detection, prostate cancer, lung cancer, colon cancer, the harry glorikian show, dna, illumina, cancer screening, cancer, josh ofman, cervical cancer, harry glorikian, breast cancer, grail, galleri</itunes:keywords>
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      <title>Carlos Ciller – AI Is The Window To The Soul At RetinAI</title>
      <description><![CDATA[<p>These days, there's an explosion of digital imaging technology for almost every part of the body. There are the familiar types of imaging everyone knows, like CT scans, MRIs, ultrasound, and of course, X-rays. But now doctors and medical researchers are also exploring newer types of digital imaging technology, such as Optical Coherence Tomography, or OCT.</p><p>OCT uses near-infrared light that penetrates just a couple of millimeters into a tissue such as an artery wall or the retina of the eye. By collecting the light that scatters back, OCT can produce an incredibly high-resolution cross section or even a 3D reconstruction of the tissue. Ophthalmology is one of the fields putting OCT to use most aggressively, partly because it’s perfect for showing cross-sections of the retina, the iris, the cornea, or the lens on the scale of micrometers.</p><p>But as you can imagine, every time an ophthalmologist or optometrist uses an OCT scanner, the procedure generates a huge amount of digital data. Harry's guest, Carlos Ciller, started a company called RetinAI whose mission is to help eye doctors, eye surgeons, and scientists studying the eye manage and analyze all that information. And not just information from OCT, but from other types of eye imaging like fundus photography and fluorescent angiography.</p><p>At one level, RetinAI is just doing its part to cure a huge headache we’ve talked about again and again on the show, which is the lack of standards and interoperability in the healthcare IT world. They want to make it possible to store and analyze digital images of the eye no matter what technology or device was used to capture it. But more intriguingly, once that data is stored in a structured way, it’s possible to use machine learning and other forms of artificial intelligence to sort through image data and identify pathologies or double-check the judgments of human physicians. RetinAI is developing algorithms that could make it easier to diagnose and treat common conditions like age-related macular degeneration—a form of damage to the retina that causes vision loss in almost 200 million people around the world. Ciller told me he started out his career as a telecom engineer and never thought he’d wind up running a 40-person company that works to help people with vision problems. But at a time when there’s so much new data available to diagnose disease rand identify the best treatments, journey’s like his—from the computer lab to the clinic—are becoming more and more common.  </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 20 Dec 2022 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Carlos Ciller)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>These days, there's an explosion of digital imaging technology for almost every part of the body. There are the familiar types of imaging everyone knows, like CT scans, MRIs, ultrasound, and of course, X-rays. But now doctors and medical researchers are also exploring newer types of digital imaging technology, such as Optical Coherence Tomography, or OCT.</p><p>OCT uses near-infrared light that penetrates just a couple of millimeters into a tissue such as an artery wall or the retina of the eye. By collecting the light that scatters back, OCT can produce an incredibly high-resolution cross section or even a 3D reconstruction of the tissue. Ophthalmology is one of the fields putting OCT to use most aggressively, partly because it’s perfect for showing cross-sections of the retina, the iris, the cornea, or the lens on the scale of micrometers.</p><p>But as you can imagine, every time an ophthalmologist or optometrist uses an OCT scanner, the procedure generates a huge amount of digital data. Harry's guest, Carlos Ciller, started a company called RetinAI whose mission is to help eye doctors, eye surgeons, and scientists studying the eye manage and analyze all that information. And not just information from OCT, but from other types of eye imaging like fundus photography and fluorescent angiography.</p><p>At one level, RetinAI is just doing its part to cure a huge headache we’ve talked about again and again on the show, which is the lack of standards and interoperability in the healthcare IT world. They want to make it possible to store and analyze digital images of the eye no matter what technology or device was used to capture it. But more intriguingly, once that data is stored in a structured way, it’s possible to use machine learning and other forms of artificial intelligence to sort through image data and identify pathologies or double-check the judgments of human physicians. RetinAI is developing algorithms that could make it easier to diagnose and treat common conditions like age-related macular degeneration—a form of damage to the retina that causes vision loss in almost 200 million people around the world. Ciller told me he started out his career as a telecom engineer and never thought he’d wind up running a 40-person company that works to help people with vision problems. But at a time when there’s so much new data available to diagnose disease rand identify the best treatments, journey’s like his—from the computer lab to the clinic—are becoming more and more common.  </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Carlos Ciller – AI Is The Window To The Soul At RetinAI</itunes:title>
      <itunes:author>Harry Glorikian, Carlos Ciller</itunes:author>
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      <itunes:summary>Harry&apos;s guest this week, Carlos Ciller, started a company called RetinAI whose mission is to help eye doctors, eye surgeons, and scientists studying the eye manage and analyze the data from new kinds of eye imaging, including optical coherence tomography (OCT), fundus photography, and fluorescent angiography. At one level, RetinAI is just doing its part to cure a huge headache the show has revisited many times: the lack of standards and interoperability in the healthcare IT world. They want to make it possible to store and analyze digital images of the eye no matter what technology or device was used to capture it. But once that data is stored in a structured way, it’s possible to use machine learning and other forms of artificial intelligence to sort through image data and identify pathologies or double-check the judgments of human physicians. So RetinAI is developing algorithms that could make it easier to diagnose and treat common conditions like age-related macular degeneration—a form of damage to the retina that causes vision loss in almost 200 million people around the world. Ciller told me he started out his career as a telecom engineer and never thought he’d wind up running a 40-person company that works to help people with vision problems. But at a time when there’s so much new data available to diagnose disease rand identify the best treatments, journey’s like his—from the computer lab to the clinic—are becoming more and more common.  </itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week, Carlos Ciller, started a company called RetinAI whose mission is to help eye doctors, eye surgeons, and scientists studying the eye manage and analyze the data from new kinds of eye imaging, including optical coherence tomography (OCT), fundus photography, and fluorescent angiography. At one level, RetinAI is just doing its part to cure a huge headache the show has revisited many times: the lack of standards and interoperability in the healthcare IT world. They want to make it possible to store and analyze digital images of the eye no matter what technology or device was used to capture it. But once that data is stored in a structured way, it’s possible to use machine learning and other forms of artificial intelligence to sort through image data and identify pathologies or double-check the judgments of human physicians. So RetinAI is developing algorithms that could make it easier to diagnose and treat common conditions like age-related macular degeneration—a form of damage to the retina that causes vision loss in almost 200 million people around the world. Ciller told me he started out his career as a telecom engineer and never thought he’d wind up running a 40-person company that works to help people with vision problems. But at a time when there’s so much new data available to diagnose disease rand identify the best treatments, journey’s like his—from the computer lab to the clinic—are becoming more and more common.  </itunes:subtitle>
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      <title>January&apos;s Noosheen Hashemi on Preventing Diabetes by Promoting Gut Health</title>
      <description><![CDATA[<p>There are many causes for diabetes—chronicallly high blood sugar—but there’s also a growing list of ways to prevent it, or manage it once it starts. Wearable technologies like continuous glucose monitors or CGMs are high on that list. These devices have tiny needles that penetrate the skin and measure glucose levels in the interstitial fluid between cells. They can send that data to a smartphone, where apps made by a variety of companies can record it and analyze it.</p><p>January.ai is one such company, and co-founder and CEO Noosheen Hashemi joined Harry on the show back in July of 2021. It turns out that the same foods can have different effects on the blood glucose levels of different individuals, and January’s app starts off using live CGM data to study those patterns using machine learning algorithms. Then it can start making predictions about a user's future blood glucose levels, even after they stop wearing a CGM. That can help them make smarter decisions about what, when, or how much to eat, or how much they need to exercise after eating.</p><p>January’s main goal is not to treat diabetes but actually to prevent it from arising in the first place in the tens of millions of people who have signs of pre<i>-</i>diabetes. Now Hashemi has helped to launch a second business, Eden's, that helps with that goal by promoting better gut health. The company makes a nutritional supplement that provides a blend of polyphenols, probiotics, and prebiotics to help improve the function of the bacteria that call your large intestine home. </p><p>Probiotics, which live organisms introduced to change the makeup of your gut microbiome. Prebiotics are non-digestible substances that are fermented by beneficial bacteria like <i>bifidobacteria</i> and <i>lactobacillus</i>, breaking them down into useful nutrients like short-chain fatty acids. Altogether, the Eden’s blend is designed to keep your gut microbiomes happy, which can have the useful side effect of helping to keep your blood glucose steady. Harry talked with Hashemi to talk about why that’s so important, and about the work January has been doing this year to update its glucose monitoring app—and how the app works in concert with the Eden's supplements. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 6 Dec 2022 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Noosheen Hashemi)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>There are many causes for diabetes—chronicallly high blood sugar—but there’s also a growing list of ways to prevent it, or manage it once it starts. Wearable technologies like continuous glucose monitors or CGMs are high on that list. These devices have tiny needles that penetrate the skin and measure glucose levels in the interstitial fluid between cells. They can send that data to a smartphone, where apps made by a variety of companies can record it and analyze it.</p><p>January.ai is one such company, and co-founder and CEO Noosheen Hashemi joined Harry on the show back in July of 2021. It turns out that the same foods can have different effects on the blood glucose levels of different individuals, and January’s app starts off using live CGM data to study those patterns using machine learning algorithms. Then it can start making predictions about a user's future blood glucose levels, even after they stop wearing a CGM. That can help them make smarter decisions about what, when, or how much to eat, or how much they need to exercise after eating.</p><p>January’s main goal is not to treat diabetes but actually to prevent it from arising in the first place in the tens of millions of people who have signs of pre<i>-</i>diabetes. Now Hashemi has helped to launch a second business, Eden's, that helps with that goal by promoting better gut health. The company makes a nutritional supplement that provides a blend of polyphenols, probiotics, and prebiotics to help improve the function of the bacteria that call your large intestine home. </p><p>Probiotics, which live organisms introduced to change the makeup of your gut microbiome. Prebiotics are non-digestible substances that are fermented by beneficial bacteria like <i>bifidobacteria</i> and <i>lactobacillus</i>, breaking them down into useful nutrients like short-chain fatty acids. Altogether, the Eden’s blend is designed to keep your gut microbiomes happy, which can have the useful side effect of helping to keep your blood glucose steady. Harry talked with Hashemi to talk about why that’s so important, and about the work January has been doing this year to update its glucose monitoring app—and how the app works in concert with the Eden's supplements. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>January&apos;s Noosheen Hashemi on Preventing Diabetes by Promoting Gut Health</itunes:title>
      <itunes:author>Harry Glorikian, Noosheen Hashemi</itunes:author>
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      <itunes:duration>00:46:51</itunes:duration>
      <itunes:summary>This week January.ai co-founder and CEO Noosheen Hashemi returns to the show after her debut interview in July 2021. January makes a smartphone app that uses machine learning algorithm to learn how a diabetes or pre-diabetic patient&apos;s blood glucose levels respond to different foods. After collecting data from a wearable continuous glucose monitor, or CGM, for a few days, the app can start making predictions about a user&apos;s future blood glucose levels, even after they stop wearing a CGM. And that can help them make smarter decisions about what, when, or how much to eat, or how much they need to exercise after eating. Harry interviews Hashemi about the company&apos;s work to update the app, as well as a second company Hashemi co-founded, Eden&apos;s, to make supplements that promote gut microbiome health and—as a results—steadier blood glucose levels. </itunes:summary>
      <itunes:subtitle>This week January.ai co-founder and CEO Noosheen Hashemi returns to the show after her debut interview in July 2021. January makes a smartphone app that uses machine learning algorithm to learn how a diabetes or pre-diabetic patient&apos;s blood glucose levels respond to different foods. After collecting data from a wearable continuous glucose monitor, or CGM, for a few days, the app can start making predictions about a user&apos;s future blood glucose levels, even after they stop wearing a CGM. And that can help them make smarter decisions about what, when, or how much to eat, or how much they need to exercise after eating. Harry interviews Hashemi about the company&apos;s work to update the app, as well as a second company Hashemi co-founded, Eden&apos;s, to make supplements that promote gut microbiome health and—as a results—steadier blood glucose levels. </itunes:subtitle>
      <itunes:keywords>pre-diabetes, microbiome, continuous glucose monitor, january, eden&apos;s, gut health, blood glucose, diabetes, cgm</itunes:keywords>
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      <title>At Univfy, Mylene Yao Is Making IVF More Predictable and Affordable</title>
      <description><![CDATA[<p>About half a million babies are born every year through IVF. That number would probably be a lot higher if the procedure were cheaper and more accessible—but making that happen would  mean transforming IVF from an artisanal craft into something more like a modern automated factory, with AI helping doctors and technicians make faster and better decisions at every step. </p><p>And that’s exactly what Harry's guest Mylene Yao, the co-founder of Univfy, is doing. Univfy helps patients with two aspects of the IVF process. The first is using machine learning to provide patients with a more accurate assessment of  the odds of success, before they decide whether to invest in one or more IVF cycles, which can cost up to $30,000 per cycle. The second is financing. Univfy works with a bank called Lightstream to provide up to $100,000 in financing for up to three rounds of IVF, with a large refund as part of the deal if the treatments don’t result in a baby. </p><p>Harry talks with Dr. Yao about the prospects for far broader access to IVF, now that the field is finally adopting more ideas from the worlds of technology and finance. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 22 Nov 2022 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Mylene Yao)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>About half a million babies are born every year through IVF. That number would probably be a lot higher if the procedure were cheaper and more accessible—but making that happen would  mean transforming IVF from an artisanal craft into something more like a modern automated factory, with AI helping doctors and technicians make faster and better decisions at every step. </p><p>And that’s exactly what Harry's guest Mylene Yao, the co-founder of Univfy, is doing. Univfy helps patients with two aspects of the IVF process. The first is using machine learning to provide patients with a more accurate assessment of  the odds of success, before they decide whether to invest in one or more IVF cycles, which can cost up to $30,000 per cycle. The second is financing. Univfy works with a bank called Lightstream to provide up to $100,000 in financing for up to three rounds of IVF, with a large refund as part of the deal if the treatments don’t result in a baby. </p><p>Harry talks with Dr. Yao about the prospects for far broader access to IVF, now that the field is finally adopting more ideas from the worlds of technology and finance. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>At Univfy, Mylene Yao Is Making IVF More Predictable and Affordable</itunes:title>
      <itunes:author>Harry Glorikian, Mylene Yao</itunes:author>
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      <itunes:duration>00:56:57</itunes:duration>
      <itunes:summary>About half a million babies are born every year through IVF. That number would probably be a lot higher if the procedure were cheaper and more accessible—but making that happen would  mean transforming IVF from an artisanal craft into something more like a modern automated factory, with AI helping doctors and technicians make faster and better decisions at every step. And that’s exactly what Harry&apos;s guest Mylene Yao, the co-founder of Univfy, is doing. Univfy helps patients with two aspects of the IVF process. The first is using machine learning to provide patients with a more accurate assessment of  the odds of success, before they decide whether to invest in one or more IVF cycles, which can cost up to $30,000 per cycle. The second is financing. Univfy works with a bank called Lightstream to provide up to $100,000 in financing for up to three rounds of IVF, with a large refund as part of the deal if the treatments don’t result in a baby. Harry talks with Dr. Yao about the prospects for far broader access to IVF, now that the field is finally adopting more ideas from the worlds of technology and finance. </itunes:summary>
      <itunes:subtitle>About half a million babies are born every year through IVF. That number would probably be a lot higher if the procedure were cheaper and more accessible—but making that happen would  mean transforming IVF from an artisanal craft into something more like a modern automated factory, with AI helping doctors and technicians make faster and better decisions at every step. And that’s exactly what Harry&apos;s guest Mylene Yao, the co-founder of Univfy, is doing. Univfy helps patients with two aspects of the IVF process. The first is using machine learning to provide patients with a more accurate assessment of  the odds of success, before they decide whether to invest in one or more IVF cycles, which can cost up to $30,000 per cycle. The second is financing. Univfy works with a bank called Lightstream to provide up to $100,000 in financing for up to three rounds of IVF, with a large refund as part of the deal if the treatments don’t result in a baby. Harry talks with Dr. Yao about the prospects for far broader access to IVF, now that the field is finally adopting more ideas from the worlds of technology and finance. </itunes:subtitle>
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      <title>Episode 100! Illumina&apos;s Phil Febbo on the New Era of Low-Cost Genome Sequencing</title>
      <description><![CDATA[<p>For the 100th episode of The Harry Glorikian Show, Harry welcomes Phil Febbo, chief medical officer at Illumina. The San Diego-based company is the leading maker of the high-speed gene sequencing machines that are at the core of the precision medicine revolution. The company has an 80 percent market share, which means that if you or your loved one has had any sequencing done for any reason, chances are your samples were sequenced on an Illumina machine. Gene sequencing is already a key part of both diagnostics and treatment decisions for many disease, but its use is only going to expand as the technology gets faster and cheaper.</p><p>This fall, Illumina announced that it’s coming out a new gene sequencing machine called the NovaSeq X that can sequence a genome more than twice as fast as Illumina’s previous top-of-the-line machine, and at a lower cost. That’s bound to speed up progress all across the field of genetic medicine, drug discovery, and life science research. And that’s where Harry starts his interview with Febbo.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 8 Nov 2022 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Phil Febbo)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>For the 100th episode of The Harry Glorikian Show, Harry welcomes Phil Febbo, chief medical officer at Illumina. The San Diego-based company is the leading maker of the high-speed gene sequencing machines that are at the core of the precision medicine revolution. The company has an 80 percent market share, which means that if you or your loved one has had any sequencing done for any reason, chances are your samples were sequenced on an Illumina machine. Gene sequencing is already a key part of both diagnostics and treatment decisions for many disease, but its use is only going to expand as the technology gets faster and cheaper.</p><p>This fall, Illumina announced that it’s coming out a new gene sequencing machine called the NovaSeq X that can sequence a genome more than twice as fast as Illumina’s previous top-of-the-line machine, and at a lower cost. That’s bound to speed up progress all across the field of genetic medicine, drug discovery, and life science research. And that’s where Harry starts his interview with Febbo.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Episode 100! Illumina&apos;s Phil Febbo on the New Era of Low-Cost Genome Sequencing</itunes:title>
      <itunes:author>Harry Glorikian, Phil Febbo</itunes:author>
      <itunes:duration>00:52:45</itunes:duration>
      <itunes:summary>For the 100th episode of The Harry Glorikian Show, Harry welcomes Phil Febbo, chief medical officer at Illumina. The San Diego-based company is the leading maker of the high-speed gene sequencing machines that are at the core of the precision medicine revolution. The company has an 80 percent market share, which means that if you or your loved one has had any sequencing done for any reason, chances are your samples were sequenced on an Illumina machine. Gene sequencing is already a key part of both diagnostics and treatment decisions for many disease, but its use is only going to expand as the technology gets faster and cheaper. This fall, Illumina announced that it’s coming out a new gene sequencing machine called the NovaSeq X that can sequence a genome more than twice as fast as Illumina’s previous top-of-the-line machine, and at a lower cost. That’s bound to speed up progress all across the field of genetic medicine, drug discovery, and life science research. And that’s where Harry starts his interview with Febbo.</itunes:summary>
      <itunes:subtitle>For the 100th episode of The Harry Glorikian Show, Harry welcomes Phil Febbo, chief medical officer at Illumina. The San Diego-based company is the leading maker of the high-speed gene sequencing machines that are at the core of the precision medicine revolution. The company has an 80 percent market share, which means that if you or your loved one has had any sequencing done for any reason, chances are your samples were sequenced on an Illumina machine. Gene sequencing is already a key part of both diagnostics and treatment decisions for many disease, but its use is only going to expand as the technology gets faster and cheaper. This fall, Illumina announced that it’s coming out a new gene sequencing machine called the NovaSeq X that can sequence a genome more than twice as fast as Illumina’s previous top-of-the-line machine, and at a lower cost. That’s bound to speed up progress all across the field of genetic medicine, drug discovery, and life science research. And that’s where Harry starts his interview with Febbo.</itunes:subtitle>
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      <title>David Sable is Still Working on Making IVF More Accessible</title>
      <description><![CDATA[<p>In 1978, Louise Joy Brown was celebrated as the world's first "test tube baby," born as the result of in vitro fertilization (IVF). Today, Brown is 44 years old, and what was a technological triumph in 1978 is almost routine today, with half a million babies born every through IVF. But Harry's guest this week, gynecologist and investor David Sable, thinks IVF still isn’t nearly as reliable or accessible as it should be. From his studies of infertility services, he’s convinced that society is on the cusp of bringing down the cost and raising the success rate of IVF, so that it can finally become an affordable solution for millions more people every year who want to start or grow their families. And he thinks one of the keys to the next big wave of advances in IVF will be artificial intelligence. </p><p>As you’ll hear in this week's interview, Sable thinks most IVF labs today still operate almost like artisanal kitchens, with way too much riding on the judgment of individual doctors and technicians. He thinks machine learning algorithms could supplement human expertise at many points in the process, and turn what’s essentially a craft into a truly automated and predictable industry. His central argument is that IVF won’t truly be democratized until providers have “engineered the hell out of” the procedure, to increase success rates and lower the chances that patients will have to pay for more than one cycle of the treatment. At the same time, he says the concept of value-based care needs to make its way into the IVF world, so that patients and their insurers or their employers only pay when the procedure works, not when it fails. </p><p>Stay tuned to future episodes for more discussion about the role of AI in IVF.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 25 Oct 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, David Sable)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>In 1978, Louise Joy Brown was celebrated as the world's first "test tube baby," born as the result of in vitro fertilization (IVF). Today, Brown is 44 years old, and what was a technological triumph in 1978 is almost routine today, with half a million babies born every through IVF. But Harry's guest this week, gynecologist and investor David Sable, thinks IVF still isn’t nearly as reliable or accessible as it should be. From his studies of infertility services, he’s convinced that society is on the cusp of bringing down the cost and raising the success rate of IVF, so that it can finally become an affordable solution for millions more people every year who want to start or grow their families. And he thinks one of the keys to the next big wave of advances in IVF will be artificial intelligence. </p><p>As you’ll hear in this week's interview, Sable thinks most IVF labs today still operate almost like artisanal kitchens, with way too much riding on the judgment of individual doctors and technicians. He thinks machine learning algorithms could supplement human expertise at many points in the process, and turn what’s essentially a craft into a truly automated and predictable industry. His central argument is that IVF won’t truly be democratized until providers have “engineered the hell out of” the procedure, to increase success rates and lower the chances that patients will have to pay for more than one cycle of the treatment. At the same time, he says the concept of value-based care needs to make its way into the IVF world, so that patients and their insurers or their employers only pay when the procedure works, not when it fails. </p><p>Stay tuned to future episodes for more discussion about the role of AI in IVF.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>David Sable is Still Working on Making IVF More Accessible</itunes:title>
      <itunes:author>Harry Glorikian, David Sable</itunes:author>
      <itunes:duration>01:04:14</itunes:duration>
      <itunes:summary>In 1978, Louise Joy Brown was celebrated as the world&apos;s first &quot;test tube baby,&quot; born as the result of in vitro fertilization (IVF). Today, Brown is 44 years old, and what was a technological triumph in 1978 is almost routine today, with half a million babies born every through IVF. But Harry&apos;s guest this week, gynecologist and investor David Sable, thinks IVF still isn’t nearly as reliable or accessible as it should be. From his studies of infertility services, he’s convinced that society is on the cusp of bringing down the cost and raising the success rate of IVF, so that it can finally become an affordable solution for millions more people every year who want to start or grow their families. And he thinks one of the keys to the next big wave of advances in IVF will be artificial intelligence. </itunes:summary>
      <itunes:subtitle>In 1978, Louise Joy Brown was celebrated as the world&apos;s first &quot;test tube baby,&quot; born as the result of in vitro fertilization (IVF). Today, Brown is 44 years old, and what was a technological triumph in 1978 is almost routine today, with half a million babies born every through IVF. But Harry&apos;s guest this week, gynecologist and investor David Sable, thinks IVF still isn’t nearly as reliable or accessible as it should be. From his studies of infertility services, he’s convinced that society is on the cusp of bringing down the cost and raising the success rate of IVF, so that it can finally become an affordable solution for millions more people every year who want to start or grow their families. And he thinks one of the keys to the next big wave of advances in IVF will be artificial intelligence. </itunes:subtitle>
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      <title>How H1 Is Networking the Healthcare World, with Ariel Katz</title>
      <description><![CDATA[<p>“LinkedIn meets ZoomInfo meets Zocdoc, but for doctors." That’s how H1 co-founder and CEO Ariel Katz describes the information service his company offers. It's a response to the fact that the healthcare is incredibly fragmented, with no central database or platform that everyone can use to share their professional profiles and get in touch with colleagues. (Physicians never adopted LinkedIn for this kind of networking because they just don’t switch jobs very often.) Without a central directory, patients can have a hard time find the right doctors, and doctors can have a hard time finding each other—say, when they might be searching for research collaborators. It’s an even bigger frustration for drug companies, who need to know which doctors can help them enroll the right patients for clinical trials. H1 is trying to solve all of those problems by building what Katz says will be the world’s largest graph database of people in healthcare. After participating in the 2020 batch of startups at the Silicon Valley incubator Y Combinator, H1 has rocketed forward, raising almost $200 million in venture capital. This week Ariel joins Harry to talk about how and why H1 has grown so quickly, and how better networking could accelerate drug development and help patients find the best doctors for them.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 11 Oct 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Ariel Katz)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>“LinkedIn meets ZoomInfo meets Zocdoc, but for doctors." That’s how H1 co-founder and CEO Ariel Katz describes the information service his company offers. It's a response to the fact that the healthcare is incredibly fragmented, with no central database or platform that everyone can use to share their professional profiles and get in touch with colleagues. (Physicians never adopted LinkedIn for this kind of networking because they just don’t switch jobs very often.) Without a central directory, patients can have a hard time find the right doctors, and doctors can have a hard time finding each other—say, when they might be searching for research collaborators. It’s an even bigger frustration for drug companies, who need to know which doctors can help them enroll the right patients for clinical trials. H1 is trying to solve all of those problems by building what Katz says will be the world’s largest graph database of people in healthcare. After participating in the 2020 batch of startups at the Silicon Valley incubator Y Combinator, H1 has rocketed forward, raising almost $200 million in venture capital. This week Ariel joins Harry to talk about how and why H1 has grown so quickly, and how better networking could accelerate drug development and help patients find the best doctors for them.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>How H1 Is Networking the Healthcare World, with Ariel Katz</itunes:title>
      <itunes:author>Harry Glorikian, Ariel Katz</itunes:author>
      <itunes:duration>00:35:13</itunes:duration>
      <itunes:summary>“LinkedIn meets ZoomInfo meets Zocdoc, but for doctors.&quot; That’s how H1 co-founder and CEO Ariel Katz describes the information service his company offers. It&apos;s a response to the fact that the healthcare is incredibly fragmented, with no central database or platform that everyone can use to share their professional profiles and get in touch with colleagues. (Physicians never adopted LinkedIn for this kind of networking because they just don’t switch jobs very often.) Without a central directory, patients can have a hard time find the right doctors, and doctors can have a hard time finding each other—say, when they might be searching for research collaborators. It’s an even bigger frustration for drug companies, who need to know which doctors can help them enroll the right patients for clinical trials. H1 is trying to solve all of those problems by building what Katz says will be the world’s largest graph database of people in healthcare. After participating in the 2020 batch of startups at the Silicon Valley incubator Y Combinator, H1 has rocketed forward, raising almost $200 million in venture capital. This week Ariel joins Harry to talk about how and why H1 has grown so quickly, and how better networking could accelerate drug development and help patients find the best doctors for them.</itunes:summary>
      <itunes:subtitle>“LinkedIn meets ZoomInfo meets Zocdoc, but for doctors.&quot; That’s how H1 co-founder and CEO Ariel Katz describes the information service his company offers. It&apos;s a response to the fact that the healthcare is incredibly fragmented, with no central database or platform that everyone can use to share their professional profiles and get in touch with colleagues. (Physicians never adopted LinkedIn for this kind of networking because they just don’t switch jobs very often.) Without a central directory, patients can have a hard time find the right doctors, and doctors can have a hard time finding each other—say, when they might be searching for research collaborators. It’s an even bigger frustration for drug companies, who need to know which doctors can help them enroll the right patients for clinical trials. H1 is trying to solve all of those problems by building what Katz says will be the world’s largest graph database of people in healthcare. After participating in the 2020 batch of startups at the Silicon Valley incubator Y Combinator, H1 has rocketed forward, raising almost $200 million in venture capital. This week Ariel joins Harry to talk about how and why H1 has grown so quickly, and how better networking could accelerate drug development and help patients find the best doctors for them.</itunes:subtitle>
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      <title>Erwin Seinen Says the Paper Lab Notebook Is Finally Dying with eLabNext</title>
      <description><![CDATA[<p>If you walked into a typical life science research lab at a university or a biotech startup, you might be surprised to see how much paper is still laying around. A lot of researchers still keep records of their experiments and studies in paper notebooks—in fact, along with doctor’s offices, life sciences labs might be one of the last bastions of professional life that surrenders to digitization. </p><p>But these labs <i>are</i> surrendering. And Harry's guest this week, Erwin Seinen, is helping to accelerate that shift. He’s the founder and CEO of a company called eLabNext, whose core product is a Web-based software platform called eLabJournal that includes tools for inventory and sample tracking, managing experimental protocols and procedures, and recording experimental results.</p><p>Seinen spent years building e-commerce tools before he went back to school and got his degree in medical genetics. So he knew how to write software, and to streamline his dissertation work, he built his own electronic lab notebook tool. He says his lab colleagues were so jealous that he realized every lab researcher needs a similar tool. And that’s how eLabNext was born.</p><p>But when absolutely everything goes digital, there’s the danger of losing the special connection between mind, pen, and paper that goes with making old-fashioned handwritten notes. Harry talked with Seinen about that, as well as his vision of how an electronic lab notebook can fit together with other lab tools in an era where there’s just too much data to print out everything on paper. If companies and universities manage this transition right, they can benefit from all the latest digital tools—without sacrificing any of the spontaneity, curiosity, or creativity that good science is all about.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 27 Sep 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Erwin Seinen)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>If you walked into a typical life science research lab at a university or a biotech startup, you might be surprised to see how much paper is still laying around. A lot of researchers still keep records of their experiments and studies in paper notebooks—in fact, along with doctor’s offices, life sciences labs might be one of the last bastions of professional life that surrenders to digitization. </p><p>But these labs <i>are</i> surrendering. And Harry's guest this week, Erwin Seinen, is helping to accelerate that shift. He’s the founder and CEO of a company called eLabNext, whose core product is a Web-based software platform called eLabJournal that includes tools for inventory and sample tracking, managing experimental protocols and procedures, and recording experimental results.</p><p>Seinen spent years building e-commerce tools before he went back to school and got his degree in medical genetics. So he knew how to write software, and to streamline his dissertation work, he built his own electronic lab notebook tool. He says his lab colleagues were so jealous that he realized every lab researcher needs a similar tool. And that’s how eLabNext was born.</p><p>But when absolutely everything goes digital, there’s the danger of losing the special connection between mind, pen, and paper that goes with making old-fashioned handwritten notes. Harry talked with Seinen about that, as well as his vision of how an electronic lab notebook can fit together with other lab tools in an era where there’s just too much data to print out everything on paper. If companies and universities manage this transition right, they can benefit from all the latest digital tools—without sacrificing any of the spontaneity, curiosity, or creativity that good science is all about.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Erwin Seinen Says the Paper Lab Notebook Is Finally Dying with eLabNext</itunes:title>
      <itunes:author>Harry Glorikian, Erwin Seinen</itunes:author>
      <itunes:duration>00:44:42</itunes:duration>
      <itunes:summary>If you walked into a typical life science lab, you might be surprised to see how much paper is still laying around. Many researchers still keep records of their experiments and studies in paper notebooks. In fact, along with doctor’s offices, biotech labs might be one of the last bastions of professional life that finally surrenders to digitization. But Harry&apos;s guest this week, Erwin Seinen, is helping to accelerate the shift. He’s the founder and CEO of a company called eLabNext, whose core product is a Web-based software platform called eLabJournal that includes tools for inventory and sample tracking, managing experimental protocols and procedures, and recording experimental results. Seinen explained to Harry how an electronic lab notebook can fit together with other lab tools, in an era where there’s just too much data to track everything on paper—and how companies can manage the transition to digital tools without sacrificing any of the spontaneity, curiosity, or creativity that good science is all about.</itunes:summary>
      <itunes:subtitle>If you walked into a typical life science lab, you might be surprised to see how much paper is still laying around. Many researchers still keep records of their experiments and studies in paper notebooks. In fact, along with doctor’s offices, biotech labs might be one of the last bastions of professional life that finally surrenders to digitization. But Harry&apos;s guest this week, Erwin Seinen, is helping to accelerate the shift. He’s the founder and CEO of a company called eLabNext, whose core product is a Web-based software platform called eLabJournal that includes tools for inventory and sample tracking, managing experimental protocols and procedures, and recording experimental results. Seinen explained to Harry how an electronic lab notebook can fit together with other lab tools, in an era where there’s just too much data to track everything on paper—and how companies can manage the transition to digital tools without sacrificing any of the spontaneity, curiosity, or creativity that good science is all about.</itunes:subtitle>
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      <title>How Rune Labs Uses Data to Improve Prospects for Parkinson&apos;s Patients</title>
      <description><![CDATA[<p>Harry's guest this week, Brian Pepin, says there haven’t really been any advances in the treatment of Parkinson’s Disease in a decade. The standard treatment is still the standard treatment—meaning various drugs to replace dopamine in the brain, since the loss of neurons that produce dopamine is one of the hallmarks of the disease.</p><p>But there has been one important change during that decade. Thanks to new technologies, ranging from wearables like the Apple Watch to sophisticated deep brain implants from companies like Medtronic, we’re now able to gather a lot more data about what’s happening in the daily lives of patients with Parkinson’s, and how the disease is affecting their brain function and their physical movement. Which means there’s now the potential to make much smarter and more timely decisions about how to dose the drugs patients are taking, or whether they should think about joining a clinical trials.</p><p>Gathering and analyzing that information and feeding it back to patients and their doctors in a user-friendly form is the mission of Rune Labs, where Pepin is CEO. He says we’re on the edge of a new era of “precision neurology,” where data gives doctors the power to predict the course of a disease and muster a meaningful clinical response. And he wants Rune Labs to be at the leading edge of that change. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 13 Sep 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Brian Pepin)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest this week, Brian Pepin, says there haven’t really been any advances in the treatment of Parkinson’s Disease in a decade. The standard treatment is still the standard treatment—meaning various drugs to replace dopamine in the brain, since the loss of neurons that produce dopamine is one of the hallmarks of the disease.</p><p>But there has been one important change during that decade. Thanks to new technologies, ranging from wearables like the Apple Watch to sophisticated deep brain implants from companies like Medtronic, we’re now able to gather a lot more data about what’s happening in the daily lives of patients with Parkinson’s, and how the disease is affecting their brain function and their physical movement. Which means there’s now the potential to make much smarter and more timely decisions about how to dose the drugs patients are taking, or whether they should think about joining a clinical trials.</p><p>Gathering and analyzing that information and feeding it back to patients and their doctors in a user-friendly form is the mission of Rune Labs, where Pepin is CEO. He says we’re on the edge of a new era of “precision neurology,” where data gives doctors the power to predict the course of a disease and muster a meaningful clinical response. And he wants Rune Labs to be at the leading edge of that change. </p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>How Rune Labs Uses Data to Improve Prospects for Parkinson&apos;s Patients</itunes:title>
      <itunes:author>Harry Glorikian, Brian Pepin</itunes:author>
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      <itunes:summary>Harry&apos;s guest this week, Brian Pepin, says there haven’t really been any advances in the treatment of Parkinson’s Disease in a decade. The standard treatment is still the standard treatment—meaning various drugs to replace dopamine in the brain, since the loss of neurons that produce dopamine is one of the hallmarks of the disease. But there has been one important change during that decade. Thanks to new technologies, ranging from wearables like the Apple Watch to sophisticated deep brain implants from companies like Medtronic, we’re now able to gather a lot more data about what’s happening in the daily lives of patients with Parkinson’s, and how the disease is affecting their brain function and their physical movement. Which means there’s now the potential to make much smarter and more timely decisions about how to dose the drugs patients are taking, or whether they should think about joining a clinical trials. Gathering and analyzing that information and feeding it back to patients and their doctors in a user-friendly form is the mission of Rune Labs, where Pepin is CEO. He says we’re on the edge of a new era of “precision neurology,” where data gives doctors the power to predict the course of a disease and muster a meaningful clinical response. And he wants Rune Labs to be at the leading edge of that change. </itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week, Brian Pepin, says there haven’t really been any advances in the treatment of Parkinson’s Disease in a decade. The standard treatment is still the standard treatment—meaning various drugs to replace dopamine in the brain, since the loss of neurons that produce dopamine is one of the hallmarks of the disease. But there has been one important change during that decade. Thanks to new technologies, ranging from wearables like the Apple Watch to sophisticated deep brain implants from companies like Medtronic, we’re now able to gather a lot more data about what’s happening in the daily lives of patients with Parkinson’s, and how the disease is affecting their brain function and their physical movement. Which means there’s now the potential to make much smarter and more timely decisions about how to dose the drugs patients are taking, or whether they should think about joining a clinical trials. Gathering and analyzing that information and feeding it back to patients and their doctors in a user-friendly form is the mission of Rune Labs, where Pepin is CEO. He says we’re on the edge of a new era of “precision neurology,” where data gives doctors the power to predict the course of a disease and muster a meaningful clinical response. And he wants Rune Labs to be at the leading edge of that change. </itunes:subtitle>
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      <title>Proscia Pushes Pathology Down the Digital Path</title>
      <description><![CDATA[<p>In most hospitals, the practice of radiology went digital years ago. Today you'll rarely find a radiologist examining a broken bone or a fluid-filled lung on a sheet of old-fashioned X-ray film. But pathology isn't as computerized. For a variety of cultural, technical, and regulatory reasons, many pathologists still prefer to look at tissue samples the old-fashioned way, on a slide under a microscope.</p><p>Philadelpha-based Proscia is working to change that—and open up pathology to the power of remote work and automated image analysis—by building a cloud-based infrastructure for storing and sharing scanned pathology images. Harry's guest today is Proscia CEO David West, who says there are still strong cultural barriers to the adoption of digital pathology, but "the community is realizing this can be really great for them and their discipline." West says easier scanning, higher resolution, faster image delivery, and the ability to review images from anywhere and tap the power of artificial intelligence are powerful advantages driving adoption of Proscia's platform.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 30 Aug 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, David West)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>In most hospitals, the practice of radiology went digital years ago. Today you'll rarely find a radiologist examining a broken bone or a fluid-filled lung on a sheet of old-fashioned X-ray film. But pathology isn't as computerized. For a variety of cultural, technical, and regulatory reasons, many pathologists still prefer to look at tissue samples the old-fashioned way, on a slide under a microscope.</p><p>Philadelpha-based Proscia is working to change that—and open up pathology to the power of remote work and automated image analysis—by building a cloud-based infrastructure for storing and sharing scanned pathology images. Harry's guest today is Proscia CEO David West, who says there are still strong cultural barriers to the adoption of digital pathology, but "the community is realizing this can be really great for them and their discipline." West says easier scanning, higher resolution, faster image delivery, and the ability to review images from anywhere and tap the power of artificial intelligence are powerful advantages driving adoption of Proscia's platform.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Proscia Pushes Pathology Down the Digital Path</itunes:title>
      <itunes:author>Harry Glorikian, David West</itunes:author>
      <itunes:duration>00:56:20</itunes:duration>
      <itunes:summary>In most hospitals, the practice of radiology went digital years ago. Today you&apos;ll rarely find a radiologist examining a broken bone or a fluid-filled lung on a sheet of old-fashioned X-ray film. But pathology isn&apos;t as computerized. For a variety of cultural, technical, and regulatory reasons, many pathologists still prefer to look at tissue samples the old-fashioned way, on a slide under a microscope. Philadelpha-based Proscia is working to change that—and open up pathology to the power of remote work and automated image analysis—by building a cloud-based infrastructure for storing and sharing scanned pathology images. Harry&apos;s guest today is Proscia CEO David West, who says there are still strong cultural barriers to the adoption of digital pathology, but &quot;the community is realizing this can be really great for them and their discipline.&quot; West says easier scanning, higher resolution, faster image delivery, and the ability to review images from anywhere and tap the power of artificial intelligence are powerful advantages driving adoption of Proscia&apos;s platform.</itunes:summary>
      <itunes:subtitle>In most hospitals, the practice of radiology went digital years ago. Today you&apos;ll rarely find a radiologist examining a broken bone or a fluid-filled lung on a sheet of old-fashioned X-ray film. But pathology isn&apos;t as computerized. For a variety of cultural, technical, and regulatory reasons, many pathologists still prefer to look at tissue samples the old-fashioned way, on a slide under a microscope. Philadelpha-based Proscia is working to change that—and open up pathology to the power of remote work and automated image analysis—by building a cloud-based infrastructure for storing and sharing scanned pathology images. Harry&apos;s guest today is Proscia CEO David West, who says there are still strong cultural barriers to the adoption of digital pathology, but &quot;the community is realizing this can be really great for them and their discipline.&quot; West says easier scanning, higher resolution, faster image delivery, and the ability to review images from anywhere and tap the power of artificial intelligence are powerful advantages driving adoption of Proscia&apos;s platform.</itunes:subtitle>
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      <title>Vibrent Health - the Catalyst for Mobile Healthcare</title>
      <description><![CDATA[<p>We use our smartphones to communicate, shop, navigate, watch videos, take pictures, share our lives on social media, track our exercise, and listen to music and podcasts. So why shouldn’t they also be the main interface to our healthcare experiences? That’s the question P.J. Jain started out with in 2010 when he left behind a career in networking and telecommunications to start a company dedicated to mobile health. Called Vibrent Health, the company went on to win a game-changing contract in 2015 to help the National Institutes of Health build a mobile data-gathering infrastructure for a giant research program called All of Us.</p><p>That’s a 10-year project designed to gather medical data from more than a million people around the United States to help doctors make more customized health recommendations based on a patient’s environment, lifestyle, family history, and genetic makeup. If you’re going to try to recruit a million people into your research study and keep tabs on their health, and if those people are going to be from diverse backgrounds, and if they’re going to be distributed around the country, then there’s only one practical way to reach them, and that’s on their smartphones. NIH asked Vibrent to build a mobile app and an online portal that would become the communications backbone and the central data gathering repository for the whole project. And now that NIH is six or seven years into the All of Us project, it’s clear that in some ways the project, and Vibrent's front end, have leapfrogged over the rest of the US healthcare ecosystem. </p><p>The app provides an easy way to gather and manage data from patients in the study, and to monitor and interact with them, while still protecting their privacy.  As Jain puts it, it meets All of Us participants "where they are" – meaning, on their phones. Technology like that <i>still</i> isn’t part of the offering at most big health plans or hospital networks. But Vibrent is working to change that by partnering with health systems, academic health centers, pharmaceutical companies, public health organizations, and research organizations to get its mobile apps distributed more widely. If you believe that our phones are going to be a key element of personalized and precision medicine for everyone, then the work Vibrent is doing with NIH and its other customers is worth watching.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast ">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 16 Aug 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, PJ Jain)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>We use our smartphones to communicate, shop, navigate, watch videos, take pictures, share our lives on social media, track our exercise, and listen to music and podcasts. So why shouldn’t they also be the main interface to our healthcare experiences? That’s the question P.J. Jain started out with in 2010 when he left behind a career in networking and telecommunications to start a company dedicated to mobile health. Called Vibrent Health, the company went on to win a game-changing contract in 2015 to help the National Institutes of Health build a mobile data-gathering infrastructure for a giant research program called All of Us.</p><p>That’s a 10-year project designed to gather medical data from more than a million people around the United States to help doctors make more customized health recommendations based on a patient’s environment, lifestyle, family history, and genetic makeup. If you’re going to try to recruit a million people into your research study and keep tabs on their health, and if those people are going to be from diverse backgrounds, and if they’re going to be distributed around the country, then there’s only one practical way to reach them, and that’s on their smartphones. NIH asked Vibrent to build a mobile app and an online portal that would become the communications backbone and the central data gathering repository for the whole project. And now that NIH is six or seven years into the All of Us project, it’s clear that in some ways the project, and Vibrent's front end, have leapfrogged over the rest of the US healthcare ecosystem. </p><p>The app provides an easy way to gather and manage data from patients in the study, and to monitor and interact with them, while still protecting their privacy.  As Jain puts it, it meets All of Us participants "where they are" – meaning, on their phones. Technology like that <i>still</i> isn’t part of the offering at most big health plans or hospital networks. But Vibrent is working to change that by partnering with health systems, academic health centers, pharmaceutical companies, public health organizations, and research organizations to get its mobile apps distributed more widely. If you believe that our phones are going to be a key element of personalized and precision medicine for everyone, then the work Vibrent is doing with NIH and its other customers is worth watching.</p><p>For a full transcript of this episode, please visit our episode page at <a href="http://www.glorikian.com/podcast ">http://www.glorikian.com/podcast </a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Vibrent Health - the Catalyst for Mobile Healthcare</itunes:title>
      <itunes:author>Harry Glorikian, PJ Jain</itunes:author>
      <itunes:duration>00:58:12</itunes:duration>
      <itunes:summary>We use our smartphones to communicate, shop, navigate, watch videos, take pictures, share our lives on social media, track our exercise, and listen to music and podcasts. So why shouldn’t they also be the main interface to our healthcare experiences? That’s the question P.J. Jain started out with in 2010 when he left behind a career in networking and telecommunications to start Vibrent Health. The company had its breakout moment in 2015 when it won a contract from the National Institutes of Health build a mobile data-gathering infrastructure for a 10-year research program called All of Us, which is designed to gather medical data from more than a million people around the United States. NIH asked Vibrent to build a mobile app and an online portal that would become the communications backbone and the central data gathering repository for the whole project. And now that NIH is six or seven years into the project, it’s clear that in some ways the agency and the mobile interface Vibrent built for All of Us have leapfrogged over the rest of the US healthcare ecosystem. We&apos;ll hear how in today&apos;s episode.</itunes:summary>
      <itunes:subtitle>We use our smartphones to communicate, shop, navigate, watch videos, take pictures, share our lives on social media, track our exercise, and listen to music and podcasts. So why shouldn’t they also be the main interface to our healthcare experiences? That’s the question P.J. Jain started out with in 2010 when he left behind a career in networking and telecommunications to start Vibrent Health. The company had its breakout moment in 2015 when it won a contract from the National Institutes of Health build a mobile data-gathering infrastructure for a 10-year research program called All of Us, which is designed to gather medical data from more than a million people around the United States. NIH asked Vibrent to build a mobile app and an online portal that would become the communications backbone and the central data gathering repository for the whole project. And now that NIH is six or seven years into the project, it’s clear that in some ways the agency and the mobile interface Vibrent built for All of Us have leapfrogged over the rest of the US healthcare ecosystem. We&apos;ll hear how in today&apos;s episode.</itunes:subtitle>
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      <title>Life Science Labs Can&apos;t Be Automated, But They Can Be Orchestrated</title>
      <description><![CDATA[<p>Wet labs at life science companies look and work the same pretty much everywhere. They're full of incubators, refrigerators, centrifuges, liquid handlers, gene sequencers, DNA and RNA synthesizers, and all sorts of other complex equipment. And a lot of these machines are automated—but the larger workflow in a life sciences R&D lab is very much <i>not </i>automated. For the most part it’s individual researchers who decide how and when to use each piece of equipment, and individuals who move samples and materials back and forth between the machines. And that's a problem, because if you’re trying to collect evidence for a scientific paper or a regulatory filing or trying to manufacture a product that’s verifiably safe, you need to make sure that the same procedure gets carried out exactly the same way every time.</p><p>Our guest this week, Artificial CEO David Fuller, believes that life sciences labs will always revolve around manual labor, but thinks there’s a way to orchestrate the process more precisely. Artificial makes software that allows lab managers to create what he calls a digital twin of their entire laboratory. Inside this digital twin, data structures track what’s happening with each piece of lab equipment and keep them in sync, even if they’re from different manufacturers. The software provides what Fuller calls “a single pane of glass that makes it easier to see the state of the equipment and the science as it's running in your lab”…meaning what’s happening, why it’s happening, and what errors may be cropping up. Humans will always stay in the loop, but Fuller says the benefit for companies who orchestrate their labs in this way is that the data and the products coming out of the lab will be more consistent. Which will be even more important as laboratories start to act more like factories, where a lot of the actual production of biologic drugs or other materials happens.</p><p>For a full transcript of this episode, please visit our show page at h<a href="https://glorikian.com/podcast/">ttp://www.glorikian.com/podcast</a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 2 Aug 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, David Fuller)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Wet labs at life science companies look and work the same pretty much everywhere. They're full of incubators, refrigerators, centrifuges, liquid handlers, gene sequencers, DNA and RNA synthesizers, and all sorts of other complex equipment. And a lot of these machines are automated—but the larger workflow in a life sciences R&D lab is very much <i>not </i>automated. For the most part it’s individual researchers who decide how and when to use each piece of equipment, and individuals who move samples and materials back and forth between the machines. And that's a problem, because if you’re trying to collect evidence for a scientific paper or a regulatory filing or trying to manufacture a product that’s verifiably safe, you need to make sure that the same procedure gets carried out exactly the same way every time.</p><p>Our guest this week, Artificial CEO David Fuller, believes that life sciences labs will always revolve around manual labor, but thinks there’s a way to orchestrate the process more precisely. Artificial makes software that allows lab managers to create what he calls a digital twin of their entire laboratory. Inside this digital twin, data structures track what’s happening with each piece of lab equipment and keep them in sync, even if they’re from different manufacturers. The software provides what Fuller calls “a single pane of glass that makes it easier to see the state of the equipment and the science as it's running in your lab”…meaning what’s happening, why it’s happening, and what errors may be cropping up. Humans will always stay in the loop, but Fuller says the benefit for companies who orchestrate their labs in this way is that the data and the products coming out of the lab will be more consistent. Which will be even more important as laboratories start to act more like factories, where a lot of the actual production of biologic drugs or other materials happens.</p><p>For a full transcript of this episode, please visit our show page at h<a href="https://glorikian.com/podcast/">ttp://www.glorikian.com/podcast</a></p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Life Science Labs Can&apos;t Be Automated, But They Can Be Orchestrated</itunes:title>
      <itunes:author>Harry Glorikian, David Fuller</itunes:author>
      <itunes:duration>00:58:06</itunes:duration>
      <itunes:summary>Wet labs at life science companies look and work the same pretty much everywhere. They&apos;re full of incubators, refrigerators, centrifuges, liquid handlers, gene sequencers, DNA and RNA synthesizers, and all sorts of other complex equipment. And a lot of these machines are automated—but the larger workflow in a life sciences R&amp;D lab is very much not automated. And that&apos;s a problem, because if you’re trying to collect evidence for a scientific paper or a regulatory filing or trying to manufacture a product that’s verifiably safe, you need to make sure that the same procedure gets carried out exactly the same way every time. Our guest this week, Artificial CEO David Fuller, believes that life sciences labs will always revolve around manual labor, but thinks there’s a way to orchestrate the process more precisely. Artificial makes software that allows lab managers to create what he calls a digital twin of their entire laboratory, where data structures track what’s happening with each piece of lab equipment and keep them in sync, providing what Fuller calls “a single pane of glass that makes it easier to see the state of the equipment and the science as it&apos;s running in your lab.”  Humans will always stay in the loop, but Fuller says the benefit for companies who orchestrate their labs in this way is that the data and the products coming out of the lab will be more consistent—which will be even more important as laboratories start to act more like factories, where a lot of the actual production of biologic drugs or other materials happens.</itunes:summary>
      <itunes:subtitle>Wet labs at life science companies look and work the same pretty much everywhere. They&apos;re full of incubators, refrigerators, centrifuges, liquid handlers, gene sequencers, DNA and RNA synthesizers, and all sorts of other complex equipment. And a lot of these machines are automated—but the larger workflow in a life sciences R&amp;D lab is very much not automated. And that&apos;s a problem, because if you’re trying to collect evidence for a scientific paper or a regulatory filing or trying to manufacture a product that’s verifiably safe, you need to make sure that the same procedure gets carried out exactly the same way every time. Our guest this week, Artificial CEO David Fuller, believes that life sciences labs will always revolve around manual labor, but thinks there’s a way to orchestrate the process more precisely. Artificial makes software that allows lab managers to create what he calls a digital twin of their entire laboratory, where data structures track what’s happening with each piece of lab equipment and keep them in sync, providing what Fuller calls “a single pane of glass that makes it easier to see the state of the equipment and the science as it&apos;s running in your lab.”  Humans will always stay in the loop, but Fuller says the benefit for companies who orchestrate their labs in this way is that the data and the products coming out of the lab will be more consistent—which will be even more important as laboratories start to act more like factories, where a lot of the actual production of biologic drugs or other materials happens.</itunes:subtitle>
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      <title>Rare-X Wants to Build the Data Infrastructure for Rare Disease Research</title>
      <description><![CDATA[<p>For people with common health problems like diabetes or high blood pressure or high cholesterol, progress in pharmaceuticals has worked wonders and extended lifespans enormously. But there’s another category of people who tend to get overlooked by the drug industry: patients with rare genetic disorders that affect only one in a thousand or one in two thousand people. If you add up all the different rare genetic disorders known to medicine, it’s a very <i>large</i> number; Harry's guest this week, Charlene Son Rigby, says there may be as many as 10,000 separate genetic disorders affecting as many as 30 million people in the United States and 350 million people worldwide. That's a lot of people who are being underserved by the medical establishment.</p><p>Rigby is the head of a new non-profit organization called Rare-X that’s trying to tackle a systematic problem that affects everyone with a rare disease: Data. In the rare disease world, Rigby says, data collection is so inconsistent that each effort to understand and treat a specific disease feels like reinventing the wheel. For longtime listeners of the show, that’s a familiar story. Time and again, Harry has talked with people who point out the harms of storing patient data in separate formats in separate silos, and who have new ideas for ways to break down the walls between these silos. Rare-X is trying to do exactly that for the rare disease world, by building what Rigby calls a federated, cloud-based, cross-disorder data sharing platform. The basic idea is to take the burden of data management off of rare disease patients and their families and create a single central repository that can help accelerate drug development.</p><p>Harry talked with Rigby about the challenges involved in that work, how it gets funded, how soon it might start to benefit patients, and what it might mean in a near-future world where every child’s genome is screened at birth for potential mutations that could lead to the discovery of rare medical disorders.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>For people with common health problems like diabetes or high blood pressure or high cholesterol, pharmaceuticals has worked wonders and extended lifespans enormously.</p><p>But there’s another category of people who tend to get overlooked by the drug industry.</p><p>And that’s patients with rare genetic disorders.</p><p>By definition, rare diseases are rare, meaning they might only affect one in a thousand or one in two thousand people. </p><p>But here’s the thing. If you add up all the different rare genetic disorders known to medicine, it’s a very <i>large</i> number.</p><p>My guest today, Charlene Son Rigby, says there may be as many as 10,000 separate disorders affecting small populations.</p><p>And if you count everyone who has these conditions, it may add up to as many as 30 million people in the United States and 350 million people worldwide.</p><p>That’s a lot of people who are being underserved by the medical establishment.</p><p>And Rigby is the head of a new non-profit organization called Rare-X that’s trying to fix that.</p><p>Now, there are a lot of rare disease organizations that are looking for a cure for a specific condition.</p><p>Rigby actually came to Rare-X from one of those, the STXBP1 Foundation, which is searching for a treatment for a rare neurological condition that affects Rigby’s own daughter Juno.</p><p>But Rare-X is a little different. </p><p>It’s trying to tackle a <i>systematic</i> problem that affects everyone with a rare disease. </p><p>The problem is data.</p><p>Rigby says that in the rare disease world, data collection is so inconsistent that each effort to understand and treat a specific disease feels like reinventing the wheel. </p><p>For longtime listeners, that’ll be a very familiar story.</p><p>Time and again I’ve talked with people who point out the harms of storing patient data in separate formats in separate silos, and who have new ideas for ways to break down the walls between these silos. </p><p>Rare-X is trying to do exactly that for the rare disease world, by building what Rigby calls a federated, cloud-based, cross-disorder data sharing platform.</p><p>The basic idea is to take the burden of data management off of rare disease patients and their families and create a single central repository that can help accelerate drug development.</p><p>I talked with Rigby about the challenges involved in that work, how it gets funded, how soon it might start to benefit patients, and what it might mean in a near-future world where every child’s genome is screened at birth for potential mutations that could lead to the discovery of rare medical disorders.</p><p>Here’s our full conversation.</p><p><strong>Harry Glorikian: </strong>Charlene, welcome to the show.</p><p><strong>Charlene Son Rigby: </strong>Thanks. Nice to be here, Harry.</p><p><strong>Harry Glorikian: </strong>So I've been reading about what you guys are doing. I mean, all of it sounds super exciting. I'm, you know, been looking into this space for a long time from a rare disease, but many different angles of it. But can you just start off, tell us a little bit about yourself and how you got active in this world of rare disease research?</p><p><strong>Charlene Son Rigby: </strong>Yeah, thanks for that question. So I've spent most of my career building scalable software solutions for analyzing big data, and that's been both in health care as well as enterprise software. And so I'm now the CEO at Rare-X where we're building a platform to analyze rare disease data cross-disorder. And prior to being at Rare-X, I was the chief business officer at a company called Fabric Genomics, where we developed artificial intelligence approaches to speed diagnosis of patients through genomics. We had a considerable focus on rare disease and contributed to projects like the 100,000 Genomes Project and also the work that Stephen Kingsmore is doing at Rady Children's with diagnosing critically ill newborns in the NICU. And so when I started at Fabric, my daughter Juno was ten weeks old. She's my second child. And it was kind of a fortuitous timing, in some ways kismet, because at when I started at Fabric, I didn't know that she was going to start experiencing issues with her development. But at around four months she started missing milestones. And that started us on a three and a half year journey to find an answer to what was going on with her. And so during that time, we went through many, many tests, including genetic tests, MRIs, all kinds of all kinds of things, and everything kept coming back as negative or inconclusive. And so I was working at a genomics company, and so I kept pushing for whole exome testing, which at that time was still not, not readily available clinically and by insurance was still considered experimental. So we were denied three times, until we finally were able to get authorization in 2015. And so in early 2016, we got my daughter's diagnosis and she has a mutation in a gene that's involved in communication between neurons and the genes called STXBP1.</p><p><strong>Charlene Son Rigby: </strong>And so it's very rare. Thirteen kids born a day somewhere in the world. So thinking about Juno and thinking about this from a science standpoint, that it was pretty interesting that when she was diagnosed because she didn't have a classic phenotype for STXBP1. So most kids, 90% of the kids have seizures. And she has more of the symptoms around developmental delay, low muscle tone, cognitive issues and delayed walking and motor issues. And, you know, this this kind of challenge around these atypical phenotypes, I think, is actually becoming much more common in disease generally, so in rare disease and also more broadly in more common conditions as we're really starting to understand kind of the true breadth of patients. So in terms of your original question about my journey through rare disease, so I went on to co-found the STXBP1 Foundation to accelerate the development of therapies for kids like my daughter. And then coming to Rare-X was really a kind of joining of my software background with my passion for rare disease and really wanting to do something more broadly for the rare disease community.</p><p><strong>Harry Glorikian: </strong>I have to tell you, like what you said, three and a half years, I'm like, oh, my God. Like, I would be I have so many stories. And like when I was at Applied Biosystems and, you know, we're doing all this work. It just boggles the mind that some of these things are not really readily available to help get over that diagnostic odyssey for especially parents, because you're going to do anything to help your child. I'm glad it's actually moving theoretically faster these days. I'm not sure if insurance has actually kept up, but we're, on the technology side, I know we're everybody's pushing the envelope now. But when we talk about rare disease and you did some of the numbers but we hear about these rare diseases, I think a lot of people think of like there's an n of 1, right? They assume that this disease only affects a tiny number of people. Right. Maybe just one or a handful worldwide. But I mean, the fact is, if you add up all these different rare genetic diseases that exist in the human population, the number of people is actually pretty big. I mean, can you sort of. Put that into some sort of scale for us in what you've seen.</p><p><strong>Charlene Son Rigby: </strong>Yeah, you're absolutely right. You know, rare disease is by definition rare. And so it's easy in some ways to be dismissive of a rare disease because, oh, it's only affecting a few people. And it's true that a single rare disease can affect a very small number of people, even down to the n of 1 case that you talked about. From a definition standpoint, so, in the US, rare disease is defined as a disease affecting fewer than 200,000 Americans. And in Europe, in the EU, it's defined as affecting no more than one in 2,000 people. So we even though for ultra rare or n of 1 diseases, we can be talking about a small number of people, or like in my daughter's disorder, we can be talking about low thousands, there are still thousands of rare diseases and the traditional number that we hear a lot is 7,000. So 7,000 rare diseases. Rare-X is about to come out with some research that indicates that there are over 10,000 individual rare diseases, and this is really due to our growing understanding of genetics. So previously we might have grouped together a set of disorders based on what the symptoms were like. But now we understand that those actually are due to a different genetic etiology or different cause at a genetic level. And so if you aggregate all of those people up, across those 10,000 rare diseases, you know, what we're looking at is one in ten, potentially one in ten people in the world. And so in the US that's about 30 million people and in total 350 million people worldwide. So it's really a huge number of people. And from an impact standpoint, it's staggering when you look at the impact from a health care standpoint and from an economic standpoint.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, if you can diagnose, I mean, if there is a way to treat someone, then you get to it faster. And the economic impact is huge and unfortunately, if there isn't, maybe it spurs a pharmaceutical company to, you know, start working on it or figure out a way to treat that patient better. But at least you, I always tell people, the better the diagnosis, the better the next step. I see people sometimes, it seems like they're throwing a dart, you know, and they're it's an educated guess, but it's not, you know, the accurate diagnosis that you'd like to have. So. But how and where, when was sort of Rare-X born and what are you trying to do with the organization? What do you want to fix?</p><p><strong>Charlene Son Rigby: </strong>Yeah. So Rare-X was a pandemic baby. The organization was started in early 2020 and I just joined the organization last year. But, you know, it's really been quite a journey being able to have the, launch the platform during COVID. And I know we can talk about that in a little bit, but the unsolved problem that we are working to address is really around collecting data for rare disease. And one might ask, well, why is this an issue? I'll give an example. From the early days of the STXBP1 Foundation. W e assembled our scientific advisory board and we got together for our first scientific meeting. And we were going to develop our roadmap so that that would guide our priorities in terms of scientific development. And we were all very focused on therapies. So my expectation going into the meeting was we were going to talk about all the mice models we were going to build. What did we need to do in the lab? How are we going to get to that first therapeutic candidate? And the number one priority that came out of that meeting was to build a prospective regulatory-compliant natural history study. And so it was a huge learning for me because if you look at the kind of canonical steps in terms of drug development, it's always preclinical and then you move into clinical. And what I think that kind of simple model misses is this foundational layer around the data that you need and the real kind of understanding of the symptoms and the disease progression that is critical to building effective therapies, developing effective therapies.</p><p><strong>Charlene Son Rigby: </strong>And so that's really what Rare-X was started to do, was to enable the gathering of this data, the structuring of this data and enable it to be shared and to do this at scale. So, cross-disorder. And there are several problems today that that make this challenging. And so maybe I can talk a little bit about that. There are three or four of these significant challenges. So today some of this data does exist, but it's often kind of trapped in data silos. So it was generated in an individual project that might have happened in academia or industry. And then the data is often really only accessible to the group that collected it. And in rare disease where we don't have that many patients, it really makes it challenging to create a kind of more comprehensive understanding and picture of the patients if that data is trapped in these individual silos. </p><p><strong>Charlene Son Rigby: </strong>Another challenge that that we've seen is the lack of usable data. So individual studies may not include the key data that's needed to drive drug development forward. So some of these data repositories, they might either be a symptom specific. So they're looking at a specific organ system that might have been of interest to that researcher. So they're an incomplete picture. Or some of these repositories or these registries were started by passionate parents. You talked about that, the urgency that one feels as a parent, that I feel as a parent. And the registry may have been structured or the questions may have been structured in a way that isn't necessarily immediately usable by researchers because of the fact that it was started by a parent who, like you, you might not have had a statistical analysis background, you might not have had a survey methodology background. And we so those can be challenges in terms of having the data be robust and usable later. </p><p><strong>Charlene Son Rigby: </strong>And then the other thing that can be challenging and probably is often the most challenging is, is especially in these very, very new diseases, there's no data, and it takes quite a bit of funding to start data collection. Often, often passionate parents are going around trying to get researchers interested in their disorder. But it's often that you have to have a little bit of data to get a researcher interested. And so this is a huge challenge in terms of implementing data collection. And the other thing that kind of underlies this is that patients often are not empowered in this process. And so that was a fundamental piece of the way that we've structured Rare-X and the way that we collect data and the way that we enable patients to participate in the process to power data collection.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, it's, you know, they make movies out of this, right? People trying to push this boulder up a hill. So, what are the new ideas that say Rare-X is bringing to the table? I mean, your organization has called for like, you know, the largest data collection and federated data system and analysis platform in rare disease. So, I think unpacking that statement because it's a big statement, right, of, you know, what are you doing to improve data collection? What do you mean by federated, for those people that are listening? And why is it important? A  nd how will the platform enable better analysis of this rare disease data?</p><p><strong>Charlene Son Rigby: </strong>Yeah. Great question. From a design perspective, the one of the things that we wanted to do was make sure that the platform was cross-disorder. So a lot of registries are started for an individual disorder. And what we really wanted to be able to do was given that number of 10,000 diseases, how do we scale to support so many disorders to accelerate therapies? And so a fundamental design principle was to do that cross- disorder. The other piece of this is that we are focused on patient-reported data. So typically a participant will join the research program, create an account on the platform and they are either a patient or a caregiver of a patient and providing information on their symptoms. There is a lot of other data out there in the ecosystem that could come from other related registries, or it could come from clinical data, it could come from many different types of studies. And so we really want to enable the aggregation of or federation of that data. So you asked me to define that term. It really means bringing together multiple different data sets in a way that enables those data sets to be analyzed together. And I think, again, going back to this theme that for any individual rare disorder, there aren't that many patients. And so analyzing that data, kind of individually, we are really missing the opportunity to maximally use the data that's been contributed by rare disease patients. And I would even argue that it's a moral imperative for us to do that as a rare disease community, because we urgently need to move these understanding of these disorders forward in development of therapies as well.</p><p><strong>Harry Glorikian: </strong>I almost wish I could take all the companies I know doing this and put them there so the n goes up for everybody. But I know that there's all sorts of reasons that that doesn't happen. But, you know, when you were saying we're pulling in patient-reported data, you know, the first thing, and we talk a lot about this from different groups on the show is, you know, would a wearable or one of these other devices that are now available give you more granular, real- time information that might be valuable to this sort of study. And have you guys considered things like that?</p><p><strong>Charlene Son Rigby: </strong>T he short answer is yes, because the our desire is to really continue to expand the types of data that are collected. And the I think that the nice thing about mobile, mobile devices, wearables, is that it makes it very easy to collect that data. And so we have a partnership with Huma. They do work in the mobile space. And we're definitely continuing to evaluate where we can develop partnerships there. I mean, our goal overall is to de- burden patients and so that the, if we can do that in a way that additive to an overall body of research, then we're huge proponents of it. And I think that it's also important that we're really trying to create an open system. So our partnership model is a very, very open partnership model in terms of who we can work with.</p><p><strong>Harry Glorikian: </strong>Yeah, I had a really extensive conversation with the head of data sciences at WHOOP yesterday and you know, they're pulling in somewhere between 50 and 100 megabytes of data per patient per day. I shouldn't say patient -- per individual per day. Right. I was like, that's a lot of data. And she was, you know, the kid in a candy store because they're she's like, we can really see what's happening with people. And you can ask questions at a scale that you couldn't ask before. Like she was saying, you know, the last one of the things that we're working on publishing is 300,000 people. You couldn't imagine that in the world of, say, a clinical trial of 300,000 people are just going to, you know, and you have all the data, almost 24/7 on this person that's delivered by this device, which is sort of interesting, you know, place to be. So, you know, I know that you don't have 300,000 people in one in one area, but it'd be interesting to have that sort of 24/7 data available from these kids if you could, you know, get a device that would lend itself to that. But what stage is the company at in building the platform and you know, I guess the killer question is, when will drug developers or other researchers be able to start using it? If they already are, do you have any early success stories you can share?</p><p><strong>Charlene Son Rigby: </strong>Yeah, yeah. It's really a very exciting time at Rare-X. So the platform launched last summer and we have over 25 communities on the platform. And those encompass several hundred participants already. So we're really starting to see some exciting numbers in terms of in terms of participants. So we are launching our researcher portal at the end of Q2. So very soon. And at that point, any researcher, so academic researchers, pharma researchers, will be able to access the data and be able to utilize analytical tools to really interrogate the data. I'm excited that we also have launched our first sponsored program, and that's with Travere. They're supporting the homocystinuria community to start data collection, to start a registry. And we just launched that at the end of February.</p><p><strong>Harry Glorikian: </strong>So I want to. Jump back, like just talking through some of the biggest technical challenges along the way. I mean I know one of your goals is like interconnecting all these disparate data sources. But one of the issues that always comes up is how do you clean up that that existing data so that you can store it all the same way. And then obviously that enables somebody to then do the analytics right after that. But the biggest issue that I hear from a lot of people is, man, it takes a lot of effort to make sure that that data is cleaned up and put in the right place.</p><p><strong>Charlene Son Rigby: </strong>Yes, the data munging. Yeah. I mean, I think that that is really the, a significant challenge, because creating research-ready data and then harmonizing data sets is a huge amount of upfront work that has to happen before you can actually do any of the analysis and the data mining. So what we have done with the core data that's being generated within Rare-X is that we have mapped it to data standards. So we utilize standards like the human phenotype ontology, OMIM, HL7, so that the data that we're producing already is mapped to all of these generally utilized standards. And then we would if we were working on a federation project, the same thing would need to happen with these other data sets to really enable that type of integrated that type of integrated analysis. And you're right, it's it can be a very brute force effort in terms of doing it accurately. And that's why I think that it's really important from a from an industry perspective to really start adopting these standards and putting them into the base model, you know, for assuming just making the assumption up front that the data is going to be federated and utilized downstream. I think that kind of traditional studies, a lot of the scope was more really looked at in terms of what are we doing with the data today? And we need to be really thinking about from a lifetime perspective, how is this data going to be used?</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>Now if we go one step before like getting that data, I mean. I have to imagine there's a huge political, bureaucratic or organizational challenge when it comes to who controls that data. And I think I have to assume,  part of your job is convincing them to share it, right, despite its potential as intellectual property. Right. So how do you get on the phone and say, “Why don't you press send and shoot that over to me and so that we can take the next steps with it?”</p><p><strong>Charlene Son Rigby: </strong>Yeah, well, this is a really significant challenge, and I think that we're in a time of change in terms of attitudes around this. And part of it is what's been happening in terms of national programs to collect data. And people are starting to see the benefit of being able to share and really utilize these larger data sets. But the reality today is that in terms of the status quo, researchers control the data, and that's because the data was generated in a specific project that might have happened in academia or in industry. And there's a challenge with alignment of incentives. So on the academic side, I think that if one were to ask a researcher, do they want to hoard data, they don't want to hoard data. But the reality is, is that we still have this challenge with academic tenure and needing to publish or perish in that environment. And so researchers are still rightly concerned because of that paradigm that they have to write their paper and get their paper in before they can feel comfortable with allowing others to access the data. And so something really needs to happen there to that incentive system. </p><p><strong>Charlene Son Rigby: </strong>And in pharma, interestingly, I think that that's also an area where there has been a feeling that data is almost akin to intellectual property. But I think that especially in rare disease, there has been a growing understanding that accessing natural history data is not going to, at the end of the day, enable pharma to win because they're going to win on the quality of their therapeutic pipeline and how quickly they can get those therapies through to a successful market approval. And so what we've been really working to do is position natural history data as pre-competitive and for rare disease, frankly, it's too expensive to build these data sets, you know, alone. They're, as we scale to all of these disorders it's going to become untenable to for each company to build their own data set. The thing that we need to do and what Rare-X has been working to do with our collaborators is to transform the way that research has been done and initiated and break down these barriers and just show that the model of building these pre-competitive collaborations can work, both from a how does the business model work and then how is the data shared? And so I think that Rare-X being a nonprofit and a kind of neutral third party is really additive in terms of building those relationships so that this, this kind of public-private partnership model can really serve as a way to drive this type of change.</p><p><strong>Harry Glorikian: </strong>Now. Okay. So we've talked about industry sharing data, but I always I mean, especially in the last maybe 5 to 10 years, I keep thinking about, you know, how much of this comes directly or will come directly from patients, right? If they have control or access to their data, they have the ability, theoretically, the ability to then share that data. Right. And it could be just for the research in general as opposed to, not specifically to find a cure for a specific disease. So how do you get that data or convince patients to share it?</p><p><strong>Charlene Son Rigby: </strong>Yeah, well, I think that in in rare disease patients are typically highly motivated. You know, there are many rare diseases that can be pretty devastating in terms of the symptoms and the disease progression. And so overall, there is a a good portion of the rare disease population that is motivated to provide their data. And so what we do there and I think that that your points about the paradigms and thinking about it, that the patients are sharing their data, is really important. Because I think that that gets lost a lot. You know, a patient, and we've all signed up for some research study in our lives. You go and you fill out a survey or you contribute a blood sample or something, but oftentimes the patient contributions get forgotten because it becomes part of the researcher’s data set. And so the what we're really trying to do is turn around that kind of paradigm with a core principle that patients are the ones who own their data and they're contributing their data. And so we enable them to, through an innovative consent process, we enable them to basically say that, yes, they're willing to share their data for these types of projects, and they can change that at any time. And we really feel that that changes the paradigm and allows them to have a real seat at the table. And then I wanted to also talk about, because obviously not everyone is — there is this proportion of folks who are motivated and trust and that's part of the reason that they will be willing to share their data — but there is also a portion of the population that might not be as motivated. And so it's important for us to be able to reach those populations and to build trust in the approach that we're taking and the value of it in terms of really being able to drive research. And so patient education is an important component of our model patient education, patient engagement. So we work directly with patient advocacy organizations and patient advocates to educate their communities on the value of data collection, how it really spurs and supports research. I think that that's a critical component to this as well.</p><p><strong>Harry Glorikian: </strong>Well, hopefully people will listen to this podcast worldwide and me that may spur someone to search you guys up on the web. But I noticed that another principle of the company is you don't sell patient data, right? Does that mean you're giving it away? And if that is true, what's the criteria of doing that? And do your data partners that you're giving it to have to meet certain standards?</p><p><strong>Charlene Son Rigby: </strong>Yeah, this is a great question because monetization models around data are very, very common today. Some companies have built significant valuations around data monetization. And for from a Rare-X standpoint, and this is part of the reason why we were started, is that the question was asked like, is that the right thing to do, especially for diseases where we're in the very early stages of understanding a disorder, and so I talked about this a little bit earlier, that if you have no data, getting any researcher interested is already then a huge challenge. And so we're here really to break down barriers to advancing rare disease research and encourage that research. And so I say sometimes that it's really important that we free the data. So we don't sell data at Rare-X. And we have an open access model for researchers to access the data. </p><p><strong>Charlene Son Rigby: </strong>And so there it is not, “we open the doors and anybody can come, come and access the data.” It's done in a responsible way. So one of the key things is that the data is de-identified. And so it is it is critical to do that, because we want the data to be utilized for research. It doesn't need to have identifiable information in it to drive that research forward. You know, the second thing is, is that researchers need to submit information on their project, and then that's reviewed by a data access committee. And the idea behind this data access committee is not to slow down things. It's a streamlined and efficient process. But the idea is that there is a review process. The researchers need to specify whether there's an IRB with whether that protocol has gone through an institutional review board review, and patients can opt to only have their data. As an example, patients can opt to only have their data shared with projects that have gone through IRB review. So there's really kind of a, since this is in many ways a two sided platform, there's really a way that patients can actively engage in terms of who's accessing their data. And then the researchers also in terms of the types of projects that they're that they're going to put forward.</p><p><strong>Harry Glorikian: </strong>Okay. So now you're giving away the data. Remember, I'm a venture capitalist, so you're giving away the data, right? First question somebody like me asks is, how do you pay for the operations? I mean, you're building this fairly sophisticated system that is, you know, you've got to clean the data, you've got to make it available. You're trying to talk to all these people. I mean, are you funded by let's say, I mean the typical stuff, grants? Is it member donations? Is it major gifts from individuals? You know, those are all the questions that that would cross my mind.</p><p><strong>Charlene Son Rigby: </strong>Yeah, absolutely. So frankly, it took me some time to get my arms around this, because my whole career has been in tech and venture backed companies. And so so I took some time to really think about this and think about this scalable model from a scalability standpoint before joining. So we get our funding largely through pharma and industry, as well as some grants. And the way that that funding happens is, it's basically platform investment. And I think that this is a really key thing from my perspective of, of thinking about the, the platform as something that is, if you will, a social good. Because they're investing in expanding the platform. They might invest, like Travere did, additionally to help to onboard specific groups or expand our capabilities in terms of being able to gather data in a particular disease area. But the funding that they're providing is to make the platform and the research program more robust. The data at the back end will be open in the way that we've we have talked about it. We have a unique ability to do that and create that kind of model as a nonprofit. And you're right that what we're doing, we're kind of blending this health tech company with this this nonprofit  tmodel. But I think that there are some good examples out there of public private partnerships that have been very successful in the long term in doing this. And that's the model that we're really pursuing.</p><p><strong>Harry Glorikian: </strong>This area is small. I feel like I've been in and around it for a long time because of, you know, being in and around genomics. But there's a small but sort of growing infrastructure of support for rare disease, you know, patients in the world, sort of nonprofits, NGOs, patient advocacy group. Tthere's Global Genes, right? There's the Rare and Undiagnosed Network, RUN. There's the Undiagnosed Disease Network Foundation, and then there's the n-Lorem Foundation. And so many others that I don't want to leave out, right, the long list. But how does your, or, does your group overlap with these? I mean, I was reading a press release that this summer you guys will launch a collaboration with RUN and the Undiagnosed Disease Network Foundation to launch something called the Undiagnosed Data Collection Program. I mean, if you could sort of talk about what that project is about. Is your real ambition to be the data infrastructure sharing platform for the entire community of rare disease patients and families?</p><p><strong>Charlene Son Rigby: </strong>Yeah, well, I love that you call it infrastructure because I think this is critical from a concept standpoint. Rare disease should not be a model where each rare disease is doing it on its own. That was one thing that really struck me, thinking again about my daughter's disorder, where we were looking at ways to ladder up to that prospective natural history study. And we were trying to do something. I talked to a few other genetic neurodevelopmental conditions that were kind of our cohort, if you will, and we were all doing it in different ways. And it's such an opportunity cost to be figuring out the model new each time. And so these groups like Global Genes, amazing organization, actually, the Rare-X founder, Nicole Boyce, was also the founder of Global Genes. And we were, the STXBP1 Foundation used every single resource possible that came out of Global Genes. You know, that there's this broad this really broad education and enablement that needs to happen for people who want to become rare disease advocates. And that Global Genes has really done that in a tremendous way for so many organizations and so many individuals. And so we partner with them in terms of, and are very complementary, in terms of providing that infrastructure where Rare-X is focused on this area of how do you accelerate research through data collection, and then we use that.</p><p><strong>Charlene Son Rigby: </strong>It's great that you saw the announcement on the work that we're doing with RUN and the UDNF. I'm particularly excited about this because Rare-X, we talked earlier about ultra rare diseases, about n of 1 diseases. The reason why Rare-X is able to collect data across all of these disorders is that we have a fundamental assumption in the way that we collect data, which is that we don't assume that anybody does or does not have any symptoms. So we start out with a very high level, head to toe type of set of questions that if you say yes to any of them, it leads into a more detailed set of questions to collect data on particular symptoms. And so this is really ideally suited to situations where there isn't a lot of characterization around or understanding of the symptoms in a disorder and where you don't have a diagnosis. Because then what we're really enabling an individual to do is to gather robust data about their individual symptoms and disease progression that then can be utilized for research. And so we're very excited about being able to work with and support RUN and UDNF in in that effort. </p><p><strong>Charlene Son Rigby: </strong>And so do we have, you asked about ambition? You know, do we have a goal of being the only data sharing platform? I would say that our goal is to be an incredibly robust comprehensive cross- disorder platform. We believe that the way that we are approaching things really is enabling us to support all rare diseases. And we're really focused on de- burdening patients. So we're enabling patient communities to get started very quickly. And they don't have to become experts in protocol development, they don't have to become experts in creating clinical outcome assessments, etc. At the same time, the world is large and that they're going to be groups who decide that they need specific solutions. They may want to take on the role of being a principal investigator, as an example. And so I think that that's also the reason why federation is an important component of what we're really bringing forward as a as a way to bring all of that data together.</p><p><strong>Harry Glorikian: </strong>So again, you know, being on the venture side, right. You can lead a horse to water, but you can't make them drink, right? So you can do a lot. You can improve clinical trial readiness. You can make sure the data is better about rare disease patients, and that it's available. But you can't force the drug discovery companies or the drug makers to sort of develop a cure for a specific disease. Right. How do you think about that as part of a rare disease problem? Is that is that part of the work that Rare-X is,are you making it less risky so that they are willing to take that next leap?</p><p><strong>Charlene Son Rigby: </strong>You're right that pharma is going to be making, I would say, rational business decisions based on commercial drivers. And the challenge with a lot of rare diseases is that no one knows about that individual rare disease, and there isn't much data on it. And so anything that can be done to de-risk that process for a pharma company  is huge in terms of increasing their interest or generating interest for them and then increasing their interest. And those things can include knowing that there's an activated community, you know, because if you have a clinical trial and nobody wants to participate in the clinical trial, that's going to be a huge problem in terms of being able to get that drug through an approval process. And so Rare-X, by building a very robust data set, is able to de-risk that process in terms of that investment, of trying to understand what the disorder is and also trying rto understand disease progression. And going back to that point about activation of the community, we're also able to help to demonstrate the activation of the community because of the number of people participating in the in the data collection.</p><p><strong>Harry Glorikian: </strong>I know it's not science fiction. I think it's right around the corner, hopefully, but I think, isn't an ideal future where we do either whole-exome or preferably whole genome on every newborn and scan for these genetic changes that are associated with rare diseases. I mean, I'm assuming that would really push this area much farther along. And if that is true, if that statement is true, how long do you think it'll take for us to get there?</p><p><strong>Charlene Son Rigby: </strong>Wow. You're reminding me of the Gattaca movie, but hopefully that's not the real future for us, you know. Winding things back. So my daughter was born, my daughter Juno was born in 2013. So that's nine years ago. And it took three years for us to get a diagnosis. And, you know, that's like an entire other podcast. But I think that the really, if we fast forward to 2022, we have groups like Stephen Kingsmore's group at Rady Children's where they're diagnosing newborns who are in the NICU, in less than 24 hours. And even standard exome testing, which it took us three months to get our results, the standard exome testing results are now returned in less than two weeks. You can also get it faster if you have an urgent testing and we have the tech. Illumina has long been dominant and continues to be dominant in the clinical area. But you have these new entrants with Oxford Nanopore, Element, Singular, and there are others that are entering now. And so these costs are coming down and this is really going to be a transformative in terms of becoming, I do think that this is going to become standard of care and it's closer than we think. I think that it's probably going to be in the next ten years, less than ten years.</p><p><strong>Charlene Son Rigby: </strong>We already have some analogs to this in terms of or precursors, I should say, in terms of newborn screening. And so what I think is going to happen is that genomic sequencing is is going to become a core newborn screening tool. And the interesting thing is that there are applications, not just in rare disease, but also in common conditions and the value of genomic sequencing. So today, 5% of rare diseases have a therapy, but there are right now hundreds of gene therapies that are currently in preclinical and clinical pipeline. So this picture is going to change enormously in the next five years. And so because the value of is going to grow, because there are therapies, the other important thing is therapeutic windows. So therapeutic windows are when we can intervene to have the most impact on a disorder. And so that's often when someone's young before the symptoms present or start or very early in that process. And so I think that this is going to become a reality in the next decade. And frankly, I think it's a very exciting time. I have always been a big believer that knowledge is power. And this is this is one of those great situations where we have the ability to do something because we know.</p><p><strong>Harry Glorikian: </strong>Yeah, I talk about some of this in my book and there's some, you know, interesting stories and it's a fascinating time. And when I think back, you know, to when we first started sequencing and people would say, why would you want to sequence anything? And now it's the complete opposite. And the price is coming down. It's becoming easier and faster. And I mean, at some point, I think the price is going to be low enough between the actual sequencing and then the analysis, that as my friend says, it's going to be a nothingburger. I mean, it's just going to be like, yeah, we should just do that because it gives us the information we need for the next step, which is sort of going to be interesting.</p><p><strong>Charlene Son Rigby: </strong>Yeah, absolutely. I think that the that is the challenges that I talked about, cost of sequencing. But you're right that, you know, the analysis is still quite expensive today. And that's something that we're also going to need to need to improve. I mean, AI and the growing knowledge bases is really going to help to address that. Yeah. And but that's a huge component of it as well today. Absolutely.</p><p><strong>Harry Glorikian: </strong>Yeah. I'm looking at a company that in this particular area of oncology, they've gotten the whole genome analytics down to about $60. So it's, you know, it's coming to a point where you're like, why wouldn't you do that? Like, what's stopping you from doing that? So it's been great having you. Great conversation. I wish you guys incredible success. A nd I'd love to keep up on how things are going with the organization.</p><p><strong>Charlene Son Rigby: </strong>That'd be great, Harry. Really enjoyed it today. Thanks.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe.</p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 19 Jul 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Charlene Son Rigby)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>For people with common health problems like diabetes or high blood pressure or high cholesterol, progress in pharmaceuticals has worked wonders and extended lifespans enormously. But there’s another category of people who tend to get overlooked by the drug industry: patients with rare genetic disorders that affect only one in a thousand or one in two thousand people. If you add up all the different rare genetic disorders known to medicine, it’s a very <i>large</i> number; Harry's guest this week, Charlene Son Rigby, says there may be as many as 10,000 separate genetic disorders affecting as many as 30 million people in the United States and 350 million people worldwide. That's a lot of people who are being underserved by the medical establishment.</p><p>Rigby is the head of a new non-profit organization called Rare-X that’s trying to tackle a systematic problem that affects everyone with a rare disease: Data. In the rare disease world, Rigby says, data collection is so inconsistent that each effort to understand and treat a specific disease feels like reinventing the wheel. For longtime listeners of the show, that’s a familiar story. Time and again, Harry has talked with people who point out the harms of storing patient data in separate formats in separate silos, and who have new ideas for ways to break down the walls between these silos. Rare-X is trying to do exactly that for the rare disease world, by building what Rigby calls a federated, cloud-based, cross-disorder data sharing platform. The basic idea is to take the burden of data management off of rare disease patients and their families and create a single central repository that can help accelerate drug development.</p><p>Harry talked with Rigby about the challenges involved in that work, how it gets funded, how soon it might start to benefit patients, and what it might mean in a near-future world where every child’s genome is screened at birth for potential mutations that could lead to the discovery of rare medical disorders.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>For people with common health problems like diabetes or high blood pressure or high cholesterol, pharmaceuticals has worked wonders and extended lifespans enormously.</p><p>But there’s another category of people who tend to get overlooked by the drug industry.</p><p>And that’s patients with rare genetic disorders.</p><p>By definition, rare diseases are rare, meaning they might only affect one in a thousand or one in two thousand people. </p><p>But here’s the thing. If you add up all the different rare genetic disorders known to medicine, it’s a very <i>large</i> number.</p><p>My guest today, Charlene Son Rigby, says there may be as many as 10,000 separate disorders affecting small populations.</p><p>And if you count everyone who has these conditions, it may add up to as many as 30 million people in the United States and 350 million people worldwide.</p><p>That’s a lot of people who are being underserved by the medical establishment.</p><p>And Rigby is the head of a new non-profit organization called Rare-X that’s trying to fix that.</p><p>Now, there are a lot of rare disease organizations that are looking for a cure for a specific condition.</p><p>Rigby actually came to Rare-X from one of those, the STXBP1 Foundation, which is searching for a treatment for a rare neurological condition that affects Rigby’s own daughter Juno.</p><p>But Rare-X is a little different. </p><p>It’s trying to tackle a <i>systematic</i> problem that affects everyone with a rare disease. </p><p>The problem is data.</p><p>Rigby says that in the rare disease world, data collection is so inconsistent that each effort to understand and treat a specific disease feels like reinventing the wheel. </p><p>For longtime listeners, that’ll be a very familiar story.</p><p>Time and again I’ve talked with people who point out the harms of storing patient data in separate formats in separate silos, and who have new ideas for ways to break down the walls between these silos. </p><p>Rare-X is trying to do exactly that for the rare disease world, by building what Rigby calls a federated, cloud-based, cross-disorder data sharing platform.</p><p>The basic idea is to take the burden of data management off of rare disease patients and their families and create a single central repository that can help accelerate drug development.</p><p>I talked with Rigby about the challenges involved in that work, how it gets funded, how soon it might start to benefit patients, and what it might mean in a near-future world where every child’s genome is screened at birth for potential mutations that could lead to the discovery of rare medical disorders.</p><p>Here’s our full conversation.</p><p><strong>Harry Glorikian: </strong>Charlene, welcome to the show.</p><p><strong>Charlene Son Rigby: </strong>Thanks. Nice to be here, Harry.</p><p><strong>Harry Glorikian: </strong>So I've been reading about what you guys are doing. I mean, all of it sounds super exciting. I'm, you know, been looking into this space for a long time from a rare disease, but many different angles of it. But can you just start off, tell us a little bit about yourself and how you got active in this world of rare disease research?</p><p><strong>Charlene Son Rigby: </strong>Yeah, thanks for that question. So I've spent most of my career building scalable software solutions for analyzing big data, and that's been both in health care as well as enterprise software. And so I'm now the CEO at Rare-X where we're building a platform to analyze rare disease data cross-disorder. And prior to being at Rare-X, I was the chief business officer at a company called Fabric Genomics, where we developed artificial intelligence approaches to speed diagnosis of patients through genomics. We had a considerable focus on rare disease and contributed to projects like the 100,000 Genomes Project and also the work that Stephen Kingsmore is doing at Rady Children's with diagnosing critically ill newborns in the NICU. And so when I started at Fabric, my daughter Juno was ten weeks old. She's my second child. And it was kind of a fortuitous timing, in some ways kismet, because at when I started at Fabric, I didn't know that she was going to start experiencing issues with her development. But at around four months she started missing milestones. And that started us on a three and a half year journey to find an answer to what was going on with her. And so during that time, we went through many, many tests, including genetic tests, MRIs, all kinds of all kinds of things, and everything kept coming back as negative or inconclusive. And so I was working at a genomics company, and so I kept pushing for whole exome testing, which at that time was still not, not readily available clinically and by insurance was still considered experimental. So we were denied three times, until we finally were able to get authorization in 2015. And so in early 2016, we got my daughter's diagnosis and she has a mutation in a gene that's involved in communication between neurons and the genes called STXBP1.</p><p><strong>Charlene Son Rigby: </strong>And so it's very rare. Thirteen kids born a day somewhere in the world. So thinking about Juno and thinking about this from a science standpoint, that it was pretty interesting that when she was diagnosed because she didn't have a classic phenotype for STXBP1. So most kids, 90% of the kids have seizures. And she has more of the symptoms around developmental delay, low muscle tone, cognitive issues and delayed walking and motor issues. And, you know, this this kind of challenge around these atypical phenotypes, I think, is actually becoming much more common in disease generally, so in rare disease and also more broadly in more common conditions as we're really starting to understand kind of the true breadth of patients. So in terms of your original question about my journey through rare disease, so I went on to co-found the STXBP1 Foundation to accelerate the development of therapies for kids like my daughter. And then coming to Rare-X was really a kind of joining of my software background with my passion for rare disease and really wanting to do something more broadly for the rare disease community.</p><p><strong>Harry Glorikian: </strong>I have to tell you, like what you said, three and a half years, I'm like, oh, my God. Like, I would be I have so many stories. And like when I was at Applied Biosystems and, you know, we're doing all this work. It just boggles the mind that some of these things are not really readily available to help get over that diagnostic odyssey for especially parents, because you're going to do anything to help your child. I'm glad it's actually moving theoretically faster these days. I'm not sure if insurance has actually kept up, but we're, on the technology side, I know we're everybody's pushing the envelope now. But when we talk about rare disease and you did some of the numbers but we hear about these rare diseases, I think a lot of people think of like there's an n of 1, right? They assume that this disease only affects a tiny number of people. Right. Maybe just one or a handful worldwide. But I mean, the fact is, if you add up all these different rare genetic diseases that exist in the human population, the number of people is actually pretty big. I mean, can you sort of. Put that into some sort of scale for us in what you've seen.</p><p><strong>Charlene Son Rigby: </strong>Yeah, you're absolutely right. You know, rare disease is by definition rare. And so it's easy in some ways to be dismissive of a rare disease because, oh, it's only affecting a few people. And it's true that a single rare disease can affect a very small number of people, even down to the n of 1 case that you talked about. From a definition standpoint, so, in the US, rare disease is defined as a disease affecting fewer than 200,000 Americans. And in Europe, in the EU, it's defined as affecting no more than one in 2,000 people. So we even though for ultra rare or n of 1 diseases, we can be talking about a small number of people, or like in my daughter's disorder, we can be talking about low thousands, there are still thousands of rare diseases and the traditional number that we hear a lot is 7,000. So 7,000 rare diseases. Rare-X is about to come out with some research that indicates that there are over 10,000 individual rare diseases, and this is really due to our growing understanding of genetics. So previously we might have grouped together a set of disorders based on what the symptoms were like. But now we understand that those actually are due to a different genetic etiology or different cause at a genetic level. And so if you aggregate all of those people up, across those 10,000 rare diseases, you know, what we're looking at is one in ten, potentially one in ten people in the world. And so in the US that's about 30 million people and in total 350 million people worldwide. So it's really a huge number of people. And from an impact standpoint, it's staggering when you look at the impact from a health care standpoint and from an economic standpoint.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, if you can diagnose, I mean, if there is a way to treat someone, then you get to it faster. And the economic impact is huge and unfortunately, if there isn't, maybe it spurs a pharmaceutical company to, you know, start working on it or figure out a way to treat that patient better. But at least you, I always tell people, the better the diagnosis, the better the next step. I see people sometimes, it seems like they're throwing a dart, you know, and they're it's an educated guess, but it's not, you know, the accurate diagnosis that you'd like to have. So. But how and where, when was sort of Rare-X born and what are you trying to do with the organization? What do you want to fix?</p><p><strong>Charlene Son Rigby: </strong>Yeah. So Rare-X was a pandemic baby. The organization was started in early 2020 and I just joined the organization last year. But, you know, it's really been quite a journey being able to have the, launch the platform during COVID. And I know we can talk about that in a little bit, but the unsolved problem that we are working to address is really around collecting data for rare disease. And one might ask, well, why is this an issue? I'll give an example. From the early days of the STXBP1 Foundation. W e assembled our scientific advisory board and we got together for our first scientific meeting. And we were going to develop our roadmap so that that would guide our priorities in terms of scientific development. And we were all very focused on therapies. So my expectation going into the meeting was we were going to talk about all the mice models we were going to build. What did we need to do in the lab? How are we going to get to that first therapeutic candidate? And the number one priority that came out of that meeting was to build a prospective regulatory-compliant natural history study. And so it was a huge learning for me because if you look at the kind of canonical steps in terms of drug development, it's always preclinical and then you move into clinical. And what I think that kind of simple model misses is this foundational layer around the data that you need and the real kind of understanding of the symptoms and the disease progression that is critical to building effective therapies, developing effective therapies.</p><p><strong>Charlene Son Rigby: </strong>And so that's really what Rare-X was started to do, was to enable the gathering of this data, the structuring of this data and enable it to be shared and to do this at scale. So, cross-disorder. And there are several problems today that that make this challenging. And so maybe I can talk a little bit about that. There are three or four of these significant challenges. So today some of this data does exist, but it's often kind of trapped in data silos. So it was generated in an individual project that might have happened in academia or industry. And then the data is often really only accessible to the group that collected it. And in rare disease where we don't have that many patients, it really makes it challenging to create a kind of more comprehensive understanding and picture of the patients if that data is trapped in these individual silos. </p><p><strong>Charlene Son Rigby: </strong>Another challenge that that we've seen is the lack of usable data. So individual studies may not include the key data that's needed to drive drug development forward. So some of these data repositories, they might either be a symptom specific. So they're looking at a specific organ system that might have been of interest to that researcher. So they're an incomplete picture. Or some of these repositories or these registries were started by passionate parents. You talked about that, the urgency that one feels as a parent, that I feel as a parent. And the registry may have been structured or the questions may have been structured in a way that isn't necessarily immediately usable by researchers because of the fact that it was started by a parent who, like you, you might not have had a statistical analysis background, you might not have had a survey methodology background. And we so those can be challenges in terms of having the data be robust and usable later. </p><p><strong>Charlene Son Rigby: </strong>And then the other thing that can be challenging and probably is often the most challenging is, is especially in these very, very new diseases, there's no data, and it takes quite a bit of funding to start data collection. Often, often passionate parents are going around trying to get researchers interested in their disorder. But it's often that you have to have a little bit of data to get a researcher interested. And so this is a huge challenge in terms of implementing data collection. And the other thing that kind of underlies this is that patients often are not empowered in this process. And so that was a fundamental piece of the way that we've structured Rare-X and the way that we collect data and the way that we enable patients to participate in the process to power data collection.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, it's, you know, they make movies out of this, right? People trying to push this boulder up a hill. So, what are the new ideas that say Rare-X is bringing to the table? I mean, your organization has called for like, you know, the largest data collection and federated data system and analysis platform in rare disease. So, I think unpacking that statement because it's a big statement, right, of, you know, what are you doing to improve data collection? What do you mean by federated, for those people that are listening? And why is it important? A  nd how will the platform enable better analysis of this rare disease data?</p><p><strong>Charlene Son Rigby: </strong>Yeah. Great question. From a design perspective, the one of the things that we wanted to do was make sure that the platform was cross-disorder. So a lot of registries are started for an individual disorder. And what we really wanted to be able to do was given that number of 10,000 diseases, how do we scale to support so many disorders to accelerate therapies? And so a fundamental design principle was to do that cross- disorder. The other piece of this is that we are focused on patient-reported data. So typically a participant will join the research program, create an account on the platform and they are either a patient or a caregiver of a patient and providing information on their symptoms. There is a lot of other data out there in the ecosystem that could come from other related registries, or it could come from clinical data, it could come from many different types of studies. And so we really want to enable the aggregation of or federation of that data. So you asked me to define that term. It really means bringing together multiple different data sets in a way that enables those data sets to be analyzed together. And I think, again, going back to this theme that for any individual rare disorder, there aren't that many patients. And so analyzing that data, kind of individually, we are really missing the opportunity to maximally use the data that's been contributed by rare disease patients. And I would even argue that it's a moral imperative for us to do that as a rare disease community, because we urgently need to move these understanding of these disorders forward in development of therapies as well.</p><p><strong>Harry Glorikian: </strong>I almost wish I could take all the companies I know doing this and put them there so the n goes up for everybody. But I know that there's all sorts of reasons that that doesn't happen. But, you know, when you were saying we're pulling in patient-reported data, you know, the first thing, and we talk a lot about this from different groups on the show is, you know, would a wearable or one of these other devices that are now available give you more granular, real- time information that might be valuable to this sort of study. And have you guys considered things like that?</p><p><strong>Charlene Son Rigby: </strong>T he short answer is yes, because the our desire is to really continue to expand the types of data that are collected. And the I think that the nice thing about mobile, mobile devices, wearables, is that it makes it very easy to collect that data. And so we have a partnership with Huma. They do work in the mobile space. And we're definitely continuing to evaluate where we can develop partnerships there. I mean, our goal overall is to de- burden patients and so that the, if we can do that in a way that additive to an overall body of research, then we're huge proponents of it. And I think that it's also important that we're really trying to create an open system. So our partnership model is a very, very open partnership model in terms of who we can work with.</p><p><strong>Harry Glorikian: </strong>Yeah, I had a really extensive conversation with the head of data sciences at WHOOP yesterday and you know, they're pulling in somewhere between 50 and 100 megabytes of data per patient per day. I shouldn't say patient -- per individual per day. Right. I was like, that's a lot of data. And she was, you know, the kid in a candy store because they're she's like, we can really see what's happening with people. And you can ask questions at a scale that you couldn't ask before. Like she was saying, you know, the last one of the things that we're working on publishing is 300,000 people. You couldn't imagine that in the world of, say, a clinical trial of 300,000 people are just going to, you know, and you have all the data, almost 24/7 on this person that's delivered by this device, which is sort of interesting, you know, place to be. So, you know, I know that you don't have 300,000 people in one in one area, but it'd be interesting to have that sort of 24/7 data available from these kids if you could, you know, get a device that would lend itself to that. But what stage is the company at in building the platform and you know, I guess the killer question is, when will drug developers or other researchers be able to start using it? If they already are, do you have any early success stories you can share?</p><p><strong>Charlene Son Rigby: </strong>Yeah, yeah. It's really a very exciting time at Rare-X. So the platform launched last summer and we have over 25 communities on the platform. And those encompass several hundred participants already. So we're really starting to see some exciting numbers in terms of in terms of participants. So we are launching our researcher portal at the end of Q2. So very soon. And at that point, any researcher, so academic researchers, pharma researchers, will be able to access the data and be able to utilize analytical tools to really interrogate the data. I'm excited that we also have launched our first sponsored program, and that's with Travere. They're supporting the homocystinuria community to start data collection, to start a registry. And we just launched that at the end of February.</p><p><strong>Harry Glorikian: </strong>So I want to. Jump back, like just talking through some of the biggest technical challenges along the way. I mean I know one of your goals is like interconnecting all these disparate data sources. But one of the issues that always comes up is how do you clean up that that existing data so that you can store it all the same way. And then obviously that enables somebody to then do the analytics right after that. But the biggest issue that I hear from a lot of people is, man, it takes a lot of effort to make sure that that data is cleaned up and put in the right place.</p><p><strong>Charlene Son Rigby: </strong>Yes, the data munging. Yeah. I mean, I think that that is really the, a significant challenge, because creating research-ready data and then harmonizing data sets is a huge amount of upfront work that has to happen before you can actually do any of the analysis and the data mining. So what we have done with the core data that's being generated within Rare-X is that we have mapped it to data standards. So we utilize standards like the human phenotype ontology, OMIM, HL7, so that the data that we're producing already is mapped to all of these generally utilized standards. And then we would if we were working on a federation project, the same thing would need to happen with these other data sets to really enable that type of integrated that type of integrated analysis. And you're right, it's it can be a very brute force effort in terms of doing it accurately. And that's why I think that it's really important from a from an industry perspective to really start adopting these standards and putting them into the base model, you know, for assuming just making the assumption up front that the data is going to be federated and utilized downstream. I think that kind of traditional studies, a lot of the scope was more really looked at in terms of what are we doing with the data today? And we need to be really thinking about from a lifetime perspective, how is this data going to be used?</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>Now if we go one step before like getting that data, I mean. I have to imagine there's a huge political, bureaucratic or organizational challenge when it comes to who controls that data. And I think I have to assume,  part of your job is convincing them to share it, right, despite its potential as intellectual property. Right. So how do you get on the phone and say, “Why don't you press send and shoot that over to me and so that we can take the next steps with it?”</p><p><strong>Charlene Son Rigby: </strong>Yeah, well, this is a really significant challenge, and I think that we're in a time of change in terms of attitudes around this. And part of it is what's been happening in terms of national programs to collect data. And people are starting to see the benefit of being able to share and really utilize these larger data sets. But the reality today is that in terms of the status quo, researchers control the data, and that's because the data was generated in a specific project that might have happened in academia or in industry. And there's a challenge with alignment of incentives. So on the academic side, I think that if one were to ask a researcher, do they want to hoard data, they don't want to hoard data. But the reality is, is that we still have this challenge with academic tenure and needing to publish or perish in that environment. And so researchers are still rightly concerned because of that paradigm that they have to write their paper and get their paper in before they can feel comfortable with allowing others to access the data. And so something really needs to happen there to that incentive system. </p><p><strong>Charlene Son Rigby: </strong>And in pharma, interestingly, I think that that's also an area where there has been a feeling that data is almost akin to intellectual property. But I think that especially in rare disease, there has been a growing understanding that accessing natural history data is not going to, at the end of the day, enable pharma to win because they're going to win on the quality of their therapeutic pipeline and how quickly they can get those therapies through to a successful market approval. And so what we've been really working to do is position natural history data as pre-competitive and for rare disease, frankly, it's too expensive to build these data sets, you know, alone. They're, as we scale to all of these disorders it's going to become untenable to for each company to build their own data set. The thing that we need to do and what Rare-X has been working to do with our collaborators is to transform the way that research has been done and initiated and break down these barriers and just show that the model of building these pre-competitive collaborations can work, both from a how does the business model work and then how is the data shared? And so I think that Rare-X being a nonprofit and a kind of neutral third party is really additive in terms of building those relationships so that this, this kind of public-private partnership model can really serve as a way to drive this type of change.</p><p><strong>Harry Glorikian: </strong>Now. Okay. So we've talked about industry sharing data, but I always I mean, especially in the last maybe 5 to 10 years, I keep thinking about, you know, how much of this comes directly or will come directly from patients, right? If they have control or access to their data, they have the ability, theoretically, the ability to then share that data. Right. And it could be just for the research in general as opposed to, not specifically to find a cure for a specific disease. So how do you get that data or convince patients to share it?</p><p><strong>Charlene Son Rigby: </strong>Yeah, well, I think that in in rare disease patients are typically highly motivated. You know, there are many rare diseases that can be pretty devastating in terms of the symptoms and the disease progression. And so overall, there is a a good portion of the rare disease population that is motivated to provide their data. And so what we do there and I think that that your points about the paradigms and thinking about it, that the patients are sharing their data, is really important. Because I think that that gets lost a lot. You know, a patient, and we've all signed up for some research study in our lives. You go and you fill out a survey or you contribute a blood sample or something, but oftentimes the patient contributions get forgotten because it becomes part of the researcher’s data set. And so the what we're really trying to do is turn around that kind of paradigm with a core principle that patients are the ones who own their data and they're contributing their data. And so we enable them to, through an innovative consent process, we enable them to basically say that, yes, they're willing to share their data for these types of projects, and they can change that at any time. And we really feel that that changes the paradigm and allows them to have a real seat at the table. And then I wanted to also talk about, because obviously not everyone is — there is this proportion of folks who are motivated and trust and that's part of the reason that they will be willing to share their data — but there is also a portion of the population that might not be as motivated. And so it's important for us to be able to reach those populations and to build trust in the approach that we're taking and the value of it in terms of really being able to drive research. And so patient education is an important component of our model patient education, patient engagement. So we work directly with patient advocacy organizations and patient advocates to educate their communities on the value of data collection, how it really spurs and supports research. I think that that's a critical component to this as well.</p><p><strong>Harry Glorikian: </strong>Well, hopefully people will listen to this podcast worldwide and me that may spur someone to search you guys up on the web. But I noticed that another principle of the company is you don't sell patient data, right? Does that mean you're giving it away? And if that is true, what's the criteria of doing that? And do your data partners that you're giving it to have to meet certain standards?</p><p><strong>Charlene Son Rigby: </strong>Yeah, this is a great question because monetization models around data are very, very common today. Some companies have built significant valuations around data monetization. And for from a Rare-X standpoint, and this is part of the reason why we were started, is that the question was asked like, is that the right thing to do, especially for diseases where we're in the very early stages of understanding a disorder, and so I talked about this a little bit earlier, that if you have no data, getting any researcher interested is already then a huge challenge. And so we're here really to break down barriers to advancing rare disease research and encourage that research. And so I say sometimes that it's really important that we free the data. So we don't sell data at Rare-X. And we have an open access model for researchers to access the data. </p><p><strong>Charlene Son Rigby: </strong>And so there it is not, “we open the doors and anybody can come, come and access the data.” It's done in a responsible way. So one of the key things is that the data is de-identified. And so it is it is critical to do that, because we want the data to be utilized for research. It doesn't need to have identifiable information in it to drive that research forward. You know, the second thing is, is that researchers need to submit information on their project, and then that's reviewed by a data access committee. And the idea behind this data access committee is not to slow down things. It's a streamlined and efficient process. But the idea is that there is a review process. The researchers need to specify whether there's an IRB with whether that protocol has gone through an institutional review board review, and patients can opt to only have their data. As an example, patients can opt to only have their data shared with projects that have gone through IRB review. So there's really kind of a, since this is in many ways a two sided platform, there's really a way that patients can actively engage in terms of who's accessing their data. And then the researchers also in terms of the types of projects that they're that they're going to put forward.</p><p><strong>Harry Glorikian: </strong>Okay. So now you're giving away the data. Remember, I'm a venture capitalist, so you're giving away the data, right? First question somebody like me asks is, how do you pay for the operations? I mean, you're building this fairly sophisticated system that is, you know, you've got to clean the data, you've got to make it available. You're trying to talk to all these people. I mean, are you funded by let's say, I mean the typical stuff, grants? Is it member donations? Is it major gifts from individuals? You know, those are all the questions that that would cross my mind.</p><p><strong>Charlene Son Rigby: </strong>Yeah, absolutely. So frankly, it took me some time to get my arms around this, because my whole career has been in tech and venture backed companies. And so so I took some time to really think about this and think about this scalable model from a scalability standpoint before joining. So we get our funding largely through pharma and industry, as well as some grants. And the way that that funding happens is, it's basically platform investment. And I think that this is a really key thing from my perspective of, of thinking about the, the platform as something that is, if you will, a social good. Because they're investing in expanding the platform. They might invest, like Travere did, additionally to help to onboard specific groups or expand our capabilities in terms of being able to gather data in a particular disease area. But the funding that they're providing is to make the platform and the research program more robust. The data at the back end will be open in the way that we've we have talked about it. We have a unique ability to do that and create that kind of model as a nonprofit. And you're right that what we're doing, we're kind of blending this health tech company with this this nonprofit  tmodel. But I think that there are some good examples out there of public private partnerships that have been very successful in the long term in doing this. And that's the model that we're really pursuing.</p><p><strong>Harry Glorikian: </strong>This area is small. I feel like I've been in and around it for a long time because of, you know, being in and around genomics. But there's a small but sort of growing infrastructure of support for rare disease, you know, patients in the world, sort of nonprofits, NGOs, patient advocacy group. Tthere's Global Genes, right? There's the Rare and Undiagnosed Network, RUN. There's the Undiagnosed Disease Network Foundation, and then there's the n-Lorem Foundation. And so many others that I don't want to leave out, right, the long list. But how does your, or, does your group overlap with these? I mean, I was reading a press release that this summer you guys will launch a collaboration with RUN and the Undiagnosed Disease Network Foundation to launch something called the Undiagnosed Data Collection Program. I mean, if you could sort of talk about what that project is about. Is your real ambition to be the data infrastructure sharing platform for the entire community of rare disease patients and families?</p><p><strong>Charlene Son Rigby: </strong>Yeah, well, I love that you call it infrastructure because I think this is critical from a concept standpoint. Rare disease should not be a model where each rare disease is doing it on its own. That was one thing that really struck me, thinking again about my daughter's disorder, where we were looking at ways to ladder up to that prospective natural history study. And we were trying to do something. I talked to a few other genetic neurodevelopmental conditions that were kind of our cohort, if you will, and we were all doing it in different ways. And it's such an opportunity cost to be figuring out the model new each time. And so these groups like Global Genes, amazing organization, actually, the Rare-X founder, Nicole Boyce, was also the founder of Global Genes. And we were, the STXBP1 Foundation used every single resource possible that came out of Global Genes. You know, that there's this broad this really broad education and enablement that needs to happen for people who want to become rare disease advocates. And that Global Genes has really done that in a tremendous way for so many organizations and so many individuals. And so we partner with them in terms of, and are very complementary, in terms of providing that infrastructure where Rare-X is focused on this area of how do you accelerate research through data collection, and then we use that.</p><p><strong>Charlene Son Rigby: </strong>It's great that you saw the announcement on the work that we're doing with RUN and the UDNF. I'm particularly excited about this because Rare-X, we talked earlier about ultra rare diseases, about n of 1 diseases. The reason why Rare-X is able to collect data across all of these disorders is that we have a fundamental assumption in the way that we collect data, which is that we don't assume that anybody does or does not have any symptoms. So we start out with a very high level, head to toe type of set of questions that if you say yes to any of them, it leads into a more detailed set of questions to collect data on particular symptoms. And so this is really ideally suited to situations where there isn't a lot of characterization around or understanding of the symptoms in a disorder and where you don't have a diagnosis. Because then what we're really enabling an individual to do is to gather robust data about their individual symptoms and disease progression that then can be utilized for research. And so we're very excited about being able to work with and support RUN and UDNF in in that effort. </p><p><strong>Charlene Son Rigby: </strong>And so do we have, you asked about ambition? You know, do we have a goal of being the only data sharing platform? I would say that our goal is to be an incredibly robust comprehensive cross- disorder platform. We believe that the way that we are approaching things really is enabling us to support all rare diseases. And we're really focused on de- burdening patients. So we're enabling patient communities to get started very quickly. And they don't have to become experts in protocol development, they don't have to become experts in creating clinical outcome assessments, etc. At the same time, the world is large and that they're going to be groups who decide that they need specific solutions. They may want to take on the role of being a principal investigator, as an example. And so I think that that's also the reason why federation is an important component of what we're really bringing forward as a as a way to bring all of that data together.</p><p><strong>Harry Glorikian: </strong>So again, you know, being on the venture side, right. You can lead a horse to water, but you can't make them drink, right? So you can do a lot. You can improve clinical trial readiness. You can make sure the data is better about rare disease patients, and that it's available. But you can't force the drug discovery companies or the drug makers to sort of develop a cure for a specific disease. Right. How do you think about that as part of a rare disease problem? Is that is that part of the work that Rare-X is,are you making it less risky so that they are willing to take that next leap?</p><p><strong>Charlene Son Rigby: </strong>You're right that pharma is going to be making, I would say, rational business decisions based on commercial drivers. And the challenge with a lot of rare diseases is that no one knows about that individual rare disease, and there isn't much data on it. And so anything that can be done to de-risk that process for a pharma company  is huge in terms of increasing their interest or generating interest for them and then increasing their interest. And those things can include knowing that there's an activated community, you know, because if you have a clinical trial and nobody wants to participate in the clinical trial, that's going to be a huge problem in terms of being able to get that drug through an approval process. And so Rare-X, by building a very robust data set, is able to de-risk that process in terms of that investment, of trying to understand what the disorder is and also trying rto understand disease progression. And going back to that point about activation of the community, we're also able to help to demonstrate the activation of the community because of the number of people participating in the in the data collection.</p><p><strong>Harry Glorikian: </strong>I know it's not science fiction. I think it's right around the corner, hopefully, but I think, isn't an ideal future where we do either whole-exome or preferably whole genome on every newborn and scan for these genetic changes that are associated with rare diseases. I mean, I'm assuming that would really push this area much farther along. And if that is true, if that statement is true, how long do you think it'll take for us to get there?</p><p><strong>Charlene Son Rigby: </strong>Wow. You're reminding me of the Gattaca movie, but hopefully that's not the real future for us, you know. Winding things back. So my daughter was born, my daughter Juno was born in 2013. So that's nine years ago. And it took three years for us to get a diagnosis. And, you know, that's like an entire other podcast. But I think that the really, if we fast forward to 2022, we have groups like Stephen Kingsmore's group at Rady Children's where they're diagnosing newborns who are in the NICU, in less than 24 hours. And even standard exome testing, which it took us three months to get our results, the standard exome testing results are now returned in less than two weeks. You can also get it faster if you have an urgent testing and we have the tech. Illumina has long been dominant and continues to be dominant in the clinical area. But you have these new entrants with Oxford Nanopore, Element, Singular, and there are others that are entering now. And so these costs are coming down and this is really going to be a transformative in terms of becoming, I do think that this is going to become standard of care and it's closer than we think. I think that it's probably going to be in the next ten years, less than ten years.</p><p><strong>Charlene Son Rigby: </strong>We already have some analogs to this in terms of or precursors, I should say, in terms of newborn screening. And so what I think is going to happen is that genomic sequencing is is going to become a core newborn screening tool. And the interesting thing is that there are applications, not just in rare disease, but also in common conditions and the value of genomic sequencing. So today, 5% of rare diseases have a therapy, but there are right now hundreds of gene therapies that are currently in preclinical and clinical pipeline. So this picture is going to change enormously in the next five years. And so because the value of is going to grow, because there are therapies, the other important thing is therapeutic windows. So therapeutic windows are when we can intervene to have the most impact on a disorder. And so that's often when someone's young before the symptoms present or start or very early in that process. And so I think that this is going to become a reality in the next decade. And frankly, I think it's a very exciting time. I have always been a big believer that knowledge is power. And this is this is one of those great situations where we have the ability to do something because we know.</p><p><strong>Harry Glorikian: </strong>Yeah, I talk about some of this in my book and there's some, you know, interesting stories and it's a fascinating time. And when I think back, you know, to when we first started sequencing and people would say, why would you want to sequence anything? And now it's the complete opposite. And the price is coming down. It's becoming easier and faster. And I mean, at some point, I think the price is going to be low enough between the actual sequencing and then the analysis, that as my friend says, it's going to be a nothingburger. I mean, it's just going to be like, yeah, we should just do that because it gives us the information we need for the next step, which is sort of going to be interesting.</p><p><strong>Charlene Son Rigby: </strong>Yeah, absolutely. I think that the that is the challenges that I talked about, cost of sequencing. But you're right that, you know, the analysis is still quite expensive today. And that's something that we're also going to need to need to improve. I mean, AI and the growing knowledge bases is really going to help to address that. Yeah. And but that's a huge component of it as well today. Absolutely.</p><p><strong>Harry Glorikian: </strong>Yeah. I'm looking at a company that in this particular area of oncology, they've gotten the whole genome analytics down to about $60. So it's, you know, it's coming to a point where you're like, why wouldn't you do that? Like, what's stopping you from doing that? So it's been great having you. Great conversation. I wish you guys incredible success. A nd I'd love to keep up on how things are going with the organization.</p><p><strong>Charlene Son Rigby: </strong>That'd be great, Harry. Really enjoyed it today. Thanks.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe.</p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>Rare-X Wants to Build the Data Infrastructure for Rare Disease Research</itunes:title>
      <itunes:author>Harry Glorikian, Charlene Son Rigby</itunes:author>
      <itunes:duration>00:57:20</itunes:duration>
      <itunes:summary>For people with common health problems like diabetes or high blood pressure or high cholesterol, progress in pharmaceuticals has worked wonders and extended lifespans enormously. But there’s another category of people who tend to get overlooked by the drug industry: patients with rare genetic disorders that affect only one in a thousand or one in two thousand people. If you add up all the different rare genetic disorders known to medicine, it’s actually a very large number; Harry&apos;s guest this week, Charlene Son Rigby, says there may be as many as 10,000 separate genetic disorders affecting as many as 30 million people in the United States and 350 million people worldwide. That&apos;s a lot of people who are being underserved by the medical establishment. Rare-X, the non-profit organization Rigby heads, is trying to help by creating a common data infrastructure for rare disease research. The basic idea is to take the burden of data management off of rare disease patients and their families and create a single central repository that can help accelerate drug development.</itunes:summary>
      <itunes:subtitle>For people with common health problems like diabetes or high blood pressure or high cholesterol, progress in pharmaceuticals has worked wonders and extended lifespans enormously. But there’s another category of people who tend to get overlooked by the drug industry: patients with rare genetic disorders that affect only one in a thousand or one in two thousand people. If you add up all the different rare genetic disorders known to medicine, it’s actually a very large number; Harry&apos;s guest this week, Charlene Son Rigby, says there may be as many as 10,000 separate genetic disorders affecting as many as 30 million people in the United States and 350 million people worldwide. That&apos;s a lot of people who are being underserved by the medical establishment. Rare-X, the non-profit organization Rigby heads, is trying to help by creating a common data infrastructure for rare disease research. The basic idea is to take the burden of data management off of rare disease patients and their families and create a single central repository that can help accelerate drug development.</itunes:subtitle>
      <itunes:keywords>n of 1, rare-x, n of 1 diseases, the harry glorikian show, stbpx1 foundation, fabric genomics, rare diseases, rare genetic disorders, undiagnosed disease network, charlene son rigby, harry glorikian</itunes:keywords>
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      <title>How WHOOP Uses Big Data to Optimize Your Fitness and Health</title>
      <description><![CDATA[<p>Most fitness gadgets, like the Fitbit or the Apple Watch, encourage you to get out there every day and “close your rings” or “do your 10,000 steps.” But there’s one activity tracker that’s a little different. The WHOOP isn't designed to tell you when to work out—it’s designed to tell you when to <i>stop. </i></p><p>Harry's guest this week is Emily Capodilupo, the senior vice president of data science and research at Boston-based WHOOP, which is based here in Boston. To explain why the company focuses on measuring what it calls <i>strain</i>, rather than counting steps or calories, she reaches all the way back to the beginning of the company in 2012. That’s when founder and CEO Will Ahmed had just finished college at Harvard and was looking back at his experiences on the varsity squash team. Ahmed realized that had often underperformed because he had overtrained, neglecting to give his body time to recover between workouts or between matches. To this day, WHOOP designs the WHOOP band and its accompanying smartphone software around measuring the physical quantities that best predict athletic performance, and giving users feedback that can help them decide how much to push or <i>not</i> push on a given day.</p><p>Capodilupo calls the WHOOP band “the first wearable that tells you to do less.” But it’s really all about designing a safe and effective training program and helping users make smarter decisions. Meanwhile, the WHOOP band collects so many different forms of data that it can also help to detect conditions like atrial fibrillation, or even predict whether you’re about to be diagnosed with Covid-19. It’s not a medical device, but Capodilupo acknowledges that the line between wellness and diagnostics is shifting all the time.  And with the rise of telemedicine, which is spreading even faster thanks to the pandemic, she predicts that more patients and more doctors will want access to the kinds of health data that the WHOOP band and other trackers collect 24/7. </p><p>The conversation touched on a very different way of thinking about fitness and health, and on the relationship between big data and quality of life—which is, after all, the main theme of the show.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>If you’re a gadget lover and data aficionado like me, you’ve probably tried a lot of different fitness monitors and other wearable devices, like a Fitbit, or an Oura ring, or an Apple Watch.</p><p>We’ve talked about a lot of these devices on the show. Usually they come with a smartphone app, or they run their own apps. </p><p>And the job of the apps is to track your fitness progress and encourage you to get out there every day and “close your rings” or “do your 10,000 steps.”</p><p>But there’s one activity tracker that’s a little different. It’s the WHOOP band. </p><p>The WHOOP is not designed to tell you when to work out. It’s designed to tell you when to <i>stop</i>.</p><p>My guest today is Emily Capodilupo. She’s the senior vice president of data science and research at WHOOP, which is based here in Boston. </p><p>And to explain why the company focuses on measuring what it calls <i>strain</i>, rather than counting steps or calories, she reaches all the way back to the beginning of the company in 2012.</p><p>That’s when founder and CEO Will Ahmed had just finished college at Harvard and was looking back at his experiences on the varsity squash team.</p><p>I’ll let Emily tell the whole story, but basically Will realized that had often underperformed because he had overtrained, neglecting to give his body time to recover between workouts or between matches.</p><p>To this day, WHOOP designs its signature WHOOP band and its accompanying smartphone software around measuring the physical quantities that best predict athletic performance, and giving users feedback that can help them decide how much to push or <i>not</i> push on a given day.</p><p>Emily calls the WHOOP band “the first wearable that tells you to do less.”</p><p>But it’s really all about designing a safe and effective training program and helping users make smarter decisions.</p><p>Meanwhile, the WHOOP band collects so many different forms of data that it can also help to detect conditions like atrial fibrillation, or even predict whether you’re about to be diagnosed with Covid-19.</p><p>But it’s not a medical device.</p><p>But Emily acknowledges that the line between wellness and diagnostics is shifting all the time. </p><p>And with the rise of telemedicine, which is spreading even faster thanks to the pandemic, she predicts that more patients and more doctors will want access to the kinds of health data that the WHOOP band and other trackers collect 24/7. </p><p>It was a fascinating conversation that touched on a very different way of thinking about fitness and health, and on the relationship between big data and quality of life, which is, after all, the main theme of this show.</p><p>So I want to play the whole interview for you now.</p><p><strong>Harry Glorikian: </strong>Emily, welcome to the show.</p><p><strong>Emily Capodilupo: </strong>Thanks so much for having me.</p><p><strong>Harry Glorikian: </strong>Yeah, I have to tell you, I was reading your background and I'm like, oh, my God, I'm so excited. She comes from like, you know, like real training in sleep. And we're going to talk about these devices. And it's one of the things I use them all for, as you can tell, like I'm I'm sort of geared up and I've got all of them and I and I cross correlate and I can tell when somebody has updated something and the algorithm, like I can see like all of a sudden they start moving apart from each other or being different from each other. But, you know, for those people who aren't, say, up to speed on the world of fitness monitors, I'd love for you to start, you know, by explaining you WHOOP's mission, and then maybe talk about different parts of your system, you know, like the band, the sensors, you know, the basic capabilities, that sort of stuff.</p><p><strong>Emily Capodilupo: </strong>Sure. So WHOOP's mission is to unlock human performance. And in a lot of ways it started out at the beginning. You really focus on athletic performance. Our origin story is very much in preventing overtraining. But as we started to do more and more research, we started to discover that the things that predict athletic performance at the sort of root physiological level are actually the same things that predict all kinds of performance. So we've seen them predict things like cognitive performance. We've seen them predict like emotional intelligence and, you know, like how short you are with people, stuff like that, you know, as well as like how people feel like they're performing at work or in their jobs, in their relationship, stuff like that. So while ...physical performance is, where a lot of those algorithms and sort of like our research started, we started to realize that without tweaking any of the algorithms at all, they started to be really good predictors of other elements of performance as well. So we've really broadened our mission. It's all about unlocking human performance in the broadest sense possible, and we do that with this device. Some of the things that we think are really important about our design as it compares to some of the other wearables, is that as you'll see, it's screenless. And we really think about the device just as this itty bitty little bit that slides out from the fabric.</p><p><strong>Emily Capodilupo: </strong>And so it's actually capable of being worn almost anywhere on your body. So we have clothing that totally hides it. You can wear it in your underwear, on your bra, on a t shirt, anything like that, as well as sort of the traditional wearable locations like on your wrist or bicep. And one of the reasons why we wanted that form factor is we really wanted to collect 24/7 data and be able to get this complete picture of your body. It actually charges wirelessly so you don't even have to take it off to charge it. And that allows us to get the most complete picture of what's going on. And so we don't miss like the 2 hours when you take it off to charge or you don't charge it overnight and then miss the sleep or anything like that. So it gives us this like really incredible picture. Kind of one of the other important differentiators just in the hardware itself is because we're not powering a screen, we're able to put 100% of the battery into driving the sensors and getting the most accurate signal. And so when you start with the most accurate signal, the most accurate raw data, you're then able to power better feedback, better coaching, because you're starting with something more reliable. And so we've done a lot on the coaching side and the algorithms side that other wearables just haven't been able to do.</p><p><strong>Harry Glorikian: </strong>Interesting. So Will Ahmed and John...and I'm going to try to pronounce it. </p><p><strong>Emily Capodilupo: </strong>Capodilupo.</p><p><strong>Harry Glorikian: </strong>Thank you. Started WHOOP in 2012, right? While John was at Harvard and Will had just graduated. Right. So, you know, I mean, maybe a little bit about the company's origin story or. I don't. God, that was you know, if I go back that far, the fitness monitoring market was like in its nascency.</p><p><strong>Emily Capodilupo: </strong>Yeah it was, the Jawbone Up had just come out, the original Fitbits had just come out. And not too long after that the Nike FuelBand started, which no longer exists, of course. And, you know, if you look at what wearables were doing at the time. Oh, and then, of course, there was this other class of wearables that had been around for a little bit, which were like the Garmin running watches. So it kind of GPS watches that you put on for the run or for a bike ride or whatever it is. It would capture all the GPS data, give you information about your pace, and then you take it off when the run was over. And so you kind of had those like two classes of wearables. We had these like 24-ish/7 step counters, and then you had the like more intense while you were working out data, but nobody was really bridging those things. But the sort of theme across all wearables, both of those different categories at the time, was this like push harder, more is more, faster is better, just do it, right. All of those kinds of messaging. And we weren't really seeing, at least with the like kind of step counter class of wearables, we weren't seeing any kind of adoption in like elite athletes or even like collegiate athletes because they didn't really need to be told do more.</p><p><strong>Emily Capodilupo: </strong>And actually what happened is, sort of the WHOOP origin story is, Will was captain of the Harvard squash team. And when he got named captain, he sort of committed that “I'm the captain. I should work harder than everybody else. That's what a leader does.” And he worked so, so hard that he overtrained, really burnt himself out and like did really poorly. And he had this moment of like, you know, I'm in a Division I school and I'm like the fanciest, you know, squash programs that there is. How come nobody knew I was overtraining and like, told me to stop. And like, who knew that this was a thing? Like, I always thought that if I worked harder, I'd get better. And actually, you can work too hard and working too hard is bad. And he found that like everybody on his team was really motivated to work hard and sort of motivating each other to work harder. And they didn't have that balancing voice of like, Oh, I should take a rest day and like sit out, even though like my teammates are practicing. That would have felt like very uncomfortable and like not being a team player or something like that. But he started digging into the data and it really did show that like actually when you need a rest day, you will be stronger for having taken the rest day, than you will be for like manning up and pushing through.</p><p><strong>Emily Capodilupo: </strong>And so he really set out to create the first wearable that was going to tell you to do less. It was very countercultural in that moment. But he was trying to address kind of the highly motivated market that needed almost like permission to pull back and to be told what their limits were. And so from day one, we were really focused on like, how can we create a recovery score that's going to tell you, like, you're better off resting today than you are like doing this program or that, like, a coach could use and see the data and say, okay, these four players, they're going to do an extra set or an extra drill or whatever it is. And these four players, they're actually going to stop 20 minutes early and, you know, go sit in the sauna or stretch or whatever it is. And by modulating people's training in response to their bodies, readiness to respond to that training, actually create like safer and more effective training programs. And that was where we started and then kind of evolved into the product we are right now. But a lot of that is very, very much, that philosophy is still kind of at the core of what we're doing.</p><p><strong>Harry Glorikian: </strong>Yeah, I definitely have questions. We definitely have to talk about the recovery score and sleep apnea, because I have a vested interest in understanding this better. Actually, it's funny, I try to talk about this with my doctor and he's like, “Man, you know more than I do about this.” But so, you know, thinking about how the company is evolving. It's been moving forward. I've been watching it. I mean, what is the company's sort of larger philosophy about like the role of technology in fitness and health. I mean, do you feel like we're headed towards a future where everybody is going to rely on their mobile and wearable devices for health advice?</p><p><strong>Emily Capodilupo: </strong>I think so. And I think that, you know, there's a big asterisk to that answer, which is I don't think that wearables are ever going to replace doctors, and I don't think that we're trying to do that either. But we do have a lot of information that doctors don't have. And there's a really, I think, exciting opportunity if the medical community were more open to it. And they're definitely shifting in that direction. And that's been accelerated by the pandemic and the rise of telemedicine, where there really is an opportunity. I mean, if you think about it, just like the really simple basic stuff like telemedicine appointments skyrocketed during the pandemic.</p><p><strong>Harry Glorikian:</strong> Right.</p><p><strong>Emily Capodilupo: </strong>Every other in-person doctor's appointment I've ever been to, the first thing they do is they take your vital signs right, often before you even get to see the doctor. They've taken your vital signs, or if you've a telemedicine appointment, they just totally skip it, right? And so it's like, well, you know, my wearable can tell you what my resting heart rate is, could tell you not just what it was this morning, but what it's been all month and all that kind of stuff. It also can tell you what my blood oxygen level is, my temperature. And that's a lot of information that's like, you know, is a lot better than having nothing. Which is what telemedicine has right now. And so it's not like let's throw out all the EKG machines and all of that.</p><p><strong>Emily Capodilupo: </strong>But, you know, there are a lot of situations where remote monitoring can add a lot of value. And then there's other places where even if the doctor was there to take your vital signs, sometimes vital signs in context have a lot more information than an isolated reading. So like we published a paper about a little over a year ago now where we were looking at respiratory rate in response to COVID-19 infections. And what we found was about three days before or up to three days before reported symptom onset, people's respiratory rates were starting to climb. And we would see this like because daily your respiratory rate when you're healthy, it doesn't change at all from night to night, it’s super flat. And so it will be like the exact same thing night after night. And then all of a sudden you'd see this spike like two, three days before COVID-19 symptom onset. It would stay up or keep climbing. And then three days later, people would say, like, Oh, I don't feel well, whatever. They go get a COVID test, and lo and behold, it would be positive. And so it was this like interesting early warning sign. But what was really, really interesting about that study is that oftentimes people's respiratory rates were only going up like one or two breaths, which didn't make them like clinically like high respiratory rates, like clinically significant.</p><p><strong>Emily Capodilupo: </strong>It was only significant in how it was compared to your baseline. And so that's a case where like if I had gone to my doctor and they measured my respiratory rate, they would have said, this is a normal human respiratory rate, you know, between 12 and 20 breaths per minute, which is sort of normal. But like my baseline is about 14. So if it went up to 18, that's a huge, huge rise for me, but it's still technically clinically normal, so they would have completely missed that. But by having a wearable that's like passively monitoring my respiratory rate every single night, you could see like something's going on, and that can be a huge red flag that something's going on with your respiratory system. Right. And of course, COVID-19 is a lower respiratory tract infection primarily. So it's going to show up there. But we would expect to see similar things with somebody who had pneumonia or certain strains of the flu. And so these kind of like early warning signs that can show up in your vital signs before symptoms. You're not going to have a fever yet. You're not going to be complaining about not feeling well or have any other indication that you might have COVID. And so I think that's like an example of where a wearable paired with a doctor can provide information that like a doctor in their office wouldn't be able to provide alone.</p><p><strong>Harry Glorikian: </strong>Well, I mean, I think, you know, if you took respiratory rate plus a slow change in temperature, right now you have two biomarkers that you can use to show something is physiologically off.</p><p><strong>Emily Capodilupo: </strong>Yeah. What we were seeing was that respiratory rate was climbing before temperature was climbing, which was interesting.</p><p><strong>Harry Glorikian: </strong>Interesting. Okay. You know, another story. It's funny because I was talking to a friend of mine and he has A-fib [atrial fibrillation] and he knew he was going into A-fib and then he got together with his doctor and his doctor was actually digging into the data from the WHOOP to sort of see like when he was going into A-fib and sort of, you know, using the technology, because he wasn't wearing a Holter monitor or anything like that. This, this sort of acted as a way for him to peer into when it started, how long it lasted and things like that. So I think when a doctor wants to, it's interesting because some of these wearables like yours have that data available for them to, you know, interrogate.</p><p><strong>Emily Capodilupo: </strong>Mm hmm. Yeah. And I think A-fib is such an interesting example there because, like, people who have paroxysmal A-fib can go into A-fib for just, like a couple of minutes a month. And so your typical like seven-day or 48-hour Holter monitor reading could easily miss it. But A-fib puts you at risk of all kinds of things like stroke that you might want to be treating, and so like having 24/7 data collection over months and months and months can give you a better picture versus I don't really know too many people who are going to be willing to like or Holter monitor for a year.</p><p><strong>Harry Glorikian: </strong>Yeah. So I mean, I'm going back to your 24/7 and the wearable and the fact that you're driving all the power to the sensors, I mean, you guys collect, I think I saw the number, 50 to 100 megabytes of data per day, per user, which is a gigantic amount of data compared to maybe like a Fitbit or an Apple Watch. I mean. Why collect that much data? I mean, what do you do with it? I mean...</p><p><strong>Emily Capodilupo: </strong>Yeah, great question. You know, we keep all of the data because it has tremendous research value in addition to being able to power the features that we're providing today. You know, there's all kinds of fascinating early research, you know, different things like the shape that your pulse makes. So if you look at not just how fast your heart is beating, but literally, you know what that raw, we called PPG, photoplethysmography signal, looks like, you can actually tell a lot about the health of a cardiovascular system. And we published a paper a couple of years ago now where we're looking at age as a function of this like cardiovascular pulse shape. And we haven't productized that research yet, but stuff that we're exploring down the road and there's just there's so much, so much you can answer with large data sets that traditional academic research just hasn't been able to answer because they haven't had access to data like this. And so by keeping it all around, we're able to do a lot of research and move the field forward as well as create really, really feature rich experiences for our members.</p><p><strong>Harry Glorikian: </strong>Can I suggest, you know, custom consulting for guys like me who actually would love to dig into the data as as a service that that people would be willing to pay for. But correct me if I'm wrong -- the WHOOP doesn't really detect when I'm exercising. Right. I've got to tell it, no, I'm exercising.</p><p><strong>Emily Capodilupo: </strong>We detect when you're working out.</p><p><strong>Harry Glorikian: </strong>Because it seems like it's more accurate when I push the button first and it starts rather than wait for it to like if I'm about to start a weightlifting session, it's more accurate when I push the button, then when I wait for it to tell I'm doing something.</p><p><strong>Emily Capodilupo: </strong>Yeah. Well, with certain activities it's hard to get the exact start times right. And different people have different attitudes about things like warm ups and downs and if they should be included. So if you do have a strong preference about whether or not you want those included, we do give people the opportunity to manually trim the bounds of their workouts or to just start and stop them manually. But we do detect any activity with a strain above an eight that lasts at least 15 minutes will get automatically detected.</p><p><strong>Harry Glorikian: </strong>Okay. And by the way, I love the fact that you guys integrated with the Apple Watch because, like, because when I go on my treadmill, it automatically connects to the watch and then tracks the whole thing and then ports the info. That's great. That is fantastic. As a as an opportunity. But, you know, how do you think about WHOOP versus any of the competitive technologies? And I'll tell you why I say that when people say, well, what do you see is the difference? I'm like, you know, the Apple Watch is more of what what I think of as a data aggregation device in a sense, because it's sort of taking all sorts of stuff. You know, the WHOOP I think of almost like a coach in a sense, as opposed to it's pulling in data and pushing it out to different apps and I can do different things with it. So I don't want to misrepresent how you might frame it, but that's sort of how I think about it.</p><p><strong>Emily Capodilupo: </strong>No, I think that's totally spot on. I think that we have a very strong stance around not showing or generating data that we can't tell you what to do with it. And so we really want to be like your coach or your trainer or at a minimum like your workout buddy kind of thing, where it's somebody that or something you can kind of look to, to understand, you know, am I reaching my goals? What are the things that are helping and hurting me and sort of how do I then make changes to go forward? I think one of the biggest examples here is, we've been very much like countercultural in not counting steps and we've been asked a lot by our members, like, why don't you count steps? It's not actually that hard. It's not because we can't figure out how to do it. It's that we actually don't think that they're valuable. Steps count the same if you run them or walk them. If you walk them upstairs or flat. You don't get any steps if you swim for a mile and you certainly don't get any steps if you're wheelchair bound. And we didn't like any of those constraints, they didn't really make sense to us as a metric. And we also really didn't like this kind of arbitrary, like everybody needs 10,000 steps. Well, is that true if I'm 90 versus 19, is that true f I ran a marathon yesterday, should I still be trying to get 10,000 steps today? Is it different if I've been sitting on the couch for three days? And so we came up with this metric of strain where instead of being an external metric, like steps are sort of something that you did and you can count them and it's objective, we wanted an internal metric where it's like, How did your body respond to that thing that you did and how much flow did you take as a function of what you're capable of? And so sort of what strain does, it's very much like in opposition to what steps does, is they’re internally normalized to reflect like if I ran versus walk to those steps, if I ran versus my brother ran and he's more fit than I am, or if I do a two mile run this weekend and then I train a whole bunch and get more fit and then do the same two mile run six months from now, I should actually get a lower strain when I do it, when I'm more fit than I did when I got did it this weekend. Like all of a sudden, strain becomes this very rich thing because it has this, like, natural comparison where like a higher strain actually mean something objectively, both within and across people, than a lower strain does. Whereas that that's not really true with steps. Right? I could walk fewer steps than you, but have done them up a mountain. And so I've actually put a lot more strain on my body than if I'd done the same number as you, but like flat pacing around my kitchen, eating snacks and making dinner or something like that.</p><p><strong>Harry Glorikian: </strong>Yeah, well, actually there was an interesting paper that it was a sort of a study that brought in all sorts of studies to show that, you know, at an older age, you actually, you know, you need less steps, and it has a difference in mortality. And, you know, if you're younger, then you want a higher level of steps. And, you know, so it was a good paper. I'll actually I'll send you the reference later. But you know, the interesting thing about strain is and this is the good part about the body and the bad part about the body, in a sense, is that it optimizes itself. Right. And so if you want to get the same strain goal and if you're fit, you really have to…I mean, at some point, I'm like I look at if I had an incredible night, which is rare and it's really in the green, I'm like, I'm never going to hit that. Like, I'm going to have to run ten miles to hit that, that goal. So, I mean, I try to like get out and lift that day and maybe get a run in, then get a walk in. And I'm still you know, when you can't hit that high mark, if you're actually in shape. When you're not in shape, sort of, you can get there a little bit easier because your body is has optimized itself in a sense. Which is great, I guess. But when you're when you're holding yourself up to that number, you're like, Oh, my God, I'm never going to hit that number.</p><p><strong>Emily Capodilupo: </strong>Yeah. I mean, it's super interesting how the human body works, right? There's almost like this weird kindness in how we work where it's like easier and more fun to make progress when you're brand new and starting out and it's harder to make progress the better you are.</p><p><strong>Harry Glorikian: </strong>I mean, it's an efficient machine. It has to optimize itself. Right. So, again, you were saying no display, no interface. All the information happens on the associated device, the phone. I mean, you mentioned some of the pros and cons, but are there any other that I haven't asked or I know that at some point it pings me and says like. You need to connect because it's been some time between connections. So is there an offloading time frame that it needs to...</p><p><strong>Emily Capodilupo: </strong>No, it can store up to three days of data on the device itself.</p><p><strong>Harry Glorikian: </strong>Oh, interesting. Okay.</p><p><strong>Emily Capodilupo: </strong>Yeah. So if you like went camping for the weekend or something and didn't have internet, we would just store the data locally and then transmit it all when you got back. But it tries to transmit the data more or less consistently, constantly throughout the day. What it's pinging you about is not that you're in any way in danger of losing the data, but just that you're behind. And so you might be missing any kind of analysis or getting credit for your strains. We want to make sure you're up to date so that if you want to look at your data from the day, you would have access to it.</p><p><strong>Harry Glorikian: </strong>Here's a question. Would it ever make sense to make a WHOOP app for the Apple Watch? Or is the device sort of inextricably linked to the app?</p><p><strong>Emily Capodilupo: </strong>Yeah. I mean, there's a lot of good reasons to think about something like that, right? You can make it a lot more affordable if you didn't tie it to hardware. Right now, we believe that we have the best hardware on the market, but there's sort of valid pushback that some people are willing to settle for something less than best in order to only wear one thing. And they want to wear their Apple Watch because they like the phone call notifications and the texting and email and all that kind of stuff. There's a lot of great features that Apple has that we don't. I'm certainly not trying to hate on the competitors at all. But I think like the way we kind of think about what we've done is like if Apple Watch does a lot of little things, you know, at like a relatively shallow depth, so it's like a lot of coverage, we do a small subset of those things, but we do them very, very, very well. And so by not doing things like putting on a screen and letting you text and all of those things, we're able to have all of the power of the device drive towards getting the most accurate signal data. And so we are sampling the heart rate more frequently than Apple is, and the device is more purpose built around optimizing both internally and externally for the sensors. So there's even little things like electrical coupling on the circuit board. When you try and shove too much functionality into something small, they kind of like run into each other. And, you know, so we're not trying to make room for a GPS chip or make room for a screen or like all of those things. And so it lets us lay out the hardware very specifically for this purpose. And so we believe that in data to support that, we're getting more and more accurate like metric data.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So switching to sort of business model, because you sort of touched on that, is like it's a subscription model. You don't buy the device. If I'm not mistaken. The service starts at say 30 bucks a month and the package actually includes the WHOOP band. They'll just ship it to you like I'm wearing mine. Right. And so what was the rationale behind subscription versus just selling the device. If you have insight into, how did they pick 30 bucks? You know, I just wonder, like, you know, did they, is that something you guys felt reaches the broadest market sort of thing?</p><p><strong>Emily Capodilupo: </strong>Yeah, pretty much. So when we actually first launched, it was sold more like a traditional hardware product. So it was $500, one time fee, sort of use it as long as you want. And then we switched over to the subscription model in 2018. A nd we chose the price of $30. It was sort of designed to make the product accessible and lower the barrier of entry. $500 up front is a lot of money, especially for younger athletes. We want to make sure that people in college could afford it and stuff like that. And so we found just by market testing, that $30 was an approachable price point. And so after a couple of different market tests, that was what we landed with and more or less where we've been. We occasionally discount it and different things like that, and you can get a lower rate if you commit to more months upfront.</p><p><strong>Harry Glorikian: </strong>Yeah, I think I signed up for the maximum, which then brought it down to I think it was $18. Yeah. So here's a, you know, because this show is, you know, supposed to focus on AI and health care and things like that, I'm just sort of imagining in the back of my mind with that much data, you really have the opportunity to build some really cool analytics on top of it. You know, what role, if any, like does machine learning or other forms of AI play in you know how you analyze the data and then how do you, do you actually use that to personalize it back to the individual using it.</p><p><strong>Emily Capodilupo: </strong>Yeah, I mean, that's pretty much all my team is doing is machine learning. No, it plays a huge role in what we're doing, from like very traditional ML approaches, so like if you think about how we're doing our sleep staging, we have polysomnography is like the gold standard for getting sleep truth data. So that's like the stages when we know we're in REM sleep or slow-wave sleep. So we sent thousands and thousands of people into a clinical sleep lab with two straps on and they underwent a clinical sleep study. And then we took all of the data from the sleep study, lined it up with the WHOOP data, and then used all kinds of different traditional ML approaches in order to figure out how to get from a strap the same sleep staging information that we're able to get from this gold standard approach. Obviously the sort of gold standard sleep study uses a lot of sensors that we don't have right things. EEGs, which you need to be on someone's head to use. You can't get EEG from the wrist. EOGs, which you have to measure eye movement. So you need a little sensor there. And then we were able to find good proxies from the data that we can get at the wrist for all of those different signals and reconstruct the same sleep stage information.</p><p><strong>Emily Capodilupo: </strong>So that's a super fun ML problem. We also do things like when we detect a workout, we can figure out what, which sport or exercise modality you're using. And so the ability to classify those workouts is kind of again like a traditional ML like time series classification problem where you can tell the difference just from the heart rate and accelerometer signals. Are you doing basketball or CrossFit or running or anything like that? And then so those are kind of more traditional ML approaches. And then we've also done a lot around trying to understand behavioral impacts and how your body responds to different things. And then we're doing things like much, much more personalized. So we have a feature called The Journal where every day you fill out this little diary and you answer a bunch of questions about what you've done in the last 24 hours and can self report things like when you were eating, if you did different like kind of wellness activities like, meditate, journal. You know.</p><p><strong>Harry Glorikian: </strong>How much alcohol you had. I always wonder, like how honestly somebody answers that question.</p><p><strong>Emily Capodilupo: </strong>Any of those kinds of things. And then we look at the sort of signals in your data and try and separate out which of the things are helping you, which are hurting you, so that we can then recommend the things that are good for you, and for the things that are less good for you, maybe help you quantify the cost of those things that you can deploy them strategically. We certainly don't expect everybody to become like a teetotaller and never drink again, even though we're going to tell you it's bad for you, because it's pretty much always what shows up in the data. But we do want to help people make those informed decisions because a lot of people think like, Oh, I can have two drinks and it won't affect me tomorrow. And like, okay, here's the effect. And if tomorrow's not that important, go for it. And you have that really important meeting tomorrow, maybe don't. Y rou know, we're not trying to kill all the fun by any means, but we do want to make sure that people are empowered by data to know understand what they're doing to their body and then make decisions accordingly.</p><p><strong>Harry Glorikian: </strong>So I'm throwing in sort of like something important to me, right? Which is, you know, I have sleep apnea. Right. And it's funny because my wife diagnosed me, but then, you know, all the devices at some point, my Apple Watch actually asked me once, you know, have you ever been diagnosed with sleep apnea, which was interesting. But I've noticed like, the recovery number, if don't wear my CPAP, my recovery number tends to be much higher than if I do wear my CPAP. And I always wonder, does the positive air pressure cause a difference in how much your heart actually rests or not? Because it is pushing, it is positive air pressure on you all the time. So even in between apneas, you don't really maybe not rest as much. And I'm wondering if you have any insight on that.</p><p><strong>Emily Capodilupo: </strong>Yeah, we, we haven't specifically dug into why, but we have seen that as an unexpected pattern. You're not the only person to report that. It's on the to do list to better understand what's going on there. I think your theory is a valid one. We haven't verified or ruled it out yet, but I think there's a lot to be learned there. And I think one of the things that's exciting about the data that we're collecting is that if you wear a CPAP is one of the things you can report in our journals. We do have a tremendous amount of data on that and therefore the ability to kind of tease that apart and get insights that haven't been made available yet by traditional academic research.</p><p><strong>Harry Glorikian: </strong>Oh, I didn't know I could add CPAP in there. I have to go back and and check. But yeah, because my strain score ends up, my recovery score ends up lower. So it's like, you know, then of course, I always exceed on the strain side because I'm going to go work out the next day. And you know, it is what it is. But the other thing that you guys offer is like WHOOP for teams. And I don't know if you mean sports teams. You mean organizations. I'm not 100% sure because obviously I don't use that. I'm using it as an individual. Can you explain the additional value that provides when a group of people are using it together?</p><p><strong>Emily Capodilupo: </strong>Yeah. So all the above, we do it corporate teams as well as athletic teams, and there's a couple of different layers of the added value. So sometimes it's just accountability. I'm on a team with my family and it's just kind of fun, make fun of each other when our recovery scores are poor and, you know, cheer each other on when we have particularly good strain scores. And, you know, there's a lot of data to support that when you have a workout buddy or an accountability buddy or anything like that, that you tend to stick with things longer. And so creating just like a really friendly way for people to compete and cheer for each other just helps with the accountability and motivation keeping people on track. And deeper and more importantly, we do have a lot of people who create teams around different kinds of research initiatives or trying to understand a certain life stage. Like we create teams for people based on the month that their babies are due. So pregnant women can join a team of all the women on WHOOP who are expecting a baby in June 2022 can join this team together and pregnancy is this like very foreign weird moment in your body where everything's changing all the time and it just creates, like, a way for people to connect and be, like, this weird thing that's happening to me, is it normal? Like, who else is sleeping funny? And I think it's just very comforting to know that, like, all these weird things happening to your body aren't so weird. And then with like the sports teams and different things like that, what we're seeing is that the coaches are using the information to make better training or like decisions because now they actually have information that they didn't have access to before.</p><p><strong>Emily Capodilupo: </strong>So we've done a lot of work with different like collegiate programs and professional programs where they do things like if you're red, they will have you do a lighter version of the practice or skip a section of the practice in order to give your body a chance to recover. And if you're green, they might have you push a little bit harder. And so by modulating the training to where your body is today, we've actually shown in a project we completed a little over two years ago that you can reduce injury without reducing performance gains over the course of like an eight week training period. And so by reducing your training, when you're red, so your recovery score is below 33%, you actually like you will reduce injury without reducing performance gains. We've shown this. And so there's like literally zero value for those coaches to like push the athletes to complete the program or the day’s rtraining. And so we've seen a lot of coaches make those different training plans as well as game day decisions about who should start. You know, somebody might be your best player ordinarily, but if they're red, they're not all that primed on game day to perform. And so being able to make those kinds of different decisions. And then on the corporate side, people have used it in order to triage different access to supportive resources. So we've seen people offer like breaks to people who have been red for a number of different days in a row or things like that suggest that somebody might be burning out or overwhelmed or something like that.</p><p><strong>Harry Glorikian: </strong>Okay, so. Everywhere it states that it is not a medical device, is not intended to diagnose, monitor any disease or medical condition. Right. What's the line in your mind between, say, a fitness monitor and a medical device, because I think I always think that line is getting….because you guys and others like you guys have so much data, the level of insight that I've seen when I've gone into some of these is crazy. So. What what is that line in your mind?</p><p><strong>Emily Capodilupo: </strong>Yeah. I mean, I think that there's you know, it's always been the case that technology moves faster than the law. And so, like, you know, I think a lot of these things are going to shift as the technology is going to force them to shift. But, you know, like you said, we have a lot of data that's quite similar. The official line is what the FDA says is the line. And the FDA has carved out this like space that they've you know, they've called this wellness devices. They've sort of reserved the right to change their mind at any time, and we very much expect them to. But WHOOP falls into their definition of what a wellness device is, not a medical device, which is why we can say things like, this is your heart rate, but we can't say, because then you would cross into a medical device, like “Your heart rate is healthy, your heart rate is unhealthy,” right? You can't give those kinds of any kind of diagnoses or any kind of, like, you will prevent a heart attack if you do these things or something like that. So we have to keep the recommendations a bit more general, a little bit more vague in order to not cross over into that regulated health space. One of the things that we're seeing that's interesting, is that there's been a movement in wearables to get these like SAMD clearances, Software as a Medical Device, where pieces of wearables need different features or different algorithms do end up going through an FDA process and getting clearance to make certain claims in different settings.</p><p><strong>Emily Capodilupo: </strong>And I think that that's going to really accelerate over the next couple of years. These are very long processes, and then the lines are going to get more and more blurry because you're going to have this like hybrid consumer medical device, which is something that until a couple of years ago we really didn't have. There was like step counters and GPS watches and they were over here and then there was like medical stuff that didn't look cool and wasn't comfortable or easy to use and was very, very expensive. And it was all over here. And now we're seeing them kind of come into the middle where more and more the medical stuff cares about being like all the human factors like that's comfortable to use and that people want to wear it and they can get good compliance. And the wellness devices are finding more and more applications for their data in the health care space. So I think a lot of it's going to come down to what doctors end up getting trained on. If they're willing to look at this data, if they have any clue how to use it, sort of by being in the medical world and science training their whole lives, a lot of them just don't have the education and training to understand big data and to understand technology in that way. So they're not being trained on how to make use of the data or how to apply it. And I think that that's something that might change in the next couple of decades.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting, right, because I always tell people I'm like, this is a medical device. Like I you know, I mean, you know, you may think it's not, but it really has certain capabilities that allow it to get FDA clearance in a particular area. Right. And they're picking their space one by one. But the amount of data that you guys pick up on all of these devices, I mean, you know, we've seen atrial fibrillation. I'm sure that tachycardia shows up on there. You know, there's different things that they, because it's 24/7, it's looking, right and it's monitoring and it's got multiple sensors which you can now cross-correlate. There's so much insight that comes from this that I would almost like love to encourage the companies to think about moving down this road because I think it would be so helpful to patients. But, you know, jumping to a different thing. So. How do you guys define success for WHOOP? If you hit all your product and sales goals and for the next, say, 2 to 5 years, what does success look like for the organization?</p><p><strong>Emily Capodilupo: </strong>Yeah. I mean, I'll let the finance team worry about the sales goals and things, but I mean, for me in my team, like what success really comes down to is like, can we help people make actually better decisions? I think like a lot of the first generation of wearables, like it was this stream of fun facts. And we're all obsessed with ourselves, right? Like humans are sort of naturally narcissists, at least to a certain extent. And so it's like fun to be like, ooh, I slept for 7 hours or like, ooh, I ran a mile. But it's like kind of you maybe already knew that, right? And I think, like, what we're trying to do and like where we see a lot of success is, can we tell you something that you don't know? And can we convince you that you should do something about it? And then can we make you, like, realize, like, oh, wow, this, like, incredible thing happened and I feel so much better. And the features that we get the most excited about are like the sort of user stories are not, like, “Wow, it's so much fun to see my sleep data” or like, “This was fun.” But like when we released our paper showing that this respiratory rate spike sort of predicted or often preceded COVID symptom onset and therefore COVID infection, the paper came out like right before Thanksgiving and we saw so many people tell us that like because they had a respiratory rate spike, they didn't go home for Thanksgiving or they didn't travel and then like they tested positive a few days later and they were like, my grandma was at Thanksgiving or like my uncle who's in his eighties or stuff like that.</p><p><strong>Emily Capodilupo: </strong>And you know, those kind of moments where it's like, we educated you, we showed you this vital sign that like, you never would have felt anything. You didn't know you were sick, you weren't feeling bad. It's not like you went to go get a test because you weren't feeling good, like you just saw this in your WHOOP data and you're like, You know what? I'm going to stay home and not risk like seeing grandma because WHOOP said so, right? And then like, who knows how many COVID infections didn't happen and like what kind of role we played there. And like, it was probably like the most meaningful thing we did that year. And we did a lot of other cool stuff, but to think that by helping people notice that pattern, potentially they saved a relative's life and all the like crappy things that would happen if you thought you were responsible for killing your grandma and how much that ruins your own life as well? I think like we just get really excited about that. And one of the features that we released is last year was we were looking at how your reproductive hormones is part of your menstrual cycle affect your ability to respond to training. And I was an athlete my whole life. I was a gymnast, like before I could walk, and like nobody asked me a single time when my last period was or anything like that. That was just totally not part of like the coach-athlete relationship. But we know that like your ability to put on muscle and your ability to recover from training is totally different during the follicular phase, the first half of your menstrual cycle, than it is during the luteal phase, which is the second half. And if we modulate your training so that you're training more during the first half of the cycle than the second half, you can way more efficiently build muscle and strength, have fewer injuries, make more efficient gains. And if we now we do coach, in our product, women to do this, and we've gotten this incredible feedback of like people saying they feel so much better and like they're, well, you know, their training is going more smoothly and they feel like their body so much less random, it feels more predictable and they kind of understand what's going on. Nobody ever told them that reproductive hormones were relevant beyond their role in reproduction, but they actually affect everything we do. Like when progesterone is elevated in the back half of our menstrual cycle during the luteal phase, we sweat more and we lose a lot of salt by doing that. And so we need to eat more salty foods and we need to be more careful about hydrating, which is really important if you're an athlete, but nobody's telling us this. And so like we can connect these by looking at big data because we are tracking your menstrual cycle around the clock or around the month.</p><p><strong>Emily Capodilupo: </strong>We can put that into the product and then we see people are making better training decisions, understanding their body, feeling like things are less random. Right. And that's so empowering. And I think like female athletes in particular have been so underrepresented in research. There's a paper that came out eight months ago that said that just 6% of athletic performance research focused on women, 6%. And it was looking at all research between 2014 and 2020. And it was trending down, not up. So it was worse in like 2018, '19 and '20 than it had been like earlier in the twenty-teens. And so it's like completely neglected. And there is all this data that like wearables and WHOOP are sitting on and we're able to create features around that and just help people understand their bodies in a way that nobody else is doing right now. And so those are the features that, like I really define as like big successes. If we made our sleep staging accuracy 1% more accurate or we caught one more workout, like those are obviously like from a pure data science perspective, they can feel like wins. But what we really care about is like, am I helping you, cheesily going back to our mission, am I helping you unlock your performance in some way by helping you understand your body and making a better decision? Like, are you better off for having been on WHOOP? That's what, internally, those are the KPIs that we track the most closely.</p><p><strong>Harry Glorikian: </strong>Yeah. And I mean I would encourage you as well as all the other companies to, you know, peer reviewed papers, get them out there. Right. I mean, just when I search the space or peer reviewed journals for things utilizing the technologies, I mean, there's not a whole lot out there. And then the other thing is, is sometimes I read the devices they're using, I'm like, whoa, what is that? I've never heard of that device. And if I haven't heard about it, it must be on the fringe sort of thing. So I would highly encourage it because, you know, people like me would love to be looking at that sort of data. Because I'm constantly investing in the space, constantly working with the different technologies, you know, constantly talking to people through the podcast or writing a book, you know. So that information is incredibly useful to someone like me as, as, as well as the average person. So if you could send a message back through time to yourself in 2013 when you joined the company, you know. What would you say? What have you learned about the wearables and fitness market that you know you wish you knew then?</p><p><strong>Emily Capodilupo: </strong>Oh, what a fun question. You know, I think, like. It's hard to know what I wish I knew earlier because like in so many ways and I feel so lucky that this is true, like the vision that Will pitched me on when I met him, like when he was like, “Come join WHOOP, this is why it's super cool,” is exactly what we're doing. And so, like, I did trust him. I guess my message in a lot of ways would be trust him that like this is for real. I think the space has been so exciting and just there's so much opportunity. I came from doing academic sleep research and I would work on these papers where we had like 14 subjects and it was like, “Oh, that's a, that's a good size sleep study. Like that'll get into a good journal.” And everyone was like excited. And then it's like, you know, I just, I'm working on a paper right now and we have 300,000 people's data in it. We're looking at like a year of data at a time. So we've got just like millions and millions of sleeps and workouts in this data set that we're combing through. When we did this project, which was published in the British Medical Journal last year, where we were looking at the menstrual cycle phases and how they affected your training, we looked at 14,000 menstrual cycles, like just the orders of magnitude more data than what you can do in traditional academic research. And that's what I got really excited about. It's why I became a data scientist because I realized that like the most interesting questions that there are to answer about how humans work are going to require larger datasets than we've had access to before.</p><p><strong>Harry Glorikian: </strong>So I'm putting in a plug for sleep apnea, man, if you get a chance, I'd love to see a study on that one.</p><p><strong>Emily Capodilupo: </strong>No, sleep apnea, it's definitely on the list. About 80% of sleep apnea is believed to be undiagnosed. And it does have tremendous effects on long term health when it goes undiagnosed, especially in later stages. And so anything we can do around helping people realize that they might have sleep apnea and then helping them treat it once they do and better understand the disease progression. And all of that has a huge quality of life implications down the road.</p><p><strong>Harry Glorikian: </strong>I will happily volunteer. So great to speak to you. Very insightful discussion. I'm going to tell my wife about the whole menstrual cycle thing and working out and this is exactly why she eats salty food like at certain times. But this is great. I'm so glad to have you on the show and I look forward to seeing the progress of the company and the technology.</p><p><strong>Emily Capodilupo: </strong>Awesome. Well, thank you so much for having me. This is such a fun conversation.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
]]></description>
      <pubDate>Tue, 5 Jul 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Emily Capodilupo)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Most fitness gadgets, like the Fitbit or the Apple Watch, encourage you to get out there every day and “close your rings” or “do your 10,000 steps.” But there’s one activity tracker that’s a little different. The WHOOP isn't designed to tell you when to work out—it’s designed to tell you when to <i>stop. </i></p><p>Harry's guest this week is Emily Capodilupo, the senior vice president of data science and research at Boston-based WHOOP, which is based here in Boston. To explain why the company focuses on measuring what it calls <i>strain</i>, rather than counting steps or calories, she reaches all the way back to the beginning of the company in 2012. That’s when founder and CEO Will Ahmed had just finished college at Harvard and was looking back at his experiences on the varsity squash team. Ahmed realized that had often underperformed because he had overtrained, neglecting to give his body time to recover between workouts or between matches. To this day, WHOOP designs the WHOOP band and its accompanying smartphone software around measuring the physical quantities that best predict athletic performance, and giving users feedback that can help them decide how much to push or <i>not</i> push on a given day.</p><p>Capodilupo calls the WHOOP band “the first wearable that tells you to do less.” But it’s really all about designing a safe and effective training program and helping users make smarter decisions. Meanwhile, the WHOOP band collects so many different forms of data that it can also help to detect conditions like atrial fibrillation, or even predict whether you’re about to be diagnosed with Covid-19. It’s not a medical device, but Capodilupo acknowledges that the line between wellness and diagnostics is shifting all the time.  And with the rise of telemedicine, which is spreading even faster thanks to the pandemic, she predicts that more patients and more doctors will want access to the kinds of health data that the WHOOP band and other trackers collect 24/7. </p><p>The conversation touched on a very different way of thinking about fitness and health, and on the relationship between big data and quality of life—which is, after all, the main theme of the show.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>If you’re a gadget lover and data aficionado like me, you’ve probably tried a lot of different fitness monitors and other wearable devices, like a Fitbit, or an Oura ring, or an Apple Watch.</p><p>We’ve talked about a lot of these devices on the show. Usually they come with a smartphone app, or they run their own apps. </p><p>And the job of the apps is to track your fitness progress and encourage you to get out there every day and “close your rings” or “do your 10,000 steps.”</p><p>But there’s one activity tracker that’s a little different. It’s the WHOOP band. </p><p>The WHOOP is not designed to tell you when to work out. It’s designed to tell you when to <i>stop</i>.</p><p>My guest today is Emily Capodilupo. She’s the senior vice president of data science and research at WHOOP, which is based here in Boston. </p><p>And to explain why the company focuses on measuring what it calls <i>strain</i>, rather than counting steps or calories, she reaches all the way back to the beginning of the company in 2012.</p><p>That’s when founder and CEO Will Ahmed had just finished college at Harvard and was looking back at his experiences on the varsity squash team.</p><p>I’ll let Emily tell the whole story, but basically Will realized that had often underperformed because he had overtrained, neglecting to give his body time to recover between workouts or between matches.</p><p>To this day, WHOOP designs its signature WHOOP band and its accompanying smartphone software around measuring the physical quantities that best predict athletic performance, and giving users feedback that can help them decide how much to push or <i>not</i> push on a given day.</p><p>Emily calls the WHOOP band “the first wearable that tells you to do less.”</p><p>But it’s really all about designing a safe and effective training program and helping users make smarter decisions.</p><p>Meanwhile, the WHOOP band collects so many different forms of data that it can also help to detect conditions like atrial fibrillation, or even predict whether you’re about to be diagnosed with Covid-19.</p><p>But it’s not a medical device.</p><p>But Emily acknowledges that the line between wellness and diagnostics is shifting all the time. </p><p>And with the rise of telemedicine, which is spreading even faster thanks to the pandemic, she predicts that more patients and more doctors will want access to the kinds of health data that the WHOOP band and other trackers collect 24/7. </p><p>It was a fascinating conversation that touched on a very different way of thinking about fitness and health, and on the relationship between big data and quality of life, which is, after all, the main theme of this show.</p><p>So I want to play the whole interview for you now.</p><p><strong>Harry Glorikian: </strong>Emily, welcome to the show.</p><p><strong>Emily Capodilupo: </strong>Thanks so much for having me.</p><p><strong>Harry Glorikian: </strong>Yeah, I have to tell you, I was reading your background and I'm like, oh, my God, I'm so excited. She comes from like, you know, like real training in sleep. And we're going to talk about these devices. And it's one of the things I use them all for, as you can tell, like I'm I'm sort of geared up and I've got all of them and I and I cross correlate and I can tell when somebody has updated something and the algorithm, like I can see like all of a sudden they start moving apart from each other or being different from each other. But, you know, for those people who aren't, say, up to speed on the world of fitness monitors, I'd love for you to start, you know, by explaining you WHOOP's mission, and then maybe talk about different parts of your system, you know, like the band, the sensors, you know, the basic capabilities, that sort of stuff.</p><p><strong>Emily Capodilupo: </strong>Sure. So WHOOP's mission is to unlock human performance. And in a lot of ways it started out at the beginning. You really focus on athletic performance. Our origin story is very much in preventing overtraining. But as we started to do more and more research, we started to discover that the things that predict athletic performance at the sort of root physiological level are actually the same things that predict all kinds of performance. So we've seen them predict things like cognitive performance. We've seen them predict like emotional intelligence and, you know, like how short you are with people, stuff like that, you know, as well as like how people feel like they're performing at work or in their jobs, in their relationship, stuff like that. So while ...physical performance is, where a lot of those algorithms and sort of like our research started, we started to realize that without tweaking any of the algorithms at all, they started to be really good predictors of other elements of performance as well. So we've really broadened our mission. It's all about unlocking human performance in the broadest sense possible, and we do that with this device. Some of the things that we think are really important about our design as it compares to some of the other wearables, is that as you'll see, it's screenless. And we really think about the device just as this itty bitty little bit that slides out from the fabric.</p><p><strong>Emily Capodilupo: </strong>And so it's actually capable of being worn almost anywhere on your body. So we have clothing that totally hides it. You can wear it in your underwear, on your bra, on a t shirt, anything like that, as well as sort of the traditional wearable locations like on your wrist or bicep. And one of the reasons why we wanted that form factor is we really wanted to collect 24/7 data and be able to get this complete picture of your body. It actually charges wirelessly so you don't even have to take it off to charge it. And that allows us to get the most complete picture of what's going on. And so we don't miss like the 2 hours when you take it off to charge or you don't charge it overnight and then miss the sleep or anything like that. So it gives us this like really incredible picture. Kind of one of the other important differentiators just in the hardware itself is because we're not powering a screen, we're able to put 100% of the battery into driving the sensors and getting the most accurate signal. And so when you start with the most accurate signal, the most accurate raw data, you're then able to power better feedback, better coaching, because you're starting with something more reliable. And so we've done a lot on the coaching side and the algorithms side that other wearables just haven't been able to do.</p><p><strong>Harry Glorikian: </strong>Interesting. So Will Ahmed and John...and I'm going to try to pronounce it. </p><p><strong>Emily Capodilupo: </strong>Capodilupo.</p><p><strong>Harry Glorikian: </strong>Thank you. Started WHOOP in 2012, right? While John was at Harvard and Will had just graduated. Right. So, you know, I mean, maybe a little bit about the company's origin story or. I don't. God, that was you know, if I go back that far, the fitness monitoring market was like in its nascency.</p><p><strong>Emily Capodilupo: </strong>Yeah it was, the Jawbone Up had just come out, the original Fitbits had just come out. And not too long after that the Nike FuelBand started, which no longer exists, of course. And, you know, if you look at what wearables were doing at the time. Oh, and then, of course, there was this other class of wearables that had been around for a little bit, which were like the Garmin running watches. So it kind of GPS watches that you put on for the run or for a bike ride or whatever it is. It would capture all the GPS data, give you information about your pace, and then you take it off when the run was over. And so you kind of had those like two classes of wearables. We had these like 24-ish/7 step counters, and then you had the like more intense while you were working out data, but nobody was really bridging those things. But the sort of theme across all wearables, both of those different categories at the time, was this like push harder, more is more, faster is better, just do it, right. All of those kinds of messaging. And we weren't really seeing, at least with the like kind of step counter class of wearables, we weren't seeing any kind of adoption in like elite athletes or even like collegiate athletes because they didn't really need to be told do more.</p><p><strong>Emily Capodilupo: </strong>And actually what happened is, sort of the WHOOP origin story is, Will was captain of the Harvard squash team. And when he got named captain, he sort of committed that “I'm the captain. I should work harder than everybody else. That's what a leader does.” And he worked so, so hard that he overtrained, really burnt himself out and like did really poorly. And he had this moment of like, you know, I'm in a Division I school and I'm like the fanciest, you know, squash programs that there is. How come nobody knew I was overtraining and like, told me to stop. And like, who knew that this was a thing? Like, I always thought that if I worked harder, I'd get better. And actually, you can work too hard and working too hard is bad. And he found that like everybody on his team was really motivated to work hard and sort of motivating each other to work harder. And they didn't have that balancing voice of like, Oh, I should take a rest day and like sit out, even though like my teammates are practicing. That would have felt like very uncomfortable and like not being a team player or something like that. But he started digging into the data and it really did show that like actually when you need a rest day, you will be stronger for having taken the rest day, than you will be for like manning up and pushing through.</p><p><strong>Emily Capodilupo: </strong>And so he really set out to create the first wearable that was going to tell you to do less. It was very countercultural in that moment. But he was trying to address kind of the highly motivated market that needed almost like permission to pull back and to be told what their limits were. And so from day one, we were really focused on like, how can we create a recovery score that's going to tell you, like, you're better off resting today than you are like doing this program or that, like, a coach could use and see the data and say, okay, these four players, they're going to do an extra set or an extra drill or whatever it is. And these four players, they're actually going to stop 20 minutes early and, you know, go sit in the sauna or stretch or whatever it is. And by modulating people's training in response to their bodies, readiness to respond to that training, actually create like safer and more effective training programs. And that was where we started and then kind of evolved into the product we are right now. But a lot of that is very, very much, that philosophy is still kind of at the core of what we're doing.</p><p><strong>Harry Glorikian: </strong>Yeah, I definitely have questions. We definitely have to talk about the recovery score and sleep apnea, because I have a vested interest in understanding this better. Actually, it's funny, I try to talk about this with my doctor and he's like, “Man, you know more than I do about this.” But so, you know, thinking about how the company is evolving. It's been moving forward. I've been watching it. I mean, what is the company's sort of larger philosophy about like the role of technology in fitness and health. I mean, do you feel like we're headed towards a future where everybody is going to rely on their mobile and wearable devices for health advice?</p><p><strong>Emily Capodilupo: </strong>I think so. And I think that, you know, there's a big asterisk to that answer, which is I don't think that wearables are ever going to replace doctors, and I don't think that we're trying to do that either. But we do have a lot of information that doctors don't have. And there's a really, I think, exciting opportunity if the medical community were more open to it. And they're definitely shifting in that direction. And that's been accelerated by the pandemic and the rise of telemedicine, where there really is an opportunity. I mean, if you think about it, just like the really simple basic stuff like telemedicine appointments skyrocketed during the pandemic.</p><p><strong>Harry Glorikian:</strong> Right.</p><p><strong>Emily Capodilupo: </strong>Every other in-person doctor's appointment I've ever been to, the first thing they do is they take your vital signs right, often before you even get to see the doctor. They've taken your vital signs, or if you've a telemedicine appointment, they just totally skip it, right? And so it's like, well, you know, my wearable can tell you what my resting heart rate is, could tell you not just what it was this morning, but what it's been all month and all that kind of stuff. It also can tell you what my blood oxygen level is, my temperature. And that's a lot of information that's like, you know, is a lot better than having nothing. Which is what telemedicine has right now. And so it's not like let's throw out all the EKG machines and all of that.</p><p><strong>Emily Capodilupo: </strong>But, you know, there are a lot of situations where remote monitoring can add a lot of value. And then there's other places where even if the doctor was there to take your vital signs, sometimes vital signs in context have a lot more information than an isolated reading. So like we published a paper about a little over a year ago now where we were looking at respiratory rate in response to COVID-19 infections. And what we found was about three days before or up to three days before reported symptom onset, people's respiratory rates were starting to climb. And we would see this like because daily your respiratory rate when you're healthy, it doesn't change at all from night to night, it’s super flat. And so it will be like the exact same thing night after night. And then all of a sudden you'd see this spike like two, three days before COVID-19 symptom onset. It would stay up or keep climbing. And then three days later, people would say, like, Oh, I don't feel well, whatever. They go get a COVID test, and lo and behold, it would be positive. And so it was this like interesting early warning sign. But what was really, really interesting about that study is that oftentimes people's respiratory rates were only going up like one or two breaths, which didn't make them like clinically like high respiratory rates, like clinically significant.</p><p><strong>Emily Capodilupo: </strong>It was only significant in how it was compared to your baseline. And so that's a case where like if I had gone to my doctor and they measured my respiratory rate, they would have said, this is a normal human respiratory rate, you know, between 12 and 20 breaths per minute, which is sort of normal. But like my baseline is about 14. So if it went up to 18, that's a huge, huge rise for me, but it's still technically clinically normal, so they would have completely missed that. But by having a wearable that's like passively monitoring my respiratory rate every single night, you could see like something's going on, and that can be a huge red flag that something's going on with your respiratory system. Right. And of course, COVID-19 is a lower respiratory tract infection primarily. So it's going to show up there. But we would expect to see similar things with somebody who had pneumonia or certain strains of the flu. And so these kind of like early warning signs that can show up in your vital signs before symptoms. You're not going to have a fever yet. You're not going to be complaining about not feeling well or have any other indication that you might have COVID. And so I think that's like an example of where a wearable paired with a doctor can provide information that like a doctor in their office wouldn't be able to provide alone.</p><p><strong>Harry Glorikian: </strong>Well, I mean, I think, you know, if you took respiratory rate plus a slow change in temperature, right now you have two biomarkers that you can use to show something is physiologically off.</p><p><strong>Emily Capodilupo: </strong>Yeah. What we were seeing was that respiratory rate was climbing before temperature was climbing, which was interesting.</p><p><strong>Harry Glorikian: </strong>Interesting. Okay. You know, another story. It's funny because I was talking to a friend of mine and he has A-fib [atrial fibrillation] and he knew he was going into A-fib and then he got together with his doctor and his doctor was actually digging into the data from the WHOOP to sort of see like when he was going into A-fib and sort of, you know, using the technology, because he wasn't wearing a Holter monitor or anything like that. This, this sort of acted as a way for him to peer into when it started, how long it lasted and things like that. So I think when a doctor wants to, it's interesting because some of these wearables like yours have that data available for them to, you know, interrogate.</p><p><strong>Emily Capodilupo: </strong>Mm hmm. Yeah. And I think A-fib is such an interesting example there because, like, people who have paroxysmal A-fib can go into A-fib for just, like a couple of minutes a month. And so your typical like seven-day or 48-hour Holter monitor reading could easily miss it. But A-fib puts you at risk of all kinds of things like stroke that you might want to be treating, and so like having 24/7 data collection over months and months and months can give you a better picture versus I don't really know too many people who are going to be willing to like or Holter monitor for a year.</p><p><strong>Harry Glorikian: </strong>Yeah. So I mean, I'm going back to your 24/7 and the wearable and the fact that you're driving all the power to the sensors, I mean, you guys collect, I think I saw the number, 50 to 100 megabytes of data per day, per user, which is a gigantic amount of data compared to maybe like a Fitbit or an Apple Watch. I mean. Why collect that much data? I mean, what do you do with it? I mean...</p><p><strong>Emily Capodilupo: </strong>Yeah, great question. You know, we keep all of the data because it has tremendous research value in addition to being able to power the features that we're providing today. You know, there's all kinds of fascinating early research, you know, different things like the shape that your pulse makes. So if you look at not just how fast your heart is beating, but literally, you know what that raw, we called PPG, photoplethysmography signal, looks like, you can actually tell a lot about the health of a cardiovascular system. And we published a paper a couple of years ago now where we're looking at age as a function of this like cardiovascular pulse shape. And we haven't productized that research yet, but stuff that we're exploring down the road and there's just there's so much, so much you can answer with large data sets that traditional academic research just hasn't been able to answer because they haven't had access to data like this. And so by keeping it all around, we're able to do a lot of research and move the field forward as well as create really, really feature rich experiences for our members.</p><p><strong>Harry Glorikian: </strong>Can I suggest, you know, custom consulting for guys like me who actually would love to dig into the data as as a service that that people would be willing to pay for. But correct me if I'm wrong -- the WHOOP doesn't really detect when I'm exercising. Right. I've got to tell it, no, I'm exercising.</p><p><strong>Emily Capodilupo: </strong>We detect when you're working out.</p><p><strong>Harry Glorikian: </strong>Because it seems like it's more accurate when I push the button first and it starts rather than wait for it to like if I'm about to start a weightlifting session, it's more accurate when I push the button, then when I wait for it to tell I'm doing something.</p><p><strong>Emily Capodilupo: </strong>Yeah. Well, with certain activities it's hard to get the exact start times right. And different people have different attitudes about things like warm ups and downs and if they should be included. So if you do have a strong preference about whether or not you want those included, we do give people the opportunity to manually trim the bounds of their workouts or to just start and stop them manually. But we do detect any activity with a strain above an eight that lasts at least 15 minutes will get automatically detected.</p><p><strong>Harry Glorikian: </strong>Okay. And by the way, I love the fact that you guys integrated with the Apple Watch because, like, because when I go on my treadmill, it automatically connects to the watch and then tracks the whole thing and then ports the info. That's great. That is fantastic. As a as an opportunity. But, you know, how do you think about WHOOP versus any of the competitive technologies? And I'll tell you why I say that when people say, well, what do you see is the difference? I'm like, you know, the Apple Watch is more of what what I think of as a data aggregation device in a sense, because it's sort of taking all sorts of stuff. You know, the WHOOP I think of almost like a coach in a sense, as opposed to it's pulling in data and pushing it out to different apps and I can do different things with it. So I don't want to misrepresent how you might frame it, but that's sort of how I think about it.</p><p><strong>Emily Capodilupo: </strong>No, I think that's totally spot on. I think that we have a very strong stance around not showing or generating data that we can't tell you what to do with it. And so we really want to be like your coach or your trainer or at a minimum like your workout buddy kind of thing, where it's somebody that or something you can kind of look to, to understand, you know, am I reaching my goals? What are the things that are helping and hurting me and sort of how do I then make changes to go forward? I think one of the biggest examples here is, we've been very much like countercultural in not counting steps and we've been asked a lot by our members, like, why don't you count steps? It's not actually that hard. It's not because we can't figure out how to do it. It's that we actually don't think that they're valuable. Steps count the same if you run them or walk them. If you walk them upstairs or flat. You don't get any steps if you swim for a mile and you certainly don't get any steps if you're wheelchair bound. And we didn't like any of those constraints, they didn't really make sense to us as a metric. And we also really didn't like this kind of arbitrary, like everybody needs 10,000 steps. Well, is that true if I'm 90 versus 19, is that true f I ran a marathon yesterday, should I still be trying to get 10,000 steps today? Is it different if I've been sitting on the couch for three days? And so we came up with this metric of strain where instead of being an external metric, like steps are sort of something that you did and you can count them and it's objective, we wanted an internal metric where it's like, How did your body respond to that thing that you did and how much flow did you take as a function of what you're capable of? And so sort of what strain does, it's very much like in opposition to what steps does, is they’re internally normalized to reflect like if I ran versus walk to those steps, if I ran versus my brother ran and he's more fit than I am, or if I do a two mile run this weekend and then I train a whole bunch and get more fit and then do the same two mile run six months from now, I should actually get a lower strain when I do it, when I'm more fit than I did when I got did it this weekend. Like all of a sudden, strain becomes this very rich thing because it has this, like, natural comparison where like a higher strain actually mean something objectively, both within and across people, than a lower strain does. Whereas that that's not really true with steps. Right? I could walk fewer steps than you, but have done them up a mountain. And so I've actually put a lot more strain on my body than if I'd done the same number as you, but like flat pacing around my kitchen, eating snacks and making dinner or something like that.</p><p><strong>Harry Glorikian: </strong>Yeah, well, actually there was an interesting paper that it was a sort of a study that brought in all sorts of studies to show that, you know, at an older age, you actually, you know, you need less steps, and it has a difference in mortality. And, you know, if you're younger, then you want a higher level of steps. And, you know, so it was a good paper. I'll actually I'll send you the reference later. But you know, the interesting thing about strain is and this is the good part about the body and the bad part about the body, in a sense, is that it optimizes itself. Right. And so if you want to get the same strain goal and if you're fit, you really have to…I mean, at some point, I'm like I look at if I had an incredible night, which is rare and it's really in the green, I'm like, I'm never going to hit that. Like, I'm going to have to run ten miles to hit that, that goal. So, I mean, I try to like get out and lift that day and maybe get a run in, then get a walk in. And I'm still you know, when you can't hit that high mark, if you're actually in shape. When you're not in shape, sort of, you can get there a little bit easier because your body is has optimized itself in a sense. Which is great, I guess. But when you're when you're holding yourself up to that number, you're like, Oh, my God, I'm never going to hit that number.</p><p><strong>Emily Capodilupo: </strong>Yeah. I mean, it's super interesting how the human body works, right? There's almost like this weird kindness in how we work where it's like easier and more fun to make progress when you're brand new and starting out and it's harder to make progress the better you are.</p><p><strong>Harry Glorikian: </strong>I mean, it's an efficient machine. It has to optimize itself. Right. So, again, you were saying no display, no interface. All the information happens on the associated device, the phone. I mean, you mentioned some of the pros and cons, but are there any other that I haven't asked or I know that at some point it pings me and says like. You need to connect because it's been some time between connections. So is there an offloading time frame that it needs to...</p><p><strong>Emily Capodilupo: </strong>No, it can store up to three days of data on the device itself.</p><p><strong>Harry Glorikian: </strong>Oh, interesting. Okay.</p><p><strong>Emily Capodilupo: </strong>Yeah. So if you like went camping for the weekend or something and didn't have internet, we would just store the data locally and then transmit it all when you got back. But it tries to transmit the data more or less consistently, constantly throughout the day. What it's pinging you about is not that you're in any way in danger of losing the data, but just that you're behind. And so you might be missing any kind of analysis or getting credit for your strains. We want to make sure you're up to date so that if you want to look at your data from the day, you would have access to it.</p><p><strong>Harry Glorikian: </strong>Here's a question. Would it ever make sense to make a WHOOP app for the Apple Watch? Or is the device sort of inextricably linked to the app?</p><p><strong>Emily Capodilupo: </strong>Yeah. I mean, there's a lot of good reasons to think about something like that, right? You can make it a lot more affordable if you didn't tie it to hardware. Right now, we believe that we have the best hardware on the market, but there's sort of valid pushback that some people are willing to settle for something less than best in order to only wear one thing. And they want to wear their Apple Watch because they like the phone call notifications and the texting and email and all that kind of stuff. There's a lot of great features that Apple has that we don't. I'm certainly not trying to hate on the competitors at all. But I think like the way we kind of think about what we've done is like if Apple Watch does a lot of little things, you know, at like a relatively shallow depth, so it's like a lot of coverage, we do a small subset of those things, but we do them very, very, very well. And so by not doing things like putting on a screen and letting you text and all of those things, we're able to have all of the power of the device drive towards getting the most accurate signal data. And so we are sampling the heart rate more frequently than Apple is, and the device is more purpose built around optimizing both internally and externally for the sensors. So there's even little things like electrical coupling on the circuit board. When you try and shove too much functionality into something small, they kind of like run into each other. And, you know, so we're not trying to make room for a GPS chip or make room for a screen or like all of those things. And so it lets us lay out the hardware very specifically for this purpose. And so we believe that in data to support that, we're getting more and more accurate like metric data.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So switching to sort of business model, because you sort of touched on that, is like it's a subscription model. You don't buy the device. If I'm not mistaken. The service starts at say 30 bucks a month and the package actually includes the WHOOP band. They'll just ship it to you like I'm wearing mine. Right. And so what was the rationale behind subscription versus just selling the device. If you have insight into, how did they pick 30 bucks? You know, I just wonder, like, you know, did they, is that something you guys felt reaches the broadest market sort of thing?</p><p><strong>Emily Capodilupo: </strong>Yeah, pretty much. So when we actually first launched, it was sold more like a traditional hardware product. So it was $500, one time fee, sort of use it as long as you want. And then we switched over to the subscription model in 2018. A nd we chose the price of $30. It was sort of designed to make the product accessible and lower the barrier of entry. $500 up front is a lot of money, especially for younger athletes. We want to make sure that people in college could afford it and stuff like that. And so we found just by market testing, that $30 was an approachable price point. And so after a couple of different market tests, that was what we landed with and more or less where we've been. We occasionally discount it and different things like that, and you can get a lower rate if you commit to more months upfront.</p><p><strong>Harry Glorikian: </strong>Yeah, I think I signed up for the maximum, which then brought it down to I think it was $18. Yeah. So here's a, you know, because this show is, you know, supposed to focus on AI and health care and things like that, I'm just sort of imagining in the back of my mind with that much data, you really have the opportunity to build some really cool analytics on top of it. You know, what role, if any, like does machine learning or other forms of AI play in you know how you analyze the data and then how do you, do you actually use that to personalize it back to the individual using it.</p><p><strong>Emily Capodilupo: </strong>Yeah, I mean, that's pretty much all my team is doing is machine learning. No, it plays a huge role in what we're doing, from like very traditional ML approaches, so like if you think about how we're doing our sleep staging, we have polysomnography is like the gold standard for getting sleep truth data. So that's like the stages when we know we're in REM sleep or slow-wave sleep. So we sent thousands and thousands of people into a clinical sleep lab with two straps on and they underwent a clinical sleep study. And then we took all of the data from the sleep study, lined it up with the WHOOP data, and then used all kinds of different traditional ML approaches in order to figure out how to get from a strap the same sleep staging information that we're able to get from this gold standard approach. Obviously the sort of gold standard sleep study uses a lot of sensors that we don't have right things. EEGs, which you need to be on someone's head to use. You can't get EEG from the wrist. EOGs, which you have to measure eye movement. So you need a little sensor there. And then we were able to find good proxies from the data that we can get at the wrist for all of those different signals and reconstruct the same sleep stage information.</p><p><strong>Emily Capodilupo: </strong>So that's a super fun ML problem. We also do things like when we detect a workout, we can figure out what, which sport or exercise modality you're using. And so the ability to classify those workouts is kind of again like a traditional ML like time series classification problem where you can tell the difference just from the heart rate and accelerometer signals. Are you doing basketball or CrossFit or running or anything like that? And then so those are kind of more traditional ML approaches. And then we've also done a lot around trying to understand behavioral impacts and how your body responds to different things. And then we're doing things like much, much more personalized. So we have a feature called The Journal where every day you fill out this little diary and you answer a bunch of questions about what you've done in the last 24 hours and can self report things like when you were eating, if you did different like kind of wellness activities like, meditate, journal. You know.</p><p><strong>Harry Glorikian: </strong>How much alcohol you had. I always wonder, like how honestly somebody answers that question.</p><p><strong>Emily Capodilupo: </strong>Any of those kinds of things. And then we look at the sort of signals in your data and try and separate out which of the things are helping you, which are hurting you, so that we can then recommend the things that are good for you, and for the things that are less good for you, maybe help you quantify the cost of those things that you can deploy them strategically. We certainly don't expect everybody to become like a teetotaller and never drink again, even though we're going to tell you it's bad for you, because it's pretty much always what shows up in the data. But we do want to help people make those informed decisions because a lot of people think like, Oh, I can have two drinks and it won't affect me tomorrow. And like, okay, here's the effect. And if tomorrow's not that important, go for it. And you have that really important meeting tomorrow, maybe don't. Y rou know, we're not trying to kill all the fun by any means, but we do want to make sure that people are empowered by data to know understand what they're doing to their body and then make decisions accordingly.</p><p><strong>Harry Glorikian: </strong>So I'm throwing in sort of like something important to me, right? Which is, you know, I have sleep apnea. Right. And it's funny because my wife diagnosed me, but then, you know, all the devices at some point, my Apple Watch actually asked me once, you know, have you ever been diagnosed with sleep apnea, which was interesting. But I've noticed like, the recovery number, if don't wear my CPAP, my recovery number tends to be much higher than if I do wear my CPAP. And I always wonder, does the positive air pressure cause a difference in how much your heart actually rests or not? Because it is pushing, it is positive air pressure on you all the time. So even in between apneas, you don't really maybe not rest as much. And I'm wondering if you have any insight on that.</p><p><strong>Emily Capodilupo: </strong>Yeah, we, we haven't specifically dug into why, but we have seen that as an unexpected pattern. You're not the only person to report that. It's on the to do list to better understand what's going on there. I think your theory is a valid one. We haven't verified or ruled it out yet, but I think there's a lot to be learned there. And I think one of the things that's exciting about the data that we're collecting is that if you wear a CPAP is one of the things you can report in our journals. We do have a tremendous amount of data on that and therefore the ability to kind of tease that apart and get insights that haven't been made available yet by traditional academic research.</p><p><strong>Harry Glorikian: </strong>Oh, I didn't know I could add CPAP in there. I have to go back and and check. But yeah, because my strain score ends up, my recovery score ends up lower. So it's like, you know, then of course, I always exceed on the strain side because I'm going to go work out the next day. And you know, it is what it is. But the other thing that you guys offer is like WHOOP for teams. And I don't know if you mean sports teams. You mean organizations. I'm not 100% sure because obviously I don't use that. I'm using it as an individual. Can you explain the additional value that provides when a group of people are using it together?</p><p><strong>Emily Capodilupo: </strong>Yeah. So all the above, we do it corporate teams as well as athletic teams, and there's a couple of different layers of the added value. So sometimes it's just accountability. I'm on a team with my family and it's just kind of fun, make fun of each other when our recovery scores are poor and, you know, cheer each other on when we have particularly good strain scores. And, you know, there's a lot of data to support that when you have a workout buddy or an accountability buddy or anything like that, that you tend to stick with things longer. And so creating just like a really friendly way for people to compete and cheer for each other just helps with the accountability and motivation keeping people on track. And deeper and more importantly, we do have a lot of people who create teams around different kinds of research initiatives or trying to understand a certain life stage. Like we create teams for people based on the month that their babies are due. So pregnant women can join a team of all the women on WHOOP who are expecting a baby in June 2022 can join this team together and pregnancy is this like very foreign weird moment in your body where everything's changing all the time and it just creates, like, a way for people to connect and be, like, this weird thing that's happening to me, is it normal? Like, who else is sleeping funny? And I think it's just very comforting to know that, like, all these weird things happening to your body aren't so weird. And then with like the sports teams and different things like that, what we're seeing is that the coaches are using the information to make better training or like decisions because now they actually have information that they didn't have access to before.</p><p><strong>Emily Capodilupo: </strong>So we've done a lot of work with different like collegiate programs and professional programs where they do things like if you're red, they will have you do a lighter version of the practice or skip a section of the practice in order to give your body a chance to recover. And if you're green, they might have you push a little bit harder. And so by modulating the training to where your body is today, we've actually shown in a project we completed a little over two years ago that you can reduce injury without reducing performance gains over the course of like an eight week training period. And so by reducing your training, when you're red, so your recovery score is below 33%, you actually like you will reduce injury without reducing performance gains. We've shown this. And so there's like literally zero value for those coaches to like push the athletes to complete the program or the day’s rtraining. And so we've seen a lot of coaches make those different training plans as well as game day decisions about who should start. You know, somebody might be your best player ordinarily, but if they're red, they're not all that primed on game day to perform. And so being able to make those kinds of different decisions. And then on the corporate side, people have used it in order to triage different access to supportive resources. So we've seen people offer like breaks to people who have been red for a number of different days in a row or things like that suggest that somebody might be burning out or overwhelmed or something like that.</p><p><strong>Harry Glorikian: </strong>Okay, so. Everywhere it states that it is not a medical device, is not intended to diagnose, monitor any disease or medical condition. Right. What's the line in your mind between, say, a fitness monitor and a medical device, because I think I always think that line is getting….because you guys and others like you guys have so much data, the level of insight that I've seen when I've gone into some of these is crazy. So. What what is that line in your mind?</p><p><strong>Emily Capodilupo: </strong>Yeah. I mean, I think that there's you know, it's always been the case that technology moves faster than the law. And so, like, you know, I think a lot of these things are going to shift as the technology is going to force them to shift. But, you know, like you said, we have a lot of data that's quite similar. The official line is what the FDA says is the line. And the FDA has carved out this like space that they've you know, they've called this wellness devices. They've sort of reserved the right to change their mind at any time, and we very much expect them to. But WHOOP falls into their definition of what a wellness device is, not a medical device, which is why we can say things like, this is your heart rate, but we can't say, because then you would cross into a medical device, like “Your heart rate is healthy, your heart rate is unhealthy,” right? You can't give those kinds of any kind of diagnoses or any kind of, like, you will prevent a heart attack if you do these things or something like that. So we have to keep the recommendations a bit more general, a little bit more vague in order to not cross over into that regulated health space. One of the things that we're seeing that's interesting, is that there's been a movement in wearables to get these like SAMD clearances, Software as a Medical Device, where pieces of wearables need different features or different algorithms do end up going through an FDA process and getting clearance to make certain claims in different settings.</p><p><strong>Emily Capodilupo: </strong>And I think that that's going to really accelerate over the next couple of years. These are very long processes, and then the lines are going to get more and more blurry because you're going to have this like hybrid consumer medical device, which is something that until a couple of years ago we really didn't have. There was like step counters and GPS watches and they were over here and then there was like medical stuff that didn't look cool and wasn't comfortable or easy to use and was very, very expensive. And it was all over here. And now we're seeing them kind of come into the middle where more and more the medical stuff cares about being like all the human factors like that's comfortable to use and that people want to wear it and they can get good compliance. And the wellness devices are finding more and more applications for their data in the health care space. So I think a lot of it's going to come down to what doctors end up getting trained on. If they're willing to look at this data, if they have any clue how to use it, sort of by being in the medical world and science training their whole lives, a lot of them just don't have the education and training to understand big data and to understand technology in that way. So they're not being trained on how to make use of the data or how to apply it. And I think that that's something that might change in the next couple of decades.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting, right, because I always tell people I'm like, this is a medical device. Like I you know, I mean, you know, you may think it's not, but it really has certain capabilities that allow it to get FDA clearance in a particular area. Right. And they're picking their space one by one. But the amount of data that you guys pick up on all of these devices, I mean, you know, we've seen atrial fibrillation. I'm sure that tachycardia shows up on there. You know, there's different things that they, because it's 24/7, it's looking, right and it's monitoring and it's got multiple sensors which you can now cross-correlate. There's so much insight that comes from this that I would almost like love to encourage the companies to think about moving down this road because I think it would be so helpful to patients. But, you know, jumping to a different thing. So. How do you guys define success for WHOOP? If you hit all your product and sales goals and for the next, say, 2 to 5 years, what does success look like for the organization?</p><p><strong>Emily Capodilupo: </strong>Yeah. I mean, I'll let the finance team worry about the sales goals and things, but I mean, for me in my team, like what success really comes down to is like, can we help people make actually better decisions? I think like a lot of the first generation of wearables, like it was this stream of fun facts. And we're all obsessed with ourselves, right? Like humans are sort of naturally narcissists, at least to a certain extent. And so it's like fun to be like, ooh, I slept for 7 hours or like, ooh, I ran a mile. But it's like kind of you maybe already knew that, right? And I think, like, what we're trying to do and like where we see a lot of success is, can we tell you something that you don't know? And can we convince you that you should do something about it? And then can we make you, like, realize, like, oh, wow, this, like, incredible thing happened and I feel so much better. And the features that we get the most excited about are like the sort of user stories are not, like, “Wow, it's so much fun to see my sleep data” or like, “This was fun.” But like when we released our paper showing that this respiratory rate spike sort of predicted or often preceded COVID symptom onset and therefore COVID infection, the paper came out like right before Thanksgiving and we saw so many people tell us that like because they had a respiratory rate spike, they didn't go home for Thanksgiving or they didn't travel and then like they tested positive a few days later and they were like, my grandma was at Thanksgiving or like my uncle who's in his eighties or stuff like that.</p><p><strong>Emily Capodilupo: </strong>And you know, those kind of moments where it's like, we educated you, we showed you this vital sign that like, you never would have felt anything. You didn't know you were sick, you weren't feeling bad. It's not like you went to go get a test because you weren't feeling good, like you just saw this in your WHOOP data and you're like, You know what? I'm going to stay home and not risk like seeing grandma because WHOOP said so, right? And then like, who knows how many COVID infections didn't happen and like what kind of role we played there. And like, it was probably like the most meaningful thing we did that year. And we did a lot of other cool stuff, but to think that by helping people notice that pattern, potentially they saved a relative's life and all the like crappy things that would happen if you thought you were responsible for killing your grandma and how much that ruins your own life as well? I think like we just get really excited about that. And one of the features that we released is last year was we were looking at how your reproductive hormones is part of your menstrual cycle affect your ability to respond to training. And I was an athlete my whole life. I was a gymnast, like before I could walk, and like nobody asked me a single time when my last period was or anything like that. That was just totally not part of like the coach-athlete relationship. But we know that like your ability to put on muscle and your ability to recover from training is totally different during the follicular phase, the first half of your menstrual cycle, than it is during the luteal phase, which is the second half. And if we modulate your training so that you're training more during the first half of the cycle than the second half, you can way more efficiently build muscle and strength, have fewer injuries, make more efficient gains. And if we now we do coach, in our product, women to do this, and we've gotten this incredible feedback of like people saying they feel so much better and like they're, well, you know, their training is going more smoothly and they feel like their body so much less random, it feels more predictable and they kind of understand what's going on. Nobody ever told them that reproductive hormones were relevant beyond their role in reproduction, but they actually affect everything we do. Like when progesterone is elevated in the back half of our menstrual cycle during the luteal phase, we sweat more and we lose a lot of salt by doing that. And so we need to eat more salty foods and we need to be more careful about hydrating, which is really important if you're an athlete, but nobody's telling us this. And so like we can connect these by looking at big data because we are tracking your menstrual cycle around the clock or around the month.</p><p><strong>Emily Capodilupo: </strong>We can put that into the product and then we see people are making better training decisions, understanding their body, feeling like things are less random. Right. And that's so empowering. And I think like female athletes in particular have been so underrepresented in research. There's a paper that came out eight months ago that said that just 6% of athletic performance research focused on women, 6%. And it was looking at all research between 2014 and 2020. And it was trending down, not up. So it was worse in like 2018, '19 and '20 than it had been like earlier in the twenty-teens. And so it's like completely neglected. And there is all this data that like wearables and WHOOP are sitting on and we're able to create features around that and just help people understand their bodies in a way that nobody else is doing right now. And so those are the features that, like I really define as like big successes. If we made our sleep staging accuracy 1% more accurate or we caught one more workout, like those are obviously like from a pure data science perspective, they can feel like wins. But what we really care about is like, am I helping you, cheesily going back to our mission, am I helping you unlock your performance in some way by helping you understand your body and making a better decision? Like, are you better off for having been on WHOOP? That's what, internally, those are the KPIs that we track the most closely.</p><p><strong>Harry Glorikian: </strong>Yeah. And I mean I would encourage you as well as all the other companies to, you know, peer reviewed papers, get them out there. Right. I mean, just when I search the space or peer reviewed journals for things utilizing the technologies, I mean, there's not a whole lot out there. And then the other thing is, is sometimes I read the devices they're using, I'm like, whoa, what is that? I've never heard of that device. And if I haven't heard about it, it must be on the fringe sort of thing. So I would highly encourage it because, you know, people like me would love to be looking at that sort of data. Because I'm constantly investing in the space, constantly working with the different technologies, you know, constantly talking to people through the podcast or writing a book, you know. So that information is incredibly useful to someone like me as, as, as well as the average person. So if you could send a message back through time to yourself in 2013 when you joined the company, you know. What would you say? What have you learned about the wearables and fitness market that you know you wish you knew then?</p><p><strong>Emily Capodilupo: </strong>Oh, what a fun question. You know, I think, like. It's hard to know what I wish I knew earlier because like in so many ways and I feel so lucky that this is true, like the vision that Will pitched me on when I met him, like when he was like, “Come join WHOOP, this is why it's super cool,” is exactly what we're doing. And so, like, I did trust him. I guess my message in a lot of ways would be trust him that like this is for real. I think the space has been so exciting and just there's so much opportunity. I came from doing academic sleep research and I would work on these papers where we had like 14 subjects and it was like, “Oh, that's a, that's a good size sleep study. Like that'll get into a good journal.” And everyone was like excited. And then it's like, you know, I just, I'm working on a paper right now and we have 300,000 people's data in it. We're looking at like a year of data at a time. So we've got just like millions and millions of sleeps and workouts in this data set that we're combing through. When we did this project, which was published in the British Medical Journal last year, where we were looking at the menstrual cycle phases and how they affected your training, we looked at 14,000 menstrual cycles, like just the orders of magnitude more data than what you can do in traditional academic research. And that's what I got really excited about. It's why I became a data scientist because I realized that like the most interesting questions that there are to answer about how humans work are going to require larger datasets than we've had access to before.</p><p><strong>Harry Glorikian: </strong>So I'm putting in a plug for sleep apnea, man, if you get a chance, I'd love to see a study on that one.</p><p><strong>Emily Capodilupo: </strong>No, sleep apnea, it's definitely on the list. About 80% of sleep apnea is believed to be undiagnosed. And it does have tremendous effects on long term health when it goes undiagnosed, especially in later stages. And so anything we can do around helping people realize that they might have sleep apnea and then helping them treat it once they do and better understand the disease progression. And all of that has a huge quality of life implications down the road.</p><p><strong>Harry Glorikian: </strong>I will happily volunteer. So great to speak to you. Very insightful discussion. I'm going to tell my wife about the whole menstrual cycle thing and working out and this is exactly why she eats salty food like at certain times. But this is great. I'm so glad to have you on the show and I look forward to seeing the progress of the company and the technology.</p><p><strong>Emily Capodilupo: </strong>Awesome. Well, thank you so much for having me. This is such a fun conversation.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
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      <itunes:title>How WHOOP Uses Big Data to Optimize Your Fitness and Health</itunes:title>
      <itunes:author>Harry Glorikian, Emily Capodilupo</itunes:author>
      <itunes:duration>00:56:23</itunes:duration>
      <itunes:summary>Most fitness gadgets, like the Fitbit or the Apple Watch, encourage you to get out there every day and “close your rings” or “do your 10,000 steps.” But there’s one activity tracker that’s a little different. The WHOOP isn&apos;t designed to tell you when to work out—it’s designed to tell you when to stop. Harry&apos;s guest this week is Emily Capodilupo, the senior vice president of data science and research at Boston-based WHOOP, which is based here in Boston. She calls the WHOOP band “the first wearable that tells you to do less.” But it’s really all about designing a safe and effective training program and helping users make smarter decisions. Meanwhile, the WHOOP band collects so many different forms of data that it can also help to detect conditions like atrial fibrillation, or even predict whether you’re about to be diagnosed with Covid-19. It’s not a medical device, but Capodilupo acknowledges that the line between wellness and diagnostics is shifting all the time—and with the rise of telemedicine, which is spreading even faster thanks to the pandemic, she predicts that more patients and more doctors will want access to the kinds of health data that the WHOOP band and other trackers collect 24/7. The conversation touched on a very different way of thinking about fitness and health, and on the relationship between big data and quality of life—which is, after all, the main theme of the show.</itunes:summary>
      <itunes:subtitle>Most fitness gadgets, like the Fitbit or the Apple Watch, encourage you to get out there every day and “close your rings” or “do your 10,000 steps.” But there’s one activity tracker that’s a little different. The WHOOP isn&apos;t designed to tell you when to work out—it’s designed to tell you when to stop. Harry&apos;s guest this week is Emily Capodilupo, the senior vice president of data science and research at Boston-based WHOOP, which is based here in Boston. She calls the WHOOP band “the first wearable that tells you to do less.” But it’s really all about designing a safe and effective training program and helping users make smarter decisions. Meanwhile, the WHOOP band collects so many different forms of data that it can also help to detect conditions like atrial fibrillation, or even predict whether you’re about to be diagnosed with Covid-19. It’s not a medical device, but Capodilupo acknowledges that the line between wellness and diagnostics is shifting all the time—and with the rise of telemedicine, which is spreading even faster thanks to the pandemic, she predicts that more patients and more doctors will want access to the kinds of health data that the WHOOP band and other trackers collect 24/7. The conversation touched on a very different way of thinking about fitness and health, and on the relationship between big data and quality of life—which is, after all, the main theme of the show.</itunes:subtitle>
      <itunes:keywords>whoop, oura, the harry glorikian show, apple watch, fitness tracking, fitbit, fitness, oura ring, health, strain</itunes:keywords>
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      <itunes:episode>91</itunes:episode>
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      <title>How RxRevu is Fixing the Disconnect Between Your Doctor and Your Pharmacy</title>
      <description><![CDATA[<p>When your doctor prescribes a new medicine, there's a pretty good chance that some snafu will crop up before you get it filled. Either your pharmacy doesn't carry it, or your insurance provider won't cover it, or they'll say you need "prior authorization," or your out-of-pocket cost will be sky-high. The basic problem is that the electronic health record systems and e-prescribing systems at your doctor’s office don’t include price and benefit information for prescription drugs. All of that information lives on separate systems at your insurance company and your health plan’s pharmacy benefit manager, or PBM. And that’s the gap that a company called RxRevu is trying to fix. Harry's guest on today’s show RxRevu CEO Kyle Kiser, who explains the work the company has done to bring EHR makers, insurers, and PBMs together to make drug cost and coverage information available at the point of care, so doctors and patients can shop together for the best drug at the best price.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>If you live in the United States and you’ve ever had your doctor prescribe a new medication, you’ve probably had the following experience.</p><p>You drive from the doctor’s office to the pharmacy.</p><p>And when you get there, you find out that the pharmacy doesn’t carry that particular drug. </p><p>Or that they do carry it, but your insurance provider doesn’t cover it. </p><p>Or your insurance does cover it, but they require prior authorization. </p><p>Which means you have to get back in touch with your doctor and ask them to tell the insurance company that you really do need the medicine.</p><p>Or you already have prior authorization, but you haven’t met your annual deductible yet, so your out-of-pocket cost is much more than you expected.</p><p>If any one of these problems crops up, the chances that you’ll actually get your prescription filled on the day you need it go way down.</p><p>And it’s not uncommon for several of these snafus to happen all at once.</p><p>Fundamentallythat’s because the electronic health record systems and the electronic prescribing systems at your doctor’s office don’t include price and benefit information for prescription drugs.</p><p>All of <i>that </i>information lives on separate systems at your insurance company and your health plan’s pharmacy benefit manager, or PBM.</p><p>And that’s the gap that a company called RxRevu is trying to fix.</p><p>My guest on today’s show is the CEO of RxRevu, Kyle Kiser.</p><p>We talked about the software they’ve built to make drug cost and coverage information available within the major EHR systems</p><p>When doctors can see in real time which drugs are covered, at what price, for a specific patient, it    obviously solves a huge pain point for patients, because it means they’re more likely to get the drugs they need at an affordable price.</p><p>But it also solves a big problem for doctors. Because, fairly or not, they’re the ones who usually shoulder the blame when it turns out the medication they just prescribed is too expensive or isn’t available.</p><p>The kind of information RxRevu provides is going to be more and more important as the U.S. enters into an era of far greater price transparency, as mandated by the federal No Surprises Act, which went into effect on January 1 of this year.</p><p>RxRevu is based in Denver, Colorado, and I reached Kyle Kiser at his home in Seattle, Washington. Here’s our full conversation.</p><p><strong>Harry Glorikian: </strong>Kyle, welcome to the show.</p><p><strong>Kyle Kiser: </strong>Thanks, Harry. Happy to be here.</p><p><strong>Harry Glorikian: </strong>So, you know, we were just talking. You're in Seattle and I'm in Boston. I don't think we could be much farther apart when it comes to this particular country. So but let's start with a little bit of background, right. So. You're the CEO of RxRevu. And can you tell us a little bit about sort of the origin story about how you got started here? I mean, I understand your co-founder, Dr. Kevin O'Brien, had an interesting experience trying to get prescriptions filled for his mother, Lucy, but. What's the rest of that story? What did that story reveal to you about what's broken or missing in the way that doctors prescribes medicines or, you know, where the way that maybe payers approve prescription?</p><p><strong>Kyle Kiser: </strong>Yeah, absolutely. So a little background on Kevin's story. Kevin was initially inspired to do this because he wanted to solve a problem for his mom. She had an outsized out-of-pocket spend for meds. Like any good son, he wanted to help solve a problem for his mom. He used his expertise to find sort of ways to save on those medications, and that inspired him to start doing that in his clinic for his patients more comprehensively. So he was, you know, way ahead of his time and putting in all of this extra effort to really help find prescription options for patients that they could afford more easily. And that was the initial inspiration for what we've done today, which is connecting the point of care and clinical decision making with costs and coverage information that's real time and patient specific and location specific and moment in time specific, because all those things matter as inputs into a price.</p><p><strong>Kyle Kiser: </strong>So, you know, really the challenge we've been focused on is, is largely that, you know, the clinical decision making process has been pretty, pretty much disconnected, right, from marketplace information. So, you know, anything that impacts the purchasing of that care. And that was okay in a world where deductibles were low, formularies were relatively inexpensive and simple. But that world has changed dramatically over the last 10 to 20 years, right, as consumer driven healthcare has become the way of the world. And first dollar risk is now at the feet of the patient. It's that patients are now demanding that providers can consider not just what's best from a clinical perspective, but also set expectations around costs, set expectations around any restrictions that exist, and be an advocate for access to care. And the problem we're solving. We're building an access network. And within that access network, we help drive affordability and speed to care for patients. And we're doing that with a number of stakeholders. But at a high level, that's what we're trying to accomplish.</p><p><strong>Harry Glorikian: </strong>Well, you know, it's interesting, right? You know, entrepreneurship 101, solve a real need, right? So that there's a market there because everybody wants it. But so, I mean, look, I think everyone in the United States has probably had experiences similar to Dr. O'Brien's mom. I mean, you get to the pharmacy, you find out that the medication your doctor prescribed isn't covered by your plan, or you find out that the co-pay is outrageously high. But behind their personal experiences, I bet most people don't have a concept of how big and widespread this problem is. You know, you have any maybe some statistics that might illustrate the scale of the problem or how much money is wasted in the medical system because of these disconnects. I mean, I'm wondering how many prescriptions get abandoned or how many patients don't get the meds they need.</p><p><strong>Kyle Kiser: </strong>Yeah, I mean, at a. A macro level, you know, the prescription drug market makes just over makes up, you know, just over a half a trillion. Right. And, you know, estimates are that a third, even as much as half of that is waste and waste in the form of, you know, medications that aren't taken as prescribed or aren't delivering the right outcomes. I don't it's hard to find actually a a stakeholder in the supply chain that's delivered more value than meds themselves. I mean, if you think about, you know, the innovation in that world over the last 30 years, it's second to none. But the, you know, the supply chain within which they exist is complicated and it's hard to navigate. And the consequences of that is waste. And, you know, a ton of administrivia and friction. And frankly, patients bear the brunt of that. Ultimately, it's health plans and PBMs and risk bearing entities making rules on one end. It's providers and care teams making clinical decisions on the other end. And both of those processes are largely disconnected. And the only way that that gets harmonized in any way is a patient advocating for themselves. And we just fundamentally don't believe it should happen that way. What we're building is the connectivity between those stakeholders so that whether it's a provider at the point of care making the decision, whether it's a care team member trying to help you overcome a prior, or whether it's a patient trying to advocate for themselves using their own technology, we want to put real time, patient-specific, moment in time specific information in their hands to drive affordability and speed to care for that patient, no matter where they are in the care continuum.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, so this lack of prescription cost data, I mean at the point of care feels like a real canonical example of deep systemic problems with the with origins that are buried like deep in at least three of these complex organizations. Providers, payers and EHR makers. I mean, once you guys decided what the problem you wanted to fix was, how the hell did you figure out where to like -- okay, let's start here and let's move forward, right? Because.</p><p><strong>Kyle Kiser: </strong>Yeah.</p><p><strong>Harry Glorikian: </strong>Not trivial.</p><p><strong>Kyle Kiser: </strong>No, it's exactly the right observation because ultimately what we're building is a multi-sided network. And what's difficult about building a multi-sided network is, you know, users on one end, in this case, providers, aren't going to engage if it doesn't have the appropriate information in it. And the data sources, the ability to capture that appropriate information, they don't want to provide that data to you unless you have the appropriate users. So you get stuck in this chicken or the egg problem. And that's job one in growing this business, is to overcome that chicken or the egg problem. And the way we went about that was we worked really closely with health systems, with provider organizations, primarily because that's where the trust exists, is that ultimately patients seek out their provider and their care team to answer these questions. And so we worked closely with them as strategic partners and brought some of them in as investors in the company and aggregated a group of meaningful collaborators on the health system side, which then helped us bring PBMs and payers to the table to say, how do we solve these problems together? And that's that's sort of how we got out of the gate.</p><p><strong>Harry Glorikian: </strong>So I mean, tell me if we could dig a little into I think the product is called SwiftRx, if I remember correctly, but at a high level. You know, if you could describe for listeners, what is it? How does it work? And. Where does it fit in relation to the overall system?</p><p><strong>Kyle Kiser: </strong>Sure. Yes. So SwiftRx Direct is the product you're describing. What it provides is, is that real time, patient specific, location specific, moment in time specific information in the provider's native ordering workflow. So we are a data network that's powering a native feature inside the EMR that provides that insight while providers are selecting medications. So a typical flow would look like, a provider selects a medication. They then place that into a pending status in the software that they use. When that happens, we're able to gain visibility to that choice. We send that transaction out to our network of data sources, payers, PBMs, etc.. And what we get back is the price that is patient specific. We have formulary insights, so prior auth, quantity, limit, step therapy, those sorts of things. Those are also patient specific. And then most importantly, we get back alternatives. And those alternatives come in two forms. They're either a lower cost medication or a lower cost pharmacy where the patient can fulfill that medication. And that's sort of the core information that we then render back into the e-prescribing workflow. And we only interrupt those providers' workflows, or we and our partners only interrupt those providers workflows, when there's relevant information to consider. Because as I'm sure, you know, being deep in this world, provider engagement stuff -- you really have to be thoughtful about when, when is the appropriate time to intervene and when, when do we want to sort of get out of the way and make sure that when we are intervening, it's meaningful and understood to be meaningful?</p><p><strong>Harry Glorikian: </strong>Yeah. So I'm going to I mean, I heard a lot of what you said. I'm I want to maybe summarize all the. A few of these areas that people run into problems. But to try to understand sort of what are the big problems you had to solve to get it to really work? Because I'm just trying to get my head around the magnitude of the data headache here. Right. So if if you'll allow me, I'll just try to break it down into parts and then you can tell me how you're bridging all of these. So for one thing, there's the patient specific data about what kind of insurance each patient has and what level of benefits they have. And none of that is stored in the EHR at the clinic. As far as I know, typically the EHR would only list the patient's group number, subscription number or maybe the RxBin number. And then separate from all that, every insurance has a formula of drugs that will cover and sometimes a, you know, a schedule of different copay amounts for those drugs. And those formularies change every year and even more often. Right. And then there's a patient's actual prescription data which may live in their EMR or may live in a different system at the pharmacy. And then on top of that, there's this obscure black box system of prior authorization criteria that insurers may use to deny a prescription if they don't feel like paying for it. So the fact that the system is so fragmented is a familiar story to anybody who listens to this show. But tell me, you know, how on earth you were able to sort of get all this data under one roof, so to speak? You know, is there a specific architecture of the Swift system that makes you good at collecting all of this changing data and presenting it to the providers in real time?</p><p><strong>Kyle Kiser: </strong>Yeah. The only other element I'd add to your complexity salad is also benefit design, right. Is that yeah, the, the out-of-pocket cost can be and is dramatically different based on where you are in your coverage. If you're a commercial member with a high deductible, you're bearing the, you know, the in-network negotiated rate inside that deductible. And that changes pretty dramatically once you reach a deductible. Or if you're a Medicare member, there's the donut hole. And all of those things are also inputs and complexity to add to this. So to answer your question, it's really working closely with the stakeholders that control those, that are the source of that data. Right. You really can't get to an accurate price without working with those with those data sources specifically. So we work closely with the PBM, with the payer, and we do more or less a mock adjudication. So the same type of adjudication activity that happens on their end when a patient arrives at the point of sale is happening when a provider is making a prescribing decision in this case.</p><p><strong>Harry Glorikian: </strong>I mean, I can tell you, like the last time I had to sit and choose an insurer, and you would think that I'd be better at this than most, I remember having to take two Tylenol, because when I got done, because I thought my head was going to explode. And I could honestly not say to you I made the best choice. It was at the end, it was almost like a Hail Mary, I guess with all the complexity. And the other thing that I keep thinking about is when I used to watch, I think if you have kids, you've watched The Incredibles and there's a point in the show where the manager says they're penetrating inside of our systems to understand how to get how to get the system to pay them or whatever. It feels like it's that level of complexity. And you really need a sophisticated system to sort of bring all that information together to make sense of it all.</p><p><strong>Kyle Kiser: </strong>Yeah, that's true. And it is it is dynamic, it is highly variable and it's very different from administrator to administrator. Right. And a specific example of that, right, is that responses we get back are not across the board consistent, that here's an error and here's what that error means. And that error message is consistent from health plan to health plan. That's just not the way the world works, right. The error messages are specific to those claim systems because ultimately on the other side of the fence, these are mainframe systems in some cases that were designed decades ago that they've then created a layer to expose to the outside world, in this case us. And, you know, it's not simple work for us or for them. So I think the thing also to point out here is that there's a lot of effort from the payer- rrPBM community to make this accessible and to sort of change the way they're doing business and to change the way their technology works to enable some of these things, which is which is progress and should be commended for sure.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>Interesting. So if I'm not mistaken, both Epic and Cerner have made it possible for providers to embed SwiftRx into their EHR. So if I understand it correctly, it even comes as a standard part of Cerner now. So those are two of the biggest EHR providers in the US.</p><p><strong>Kyle Kiser: </strong>And Athena.</p><p><strong>Harry Glorikian: </strong>And Athena, so question: how did you make that happen?</p><p><strong>Kyle Kiser: </strong>Well, you know, we've got a great team and the team executed ultimately. We worked really hard on those relationships. And I think it's both working with the right customers in small ways in the early days that leads to working with these types of partners and bigger ways. And frankly, some of the open programs at some of these places led to this. So early days, we were working in kind of the more open developer type programs with these EMR partners. We were working closely with some of their customers. Banner was one of our first customers. UC Health was one of our first customers, both a Cerner and an Epic user respectively, and, you know, is working in small ways to solve these problems together with those health systems that led us both to interacting with PBMs and ultimately building these enterprise level relationships with the EMR. It's, you know, it's, it's earning the trust, it's delivering for these customers and then earning the right to do this at scale. And we're to a point now where we'll do almost 100 million of these transactions this year. And it's you know, it's grown fast.</p><p><strong>Harry Glorikian: </strong>Yeah, that's a lot of that's a lot of data flowing back and forth. But so let's ask the money question, like, what's the business model? Who ends up paying you? Is it the provider buying SwiftRx as an add on to the existing EHR or how does that work?</p><p><strong>Kyle Kiser: </strong>It's the risk bearing entity ultimately. So think about that as payer and PBM. In most cases, there are cases where we work with health systems and there are some things we do that that are either channel related or related to specific needs that they have when they're that risk bearing entity. But at a high level, we follow the risk and we want to work with the customer that is bearing that risk because ultimately they're the ones that stand to benefit from an optimized prescription choice.</p><p><strong>Harry Glorikian: </strong>Okay. So that everybody gets a clear idea of like, can you give me a before and after picture at a clinic that brings SwiftRx into their EHR?</p><p><strong>Kyle Kiser: </strong>Sure. Yeah. So. You know, this is probably an experience many of many of the listeners have had. Right. Is that. Before such acts you interact with your physician, they diagnose you with whatever condition they've perceived. They select a medication. They route it to the pharmacy. You go to the pharmacy and cross your fingers that all of the requirements have been met. And that is at a price that you can afford if there is a prior or if that's too expensive. When you arrive at that site of fulfillment, you discover that, right, if there's a prior that's not been completed, then you've got to go through that prior authorization process and you're not picking up that prescription today. If it's a price you can't afford, you got to figure out how to pay for it. And there's a variety of ways that that happens. But ultimately, it's up to the patient to figure those things out. In a world where SwiftRx is installed, the difference is, as that prescription decision is happening, we notify the prescriber of the patient's out-of-pocket cost. In some cases, even the plan cost associated with that choice. Any restrictions that exist like prior or quantity limit or step therapy. And we also notify them of any lower cost alternatives. So in many cases, simple changes make big differences in in the out-of-pocket cost. And it might even be something as simple as, time release metformin can be hundreds if not $1,000, and regular old metformin is four bucks and has been four bucks for decades.</p><p><strong>Kyle Kiser: </strong>So it's some of those almost unintentional, I hesitate to call them errors on the provider side. It's just they're making choices based on their own sort of clinical expertise. But they don't they don't know these things, right? They don't know how a time release metformin might be reimbursed for one of the ten or 12 payers that they may see in a given clinic day. So it's just providing that insight upfront so that they can make those decisions and understand the trade offs. Is time release really important or is this patient going to be fine? And is that out-of-pocket costs for a med going to prevent them from being able to actually take that medication? And as a result, they're not going to receive any of the clinical benefit. So ultimately, the $4 option is probably better. So it's really connecting that clinical decision making process with all of the complexity that exists on the payer and PBM end so that we can get the decision right the first time. And when the patient shows up at the pharmacy, they know how much is going to cost, they feel comfortable that they can pay for it and they're either aware of the prior auth and have already completed the requirements or have some, some level of expectations set to how to complete those requirements.</p><p><strong>Harry Glorikian: </strong>So for all the reasons we've been discussing, doctors traditionally have been able to stay somewhat separated or maybe called it shielded from discussions about drug prices. I mean, they just prescribe a drug, leave it to their office staff or the patient or their pharmacy to figure out whether it's covered. But now, for organizations that are using your system that are built into their EHR, a clinical encounter, it can involve essentially going shopping in real time for the best drug at the best price. I mean, in your experience, how do doctors like being pulled into these decisions? I mean, I can see how it be great for patients, but I wonder if doctors are equally excited.</p><p><strong>Kyle Kiser: </strong>You know, one of the things that's been the most surprising to us around this subject, specifically patient out-of-pocket cost, is one of the most requested pieces of information in a primary care clinic, because it's so complex and it creates so many callbacks and it creates so much patient dissatisfaction. Because ultimately the patient's going to, at some level, hold that prescriber accountable for that decision. And if it's really expensive med there's an assumption that the provider knew that already or should have known that, whether that's true or not. And so what that's resulted in is primary care providers want this information, they want it. They want to have this at their fingertips when they're making decisions. It's the world certainly changed in that way. So I think, you know, it's becoming a part of the standard of care being able to consider cost. Because to the point earlier, the only medication that works is the one the patient can afford. And so you really have to consider those things because of the way our sort of health care payment infrastructure exists. Right. There's just, patients are bearing a dramatic portion of that cost these days and got to consider that as a part of the way you deliver care.</p><p><strong>Harry Glorikian: </strong>I mean, I almost feel like your company is is pushing. These providers and payers and to fix the prescription benefit system or making them more efficient or compatible.</p><p><strong>Kyle Kiser: </strong>Yeah. I think there is a, I maybe describe it as rationalizing. R I don't think that a clinical team and a PBM and PNT committee at a health system have dramatically different opinions on what medications should be prescribed, for what conditions. The friction exists in that they're making those decisions in isolation of one another. So I think I see our role as a connector to help, you know, in a value based world, the incentives start to align between risk bearing entity and health system. And many times the health system becomes the risk bearing entity fully. And so our goal is to empower providers to understand those things in real time, to manage the complexity for them, only engage them with the information that makes a difference in the decision they're trying to make and ultimately create a better experience for the patient, a better outcome for the patient, and a less burdensome process for the provider organization.</p><p><strong>Harry Glorikian: </strong>So as we all know, I mean, the American medical system is famous for sending patients surprise bills after clinical encounter or an emergency room visit, right. Where a bandage or an aspirin can carry some crazy prices that I've seen. And I'm trying to project onto where you are as a company and where you want to go. I mean, now that you've tackled the rrtransparency in drug pricing, which I would honestly like to see everywhere, because I think I've heard my wife complain all the time when she encounters some astronomical price. Right. Can you imagine trying to tackle or bring greater transparency to other medical costs, such as maybe a surgical procedure or hospital supplies. I mean, is there anything that you've learned about prescription benefits that's transferable to all these other types of care?</p><p><strong>Kyle Kiser: </strong>Absolutely. Yeah. We're already moving beyond prescriptions today and focused on labs, radiology services, generally. And see the dynamics of the payer-PBM end of the market five or six years ago as it relates to pharmacy real time benefit shaping up much in the same way around medical benefits. That payers are thinking about these problems in the same ways and are showing initiative and prioritizing putting this information at the point of care for for all of the reasons that we just described on the drug side are true in many ways on the medical side. So, yes, absolutely. That's where we're headed. And the regulatory tailwinds are there in a new way. Right. If you think about in the last 12 months, there's been more price transparency legislation than in the last 30 years. And that, combined with the no surprise billing legislation, really creates this this kind of pre EOB requirement for each of the stakeholders and they got to solve that problem. And we see ourselves as really well positioned to be a part of that solution.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, it there was no way. I mean, the Affordable Care Act got put into place and there were certain things in there that just there was no way that you were going to be able to do that without some level of transparency and understanding what's going on.</p><p><strong>Kyle Kiser: </strong>Yeah. Yeah, that's right. But even further, right, before the end of last year there were price transparency regulations for health systems, for providers, for payers. And then the no surprise billing legislation has in it a component that says, you know, before you deliver care, you got to be able to give an estimation of cost. And so all of those things sort of work together from a regulatory perspective to start to drive the market in that direction. So absolutely, it's coming everywhere. It's going to be, it's going to be a part of the way that every health care decision is made in the future. And it's just a matter of time before that's the case.</p><p><strong>Harry Glorikian: </strong>Yeah. It's interesting because I have lots of conversations with, you know, lots of different people. And they I don't think they understand that. If you don't have that level of transparency, you truly don't have a competitive environment, right? You can't make choices because you don't have the information to be able to make that choice.</p><p><strong>Kyle Kiser: </strong>That's exactly right. Without it, there is no marketplace. Right. That's probably overstated. It's without it, it's a dysfunctional marketplace. And with transparency, we will start to see real competitive dynamics emerge. And I'm hopeful for that. Sunlight's the greatest antiseptic.</p><p><strong>Harry Glorikian: </strong>Oh, I totally agree. I mean, for me, it's always been like a walled garden. Like, you know, either you're here or, you know, you're out of luck, right? Because you don't have any information so you can go across the street. So. So. I guess I should be asking. I've probably reached the limit of my knowledge on the subject matter, but like, is. Is there anything I haven't asked you or anything, you know, that you would want to add to the conversation that would be enlightening to the people that are listening?</p><p><strong>Kyle Kiser: </strong>Yeah, well, the only thing I would sort of make sure we reframe a little bit is that this isn't necessarily about price transparency. Price transparency is a component of providing access to care for patients, and that's ultimately what we continually focus on inside of our company, that price is an input. Affordability is an input. Convenience is an input. The ability to actually receive the prescription is an input. We're ultimately trying to make sure that affordability and speed to care lead to better outcomes. And that's an access story, not just a price transparency story. And so that's the only sort of reframe that I'd offer is that ultimately this has to lead to better health, people getting healthier, getting the care they need, being able to afford the medications that they need. And that's the work. And we're going to stop at nothing to make sure that that happens.</p><p><strong>Harry Glorikian: </strong>Excellent. Well, it was great talking to you, Kyle. I wish you great success because, I mean, whenever I talk to anybody, I'm like, I know I could be benefiting from all of this, so I want everybody to be successful.</p><p><strong>Kyle Kiser: </strong>We appreciate the well-wishes and we'll be working hard to ensure that that's the case.</p><p><strong>Harry Glorikian: </strong>Excellent. Thank you so much.</p><p><strong>Kyle Kiser: </strong>All right. Thanks, Harry.</p><p><strong>Harry Glorikian: </strong>Bye bye.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 21 Jun 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Kyle Kiser, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>When your doctor prescribes a new medicine, there's a pretty good chance that some snafu will crop up before you get it filled. Either your pharmacy doesn't carry it, or your insurance provider won't cover it, or they'll say you need "prior authorization," or your out-of-pocket cost will be sky-high. The basic problem is that the electronic health record systems and e-prescribing systems at your doctor’s office don’t include price and benefit information for prescription drugs. All of that information lives on separate systems at your insurance company and your health plan’s pharmacy benefit manager, or PBM. And that’s the gap that a company called RxRevu is trying to fix. Harry's guest on today’s show RxRevu CEO Kyle Kiser, who explains the work the company has done to bring EHR makers, insurers, and PBMs together to make drug cost and coverage information available at the point of care, so doctors and patients can shop together for the best drug at the best price.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>If you live in the United States and you’ve ever had your doctor prescribe a new medication, you’ve probably had the following experience.</p><p>You drive from the doctor’s office to the pharmacy.</p><p>And when you get there, you find out that the pharmacy doesn’t carry that particular drug. </p><p>Or that they do carry it, but your insurance provider doesn’t cover it. </p><p>Or your insurance does cover it, but they require prior authorization. </p><p>Which means you have to get back in touch with your doctor and ask them to tell the insurance company that you really do need the medicine.</p><p>Or you already have prior authorization, but you haven’t met your annual deductible yet, so your out-of-pocket cost is much more than you expected.</p><p>If any one of these problems crops up, the chances that you’ll actually get your prescription filled on the day you need it go way down.</p><p>And it’s not uncommon for several of these snafus to happen all at once.</p><p>Fundamentallythat’s because the electronic health record systems and the electronic prescribing systems at your doctor’s office don’t include price and benefit information for prescription drugs.</p><p>All of <i>that </i>information lives on separate systems at your insurance company and your health plan’s pharmacy benefit manager, or PBM.</p><p>And that’s the gap that a company called RxRevu is trying to fix.</p><p>My guest on today’s show is the CEO of RxRevu, Kyle Kiser.</p><p>We talked about the software they’ve built to make drug cost and coverage information available within the major EHR systems</p><p>When doctors can see in real time which drugs are covered, at what price, for a specific patient, it    obviously solves a huge pain point for patients, because it means they’re more likely to get the drugs they need at an affordable price.</p><p>But it also solves a big problem for doctors. Because, fairly or not, they’re the ones who usually shoulder the blame when it turns out the medication they just prescribed is too expensive or isn’t available.</p><p>The kind of information RxRevu provides is going to be more and more important as the U.S. enters into an era of far greater price transparency, as mandated by the federal No Surprises Act, which went into effect on January 1 of this year.</p><p>RxRevu is based in Denver, Colorado, and I reached Kyle Kiser at his home in Seattle, Washington. Here’s our full conversation.</p><p><strong>Harry Glorikian: </strong>Kyle, welcome to the show.</p><p><strong>Kyle Kiser: </strong>Thanks, Harry. Happy to be here.</p><p><strong>Harry Glorikian: </strong>So, you know, we were just talking. You're in Seattle and I'm in Boston. I don't think we could be much farther apart when it comes to this particular country. So but let's start with a little bit of background, right. So. You're the CEO of RxRevu. And can you tell us a little bit about sort of the origin story about how you got started here? I mean, I understand your co-founder, Dr. Kevin O'Brien, had an interesting experience trying to get prescriptions filled for his mother, Lucy, but. What's the rest of that story? What did that story reveal to you about what's broken or missing in the way that doctors prescribes medicines or, you know, where the way that maybe payers approve prescription?</p><p><strong>Kyle Kiser: </strong>Yeah, absolutely. So a little background on Kevin's story. Kevin was initially inspired to do this because he wanted to solve a problem for his mom. She had an outsized out-of-pocket spend for meds. Like any good son, he wanted to help solve a problem for his mom. He used his expertise to find sort of ways to save on those medications, and that inspired him to start doing that in his clinic for his patients more comprehensively. So he was, you know, way ahead of his time and putting in all of this extra effort to really help find prescription options for patients that they could afford more easily. And that was the initial inspiration for what we've done today, which is connecting the point of care and clinical decision making with costs and coverage information that's real time and patient specific and location specific and moment in time specific, because all those things matter as inputs into a price.</p><p><strong>Kyle Kiser: </strong>So, you know, really the challenge we've been focused on is, is largely that, you know, the clinical decision making process has been pretty, pretty much disconnected, right, from marketplace information. So, you know, anything that impacts the purchasing of that care. And that was okay in a world where deductibles were low, formularies were relatively inexpensive and simple. But that world has changed dramatically over the last 10 to 20 years, right, as consumer driven healthcare has become the way of the world. And first dollar risk is now at the feet of the patient. It's that patients are now demanding that providers can consider not just what's best from a clinical perspective, but also set expectations around costs, set expectations around any restrictions that exist, and be an advocate for access to care. And the problem we're solving. We're building an access network. And within that access network, we help drive affordability and speed to care for patients. And we're doing that with a number of stakeholders. But at a high level, that's what we're trying to accomplish.</p><p><strong>Harry Glorikian: </strong>Well, you know, it's interesting, right? You know, entrepreneurship 101, solve a real need, right? So that there's a market there because everybody wants it. But so, I mean, look, I think everyone in the United States has probably had experiences similar to Dr. O'Brien's mom. I mean, you get to the pharmacy, you find out that the medication your doctor prescribed isn't covered by your plan, or you find out that the co-pay is outrageously high. But behind their personal experiences, I bet most people don't have a concept of how big and widespread this problem is. You know, you have any maybe some statistics that might illustrate the scale of the problem or how much money is wasted in the medical system because of these disconnects. I mean, I'm wondering how many prescriptions get abandoned or how many patients don't get the meds they need.</p><p><strong>Kyle Kiser: </strong>Yeah, I mean, at a. A macro level, you know, the prescription drug market makes just over makes up, you know, just over a half a trillion. Right. And, you know, estimates are that a third, even as much as half of that is waste and waste in the form of, you know, medications that aren't taken as prescribed or aren't delivering the right outcomes. I don't it's hard to find actually a a stakeholder in the supply chain that's delivered more value than meds themselves. I mean, if you think about, you know, the innovation in that world over the last 30 years, it's second to none. But the, you know, the supply chain within which they exist is complicated and it's hard to navigate. And the consequences of that is waste. And, you know, a ton of administrivia and friction. And frankly, patients bear the brunt of that. Ultimately, it's health plans and PBMs and risk bearing entities making rules on one end. It's providers and care teams making clinical decisions on the other end. And both of those processes are largely disconnected. And the only way that that gets harmonized in any way is a patient advocating for themselves. And we just fundamentally don't believe it should happen that way. What we're building is the connectivity between those stakeholders so that whether it's a provider at the point of care making the decision, whether it's a care team member trying to help you overcome a prior, or whether it's a patient trying to advocate for themselves using their own technology, we want to put real time, patient-specific, moment in time specific information in their hands to drive affordability and speed to care for that patient, no matter where they are in the care continuum.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, so this lack of prescription cost data, I mean at the point of care feels like a real canonical example of deep systemic problems with the with origins that are buried like deep in at least three of these complex organizations. Providers, payers and EHR makers. I mean, once you guys decided what the problem you wanted to fix was, how the hell did you figure out where to like -- okay, let's start here and let's move forward, right? Because.</p><p><strong>Kyle Kiser: </strong>Yeah.</p><p><strong>Harry Glorikian: </strong>Not trivial.</p><p><strong>Kyle Kiser: </strong>No, it's exactly the right observation because ultimately what we're building is a multi-sided network. And what's difficult about building a multi-sided network is, you know, users on one end, in this case, providers, aren't going to engage if it doesn't have the appropriate information in it. And the data sources, the ability to capture that appropriate information, they don't want to provide that data to you unless you have the appropriate users. So you get stuck in this chicken or the egg problem. And that's job one in growing this business, is to overcome that chicken or the egg problem. And the way we went about that was we worked really closely with health systems, with provider organizations, primarily because that's where the trust exists, is that ultimately patients seek out their provider and their care team to answer these questions. And so we worked closely with them as strategic partners and brought some of them in as investors in the company and aggregated a group of meaningful collaborators on the health system side, which then helped us bring PBMs and payers to the table to say, how do we solve these problems together? And that's that's sort of how we got out of the gate.</p><p><strong>Harry Glorikian: </strong>So I mean, tell me if we could dig a little into I think the product is called SwiftRx, if I remember correctly, but at a high level. You know, if you could describe for listeners, what is it? How does it work? And. Where does it fit in relation to the overall system?</p><p><strong>Kyle Kiser: </strong>Sure. Yes. So SwiftRx Direct is the product you're describing. What it provides is, is that real time, patient specific, location specific, moment in time specific information in the provider's native ordering workflow. So we are a data network that's powering a native feature inside the EMR that provides that insight while providers are selecting medications. So a typical flow would look like, a provider selects a medication. They then place that into a pending status in the software that they use. When that happens, we're able to gain visibility to that choice. We send that transaction out to our network of data sources, payers, PBMs, etc.. And what we get back is the price that is patient specific. We have formulary insights, so prior auth, quantity, limit, step therapy, those sorts of things. Those are also patient specific. And then most importantly, we get back alternatives. And those alternatives come in two forms. They're either a lower cost medication or a lower cost pharmacy where the patient can fulfill that medication. And that's sort of the core information that we then render back into the e-prescribing workflow. And we only interrupt those providers' workflows, or we and our partners only interrupt those providers workflows, when there's relevant information to consider. Because as I'm sure, you know, being deep in this world, provider engagement stuff -- you really have to be thoughtful about when, when is the appropriate time to intervene and when, when do we want to sort of get out of the way and make sure that when we are intervening, it's meaningful and understood to be meaningful?</p><p><strong>Harry Glorikian: </strong>Yeah. So I'm going to I mean, I heard a lot of what you said. I'm I want to maybe summarize all the. A few of these areas that people run into problems. But to try to understand sort of what are the big problems you had to solve to get it to really work? Because I'm just trying to get my head around the magnitude of the data headache here. Right. So if if you'll allow me, I'll just try to break it down into parts and then you can tell me how you're bridging all of these. So for one thing, there's the patient specific data about what kind of insurance each patient has and what level of benefits they have. And none of that is stored in the EHR at the clinic. As far as I know, typically the EHR would only list the patient's group number, subscription number or maybe the RxBin number. And then separate from all that, every insurance has a formula of drugs that will cover and sometimes a, you know, a schedule of different copay amounts for those drugs. And those formularies change every year and even more often. Right. And then there's a patient's actual prescription data which may live in their EMR or may live in a different system at the pharmacy. And then on top of that, there's this obscure black box system of prior authorization criteria that insurers may use to deny a prescription if they don't feel like paying for it. So the fact that the system is so fragmented is a familiar story to anybody who listens to this show. But tell me, you know, how on earth you were able to sort of get all this data under one roof, so to speak? You know, is there a specific architecture of the Swift system that makes you good at collecting all of this changing data and presenting it to the providers in real time?</p><p><strong>Kyle Kiser: </strong>Yeah. The only other element I'd add to your complexity salad is also benefit design, right. Is that yeah, the, the out-of-pocket cost can be and is dramatically different based on where you are in your coverage. If you're a commercial member with a high deductible, you're bearing the, you know, the in-network negotiated rate inside that deductible. And that changes pretty dramatically once you reach a deductible. Or if you're a Medicare member, there's the donut hole. And all of those things are also inputs and complexity to add to this. So to answer your question, it's really working closely with the stakeholders that control those, that are the source of that data. Right. You really can't get to an accurate price without working with those with those data sources specifically. So we work closely with the PBM, with the payer, and we do more or less a mock adjudication. So the same type of adjudication activity that happens on their end when a patient arrives at the point of sale is happening when a provider is making a prescribing decision in this case.</p><p><strong>Harry Glorikian: </strong>I mean, I can tell you, like the last time I had to sit and choose an insurer, and you would think that I'd be better at this than most, I remember having to take two Tylenol, because when I got done, because I thought my head was going to explode. And I could honestly not say to you I made the best choice. It was at the end, it was almost like a Hail Mary, I guess with all the complexity. And the other thing that I keep thinking about is when I used to watch, I think if you have kids, you've watched The Incredibles and there's a point in the show where the manager says they're penetrating inside of our systems to understand how to get how to get the system to pay them or whatever. It feels like it's that level of complexity. And you really need a sophisticated system to sort of bring all that information together to make sense of it all.</p><p><strong>Kyle Kiser: </strong>Yeah, that's true. And it is it is dynamic, it is highly variable and it's very different from administrator to administrator. Right. And a specific example of that, right, is that responses we get back are not across the board consistent, that here's an error and here's what that error means. And that error message is consistent from health plan to health plan. That's just not the way the world works, right. The error messages are specific to those claim systems because ultimately on the other side of the fence, these are mainframe systems in some cases that were designed decades ago that they've then created a layer to expose to the outside world, in this case us. And, you know, it's not simple work for us or for them. So I think the thing also to point out here is that there's a lot of effort from the payer- rrPBM community to make this accessible and to sort of change the way they're doing business and to change the way their technology works to enable some of these things, which is which is progress and should be commended for sure.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>Interesting. So if I'm not mistaken, both Epic and Cerner have made it possible for providers to embed SwiftRx into their EHR. So if I understand it correctly, it even comes as a standard part of Cerner now. So those are two of the biggest EHR providers in the US.</p><p><strong>Kyle Kiser: </strong>And Athena.</p><p><strong>Harry Glorikian: </strong>And Athena, so question: how did you make that happen?</p><p><strong>Kyle Kiser: </strong>Well, you know, we've got a great team and the team executed ultimately. We worked really hard on those relationships. And I think it's both working with the right customers in small ways in the early days that leads to working with these types of partners and bigger ways. And frankly, some of the open programs at some of these places led to this. So early days, we were working in kind of the more open developer type programs with these EMR partners. We were working closely with some of their customers. Banner was one of our first customers. UC Health was one of our first customers, both a Cerner and an Epic user respectively, and, you know, is working in small ways to solve these problems together with those health systems that led us both to interacting with PBMs and ultimately building these enterprise level relationships with the EMR. It's, you know, it's, it's earning the trust, it's delivering for these customers and then earning the right to do this at scale. And we're to a point now where we'll do almost 100 million of these transactions this year. And it's you know, it's grown fast.</p><p><strong>Harry Glorikian: </strong>Yeah, that's a lot of that's a lot of data flowing back and forth. But so let's ask the money question, like, what's the business model? Who ends up paying you? Is it the provider buying SwiftRx as an add on to the existing EHR or how does that work?</p><p><strong>Kyle Kiser: </strong>It's the risk bearing entity ultimately. So think about that as payer and PBM. In most cases, there are cases where we work with health systems and there are some things we do that that are either channel related or related to specific needs that they have when they're that risk bearing entity. But at a high level, we follow the risk and we want to work with the customer that is bearing that risk because ultimately they're the ones that stand to benefit from an optimized prescription choice.</p><p><strong>Harry Glorikian: </strong>Okay. So that everybody gets a clear idea of like, can you give me a before and after picture at a clinic that brings SwiftRx into their EHR?</p><p><strong>Kyle Kiser: </strong>Sure. Yeah. So. You know, this is probably an experience many of many of the listeners have had. Right. Is that. Before such acts you interact with your physician, they diagnose you with whatever condition they've perceived. They select a medication. They route it to the pharmacy. You go to the pharmacy and cross your fingers that all of the requirements have been met. And that is at a price that you can afford if there is a prior or if that's too expensive. When you arrive at that site of fulfillment, you discover that, right, if there's a prior that's not been completed, then you've got to go through that prior authorization process and you're not picking up that prescription today. If it's a price you can't afford, you got to figure out how to pay for it. And there's a variety of ways that that happens. But ultimately, it's up to the patient to figure those things out. In a world where SwiftRx is installed, the difference is, as that prescription decision is happening, we notify the prescriber of the patient's out-of-pocket cost. In some cases, even the plan cost associated with that choice. Any restrictions that exist like prior or quantity limit or step therapy. And we also notify them of any lower cost alternatives. So in many cases, simple changes make big differences in in the out-of-pocket cost. And it might even be something as simple as, time release metformin can be hundreds if not $1,000, and regular old metformin is four bucks and has been four bucks for decades.</p><p><strong>Kyle Kiser: </strong>So it's some of those almost unintentional, I hesitate to call them errors on the provider side. It's just they're making choices based on their own sort of clinical expertise. But they don't they don't know these things, right? They don't know how a time release metformin might be reimbursed for one of the ten or 12 payers that they may see in a given clinic day. So it's just providing that insight upfront so that they can make those decisions and understand the trade offs. Is time release really important or is this patient going to be fine? And is that out-of-pocket costs for a med going to prevent them from being able to actually take that medication? And as a result, they're not going to receive any of the clinical benefit. So ultimately, the $4 option is probably better. So it's really connecting that clinical decision making process with all of the complexity that exists on the payer and PBM end so that we can get the decision right the first time. And when the patient shows up at the pharmacy, they know how much is going to cost, they feel comfortable that they can pay for it and they're either aware of the prior auth and have already completed the requirements or have some, some level of expectations set to how to complete those requirements.</p><p><strong>Harry Glorikian: </strong>So for all the reasons we've been discussing, doctors traditionally have been able to stay somewhat separated or maybe called it shielded from discussions about drug prices. I mean, they just prescribe a drug, leave it to their office staff or the patient or their pharmacy to figure out whether it's covered. But now, for organizations that are using your system that are built into their EHR, a clinical encounter, it can involve essentially going shopping in real time for the best drug at the best price. I mean, in your experience, how do doctors like being pulled into these decisions? I mean, I can see how it be great for patients, but I wonder if doctors are equally excited.</p><p><strong>Kyle Kiser: </strong>You know, one of the things that's been the most surprising to us around this subject, specifically patient out-of-pocket cost, is one of the most requested pieces of information in a primary care clinic, because it's so complex and it creates so many callbacks and it creates so much patient dissatisfaction. Because ultimately the patient's going to, at some level, hold that prescriber accountable for that decision. And if it's really expensive med there's an assumption that the provider knew that already or should have known that, whether that's true or not. And so what that's resulted in is primary care providers want this information, they want it. They want to have this at their fingertips when they're making decisions. It's the world certainly changed in that way. So I think, you know, it's becoming a part of the standard of care being able to consider cost. Because to the point earlier, the only medication that works is the one the patient can afford. And so you really have to consider those things because of the way our sort of health care payment infrastructure exists. Right. There's just, patients are bearing a dramatic portion of that cost these days and got to consider that as a part of the way you deliver care.</p><p><strong>Harry Glorikian: </strong>I mean, I almost feel like your company is is pushing. These providers and payers and to fix the prescription benefit system or making them more efficient or compatible.</p><p><strong>Kyle Kiser: </strong>Yeah. I think there is a, I maybe describe it as rationalizing. R I don't think that a clinical team and a PBM and PNT committee at a health system have dramatically different opinions on what medications should be prescribed, for what conditions. The friction exists in that they're making those decisions in isolation of one another. So I think I see our role as a connector to help, you know, in a value based world, the incentives start to align between risk bearing entity and health system. And many times the health system becomes the risk bearing entity fully. And so our goal is to empower providers to understand those things in real time, to manage the complexity for them, only engage them with the information that makes a difference in the decision they're trying to make and ultimately create a better experience for the patient, a better outcome for the patient, and a less burdensome process for the provider organization.</p><p><strong>Harry Glorikian: </strong>So as we all know, I mean, the American medical system is famous for sending patients surprise bills after clinical encounter or an emergency room visit, right. Where a bandage or an aspirin can carry some crazy prices that I've seen. And I'm trying to project onto where you are as a company and where you want to go. I mean, now that you've tackled the rrtransparency in drug pricing, which I would honestly like to see everywhere, because I think I've heard my wife complain all the time when she encounters some astronomical price. Right. Can you imagine trying to tackle or bring greater transparency to other medical costs, such as maybe a surgical procedure or hospital supplies. I mean, is there anything that you've learned about prescription benefits that's transferable to all these other types of care?</p><p><strong>Kyle Kiser: </strong>Absolutely. Yeah. We're already moving beyond prescriptions today and focused on labs, radiology services, generally. And see the dynamics of the payer-PBM end of the market five or six years ago as it relates to pharmacy real time benefit shaping up much in the same way around medical benefits. That payers are thinking about these problems in the same ways and are showing initiative and prioritizing putting this information at the point of care for for all of the reasons that we just described on the drug side are true in many ways on the medical side. So, yes, absolutely. That's where we're headed. And the regulatory tailwinds are there in a new way. Right. If you think about in the last 12 months, there's been more price transparency legislation than in the last 30 years. And that, combined with the no surprise billing legislation, really creates this this kind of pre EOB requirement for each of the stakeholders and they got to solve that problem. And we see ourselves as really well positioned to be a part of that solution.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, it there was no way. I mean, the Affordable Care Act got put into place and there were certain things in there that just there was no way that you were going to be able to do that without some level of transparency and understanding what's going on.</p><p><strong>Kyle Kiser: </strong>Yeah. Yeah, that's right. But even further, right, before the end of last year there were price transparency regulations for health systems, for providers, for payers. And then the no surprise billing legislation has in it a component that says, you know, before you deliver care, you got to be able to give an estimation of cost. And so all of those things sort of work together from a regulatory perspective to start to drive the market in that direction. So absolutely, it's coming everywhere. It's going to be, it's going to be a part of the way that every health care decision is made in the future. And it's just a matter of time before that's the case.</p><p><strong>Harry Glorikian: </strong>Yeah. It's interesting because I have lots of conversations with, you know, lots of different people. And they I don't think they understand that. If you don't have that level of transparency, you truly don't have a competitive environment, right? You can't make choices because you don't have the information to be able to make that choice.</p><p><strong>Kyle Kiser: </strong>That's exactly right. Without it, there is no marketplace. Right. That's probably overstated. It's without it, it's a dysfunctional marketplace. And with transparency, we will start to see real competitive dynamics emerge. And I'm hopeful for that. Sunlight's the greatest antiseptic.</p><p><strong>Harry Glorikian: </strong>Oh, I totally agree. I mean, for me, it's always been like a walled garden. Like, you know, either you're here or, you know, you're out of luck, right? Because you don't have any information so you can go across the street. So. So. I guess I should be asking. I've probably reached the limit of my knowledge on the subject matter, but like, is. Is there anything I haven't asked you or anything, you know, that you would want to add to the conversation that would be enlightening to the people that are listening?</p><p><strong>Kyle Kiser: </strong>Yeah, well, the only thing I would sort of make sure we reframe a little bit is that this isn't necessarily about price transparency. Price transparency is a component of providing access to care for patients, and that's ultimately what we continually focus on inside of our company, that price is an input. Affordability is an input. Convenience is an input. The ability to actually receive the prescription is an input. We're ultimately trying to make sure that affordability and speed to care lead to better outcomes. And that's an access story, not just a price transparency story. And so that's the only sort of reframe that I'd offer is that ultimately this has to lead to better health, people getting healthier, getting the care they need, being able to afford the medications that they need. And that's the work. And we're going to stop at nothing to make sure that that happens.</p><p><strong>Harry Glorikian: </strong>Excellent. Well, it was great talking to you, Kyle. I wish you great success because, I mean, whenever I talk to anybody, I'm like, I know I could be benefiting from all of this, so I want everybody to be successful.</p><p><strong>Kyle Kiser: </strong>We appreciate the well-wishes and we'll be working hard to ensure that that's the case.</p><p><strong>Harry Glorikian: </strong>Excellent. Thank you so much.</p><p><strong>Kyle Kiser: </strong>All right. Thanks, Harry.</p><p><strong>Harry Glorikian: </strong>Bye bye.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>How RxRevu is Fixing the Disconnect Between Your Doctor and Your Pharmacy</itunes:title>
      <itunes:author>Kyle Kiser, Harry Glorikian</itunes:author>
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      <itunes:summary>When your doctor prescribes a new medicine, there&apos;s a pretty good chance that some snafu will crop up before you get it filled. Either your pharmacy doesn&apos;t carry it, or your insurance provider won&apos;t cover it, or they&apos;ll say you need &quot;prior authorization,&quot; or your out-of-pocket cost will be sky-high. The basic problem is that the electronic health record systems and e-prescribing systems at your doctor’s office don’t include price and benefit information for prescription drugs. All of that  information that lives on separate systems at your insurance company and your health plan’s pharmacy benefit manager, or PBM. And that’s the gap that a company called RxRevu is trying to fix. Harry&apos;s guest on today’s show RxRevu CEO Kyle Kiser, who explains the work the company has done to bring EHR makers, insurers, and PBMs together to make drug cost and coverage information available at the point of care, so doctors and patients can shop together for the best drug at the best price.</itunes:summary>
      <itunes:subtitle>When your doctor prescribes a new medicine, there&apos;s a pretty good chance that some snafu will crop up before you get it filled. Either your pharmacy doesn&apos;t carry it, or your insurance provider won&apos;t cover it, or they&apos;ll say you need &quot;prior authorization,&quot; or your out-of-pocket cost will be sky-high. The basic problem is that the electronic health record systems and e-prescribing systems at your doctor’s office don’t include price and benefit information for prescription drugs. All of that  information that lives on separate systems at your insurance company and your health plan’s pharmacy benefit manager, or PBM. And that’s the gap that a company called RxRevu is trying to fix. Harry&apos;s guest on today’s show RxRevu CEO Kyle Kiser, who explains the work the company has done to bring EHR makers, insurers, and PBMs together to make drug cost and coverage information available at the point of care, so doctors and patients can shop together for the best drug at the best price.</itunes:subtitle>
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      <title>Eric Daimler at Conexus says Forget Calculus, Today&apos;s Coders Need to Know Category Theory</title>
      <description><![CDATA[<p>Harry's guest Eric Daimler, a serial software entrepreneur and a former Presidential Innovation Fellow in the Obama Administration, has an interesting argument about math. If you’re a young person today trying to decide which math course you’re going to take—or maybe an old person who just wants to brush up—he says you shouldn’t bother with trigonometry or calculus. Instead he says you should study <i>category theory. </i>An increasingly important in computer science, category theory is about the relationships between sets or structures. It can be used to prove that different structures are consistent or compatible with one another, and to prove that the relationships in a dataset are still intact even after the data has been transformed in some way. Together with two former MIT mathematicians, Daimler co-founded a company called Conexus that uses category theory to tackle the problem of data interoperability. </p><p>Longtime listeners know that data interoperability in healthcare, or more often the <i>lack </i>of interoperability, is a repeating theme of the show. In fields from drug development to frontline medical care, we’ve got petabytes of data to work with, in the form of electronic medical records, genomic and proteomic data, and clinical trial data. That data could be the fuel for machine learning and other kinds of computation that could help us make develop drugs faster and make smarter decisions about care. The problem is, it’s all stored in different databases and formats that can’t be safely merged without a nightmarish amount of work. So when someone like Daimler says they have a way to use math to bring heterogeneous data together without compromising that data’s integrity – well, it's time to pay attention. That's why on today’s show, we’re all going back to school for an introductory class in category theory.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>My guest today is Eric Daimler, a serial software entrepreneur and a former Presidential Innovation Fellow in the Obama Administration.</p><p>And he has an interesting argument about math. </p><p>Daimler says if you’re a young person today trying to decide which math course you’re going to take, or maybe an old person who just wants to brush up, you shouldn’t bother with trigonometry or calculus.</p><p>Instead he says you should study <i>category theory.</i></p><p>That’s a field that isn’t even part of the curriculum at most high schools. </p><p>But it’s increasingly important in computer science.</p><p>Category theory is about the relationships between sets or structures. </p><p>It can be used to prove that different structures are consistent or compatible with one another, and to prove that the relationships in a dataset are still intact even after you’ve transformed that data in some way.</p><p>Together with two former MIT mathematicians, Daimler co-founded a company called Conexus that uses category theory to tackle the problem of data interoperability.</p><p>Now…longtime listeners of the show know that data interoperability in healthcare, or more often the <i>lack </i>of interoperability, is one of my biggest hobby horses. </p><p>In fields from drug development to frontline medical care, we’ve got petabytes of data to work with, in the form of electronic medical records, genomic and proteomic data, and clinical trial data.</p><p>That data could be the fuel for machine learning and other kinds of computation that could help us make develop drugs faster and make smarter decisions about care. </p><p>The problem is, it’s all stored in different databases and formats that can’t be safely merged without a nightmarish amount of work.</p><p>So when someone like Daimler says they have a way to use math to bring heterogeneous data together without compromising that data’s integrity – well, I pay attention.</p><p>So on today’s show, we’re all going back to school for an introductory class in category theory from Conexus CEO Eric Daimler.</p><p><strong>Harry Glorikian: </strong>Eric, welcome to the show.</p><p><strong>Eric Daimler: </strong>It's great to be here.</p><p><strong>Harry Glorikian: </strong>So I was reading your varied background. I mean, you've worked in so many different kinds of organizations. I'm not sure that there is a compact way or even an accurate way to describe you. So can you describe yourself? You know, what do you do and what are your main interest areas?</p><p><strong>Eric Daimler: </strong>Yeah, I mean, the easiest way to describe me might come from my mother. Well, where, you know, somebody asked her, is that the doctor? And she says, Well, yes, but he's not the type that helps people. So I you know, I've been doing research around artificial intelligence and I from a lot of different perspectives around my research in graph theory and machine learning and computational linguistics. I've been a venture capitalist on Sand Hill Road. I've done entrepreneurship, done entrepreneurship, and I started a couple of businesses which I'm doing now. And most notably I was doing policy in Washington, D.C. is part of the Obama administration for a time. So I am often known for that last part. But my background really is rare, if not unique, for having the exposure to AI from all of those angles, from business, academia and policy.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, I was looking at the obviously the like you said, the one thing that jumped out to me was the you were a Presidential Innovation Fellow in the Obama administration in 2016. Can you can you give listeners an idea of what is what is the Presidential Innovation Fellowship Program? You know, who are the types of people that are fellows and what kind of things do they do?</p><p><strong>Eric Daimler: </strong>Sure, it was I guess with that sort of question, it's helpful then to give a broader picture, even how it started. There was a a program started during the Nixon administration that's colloquially known as the Science Advisers to the President, you know, a bipartisan group to give science advice to the president that that's called the OSTP, Office of Science and Technology Policy. There are experts within that group that know know everything from space to cancer, to be super specific to, in my domain, computer security. And I was the authority that was the sole authority during my time in artificial intelligence. So there are other people with other expertise there. There are people in different capacities. You know, I had the particular capacity, I had the particular title that I had that was a one year term. The staffing for these things goes up and down, depending on the administration in ways that you might be able to predict and guess. The people with those titles also also find themselves in different parts of the the executive branch. So they will do a variety of things that are not predicted by the the title of the fellow. My particular role that I happened to be doing was in helping to coordinate on behalf of the President, humbly, on behalf of the President, their research agenda across the executive branch. There are some very able people with whom I had the good fortune of working during my time during my time there, some of which are now in the in the Biden administration. And again, it's to be a nonpartisan effort around artificial intelligence. Both sides should really be advocates for having our research agenda in government be most effective. But my role was coordinating such things as, really this is helpful, the definition of robotics, which you might be surprised by as a reflex but but quickly find to be useful when you're thinking that the Defense Department's definition and use, therefore, of robotics is really fundamentally different than that of health and human services use and a definition of robotics and the VA and Department of Energy and State and and so forth.</p><p><strong>Eric Daimler: </strong>So that is we find to be useful, to be coordinated by the Office of the President and experts speaking on behalf. It was started really this additional impulse was started after the effects of, I'll generously call them, of healthcare.gov and the trip-ups there where President Obama, to his great credit, realized that we needed to attract more technologists into government, that we had a lot of lawyers to be sure we had, we had a ton of academics, but we didn't have a lot of business people, practical technologists. So he created a way to get people like me motivated to come into government for short, short periods of time. The the idea was that you could sit around a cabinet, a cabinet meeting, and you could you would never be able to raise your hand saying, oh, I don't know anything about economics or I don't know anything about foreign policy, but you could raise your hand and say, Oh, I don't know anything about technology. That needs to be a thing of the past. President Obama saw that and created a program starting with Todd. Todd Park, the chief technologist, the second chief technology officer of the United States, is fantastic to to start to start some programs to bring in people like me.</p><p><strong>Harry Glorikian: </strong>Oh, yeah. And believe me, in health care, we need we need more technologists, which I always preach. I'm like, don't go to Facebook. Come here. You know, you can get double whammy. You can make money and you can affect people's lives. So I'm always preaching that to everybody. But so if I'm not mistaken, in early 2021, you wrote an open letter to the brand new Biden administration calling for sort of a big federal effort to improve national data infrastructure. Like, can you summarize for everybody the argument in that piece and. Do you see them doing any of the items that you're suggesting?</p><p><strong>Eric Daimler: </strong>Right. The the idea is that despite us making some real good efforts during the Obama administration with solidifying our, I'll say, our view on artificial intelligence across the executive, and this continuing actually into the Trump administration with the establishment of an AI office inside the OSTP. So credit where credit is due. That extended into the the Biden administration, where some very well-meaning people can be focusing on different parts of the the conundrum of AI expressions, having various distortions. You know, the popular one we will read about is this distortion of bias that can express itself in really ugly ways, as you know, as individuals, especially for underrepresented groups. The point of the article was to help others be reminded of of some of the easy, low hanging fruit that we can that we can work on around AI. So, you know, bias comes in a lot of different ways, the same way we all have cognitive distortions, you know, cognitive biases. There are some like 50 of them, right. You know, bias can happen around gender and ethnicity and age, sexual orientation and so forth. You know, it all can also can come from absence of data. There's a type of bias that's present just by being in a developed, rich country in collecting, for example, with Conexus's customers, my company Conexus's customers, where they are trying to report on their good efforts for economic and social good and around clean, renewable energies, they find that there's a bias in being able to collect data in rich countries versus developing countries.</p><p><strong>Eric Daimler: </strong>That's another type of bias. So that was that was the point of me writing that open letter, to prioritize, these letters. It's just to distinguish what the low hanging fruit was versus some of the hard problems. The, some of tthe low hanging fruit, I think is available, I can say, In three easy parts that people can remember. One is circuit breakers. So we we can have circuit breakers in a lot of different parts of these automated systems. You know, automated car rolling down a road is, is the easiest example where, you know, at some point a driver needs to take over control to determine to make a judgment about that shadow being a person or a tumbleweed on the crosswalk, that's a type of circuit breaker. We can have those circuit breakers in a lot of different automated systems. Another one is an audit. And the way I mean is audit is having people like me or just generally people that are experts in the craft being able to distinguish the data or the biases can become possible from the data model algorithms where biases also can become possible. Right. And we get a lot of efficiency from these automated systems, these learning algorithms. I think we can afford a little bit taken off to audit the degree to which these data models are doing what we intend.</p><p><strong>Eric Daimler: </strong>And an example of a data model is that Delta Airlines, you know, they know my age or my height, and I fly to San Francisco, to New York or some such thing. The data model would be their own proprietary algorithm to determine whether or not I am deserving of an upgrade to first class, for example. That's a data model. We can have other data models. A famous one that we all are part of is FICO scores, credit scores, and those don't have to be disclosed. None of us actually know what Experian or any of the credit agencies used to determine our credit scores. But they they use these type of things called zero knowledge proofs, where we just send through enough data, enough times that we can get to a sense of what those data models are. So that's an exposure of a data model. A declarative exposure would be maybe a next best thing, a next step, and that's a type of audit.</p><p><strong>Eric Daimler: </strong>And then the third low hanging fruit, I'd say, around regulation, and I think these are just coming towards eventualities, is demanding lineage or demanding provenance. You know, you'll see a lot of news reports, often on less credible sites, but sometimes on on shockingly credible sites where claims are made that you need to then search yourself and, you know, people in a hurry just won't do it, when these become very large systems and very large systems of information, alert systems of automation, I want to know: How were these conclusions given? So, you know, an example in health care would be if my clinician gave me a diagnosis of, let's say, some sort of cancer. And then to say, you know, here's a drug, by the way, and there's a five chance, 5 percent chance of there being some awful side effects. You know, that's a connection of causation or a connection of of conclusions that I'm really not comfortable with. You know, I want to know, like, every step is like, wait, wait. So, so what type of cancer? So what's the probability of my cancer? You know, where is it? And so what drug, you know, how did you make that decision? You know, I want to know every little step of the way. It's fine that they give me that conclusion, but I want to be able to back that up. You know, a similar example, just in everyday parlance for people would be if I did suddenly to say I want a house, and then houses are presented to me. I don't quite want that. Although that looks like good for a Hollywood narrative. Right? I want to say, oh, wait, what's my income? Or what's my cash? You know, how much? And then what's my credit? Like, how much can I afford? Oh, these are houses you can kind of afford. Like, I want those little steps or at least want to back out how those decisions were made available. That's a lineage. So those three things, circuit breaker, audit, lineage, those are three pieces of low hanging fruit that I think the European Union, the State of New York and other other government entities would be well served to prioritize.</p><p><strong>Harry Glorikian: </strong>I would love all of them, especially, you know, the health care example, although I'm not holding my breath because I might not come back to life by how long I'd have to hold my breath on that one. But we're hoping for the best and we talk about that on the show all the time. But you mentioned Conexus. You're one of three co founders, I believe. If I'm not mistaken, Conexus is the first ever commercial spin out from MIT's math department. The company is in the area of large scale data integration, building on insights that come out of the field of mathematics that's called category algebra, categorical algebra, or something called enterprise category theory. And to be quite honest, I did have to Wikipedia to sort of look that up, was not familiar with it. So can you explain category algebra in terms of a non mathematician and maybe give us an example that someone can wrap their mind around.</p><p><strong>Eric Daimler: </strong>Yeah. Yeah. And it's important to get into because even though what my company does is, Conexus does a software expression of categorical algebra, it's really beginning to permeate our world. You know, the the way I tell my my nieces and nephews is, what do quantum computers, smart contracts and Minecraft all have in common? And the answer is composability. You know, they are actually all composable. And what composable is, is it's kind of related to modularity, but it's modularity without regard to scale. So the the easy analogy is in trains where, yeah, you can swap out a boxcar in a train, but mostly trains can only get to be a couple of miles long. Swap in and out boxcars, but the train is really limited in scale. Whereas the train system, the system of a train can be infinitely large, infinitely complex. At every point in the track you can have another track. That is the difference between modularity and composability. So Minecraft is infinitely self referential where you have a whole 'nother universe that exists in and around Minecraft. In smart contracts is actually not enabled without the ability to prove the efficacy, which is then enabled by categorical algebra or its sister in math, type theory. They're kind of adjacent. And that's similar to quantum computing. So quantum computing is very sexy. It gets in the press quite frequently with forks and all, all that. If it you wouldn't be able to prove the efficacy of a quantum compiler, you wouldn't actually. Humans can't actually say whether it's true or not without type theory or categorical algebra.</p><p><strong>Eric Daimler: </strong>How you think of kind categorical algebra you can think of as a little bit related to graph theory. Graph theory is those things that you see, they look like spider webs. If you see the visualizations of graph theories are graphs. Category theory is a little bit related, you might say, to graph theory, but with more structure or more semantics or richness. So in each point, each node and each edge, in the vernacular, you can you can put an infinite amount of information. That's really what a categorical algebra allows. This, the discovery, this was invented to be translating math between different domains of math. The discovery in 2011 from one of my co-founders, who was faculty at MIT's Math Department, was that we could apply that to databases. And it's in that the whole world opens up. This solves the problem that that bedeviled the good folks trying to work on healthcare.gov. It allows for a good explanation of how we can prevent the next 737 Max disaster, where individual systems certainly can be formally verified. But the whole plane doesn't have a mechanism of being formally verified with classic approaches. And it also has application in drug discovery, where we have a way of bringing together hundreds of thousands of databases in a formal way without risk of data being misinterpreted, which is a big deal when you have a 10-year time horizon for FDA trials and you have multiple teams coming in and out of data sets and and human instinct to hoard data and a concern about it ever becoming corrupted. This math and the software expression built upon it opens up just a fantastically rich new world of opportunity for for drug discovery and for clinicians and for health care delivery. And the list is quite, quite deep.</p><p><strong>Harry Glorikian: </strong>So. What does Conexus provide its clients? Is it a service? Is it a technology? Is it both? Can you give us an example of it?</p><p><strong>Eric Daimler: </strong>Yeah. So Conexus is software. Conexus is enterprise software. It's an enterprise software platform that works generally with very large organizations that have generally very large complex data data infrastructures. You know the example, I can start in health care and then I can I can move to an even bigger one, was with a hospital group that we work with in New York City. I didn't even know health care groups could really have this problem. But it's endemic to really the world's data, where one group within the same hospital had a particular way that they represented diabetes. Now to a layman, layman in a health care sense, I would think, well, there's a definition of diabetes. I can just look it up in the Oxford English Dictionary. But this particular domain found diabetes to just be easily represented as yes, no. Do they have it? Do they not? Another group within the same hospital group thought that they would represent it as diabetes, ow are we treating it? A third group would be representing it as diabetes, how long ago. And then a fourth group had some well-meaning clinicians that would characterize it as, they had it and they have less now or, you know, type one, type two, you know, with a more more nuanced view.</p><p><strong>Eric Daimler: </strong>The traditional way of capturing that data, whether it's for drug discovery or whether it's for delivery, is to normalize it, which would then squash the fidelity of the data collected within those groups. Or they most likely to actually just wouldn't do it. They wouldn't collect the data, they wouldn't bring the data together because it's just too hard, it's too expensive. They would use these processes called ETL, extract, transform, load, that have been around for 30 years but are often slow, expensive, fragile. They could take six months to year, cost $1,000,000, deploy 50 to 100 people generally from Accenture or Deloitte or Tata or Wipro. You know, that's a burden. It's a burden, you know, so the data wasn't available and that would then impair the researchers and their ability to to share data. And it would impair clinicians in their view of patient care. And it also impaired the people in operations where they would work on billing. So we work with one company right now that that works on 1.4 trillion records a year. And they just have trouble with that volume and the number of databases and the heterogeneous data infrastructure, bringing together that data to give them one view that then can facilitate health care delivery. </p><p><strong>Eric Daimler: </strong>The big example is, we work with Uber where they they have a very smart team, as smart as one might think. They also have an effectively infinite balance sheet with which they could fund an ideal IT infrastructure. But despite that, you know, Uber grew up like every other organization optimizing for the delivery of their service or product and, and that doesn't entail optimizing for that infrastructure. So what they found, just like this hospital group with different definitions of diabetes, they found they happen to have grown up around service areas. So in this case cities, more or less. So when then the time came to do analysis -- we're just passing Super Bowl weekend, how will the Super Bowl affect the the supply of drivers or the demand from riders? They had to do it for the city of San Francisco, separate than the city of San Jose or the city of Oakland. They couldn't do the whole San Francisco Bay Area region, let alone the whole of the state or the whole of the country or what have you. And that repeated itself for every business question, every organizational question that they would want to have. This is the same in drug discovery. This is the same in patient care delivery or in billing. These operational questions are hard, shockingly hard.</p><p><strong>Eric Daimler: </strong>We had another one in logistics where we had a logistics company that had 100,000 employees. I didn't even know some of these companies could be so big, and they actually had a client with 100,000 employees. That client had 1000 ships, each one of which had 10,000 containers. And I didn't even know like how big these systems were really. I hadn't thought about it. But I mean, they're enormous. And the question was, hey, where's our personal protective equipment? Where is the PPE? And that's actually a hard question to ask. You know, we are thinking about maybe our FedEx tracking numbers from an Amazon order. But if you're looking at the PPE and where it is on a container or inside of a ship, you know, inside this large company, it's actually a hard question to ask. That's this question that all of these organizations have. </p><p><strong>Eric Daimler: </strong>In our case, Uber, where they they they had a friction in time and in money and in accuracy, asking every one of these business questions. They went then to find, how do I solve this problem? Do I use these old tools of ETL from the '80s? Do I use these more modern tools from the 2000s? They're called RDF or OWL? Or is there something else? They discovered that they needed a more foundational system, this categorical algebra that that's now expressing itself in smart contracts and quantum computers and other places. And they just then they found, oh, who are the leaders in the enterprise software expression of that math? And it's us. We happen to be 40 miles north of them. Which is fortunate. We worked with Uber to to solve that problem in bringing together their heterogeneous data infrastructure to solve their problems. And to have them tell it they save $10 million plus a year in in the efficiency and speed gains from the solution we helped provide for them.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So your website says that your software can map data sources to each other so that the perfect data model is discovered, not designed. And so what does that mean? I mean, does that imply that there's some machine learning or other form of artificial intelligence involved, sort of saying here are the right pieces to put together as opposed to let me design this just for you. I'm trying to piece it together.</p><p><strong>Eric Daimler: </strong>Yeah. You know, the way we might come at this is just reminding ourselves about the structure of artificial intelligence. You know, in the public discourse, we will often find news, I'm sure you can find it today, on deep learning. You know, whatever's going on in deep learning because it's sexy, it's fun. You know, DeepMind really made a name for themselves and got them acquired at a pretty valuation because of their their Hollywood-esque challenge to Go, and solving of that game. But that particular domain of AI, deep learning, deep neural nets is a itself just a subset of machine learning. I say just not not not to minimize it. It's a fantastically powerful algorithm. But but just to place it, it is a subset of machine learning. And then machine learning itself is a subset of artificial intelligence. That's a probabilistic subset. So we all know probabilities are, those are good and bad. Fine when the context is digital advertising, less fine when it's the safety of a commercial jet. There is another part of artificial intelligence called deterministic artificial intelligence. They often get expressed as expert systems. Those generally got a bad name with the the flops of the early '80s. Right. They flopped because of scale, by the way. And then the flops in the early 2000s and 2010s from IBM's ill fated Watson experiment, the promise did not meet the the reality.</p><p><strong>Eric Daimler: </strong>It's in that deterministic A.I. that that magic is to be found, especially when deployed in conjunction with the probabilistic AI. That's that's where really the future is. There's some people have a religious view of, oh, it's only going to be a probabilistic world but there's many people like myself and not to bring up fancy names, but Andrew Ng, who's a brilliant AI researcher and investor, who also also shares this view, that it's a mix of probabilistic and deterministic AI. What deterministic AI does is, to put it simply, it searches the landscape of all possible connections. Actually it's difference between bottoms up and tops down. So the traditional way of, well, say, integrating things is looking at, for example, that hospital network and saying, oh, wow, we have four definitions of diabetes. Let me go solve this problem and create the one that works for our hospital network. Well, then pretty soon you have five standards, right? That's the traditional way that that goes. That's what a top down looks that looks like.</p><p><strong>Eric Daimler: </strong>It's called a Golden Record often, and it rarely works because pretty soon what happens is the organizations will find again their own need for their own definition of diabetes. In most all cases, that's top down approach rarely works. The bottoms up approach says, Let's discover the connections between these and we'll discover the relationships. We don't discover it organically like we depend on people because it's deterministic. I, we, we discover it through a massive, you know, non intuitive in some cases, it's just kind of infeasible for us to explore a trillion connections. But what the AI does is it explores a factorial number actually is a technical, the technical equation for it, a factorial number of of possible paths that then determine the map of relationships between between entities. So imagine just discovering the US highway system. If you did that as a person, it's going to take a bit. If you had some infinitely fast crawlers that robot's discovering the highway system infinitely fast, remember, then that's a much more effective way of doing it that gives you some degree of power. That's the difference between bottoms up and tops down. That's the difference between deterministic, really, we might say, and probabilistic in some simple way.</p><p><strong>Harry Glorikian: </strong>Yeah, I'm a firm believer of the two coming together and again, I just look at them as like a box. I always tell people like, it's a box of tools. I need to know the problem, and then we can sort of reach in and pick out which set of tools that are going to come together to solve this issue, as opposed to this damn word called AI that everybody thinks is one thing that they're sort of throwing at the wall to solve a problem.</p><p><strong>Harry Glorikian: </strong>But you're trying to solve, I'm going to say, data interoperability. And on this show I've had a lot of people talk about interoperability in health care, which I actually believe is, you could break the system because things aren't working right or I can't see what I need to see across the two hospitals that I need information from. But you published an essay on Medium about Haven, the health care collaboration between Amazon, JPMorgan, Berkshire Hathaway. Their goal was to use big data to guide patients to the best performing clinicians and the most affordable medicines. They originally were going to serve these first three founding companies. I think knowing the people that started it, their vision was bigger than that. There was a huge, you know, to-do when it came out. Fireworks and everything. Launched in 2018. They hired Atul Gawande, famous author, surgeon. But then Gawande left in 2020. And, you know, the company was sort of quietly, you know, pushed off into the sunset. Your essay argued that Haven likely failed due to data interoperability challenges. I mean. How so? What what specific challenges do you imagine Haven ran into?</p><p><strong>Eric Daimler: </strong>You know, it's funny, I say in the article very gently that I imagine this is what happened. And it's because I hedge it that that the Harvard Business Review said, "Oh, well, you're just guessing." Actually, I wasn't guessing. No, I know. I know the people that were doing it. I know the challenges there. But but I'm not going to quote them and get them in trouble. And, you know, they're not authorized to speak on it. So I perhaps was a little too modest in my framing of the conclusion. So this actually is what happened. What happens is in the same way that we had the difficulty with healthcare.gov, in the same way that I described these banks having difficulty. Heterogeneous databases don't like to talk to one another. In a variety of different ways. You know, the diabetes example is true, but it's just one of many, many, many, many, many, many cases of data just being collected differently for their own use. It can be as prosaic as first name, last name or "F.last name." Right? It's just that simple, you know? And how do I bring those together? Well, those are those are called entity resolutions. Those are somewhat straightforward, but not often 100 percent solvable. You know, this is just a pain. It's a pain. And, you know, so what what Haven gets into is they're saying, well, we're massive. We got like Uber, we got an effectively infinite balance sheet. We got some very smart people. We'll solve this problem. And, you know, this is some of the problem with getting ahead of yourself. You know, I won't call it arrogance, but getting ahead of yourself, is that, you think, oh, I'll just be able to solve that problem.</p><p><strong>Eric Daimler: </strong>You know, credit where credit is due to Uber, you know, they looked both deeper saying, oh, this can't be solved at the level of computer science. And they looked outside, which is often a really hard organizational exercise. That just didn't happen at Haven. They thought they thought they could they could solve it themselves and they just didn't. The databases, not only could they have had, did have, their own structure, but they also were stored in different formats or by different vendors. So you have an SAP database, you have an Oracle database. That's another layer of complication. And when I say that these these take $1,000,000 to connect, that's not $1,000,000 one way. It's actually $2 million if you want to connect it both ways. Right. And then when you start adding five, let alone 50, you take 50 factorial. That's a very big number already. You multiply that times a million and 6 to 12 months for each and a hundred or two hundred people each. And you just pretty soon it's an infeasible budget. It doesn't work. You know, the budget for us solving solving Uber's problem in the traditional way was something on the order of $2 trillion. You know, you do that. You know, we had a bank in the U.S. and the budget for their vision was was a couple of billion. Like, it doesn't work. Right. That's that's what happened Haven. They'll get around to it, but but they're slow, like all organizations, big organizations are. They'll get around to solving this at a deeper level. We hope that we will remain leaders in database integration when they finally realize that the solution is at a deeper level than their than the existing tools.</p><p><strong>Harry Glorikian: </strong>So I mean, this is not I mean, there's a lot of people trying to solve this problem. It's one of those areas where if we don't solve it, I don't think we're going to get health care to the next level, to sort of manage the information and manage people and get them what they need more efficiently and drive down costs.</p><p><strong>Eric Daimler: </strong>Yeah.</p><p><strong>Harry Glorikian: </strong>And I do believe that EMRs are. I don't want to call them junk. Maybe I'm going too far, but I really think that they you know, if you had decided that you were going to design something to manage patients, that is not the software you would have written to start. Hands down. Which I worry about because these places won't, they spent so much putting them in that trying to get them to rip them out and put something in that actually works is challenging. You guys were actually doing something in COVID-19, too, if I'm not mistaken. Well, how is that project going? I don't know if it's over, but what are you learning about COVID-19 and the capabilities of your software, let's say?</p><p><strong>Eric Daimler: </strong>Yeah. You know, this is an important point that for anybody that's ever used Excel, we know what it means to get frustrated enough to secretly hard code a cell, you know, not keeping a formula in a cell. Yeah, that's what happened in a lot of these systems. So we will continue with electronic medical records to to bring these together, but they will end up being fragile, besides slow and expensive to construct. They will end up being fragile, because they were at some point hardcoded. And how that gets expressed is that the next time some other database standard appears inside of that organization's ecosystem from an acquisition or a divestiture or a different technical standard, even emerging, and then the whole process starts all over again. You know, we just experience this with a large company that that spent $100 million in about five years. And then they came to us and like, yeah, we know it works now, but we know like a year from now we're going to have to say we're going to go through it again. And, it's not like, oh, we'll just have a marginal difference. No, it's again, that factorial issue, that one database connected to the other 50 that already exist, creates this same problem all over again at a couple of orders of magnitude. So what we discover is these systems, these systems in the organization, they will continue to exist.</p><p><strong>Eric Daimler: </strong>These fragile systems will continue to exist. They'll continue to scale. They'll continue to grow in different parts of the life sciences domain, whether it's for clinicians, whether it's for operations, whether it's for drug discovery. Those will continue to exist. They'll continue to expand, and they will begin to approach the type of compositional systems that I'm describing from quantum computers or Minecraft or smart contracts, where you then need the the discovery and math that Conexus expresses in software for databases. When you need that is when you then need to prove the efficacy or otherwise demonstrate the lack of fragility or the integrity of the semantics. Conexus can with, it's a law of nature and it's in math, with 100 percent accuracy, prove the integrity of a database integration. And that matters in high consequence context when you're doing something as critical as drug side effects for different populations. We don't want your data to be misinterpreted. You can't afford lives to be lost or you can't, in regulation, you can't afford data to be leaking. That's where you'll ultimately need the categorical algebra. You'll need a provable compositional system. You can continue to construct these ones that will begin to approach compositionality, but when you need the math is when you need to prove it for either the high consequence context of lives, of money or related to that, of regulation.</p><p><strong>Harry Glorikian: </strong>Yeah, well, I keep telling my kids, make sure you're proficient in math because you're going to be using it for the rest of your life and finance. I always remind them about finance because I think both go together. But you've got a new book coming out. It's called "The Future is Formal" and not tuxedo like formal, but like you're, using the word formal. And I think you have a very specific meaning in mind. And I do want you to talk about, but I think what you're referring to is how we want automated systems to behave, meaning everything from advertising algorithms to self-driving trucks. And you can tell me if that my assumption is correct or not.</p><p><strong>Eric Daimler: </strong>Though it's a great segue, actually, from the math. You know, what I'm trying to do is bring in people that are not programmers or research technology, information technology researchers day to day into the conversation around automated digital systems. That's my motivation. And my motivation is, powered by the belief that we will bring out the best of the technology with more people engaged. And with more people engaged, we have a chance to embrace it and not resist it. You know, my greatest fear, I will say, selfishly, is that we come up with technology that people just reject, they just veto it because they don't understand it as a citizen. That also presents a danger because I think that companies' commercial expressions naturally will grow towards where their technology is needed. So this is actually to some extent a threat to Western security relative to Chinese competition, that we embrace the technology in the way that we want it to be expressed in our society. So trying to bring people into this conversation, even if they're not programmers, the connection to math is that there are 18 million computer programmers in the world. We don't need 18 million and one, you know. But what we do need is we do need people to be thinking, I say in a formal way, but also just be thinking about the values that are going to be represented in these digital infrastructures.</p><p><strong>Eric Daimler: </strong>You know, somewhere as a society, we will have to have a conversation with ourselves to determine the car driving to the crosswalk, braking or rolling or slowing or stopping completely. And then who's liable if it doesn't? Is it the driver or is it the manufacturer? Is it the the programmer that somehow put a bug in their code? You know, we're entering an age where we're going to start experiencing what some person calls double bugs. There's the bug in maybe one's expression in code. This often could be the semantics. Or in English. Like your English doesn't make sense. Right? Right. Or or was it actually an error in your thinking? You know, did you leave a gap in your thinking? This is often where where some of the bugs in Ethereum and smart contracts have been expressed where, you know, there's an old programming rule where you don't want to say something equals true. You always want to be saying true equals something. If you get if you do the former, not the latter, you can have to actually create bugs that can create security breaches.</p><p><strong>Eric Daimler: </strong>Just a small little error in thinking. That's not an error in semantics. That level of thinking, you don't need to know calculus for, or category theory for that matter. You just need to be thinking in a formal way. You know, often, often lawyers, accountants, engineers, you know, anybody with scientific training can, can more quickly get this idea, where those that are educated in liberal arts can contribute is in reminding themselves of the broader context that wants to be expressed, because often engineers can be overly reductionist. So there's really a there's a push and pull or, you know, an interplay between those two sensibilities that then we want to express in rules. Then that's ultimately what I mean by formal, formal rules. Tell me exactly what you mean. Tell me exactly how that is going to work. You know, physicians would understand this when they think about drug effects and drug side effects. They know exactly what it's going to be supposed to be doing, you know, with some degree of probability. But they can be very clear, very clear about it. It's that clear thinking that all of us will need to exercise as we think about the development and deployment of modern automated digital systems.</p><p><strong>Harry Glorikian: </strong>Yeah, you know, it's funny because that's the other thing I tell people, like when they say, What should my kid take? I'm like, have him take a, you know, basic programming, not because they're going to do it for a living, but they'll understand how this thing is structured and they can get wrap their mind around how it is. And, you know, I see how my nephew thinks who's from the computer science world and how I think, and sometimes, you know, it's funny watching him think. Or one of the CTOs of one of our companies how he looks at the world. And I'm like you. You got to back up a little bit and look at the bigger picture. Right. And so it's the two of us coming together that make more magic than one or the other by themselves.</p><p><strong>Harry Glorikian: </strong>So, you know, I want to jump back sort of to the different roles you've had in your career. Like like you said, you've been a technology investor, a serial startup founder, a university professor, an academic administrator, an entrepreneur, a management instructor, Presidential Innovation Fellow. I don't think I've missed anything, but I may have. You're also a speaker, a commentator, an author. Which one of those is most rewarding?</p><p><strong>Eric Daimler: </strong>Oh, that's an interesting question. Which one of those is most rewarding? I'm not sure. I find it to be rewarding with my friends and family. So it's rewarding to be with people. I find that to be rewarding in those particular expressions. My motivation is to be, you know, just bringing people in to have a conversation about what we want our world to look like, to the degree to which the technologies that I work with every day are closer to the dystopia of Hollywood narratives or closer to our hopes around the utopia that's possible, that where this is in that spectrum is up to us in our conversation around what these things want to look like. We have some glimpses of both extremes, but I'd like people, and I find it to be rewarding, to just be helping facilitate the helping catalyze that conversation. So the catalyst of that conversation and whatever form it takes is where I enjoy being.</p><p><strong>Harry Glorikian: </strong>Yeah, because I was thinking about like, you know, what can, what can you do as an individual that shapes the future. Does any of these roles stand out as more impactful than others, let's say?</p><p><strong>Eric Daimler: </strong>I think the future is in this notion of composability. I feel strongly about that and I want to enroll people into this paradigm as a framework from which to see many of the activities going around us. Why have NFTs come on the public, in the public media, so quickly? Why does crypto, cryptocurrency capture our imagination? Those And TikTok and the metaverse. And those are all expressions of this quick reconfiguration of patterns in different contexts that themselves are going to become easier and easier to express. The future is going to be owned by people that that take the special knowledge that they've acquired and then put it into short business expressions. I'm going to call them rules that then can be recontextualized and redeployed. This is my version of, or my abstraction of what people call the the future being just all TikTok. It's not literally that we're all going to be doing short dance videos. It's that TikTok is is an expression of people creating short bits of content and then having those be reconfigured and redistributed. That can be in medicine or clinical practice or in drugs, but it can be in any range of expertise, expertise or knowledge. And what's changed? What's changed and what is changing is the different technologies that are being brought to bear to capture that knowledge so that it can be scalable, so it can be compositional. Yeah, that's what's changing. That's what's going to be changing over the next 10 to 20 years. The more you study that, I think the better off we will be. And I'd say, you know, for my way of thinking about math, you might say the more math, the better. But if I were to choose for my children, I would say I would replace trig and geometry and even calculus, some people would be happy to know, with categorical algebra, category theory and with probability and statistics. So I would replace calculus, which I think is really the math of the 20th century, with something more appropriate to our digital age, which is categorical algebra.</p><p><strong>Harry Glorikian: </strong>I will tell my son because I'm sure he'll be very excited to to if I told him that not calculus, but he's not going to be happy when I say go to this other area, because I think he'd like to get out of it altogether.</p><p><strong>Eric Daimler: </strong>It's easier than calculus. Yeah.</p><p><strong>Harry Glorikian: </strong>So, you know, it was great having you on the show. I feel like we could talk for another hour on all these different aspects. You know, I'm hoping that your company is truly successful and that you help us solve this interoperability problem, which is, I've been I've been talking about it forever. It seems like I feel like, you know, the last 15 or 20 years. And I still worry if we're any closer to solving that problem, but I'm hopeful, and I wish you great success on the launch of your new book. It sounds exciting. I'm going to have to get myself a copy.</p><p><strong>Eric Daimler: </strong>Thank you very much. It's been fun. It's good to be with you.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 7 Jun 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Eric Daimler)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest Eric Daimler, a serial software entrepreneur and a former Presidential Innovation Fellow in the Obama Administration, has an interesting argument about math. If you’re a young person today trying to decide which math course you’re going to take—or maybe an old person who just wants to brush up—he says you shouldn’t bother with trigonometry or calculus. Instead he says you should study <i>category theory. </i>An increasingly important in computer science, category theory is about the relationships between sets or structures. It can be used to prove that different structures are consistent or compatible with one another, and to prove that the relationships in a dataset are still intact even after the data has been transformed in some way. Together with two former MIT mathematicians, Daimler co-founded a company called Conexus that uses category theory to tackle the problem of data interoperability. </p><p>Longtime listeners know that data interoperability in healthcare, or more often the <i>lack </i>of interoperability, is a repeating theme of the show. In fields from drug development to frontline medical care, we’ve got petabytes of data to work with, in the form of electronic medical records, genomic and proteomic data, and clinical trial data. That data could be the fuel for machine learning and other kinds of computation that could help us make develop drugs faster and make smarter decisions about care. The problem is, it’s all stored in different databases and formats that can’t be safely merged without a nightmarish amount of work. So when someone like Daimler says they have a way to use math to bring heterogeneous data together without compromising that data’s integrity – well, it's time to pay attention. That's why on today’s show, we’re all going back to school for an introductory class in category theory.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>My guest today is Eric Daimler, a serial software entrepreneur and a former Presidential Innovation Fellow in the Obama Administration.</p><p>And he has an interesting argument about math. </p><p>Daimler says if you’re a young person today trying to decide which math course you’re going to take, or maybe an old person who just wants to brush up, you shouldn’t bother with trigonometry or calculus.</p><p>Instead he says you should study <i>category theory.</i></p><p>That’s a field that isn’t even part of the curriculum at most high schools. </p><p>But it’s increasingly important in computer science.</p><p>Category theory is about the relationships between sets or structures. </p><p>It can be used to prove that different structures are consistent or compatible with one another, and to prove that the relationships in a dataset are still intact even after you’ve transformed that data in some way.</p><p>Together with two former MIT mathematicians, Daimler co-founded a company called Conexus that uses category theory to tackle the problem of data interoperability.</p><p>Now…longtime listeners of the show know that data interoperability in healthcare, or more often the <i>lack </i>of interoperability, is one of my biggest hobby horses. </p><p>In fields from drug development to frontline medical care, we’ve got petabytes of data to work with, in the form of electronic medical records, genomic and proteomic data, and clinical trial data.</p><p>That data could be the fuel for machine learning and other kinds of computation that could help us make develop drugs faster and make smarter decisions about care. </p><p>The problem is, it’s all stored in different databases and formats that can’t be safely merged without a nightmarish amount of work.</p><p>So when someone like Daimler says they have a way to use math to bring heterogeneous data together without compromising that data’s integrity – well, I pay attention.</p><p>So on today’s show, we’re all going back to school for an introductory class in category theory from Conexus CEO Eric Daimler.</p><p><strong>Harry Glorikian: </strong>Eric, welcome to the show.</p><p><strong>Eric Daimler: </strong>It's great to be here.</p><p><strong>Harry Glorikian: </strong>So I was reading your varied background. I mean, you've worked in so many different kinds of organizations. I'm not sure that there is a compact way or even an accurate way to describe you. So can you describe yourself? You know, what do you do and what are your main interest areas?</p><p><strong>Eric Daimler: </strong>Yeah, I mean, the easiest way to describe me might come from my mother. Well, where, you know, somebody asked her, is that the doctor? And she says, Well, yes, but he's not the type that helps people. So I you know, I've been doing research around artificial intelligence and I from a lot of different perspectives around my research in graph theory and machine learning and computational linguistics. I've been a venture capitalist on Sand Hill Road. I've done entrepreneurship, done entrepreneurship, and I started a couple of businesses which I'm doing now. And most notably I was doing policy in Washington, D.C. is part of the Obama administration for a time. So I am often known for that last part. But my background really is rare, if not unique, for having the exposure to AI from all of those angles, from business, academia and policy.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, I was looking at the obviously the like you said, the one thing that jumped out to me was the you were a Presidential Innovation Fellow in the Obama administration in 2016. Can you can you give listeners an idea of what is what is the Presidential Innovation Fellowship Program? You know, who are the types of people that are fellows and what kind of things do they do?</p><p><strong>Eric Daimler: </strong>Sure, it was I guess with that sort of question, it's helpful then to give a broader picture, even how it started. There was a a program started during the Nixon administration that's colloquially known as the Science Advisers to the President, you know, a bipartisan group to give science advice to the president that that's called the OSTP, Office of Science and Technology Policy. There are experts within that group that know know everything from space to cancer, to be super specific to, in my domain, computer security. And I was the authority that was the sole authority during my time in artificial intelligence. So there are other people with other expertise there. There are people in different capacities. You know, I had the particular capacity, I had the particular title that I had that was a one year term. The staffing for these things goes up and down, depending on the administration in ways that you might be able to predict and guess. The people with those titles also also find themselves in different parts of the the executive branch. So they will do a variety of things that are not predicted by the the title of the fellow. My particular role that I happened to be doing was in helping to coordinate on behalf of the President, humbly, on behalf of the President, their research agenda across the executive branch. There are some very able people with whom I had the good fortune of working during my time during my time there, some of which are now in the in the Biden administration. And again, it's to be a nonpartisan effort around artificial intelligence. Both sides should really be advocates for having our research agenda in government be most effective. But my role was coordinating such things as, really this is helpful, the definition of robotics, which you might be surprised by as a reflex but but quickly find to be useful when you're thinking that the Defense Department's definition and use, therefore, of robotics is really fundamentally different than that of health and human services use and a definition of robotics and the VA and Department of Energy and State and and so forth.</p><p><strong>Eric Daimler: </strong>So that is we find to be useful, to be coordinated by the Office of the President and experts speaking on behalf. It was started really this additional impulse was started after the effects of, I'll generously call them, of healthcare.gov and the trip-ups there where President Obama, to his great credit, realized that we needed to attract more technologists into government, that we had a lot of lawyers to be sure we had, we had a ton of academics, but we didn't have a lot of business people, practical technologists. So he created a way to get people like me motivated to come into government for short, short periods of time. The the idea was that you could sit around a cabinet, a cabinet meeting, and you could you would never be able to raise your hand saying, oh, I don't know anything about economics or I don't know anything about foreign policy, but you could raise your hand and say, Oh, I don't know anything about technology. That needs to be a thing of the past. President Obama saw that and created a program starting with Todd. Todd Park, the chief technologist, the second chief technology officer of the United States, is fantastic to to start to start some programs to bring in people like me.</p><p><strong>Harry Glorikian: </strong>Oh, yeah. And believe me, in health care, we need we need more technologists, which I always preach. I'm like, don't go to Facebook. Come here. You know, you can get double whammy. You can make money and you can affect people's lives. So I'm always preaching that to everybody. But so if I'm not mistaken, in early 2021, you wrote an open letter to the brand new Biden administration calling for sort of a big federal effort to improve national data infrastructure. Like, can you summarize for everybody the argument in that piece and. Do you see them doing any of the items that you're suggesting?</p><p><strong>Eric Daimler: </strong>Right. The the idea is that despite us making some real good efforts during the Obama administration with solidifying our, I'll say, our view on artificial intelligence across the executive, and this continuing actually into the Trump administration with the establishment of an AI office inside the OSTP. So credit where credit is due. That extended into the the Biden administration, where some very well-meaning people can be focusing on different parts of the the conundrum of AI expressions, having various distortions. You know, the popular one we will read about is this distortion of bias that can express itself in really ugly ways, as you know, as individuals, especially for underrepresented groups. The point of the article was to help others be reminded of of some of the easy, low hanging fruit that we can that we can work on around AI. So, you know, bias comes in a lot of different ways, the same way we all have cognitive distortions, you know, cognitive biases. There are some like 50 of them, right. You know, bias can happen around gender and ethnicity and age, sexual orientation and so forth. You know, it all can also can come from absence of data. There's a type of bias that's present just by being in a developed, rich country in collecting, for example, with Conexus's customers, my company Conexus's customers, where they are trying to report on their good efforts for economic and social good and around clean, renewable energies, they find that there's a bias in being able to collect data in rich countries versus developing countries.</p><p><strong>Eric Daimler: </strong>That's another type of bias. So that was that was the point of me writing that open letter, to prioritize, these letters. It's just to distinguish what the low hanging fruit was versus some of the hard problems. The, some of tthe low hanging fruit, I think is available, I can say, In three easy parts that people can remember. One is circuit breakers. So we we can have circuit breakers in a lot of different parts of these automated systems. You know, automated car rolling down a road is, is the easiest example where, you know, at some point a driver needs to take over control to determine to make a judgment about that shadow being a person or a tumbleweed on the crosswalk, that's a type of circuit breaker. We can have those circuit breakers in a lot of different automated systems. Another one is an audit. And the way I mean is audit is having people like me or just generally people that are experts in the craft being able to distinguish the data or the biases can become possible from the data model algorithms where biases also can become possible. Right. And we get a lot of efficiency from these automated systems, these learning algorithms. I think we can afford a little bit taken off to audit the degree to which these data models are doing what we intend.</p><p><strong>Eric Daimler: </strong>And an example of a data model is that Delta Airlines, you know, they know my age or my height, and I fly to San Francisco, to New York or some such thing. The data model would be their own proprietary algorithm to determine whether or not I am deserving of an upgrade to first class, for example. That's a data model. We can have other data models. A famous one that we all are part of is FICO scores, credit scores, and those don't have to be disclosed. None of us actually know what Experian or any of the credit agencies used to determine our credit scores. But they they use these type of things called zero knowledge proofs, where we just send through enough data, enough times that we can get to a sense of what those data models are. So that's an exposure of a data model. A declarative exposure would be maybe a next best thing, a next step, and that's a type of audit.</p><p><strong>Eric Daimler: </strong>And then the third low hanging fruit, I'd say, around regulation, and I think these are just coming towards eventualities, is demanding lineage or demanding provenance. You know, you'll see a lot of news reports, often on less credible sites, but sometimes on on shockingly credible sites where claims are made that you need to then search yourself and, you know, people in a hurry just won't do it, when these become very large systems and very large systems of information, alert systems of automation, I want to know: How were these conclusions given? So, you know, an example in health care would be if my clinician gave me a diagnosis of, let's say, some sort of cancer. And then to say, you know, here's a drug, by the way, and there's a five chance, 5 percent chance of there being some awful side effects. You know, that's a connection of causation or a connection of of conclusions that I'm really not comfortable with. You know, I want to know, like, every step is like, wait, wait. So, so what type of cancer? So what's the probability of my cancer? You know, where is it? And so what drug, you know, how did you make that decision? You know, I want to know every little step of the way. It's fine that they give me that conclusion, but I want to be able to back that up. You know, a similar example, just in everyday parlance for people would be if I did suddenly to say I want a house, and then houses are presented to me. I don't quite want that. Although that looks like good for a Hollywood narrative. Right? I want to say, oh, wait, what's my income? Or what's my cash? You know, how much? And then what's my credit? Like, how much can I afford? Oh, these are houses you can kind of afford. Like, I want those little steps or at least want to back out how those decisions were made available. That's a lineage. So those three things, circuit breaker, audit, lineage, those are three pieces of low hanging fruit that I think the European Union, the State of New York and other other government entities would be well served to prioritize.</p><p><strong>Harry Glorikian: </strong>I would love all of them, especially, you know, the health care example, although I'm not holding my breath because I might not come back to life by how long I'd have to hold my breath on that one. But we're hoping for the best and we talk about that on the show all the time. But you mentioned Conexus. You're one of three co founders, I believe. If I'm not mistaken, Conexus is the first ever commercial spin out from MIT's math department. The company is in the area of large scale data integration, building on insights that come out of the field of mathematics that's called category algebra, categorical algebra, or something called enterprise category theory. And to be quite honest, I did have to Wikipedia to sort of look that up, was not familiar with it. So can you explain category algebra in terms of a non mathematician and maybe give us an example that someone can wrap their mind around.</p><p><strong>Eric Daimler: </strong>Yeah. Yeah. And it's important to get into because even though what my company does is, Conexus does a software expression of categorical algebra, it's really beginning to permeate our world. You know, the the way I tell my my nieces and nephews is, what do quantum computers, smart contracts and Minecraft all have in common? And the answer is composability. You know, they are actually all composable. And what composable is, is it's kind of related to modularity, but it's modularity without regard to scale. So the the easy analogy is in trains where, yeah, you can swap out a boxcar in a train, but mostly trains can only get to be a couple of miles long. Swap in and out boxcars, but the train is really limited in scale. Whereas the train system, the system of a train can be infinitely large, infinitely complex. At every point in the track you can have another track. That is the difference between modularity and composability. So Minecraft is infinitely self referential where you have a whole 'nother universe that exists in and around Minecraft. In smart contracts is actually not enabled without the ability to prove the efficacy, which is then enabled by categorical algebra or its sister in math, type theory. They're kind of adjacent. And that's similar to quantum computing. So quantum computing is very sexy. It gets in the press quite frequently with forks and all, all that. If it you wouldn't be able to prove the efficacy of a quantum compiler, you wouldn't actually. Humans can't actually say whether it's true or not without type theory or categorical algebra.</p><p><strong>Eric Daimler: </strong>How you think of kind categorical algebra you can think of as a little bit related to graph theory. Graph theory is those things that you see, they look like spider webs. If you see the visualizations of graph theories are graphs. Category theory is a little bit related, you might say, to graph theory, but with more structure or more semantics or richness. So in each point, each node and each edge, in the vernacular, you can you can put an infinite amount of information. That's really what a categorical algebra allows. This, the discovery, this was invented to be translating math between different domains of math. The discovery in 2011 from one of my co-founders, who was faculty at MIT's Math Department, was that we could apply that to databases. And it's in that the whole world opens up. This solves the problem that that bedeviled the good folks trying to work on healthcare.gov. It allows for a good explanation of how we can prevent the next 737 Max disaster, where individual systems certainly can be formally verified. But the whole plane doesn't have a mechanism of being formally verified with classic approaches. And it also has application in drug discovery, where we have a way of bringing together hundreds of thousands of databases in a formal way without risk of data being misinterpreted, which is a big deal when you have a 10-year time horizon for FDA trials and you have multiple teams coming in and out of data sets and and human instinct to hoard data and a concern about it ever becoming corrupted. This math and the software expression built upon it opens up just a fantastically rich new world of opportunity for for drug discovery and for clinicians and for health care delivery. And the list is quite, quite deep.</p><p><strong>Harry Glorikian: </strong>So. What does Conexus provide its clients? Is it a service? Is it a technology? Is it both? Can you give us an example of it?</p><p><strong>Eric Daimler: </strong>Yeah. So Conexus is software. Conexus is enterprise software. It's an enterprise software platform that works generally with very large organizations that have generally very large complex data data infrastructures. You know the example, I can start in health care and then I can I can move to an even bigger one, was with a hospital group that we work with in New York City. I didn't even know health care groups could really have this problem. But it's endemic to really the world's data, where one group within the same hospital had a particular way that they represented diabetes. Now to a layman, layman in a health care sense, I would think, well, there's a definition of diabetes. I can just look it up in the Oxford English Dictionary. But this particular domain found diabetes to just be easily represented as yes, no. Do they have it? Do they not? Another group within the same hospital group thought that they would represent it as diabetes, ow are we treating it? A third group would be representing it as diabetes, how long ago. And then a fourth group had some well-meaning clinicians that would characterize it as, they had it and they have less now or, you know, type one, type two, you know, with a more more nuanced view.</p><p><strong>Eric Daimler: </strong>The traditional way of capturing that data, whether it's for drug discovery or whether it's for delivery, is to normalize it, which would then squash the fidelity of the data collected within those groups. Or they most likely to actually just wouldn't do it. They wouldn't collect the data, they wouldn't bring the data together because it's just too hard, it's too expensive. They would use these processes called ETL, extract, transform, load, that have been around for 30 years but are often slow, expensive, fragile. They could take six months to year, cost $1,000,000, deploy 50 to 100 people generally from Accenture or Deloitte or Tata or Wipro. You know, that's a burden. It's a burden, you know, so the data wasn't available and that would then impair the researchers and their ability to to share data. And it would impair clinicians in their view of patient care. And it also impaired the people in operations where they would work on billing. So we work with one company right now that that works on 1.4 trillion records a year. And they just have trouble with that volume and the number of databases and the heterogeneous data infrastructure, bringing together that data to give them one view that then can facilitate health care delivery. </p><p><strong>Eric Daimler: </strong>The big example is, we work with Uber where they they have a very smart team, as smart as one might think. They also have an effectively infinite balance sheet with which they could fund an ideal IT infrastructure. But despite that, you know, Uber grew up like every other organization optimizing for the delivery of their service or product and, and that doesn't entail optimizing for that infrastructure. So what they found, just like this hospital group with different definitions of diabetes, they found they happen to have grown up around service areas. So in this case cities, more or less. So when then the time came to do analysis -- we're just passing Super Bowl weekend, how will the Super Bowl affect the the supply of drivers or the demand from riders? They had to do it for the city of San Francisco, separate than the city of San Jose or the city of Oakland. They couldn't do the whole San Francisco Bay Area region, let alone the whole of the state or the whole of the country or what have you. And that repeated itself for every business question, every organizational question that they would want to have. This is the same in drug discovery. This is the same in patient care delivery or in billing. These operational questions are hard, shockingly hard.</p><p><strong>Eric Daimler: </strong>We had another one in logistics where we had a logistics company that had 100,000 employees. I didn't even know some of these companies could be so big, and they actually had a client with 100,000 employees. That client had 1000 ships, each one of which had 10,000 containers. And I didn't even know like how big these systems were really. I hadn't thought about it. But I mean, they're enormous. And the question was, hey, where's our personal protective equipment? Where is the PPE? And that's actually a hard question to ask. You know, we are thinking about maybe our FedEx tracking numbers from an Amazon order. But if you're looking at the PPE and where it is on a container or inside of a ship, you know, inside this large company, it's actually a hard question to ask. That's this question that all of these organizations have. </p><p><strong>Eric Daimler: </strong>In our case, Uber, where they they they had a friction in time and in money and in accuracy, asking every one of these business questions. They went then to find, how do I solve this problem? Do I use these old tools of ETL from the '80s? Do I use these more modern tools from the 2000s? They're called RDF or OWL? Or is there something else? They discovered that they needed a more foundational system, this categorical algebra that that's now expressing itself in smart contracts and quantum computers and other places. And they just then they found, oh, who are the leaders in the enterprise software expression of that math? And it's us. We happen to be 40 miles north of them. Which is fortunate. We worked with Uber to to solve that problem in bringing together their heterogeneous data infrastructure to solve their problems. And to have them tell it they save $10 million plus a year in in the efficiency and speed gains from the solution we helped provide for them.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So your website says that your software can map data sources to each other so that the perfect data model is discovered, not designed. And so what does that mean? I mean, does that imply that there's some machine learning or other form of artificial intelligence involved, sort of saying here are the right pieces to put together as opposed to let me design this just for you. I'm trying to piece it together.</p><p><strong>Eric Daimler: </strong>Yeah. You know, the way we might come at this is just reminding ourselves about the structure of artificial intelligence. You know, in the public discourse, we will often find news, I'm sure you can find it today, on deep learning. You know, whatever's going on in deep learning because it's sexy, it's fun. You know, DeepMind really made a name for themselves and got them acquired at a pretty valuation because of their their Hollywood-esque challenge to Go, and solving of that game. But that particular domain of AI, deep learning, deep neural nets is a itself just a subset of machine learning. I say just not not not to minimize it. It's a fantastically powerful algorithm. But but just to place it, it is a subset of machine learning. And then machine learning itself is a subset of artificial intelligence. That's a probabilistic subset. So we all know probabilities are, those are good and bad. Fine when the context is digital advertising, less fine when it's the safety of a commercial jet. There is another part of artificial intelligence called deterministic artificial intelligence. They often get expressed as expert systems. Those generally got a bad name with the the flops of the early '80s. Right. They flopped because of scale, by the way. And then the flops in the early 2000s and 2010s from IBM's ill fated Watson experiment, the promise did not meet the the reality.</p><p><strong>Eric Daimler: </strong>It's in that deterministic A.I. that that magic is to be found, especially when deployed in conjunction with the probabilistic AI. That's that's where really the future is. There's some people have a religious view of, oh, it's only going to be a probabilistic world but there's many people like myself and not to bring up fancy names, but Andrew Ng, who's a brilliant AI researcher and investor, who also also shares this view, that it's a mix of probabilistic and deterministic AI. What deterministic AI does is, to put it simply, it searches the landscape of all possible connections. Actually it's difference between bottoms up and tops down. So the traditional way of, well, say, integrating things is looking at, for example, that hospital network and saying, oh, wow, we have four definitions of diabetes. Let me go solve this problem and create the one that works for our hospital network. Well, then pretty soon you have five standards, right? That's the traditional way that that goes. That's what a top down looks that looks like.</p><p><strong>Eric Daimler: </strong>It's called a Golden Record often, and it rarely works because pretty soon what happens is the organizations will find again their own need for their own definition of diabetes. In most all cases, that's top down approach rarely works. The bottoms up approach says, Let's discover the connections between these and we'll discover the relationships. We don't discover it organically like we depend on people because it's deterministic. I, we, we discover it through a massive, you know, non intuitive in some cases, it's just kind of infeasible for us to explore a trillion connections. But what the AI does is it explores a factorial number actually is a technical, the technical equation for it, a factorial number of of possible paths that then determine the map of relationships between between entities. So imagine just discovering the US highway system. If you did that as a person, it's going to take a bit. If you had some infinitely fast crawlers that robot's discovering the highway system infinitely fast, remember, then that's a much more effective way of doing it that gives you some degree of power. That's the difference between bottoms up and tops down. That's the difference between deterministic, really, we might say, and probabilistic in some simple way.</p><p><strong>Harry Glorikian: </strong>Yeah, I'm a firm believer of the two coming together and again, I just look at them as like a box. I always tell people like, it's a box of tools. I need to know the problem, and then we can sort of reach in and pick out which set of tools that are going to come together to solve this issue, as opposed to this damn word called AI that everybody thinks is one thing that they're sort of throwing at the wall to solve a problem.</p><p><strong>Harry Glorikian: </strong>But you're trying to solve, I'm going to say, data interoperability. And on this show I've had a lot of people talk about interoperability in health care, which I actually believe is, you could break the system because things aren't working right or I can't see what I need to see across the two hospitals that I need information from. But you published an essay on Medium about Haven, the health care collaboration between Amazon, JPMorgan, Berkshire Hathaway. Their goal was to use big data to guide patients to the best performing clinicians and the most affordable medicines. They originally were going to serve these first three founding companies. I think knowing the people that started it, their vision was bigger than that. There was a huge, you know, to-do when it came out. Fireworks and everything. Launched in 2018. They hired Atul Gawande, famous author, surgeon. But then Gawande left in 2020. And, you know, the company was sort of quietly, you know, pushed off into the sunset. Your essay argued that Haven likely failed due to data interoperability challenges. I mean. How so? What what specific challenges do you imagine Haven ran into?</p><p><strong>Eric Daimler: </strong>You know, it's funny, I say in the article very gently that I imagine this is what happened. And it's because I hedge it that that the Harvard Business Review said, "Oh, well, you're just guessing." Actually, I wasn't guessing. No, I know. I know the people that were doing it. I know the challenges there. But but I'm not going to quote them and get them in trouble. And, you know, they're not authorized to speak on it. So I perhaps was a little too modest in my framing of the conclusion. So this actually is what happened. What happens is in the same way that we had the difficulty with healthcare.gov, in the same way that I described these banks having difficulty. Heterogeneous databases don't like to talk to one another. In a variety of different ways. You know, the diabetes example is true, but it's just one of many, many, many, many, many, many cases of data just being collected differently for their own use. It can be as prosaic as first name, last name or "F.last name." Right? It's just that simple, you know? And how do I bring those together? Well, those are those are called entity resolutions. Those are somewhat straightforward, but not often 100 percent solvable. You know, this is just a pain. It's a pain. And, you know, so what what Haven gets into is they're saying, well, we're massive. We got like Uber, we got an effectively infinite balance sheet. We got some very smart people. We'll solve this problem. And, you know, this is some of the problem with getting ahead of yourself. You know, I won't call it arrogance, but getting ahead of yourself, is that, you think, oh, I'll just be able to solve that problem.</p><p><strong>Eric Daimler: </strong>You know, credit where credit is due to Uber, you know, they looked both deeper saying, oh, this can't be solved at the level of computer science. And they looked outside, which is often a really hard organizational exercise. That just didn't happen at Haven. They thought they thought they could they could solve it themselves and they just didn't. The databases, not only could they have had, did have, their own structure, but they also were stored in different formats or by different vendors. So you have an SAP database, you have an Oracle database. That's another layer of complication. And when I say that these these take $1,000,000 to connect, that's not $1,000,000 one way. It's actually $2 million if you want to connect it both ways. Right. And then when you start adding five, let alone 50, you take 50 factorial. That's a very big number already. You multiply that times a million and 6 to 12 months for each and a hundred or two hundred people each. And you just pretty soon it's an infeasible budget. It doesn't work. You know, the budget for us solving solving Uber's problem in the traditional way was something on the order of $2 trillion. You know, you do that. You know, we had a bank in the U.S. and the budget for their vision was was a couple of billion. Like, it doesn't work. Right. That's that's what happened Haven. They'll get around to it, but but they're slow, like all organizations, big organizations are. They'll get around to solving this at a deeper level. We hope that we will remain leaders in database integration when they finally realize that the solution is at a deeper level than their than the existing tools.</p><p><strong>Harry Glorikian: </strong>So I mean, this is not I mean, there's a lot of people trying to solve this problem. It's one of those areas where if we don't solve it, I don't think we're going to get health care to the next level, to sort of manage the information and manage people and get them what they need more efficiently and drive down costs.</p><p><strong>Eric Daimler: </strong>Yeah.</p><p><strong>Harry Glorikian: </strong>And I do believe that EMRs are. I don't want to call them junk. Maybe I'm going too far, but I really think that they you know, if you had decided that you were going to design something to manage patients, that is not the software you would have written to start. Hands down. Which I worry about because these places won't, they spent so much putting them in that trying to get them to rip them out and put something in that actually works is challenging. You guys were actually doing something in COVID-19, too, if I'm not mistaken. Well, how is that project going? I don't know if it's over, but what are you learning about COVID-19 and the capabilities of your software, let's say?</p><p><strong>Eric Daimler: </strong>Yeah. You know, this is an important point that for anybody that's ever used Excel, we know what it means to get frustrated enough to secretly hard code a cell, you know, not keeping a formula in a cell. Yeah, that's what happened in a lot of these systems. So we will continue with electronic medical records to to bring these together, but they will end up being fragile, besides slow and expensive to construct. They will end up being fragile, because they were at some point hardcoded. And how that gets expressed is that the next time some other database standard appears inside of that organization's ecosystem from an acquisition or a divestiture or a different technical standard, even emerging, and then the whole process starts all over again. You know, we just experience this with a large company that that spent $100 million in about five years. And then they came to us and like, yeah, we know it works now, but we know like a year from now we're going to have to say we're going to go through it again. And, it's not like, oh, we'll just have a marginal difference. No, it's again, that factorial issue, that one database connected to the other 50 that already exist, creates this same problem all over again at a couple of orders of magnitude. So what we discover is these systems, these systems in the organization, they will continue to exist.</p><p><strong>Eric Daimler: </strong>These fragile systems will continue to exist. They'll continue to scale. They'll continue to grow in different parts of the life sciences domain, whether it's for clinicians, whether it's for operations, whether it's for drug discovery. Those will continue to exist. They'll continue to expand, and they will begin to approach the type of compositional systems that I'm describing from quantum computers or Minecraft or smart contracts, where you then need the the discovery and math that Conexus expresses in software for databases. When you need that is when you then need to prove the efficacy or otherwise demonstrate the lack of fragility or the integrity of the semantics. Conexus can with, it's a law of nature and it's in math, with 100 percent accuracy, prove the integrity of a database integration. And that matters in high consequence context when you're doing something as critical as drug side effects for different populations. We don't want your data to be misinterpreted. You can't afford lives to be lost or you can't, in regulation, you can't afford data to be leaking. That's where you'll ultimately need the categorical algebra. You'll need a provable compositional system. You can continue to construct these ones that will begin to approach compositionality, but when you need the math is when you need to prove it for either the high consequence context of lives, of money or related to that, of regulation.</p><p><strong>Harry Glorikian: </strong>Yeah, well, I keep telling my kids, make sure you're proficient in math because you're going to be using it for the rest of your life and finance. I always remind them about finance because I think both go together. But you've got a new book coming out. It's called "The Future is Formal" and not tuxedo like formal, but like you're, using the word formal. And I think you have a very specific meaning in mind. And I do want you to talk about, but I think what you're referring to is how we want automated systems to behave, meaning everything from advertising algorithms to self-driving trucks. And you can tell me if that my assumption is correct or not.</p><p><strong>Eric Daimler: </strong>Though it's a great segue, actually, from the math. You know, what I'm trying to do is bring in people that are not programmers or research technology, information technology researchers day to day into the conversation around automated digital systems. That's my motivation. And my motivation is, powered by the belief that we will bring out the best of the technology with more people engaged. And with more people engaged, we have a chance to embrace it and not resist it. You know, my greatest fear, I will say, selfishly, is that we come up with technology that people just reject, they just veto it because they don't understand it as a citizen. That also presents a danger because I think that companies' commercial expressions naturally will grow towards where their technology is needed. So this is actually to some extent a threat to Western security relative to Chinese competition, that we embrace the technology in the way that we want it to be expressed in our society. So trying to bring people into this conversation, even if they're not programmers, the connection to math is that there are 18 million computer programmers in the world. We don't need 18 million and one, you know. But what we do need is we do need people to be thinking, I say in a formal way, but also just be thinking about the values that are going to be represented in these digital infrastructures.</p><p><strong>Eric Daimler: </strong>You know, somewhere as a society, we will have to have a conversation with ourselves to determine the car driving to the crosswalk, braking or rolling or slowing or stopping completely. And then who's liable if it doesn't? Is it the driver or is it the manufacturer? Is it the the programmer that somehow put a bug in their code? You know, we're entering an age where we're going to start experiencing what some person calls double bugs. There's the bug in maybe one's expression in code. This often could be the semantics. Or in English. Like your English doesn't make sense. Right? Right. Or or was it actually an error in your thinking? You know, did you leave a gap in your thinking? This is often where where some of the bugs in Ethereum and smart contracts have been expressed where, you know, there's an old programming rule where you don't want to say something equals true. You always want to be saying true equals something. If you get if you do the former, not the latter, you can have to actually create bugs that can create security breaches.</p><p><strong>Eric Daimler: </strong>Just a small little error in thinking. That's not an error in semantics. That level of thinking, you don't need to know calculus for, or category theory for that matter. You just need to be thinking in a formal way. You know, often, often lawyers, accountants, engineers, you know, anybody with scientific training can, can more quickly get this idea, where those that are educated in liberal arts can contribute is in reminding themselves of the broader context that wants to be expressed, because often engineers can be overly reductionist. So there's really a there's a push and pull or, you know, an interplay between those two sensibilities that then we want to express in rules. Then that's ultimately what I mean by formal, formal rules. Tell me exactly what you mean. Tell me exactly how that is going to work. You know, physicians would understand this when they think about drug effects and drug side effects. They know exactly what it's going to be supposed to be doing, you know, with some degree of probability. But they can be very clear, very clear about it. It's that clear thinking that all of us will need to exercise as we think about the development and deployment of modern automated digital systems.</p><p><strong>Harry Glorikian: </strong>Yeah, you know, it's funny because that's the other thing I tell people, like when they say, What should my kid take? I'm like, have him take a, you know, basic programming, not because they're going to do it for a living, but they'll understand how this thing is structured and they can get wrap their mind around how it is. And, you know, I see how my nephew thinks who's from the computer science world and how I think, and sometimes, you know, it's funny watching him think. Or one of the CTOs of one of our companies how he looks at the world. And I'm like you. You got to back up a little bit and look at the bigger picture. Right. And so it's the two of us coming together that make more magic than one or the other by themselves.</p><p><strong>Harry Glorikian: </strong>So, you know, I want to jump back sort of to the different roles you've had in your career. Like like you said, you've been a technology investor, a serial startup founder, a university professor, an academic administrator, an entrepreneur, a management instructor, Presidential Innovation Fellow. I don't think I've missed anything, but I may have. You're also a speaker, a commentator, an author. Which one of those is most rewarding?</p><p><strong>Eric Daimler: </strong>Oh, that's an interesting question. Which one of those is most rewarding? I'm not sure. I find it to be rewarding with my friends and family. So it's rewarding to be with people. I find that to be rewarding in those particular expressions. My motivation is to be, you know, just bringing people in to have a conversation about what we want our world to look like, to the degree to which the technologies that I work with every day are closer to the dystopia of Hollywood narratives or closer to our hopes around the utopia that's possible, that where this is in that spectrum is up to us in our conversation around what these things want to look like. We have some glimpses of both extremes, but I'd like people, and I find it to be rewarding, to just be helping facilitate the helping catalyze that conversation. So the catalyst of that conversation and whatever form it takes is where I enjoy being.</p><p><strong>Harry Glorikian: </strong>Yeah, because I was thinking about like, you know, what can, what can you do as an individual that shapes the future. Does any of these roles stand out as more impactful than others, let's say?</p><p><strong>Eric Daimler: </strong>I think the future is in this notion of composability. I feel strongly about that and I want to enroll people into this paradigm as a framework from which to see many of the activities going around us. Why have NFTs come on the public, in the public media, so quickly? Why does crypto, cryptocurrency capture our imagination? Those And TikTok and the metaverse. And those are all expressions of this quick reconfiguration of patterns in different contexts that themselves are going to become easier and easier to express. The future is going to be owned by people that that take the special knowledge that they've acquired and then put it into short business expressions. I'm going to call them rules that then can be recontextualized and redeployed. This is my version of, or my abstraction of what people call the the future being just all TikTok. It's not literally that we're all going to be doing short dance videos. It's that TikTok is is an expression of people creating short bits of content and then having those be reconfigured and redistributed. That can be in medicine or clinical practice or in drugs, but it can be in any range of expertise, expertise or knowledge. And what's changed? What's changed and what is changing is the different technologies that are being brought to bear to capture that knowledge so that it can be scalable, so it can be compositional. Yeah, that's what's changing. That's what's going to be changing over the next 10 to 20 years. The more you study that, I think the better off we will be. And I'd say, you know, for my way of thinking about math, you might say the more math, the better. But if I were to choose for my children, I would say I would replace trig and geometry and even calculus, some people would be happy to know, with categorical algebra, category theory and with probability and statistics. So I would replace calculus, which I think is really the math of the 20th century, with something more appropriate to our digital age, which is categorical algebra.</p><p><strong>Harry Glorikian: </strong>I will tell my son because I'm sure he'll be very excited to to if I told him that not calculus, but he's not going to be happy when I say go to this other area, because I think he'd like to get out of it altogether.</p><p><strong>Eric Daimler: </strong>It's easier than calculus. Yeah.</p><p><strong>Harry Glorikian: </strong>So, you know, it was great having you on the show. I feel like we could talk for another hour on all these different aspects. You know, I'm hoping that your company is truly successful and that you help us solve this interoperability problem, which is, I've been I've been talking about it forever. It seems like I feel like, you know, the last 15 or 20 years. And I still worry if we're any closer to solving that problem, but I'm hopeful, and I wish you great success on the launch of your new book. It sounds exciting. I'm going to have to get myself a copy.</p><p><strong>Eric Daimler: </strong>Thank you very much. It's been fun. It's good to be with you.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>Eric Daimler at Conexus says Forget Calculus, Today&apos;s Coders Need to Know Category Theory</itunes:title>
      <itunes:author>Harry Glorikian, Eric Daimler</itunes:author>
      <itunes:duration>00:56:12</itunes:duration>
      <itunes:summary>Harry&apos;s guest Eric Daimler, a serial software entrepreneur and a former Presidential Innovation Fellow in the Obama Administration, has co-founded a company called Conexus that uses category theory to tackle the problem of data interoperability. Longtime listeners know that data interoperability in healthcare—or more often the lack of interoperability—is a repeating theme of the show. In fields from drug development to frontline medical care, we’ve got petabytes of data to work with, in the form of electronic medical records, genomic and proteomic data, and clinical trial data. That data could be the fuel for machine learning and other kinds of computation that could help us make develop drugs faster and make smarter decisions about care. The problem is, it’s all stored in different databases and formats that can’t be safely merged without a nightmarish amount of work. So when a company like Conexus says they have a way to use math to bring heterogeneous data together without compromising that data’s integrity – well, it&apos;s time to pay attention. That&apos;s why on today’s show, we’re all going back to school for an introductory class in category theory.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest Eric Daimler, a serial software entrepreneur and a former Presidential Innovation Fellow in the Obama Administration, has co-founded a company called Conexus that uses category theory to tackle the problem of data interoperability. Longtime listeners know that data interoperability in healthcare—or more often the lack of interoperability—is a repeating theme of the show. In fields from drug development to frontline medical care, we’ve got petabytes of data to work with, in the form of electronic medical records, genomic and proteomic data, and clinical trial data. That data could be the fuel for machine learning and other kinds of computation that could help us make develop drugs faster and make smarter decisions about care. The problem is, it’s all stored in different databases and formats that can’t be safely merged without a nightmarish amount of work. So when a company like Conexus says they have a way to use math to bring heterogeneous data together without compromising that data’s integrity – well, it&apos;s time to pay attention. That&apos;s why on today’s show, we’re all going back to school for an introductory class in category theory.</itunes:subtitle>
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      <title>Lokavant Wants to Help Good Drugs Succeed in Clinical Trials, and Help Bad Ones Fail Faster</title>
      <description><![CDATA[<p>Harry's guest this week is Rohit Nambisan, CEO of Lokavant, a company that helps drug developers get a better picture of how their clinical trials are progressing. He explains the need for the company's services with an interesting analogy: these days, Nambisan points out, you can use an app like GrubHub to order a pizza for $20 or $25, and the app will give you a real-time, minute by minute accounting of where the pizza is and when it’s going to arrive at your door. But f you’re a pharmaceutical company running a clinical trial for a new drug, you can spend anywhere from $3 million to $300 million—and still have absolutely no idea when the trial will finish or whether your drug will turn out to be effective. Because there's little infrastructure for analyzing clinical trial data in midstream or spotting trouble before it arrives, some studies continue long after they should have been canceled, and positive data sometimes gets thrown out because of minor procedural flaws; in the end, 20 to 30 percent of the money drug makers spend on clinical trials goes down the drain, Nambisan says. Lokavant's platform allows drug makers and clinical research organizations to harmonize the results coming in from study sites, compare it to data from other trials, and discover important signals in the data before it’s too late. For example, a company might discover that it’s not enrolling patients fast enough to complete a trial on schedule, or that the researchers administering the study aren’t following the exact protocols laid out in advance. Such headaches might sound abstract and remote, but poor data management slows down the whole drug development process, which means fewer beneficial new drugs make it to market ever year; that's the ultimate problem Lokavant is trying to fix.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>My guest Rohit Nimbasan comes from the worlds of biotech and data science. </p><p>And during our interview he made an interesting point.</p><p>These days you can use an app like GrubHub to order a pizza for twenty or twenty-five bucks, and the app will give you a real-time, minute by minute accounting of where the pizza is and when it’s going to arrive at your door.</p><p>But Nimbasan points out that if you’re a pharmaceutical company running a clinical trial for a new drug, you can spend anywhere from $3 million to $300 million and still have absolutely no idea when the trial will finish or whether your drug will turn out to be effective.</p><p>The problem is, there’s just no infrastructure for analyzing clinical trial data in midstream or spotting trouble before it arrives.</p><p>As a result, according to Nimbasan, twenty to thirty percent of the money drug makers spend on clinical trials goes down the drain, because of studies that continue long after they should have been canceled, or good data that gets thrown out because of some minor procedural flaw.</p><p>Nimbasan is the CEO of a company called Lokavant that wants to change all that.</p><p>The company is building a data platform that allows drug makers and clinical research organizations to harmonize the results coming in from study sites, compare it to data from other trials, and discover important signals in the data before it’s too late.</p><p>For example, a company might discover that it’s not enrolling patients fast enough to complete a trial on schedule, or that the researchers administering the study aren’t following the exact protocols laid out in advance.</p><p>All of those problems can increase the cost of a trial.<br />They can even lead regulators to deny approval for a drug that might have proved effective if it had been property tested.</p><p>For an average healthcare consumer, these kinds of headaches might sound abstract and remote, like something only clinical trial managers would ever have to worry about. </p><p>But the fact is poor data management slows down the whole drug development process, which means fewer beneficial new drugs make it to market ever year.</p><p>So I think we should all be cheering companies like Lokavant who are trying to fix the process.</p><p>Here’s my full interview with Rohit.</p><p><strong>Harry Glorikian: </strong>Rohit, welcome to the show.</p><p><strong>Rohit Nambisan: </strong>Thanks, Harry, for having me.</p><p><strong>Harry Glorikian: </strong>You know, you and I sort of talk off and on all the time about the space and what's going on, but, you know, having it on the show, I have to step back and sort of forget everything I know about the company and start from scratch. So, you know, can you explain to people Lokavant's business in a way that would make sense to someone, say, outside of the pharmaceutical industry. In other words, you know, what are the big problems you're solving for organizations that, say, are running a clinical trial, and how are you solving them?</p><p><strong>Rohit Nambisan: </strong>Sure, I can do that. I think it bears noting that we should probably step back a little bit and talk about the industry as a whole and where it's been going, and then I can clarify where Lokavant comes in. So I think as many folks know and for those who don't, I'll fill in the blanks. I know you know this area, but in the last, I'd say 15 to 20 years, we've been moving in pharmaceutical development away from blockbuster medications, things like diabetes type 2. Right, developing therapies for that and getting each drug developer trying to find a smaller piece of market and larger pie to specialized, niche therapeutic indications. Right. So the way I could probably better started with the diabetes example is it's no longer diabetes type 2. It's let's develop the compounds or therapies for diabetes type 2 patients that are comorbid with that have also chronic kidney disease and are metformin naive, meaning they haven't taken a particular therapy known as metformin. Right. So it's a more complex filter criteria, so to speak. Right. And so what happens when the industry moves in that that direction is that when you get into these very niche therapeutic areas, you need to collect particular niche, commensurately niche types of data to validate your hypothesis whether or not this therapy is safe and efficacious through clinical trials. Right. </p><p><strong>Rohit Nambisan: </strong>And in doing that, you now increased the complexity of the trial greatly, not only in terms of the different types of data collecting, but the amount of different types of data you're collecting. So now each trial becomes a lot more specialized. Not just specialized therapeutics, but each trial becomes more specialized. Right? And so for that reason, we've seen a big challenge as we as we moved across that space. And actually, it's been really beneficial for patients because now we're going after, as an industry, we're going after really niche unmet clinical needs that previously there were no therapies for or being developed for. So it's a really good thing for a patient perspective, but from the perspective of development, it makes it that much harder. Not only is there a smaller market opportunity, there's less patients to treat, right, but the complexity, the actual costs of the trial and the complexity of trial has gotten exponentially that much greater. So what Lokavant came out of was we were actually a, shall we say, an internal initiative within Roivant Sciences, which is a company that launches a number of different biotechnology companies and tech companies as well. But better known for biotechnology companies. And we saw a great need to be able to develop therapies for niche indications much faster, much more efficient, much more cost effectively, and also meet the complexities of that trial better through novel data and tech.</p><p><strong>Rohit Nambisan: </strong>And so what Lokavant is essentially, is a data platform that allows drug developers, pharma, therapy developers, to be able to choose which data sources they need, data types they need for a trial. And we can ingest any of those data sources, we can analyze any of those data sources in a holistic manner and expose patterns or signals that could be beneficial or detrimental to the study on an ongoing basis. And when I say ongoing basis, I mean you're not waiting until the end of the study. And I guess the best way I can align this is just like my kids do sometimes. You're not waiting until the last day before your term paper is due, before the project's due to finish your work, you're actually assessing, doing bits of it along the way to assess where there may be challenges, which gives you, really, the time to correct issues to manage your trial better. And frankly, each one of these trials now, there are between, what, $2 million and $300 million we're investing in these single trials at this point. So it's egregious to me that we do not have the toolset to be able to even identify, pull in that data effectively on an ongoing basis to detect these signals so we can plan effectively to do something about it.</p><p><strong>Harry Glorikian: </strong>Anybody who's done a clinical trial knows that there's a lot of risk. Right. So, you know, can you talk about some of the types of risks you're trying to help make sure drug developers diminish, for the most part.</p><p><strong>Rohit Nambisan: </strong>Yeah. So I think the way we start with that is always at the highest level, time, cost and quality, right? So when we talk about time, it's really important to understand that you're going to be able to achieve less. For example, I'll give you a few instances. Target participant accrual, right? Obviously for you to run a trial effectively, you need to have particular types of participants or patients, if it's a sick population. In a vaccine population, they weren't necessarily sick. So that's why I use participants as the term. But you need to make sure that you have path to randomized screening and randomizing these patients for your trial in a given time period. Right. And if that's if your enrollment is is not on track for the countries and the sites you've decided to actually activate the study in, you could, your timeline for your study could be exceptionally extended. Right. So that's that's one type of one example of a thing we look at to understand how the timeline looking for the study. Another area on timeline for example and similarly is discontinuation. So you can you could enroll patients fine. But if you've high volumes of discontinuation of participants in your study, then what ends up happening is you actually don't have as many evaluable subjects in your study of some evaluable participants. So you have to recruit or enroll more subjects, right? So that could extend the timeline as well. One aspect of the timeline that really affects the overall market opportunity is oftentimes these therapies are only in under patient for a certain amount of time. So the faster you can get them to market, the faster you can get recoup your return on investment. But also on the patient side, the faster we can get these therapies out through the market to address unmet clinical needs. That's just one flavor.</p><p><strong>Rohit Nambisan: </strong>Then we have subsequent types of flavors. When we talk about data quality, making sure the data is actually collected in the way that you stated you wanted it to be collected in the plan and the protocol at the outset of the study, as well as cost implications. Right. So we look at cost implications as well, which is how, what will this, what will the extension of enrollment or bad data quality data do to the overall budget that you had planned for this study? But then when you drill down on the level further, you can get into risk categories, is something we look at quite a bit when we look at things like protocol, adherence, when you're when you're collecting this data, as I mentioned, it has to be done per a very prescriptive method that is specified a priori before starting the trial in a protocol. And if it's not collected in that manner, it can be discounted. So we are tracking the risk to protocol deviations and understanding trends and not only understanding trends within that study, but we're looking at similar types of studies in this particular therapy area, neurology or say, psychiatry or gastrointestinal type studies and saying, what has been the protocol adherence in studies like yours? And therefore, can we glean some insights about how you are doing in your study based on your comparators in the study as well? But that's just a small flavor. I could probably wax on for quite some time on this question.</p><p><strong>Harry Glorikian: </strong>Well, that that brings us to the question -- I mean, everything you just said, it brings to the question like, from what I know, the company sort of predicts how clinical trials will go by comparing it against a proprietary data set of, I think I was reading, 2000 past trials, right? So I guess the question becomes, so you're comparing one to the past of things that are similar, but you know, for everybody who's listening sort of, you know, where does that data come from in one sense, is it truly proprietary? I mean, that's what I'm you know, that's my set of questions at the moment.</p><p><strong>Rohit Nambisan: </strong>Sure. So I worked for a while, before coming to the life sciences, in the R&D space and the life sciences commercial space. And I think that data sets, are there are proprietary datasets in that space? Very much so. But there is a third party market for that data a little bit more. So then we find life sciences data. It's really hard to get access to R&D data and as you can imagine, that makes a lot of sense, right? If you're a drug developer or a pharmaceutical developer that successfully completed a trial, you never want to share that data. Thereafter, you spent millions of dollars investing in the study, if you want. If there are potentially unknown issues that you haven't identified, would you want to put that at risk? If you are similarly, if you are a therapeutics developer that didn't meet your endpoints, do you want that information to get out and maybe potentially things that issues that that you should have should not overlook, right, getting out in public, etc.? There's just a lot of business risk. There's also IP risk, right? There's a number of different risks associated with getting that data out. So it's been not a very straightforward journey to aggregate data in life sciences, R&D. That being said, I think how we approached this was we've developed models that are both used for benchmarking, as I mentioned before, comparing against similar trials for particular performance KPIs, so to speak, as well as predictive model generation and machine learning models that require a fair amount of data to train on to actually deliver value.</p><p><strong>Rohit Nambisan: </strong>And in that model, we've talked to a lot of our partners or let's say folks that leads them before their partners. And we talk to them. We say we have a growing dataset. There's precedent for this because we've done this with other partners, number one. Number two, we've worked with them to leverage their data combined with our data, write their enterprise data with our data, because it's a common, it's not just one entity's data that's going to provide that value. Your performance, your processes, the way you run trials is inherent in your data. And if we don't leverage that data to train our model to retrain some parts of our models against, we're not providing you the most value we could be with our predictive models or benchmarking. So with that approach, we've been able to do comparative analysis of our data set versus other people's datasets and then anonymize their data upon having a partnership with them to grow our data assets in a very risk-tolerant manner. Right. All the information about CROs or sponsors or other entities, people running trials is removed from the data and we only leverage that data for the purposes of analytics or generating a benchmark. So none of that data is ever shared. So through that process, over the last, I'd say two years, maybe a little two years and change since we started, we've been able to continuously grow this asset and provide greater and greater value with our descriptive diagnostic predictive analytics as well as our benchmarking.</p><p><strong>Harry Glorikian: </strong>How much money, if you had to guess just to give people like an idea, how much money do you think gets poured down the drain preventably every year, and you could save all this money if you just ran smarter, if you did smarter clinical trial management, if I had to frame it that way.</p><p><strong>Rohit Nambisan: </strong>Oh, at least I would say we've done some back calculations on this and happy to digress into the details of them if warranted, but at least somewhere between 20 to 30 percent of the trial costs right now and depending on the phase and depending on the therapeutic area, again, that could be anywhere from 20 to 30 percent of $3 million to $300 million per study.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean it's you know, that's got to be, I don't know how many billions that is. I can't I don't know exactly how much is being spent annually off the top of my head.</p><p><strong>Rohit Nambisan: </strong>We believe we've done some back of the envelope calculations to show that it is in the billions for sure. Across the across the global pharmaceutical market, we're looking just just the value proposition and the signal detection we're bringing to bear is somewhere around $18 to $20 billion, in terms of market opportunity.</p><p><strong>Harry Glorikian: </strong>I mean, how would you guys run or help a team run a clinical trial in practice? Can you sort of give me a real-world example, maybe de-identified, where you helped the client avoid or mitigate some kind of risk, whether it has to do with patient enrollment or site compliance or safety issues during a trial, any one of those will do.</p><p><strong>Rohit Nambisan: </strong>Sure. So I think one example that I can bring to bear is working with a large CRO. And with this large CRO, they had a sizable data asset that was not harmonized, so to speak. It was still living in the transactional exports from the source data systems or CSPs. Et cetera. All around. So it was they had a bunch of different hypotheses about where they were proficient, where they were deficient, but nothing validated. So we spent some time with them trying to understand what all their data assets looked like. And we started collecting these different representations of former trials and ongoing trials, and we collected them and we harmonized them. In fact, as I mentioned before, one of our major differentiators is this is creation of a single source of truth. And we take that upon ourselves, too. It's not like a service, it's part of our offering, right? Our platform offering. And so what we did was we brought that data together and we it was about, I think 400 to 500 studies worth of data at that point. We harmonized it into what we call our local and canonical data format, which is a single representation for multiple different domains of data, scientific data, operational data, enrollment data, etc. And then we compared that against similar studies in our repository, our growing repository, and said, okay, we can tell you comparatively that you are deficient in these particular areas and you're very proficient at the various--for example, in this case they were very proficient in achieving first patient in on the timeline that they expected to actually, scratch that, that they were very they were very proficient in actually accruing the subjects by last patient in in the time they were expected to write so they could hit their accrual when they wanted to.</p><p><strong>Rohit Nambisan: </strong>But when we looked deeper into the data and looked at across like first patient in, the 50 percent enrollment mark for the study and then last patient in for the study, we were able to identify that there was actually a slowdown and a major overcorrection to make up for that. So they were actually hitting what they needed to hit. But as we all probably know, at least in the clinical research phase and any or any budgeting process, being over your budgeting process is bad. Being under your budgeting process is bad, right? So in this case, it's again the same. They were burning resource and cash and resources to rapidly overcorrect for for a milestone they were not hitting reliably earlier in their studies. And so we realized in that accrual situation we said, okay, what you need is, we've identified an error, you're potentially deficient. What you need is an enrollment forecasting application that brings in the data in real time from your study. Right. And it also combines historical data from our repository in your historical data to seed some prior knowledge about the study. So and it's automated, fully automated. So every day you can understand where you are in relation to where you need to be. Right? And it's not a naive straight line kind of curve. It's basically it's based on looking at thousands of historical studies in this space and understanding what the curvature of the actual model should look like.</p><p><strong>Rohit Nambisan: </strong>So we generated that and we were able to actually, in the proof of concept, and this is just one particular example of an application we've been able to generate from our clinical trial intelligence platform, we generated that and we were able to, on a study, predict two years out within one month when they would actually really hit the accrual and it was within one month accurate. Now while that was valuable in terms of understanding at the end state, what really the value was of this closed loop model, so to speak, right, is that it is closed loop. It allows them in silica to say, what happens if I open some sites here? What happens if I close some sites? So what happens if I close this country here? How will that affect my plan before I put that into action in the real world, which oftentimes is very, very, first of all, it's very risky. But second of all, it can yield a number of unknown consequences if you don't try it before <i>in silico</i>. So I think the approach here was we were able to not only predict these things better and also predict the impact of change orders on the study, that might actually affect the timeline of the study. But we were able to actually provide them an application, an interface by which they could test it all their hypotheses in a virtualized manner before they implemented them. And we're growing like crazy with that, with that partner right now at that point.</p><p><strong>Harry Glorikian: </strong>Yeah. And I mean, I mean, you know, in some ways it sounds like, you know, I didn't get it done and I'm pulling all nighters, like at some point so that I can get it done. Right. So there's a whole staffing model. And how do you bring this to the attention of everybody so that they don't drop the ball? Right, because there's a million other things that might be coming at them at that moment.</p><p><strong>Rohit Nambisan: </strong>That's exactly right. Actually, one thing I'll add to that, given you mentioned the staffing model around it, is that we were born within small biotech. Right. And small biotech is very resource-constrained in its ability to manage and oversee a study. That's fairly well known. So our approach has always been what I'd like to call machine-assisted human intelligence. We have experts that are human experts that know the space, but they need to be augmented. They need to be able to look at more complex streams of information and have a machine pick out particular salient insights, salient information, and provide that to them so they can process it, reducing degrees of freedom for them to process it.</p><p><strong>Harry Glorikian: </strong>So just I mean, there are a lot of statistical tools out there now that that for managing risks in clinical trials. So how is the approach that you guys are taking either different or better or both.</p><p><strong>Rohit Nambisan: </strong>It's a good question. One way we've been able to address this question is that statistical approaches generally require certain amounts of data points to be collected before you can warrant using statistical parameters or assumptions, etc. And so there's two things at play here. On top of that, I just mentioned, we're moving into more specialized therapeutic areas, right? So patients per study are smaller, right. And on top of that, when you're starting out a study which is usually the riskiest points in the study, when you're early in the study to mid-stage in a study, you cross them with the fact that you have less patients and there are more niche studies, it's hard to find those patients. Now, your early phase, your riskiest phase, is going to be extended as compared to when you were developing against blockbuster indications. So for a long time in the study, you can't really reliably use statistical parameters to identify an outlier or identify something as aberrant. And then you need to focus on so the way we've done it, we've done it in a slightly different way. There's two approaches. One is we've actually developed a pretty complex risk score system that's based on a set of very different metrics. Think of it as like an array of different KPIs, right? Those KPIs will affect risk differently depending on the type of study you're in. And they'll have different weights to those risks of time, cost and quality depending on the study you're in. So we look at the given study, we're going to deploy and we say, okay, what are the features that characterize the study? Let's look in our historical repository against those same features, pull similar, we call look alike studies and we'll understand how to set those weightings to say protocol deviations at this point in the study are going to impact the overall quality of time. That's much more for this type of study. So we can basically, for lack of a better term, I guess the simplistic way of saying is we can augment the data that we have coming in from a study, which is small at the outset of the study, with lookalike data to increase the power. Right? So that's another way to look at this. So we can actually, we have much better power to be able to detect these issues earlier on and reliably confer that to clinical operators and clinical developers who can do something about it.</p><p><strong>Harry Glorikian: </strong>It would be nice if you had enough data at some point to almost run the whole trial <i>in silico,</i> in a sense. But I think we need a lot more data get there. But, just for everybody that's listening, sort of as a philosophical point, the reason we put drugs through clinical trials in humans is we simply don't know whether they'll work or what the unexpected side effect they might have once you start them on a much larger population. So in that sense, it's expected, even normal for some drugs, maybe even a lot of drugs, to fail at some point in phase one, phase two or phase three. And as an investor, you know, you don't want it to fail in phase three. You want it to fail early. So is Lokavant's goal to reduce the failures or simply help drug developers get to yes or no faster, safer, more cheaply?</p><p><strong>Rohit Nambisan: </strong>Yeah. So our approach has been initially get yes or no faster, safer, more cheaply, more efficiently, right. As part of that process and actually related to some of the work we have done in the last few months on monitoring scientific risk. Right. You have to be careful about these efficacy analyses because they can unblind the study, especially when you have single or double blind blinded studies. So you have to be careful about this point. But in some circumstances we can actually leverage our analysis on blinded endpoint analysis and understand how particular endpoints are collaborating or not collaborating or trending, to understand if there is any effect whatsoever that's being generated in the study. So this is early days for us. But to your to your point about the first use case, we are starting to think about that as an opportunity as well, because we found a way to effectively blind the information and still assess the information content to understand if there is any form of efficacy signal being produced. So I think that that is a really valuable way for us to approach the market in the near future. I think the other point here is that if you are cleaning the data, if you are identifying those data quality issues on a more real time basis, you should be able to reduce the time to do an interim analysis. Right. We should be able to -- you mentioned fail fast. Right. Failing fast requires you to also assess the data, to understand if there's an efficacy signal, there's a safety issue. And if we have these long cycle times before we can actually do an interim analysis. And much of the data indicates that those long cycle times are due to not knowing where the issues are and finding those issues then cleansing them. If we can do that faster, we should be able to do interim analysis much more frequently. Therefore, being able to generate a fail fast scenario.</p><p><strong>Harry Glorikian: </strong>You could almost, you should be able to set up the system to almost be running it and sort of move the bar on where it is on, “Looks successful,” or “It's moving down towards failure.” There's got to be some sort of almost real-time indicator as data is coming in to. You just don't want humans to jump the gun on that. The interesting thing is, I was looking at one of the blogs you have and you sort of say that one of the main reasons clinical trials are so costly and inefficient is bad data management and a lack of interoperability across data repositories. And, you know, it's funny because anybody who listens to this show knows that just comes up over. And it doesn't matter who you are in health care. It is a recurrent theme that for some reason people are not willing to step up and solve. I mean, it has to be a party like yours that comes in and helps clean it up from the outside as opposed to it being cleaned from the inside the way that you would ideally like it to be.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> So on this show we talk about, you know, how does analytics play into this? So, how do—and I've got to start finding new words—but AI and ML come into this picture. What types of tools in the AI toolbox is Lokavant using? What special powers does AI give you to extract predictions from your data set that other people don't?</p><p><strong>Rohit Nambisan: </strong>Yeah, I think I think the first piece is, and it's going to sound interesting in relation to what folks usually talk about in terms of AI and ML, but it's a harmonized data model, right? When I was working as a data scientist a number of years back, nobody told me all the work that you have to do with data governance and data harmonization. And then when you think about fast forward today where a lot of the actual models themselves are function calls, right? You realize that a lot of the work is actually making sure that data is ready to be analyzed for this particular use case. Right. So it's not to say that we don't do a number of different, try different approaches to gradient boosted descent or support vector machines or neural nets, which is actually my background in terms of grad school and research. But we spend a lot of time thinking through how we need to harmonize, create validated data pipelines to harmonize data for use. In this case. And even in that case, a lot of the work we do is a kind of intelligence or artificial intelligence. So when we're harmonizing the data, we're looking for views on leveraging multivariate clustering algorithms to actually figure out which particular types of data attributes should be mapped to one particular field.</p><p><strong>Rohit Nambisan: </strong>So it's not to say that the data harmonization is devoid of intelligent approaches, it is full of intelligent approaches, but it is an absolute necessity to have the integrity of the data that you need to run those sophisticated front end models, which we run a ton of. But I just I want to call attention to the fact that that is a core asset for Lokavant from the get-go, that Lokavant's canonical data model and the processes we use to harmonize data to get it into that state has been a core focus because if you can do that—and that is the same model you're providing to your data science and analytics teams, your product development teams—then you really have that flywheel that you can generate a number of different analyses. For example, I just mentioned that predictive enrollment forecast model that comes off of in our our Lokavant canonical data model. That is something that is a predictive model, leveraging historical data and ongoing study data in an automated model that indexes towards the historical data early in the trial, indexes towards prediction indexes towards ongoing study data as it comes in. And we have more confidence that input over the trial, that's like an emergent benefit of having the harmonized data harmonize.</p><p><strong>Harry Glorikian: </strong>So, you know, one has to ask in the age of the coronavirus, right, how has the business of running clinical trials changed since the pandemic? I mean. And how do you guys...is that an advantage or disadvantage? I'm trying to, you know, place where you guys are in the whole realm of how things have hopefully changed for the better.</p><p><strong>Rohit Nambisan: </strong>Yeah, it's been quite a tailwind for us actually. And I would say that, number one, it's been it's been beneficial to us because there's just been a lot more scrutiny and interest in clinical research. Not to say there wasn't before, especially for niche therapeutic areas, but and the fact that we were able to develop and get novel COVID vaccines out pretty rapidly. But there was also a lot of challenges along the way in getting to that point. And also delays and trials and challenges in therapeutics development to address COVID as well. So there's just been a lot of scrutiny in the last 24 to 30 months on how efficient and how fast and how effective clinical research can be. So just that alone has been beneficial. Now let's take the next step there and say that all associated with the pandemic, there's been a great impact to clinical trials across the board, not just COVID trials or therapeutic trials. Patients, participants couldn't get to sites for site data collection, right. Site staff couldn't get in there, too, for data entry or site management or site oversight activities. Right. So in general, it's been a huge boon to those technology groups that have developed, decentralized or direct-to-patient data capture methodologies, thereby lowering the patient burden and the site burden for clinical trials to continue in a pandemic fueled environment. What's interesting about that as well, when we think about ourselves as both a data type agnostic platform for clinical research as well as an analytics engine, a platform on top of that, you see this huge movement to another type of data, another data, for example, decentralized trial data as another data source.</p><p><strong>Rohit Nambisan: </strong>And what we've seen also is that while there's been a shift to a lot of decentralized trial collection on most studies, at least 90 percent of studies and above, they're hybrid, they're not fully decentralized. So you have to have some site data collection and you have some decentralized data collection. And that makes sense for those things that may make the most sense to lower patient and site burden to administer. Let the patient let the participant be at home. For those that require like biopsies, etc., that require a participant oftentimes to come into the site, let that be the site. The challenge there is now you have these two different complex data streams that are not necessarily harmonized and aggregated. So this is, again, I think that's been an area where we've been able to come in and say we'll just as a matter of course, you're doing business, this is another data set to us. We need to bring these two in and we have to also enable comparative analysis against decentralized and traditional site based data collection, because otherwise you're going to miss insights. You're going to miss information that are critical to your study.</p><p><strong>Harry Glorikian: </strong>Yeah, a part of me was just thinking, you know, you guys should buy somebody, like Unlearn AI and go at it together where you can have, you know virtualized patients that you can put into the trial, but that's… we won't go there. So let's step back for though, for a second. So let's talk about the company’s origin story. Lokavant is one of many companies launch by Roivant, as you mentioned earlier. A Lot of the companies end up with the word “vant.” So can you explain so that people understand: What is Roivant, how it operates, what are vants and and why was Lokavant born. And how did you become president and CEO?</p><p><strong>Rohit Nambisan: </strong>Sure. So Roivant started about seven years ago. And I should mention Roivant is our parent company. We were founded out of Roivant and spun out as a technology company itself. So Roivant initially started as a company that launched "vants" -- nimble, entrepreneurial biotech companies and now health tech companies as well. When I joined Roivant three and a half years ago, Roivant had about 15 different biotech companies. And what was really interesting about their approach is it was therapy agnostic, so it was not that there was a strategic focus or oncology or strategic focus on immunology. There was a focus around identifying compounds that may have been deprioritized in larger pharma companies, which says pharma companies that had a lot of potential and had could address critically unmet clinical needs. And so Roivant would in-license those therapies and start a therapy therapeutically oriented vant. So at the time Axavant it was the new neurological oriented, neurological disease oriented vant. Myovant was the human reproductive oriented, disease oriented vant. Et Cetera. And so now when you think about somebody like myself who comes from the tech world and life sciences, health care technology world, brought into Roivant three and a half years ago, the premise behind Roivant at the time was we can more efficiently develop these therapeutics and have more favorable outcomes leveraging innovative ways of addressing human talent as well as technology. And that latter piece is where obviously I came in and we were starting to look at in my team what are some of the most significant challenges and frequent challenges amongst the vants themselves in running these clinical trials? And then does that map against some of the more significant frequent challenges we see outside in the market? And not surprisingly, there were quite a few particular areas of resonance.</p><p><strong>Rohit Nambisan: </strong>At that point in time, they're about 54, 45 programs being run by Roivant. And so it was across a variety of therapeutic areas. And I guess the thing that hit us in the face primarily was I guess the best way I could say it is you can order a pizza, right? You can understand what is it, a $25 investment, $20 investment. Maybe it's gone up since then, since I ordered a pizza. But the point is that you can understand what time it was ordered, when it was when they said they were going to deliver it to you, and you can track it. And most of these apps now [show it] along its destination to a chain of custody to get to you. We were we could spend $3 to $50 million on any given trial and we were at struggling with our partners to actually identify what is the current state of enrollment in the last week? What is the current state of discontinuation? Where are we at with our with these particular sites in this region? Why are we seeing high screen failure rates, etc.? Right. That's egregious to me. That's just that should not be the case.</p><p><strong>Rohit Nambisan: </strong>We are fairly frustrated with that. And then even when we when even at Roivant or even in my former experiences at Novartis or other pharma, when we brought in a source system to say, okay, well, we're going to have a representation of data ourselves, right? So that we can understand what's going on. Invariably what happened is you would have one source system here and then a duplicate version of that sort of system at the CRO or another vendor that's working with you. You spent your entire time trying to figure out which was the source of truth, because they're spending all your time doing data reconciliation, saying, is that really accurate? Is that really the signal? So that didn't work either. So we felt pretty frustrated about this. We initially tried not to build it ourselves. We worked with a few different collaborators outside of Roivant and tech vendors, etc., and we were fairly frustrated with what we came back with there. So at that point we started thinking, if we can't buy it, we need to take a lead user innovation approach to address this. So we started out with the data platform, as I mentioned to you, and we built that capability to connect, ingest and map from any source, deliver that within a canonical data model, one single canonical data model. And then initially we did a bunch of bespoke analysis on top of that for a few different biotech vants. </p><p><strong>Rohit Nambisan: </strong>That went really well. Some of the external collaborators looked to Roivant at that point we said we'd like to work with this technology outside of the Roivant family, and we realized we were on to something, and we externally launched the company in January of 2020, which was very interesting time and year to launch a company. That being said, we spent the first, I'd say, just under two years, really focused on externally subsidized R&D phase. We're pretty fortunate to have some partners that invested in us in that phase, and we focused on first one particular application in response and we talked a lot about risk. But then we also realized that the needs across different companies, different vendors, etc. for managing clinical trials are very varied. So we realized what we need to really build as generalized on that first application we built and create a highly configurable analytics platform on top of this data platform so that we could actually analyze many different things and configure it for use for any particular customer. And so now we built across, I'd say seven or six or seven different use cases now, and we've deployed most of them and we're continuing to aggregate information in a true product sense where the biggest pain points in the market and how do we build or configure a version of the platform and the platform to address that. And at the same time, we're delivering on global trials with a number of pharma studies as well as on the side of the vendors working through them to deploy on studies as well.</p><p><strong>Harry Glorikian: </strong>So in a perfect world, right, if you had access to all the relevant data, if every drug developer in the world was taking advantage of your services, how would it change the business of clinical trials? What would the outcomes look like? Would it be like you get more drugs approved every year, at a lower cost, fewer disaster failures, I mean. What changes for the industry and for patients?</p><p><strong>Rohit Nambisan: </strong>Yeah. I think the first piece is you would reduce—and this is a lofty question so I'm going to answer with a lofty response—the first thing to note is that, and we touched on this earlier, I think you'd see fewer bigger failures in the analytics phase. You'd be able to identify earlier on, both in terms of the lifecycle of a compound, right? So from phase one to phase three or even phase four, but especially within the study itself, you'd be able to identify that there would be an issue in the study earlier on and you could kill it early on. So that's one one aspect I think would be that's important to note. The other thing I think you would identify is less operational issues. So I think one in six trials across the globe failed just because of operational issues. And when I mean operational issues, I mean the protocol and the plans at the outset of a study say need to administer the study following these steps. And when those steps are not followed, there's compliance risk. And therefore, when there's enough compliance rates to throw out the data or you have to not submit the study.</p><p><strong>Rohit Nambisan: </strong>And so one in six is, it's not that small. And so if we're tracking, if we're more rigorously tracking both what is happening and what could happen, right, based on the indication, leading indicators of risk across time, cost and quality, we should basically never see -- that's a that's one of our major goals -- never see a trial fail just because of an operational reason. Not to mention, how can you go to the patients with unmet clinical needs in a particular indication in particular disease and say, “Oh, I'm sorry, while the drug probably was effective, we just couldn't get it out into the market this time. And it's going to take us another trial, potentially.” A lot of times folks don't actually resurrect the failed study, a failed therapy. So even if they resurrected it and said it was because of an operational issue, “Oh, you've got to wait another six years.” That's just not acceptable. So I think those are the two components that come top of mind. And I think early in our in our tenure, our mission was no trial should fail due to operational error.</p><p><strong>Harry Glorikian: </strong>What is the path to financial success for a company like Lokavant? Is it to just keep growing? To go public? To get acquired by a maybe by a big pharma. What's the path?</p><p><strong>Rohit Nambisan: </strong>It's a good question. I think folks that that know exactly what their exit strategy are probably, for lack of a better term, often deluded. But I will say that we've seen a lot of growth. Not only during, there's been a lot of interest in Lokavant during the pandemic, I mentioned we were in this externally subsidized R&D phase, we were actively trying not to do too much externally. We wanted to figure out how to set up the platform for success. Coming out of that phase, in the last six months, we've seen an incredible amount of traction externally. And so I think we are still in the path of doing it on a growth trajectory ourselves. What does that mean in terms of opportunities to collaborate both commercially and partner and strategically? Well, it means that we can only do as much as we can, even if we continue to grow. There's data out in the market and partners that have access to that data that we would love to collaborate with. If that means that we need to be more strategic in our approach to what Lokavant can do or how to structure Lokavant, we'll do that just because we need to actually achieve our mission, which is to have no trials fail due to operate operational error. Right. And so I think that requires more data. That requires more data science. We have a lean, very, very proficient data science team. So I think there will be opportunities for strategic collaboration, but it's all related to the mission of bringing this clinical trial intelligence platform to address operational and other risks in a study as effectively as possible.</p><p><strong>Harry Glorikian: </strong>You know, one of the things that crosses my mind is you could also use this from an investing perspective to analyze a trial that's going through its paces against historical information and determine, give it a weighting of probability of success versus failure from an investment perspective, that that seems attractive to me.</p><p><strong>Rohit Nambisan: </strong>Yeah. So that's an interesting point to bring up. There are folks now asking us in the market about what we've been informed firmly in trial execution stage. Folks are asking us to move into feasibility and effectively feasibility. Is that the planning of the study? Tell me with this particular configuration of sites, countries and for this indication, knowing the standard of care in different countries, knowing the approach to clinical care, not just clinical research, how successful would this study be? Right. And obviously, the success of a study, when you think about biotech, the success of a study is the success of the company. When you think when you go up the market, depending on the study, it can still have incredible impacts, the success of the company. So there is definitely an afferent towards the investing world and financial. I think at first we probably take a progressive step towards that by moving into trial planning analytics in this manner and then validating our approach against progress in space and seeing how we can continue to grow in that sector.</p><p><strong>Harry Glorikian: </strong>Well, Rohit, it was great having you on the show. I hope everybody enjoyed our discussion. You know, a lot of problems to solve in this industry. So there's there's no lack of opportunity from, you know, businesses that need to get started and the data that needs to be optimized to help move the process forward. But, you know, luckily, everybody I talk to on the show, that's the direction we're all moving. So hopefully we'll get there faster, because I'm not getting any younger. So, so good drugs are going to be needed at some point. So good to have you here. And I can't wish you and the team at Lokavant, you know, more success.</p><p><strong>Rohit Nambisan: </strong>Thanks, Harry, for having me on the show. It was wonderful to be here.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 24 May 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest this week is Rohit Nambisan, CEO of Lokavant, a company that helps drug developers get a better picture of how their clinical trials are progressing. He explains the need for the company's services with an interesting analogy: these days, Nambisan points out, you can use an app like GrubHub to order a pizza for $20 or $25, and the app will give you a real-time, minute by minute accounting of where the pizza is and when it’s going to arrive at your door. But f you’re a pharmaceutical company running a clinical trial for a new drug, you can spend anywhere from $3 million to $300 million—and still have absolutely no idea when the trial will finish or whether your drug will turn out to be effective. Because there's little infrastructure for analyzing clinical trial data in midstream or spotting trouble before it arrives, some studies continue long after they should have been canceled, and positive data sometimes gets thrown out because of minor procedural flaws; in the end, 20 to 30 percent of the money drug makers spend on clinical trials goes down the drain, Nambisan says. Lokavant's platform allows drug makers and clinical research organizations to harmonize the results coming in from study sites, compare it to data from other trials, and discover important signals in the data before it’s too late. For example, a company might discover that it’s not enrolling patients fast enough to complete a trial on schedule, or that the researchers administering the study aren’t following the exact protocols laid out in advance. Such headaches might sound abstract and remote, but poor data management slows down the whole drug development process, which means fewer beneficial new drugs make it to market ever year; that's the ultimate problem Lokavant is trying to fix.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>My guest Rohit Nimbasan comes from the worlds of biotech and data science. </p><p>And during our interview he made an interesting point.</p><p>These days you can use an app like GrubHub to order a pizza for twenty or twenty-five bucks, and the app will give you a real-time, minute by minute accounting of where the pizza is and when it’s going to arrive at your door.</p><p>But Nimbasan points out that if you’re a pharmaceutical company running a clinical trial for a new drug, you can spend anywhere from $3 million to $300 million and still have absolutely no idea when the trial will finish or whether your drug will turn out to be effective.</p><p>The problem is, there’s just no infrastructure for analyzing clinical trial data in midstream or spotting trouble before it arrives.</p><p>As a result, according to Nimbasan, twenty to thirty percent of the money drug makers spend on clinical trials goes down the drain, because of studies that continue long after they should have been canceled, or good data that gets thrown out because of some minor procedural flaw.</p><p>Nimbasan is the CEO of a company called Lokavant that wants to change all that.</p><p>The company is building a data platform that allows drug makers and clinical research organizations to harmonize the results coming in from study sites, compare it to data from other trials, and discover important signals in the data before it’s too late.</p><p>For example, a company might discover that it’s not enrolling patients fast enough to complete a trial on schedule, or that the researchers administering the study aren’t following the exact protocols laid out in advance.</p><p>All of those problems can increase the cost of a trial.<br />They can even lead regulators to deny approval for a drug that might have proved effective if it had been property tested.</p><p>For an average healthcare consumer, these kinds of headaches might sound abstract and remote, like something only clinical trial managers would ever have to worry about. </p><p>But the fact is poor data management slows down the whole drug development process, which means fewer beneficial new drugs make it to market ever year.</p><p>So I think we should all be cheering companies like Lokavant who are trying to fix the process.</p><p>Here’s my full interview with Rohit.</p><p><strong>Harry Glorikian: </strong>Rohit, welcome to the show.</p><p><strong>Rohit Nambisan: </strong>Thanks, Harry, for having me.</p><p><strong>Harry Glorikian: </strong>You know, you and I sort of talk off and on all the time about the space and what's going on, but, you know, having it on the show, I have to step back and sort of forget everything I know about the company and start from scratch. So, you know, can you explain to people Lokavant's business in a way that would make sense to someone, say, outside of the pharmaceutical industry. In other words, you know, what are the big problems you're solving for organizations that, say, are running a clinical trial, and how are you solving them?</p><p><strong>Rohit Nambisan: </strong>Sure, I can do that. I think it bears noting that we should probably step back a little bit and talk about the industry as a whole and where it's been going, and then I can clarify where Lokavant comes in. So I think as many folks know and for those who don't, I'll fill in the blanks. I know you know this area, but in the last, I'd say 15 to 20 years, we've been moving in pharmaceutical development away from blockbuster medications, things like diabetes type 2. Right, developing therapies for that and getting each drug developer trying to find a smaller piece of market and larger pie to specialized, niche therapeutic indications. Right. So the way I could probably better started with the diabetes example is it's no longer diabetes type 2. It's let's develop the compounds or therapies for diabetes type 2 patients that are comorbid with that have also chronic kidney disease and are metformin naive, meaning they haven't taken a particular therapy known as metformin. Right. So it's a more complex filter criteria, so to speak. Right. And so what happens when the industry moves in that that direction is that when you get into these very niche therapeutic areas, you need to collect particular niche, commensurately niche types of data to validate your hypothesis whether or not this therapy is safe and efficacious through clinical trials. Right. </p><p><strong>Rohit Nambisan: </strong>And in doing that, you now increased the complexity of the trial greatly, not only in terms of the different types of data collecting, but the amount of different types of data you're collecting. So now each trial becomes a lot more specialized. Not just specialized therapeutics, but each trial becomes more specialized. Right? And so for that reason, we've seen a big challenge as we as we moved across that space. And actually, it's been really beneficial for patients because now we're going after, as an industry, we're going after really niche unmet clinical needs that previously there were no therapies for or being developed for. So it's a really good thing for a patient perspective, but from the perspective of development, it makes it that much harder. Not only is there a smaller market opportunity, there's less patients to treat, right, but the complexity, the actual costs of the trial and the complexity of trial has gotten exponentially that much greater. So what Lokavant came out of was we were actually a, shall we say, an internal initiative within Roivant Sciences, which is a company that launches a number of different biotechnology companies and tech companies as well. But better known for biotechnology companies. And we saw a great need to be able to develop therapies for niche indications much faster, much more efficient, much more cost effectively, and also meet the complexities of that trial better through novel data and tech.</p><p><strong>Rohit Nambisan: </strong>And so what Lokavant is essentially, is a data platform that allows drug developers, pharma, therapy developers, to be able to choose which data sources they need, data types they need for a trial. And we can ingest any of those data sources, we can analyze any of those data sources in a holistic manner and expose patterns or signals that could be beneficial or detrimental to the study on an ongoing basis. And when I say ongoing basis, I mean you're not waiting until the end of the study. And I guess the best way I can align this is just like my kids do sometimes. You're not waiting until the last day before your term paper is due, before the project's due to finish your work, you're actually assessing, doing bits of it along the way to assess where there may be challenges, which gives you, really, the time to correct issues to manage your trial better. And frankly, each one of these trials now, there are between, what, $2 million and $300 million we're investing in these single trials at this point. So it's egregious to me that we do not have the toolset to be able to even identify, pull in that data effectively on an ongoing basis to detect these signals so we can plan effectively to do something about it.</p><p><strong>Harry Glorikian: </strong>Anybody who's done a clinical trial knows that there's a lot of risk. Right. So, you know, can you talk about some of the types of risks you're trying to help make sure drug developers diminish, for the most part.</p><p><strong>Rohit Nambisan: </strong>Yeah. So I think the way we start with that is always at the highest level, time, cost and quality, right? So when we talk about time, it's really important to understand that you're going to be able to achieve less. For example, I'll give you a few instances. Target participant accrual, right? Obviously for you to run a trial effectively, you need to have particular types of participants or patients, if it's a sick population. In a vaccine population, they weren't necessarily sick. So that's why I use participants as the term. But you need to make sure that you have path to randomized screening and randomizing these patients for your trial in a given time period. Right. And if that's if your enrollment is is not on track for the countries and the sites you've decided to actually activate the study in, you could, your timeline for your study could be exceptionally extended. Right. So that's that's one type of one example of a thing we look at to understand how the timeline looking for the study. Another area on timeline for example and similarly is discontinuation. So you can you could enroll patients fine. But if you've high volumes of discontinuation of participants in your study, then what ends up happening is you actually don't have as many evaluable subjects in your study of some evaluable participants. So you have to recruit or enroll more subjects, right? So that could extend the timeline as well. One aspect of the timeline that really affects the overall market opportunity is oftentimes these therapies are only in under patient for a certain amount of time. So the faster you can get them to market, the faster you can get recoup your return on investment. But also on the patient side, the faster we can get these therapies out through the market to address unmet clinical needs. That's just one flavor.</p><p><strong>Rohit Nambisan: </strong>Then we have subsequent types of flavors. When we talk about data quality, making sure the data is actually collected in the way that you stated you wanted it to be collected in the plan and the protocol at the outset of the study, as well as cost implications. Right. So we look at cost implications as well, which is how, what will this, what will the extension of enrollment or bad data quality data do to the overall budget that you had planned for this study? But then when you drill down on the level further, you can get into risk categories, is something we look at quite a bit when we look at things like protocol, adherence, when you're when you're collecting this data, as I mentioned, it has to be done per a very prescriptive method that is specified a priori before starting the trial in a protocol. And if it's not collected in that manner, it can be discounted. So we are tracking the risk to protocol deviations and understanding trends and not only understanding trends within that study, but we're looking at similar types of studies in this particular therapy area, neurology or say, psychiatry or gastrointestinal type studies and saying, what has been the protocol adherence in studies like yours? And therefore, can we glean some insights about how you are doing in your study based on your comparators in the study as well? But that's just a small flavor. I could probably wax on for quite some time on this question.</p><p><strong>Harry Glorikian: </strong>Well, that that brings us to the question -- I mean, everything you just said, it brings to the question like, from what I know, the company sort of predicts how clinical trials will go by comparing it against a proprietary data set of, I think I was reading, 2000 past trials, right? So I guess the question becomes, so you're comparing one to the past of things that are similar, but you know, for everybody who's listening sort of, you know, where does that data come from in one sense, is it truly proprietary? I mean, that's what I'm you know, that's my set of questions at the moment.</p><p><strong>Rohit Nambisan: </strong>Sure. So I worked for a while, before coming to the life sciences, in the R&D space and the life sciences commercial space. And I think that data sets, are there are proprietary datasets in that space? Very much so. But there is a third party market for that data a little bit more. So then we find life sciences data. It's really hard to get access to R&D data and as you can imagine, that makes a lot of sense, right? If you're a drug developer or a pharmaceutical developer that successfully completed a trial, you never want to share that data. Thereafter, you spent millions of dollars investing in the study, if you want. If there are potentially unknown issues that you haven't identified, would you want to put that at risk? If you are similarly, if you are a therapeutics developer that didn't meet your endpoints, do you want that information to get out and maybe potentially things that issues that that you should have should not overlook, right, getting out in public, etc.? There's just a lot of business risk. There's also IP risk, right? There's a number of different risks associated with getting that data out. So it's been not a very straightforward journey to aggregate data in life sciences, R&D. That being said, I think how we approached this was we've developed models that are both used for benchmarking, as I mentioned before, comparing against similar trials for particular performance KPIs, so to speak, as well as predictive model generation and machine learning models that require a fair amount of data to train on to actually deliver value.</p><p><strong>Rohit Nambisan: </strong>And in that model, we've talked to a lot of our partners or let's say folks that leads them before their partners. And we talk to them. We say we have a growing dataset. There's precedent for this because we've done this with other partners, number one. Number two, we've worked with them to leverage their data combined with our data, write their enterprise data with our data, because it's a common, it's not just one entity's data that's going to provide that value. Your performance, your processes, the way you run trials is inherent in your data. And if we don't leverage that data to train our model to retrain some parts of our models against, we're not providing you the most value we could be with our predictive models or benchmarking. So with that approach, we've been able to do comparative analysis of our data set versus other people's datasets and then anonymize their data upon having a partnership with them to grow our data assets in a very risk-tolerant manner. Right. All the information about CROs or sponsors or other entities, people running trials is removed from the data and we only leverage that data for the purposes of analytics or generating a benchmark. So none of that data is ever shared. So through that process, over the last, I'd say two years, maybe a little two years and change since we started, we've been able to continuously grow this asset and provide greater and greater value with our descriptive diagnostic predictive analytics as well as our benchmarking.</p><p><strong>Harry Glorikian: </strong>How much money, if you had to guess just to give people like an idea, how much money do you think gets poured down the drain preventably every year, and you could save all this money if you just ran smarter, if you did smarter clinical trial management, if I had to frame it that way.</p><p><strong>Rohit Nambisan: </strong>Oh, at least I would say we've done some back calculations on this and happy to digress into the details of them if warranted, but at least somewhere between 20 to 30 percent of the trial costs right now and depending on the phase and depending on the therapeutic area, again, that could be anywhere from 20 to 30 percent of $3 million to $300 million per study.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean it's you know, that's got to be, I don't know how many billions that is. I can't I don't know exactly how much is being spent annually off the top of my head.</p><p><strong>Rohit Nambisan: </strong>We believe we've done some back of the envelope calculations to show that it is in the billions for sure. Across the across the global pharmaceutical market, we're looking just just the value proposition and the signal detection we're bringing to bear is somewhere around $18 to $20 billion, in terms of market opportunity.</p><p><strong>Harry Glorikian: </strong>I mean, how would you guys run or help a team run a clinical trial in practice? Can you sort of give me a real-world example, maybe de-identified, where you helped the client avoid or mitigate some kind of risk, whether it has to do with patient enrollment or site compliance or safety issues during a trial, any one of those will do.</p><p><strong>Rohit Nambisan: </strong>Sure. So I think one example that I can bring to bear is working with a large CRO. And with this large CRO, they had a sizable data asset that was not harmonized, so to speak. It was still living in the transactional exports from the source data systems or CSPs. Et cetera. All around. So it was they had a bunch of different hypotheses about where they were proficient, where they were deficient, but nothing validated. So we spent some time with them trying to understand what all their data assets looked like. And we started collecting these different representations of former trials and ongoing trials, and we collected them and we harmonized them. In fact, as I mentioned before, one of our major differentiators is this is creation of a single source of truth. And we take that upon ourselves, too. It's not like a service, it's part of our offering, right? Our platform offering. And so what we did was we brought that data together and we it was about, I think 400 to 500 studies worth of data at that point. We harmonized it into what we call our local and canonical data format, which is a single representation for multiple different domains of data, scientific data, operational data, enrollment data, etc. And then we compared that against similar studies in our repository, our growing repository, and said, okay, we can tell you comparatively that you are deficient in these particular areas and you're very proficient at the various--for example, in this case they were very proficient in achieving first patient in on the timeline that they expected to actually, scratch that, that they were very they were very proficient in actually accruing the subjects by last patient in in the time they were expected to write so they could hit their accrual when they wanted to.</p><p><strong>Rohit Nambisan: </strong>But when we looked deeper into the data and looked at across like first patient in, the 50 percent enrollment mark for the study and then last patient in for the study, we were able to identify that there was actually a slowdown and a major overcorrection to make up for that. So they were actually hitting what they needed to hit. But as we all probably know, at least in the clinical research phase and any or any budgeting process, being over your budgeting process is bad. Being under your budgeting process is bad, right? So in this case, it's again the same. They were burning resource and cash and resources to rapidly overcorrect for for a milestone they were not hitting reliably earlier in their studies. And so we realized in that accrual situation we said, okay, what you need is, we've identified an error, you're potentially deficient. What you need is an enrollment forecasting application that brings in the data in real time from your study. Right. And it also combines historical data from our repository in your historical data to seed some prior knowledge about the study. So and it's automated, fully automated. So every day you can understand where you are in relation to where you need to be. Right? And it's not a naive straight line kind of curve. It's basically it's based on looking at thousands of historical studies in this space and understanding what the curvature of the actual model should look like.</p><p><strong>Rohit Nambisan: </strong>So we generated that and we were able to actually, in the proof of concept, and this is just one particular example of an application we've been able to generate from our clinical trial intelligence platform, we generated that and we were able to, on a study, predict two years out within one month when they would actually really hit the accrual and it was within one month accurate. Now while that was valuable in terms of understanding at the end state, what really the value was of this closed loop model, so to speak, right, is that it is closed loop. It allows them in silica to say, what happens if I open some sites here? What happens if I close some sites? So what happens if I close this country here? How will that affect my plan before I put that into action in the real world, which oftentimes is very, very, first of all, it's very risky. But second of all, it can yield a number of unknown consequences if you don't try it before <i>in silico</i>. So I think the approach here was we were able to not only predict these things better and also predict the impact of change orders on the study, that might actually affect the timeline of the study. But we were able to actually provide them an application, an interface by which they could test it all their hypotheses in a virtualized manner before they implemented them. And we're growing like crazy with that, with that partner right now at that point.</p><p><strong>Harry Glorikian: </strong>Yeah. And I mean, I mean, you know, in some ways it sounds like, you know, I didn't get it done and I'm pulling all nighters, like at some point so that I can get it done. Right. So there's a whole staffing model. And how do you bring this to the attention of everybody so that they don't drop the ball? Right, because there's a million other things that might be coming at them at that moment.</p><p><strong>Rohit Nambisan: </strong>That's exactly right. Actually, one thing I'll add to that, given you mentioned the staffing model around it, is that we were born within small biotech. Right. And small biotech is very resource-constrained in its ability to manage and oversee a study. That's fairly well known. So our approach has always been what I'd like to call machine-assisted human intelligence. We have experts that are human experts that know the space, but they need to be augmented. They need to be able to look at more complex streams of information and have a machine pick out particular salient insights, salient information, and provide that to them so they can process it, reducing degrees of freedom for them to process it.</p><p><strong>Harry Glorikian: </strong>So just I mean, there are a lot of statistical tools out there now that that for managing risks in clinical trials. So how is the approach that you guys are taking either different or better or both.</p><p><strong>Rohit Nambisan: </strong>It's a good question. One way we've been able to address this question is that statistical approaches generally require certain amounts of data points to be collected before you can warrant using statistical parameters or assumptions, etc. And so there's two things at play here. On top of that, I just mentioned, we're moving into more specialized therapeutic areas, right? So patients per study are smaller, right. And on top of that, when you're starting out a study which is usually the riskiest points in the study, when you're early in the study to mid-stage in a study, you cross them with the fact that you have less patients and there are more niche studies, it's hard to find those patients. Now, your early phase, your riskiest phase, is going to be extended as compared to when you were developing against blockbuster indications. So for a long time in the study, you can't really reliably use statistical parameters to identify an outlier or identify something as aberrant. And then you need to focus on so the way we've done it, we've done it in a slightly different way. There's two approaches. One is we've actually developed a pretty complex risk score system that's based on a set of very different metrics. Think of it as like an array of different KPIs, right? Those KPIs will affect risk differently depending on the type of study you're in. And they'll have different weights to those risks of time, cost and quality depending on the study you're in. So we look at the given study, we're going to deploy and we say, okay, what are the features that characterize the study? Let's look in our historical repository against those same features, pull similar, we call look alike studies and we'll understand how to set those weightings to say protocol deviations at this point in the study are going to impact the overall quality of time. That's much more for this type of study. So we can basically, for lack of a better term, I guess the simplistic way of saying is we can augment the data that we have coming in from a study, which is small at the outset of the study, with lookalike data to increase the power. Right? So that's another way to look at this. So we can actually, we have much better power to be able to detect these issues earlier on and reliably confer that to clinical operators and clinical developers who can do something about it.</p><p><strong>Harry Glorikian: </strong>It would be nice if you had enough data at some point to almost run the whole trial <i>in silico,</i> in a sense. But I think we need a lot more data get there. But, just for everybody that's listening, sort of as a philosophical point, the reason we put drugs through clinical trials in humans is we simply don't know whether they'll work or what the unexpected side effect they might have once you start them on a much larger population. So in that sense, it's expected, even normal for some drugs, maybe even a lot of drugs, to fail at some point in phase one, phase two or phase three. And as an investor, you know, you don't want it to fail in phase three. You want it to fail early. So is Lokavant's goal to reduce the failures or simply help drug developers get to yes or no faster, safer, more cheaply?</p><p><strong>Rohit Nambisan: </strong>Yeah. So our approach has been initially get yes or no faster, safer, more cheaply, more efficiently, right. As part of that process and actually related to some of the work we have done in the last few months on monitoring scientific risk. Right. You have to be careful about these efficacy analyses because they can unblind the study, especially when you have single or double blind blinded studies. So you have to be careful about this point. But in some circumstances we can actually leverage our analysis on blinded endpoint analysis and understand how particular endpoints are collaborating or not collaborating or trending, to understand if there is any effect whatsoever that's being generated in the study. So this is early days for us. But to your to your point about the first use case, we are starting to think about that as an opportunity as well, because we found a way to effectively blind the information and still assess the information content to understand if there is any form of efficacy signal being produced. So I think that that is a really valuable way for us to approach the market in the near future. I think the other point here is that if you are cleaning the data, if you are identifying those data quality issues on a more real time basis, you should be able to reduce the time to do an interim analysis. Right. We should be able to -- you mentioned fail fast. Right. Failing fast requires you to also assess the data, to understand if there's an efficacy signal, there's a safety issue. And if we have these long cycle times before we can actually do an interim analysis. And much of the data indicates that those long cycle times are due to not knowing where the issues are and finding those issues then cleansing them. If we can do that faster, we should be able to do interim analysis much more frequently. Therefore, being able to generate a fail fast scenario.</p><p><strong>Harry Glorikian: </strong>You could almost, you should be able to set up the system to almost be running it and sort of move the bar on where it is on, “Looks successful,” or “It's moving down towards failure.” There's got to be some sort of almost real-time indicator as data is coming in to. You just don't want humans to jump the gun on that. The interesting thing is, I was looking at one of the blogs you have and you sort of say that one of the main reasons clinical trials are so costly and inefficient is bad data management and a lack of interoperability across data repositories. And, you know, it's funny because anybody who listens to this show knows that just comes up over. And it doesn't matter who you are in health care. It is a recurrent theme that for some reason people are not willing to step up and solve. I mean, it has to be a party like yours that comes in and helps clean it up from the outside as opposed to it being cleaned from the inside the way that you would ideally like it to be.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> So on this show we talk about, you know, how does analytics play into this? So, how do—and I've got to start finding new words—but AI and ML come into this picture. What types of tools in the AI toolbox is Lokavant using? What special powers does AI give you to extract predictions from your data set that other people don't?</p><p><strong>Rohit Nambisan: </strong>Yeah, I think I think the first piece is, and it's going to sound interesting in relation to what folks usually talk about in terms of AI and ML, but it's a harmonized data model, right? When I was working as a data scientist a number of years back, nobody told me all the work that you have to do with data governance and data harmonization. And then when you think about fast forward today where a lot of the actual models themselves are function calls, right? You realize that a lot of the work is actually making sure that data is ready to be analyzed for this particular use case. Right. So it's not to say that we don't do a number of different, try different approaches to gradient boosted descent or support vector machines or neural nets, which is actually my background in terms of grad school and research. But we spend a lot of time thinking through how we need to harmonize, create validated data pipelines to harmonize data for use. In this case. And even in that case, a lot of the work we do is a kind of intelligence or artificial intelligence. So when we're harmonizing the data, we're looking for views on leveraging multivariate clustering algorithms to actually figure out which particular types of data attributes should be mapped to one particular field.</p><p><strong>Rohit Nambisan: </strong>So it's not to say that the data harmonization is devoid of intelligent approaches, it is full of intelligent approaches, but it is an absolute necessity to have the integrity of the data that you need to run those sophisticated front end models, which we run a ton of. But I just I want to call attention to the fact that that is a core asset for Lokavant from the get-go, that Lokavant's canonical data model and the processes we use to harmonize data to get it into that state has been a core focus because if you can do that—and that is the same model you're providing to your data science and analytics teams, your product development teams—then you really have that flywheel that you can generate a number of different analyses. For example, I just mentioned that predictive enrollment forecast model that comes off of in our our Lokavant canonical data model. That is something that is a predictive model, leveraging historical data and ongoing study data in an automated model that indexes towards the historical data early in the trial, indexes towards prediction indexes towards ongoing study data as it comes in. And we have more confidence that input over the trial, that's like an emergent benefit of having the harmonized data harmonize.</p><p><strong>Harry Glorikian: </strong>So, you know, one has to ask in the age of the coronavirus, right, how has the business of running clinical trials changed since the pandemic? I mean. And how do you guys...is that an advantage or disadvantage? I'm trying to, you know, place where you guys are in the whole realm of how things have hopefully changed for the better.</p><p><strong>Rohit Nambisan: </strong>Yeah, it's been quite a tailwind for us actually. And I would say that, number one, it's been it's been beneficial to us because there's just been a lot more scrutiny and interest in clinical research. Not to say there wasn't before, especially for niche therapeutic areas, but and the fact that we were able to develop and get novel COVID vaccines out pretty rapidly. But there was also a lot of challenges along the way in getting to that point. And also delays and trials and challenges in therapeutics development to address COVID as well. So there's just been a lot of scrutiny in the last 24 to 30 months on how efficient and how fast and how effective clinical research can be. So just that alone has been beneficial. Now let's take the next step there and say that all associated with the pandemic, there's been a great impact to clinical trials across the board, not just COVID trials or therapeutic trials. Patients, participants couldn't get to sites for site data collection, right. Site staff couldn't get in there, too, for data entry or site management or site oversight activities. Right. So in general, it's been a huge boon to those technology groups that have developed, decentralized or direct-to-patient data capture methodologies, thereby lowering the patient burden and the site burden for clinical trials to continue in a pandemic fueled environment. What's interesting about that as well, when we think about ourselves as both a data type agnostic platform for clinical research as well as an analytics engine, a platform on top of that, you see this huge movement to another type of data, another data, for example, decentralized trial data as another data source.</p><p><strong>Rohit Nambisan: </strong>And what we've seen also is that while there's been a shift to a lot of decentralized trial collection on most studies, at least 90 percent of studies and above, they're hybrid, they're not fully decentralized. So you have to have some site data collection and you have some decentralized data collection. And that makes sense for those things that may make the most sense to lower patient and site burden to administer. Let the patient let the participant be at home. For those that require like biopsies, etc., that require a participant oftentimes to come into the site, let that be the site. The challenge there is now you have these two different complex data streams that are not necessarily harmonized and aggregated. So this is, again, I think that's been an area where we've been able to come in and say we'll just as a matter of course, you're doing business, this is another data set to us. We need to bring these two in and we have to also enable comparative analysis against decentralized and traditional site based data collection, because otherwise you're going to miss insights. You're going to miss information that are critical to your study.</p><p><strong>Harry Glorikian: </strong>Yeah, a part of me was just thinking, you know, you guys should buy somebody, like Unlearn AI and go at it together where you can have, you know virtualized patients that you can put into the trial, but that's… we won't go there. So let's step back for though, for a second. So let's talk about the company’s origin story. Lokavant is one of many companies launch by Roivant, as you mentioned earlier. A Lot of the companies end up with the word “vant.” So can you explain so that people understand: What is Roivant, how it operates, what are vants and and why was Lokavant born. And how did you become president and CEO?</p><p><strong>Rohit Nambisan: </strong>Sure. So Roivant started about seven years ago. And I should mention Roivant is our parent company. We were founded out of Roivant and spun out as a technology company itself. So Roivant initially started as a company that launched "vants" -- nimble, entrepreneurial biotech companies and now health tech companies as well. When I joined Roivant three and a half years ago, Roivant had about 15 different biotech companies. And what was really interesting about their approach is it was therapy agnostic, so it was not that there was a strategic focus or oncology or strategic focus on immunology. There was a focus around identifying compounds that may have been deprioritized in larger pharma companies, which says pharma companies that had a lot of potential and had could address critically unmet clinical needs. And so Roivant would in-license those therapies and start a therapy therapeutically oriented vant. So at the time Axavant it was the new neurological oriented, neurological disease oriented vant. Myovant was the human reproductive oriented, disease oriented vant. Et Cetera. And so now when you think about somebody like myself who comes from the tech world and life sciences, health care technology world, brought into Roivant three and a half years ago, the premise behind Roivant at the time was we can more efficiently develop these therapeutics and have more favorable outcomes leveraging innovative ways of addressing human talent as well as technology. And that latter piece is where obviously I came in and we were starting to look at in my team what are some of the most significant challenges and frequent challenges amongst the vants themselves in running these clinical trials? And then does that map against some of the more significant frequent challenges we see outside in the market? And not surprisingly, there were quite a few particular areas of resonance.</p><p><strong>Rohit Nambisan: </strong>At that point in time, they're about 54, 45 programs being run by Roivant. And so it was across a variety of therapeutic areas. And I guess the thing that hit us in the face primarily was I guess the best way I could say it is you can order a pizza, right? You can understand what is it, a $25 investment, $20 investment. Maybe it's gone up since then, since I ordered a pizza. But the point is that you can understand what time it was ordered, when it was when they said they were going to deliver it to you, and you can track it. And most of these apps now [show it] along its destination to a chain of custody to get to you. We were we could spend $3 to $50 million on any given trial and we were at struggling with our partners to actually identify what is the current state of enrollment in the last week? What is the current state of discontinuation? Where are we at with our with these particular sites in this region? Why are we seeing high screen failure rates, etc.? Right. That's egregious to me. That's just that should not be the case.</p><p><strong>Rohit Nambisan: </strong>We are fairly frustrated with that. And then even when we when even at Roivant or even in my former experiences at Novartis or other pharma, when we brought in a source system to say, okay, well, we're going to have a representation of data ourselves, right? So that we can understand what's going on. Invariably what happened is you would have one source system here and then a duplicate version of that sort of system at the CRO or another vendor that's working with you. You spent your entire time trying to figure out which was the source of truth, because they're spending all your time doing data reconciliation, saying, is that really accurate? Is that really the signal? So that didn't work either. So we felt pretty frustrated about this. We initially tried not to build it ourselves. We worked with a few different collaborators outside of Roivant and tech vendors, etc., and we were fairly frustrated with what we came back with there. So at that point we started thinking, if we can't buy it, we need to take a lead user innovation approach to address this. So we started out with the data platform, as I mentioned to you, and we built that capability to connect, ingest and map from any source, deliver that within a canonical data model, one single canonical data model. And then initially we did a bunch of bespoke analysis on top of that for a few different biotech vants. </p><p><strong>Rohit Nambisan: </strong>That went really well. Some of the external collaborators looked to Roivant at that point we said we'd like to work with this technology outside of the Roivant family, and we realized we were on to something, and we externally launched the company in January of 2020, which was very interesting time and year to launch a company. That being said, we spent the first, I'd say, just under two years, really focused on externally subsidized R&D phase. We're pretty fortunate to have some partners that invested in us in that phase, and we focused on first one particular application in response and we talked a lot about risk. But then we also realized that the needs across different companies, different vendors, etc. for managing clinical trials are very varied. So we realized what we need to really build as generalized on that first application we built and create a highly configurable analytics platform on top of this data platform so that we could actually analyze many different things and configure it for use for any particular customer. And so now we built across, I'd say seven or six or seven different use cases now, and we've deployed most of them and we're continuing to aggregate information in a true product sense where the biggest pain points in the market and how do we build or configure a version of the platform and the platform to address that. And at the same time, we're delivering on global trials with a number of pharma studies as well as on the side of the vendors working through them to deploy on studies as well.</p><p><strong>Harry Glorikian: </strong>So in a perfect world, right, if you had access to all the relevant data, if every drug developer in the world was taking advantage of your services, how would it change the business of clinical trials? What would the outcomes look like? Would it be like you get more drugs approved every year, at a lower cost, fewer disaster failures, I mean. What changes for the industry and for patients?</p><p><strong>Rohit Nambisan: </strong>Yeah. I think the first piece is you would reduce—and this is a lofty question so I'm going to answer with a lofty response—the first thing to note is that, and we touched on this earlier, I think you'd see fewer bigger failures in the analytics phase. You'd be able to identify earlier on, both in terms of the lifecycle of a compound, right? So from phase one to phase three or even phase four, but especially within the study itself, you'd be able to identify that there would be an issue in the study earlier on and you could kill it early on. So that's one one aspect I think would be that's important to note. The other thing I think you would identify is less operational issues. So I think one in six trials across the globe failed just because of operational issues. And when I mean operational issues, I mean the protocol and the plans at the outset of a study say need to administer the study following these steps. And when those steps are not followed, there's compliance risk. And therefore, when there's enough compliance rates to throw out the data or you have to not submit the study.</p><p><strong>Rohit Nambisan: </strong>And so one in six is, it's not that small. And so if we're tracking, if we're more rigorously tracking both what is happening and what could happen, right, based on the indication, leading indicators of risk across time, cost and quality, we should basically never see -- that's a that's one of our major goals -- never see a trial fail just because of an operational reason. Not to mention, how can you go to the patients with unmet clinical needs in a particular indication in particular disease and say, “Oh, I'm sorry, while the drug probably was effective, we just couldn't get it out into the market this time. And it's going to take us another trial, potentially.” A lot of times folks don't actually resurrect the failed study, a failed therapy. So even if they resurrected it and said it was because of an operational issue, “Oh, you've got to wait another six years.” That's just not acceptable. So I think those are the two components that come top of mind. And I think early in our in our tenure, our mission was no trial should fail due to operational error.</p><p><strong>Harry Glorikian: </strong>What is the path to financial success for a company like Lokavant? Is it to just keep growing? To go public? To get acquired by a maybe by a big pharma. What's the path?</p><p><strong>Rohit Nambisan: </strong>It's a good question. I think folks that that know exactly what their exit strategy are probably, for lack of a better term, often deluded. But I will say that we've seen a lot of growth. Not only during, there's been a lot of interest in Lokavant during the pandemic, I mentioned we were in this externally subsidized R&D phase, we were actively trying not to do too much externally. We wanted to figure out how to set up the platform for success. Coming out of that phase, in the last six months, we've seen an incredible amount of traction externally. And so I think we are still in the path of doing it on a growth trajectory ourselves. What does that mean in terms of opportunities to collaborate both commercially and partner and strategically? Well, it means that we can only do as much as we can, even if we continue to grow. There's data out in the market and partners that have access to that data that we would love to collaborate with. If that means that we need to be more strategic in our approach to what Lokavant can do or how to structure Lokavant, we'll do that just because we need to actually achieve our mission, which is to have no trials fail due to operate operational error. Right. And so I think that requires more data. That requires more data science. We have a lean, very, very proficient data science team. So I think there will be opportunities for strategic collaboration, but it's all related to the mission of bringing this clinical trial intelligence platform to address operational and other risks in a study as effectively as possible.</p><p><strong>Harry Glorikian: </strong>You know, one of the things that crosses my mind is you could also use this from an investing perspective to analyze a trial that's going through its paces against historical information and determine, give it a weighting of probability of success versus failure from an investment perspective, that that seems attractive to me.</p><p><strong>Rohit Nambisan: </strong>Yeah. So that's an interesting point to bring up. There are folks now asking us in the market about what we've been informed firmly in trial execution stage. Folks are asking us to move into feasibility and effectively feasibility. Is that the planning of the study? Tell me with this particular configuration of sites, countries and for this indication, knowing the standard of care in different countries, knowing the approach to clinical care, not just clinical research, how successful would this study be? Right. And obviously, the success of a study, when you think about biotech, the success of a study is the success of the company. When you think when you go up the market, depending on the study, it can still have incredible impacts, the success of the company. So there is definitely an afferent towards the investing world and financial. I think at first we probably take a progressive step towards that by moving into trial planning analytics in this manner and then validating our approach against progress in space and seeing how we can continue to grow in that sector.</p><p><strong>Harry Glorikian: </strong>Well, Rohit, it was great having you on the show. I hope everybody enjoyed our discussion. You know, a lot of problems to solve in this industry. So there's there's no lack of opportunity from, you know, businesses that need to get started and the data that needs to be optimized to help move the process forward. But, you know, luckily, everybody I talk to on the show, that's the direction we're all moving. So hopefully we'll get there faster, because I'm not getting any younger. So, so good drugs are going to be needed at some point. So good to have you here. And I can't wish you and the team at Lokavant, you know, more success.</p><p><strong>Rohit Nambisan: </strong>Thanks, Harry, for having me on the show. It was wonderful to be here.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>Lokavant Wants to Help Good Drugs Succeed in Clinical Trials, and Help Bad Ones Fail Faster</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:51:42</itunes:duration>
      <itunes:summary>Harry&apos;s guest this week is Rohit Nambisan, CEO of Lokavant, a company that helps drug developers get a better picture of how their clinical trials are progressing. He explains the need for the company&apos;s services with an interesting analogy: these days, Nambisan points out, you can use an app like GrubHub to order a pizza for $20 or $25, and the app will give you a real-time, minute by minute accounting of where the pizza is and when it’s going to arrive at your door. But f you’re a pharmaceutical company running a clinical trial for a new drug, you can spend anywhere from $3 million to $300 million—and still have absolutely no idea when the trial will finish or whether your drug will turn out to be effective. Because there&apos;s little infrastructure for analyzing clinical trial data in midstream or spotting trouble before it arrives, some studies continue long after they should have been canceled, and positive data sometimes gets thrown out because of minor procedural flaws; in the end, 20 to 30 percent of the money drug makers spend on clinical trials goes down the drain, Nambisan says. Lokavant&apos;s platform allows drug makers and clinical research organizations to harmonize the results coming in from study sites, compare it to data from other trials, and discover important signals in the data before it’s too late. For example, a company might discover that it’s not enrolling patients fast enough to complete a trial on schedule, or that the researchers administering the study aren’t following the exact protocols laid out in advance. Such headaches might sound abstract and remote, but poor data management slows down the whole drug development process, which means fewer beneficial new drugs make it to market ever year; that&apos;s the ultimate problem Lokavant is trying to fix.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week is Rohit Nambisan, CEO of Lokavant, a company that helps drug developers get a better picture of how their clinical trials are progressing. He explains the need for the company&apos;s services with an interesting analogy: these days, Nambisan points out, you can use an app like GrubHub to order a pizza for $20 or $25, and the app will give you a real-time, minute by minute accounting of where the pizza is and when it’s going to arrive at your door. But f you’re a pharmaceutical company running a clinical trial for a new drug, you can spend anywhere from $3 million to $300 million—and still have absolutely no idea when the trial will finish or whether your drug will turn out to be effective. Because there&apos;s little infrastructure for analyzing clinical trial data in midstream or spotting trouble before it arrives, some studies continue long after they should have been canceled, and positive data sometimes gets thrown out because of minor procedural flaws; in the end, 20 to 30 percent of the money drug makers spend on clinical trials goes down the drain, Nambisan says. Lokavant&apos;s platform allows drug makers and clinical research organizations to harmonize the results coming in from study sites, compare it to data from other trials, and discover important signals in the data before it’s too late. For example, a company might discover that it’s not enrolling patients fast enough to complete a trial on schedule, or that the researchers administering the study aren’t following the exact protocols laid out in advance. Such headaches might sound abstract and remote, but poor data management slows down the whole drug development process, which means fewer beneficial new drugs make it to market ever year; that&apos;s the ultimate problem Lokavant is trying to fix.</itunes:subtitle>
      <itunes:keywords>lokavant, the harry glorikian show, rohit nambisan, clnical trials, roivant, drug development, roivant sciences, pharmaceuticals, harry glorikian</itunes:keywords>
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      <itunes:episode>88</itunes:episode>
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      <title>What Kids Can Learn from Social Robots, with Paolo Pirjanian</title>
      <description><![CDATA[<p>This week Harry continues to explore advances in "digital therapeutics" in a conversation with Paolo Pirjanian, the founder and CEO of the robotics company Embodied. They’ve created an 8-pound, 16-inch-high robot called Moxie that’s intended as a kind of substitute therapist that can help kids with their social-emotional learning. Moxie draws on some of the same voice-recognition and voice-synthesis technologies found in digital assistants like Siri, Alexa, and Google Home, but it also has an expressive body and face designed to make it more engaging for kids. The device hit the market in 2020, and parents are already saying the robot helps kids learn how to talk themselves down when they’re feeling angry or frustrated, and how to be more confident in their conversations with adults or other kids. But Moxie isn’t inexpensive; it has a purchase price comparable to a high-end cell phone, and on top of that there’s a required monthly subscription that costs as much as some cellular plans. So it feels like there are some interesting questions to work out about who’s going to pay for this new wave of digital therapeutics, and whether they’ll be accessible to everyone who needs them. Pirjanian discussed that with Harry, along with a bunch of other topics, from the product design choices that went into Moxie to the company’s larger ambitions to build social robots for many other applications like entertainment or elder care.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>Two weeks ago, in our previous episode, I talked with Eddie Martucci, the CEO of a company called Akili Interactive that’s marketing the first FDA-approved prescription video game. </p><p>It’s called EndeavorRx, and it’s designed to help kids with ADHD improve their attention skills.</p><p>It’s one of the first examples of what some people are calling “digital therapeutics.”</p><p>And this week we continue on that topic—but with a conversation about <i>robots</i> rather than video games. </p><p>My guest Paolo Pirjanian is the founder and CEO of Embodied.</p><p>They’ve created an 8-pound, 16-inch-high robot called Moxie that’s intended as a kind of substitute therapist that can help kids with their social-emotional learning.</p><p>Moxie draws on some of the same voice-recognition and voice-synthesis technologies found in digital assistants like Siri, Alexa, and Google Home. </p><p>But it also has an expressive body and face designed to make it more engaging for kids.</p><p><strong>Moxie Video Clip</strong>: Hi, I’m Moxie. I’m a robot from the GRL. That’s the Global Robotics Laboratory. This is my first time in the human world. It’s nice to be here. Oh, where is here, exactly? It’s a pretty big world for a little robot.</p><p><strong>Harry Glorikian:</strong> Moxie hit the market in 2020, and parents are already saying the robot helps kids learn how to talk themselves down when they’re feeling angry or frustrated, and how to be more confident in their conversations with adults or other kids.</p><p>But just like EndeavorRx, Moxie isn’t inexpensive. </p><p>The robot has a purchase price comparable to a high-end cell phone, and on top of that there’s a required monthly subscription that costs as much as some cellular plans.</p><p>So, it feels like there are some interesting questions to work out about who’s going to pay for this new wave of digital therapeutics, and whether they’ll be accessible to everyone who needs them.</p><p>Paolo and I talked about that, as well as a bunch of other topics—from the product design choices that went into Moxie, to the company’s larger ambitions to build social robots for many other applications like entertainment or elder care.</p><p>So here’s my conversation with Paolo. </p><p><strong>Harry Glorikian: </strong>Paolo, welcome to the show.</p><p><strong>Paolo Pirjanian: </strong>Thank you. Hey, for having me on the show.</p><p><strong>Harry Glorikian: </strong>Paolo, you're the co-founder and CEO of a company called Embodied. And and you guys are in the field of, I'm going to call it educational robotics. But this is not your first robotics company, right? Can you can you start by filling in listeners about your history in the consumer robotics field?</p><p><strong>Paolo Pirjanian: </strong>Absolutely. Yeah. So I actually got my education in Denmark. I got a PhD in A.I. and robotics and then moved to the US actually to work at NASA's JPL. Which was a childhood dream job. Shortly thereafter, I got approached by Bill Gross of Idealab, who started one of the earliest incubators, who wanted to start a robotics company. So I joined that company as the CTO originally and then eventually became the CEO. We developed Visual Slam Technology, which is a vision based, camera based ability for a robot to build a map of the environment and know how to navigate it autonomously. That company in 2012 was acquired by iRobot. And we integrated that technology across Roomba and the other iRobot portfolio products to allow them to be aware of the environment and know how to navigate around the home, primarily for cleaning the floors. I was a CTO there for a couple of years and then decided to move on to do something that's been a childhood dream, to really create AI friends that can help us through difficult times in our lives.</p><p><strong>Harry Glorikian: </strong>But one of the projects you worked on, and correct me if I'm wrong, was the Sony's Aibo Robot Dog, right? It's not necessarily educational, but it was aimed at kids. So what sort of drew your focus on robotics for education and socialization, I want to say.</p><p><strong>Paolo Pirjanian: </strong>Yes, correct. Sony Aibo, the robotic dog, my previous company, we developed a computer vision technology for it that enabled the robot to be able to see things and interact with things in the environment. And it was an amazing product, actually, the Sony Aibo. And I've always actually had interest in let's call it mental health. And of course, my craft is AI and robotics. And so after my last company was acquired, I decided the timing is now to go pursue that childhood dream of creating robots that can actually help us with mental health. So we don't categorize ourselves as education in the strict sense because we do not really focus on STEM education. We focus on for children. The first product is for children. It's called Moxie, and it's helping them with social emotional skills, learning, which in layman's term you could describe as EQ, emotional intelligence skills versus IQ, which are more related to STEM type education.</p><p><strong>Harry Glorikian: </strong>Yeah. And it's it's supposed to complement traditional therapy if I was reading everything correctly.</p><p><strong>Paolo Pirjanian: </strong>Exactly. Exactly. We don't believe in replacing humans in the loop. We want people to be treated by humans. But given the shortage and cost of mental health services, there's always room for complementing that with AI and other technologies. And that's what we are doing.</p><p><strong>Harry Glorikian: </strong>So if I ask the question, is Moxie more like a toy that's supposed to be fun, or is it a tool that's supposed to be therapeutic or correct some help help a child that's using it or is it both?</p><p><strong>Paolo Pirjanian: </strong>It's primarily a tool to help children with social emotional learning, things that you would go to a therapist for. The analogy that I use that may be helpful here is really Moxie is a tool to deliver therapy to children. But we we have to make it fun enough for the child to want to take that pill. So in a way, if you use pharmaceuticals as an analogy, a pill usually for children is sugar coated because you want them to take the pill to deliver the medicine to them. So the same way here, Moxie has a lot of fun activities and interesting things that attract a child to want to interact with Moxie. And then during those interactions, Moxie will find the opportunity to deliver techniques and therapies, for instance, to teach the child about mindfulness, teach them about emotion regulation, teach them social skills, to teach them about empathy and kindness, talking about your feelings and so on.</p><p><strong>Harry Glorikian: </strong>I know many adults that may need Moxie for sure. With all those categories you mentioned. Right.</p><p><strong>Paolo Pirjanian: </strong>I agree.</p><p><strong>Harry Glorikian: </strong>But but let's talk about the range of challenges, problems or issues that you've designed Moxie to help with. So can it help with relatively mild issues like shyness, or is it designed to help kids with more severe issues like, Autism Spectrum Disorder or all of the above?</p><p><strong>Paolo Pirjanian: </strong>Yeah, no, it's first of all, you're talking about the audience that it's appropriate for. Obviously, children that have been diagnosed with any neurodevelopmental challenges such as autism need to be trained on social emotional skills. But neurotypical children also can benefit from it. Actually in our customer base, we see a roughly 50-50 split between children that have mental, behavioral developmental disorders. And in the 50% are children that you would call neurotypical. But yet we know even within neurotypical children, they have to deal with things such as stress, anxiety, sometimes even depression. Covid obviously did not help it. It exacerbated a lot of mental health issues for every child, including adults, by the way, as you pointed out. And these techniques and tools that you use from therapy are really the same independent of the diagnosis. Now, some children may need more help with social skills. Let's say if there is a child on the autism spectrum, they may not be very comfortable making eye contact, which is an important social skill to have. When you're interacting with someone, you want to look them in their eyes and Moxie will help them, for instance, with that. And that's maybe something that a neurotypical child doesn't need. So Moxie will focus more on helping them with things such as coping skills, with coping with stress, coping with anxiety or managing anxiety, or even social skills. Like you can talk to Moxie about bullying and it will allow you to talk about it and understand how to navigate that and teach you skills about how to protect your own personal space. A lot of these foundational skills are are the type of skills that social emotional learning includes.</p><p><strong>Harry Glorikian: </strong>So. Let's talk a little bit more about the actual product. And because this is a podcast, I'm sort of like need to talk through some of the features, right? Because they everybody can't see it. But so on the hardware side, you know, the arms, the waist, it bends, the rotating ears, the rotating base, the ears, the face, the speakers, the camera, you know, the program that animates the face and gives Moxie, a personality, the computer vision elements. Right. And then all the scripts of all the different interactions. Right, you know. Why was it important to give Moxie an LCD screen as a face rather than mechanical mouth or eyes.</p><p><strong>Paolo Pirjanian: </strong>Yeah. Let me start maybe take a couple of steps back for the audience, as you said there are no visuals here. Think of Moxie as a AI character brought to real life. Right. So think of it as a, sorry, as a cartoon character brought to real life. So think of a cartoon character that has physical embodiment and it can talk to you. It can smile back at you. We can interact with you with body language and emotions and so on. To your question as to why it required a LCD display. We could potentially consider creating a mechanical face that can have enough expressivity, but that can add a lot of costs on one hand. On the other hand, if not done well enough, it can become uncanny and creepy. So we decided that the LCD display that, by the way, is very is curved because we did not want it to look like a monitor stuck in the head. But it was integral to the design. So it's curved and looks like a face. And what you see on the face is an animated character, Moxie's character, which is integrated very well with a hardware industrial design. So you can provide much more freedom of expression from facial expressions. And especially for children, you want to have a robot that has the ability to show facial expressions. By the way, the intonation of the voice will change as well, based on the type of conversation and the emotion we are trying to capture in the conversation.</p><p><strong>Paolo Pirjanian: </strong>And then the other question, actually, a macro level question becomes embodiment, why did this need to be embodied? Why physical? Why not just a digital character on a screen? Well, so, evidence from neuroscience, from MRI, fMRI scans shows that when we interact with something that has physical embodiment and agency, it triggers our mirror neurons, our imitation neurons are triggered at a much higher level and much wider level than when you're interacting with something just on a screen. And the implication of that is that things you can learn through interaction with the embodied agency have a deeper impact in terms of retention of the information, something that we may be able to anecdotally relate to during COVID. All education went online and the post mortem on that was that te quality of education that was delivered online doesn't compare to what happens in the classrooms. And that's, again, the same thing when it's not embodied. You don't feel that emotional connection. You don't feel an obligation. Many children will just turn off the monitor and walk away, whereas with something that's physically embodied, you feel you can't do that. It has feelings, you feel it has a perspective. You can't just turn it off. By the way, on Moxie, if you look at it closely, there are no buttons on Moxie. There is no input device on moxie like a keyboard or a touch screen or anything else. The way you interact with moxie is the way we interact with each other, using conversation, body language, intonation of voice, emotion, facial expressions and so on. There is one switch actually on the bottom of the robot that you don't see. That's for emergency situations in case something goes wrong. For certification reasons, we have to put that physical switch to turn it off if something goes wrong.</p><p><strong>Harry Glorikian: </strong>So not having played with it does, and only watching the video online, Moxie's voice synthesized like Siri or is it prerecorded? Like, how does it sound?</p><p><strong>Harry Glorikian: </strong>It's synthetic. Yes. So, yeah. So we cast the character of Moxie, decided what this character stands for, what are its values, what is the background story? And then based on that, decided the voice of Moxie, what it should be. And then the way you develop the synthetic voices that you take in neural network and train it based on a lot of samples that we captured from a voice actress in a studio recording hundreds and hundreds of hours of speech from a script. So we have this script and we know how it sounds based on the character's voice recording, and that gets fed into a deep neural network that is trained over and over again until it models that voice. So that later I can just give a text and it will generate a synthetic voice that sounds exactly like that character.</p><p><strong>Harry Glorikian: </strong>And then Moxie seems to emit a lot of sound effects and music. Does that element enhance the product somehow?</p><p><strong>Paolo Pirjanian: </strong>Yeah. So we can underline mood and so on with sound effects or background music. For instance, one of the activities Moxie will suggest if the child is talking about things that are have to do with stress and so on, is a mindfulness journey. Where it will ask you to close your eyes. Imagine you are in a forest or other places as well. There's a library of them. Let's say you're in a forest, listen to the wind and then it will start playing some sound effects in the background and calming music to get the child to imagine they're in that space. For some children that have high sensitivity disorders to certain stimuli like sound, the parents can actually, through a parent app, provide that information which will adjust the settings. In that case, Moxie will actually not use sound effects or any jarring effects that may disturb that child.</p><p><strong>Harry Glorikian: </strong>Interesting. So. Simple question, but is it battery operated? I mean, how long does it last on a single charge? Does it plug in?</p><p><strong>Paolo Pirjanian: </strong>Yeah, it's battery operated because the child usually likes to move it around. You carry the round almost like a baby on your arm. If you remember the days where we had young babies, it was literally ergonomically, it sits exactly right on your arm very nicely. And it has a battery that can run for hours of active usage. And then at night, usually like your cell phone, you plug it in any charges overnight.</p><p><strong>Harry Glorikian: </strong>So, you know, this begs the question of where did the idea of Moxie really come from? Because you don't decide on a whim to build a product this complex. You know, how did you persuade yourself and your investors that the technology is at a point where, you know, it could really make a difference with kids, you know, that have social emotional development issues?</p><p><strong>Paolo Pirjanian: </strong>Yeah. I mean, the idea was sparked probably early in my early childhood, I would say. So, very briefly at a very early age due to a war, my world was turned upside down. And unfortunately, I had to flee my my homeland and seek refuge in another country where I looked different, sounded different and was different. Right? And and unfortunately, as such, you do get rejected by the society. You have a harder time in school. You get exposed to racism and rejection and all these things. So. I remember during that time I saw the first animated short by Pixar. Which was Luxo Jr., the two lamps, mama lamp and baby lamp playing with a ball. Which blew me away that a computer can generate millions of pixels on the screen that are moving to create, to induce or elicit such emotion in the audience. So that inspired me to actually seek education in computer science and robotics and A.I. because before that, as many immigrants you were taught that you were going to be a doctor, so that that's.</p><p><strong>Harry Glorikian: </strong>Or a lawyer.</p><p><strong>Paolo Pirjanian: </strong>Lawyer comes second, but obviously doctor first. So so that inspired me actually to buy a computer and start coding by myself. And I started learning coding and then I decided I'm going to do well in high school so I can get into university and pursue my education. And I did. And to be honest with you, this has been something I've been wanting to do for since I can remember. My previous company, as I mentioned, Evolution Robotics, that was a Idealab company and I was the CTO then became the CEO. I wanted it to do it then, but that's almost a decade ago, or maybe slightly more than a decade ago. We even tried. It was not possible. Absolutely not possible. I remember back then. Just to use an example that I think most people can relate to, voice recognition for even a single command was hard. All of us have had in-car navigation systems with a voice assistant that you would press a button, hold it down and say navigation, and would pull up navigation and say, Enter your address. It will enter the address. And you would have, to by the time you were done, enter the address because it would constantly misunderstand you and then give you options. Did you say A, B or C and no, no, no. I didn't say that. By the time you were done entering the address, you were at the destination. So that was state of the art only a decade ago. Just for voice recognition. Same thing with computer vision.</p><p><strong>Paolo Pirjanian: </strong>My specialty actually was computer vision. Computer vision. Also, we couldn't recognize things very well. And the advancement that has happened in deep neural networks due to the increase in compute power, due to increase to labeled data sets that are available through many sources from YouTube and the Internet and so on. We have been able to solve age-old problems that for decades we were struggling with So it was not possible. The other piece that was probably not possible was that I was not ready as an entrepreneur probably to take on such a colossal challenge of building a product like this. So the stars aligned around 2015 when I decided to leave iRobot and said, You know what? The time is probably right now. And and fortunately, I was able to get some investors that believed in the vision of creating AI characters, AI friends that can help children with social emotional development. And obviously, this technology platform, we will in the future use it for also helping the elderly population with loneliness and Alzheimer's and dementia and so on. We have just scratched the surface with our first products, right? And there is a lot more work to do. But today it's possible. We have proven it. We have a product in the market. A five year old can will interact with it for months at a time without any human intervention. So yeah, so it was a series of events brewing over the last 30, 40 years for this to become possible today.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>I mean, just looking at the system, there's probably a lot of innovations that were required to put Moxie together. And so. I don't know, maybe you can give us a few, you know, like "Oh, my God" moments that took place in this, right? I mean. I don't know if it's the physical movements. I don't know if it's the, you know, personality or the scripts. But, you know, give us the highlights of what you think was like the big breakthroughs that made this possible.</p><p><strong>Paolo Pirjanian: </strong>Yeah. So there are many, many, many, many pieces of technology that we had to invent or partner for to make this happen. So   what I mentioned, deep neural networks, generally speaking, in the field of AI have advanced to the point where we can have very reliable speech recognition technology, for instance, right? Where you have an accent or not, you're speaking loud or soft and so on, you have background noise and so on, it will be able to transcribe what you're saying pretty accurately. There are still errors, but it's pretty accurate. It's accurate enough, let's put it that way. The next stage of the conversation pipeline is actually understanding. Now you have a transcript of what was said. Now I need to understand the semantics of what was meant, what was the intent behind this, this string of characters, and that's natural language understanding. In that area, Embodied has made huge advancements because we have to be able to understand what the child is saying. And the state of the art when we started is defined by Siri and Alexa and Google Home, where it's very command and response. "Alexa, play music for me. Alexa, how is the weather? Alexa, tell me a joke. Alexa, read a story or read the news for me." And so on. So short utterances and and direct mapping to a function that the device can do. Whereas in our case it's not about this transactional command and response, it's about relation and social interaction. So the child, Moxie will actually ask and encourage the child. It says, "So how was your day to day?" There is no way any human being can script all the possible answers that you could expect to hear because you could basically say anything possible to that question.</p><p><strong>Paolo Pirjanian: </strong>So we had to develop natural language understanding that can understand what was said no matter what was said, and provide a relevant response. Because if you don't, if the robot says something that's absolutely not related to what the child wanted to talk about, then children get disappointed. They say, well, this thing is a dumb robot. It doesn't doesn't understand me. And they will dismiss it, right? The illusion of intelligence breaks away very quickly as soon as you you misunderstand or say something off script, let's say. So we had to develop a combination of systems to be able to address that. Another major challenge, and this was actually much bigger than I thought, we spent a lot of time on this challenge to solve. Again, it has to do with interaction using Alexa as an example also, and Siri as well as Google. They all have this notion of a wake word, Hey, Google, hey Siri or Alexa. When you say this keyword known as a wake word, the device is actually at the, when it's on standby, it's putting all of its attention to look for that keyword before it does anything else. So as soon as you say it, a couple of things happen. It's almost like turning on a switch to say, I'm going to speak, right? So number one, you're telling it, I'm going to say something now. Number two, as soon as you have said that phrase, these things have multiple microphones on them. And the mic array allows you to be able to be informed and focus your attention on the location from which you heard this phrase. With doing that, you can also filter out anything that's in the background. So you focus the attention of the device on that location of the user that said Alexa. And then you say a phrase and then it processes and executes the action. In our case, in social interaction, it will not be appropriate if you had to say Moxie in every volley of the conversation. Every time you want to say a sentence to me, you would start by saying Paolo and I and I would look at you, and then you would say something, and then I would stop listening. And then you say, Paolo, for every sentence, right. That would that would be a very awkward social interaction. So we had to solve that problem. It's a tough problem to solve. And we use a combination of cameras to know where the child is, the voice, where it's coming from, and what was being said to focus the attention of Moxie on the person that's engaged with it so that Moxie doesn't respond to the TV or mom and dad maybe having a conversation on the phone over there and it filters all of that automatically, without the need for having a wake word phrase. And I can go down the list. There is many, many more. But this is just examples of the type of things we have to solve.</p><p><strong>Harry Glorikian: </strong>So, you know, I think some people might make the argument that kids should really be learning their social and emotional skills from other human beings. From a parent, from a teacher, from their peers, maybe their therapist if they have one. You know, how can a robot fit into that picture in a healthy, productive way? You know, how would you respond to the potential criticism, which I'm sure you've heard before. When a parent who buys Moxie for their kid, are they offloading their parental responsibilities?</p><p><strong>Paolo Pirjanian: </strong>That's an absolutely valid concern and a good question to ask. And obviously, even before inception of the company, I personally myself was thinking about this because there is a there's a contradiction in saying that a child that is not very good at social interaction, let's put them in front of a robot, they'll get better at it. There's a contradictory element to that potentially. Right. So let's put it this way. In the extreme case, what if the child does not have the ability to have interaction with their peers? Right. So they do not get the opportunity to interact with other peers from which they're actually learning to hone in their social skills. Well, that happened during the pandemic. There's a huge mental health crisis happening in the US now that will take years for us to to address. That was because children were locked in their home without the ability to socialize with other children because of worries about being getting COVID, right. So now pandemics are rare events that hopefully don't happen that often. But now let's put ourselves in the shoes of children that are, for various reasons, are not successful in providing social interactions. An extreme case is a child on the autism spectrum. That does not have the right skills to have social interactions nor interpret social cues in a conversation. Let's say if you're annoyed at someone on the spectrum, it's likely that they may not even understand that you're annoyed at them and they may keep saying the same thing or doing the same thing. That's going to make you more and more agitated or the other end of the spectrum, which is not as severe.</p><p><strong>Paolo Pirjanian: </strong>My example when I was a child. And I lived in a foreign country where I was different. I had an accent. I looked different. I came from a different cultural background and other kids didn't want to play with me. And there's everything in between. Right? So then. What do we do? Well, you can have therapies and that's what we do. There's a massive shortage of therapists. If you have a child, usually the way this works is that your school teacher will come and say, we think your your child may be on the spectrum or your child may have ADHD or your child have some other neurodevelopmental challenge. You should get your child diagnosed. Okay. Hopefully no one has to try this. The waiting list for getting diagnosed is minimum six months, minimum six months. And that's if you have connections and good providers and all these things. While imagine for six months your mind as a parent, you're like, dying. What the hell is going on with my child? I've got to figure this out quickly. Once your child is diagnosed and you spend 6000, 7000 hours on that, then you've got to find providers. There's a huge shortage of providers, and even when you get to the provider, there is a massive cost associated with it. So typically children on the spectrum, as an example, get diagnosed at the age of three or so. Ideally, actually, because the sooner you can intervene, the better the outcomes. And when they're diagnosed, they will be recommended to seek 20 to 40 hours of therapy per week. 20 to 40 hours of therapy per week. Yeah.</p><p><strong>Harry Glorikian: </strong>They're not doing anything else.</p><p><strong>Paolo Pirjanian: </strong>No. And many times, many times schools are supposed to provide it. But you have one or two special needs teachers that are to deal with the whole population of kids on the spectrum in their school as an example. So they're not going to get 20, 40 hours per week. The cost of therapy is super expensive. Insurance also has to pay for it. Nowadays, they're mandated to, but the cost still adds up. On average, a family will spend $27,000 out of pocket per year, even despite insurance coverage. So not everyone has access. And also if you live in rural areas and so on, you don't have access. So. Why not have an automated system that can do this, at least filling the gap? Right. We think of Moxie as a springboard to the real world. So we want to use Moxie as an opportunity to for the child to open up to Moxie, use that as an option, teach them a number of techniques for how they can be more successful in social interactions, and then Moxie will actually encourage them to go in the real world and experience these things and come and tell it about what what, how it went. So we use Moxie as a springboard to the real world. There is another phenomena that happens, and I don't know how to describe this. You may actually have more insights in neuroscience than I do. Children, especially children that have neurodevelopmental challenges, open up to a robot like Moxie better than they do to humans.</p><p><strong>Paolo Pirjanian: </strong>Let's take autism as an example again. I remember the very first experiment we did with our first prototype. We took that prototype to a family's home. They had a ten year old son on the spectrum, and we put Moxie down. At the time we did not have the AI yet. It was the robot remotely controlled by one of our therapists. On an iPad they were typing what the robot should do and say. The child immediately opened up and start talking to Moxie. And if you look at that child, you say. And you know, as a matter of fact, I asked Mom: "I don't see anything wrong with your child. Why do you think he's on the spectrum?" And he says, well, you have to see him how he treats his peers. He doesn't open up to them. He doesn't want to talk to them. When he comes home from school it takes me, mom, a couple of hours to "find," quote unquote, my child. Tuning into the channel. So they shut down. And there's a few reasons for for sort of, I think, anecdotal or maybe rational reasons to why that is. One is that children that are on the spectrum, they completely understand feelings and emotions and so on. They are not very good at expressing themselves or or showing their feelings, but they understand if they are being rejected or teased out in a conversation and so on. So they shut down. A robot is non-judgmental, right? They understand that it's a safe, non-judgmental space.</p><p><strong>Paolo Pirjanian: </strong>The other part is that when someone like me who comes with a warmer blood and too many gestures and intonation, voice and expressive, it's too much there's too many signals going on. And that's overwhelming to a lot of children on the spectrum. And they shut down. It's too much. I cannot deal with this. Right. And so hence, a robot is finding social doing social exercises and experiences on training wheels. And helping them develop those muscles and get better at how to handle different situations when they go in the real world to interact with their peers or other people in their circle, social circle, to be successful. And that success will hopefully breeds more success. So ideally we are successful when people actually stop using our product. And as a matter of fact, we have parents reaching out to us and say, my child could not stand up in front of their classroom to say a word. Now she stands up and gives a whole presentation and we have stopped using Moxie. Thank you so much for the help that that's what what it is. It's like it's stepping stone. It's training wheels for social emotional learning so that they can have a chance of being successful, because otherwise they do not have the chance to to have these exercises to learn. We learn a lot by interacting with each other.</p><p><strong>Harry Glorikian: </strong>So the company describes Moxie as just the first iteration of a larger platform that I think you call SocialX. So what is SocialX and what other kinds of products do you envision coming out of it?</p><p><strong>Paolo Pirjanian: </strong>Yes. SocialX is our technology platform, which which allows a machine to interact with us using real conversation, eye contact, body language, gestures, intonation of voice and and for the machine to do that as well as understand you on all those channels as well. That's what social platform is. The name SocialX is a juxtaposition to user experience, UX with an emphasis on the social experience. Right? We are creating a social experience. We are not just creating a user experience where you can push buttons or say a command, play music. Tell me the weather, what's the stock market like? But rather social interaction which involves social skills, emotion, skills, empathy and so on. And this is our first iteration. It's going to get exponentially more advanced. With every single user we add to our customer base, it allows us to improve SocialX because the data and the interactions that we can experience allows us to keep improving our algorithms to get better and better and better. So we decided to start with children because they are the most vulnerable in our society and we thought that's where we can have the most impact. The other end of the spectrum, where we become vulnerable again is when we are aging, right? And mental health is extremely important for aging people. And loneliness leads to a lot of mental health challenges that lead to a lot of physical challenges.</p><p><strong>Paolo Pirjanian: </strong>We know this. The surgeon general of U.S. said a couple of years ago that loneliness for elderly is equivalent to smoking a pack of cigarettes in terms of the health implications it has. And it's true. Again, during COVID, a lot of elderly that were alone suffered massively because they were high risk for COVID. Even my mom, who lives 5 minutes away from me, I didn't visit her for a few months until we sort of figured out that we think we know how to handle COVID so it was safe to to meet meet each other. It's extremely difficult. So that's the other end of the spectrum that we intend to address. And then in between every age group, in between that, from your teens to your aging, every person in their lifetime deals with mental health challenges. As a matter of fact, the US population, 17 percent of the population at any given time deals with mental health challenges stress, depression, suicidal thoughts and so on. And having a life coach that can help you through these difficult times, we believe can have a huge impact. So eventually with those three pillars, we will be able to help the entire population. You can go beyond mental health, which is what we are focused on, because that's where we think we can have the biggest impact you could imagine.</p><p><strong>Paolo Pirjanian: </strong>You go to Disney Park and you could have an interactive character coming up to you that's not a person inside a suit, but it's actually an animated character that's walking around and talking to you and entertaining you. You can imagine going to a hotel lobby where your intake to the lobby will be serviced by an interactive character, AI character. By the way, we are also working with hospitals and schools. Right now for hospitals we work with University of Rochester Medical Center. We are currently doing a pilot of using Moxie to help children, diabetic children, to educate them about how to treat themselves and how to adhere to their treatment plan. And then there is a number of other use cases that we are going to expand into, including intake to the hospital, dealing, sort of holding their hands and making sure they are not stressed out, coming to the hospital for the first time, pre-op and then post-op. Also a lot of complications you want to avoid by making sure there is someone to remind you about your care plan and so on. So to be honest with you, the sky is the limit. But the three areas we are focused on is children, elderly and then everyone in between that suffers from mental health or loneliness type of challenges.</p><p><strong>Harry Glorikian: </strong>Yeah, there are so many other applications that I can think of that I would, you know that I could use my self. So hopefully, that will come into play because this would be something interesting for me even to interact with, depending on, you know - Don't forget to work out or, you know, there's something that you interact with regularly. Right. But so let's go to sort of the crux of the some of the issues. Right. It's it's not an inexpensive device. I mean, it does a lot. So you can't expect that it's going to be inexpensive. Right. It's it's $999 to purchase plus a separate monthly subscription of about, what is it, $39 per month for a minimum of 12 months. And so how how do you get this out to a larger group of people that really need it. Is it subsidized purchases? Is it insurance? What are you guys thinking of from a business model perspective?</p><p><strong>Paolo Pirjanian: </strong>Yes. So we actually launched the product in the second half of last year for the first time and we sold out. But I agree with you that it would be much better if it was more affordable, because we don't want this to only be a product available for high income families, for rich kids to use a derogatory term maybe. We want it to be available to every every child. And for that to happen, there is a couple of different strategies we are pursuing. One is that once we get to a scale of efficacy studies that are convincing enough that we can get insurance, potentially insurance coverage to cover it or at least subsidize part of it to make it more affordable. The other approach is that we are working with bigger institutions such as hospitals and schools and libraries, by the way, which can buy it and make it available to their population. As an example, this library actually came to us, which is a very interesting business model that addresses the reach to the society that may not be high income. The library bought a fleet of Moxies from us, and they're lending them out to their society, to their members as a book. So a child gets to take Moxie home for a month and then bring it back, which is awesome because we have, by the way, we have done efficacy studies and it shows that even within a month you can see significant improvement on a lot of these social emotional skills.</p><p><strong>Paolo Pirjanian: </strong>But ultimately, that's that's how it goes. And also, just to put it in perspective to two examples. One is that robots of this nature....By the way, there is nothing like Moxie because the technology has not existed today, but people have tried, actually, SoftBank has a subsidiary called SoftBank Robotics that have spent hundreds of millions of dollars developing this robot called Pepper that costs $14,000 to buy and $2,000 a month to subscribe to it. Yeah. So we are orders of magnitude better than that. And that was part of the design principle that we said we want to be on par with an iPhone ownership of a cell phone. Buy it for roughly about $1,000. And you pay roughly about $50 a month in subscription. So we met that goal, which was a major accomplishment, very hard to do, but we are not satisfied with that because as I said, this has to be available. The other part of the other example is that if you have a child that needs therapy and if this cuts your therapy by a handful of therapy sessions, it pays for itself. Right? Again, ideally, we will have insurance pay for it. And so that will take some time. As you know, sort of navigating the medical fields and insurance organizations and so on will take some time, but we will get there eventually.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I recently interviewed the CEO of Akili Interactive, Eddie Martucci, and they are the first group to get an FDA approved prescribed video game for children between eight and 12 years old with certain type of ADHD. And so, you know, they're using the prescription route as a way to have somebody pay for the clinical trials and everything else and the product itself. So I know that this business of robotics is not for the faint of heart. I mean, there's there's many different companies out there like Jibo, which was out here. Or I think there was a company in in San Francisco called Anki that, you know. You didn't pick an easy one, that's for sure, Paolo.</p><p><strong>Paolo Pirjanian: </strong>Definitely not. Definitely not.</p><p><strong>Harry Glorikian: </strong>But but, you know, I you know, I wish you incredible luck. I mean, this this thing sounds so exciting. I mean, it brings out, like, the Star Trekkie guy in me and wants to interact with it and have it do certain things or say certain things or or maybe even like interact with my wearable and be able to see something and then make a comment to me as I'm using it. So I can only wish you incredible luck and success.</p><p><strong>Paolo Pirjanian: </strong>Thank you. I need it and I appreciate it.</p><p><strong>Harry Glorikian: </strong>Excellent. We'll talk soon.</p><p><strong>Paolo Pirjanian: </strong>Talk soon, thank you so much for having me.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 10 May 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Paolo Pirjanian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week Harry continues to explore advances in "digital therapeutics" in a conversation with Paolo Pirjanian, the founder and CEO of the robotics company Embodied. They’ve created an 8-pound, 16-inch-high robot called Moxie that’s intended as a kind of substitute therapist that can help kids with their social-emotional learning. Moxie draws on some of the same voice-recognition and voice-synthesis technologies found in digital assistants like Siri, Alexa, and Google Home, but it also has an expressive body and face designed to make it more engaging for kids. The device hit the market in 2020, and parents are already saying the robot helps kids learn how to talk themselves down when they’re feeling angry or frustrated, and how to be more confident in their conversations with adults or other kids. But Moxie isn’t inexpensive; it has a purchase price comparable to a high-end cell phone, and on top of that there’s a required monthly subscription that costs as much as some cellular plans. So it feels like there are some interesting questions to work out about who’s going to pay for this new wave of digital therapeutics, and whether they’ll be accessible to everyone who needs them. Pirjanian discussed that with Harry, along with a bunch of other topics, from the product design choices that went into Moxie to the company’s larger ambitions to build social robots for many other applications like entertainment or elder care.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>Two weeks ago, in our previous episode, I talked with Eddie Martucci, the CEO of a company called Akili Interactive that’s marketing the first FDA-approved prescription video game. </p><p>It’s called EndeavorRx, and it’s designed to help kids with ADHD improve their attention skills.</p><p>It’s one of the first examples of what some people are calling “digital therapeutics.”</p><p>And this week we continue on that topic—but with a conversation about <i>robots</i> rather than video games. </p><p>My guest Paolo Pirjanian is the founder and CEO of Embodied.</p><p>They’ve created an 8-pound, 16-inch-high robot called Moxie that’s intended as a kind of substitute therapist that can help kids with their social-emotional learning.</p><p>Moxie draws on some of the same voice-recognition and voice-synthesis technologies found in digital assistants like Siri, Alexa, and Google Home. </p><p>But it also has an expressive body and face designed to make it more engaging for kids.</p><p><strong>Moxie Video Clip</strong>: Hi, I’m Moxie. I’m a robot from the GRL. That’s the Global Robotics Laboratory. This is my first time in the human world. It’s nice to be here. Oh, where is here, exactly? It’s a pretty big world for a little robot.</p><p><strong>Harry Glorikian:</strong> Moxie hit the market in 2020, and parents are already saying the robot helps kids learn how to talk themselves down when they’re feeling angry or frustrated, and how to be more confident in their conversations with adults or other kids.</p><p>But just like EndeavorRx, Moxie isn’t inexpensive. </p><p>The robot has a purchase price comparable to a high-end cell phone, and on top of that there’s a required monthly subscription that costs as much as some cellular plans.</p><p>So, it feels like there are some interesting questions to work out about who’s going to pay for this new wave of digital therapeutics, and whether they’ll be accessible to everyone who needs them.</p><p>Paolo and I talked about that, as well as a bunch of other topics—from the product design choices that went into Moxie, to the company’s larger ambitions to build social robots for many other applications like entertainment or elder care.</p><p>So here’s my conversation with Paolo. </p><p><strong>Harry Glorikian: </strong>Paolo, welcome to the show.</p><p><strong>Paolo Pirjanian: </strong>Thank you. Hey, for having me on the show.</p><p><strong>Harry Glorikian: </strong>Paolo, you're the co-founder and CEO of a company called Embodied. And and you guys are in the field of, I'm going to call it educational robotics. But this is not your first robotics company, right? Can you can you start by filling in listeners about your history in the consumer robotics field?</p><p><strong>Paolo Pirjanian: </strong>Absolutely. Yeah. So I actually got my education in Denmark. I got a PhD in A.I. and robotics and then moved to the US actually to work at NASA's JPL. Which was a childhood dream job. Shortly thereafter, I got approached by Bill Gross of Idealab, who started one of the earliest incubators, who wanted to start a robotics company. So I joined that company as the CTO originally and then eventually became the CEO. We developed Visual Slam Technology, which is a vision based, camera based ability for a robot to build a map of the environment and know how to navigate it autonomously. That company in 2012 was acquired by iRobot. And we integrated that technology across Roomba and the other iRobot portfolio products to allow them to be aware of the environment and know how to navigate around the home, primarily for cleaning the floors. I was a CTO there for a couple of years and then decided to move on to do something that's been a childhood dream, to really create AI friends that can help us through difficult times in our lives.</p><p><strong>Harry Glorikian: </strong>But one of the projects you worked on, and correct me if I'm wrong, was the Sony's Aibo Robot Dog, right? It's not necessarily educational, but it was aimed at kids. So what sort of drew your focus on robotics for education and socialization, I want to say.</p><p><strong>Paolo Pirjanian: </strong>Yes, correct. Sony Aibo, the robotic dog, my previous company, we developed a computer vision technology for it that enabled the robot to be able to see things and interact with things in the environment. And it was an amazing product, actually, the Sony Aibo. And I've always actually had interest in let's call it mental health. And of course, my craft is AI and robotics. And so after my last company was acquired, I decided the timing is now to go pursue that childhood dream of creating robots that can actually help us with mental health. So we don't categorize ourselves as education in the strict sense because we do not really focus on STEM education. We focus on for children. The first product is for children. It's called Moxie, and it's helping them with social emotional skills, learning, which in layman's term you could describe as EQ, emotional intelligence skills versus IQ, which are more related to STEM type education.</p><p><strong>Harry Glorikian: </strong>Yeah. And it's it's supposed to complement traditional therapy if I was reading everything correctly.</p><p><strong>Paolo Pirjanian: </strong>Exactly. Exactly. We don't believe in replacing humans in the loop. We want people to be treated by humans. But given the shortage and cost of mental health services, there's always room for complementing that with AI and other technologies. And that's what we are doing.</p><p><strong>Harry Glorikian: </strong>So if I ask the question, is Moxie more like a toy that's supposed to be fun, or is it a tool that's supposed to be therapeutic or correct some help help a child that's using it or is it both?</p><p><strong>Paolo Pirjanian: </strong>It's primarily a tool to help children with social emotional learning, things that you would go to a therapist for. The analogy that I use that may be helpful here is really Moxie is a tool to deliver therapy to children. But we we have to make it fun enough for the child to want to take that pill. So in a way, if you use pharmaceuticals as an analogy, a pill usually for children is sugar coated because you want them to take the pill to deliver the medicine to them. So the same way here, Moxie has a lot of fun activities and interesting things that attract a child to want to interact with Moxie. And then during those interactions, Moxie will find the opportunity to deliver techniques and therapies, for instance, to teach the child about mindfulness, teach them about emotion regulation, teach them social skills, to teach them about empathy and kindness, talking about your feelings and so on.</p><p><strong>Harry Glorikian: </strong>I know many adults that may need Moxie for sure. With all those categories you mentioned. Right.</p><p><strong>Paolo Pirjanian: </strong>I agree.</p><p><strong>Harry Glorikian: </strong>But but let's talk about the range of challenges, problems or issues that you've designed Moxie to help with. So can it help with relatively mild issues like shyness, or is it designed to help kids with more severe issues like, Autism Spectrum Disorder or all of the above?</p><p><strong>Paolo Pirjanian: </strong>Yeah, no, it's first of all, you're talking about the audience that it's appropriate for. Obviously, children that have been diagnosed with any neurodevelopmental challenges such as autism need to be trained on social emotional skills. But neurotypical children also can benefit from it. Actually in our customer base, we see a roughly 50-50 split between children that have mental, behavioral developmental disorders. And in the 50% are children that you would call neurotypical. But yet we know even within neurotypical children, they have to deal with things such as stress, anxiety, sometimes even depression. Covid obviously did not help it. It exacerbated a lot of mental health issues for every child, including adults, by the way, as you pointed out. And these techniques and tools that you use from therapy are really the same independent of the diagnosis. Now, some children may need more help with social skills. Let's say if there is a child on the autism spectrum, they may not be very comfortable making eye contact, which is an important social skill to have. When you're interacting with someone, you want to look them in their eyes and Moxie will help them, for instance, with that. And that's maybe something that a neurotypical child doesn't need. So Moxie will focus more on helping them with things such as coping skills, with coping with stress, coping with anxiety or managing anxiety, or even social skills. Like you can talk to Moxie about bullying and it will allow you to talk about it and understand how to navigate that and teach you skills about how to protect your own personal space. A lot of these foundational skills are are the type of skills that social emotional learning includes.</p><p><strong>Harry Glorikian: </strong>So. Let's talk a little bit more about the actual product. And because this is a podcast, I'm sort of like need to talk through some of the features, right? Because they everybody can't see it. But so on the hardware side, you know, the arms, the waist, it bends, the rotating ears, the rotating base, the ears, the face, the speakers, the camera, you know, the program that animates the face and gives Moxie, a personality, the computer vision elements. Right. And then all the scripts of all the different interactions. Right, you know. Why was it important to give Moxie an LCD screen as a face rather than mechanical mouth or eyes.</p><p><strong>Paolo Pirjanian: </strong>Yeah. Let me start maybe take a couple of steps back for the audience, as you said there are no visuals here. Think of Moxie as a AI character brought to real life. Right. So think of it as a, sorry, as a cartoon character brought to real life. So think of a cartoon character that has physical embodiment and it can talk to you. It can smile back at you. We can interact with you with body language and emotions and so on. To your question as to why it required a LCD display. We could potentially consider creating a mechanical face that can have enough expressivity, but that can add a lot of costs on one hand. On the other hand, if not done well enough, it can become uncanny and creepy. So we decided that the LCD display that, by the way, is very is curved because we did not want it to look like a monitor stuck in the head. But it was integral to the design. So it's curved and looks like a face. And what you see on the face is an animated character, Moxie's character, which is integrated very well with a hardware industrial design. So you can provide much more freedom of expression from facial expressions. And especially for children, you want to have a robot that has the ability to show facial expressions. By the way, the intonation of the voice will change as well, based on the type of conversation and the emotion we are trying to capture in the conversation.</p><p><strong>Paolo Pirjanian: </strong>And then the other question, actually, a macro level question becomes embodiment, why did this need to be embodied? Why physical? Why not just a digital character on a screen? Well, so, evidence from neuroscience, from MRI, fMRI scans shows that when we interact with something that has physical embodiment and agency, it triggers our mirror neurons, our imitation neurons are triggered at a much higher level and much wider level than when you're interacting with something just on a screen. And the implication of that is that things you can learn through interaction with the embodied agency have a deeper impact in terms of retention of the information, something that we may be able to anecdotally relate to during COVID. All education went online and the post mortem on that was that te quality of education that was delivered online doesn't compare to what happens in the classrooms. And that's, again, the same thing when it's not embodied. You don't feel that emotional connection. You don't feel an obligation. Many children will just turn off the monitor and walk away, whereas with something that's physically embodied, you feel you can't do that. It has feelings, you feel it has a perspective. You can't just turn it off. By the way, on Moxie, if you look at it closely, there are no buttons on Moxie. There is no input device on moxie like a keyboard or a touch screen or anything else. The way you interact with moxie is the way we interact with each other, using conversation, body language, intonation of voice, emotion, facial expressions and so on. There is one switch actually on the bottom of the robot that you don't see. That's for emergency situations in case something goes wrong. For certification reasons, we have to put that physical switch to turn it off if something goes wrong.</p><p><strong>Harry Glorikian: </strong>So not having played with it does, and only watching the video online, Moxie's voice synthesized like Siri or is it prerecorded? Like, how does it sound?</p><p><strong>Harry Glorikian: </strong>It's synthetic. Yes. So, yeah. So we cast the character of Moxie, decided what this character stands for, what are its values, what is the background story? And then based on that, decided the voice of Moxie, what it should be. And then the way you develop the synthetic voices that you take in neural network and train it based on a lot of samples that we captured from a voice actress in a studio recording hundreds and hundreds of hours of speech from a script. So we have this script and we know how it sounds based on the character's voice recording, and that gets fed into a deep neural network that is trained over and over again until it models that voice. So that later I can just give a text and it will generate a synthetic voice that sounds exactly like that character.</p><p><strong>Harry Glorikian: </strong>And then Moxie seems to emit a lot of sound effects and music. Does that element enhance the product somehow?</p><p><strong>Paolo Pirjanian: </strong>Yeah. So we can underline mood and so on with sound effects or background music. For instance, one of the activities Moxie will suggest if the child is talking about things that are have to do with stress and so on, is a mindfulness journey. Where it will ask you to close your eyes. Imagine you are in a forest or other places as well. There's a library of them. Let's say you're in a forest, listen to the wind and then it will start playing some sound effects in the background and calming music to get the child to imagine they're in that space. For some children that have high sensitivity disorders to certain stimuli like sound, the parents can actually, through a parent app, provide that information which will adjust the settings. In that case, Moxie will actually not use sound effects or any jarring effects that may disturb that child.</p><p><strong>Harry Glorikian: </strong>Interesting. So. Simple question, but is it battery operated? I mean, how long does it last on a single charge? Does it plug in?</p><p><strong>Paolo Pirjanian: </strong>Yeah, it's battery operated because the child usually likes to move it around. You carry the round almost like a baby on your arm. If you remember the days where we had young babies, it was literally ergonomically, it sits exactly right on your arm very nicely. And it has a battery that can run for hours of active usage. And then at night, usually like your cell phone, you plug it in any charges overnight.</p><p><strong>Harry Glorikian: </strong>So, you know, this begs the question of where did the idea of Moxie really come from? Because you don't decide on a whim to build a product this complex. You know, how did you persuade yourself and your investors that the technology is at a point where, you know, it could really make a difference with kids, you know, that have social emotional development issues?</p><p><strong>Paolo Pirjanian: </strong>Yeah. I mean, the idea was sparked probably early in my early childhood, I would say. So, very briefly at a very early age due to a war, my world was turned upside down. And unfortunately, I had to flee my my homeland and seek refuge in another country where I looked different, sounded different and was different. Right? And and unfortunately, as such, you do get rejected by the society. You have a harder time in school. You get exposed to racism and rejection and all these things. So. I remember during that time I saw the first animated short by Pixar. Which was Luxo Jr., the two lamps, mama lamp and baby lamp playing with a ball. Which blew me away that a computer can generate millions of pixels on the screen that are moving to create, to induce or elicit such emotion in the audience. So that inspired me to actually seek education in computer science and robotics and A.I. because before that, as many immigrants you were taught that you were going to be a doctor, so that that's.</p><p><strong>Harry Glorikian: </strong>Or a lawyer.</p><p><strong>Paolo Pirjanian: </strong>Lawyer comes second, but obviously doctor first. So so that inspired me actually to buy a computer and start coding by myself. And I started learning coding and then I decided I'm going to do well in high school so I can get into university and pursue my education. And I did. And to be honest with you, this has been something I've been wanting to do for since I can remember. My previous company, as I mentioned, Evolution Robotics, that was a Idealab company and I was the CTO then became the CEO. I wanted it to do it then, but that's almost a decade ago, or maybe slightly more than a decade ago. We even tried. It was not possible. Absolutely not possible. I remember back then. Just to use an example that I think most people can relate to, voice recognition for even a single command was hard. All of us have had in-car navigation systems with a voice assistant that you would press a button, hold it down and say navigation, and would pull up navigation and say, Enter your address. It will enter the address. And you would have, to by the time you were done, enter the address because it would constantly misunderstand you and then give you options. Did you say A, B or C and no, no, no. I didn't say that. By the time you were done entering the address, you were at the destination. So that was state of the art only a decade ago. Just for voice recognition. Same thing with computer vision.</p><p><strong>Paolo Pirjanian: </strong>My specialty actually was computer vision. Computer vision. Also, we couldn't recognize things very well. And the advancement that has happened in deep neural networks due to the increase in compute power, due to increase to labeled data sets that are available through many sources from YouTube and the Internet and so on. We have been able to solve age-old problems that for decades we were struggling with So it was not possible. The other piece that was probably not possible was that I was not ready as an entrepreneur probably to take on such a colossal challenge of building a product like this. So the stars aligned around 2015 when I decided to leave iRobot and said, You know what? The time is probably right now. And and fortunately, I was able to get some investors that believed in the vision of creating AI characters, AI friends that can help children with social emotional development. And obviously, this technology platform, we will in the future use it for also helping the elderly population with loneliness and Alzheimer's and dementia and so on. We have just scratched the surface with our first products, right? And there is a lot more work to do. But today it's possible. We have proven it. We have a product in the market. A five year old can will interact with it for months at a time without any human intervention. So yeah, so it was a series of events brewing over the last 30, 40 years for this to become possible today.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>I mean, just looking at the system, there's probably a lot of innovations that were required to put Moxie together. And so. I don't know, maybe you can give us a few, you know, like "Oh, my God" moments that took place in this, right? I mean. I don't know if it's the physical movements. I don't know if it's the, you know, personality or the scripts. But, you know, give us the highlights of what you think was like the big breakthroughs that made this possible.</p><p><strong>Paolo Pirjanian: </strong>Yeah. So there are many, many, many, many pieces of technology that we had to invent or partner for to make this happen. So   what I mentioned, deep neural networks, generally speaking, in the field of AI have advanced to the point where we can have very reliable speech recognition technology, for instance, right? Where you have an accent or not, you're speaking loud or soft and so on, you have background noise and so on, it will be able to transcribe what you're saying pretty accurately. There are still errors, but it's pretty accurate. It's accurate enough, let's put it that way. The next stage of the conversation pipeline is actually understanding. Now you have a transcript of what was said. Now I need to understand the semantics of what was meant, what was the intent behind this, this string of characters, and that's natural language understanding. In that area, Embodied has made huge advancements because we have to be able to understand what the child is saying. And the state of the art when we started is defined by Siri and Alexa and Google Home, where it's very command and response. "Alexa, play music for me. Alexa, how is the weather? Alexa, tell me a joke. Alexa, read a story or read the news for me." And so on. So short utterances and and direct mapping to a function that the device can do. Whereas in our case it's not about this transactional command and response, it's about relation and social interaction. So the child, Moxie will actually ask and encourage the child. It says, "So how was your day to day?" There is no way any human being can script all the possible answers that you could expect to hear because you could basically say anything possible to that question.</p><p><strong>Paolo Pirjanian: </strong>So we had to develop natural language understanding that can understand what was said no matter what was said, and provide a relevant response. Because if you don't, if the robot says something that's absolutely not related to what the child wanted to talk about, then children get disappointed. They say, well, this thing is a dumb robot. It doesn't doesn't understand me. And they will dismiss it, right? The illusion of intelligence breaks away very quickly as soon as you you misunderstand or say something off script, let's say. So we had to develop a combination of systems to be able to address that. Another major challenge, and this was actually much bigger than I thought, we spent a lot of time on this challenge to solve. Again, it has to do with interaction using Alexa as an example also, and Siri as well as Google. They all have this notion of a wake word, Hey, Google, hey Siri or Alexa. When you say this keyword known as a wake word, the device is actually at the, when it's on standby, it's putting all of its attention to look for that keyword before it does anything else. So as soon as you say it, a couple of things happen. It's almost like turning on a switch to say, I'm going to speak, right? So number one, you're telling it, I'm going to say something now. Number two, as soon as you have said that phrase, these things have multiple microphones on them. And the mic array allows you to be able to be informed and focus your attention on the location from which you heard this phrase. With doing that, you can also filter out anything that's in the background. So you focus the attention of the device on that location of the user that said Alexa. And then you say a phrase and then it processes and executes the action. In our case, in social interaction, it will not be appropriate if you had to say Moxie in every volley of the conversation. Every time you want to say a sentence to me, you would start by saying Paolo and I and I would look at you, and then you would say something, and then I would stop listening. And then you say, Paolo, for every sentence, right. That would that would be a very awkward social interaction. So we had to solve that problem. It's a tough problem to solve. And we use a combination of cameras to know where the child is, the voice, where it's coming from, and what was being said to focus the attention of Moxie on the person that's engaged with it so that Moxie doesn't respond to the TV or mom and dad maybe having a conversation on the phone over there and it filters all of that automatically, without the need for having a wake word phrase. And I can go down the list. There is many, many more. But this is just examples of the type of things we have to solve.</p><p><strong>Harry Glorikian: </strong>So, you know, I think some people might make the argument that kids should really be learning their social and emotional skills from other human beings. From a parent, from a teacher, from their peers, maybe their therapist if they have one. You know, how can a robot fit into that picture in a healthy, productive way? You know, how would you respond to the potential criticism, which I'm sure you've heard before. When a parent who buys Moxie for their kid, are they offloading their parental responsibilities?</p><p><strong>Paolo Pirjanian: </strong>That's an absolutely valid concern and a good question to ask. And obviously, even before inception of the company, I personally myself was thinking about this because there is a there's a contradiction in saying that a child that is not very good at social interaction, let's put them in front of a robot, they'll get better at it. There's a contradictory element to that potentially. Right. So let's put it this way. In the extreme case, what if the child does not have the ability to have interaction with their peers? Right. So they do not get the opportunity to interact with other peers from which they're actually learning to hone in their social skills. Well, that happened during the pandemic. There's a huge mental health crisis happening in the US now that will take years for us to to address. That was because children were locked in their home without the ability to socialize with other children because of worries about being getting COVID, right. So now pandemics are rare events that hopefully don't happen that often. But now let's put ourselves in the shoes of children that are, for various reasons, are not successful in providing social interactions. An extreme case is a child on the autism spectrum. That does not have the right skills to have social interactions nor interpret social cues in a conversation. Let's say if you're annoyed at someone on the spectrum, it's likely that they may not even understand that you're annoyed at them and they may keep saying the same thing or doing the same thing. That's going to make you more and more agitated or the other end of the spectrum, which is not as severe.</p><p><strong>Paolo Pirjanian: </strong>My example when I was a child. And I lived in a foreign country where I was different. I had an accent. I looked different. I came from a different cultural background and other kids didn't want to play with me. And there's everything in between. Right? So then. What do we do? Well, you can have therapies and that's what we do. There's a massive shortage of therapists. If you have a child, usually the way this works is that your school teacher will come and say, we think your your child may be on the spectrum or your child may have ADHD or your child have some other neurodevelopmental challenge. You should get your child diagnosed. Okay. Hopefully no one has to try this. The waiting list for getting diagnosed is minimum six months, minimum six months. And that's if you have connections and good providers and all these things. While imagine for six months your mind as a parent, you're like, dying. What the hell is going on with my child? I've got to figure this out quickly. Once your child is diagnosed and you spend 6000, 7000 hours on that, then you've got to find providers. There's a huge shortage of providers, and even when you get to the provider, there is a massive cost associated with it. So typically children on the spectrum, as an example, get diagnosed at the age of three or so. Ideally, actually, because the sooner you can intervene, the better the outcomes. And when they're diagnosed, they will be recommended to seek 20 to 40 hours of therapy per week. 20 to 40 hours of therapy per week. Yeah.</p><p><strong>Harry Glorikian: </strong>They're not doing anything else.</p><p><strong>Paolo Pirjanian: </strong>No. And many times, many times schools are supposed to provide it. But you have one or two special needs teachers that are to deal with the whole population of kids on the spectrum in their school as an example. So they're not going to get 20, 40 hours per week. The cost of therapy is super expensive. Insurance also has to pay for it. Nowadays, they're mandated to, but the cost still adds up. On average, a family will spend $27,000 out of pocket per year, even despite insurance coverage. So not everyone has access. And also if you live in rural areas and so on, you don't have access. So. Why not have an automated system that can do this, at least filling the gap? Right. We think of Moxie as a springboard to the real world. So we want to use Moxie as an opportunity to for the child to open up to Moxie, use that as an option, teach them a number of techniques for how they can be more successful in social interactions, and then Moxie will actually encourage them to go in the real world and experience these things and come and tell it about what what, how it went. So we use Moxie as a springboard to the real world. There is another phenomena that happens, and I don't know how to describe this. You may actually have more insights in neuroscience than I do. Children, especially children that have neurodevelopmental challenges, open up to a robot like Moxie better than they do to humans.</p><p><strong>Paolo Pirjanian: </strong>Let's take autism as an example again. I remember the very first experiment we did with our first prototype. We took that prototype to a family's home. They had a ten year old son on the spectrum, and we put Moxie down. At the time we did not have the AI yet. It was the robot remotely controlled by one of our therapists. On an iPad they were typing what the robot should do and say. The child immediately opened up and start talking to Moxie. And if you look at that child, you say. And you know, as a matter of fact, I asked Mom: "I don't see anything wrong with your child. Why do you think he's on the spectrum?" And he says, well, you have to see him how he treats his peers. He doesn't open up to them. He doesn't want to talk to them. When he comes home from school it takes me, mom, a couple of hours to "find," quote unquote, my child. Tuning into the channel. So they shut down. And there's a few reasons for for sort of, I think, anecdotal or maybe rational reasons to why that is. One is that children that are on the spectrum, they completely understand feelings and emotions and so on. They are not very good at expressing themselves or or showing their feelings, but they understand if they are being rejected or teased out in a conversation and so on. So they shut down. A robot is non-judgmental, right? They understand that it's a safe, non-judgmental space.</p><p><strong>Paolo Pirjanian: </strong>The other part is that when someone like me who comes with a warmer blood and too many gestures and intonation, voice and expressive, it's too much there's too many signals going on. And that's overwhelming to a lot of children on the spectrum. And they shut down. It's too much. I cannot deal with this. Right. And so hence, a robot is finding social doing social exercises and experiences on training wheels. And helping them develop those muscles and get better at how to handle different situations when they go in the real world to interact with their peers or other people in their circle, social circle, to be successful. And that success will hopefully breeds more success. So ideally we are successful when people actually stop using our product. And as a matter of fact, we have parents reaching out to us and say, my child could not stand up in front of their classroom to say a word. Now she stands up and gives a whole presentation and we have stopped using Moxie. Thank you so much for the help that that's what what it is. It's like it's stepping stone. It's training wheels for social emotional learning so that they can have a chance of being successful, because otherwise they do not have the chance to to have these exercises to learn. We learn a lot by interacting with each other.</p><p><strong>Harry Glorikian: </strong>So the company describes Moxie as just the first iteration of a larger platform that I think you call SocialX. So what is SocialX and what other kinds of products do you envision coming out of it?</p><p><strong>Paolo Pirjanian: </strong>Yes. SocialX is our technology platform, which which allows a machine to interact with us using real conversation, eye contact, body language, gestures, intonation of voice and and for the machine to do that as well as understand you on all those channels as well. That's what social platform is. The name SocialX is a juxtaposition to user experience, UX with an emphasis on the social experience. Right? We are creating a social experience. We are not just creating a user experience where you can push buttons or say a command, play music. Tell me the weather, what's the stock market like? But rather social interaction which involves social skills, emotion, skills, empathy and so on. And this is our first iteration. It's going to get exponentially more advanced. With every single user we add to our customer base, it allows us to improve SocialX because the data and the interactions that we can experience allows us to keep improving our algorithms to get better and better and better. So we decided to start with children because they are the most vulnerable in our society and we thought that's where we can have the most impact. The other end of the spectrum, where we become vulnerable again is when we are aging, right? And mental health is extremely important for aging people. And loneliness leads to a lot of mental health challenges that lead to a lot of physical challenges.</p><p><strong>Paolo Pirjanian: </strong>We know this. The surgeon general of U.S. said a couple of years ago that loneliness for elderly is equivalent to smoking a pack of cigarettes in terms of the health implications it has. And it's true. Again, during COVID, a lot of elderly that were alone suffered massively because they were high risk for COVID. Even my mom, who lives 5 minutes away from me, I didn't visit her for a few months until we sort of figured out that we think we know how to handle COVID so it was safe to to meet meet each other. It's extremely difficult. So that's the other end of the spectrum that we intend to address. And then in between every age group, in between that, from your teens to your aging, every person in their lifetime deals with mental health challenges. As a matter of fact, the US population, 17 percent of the population at any given time deals with mental health challenges stress, depression, suicidal thoughts and so on. And having a life coach that can help you through these difficult times, we believe can have a huge impact. So eventually with those three pillars, we will be able to help the entire population. You can go beyond mental health, which is what we are focused on, because that's where we think we can have the biggest impact you could imagine.</p><p><strong>Paolo Pirjanian: </strong>You go to Disney Park and you could have an interactive character coming up to you that's not a person inside a suit, but it's actually an animated character that's walking around and talking to you and entertaining you. You can imagine going to a hotel lobby where your intake to the lobby will be serviced by an interactive character, AI character. By the way, we are also working with hospitals and schools. Right now for hospitals we work with University of Rochester Medical Center. We are currently doing a pilot of using Moxie to help children, diabetic children, to educate them about how to treat themselves and how to adhere to their treatment plan. And then there is a number of other use cases that we are going to expand into, including intake to the hospital, dealing, sort of holding their hands and making sure they are not stressed out, coming to the hospital for the first time, pre-op and then post-op. Also a lot of complications you want to avoid by making sure there is someone to remind you about your care plan and so on. So to be honest with you, the sky is the limit. But the three areas we are focused on is children, elderly and then everyone in between that suffers from mental health or loneliness type of challenges.</p><p><strong>Harry Glorikian: </strong>Yeah, there are so many other applications that I can think of that I would, you know that I could use my self. So hopefully, that will come into play because this would be something interesting for me even to interact with, depending on, you know - Don't forget to work out or, you know, there's something that you interact with regularly. Right. But so let's go to sort of the crux of the some of the issues. Right. It's it's not an inexpensive device. I mean, it does a lot. So you can't expect that it's going to be inexpensive. Right. It's it's $999 to purchase plus a separate monthly subscription of about, what is it, $39 per month for a minimum of 12 months. And so how how do you get this out to a larger group of people that really need it. Is it subsidized purchases? Is it insurance? What are you guys thinking of from a business model perspective?</p><p><strong>Paolo Pirjanian: </strong>Yes. So we actually launched the product in the second half of last year for the first time and we sold out. But I agree with you that it would be much better if it was more affordable, because we don't want this to only be a product available for high income families, for rich kids to use a derogatory term maybe. We want it to be available to every every child. And for that to happen, there is a couple of different strategies we are pursuing. One is that once we get to a scale of efficacy studies that are convincing enough that we can get insurance, potentially insurance coverage to cover it or at least subsidize part of it to make it more affordable. The other approach is that we are working with bigger institutions such as hospitals and schools and libraries, by the way, which can buy it and make it available to their population. As an example, this library actually came to us, which is a very interesting business model that addresses the reach to the society that may not be high income. The library bought a fleet of Moxies from us, and they're lending them out to their society, to their members as a book. So a child gets to take Moxie home for a month and then bring it back, which is awesome because we have, by the way, we have done efficacy studies and it shows that even within a month you can see significant improvement on a lot of these social emotional skills.</p><p><strong>Paolo Pirjanian: </strong>But ultimately, that's that's how it goes. And also, just to put it in perspective to two examples. One is that robots of this nature....By the way, there is nothing like Moxie because the technology has not existed today, but people have tried, actually, SoftBank has a subsidiary called SoftBank Robotics that have spent hundreds of millions of dollars developing this robot called Pepper that costs $14,000 to buy and $2,000 a month to subscribe to it. Yeah. So we are orders of magnitude better than that. And that was part of the design principle that we said we want to be on par with an iPhone ownership of a cell phone. Buy it for roughly about $1,000. And you pay roughly about $50 a month in subscription. So we met that goal, which was a major accomplishment, very hard to do, but we are not satisfied with that because as I said, this has to be available. The other part of the other example is that if you have a child that needs therapy and if this cuts your therapy by a handful of therapy sessions, it pays for itself. Right? Again, ideally, we will have insurance pay for it. And so that will take some time. As you know, sort of navigating the medical fields and insurance organizations and so on will take some time, but we will get there eventually.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I recently interviewed the CEO of Akili Interactive, Eddie Martucci, and they are the first group to get an FDA approved prescribed video game for children between eight and 12 years old with certain type of ADHD. And so, you know, they're using the prescription route as a way to have somebody pay for the clinical trials and everything else and the product itself. So I know that this business of robotics is not for the faint of heart. I mean, there's there's many different companies out there like Jibo, which was out here. Or I think there was a company in in San Francisco called Anki that, you know. You didn't pick an easy one, that's for sure, Paolo.</p><p><strong>Paolo Pirjanian: </strong>Definitely not. Definitely not.</p><p><strong>Harry Glorikian: </strong>But but, you know, I you know, I wish you incredible luck. I mean, this this thing sounds so exciting. I mean, it brings out, like, the Star Trekkie guy in me and wants to interact with it and have it do certain things or say certain things or or maybe even like interact with my wearable and be able to see something and then make a comment to me as I'm using it. So I can only wish you incredible luck and success.</p><p><strong>Paolo Pirjanian: </strong>Thank you. I need it and I appreciate it.</p><p><strong>Harry Glorikian: </strong>Excellent. We'll talk soon.</p><p><strong>Paolo Pirjanian: </strong>Talk soon, thank you so much for having me.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>What Kids Can Learn from Social Robots, with Paolo Pirjanian</itunes:title>
      <itunes:author>Harry Glorikian, Paolo Pirjanian</itunes:author>
      <itunes:duration>00:52:14</itunes:duration>
      <itunes:summary>This week Harry continues to explore advances in &quot;digital therapeutics&quot; in a conversation with Paolo Pirjanian, the founder and CEO of the robotics company Embodied. They’ve created an 8-pound, 16-inch-high robot called Moxie that’s intended as a kind of substitute therapist that can help kids with their social-emotional learning. Moxie draws on some of the same voice-recognition and voice-synthesis technologies found in digital assistants like Siri, Alexa, and Google Home, but it also has an expressive body and face designed to make it more engaging for kids. The device hit the market in 2020, and parents are already saying the robot helps kids learn how to talk themselves down when they’re feeling angry or frustrated, and how to be more confident in their conversations with adults or other kids. But Moxie isn’t inexpensive; it has a purchase price comparable to a high-end cell phone, and on top of that there’s a required monthly subscription that costs as much as some cellular plans. So it feels like there are some interesting questions to work out about who’s going to pay for this new wave of digital therapeutics, and whether they’ll be accessible to everyone who needs them. Pirjanian discussed that with Harry, along with a bunch of other topics, from the product design choices that went into Moxie to the company’s larger ambitions to build social robots for many other applications like entertainment or elder care.</itunes:summary>
      <itunes:subtitle>This week Harry continues to explore advances in &quot;digital therapeutics&quot; in a conversation with Paolo Pirjanian, the founder and CEO of the robotics company Embodied. They’ve created an 8-pound, 16-inch-high robot called Moxie that’s intended as a kind of substitute therapist that can help kids with their social-emotional learning. Moxie draws on some of the same voice-recognition and voice-synthesis technologies found in digital assistants like Siri, Alexa, and Google Home, but it also has an expressive body and face designed to make it more engaging for kids. The device hit the market in 2020, and parents are already saying the robot helps kids learn how to talk themselves down when they’re feeling angry or frustrated, and how to be more confident in their conversations with adults or other kids. But Moxie isn’t inexpensive; it has a purchase price comparable to a high-end cell phone, and on top of that there’s a required monthly subscription that costs as much as some cellular plans. So it feels like there are some interesting questions to work out about who’s going to pay for this new wave of digital therapeutics, and whether they’ll be accessible to everyone who needs them. Pirjanian discussed that with Harry, along with a bunch of other topics, from the product design choices that went into Moxie to the company’s larger ambitions to build social robots for many other applications like entertainment or elder care.</itunes:subtitle>
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      <title>How Akili Built a Video Game to Help Kids with ADHD</title>
      <description><![CDATA[<p>Can a video game help improve attention skills in kids with ADHD? According to Akili Interactive in Boston, the answer is yes. They’ve created an action game called EndeavorRx that runs on a tablet and uses adaptive AI  to help improve focus, attentional control, and multitasking skills in kids aged 8 to 12. And it’s not just Akili saying that: In 2020 the U.S. Food and Drug Administration agrees cleared EndeavorRx as a prescription treatment for ADHD, based on positive data from a randomized, controlled study of more than 600 children with the disorder. It was the first video game ever approved as a prescription treatment for any medical problem, and Harry's guest this week, Akili co-founder and CEO Eddie Martucci, says  it opens the way for a new wave of so-called digital therapeutics. Even as Akili works to tell the world about EndeavorRx and get more doctors to prescribe the game for kids with ADHD (and more insurance companies to pay for it), it's testing whether its approach can help to treat other forms of cognitive dysfunction, including depression, the cognitive side effects of multiple sclerosis, and even Covid-19 brain fog.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>Can a video game help improve attention skills in kids with ADHD?</p><p>According to Akili Interactive in Boston, the answer is yes. </p><p>They’ve created an action game called EndeavorRx that runs on a tablet and uses adaptive AI  to help improve focus, attentional control, and multitasking skills in kids aged 8 to 12.</p><p>And it’s not just Akili saying that.</p><p>The U.S. Food and Drug Administration agrees.</p><p>In 2020 the FDA cleared EndeavorRx as a prescription treatment for ADHD, based on positive data from a randomized, controlled study of more than 600 children with the disorder. </p><p>It’s the first video game ever approved as a prescription treatment for any medical problem.</p><p>Kids are advised to play the game for 25 minutes a day, five days a week. After two months of play, two-thirds of parents of kids in the controlled study said they saw a meaningful change in their children’s day-to-day impairments. </p><p>The FDA’s approval of EndeavorRx opens the way for a new wave of so-called digital therapeutics, designed to treat all kinds of problems with cognitive functioning, including depression, the cognitive side effects of multiple sclerosis, and even Covid-19 brain fog.</p><p>Akili is busy telling the world about EndeavorRx and working to get more doctors to prescribe the game for kids with ADHD and more insurance companies to pay for it. And here today to tell us about all of that is Akili’s co-founder and CEO Eddie Martucci.</p><p><strong>Harry Glorikian: </strong>Eddie, welcome to the show.</p><p><strong>Eddie Martucci: </strong>Thanks, Harry.</p><p><strong>Harry Glorikian: </strong>So I'm dying to get into the company and all the things you guys are doing. But, like, before we jump into the company, I'd love our audience to get to know you a little bit. Right, because you're a long time health entrepreneur. You got your PhD at Yale in the departments of pharmacology and molecular biophysics and biochemistry, where you studied structure based drug design. But how did your personal path lead you from molecular biology, which is near and dear to my heart, to video games to treat cognitive impairment? I mean, that that's not exactly the Venn diagram I would see that somebody would just put together.</p><p><strong>Eddie Martucci: </strong>No, it's not. And there is no there is no path for this. Right. Because this is so different and so new. I would say my personal passion is just new science findings. Like I just love brand new science. I was a researcher for a short stint while I did a PhD. I think I had some pretty cool research. But really, if I zoom back, it's new science and new discoveries that are moving the health world forward. And that can be whether it's insights about some part of our biology that we didn't know before, that leads us to understand the human body better. Or in the case of what I've really done from a professional perspective, it's scientific insights that can lead to new treatment modalities. And so that's really what got me most excited. I think the path that was most impactful for me, you know, I was a biochemist at Providence College and a biochemist and biophysicist at Yale, and I love proteins and structural biology and all that. I still do. But I came out of my PhD and and worked with a group called PureTech Health in Boston. And Puretech is really just this unique new health care company where they've done everything from, they have research and development and discovery, but they also have in many ways nailed down a process of starting new companies off of groundbreaking science. And so while I was in grad school, I was exposed to a couple entrepreneurs that really put a light bulb in my head that, wow, this is something I should look into. And then I got training at PureTech in Boston. And that's what kind of got me thinking about brand new medicine and brand new modalities that were never considered medicine before. And the rest is history. Once you get a framework where you can start thinking like that, then it's just work.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, I knew Daphne, I think when she started PureTech and her advisory board was like, I mean, Nobel Prize winning, who's who sort of. Right. Just watched it evolve over time. But, you know, when you were at PureTech, I think one of their focuses was neurophysiological disorders. I mean, is that the real bridge that helped start Akili? Because I remember that came out of Adam Gazzaley's lab at UCSF, if I remember correctly.</p><p><strong>Eddie Martucci: </strong>Yeah. Adam Gazzaley is where we found the core technology that which we call SSME, which has gone on to power our products, including our FDA approved product. But yes, what I was working on at PureTech, including directly with Daphne, who's really brilliant in helping and bringing new big ideas to life and board members, including people like Ben Shapiro, who used to be at Merck. And he was one of my longest term board members. It doesn't hurt to have folks like Bob Langer in the room once every quarter to bounce ideas off of as well. So like, a very privileged place to start a company. But yes, I was working on novel CNS technologies, in fact. In fact I was working on a few and one in particular that was new devices, new devices for various neurological conditions. And it was really from that effort in thinking about what are the newest modalities of medical devices that we leaped one big bridge further and said in 2010 or about or maybe 2009, could we go further from a user experience perspective now that the whole world is carrying cell phones and tablets every day? Could we go further? Could we could we think about digital? And that was right around the time when everyone and their mother was talking about digital helping medicine. And because we were in the headspace of novel therapeutic modalities, I think it was a natural leap to say, what about digital being the medicine? And then we had to find the science. And that's where I found Adam Gazzaley and, and, and we got off to the races with that technology from UCSF.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean this whole area of digital therapeutics, I've been talking about it for years now and trying to convince people and they look at me really weird when I say digital therapeutics and I try to explain it to them. But so but the game you have built is called EndeavorRx. If I got that correctly. And can you tell? Me more about the game itself. Like, what are the operative features or game mechanics that are thought to increase attention in kids who play the game?</p><p><strong>Eddie Martucci: </strong>You kind of have to back up to the core technology. So the way we build the business is not building one product or one game. We're building a platform technology, meaning a technology that is not made for a single disorder. But instead the problem we're going after and that we started with all of those years ago, about a decade ago, is cognitive functioning. Cognitive dysfunction in medicine is not targeted well by molecular pharmacology. That is the problem statement. We don't target cognition very well in medicine, if at all. And so our whole theory and thesis for the business was, if we could bring in the best technologies in the world, that through software could actually target cognitive functioning directly, then we would be bringing a pillar of medicine that does something much, much different than what medicine does today. So the technology out of UCSF that we started the company around, that we have branded the Selective Stimulus Management Engine, the way this technology works, which will then help you understand how the products in for ADHD children works. The way this technology works is it is giving constant stimulus, both visual and motor. So it's creating conflicting and overwhelming stimulus to activate the part of the brain that controls attention, which is the midline prefrontal cortex. So the front part of the brain that really controls attention and speed of processing and integration, this technology is patented to be able to activate that part of the brain very strongly, but also enhance what's called long range coherence. So as you're using this technology, not only is the front part of the brain activating much more, so you can apply your attention downwards.</p><p><strong>Eddie Martucci: </strong>And I'll get to exactly how this manifests, I promise. It is also more seamlessly based on the neurological data we have. It appears to more seamlessly be helping the brain communicate to the sensory processing regions. And so the way this manifests in ADHD children, when they're using our product EndeavorRx, which is meant for children 8 to 12 years old with ADHD who struggle with the attentional issues. This product is basically experienced like a racing video game where children are running a little alien figure down a course that is ever adapting. And they're getting information, meaning things that fly up to the screen that they have to make decisions on. And that's ever adapting because we have these deep, personalized algorithms so that everyone gets their own experience. So basically what people feel is they're using this technology that feels like a game, and it's just constantly challenging them in different ways. What's happening in the brain and this is how it's designed, is that the game is presenting very specific stimuli for each user that is pushing them at the edge of their processing ability. And that's part of the IP we have, is how to do that in a really seamless way so that by the end of using a game you haven't just been using a game, you have been essentially taxing the weak link in your attentional processing every single second for hours.</p><p><strong>Harry Glorikian: </strong>I think every CEO of that we may know mutually needs to be prescribed this game.</p><p><strong>Eddie Martucci: </strong>You know, CEOs and investors have been probably the most common people that in meetings will stop me and say, hey, I think I need this.</p><p><strong>Harry Glorikian: </strong>Yes. So how did you ideate and test the game mechanics?</p><p><strong>Eddie Martucci: </strong>Yeah. This is this is really a tenet of the business where we decided early on that to truly—we want to disrupt medicine and we want to create and integrate our type of medicine into mainstream medicine. Far too often, digital is kind of left to early adopters or on the sidelines of real medicine, excuse me. And our whole thesis was you have to run real validated and literally gold standard, rigorous clinical research. So when we had done this, no one had done a well designed trial before to study something that looks like a video game. And so that's really where we spent the first handful of years of our existence is after we built the kind of data infrastructure, which we can talk about, and the adaptive algorithms. We then invested years in how to run good clinical trials with this type of product that's an experiential product. So our goal all along was being able to run the same or better rigor of randomized controlled trials that you'd expect from a drug for this same disease area. Obviously, as an interactive product that you can see and you interact with, that means you have to take a little bit of a different approach.</p><p><strong>Eddie Martucci: </strong>So we had to do a lot of work with some of our advisors and with places like Duke University on how to blind the protocol. Because it has to blind very differently. And how to how to have a control, an active controller sham that is actually controlled. And there's many nuances like that. But at the end of the day, the trials we run are meant to replicate or be analogous to drug trials, where you have really strong controls up front, that you're not biasing individuals and that the outcomes—and this is the differentiator in digital—that the outcomes are gold standard accepted outcomes for whatever you're studying. And so that was what we've done. What we did the first time we were in a trial, we were like, it took a lot of work and we were nervous about it. But we have a clinical ops team now and we've run a few dozen trials across, I think, nine or ten disease populations, so we've become pretty good at it.</p><p><strong>Harry Glorikian: </strong>Yeah, I was going to say, I mean, coming up with the first one, everybody's probably scratching their head trying to figure out, are we doing the right thing? But, and I have this discussion with some of the people I work with all the time, what's the proprietary special sauce in the case of digital therapy? I mean, is there a defensible algorithm or insight at the heart of something like EndeavorRx that would be comparable to a patented small molecule in the you know, in the traditional drug industry?</p><p><strong>Eddie Martucci: </strong>In our case, yes. And I'll tell you about that. I think what this really comes down to, though, that question about digital therapeutics, it's like a business question for the industry. To answer that question, it's important to recognize there's nuance in the industry. So the vast majority of digital approaches, I think, are tough to protect because they're taking well known human practices and putting them into an app. Right. So there's 90 percent of the digital therapy companies or products out there are using different forms of behavioral therapy or disease management techniques or strategies, and they're bringing them into an app that is not bad. It's hopefully very, very good for patients. There's a few validated products there that are, no question, good for patients. I think it does make those types of products harder to protect. We've taken a bit of a different tack. We're a little bit, I guess, iconoclastic within the industry in that what gets us excited is software that even though it's software, it's more drug like in that it's directly targeting and activating the dysfunctional physiology in the body. You can measure that and by virtue of that, you're having a really unique effect. </p><p><strong>Eddie Martucci: </strong>The second big difference is we are using algorithms that have not been ever reported on before. So we take much more of a drug lens where we actually do protect we patent our technology. So we call this whole class “physiologically activating digital therapeutics.” Some people have referred to them as mechanistic digital therapeutics or disease modifying. There's different phrases, but this idea of unique algorithms that you actually can protect with patents and copyrights, which we do. So we have about 50 issued patents for the technology that underlies EndeavorRx and another 100 that are filed on our various technologies. And you can demonstrate this has a real, unique physiological effect. I think what it enables, at least for these types of products is a feeling from the health care world that this is much more what I'm used to seeing in my traditional medicine where it's unique. I can't just go get this anywhere because I trust that this one product is the only one that has this unique technology. And by the way, it's been proven to work. And I trust that they're a stable company that's going to be around for a while. Those things are really important to our model.</p><p><strong>Harry Glorikian: </strong>Well, it's a good thing that I've been explaining it to people the right way. So at least now that we've talked, you know, my explanation is aligning correctly. So I'm happy about what I'm reading is correct. Let's take a step back. So, there's a lot of kids with ADHD who have no problems concentrating on something for hours if they're really interested in it. But it strikes me the key feature of the of the product is not just keeping kids engaged. It's supposed to build or improve those skills. Is that the key thing that makes the game special or unusual or different from any other pastime, say, building LEGO spaceships?</p><p><strong>Eddie Martucci: </strong>Yes, absolutely. So the engagement is critical, but the differentiator is the challenging and improving of that core cognitive functioning. And you don't get that just by engaging in something. And actually, the vast majority of entertainment products you engage with will allow you to either passively engage, meaning you could watch YouTube videos for hours and hours, but you're not actually challenging your brain or actively engage, but in a way that you don't really have to challenge what you don't do well. So in most video games, you can choose what most of us do in life, choose the path of least resistance, because we like certain ways of using a product. Our product is unique in that this this patented algorithm forces you—it's essentially measuring second by second where you're weak and processing the various streams of information and it is forcing you to work on those areas where you are weakest. But it's doing it naturalistically. It feels like you're using a treatment, but it's really that level of focus on, for lack of a better word, it’s really that level of focus of delivery of that algorithm that's actually going to stress you where it, for lack of a better word, hurts the most. That is the differentiator. The other big differentiator is, is the personalized algorithms that that we built in. And this is where, frankly, technology and data rich medicine has never gone before. But within seconds of using the experience, this product is tailoring to each individual user. And this is true whether we're talking about kids with ADHD or some of our trials and products and adults with depression or MS, these products can actually tailor to your functional level and then move you along from there. So those two those two bits of how the algorithm works are critically important. The engagement is really the delivery vehicle to make sure you're getting that level of medicine.</p><p><strong>Harry Glorikian: </strong>Yeah, definitely, if this was available to people in a larger age range, there are people that I definitely need to recommend this to when well then that becomes available.</p><p><strong>Eddie Martucci: </strong>But well, that's the interesting thing about cognitive dysfunction, right? The way I talk about it sometimes is cognitive functioning and or problems with cognitive functioning go across disease, right? They're in many ways disease agnostic. Almost anything that touches the brain results in some level of cognitive dysfunction or at least some proportion of patients that have longer term cognitive dysfunction. But it also goes above and below disease, meaning subclinical. So there are people that are not diagnosed with issues that, you know, that probability-wise there's 20 or 30 percent that are significantly below the mean they're struggling with these things. So this is a this is a basic human function that rears its head in a really nasty way in many diseases, but is actually relatable to all of us.</p><p><strong>Harry Glorikian: </strong>Yeah. So. I mean, there's a lot of challenges when you're trying to design something like this. A ten year old will not spend much time playing a mobile game unless it's it's just as compelling as, you know, anything that they could download as a mobile app. So. How did you guys, what steps did you guys take? You know, it's almost like game design and, you know, therapeutic outcome, you know, together in one package. And so how did you guys, what steps did you guys take to make sure this thing was fun?</p><p><strong>Eddie Martucci: </strong>Correct. Yeah. And it does depend on the population. Right. So we have products, obviously a marketed product in for children with ADHD, but we're developing products and have trials and data and adults of various ages. The I think you're right. If you focus on children, there's a there's an engagement bar that is not easy. Right. Kids are highly discerning. They know a good game and a bad game. And what we like to say is we have no delusions that we're going to come out with the next blockbuster entertainment game. That is not how we built the company. However, we do want to have a game that looks and feels like the type of games that you actually like to play. So it has to be worlds better than edutainment, as people call it, educational software, because kids know. And so the way we did that is this is one thing that makes Akili very unique. Instead of outsourcing or kind of outsourcing game development or adding game development at the end of our development cycle, we actually have built the company to have cognitive science, clinical science, and game development fully integrated from the earliest days. And data science, for what it's worth, is really a kind of foundational thread for all of those. And it's hard. It's really hard. I mean, developing a product that has both these things, the strong science and the engagement, is really hard, but it's also really hard for people from all these different industries to, you know, be speaking the same language and work together because the development processes are different, the language you use is different. Your mindset of how you think about developing is different. And so for us, what I always talk about is it's literally daily attention. I'm unwilling to sacrifice or give up on it. We have to do both. Well, I think where we are today with EndeavorRx as our first product out of the platform, it's a really good product. It was built to show clinical efficacy and engage people to a minimal degree. It does that. Some kids love it. They will play for months at a time, you know, five days a week for four months. But yeah, there's a lot of people that kind of get through it and then plenty of kids that say, I really don't want to use this. So we've built features around the edges, things like an app for parents to allow them to track and monitor and incentivize their children. And we try to educate our users on why you're doing this. And so it's got to be a mix of the engagement itself, but also a little bit of inherent motivation that, hey, your doctor's in the loop, this is your medicine. It's important to put the work in and accomplish it.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>What makes you optimistic? Because I've been, you know, enamored with this space for a while now and trying to watch like where it's going to grow and what's going to get in its way. And so what makes you optimistic about digital therapeutics, either as a venture scale business or a public company. Because I know you guys are thinking about that. Tell me what you're thinking.</p><p><strong>Eddie Martucci: </strong>Yeah, a couple of things that make me very optimistic. I think the foundational groundwork is now done and we’ve shown it can be done. So we know that these products now can be developed, they can be protected, they can be brought through clinical trials and actually help patients. That's the most important thing. They can undeniably with strong clinical data, help patients and they can be brought through the FDA and now being prescribed by docs. So these prescription digital therapeutics, there's only a couple of them on the market. But literally at this point there's been now thousands of docs, not merely tens or hundreds, but we're talking now about thousands of docs who have prescribed prescription digital therapeutics to patients, where a couple of years ago that would have been essentially zero. So the foundations are there more. Every month that goes on, it becomes a a self-fulfilling cycle where doctors and patients hear about it, they're aware of it. They know someone who's tried it. And it's becoming a little bit common nature to think, wait, isn't there something digital that I've heard about for this? I think that will flip in the coming years to I expect to have a digital treatment or I expect to be told the digital option for my doc. So that makes me that makes me optimistic is that the groundwork is there. We know it can be done.</p><p><strong>Eddie Martucci: </strong>The second thing is, frankly, society is demanding better medicine in many different ways. They're demanding, and mainly I'm talking about patients in many respects, they're demanding more accessible medicine. They're obviously…we all got the efficiency bug of telemedicine during COVID. And while I've seen the data that that has significantly receded, I don't think the concept of online or digital in medicine has receded from anyone's mind. I think we all know that it's far more efficient and we should expect to see more products that are digital in nature, whether that's scheduling with a doc or taking a treatment. And so I think there's this kind of wave in society that is that is pushing people to recognize that we should be open to these types of products. The other thing is, whereas docs and patients years ago when we did market research, there was a level of skepticism that was pretty healthy. I now see a level of openness where if there's good data and there's especially in our case, things like FDA approval and strong clinical data, there's a better chance than not that both patients and doctors are going to be not only acceptable or accepting, but they're going to want to at least try something like this. So all the groundwork is there. We've just got to keep keep plugging away because it's new.</p><p><strong>Harry Glorikian: </strong>I talk about the whole digital therapeutic space in my book. And I always tell people look, if a product like this works for you, you're not going to have a side effect profile the way you have with some of the small molecule drugs that I've seen. It's trial and error with those things. And sometimes things don't go as well as you want them to and you end up with a very angry child if the drug doesn't do what it's supposed to do.</p><p><strong>Eddie Martucci: </strong>It's egregious. It's egregious. I mean, medicines, pharmacological medicines for neurological conditions are critically important. Don't get me wrong, I think they're critically important. And EndeavorRx is not meant to be an alternative to medication, especially if it's working well for for a child. But the problem is, there are many components of these conditions that are just not well addressed. And so you're left as a clinician to try to use these blunt instruments, these molecules which weren't delivered for these problems or rather weren't designed for these problems. You're trying to use them, but you're fighting the side effect profile as much as you're fighting the efficacy the whole time. And so you're right. Trial and error is the right phrase. Like the fact that we're still doing trial and error in CNS conditions all these years later is crazy. And there's a better way because we now can have these more targeted products that are part of the patient's toolbox.</p><p><strong>Harry Glorikian: </strong>Yeah, and we need more of them, so. Yeah, great. But let's talk about the business model, right? I mean, this is, you know, feels like fresh territory, right? And if I think about mobile games generally don't make money unless you sell millions of copies. Right. So you have you must have a different business model in mind from the beginning. I suspect this business model revolved around, you know, selling Akili games as a prescription based therapeutic at a cost that would be more typical for a drug than a mobile game.</p><p><strong>Eddie Martucci: </strong>Right. Right. So the concept here is we want the products to get to the patients that really need them and we want to involve the doctor in the loop and we want to have products that are proven. And so all of that to me says a core medicine model, meaning prescription treatment, as you said, covered ideally by insurance largely, but with a little bit of out-of-pocket burden from the patient. You're right, the general cost is a little bit more in line with pharmacology, although the good news in mental health and behavioral health is that's that's relatively inexpensive. We're not talking about multi-thousand-dollar therapies here. We're talking about something that is in the low hundreds per month. And for the patient, really more like $30 to $50 a month. So these are the cost structures that we think are tenable and have been working well in behavioral medicine. And that's really where we're starting. But we're in the early days. I think one of the beauties of digital is we don't have to just stay there, meaning that is the core of the model, a prescription that scales and is paid for by both insurance and patient.</p><p><strong>Eddie Martucci: </strong>But I think there's a lot of potential to evolve and iterate the model that has more consumer elements to it. For instance, like your best technology products, we can adapt the product itself to grow with you. Like your best technology products. We can serve, you know, services and help on the side beyond or in between your use of the actual treatment. So there's a level of connectivity with our end user and consumer that is that actually looks a lot more like best in class consumer software where you can have a long term relationship with a patient. Now, we have not pulled any of those levers yet, but I think what we're most excited about is the bringing both of those models to bear. A medical model, but that has some aspects to it that can actually grow and extend more like software. I actually think that's where the field will go. But it is early days. We'll have to see how this we'll have to see how this shakes out.</p><p><strong>Harry Glorikian: </strong>Well, that's why I always I always tell people, like, you know, once you digitize something like you get to have a broader imagination about what is possible in that realm as opposed to, you know, sticking to exactly what we did before.</p><p><strong>Eddie Martucci: </strong>Exactly.</p><p><strong>Harry Glorikian: </strong>But taking a step back here, no one has ever marketed a prescription based video game or won marketing approval from the FDA for such a product. Right. So how did you frame yourself? You walk in there and you say, “Hey, here, play this. And you're going to like it.” What were the hurdles? What did you have to overcome to get regulatory approval for this? What was it like dealing with the FDA?</p><p><strong>Harry Glorikian: </strong>No, it's a great question. Yeah, the FDA process is fascinating. We know it is rigorous, it's long, it's mostly collaborative. Right. The FDA wants to learn and help. But I think, number one, most importantly, there's unfortunately a myth out there today that digital therapeutics are actually medical devices generally don't have to go through efficacy analysis by the FDA. So I see this myth all the time. People say, well, you know, on the medical device side, they only look at safety. And so, unfortunately, with broad brushes, people have painted digital therapeutics as part of that. They've said, well, digital therapeutics may or may not have evidence, but the FDA looks at safety. I can unequivocally tell you that could not be farther from the truth. I would say 95 percent of our interactions with the FDA, which took the better part of two years because our product was so novel, you can imagine we were not only innovating the delivery mechanism, it's a video game. We were innovating the target, which is cognitive functioning, which there are no products labeled for cognitive functioning. And we were trying to look at what are the endpoints that, you know, that read on cognitive functioning. All of this is new, but not 95 percent of the questions we had, and that's—please don't quote me on the specifics, this is not a deposition—but in that range, were about efficacy. And we went through every little bit of our efficacy data so that the FDA could understand it, so that they could audit it.</p><p><strong>Eddie Martucci: </strong>We even, midway through our regulatory process, brought on a fifth study. So we have five studies in our FDA label package. So we brought on the most recent study to show to address some questions FDA had around efficacy in the longer run or efficacy along with medication. So this was a very rigorous process. I always tell people the good news about this is you can trust it when it comes out because this is something that looks and feels a lot like the drug process, right? There's a lot of scrutiny put on the trials and the legitimacy of the trials. So so it looked a lot like that. It's highly iterative. From a business side, the one tough part with FDA is when you're when you have a new classification for a product, so a 510K de novo, so they're creating a classification, there is no hard timeline on the review. And so when you're a startup and you're building a business, you kind of just keep iterating until you get to a label or not, right? And luckily in our case, we did. But yeah, I mean, as a startup, you're going through a nearly two-year approval. It's stressful. It's stressful, but it's good for the industry, I believe, because it's really forcing a high bar of science.</p><p><strong>Harry Glorikian: </strong>Well, no. And I mean, that's what you want. You don't want a low bar and then things go wrong, like you want it to be held to a higher standard. And usually when the FDA is taking on something new, they've also got to take the time to catch up to where you are. Right. They can't just walk in the room and be ready for this. So you're sort of paving the path for everybody that's coming behind you, which is a I guess there's a good part of that and a bad part of that.</p><p><strong>Eddie Martucci: </strong>Yes. Yes.</p><p><strong>Harry Glorikian: </strong>So there's a lot of stakeholders and gatekeepers in this space that we're talking about, right. Patients, parents, physicians, payers. I mean, each one of them needs to be persuaded that digital therapy or digital therapeutics are, you know, beneficial and worth prescribing or worth paying for. So, anything special you're doing to sort of win them all over?</p><p><strong>Eddie Martucci: </strong>Well, we're doing the work to put time and attention towards it. So you're right. Just because it's digital does not mean people will use it or understand it. So you've got to sit with patients and educate. Just because docs have a new tool doesn't mean they'll trust it. So you've got to spend time to make sure they understand the data and more importantly, understand where we're trying to play in the treatment paradigm. Right. Because, again, we're not … the easy answer for a digital is, “Oh, this is supposed to be a digital equivalent of a drug.” No. It's more nuanced than that. This is supposed to help in a very specific way. And insurers are probably the biggest barrier because it's so new for them. Right. This is this is very new. They don't really, they're not really built to be able to adjudicate digital products. Right. And unfortunately, we've got some of these types of myths floating around, like the FDA medical device myth, which understandably makes insurers uncomfortable. Right. If they if that's what they've heard, they say, well, how in the world am I supposed to adjudicate efficacy if the FDA doesn't? I guess I'll look at this with all the other hundreds of wellness apps out there.</p><p><strong>Eddie Martucci: </strong>So it's education time. Honestly, it's education time to unravel these myths, to really sit and make sure these stakeholders understand the data and the utility of the product. In terms of special things, one of the one of the nice things about growing a company, especially with digital company in this day and age, is you can test and iterate really quickly on all of these fronts. And so when we test you've got to have the meetings and you've got to fit into their review cycles. But for patients and docs, you know, we, we take a very clear test and learn approach. We are releasing certain types of educational content or certain types of marketing messages in pilot phase. Right now we see what works, we see what doesn't. We adapt. We do the same thing with the distribution infrastructure, frankly. Like how in the world do you get a video game therapeutic from your doctor? We built the infrastructure. We tested, we changed, we scrapped half of it and started again. So that is the beauty of living in a digital world. We can we can do that type of testing and learning.</p><p><strong>Harry Glorikian: </strong>And good old AB testing on what works and what doesn't.</p><p><strong>Eddie Martucci: </strong>Totally.</p><p><strong>Harry Glorikian: </strong>All right, let's step out of ADHD for a minute. You've been talking about other neurophysiological sort of conditions. And I think the website, if I'm not mistaken, mentions depression, cognitive dysfunction, multiple sclerosis, autism spectrum disorder, and a few other future treatments is. Is there something about the EndeavorRx platform or the proprietary adaptive algorithm that gives you the ability to sort of generalize? And I think you mentioned that earlier, but sort of to dig into that a little bit.</p><p><strong>Eddie Martucci: </strong>Yeah. So it really starts with what technology are looking for. And so we don't source technologies that are meant for any one condition. That is more common in the behavioral therapy space where there's behavioral therapy for disease X because it's a tried and true technique specific to the disease. The way we work is looking for technologies that actually activate specific brain regions and have data that they do that well. And so the interesting thing that we found about cognitive functioning, and we knew a little bit about this, but you know, I don't like to have revisionist history and say we we knew it all, with cognitive dysfunction and disease, independent of the etiology or the cause of why the brain is having issues, the downstream manifestation actually tends to bucket into very similar issues. And so our theory was, and so far it's proven true, is if you could bring technologies that are meant for the neurological processing issues, not the disease, not specifically the disease, then any condition that results in similar issues, you should be able to have a functional impact on. Because we're not we're not targeting, you know, dopamine reuptake and a dopamine driven disorder. We're not targeting myelination in am anti-myelinating disorder. We are targeting the end result, which is how well the brain is communicating. So we've because we start there, we, we theoretically have the ability to go across disease, and we've actually shown it now. So the same technology that has a treatment label for ADHD has been able to power two studies, including a larger randomized controlled study in multiple sclerosis adults, and showed clinically meaningful, large changes in speed of processing and related cognitive functions. That's the same technology under the ADHD product. ADHD and MS could not be farther from each other in terms of cause, but because the resulting functionally in the same in the same area, that's then you get that benefit. So that's our theory and that's how we're going to continue to develop products and take a functional and a neural network approach, if you will. And, and ideally, we have a much more efficient product pipeline because of it.</p><p><strong>Harry Glorikian: </strong>So. In your mind, like what are the biggest unanswered questions, either for EndeavorRx or for the Akili business. Is it more product? Is it more market? I mean, for example, do you worry about whether it'll work, you know, in the real world, as well as it did in your initial studies, whether doctors will prescribe the game, whether payers will cover it. There's all these issues. And so I'm just wondering where you think the biggest hurdles lie?</p><p><strong>Eddie Martucci: </strong>Sure. Yeah, I think I think my number one is not about the product. It's really systemic to the to the health care system and industry, which is it's important to me that the insurance industry, the doctors write prescriptions, but more importantly, the insurance industry and broader we could call it the payer industry. Right. Anyone that should be paying for medicine pays for digital therapeutics. Right. I don't think this should be the only class of medicine where patients bear the entire cost. That makes no sense. So we are not there yet for sure. Right. We're in such the early days that I think some payers are waiting, but I think we're starting to see a turn. We're beyond skepticism, beyond intrigue, probably into early acceptance. And I think the work needs to be done. And frankly, we need we need a couple folks in this industry and by folks, I mean both people, but also organizations to step up as the early pioneers for their patients. I think that's really important. Now, again, I have empathy for why that part of the industry moves slower. They're trying to protect patients. There's obviously cost arguments as well. And there are some of these myths or misconceptions out there about the industry. But I think when education is done right and when payers really engage, we're going to start to see a broader payer ecosystem adopting this like they would any other medicine. So I think that's kind of the biggest near-term barrier. And slightly longer term, I think the business model is a question. Which no one likes to hear, no investor likes to hear. And we're a company that's going to go public. I don't mean the business model is a question in that we don't know if we can make money or build a business. I just mean, what is…so, the foundations we know are there. Doctors will prescribe, patients will pay, payers are starting to pay. It has a benefit in people's lives. So the foundations are there. The business will grow. What the eventual business model is, is TBD, frankly. What is the top end business model that's going to allow a company to thrive at scale? I think we have to invest to learn that. And I'd say the same thing about the product. In terms of the product, it's not whether it will work, it's not whether it can help patients on the market. We've shown all of that. It's at this point, how well can you develop that product on the market so that it engenders long term compliance so that engenders loyalty and use in the future? And so I think in both those scenarios, I guess the health care system’s got to get there. Which is a secondary priority, more like an opportunism. We don't want to miss the opportunity to find the best business model or to iterate on the products because we have the ability to do so. I don't want to miss that opportunity to grow the best business model we possibly can.</p><p><strong>Harry Glorikian: </strong>So you mentioned going public once or twice, and so I saw that there's paperwork with the SEC to go through a public filing with a special purpose entity backed by Chamath, whose I think it was Social Capital, through his venture fund. What's the thinking behind becoming public? Why now?</p><p><strong>Eddie Martucci: </strong>Yeah. I think I always had a mantra and I didn't come up with it. This is from advisors to me and mentors: Stay private as long as you possibly can for the business to be able to adapt and iterate and a little bit more of a clean way. But I think that time has come, and the reason I say that is we have a product that is being prescribed by doctors now and we have a pipeline where I've already talked about it. We could help potentially up to dozens of different populations who are struggling today. On top of that, the need and urgency around mental health and behavioral health has had a step function change in the last year. Right. We know that President Biden talked about it at the State of the Union. The surgeon general has put out a national state of emergency on youth mental health. So the time is right for a real investment here and the time is right for the company to fill that need. We know all the all the foundations are right. So I've always wanted to wait till that moment why we chose this specific entry point and vehicle, which we hope is kind of middle of this year, that Akili becomes a publicly listed company is, I think, the opportunity to not only have capital and the type of flexible capital that the public markets gives you, but in the case of a special purpose acquisition company, the expertise of that acquiring entity, in this case, Chamath Palihapitiya, who's extremely well known and amazing at building disruptive technologies for different industries that scale to ubiquity using technology and data.</p><p><strong>Eddie Martucci: </strong>But actually that the SPAC vehicle here is Social Capital Suvreta. Suvreta being a well known biotech hedge fund who specializes in early commercial biotech companies. So rarely do you get to become public with the right amount of capital, but also some new expertise around the table, strategic expertise in a disruptive business. And I think we get both of those with this deal. So we're still, it's too early to tell if the whole thing will go through. We're certainly crossing our fingers and hopefully if people listen to this in the longer future, Akili is already a public company and thriving.</p><p><strong>Harry Glorikian: </strong>Well, I mean, it's a good thing I spoke to you now so that we could speak a little bit more freely than when you're under that public rubric.</p><p><strong>Eddie Martucci: </strong>But oh, no, I'm already I'm already watching my words. It is important. It's a level of maturity as a business. Now, we have we've grown for about a decade. We grew methodically and slowly. We have over 100 employees now. And, you know, businesses change and mature. And I think it's the right time for us to do it.</p><p><strong>Harry Glorikian: </strong>Oh, yeah. I mean, a lot of the companies that I interact with as an investor, I mean, when we're going to go public, it's like, “Oh, we got to do this, we've got to get that ready. We got to get accounting ready. We got it.” I mean, you've got to go through it methodically because being public is is not for the faint of heart for sure. So, well, I wish you the greatest success. I look forward to staying in touch and, you know, keeping up to date on how things are going with the company. And, you know, I hope a ton of people listen to this because it's easier for them to hear it from you than hear it from me.</p><p><strong>Eddie Martucci: </strong>Thanks, Harry. This is a lot of fun. And thanks for your focus in innovation and these new areas that are really going to transform patients’ lives. So I'm hoping we're doing our part there.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 26 Apr 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Eddie Martucci)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Can a video game help improve attention skills in kids with ADHD? According to Akili Interactive in Boston, the answer is yes. They’ve created an action game called EndeavorRx that runs on a tablet and uses adaptive AI  to help improve focus, attentional control, and multitasking skills in kids aged 8 to 12. And it’s not just Akili saying that: In 2020 the U.S. Food and Drug Administration agrees cleared EndeavorRx as a prescription treatment for ADHD, based on positive data from a randomized, controlled study of more than 600 children with the disorder. It was the first video game ever approved as a prescription treatment for any medical problem, and Harry's guest this week, Akili co-founder and CEO Eddie Martucci, says  it opens the way for a new wave of so-called digital therapeutics. Even as Akili works to tell the world about EndeavorRx and get more doctors to prescribe the game for kids with ADHD (and more insurance companies to pay for it), it's testing whether its approach can help to treat other forms of cognitive dysfunction, including depression, the cognitive side effects of multiple sclerosis, and even Covid-19 brain fog.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>Can a video game help improve attention skills in kids with ADHD?</p><p>According to Akili Interactive in Boston, the answer is yes. </p><p>They’ve created an action game called EndeavorRx that runs on a tablet and uses adaptive AI  to help improve focus, attentional control, and multitasking skills in kids aged 8 to 12.</p><p>And it’s not just Akili saying that.</p><p>The U.S. Food and Drug Administration agrees.</p><p>In 2020 the FDA cleared EndeavorRx as a prescription treatment for ADHD, based on positive data from a randomized, controlled study of more than 600 children with the disorder. </p><p>It’s the first video game ever approved as a prescription treatment for any medical problem.</p><p>Kids are advised to play the game for 25 minutes a day, five days a week. After two months of play, two-thirds of parents of kids in the controlled study said they saw a meaningful change in their children’s day-to-day impairments. </p><p>The FDA’s approval of EndeavorRx opens the way for a new wave of so-called digital therapeutics, designed to treat all kinds of problems with cognitive functioning, including depression, the cognitive side effects of multiple sclerosis, and even Covid-19 brain fog.</p><p>Akili is busy telling the world about EndeavorRx and working to get more doctors to prescribe the game for kids with ADHD and more insurance companies to pay for it. And here today to tell us about all of that is Akili’s co-founder and CEO Eddie Martucci.</p><p><strong>Harry Glorikian: </strong>Eddie, welcome to the show.</p><p><strong>Eddie Martucci: </strong>Thanks, Harry.</p><p><strong>Harry Glorikian: </strong>So I'm dying to get into the company and all the things you guys are doing. But, like, before we jump into the company, I'd love our audience to get to know you a little bit. Right, because you're a long time health entrepreneur. You got your PhD at Yale in the departments of pharmacology and molecular biophysics and biochemistry, where you studied structure based drug design. But how did your personal path lead you from molecular biology, which is near and dear to my heart, to video games to treat cognitive impairment? I mean, that that's not exactly the Venn diagram I would see that somebody would just put together.</p><p><strong>Eddie Martucci: </strong>No, it's not. And there is no there is no path for this. Right. Because this is so different and so new. I would say my personal passion is just new science findings. Like I just love brand new science. I was a researcher for a short stint while I did a PhD. I think I had some pretty cool research. But really, if I zoom back, it's new science and new discoveries that are moving the health world forward. And that can be whether it's insights about some part of our biology that we didn't know before, that leads us to understand the human body better. Or in the case of what I've really done from a professional perspective, it's scientific insights that can lead to new treatment modalities. And so that's really what got me most excited. I think the path that was most impactful for me, you know, I was a biochemist at Providence College and a biochemist and biophysicist at Yale, and I love proteins and structural biology and all that. I still do. But I came out of my PhD and and worked with a group called PureTech Health in Boston. And Puretech is really just this unique new health care company where they've done everything from, they have research and development and discovery, but they also have in many ways nailed down a process of starting new companies off of groundbreaking science. And so while I was in grad school, I was exposed to a couple entrepreneurs that really put a light bulb in my head that, wow, this is something I should look into. And then I got training at PureTech in Boston. And that's what kind of got me thinking about brand new medicine and brand new modalities that were never considered medicine before. And the rest is history. Once you get a framework where you can start thinking like that, then it's just work.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, I knew Daphne, I think when she started PureTech and her advisory board was like, I mean, Nobel Prize winning, who's who sort of. Right. Just watched it evolve over time. But, you know, when you were at PureTech, I think one of their focuses was neurophysiological disorders. I mean, is that the real bridge that helped start Akili? Because I remember that came out of Adam Gazzaley's lab at UCSF, if I remember correctly.</p><p><strong>Eddie Martucci: </strong>Yeah. Adam Gazzaley is where we found the core technology that which we call SSME, which has gone on to power our products, including our FDA approved product. But yes, what I was working on at PureTech, including directly with Daphne, who's really brilliant in helping and bringing new big ideas to life and board members, including people like Ben Shapiro, who used to be at Merck. And he was one of my longest term board members. It doesn't hurt to have folks like Bob Langer in the room once every quarter to bounce ideas off of as well. So like, a very privileged place to start a company. But yes, I was working on novel CNS technologies, in fact. In fact I was working on a few and one in particular that was new devices, new devices for various neurological conditions. And it was really from that effort in thinking about what are the newest modalities of medical devices that we leaped one big bridge further and said in 2010 or about or maybe 2009, could we go further from a user experience perspective now that the whole world is carrying cell phones and tablets every day? Could we go further? Could we could we think about digital? And that was right around the time when everyone and their mother was talking about digital helping medicine. And because we were in the headspace of novel therapeutic modalities, I think it was a natural leap to say, what about digital being the medicine? And then we had to find the science. And that's where I found Adam Gazzaley and, and, and we got off to the races with that technology from UCSF.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean this whole area of digital therapeutics, I've been talking about it for years now and trying to convince people and they look at me really weird when I say digital therapeutics and I try to explain it to them. But so but the game you have built is called EndeavorRx. If I got that correctly. And can you tell? Me more about the game itself. Like, what are the operative features or game mechanics that are thought to increase attention in kids who play the game?</p><p><strong>Eddie Martucci: </strong>You kind of have to back up to the core technology. So the way we build the business is not building one product or one game. We're building a platform technology, meaning a technology that is not made for a single disorder. But instead the problem we're going after and that we started with all of those years ago, about a decade ago, is cognitive functioning. Cognitive dysfunction in medicine is not targeted well by molecular pharmacology. That is the problem statement. We don't target cognition very well in medicine, if at all. And so our whole theory and thesis for the business was, if we could bring in the best technologies in the world, that through software could actually target cognitive functioning directly, then we would be bringing a pillar of medicine that does something much, much different than what medicine does today. So the technology out of UCSF that we started the company around, that we have branded the Selective Stimulus Management Engine, the way this technology works, which will then help you understand how the products in for ADHD children works. The way this technology works is it is giving constant stimulus, both visual and motor. So it's creating conflicting and overwhelming stimulus to activate the part of the brain that controls attention, which is the midline prefrontal cortex. So the front part of the brain that really controls attention and speed of processing and integration, this technology is patented to be able to activate that part of the brain very strongly, but also enhance what's called long range coherence. So as you're using this technology, not only is the front part of the brain activating much more, so you can apply your attention downwards.</p><p><strong>Eddie Martucci: </strong>And I'll get to exactly how this manifests, I promise. It is also more seamlessly based on the neurological data we have. It appears to more seamlessly be helping the brain communicate to the sensory processing regions. And so the way this manifests in ADHD children, when they're using our product EndeavorRx, which is meant for children 8 to 12 years old with ADHD who struggle with the attentional issues. This product is basically experienced like a racing video game where children are running a little alien figure down a course that is ever adapting. And they're getting information, meaning things that fly up to the screen that they have to make decisions on. And that's ever adapting because we have these deep, personalized algorithms so that everyone gets their own experience. So basically what people feel is they're using this technology that feels like a game, and it's just constantly challenging them in different ways. What's happening in the brain and this is how it's designed, is that the game is presenting very specific stimuli for each user that is pushing them at the edge of their processing ability. And that's part of the IP we have, is how to do that in a really seamless way so that by the end of using a game you haven't just been using a game, you have been essentially taxing the weak link in your attentional processing every single second for hours.</p><p><strong>Harry Glorikian: </strong>I think every CEO of that we may know mutually needs to be prescribed this game.</p><p><strong>Eddie Martucci: </strong>You know, CEOs and investors have been probably the most common people that in meetings will stop me and say, hey, I think I need this.</p><p><strong>Harry Glorikian: </strong>Yes. So how did you ideate and test the game mechanics?</p><p><strong>Eddie Martucci: </strong>Yeah. This is this is really a tenet of the business where we decided early on that to truly—we want to disrupt medicine and we want to create and integrate our type of medicine into mainstream medicine. Far too often, digital is kind of left to early adopters or on the sidelines of real medicine, excuse me. And our whole thesis was you have to run real validated and literally gold standard, rigorous clinical research. So when we had done this, no one had done a well designed trial before to study something that looks like a video game. And so that's really where we spent the first handful of years of our existence is after we built the kind of data infrastructure, which we can talk about, and the adaptive algorithms. We then invested years in how to run good clinical trials with this type of product that's an experiential product. So our goal all along was being able to run the same or better rigor of randomized controlled trials that you'd expect from a drug for this same disease area. Obviously, as an interactive product that you can see and you interact with, that means you have to take a little bit of a different approach.</p><p><strong>Eddie Martucci: </strong>So we had to do a lot of work with some of our advisors and with places like Duke University on how to blind the protocol. Because it has to blind very differently. And how to how to have a control, an active controller sham that is actually controlled. And there's many nuances like that. But at the end of the day, the trials we run are meant to replicate or be analogous to drug trials, where you have really strong controls up front, that you're not biasing individuals and that the outcomes—and this is the differentiator in digital—that the outcomes are gold standard accepted outcomes for whatever you're studying. And so that was what we've done. What we did the first time we were in a trial, we were like, it took a lot of work and we were nervous about it. But we have a clinical ops team now and we've run a few dozen trials across, I think, nine or ten disease populations, so we've become pretty good at it.</p><p><strong>Harry Glorikian: </strong>Yeah, I was going to say, I mean, coming up with the first one, everybody's probably scratching their head trying to figure out, are we doing the right thing? But, and I have this discussion with some of the people I work with all the time, what's the proprietary special sauce in the case of digital therapy? I mean, is there a defensible algorithm or insight at the heart of something like EndeavorRx that would be comparable to a patented small molecule in the you know, in the traditional drug industry?</p><p><strong>Eddie Martucci: </strong>In our case, yes. And I'll tell you about that. I think what this really comes down to, though, that question about digital therapeutics, it's like a business question for the industry. To answer that question, it's important to recognize there's nuance in the industry. So the vast majority of digital approaches, I think, are tough to protect because they're taking well known human practices and putting them into an app. Right. So there's 90 percent of the digital therapy companies or products out there are using different forms of behavioral therapy or disease management techniques or strategies, and they're bringing them into an app that is not bad. It's hopefully very, very good for patients. There's a few validated products there that are, no question, good for patients. I think it does make those types of products harder to protect. We've taken a bit of a different tack. We're a little bit, I guess, iconoclastic within the industry in that what gets us excited is software that even though it's software, it's more drug like in that it's directly targeting and activating the dysfunctional physiology in the body. You can measure that and by virtue of that, you're having a really unique effect. </p><p><strong>Eddie Martucci: </strong>The second big difference is we are using algorithms that have not been ever reported on before. So we take much more of a drug lens where we actually do protect we patent our technology. So we call this whole class “physiologically activating digital therapeutics.” Some people have referred to them as mechanistic digital therapeutics or disease modifying. There's different phrases, but this idea of unique algorithms that you actually can protect with patents and copyrights, which we do. So we have about 50 issued patents for the technology that underlies EndeavorRx and another 100 that are filed on our various technologies. And you can demonstrate this has a real, unique physiological effect. I think what it enables, at least for these types of products is a feeling from the health care world that this is much more what I'm used to seeing in my traditional medicine where it's unique. I can't just go get this anywhere because I trust that this one product is the only one that has this unique technology. And by the way, it's been proven to work. And I trust that they're a stable company that's going to be around for a while. Those things are really important to our model.</p><p><strong>Harry Glorikian: </strong>Well, it's a good thing that I've been explaining it to people the right way. So at least now that we've talked, you know, my explanation is aligning correctly. So I'm happy about what I'm reading is correct. Let's take a step back. So, there's a lot of kids with ADHD who have no problems concentrating on something for hours if they're really interested in it. But it strikes me the key feature of the of the product is not just keeping kids engaged. It's supposed to build or improve those skills. Is that the key thing that makes the game special or unusual or different from any other pastime, say, building LEGO spaceships?</p><p><strong>Eddie Martucci: </strong>Yes, absolutely. So the engagement is critical, but the differentiator is the challenging and improving of that core cognitive functioning. And you don't get that just by engaging in something. And actually, the vast majority of entertainment products you engage with will allow you to either passively engage, meaning you could watch YouTube videos for hours and hours, but you're not actually challenging your brain or actively engage, but in a way that you don't really have to challenge what you don't do well. So in most video games, you can choose what most of us do in life, choose the path of least resistance, because we like certain ways of using a product. Our product is unique in that this this patented algorithm forces you—it's essentially measuring second by second where you're weak and processing the various streams of information and it is forcing you to work on those areas where you are weakest. But it's doing it naturalistically. It feels like you're using a treatment, but it's really that level of focus on, for lack of a better word, it’s really that level of focus of delivery of that algorithm that's actually going to stress you where it, for lack of a better word, hurts the most. That is the differentiator. The other big differentiator is, is the personalized algorithms that that we built in. And this is where, frankly, technology and data rich medicine has never gone before. But within seconds of using the experience, this product is tailoring to each individual user. And this is true whether we're talking about kids with ADHD or some of our trials and products and adults with depression or MS, these products can actually tailor to your functional level and then move you along from there. So those two those two bits of how the algorithm works are critically important. The engagement is really the delivery vehicle to make sure you're getting that level of medicine.</p><p><strong>Harry Glorikian: </strong>Yeah, definitely, if this was available to people in a larger age range, there are people that I definitely need to recommend this to when well then that becomes available.</p><p><strong>Eddie Martucci: </strong>But well, that's the interesting thing about cognitive dysfunction, right? The way I talk about it sometimes is cognitive functioning and or problems with cognitive functioning go across disease, right? They're in many ways disease agnostic. Almost anything that touches the brain results in some level of cognitive dysfunction or at least some proportion of patients that have longer term cognitive dysfunction. But it also goes above and below disease, meaning subclinical. So there are people that are not diagnosed with issues that, you know, that probability-wise there's 20 or 30 percent that are significantly below the mean they're struggling with these things. So this is a this is a basic human function that rears its head in a really nasty way in many diseases, but is actually relatable to all of us.</p><p><strong>Harry Glorikian: </strong>Yeah. So. I mean, there's a lot of challenges when you're trying to design something like this. A ten year old will not spend much time playing a mobile game unless it's it's just as compelling as, you know, anything that they could download as a mobile app. So. How did you guys, what steps did you guys take? You know, it's almost like game design and, you know, therapeutic outcome, you know, together in one package. And so how did you guys, what steps did you guys take to make sure this thing was fun?</p><p><strong>Eddie Martucci: </strong>Correct. Yeah. And it does depend on the population. Right. So we have products, obviously a marketed product in for children with ADHD, but we're developing products and have trials and data and adults of various ages. The I think you're right. If you focus on children, there's a there's an engagement bar that is not easy. Right. Kids are highly discerning. They know a good game and a bad game. And what we like to say is we have no delusions that we're going to come out with the next blockbuster entertainment game. That is not how we built the company. However, we do want to have a game that looks and feels like the type of games that you actually like to play. So it has to be worlds better than edutainment, as people call it, educational software, because kids know. And so the way we did that is this is one thing that makes Akili very unique. Instead of outsourcing or kind of outsourcing game development or adding game development at the end of our development cycle, we actually have built the company to have cognitive science, clinical science, and game development fully integrated from the earliest days. And data science, for what it's worth, is really a kind of foundational thread for all of those. And it's hard. It's really hard. I mean, developing a product that has both these things, the strong science and the engagement, is really hard, but it's also really hard for people from all these different industries to, you know, be speaking the same language and work together because the development processes are different, the language you use is different. Your mindset of how you think about developing is different. And so for us, what I always talk about is it's literally daily attention. I'm unwilling to sacrifice or give up on it. We have to do both. Well, I think where we are today with EndeavorRx as our first product out of the platform, it's a really good product. It was built to show clinical efficacy and engage people to a minimal degree. It does that. Some kids love it. They will play for months at a time, you know, five days a week for four months. But yeah, there's a lot of people that kind of get through it and then plenty of kids that say, I really don't want to use this. So we've built features around the edges, things like an app for parents to allow them to track and monitor and incentivize their children. And we try to educate our users on why you're doing this. And so it's got to be a mix of the engagement itself, but also a little bit of inherent motivation that, hey, your doctor's in the loop, this is your medicine. It's important to put the work in and accomplish it.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>What makes you optimistic? Because I've been, you know, enamored with this space for a while now and trying to watch like where it's going to grow and what's going to get in its way. And so what makes you optimistic about digital therapeutics, either as a venture scale business or a public company. Because I know you guys are thinking about that. Tell me what you're thinking.</p><p><strong>Eddie Martucci: </strong>Yeah, a couple of things that make me very optimistic. I think the foundational groundwork is now done and we’ve shown it can be done. So we know that these products now can be developed, they can be protected, they can be brought through clinical trials and actually help patients. That's the most important thing. They can undeniably with strong clinical data, help patients and they can be brought through the FDA and now being prescribed by docs. So these prescription digital therapeutics, there's only a couple of them on the market. But literally at this point there's been now thousands of docs, not merely tens or hundreds, but we're talking now about thousands of docs who have prescribed prescription digital therapeutics to patients, where a couple of years ago that would have been essentially zero. So the foundations are there more. Every month that goes on, it becomes a a self-fulfilling cycle where doctors and patients hear about it, they're aware of it. They know someone who's tried it. And it's becoming a little bit common nature to think, wait, isn't there something digital that I've heard about for this? I think that will flip in the coming years to I expect to have a digital treatment or I expect to be told the digital option for my doc. So that makes me that makes me optimistic is that the groundwork is there. We know it can be done.</p><p><strong>Eddie Martucci: </strong>The second thing is, frankly, society is demanding better medicine in many different ways. They're demanding, and mainly I'm talking about patients in many respects, they're demanding more accessible medicine. They're obviously…we all got the efficiency bug of telemedicine during COVID. And while I've seen the data that that has significantly receded, I don't think the concept of online or digital in medicine has receded from anyone's mind. I think we all know that it's far more efficient and we should expect to see more products that are digital in nature, whether that's scheduling with a doc or taking a treatment. And so I think there's this kind of wave in society that is that is pushing people to recognize that we should be open to these types of products. The other thing is, whereas docs and patients years ago when we did market research, there was a level of skepticism that was pretty healthy. I now see a level of openness where if there's good data and there's especially in our case, things like FDA approval and strong clinical data, there's a better chance than not that both patients and doctors are going to be not only acceptable or accepting, but they're going to want to at least try something like this. So all the groundwork is there. We've just got to keep keep plugging away because it's new.</p><p><strong>Harry Glorikian: </strong>I talk about the whole digital therapeutic space in my book. And I always tell people look, if a product like this works for you, you're not going to have a side effect profile the way you have with some of the small molecule drugs that I've seen. It's trial and error with those things. And sometimes things don't go as well as you want them to and you end up with a very angry child if the drug doesn't do what it's supposed to do.</p><p><strong>Eddie Martucci: </strong>It's egregious. It's egregious. I mean, medicines, pharmacological medicines for neurological conditions are critically important. Don't get me wrong, I think they're critically important. And EndeavorRx is not meant to be an alternative to medication, especially if it's working well for for a child. But the problem is, there are many components of these conditions that are just not well addressed. And so you're left as a clinician to try to use these blunt instruments, these molecules which weren't delivered for these problems or rather weren't designed for these problems. You're trying to use them, but you're fighting the side effect profile as much as you're fighting the efficacy the whole time. And so you're right. Trial and error is the right phrase. Like the fact that we're still doing trial and error in CNS conditions all these years later is crazy. And there's a better way because we now can have these more targeted products that are part of the patient's toolbox.</p><p><strong>Harry Glorikian: </strong>Yeah, and we need more of them, so. Yeah, great. But let's talk about the business model, right? I mean, this is, you know, feels like fresh territory, right? And if I think about mobile games generally don't make money unless you sell millions of copies. Right. So you have you must have a different business model in mind from the beginning. I suspect this business model revolved around, you know, selling Akili games as a prescription based therapeutic at a cost that would be more typical for a drug than a mobile game.</p><p><strong>Eddie Martucci: </strong>Right. Right. So the concept here is we want the products to get to the patients that really need them and we want to involve the doctor in the loop and we want to have products that are proven. And so all of that to me says a core medicine model, meaning prescription treatment, as you said, covered ideally by insurance largely, but with a little bit of out-of-pocket burden from the patient. You're right, the general cost is a little bit more in line with pharmacology, although the good news in mental health and behavioral health is that's that's relatively inexpensive. We're not talking about multi-thousand-dollar therapies here. We're talking about something that is in the low hundreds per month. And for the patient, really more like $30 to $50 a month. So these are the cost structures that we think are tenable and have been working well in behavioral medicine. And that's really where we're starting. But we're in the early days. I think one of the beauties of digital is we don't have to just stay there, meaning that is the core of the model, a prescription that scales and is paid for by both insurance and patient.</p><p><strong>Eddie Martucci: </strong>But I think there's a lot of potential to evolve and iterate the model that has more consumer elements to it. For instance, like your best technology products, we can adapt the product itself to grow with you. Like your best technology products. We can serve, you know, services and help on the side beyond or in between your use of the actual treatment. So there's a level of connectivity with our end user and consumer that is that actually looks a lot more like best in class consumer software where you can have a long term relationship with a patient. Now, we have not pulled any of those levers yet, but I think what we're most excited about is the bringing both of those models to bear. A medical model, but that has some aspects to it that can actually grow and extend more like software. I actually think that's where the field will go. But it is early days. We'll have to see how this we'll have to see how this shakes out.</p><p><strong>Harry Glorikian: </strong>Well, that's why I always I always tell people, like, you know, once you digitize something like you get to have a broader imagination about what is possible in that realm as opposed to, you know, sticking to exactly what we did before.</p><p><strong>Eddie Martucci: </strong>Exactly.</p><p><strong>Harry Glorikian: </strong>But taking a step back here, no one has ever marketed a prescription based video game or won marketing approval from the FDA for such a product. Right. So how did you frame yourself? You walk in there and you say, “Hey, here, play this. And you're going to like it.” What were the hurdles? What did you have to overcome to get regulatory approval for this? What was it like dealing with the FDA?</p><p><strong>Harry Glorikian: </strong>No, it's a great question. Yeah, the FDA process is fascinating. We know it is rigorous, it's long, it's mostly collaborative. Right. The FDA wants to learn and help. But I think, number one, most importantly, there's unfortunately a myth out there today that digital therapeutics are actually medical devices generally don't have to go through efficacy analysis by the FDA. So I see this myth all the time. People say, well, you know, on the medical device side, they only look at safety. And so, unfortunately, with broad brushes, people have painted digital therapeutics as part of that. They've said, well, digital therapeutics may or may not have evidence, but the FDA looks at safety. I can unequivocally tell you that could not be farther from the truth. I would say 95 percent of our interactions with the FDA, which took the better part of two years because our product was so novel, you can imagine we were not only innovating the delivery mechanism, it's a video game. We were innovating the target, which is cognitive functioning, which there are no products labeled for cognitive functioning. And we were trying to look at what are the endpoints that, you know, that read on cognitive functioning. All of this is new, but not 95 percent of the questions we had, and that's—please don't quote me on the specifics, this is not a deposition—but in that range, were about efficacy. And we went through every little bit of our efficacy data so that the FDA could understand it, so that they could audit it.</p><p><strong>Eddie Martucci: </strong>We even, midway through our regulatory process, brought on a fifth study. So we have five studies in our FDA label package. So we brought on the most recent study to show to address some questions FDA had around efficacy in the longer run or efficacy along with medication. So this was a very rigorous process. I always tell people the good news about this is you can trust it when it comes out because this is something that looks and feels a lot like the drug process, right? There's a lot of scrutiny put on the trials and the legitimacy of the trials. So so it looked a lot like that. It's highly iterative. From a business side, the one tough part with FDA is when you're when you have a new classification for a product, so a 510K de novo, so they're creating a classification, there is no hard timeline on the review. And so when you're a startup and you're building a business, you kind of just keep iterating until you get to a label or not, right? And luckily in our case, we did. But yeah, I mean, as a startup, you're going through a nearly two-year approval. It's stressful. It's stressful, but it's good for the industry, I believe, because it's really forcing a high bar of science.</p><p><strong>Harry Glorikian: </strong>Well, no. And I mean, that's what you want. You don't want a low bar and then things go wrong, like you want it to be held to a higher standard. And usually when the FDA is taking on something new, they've also got to take the time to catch up to where you are. Right. They can't just walk in the room and be ready for this. So you're sort of paving the path for everybody that's coming behind you, which is a I guess there's a good part of that and a bad part of that.</p><p><strong>Eddie Martucci: </strong>Yes. Yes.</p><p><strong>Harry Glorikian: </strong>So there's a lot of stakeholders and gatekeepers in this space that we're talking about, right. Patients, parents, physicians, payers. I mean, each one of them needs to be persuaded that digital therapy or digital therapeutics are, you know, beneficial and worth prescribing or worth paying for. So, anything special you're doing to sort of win them all over?</p><p><strong>Eddie Martucci: </strong>Well, we're doing the work to put time and attention towards it. So you're right. Just because it's digital does not mean people will use it or understand it. So you've got to sit with patients and educate. Just because docs have a new tool doesn't mean they'll trust it. So you've got to spend time to make sure they understand the data and more importantly, understand where we're trying to play in the treatment paradigm. Right. Because, again, we're not … the easy answer for a digital is, “Oh, this is supposed to be a digital equivalent of a drug.” No. It's more nuanced than that. This is supposed to help in a very specific way. And insurers are probably the biggest barrier because it's so new for them. Right. This is this is very new. They don't really, they're not really built to be able to adjudicate digital products. Right. And unfortunately, we've got some of these types of myths floating around, like the FDA medical device myth, which understandably makes insurers uncomfortable. Right. If they if that's what they've heard, they say, well, how in the world am I supposed to adjudicate efficacy if the FDA doesn't? I guess I'll look at this with all the other hundreds of wellness apps out there.</p><p><strong>Eddie Martucci: </strong>So it's education time. Honestly, it's education time to unravel these myths, to really sit and make sure these stakeholders understand the data and the utility of the product. In terms of special things, one of the one of the nice things about growing a company, especially with digital company in this day and age, is you can test and iterate really quickly on all of these fronts. And so when we test you've got to have the meetings and you've got to fit into their review cycles. But for patients and docs, you know, we, we take a very clear test and learn approach. We are releasing certain types of educational content or certain types of marketing messages in pilot phase. Right now we see what works, we see what doesn't. We adapt. We do the same thing with the distribution infrastructure, frankly. Like how in the world do you get a video game therapeutic from your doctor? We built the infrastructure. We tested, we changed, we scrapped half of it and started again. So that is the beauty of living in a digital world. We can we can do that type of testing and learning.</p><p><strong>Harry Glorikian: </strong>And good old AB testing on what works and what doesn't.</p><p><strong>Eddie Martucci: </strong>Totally.</p><p><strong>Harry Glorikian: </strong>All right, let's step out of ADHD for a minute. You've been talking about other neurophysiological sort of conditions. And I think the website, if I'm not mistaken, mentions depression, cognitive dysfunction, multiple sclerosis, autism spectrum disorder, and a few other future treatments is. Is there something about the EndeavorRx platform or the proprietary adaptive algorithm that gives you the ability to sort of generalize? And I think you mentioned that earlier, but sort of to dig into that a little bit.</p><p><strong>Eddie Martucci: </strong>Yeah. So it really starts with what technology are looking for. And so we don't source technologies that are meant for any one condition. That is more common in the behavioral therapy space where there's behavioral therapy for disease X because it's a tried and true technique specific to the disease. The way we work is looking for technologies that actually activate specific brain regions and have data that they do that well. And so the interesting thing that we found about cognitive functioning, and we knew a little bit about this, but you know, I don't like to have revisionist history and say we we knew it all, with cognitive dysfunction and disease, independent of the etiology or the cause of why the brain is having issues, the downstream manifestation actually tends to bucket into very similar issues. And so our theory was, and so far it's proven true, is if you could bring technologies that are meant for the neurological processing issues, not the disease, not specifically the disease, then any condition that results in similar issues, you should be able to have a functional impact on. Because we're not we're not targeting, you know, dopamine reuptake and a dopamine driven disorder. We're not targeting myelination in am anti-myelinating disorder. We are targeting the end result, which is how well the brain is communicating. So we've because we start there, we, we theoretically have the ability to go across disease, and we've actually shown it now. So the same technology that has a treatment label for ADHD has been able to power two studies, including a larger randomized controlled study in multiple sclerosis adults, and showed clinically meaningful, large changes in speed of processing and related cognitive functions. That's the same technology under the ADHD product. ADHD and MS could not be farther from each other in terms of cause, but because the resulting functionally in the same in the same area, that's then you get that benefit. So that's our theory and that's how we're going to continue to develop products and take a functional and a neural network approach, if you will. And, and ideally, we have a much more efficient product pipeline because of it.</p><p><strong>Harry Glorikian: </strong>So. In your mind, like what are the biggest unanswered questions, either for EndeavorRx or for the Akili business. Is it more product? Is it more market? I mean, for example, do you worry about whether it'll work, you know, in the real world, as well as it did in your initial studies, whether doctors will prescribe the game, whether payers will cover it. There's all these issues. And so I'm just wondering where you think the biggest hurdles lie?</p><p><strong>Eddie Martucci: </strong>Sure. Yeah, I think I think my number one is not about the product. It's really systemic to the to the health care system and industry, which is it's important to me that the insurance industry, the doctors write prescriptions, but more importantly, the insurance industry and broader we could call it the payer industry. Right. Anyone that should be paying for medicine pays for digital therapeutics. Right. I don't think this should be the only class of medicine where patients bear the entire cost. That makes no sense. So we are not there yet for sure. Right. We're in such the early days that I think some payers are waiting, but I think we're starting to see a turn. We're beyond skepticism, beyond intrigue, probably into early acceptance. And I think the work needs to be done. And frankly, we need we need a couple folks in this industry and by folks, I mean both people, but also organizations to step up as the early pioneers for their patients. I think that's really important. Now, again, I have empathy for why that part of the industry moves slower. They're trying to protect patients. There's obviously cost arguments as well. And there are some of these myths or misconceptions out there about the industry. But I think when education is done right and when payers really engage, we're going to start to see a broader payer ecosystem adopting this like they would any other medicine. So I think that's kind of the biggest near-term barrier. And slightly longer term, I think the business model is a question. Which no one likes to hear, no investor likes to hear. And we're a company that's going to go public. I don't mean the business model is a question in that we don't know if we can make money or build a business. I just mean, what is…so, the foundations we know are there. Doctors will prescribe, patients will pay, payers are starting to pay. It has a benefit in people's lives. So the foundations are there. The business will grow. What the eventual business model is, is TBD, frankly. What is the top end business model that's going to allow a company to thrive at scale? I think we have to invest to learn that. And I'd say the same thing about the product. In terms of the product, it's not whether it will work, it's not whether it can help patients on the market. We've shown all of that. It's at this point, how well can you develop that product on the market so that it engenders long term compliance so that engenders loyalty and use in the future? And so I think in both those scenarios, I guess the health care system’s got to get there. Which is a secondary priority, more like an opportunism. We don't want to miss the opportunity to find the best business model or to iterate on the products because we have the ability to do so. I don't want to miss that opportunity to grow the best business model we possibly can.</p><p><strong>Harry Glorikian: </strong>So you mentioned going public once or twice, and so I saw that there's paperwork with the SEC to go through a public filing with a special purpose entity backed by Chamath, whose I think it was Social Capital, through his venture fund. What's the thinking behind becoming public? Why now?</p><p><strong>Eddie Martucci: </strong>Yeah. I think I always had a mantra and I didn't come up with it. This is from advisors to me and mentors: Stay private as long as you possibly can for the business to be able to adapt and iterate and a little bit more of a clean way. But I think that time has come, and the reason I say that is we have a product that is being prescribed by doctors now and we have a pipeline where I've already talked about it. We could help potentially up to dozens of different populations who are struggling today. On top of that, the need and urgency around mental health and behavioral health has had a step function change in the last year. Right. We know that President Biden talked about it at the State of the Union. The surgeon general has put out a national state of emergency on youth mental health. So the time is right for a real investment here and the time is right for the company to fill that need. We know all the all the foundations are right. So I've always wanted to wait till that moment why we chose this specific entry point and vehicle, which we hope is kind of middle of this year, that Akili becomes a publicly listed company is, I think, the opportunity to not only have capital and the type of flexible capital that the public markets gives you, but in the case of a special purpose acquisition company, the expertise of that acquiring entity, in this case, Chamath Palihapitiya, who's extremely well known and amazing at building disruptive technologies for different industries that scale to ubiquity using technology and data.</p><p><strong>Eddie Martucci: </strong>But actually that the SPAC vehicle here is Social Capital Suvreta. Suvreta being a well known biotech hedge fund who specializes in early commercial biotech companies. So rarely do you get to become public with the right amount of capital, but also some new expertise around the table, strategic expertise in a disruptive business. And I think we get both of those with this deal. So we're still, it's too early to tell if the whole thing will go through. We're certainly crossing our fingers and hopefully if people listen to this in the longer future, Akili is already a public company and thriving.</p><p><strong>Harry Glorikian: </strong>Well, I mean, it's a good thing I spoke to you now so that we could speak a little bit more freely than when you're under that public rubric.</p><p><strong>Eddie Martucci: </strong>But oh, no, I'm already I'm already watching my words. It is important. It's a level of maturity as a business. Now, we have we've grown for about a decade. We grew methodically and slowly. We have over 100 employees now. And, you know, businesses change and mature. And I think it's the right time for us to do it.</p><p><strong>Harry Glorikian: </strong>Oh, yeah. I mean, a lot of the companies that I interact with as an investor, I mean, when we're going to go public, it's like, “Oh, we got to do this, we've got to get that ready. We got to get accounting ready. We got it.” I mean, you've got to go through it methodically because being public is is not for the faint of heart for sure. So, well, I wish you the greatest success. I look forward to staying in touch and, you know, keeping up to date on how things are going with the company. And, you know, I hope a ton of people listen to this because it's easier for them to hear it from you than hear it from me.</p><p><strong>Eddie Martucci: </strong>Thanks, Harry. This is a lot of fun. And thanks for your focus in innovation and these new areas that are really going to transform patients’ lives. So I'm hoping we're doing our part there.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>How Akili Built a Video Game to Help Kids with ADHD</itunes:title>
      <itunes:author>Harry Glorikian, Eddie Martucci</itunes:author>
      <itunes:duration>00:51:04</itunes:duration>
      <itunes:summary>Can a video game help improve attention skills in kids with ADHD? According to Akili Interactive in Boston, the answer is yes. They’ve created an action game called EndeavorRx that runs on a tablet and uses adaptive AI  to help improve focus, attentional control, and multitasking skills in kids aged 8 to 12. And it’s not just Akili saying that: In 2020 the U.S. Food and Drug Administration agrees cleared EndeavorRx as a prescription treatment for ADHD, based on positive data from a randomized, controlled study of more than 600 children with the disorder. It was the first video game ever approved as a prescription treatment for any medical problem, and Harry&apos;s guest this week, Akili co-founder and CEO Eddie Martucci, says  it opens the way for a new wave of so-called digital therapeutics. Even as Akili works to tell the world about EndeavorRx and get more doctors to prescribe the game for kids with ADHD (and more insurance companies to pay for it), it&apos;s testing whether its approach can help to treat other forms of cognitive dysfunction, including depression, the cognitive side effects of multiple sclerosis, and even Covid-19 brain fog.</itunes:summary>
      <itunes:subtitle>Can a video game help improve attention skills in kids with ADHD? According to Akili Interactive in Boston, the answer is yes. They’ve created an action game called EndeavorRx that runs on a tablet and uses adaptive AI  to help improve focus, attentional control, and multitasking skills in kids aged 8 to 12. And it’s not just Akili saying that: In 2020 the U.S. Food and Drug Administration agrees cleared EndeavorRx as a prescription treatment for ADHD, based on positive data from a randomized, controlled study of more than 600 children with the disorder. It was the first video game ever approved as a prescription treatment for any medical problem, and Harry&apos;s guest this week, Akili co-founder and CEO Eddie Martucci, says  it opens the way for a new wave of so-called digital therapeutics. Even as Akili works to tell the world about EndeavorRx and get more doctors to prescribe the game for kids with ADHD (and more insurance companies to pay for it), it&apos;s testing whether its approach can help to treat other forms of cognitive dysfunction, including depression, the cognitive side effects of multiple sclerosis, and even Covid-19 brain fog.</itunes:subtitle>
      <itunes:keywords>digital therapeutics, the harry glorikian show, eddie martucci, endeavorrx, video games, akili interactive, harry glorikian, adhd</itunes:keywords>
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      <itunes:episodeType>full</itunes:episodeType>
      <itunes:episode>86</itunes:episode>
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      <title>Fauna Bio Awakens Medicine to the Mysteries of Hibernation</title>
      <description><![CDATA[<p>Why is hibernation something that bears and squirrels do, but humans don’t? Even more interesting, what’s going on inside a hibernating animal, on a physiological and genetic level, that allows them to survive the winter in a near-comatose state without freezing to death and without ingesting any food or water? And what can we learn about that process that might inform human medicine?</p><p>Those are the big questions being investigated right now by a four-year-old startup in California called Fauna Bio. And Harry's guests today are two of Fauna Bio’s three founding scientists: Ashley Zehnder and Linda Goodman. They explain how they got interested in hibernation as a possible model for how humans could protect themselves from disease, and how progress in comparative genomics over the last few years has made it possible to start to answer that question at the level of gene and protein interactions. The work is shedding light on a previously neglected area of animal behavior that could yield new insights for treating everything from neurodegenerative diseases to cancer.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>It’s April and spring is well underway, even though it’s been a pretty cold one so far here in New England.</p><p>It’s the kind of weather that makes you want to pull the covers over your head in the morning and just sleep in. </p><p>Or maybe just hibernate like a bear until summer is really here.</p><p>But when you think about it, what is hibernation? Why is it something that bears and squirrels do, but humans don’t?</p><p>Even more interesting, what’s going on inside a hibernating animal, physiologically, that allows them to survive all winter without freezing to death and without ingesting any food or water?</p><p>And what can we learn about that process that might inform human medicine?</p><p>Those are the big questions being investigated right now by a four-year-old startup in California called Fauna Bio</p><p>And my guests today are two of Fauna Bio’s three founding scientists: Ashley Zehnder and Linda Goodman. </p><p>I asked them to explain how they got interested in hibernation as a possible model for how humans could protect themselves from disease.</p><p>…And how progress in comparative genomics over the last few years has made it possible to start to answer that question at the level of gene and protein interactions.</p><p>We’ve always looked to the natural world, especially the world of plants, for insights into biochemistry that could inspire new drugs. </p><p>But what’s exciting to me about Fauna Bio is that they’re shining a light on a previously neglected area of animal behavior that could yield new insights for treating everything from neurodegenerative diseases to cancer.</p><p>So, here’s my conversation with Ashley Zehnder and Linda Goodman.</p><p><strong>Harry Glorikian: </strong>Ashley. Linda, welcome to the show.</p><p><strong>Ashley Zehnder: </strong>Thanks, Harry, we're excited to be here today. It's going to be fun.</p><p><strong>Linda Goodman: </strong>Yeah, thanks for having us.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, well, you guys are someplace sunny and warm, and I'm actually I shouldn't say that it's actually sunny right now on the East Coast. So I'm not I'm not.</p><p><strong>Linda Goodman: </strong>Don't jinx yourself.</p><p><strong>Harry Glorikian: </strong>But the temperature is going to drop. Like to I think they said 18. So everything will freeze tonight for sure. So it'll, you know, it's one of those days, but. I want to jump right into this because we've got a lot of ground to cover. Like there's so many questions that I have after sort of looking into the company and sort of digging in and, you know, but even before we jump into what you're working on. Right, I really want to talk about hibernation. Maybe because I'm jealous and I'd like to be able to hibernate. I have sleep apnea. So sleep is a problem. But humans don't hibernate. But there's a ton of other mammalian species that that do. And sometimes I do feel, though, that my teenager hibernates, but that's a different issue. So, but, what what is interesting to you about hibernation from a physiological point of view. What what goes on with metabolism or gene expression during hibernation, that's that's not found in humans, but that could be relevant to human health?</p><p><strong>Ashley Zehnder: </strong>Yeah, I think this is a great question, Harry, because I think both Linda and I came to fauna from different backgrounds. I came from veterinary science, Linda from comparative genomics. We can go into our details later, but neither of us really appreciated the amazing physiology of these species. There are some of the most extreme mammals on the planet, and there are hibernating bears and literally every group of mammals. Right. This is something Linda specializes in. But there are primates in Madagascar that hibernate very similar to the 39 ground squirrels that we tend to work with. So it's this really deeply conserved trait in mammals, including primates. And, you know, it kind of highlights for us what our genes can do when they're adapted for extreme environments. And so that's kind of the lens that we take when we look at hibernation. It's how do these species protect their own tissues from being nearly frozen for six, seven months out of the year, having to protect their brains, their hearts, all their vital organs? They're not eating, they're not drinking. They're not moving for these really deep bodied hibernaters. When you think of 100 kilogram animal that's not eating for seven months, how do they survive that? Right. And it has to do with metabolic rates that change 200- to 300-fold over the course of a couple of hours. It has to do with oxygenation changes and protection from oxidative stress and ischemia reperfusion. And so if you look at a tissue by tissue level, you can start to see how these animals are finally adapted to protecting themselves from from damage. And then we can start to say, well, this is similar damage to what we see in human diseases. And that's why this is such an interesting system, because it's so dynamic and because it happens across so many groups of mammals, it really lends itself to this comparative genomics approach that we take to drug discovery.</p><p><strong>Harry Glorikian: </strong>Yeah. Because I was wondering sort of like what ways of healing from different sort of traumas and conditions do hibernating animals have that that humans don't, that we sort of maybe wish we did? It's sort of like, you know, almost Marvel or one of those things where you like go to sleep, you wake up, you've totally healed again, which kind of be kind of be cool. Yeah. So, you know. But when did scientists first begin to think about whether having a better understanding of hibernation might help us solve? Some of these riddles that we have in human health. I mean, it surely it can't be like a new concept. It has to go further back. I mean, what has changed recently to make it more actionable? I mean, is it, you know, omics, costs coming down that are making it easier, computational capabilities that are, you know, making all these come together? I mean, those. What do you guys. What's. What's the answer? You guys know the answer better than I do.</p><p><strong>Ashley Zehnder: </strong>I'll comment on a little bit on the physiology, and I will let Linda talk about the data revolution, because that's that's really what she knows very intimately. So from a physiology standpoint, these are species and not just hibernaters, but a lot of other species that we've been studying since the early 1900s, 1950s. I mean, these are some of our earliest biological experiments and our earliest understandings of biology. We're not necessarily done by studying humans. A lot of that was done by studying natural disease models, right? How did we figure out that genes cause cancer? So it's a little bit of a tangent, but bear with me, it was not by studying human cancer, it was by studying Rous Sarcoma Virus and how that virus picked up bird genes and then turn them on. Right and other in other individuals. So but then kind of this almost the same year in 1976 that we figured out that genes cause cancer by studying chickens. 1974 we figured out how to genetically modified mice. And we sort of figured out that like, okay, maybe we don't need to study natural biology anymore. And so I feel like we sort of lost a lot of those skills and figured out we had humans and we had model organisms and we were done. And I think now we're kind of in this renaissance where people are realizing that actually there's still a lot of natural biology that we can learn from. But it's being powered now by this data revolution and the decrease in cost and sequencing and availability of omics data like RNA. Seq and then I will pitch that over to Linda because that's really what she knows best.</p><p><strong>Linda Goodman: </strong>Yeah, yes, absolutely. You know, Ashley's right. And I think just to add on to that, that there was this issue in which there were a lot of field biologists out there working with these really fascinating hibernating animals. They knew a lot about what these animals could do, the extreme environments they were exposed to, that they could overcome, they could protect all of their tissues. And there was so there was a group of field biologists who knew all that information. And then on the other side, you have all of these geneticists who are studying the genomes of probably humans and mouse and rat. And they weren't really talking to each other for a long time. And I've been in the genomics field for at least a decade, and not until very recently did I even hear about all these amazing adaptations that these hibernating mammals have. So I think some of it was just a big communication gap. And now that the genomics field is starting to become a little more aware that all these exciting adaptations are out there that we can learn from, I think that's going to be huge. And yes, of course, it certainly does not hurt that there's been a dramatic drop in sequencing costs. We can now sequence a reference genome for around $10,000. That was unheard of years ago. And so a lot of these species that people would previously consider untouchables because they were not model organisms with a pristine reference genome, we can now start to approach these and thoroughly study their biology and genomics in a way that was not possible several years ago.</p><p><strong>Harry Glorikian: </strong>Yeah. I was thinking I was, you know, I was laughing when you said $10,000, because I remember when we did the genome at Applied Biosystems and it was not $10,000.</p><p><strong>Ashley Zehnder: </strong>Yeah.</p><p><strong>Harry Glorikian: </strong>Yeah. And it took I remember Celera, we had an entire floor of sequencers working 24/7 I mean, it was an amazing sight. And now we can do all that, you know, on a.</p><p><strong>Ashley Zehnder: </strong>Benchtop. Benchtop. Exactly. On a benchtop.</p><p><strong>Harry Glorikian: </strong>So. But, you know, it's interesting, like in a way, studying animals to learn more about disease mechanisms seems like a no brainer. I mean, we share a, what, about 99% of our DNA with chimpanzees. And for those listening. Yes, we do. You know, I'm sure there's people out there that, like, bristle when I say that. But what is it, 97.5% of our DNA with rats and mice. That's why we use all these things for sort of safety and effectiveness of drugs meant for humans. But. Still, I'm not used to drug hunters starting out by looking at animals, you know? Why do you think it's taken the drug industry, although I'm I say that very loosely, [so long] to wake up to that idea?</p><p><strong>Ashley Zehnder: </strong>Yeah. I think it's I think it's again, this almost reversal of the paradigm that exists today, which is let's take a human disease that we want to make a new drug for. Let's take a mouse and let's try to genetically manipulate that mouse to mimic as closely as possible what we see in the human disease. And those are always imperfect. I mean, I did a cancer biology PhD at Stanford, and there's that trope of like, Oh, if I had a dollar for every time you occurred mouse in a human right, it would need to work anymore. That's replicated across many fields, right? They're not good models. And so we're saying like obviously that doesn't really work for discovery. It's fine for preclinical and safety and you have to use those models. But for pure discovery, that's not where you want to be, right? Instead, you want to take the approach of saying, where has nature created a path for you? Where is it already solved this problem? And I think there are companies like Varian Bio who are doing this in human populations. We're saying, let's look at humans that have unique physiologies and a unique disease adaptations. And of course then you have to find those niche pockets of human populations.</p><p><strong>Ashley Zehnder: </strong>So that's not a not a simple problem either. But the approach is very analogous. What we're saying is we can use that rare disease discovery approach and just expand that scope of discovery. Look at highly conserved genes, look at how other species are using them to reverse how phosphorylation in the brain to repair their hearts after damage, to reverse insulin dependence. To heal, we'll heal their tissues or regenerate stem cells. Let's just see how nature did it right and just mimic that instead of trying to fix something that we artificially created. So it's literally reversing that paradigm of how we think about animals and drug discovery. But you have to know how to do that. You have to know which models are correct. You have to know how to analyze 415 genomes together in an alignment which is really complicated. Linda knows how to do that, so you have to know how to do it correctly, although you could screw it up very badly. So there's a lot of expertise that goes into these analyses and also again, the data availability, which wasn't there nearly a decade ago. So.</p><p><strong>Harry Glorikian: </strong>So I asked this question out of pure naivete, because I'm not sure that I could sort of draw a straight line. But, you know, which drugs were have been discovered through research on genetic mechanisms of disease in animals. Is there, are there?</p><p><strong>Ashley Zehnder: </strong>You know, I think directly it's a new field. Right. So I think, Linda, you and I have looked at some examples of looking at drugs for narcolepsy, looking at dog genetics and studies, looking at muscle disorders in certain species of cattle that have naturally beefed up muscles and translating those into therapies. I mean, there are examples of looking at animals for things like genotype, right, came from Gila monster venom, although that's not strictly a genetic program. Right? So I think this idea of looking at natural animal models is a source of innovation. It's just that, again, the data wasn't really available until fairly recently, but we know the strategy works by what's been done on things like PCSK9 inhibitors in humans, right? It's a very similar approach to that. It's just expanding that scope of discovery.</p><p><strong>Harry Glorikian: </strong>So because you guys raised money and you guys are moving this forward, sort of and I don't want you to tell me anything that's confidential, but. So what was the pitch when you when you put that in front of everybody?</p><p><strong>Ashley Zehnder: </strong>It was really that, look, drug discovery right now is really been hampered by a lack of innovation. And we're really stuck in looking at these very kind of currently limited data sources, which is humans and again, these handful of really imperfect animal models. But we can take what we've learned from working with human genomics and really greatly expand the opportunities for a number of diseases that still don't have good therapies. Right. We've had the human genome for really close to 20 years now. We spent a lot of money sequencing it. And still, if you go back and look at the FDA approvals in the last two years, which I did by hand a while ago, or more than three quarters of those are not new targets. They're new drugs for a new indication or new drugs, same drugs before a new indication or they're kind of meta pathway drugs or they're drugs for which we still don't know the mechanism. It's some small molecule. It's been around since fifties. And so like where is the innovation in the top ten diseases of people still have it changed? So like where I pulled these two headlines right not too long ago, one from 2003, which is like the era of the genomics revolution. Right? And then one from 2019, which was the genomics revolution question mark. Right. Like we're still sort of waiting for it. And so what is that missing piece of data that's really going to allow us to really leverage the power that's in the human genome? And to do that, we have to put our own genes in an evolutionary context to understand what's important. That's been that third dimension of genomics that's been missing. So it's really not necessarily about any particular species that we work on, all of which are amazing. It's really about using that data to shine a better light on what's important in our own genome. And so that's a lot of the pitches, like how are we going to use our own genome better and find better treatments?</p><p><strong>Harry Glorikian: </strong>Yep. Understood. So. You have a third founder, Katie Grabek. Right. So. Tell me about yourselves. I mean, did the three of you get interested in comparative genomics and hibernation? How did you come together? How did you decide like, oh, hey, let's do a startup and get this thing going in this area? So tell tell me the origin story.</p><p><strong>Ashley Zehnder: </strong>Linda, do you want to kick off?</p><p><strong>Linda Goodman: </strong>Sure. I think it all really started, Ashley and I initially started batting a few ideas around. We both had this understanding that that drug discovery today did not look outside of human mouse rat very much. And we both understood there was this wealth of animal data that's just waiting to be used and no one was doing it and we couldn't really figure out why. And we were having trouble figuring out exactly which animal we wanted to study and which diseases we wanted to study. And it just so happened that we lucked out. There was another woman in our lab at Stanford, Grabek, who had the perfect study system for what we were thinking about. She had these amazing hibernates our animals that have exquisite abilities in terms of disease, resistance and repair. And once she started talking about all the amazing phenotypes these animals have, we thought, wow, that would make a great study system to make the next human therapeutic. Yeah. And I think it's interesting that both Katie and Linda have human genetics PhDs. Right. So I think both of them and Linda can expound on this. But from Katie perspective. Right, she she went in to do a human genetics Ph.D. trying to understand how genes can be used to improve human health and shouldn't be rotating the lab of somebody who studied the 39 ground squirrel and said this physiology is way more extreme than anything we see in humans, but they're doing it using the same genes.</p><p><strong>Linda Goodman: </strong>What are those genes doing in these animals that we can adapt for human therapeutics? And so she brought that work with her to Stanford and was really one of the preeminent researchers studying the genetics and genomics of these species. My background is I'm of Marion, so my clinical training is in exotic species. So as a clinician, I treated birds, mammals, reptiles and saw that they all presented with different kinds of diseases or in some cases didn't present with diseases like cancer that were super interesting. And then coming to a place like Stanford to do a PhD, it was working with a bunch of human researchers, human focused researchers. They're all generally human researchers, but you know what I mean? It's a little bit tricky with the nomenclature. Generally, I have my doubts about, you know, maybe there's some chimpanzees doing research somewhere, people studying human diseases, right from a human lens who are completely ignorant of the fact that animals often also had these disease traits or in some cases were resistant to them. So there was this huge disconnect there of of biologists and veterinarians and physiologists who understood all these traits across different species and the people who knew the molecular mechanisms, even though a lot of those are shared.</p><p><strong>Linda Goodman: </strong>And so one of the things that I found really interesting just from a cancer perspective was that a lot of our major oncogenes are highly conserved because these are core biological genes that if you screw them up, will give you cancer. But there's an evolutionary pressure to maintain these genes. And so there's a reason why they're conservative, because they're really important biologically, and that's true across many other diseases as well. So from that perspective, I was really interested in this intersection of human and animal health. I always wanted to do more genomics myself and just never had had the training. Linda had always been interested in veterinary science, and so we kind of immediately started collaborating and saying, Look, look, there's a huge opportunity in this, again, third space, third dimension of genomics that people are not looking at. What do we do trying to start a comparative genomics company? I'm using air quotes here for the podcast listeners is a little bit broad. Where do you start? And I think Katie really gave us that start in saying, here's a model. We have a biobank of samples that are proprietary to fauna. We have an expert in this field. We have a model that's good for so many different diseases. Let's prove that the process works here and then we can expand into multiple disease areas.</p><p><strong>Harry Glorikian: </strong>You know, you got to love, people I think, underestimate that magic that happens when the right people get together and the spark happens, right? I mean, I'll take that. Any day. I mean, I love coming up with a plan and then, you know, working to the plan. But when it happens, when the right people in the room and they're all get excited, those are those are the most incredible start ups, in my opinion. Yeah. So you're starting off with targets in heart disease, stroke, Alzheimer's, diabetes, very different areas, right? Cardiovascular, neurodegenerative and metabolic. So. Why start with those areas in particular?</p><p><strong>Linda Goodman: </strong>So I think for us it was really again showing showing what we can translate from this model. So some of the phenotypes that we see, the traits that we see in the ground squirrel, which is predominantly one of the species we use for our work, is that they're exquisitely resistant to ischemia, reperfusion injury. So the kind of injury that gets, if you have a heart attack and you go and get the heart attack on block, you get this rush of warm, oxygenated blood back into your heart that can actually be damaging. And that's a lot of what causes damage after a heart attack, what these animals happen, they do this 25 times over the course of a 6 to 7 month hibernation cycle. And if you look at their hearts in the peak of one of these periods, there is an upregulation of collagen, which is cause of fibrosis. There's an upregulation, there's histologically, there's a little bit of damage. It's less than you would I would have, but there's a little bit there. But if you get to the end of that whole cycle and look at their hearts, they look normal and they do it again next year. Right. So you and I could not survive 25 of these attacks over six or seven month period, right? Obviously not. So let's pick the strongest phenotypes we have in these animals and let's show that we can use information from that and come up with genes and compounds that are protective in our more standard models of these diseases.</p><p><strong>Linda Goodman: </strong>And that's what we did really with the first round of data that we had is we generated four genetic targets and two compounds that came out of the heart data that we had from hibernating and that we tested them in human cardiomyocytes in a dish and said if we take oxygen and glucose away from these cells, they get really unhappy and die and we could double survival of human heart cells in a dish. And then we said, okay, great, let's actually move this into animals. And so we used AAV or some of these viral vectors to then knock down genes in vivo in hearts of rats. So we literally tied off a coronary artery and then let the blood come back in and saw that we could almost fully protect these hearts from damage by knocking down genes that we found in the hibernating data. So it was really closing that loop and saying, where are the strongest traits? Can we show that this works? And then it was really figuring out where are the really large areas of unmet need. And so in terms of metabolism, we end up connecting with Novo Nordisk, which is a publicly disclosed partnership. They are very focused on obesity. We have a model that increases this metabolism, 235 fold over an hour. Name another model that can do that, right?</p><p><strong>Harry Glorikian: </strong>I need that. I need that. I need like, because...</p><p><strong>Ashley Zehnder: </strong>We all need that!</p><p><strong>Harry Glorikian: </strong>I could get rid of a few pounds right around here.</p><p><strong>Linda Goodman: </strong>Exactly. So then it's really just figuring out where are the unmet needs, who is really interested in these areas we're looking at and do we have unique data that speaks to those models? And that's really we just try to be guided by the biology and saying, where do we have unique data sets that can answer high unmet needs?</p><p><strong>Harry Glorikian: </strong>Okay. Well, all I mean, all sounds super exciting if we can make the translation, you know, in the right way and find those targets. But. You guys have built up a significant biobank, right? I understand you have a huge database of genomic readout from various hibernating animals. Can you tell us a little more about the extent of that biobank? How did you collect the data and how unique is that database in the industry?</p><p><strong>Ashley Zehnder: </strong>Yeah. Linda, do you want to talk a little bit about the data sources that we're currently using at Fauna?</p><p><strong>Linda Goodman: </strong>Yeah. So maybe, you might be the best person to talk about the Biobank and then I can talk about all the other data sources layering on top of that.</p><p><strong>Ashley Zehnder: </strong>Yeah, I'll talk a little about the BiobanK. So we have yeah, we have a number of different data sources. The Biobank is one of them and probably one of the main ones that we use. So Katie, during her PhD, built a really unique biobank of very precisely time tissue samples from 39 ground squirrels across the whole hibernation cycle. And the reason why that timing is so important is because the cycle is so dynamic. If you don't have really precise sample timing, you end up with a big kind of smush of data that you can't tease apart by having really precisely timed data points, you can separate these genes into clusters and know exactly kind of where you are in time. And that timing relates to the physiological injuries that we study. So we know what time points their hearts are protected because those physiological studies have been done. We've looked at those time points very specifically. So we have that biobank of samples that we in licensed as founding IP at Fauna CANI literally drove it across the country in a U-Haul because we didn't trust anybody to move it. So that's that's now in our freezers and Emeryville with a cadre of backup batteries to protect it.</p><p><strong>Ashley Zehnder: </strong>So that's the founding data that we have. And that's been really crucial because I look at other companies trying to use data for drug discovery, particularly in the early stage. A lot of it is kind of publicly available data or cell lines or kind of shared data sources. And part of what is unique about font, as we literally have truly novel data sources that we're starting with that are wholly owned that we control and we know the quality of those. So that's really the Biobank that we have is and it's 22 different tissues. I mean, it's brain, it's kidney, it's lung, it's hard. It's liver or skeletal muscle. Right? Pretty much every kind of tissue you would want in that founding biobank. But then on top of that, I think what we've done with the other data is super important. Yeah. And so we layer on top of that all sorts of publicly available data and also data we've been able to source, such as human data from the UK Biobank. But I really want to hit on the point of, of why the model species hibernate or data is so different. All of the other data that most people work with is trying to compare animals that are healthy to animals that are diseased, or people that are healthy to people who are have disease. What's really unique about the model species that we're working with is we're trying to figure out why they have these superpowers in terms of disease, resistance and repair.</p><p><strong>Ashley Zehnder: </strong>So it's kind of the other end of the spectrum that we're making this comparison between a normal, normal hibernate or during, say, the summer months and then a hibernate or that has gene expression patterns that mean that it's resistant to many diseases and it can repair tissues when it gets damaged. So it's actually quite different from the normal types of comparisons that others would make. But yes, and then we integrate publicly available data from sources like Open Targets Reactance. And one of the other data sets that we work with that's that's valuable is that we go back through literature that is relevant to the disease, indications that we're going after. And we have a team of curators that mines these papers that where the biology is relevant and we integrate those transcriptomic studies generally into our database. And that that really helps with our comparisons. And I can kind of give you an example of the way that we would do this type of cross-species analysis compared to what other what others in the industry might do if they were just looking at humans or say, just looking at mouse and rat is that, you know, if you're if you're just looking at at a human study and you're trying to say, look, for what genes do we think are involved in heart failure? You would look at, say, transcriptomic, differences between healthy human hearts and failing human hearts.</p><p><strong>Ashley Zehnder: </strong>And then you would have some type of gene list where you'd see the genes that have differential regulation between those two groups. And it fa not we we look at that type of data and then we also look at hibernate or data and then we can compare that. And that's really where the magic happens because we can look at hibernate hours when their hearts are protected during the winter months. So we have an example of these are genes that are involved in protection and then compare that to the summer months where they're not protected. And then we can integrate both of those to analyses so we can say what's really different about a human heart when it is failing to a hibernating heart when it is protected. And we do very fancy types of network analyses and then we layer on all of these data from external sources and the really exciting moments where we see these networks light up with the exact regulation patterns we are expecting that is relevant to our biology. Those are really fun. And I would say the other data source, Linda, that would be good to touch on is the genomic data, right? I think the comparative genomics data. So maybe give a little context on that. I think that really broadens the the views point of what we work with.</p><p><strong>Linda Goodman: </strong>Yeah, absolutely. So that's another data source that we work with. We have a collaboration with the Broad Institute that is one of the leaders of the Zoonomia Project that has in the neighborhood of 250 mammals in a in a big alignment. So we can do comparative genomics across all of these animals. And what we like to look for are comparing the genomes of animals that have a specific phenotype to others that don't. So for example, what is different in the genomes of hibernaters compared to the mammals that cannot hibernate? And we typically do this with how fast or slow evolving genes are, right? So if a gene doesn't accumulate very many mutations in hibernate hours, then it's probably pretty important for hibernation because there's a lot of purifying selection on that versus say, in other mammals that are not hibernaters, like like a human or a rat. It got a lot of mutations in it because it didn't matter as much for those animals. So that's another way of pinpointing the genes that are really important to hibernation. And we know, of course, that some of those might relate to the overall hibernation trait, but many of them are going to be disease relevant because they've had to evolve these genes in a way to protect their hearts and their other organs from these extreme environments they're in during hibernation.</p><p><strong>Harry Glorikian: </strong>So that, if I'm not mistaken, so did the Zoonomia Consortium, there was a big white paper about comparative genomics published in Nature.</p><p><strong>Ashley Zehnder: </strong>Nature last year? Yep. Two years ago. Yeah. A little bit.</p><p><strong>Harry Glorikian: </strong>Yes. Time seems to blur under COVID.</p><p><strong>Ashley Zehnder: </strong>Yeah.</p><p><strong>Harry Glorikian: </strong>How long have I been in this room? Wait. No.</p><p><strong>Harry Glorikian: </strong>But. Can you guys I mean, because doing comparative genomics is not, you know. It's not new necessarily, but can you guys summarize sort of the. Arguments or the principles of that paper, you know, quickly. And then, you know, my next question is going to be like, do you feel that Fauna Bio is part of a larger movement in science and drug discovery that sort of gaining momentum? So I'll, I'll I'll let you guys riff on that launch.</p><p><strong>Ashley Zehnder: </strong>Linda, you're you're the best one to do a perspective on that paper for sure.</p><p><strong>Linda Goodman: </strong>Sure. Yeah. You know, I think this is really born out of the concept that in order to identify the most important genes in the human genome, we need to be looking at other animals and more precisely, other mammals to see their pattern of evolution. Because if you see a gene that looks nearly identical across all other mammals, that means that it's really important. It means that it has been evolving for somewhere in the neighborhood of 100 million years, not accumulating mutations, which really translates to if you got damaging mutations in that gene, you were a dead mammal. Those have been selected out. And that's really how you can tell these are the key genes that are important to to your physiology, the difference between life and death. And you can't understand those things as well by just looking within humans and human populations. We're all too similar to each other. But it's really when you get to these long time scales that the statistics work out where you can see, okay, this has been this mutation has not happened in 100 million years. We don't see it in anybody's genome. So that is obviously very important. And that's just this other way of looking at our own human genome that helps highlight the genes that are going to be important to diseases. And I think, you know, another side to this paper related to conservation and the fact that a lot of these animals with really exciting genomes, the ones that are exciting to people like us, are those that have these really long branch lengths where they're they're kind of an ancient lineage. And that's really where the gold is, because that helps us even more understand how quickly or slowly some of these genes are evolving, and it related to trying to conserve some of these species as well.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>I should say congratulations because you guys did raise a $9 million seed round last fall from a group of venture funds, some in life sciences, some more general. Right. What does that funding do? What is it? What does that unlock next?</p><p><strong>Ashley Zehnder: </strong>You. I will answer that question. I do want to jump back to your other question that was kind of is this part of a larger movement and comparative genomics? Right. I think that's an important question. I think you sort of hit the nail on the head there. We were invited to a symposium in August of 2019 called Perspective and Comparative Genomics that was held at NHGRI in Bethesda. And I think there's a recognition and actually some of our grant funding is also through NHGRI. And I think there's a recognition from the folks who sequenced the human genome, that they don't have all those answers. And so it's an interesting time where we realize that there is this kind of other data out there that can help us really understand that better. And it does feel a little bit like a rising tide. And so that's that's something that I think is important to recognize. But in terms of the seed round, really, that was meant to expand the platform and the pipeline that we built with our initial funding back from Laura Deming and Age One and True Ventures, who led around for us in early 2019. It's really saying like that initial $3 million or so is really to say like, does this work or is this crazy, right? Can we it's just a crazy idea.</p><p><strong>Ashley Zehnder: </strong>And that's what we really started to generate those first few animal studies that said, yes, actually we can find genes and compounds from this data that meaningfully affect not only human cells, but animal models of human disease. And now we're really expanding into new disease areas. We're looking at areas like fibrosis. We're looking at areas like pulmonary disease. We've got some really interesting data coming out of animal models of pulmonary hypertension with a compound that we found on our platform. We've got the collaboration with Novo Nordisk, which of the five genes that they tested in animals? We have one that has a significant obesity phenotype. So I mean, 20% hit rate on a novel target discovery in vivo is not bad, right? So we've gotten to the point now where repeatedly over multiple disease areas, we've seen that between 20 and 30% of our either compounds or genes are hits, which shows us that this is not only kind of a we got lucky in cardiac disease, but actually this is a process for enriching for important drug targets. And now it's a matter of really expanding the pipeline. We brought on a really experienced head of Therapeutics Discovery, Brian Burke, who spent 20 years at NIBR running very early discovery programs and then seeing programs go into the clinic.</p><p><strong>Ashley Zehnder: </strong>He worked on drugs like Entresto and then worked on a couple of startups after that. So he's kind of gotten both big pharma and startup experience, and his job at Fauna is to really look at the menu of things that we're presenting him from an early research and discovery phase and picking the winners and really figuring out how to take them forward and also killing the programs that are less exciting to him for a number of technical or practical reasons. So that's been really, really helpful to have someone come in truly from the outside and take a look at the science at Fauna and say this is as good or better as anything that I've worked on before. I'm really excited to work on this, and that's been kind of a nice external perspective on on the science and the pipeline at Fauna. So that's really what the $9 million is for. It's really expanding a lot of the computational expertise and and progress and Linda can talk a little bit about that, but also just expanding into new disease areas as well.</p><p><strong>Harry Glorikian: </strong>Understood. So, you know, on this show, like, I talk a lot about, you know, technology, data, and how it's all affecting health care, which this all fits into. But one of the things we talk about a lot is how crappy, terrible, I should use, you know, terrible, right, electronic health records are in the lack of interoperability between them. And Ashley, you actually wrote a paper.</p><p><strong>Ashley Zehnder: </strong>I did, yeah, veterinary medical records are just as bad, actually, veterinary medical records are probably a little bit worse, if it's possible.</p><p><strong>Harry Glorikian: </strong>And to be quite honest, I'm sorry, I just hadn't thought about Fifi or Rover and their...</p><p><strong>Ashley Zehnder: </strong>Their medical records.</p><p><strong>Harry Glorikian: </strong>EHR. Is like is the problem bigger, even, when it comes to functional genomics? I'm trying to think of like obtaining and storing and analyzing 'omics of different species. I mean, who's working on this? Is that part of the Zoonomia consortium? Right. I'm just trying to think it through, like, how do you get all this information and then look at it across all these different species. And at some point, you know, look looking at it against humans also.</p><p><strong>Ashley Zehnder: </strong>Yeah. I'll let Linda talk about the genomics side. I'll comment on sort of some of the validation, some of the externally curated data that Linda talked about. I think this is actually becoming a really important data set. It was a little bit of a slow burn to figure out how to get it and to curate it. But there are a lot of studies now coming out and not just your traditional model organisms, but naked mole rats and long lived rock fishes and primate studies and bats and all kinds of people looking at genomics and RNA seek metabolomics and proteomics across these species that have interesting phenotypes. The problem is, every one of those researchers really heads down on their own species of interest, right? Nobody's saying, oh, well, actually, we're seeing the same genetic signature in these bats that we're seeing in the naked mole rats that we're seeing in some of these long lived fish. Right. But that data is not in a very friendly format. So we were like originally we were like, okay, we're going to write some scripts, we're going to try to pull some of the stuff out of supplemental tables. It's going to be awesome. No, no, no. We have very highly trained curators who work on this data and bring it in. And we have a very standard pipeline and a process and a way to normalize the data across different studies and standard ontologies and ways to clean up this data in a way that it can be integrated with the genomics coming out of the platform. And that is a tedious and painful and ongoing effort to bring in all this data.</p><p><strong>Ashley Zehnder: </strong>Now, we have data from well over 330 individual studies, over 30 species. I think Linda, you told me it was like more than 800,000 gene entries at this point that's curated and that's kind of growing month over month. So now that's becoming part of our defensible moat, is that we've taken the last two or three years, again, slow burn, pulling all this data together in a way that it can be reused. And now we can turn a paper around and put it on a platform in a week or two. So we're kind of always scanning for these studies. But yeah, it's, it's, it's out there, but it's not always in a usable format without a lot of pain and effort. And so we've kind of put that pain and effort into getting that data in a place that we can use it. And then, of course, the comparative genomics is like a whole 'nother level of complexity.</p><p><strong>Linda Goodman: </strong>Yeah, so I can talk a little bit about how we do that within the comparative genomics community and how we've done that for Zoonomia. Because I referenced before that we like to do these sorts of studies to examine the genomes of hibernate ers and non hibernate and figure out what's different. And you'd think it would be a trivial question who is a hybrid nature amongst mammals? But it's actually not. And so along with our collaborators Alison Hindle and Cornelia Santer, as part of the Genome Project, Fauna tried to go through and categorize every every genome that was in Zoonomia. So we're talking about around 250 mammals for is it a hibernater, or is it not? And you'd be surprised how often it was digging through literature from the 1970s and someone would say, this animal is not often seen during the winter. So we think it hibernates and it's not always the most satisfying. And so it is an extremely tedious effort, but well worthwhile to go through and say this animal, I'm very sure, hibernates. This one, I'm very sure does not. And then there's this third category of animals that were unsure about we're going to remove those. And it's tedious, but you have to do that part, right? Because if you do the analysis with bad data, you're never going to find the genes that you want. And Linda, I remember you telling me when you were going through this very painful process, I think your threshold for being a perpetrator, quote unquote, was that you could drop your metabolism like 50%. Correct me if I'm wrong, and humans could go down to like 40 like in certain instances, like humans are almost there. You know, it's it's hard to know when there is only one paper about it, but certainly there are some really deep meditative states and humans and low oxygen environments where, you know, we're getting kind of close to the area where we might say that that's a hibernated, but certainly not the duration that you get out of hibernation. But it's it's it surprised me to see how close how much how much metabolic flexibility there really is when you start to look at it. Yeah.</p><p><strong>Harry Glorikian: </strong>Yeah. We've got to go talk to the monks.</p><p><strong>Linda Goodman: </strong>Absolutely. Absolutely. You know, we have that in mind. It sounds like an interesting travel experience. Yeah.</p><p><strong>Harry Glorikian: </strong>So I want to jump back for a second because. You guys don't necessarily have from what I have pieced together, the normal sort of like startup story. Right. First of all, you're an all female founding team, right? Highly unusual, right? Not something I see every day. You guys started at an accelerator program in San Francisco called Age One.</p><p><strong>Ashley Zehnder: </strong>Age One.</p><p><strong>Harry Glorikian: </strong>And then you moved to QB3 and the East Bay Innovation Center.</p><p><strong>Ashley Zehnder: </strong>Yep.</p><p><strong>Harry Glorikian: </strong>And then I think they helped you with some paid interns.</p><p><strong>Ashley Zehnder: </strong>Well, we got some from Berkeley. Yep, we did.</p><p><strong>Harry Glorikian: </strong>Yeah. And then you went through a SBIR grant.</p><p><strong>Ashley Zehnder: </strong>A couple of them.</p><p><strong>Harry Glorikian: </strong>From the Small Business Administration. And then a small business technology transfer grant from the Human Genome Research Initiative at NIH. Right.</p><p><strong>Ashley Zehnder: </strong>Yep.</p><p><strong>Harry Glorikian: </strong>I'm hopeful, hopefully my notes are all correct. Talk a little bit about the on ramp or infrastructure today for sort of seed stage startups like you. I mean, what were the most important resources?</p><p><strong>Ashley Zehnder: </strong>This is such an important conversation. I'm really glad you're asking this question. We had a call with a reporter from Business Insider yesterday who was talking to all three of us about this early founder ecosystems in biotech and sort of East Coast versus West Coast ways of starting biotechnology companies. Right. And that is a whole do a whole podcast on that, let me tell you. But I will say that there are a lot of resources for, let's call them founder led bio. Right. In the West Coast, which is kind of the buzzword these days, but people really supporting the scientists who originate the concepts and training them to be founders as opposed to assuming that you need to bring in an experienced CEO to run a company at this stage. Right. So I think we were very fortunate to meet Laura Deming at Stanford, who is one of the founding VCs. And longevity before that was a buzz word, right? She was one of the first longevity funds, literally Longevity Fund, and is really been a champion of founders, starting companies and really training founders to start companies who are deep science founders. So we started in age one. It was the first batch of age one. We're still very close to that cohort of companies doing interesting things from machine learning and image analysis through pure therapeutics development. And then Laura really helped us, her, her. We asked her later, like, why did you end up investing in us? She said, Well, the science was amazing.</p><p><strong>Ashley Zehnder: </strong>This is totally a field with so much promise. I just needed to teach you guys how to pitch. The science was there, right? So she helped me just how to pitch and how to use less science words in our pitches, which we're still working on to some extent. But then it was this balanced approach of taking in some venture money to really support the growth of the company, but balance with some of this non-dilutive funding for specific projects where it made sense and some of that was some of that in the early stage is validation, right? Having having funding through groups like NHGRI, having an early partnership with a company like Novo Nordisk, which provided also some non-dilutive funding for the company, really validated all of the science that we were doing because we were first time founders, because we're a little bit outside of the normal profile. For me, I don't feel weird being a female founder only because 80% of veterinarians are female. Like, I'm used to being in a room with all women. You go to a bio conference, it's not the same thing, right? So for us, we're just we are who we are. Right. But it's helpful, I think, to get some of that external validation and then really be able to use that to to start to build on programs and show progress.</p><p><strong>Ashley Zehnder: </strong>And then it becomes more about the data and the progress and what you can do with it. So that's a lot of how we started the company. There's I said there's a lot of support in the West Coast for this kind of thing. There's great programs like Berkeley Foreman Fund Talks, which I worked, which I was in as well, just about logistics around starting companies. There's a lot of good startup accelerators. I've got a really amazing all of us, how amazing a network of founders who we can reach out to on different. I got four or five different Slack channels of founders that I could reach out to for all kinds of advice. And usually it's always good to have a company that's one or two stages ahead of you, like talking to folks who IPO'd or something last year is is not as helpful as folks who recently raised a series B, right. And figuring out what those milestones look like and then particularly those that have taken mostly money from tech investors like we have all the lifeforce capital who led our last round is also has funded some very good therapeutics companies, Sonoma Therapeutics and Second Genome and other therapeutics companies as well. So I think it's it's helpful to see how people balance the needs of the companies at different stages in what you need.</p><p><strong>Harry Glorikian: </strong>But so do you guys think that you could have started Fauna ten years ago? I mean, did the support systems exist for starting a company like this?</p><p><strong>Ashley Zehnder: </strong>Well, no, for two reasons. We couldn't have started Fauna ten years ago. One is the data just simply wasn't in a place that the company was a tractable strategy. Everything was still too expensive and we had really shitty genomes for a few species at that point. And B, I think there really wasn't the kind of groundswell of support for deeply scientific technical founders to start their own companies and train them to be the kind of leaders they need to be to run those companies for a longer term. So I think it's a confluence of those things and being in an environment like Stanford that really encourages people to to try startups, it's not a crazy idea. Like people don't look at you like you're your heads backwards. If you start to start a company at Stanford, it's like, okay, cool. Like, when are you launching? You know.</p><p><strong>Harry Glorikian: </strong>I think it's the opposite.</p><p><strong>Ashley Zehnder: </strong>Yeah, exactly. Exactly. Like, why aren't you have a company yet? Whereas you know, a lot, many, many, many, many other places like that is seen as a very strange thing to do. So I think the environment plays a huge role. Yeah, for sure.</p><p><strong>Harry Glorikian: </strong>Yeah. I think between East Coast and West Coast too, there's.</p><p><strong>Ashley Zehnder: </strong>That's a whole, we should have a whole 'nother podcast on that.</p><p><strong>Harry Glorikian: </strong>Yeah. Yeah, exactly. Well, I live here and I was I was born and raised on the West and I remember there and I came here and I was like, Oh, this is where you are not in Kansas anymore. Like, this place is different. So, I mean, I'm hoping that the East Coast is actually embracing risk a little bit more and sort of stepping out on the edge. But it's really slow. They don't call it New England for nothing. So. But, you know, it was great having you both on the show. I this was great. I we covered a lot of ground. I'm sure people's heads are spinning, thinking about, you know, you know, different animal species and how that's going to play into this. And I mean. It really does sound like I know we have to do the hard work, but there's a lot of computational effort that has to go on here to sort of. Make sense of this and bring it all together and align it so that you can be looking at it properly and make the right decisions going forward.</p><p><strong>Ashley Zehnder: </strong>Yep. Millions of data points coming together to find drug targets for sure.</p><p><strong>Harry Glorikian: </strong>So thanks for being on the show. And you know, I wish you guys incredible luck.</p><p><strong>Ashley Zehnder: </strong>Thanks, Harry, so much. This was fun.</p><p><strong>Linda Goodman: </strong>Thanks for having us.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <pubDate>Tue, 12 Apr 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Ashley Zehnder)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Why is hibernation something that bears and squirrels do, but humans don’t? Even more interesting, what’s going on inside a hibernating animal, on a physiological and genetic level, that allows them to survive the winter in a near-comatose state without freezing to death and without ingesting any food or water? And what can we learn about that process that might inform human medicine?</p><p>Those are the big questions being investigated right now by a four-year-old startup in California called Fauna Bio. And Harry's guests today are two of Fauna Bio’s three founding scientists: Ashley Zehnder and Linda Goodman. They explain how they got interested in hibernation as a possible model for how humans could protect themselves from disease, and how progress in comparative genomics over the last few years has made it possible to start to answer that question at the level of gene and protein interactions. The work is shedding light on a previously neglected area of animal behavior that could yield new insights for treating everything from neurodegenerative diseases to cancer.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>It’s April and spring is well underway, even though it’s been a pretty cold one so far here in New England.</p><p>It’s the kind of weather that makes you want to pull the covers over your head in the morning and just sleep in. </p><p>Or maybe just hibernate like a bear until summer is really here.</p><p>But when you think about it, what is hibernation? Why is it something that bears and squirrels do, but humans don’t?</p><p>Even more interesting, what’s going on inside a hibernating animal, physiologically, that allows them to survive all winter without freezing to death and without ingesting any food or water?</p><p>And what can we learn about that process that might inform human medicine?</p><p>Those are the big questions being investigated right now by a four-year-old startup in California called Fauna Bio</p><p>And my guests today are two of Fauna Bio’s three founding scientists: Ashley Zehnder and Linda Goodman. </p><p>I asked them to explain how they got interested in hibernation as a possible model for how humans could protect themselves from disease.</p><p>…And how progress in comparative genomics over the last few years has made it possible to start to answer that question at the level of gene and protein interactions.</p><p>We’ve always looked to the natural world, especially the world of plants, for insights into biochemistry that could inspire new drugs. </p><p>But what’s exciting to me about Fauna Bio is that they’re shining a light on a previously neglected area of animal behavior that could yield new insights for treating everything from neurodegenerative diseases to cancer.</p><p>So, here’s my conversation with Ashley Zehnder and Linda Goodman.</p><p><strong>Harry Glorikian: </strong>Ashley. Linda, welcome to the show.</p><p><strong>Ashley Zehnder: </strong>Thanks, Harry, we're excited to be here today. It's going to be fun.</p><p><strong>Linda Goodman: </strong>Yeah, thanks for having us.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, well, you guys are someplace sunny and warm, and I'm actually I shouldn't say that it's actually sunny right now on the East Coast. So I'm not I'm not.</p><p><strong>Linda Goodman: </strong>Don't jinx yourself.</p><p><strong>Harry Glorikian: </strong>But the temperature is going to drop. Like to I think they said 18. So everything will freeze tonight for sure. So it'll, you know, it's one of those days, but. I want to jump right into this because we've got a lot of ground to cover. Like there's so many questions that I have after sort of looking into the company and sort of digging in and, you know, but even before we jump into what you're working on. Right, I really want to talk about hibernation. Maybe because I'm jealous and I'd like to be able to hibernate. I have sleep apnea. So sleep is a problem. But humans don't hibernate. But there's a ton of other mammalian species that that do. And sometimes I do feel, though, that my teenager hibernates, but that's a different issue. So, but, what what is interesting to you about hibernation from a physiological point of view. What what goes on with metabolism or gene expression during hibernation, that's that's not found in humans, but that could be relevant to human health?</p><p><strong>Ashley Zehnder: </strong>Yeah, I think this is a great question, Harry, because I think both Linda and I came to fauna from different backgrounds. I came from veterinary science, Linda from comparative genomics. We can go into our details later, but neither of us really appreciated the amazing physiology of these species. There are some of the most extreme mammals on the planet, and there are hibernating bears and literally every group of mammals. Right. This is something Linda specializes in. But there are primates in Madagascar that hibernate very similar to the 39 ground squirrels that we tend to work with. So it's this really deeply conserved trait in mammals, including primates. And, you know, it kind of highlights for us what our genes can do when they're adapted for extreme environments. And so that's kind of the lens that we take when we look at hibernation. It's how do these species protect their own tissues from being nearly frozen for six, seven months out of the year, having to protect their brains, their hearts, all their vital organs? They're not eating, they're not drinking. They're not moving for these really deep bodied hibernaters. When you think of 100 kilogram animal that's not eating for seven months, how do they survive that? Right. And it has to do with metabolic rates that change 200- to 300-fold over the course of a couple of hours. It has to do with oxygenation changes and protection from oxidative stress and ischemia reperfusion. And so if you look at a tissue by tissue level, you can start to see how these animals are finally adapted to protecting themselves from from damage. And then we can start to say, well, this is similar damage to what we see in human diseases. And that's why this is such an interesting system, because it's so dynamic and because it happens across so many groups of mammals, it really lends itself to this comparative genomics approach that we take to drug discovery.</p><p><strong>Harry Glorikian: </strong>Yeah. Because I was wondering sort of like what ways of healing from different sort of traumas and conditions do hibernating animals have that that humans don't, that we sort of maybe wish we did? It's sort of like, you know, almost Marvel or one of those things where you like go to sleep, you wake up, you've totally healed again, which kind of be kind of be cool. Yeah. So, you know. But when did scientists first begin to think about whether having a better understanding of hibernation might help us solve? Some of these riddles that we have in human health. I mean, it surely it can't be like a new concept. It has to go further back. I mean, what has changed recently to make it more actionable? I mean, is it, you know, omics, costs coming down that are making it easier, computational capabilities that are, you know, making all these come together? I mean, those. What do you guys. What's. What's the answer? You guys know the answer better than I do.</p><p><strong>Ashley Zehnder: </strong>I'll comment on a little bit on the physiology, and I will let Linda talk about the data revolution, because that's that's really what she knows very intimately. So from a physiology standpoint, these are species and not just hibernaters, but a lot of other species that we've been studying since the early 1900s, 1950s. I mean, these are some of our earliest biological experiments and our earliest understandings of biology. We're not necessarily done by studying humans. A lot of that was done by studying natural disease models, right? How did we figure out that genes cause cancer? So it's a little bit of a tangent, but bear with me, it was not by studying human cancer, it was by studying Rous Sarcoma Virus and how that virus picked up bird genes and then turn them on. Right and other in other individuals. So but then kind of this almost the same year in 1976 that we figured out that genes cause cancer by studying chickens. 1974 we figured out how to genetically modified mice. And we sort of figured out that like, okay, maybe we don't need to study natural biology anymore. And so I feel like we sort of lost a lot of those skills and figured out we had humans and we had model organisms and we were done. And I think now we're kind of in this renaissance where people are realizing that actually there's still a lot of natural biology that we can learn from. But it's being powered now by this data revolution and the decrease in cost and sequencing and availability of omics data like RNA. Seq and then I will pitch that over to Linda because that's really what she knows best.</p><p><strong>Linda Goodman: </strong>Yeah, yes, absolutely. You know, Ashley's right. And I think just to add on to that, that there was this issue in which there were a lot of field biologists out there working with these really fascinating hibernating animals. They knew a lot about what these animals could do, the extreme environments they were exposed to, that they could overcome, they could protect all of their tissues. And there was so there was a group of field biologists who knew all that information. And then on the other side, you have all of these geneticists who are studying the genomes of probably humans and mouse and rat. And they weren't really talking to each other for a long time. And I've been in the genomics field for at least a decade, and not until very recently did I even hear about all these amazing adaptations that these hibernating mammals have. So I think some of it was just a big communication gap. And now that the genomics field is starting to become a little more aware that all these exciting adaptations are out there that we can learn from, I think that's going to be huge. And yes, of course, it certainly does not hurt that there's been a dramatic drop in sequencing costs. We can now sequence a reference genome for around $10,000. That was unheard of years ago. And so a lot of these species that people would previously consider untouchables because they were not model organisms with a pristine reference genome, we can now start to approach these and thoroughly study their biology and genomics in a way that was not possible several years ago.</p><p><strong>Harry Glorikian: </strong>Yeah. I was thinking I was, you know, I was laughing when you said $10,000, because I remember when we did the genome at Applied Biosystems and it was not $10,000.</p><p><strong>Ashley Zehnder: </strong>Yeah.</p><p><strong>Harry Glorikian: </strong>Yeah. And it took I remember Celera, we had an entire floor of sequencers working 24/7 I mean, it was an amazing sight. And now we can do all that, you know, on a.</p><p><strong>Ashley Zehnder: </strong>Benchtop. Benchtop. Exactly. On a benchtop.</p><p><strong>Harry Glorikian: </strong>So. But, you know, it's interesting, like in a way, studying animals to learn more about disease mechanisms seems like a no brainer. I mean, we share a, what, about 99% of our DNA with chimpanzees. And for those listening. Yes, we do. You know, I'm sure there's people out there that, like, bristle when I say that. But what is it, 97.5% of our DNA with rats and mice. That's why we use all these things for sort of safety and effectiveness of drugs meant for humans. But. Still, I'm not used to drug hunters starting out by looking at animals, you know? Why do you think it's taken the drug industry, although I'm I say that very loosely, [so long] to wake up to that idea?</p><p><strong>Ashley Zehnder: </strong>Yeah. I think it's I think it's again, this almost reversal of the paradigm that exists today, which is let's take a human disease that we want to make a new drug for. Let's take a mouse and let's try to genetically manipulate that mouse to mimic as closely as possible what we see in the human disease. And those are always imperfect. I mean, I did a cancer biology PhD at Stanford, and there's that trope of like, Oh, if I had a dollar for every time you occurred mouse in a human right, it would need to work anymore. That's replicated across many fields, right? They're not good models. And so we're saying like obviously that doesn't really work for discovery. It's fine for preclinical and safety and you have to use those models. But for pure discovery, that's not where you want to be, right? Instead, you want to take the approach of saying, where has nature created a path for you? Where is it already solved this problem? And I think there are companies like Varian Bio who are doing this in human populations. We're saying, let's look at humans that have unique physiologies and a unique disease adaptations. And of course then you have to find those niche pockets of human populations.</p><p><strong>Ashley Zehnder: </strong>So that's not a not a simple problem either. But the approach is very analogous. What we're saying is we can use that rare disease discovery approach and just expand that scope of discovery. Look at highly conserved genes, look at how other species are using them to reverse how phosphorylation in the brain to repair their hearts after damage, to reverse insulin dependence. To heal, we'll heal their tissues or regenerate stem cells. Let's just see how nature did it right and just mimic that instead of trying to fix something that we artificially created. So it's literally reversing that paradigm of how we think about animals and drug discovery. But you have to know how to do that. You have to know which models are correct. You have to know how to analyze 415 genomes together in an alignment which is really complicated. Linda knows how to do that, so you have to know how to do it correctly, although you could screw it up very badly. So there's a lot of expertise that goes into these analyses and also again, the data availability, which wasn't there nearly a decade ago. So.</p><p><strong>Harry Glorikian: </strong>So I asked this question out of pure naivete, because I'm not sure that I could sort of draw a straight line. But, you know, which drugs were have been discovered through research on genetic mechanisms of disease in animals. Is there, are there?</p><p><strong>Ashley Zehnder: </strong>You know, I think directly it's a new field. Right. So I think, Linda, you and I have looked at some examples of looking at drugs for narcolepsy, looking at dog genetics and studies, looking at muscle disorders in certain species of cattle that have naturally beefed up muscles and translating those into therapies. I mean, there are examples of looking at animals for things like genotype, right, came from Gila monster venom, although that's not strictly a genetic program. Right? So I think this idea of looking at natural animal models is a source of innovation. It's just that, again, the data wasn't really available until fairly recently, but we know the strategy works by what's been done on things like PCSK9 inhibitors in humans, right? It's a very similar approach to that. It's just expanding that scope of discovery.</p><p><strong>Harry Glorikian: </strong>So because you guys raised money and you guys are moving this forward, sort of and I don't want you to tell me anything that's confidential, but. So what was the pitch when you when you put that in front of everybody?</p><p><strong>Ashley Zehnder: </strong>It was really that, look, drug discovery right now is really been hampered by a lack of innovation. And we're really stuck in looking at these very kind of currently limited data sources, which is humans and again, these handful of really imperfect animal models. But we can take what we've learned from working with human genomics and really greatly expand the opportunities for a number of diseases that still don't have good therapies. Right. We've had the human genome for really close to 20 years now. We spent a lot of money sequencing it. And still, if you go back and look at the FDA approvals in the last two years, which I did by hand a while ago, or more than three quarters of those are not new targets. They're new drugs for a new indication or new drugs, same drugs before a new indication or they're kind of meta pathway drugs or they're drugs for which we still don't know the mechanism. It's some small molecule. It's been around since fifties. And so like where is the innovation in the top ten diseases of people still have it changed? So like where I pulled these two headlines right not too long ago, one from 2003, which is like the era of the genomics revolution. Right? And then one from 2019, which was the genomics revolution question mark. Right. Like we're still sort of waiting for it. And so what is that missing piece of data that's really going to allow us to really leverage the power that's in the human genome? And to do that, we have to put our own genes in an evolutionary context to understand what's important. That's been that third dimension of genomics that's been missing. So it's really not necessarily about any particular species that we work on, all of which are amazing. It's really about using that data to shine a better light on what's important in our own genome. And so that's a lot of the pitches, like how are we going to use our own genome better and find better treatments?</p><p><strong>Harry Glorikian: </strong>Yep. Understood. So. You have a third founder, Katie Grabek. Right. So. Tell me about yourselves. I mean, did the three of you get interested in comparative genomics and hibernation? How did you come together? How did you decide like, oh, hey, let's do a startup and get this thing going in this area? So tell tell me the origin story.</p><p><strong>Ashley Zehnder: </strong>Linda, do you want to kick off?</p><p><strong>Linda Goodman: </strong>Sure. I think it all really started, Ashley and I initially started batting a few ideas around. We both had this understanding that that drug discovery today did not look outside of human mouse rat very much. And we both understood there was this wealth of animal data that's just waiting to be used and no one was doing it and we couldn't really figure out why. And we were having trouble figuring out exactly which animal we wanted to study and which diseases we wanted to study. And it just so happened that we lucked out. There was another woman in our lab at Stanford, Grabek, who had the perfect study system for what we were thinking about. She had these amazing hibernates our animals that have exquisite abilities in terms of disease, resistance and repair. And once she started talking about all the amazing phenotypes these animals have, we thought, wow, that would make a great study system to make the next human therapeutic. Yeah. And I think it's interesting that both Katie and Linda have human genetics PhDs. Right. So I think both of them and Linda can expound on this. But from Katie perspective. Right, she she went in to do a human genetics Ph.D. trying to understand how genes can be used to improve human health and shouldn't be rotating the lab of somebody who studied the 39 ground squirrel and said this physiology is way more extreme than anything we see in humans, but they're doing it using the same genes.</p><p><strong>Linda Goodman: </strong>What are those genes doing in these animals that we can adapt for human therapeutics? And so she brought that work with her to Stanford and was really one of the preeminent researchers studying the genetics and genomics of these species. My background is I'm of Marion, so my clinical training is in exotic species. So as a clinician, I treated birds, mammals, reptiles and saw that they all presented with different kinds of diseases or in some cases didn't present with diseases like cancer that were super interesting. And then coming to a place like Stanford to do a PhD, it was working with a bunch of human researchers, human focused researchers. They're all generally human researchers, but you know what I mean? It's a little bit tricky with the nomenclature. Generally, I have my doubts about, you know, maybe there's some chimpanzees doing research somewhere, people studying human diseases, right from a human lens who are completely ignorant of the fact that animals often also had these disease traits or in some cases were resistant to them. So there was this huge disconnect there of of biologists and veterinarians and physiologists who understood all these traits across different species and the people who knew the molecular mechanisms, even though a lot of those are shared.</p><p><strong>Linda Goodman: </strong>And so one of the things that I found really interesting just from a cancer perspective was that a lot of our major oncogenes are highly conserved because these are core biological genes that if you screw them up, will give you cancer. But there's an evolutionary pressure to maintain these genes. And so there's a reason why they're conservative, because they're really important biologically, and that's true across many other diseases as well. So from that perspective, I was really interested in this intersection of human and animal health. I always wanted to do more genomics myself and just never had had the training. Linda had always been interested in veterinary science, and so we kind of immediately started collaborating and saying, Look, look, there's a huge opportunity in this, again, third space, third dimension of genomics that people are not looking at. What do we do trying to start a comparative genomics company? I'm using air quotes here for the podcast listeners is a little bit broad. Where do you start? And I think Katie really gave us that start in saying, here's a model. We have a biobank of samples that are proprietary to fauna. We have an expert in this field. We have a model that's good for so many different diseases. Let's prove that the process works here and then we can expand into multiple disease areas.</p><p><strong>Harry Glorikian: </strong>You know, you got to love, people I think, underestimate that magic that happens when the right people get together and the spark happens, right? I mean, I'll take that. Any day. I mean, I love coming up with a plan and then, you know, working to the plan. But when it happens, when the right people in the room and they're all get excited, those are those are the most incredible start ups, in my opinion. Yeah. So you're starting off with targets in heart disease, stroke, Alzheimer's, diabetes, very different areas, right? Cardiovascular, neurodegenerative and metabolic. So. Why start with those areas in particular?</p><p><strong>Linda Goodman: </strong>So I think for us it was really again showing showing what we can translate from this model. So some of the phenotypes that we see, the traits that we see in the ground squirrel, which is predominantly one of the species we use for our work, is that they're exquisitely resistant to ischemia, reperfusion injury. So the kind of injury that gets, if you have a heart attack and you go and get the heart attack on block, you get this rush of warm, oxygenated blood back into your heart that can actually be damaging. And that's a lot of what causes damage after a heart attack, what these animals happen, they do this 25 times over the course of a 6 to 7 month hibernation cycle. And if you look at their hearts in the peak of one of these periods, there is an upregulation of collagen, which is cause of fibrosis. There's an upregulation, there's histologically, there's a little bit of damage. It's less than you would I would have, but there's a little bit there. But if you get to the end of that whole cycle and look at their hearts, they look normal and they do it again next year. Right. So you and I could not survive 25 of these attacks over six or seven month period, right? Obviously not. So let's pick the strongest phenotypes we have in these animals and let's show that we can use information from that and come up with genes and compounds that are protective in our more standard models of these diseases.</p><p><strong>Linda Goodman: </strong>And that's what we did really with the first round of data that we had is we generated four genetic targets and two compounds that came out of the heart data that we had from hibernating and that we tested them in human cardiomyocytes in a dish and said if we take oxygen and glucose away from these cells, they get really unhappy and die and we could double survival of human heart cells in a dish. And then we said, okay, great, let's actually move this into animals. And so we used AAV or some of these viral vectors to then knock down genes in vivo in hearts of rats. So we literally tied off a coronary artery and then let the blood come back in and saw that we could almost fully protect these hearts from damage by knocking down genes that we found in the hibernating data. So it was really closing that loop and saying, where are the strongest traits? Can we show that this works? And then it was really figuring out where are the really large areas of unmet need. And so in terms of metabolism, we end up connecting with Novo Nordisk, which is a publicly disclosed partnership. They are very focused on obesity. We have a model that increases this metabolism, 235 fold over an hour. Name another model that can do that, right?</p><p><strong>Harry Glorikian: </strong>I need that. I need that. I need like, because...</p><p><strong>Ashley Zehnder: </strong>We all need that!</p><p><strong>Harry Glorikian: </strong>I could get rid of a few pounds right around here.</p><p><strong>Linda Goodman: </strong>Exactly. So then it's really just figuring out where are the unmet needs, who is really interested in these areas we're looking at and do we have unique data that speaks to those models? And that's really we just try to be guided by the biology and saying, where do we have unique data sets that can answer high unmet needs?</p><p><strong>Harry Glorikian: </strong>Okay. Well, all I mean, all sounds super exciting if we can make the translation, you know, in the right way and find those targets. But. You guys have built up a significant biobank, right? I understand you have a huge database of genomic readout from various hibernating animals. Can you tell us a little more about the extent of that biobank? How did you collect the data and how unique is that database in the industry?</p><p><strong>Ashley Zehnder: </strong>Yeah. Linda, do you want to talk a little bit about the data sources that we're currently using at Fauna?</p><p><strong>Linda Goodman: </strong>Yeah. So maybe, you might be the best person to talk about the Biobank and then I can talk about all the other data sources layering on top of that.</p><p><strong>Ashley Zehnder: </strong>Yeah, I'll talk a little about the BiobanK. So we have yeah, we have a number of different data sources. The Biobank is one of them and probably one of the main ones that we use. So Katie, during her PhD, built a really unique biobank of very precisely time tissue samples from 39 ground squirrels across the whole hibernation cycle. And the reason why that timing is so important is because the cycle is so dynamic. If you don't have really precise sample timing, you end up with a big kind of smush of data that you can't tease apart by having really precisely timed data points, you can separate these genes into clusters and know exactly kind of where you are in time. And that timing relates to the physiological injuries that we study. So we know what time points their hearts are protected because those physiological studies have been done. We've looked at those time points very specifically. So we have that biobank of samples that we in licensed as founding IP at Fauna CANI literally drove it across the country in a U-Haul because we didn't trust anybody to move it. So that's that's now in our freezers and Emeryville with a cadre of backup batteries to protect it.</p><p><strong>Ashley Zehnder: </strong>So that's the founding data that we have. And that's been really crucial because I look at other companies trying to use data for drug discovery, particularly in the early stage. A lot of it is kind of publicly available data or cell lines or kind of shared data sources. And part of what is unique about font, as we literally have truly novel data sources that we're starting with that are wholly owned that we control and we know the quality of those. So that's really the Biobank that we have is and it's 22 different tissues. I mean, it's brain, it's kidney, it's lung, it's hard. It's liver or skeletal muscle. Right? Pretty much every kind of tissue you would want in that founding biobank. But then on top of that, I think what we've done with the other data is super important. Yeah. And so we layer on top of that all sorts of publicly available data and also data we've been able to source, such as human data from the UK Biobank. But I really want to hit on the point of, of why the model species hibernate or data is so different. All of the other data that most people work with is trying to compare animals that are healthy to animals that are diseased, or people that are healthy to people who are have disease. What's really unique about the model species that we're working with is we're trying to figure out why they have these superpowers in terms of disease, resistance and repair.</p><p><strong>Ashley Zehnder: </strong>So it's kind of the other end of the spectrum that we're making this comparison between a normal, normal hibernate or during, say, the summer months and then a hibernate or that has gene expression patterns that mean that it's resistant to many diseases and it can repair tissues when it gets damaged. So it's actually quite different from the normal types of comparisons that others would make. But yes, and then we integrate publicly available data from sources like Open Targets Reactance. And one of the other data sets that we work with that's that's valuable is that we go back through literature that is relevant to the disease, indications that we're going after. And we have a team of curators that mines these papers that where the biology is relevant and we integrate those transcriptomic studies generally into our database. And that that really helps with our comparisons. And I can kind of give you an example of the way that we would do this type of cross-species analysis compared to what other what others in the industry might do if they were just looking at humans or say, just looking at mouse and rat is that, you know, if you're if you're just looking at at a human study and you're trying to say, look, for what genes do we think are involved in heart failure? You would look at, say, transcriptomic, differences between healthy human hearts and failing human hearts.</p><p><strong>Ashley Zehnder: </strong>And then you would have some type of gene list where you'd see the genes that have differential regulation between those two groups. And it fa not we we look at that type of data and then we also look at hibernate or data and then we can compare that. And that's really where the magic happens because we can look at hibernate hours when their hearts are protected during the winter months. So we have an example of these are genes that are involved in protection and then compare that to the summer months where they're not protected. And then we can integrate both of those to analyses so we can say what's really different about a human heart when it is failing to a hibernating heart when it is protected. And we do very fancy types of network analyses and then we layer on all of these data from external sources and the really exciting moments where we see these networks light up with the exact regulation patterns we are expecting that is relevant to our biology. Those are really fun. And I would say the other data source, Linda, that would be good to touch on is the genomic data, right? I think the comparative genomics data. So maybe give a little context on that. I think that really broadens the the views point of what we work with.</p><p><strong>Linda Goodman: </strong>Yeah, absolutely. So that's another data source that we work with. We have a collaboration with the Broad Institute that is one of the leaders of the Zoonomia Project that has in the neighborhood of 250 mammals in a in a big alignment. So we can do comparative genomics across all of these animals. And what we like to look for are comparing the genomes of animals that have a specific phenotype to others that don't. So for example, what is different in the genomes of hibernaters compared to the mammals that cannot hibernate? And we typically do this with how fast or slow evolving genes are, right? So if a gene doesn't accumulate very many mutations in hibernate hours, then it's probably pretty important for hibernation because there's a lot of purifying selection on that versus say, in other mammals that are not hibernaters, like like a human or a rat. It got a lot of mutations in it because it didn't matter as much for those animals. So that's another way of pinpointing the genes that are really important to hibernation. And we know, of course, that some of those might relate to the overall hibernation trait, but many of them are going to be disease relevant because they've had to evolve these genes in a way to protect their hearts and their other organs from these extreme environments they're in during hibernation.</p><p><strong>Harry Glorikian: </strong>So that, if I'm not mistaken, so did the Zoonomia Consortium, there was a big white paper about comparative genomics published in Nature.</p><p><strong>Ashley Zehnder: </strong>Nature last year? Yep. Two years ago. Yeah. A little bit.</p><p><strong>Harry Glorikian: </strong>Yes. Time seems to blur under COVID.</p><p><strong>Ashley Zehnder: </strong>Yeah.</p><p><strong>Harry Glorikian: </strong>How long have I been in this room? Wait. No.</p><p><strong>Harry Glorikian: </strong>But. Can you guys I mean, because doing comparative genomics is not, you know. It's not new necessarily, but can you guys summarize sort of the. Arguments or the principles of that paper, you know, quickly. And then, you know, my next question is going to be like, do you feel that Fauna Bio is part of a larger movement in science and drug discovery that sort of gaining momentum? So I'll, I'll I'll let you guys riff on that launch.</p><p><strong>Ashley Zehnder: </strong>Linda, you're you're the best one to do a perspective on that paper for sure.</p><p><strong>Linda Goodman: </strong>Sure. Yeah. You know, I think this is really born out of the concept that in order to identify the most important genes in the human genome, we need to be looking at other animals and more precisely, other mammals to see their pattern of evolution. Because if you see a gene that looks nearly identical across all other mammals, that means that it's really important. It means that it has been evolving for somewhere in the neighborhood of 100 million years, not accumulating mutations, which really translates to if you got damaging mutations in that gene, you were a dead mammal. Those have been selected out. And that's really how you can tell these are the key genes that are important to to your physiology, the difference between life and death. And you can't understand those things as well by just looking within humans and human populations. We're all too similar to each other. But it's really when you get to these long time scales that the statistics work out where you can see, okay, this has been this mutation has not happened in 100 million years. We don't see it in anybody's genome. So that is obviously very important. And that's just this other way of looking at our own human genome that helps highlight the genes that are going to be important to diseases. And I think, you know, another side to this paper related to conservation and the fact that a lot of these animals with really exciting genomes, the ones that are exciting to people like us, are those that have these really long branch lengths where they're they're kind of an ancient lineage. And that's really where the gold is, because that helps us even more understand how quickly or slowly some of these genes are evolving, and it related to trying to conserve some of these species as well.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>I should say congratulations because you guys did raise a $9 million seed round last fall from a group of venture funds, some in life sciences, some more general. Right. What does that funding do? What is it? What does that unlock next?</p><p><strong>Ashley Zehnder: </strong>You. I will answer that question. I do want to jump back to your other question that was kind of is this part of a larger movement and comparative genomics? Right. I think that's an important question. I think you sort of hit the nail on the head there. We were invited to a symposium in August of 2019 called Perspective and Comparative Genomics that was held at NHGRI in Bethesda. And I think there's a recognition and actually some of our grant funding is also through NHGRI. And I think there's a recognition from the folks who sequenced the human genome, that they don't have all those answers. And so it's an interesting time where we realize that there is this kind of other data out there that can help us really understand that better. And it does feel a little bit like a rising tide. And so that's that's something that I think is important to recognize. But in terms of the seed round, really, that was meant to expand the platform and the pipeline that we built with our initial funding back from Laura Deming and Age One and True Ventures, who led around for us in early 2019. It's really saying like that initial $3 million or so is really to say like, does this work or is this crazy, right? Can we it's just a crazy idea.</p><p><strong>Ashley Zehnder: </strong>And that's what we really started to generate those first few animal studies that said, yes, actually we can find genes and compounds from this data that meaningfully affect not only human cells, but animal models of human disease. And now we're really expanding into new disease areas. We're looking at areas like fibrosis. We're looking at areas like pulmonary disease. We've got some really interesting data coming out of animal models of pulmonary hypertension with a compound that we found on our platform. We've got the collaboration with Novo Nordisk, which of the five genes that they tested in animals? We have one that has a significant obesity phenotype. So I mean, 20% hit rate on a novel target discovery in vivo is not bad, right? So we've gotten to the point now where repeatedly over multiple disease areas, we've seen that between 20 and 30% of our either compounds or genes are hits, which shows us that this is not only kind of a we got lucky in cardiac disease, but actually this is a process for enriching for important drug targets. And now it's a matter of really expanding the pipeline. We brought on a really experienced head of Therapeutics Discovery, Brian Burke, who spent 20 years at NIBR running very early discovery programs and then seeing programs go into the clinic.</p><p><strong>Ashley Zehnder: </strong>He worked on drugs like Entresto and then worked on a couple of startups after that. So he's kind of gotten both big pharma and startup experience, and his job at Fauna is to really look at the menu of things that we're presenting him from an early research and discovery phase and picking the winners and really figuring out how to take them forward and also killing the programs that are less exciting to him for a number of technical or practical reasons. So that's been really, really helpful to have someone come in truly from the outside and take a look at the science at Fauna and say this is as good or better as anything that I've worked on before. I'm really excited to work on this, and that's been kind of a nice external perspective on on the science and the pipeline at Fauna. So that's really what the $9 million is for. It's really expanding a lot of the computational expertise and and progress and Linda can talk a little bit about that, but also just expanding into new disease areas as well.</p><p><strong>Harry Glorikian: </strong>Understood. So, you know, on this show, like, I talk a lot about, you know, technology, data, and how it's all affecting health care, which this all fits into. But one of the things we talk about a lot is how crappy, terrible, I should use, you know, terrible, right, electronic health records are in the lack of interoperability between them. And Ashley, you actually wrote a paper.</p><p><strong>Ashley Zehnder: </strong>I did, yeah, veterinary medical records are just as bad, actually, veterinary medical records are probably a little bit worse, if it's possible.</p><p><strong>Harry Glorikian: </strong>And to be quite honest, I'm sorry, I just hadn't thought about Fifi or Rover and their...</p><p><strong>Ashley Zehnder: </strong>Their medical records.</p><p><strong>Harry Glorikian: </strong>EHR. Is like is the problem bigger, even, when it comes to functional genomics? I'm trying to think of like obtaining and storing and analyzing 'omics of different species. I mean, who's working on this? Is that part of the Zoonomia consortium? Right. I'm just trying to think it through, like, how do you get all this information and then look at it across all these different species. And at some point, you know, look looking at it against humans also.</p><p><strong>Ashley Zehnder: </strong>Yeah. I'll let Linda talk about the genomics side. I'll comment on sort of some of the validation, some of the externally curated data that Linda talked about. I think this is actually becoming a really important data set. It was a little bit of a slow burn to figure out how to get it and to curate it. But there are a lot of studies now coming out and not just your traditional model organisms, but naked mole rats and long lived rock fishes and primate studies and bats and all kinds of people looking at genomics and RNA seek metabolomics and proteomics across these species that have interesting phenotypes. The problem is, every one of those researchers really heads down on their own species of interest, right? Nobody's saying, oh, well, actually, we're seeing the same genetic signature in these bats that we're seeing in the naked mole rats that we're seeing in some of these long lived fish. Right. But that data is not in a very friendly format. So we were like originally we were like, okay, we're going to write some scripts, we're going to try to pull some of the stuff out of supplemental tables. It's going to be awesome. No, no, no. We have very highly trained curators who work on this data and bring it in. And we have a very standard pipeline and a process and a way to normalize the data across different studies and standard ontologies and ways to clean up this data in a way that it can be integrated with the genomics coming out of the platform. And that is a tedious and painful and ongoing effort to bring in all this data.</p><p><strong>Ashley Zehnder: </strong>Now, we have data from well over 330 individual studies, over 30 species. I think Linda, you told me it was like more than 800,000 gene entries at this point that's curated and that's kind of growing month over month. So now that's becoming part of our defensible moat, is that we've taken the last two or three years, again, slow burn, pulling all this data together in a way that it can be reused. And now we can turn a paper around and put it on a platform in a week or two. So we're kind of always scanning for these studies. But yeah, it's, it's, it's out there, but it's not always in a usable format without a lot of pain and effort. And so we've kind of put that pain and effort into getting that data in a place that we can use it. And then, of course, the comparative genomics is like a whole 'nother level of complexity.</p><p><strong>Linda Goodman: </strong>Yeah, so I can talk a little bit about how we do that within the comparative genomics community and how we've done that for Zoonomia. Because I referenced before that we like to do these sorts of studies to examine the genomes of hibernate ers and non hibernate and figure out what's different. And you'd think it would be a trivial question who is a hybrid nature amongst mammals? But it's actually not. And so along with our collaborators Alison Hindle and Cornelia Santer, as part of the Genome Project, Fauna tried to go through and categorize every every genome that was in Zoonomia. So we're talking about around 250 mammals for is it a hibernater, or is it not? And you'd be surprised how often it was digging through literature from the 1970s and someone would say, this animal is not often seen during the winter. So we think it hibernates and it's not always the most satisfying. And so it is an extremely tedious effort, but well worthwhile to go through and say this animal, I'm very sure, hibernates. This one, I'm very sure does not. And then there's this third category of animals that were unsure about we're going to remove those. And it's tedious, but you have to do that part, right? Because if you do the analysis with bad data, you're never going to find the genes that you want. And Linda, I remember you telling me when you were going through this very painful process, I think your threshold for being a perpetrator, quote unquote, was that you could drop your metabolism like 50%. Correct me if I'm wrong, and humans could go down to like 40 like in certain instances, like humans are almost there. You know, it's it's hard to know when there is only one paper about it, but certainly there are some really deep meditative states and humans and low oxygen environments where, you know, we're getting kind of close to the area where we might say that that's a hibernated, but certainly not the duration that you get out of hibernation. But it's it's it surprised me to see how close how much how much metabolic flexibility there really is when you start to look at it. Yeah.</p><p><strong>Harry Glorikian: </strong>Yeah. We've got to go talk to the monks.</p><p><strong>Linda Goodman: </strong>Absolutely. Absolutely. You know, we have that in mind. It sounds like an interesting travel experience. Yeah.</p><p><strong>Harry Glorikian: </strong>So I want to jump back for a second because. You guys don't necessarily have from what I have pieced together, the normal sort of like startup story. Right. First of all, you're an all female founding team, right? Highly unusual, right? Not something I see every day. You guys started at an accelerator program in San Francisco called Age One.</p><p><strong>Ashley Zehnder: </strong>Age One.</p><p><strong>Harry Glorikian: </strong>And then you moved to QB3 and the East Bay Innovation Center.</p><p><strong>Ashley Zehnder: </strong>Yep.</p><p><strong>Harry Glorikian: </strong>And then I think they helped you with some paid interns.</p><p><strong>Ashley Zehnder: </strong>Well, we got some from Berkeley. Yep, we did.</p><p><strong>Harry Glorikian: </strong>Yeah. And then you went through a SBIR grant.</p><p><strong>Ashley Zehnder: </strong>A couple of them.</p><p><strong>Harry Glorikian: </strong>From the Small Business Administration. And then a small business technology transfer grant from the Human Genome Research Initiative at NIH. Right.</p><p><strong>Ashley Zehnder: </strong>Yep.</p><p><strong>Harry Glorikian: </strong>I'm hopeful, hopefully my notes are all correct. Talk a little bit about the on ramp or infrastructure today for sort of seed stage startups like you. I mean, what were the most important resources?</p><p><strong>Ashley Zehnder: </strong>This is such an important conversation. I'm really glad you're asking this question. We had a call with a reporter from Business Insider yesterday who was talking to all three of us about this early founder ecosystems in biotech and sort of East Coast versus West Coast ways of starting biotechnology companies. Right. And that is a whole do a whole podcast on that, let me tell you. But I will say that there are a lot of resources for, let's call them founder led bio. Right. In the West Coast, which is kind of the buzzword these days, but people really supporting the scientists who originate the concepts and training them to be founders as opposed to assuming that you need to bring in an experienced CEO to run a company at this stage. Right. So I think we were very fortunate to meet Laura Deming at Stanford, who is one of the founding VCs. And longevity before that was a buzz word, right? She was one of the first longevity funds, literally Longevity Fund, and is really been a champion of founders, starting companies and really training founders to start companies who are deep science founders. So we started in age one. It was the first batch of age one. We're still very close to that cohort of companies doing interesting things from machine learning and image analysis through pure therapeutics development. And then Laura really helped us, her, her. We asked her later, like, why did you end up investing in us? She said, Well, the science was amazing.</p><p><strong>Ashley Zehnder: </strong>This is totally a field with so much promise. I just needed to teach you guys how to pitch. The science was there, right? So she helped me just how to pitch and how to use less science words in our pitches, which we're still working on to some extent. But then it was this balanced approach of taking in some venture money to really support the growth of the company, but balance with some of this non-dilutive funding for specific projects where it made sense and some of that was some of that in the early stage is validation, right? Having having funding through groups like NHGRI, having an early partnership with a company like Novo Nordisk, which provided also some non-dilutive funding for the company, really validated all of the science that we were doing because we were first time founders, because we're a little bit outside of the normal profile. For me, I don't feel weird being a female founder only because 80% of veterinarians are female. Like, I'm used to being in a room with all women. You go to a bio conference, it's not the same thing, right? So for us, we're just we are who we are. Right. But it's helpful, I think, to get some of that external validation and then really be able to use that to to start to build on programs and show progress.</p><p><strong>Ashley Zehnder: </strong>And then it becomes more about the data and the progress and what you can do with it. So that's a lot of how we started the company. There's I said there's a lot of support in the West Coast for this kind of thing. There's great programs like Berkeley Foreman Fund Talks, which I worked, which I was in as well, just about logistics around starting companies. There's a lot of good startup accelerators. I've got a really amazing all of us, how amazing a network of founders who we can reach out to on different. I got four or five different Slack channels of founders that I could reach out to for all kinds of advice. And usually it's always good to have a company that's one or two stages ahead of you, like talking to folks who IPO'd or something last year is is not as helpful as folks who recently raised a series B, right. And figuring out what those milestones look like and then particularly those that have taken mostly money from tech investors like we have all the lifeforce capital who led our last round is also has funded some very good therapeutics companies, Sonoma Therapeutics and Second Genome and other therapeutics companies as well. So I think it's it's helpful to see how people balance the needs of the companies at different stages in what you need.</p><p><strong>Harry Glorikian: </strong>But so do you guys think that you could have started Fauna ten years ago? I mean, did the support systems exist for starting a company like this?</p><p><strong>Ashley Zehnder: </strong>Well, no, for two reasons. We couldn't have started Fauna ten years ago. One is the data just simply wasn't in a place that the company was a tractable strategy. Everything was still too expensive and we had really shitty genomes for a few species at that point. And B, I think there really wasn't the kind of groundswell of support for deeply scientific technical founders to start their own companies and train them to be the kind of leaders they need to be to run those companies for a longer term. So I think it's a confluence of those things and being in an environment like Stanford that really encourages people to to try startups, it's not a crazy idea. Like people don't look at you like you're your heads backwards. If you start to start a company at Stanford, it's like, okay, cool. Like, when are you launching? You know.</p><p><strong>Harry Glorikian: </strong>I think it's the opposite.</p><p><strong>Ashley Zehnder: </strong>Yeah, exactly. Exactly. Like, why aren't you have a company yet? Whereas you know, a lot, many, many, many, many other places like that is seen as a very strange thing to do. So I think the environment plays a huge role. Yeah, for sure.</p><p><strong>Harry Glorikian: </strong>Yeah. I think between East Coast and West Coast too, there's.</p><p><strong>Ashley Zehnder: </strong>That's a whole, we should have a whole 'nother podcast on that.</p><p><strong>Harry Glorikian: </strong>Yeah. Yeah, exactly. Well, I live here and I was I was born and raised on the West and I remember there and I came here and I was like, Oh, this is where you are not in Kansas anymore. Like, this place is different. So, I mean, I'm hoping that the East Coast is actually embracing risk a little bit more and sort of stepping out on the edge. But it's really slow. They don't call it New England for nothing. So. But, you know, it was great having you both on the show. I this was great. I we covered a lot of ground. I'm sure people's heads are spinning, thinking about, you know, you know, different animal species and how that's going to play into this. And I mean. It really does sound like I know we have to do the hard work, but there's a lot of computational effort that has to go on here to sort of. Make sense of this and bring it all together and align it so that you can be looking at it properly and make the right decisions going forward.</p><p><strong>Ashley Zehnder: </strong>Yep. Millions of data points coming together to find drug targets for sure.</p><p><strong>Harry Glorikian: </strong>So thanks for being on the show. And you know, I wish you guys incredible luck.</p><p><strong>Ashley Zehnder: </strong>Thanks, Harry, so much. This was fun.</p><p><strong>Linda Goodman: </strong>Thanks for having us.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>Fauna Bio Awakens Medicine to the Mysteries of Hibernation</itunes:title>
      <itunes:author>Harry Glorikian, Ashley Zehnder</itunes:author>
      <itunes:duration>00:53:51</itunes:duration>
      <itunes:summary>Why is hibernation something that bears and squirrels do, but humans don’t? Even more interesting, what’s going on inside a hibernating animal, on a physiological and genetic level, that allows them to survive the winter in a near-comatose state without freezing to death and without ingesting any food or water? And what can we learn about that process that might inform human medicine? Those are the big questions being investigated right now by a four-year-old startup in California called Fauna Bio. And Harry&apos;s guests today are two of Fauna Bio’s three founding scientists: Ashley Zehnder and Linda Goodman. They explain how they got interested in hibernation as a possible model for how humans could protect themselves from disease, and how progress in comparative genomics over the last few years has made it possible to start to answer that question at the level of gene and protein interactions. The work is shedding light on a previously neglected area of animal behavior that could yield new insights for treating everything from neurodegenerative diseases to cancer.</itunes:summary>
      <itunes:subtitle>Why is hibernation something that bears and squirrels do, but humans don’t? Even more interesting, what’s going on inside a hibernating animal, on a physiological and genetic level, that allows them to survive the winter in a near-comatose state without freezing to death and without ingesting any food or water? And what can we learn about that process that might inform human medicine? Those are the big questions being investigated right now by a four-year-old startup in California called Fauna Bio. And Harry&apos;s guests today are two of Fauna Bio’s three founding scientists: Ashley Zehnder and Linda Goodman. They explain how they got interested in hibernation as a possible model for how humans could protect themselves from disease, and how progress in comparative genomics over the last few years has made it possible to start to answer that question at the level of gene and protein interactions. The work is shedding light on a previously neglected area of animal behavior that could yield new insights for treating everything from neurodegenerative diseases to cancer.</itunes:subtitle>
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      <title>Finally, a Drug Company Listens to People with Hearing Loss</title>
      <description><![CDATA[<p>In a day and age when it feels like there are drugs for everything—from restless legs to toenail fungus to stage fright—it's strange the drug industry has almost completely ignored one of our most important organs: our ears. Given that 15 percent of people in the U.S. report at least some level of hearing loss, you’d think drug makers would be doing more to figure out how they can help. Well, now there’s at least one company that is. Cambridge, Massachusetts-based Decibel Therapeutics went public in 2021 to help raise money to fund its research on ways to treat a specific form of deafness caused by a rare genetic mutation. Decibel is testing a gene therapy that would be administered only to cells in the inner ear and would provide patients with a correct, working copy of the otoferlin gene, which is inactive in about 10 percent of kids born with auditory neuropathy. Harry's guest this week is Decibel’s CEO Laurence Reid, who explains how the company’s research is going, and how Decibel hopes to make up for all those decades when the pharmaceutical business had basically zero help to offer for people with hearing loss.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>These days, it feels like there’s a medicine for almost everything.</p><p>There are drugs to calm your restless legs. There are drugs to treat fungal infections under your toenails or fingernails. There are even drugs to calm down performers who suffer from stage fright.</p><p>So it feels odd that the drug industry has almost completely ignored one of our most important organs: our ears.</p><p>15 percent of people in the U.S. report at least some level of hearing loss, so you’d think drug makers would be doing more to figure out how they can help.</p><p>Well, now there’s at least one company that <i>is</i>. </p><p>It’s a six-year-old company based in Cambridge, Massachusetts called Decibel Therapeutics.</p><p>Decibel went public in 2021 to help raise money to fund its research on ways to treat a specific form of deafness caused by a rare genetic mutation. </p><p>It turns out that in about 10 percent of children who are born with auditory neuropathy, the problem is a mutation in the gene for a protein called otoferlin.</p><p>It’s involved in the formation of tiny bubbles or vesicles that carry neurotransmitters across the synapses between the inner hair cells that pick up sound and auditory neurons in the brain.</p><p>Decibel is testing a gene therapy that would be administered only to cells in the inner ear and would provide patients with a correct, working copy of the otoferlin gene.</p><p>Otoferlin wasn’t even discovered until 1999. So the fact that there’s a drug company working to correct mutations in the gene for the protein is a great example of how genomics is enabling big advances in medicine.</p><p>My guest today is Decibel’s CEO Laurence Reid.</p><p>And in our conversation he explained how the company’s work is coming along, and how Decibel hopes to make up for all those decades when the pharmaceutical business had basically zero help to offer for people with hearing loss.</p><p><strong>Harry Glorikian: </strong>Laurence, welcome to the show. It's great to have you here.</p><p><strong>Laurence Reid: </strong>Yeah. Hey, good morning, Harry. Great to see you again. Thank you. Thanks very much for the opportunity to join you. I'm looking forward to it.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, we've known each other for, my God. I remember. Like, I want to go back in time to Warp or one of those companies way back when you were there.</p><p><strong>Laurence Reid: </strong>Like ten or 15 years ago, I think I think we're both compressing our compressing our memories. I think it was a while before that. But, you know, you've been a student of personalized medicine, of course, a leader. Those ideas and I know a lot of those ideas for me started at least personally when I was at Millennium. And I think we were pretty you know, there was a lot of fantastic thinking that some of what was ahead of where we really were technologically. But I think that's when you and I first met. So, no, it's great to reconnect.</p><p><strong>Harry Glorikian: </strong>Yeah. And now you're CEO of a company called Decibel, which is ironic because I remember when the company literally was coming out, they called me to help them think through diagnostics.</p><p><strong>Laurence Reid: </strong>Oh, interesting. I wasn't aware of that. Yeah, the company got incubated at Third Rock and got launched in 2016. So we're about six years old now. And, you know, we believe that the time is is now for sort of molecular innovation coming to hearing loss. And I'd love to talk more about that. But the diagnosis remains, there's an interesting, there's almost a dichotomy because at least in the in the Western world, we put our babies religiously through a hearing test within 24, 48, 96 hours of being born. And then and then beyond that, like we sort of like almost, we don't quite ignore it, that would be unfair, but the caliber of follow up care, never mind when you're our kind of ages, is really poor. So we're like we're really good out of the gate. And then after that and part of that is diagnosis. I mean, we think a lot about it, which, you know, you would love, is trying to think about improved molecular diagnostics, particularly with respect to the genetic components of hearing loss. So love to talk more about that.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, you were talking to Kevin Davies on on another show. I mean, I think you mentioned you said something like "Hearing is a backwater of the pharmaceutical industry." And most of the focus is is what I would call a device, not necessarily a drug. So, you know, if we let's I mean, starting there, where do you see or how do you see that changing? And, you know, how have genomic tools and and these things made a difference in the direction that we're going. And I think that's what Decibel was sort of formed around, if I remember correctly.</p><p><strong>Laurence Reid: </strong>Yeah, no, you're exactly right. But those are, those are the central questions. So where we are today is there are, so, so, both. And we think about both hearing loss and balance disorders, because they're both mediated by evolutionarily related organs that sit inside inside the inner ear. And, you know, the hearing loss afflicts literally hundreds of millions of people around the globe at all ages. It can come on, you can whether it's congenital or it's sort of later in life or noise induced. So it's a massive unmet need. And, you know, and there are no approved therapies. So it's it's a field of medicine today that is that is completely served, to the degree it is served, by assistive devices, namely hearing aids and then cochlear implants. And there are no approved therapies. And I think the pharmaceutical industry has been really, is just not invested in the field at all. Astellas works with our friends at Frequency and has been committed and a couple of other big companies have sort of dabbled and then and then exited. Translation has been has been a challenge. We should talk about that preclinical work not really replicating once you get to you know, human beings. And so it's been a quite a difficult field for for many years. And and so the pharmaceutical industry has really not dived in and, you know, in Third Rock was really incubating decibel which is how they how they start companies. It was one of their ones that was was a slow burn.</p><p><strong>Laurence Reid: </strong>And they had they looked at assets out of one or two pharmaceutical companies and were really trying to get their heads around, is the time really now. And they they pulled the trigger in 2016 and went into it with a belief that that molecular innovation was coming and is coming and that that would that would give rise to therapies. So here we are six years later. And the playing field, as I like to say, is really, you know, dominated by small companies. We like to think about Decibel as a leader there, but there are other companies doing fine science, but they're small companies. And but that's going to change. It has to change. And it's going to be exciting from many aspects. When it changes, it affects how you build a company, when pharmaceutical companies are sort of watching, but they're not committed and they're not they're certainly not investing yet. But I think that's going to change. And I think we're going to see it change, I don't know, in the next couple of years. And I think 5 to 10 years from now, all the major pharmaceutical companies would have to be playing in this because, you know, there's the aging component, there's the cognitive health later in life. You could talk more about the specifics of why hearing is so important to our existence as human beings. And that's really not just a quality of life issue. And that's going to change. To have that happen.</p><p><strong>Harry Glorikian: </strong>That's why I was going to I was going to say I mean, I think if I remember correctly and it was fascinating to me when I went into Decibel, like, you know, when it was first getting started and how it was having conversations, it was like the number of people that are losing, you know, certain parts of their hearing earlier in life because of all the headphones and how loud they listen to things and so forth, was staggering. And then the economic impact of that was even more staggering. And so you would think that it's not just the pharma industry that would be interested, but anybody that—-like I've got my AirPods in now. So I mean, Apple should be interested.</p><p><strong>Laurence Reid: </strong>Those guys, those guys are working around the field. Bose, of course, a fine Massachusetts company with some of the best sound equipment. They've been investing in the hearing aid technology field for in recent years and have just launched a new generation of technology under that umbrella and come out with some pretty sophisticated marketing, trying to really get people to think about the quality of their hearing and why it's important. And so, as you say, so new people coming at it despite perhaps their contributions to it. And so, you know, so I think I think that's really very, very interesting. And but it is now devices, as you say. It's devices. So today, you know, a lot of it is treated nominally with hearing aids and then for very severe forms, particularly in in in young kids, but in adults as well. There's a technology which has been around for about 20 years now, known as a cochlear implant, where you have a surgical implantation of a very sophisticated device into your cochlea. And essentially it essentially hard wires, really a microphone directly to the onto the auditory nerve.</p><p><strong>Laurence Reid: </strong>And so there's a device inside your head and then there's a detection device that is visible outside. But both of these we view as assistive devices. And I mean, with some of the things that we're thinking about for molecular therapies, you know, we really think we can be disease modifying. And the devices are, they're an attempt to sort of palliate, effectively, the manifestations of hearing loss. They don't work 24/7 because they can't and kids in particular hate wearing them. But, you know, our parents hate wearing them as well, particularly the hearing aids. And so the compliance is very poor. But I think more importantly, they can only be so effective, and particularly if you're very severely deaf, the difference between that status and, you know, what the kid next to you in the classroom is hearing and picking up and how that's affecting their development is really massive and to me is one of the big drivers certainly why I got excited about the field personally.</p><p><strong>Harry Glorikian: </strong>Oh yeah. I mean, you know, if you're in a crowded restaurant and you can't hear the person across from you, there's all of a sudden it changes the entire dynamics of what's going on. I mean, that you know, that said, I think if my wife could implant a microphone that was directly wired into my brain, she would probably take advantage of that to make sure I hear everything.</p><p><strong>Laurence Reid: </strong>And hard wired up straight into her larynx. And then then everything would be would be beautifully aligned. Yeah, I know. It's really interesting. So my beloved mother is 84 and you have a one on one conversation with her and it's fine. You know, it's absolutely it's completely normal, like you and I chatting or talking to a 20 year old. But you put her in a crowded restaurant and it's very hard for her to participate at all. And so it's a really interesting. So on one level that's trivial, right? It's a night out in a restaurant. But it's indicative of the challenge. So I always think most easily comes to me with thinking about congenital deafness and then deafness or loss of hearing in in older people. But that restaurant is sort of an analog for in the case of the older people losing, you know, we talk a lot about connection, losing connection with their loved ones or their coworkers or their family. And, you know, hearing loss is the number one risk factor in cognitive decline later in life. And nobody is suggesting it's necessarily causative. But that loss of connectivity clearly in some way is contributing to, you know, to a cognitive decline. And I think that's really the way to think about it. For me, I think about hearing loss as why, why does it matter? And it's not because I think it's, if you haven't dealt with it, you probably think about it in terms of a social discourse. But actually why it really matters is the impact on, I use the phrase cognitive health, which is probably not a phrase of professional would use. It's really how is your overall ability to interact with people, to process information and and to share it? And if you're disconnected, it's clearly contributing to that lack of of of interaction and ability to, you know, to have discourse with our with our with our families. And so you see that. Pivoting to loss of interactions later in life. And then for a kid.</p><p><strong>Harry Glorikian: </strong>And how it affects the economy. I mean, if you're not going out to dinner or you're not or you don't hear everything at work or things like that, I think the impact is is dramatic. But you know how many I know you guys are working on different therapeutic approaches to solve this problem. So, you know. How many different forms of deafness right now, or maybe balance disorders, are monogenic or or caused by mutations of a single gene that, say, we can get in there and do something about it, because I think that's where you guys are starting.</p><p><strong>Laurence Reid: </strong>That's where we're starting. And that's exactly the right way to think about it. So let me let me step back and then I'll answer your specific question. So the strategy that we've taken and other people have different views of this is really that the most robust understanding in 2022 of the molecular etiology of any form of hearing loss is, is that it's driven by overtly by monogenic conditions. So two mutated genes inherited from mom and dad that good old recessive genetics and that therefore we're able to understand precisely what's causing it and we're able to understand the impact of that of a child born with bi-allelic mutations in the otoferlin gene for example. And and the promise of gene therapy is the ultimate to put back a a functioning copy of the gene very early in life and put a child back to a physiological state of of hearing that mimics the kid down the street. And that's and that's the ambition. And what we think will that will enable is both these modifying treatments, maybe even cures for for those sections of the population. But it'll teach us about how to do gene therapy safely in the ear. We think the ear is a wonderful organ in which to do gene therapy. We should probably talk about that in a moment.</p><p><strong>Harry Glorikian: </strong>Yeah, absolutely.</p><p><strong>Laurence Reid: </strong>But that over time, the Holy Grail. So as you get into the bigger populations, it's a classic, you know, genetics and environment, viruses, noise, lots of chemicals or lots of things  that damage areas over the course of life. And we just naturally lose the sensory hair cells in areas over the course of life. Everybody approximately linearly is losing that, that sensitive and that sensitivity. So eventually you hit a threshold and we all suffer from some form of hearing loss or balance, you know, lack of equilibrium as we get to be a little bit older and. For for many different causes. So the Holy Grail is can we really have regenerative medicines that regenerate the sensory the sensory hair cells, as they're called, in the inner ear, potentially as a treatment for hearing loss or balance disorders. And so the way we think about this is our strategy is really to to start with the monogenic forms of hearing loss have a chance for very clear diagnosis, driving, very precise clinical trials, driving potentially therapies that are directly addressing mechanism and with very high potential molecular upside. And to build from there into a pipeline of gene therapies that will start to go into broader populations, populations of much older people, and that will be gene therapies that are regenerative medicine. So that's our sort of long term vision of how this will how this will evolve. But it's starting with the monogenic conditions which which are which are rare diseases, orphan diseases by all definitions. And I think for the reasons that rare diseases have been such an intellectual driver of our industry in the past 20 to 30 years, is because you can link mechanism and etiology and a potential molecular cure in a very linear fashion. But it teaches you so much about how to manipulate an organ and how to develop therapies that eventually will treat broader populations.</p><p><strong>Harry Glorikian: </strong>Yeah. Laurence, you need to move faster, because I think I went to one too many rock concerts when I was younger. And, you know, I could tell you that.</p><p><strong>Laurence Reid: </strong>I had friends, when I was in high school who were who were into certain, you know, I hated heavy metal when I was a kid, but I had friends and they would come back and they'd been to a concert and they'd they'd stuck their head inside the speaker and they they couldn't hear for like a day or two. And I, I think back to those I worry about where those guys are now because they're hearing I'm sure they're otherwise.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, when you're when you're when your ear is ringing like a day afterwards, you probably recognized that was probably, it was a lot of fun at the time. But you pay for it later. But but stepping back, though, even if we were able to match every form of deafness to a specific genetic cause. Right. Very few infants or children get the kind of tests that would be needed. Like how widely available are these genetic tests for the hearing neuropathies today or.</p><p><strong>Laurence Reid: </strong>Oh, it's. I'm sorry. Go ahead.</p><p><strong>Harry Glorikian: </strong>No, no, no, go ahead. Because that would be my first question.</p><p><strong>Laurence Reid: </strong>It's the minority. And so by definition and I appreciate you've worked and thought a lot about this over the last years. You know, good diagnosis is is gating to everything that can follow. And so part of our broader I mean, at some level actually even step back from molecular diagnosis, which I know is where you'd want to go, that just overall how we manage hearing how is is almost rudimentary compared to how we think about about our eyes for example. And just I had my annual physical a couple of days ago and and a new physician and and the doctor was like, oh, you know, you go and get your eyes tested on, on an annual basis and which I do. And we talked about all the the good things that are cutting edge, you know, ophthalmologists does these days to look at your optic health. And then I was like, you know, the real question you should be asking me is, when did I get my hearing tested? And but when did you last get. We just we just it just doesn't it's just not part of adult health care in a routine way unless you get really I mean, my wife and I joke about it occasionally. I'm like, oh, well, let's go together and get our hearing tested.</p><p><strong>Laurence Reid: </strong>Not that, not that it's at all funny, it's not. It's a serious issue, but it's just not part of routine health care for helping adults think about about how how they manage their health. So. So we sort of we start with a, a broader set of educational issues. And then and then we dive down pretty quickly into how do we educate people about about the need and potential power of molecular diagnostics for children who, when we begin to figure out that they're hearing is developing, you know, in the early either days or early years of their life and as as in in the developed world, most children have a basic hearing test, you know, within hours of being born, literally, often while they're still in the hospital. And it's like, you know, in many, many places they catch them while mom is still, you know, literally in the hospital and and they do a basic hearing test so we can catch a lot of it like that. If it if you start if the hearing degenerates after that, it is still very challenging for that to get properly understood and picked up and diagnosed and managed even in, you know, developed cities and, you know, in the United States.</p><p><strong>Laurence Reid: </strong>And the the ability to to reflex to molecular testing is is very variable. If you talk to our our audiology team, it starts to be very dependent on which city do you live in and what's the ability? I mean, we're sort of privileged in Boston, Mass Eye and Ear is obviously one of the world's leading hospitals. But but how do you get from a an early "Yeah there's an issue here" to any form of molecular. What that path looks like of your pediatrician driving you to real audiological analysis, driving you to a molecular diagnosis. It's a pretty fraught path. You think about it in in in cities like Boston. Fair enough. And aren't we privileged to live here? We're lucky to live here from that perspective, but it's very heterogeneous. And so part of our work is really we have a collaboration with our friends at Invitae, part of which is trying to just it's almost educational. It's offering a free genetic testing service for important genes related to your hearing health. But part of the purpose is, is educational, really.</p><p><strong>Harry Glorikian: </strong>Yeah. Yeah, I was going to I was going to ask about that. I mean, in making it available, I mean, this is somewhat of a crusade, right, to educate people and get them on board, right. Because if you just don't know what's available, you may not think about it for your child. And if a parent knows they can help their child, I think most parents would go out of their way to do something positive. But just for everybody who's on the phone, you know, can you walk us through an example of, let's say, a single gene mutation can cause deafness? I mean, maybe you can concentrate on the example of, I think it's otoferlin, if I'm saying correctly, which you know, basically, if I've understood it correctly, it's the formation of the synaptic vesicles that carry neurotransmitters across the synapse, which is very, very tiny. And if the hair pulls away just enough, you start losing that ability to hear at that level because the chemical can't jump across to make that connection, which is, I think what's happening to me as I get older.</p><p><strong>Laurence Reid: </strong>Yeah. Very good. Yeah. And I'd love to talk about otoferlin. So otoferlin is our first program where we and other people are thinking about this as well. Our friends are also are working hard on this problem as well. But it's the vanguard program for Decibel and the field in terms of gene therapy for modern forms of hearing loss. And so obviously, we we know the gene that causes this particular subset of severe hearing loss. The children are born profoundly deaf. They really have almost no no signaling capability whatsoever. Despite that, when you study their ears and when you look at animal animal genetic models of the condition, the ear, functionally, structurally appears to be normally constituted. So what you see start with a belief that we may be able to instate normal hearing in these people by in these children, by, by by providing a a wild type, a normal copy of the gene. And there are other forms of of genetic hearing loss where by the time the kids are born, the children are born, their ear has not developed properly, structurally and functionally. And I think that's a much harder problem and may be impossible to to solve postnatally. So so as we think about areas where we think we can have an impact with the first generations, we're looking for clear genetics. We're looking for an ear that appears to develop normally and in which we therefore have the chance to instate normal hearing. Otoferlin is a calcium sensor and it functions at the interface between the hair cells in the cochlea, the inner hair cells, as they're called, which are the cells that transduce... Sound is effectively a mechanical signal. It comes to us as a sound wave, and it disturbs structures and eventually molecular structures inside your inner ear and creates a molecular signal that is transmitted by the hair cell through the synapse. As you say, to the auditory nodes, there's a direct interface between these cells that are that are detecting the sound wave into the into the auditory nerve. And if you lack otoferlin your calcium sensing functionality and that synapse is not present and and there's essentially no signal. So we measure this with something called an auditory brainstem response, which is a test you could run in a human or an animal. And there essentially it's a flat line, which from a from a restoration of a normal signal, it's a really excellent clinical endpoint because we're going to, we hope, instate, a signal, a quantitative signal with quantitative richness as well, that we're going to be able to measure relatively early after we administer our therapy. But the children have this is what we call an auditory neuropathy. They have no ability to signal from the cell into the brain. And as I say, the structures appeared to be intact. And what we know is that in an animal, if you create an animal model of this genetic animal model, that we can go into that now with DB-OTO, as we call it, which is which is a adeno associated virus vector to to basically deliver a normal form of the gene. And we can do that within weeks of this mouse being born. But interestingly, we could also go to those animals as long as a year after they're born, which which for a small furry animal is is about half of their life.</p><p><strong>Laurence Reid: </strong>So it's a big piece of their life. And and we can go in we can intervene at that at that one year point and still rescue the phenotype. So the is structurally intact. And when we provide the signaling molecule, we fairly quickly instate a normal signal. So that's that's exciting. Right. And A), it's a fantastic signal to measure in an animal. B) it gives us a lot of optimism that if we can get the gene to the right cells and get it turned on, then decent chance to to to solve to solve the signalling problem. So that's sort of our reason to believe. And actually maybe the last component, and then I'll breathe, is we think the ear is, is a fantastic place for gene therapy broadly because your inner ear is this tiny enclosed compartment. So we need a surgical route to get there, but we can then go directly to the site where one is trying to elicit a molecular effect and deposit a tiny amount of drug compared to what's required -- three or four orders of magnitude less drug than is required for systemic gene therapy -- directly at the site where we're looking to elicit the biological effect. And then almost none of it leaks out into the into the systemic circulation. So the ear, we think, is a fantastic order or organ for gene therapy, and we think we know some great genes to go after us, our first generation.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, whenever if if people have followed any type of gene therapy, like the eye has been in optimal place to sort of start with. And so, you know, I think you guys are learning from what has been done in ophthalmology to sort of transition this to the ear, which, you know, I always say to people like we always start on the outside because it's a lot easier and then we then we figure out how to go deeper in because it's a lot harder. But, you know, what kind of results are you seeing so far when you transfer genes into, maybe nonhuman primates.</p><p><strong>Laurence Reid: </strong>Yeah. Yeah. No. So we've just in the last year or two, transitioned from rodent studies to non-human primates. You are correct that the characteristics of the ear that make us so excited about the possibility here, a lot of them are very much learning from why the eye has been really such a primary site of our efforts in gene therapy in the last ten years or so. And so as we move from small animals to larger animals to human beings, we start with, as I mentioned, genetic rodent models that we can knock genes out in the mouse that replicate the human genetics. The ear, it turns out, is it is evolutionarily highly conserved. So the the ear of a rodent is a lot smaller than than your ear in my ear. But structurally and molecularly and cellularly it's very analogous. And we can come back to your point about genomics and how it's opened up our understanding of these cells. But nonetheless, the basic structure and physiology is highly conserved from from lower mammals to to higher mammals. So so we start with genetic models that we can manipulate the genome and create what we believe is a pretty interesting analog rodent analog of the human condition. We don't have genetic models in non-human primates, so we end up doing studies in non-human primates where we we we mimic exactly the surgical procedure by which we will access the inner ear, and then we end up either using a surrogate marker, GFP, or we end up detecting the human otoferln, in the non-human primate, which is quite hard.</p><p><strong>Laurence Reid: </strong>But we've sort of figured out how to do that now. And really what you're looking at is, is, is really is efficiency of the delivery and expression process. And then when you can't measure a fixing of the genetic burden and so at Decibel, we spend a lot of time using our genomics platform to really be able to define molecular control of our gene therapy. So we're really trying to express the transgene selectively in the cell types where nature intended it to function. So, you know, calcium sensor in the wrong in the wrong cell type one might fear, and we have data that suggests, that that may be a problem. So Decibel is really invested very significantly in sophisticated molecular control of our gene therapies. And so when we do the experimentation in the non-human primate we're looking at, are we getting good delivery throughout the cochlea? Are we getting good infectivity throughout the cochlea and then expression of basically a surrogate marker? Because we we can't change the physiology of a of a normal non-human primate. So it's really all about about surgery, delivery expression. And then obviously you then got a stable transgene expression, it turns out, rises over the over the weeks and months after after after the transduction. And so we're measuring that. And that's going to play ultimately into clinical trial design, both in terms of safety and an end points that will measure in human being. </p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p> </p><p><strong>Harry Glorikian: </strong>I would assume that some level of spatial genomics, the new technologies that are out there, must be hugely helpful to see the different cell types, where they are and what type they are. And you know is actually lighting up and changing versus what you don't want to light up and change. So yeah. So I had a great interview with Resolve on their system, which I think is going to be the next frontier, because what you're saying is, what cell type, where it is, and did I make the change in the exact one that I wanted?</p><p><strong>Laurence Reid: </strong>That's exactly right. So my my colleagues, long before I was here, invested in building a platform that we think is still, we have a database of over 3 million molecular profiles of the cells of the inner ear, which we think is a unique asset. And basically applying the tools of single cell genomics, which is the ability at the level of individual cells in the organ of an individual animal to analyze comprehensive gene expression. And so what we've been able to do, and I think this is part of just changing our attitude to how do we understand the cells of the inner ear and therefore how can we think about manipulating them pharmacologically to open up the field? And so we have a complete molecular characterization of, there are about 30 or so important cells in the inner ear and there's two or three subsets of those cells, starting with the cells that I talked about that are probably the critical therapeutic targets. And so we have a detailed molecular understanding of the composition of the level of gene expression of each of these different cell types. And we look at them a lot as they as they as they differentiate and form in a natural process, because we think that holds the answer ultimately to regenerating them as part of this next part of our strategy. But it's also taught us about how individual cells control gene expression. And I mean, otoferlin is expressed essentially in an adult animal only in the so-called inner hair cells. And that's what we then aim to replicate with our gene therapy. And so we've been able to take our genomics platform to define genetic regulatory elements that drive our trans genes in our gene therapies to express selectively in the most important cell type where you need it and not elsewhere. We know from our animal studies that that has a beneficial impact on on on the therapy and that the durability of the therapy. So that's our overall molecular goal, but it leverages this platform of single cell genomics.</p><p><strong>Harry Glorikian: </strong>So I've seen company presentations. Like you guys are, you know, you intend to initiate a phase one, clinical trial of of DB-OTO. I mean, how is that going? I mean, what are the big technical or medical barriers, where you're thinking about testing gene therapy? Like, I mean, you know, where are you guys in all that?</p><p><strong>Laurence Reid: </strong>Yeah. So so we what we've and I'm going to be precise as a public company, I need to be careful with my disclosures. So apologies in advance. But what we said is that we'll initiate will file an IND or a CTA in Europe this year and and move into our first in human study this year. And so we're in the you know, we're deep in all the almost classical, you know, pre-IND work of making material and, you know, and testing it in, in the final, you know, GMP tox studies and making material of a caliber that'll that'll go into human beings, which is very exciting. And that's, you know, that's that's what we're working on. Those are the two sort of basic barriers. I mean, we have published and talk publicly about a lot of our animal data, what I sort of recited a few minutes ago, small animals to large animals. I think we understand the basic pharmacology and now it's okay, scale up, make the material for human being, you know, GMP material for human beings, test the material, you know, in more prolonged formal toxicology studies, you know, and move it into human beings so that that work is ongoing. The other part that's really fascinating that you would appreciate is, you know, in a rare disease like this, a lot of very interesting discussions about about what's the exact patient cadre in which one starts a clinical trial.</p><p><strong>Laurence Reid: </strong>And we spend a lot of time building relationships with with clinicians, particularly in Europe, but also in the US, who really invested in understanding the genetic basis of of children in their region with genetic forms of auditory neuropathy. And we have a fantastic collaboration with our colleagues in Madrid at the Roman y Cajal, who have a database that is essentially all of the all of the known diagnoses of otoferlin deficiency in Spain. And so they've done so we have been able to help them do a lot of natural history work. What is what is the progression of the condition and how do we find these kids? And so we ultimately not necessarily immediately, but the ultimate goal is to treat children very early in life. These kids are now once they're diagnosed, they would get a cochlear implant really probably around the end of their first year of life. It used to be more like two, but that age has come down from a medical perspective. Being born profoundly deaf is the phrase is is a neurodevelopmental emergency. And I talked a lot about about old people. But for a kid, the the or a baby, the issue is that hearing lack of hearing impacts that their initial social interactions that their generation of language skills and their ability there and that and that feeds into their cognitive development.</p><p><strong>Laurence Reid: </strong>So there's a there's a whole set of emotional interactions that are happening very early in life. And of course, with so much cognitive development going on and the hearing is, is the absolute gate to a lot of that happening. And so it's widely, widely agreed that this phrase, a neurodevelopmental emergency, is what physicians use. So so ultimately, we need to be treating these kids in the first year or two of their life. And you know, how soon we'll get there remains to be seen. And it is an ongoing discussion. But that's that's where that's where ideally we would end up. While at the same time, as I said, we know we can intervene in animals later in their lives. So we're optimistic that we're going to be able to take adolescents and and children beyond the first year or two of life and still be able to have a positive impact on them. Well, that's the vision for sort of the broader applicability, not just in a newborn baby.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, I mean, a child's, you know, the neuroplasticity or how easily that their brain or their system adapts and changes. I could see, you know, the drug having a much more profound effect in that population. I mean, in older people, I like to believe that we still have neuroplasticity, because I'm constantly evolving and changing. But, you know, I also sometimes think we're sort of stuck and maybe maybe don't have. But, you know, the human body is an amazing machine. But, you know, it brings me like one of the biggest themes on this show is like data, data, data and how that intersects biology. And, you know, what you're talking about is identifying the right sets of data, the right patients to have this work done on so that you can achieve a level of success. We all know that if you pick the wrong patients. Like you're utterly almost doomed for failure, or you're going to have an effect that you really didn't want to have. So how much of of Decibel's work or approach is is rooted in "Here's the data, here's the patient." How much are you guys using that to drive every decision that you're making?</p><p><strong>Laurence Reid: </strong>It's a it's a really great question, actually. And the answer is a lot. In fact, as I think about Decibel and where I think the team that my predecessor built, Steve Holtzman, who of course, you know, is really, really exceptional, is is effectively translation in its broadest sense. Right. I think what differentiates Decibel is an outstanding understanding of the biology of the inner ear and that we've invested in in turning that into a genomic molecular understanding of every cell type. But it's then, okay, who's my patient? What, their molecular profile. And how do I link that back, feed that back into my discovery process? What are my animal models look like and how am I looking forward, you know, into ultimately into a clinical trial? And with people suffering from from congenital hearing loss age, which we try and intervene, becomes a big variable, as you're suggesting. And so, you know, if you're in the pharmaceutical R&D, it's like, okay, that's translational medicine he's talking about. And and it is I just think we do it really well. And it's really the essence of the scientific core of Decibel is linking our molecular work in the cells of the inner ear to a fantastic understanding of the patients, their individual phenotypes and how we look to bridge that gap between preclinical research and the clinic. And the the the truth is, I mean, there are no approved therapies and there hasn't been a lot of work, as I said, up front.</p><p><strong>Laurence Reid: </strong>But but it's not like we're we're complete, we're not we're not going to be the first people either to do a gene therapy in the ear, nor to try and develop a therapy. But the translation has been really poor. And I think that our ability to understand the mechanistic pharmacology, preclinical and clinically and then be confident that that was going to work in a human being has been really poor. And obviously genetics from a simplistic perspective is a fantastic way to bridge that gap. Right. We know which gene we're trying to fix. And therefore, is the ear able to be fixed in a child of one two years old? And can we get the gene there safely and effectively and turn it on in the right place? Right. But those are problems that you can break down and solve and you can analyze them in smaller animals and larger animals. Whereas I think historically, the preclinical data, how do you validate it in a human being or do we really know those mechanisms are going to work in a human being? Well, the outcomes have shown us that we didn't have all the understandings of that. And I think you look back on it and the ability to translate has been has been weak. And that's why the genetics is is so appealing as a formative place to to start and try and build a pipeline of therapeutics, at least in our opinion.</p><p><strong>Harry Glorikian: </strong>Yeah. It's funny because we're always coming back to this genetic part of it. And I remember like somebody saying to me way back, No, it wasn't that long ago, relatively speaking, but why would you want to sequence anything? Right? And now it's like it's the cornerstone of everything we're doing. Yeah, but. But you guys have another drug, right?</p><p><strong>Laurence Reid: </strong>We do.</p><p><strong>Harry Glorikian: </strong>That prevents ototoxicity, right. Damage to the inner ear.</p><p><strong>Laurence Reid: </strong>Yep.</p><p><strong>Harry Glorikian: </strong>And it's that's one of the most common side effects of chemotherapeutic drugs like cisplatin. I mean, for those people that are listening, right, these little hairs, it's the same thing as like maybe the hair on your head.</p><p><strong>Laurence Reid: </strong>Please don't go there. It confuses people.</p><p><strong>Harry Glorikian: </strong>But essentially, you've got a drug that you're working on this in this space.</p><p><strong>Laurence Reid: </strong>Yes, we do. So firstly, how are you just upset because of our relative quantity of hair here. The hair cells in your hair are very different than the hair cells on top of your head or other parts of your body. Their role is to transducer signals on the inside of your cochlea into the brain. So but the cisplatin based chemotherapy is still very, very commonly used around around the world and is quite efficacious in certain types of tumors. It's widely used, for example, in testicular cancer, just one example. And it comes but it comes with a couple of of fairly severe toxicities, one of which is it kills the hair cells in your ear. And it also damages their interactions with the nervous system. And earlier in Decibel's life when we were sort of using our biological thinking before we. That's what I would say when we started as a biology company and we explored different molecular molecular modalities as the right way to treat it. And now we are significantly focused on gene therapy. As we've been talking about, this program was home grown and we're pretty excited about it despite our core investment in gene therapy now. And what we have is a proprietary formulation of a molecule of sodium sulfate, which is a natural metabolite, and it chemically inactivates cisplatin. And so we actually administer this by an injection into the middle ear and then the active ingredient leaches into the inner ear. And we administer that about 3 hours or so in advance of the Cisplatin IV, so that by the time the cisplatin gets to the ear, the inner ear is already bathed in sodium sulfate. And so and then you have a chemical reaction in situ inactivates the cisplatin.</p><p><strong>Laurence Reid: </strong>And you know, it's interesting because some people don't find that very sort of biotech sexy, but it's actually an incredibly elegant way to to to stop the side effects of a molecule that has multiple, multiple molecular forms of damage that are probably being imposed on different cell types. So solving that biologically or biochemically is a very hard, diverse problem, whereas solving it chemically in situ we think is is very powerful. The principle to give some credit was validated by a company called Fennec, but they have an IV administration and they are constantly fighting between achieving good things in. As you might imagine, preventing against that toxicity without inhibiting the efficacy of the drug. And it's correct. And that's that is a very and they hopefully eventually will get approval for a fairly narrow pediatric population because it's been very hard to sort of thread the needle of can I protect without inhibiting the efficacy? Now if you go directly to the organ where the damage is being done, local administration of a proprietary formulation, so it sits in the ear, it's there in advance. Essentially, none of it leaches out into the circulation. So we have, we believe, negligible risk of inhibiting in any way the cancer benefit of the circulating cisplatin. So we're achieving a local protection and we're looking where we will be reporting some human proof of concept data. We've said in the first half of this year. So pretty excited about that, actually.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, I don't need sexy. I just need something to, like, work, right? I mean, sexy is nice, but, you know, if it's working, it's working sometimes, you know.</p><p><strong>Laurence Reid: </strong>Right. So, so not not to compare protection of hearing against protection from people who are going to die of cancer. But it's an interesting example of where hearing health or ear health gets neglected. So in the context, you know, cisplatin is used in many cases with what people refer to as an intent to cure and so people can get cured. Young men, I think the cure rate is something like 95%. So you're talking about a young man, maybe 20 years old. He's going to live for 100 years, right? Maybe more. Maybe more. And nowadays and so the the importance of protecting his hearing at that age. And there are female cancers as well. But his hearing at that age for his long term health is incredibly important. But it gets it gets, unsurprisingly, neglected because the focus is on is on the cancer, which is which is understandable. But but we think that there's a really important opportunity to, you know, to provide a better overall solution for for those people that's going to have an incredible impact later in their life as their hearing would be naturally degenerating anyway. And and I think because of the the understandable stress when you're going through chemotherapy, you know, worrying about the hearing decrement, is it's just not top of mind. And so we've got some awareness. We've got some work to do to increase awareness there and hoping that some of our animal data might replicate in human beings because we think this could be fairly effective and really hopefully get it into the minds of oncology physicians. Is the goal that you should be thinking about this. You're trying to cure this patient. You're trying to whether it's a woman with ovarian cancer in her fifties or a young man with testicular cancer, they're going to live for decades to come. And we think it's important that they're hearing health is protected and we can help you do that potentially in a very powerful, rather simple way, actually.</p><p><strong>Harry Glorikian: </strong>So. I'm going to assume and you can correct me if I'm wrong, that if this gets through sooner than the gene therapy and can generate some revenue in the short term, you can then utilize that revenue to continue to fund the gene therapy programs.</p><p><strong>Laurence Reid: </strong>We're all always looking for money to do this, right, Harry?</p><p><strong>Harry Glorikian: </strong>So, unfortunately, that's the business we're in.</p><p><strong>Laurence Reid: </strong>That's the nature of the beast. Certainly, after we have our data in hand on the proof of concept, we'll be looking for an FDA interaction to define the path to registration, which we think could be relatively efficient. We have, you know, the medicine that effectively becomes an oncology supportive care medicine. It needs to be administered probably in the chemotherapy suite right in advance of a patient receiving their chemotherapy. So it needs to be marketed to an oncologist with a lot of education in the audiology community so that they're leaning on their oncology colleagues to you need to do this and you need to think about this as you're putting your patient through through chemotherapy. Ultimately, I think that that marketing to the oncologists, I don't think that's what's going to do that in itself. We're going to eventually bring a partner partner in to do that who is a specialist in marketing to the oncology community. And we want to be involved in rethinking about making sure that the ideological education and understanding is transferred into the cancer into the cancer world. And so that's that's a commercial strategy and structure that will will put together, you know, potentially starting when the data is in hand, but certainly some time between now and approval of the drug.</p><p><strong>Harry Glorikian: </strong>Well, Laurence, you know, I can only wish you the greatest success because and working in older people would be great, because I'm sure that I'm going to need this at some point, and some of my friends may also need it. But it was great to catch up with you. Great to talk. You know, I hope, you know, it's not as many years past again before we we get a chance to connect. So great to have you on the show.</p><p><strong>Laurence Reid: </strong>Thanks, Harry. I really appreciate it. And hopefully I've been able to provide some of the color and why we're so excited and think we're opening up a new area of therapy here for people with hearing loss and balance disorders beyond that. So really appreciate the opportunity. Thanks very much and great to see you.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 29 Mar 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Laurence Reid)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>In a day and age when it feels like there are drugs for everything—from restless legs to toenail fungus to stage fright—it's strange the drug industry has almost completely ignored one of our most important organs: our ears. Given that 15 percent of people in the U.S. report at least some level of hearing loss, you’d think drug makers would be doing more to figure out how they can help. Well, now there’s at least one company that is. Cambridge, Massachusetts-based Decibel Therapeutics went public in 2021 to help raise money to fund its research on ways to treat a specific form of deafness caused by a rare genetic mutation. Decibel is testing a gene therapy that would be administered only to cells in the inner ear and would provide patients with a correct, working copy of the otoferlin gene, which is inactive in about 10 percent of kids born with auditory neuropathy. Harry's guest this week is Decibel’s CEO Laurence Reid, who explains how the company’s research is going, and how Decibel hopes to make up for all those decades when the pharmaceutical business had basically zero help to offer for people with hearing loss.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>These days, it feels like there’s a medicine for almost everything.</p><p>There are drugs to calm your restless legs. There are drugs to treat fungal infections under your toenails or fingernails. There are even drugs to calm down performers who suffer from stage fright.</p><p>So it feels odd that the drug industry has almost completely ignored one of our most important organs: our ears.</p><p>15 percent of people in the U.S. report at least some level of hearing loss, so you’d think drug makers would be doing more to figure out how they can help.</p><p>Well, now there’s at least one company that <i>is</i>. </p><p>It’s a six-year-old company based in Cambridge, Massachusetts called Decibel Therapeutics.</p><p>Decibel went public in 2021 to help raise money to fund its research on ways to treat a specific form of deafness caused by a rare genetic mutation. </p><p>It turns out that in about 10 percent of children who are born with auditory neuropathy, the problem is a mutation in the gene for a protein called otoferlin.</p><p>It’s involved in the formation of tiny bubbles or vesicles that carry neurotransmitters across the synapses between the inner hair cells that pick up sound and auditory neurons in the brain.</p><p>Decibel is testing a gene therapy that would be administered only to cells in the inner ear and would provide patients with a correct, working copy of the otoferlin gene.</p><p>Otoferlin wasn’t even discovered until 1999. So the fact that there’s a drug company working to correct mutations in the gene for the protein is a great example of how genomics is enabling big advances in medicine.</p><p>My guest today is Decibel’s CEO Laurence Reid.</p><p>And in our conversation he explained how the company’s work is coming along, and how Decibel hopes to make up for all those decades when the pharmaceutical business had basically zero help to offer for people with hearing loss.</p><p><strong>Harry Glorikian: </strong>Laurence, welcome to the show. It's great to have you here.</p><p><strong>Laurence Reid: </strong>Yeah. Hey, good morning, Harry. Great to see you again. Thank you. Thanks very much for the opportunity to join you. I'm looking forward to it.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, we've known each other for, my God. I remember. Like, I want to go back in time to Warp or one of those companies way back when you were there.</p><p><strong>Laurence Reid: </strong>Like ten or 15 years ago, I think I think we're both compressing our compressing our memories. I think it was a while before that. But, you know, you've been a student of personalized medicine, of course, a leader. Those ideas and I know a lot of those ideas for me started at least personally when I was at Millennium. And I think we were pretty you know, there was a lot of fantastic thinking that some of what was ahead of where we really were technologically. But I think that's when you and I first met. So, no, it's great to reconnect.</p><p><strong>Harry Glorikian: </strong>Yeah. And now you're CEO of a company called Decibel, which is ironic because I remember when the company literally was coming out, they called me to help them think through diagnostics.</p><p><strong>Laurence Reid: </strong>Oh, interesting. I wasn't aware of that. Yeah, the company got incubated at Third Rock and got launched in 2016. So we're about six years old now. And, you know, we believe that the time is is now for sort of molecular innovation coming to hearing loss. And I'd love to talk more about that. But the diagnosis remains, there's an interesting, there's almost a dichotomy because at least in the in the Western world, we put our babies religiously through a hearing test within 24, 48, 96 hours of being born. And then and then beyond that, like we sort of like almost, we don't quite ignore it, that would be unfair, but the caliber of follow up care, never mind when you're our kind of ages, is really poor. So we're like we're really good out of the gate. And then after that and part of that is diagnosis. I mean, we think a lot about it, which, you know, you would love, is trying to think about improved molecular diagnostics, particularly with respect to the genetic components of hearing loss. So love to talk more about that.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, you were talking to Kevin Davies on on another show. I mean, I think you mentioned you said something like "Hearing is a backwater of the pharmaceutical industry." And most of the focus is is what I would call a device, not necessarily a drug. So, you know, if we let's I mean, starting there, where do you see or how do you see that changing? And, you know, how have genomic tools and and these things made a difference in the direction that we're going. And I think that's what Decibel was sort of formed around, if I remember correctly.</p><p><strong>Laurence Reid: </strong>Yeah, no, you're exactly right. But those are, those are the central questions. So where we are today is there are, so, so, both. And we think about both hearing loss and balance disorders, because they're both mediated by evolutionarily related organs that sit inside inside the inner ear. And, you know, the hearing loss afflicts literally hundreds of millions of people around the globe at all ages. It can come on, you can whether it's congenital or it's sort of later in life or noise induced. So it's a massive unmet need. And, you know, and there are no approved therapies. So it's it's a field of medicine today that is that is completely served, to the degree it is served, by assistive devices, namely hearing aids and then cochlear implants. And there are no approved therapies. And I think the pharmaceutical industry has been really, is just not invested in the field at all. Astellas works with our friends at Frequency and has been committed and a couple of other big companies have sort of dabbled and then and then exited. Translation has been has been a challenge. We should talk about that preclinical work not really replicating once you get to you know, human beings. And so it's been a quite a difficult field for for many years. And and so the pharmaceutical industry has really not dived in and, you know, in Third Rock was really incubating decibel which is how they how they start companies. It was one of their ones that was was a slow burn.</p><p><strong>Laurence Reid: </strong>And they had they looked at assets out of one or two pharmaceutical companies and were really trying to get their heads around, is the time really now. And they they pulled the trigger in 2016 and went into it with a belief that that molecular innovation was coming and is coming and that that would that would give rise to therapies. So here we are six years later. And the playing field, as I like to say, is really, you know, dominated by small companies. We like to think about Decibel as a leader there, but there are other companies doing fine science, but they're small companies. And but that's going to change. It has to change. And it's going to be exciting from many aspects. When it changes, it affects how you build a company, when pharmaceutical companies are sort of watching, but they're not committed and they're not they're certainly not investing yet. But I think that's going to change. And I think we're going to see it change, I don't know, in the next couple of years. And I think 5 to 10 years from now, all the major pharmaceutical companies would have to be playing in this because, you know, there's the aging component, there's the cognitive health later in life. You could talk more about the specifics of why hearing is so important to our existence as human beings. And that's really not just a quality of life issue. And that's going to change. To have that happen.</p><p><strong>Harry Glorikian: </strong>That's why I was going to I was going to say I mean, I think if I remember correctly and it was fascinating to me when I went into Decibel, like, you know, when it was first getting started and how it was having conversations, it was like the number of people that are losing, you know, certain parts of their hearing earlier in life because of all the headphones and how loud they listen to things and so forth, was staggering. And then the economic impact of that was even more staggering. And so you would think that it's not just the pharma industry that would be interested, but anybody that—-like I've got my AirPods in now. So I mean, Apple should be interested.</p><p><strong>Laurence Reid: </strong>Those guys, those guys are working around the field. Bose, of course, a fine Massachusetts company with some of the best sound equipment. They've been investing in the hearing aid technology field for in recent years and have just launched a new generation of technology under that umbrella and come out with some pretty sophisticated marketing, trying to really get people to think about the quality of their hearing and why it's important. And so, as you say, so new people coming at it despite perhaps their contributions to it. And so, you know, so I think I think that's really very, very interesting. And but it is now devices, as you say. It's devices. So today, you know, a lot of it is treated nominally with hearing aids and then for very severe forms, particularly in in in young kids, but in adults as well. There's a technology which has been around for about 20 years now, known as a cochlear implant, where you have a surgical implantation of a very sophisticated device into your cochlea. And essentially it essentially hard wires, really a microphone directly to the onto the auditory nerve.</p><p><strong>Laurence Reid: </strong>And so there's a device inside your head and then there's a detection device that is visible outside. But both of these we view as assistive devices. And I mean, with some of the things that we're thinking about for molecular therapies, you know, we really think we can be disease modifying. And the devices are, they're an attempt to sort of palliate, effectively, the manifestations of hearing loss. They don't work 24/7 because they can't and kids in particular hate wearing them. But, you know, our parents hate wearing them as well, particularly the hearing aids. And so the compliance is very poor. But I think more importantly, they can only be so effective, and particularly if you're very severely deaf, the difference between that status and, you know, what the kid next to you in the classroom is hearing and picking up and how that's affecting their development is really massive and to me is one of the big drivers certainly why I got excited about the field personally.</p><p><strong>Harry Glorikian: </strong>Oh yeah. I mean, you know, if you're in a crowded restaurant and you can't hear the person across from you, there's all of a sudden it changes the entire dynamics of what's going on. I mean, that you know, that said, I think if my wife could implant a microphone that was directly wired into my brain, she would probably take advantage of that to make sure I hear everything.</p><p><strong>Laurence Reid: </strong>And hard wired up straight into her larynx. And then then everything would be would be beautifully aligned. Yeah, I know. It's really interesting. So my beloved mother is 84 and you have a one on one conversation with her and it's fine. You know, it's absolutely it's completely normal, like you and I chatting or talking to a 20 year old. But you put her in a crowded restaurant and it's very hard for her to participate at all. And so it's a really interesting. So on one level that's trivial, right? It's a night out in a restaurant. But it's indicative of the challenge. So I always think most easily comes to me with thinking about congenital deafness and then deafness or loss of hearing in in older people. But that restaurant is sort of an analog for in the case of the older people losing, you know, we talk a lot about connection, losing connection with their loved ones or their coworkers or their family. And, you know, hearing loss is the number one risk factor in cognitive decline later in life. And nobody is suggesting it's necessarily causative. But that loss of connectivity clearly in some way is contributing to, you know, to a cognitive decline. And I think that's really the way to think about it. For me, I think about hearing loss as why, why does it matter? And it's not because I think it's, if you haven't dealt with it, you probably think about it in terms of a social discourse. But actually why it really matters is the impact on, I use the phrase cognitive health, which is probably not a phrase of professional would use. It's really how is your overall ability to interact with people, to process information and and to share it? And if you're disconnected, it's clearly contributing to that lack of of of interaction and ability to, you know, to have discourse with our with our with our families. And so you see that. Pivoting to loss of interactions later in life. And then for a kid.</p><p><strong>Harry Glorikian: </strong>And how it affects the economy. I mean, if you're not going out to dinner or you're not or you don't hear everything at work or things like that, I think the impact is is dramatic. But you know how many I know you guys are working on different therapeutic approaches to solve this problem. So, you know. How many different forms of deafness right now, or maybe balance disorders, are monogenic or or caused by mutations of a single gene that, say, we can get in there and do something about it, because I think that's where you guys are starting.</p><p><strong>Laurence Reid: </strong>That's where we're starting. And that's exactly the right way to think about it. So let me let me step back and then I'll answer your specific question. So the strategy that we've taken and other people have different views of this is really that the most robust understanding in 2022 of the molecular etiology of any form of hearing loss is, is that it's driven by overtly by monogenic conditions. So two mutated genes inherited from mom and dad that good old recessive genetics and that therefore we're able to understand precisely what's causing it and we're able to understand the impact of that of a child born with bi-allelic mutations in the otoferlin gene for example. And and the promise of gene therapy is the ultimate to put back a a functioning copy of the gene very early in life and put a child back to a physiological state of of hearing that mimics the kid down the street. And that's and that's the ambition. And what we think will that will enable is both these modifying treatments, maybe even cures for for those sections of the population. But it'll teach us about how to do gene therapy safely in the ear. We think the ear is a wonderful organ in which to do gene therapy. We should probably talk about that in a moment.</p><p><strong>Harry Glorikian: </strong>Yeah, absolutely.</p><p><strong>Laurence Reid: </strong>But that over time, the Holy Grail. So as you get into the bigger populations, it's a classic, you know, genetics and environment, viruses, noise, lots of chemicals or lots of things  that damage areas over the course of life. And we just naturally lose the sensory hair cells in areas over the course of life. Everybody approximately linearly is losing that, that sensitive and that sensitivity. So eventually you hit a threshold and we all suffer from some form of hearing loss or balance, you know, lack of equilibrium as we get to be a little bit older and. For for many different causes. So the Holy Grail is can we really have regenerative medicines that regenerate the sensory the sensory hair cells, as they're called, in the inner ear, potentially as a treatment for hearing loss or balance disorders. And so the way we think about this is our strategy is really to to start with the monogenic forms of hearing loss have a chance for very clear diagnosis, driving, very precise clinical trials, driving potentially therapies that are directly addressing mechanism and with very high potential molecular upside. And to build from there into a pipeline of gene therapies that will start to go into broader populations, populations of much older people, and that will be gene therapies that are regenerative medicine. So that's our sort of long term vision of how this will how this will evolve. But it's starting with the monogenic conditions which which are which are rare diseases, orphan diseases by all definitions. And I think for the reasons that rare diseases have been such an intellectual driver of our industry in the past 20 to 30 years, is because you can link mechanism and etiology and a potential molecular cure in a very linear fashion. But it teaches you so much about how to manipulate an organ and how to develop therapies that eventually will treat broader populations.</p><p><strong>Harry Glorikian: </strong>Yeah. Laurence, you need to move faster, because I think I went to one too many rock concerts when I was younger. And, you know, I could tell you that.</p><p><strong>Laurence Reid: </strong>I had friends, when I was in high school who were who were into certain, you know, I hated heavy metal when I was a kid, but I had friends and they would come back and they'd been to a concert and they'd they'd stuck their head inside the speaker and they they couldn't hear for like a day or two. And I, I think back to those I worry about where those guys are now because they're hearing I'm sure they're otherwise.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, when you're when you're when your ear is ringing like a day afterwards, you probably recognized that was probably, it was a lot of fun at the time. But you pay for it later. But but stepping back, though, even if we were able to match every form of deafness to a specific genetic cause. Right. Very few infants or children get the kind of tests that would be needed. Like how widely available are these genetic tests for the hearing neuropathies today or.</p><p><strong>Laurence Reid: </strong>Oh, it's. I'm sorry. Go ahead.</p><p><strong>Harry Glorikian: </strong>No, no, no, go ahead. Because that would be my first question.</p><p><strong>Laurence Reid: </strong>It's the minority. And so by definition and I appreciate you've worked and thought a lot about this over the last years. You know, good diagnosis is is gating to everything that can follow. And so part of our broader I mean, at some level actually even step back from molecular diagnosis, which I know is where you'd want to go, that just overall how we manage hearing how is is almost rudimentary compared to how we think about about our eyes for example. And just I had my annual physical a couple of days ago and and a new physician and and the doctor was like, oh, you know, you go and get your eyes tested on, on an annual basis and which I do. And we talked about all the the good things that are cutting edge, you know, ophthalmologists does these days to look at your optic health. And then I was like, you know, the real question you should be asking me is, when did I get my hearing tested? And but when did you last get. We just we just it just doesn't it's just not part of adult health care in a routine way unless you get really I mean, my wife and I joke about it occasionally. I'm like, oh, well, let's go together and get our hearing tested.</p><p><strong>Laurence Reid: </strong>Not that, not that it's at all funny, it's not. It's a serious issue, but it's just not part of routine health care for helping adults think about about how how they manage their health. So. So we sort of we start with a, a broader set of educational issues. And then and then we dive down pretty quickly into how do we educate people about about the need and potential power of molecular diagnostics for children who, when we begin to figure out that they're hearing is developing, you know, in the early either days or early years of their life and as as in in the developed world, most children have a basic hearing test, you know, within hours of being born, literally, often while they're still in the hospital. And it's like, you know, in many, many places they catch them while mom is still, you know, literally in the hospital and and they do a basic hearing test so we can catch a lot of it like that. If it if you start if the hearing degenerates after that, it is still very challenging for that to get properly understood and picked up and diagnosed and managed even in, you know, developed cities and, you know, in the United States.</p><p><strong>Laurence Reid: </strong>And the the ability to to reflex to molecular testing is is very variable. If you talk to our our audiology team, it starts to be very dependent on which city do you live in and what's the ability? I mean, we're sort of privileged in Boston, Mass Eye and Ear is obviously one of the world's leading hospitals. But but how do you get from a an early "Yeah there's an issue here" to any form of molecular. What that path looks like of your pediatrician driving you to real audiological analysis, driving you to a molecular diagnosis. It's a pretty fraught path. You think about it in in in cities like Boston. Fair enough. And aren't we privileged to live here? We're lucky to live here from that perspective, but it's very heterogeneous. And so part of our work is really we have a collaboration with our friends at Invitae, part of which is trying to just it's almost educational. It's offering a free genetic testing service for important genes related to your hearing health. But part of the purpose is, is educational, really.</p><p><strong>Harry Glorikian: </strong>Yeah. Yeah, I was going to I was going to ask about that. I mean, in making it available, I mean, this is somewhat of a crusade, right, to educate people and get them on board, right. Because if you just don't know what's available, you may not think about it for your child. And if a parent knows they can help their child, I think most parents would go out of their way to do something positive. But just for everybody who's on the phone, you know, can you walk us through an example of, let's say, a single gene mutation can cause deafness? I mean, maybe you can concentrate on the example of, I think it's otoferlin, if I'm saying correctly, which you know, basically, if I've understood it correctly, it's the formation of the synaptic vesicles that carry neurotransmitters across the synapse, which is very, very tiny. And if the hair pulls away just enough, you start losing that ability to hear at that level because the chemical can't jump across to make that connection, which is, I think what's happening to me as I get older.</p><p><strong>Laurence Reid: </strong>Yeah. Very good. Yeah. And I'd love to talk about otoferlin. So otoferlin is our first program where we and other people are thinking about this as well. Our friends are also are working hard on this problem as well. But it's the vanguard program for Decibel and the field in terms of gene therapy for modern forms of hearing loss. And so obviously, we we know the gene that causes this particular subset of severe hearing loss. The children are born profoundly deaf. They really have almost no no signaling capability whatsoever. Despite that, when you study their ears and when you look at animal animal genetic models of the condition, the ear, functionally, structurally appears to be normally constituted. So what you see start with a belief that we may be able to instate normal hearing in these people by in these children, by, by by providing a a wild type, a normal copy of the gene. And there are other forms of of genetic hearing loss where by the time the kids are born, the children are born, their ear has not developed properly, structurally and functionally. And I think that's a much harder problem and may be impossible to to solve postnatally. So so as we think about areas where we think we can have an impact with the first generations, we're looking for clear genetics. We're looking for an ear that appears to develop normally and in which we therefore have the chance to instate normal hearing. Otoferlin is a calcium sensor and it functions at the interface between the hair cells in the cochlea, the inner hair cells, as they're called, which are the cells that transduce... Sound is effectively a mechanical signal. It comes to us as a sound wave, and it disturbs structures and eventually molecular structures inside your inner ear and creates a molecular signal that is transmitted by the hair cell through the synapse. As you say, to the auditory nodes, there's a direct interface between these cells that are that are detecting the sound wave into the into the auditory nerve. And if you lack otoferlin your calcium sensing functionality and that synapse is not present and and there's essentially no signal. So we measure this with something called an auditory brainstem response, which is a test you could run in a human or an animal. And there essentially it's a flat line, which from a from a restoration of a normal signal, it's a really excellent clinical endpoint because we're going to, we hope, instate, a signal, a quantitative signal with quantitative richness as well, that we're going to be able to measure relatively early after we administer our therapy. But the children have this is what we call an auditory neuropathy. They have no ability to signal from the cell into the brain. And as I say, the structures appeared to be intact. And what we know is that in an animal, if you create an animal model of this genetic animal model, that we can go into that now with DB-OTO, as we call it, which is which is a adeno associated virus vector to to basically deliver a normal form of the gene. And we can do that within weeks of this mouse being born. But interestingly, we could also go to those animals as long as a year after they're born, which which for a small furry animal is is about half of their life.</p><p><strong>Laurence Reid: </strong>So it's a big piece of their life. And and we can go in we can intervene at that at that one year point and still rescue the phenotype. So the is structurally intact. And when we provide the signaling molecule, we fairly quickly instate a normal signal. So that's that's exciting. Right. And A), it's a fantastic signal to measure in an animal. B) it gives us a lot of optimism that if we can get the gene to the right cells and get it turned on, then decent chance to to to solve to solve the signalling problem. So that's sort of our reason to believe. And actually maybe the last component, and then I'll breathe, is we think the ear is, is a fantastic place for gene therapy broadly because your inner ear is this tiny enclosed compartment. So we need a surgical route to get there, but we can then go directly to the site where one is trying to elicit a molecular effect and deposit a tiny amount of drug compared to what's required -- three or four orders of magnitude less drug than is required for systemic gene therapy -- directly at the site where we're looking to elicit the biological effect. And then almost none of it leaks out into the into the systemic circulation. So the ear, we think, is a fantastic order or organ for gene therapy, and we think we know some great genes to go after us, our first generation.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, whenever if if people have followed any type of gene therapy, like the eye has been in optimal place to sort of start with. And so, you know, I think you guys are learning from what has been done in ophthalmology to sort of transition this to the ear, which, you know, I always say to people like we always start on the outside because it's a lot easier and then we then we figure out how to go deeper in because it's a lot harder. But, you know, what kind of results are you seeing so far when you transfer genes into, maybe nonhuman primates.</p><p><strong>Laurence Reid: </strong>Yeah. Yeah. No. So we've just in the last year or two, transitioned from rodent studies to non-human primates. You are correct that the characteristics of the ear that make us so excited about the possibility here, a lot of them are very much learning from why the eye has been really such a primary site of our efforts in gene therapy in the last ten years or so. And so as we move from small animals to larger animals to human beings, we start with, as I mentioned, genetic rodent models that we can knock genes out in the mouse that replicate the human genetics. The ear, it turns out, is it is evolutionarily highly conserved. So the the ear of a rodent is a lot smaller than than your ear in my ear. But structurally and molecularly and cellularly it's very analogous. And we can come back to your point about genomics and how it's opened up our understanding of these cells. But nonetheless, the basic structure and physiology is highly conserved from from lower mammals to to higher mammals. So so we start with genetic models that we can manipulate the genome and create what we believe is a pretty interesting analog rodent analog of the human condition. We don't have genetic models in non-human primates, so we end up doing studies in non-human primates where we we we mimic exactly the surgical procedure by which we will access the inner ear, and then we end up either using a surrogate marker, GFP, or we end up detecting the human otoferln, in the non-human primate, which is quite hard.</p><p><strong>Laurence Reid: </strong>But we've sort of figured out how to do that now. And really what you're looking at is, is, is really is efficiency of the delivery and expression process. And then when you can't measure a fixing of the genetic burden and so at Decibel, we spend a lot of time using our genomics platform to really be able to define molecular control of our gene therapy. So we're really trying to express the transgene selectively in the cell types where nature intended it to function. So, you know, calcium sensor in the wrong in the wrong cell type one might fear, and we have data that suggests, that that may be a problem. So Decibel is really invested very significantly in sophisticated molecular control of our gene therapies. And so when we do the experimentation in the non-human primate we're looking at, are we getting good delivery throughout the cochlea? Are we getting good infectivity throughout the cochlea and then expression of basically a surrogate marker? Because we we can't change the physiology of a of a normal non-human primate. So it's really all about about surgery, delivery expression. And then obviously you then got a stable transgene expression, it turns out, rises over the over the weeks and months after after after the transduction. And so we're measuring that. And that's going to play ultimately into clinical trial design, both in terms of safety and an end points that will measure in human being. </p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p> </p><p><strong>Harry Glorikian: </strong>I would assume that some level of spatial genomics, the new technologies that are out there, must be hugely helpful to see the different cell types, where they are and what type they are. And you know is actually lighting up and changing versus what you don't want to light up and change. So yeah. So I had a great interview with Resolve on their system, which I think is going to be the next frontier, because what you're saying is, what cell type, where it is, and did I make the change in the exact one that I wanted?</p><p><strong>Laurence Reid: </strong>That's exactly right. So my my colleagues, long before I was here, invested in building a platform that we think is still, we have a database of over 3 million molecular profiles of the cells of the inner ear, which we think is a unique asset. And basically applying the tools of single cell genomics, which is the ability at the level of individual cells in the organ of an individual animal to analyze comprehensive gene expression. And so what we've been able to do, and I think this is part of just changing our attitude to how do we understand the cells of the inner ear and therefore how can we think about manipulating them pharmacologically to open up the field? And so we have a complete molecular characterization of, there are about 30 or so important cells in the inner ear and there's two or three subsets of those cells, starting with the cells that I talked about that are probably the critical therapeutic targets. And so we have a detailed molecular understanding of the composition of the level of gene expression of each of these different cell types. And we look at them a lot as they as they as they differentiate and form in a natural process, because we think that holds the answer ultimately to regenerating them as part of this next part of our strategy. But it's also taught us about how individual cells control gene expression. And I mean, otoferlin is expressed essentially in an adult animal only in the so-called inner hair cells. And that's what we then aim to replicate with our gene therapy. And so we've been able to take our genomics platform to define genetic regulatory elements that drive our trans genes in our gene therapies to express selectively in the most important cell type where you need it and not elsewhere. We know from our animal studies that that has a beneficial impact on on on the therapy and that the durability of the therapy. So that's our overall molecular goal, but it leverages this platform of single cell genomics.</p><p><strong>Harry Glorikian: </strong>So I've seen company presentations. Like you guys are, you know, you intend to initiate a phase one, clinical trial of of DB-OTO. I mean, how is that going? I mean, what are the big technical or medical barriers, where you're thinking about testing gene therapy? Like, I mean, you know, where are you guys in all that?</p><p><strong>Laurence Reid: </strong>Yeah. So so we what we've and I'm going to be precise as a public company, I need to be careful with my disclosures. So apologies in advance. But what we said is that we'll initiate will file an IND or a CTA in Europe this year and and move into our first in human study this year. And so we're in the you know, we're deep in all the almost classical, you know, pre-IND work of making material and, you know, and testing it in, in the final, you know, GMP tox studies and making material of a caliber that'll that'll go into human beings, which is very exciting. And that's, you know, that's that's what we're working on. Those are the two sort of basic barriers. I mean, we have published and talk publicly about a lot of our animal data, what I sort of recited a few minutes ago, small animals to large animals. I think we understand the basic pharmacology and now it's okay, scale up, make the material for human being, you know, GMP material for human beings, test the material, you know, in more prolonged formal toxicology studies, you know, and move it into human beings so that that work is ongoing. The other part that's really fascinating that you would appreciate is, you know, in a rare disease like this, a lot of very interesting discussions about about what's the exact patient cadre in which one starts a clinical trial.</p><p><strong>Laurence Reid: </strong>And we spend a lot of time building relationships with with clinicians, particularly in Europe, but also in the US, who really invested in understanding the genetic basis of of children in their region with genetic forms of auditory neuropathy. And we have a fantastic collaboration with our colleagues in Madrid at the Roman y Cajal, who have a database that is essentially all of the all of the known diagnoses of otoferlin deficiency in Spain. And so they've done so we have been able to help them do a lot of natural history work. What is what is the progression of the condition and how do we find these kids? And so we ultimately not necessarily immediately, but the ultimate goal is to treat children very early in life. These kids are now once they're diagnosed, they would get a cochlear implant really probably around the end of their first year of life. It used to be more like two, but that age has come down from a medical perspective. Being born profoundly deaf is the phrase is is a neurodevelopmental emergency. And I talked a lot about about old people. But for a kid, the the or a baby, the issue is that hearing lack of hearing impacts that their initial social interactions that their generation of language skills and their ability there and that and that feeds into their cognitive development.</p><p><strong>Laurence Reid: </strong>So there's a there's a whole set of emotional interactions that are happening very early in life. And of course, with so much cognitive development going on and the hearing is, is the absolute gate to a lot of that happening. And so it's widely, widely agreed that this phrase, a neurodevelopmental emergency, is what physicians use. So so ultimately, we need to be treating these kids in the first year or two of their life. And you know, how soon we'll get there remains to be seen. And it is an ongoing discussion. But that's that's where that's where ideally we would end up. While at the same time, as I said, we know we can intervene in animals later in their lives. So we're optimistic that we're going to be able to take adolescents and and children beyond the first year or two of life and still be able to have a positive impact on them. Well, that's the vision for sort of the broader applicability, not just in a newborn baby.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, I mean, a child's, you know, the neuroplasticity or how easily that their brain or their system adapts and changes. I could see, you know, the drug having a much more profound effect in that population. I mean, in older people, I like to believe that we still have neuroplasticity, because I'm constantly evolving and changing. But, you know, I also sometimes think we're sort of stuck and maybe maybe don't have. But, you know, the human body is an amazing machine. But, you know, it brings me like one of the biggest themes on this show is like data, data, data and how that intersects biology. And, you know, what you're talking about is identifying the right sets of data, the right patients to have this work done on so that you can achieve a level of success. We all know that if you pick the wrong patients. Like you're utterly almost doomed for failure, or you're going to have an effect that you really didn't want to have. So how much of of Decibel's work or approach is is rooted in "Here's the data, here's the patient." How much are you guys using that to drive every decision that you're making?</p><p><strong>Laurence Reid: </strong>It's a it's a really great question, actually. And the answer is a lot. In fact, as I think about Decibel and where I think the team that my predecessor built, Steve Holtzman, who of course, you know, is really, really exceptional, is is effectively translation in its broadest sense. Right. I think what differentiates Decibel is an outstanding understanding of the biology of the inner ear and that we've invested in in turning that into a genomic molecular understanding of every cell type. But it's then, okay, who's my patient? What, their molecular profile. And how do I link that back, feed that back into my discovery process? What are my animal models look like and how am I looking forward, you know, into ultimately into a clinical trial? And with people suffering from from congenital hearing loss age, which we try and intervene, becomes a big variable, as you're suggesting. And so, you know, if you're in the pharmaceutical R&D, it's like, okay, that's translational medicine he's talking about. And and it is I just think we do it really well. And it's really the essence of the scientific core of Decibel is linking our molecular work in the cells of the inner ear to a fantastic understanding of the patients, their individual phenotypes and how we look to bridge that gap between preclinical research and the clinic. And the the the truth is, I mean, there are no approved therapies and there hasn't been a lot of work, as I said, up front.</p><p><strong>Laurence Reid: </strong>But but it's not like we're we're complete, we're not we're not going to be the first people either to do a gene therapy in the ear, nor to try and develop a therapy. But the translation has been really poor. And I think that our ability to understand the mechanistic pharmacology, preclinical and clinically and then be confident that that was going to work in a human being has been really poor. And obviously genetics from a simplistic perspective is a fantastic way to bridge that gap. Right. We know which gene we're trying to fix. And therefore, is the ear able to be fixed in a child of one two years old? And can we get the gene there safely and effectively and turn it on in the right place? Right. But those are problems that you can break down and solve and you can analyze them in smaller animals and larger animals. Whereas I think historically, the preclinical data, how do you validate it in a human being or do we really know those mechanisms are going to work in a human being? Well, the outcomes have shown us that we didn't have all the understandings of that. And I think you look back on it and the ability to translate has been has been weak. And that's why the genetics is is so appealing as a formative place to to start and try and build a pipeline of therapeutics, at least in our opinion.</p><p><strong>Harry Glorikian: </strong>Yeah. It's funny because we're always coming back to this genetic part of it. And I remember like somebody saying to me way back, No, it wasn't that long ago, relatively speaking, but why would you want to sequence anything? Right? And now it's like it's the cornerstone of everything we're doing. Yeah, but. But you guys have another drug, right?</p><p><strong>Laurence Reid: </strong>We do.</p><p><strong>Harry Glorikian: </strong>That prevents ototoxicity, right. Damage to the inner ear.</p><p><strong>Laurence Reid: </strong>Yep.</p><p><strong>Harry Glorikian: </strong>And it's that's one of the most common side effects of chemotherapeutic drugs like cisplatin. I mean, for those people that are listening, right, these little hairs, it's the same thing as like maybe the hair on your head.</p><p><strong>Laurence Reid: </strong>Please don't go there. It confuses people.</p><p><strong>Harry Glorikian: </strong>But essentially, you've got a drug that you're working on this in this space.</p><p><strong>Laurence Reid: </strong>Yes, we do. So firstly, how are you just upset because of our relative quantity of hair here. The hair cells in your hair are very different than the hair cells on top of your head or other parts of your body. Their role is to transducer signals on the inside of your cochlea into the brain. So but the cisplatin based chemotherapy is still very, very commonly used around around the world and is quite efficacious in certain types of tumors. It's widely used, for example, in testicular cancer, just one example. And it comes but it comes with a couple of of fairly severe toxicities, one of which is it kills the hair cells in your ear. And it also damages their interactions with the nervous system. And earlier in Decibel's life when we were sort of using our biological thinking before we. That's what I would say when we started as a biology company and we explored different molecular molecular modalities as the right way to treat it. And now we are significantly focused on gene therapy. As we've been talking about, this program was home grown and we're pretty excited about it despite our core investment in gene therapy now. And what we have is a proprietary formulation of a molecule of sodium sulfate, which is a natural metabolite, and it chemically inactivates cisplatin. And so we actually administer this by an injection into the middle ear and then the active ingredient leaches into the inner ear. And we administer that about 3 hours or so in advance of the Cisplatin IV, so that by the time the cisplatin gets to the ear, the inner ear is already bathed in sodium sulfate. And so and then you have a chemical reaction in situ inactivates the cisplatin.</p><p><strong>Laurence Reid: </strong>And you know, it's interesting because some people don't find that very sort of biotech sexy, but it's actually an incredibly elegant way to to to stop the side effects of a molecule that has multiple, multiple molecular forms of damage that are probably being imposed on different cell types. So solving that biologically or biochemically is a very hard, diverse problem, whereas solving it chemically in situ we think is is very powerful. The principle to give some credit was validated by a company called Fennec, but they have an IV administration and they are constantly fighting between achieving good things in. As you might imagine, preventing against that toxicity without inhibiting the efficacy of the drug. And it's correct. And that's that is a very and they hopefully eventually will get approval for a fairly narrow pediatric population because it's been very hard to sort of thread the needle of can I protect without inhibiting the efficacy? Now if you go directly to the organ where the damage is being done, local administration of a proprietary formulation, so it sits in the ear, it's there in advance. Essentially, none of it leaches out into the circulation. So we have, we believe, negligible risk of inhibiting in any way the cancer benefit of the circulating cisplatin. So we're achieving a local protection and we're looking where we will be reporting some human proof of concept data. We've said in the first half of this year. So pretty excited about that, actually.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, I don't need sexy. I just need something to, like, work, right? I mean, sexy is nice, but, you know, if it's working, it's working sometimes, you know.</p><p><strong>Laurence Reid: </strong>Right. So, so not not to compare protection of hearing against protection from people who are going to die of cancer. But it's an interesting example of where hearing health or ear health gets neglected. So in the context, you know, cisplatin is used in many cases with what people refer to as an intent to cure and so people can get cured. Young men, I think the cure rate is something like 95%. So you're talking about a young man, maybe 20 years old. He's going to live for 100 years, right? Maybe more. Maybe more. And nowadays and so the the importance of protecting his hearing at that age. And there are female cancers as well. But his hearing at that age for his long term health is incredibly important. But it gets it gets, unsurprisingly, neglected because the focus is on is on the cancer, which is which is understandable. But but we think that there's a really important opportunity to, you know, to provide a better overall solution for for those people that's going to have an incredible impact later in their life as their hearing would be naturally degenerating anyway. And and I think because of the the understandable stress when you're going through chemotherapy, you know, worrying about the hearing decrement, is it's just not top of mind. And so we've got some awareness. We've got some work to do to increase awareness there and hoping that some of our animal data might replicate in human beings because we think this could be fairly effective and really hopefully get it into the minds of oncology physicians. Is the goal that you should be thinking about this. You're trying to cure this patient. You're trying to whether it's a woman with ovarian cancer in her fifties or a young man with testicular cancer, they're going to live for decades to come. And we think it's important that they're hearing health is protected and we can help you do that potentially in a very powerful, rather simple way, actually.</p><p><strong>Harry Glorikian: </strong>So. I'm going to assume and you can correct me if I'm wrong, that if this gets through sooner than the gene therapy and can generate some revenue in the short term, you can then utilize that revenue to continue to fund the gene therapy programs.</p><p><strong>Laurence Reid: </strong>We're all always looking for money to do this, right, Harry?</p><p><strong>Harry Glorikian: </strong>So, unfortunately, that's the business we're in.</p><p><strong>Laurence Reid: </strong>That's the nature of the beast. Certainly, after we have our data in hand on the proof of concept, we'll be looking for an FDA interaction to define the path to registration, which we think could be relatively efficient. We have, you know, the medicine that effectively becomes an oncology supportive care medicine. It needs to be administered probably in the chemotherapy suite right in advance of a patient receiving their chemotherapy. So it needs to be marketed to an oncologist with a lot of education in the audiology community so that they're leaning on their oncology colleagues to you need to do this and you need to think about this as you're putting your patient through through chemotherapy. Ultimately, I think that that marketing to the oncologists, I don't think that's what's going to do that in itself. We're going to eventually bring a partner partner in to do that who is a specialist in marketing to the oncology community. And we want to be involved in rethinking about making sure that the ideological education and understanding is transferred into the cancer into the cancer world. And so that's that's a commercial strategy and structure that will will put together, you know, potentially starting when the data is in hand, but certainly some time between now and approval of the drug.</p><p><strong>Harry Glorikian: </strong>Well, Laurence, you know, I can only wish you the greatest success because and working in older people would be great, because I'm sure that I'm going to need this at some point, and some of my friends may also need it. But it was great to catch up with you. Great to talk. You know, I hope, you know, it's not as many years past again before we we get a chance to connect. So great to have you on the show.</p><p><strong>Laurence Reid: </strong>Thanks, Harry. I really appreciate it. And hopefully I've been able to provide some of the color and why we're so excited and think we're opening up a new area of therapy here for people with hearing loss and balance disorders beyond that. So really appreciate the opportunity. Thanks very much and great to see you.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>Finally, a Drug Company Listens to People with Hearing Loss</itunes:title>
      <itunes:author>Harry Glorikian, Laurence Reid</itunes:author>
      <itunes:duration>00:57:11</itunes:duration>
      <itunes:summary>In a day and age when it feels like there are drugs for everything—from restless legs to toenail fungus to stage fright—it&apos;s strange the drug industry has almost completely ignored one of our most important organs: our ears. Given that 15 percent of people in the U.S. report at least some level of hearing loss, you’d think drug makers would be doing more to figure out how they can help. Well, now there’s at least one company that is. Cambridge, Massachusetts-based Decibel Therapeutics went public in 2021 to help raise money to fund its research on ways to treat a specific form of deafness caused by a rare genetic mutation. Decibel is testing a gene therapy that would be administered only to cells in the inner ear and would provide patients with a correct, working copy of the otoferlin gene, which is inactive in about 10 percent of kids born with auditory neuropathy. Harry&apos;s guest this week is Decibel’s CEO Laurence Reid, who explains how the company’s research is going, and how Decibel hopes to make up for all those decades when the pharmaceutical business had basically zero help to offer for people with hearing loss.</itunes:summary>
      <itunes:subtitle>In a day and age when it feels like there are drugs for everything—from restless legs to toenail fungus to stage fright—it&apos;s strange the drug industry has almost completely ignored one of our most important organs: our ears. Given that 15 percent of people in the U.S. report at least some level of hearing loss, you’d think drug makers would be doing more to figure out how they can help. Well, now there’s at least one company that is. Cambridge, Massachusetts-based Decibel Therapeutics went public in 2021 to help raise money to fund its research on ways to treat a specific form of deafness caused by a rare genetic mutation. Decibel is testing a gene therapy that would be administered only to cells in the inner ear and would provide patients with a correct, working copy of the otoferlin gene, which is inactive in about 10 percent of kids born with auditory neuropathy. Harry&apos;s guest this week is Decibel’s CEO Laurence Reid, who explains how the company’s research is going, and how Decibel hopes to make up for all those decades when the pharmaceutical business had basically zero help to offer for people with hearing loss.</itunes:subtitle>
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      <title>Is Your Kid&apos;s Infection Bacterial or Viral? Eran Eden&apos;s MeMed Can Tell</title>
      <description><![CDATA[<p>If you’re a parent, you’ve probably had this experience many times: Your young child has a high fever, and maybe a sore throat, but you don’t know exactly what’s wrong. Is it a bacterial infection, in which case an antibiotic might help? Or is it a viral infection, in which case, you just have to wait it out? The symptoms of bacterial and viral infections are often the same, and most of the time, even a doctor can’t tell the difference. Viral infections are more common, but sometimes, the doctor will prescribe an antibiotic anyway, if only to help the parents feel like they’re doing something to help. But what if doctors didn’t have to guess anymore? What if there were a fast, easy blood test that a doctor could run in their own office to look for biomarkers that discriminate between bacterial and viral infections? Well, that’s the seemingly simple problem that a company called MeMed has been working on solving for 13 years now. Recently MeMed’s first testing product got approval from the FDA, and now the company is finally beginning to roll out it out commercially in the US. And here today to tell us more about how it got built, how artificial intelligence fits into this picture, and how rapid diagnosis could change the practice of medicine, is MeMed’s co-founder and CEO, Eran Eden.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>If you’re a parent, you’ve probably had this experience many times: Your young child has a high fever, and maybe a sore throat, but you don’t know exactly what’s wrong. </p><p>Is it a bacterial infection, in which case an antibiotic might help?</p><p>Or is it a viral infection, in which case, you just have to wait it out?</p><p>The symptoms of bacterial and viral infections are often the same, and most of the time, even a doctor can’t tell the difference.</p><p>Viral infections are more common, but sometimes, the doctor will prescribe an antibiotic anyway, if only to help the parents feel like they’re doing something to help.</p><p>But what if doctors didn’t have to guess anymore? </p><p>What if there were a fast, easy blood test that a doctor could run in their own office to look for biomarkers that discriminate between bacterial and viral infections?</p><p>Well, that’s the seemingly simple problem that a company called MeMed has been working on solving for 13 years now. </p><p>Recently MeMed’s first testing product got approval from the FDA, and now the company is finally beginning to roll out it out commercially in the US.</p><p>And here today to tell us more about how it got built, how artificial intelligence fits into this picture, and how rapid diagnosis could change the practice of medicine, is MeMed’s co-founder and CEO, Eran Eden.</p><p>MeMed has a growing office in Boston, but I reached him at the company’s first office in Haifa, Israel.</p><p><strong>Harry Glorikian: </strong>Eran, welcome to the show.</p><p><strong>Eran Eden: </strong>Thank you very much for having me.</p><p><strong>Harry Glorikian: </strong>It's great to have you here, I know that there's a significant time difference, so I appreciate like but it still looks like it's really bright and shiny out there right now. So what time is it in in Israel right now?</p><p><strong>Eran Eden: </strong>Five o'clock in the evening,</p><p><strong>Harry Glorikian: </strong>It's five o'clock. All right. Well, you guys have a lot more sun than we do anyway because we're in the middle of winter, but absolutely.</p><p><strong>Eran Eden: </strong>So this, here, is actually full of people as well. So yeah, you don't stop innovation as five o'clock in the evening.</p><p><strong>Harry Glorikian: </strong>So, you know, I was looking at your background and I mean, it's really it's interesting. It's diverse. You have a degree in biology, computer science, systems biology. You were first job was in computer vision data and analysis. But then all of a sudden you wound up starting a company that builds sensors and software for infectious disease. Like, how did you end up down this path, and do you feel like everything that you were doing until you got here was preparing you for it?</p><p><strong>Eran Eden: </strong>Well, I think... A great question. So I think, on the face of it, it obviously the background in data science, as you know, in molecular biology, obviously all of that relates to what we're doing is part of our day to day and it is a good starting point. But in reality, there's a very big gap between what I was trained to do and today, my every day, day to day activity. I would say that probably the most important training that I got during my days at the Weizmann Institute has got less to do with differential equations or molecular biology, and it was more about a story that my mentor, Professor Uri Alon, told me when I was three years into the PhD, about three years into the PhD, he asked me, Am I already in the cloud? He said what? And he said, are you in the cloud? I said, Well, what is the cloud? He said, Well, every PhD, every scientist, when you start your PhD, you know, you have you go you go and read the latest papers in Science and in Nature and you see how somebody starts at Point A, makes a hypothesis about point B and then take the straight line from A to B, and then you say, OK, I'm going to do the same thing and you start at Point A, the known. You shoot for the unknown and you start going and suddenly you hit a roadblock. And then you hit another one and another one. At a certain point, you'd really lose direction, which he called the cloud. You're in the cloud. And then if you have enough perseverance and luck, you find a point C which is not exactly where you thought you're going to end. You go there with, you know, your last energy. And if you're lucky enough, then you publish another paper about how you started at point A, went to point C and connected between the two dots with a straight line. And then you have another generation of PhDs that are asking themselves, Well, why am I the only one that's struggling? And that lesson about how to be in the cloud, how to deal with uncertainty, to deal with failure and still move on. That is probably more important in the training that I got to become an entrepreneur and CEO of a company than any specific scientific knowledge.</p><p><strong>Harry Glorikian: </strong>Ok. Yeah, no, I mean, trial and error, dusting yourself off, getting up and moving forward is, you know, my wife calls me crazy when I keep doing it, but I think you have to be a little on the edge to constantly keep repeating and being willing to fail and then stand up and then move on. Maybe it's a, I think I was reading a paper recently that said forgetting quickly is evolutionary, you know, a positive trait so that you forget what happened, that wasn't good and you keep moving forward. So. But let's talk about your company, MeMed, like you started that in, I believe, it was 2009. And what was your founding vision? I mean, if you can talk about what you and your co-founder did when you came up with this idea, I think you were both studying at the Technion at the time?</p><p><strong>Eran Eden: </strong>Yeah, so so he was studying at the Technion, M.D., Ph.D. I was studying at the Weizmann Institute and Data Science and Biology. And frankly, I would love to tell you a story about a vision, but it started with a game. I don't think we had the presumptions to have really something that would grow to what MeMed actually became today. It was playing. We both have had different reasons first of all for doing this. I can say that from my my end, it was probably a pretty big gap between the places, the caliber of where we were able to publish high impact journals. And when I was looking at myself in the mirror and I was asking myself, Is this actually going to have an impact on real patients? I couldn't really see the connection. There's another reason why I decided to found MeMed or co-found MeMed. That's probably off topic for today. We can take this on a beer some time when we meet face to face. But so it's first of all, it didn't start with a vision. It started with a scratch wanting to apply a some of the know how that we had had in converting between molecular immunology and data science, and to try to solve big, ugly problems that don't have a good solution in 21st century medicine and trying to find something pragmatic now rather than having it a eureka moment. You know, some pioneers describe a eureka moment where suddenly you have the best and coolest idea in vision. For us, it was darkness for almost a year rather than the eureka moment. It is was more like an evolutionary process. Trial and error. We tried a bunch of solutions to problems that didn't really exist until eventually we came up with what we want to work with, but again was no, no eureka, and the way that it actually started was again, Kfir was coming from from med school talking about this problem of of AMR, antimicrobial resistance and the problem of distinguishing between bacterial infections and given our different backgrounds, we said that's interesting. How can we apply immunology and then science to try to solve that, and then at that point, we formulated what was to become MeMed's vision. And MeMed is based on a very simple premise, a very simple idea. Our immune systems have evolved to tell us what's going on our bodies and all we do at MeMed is we listen to the immune response with biochemical sensors and machine learning and what have you. And we use that to translate or decode the immune system into insights that can potentially transform the way that we manage patients with acute infections and inflammatory disorders. The first problem we went after, because that's a very lofty goal, was potentially the most prevalent clinical indication on the face of this planet. A child with sniffles. Our elderly patients that coughs. Come to the doc, they have a fever. As a parent, you're many times hysterical, you're asking yourself, is it a bacterial infection or bowel infection. If it's a bacterium, antibiotics. It's a viral infection, chicken soup. And we said, Well, what if we can harness the immune system? What if we could measure or listen to the immune system in real time and use that to try to aid clinicians to tackle this seemingly simple problem? So the vision was listening to the immune response. In the first embodiment of the first problem we went after is this huge intractable problem, B versus V versus. Bacterial versus viral infection. To treat or not to treat.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, you know, it's funny, you say simple, and I've worked in this area for a long time and now not simple, not simple, but I've been watching dozens of companies over time try and tackle this problem, and everybody always comes at it and says, Yep, we should be able to do it. And I'm like, OK, that's a big hill, you know, to go and try and die on so. But you got FDA approval for your device in the U.S., and I want to talk about that later. But it did take 13 years. Like to, you know which parts of the process turned out to be harder or slower than you thought it would be?</p><p><strong>Eran Eden: </strong>Before I answer that, I just want a minor correction. I didn't say it's simple. I said it's a seemingly simple problem. In reality, it's an extremely difficult problem to go after. I think some of the most the biggest challenges that we have can be phrased in a very simple manner. But as you alluded to, yeah, it's an intractable problem. Bacterial and viral infections are often clinically indistinguishable. And it took us over a decade to take this from my idea on a napkin and grandmother's kitchen. That's where we found with no garage, it was Grandmother's Kitchen to what is considered a landmark FDA clearance that I think many folks did not believe we're going to be able to get this because it required so many innovations, not only on the technological side, but also on the regulatory side. And when you ask why only a decade? I think it's, we're very lucky that it took us only a decade and it sounds there, let's not call them challenge. Let's call it problems. Challenges is something I always envy the people that have challenges. We have problems with immune, and we work every day to solve those problems, right? So. So there's many problems or hurdles you have to go through. So there's first of all, you have to overcome some pretty big research issues, where do you find these hypothetical molecules of the immune response that go after bacteria and viruses. So research, then you learn the hard way.</p><p><strong>Eran Eden: </strong>The research is very different from development, and development is very different than product, and product is very, very, very different than manufacturing, and manufacturing is very different than regular regulation, and regulation is very different than reimbursement in marketing, which is a very different than commercial, et cetera, et cetera. So it's not good, it's not enough to excel in one thing. You have to really reinvent the wheel on several things, and as a company and as a team, reinvent yourself, and that's probably one of the biggest challenge, probably your biggest impediment to progress is yourself and your team because you might be an excellent data scientist, but you have to talk with the clinician. You might be an excellent clinician, but you have to talk the language of the molecular immunology. You might be very versed in all these three, but it's still not product and it's still not the graphical user interface. And how is that connected to manufacturing and really creating a culture or a team that can combine these seemingly very diverse elements within a small company. That is a very, very daunting and big task, and again, we frankly failed on multiple avenues there. We had to go back, we were in the cloud and we had to reinvent point C again and again and again. So, you know, we were in a very far position that we are today that we thought we were going to be at this stage.</p><p><strong>Harry Glorikian: </strong>So I'm going to ask at some point, you know, after this whole interview is I'm going to encourage you to write the next IVD book because everything you said is absolutely the way that I've seen it over time is, you know, having to bring all these pieces together is not trivial in our world. But let's step back here for a second for everybody that's listening, right? Talk a little bit about basic immune system biology and the, you know, technology behind your diagnostic system. So if someone presents with an inflammatory response, why is it so hard for doctors to destroying distinguish between the bacterial and viral infection?</p><p><strong>Eran Eden: </strong>Because bacterial and viral infections are clinically indistinguishable and you don't have to be an M.D. to to understand this. Intuitively, we know our kids so well. But still, you know, when they have a fever or runny nose, you know, we know that it's 80 percent, 85 percent a viral infection. But what if? What if there's a lingering bacterial infection? And it just it turns out that because of the clinical manifestation is very similar. It's really hard to figure it out. Not only children, also adults with suspected LRTI or a fever without sores, and even when we apply modern, I would say diagnostics, there's still a big gap that remains. So for example, when as a scientific community or a clinical community, when we approach this problem, we have tools at our disposal. A rapid strep test. A rapid influenza tests. Multiplex PCR. In today's world, I think everybody, even my grandmother is talking to me about the difference between rapid antigen tests suddenly becomes a really interesting topic over, you know, weekend dinners, culture. So there's technologies out there. And going back to your question, why is it still, why is there still a gap? And we've identified several things. The first one is probably the most trouble is time to results. Many of the clinical encounters, you want to have the solution here and now where whereas that technology that we have often provide solutions in hours and even days, and that's not always good.</p><p><strong>Eran Eden: </strong>That's one hurdle. Not the biggest one. The second one is that many times the infection site is inaccessible. Take, for example, otitis media, an ear infection or sinusitis or bronchitis or pneumonia. It's really hard to reach the infection side and therefore identify the pathogen. It's one in four patients in the most prevalent disease on Earth. That's really hard. Third, even if you use the best, most broad technology diagnostics to try to identify the bug, say a multiplex PCR. In more than 50 percent, five, zero percent of the cases, you're not be able to put your hands on any microorganism, but you still, as a clinician, have to make a decision. And lastly, there's the issue of colonization. So even if you're lucky, the infection that is readily accessible and you do get some sort of a virus, for example, that you detect, say, for example, an influenza or or let's take a rhinovirus, the rhinovirus is very prevalent in children. That's a problem. It's very prevalent in children. Even if you take seemingly healthy children in a very high percentage of those children, they're going to have a rhinovirus. So mere detection does not apply causality. All this complexity is sunk into this few minutes that the clinician basically needs to make a decision, and it's a really hard dilemma because it's hard to know to distinguish between the two and the ramifications could be quite significant.</p><p><strong>Harry Glorikian: </strong>So I know the answer to the question, but I'm going to ask it so you can explain it is: So who cares? I mean, I know that it's ineffective to treat a viral infection with antibiotics and that only you know, that only work against a bacteria, but you know. We've been doing a trial and error, so what's the downside of doing that?</p><p><strong>Eran Eden: </strong>So it's actually a pretty deep, it's a very deep question because there are several layers. You're right, this sometimes people actually say there's several layers to answering because the first one is, well, if you treat erroneously, with antibiotics, antibiotics, because of this uncertainty, there's a lot of antibiotics overuse that one of the consequences of this it drives anti microbial resistance, which basically means that the drugs don't work anymore. And if we continue on that path, we will potentially lose modern medicine because if you lose the potency of antibiotics, you cannot treat infants when they have an infection. Or an oncology patient that would succumb to a parasitic infection, or even yet have your wisdom tooth pulled out, because antibiotics won't be effective. And there's several quite influential studies that came out in the last few years. The last one actually in The Lancet came out two weeks ago portraying a world without antibiotics, which is, you know, we're seeing right now the consequences of COVID SARS-CoV2. Some might argue it's not a smaller problem. So that's and it has both clinical and health economic consequences. According to Jim O'Neill, over $100 billion by 2050 in lost GDP.</p><p><strong>Eran Eden: </strong>And. And it's a big number, right? It's a really, really big number. And maybe, maybe it's overly inflated and maybe it's conservative, but it's a big problem. The issue is that nobody cares. Sometimes the individual doesn't care because the doctor, right now, when he has a patient in front of him, he doesn't think about the masses. He thinks about the patient. So you might ask, well, what the doctor care. Why does the patient care? And it turns out that there is an angle on the personal level as well, not only the societal level. If you give erroneous antibiotics, you can drive anaphylactic responses. You can drive allergies, which have a toll. But then there's another element that people are less aware of. In addition to overuse, there's also simultaneously underuse. One in five patients that have a bacterial infection are not receiving antibiotics in time. There's much less publication on that. But it is a reality. And that also has consequences, including prolonged disease, duration and sometimes even morbidity and mortality. So it's a really delicate equation, right? You don't treat. And you don't want to get ... some countries overtreat, some undertreat. And again, at the end of the day, the day to day, it does have ramifications both from the patient and on the doctor.</p><p><strong>Harry Glorikian: </strong>You know, if we could accurately treat people right, I think there would be a whole host of issues that could get solved and a whole host of issues that wouldn't emerge because of overtreatment or treating the wrong people that you know, we could spend hours over a beer discussing the microbiome and allergies and all sorts of other consequences of doing this. </p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> So your system, which is, I love, is a basic blood test, right? So the MeMed BV looks at three immune system proteins in the blood: TRAIL, IP 10 and CRP. So how are these proteins related to infection and how can measuring their levels tell you about the nature of the infection?</p><p><strong>Eran Eden: </strong>Ok, so. Each one of those proteins that you just mentioned plays a critical role in the immune response to different invaders, bacteria and viruses. What's special about this particular trio, is that they work really well as a team. Maybe if you take a step backward to identify them, we had to run for about four years what is arguably the largest prospective proteomic study ever to be conducted of the human response to acute infections. And start with a host of multiple tens of thousand proteins bioinfomatically and then down-select this eventually to three. And these three, while none of them is perfect in itself, they cover one another's blind spots. So let's go one level deeper. When we went on this, one of the things where we were surprised to find out that is a clinical community, we've been obsessed with the bacterial side of the equation. Every biomarker that you have in 21st century medicine, 20th and 21st century medicine, has been mostly predominantly upregulated in bacterial infection. Procalcitonin: bacterial infections, CRP: bacterial infections, white blood count: bacterial infections, absolute neutrophil count, which we use as part of routine day to day care: bacterial infections. What about the viral side of the equation? We couldn't find one that was used or cleared by FDA as part of 21st century medicine. The last. The reason the FDA cleared us, we actually just cleared the first viral protein ever to be cleared by FDA. And so we went on this fishing expedition and four years into the process, again, this was 2009-2013. We identified this trio. TRAIL Is a protein that shoots up in your bloodstream when you have a viral infection, whether it's a common influenza A, influenza B, parainfluenza or corona, and it has this very unique property that it goes down when you have a bacterial infection, why nobody really understands the reason. But it really creates a very dramatic full change because of this up and down type of a response. And the story there, there's a lot of interesting stories around TRAIL, but one of the ways mechanisms by which it does that it causes the cells that are infected by viruses to commit apoptosis. Cells suicide. And by that, protect the brethren cells. So that's one of the mechanisms that the body is using.</p><p><strong>Eran Eden: </strong>The second one is called IP 10, which is an interferon. This protein basically shoots up in your bloodstream if you have a general infection, and more so if you have a viral infection. It recently got a lot of headlines in the context of SARS-CoV-2 and hyperactivity of the immune response. It's also associated with lung injury, but a really interesting biomarker that plays a critical role there in clearance of infections. The third one is called C-reactive protein, that's been around for about 40 years. Goes up in bacterial. And the nice thing about them? They work as a team. So as I said, they're not perfect. So take, for example, CRP. It's reasonably OK after 48 hours. But because it takes it to about 48 hours to reach maximum level, but in the early phases, you have a blind spot. Whereas TRAIL, at time of symptom onset, it's already differentiated, so they cover one another. By the way, we didn't identify this. The computer identified that. This is a lot of insights that we had in hindsight when we were looking.</p><p><strong>Harry Glorikian: </strong>Yeah, that was going to be my next question, which is. You know, the the heart of the show is always like, you know, artificial intelligence and its whole basket of tools and biology. So how does machine learning come into this process? Is there some corpus of training data that shows that certain levels of these three proteins correlate? Or can you tell us, you know, how you developed that part of the system?</p><p><strong>Eran Eden: </strong>Absolutely. And I think again, I was teaching a machine learning at the Weizmann Institute over a decade ago before it was a sexy topic. You know, people are using the term machine learning and data science so often so frequent. I think what's important to say is that machine learning is part of the component technology, but there's hardcore immunology and molecular biology. So it's not just one technology that we're, you know, it's a it's a very high entry barrier because of that and adds to the complexity. So that's one thing, just to put machine learning in context. Where machine learning plays an important role here is two places: in the development and in the final product. In the development, there's a process of how do you find the optimal team of biomarkers that would give you the the best performance? And over there, there's a lot of activities around using publicly available data sets and and proprietary data sets and data analysis and statistical analysis and feature selection and find the right models, et cetera, et cetera, coming up with what is the right model. Some of these are more conventional tests. Some of these are more cutting edge tests in the final product. It basically uses what's called a supervised learning approach, which basically means the following. Imagine every problem in here, I'm going to be a little bit technical here. Imagine you have, let's say one feature. Say a viral biomarker. TRAIL. High levels, viruses, low levels, bacteria. You find some sort of cutoff that separates between the two. It was the most informative biomarker that we found.</p><p><strong>Eran Eden: </strong>Is it good? It's reasonably good, but there's no perfect biomarkers out there. We don't have them, nor do we believe they exist. Nor do we believe in unicorns, even though my daughter is trying to continually persuade me that there is one. Then you add another biomarker to that. Imagine that you have right now a two dimensional grid. And now suddenly, every patient is met this two dimensional coordinates and you have a cloud of bacterial and the cloud of viruses. And you find a line that separates the two. And then a third dimension and a fourth and so forth and so on. And eventually, the problem becomes how can I find this type of plane or hyper surface that separates between the cloud of bacteria and the cloud of viruses? This is the essence of the machine learning and the way you go about this. You train give it a lot of patients, a lot of data, and then you train the system. And the more data you have, the smarter it becomes. The same principle applies for doing diagnostics in oncology, span detection, computer vision and what have you. It's the same underlying, often similar underlying principles to try to solve many of these problems. So hopefully I was able to to simplify and somewhat exaggerate how this is actually working and where the AI plays here.</p><p><strong>Harry Glorikian: </strong>So what's that accuracy rate of the diagnosis from your system? And is there are certain things, let's say it's good at in certain things, it's maybe not so good at?</p><p><strong>Harry Glorikian: </strong>Yeah, absolutely. So so if you look at the overarching population, if you look at our pivotal FDA study, the AUC, the area under the operating curve, the entire population was 0.9 to 0.97 across different cohorts, which is considered very high. So that's the short answer. The more we see deeper level, it's there's obviously nuances across different populations. One of the things you have to show is what happens in children versus adults. Upper respiratory tract infections, lower respiratory tract infections, et cetera, et cetera. So we've shown a relatively consistent and robust response. That's how the system was developed. But there are, for example, certain viruses that we know that we perform less accurate. For example, adenoviruses. Adenoviruses are notoriously hard to to treat well. By the way, they're one of the most prevalent, for example, viruses in children, why? Because the immune response looks like a bacterial infection. For many, many reasons. So white blood count is going to be elevated. Procalcitonin is going to be elevated, CRP is going to be elevated and we're often going to overtreat with antibiotics. So if you look at our performance in that particular sub-cohort, our performance drops somewhat from, you know, a 0.90-something to maybe 0.89, but that's actually one of the viruses that we see the most added value because compared to standard of care, it's many times close to flipping a coin.</p><p><strong>Eran Eden: </strong>So even though our performance is eroded in this particular virus. The standard of care in this particular situation is particularly challenged, and it's almost 0.5, 06. so that's one example. There's multiple examples. We can study the immune response to pathogens again for almost a decade now. This is just one interesting anecdote. And I think just connecting this to the who cares question that you had. So here's an interesting case that we had a few weeks ago. A child, young, three years old, coming to a major medical center, not really sure if it's a bacterial or viral. Ran a PCR, came positive for adenoviruses and it looked a little bit bacterial. But yeah, OK. Adenovirus explains everything. Released home. Got a 99 score. 99 probability of bacterial infection. So they start to do additional follow up and then it eventually turned out to be a bacterial axis in the spinal cord of that particular child. It had to be mechanically removed. This is a very dramatic case. This is one of those potentially underused cases that could be very dramatic. This is very rare. It doesn't happen often. But again, it's hard. It's really, really tricky to distinguish between infections and we added this right now, this is how everything maps together to the adenoviruses and and to why we think this could be helpful.</p><p><strong>Harry Glorikian: </strong>So, you know, like I said earlier in the show, you know, you got FDA approval and granted 510K clearance back in September, which congratulations, that's a huge step. But you know, for everybody listening, what Gates does, does that open for you. What's the pathway to getting the device out into the market?</p><p><strong>Eran Eden: </strong>So as you said, first of all, you have to get the clearance, which I think took us almost five years working with FDA. FDA, by the way, we've worked with them extremely collaboratively and they've been instrumental in helping us form and shape, what's the methodology to actually prove something. We didn't talk about this? But how do you prove that absence or presence of bacterial viral infection in the absence of a true gold standard? So let's put that thing aside. We were able to work with FDA and come up with a methodology to do that. So now, what is required to take it to the next step? There's several things. The first one you need, and we didn't talk about this, you need a way to measure those biomarkers. You need a platform. Right, one of the challenges that we had is that in the early days, none of the big strategic players, the Roches, the Abbotts, the DiaSorins of the world were willing to bet on this because the risk were so high, as you alluded to in the beginning, the graveyard. And nobody got FDA clearance, so they basically they wouldn't. They were not willing to bet on us today. Some of them become partners and we're working with them. So it's, you know, there's been great development. But at that time, it was really hard. The platform is also challenged because some of the proteins are picograms, some are nanogram and some are micro per mil, which poses again the challenge from a technological perspective. Again, not going too much into the technology side, but we've been able to come up with a technology or a platform that can actually measure multiple proteins across almost a six to nine order of magnitude range. And so you have to have a platform and can do that in about 15 minutes right now, serum working in whole blood.</p><p><strong>Eran Eden: </strong>The second thing you need, you need obviously manufacturing capability, which is again, a different story, you have to manufacture the cartridge. The third thing you need is building the clinical evidence beyond, I mean, FDA's great, but you have to create what's called a clinical utility, real world evidence, what have you, working with peers. Work with partners or with clinicians working the societies. Publishing. Building a commercial team which we're right now established commercial team in the U.S. So there's multiple things. And probably last but not least, this is too big of a challenge to go at it by yourself. You need to have partners. Whether it's governments, the U.S. Department of Defense, the European Commission have funded this heavily and have been amazing partners, whether it's strategic partners, you can take it by yourself versus vs not one market. It's markets. You have patients in the wards and the EDs and the urgent care physicians' offices, retail clinics. No single player has enough of a presence in one platform that covers it all. So again, we've announced about a year ago, you know, the first partnership with DiasSorin, which has today almost a thousand installed installed across Europe and the US in these large automated immunoassay machines. And that's covering certain parts of the market that are overlapping or, sorry, that are complementary where we're going at. So that's a little bit of what needs to be done. But again, it's changing the boundaries of what what we've been doing so far, and that's always a it's always a challenge, but also an opportunity.</p><p><strong>Harry Glorikian: </strong>So you guys raised I believe it was $93 million, if I remember the number correctly, in new funding, which sort of really adds to the firepower of being able to take that next step, but. You know, can you can you envision a future where we get a solid diagnosis and an appropriate treatment plan, you know, quickly while you're in the doctor's office?</p><p><strong>Eran Eden: </strong>Oh, yeah.</p><p><strong>Harry Glorikian: </strong>That was the shortest answer you've given yet.</p><p><strong>Eran Eden: </strong>I think you can be much more radical. I think there's several things that are happening. There's two major discontinuities. There's a technological discontinuity. There's a regulatory discontinuity. And I'll actually add another one, which is there's a psychological discontinuity. The technology that we can do today that we have today, the tip of our fingers can do can provide so much valuable information that can help make better decisions. The regulatory framework has changed because of COVID, it's basically shattered a lot of things. And from a psychological perspective, I think there's a push to polarization, right? Both decentralization and centralization at the same time. And so I definitely see that happening. I think we can take this several step further. How can we take it from physician's office, also retail clinics and even further? And that will take time, obviously, because we're dealing here with some pretty, pretty deep questions. But I think the world across multiple fields and this is not different than anything else. I think it's definitely going in that direction.</p><p><strong>Harry Glorikian: </strong>Yeah, no, I mean, I was going to, you know, looking at what you've created and, you know, obviously first getting everybody on board, but then seeing how it can be deployed at a CVS or something like that, it could drum, you know, you could have a dramatic impact on how we manage patients. The whole antibiotic dynamic and maybe even relieving stress on the system so that, you know, it doesn't get overwhelmed by what your system may be able to sort of help get to a much faster, much more accurate answer too.</p><p><strong>Eran Eden: </strong>I wanted to say relieving stress from stressed mothers and fathers. But yeah, I agree with you also, relief. And by the way, as you start going from more centralized to decentralized, there's obviously additional workflow challenges. How do you make this simpler? There's regulatory bars that you have to meet. How do you go from a mod complex to a clear waived test that can actually go to those directions so that there's we still have we have work, there's work, work to be done. But I think we've been able to potentially break a glass ceiling in terms of getting the clearance. And now I think with that, there's going to be additional innovation that will come in both by us and others who are entering the space.</p><p><strong>Harry Glorikian: </strong>So. Just slightly moving to one side is like, how has MeMed responded to say, COVID-19? I think you guys have developed a test that runs on your platform and predicts how severe the infection will be. How does that test work? Did your previous work, you know, and also did your previous work like on the platform prep you for this virus? Just curious how it works and how you got there?</p><p><strong>Eran Eden: </strong>Absolutely so. So it always starts with the clinical question. I mean, many of us are technophiles, but at the end of the day it's about solving a real problem. And the problem here is the following. You have see SARS-CoV-2 positive patient presenting to the ED. And one of the questions that we have in mind is whether that patient is going to deteriorate or not. Do we escalate treatment or not? And it's a real question, right? And the more you know, the more stress the system is feeling because, you know, because of the the peak of a pandemic, the more important that is. So we said, Well, how can we harness the technology? Is the framework that we created host response in general, right? The biomarkers we've developed, the platform that we have, the Biobank and what have you. And so and how can we take a process that maybe took 10 years and now collapsed into something maybe that's 10 months? How do you get a 10 X? And and first of all, with amazing partners around the globe, you start running huge clinical studies to basically collect patient samples. We also use again information from the public domains, our own repositories, our own previous data because from many perspectives. Sars-cov-2 is very interesting, but guess what? Similar to SARS and to other types of severe viruses, there's differences, but also commonalities.</p><p><strong>Eran Eden: </strong>So we use a lot of the bioinformatics, the previous data samples. Current data samples. The know how and the platform that's readily available right now. They can measure basically anything to collapse this and develop. This is probably just got clearance in Europe that basically allows to take a snapshot, the main response again in real time. Give you a risk stratification regarding the probability of a patient to experience severe outcome defined as ICU level of care and mortality within two weeks. Again, it's only clear right now in Europe, not cleared in the U.S. and we view this also as a stepping stone going beyond just COVID severity to a general severity signature. So what you do, both B versus V and severity, what if you could do it in the same cartridge or what have you? So I think what's what's really interesting, we build here this core technology. We went after one big problem, B versus V, but now that you have that, you're like a child in a candy store. There's many more things that you can do. And rather than taking you a decade, you can start to collapsing things because there's a lot of there's a lot of. Resources that you can now leverage or platform that you can leverage, so that's a story around MeMed and COVID severity.</p><p><strong>Harry Glorikian: </strong>Yeah, platforms are wonderful in that way, right, that I like a platform more than I like, like a, you know, sharpshooter bullet, from an investment perspective. Thinking about it that way. But so. You recently got COVID. We were supposed to talk like over a week ago, and I, you know, we had to postpone it. Did you use the test on yourself? I mean, if you did, like did it work the way you thought it was going to?</p><p><strong>Eran Eden: </strong>Yeah, so so yeah, I got my I got it from my daughter. We went on a trip and five out of five family members got infected. So yes, it was at least from our small experiment. It was very infectious. We got the Omicron. Actually we didn't have symptoms, apart from the fact that I think it just jacked up the energy level of my kids. So before we talk about running around the house and thank God, you know, my wife didn't didn't kill any one of them. So there's no casualties from this, from this infection. So because we didn't have symptoms, we didn't go to the ED. It was not relevant. You have to have SARS-CoV-2 symptoms. So in that case, no, no, no need. I mean, we were pretty much hunky dory. But what I can tell you is that on the B versus V. Again, it's potentially bacterial and viral infections are potentially the most prevalent indication in children. And my children, those little incubators of bacteria and viruses, are no exception. So I had a chance to use the technology on my kids many, many times, including last time was about a month and a half ago, and my eldest daughter, who is four, before going to a business trip. And my wife is asking, is it a bacterial infection? I said, I don't know. She spits on me. The shoemaker is going barefoot. So we ran it. It was a viral infection. No antibiotics. Went back to school. So and I got a lot of brownie points with my wife and my mother in law, which is obviously always very, very strategic.</p><p><strong>Harry Glorikian: </strong>That's that's a good one. That's always helpful. Exactly.</p><p><strong>Eran Eden: </strong>So we're actually using this quite often in our families as well. And it's very very gratifying.</p><p><strong>Harry Glorikian: </strong>Interesting. Excellent. So now you guys are, you know, I believe you have an office in Haifa, which I remember as being beautiful and hilly and wonderful food, and then you have Boston. You know. What are the strengths of being in these two locations. What happens in Boston that can't happen in Haifa and vice versa?</p><p><strong>Eran Eden: </strong>Well, again, we're going after a global problem and you have to have a global team to have a global perspective. Whatever you have in San Francisco today, you have tomorrow in Shanghai and the day after that in Tel Aviv. So you have to look at this from a global perspective, number one. Number two, since the US is the primary market, as I said, we have to build a very significant presence in the U.S.. Why specifically Boston? Very talented pool of, a pool of talent that's very wide in the domain. There's a big overlap in terms of hours between Boston and Tel Aviv, so you can grow one unified team. And that's basically, that's where we're basically building our U.S. headquarter. And the team is quite complementary. Again, we've we've recruited by now roughly 25 to 30 folks, folks with a very strong background, both IBD, Troy Battelle, formerly Thermo Fisher, who's buying commercial for microbiology in the Americas. Fred, who is running Corp Dev, from bioMérieux. Again, another large multinational, Jim Kathrein was former head of sales for BioFire. Again, not sure if your audience is familiar with but and so forth and so on.</p><p><strong>Eran Eden: </strong>And Will Harris was running our marketing global marketing, is ex-Amazon and then before that, 15 years in IBD. So it's really bring here a blend of, we call this affectionately an anti disciplinary team. We don't care about disciplines, we care about solving big, ugly problems. So you have to bring the IBD experts with the clinicians, with the folks and the big data science side or in the molecular immunology and the manufacturing. And nobody knows, single location has all the know how, no single location has the recipe because frankly, we're doing here something new. There is no real tech like this. And so bringing those this pool of talent, I think has really helped us, propels us moving forward. And it is the bridge to be able to to launch in the U.S., a U.S. very focused, commercially marketing product where a lot of the I would say more of the molecular immunology data science team is more in Israel. I'm simplifying and exaggerating. That's some of the team.</p><p><strong>Harry Glorikian: </strong>So the last funding round, was that the argument to the investors, like we need to hire these types of people to help blow this out? What was what was the rationale for that last round?</p><p><strong>Eran Eden: </strong>So, so basically three things. Number one, commercialization. U.S. Europe, Israel. That's our initial focus and then the rest of the world. Second is product pipeline, so we talked about bacterial versus viral infection and a bit about COVID severity. But what would you do if you had a blank canvas and these platforms to go after the new response to measure the immune response? What additional big problems would you go after? So it turns out that there's some pretty interesting stuff in. We're working on additional activities. So that's the second thing product pipeline. And the third thing is a scaling manufacturing. So as I think people have a new appreciation for manufacturing and supply chain during COVID times, it's a really big topic and critical for success. So this these are the three major elements that we raise the funds for.</p><p><strong>Harry Glorikian: </strong>No sounds I've I've been I've seen this rodeo a few times, so yes, I understand completely. So, well, you know, especially because I come from the diagnostic world and I can't wish you enough success because we need more products like this out on the market to help us manage patients and help give physicians better information so that they can make better decisions, right? More informed decisions than just, you know, looking at a patient and trying to figure out what's going on. So I wish you incredible success and I'm, you know, great. Great to have you on the show.</p><p><strong>Eran Eden: </strong>Thank you so much for for the kind invitation. Enjoyed our discussion.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 15 Mar 2022 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Eran Eden)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>If you’re a parent, you’ve probably had this experience many times: Your young child has a high fever, and maybe a sore throat, but you don’t know exactly what’s wrong. Is it a bacterial infection, in which case an antibiotic might help? Or is it a viral infection, in which case, you just have to wait it out? The symptoms of bacterial and viral infections are often the same, and most of the time, even a doctor can’t tell the difference. Viral infections are more common, but sometimes, the doctor will prescribe an antibiotic anyway, if only to help the parents feel like they’re doing something to help. But what if doctors didn’t have to guess anymore? What if there were a fast, easy blood test that a doctor could run in their own office to look for biomarkers that discriminate between bacterial and viral infections? Well, that’s the seemingly simple problem that a company called MeMed has been working on solving for 13 years now. Recently MeMed’s first testing product got approval from the FDA, and now the company is finally beginning to roll out it out commercially in the US. And here today to tell us more about how it got built, how artificial intelligence fits into this picture, and how rapid diagnosis could change the practice of medicine, is MeMed’s co-founder and CEO, Eran Eden.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare.</p><p>If you’re a parent, you’ve probably had this experience many times: Your young child has a high fever, and maybe a sore throat, but you don’t know exactly what’s wrong. </p><p>Is it a bacterial infection, in which case an antibiotic might help?</p><p>Or is it a viral infection, in which case, you just have to wait it out?</p><p>The symptoms of bacterial and viral infections are often the same, and most of the time, even a doctor can’t tell the difference.</p><p>Viral infections are more common, but sometimes, the doctor will prescribe an antibiotic anyway, if only to help the parents feel like they’re doing something to help.</p><p>But what if doctors didn’t have to guess anymore? </p><p>What if there were a fast, easy blood test that a doctor could run in their own office to look for biomarkers that discriminate between bacterial and viral infections?</p><p>Well, that’s the seemingly simple problem that a company called MeMed has been working on solving for 13 years now. </p><p>Recently MeMed’s first testing product got approval from the FDA, and now the company is finally beginning to roll out it out commercially in the US.</p><p>And here today to tell us more about how it got built, how artificial intelligence fits into this picture, and how rapid diagnosis could change the practice of medicine, is MeMed’s co-founder and CEO, Eran Eden.</p><p>MeMed has a growing office in Boston, but I reached him at the company’s first office in Haifa, Israel.</p><p><strong>Harry Glorikian: </strong>Eran, welcome to the show.</p><p><strong>Eran Eden: </strong>Thank you very much for having me.</p><p><strong>Harry Glorikian: </strong>It's great to have you here, I know that there's a significant time difference, so I appreciate like but it still looks like it's really bright and shiny out there right now. So what time is it in in Israel right now?</p><p><strong>Eran Eden: </strong>Five o'clock in the evening,</p><p><strong>Harry Glorikian: </strong>It's five o'clock. All right. Well, you guys have a lot more sun than we do anyway because we're in the middle of winter, but absolutely.</p><p><strong>Eran Eden: </strong>So this, here, is actually full of people as well. So yeah, you don't stop innovation as five o'clock in the evening.</p><p><strong>Harry Glorikian: </strong>So, you know, I was looking at your background and I mean, it's really it's interesting. It's diverse. You have a degree in biology, computer science, systems biology. You were first job was in computer vision data and analysis. But then all of a sudden you wound up starting a company that builds sensors and software for infectious disease. Like, how did you end up down this path, and do you feel like everything that you were doing until you got here was preparing you for it?</p><p><strong>Eran Eden: </strong>Well, I think... A great question. So I think, on the face of it, it obviously the background in data science, as you know, in molecular biology, obviously all of that relates to what we're doing is part of our day to day and it is a good starting point. But in reality, there's a very big gap between what I was trained to do and today, my every day, day to day activity. I would say that probably the most important training that I got during my days at the Weizmann Institute has got less to do with differential equations or molecular biology, and it was more about a story that my mentor, Professor Uri Alon, told me when I was three years into the PhD, about three years into the PhD, he asked me, Am I already in the cloud? He said what? And he said, are you in the cloud? I said, Well, what is the cloud? He said, Well, every PhD, every scientist, when you start your PhD, you know, you have you go you go and read the latest papers in Science and in Nature and you see how somebody starts at Point A, makes a hypothesis about point B and then take the straight line from A to B, and then you say, OK, I'm going to do the same thing and you start at Point A, the known. You shoot for the unknown and you start going and suddenly you hit a roadblock. And then you hit another one and another one. At a certain point, you'd really lose direction, which he called the cloud. You're in the cloud. And then if you have enough perseverance and luck, you find a point C which is not exactly where you thought you're going to end. You go there with, you know, your last energy. And if you're lucky enough, then you publish another paper about how you started at point A, went to point C and connected between the two dots with a straight line. And then you have another generation of PhDs that are asking themselves, Well, why am I the only one that's struggling? And that lesson about how to be in the cloud, how to deal with uncertainty, to deal with failure and still move on. That is probably more important in the training that I got to become an entrepreneur and CEO of a company than any specific scientific knowledge.</p><p><strong>Harry Glorikian: </strong>Ok. Yeah, no, I mean, trial and error, dusting yourself off, getting up and moving forward is, you know, my wife calls me crazy when I keep doing it, but I think you have to be a little on the edge to constantly keep repeating and being willing to fail and then stand up and then move on. Maybe it's a, I think I was reading a paper recently that said forgetting quickly is evolutionary, you know, a positive trait so that you forget what happened, that wasn't good and you keep moving forward. So. But let's talk about your company, MeMed, like you started that in, I believe, it was 2009. And what was your founding vision? I mean, if you can talk about what you and your co-founder did when you came up with this idea, I think you were both studying at the Technion at the time?</p><p><strong>Eran Eden: </strong>Yeah, so so he was studying at the Technion, M.D., Ph.D. I was studying at the Weizmann Institute and Data Science and Biology. And frankly, I would love to tell you a story about a vision, but it started with a game. I don't think we had the presumptions to have really something that would grow to what MeMed actually became today. It was playing. We both have had different reasons first of all for doing this. I can say that from my my end, it was probably a pretty big gap between the places, the caliber of where we were able to publish high impact journals. And when I was looking at myself in the mirror and I was asking myself, Is this actually going to have an impact on real patients? I couldn't really see the connection. There's another reason why I decided to found MeMed or co-found MeMed. That's probably off topic for today. We can take this on a beer some time when we meet face to face. But so it's first of all, it didn't start with a vision. It started with a scratch wanting to apply a some of the know how that we had had in converting between molecular immunology and data science, and to try to solve big, ugly problems that don't have a good solution in 21st century medicine and trying to find something pragmatic now rather than having it a eureka moment. You know, some pioneers describe a eureka moment where suddenly you have the best and coolest idea in vision. For us, it was darkness for almost a year rather than the eureka moment. It is was more like an evolutionary process. Trial and error. We tried a bunch of solutions to problems that didn't really exist until eventually we came up with what we want to work with, but again was no, no eureka, and the way that it actually started was again, Kfir was coming from from med school talking about this problem of of AMR, antimicrobial resistance and the problem of distinguishing between bacterial infections and given our different backgrounds, we said that's interesting. How can we apply immunology and then science to try to solve that, and then at that point, we formulated what was to become MeMed's vision. And MeMed is based on a very simple premise, a very simple idea. Our immune systems have evolved to tell us what's going on our bodies and all we do at MeMed is we listen to the immune response with biochemical sensors and machine learning and what have you. And we use that to translate or decode the immune system into insights that can potentially transform the way that we manage patients with acute infections and inflammatory disorders. The first problem we went after, because that's a very lofty goal, was potentially the most prevalent clinical indication on the face of this planet. A child with sniffles. Our elderly patients that coughs. Come to the doc, they have a fever. As a parent, you're many times hysterical, you're asking yourself, is it a bacterial infection or bowel infection. If it's a bacterium, antibiotics. It's a viral infection, chicken soup. And we said, Well, what if we can harness the immune system? What if we could measure or listen to the immune system in real time and use that to try to aid clinicians to tackle this seemingly simple problem? So the vision was listening to the immune response. In the first embodiment of the first problem we went after is this huge intractable problem, B versus V versus. Bacterial versus viral infection. To treat or not to treat.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, you know, it's funny, you say simple, and I've worked in this area for a long time and now not simple, not simple, but I've been watching dozens of companies over time try and tackle this problem, and everybody always comes at it and says, Yep, we should be able to do it. And I'm like, OK, that's a big hill, you know, to go and try and die on so. But you got FDA approval for your device in the U.S., and I want to talk about that later. But it did take 13 years. Like to, you know which parts of the process turned out to be harder or slower than you thought it would be?</p><p><strong>Eran Eden: </strong>Before I answer that, I just want a minor correction. I didn't say it's simple. I said it's a seemingly simple problem. In reality, it's an extremely difficult problem to go after. I think some of the most the biggest challenges that we have can be phrased in a very simple manner. But as you alluded to, yeah, it's an intractable problem. Bacterial and viral infections are often clinically indistinguishable. And it took us over a decade to take this from my idea on a napkin and grandmother's kitchen. That's where we found with no garage, it was Grandmother's Kitchen to what is considered a landmark FDA clearance that I think many folks did not believe we're going to be able to get this because it required so many innovations, not only on the technological side, but also on the regulatory side. And when you ask why only a decade? I think it's, we're very lucky that it took us only a decade and it sounds there, let's not call them challenge. Let's call it problems. Challenges is something I always envy the people that have challenges. We have problems with immune, and we work every day to solve those problems, right? So. So there's many problems or hurdles you have to go through. So there's first of all, you have to overcome some pretty big research issues, where do you find these hypothetical molecules of the immune response that go after bacteria and viruses. So research, then you learn the hard way.</p><p><strong>Eran Eden: </strong>The research is very different from development, and development is very different than product, and product is very, very, very different than manufacturing, and manufacturing is very different than regular regulation, and regulation is very different than reimbursement in marketing, which is a very different than commercial, et cetera, et cetera. So it's not good, it's not enough to excel in one thing. You have to really reinvent the wheel on several things, and as a company and as a team, reinvent yourself, and that's probably one of the biggest challenge, probably your biggest impediment to progress is yourself and your team because you might be an excellent data scientist, but you have to talk with the clinician. You might be an excellent clinician, but you have to talk the language of the molecular immunology. You might be very versed in all these three, but it's still not product and it's still not the graphical user interface. And how is that connected to manufacturing and really creating a culture or a team that can combine these seemingly very diverse elements within a small company. That is a very, very daunting and big task, and again, we frankly failed on multiple avenues there. We had to go back, we were in the cloud and we had to reinvent point C again and again and again. So, you know, we were in a very far position that we are today that we thought we were going to be at this stage.</p><p><strong>Harry Glorikian: </strong>So I'm going to ask at some point, you know, after this whole interview is I'm going to encourage you to write the next IVD book because everything you said is absolutely the way that I've seen it over time is, you know, having to bring all these pieces together is not trivial in our world. But let's step back here for a second for everybody that's listening, right? Talk a little bit about basic immune system biology and the, you know, technology behind your diagnostic system. So if someone presents with an inflammatory response, why is it so hard for doctors to destroying distinguish between the bacterial and viral infection?</p><p><strong>Eran Eden: </strong>Because bacterial and viral infections are clinically indistinguishable and you don't have to be an M.D. to to understand this. Intuitively, we know our kids so well. But still, you know, when they have a fever or runny nose, you know, we know that it's 80 percent, 85 percent a viral infection. But what if? What if there's a lingering bacterial infection? And it just it turns out that because of the clinical manifestation is very similar. It's really hard to figure it out. Not only children, also adults with suspected LRTI or a fever without sores, and even when we apply modern, I would say diagnostics, there's still a big gap that remains. So for example, when as a scientific community or a clinical community, when we approach this problem, we have tools at our disposal. A rapid strep test. A rapid influenza tests. Multiplex PCR. In today's world, I think everybody, even my grandmother is talking to me about the difference between rapid antigen tests suddenly becomes a really interesting topic over, you know, weekend dinners, culture. So there's technologies out there. And going back to your question, why is it still, why is there still a gap? And we've identified several things. The first one is probably the most trouble is time to results. Many of the clinical encounters, you want to have the solution here and now where whereas that technology that we have often provide solutions in hours and even days, and that's not always good.</p><p><strong>Eran Eden: </strong>That's one hurdle. Not the biggest one. The second one is that many times the infection site is inaccessible. Take, for example, otitis media, an ear infection or sinusitis or bronchitis or pneumonia. It's really hard to reach the infection side and therefore identify the pathogen. It's one in four patients in the most prevalent disease on Earth. That's really hard. Third, even if you use the best, most broad technology diagnostics to try to identify the bug, say a multiplex PCR. In more than 50 percent, five, zero percent of the cases, you're not be able to put your hands on any microorganism, but you still, as a clinician, have to make a decision. And lastly, there's the issue of colonization. So even if you're lucky, the infection that is readily accessible and you do get some sort of a virus, for example, that you detect, say, for example, an influenza or or let's take a rhinovirus, the rhinovirus is very prevalent in children. That's a problem. It's very prevalent in children. Even if you take seemingly healthy children in a very high percentage of those children, they're going to have a rhinovirus. So mere detection does not apply causality. All this complexity is sunk into this few minutes that the clinician basically needs to make a decision, and it's a really hard dilemma because it's hard to know to distinguish between the two and the ramifications could be quite significant.</p><p><strong>Harry Glorikian: </strong>So I know the answer to the question, but I'm going to ask it so you can explain it is: So who cares? I mean, I know that it's ineffective to treat a viral infection with antibiotics and that only you know, that only work against a bacteria, but you know. We've been doing a trial and error, so what's the downside of doing that?</p><p><strong>Eran Eden: </strong>So it's actually a pretty deep, it's a very deep question because there are several layers. You're right, this sometimes people actually say there's several layers to answering because the first one is, well, if you treat erroneously, with antibiotics, antibiotics, because of this uncertainty, there's a lot of antibiotics overuse that one of the consequences of this it drives anti microbial resistance, which basically means that the drugs don't work anymore. And if we continue on that path, we will potentially lose modern medicine because if you lose the potency of antibiotics, you cannot treat infants when they have an infection. Or an oncology patient that would succumb to a parasitic infection, or even yet have your wisdom tooth pulled out, because antibiotics won't be effective. And there's several quite influential studies that came out in the last few years. The last one actually in The Lancet came out two weeks ago portraying a world without antibiotics, which is, you know, we're seeing right now the consequences of COVID SARS-CoV2. Some might argue it's not a smaller problem. So that's and it has both clinical and health economic consequences. According to Jim O'Neill, over $100 billion by 2050 in lost GDP.</p><p><strong>Eran Eden: </strong>And. And it's a big number, right? It's a really, really big number. And maybe, maybe it's overly inflated and maybe it's conservative, but it's a big problem. The issue is that nobody cares. Sometimes the individual doesn't care because the doctor, right now, when he has a patient in front of him, he doesn't think about the masses. He thinks about the patient. So you might ask, well, what the doctor care. Why does the patient care? And it turns out that there is an angle on the personal level as well, not only the societal level. If you give erroneous antibiotics, you can drive anaphylactic responses. You can drive allergies, which have a toll. But then there's another element that people are less aware of. In addition to overuse, there's also simultaneously underuse. One in five patients that have a bacterial infection are not receiving antibiotics in time. There's much less publication on that. But it is a reality. And that also has consequences, including prolonged disease, duration and sometimes even morbidity and mortality. So it's a really delicate equation, right? You don't treat. And you don't want to get ... some countries overtreat, some undertreat. And again, at the end of the day, the day to day, it does have ramifications both from the patient and on the doctor.</p><p><strong>Harry Glorikian: </strong>You know, if we could accurately treat people right, I think there would be a whole host of issues that could get solved and a whole host of issues that wouldn't emerge because of overtreatment or treating the wrong people that you know, we could spend hours over a beer discussing the microbiome and allergies and all sorts of other consequences of doing this. </p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> So your system, which is, I love, is a basic blood test, right? So the MeMed BV looks at three immune system proteins in the blood: TRAIL, IP 10 and CRP. So how are these proteins related to infection and how can measuring their levels tell you about the nature of the infection?</p><p><strong>Eran Eden: </strong>Ok, so. Each one of those proteins that you just mentioned plays a critical role in the immune response to different invaders, bacteria and viruses. What's special about this particular trio, is that they work really well as a team. Maybe if you take a step backward to identify them, we had to run for about four years what is arguably the largest prospective proteomic study ever to be conducted of the human response to acute infections. And start with a host of multiple tens of thousand proteins bioinfomatically and then down-select this eventually to three. And these three, while none of them is perfect in itself, they cover one another's blind spots. So let's go one level deeper. When we went on this, one of the things where we were surprised to find out that is a clinical community, we've been obsessed with the bacterial side of the equation. Every biomarker that you have in 21st century medicine, 20th and 21st century medicine, has been mostly predominantly upregulated in bacterial infection. Procalcitonin: bacterial infections, CRP: bacterial infections, white blood count: bacterial infections, absolute neutrophil count, which we use as part of routine day to day care: bacterial infections. What about the viral side of the equation? We couldn't find one that was used or cleared by FDA as part of 21st century medicine. The last. The reason the FDA cleared us, we actually just cleared the first viral protein ever to be cleared by FDA. And so we went on this fishing expedition and four years into the process, again, this was 2009-2013. We identified this trio. TRAIL Is a protein that shoots up in your bloodstream when you have a viral infection, whether it's a common influenza A, influenza B, parainfluenza or corona, and it has this very unique property that it goes down when you have a bacterial infection, why nobody really understands the reason. But it really creates a very dramatic full change because of this up and down type of a response. And the story there, there's a lot of interesting stories around TRAIL, but one of the ways mechanisms by which it does that it causes the cells that are infected by viruses to commit apoptosis. Cells suicide. And by that, protect the brethren cells. So that's one of the mechanisms that the body is using.</p><p><strong>Eran Eden: </strong>The second one is called IP 10, which is an interferon. This protein basically shoots up in your bloodstream if you have a general infection, and more so if you have a viral infection. It recently got a lot of headlines in the context of SARS-CoV-2 and hyperactivity of the immune response. It's also associated with lung injury, but a really interesting biomarker that plays a critical role there in clearance of infections. The third one is called C-reactive protein, that's been around for about 40 years. Goes up in bacterial. And the nice thing about them? They work as a team. So as I said, they're not perfect. So take, for example, CRP. It's reasonably OK after 48 hours. But because it takes it to about 48 hours to reach maximum level, but in the early phases, you have a blind spot. Whereas TRAIL, at time of symptom onset, it's already differentiated, so they cover one another. By the way, we didn't identify this. The computer identified that. This is a lot of insights that we had in hindsight when we were looking.</p><p><strong>Harry Glorikian: </strong>Yeah, that was going to be my next question, which is. You know, the the heart of the show is always like, you know, artificial intelligence and its whole basket of tools and biology. So how does machine learning come into this process? Is there some corpus of training data that shows that certain levels of these three proteins correlate? Or can you tell us, you know, how you developed that part of the system?</p><p><strong>Eran Eden: </strong>Absolutely. And I think again, I was teaching a machine learning at the Weizmann Institute over a decade ago before it was a sexy topic. You know, people are using the term machine learning and data science so often so frequent. I think what's important to say is that machine learning is part of the component technology, but there's hardcore immunology and molecular biology. So it's not just one technology that we're, you know, it's a it's a very high entry barrier because of that and adds to the complexity. So that's one thing, just to put machine learning in context. Where machine learning plays an important role here is two places: in the development and in the final product. In the development, there's a process of how do you find the optimal team of biomarkers that would give you the the best performance? And over there, there's a lot of activities around using publicly available data sets and and proprietary data sets and data analysis and statistical analysis and feature selection and find the right models, et cetera, et cetera, coming up with what is the right model. Some of these are more conventional tests. Some of these are more cutting edge tests in the final product. It basically uses what's called a supervised learning approach, which basically means the following. Imagine every problem in here, I'm going to be a little bit technical here. Imagine you have, let's say one feature. Say a viral biomarker. TRAIL. High levels, viruses, low levels, bacteria. You find some sort of cutoff that separates between the two. It was the most informative biomarker that we found.</p><p><strong>Eran Eden: </strong>Is it good? It's reasonably good, but there's no perfect biomarkers out there. We don't have them, nor do we believe they exist. Nor do we believe in unicorns, even though my daughter is trying to continually persuade me that there is one. Then you add another biomarker to that. Imagine that you have right now a two dimensional grid. And now suddenly, every patient is met this two dimensional coordinates and you have a cloud of bacterial and the cloud of viruses. And you find a line that separates the two. And then a third dimension and a fourth and so forth and so on. And eventually, the problem becomes how can I find this type of plane or hyper surface that separates between the cloud of bacteria and the cloud of viruses? This is the essence of the machine learning and the way you go about this. You train give it a lot of patients, a lot of data, and then you train the system. And the more data you have, the smarter it becomes. The same principle applies for doing diagnostics in oncology, span detection, computer vision and what have you. It's the same underlying, often similar underlying principles to try to solve many of these problems. So hopefully I was able to to simplify and somewhat exaggerate how this is actually working and where the AI plays here.</p><p><strong>Harry Glorikian: </strong>So what's that accuracy rate of the diagnosis from your system? And is there are certain things, let's say it's good at in certain things, it's maybe not so good at?</p><p><strong>Harry Glorikian: </strong>Yeah, absolutely. So so if you look at the overarching population, if you look at our pivotal FDA study, the AUC, the area under the operating curve, the entire population was 0.9 to 0.97 across different cohorts, which is considered very high. So that's the short answer. The more we see deeper level, it's there's obviously nuances across different populations. One of the things you have to show is what happens in children versus adults. Upper respiratory tract infections, lower respiratory tract infections, et cetera, et cetera. So we've shown a relatively consistent and robust response. That's how the system was developed. But there are, for example, certain viruses that we know that we perform less accurate. For example, adenoviruses. Adenoviruses are notoriously hard to to treat well. By the way, they're one of the most prevalent, for example, viruses in children, why? Because the immune response looks like a bacterial infection. For many, many reasons. So white blood count is going to be elevated. Procalcitonin is going to be elevated, CRP is going to be elevated and we're often going to overtreat with antibiotics. So if you look at our performance in that particular sub-cohort, our performance drops somewhat from, you know, a 0.90-something to maybe 0.89, but that's actually one of the viruses that we see the most added value because compared to standard of care, it's many times close to flipping a coin.</p><p><strong>Eran Eden: </strong>So even though our performance is eroded in this particular virus. The standard of care in this particular situation is particularly challenged, and it's almost 0.5, 06. so that's one example. There's multiple examples. We can study the immune response to pathogens again for almost a decade now. This is just one interesting anecdote. And I think just connecting this to the who cares question that you had. So here's an interesting case that we had a few weeks ago. A child, young, three years old, coming to a major medical center, not really sure if it's a bacterial or viral. Ran a PCR, came positive for adenoviruses and it looked a little bit bacterial. But yeah, OK. Adenovirus explains everything. Released home. Got a 99 score. 99 probability of bacterial infection. So they start to do additional follow up and then it eventually turned out to be a bacterial axis in the spinal cord of that particular child. It had to be mechanically removed. This is a very dramatic case. This is one of those potentially underused cases that could be very dramatic. This is very rare. It doesn't happen often. But again, it's hard. It's really, really tricky to distinguish between infections and we added this right now, this is how everything maps together to the adenoviruses and and to why we think this could be helpful.</p><p><strong>Harry Glorikian: </strong>So, you know, like I said earlier in the show, you know, you got FDA approval and granted 510K clearance back in September, which congratulations, that's a huge step. But you know, for everybody listening, what Gates does, does that open for you. What's the pathway to getting the device out into the market?</p><p><strong>Eran Eden: </strong>So as you said, first of all, you have to get the clearance, which I think took us almost five years working with FDA. FDA, by the way, we've worked with them extremely collaboratively and they've been instrumental in helping us form and shape, what's the methodology to actually prove something. We didn't talk about this? But how do you prove that absence or presence of bacterial viral infection in the absence of a true gold standard? So let's put that thing aside. We were able to work with FDA and come up with a methodology to do that. So now, what is required to take it to the next step? There's several things. The first one you need, and we didn't talk about this, you need a way to measure those biomarkers. You need a platform. Right, one of the challenges that we had is that in the early days, none of the big strategic players, the Roches, the Abbotts, the DiaSorins of the world were willing to bet on this because the risk were so high, as you alluded to in the beginning, the graveyard. And nobody got FDA clearance, so they basically they wouldn't. They were not willing to bet on us today. Some of them become partners and we're working with them. So it's, you know, there's been great development. But at that time, it was really hard. The platform is also challenged because some of the proteins are picograms, some are nanogram and some are micro per mil, which poses again the challenge from a technological perspective. Again, not going too much into the technology side, but we've been able to come up with a technology or a platform that can actually measure multiple proteins across almost a six to nine order of magnitude range. And so you have to have a platform and can do that in about 15 minutes right now, serum working in whole blood.</p><p><strong>Eran Eden: </strong>The second thing you need, you need obviously manufacturing capability, which is again, a different story, you have to manufacture the cartridge. The third thing you need is building the clinical evidence beyond, I mean, FDA's great, but you have to create what's called a clinical utility, real world evidence, what have you, working with peers. Work with partners or with clinicians working the societies. Publishing. Building a commercial team which we're right now established commercial team in the U.S. So there's multiple things. And probably last but not least, this is too big of a challenge to go at it by yourself. You need to have partners. Whether it's governments, the U.S. Department of Defense, the European Commission have funded this heavily and have been amazing partners, whether it's strategic partners, you can take it by yourself versus vs not one market. It's markets. You have patients in the wards and the EDs and the urgent care physicians' offices, retail clinics. No single player has enough of a presence in one platform that covers it all. So again, we've announced about a year ago, you know, the first partnership with DiasSorin, which has today almost a thousand installed installed across Europe and the US in these large automated immunoassay machines. And that's covering certain parts of the market that are overlapping or, sorry, that are complementary where we're going at. So that's a little bit of what needs to be done. But again, it's changing the boundaries of what what we've been doing so far, and that's always a it's always a challenge, but also an opportunity.</p><p><strong>Harry Glorikian: </strong>So you guys raised I believe it was $93 million, if I remember the number correctly, in new funding, which sort of really adds to the firepower of being able to take that next step, but. You know, can you can you envision a future where we get a solid diagnosis and an appropriate treatment plan, you know, quickly while you're in the doctor's office?</p><p><strong>Eran Eden: </strong>Oh, yeah.</p><p><strong>Harry Glorikian: </strong>That was the shortest answer you've given yet.</p><p><strong>Eran Eden: </strong>I think you can be much more radical. I think there's several things that are happening. There's two major discontinuities. There's a technological discontinuity. There's a regulatory discontinuity. And I'll actually add another one, which is there's a psychological discontinuity. The technology that we can do today that we have today, the tip of our fingers can do can provide so much valuable information that can help make better decisions. The regulatory framework has changed because of COVID, it's basically shattered a lot of things. And from a psychological perspective, I think there's a push to polarization, right? Both decentralization and centralization at the same time. And so I definitely see that happening. I think we can take this several step further. How can we take it from physician's office, also retail clinics and even further? And that will take time, obviously, because we're dealing here with some pretty, pretty deep questions. But I think the world across multiple fields and this is not different than anything else. I think it's definitely going in that direction.</p><p><strong>Harry Glorikian: </strong>Yeah, no, I mean, I was going to, you know, looking at what you've created and, you know, obviously first getting everybody on board, but then seeing how it can be deployed at a CVS or something like that, it could drum, you know, you could have a dramatic impact on how we manage patients. The whole antibiotic dynamic and maybe even relieving stress on the system so that, you know, it doesn't get overwhelmed by what your system may be able to sort of help get to a much faster, much more accurate answer too.</p><p><strong>Eran Eden: </strong>I wanted to say relieving stress from stressed mothers and fathers. But yeah, I agree with you also, relief. And by the way, as you start going from more centralized to decentralized, there's obviously additional workflow challenges. How do you make this simpler? There's regulatory bars that you have to meet. How do you go from a mod complex to a clear waived test that can actually go to those directions so that there's we still have we have work, there's work, work to be done. But I think we've been able to potentially break a glass ceiling in terms of getting the clearance. And now I think with that, there's going to be additional innovation that will come in both by us and others who are entering the space.</p><p><strong>Harry Glorikian: </strong>So. Just slightly moving to one side is like, how has MeMed responded to say, COVID-19? I think you guys have developed a test that runs on your platform and predicts how severe the infection will be. How does that test work? Did your previous work, you know, and also did your previous work like on the platform prep you for this virus? Just curious how it works and how you got there?</p><p><strong>Eran Eden: </strong>Absolutely so. So it always starts with the clinical question. I mean, many of us are technophiles, but at the end of the day it's about solving a real problem. And the problem here is the following. You have see SARS-CoV-2 positive patient presenting to the ED. And one of the questions that we have in mind is whether that patient is going to deteriorate or not. Do we escalate treatment or not? And it's a real question, right? And the more you know, the more stress the system is feeling because, you know, because of the the peak of a pandemic, the more important that is. So we said, Well, how can we harness the technology? Is the framework that we created host response in general, right? The biomarkers we've developed, the platform that we have, the Biobank and what have you. And so and how can we take a process that maybe took 10 years and now collapsed into something maybe that's 10 months? How do you get a 10 X? And and first of all, with amazing partners around the globe, you start running huge clinical studies to basically collect patient samples. We also use again information from the public domains, our own repositories, our own previous data because from many perspectives. Sars-cov-2 is very interesting, but guess what? Similar to SARS and to other types of severe viruses, there's differences, but also commonalities.</p><p><strong>Eran Eden: </strong>So we use a lot of the bioinformatics, the previous data samples. Current data samples. The know how and the platform that's readily available right now. They can measure basically anything to collapse this and develop. This is probably just got clearance in Europe that basically allows to take a snapshot, the main response again in real time. Give you a risk stratification regarding the probability of a patient to experience severe outcome defined as ICU level of care and mortality within two weeks. Again, it's only clear right now in Europe, not cleared in the U.S. and we view this also as a stepping stone going beyond just COVID severity to a general severity signature. So what you do, both B versus V and severity, what if you could do it in the same cartridge or what have you? So I think what's what's really interesting, we build here this core technology. We went after one big problem, B versus V, but now that you have that, you're like a child in a candy store. There's many more things that you can do. And rather than taking you a decade, you can start to collapsing things because there's a lot of there's a lot of. Resources that you can now leverage or platform that you can leverage, so that's a story around MeMed and COVID severity.</p><p><strong>Harry Glorikian: </strong>Yeah, platforms are wonderful in that way, right, that I like a platform more than I like, like a, you know, sharpshooter bullet, from an investment perspective. Thinking about it that way. But so. You recently got COVID. We were supposed to talk like over a week ago, and I, you know, we had to postpone it. Did you use the test on yourself? I mean, if you did, like did it work the way you thought it was going to?</p><p><strong>Eran Eden: </strong>Yeah, so so yeah, I got my I got it from my daughter. We went on a trip and five out of five family members got infected. So yes, it was at least from our small experiment. It was very infectious. We got the Omicron. Actually we didn't have symptoms, apart from the fact that I think it just jacked up the energy level of my kids. So before we talk about running around the house and thank God, you know, my wife didn't didn't kill any one of them. So there's no casualties from this, from this infection. So because we didn't have symptoms, we didn't go to the ED. It was not relevant. You have to have SARS-CoV-2 symptoms. So in that case, no, no, no need. I mean, we were pretty much hunky dory. But what I can tell you is that on the B versus V. Again, it's potentially bacterial and viral infections are potentially the most prevalent indication in children. And my children, those little incubators of bacteria and viruses, are no exception. So I had a chance to use the technology on my kids many, many times, including last time was about a month and a half ago, and my eldest daughter, who is four, before going to a business trip. And my wife is asking, is it a bacterial infection? I said, I don't know. She spits on me. The shoemaker is going barefoot. So we ran it. It was a viral infection. No antibiotics. Went back to school. So and I got a lot of brownie points with my wife and my mother in law, which is obviously always very, very strategic.</p><p><strong>Harry Glorikian: </strong>That's that's a good one. That's always helpful. Exactly.</p><p><strong>Eran Eden: </strong>So we're actually using this quite often in our families as well. And it's very very gratifying.</p><p><strong>Harry Glorikian: </strong>Interesting. Excellent. So now you guys are, you know, I believe you have an office in Haifa, which I remember as being beautiful and hilly and wonderful food, and then you have Boston. You know. What are the strengths of being in these two locations. What happens in Boston that can't happen in Haifa and vice versa?</p><p><strong>Eran Eden: </strong>Well, again, we're going after a global problem and you have to have a global team to have a global perspective. Whatever you have in San Francisco today, you have tomorrow in Shanghai and the day after that in Tel Aviv. So you have to look at this from a global perspective, number one. Number two, since the US is the primary market, as I said, we have to build a very significant presence in the U.S.. Why specifically Boston? Very talented pool of, a pool of talent that's very wide in the domain. There's a big overlap in terms of hours between Boston and Tel Aviv, so you can grow one unified team. And that's basically, that's where we're basically building our U.S. headquarter. And the team is quite complementary. Again, we've we've recruited by now roughly 25 to 30 folks, folks with a very strong background, both IBD, Troy Battelle, formerly Thermo Fisher, who's buying commercial for microbiology in the Americas. Fred, who is running Corp Dev, from bioMérieux. Again, another large multinational, Jim Kathrein was former head of sales for BioFire. Again, not sure if your audience is familiar with but and so forth and so on.</p><p><strong>Eran Eden: </strong>And Will Harris was running our marketing global marketing, is ex-Amazon and then before that, 15 years in IBD. So it's really bring here a blend of, we call this affectionately an anti disciplinary team. We don't care about disciplines, we care about solving big, ugly problems. So you have to bring the IBD experts with the clinicians, with the folks and the big data science side or in the molecular immunology and the manufacturing. And nobody knows, single location has all the know how, no single location has the recipe because frankly, we're doing here something new. There is no real tech like this. And so bringing those this pool of talent, I think has really helped us, propels us moving forward. And it is the bridge to be able to to launch in the U.S., a U.S. very focused, commercially marketing product where a lot of the I would say more of the molecular immunology data science team is more in Israel. I'm simplifying and exaggerating. That's some of the team.</p><p><strong>Harry Glorikian: </strong>So the last funding round, was that the argument to the investors, like we need to hire these types of people to help blow this out? What was what was the rationale for that last round?</p><p><strong>Eran Eden: </strong>So, so basically three things. Number one, commercialization. U.S. Europe, Israel. That's our initial focus and then the rest of the world. Second is product pipeline, so we talked about bacterial versus viral infection and a bit about COVID severity. But what would you do if you had a blank canvas and these platforms to go after the new response to measure the immune response? What additional big problems would you go after? So it turns out that there's some pretty interesting stuff in. We're working on additional activities. So that's the second thing product pipeline. And the third thing is a scaling manufacturing. So as I think people have a new appreciation for manufacturing and supply chain during COVID times, it's a really big topic and critical for success. So this these are the three major elements that we raise the funds for.</p><p><strong>Harry Glorikian: </strong>No sounds I've I've been I've seen this rodeo a few times, so yes, I understand completely. So, well, you know, especially because I come from the diagnostic world and I can't wish you enough success because we need more products like this out on the market to help us manage patients and help give physicians better information so that they can make better decisions, right? More informed decisions than just, you know, looking at a patient and trying to figure out what's going on. So I wish you incredible success and I'm, you know, great. Great to have you on the show.</p><p><strong>Eran Eden: </strong>Thank you so much for for the kind invitation. Enjoyed our discussion.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>Is Your Kid&apos;s Infection Bacterial or Viral? Eran Eden&apos;s MeMed Can Tell</itunes:title>
      <itunes:author>Harry Glorikian, Eran Eden</itunes:author>
      <itunes:duration>00:51:04</itunes:duration>
      <itunes:summary>If you’re a parent, you’ve probably had this experience many times: Your young child has a high fever, and maybe a sore throat, but you don’t know exactly what’s wrong. Is it a bacterial infection, in which case an antibiotic might help? Or is it a viral infection, in which case, you just have to wait it out? The symptoms of bacterial and viral infections are often the same, and most of the time, even a doctor can’t tell the difference. Viral infections are more common, but sometimes, the doctor will prescribe an antibiotic anyway, if only to help the parents feel like they’re doing something to help. But what if doctors didn’t have to guess anymore? What if there were a fast, easy blood test that a doctor could run in their own office to look for biomarkers that discriminate between bacterial and viral infections? Well, that’s the seemingly simple problem that a company called MeMed has been working on solving for 13 years now. Recently MeMed’s first testing product got approval from the FDA, and now the company is finally beginning to roll out it out commercially in the US. And here today to tell us more about how it got built, how artificial intelligence fits into this picture, and how rapid diagnosis could change the practice of medicine, is MeMed’s co-founder and CEO, Eran Eden.</itunes:summary>
      <itunes:subtitle>If you’re a parent, you’ve probably had this experience many times: Your young child has a high fever, and maybe a sore throat, but you don’t know exactly what’s wrong. Is it a bacterial infection, in which case an antibiotic might help? Or is it a viral infection, in which case, you just have to wait it out? The symptoms of bacterial and viral infections are often the same, and most of the time, even a doctor can’t tell the difference. Viral infections are more common, but sometimes, the doctor will prescribe an antibiotic anyway, if only to help the parents feel like they’re doing something to help. But what if doctors didn’t have to guess anymore? What if there were a fast, easy blood test that a doctor could run in their own office to look for biomarkers that discriminate between bacterial and viral infections? Well, that’s the seemingly simple problem that a company called MeMed has been working on solving for 13 years now. Recently MeMed’s first testing product got approval from the FDA, and now the company is finally beginning to roll out it out commercially in the US. And here today to tell us more about how it got built, how artificial intelligence fits into this picture, and how rapid diagnosis could change the practice of medicine, is MeMed’s co-founder and CEO, Eran Eden.</itunes:subtitle>
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      <title>Netflix Docu-series Star Jacob Glanville Returns To Talk About How The Pandemic Ends—and His New Company</title>
      <description><![CDATA[<p>In March of 2020, as SARS-CoV-2 was first sweeping the globe, Jacob Glanville joined Harry on the podcast to talk about the pandemic and how the kinds of antibody therapies being studied by his company Distributed Bio might help.  At the end of 2020, Charles River Laboratories bought Distributed Bio on the strength of its computational immunology platform—which automates the discovery of antibody therapeutics. But Charles River let Glanville spin off the research programs he'd been pursuing, which included neutralizing antibodies to treat influenza and coronaviruses. And now those programs have been rolled up into Centivax, a South San Francisco-based biotech startup where Glanville is once again CEO.  Glanville returns to the show this week to talk about what's gone right—and wrong—in the biopharma business during the coronavirus crisis, how the pandemic's end might play out, and why he sees such promise for antibody therapies against coronaviruses, drug-resistant bacteria, and even snake bites.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare and life sciences. </p><p>Almost two years ago, in the very first weeks of the coronavirus pandemic, we had a guest on the show named Jacob Glanville.</p><p>He had built a company called Distributed Bio around a new computational immunology platform that was designed search for new antibody therapies against a range of infectious diseases, potentially including coronaviruses.</p><p>We had a frank discussion about how quickly the biotech and pharma industries would be able to move to help stop the pandemic, and how antibody therapies might fit in.</p><p>And that conversation went on to become one of our most-listened-to episodes ever.</p><p>I wanted to have Jake back on the show, for a couple of reasons.</p><p>Obviously, we’ve been through a lot over the last two years, and I wanted to hear where Jake’s head is at today about whether and when we’ll get to the point where COVID-19 is under control and we can settle into some kind of new normal. </p><p>But in the meantime, there were some big changes in Jake’s world. </p><p>He sold Distributed Bio to a giant biopharma services company called Charles River Laboratories. </p><p>As you’ll hear in our conversation, Charles River was mainly interested in the computational immunology platform, and they were happy to let Jake hold on to the therapeutics programs he was pursuing.</p><p>Those included a potential universal vaccine against influenza, or the flu, and coronavirus, as well as a vaccine for HIV. They’re even doing some fascinating work on antivenoms to treat snake bites.</p><p>All that science got repackaged into a biotech startup in South San Francisco called Centivax where Jake is once again the CEO. </p><p>A couple of his former Distributed Bio colleagues came along as chief science officer and chief operating officer.</p><p>So I invited him back to hear about progress at Centivax, and also get his thoughts about where the pandemic is headed.</p><p>So here’s my full conversation with Jake Glanville.</p><p><strong>Harry Glorikian: </strong>Hey, Jake, welcome back to the show, it's great to have you again. It's only been two years in the world has completely changed from what it was two years ago. Good to have you back.</p><p><strong>Jacob Glanville: </strong>Hey, thanks for having me on again. It's great to see you.</p><p><strong>Harry Glorikian: </strong>So. Before we talk about your companies, your research, you know, I think people would love to hear your high level thoughts of where we are now in this coronavirus pandemic. I think the last time we had you on the show was March of 2020. It was literally just the first wave was hitting. Now it's almost two years later. What has gone better than you expected in the science and political and public health? And what do you think is gone worse?</p><p><strong>Jacob Glanville: </strong>Sure. Yeah. So, yeah, wow. What a wild ride the last two years have been. So there's some things that have gone definitely better than I expected. There's definitely been some things that have gone worse and. We're we're much better off than we were two years ago, but I think also it's important not to get unrealistic and thinking this is just going to go away. So the the areas where if I look back that we did really well, we got a bit lucky that these new vaccine technologies were very effective. That wasn't necessarily the case. There are some viruses and other pathogens that vaccines just don't work that well for. And it turns out they work pretty well for the coronavirus and that's helped. And they they developed them in record time and produced a lot. And that has reduced the number of deaths and significant illnesses and protects from long COVID. We're starting to see as well, and that's really good news. I think that's been impressive.</p><p><strong>Jacob Glanville: </strong>The areas where I've been underwhelmed, I think there wasn't enough attention paid to to therapies and treatments. We are fortunate now that there's this very nice looking, there's some good antibodies that came out. Most of them got washed away by the Omicron variant. The Vir antibody still looks pretty effective so far, but larger than that, the Pfizer Paxlovid therapy. This is a pill that doesn't require binding to the outside of the virus mutates a lot. It interferes with the virus's ability to chop up and make copies of itself inside of a cell. And that's that's going to be a game changer. I think people aren't fully realizing how much of a game changer that is, and that's good. But I think we could have had more of these kinds of treatments if there was attention on the reality that we're going to need treatments and not just vaccines. The other areas where I wish there had been more effort done and we still need more effort are in the manufacture of enough vaccines. So right now, we don't have the ability as global ability to make enough vaccine before the virus changes a lot. Right now, the current vaccines are giving you, they're the original virus. This thing's already gone through multiple generations of new alpha, beta, gamma, delta, epsilon variants of concern. And so we're kind of living in that flu-like world of the vaccine, always being pretty outdated to the circulating variant.</p><p><strong>Jacob Glanville: </strong>And like right now, there actually is no way to produce enough vaccine in time to vaccinate the world before the thing changes. So we're never going to have enough. The Third World had to wait in line and not get as enough vaccine. So Guatemala, where I grew up, they have only really 30 percent of the population have been vaccinated so far. Another 10 percent has had one shot. So they're not even going to have a reasonable vaccination level of like the vaccine, the virus from two years ago before new generations of vaccine come out. And those are going to go to the First World first again. So right, that's something that needs to get solved. I think there's also just in general, I was underwhelmed by how the world cooperated to address this, and I think this speaks to the need of a pandemic treaty.</p><p><strong>Jacob Glanville: </strong>I think and I'm glad to hear that there's a discussions around this, but really, realistically, it's a major global collective goods problem. This is a virus which is not going to go away. It's going to get more manageable and there's going to be new pandemics coming in the future. We need a global pandemic treaty to make it so that we can better coordinate responses, surveillance and just a global reaction in a coordinated fashion. Part of the problem with this is that every country had different policies and the sort of like "deal with it your own way" policies caused a lot of problems with the realistic need that if you want to stop a big virus like this, you need every nation to act like well-marshalled troops to coordinate their response efforts. And that hasn't been fixed. And it really it should be fixed because that won't just help us with this virus and help us with all the other pathogens we're currently dealing with and the new ones that are going to be coming out of the woods as we march into the future.</p><p><strong>Jacob Glanville: </strong>Part of that would also be like with Omicron. It came out of South Africa, or they detected it first. It could have come from a nation that wasn't doing surveillance, and then South Africa was like, "Hey, what's up, guys? Like, we are the ones who actually warned everyone about this, and then you guys just blocked all of our travel and isolated us." Like, that's going to actually encourage nations, I could imagine many nations being, like, "You know what, let's not test because we can't afford to have people block us." That's crazy. And that's esily addressed with, like, you know, in the U.S., we have a shared fund of federal funds to be able to enable disaster relief. So if any state gets particularly hit, the other forty eight lift them up and a similar system should be in place to provide disaster relief funds because a site which is heavily impacted, to get relief funds to say, "Look, we're going to quarantine you guys, you guys need to do all this extra stuff, but here's a bunch of money to do it because you're protecting all of us, so the problem doesn't reach us. So, handle it well and don't be afraid to report." </p><p><strong>Jacob Glanville: </strong>And so those are areas where I'm not so impressed, I guess, just to wrap up because there was a bunch of stuff we want to talk about. I think the testing has gotten really good. So they have these awesome little kits. Put it in your nose. My kid can go back to school the next day. And I think that's that's been a major advance. And I like that technology because it's useful not just against the coronavirus, but there's actually a lot of areas of infectious disease that have benefited from the last two years of dedicated research into these areas that'll make hopefully for our kids and our kids' kids an easier world to navigate with less pathogens.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I've been I've been talking about distributed diagnostics for, I feel like 15 years and it took the coronavirus to sort of help move the ball forward in an interesting way. So I hope it doesn't die. I hope it continues to be.... But do you see an identifiable end to the pandemic or do you just simply, you know, settle gradually from an emergency to something more of a normal, it's becoming endemic in the society, and public health just sort of manages it like we do the flu.</p><p><strong>Jacob Glanville: </strong>Yeah. So here's the way to think about it. The bad news and the good news. The bad news is, yeah, it's definitely not going away. And like, really, we all knew this six months into it. The thing is so infectious, you saw how quickly it went from first off out of Wuhan to the world. Then you saw Delta, how quickly that got out of India to the world. And then with Omicron, you saw within a couple of weeks of South Africa reporting it, it was everywhere. It's so infectious that it's hard to reach a sufficient, even if you had a vaccine that would provide sterilizing immunity, you probably have to get 95 percent of people to take it to protect it. Above 80 is good, but you'd really have to be above 95 and you'd have to have better surveillance networks. It's not inconceivable to stop the virus. China has actually done pretty astonishingly good job, but they had to apply super draconian measures. And everywhere, everyone everywhere would have to apply those to potentially stamp the thing out. And that and realistically, that's not going to happen, and that means that the virus is here to stay.</p><p><strong>Jacob Glanville: </strong>The good news is that it's not going to be like it was over the last two years. We have a lot of vaccines and good ones that are being administered. You also have natural immunity or natural infection induced immunity. People didn't really want to talk about it in the last year and a half because they were worried, if you heard a natural immunity can provide protection, that people would just throw up their hands and be like, "Well, just let me get infected." And that would cause a crisis of hospitals. But the reality is there are some countries like Guatemala just don't have enough vaccine, and there's people who aren't going to get vaccinated. And so as the thing infects everyone, that's going to provide an additional layer of repeat infection that gives rise to some population-level immunity that boosts people who are vaccinated, and that also helps people who weren't vaccinated. It gives them a level of immunity. Although again, this virus, you do not want to get it if you can avoid it.</p><p><strong>Harry Glorikian: </strong>Yeah, I was going to say, I mean, I've seen people that have have even, you know, my friend's son got double vaccinated and ended up with pericarditis, right? So, you know, you don't know how you're going to react to it when if you if you happen to get it. So, you know, my advice to people is like, if you can, if you can avoid it, that's a good place to be.</p><p><strong>Jacob Glanville: </strong>Yeah. And so that's where we're going to move into in the future. You're going to have a population which is increasingly got some established immunity to it. Kids are going to get exposed early. Hopefully, we'll have vaccines for kids, but otherwise they're going to be exposed early and then repeatedly being exposed to it will provide some level of immune protection. And that means that that plus the rapid testing technologies, means that we can move back to a semblance of normal. But with this being an endemic virus now. We've lived with other endemic viruses before, you know, HIV never went away. We still have it. We have tuberculosis, we have multidrug resistant bacteria, we have the flu and we find ways to make the medical crisis manageable through vaccination and treatments so that when you get sick, there's something.</p><p><strong>Jacob Glanville: </strong>That it's not creating a crisis with the hospital centers. That's where we're going to be with the coronavirus. The the hope is that while people said, "Oh well, Omicron looks more mild, great. The virus is evolving to be more mild." You cannot count on that. Viruses do not naturally evolve to get milder. What happened was it shifts randomly. It can get lucky. They just get more transmissible. That's all the virus selects for. It happened to be this one's more mild. If we're lucky, that means the children of this one will tend to be more mild, but it could also go the other way. And so we just need to keep these.... That's what you're going to experience over the next five, 10 years. It's going to be more rapid testing and surveillance, which to your point about this, I think that's what's actually going to keep that alive and expand it is that that's going to be a part of life vaccinations and monitoring and better treatments. And that's the life we're going to live with and kids are going to grow up in this period, it's like, that's what they've always known like. We've grown used to flu like we've grown, used to. HIV is just part of life.</p><p><strong>Harry Glorikian: </strong>Yeah, I'm hoping that this also, though, encourages sort of global sequencing capability so that we can keep an eye out not just for this, but for anything that's on the horizon so that we can react to it, you know, as quickly or even faster than we did for this one.</p><p> </p><p><strong>Jacob Glanville: </strong>They have this really cool tech that I've starting to see. I heard about it before the coronavirus pandemic, but I've started to see it used quite widely. And that is RNA sequencing or viral sequencing of sewage systems. It's a really cool technique where you can test. It's a way of testing like a citywide level, the prevalence, the the abundance of the coronavirus. But but you can use that technology for any pathogen. And so they're setting this up on a city by city basis. You learn early before people are even showing up at hospitals. You could start learning "Oh, this virus is starting to appear in the sewage. Therefore, it's in the city." And that technology, you could start testing for a whole panel of pathogens quickly, and it gives critical early guidance on disaster response or early response measures and contact tracing. So things like that, things like rapid, there are these cool new rapid sequencing technologies that are available. I do see see a very strong place for them early. I mean, that's it was really contact tracing and low tech testing that kept Ebola in Africa. And I think we have abundant tools like that available globally, especially around people in transit and people in local communities. That's that's useful for coronavirus suppression. And like the flu, we have barely had the flu in last two years, and that's partially because of all these measures. I'm actually hoping that with really good testing, really good sequencing and contact tracing measures, that gives us an advantage over all pathogens.</p><p><strong>Harry Glorikian: </strong>Yeah, I just don't want to be the guy having to go get the sample from the sewage just so you know.</p><p><strong>Jacob Glanville: </strong>Fair enough. Yeah.</p><p><strong>Harry Glorikian: </strong>So, so the last time we, you know you were on the show like it was all about Distributed Bio, which used computational tools and discovery and development to for therapeutic antibodies, right? So you were working on a universal vaccine for humans and pigs, and you were hoping you might find a treatment for COVID-19. You sold that company to Charles River in 2021. Bring us up to date. Tell us the story here.</p><p><strong>Jacob Glanville: </strong>Sure. So, yeah, the history of Distributed Bio was that we were taking advantage of advances in computational immunology and high throughput sequencing, various high throughput assays, which are super useful at analyzing the immune system, which is a very complicated system. So getting a lot of data out is good and in particular, using these to use the immune system as a system for generating drugs, so antibody therapeutics to discover them and engineer them. Using these computational methods that enable Distributed Bio to, we ended up servicing 78 different antibody discovery and optimization contracts for 60 companies. We built part of the generation of new drugs that are coming online over the next few years without taking on venture capital. Because we were profitable the whole time from that service and that I used some of those resources to pour into these internal research campaigns for things that I thought were really cool technologies that were would be too awesome to offer as a service contract, but also too risky. I needed to de-risk them. And so when we worked with Charles River, they were very interested in our service platform and our service business. And they I said, Well, look, I have these things that are near and dear to my heart I've been working on. I literally like like shovel pig manure in my own vivarium to go do some testing on this broad spectrum vaccine tech. And they said, Jake, that's great. We would just want the service business. In fact, our policy is we don't want to have any program internal and Charles River that would be a potential, a competitive therapeutic or vaccine program, to any one of our clients. We want to service the world. And so you can spin those out and have them independently.</p><p><strong>Jacob Glanville: </strong>And so that's what happened at the end of, yeah, it was actually the last day of 2020, December 31st, 2020, and we did the announcement a few days later. In January, we separated the service business, which was the Distributed Bio that Charles River acquired. And that's that business is still super active, and they're generating antibodies for companies around the world. And we spun out the therapeutic portfolio of the broad spectrum or universal vaccines and a series of other typically broad spectrum focused medicines like a universal antivenom, broad spectrum anti-infective against a couple of other disease areas that are important, into Centivax. And so that's what Centivax is. We spent the last year, basically, you know, with a new entity, we were working on our broad spectrum vaccine technology, which you're going to be hearing a lot about from us over the next couple of years for obvious reasons. Our main program was flu that I was working on from 2012 on. And we have a broad spectrum, our universal flu shot. Now we're obviously applying our technology now to the coronavirus. And also we're working on HIV.</p><p><strong>Jacob Glanville: </strong>Then we have these other programs, including, as you alluded to, the CoV-2. So we made an antibody that could act as an injectable treatment for SARS-CoV-2. That's gone through manufacturing. We went up to the in the IND process with the FDA. We're on hold right now with that one because of Omicron. So they basically sent out a an announcement saying, Look, everybody who if you're making therapies, if they don't hit Omicron specifically, we are going to pause the clinical development. So we were supposed to go into humans at the beginning of January. But right now we're looking for a partner. We have additional molecules internally or we'd look for a partner that we're going to create a cocktail with because we we do best in class on a whole bunch of other variants. But like most of the other antibodies, we got hit with Omicron, so that's where that one is sitting. It also just frankly reinvigorated our point where like, look, the broad spectrum vaccines are ultimately what needs to happen here because the best antibodies can be hit by a jump. Omicron was a big jump. We saw how rapid this thing was mutating and suddenly jumped like crazy and then it escaped our antibody. And so our vaccine technology is specifically designed to address problems like that. So we're kind of going all in on it right now as we move forward.</p><p><strong>Harry Glorikian: </strong>Yeah, because I was, you know, looking at the website and it's interesting because, you know, the language for Centivax and the language for Distributed Bio, like computational antibody engineering, right? So they they sound very similar. But you know, if I got it correctly, it sounds like the services business is what got shunted off and then the therapeutic business where you're creating products you sort of kept. Did you keep some of the people or how did you, you know...</p><p><strong>Jacob Glanville: </strong>Very few. So we had a couple of people that came over. But part of the acquisition or is it like, OK, you can go take this stuff, but we want you to build largely a new team because because we need an operating business, because they are acquiring it for the business. And if I went and like, did my little Pied Piper whistle and all my people came with me, then they wouldn't have an operating business, which totally makes sense. So and it actually worked out because therapeutics, going into clinic is a fundamentally different type of business than running lots of antibody discovery. So at Distributed Bio, I had a lot of bioengineers and a team of there was a lot of younger scientists because we just need lots of people to run lots of programs. And then there's a hierarchy of more senior leadership. Whereas Centivax is a therapeutics company, it's a vaccine company. And so we have less people. There are 15 employees right now and a portfolio of things that we're focusing on entirely and IP. And my team is much more senior because what I wanted to do is cherry pick my favorite people I worked with for the last 15 years to have a lot of experience of bringing medicines into clinic and driving them to successful conclusion. And so that's largely a different team. Sawsen Youssef, who is my chief science officer at D Bio, she came with so. And we negotiated hard for that. So she's with me at Centivax. Dave Tsao, he joined in the last year at D Bio, but he he joined with the idea he was going to move on to Centivax. So that was expected and otherwise the whole team was generated, we were building up Centivax so that we'd have an independent company. So we pulled them together over the last two years and right at the spin out, we had people ready to just jump in and continue work. And so that's the team we have now.</p><p><strong>Harry Glorikian: </strong>Now, you know, one of the things we talked about, you know, in our last talk was the influenza, you know, vaccine against influenza. Where are you with that? Because I think I remember you saying 2025 was when you thought that you might have something.</p><p><strong>Jacob Glanville: </strong>We might be off by a year, but we got the results back. So we have some pretty astonishing results. We got back on live challenge studies here in the United States. So I think at the time we were talking up up until then, all the studies we'd run on that technology, we're running the vivarium, the animal facility that we produced in Guatemala. So I run that in partnership with the University of San Carlos, I'm an affiliate professor down there, and it gave me the ability to do rapid iteration cycles on live challenges, or not live challenges, but immunizations in live organisms.</p><p><strong>Harry Glorikian: </strong>And I think it was ferrets and pigs.</p><p><strong>Jacob Glanville: </strong>That's right. So the studies up here, ferrets? Yeah, you've got a great memory. So yeah, so what happened was the Gates Foundation. We won this Grand Challenge in the Pandemic Threat Award, and the Gates Foundation gave us money to go</p><p><strong>Speaker2: </strong>Run the studies. They're like, look, we want you to run live challenge studies, which is where you go, spray the pigs and the ferrets in the nose with virus to see if they get sick. It's the ultimate test, and I can never run that in Guatemala because I can never bring virus down there, and my facility wasn't bio contained enough to do it safely. Whereas up here we're working with the University of Georgia has this guy named Ted Ross, like everybody in the vaccine space, knows he's an expert at running these kinds of studies, and so we ran the ferrets with him. And then we have Konstantinos Caracas, who used to work with Ted Ross, and now he's a professor at Auburn University. He does a bunch of these pig challenge models. And so we ran those studies. Those were cooking for last year and then into all most of last year and they're long studies because you're giving vaccinations. And then after that, you're giving exposing the animals to virus and letting them recover and checking to see, you know, the ultimate question, like, did it protect them from getting sick? Did it protect them from producing the virus in the lungs and the trachea and in the nose and stuff? And the data looks absolutely outstanding. So we're preparing a paper on it right now. We're looking now into manufacturing it to go into clinical trials so that we can go develop a broad spectrum vaccine for flu for humans. We're also going into the pig market because it's a $180 million a year market in veterinary space and it's the the same sets of proteins we'd be using. So it's kind of a free additional line of revenue, which in general, I always like to work on a veterinary relevant application of the same therapeutic when you can, because it makes sure that your drug works because like nobody really cares about a mouse, the mouse is very different than a person, whereas like some farmer cares about that pig, so your drug better work. And you make money earlier, it's a great system. Yeah, so we're pushing on that. And then for the same reasons, you know, we've been slow cooking the same technology on HIV for the last year and a half, and it's looking very promising so far. Although it's early. </p><p><strong>Jacob Glanville: </strong>I had not activated it against the coronavirus for the first first year and a half. I didn't because I thought, Eh, this virus is it's got a proofreading mechanism, so it shouldn't mutate that fast. And B, there are these other technologies that were just blazing forward so fast with the RNA tech. I just said, you know, I want to see how they do. There's like 180 companies working on vaccines. Let's see how they do before I go dive in there. They may not need my technology, but then in the last few months, we've seen the rise of Delta and then Omicron and a whole bunch of other super-mutated versions. And that absolutely needs my technology because the current vaccines are having real problems keeping up with the new mutant versions. So we are running the accelerated studies right now using my same vaccine platform on the coronavirus as we move the flu program in first. The coronavirus is actually moves pretty fast because we can benefit from a lot of the legwork we did already in the pigs and ferrets for the flu program and then the the HIV program, the that one, I'm a little more hesitant on when it will be ready. It's a big, first off, it's a big lift. So I want to have really, really good data before I start trotting around being like, "Hey, you remember that HIV problem? Yeah, fixed it." You know, I can't say that yet, so I need to see the data. But also but like technically, as a bioengineer the HIV proteins are tricky. They tend to fall apart. And so we're doing a number of things to try to figure out how do you make a vaccine and actually make it practical to deliver it? And we haven't solved that yet, and I don't have a solved engineering solution. I always like double my timelines until because because you just don't know how annoying that little path is going to be. It could be easily solved or it could be worse than you think. And so that's sort of our our we're going to get it working. It's just going to take some time to make sure I have it nailed on how we deliver the HIV proteins.</p><p><strong>Harry Glorikian: </strong>Yeah. And when you think about HIV, I actually, you know, I think it's becoming, you know, if you look at. The populations where coronavirus is mutating, it's immunocompromised HIV patients, right? So if we could solve one problem, you might. I don't want to say you could kill two birds with one stone, but you might actually solve another, you know, problem that that maybe hadn't been as big of a problem before coronavirus and now is becoming a problem. </p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So, but, when you're working on these things, do you think there's enough government and private sector support for some of the other things or is coronavirus sort of, you know, sucking all the oxygen out of the room?</p><p><strong>Jacob Glanville: </strong>Yeah, so that's a great question. Yeah, I spent a lot of time thinking about this. So the. You know, we have I have these other programs, right, so that I actually I inherited a whole portfolio, I have more stuff than I know what to do with it. Our decision was first off, because we had amazing data on the time, and this is the time where everyone says, Look, we need to, this is ridiculous. We need better, more broad spectrum vaccines and we have the IP that works. We're focusing on that. These other programs, like at least with the vaccines for flu and HIV, there's resources out there. Paradoxically, like we were told by some government agencies, you know, it's actually easier to apply for flu money than COV-2 money because it's so so like tied up and and policied out already or the bets have already been placed. With HIV, we actually have, basically with HIV I'm waiting for the first of these critical animal studies that will tell me when I can start waving the flag and saying, Hey, look, we have something exciting here and I can run those studies internally and they don't cost me that much. So I'm just waiting to make sure I have a pie to bake before I start yelling around and saying I need an oven. For the other programs it's a mix. I think it's definitely the case that, like one of the things we inherited is a cancer program, and four years ago, venture capital groups. I would show them my vaccine technology. They would listen to it. I'm like, Look, hi guys. You know, I want to be humble here, but like this will solve all of those mutating viruses that we've struggled with. How would you like it? We could contemplate a world without some of the pathogens that we've lived with since the beginning of time. And they're like, "Sweet. Can you apply it to cancer?" Because four years ago, all they all wanted cancer drugs that was really hot. Well, the thing flipped. That's the kind of amazing because it's good timing. I've worked on this thing for nine years. I show up and then suddenly I still thought I was going to have to fight this thing uphill. I have a cancer assets that I could use, talking with venture capital groups, and like much to my delight, they're like, "You know what, actually the vaccine thing is what we care about." So finally, it's like, become popular. I feel like a high school kid who like, went through puberty and suddenly I'm popular at the school ball or something. I'm like, "Oh, sweet, you like this now? This is great because this is what I'm really good at."</p><p><strong>Harry Glorikian: </strong>Timing is everything, man. I mean, you know, if you're just off the mark, people don't see it. So, but you know, I think if I was reading correctly, you're also working on a bunch of antibodies against bacteria like Staphylococcus, Pseudomonas. You know, these are all bacteria that that seem to have evolved some resistance to the classic antibiotics. So is is, you know, why is your platform good at targeting these organisms and where are you at with that sort of thing?</p><p><strong>Jacob Glanville: </strong>Sure. So the unifying concept of the company is like, we have this tagline "Smash the mutants." Yeah, the principle is we focus on areas of medicine where mutations are the thing that causes a problem of effective treatment. And so for our vaccines, we have this broad spectrum spectrum vaccine technology. For areas like cancer or bacteria or snake venom, there's also a problem of mutation, and we in many cases, we use broadly neutralizing antibodies to address them. So with the thing you brought up, which is the multidrug resistant bacteria, there, we're doing something that honestly I think other groups should have done eight years ago. But the there are there's this impending wave of doom of a bunch of new multidrug resistant bacteria. It's pretty easy for bacteria like staph and pseudomonas, the kind of nasty things that get in a wound to develop resistance to the antibiotics. Like within a year of creating a new antibiotic he bacteria has got, there's some new variant out there that's resistant to it, and within 10 years, that becomes the dominant variant if that antibiotic is used at hospitals at any frequency, and it's they're able to do this because there's a lot of genetic diversity in the population of the bacteria. They they have a half, every 30 minutes, they're making a new copy of a bacteria in some cases. And every time they do that, there's a chance of a mutant. So there's lots of mutant bacteria out there in the world. And so as soon as you start using an antibiotic, whatever one of those bacteria that's resistant to it is suddenly going to gain a lot of favor. And it's really easy for them to gain antibiotic resistant because all they need to do is have one mutation in one gene to block the one pathway for that one antibiotic. There were efforts to use antibodies as therapies against multidrug resistant bacteria 10 years ago, I was involved in some of them. But at the time, the feeling was that manufacturers would only want to produce one antibody. And the FDA would only want to prove one antibody. So you need to do the job with one antibody, which is super stupid, because, we knew this back then, bacteria are not, they're not one-trick ponies. Staph is an amazing engine of war. It's releasing multiple different toxins. Here's one to go knock out your B cells. Here's one to knock out your T-cells. This one's going to trip up your, your neutrophils. And so forth. And so we try to make one antibody block one of these things, the other, the other toxins would just do their job and mess you up. And so what we're doing is we're going back and saying, OK, first off, let's get some broadly neutralizing antibodies that can hit multiple toxins at the same family. And second, let's get a couple different antibodies to go after those different, those different toxin classes in parallel, and so we're creating a multivalent solution to go after multiple different toxins all at once. That's really how the body defends itself, and that's an effective drug solution. It uses broadly neutralizing antibodies. So we hit these shared sites that are found between the toxin flavors or variants, but it's otherwise it's a practical approach. I think our technology helps us go after those broadly neutralizing sites, and it also enables us to engineer the antibodies so that they don't require an IV bag, which right now with the coronavirus does. Antibody treatments usually required an IV bag, which means you had to go to an IV infusion center, which means they wouldn't give it to you because they didn't really want you going into the hospital with the virus because they had people that honestly were more sick than you already were. What you really want is an injection that could be done at it  Walgreens, or it could be done at home or an outpatient treatment facility. But to do that, you need to engineer your antibody so you can concentrate them like crazy so they can go in a syringe and they need to not be so thick that it's like toothpaste. They have to have low viscosity so you can inject them. And we are really good at engineering antibodies so they can do an ultra high concentration and low viscosity. And that's part of the reason why we have partnerships with the Navy and the Army because of our capacity to do this. And then it's also with the NIH. We're doing it for our antivenom program. Also, you want something that has no temperature control, can be delivered ultra high concentration and can be shipped around the world, which is really the way I think antibodies should be delivered everywhere. But but certainly in these applications is a great place to start.</p><p><strong>Harry Glorikian: </strong>So, yeah, but you know, it's interesting, right? I mean, you're talking about all these incredible hurdles, right? I mean, you know, people say DARPA-hard, right, these these are not easy, right? So isn't there an intermediate step so that we can? Yeah, help a bunch of people along the way.</p><p><strong>Jacob Glanville: </strong>Yeah. Let's see. Well, I mean, that stuff I just described is done. We like we have a cocktail, which is already a staff is our first, our first bug that we're going after that's done with the Naval Medical Research Center. We have a cocktail of antibodies there, concentration engineered and we already completed our concentration engineering technology. We used it actually on our SARS-CoV-2 program. It's the highest concentration antibody ever produced through GMP at 254  mgs per ml. So we've we've got that built. We just we just can apply this to antibodies when we want to now. And so we don't there's not a set of steps before we can get there. This is just how we produce our drugs.</p><p><strong>Jacob Glanville: </strong>Now, the the thing that you know, the thing I worry about, which is fair, is it's like, OK, I actually have more things in the portfolio than than I have time to effectively focus on all of them. So our strategy has been all in on vaccines right now. This is the time for it and we have these programs. Some of them are supported by grants. And so the grant supports some continued development on them. Some of them, we've frozen down Some of them we continue because they're looking super promising and we have grant money like the the universal antivenom. That one is covered by an NIH grant. The Naval Medical Research Center is working with us on the Staph program and we're running live studies with them. Otherwise, our other programs are mostly being paused right now. This is the beginning of a portfolio later, but right now there's so much promise in the vaccine technology. I'm like, I'd rather just nail that like crazy. And then we have as we grow, as I contemplate an IPO, I'm going to have a nice, rich portfolio or I have a business development partnership portfolio I can I can engage other groups with. And that's kind of how I "Focus on focus" and prioritize these things.</p><p><strong>Harry Glorikian: </strong>Yeah, because when you were talking about the the antivenom, I was like, OK, I don't know much about chemistry of snake venom. That one sort of slipped my purview over time, not been at the top of the list. Maybe if I lived in Arizona or something like that, I might take it a little bit more seriously. But Massachusetts, we don't have this problem. How does your how does your computational platform help identify like? Is it the same thing that we were just talking about when it, you know, when we come to the, you know, against the bacteria, is it the same approach?</p><p><strong>Jacob Glanville: </strong>Yeah. So I mean, at heart, everything I'm talking about involves broadly neutralizing antibodies. These are these antibodies that recognize a shared site that either a virus can't mutate because if it mutates that site, the virus doesn't work anymore and we just get an antibody to go bind that site. It's the Achilles heel of the virus, or it's a shared site between different evolved versions of like a bacteria toxin that it can't change that site because that's the site that's necessary for the the toxin to do its job. If we get one antibody against it, it'll block all the toxins of that class. Or again, snake venom. We have a broadly neutralizing antibody that hits like the one shared site on the neurotoxins of all snakes. Then you have a single antibody that could act as a universal basis of getting rid of neurotoxin against all snakes, so therefore universal antivenom. So that's the power of broadly neutralizing antibodies. And then our technology platforms are either vaccines which are engineered to make you produce them. So we give you actually collections of proteins and you produce those broadly neutralizing antibodies or on the antibody side, we make them in the laboratory And then we deliver them to the patient. But that's the that's the central principle.</p><p><strong>Harry Glorikian: </strong>It's interesting. I wouldn't have. Again, not knowing anything about snake venom, I'm like, is there is there a universal site across all venoms?</p><p><strong>Jacob Glanville: </strong>There is? Yeah, it's actually pretty, this is a cool project, so it's a side project that I lov so much. Som there are five hundred and fifty venomous snakes that cause risk of death or or limb loss in humans, and it's more than you think. 100,000 people die every year, and another 300,000 or more get permanently injured. 550 different snakes and each snake is injecting like 10 to 70 different proteins in their venom. So it's a very complex mix, which seems insane. If you look at that, you're like, How are you ever going to make a universal antivenom? But if you look at it, the the snake venom, actually, if you take all those sequences of all the different toxins and you analyze them, they actually collapse down to 10 families of toxins. And of those, there's really only four that really matter. The other six, it's going to hurt. But you know, like, suck it up and walk it off, you'll be OK. If it's a neurotoxin that's going to stop your heart and stop your lungs and cause you to go rigid and die, that one's no bueno. You have a phospholipase that causes a whole bunch of other tissue problems. Serene protease metallo-proteins. These are these are the things that are going to tear you up. That's the reason you're you have to amputate. That's the reason you die.</p><p><strong>Jacob Glanville: </strong>And so because all the animals use the same, all these snakes use those same four toxins. If you can make an antibody against each one of those four, really four antibodies would be a universal antivenom. Which gets to your question. Ok, but are they concerned enough that you could get a single antibody? And the answer is surprisingly is yes. And here's the reason. Ask yourself there's 550 snakes. These things are eating, they're eating birds, they're eating little mice, they're eating fish, you know, whatever. Like all these different animals, they're all very diverse. How is it that they're neurotoxin works on all these very diverse, diverse, different species? And the reason is this it's pretty cool. The neurotoxin binds to the nicotinic acetylcholine receptor. If you line that up the sequences, it is almost invariant all the way out to fish. And this is even a pretty conserved receptor, even more primitive creatures than fish. So this thing has not changed, particularly the sight of the nicotinic interaction since the dawn of time, right? Evolution hasn't changed the site, and that's because the and this is true for many neurotransmitter mediated brain genes, the ones that interact with a molecule that's providing signaling that those neuron networking, that's like the wiring in your house for the internet, it hasn't changed since the beginning. So they haven't been able to evolve it. And the neurotoxin in these snakes all binds that exact same site, which means that neurotoxin works on all species. That also means that the snake venom, even though the snakes have evolved elsewhere, they can't. They can't change that site that interacts with that gene that's never changed or their their their venom. Their drug won't work on all these species, and we've found an antibody that docks directly into that site and therefore it hits all the venoms.</p><p><strong>Jacob Glanville: </strong>And where we got it from was a guy named Tim Friede, who spent 17 years and nine months self immunizing with escalating doses, 700 self injections of snake venom from Cobras, Taipans, Mambas, western diamondback, Mojave Crate. The list can go on, and he has meticulous records. He built up hyper immunity against the snakes to the point that he had received 202 bites from many of these snakes and survived snake bites that would kill a horse. And I reached out to him in 2017 because I geard what he did, and I built a technology that made it easy to go harvest the DNA sequences of the antibodies you're producing. And I wanted to test it on something. And so I found this. I was looking for someone who like I was looking for a clumsy snake researcher who'd maybe been bit three times. And instead, I found I found out about this guy and I was like, I got to test his blood. And so I said, Look, I think you may have done something amazing because you kept changing the snakes over and over again for almost 18 years. I think you selected for these broadly neutralizing antibodies, and I'd like to find them. And we started collaborating. And sure enough, we found the collection of these remarkable antibodies, and we know that he's got them in him because Tim isn't dead and he should be if he doesn't have broadly neutralizing antibodies. And so that he's the real cool. I mean, computational stuff helps us harvest them out and do some analysis. But the real the real magic for that program is Tim Friede.</p><p><strong>Harry Glorikian: </strong>Yeah. "Honey, honey. Don't worry, I'm just it's just a bite. Nothing's going to happen. It's only a king cobra. Like, we'll survive this. It'll be fine." He's the guy you want walking in front of you through the jungle first. So well, that that's interesting. Well, I'm you know, this is why I do this show, right? I learn something every day. So but in the big picture, like, you know, COVID-19 seems to have like really changed the game in this whole space, right? I mean, it's all sorts of attention for therapies and it's bleeding into, like you said, you know, maybe infectious disease, including autoantibodies, I mean. You know, but here's the question is, is it is it getting easier to do the research in this area than it was Pre-Covid, is there more interest from partners and funders? You know, how is the technology itself improving? I mean. All of this, I think in a lot of areas that I've seen is caused forward thrust of activity, money technology, and so I'm asking you that question is what do you see, is it really helping?</p><p><strong>Jacob Glanville: </strong>This is a mix, so I would say that. There are a number of technologies that benefited, so certainly rapid testing has gotten way better with respect to therapeutic development. There was a period where,</p><p><strong>Jacob Glanville: </strong>And to their credit, the FDA did an amazing job during this period of triaging an insane number of incoming requests. And they did it super fast. Like everyone who I've ever worked with in this space was like, I cannot believe how responsive the FDA is being right now. And so we're all worried that that might change back to the old, you know, the more standard way. Pretty soon, we're hoping that they're actually this has given rise to an improvement in the the pace. It may not be crisis level pandemic fast, but there might be improvements in terms of the turnaround time with the FDA. And that would benefit drug development. There's been it spurred a lot of additional exploration into manufacturing platforms, discovery platforms. I think that stuff before and for me personally, it's I mean, really, it's the timing is brought on like a golden age of interest in better new vaccines, right? When my technology was right for prime time, which I am excited about. I think those things are good. I think there is also a lot of new research, like a remarkable new research. the whole world was so much of us were attending to these rapid inducible animal models for live challenge against new viruses and the like, these pseudo varion particles and all these cool new technologies that will serve us well as we go after additional pathogens. And there's like a level of like reluctantly induced immunology fluency and virology fluency among our politicians and our policymakers, which is helpful, I think. And you know, that'll wear off, but I think over the next five years, I think that's helpful because, you know, nobody used to know what I did. And now I go into rooms and people like, "Oh, what do you think about the immune imprinting theory of original antigenic sin after receiving a cross vaccine?" And I'm like, "Oh, hi, grandma, how are you doing?" It's crazy, people have a lot more knowledge of our space now. That's that's that's great. And because I think that really actually helps. The space is complicated. It's immunology, it's epidemiology. And so how do you even make people start to have good policy decisions if they don't have some level of exposure to the concepts? And I think that's just dramatically changed. The whole world got a master's degree in infectious disease in the last two years, and that's a good thing.</p><p><strong>Harry Glorikian: </strong>Excellent. So you think the glass is half full as opposed to half empty on the future of. Drug development against infectious diseases.</p><p><strong>Jacob Glanville: </strong>I do. I Actually do. I think we're actually in the kind of entering the golden age. It seems funny to say that in the middle of a pandemic we can't seem to squash. But I think this did serve to accelerate infectious disease therapy, vaccines, diagnostics, and I think that's going to serve us really well because there's lots of different pathogens out there that have made us. And I think we have encountered this this time in a golden age of biotechnology and I think a lot of tools and realization of interest. So venture capital is suddenly interested in these technologies. Big Pharmas are realizing, Hey, you can make big money from infectious disease, where before I think it had been relegated to the back seat or the big boy cancer and neuro and a couple of others, cardio, we're sitting up in the front seat and I think that's changing. And that's good because like infectious disease is unlike many other diseases that humans have in that you can eradicate. It's not outside of the question that you could solve the disease forever until the end of time. And that's exciting, to be able to deal with our in our hands and our in our lifetime, if you can contribute to that.</p><p><strong>Jacob Glanville: </strong>Now I want to be blunt, it hasn't happened that often we've gotten really pushed down certain pathogens. We've only really succeeded in eradicating through vaccination one, close with a few others, but maybe we'll have the tools now to actually push farther. Maybe we'll create that network.</p><p><strong>Harry Glorikian: </strong>Yeah, no. I mean, I totally. You know, I try to tell people when I'm giving talks like, some things that would have taken another five or 10 years at a minimum have been pulled forward, yeah, because of this dynamic, and, you know, it's not just in where you are, but like. telemedicine and digital products and all sorts of things that have sort of been thrust forward because of. You know, so I try to look at the silver lining of. I'm sure there are people going, "It still sucks." I know it sucks, but sometimes you need. A push to move this stuff forward or at least get people to take the right level of risk or chance to to to get something to jump forward.</p><p><strong>Jacob Glanville: </strong>Yeah. You know. It's the presence of the crisis has given it a lot of attention and the fact that it's going to be annoying and frustrating and still dangerous for some years ahead means there's going to be sustained attention here I. I got to be blunt, I don't see how they're going to eradicate it in the near future. I think it's possible technically but impractical, and that means that there's going to be a period where this is still going to pose a significant economic burden and annoy people and that that serves to put more. That's going to drive innovation like we innovate in the squeaky wheel, gets the grease and the coronavirus, and pathogens are a squeaky wheel right now. And I think that is a silver lining here, I think. Beyond the wave of people going through yet another cycle of realizing, hey, this isn't just going to magically disappear, I think there is a silver lining on the other side of that where people are going to say other coronaviruses around, but it's manageable now. We don't have lockdowns anymore. We can live our lives. It's just something you have to watch out for it. But there are, there are vaccines and we have better ways of detecting and squashing the outbreak. So I think there is going to be a life resembling normal as we remember it, the new normal. I think that is going to emerge. And that's going to be good for people, but they're still going to be a pressure here, which we also, we it's not only good that we're doing this, we have to do this. Because we have more people on the planet than we've ever had before. And they travel much more than they ever had before. It's the astonishing level of speed that this thing got out of South Africa hit all the major hit all the major airline destinations like within a couple of weeks, the virus was everywhere, and that's the reality world we live in. So we need these tools as we become a rapidly moving and highly populous planet to be able to protect ourselves. Because otherwise we're just going to keep running into this and potentially at an accelerated pace compared to even previous generations, where at least they had slow moving boats that would stop the slowdown.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, can you imagine if we had this level of travel in the 1918 flu? I mean, that would have been bad. Well, look, I'm I'm an optimist like you're an optimist, I'm really hoping that all this like makes the positive change and and I'm on the venture side anyway. So I like, you know, I invest in it and, you know, I'm hoping for, you know, a profitable outcome. But at the same time, you know, making a difference in people's lives and having a positive outcome for, you know, everybody on the planet. So God, it was great to catch up with you again. I mean, it's only been two years in the world is I don't think I've left this room for two years, but that's what it feels like.</p><p><strong>Jacob Glanville: </strong>So we can't because of Omicron. So but we'll be getting out of these rooms soon. That's the point I want to make.</p><p><strong>Harry Glorikian: </strong>Yeah, no, no. And believe me, nobody is looking forward to it more than I am. So I think the extrovert has become an introvert over time. So it was great to talk to you. And you know, I look forward to staying in touch and seeing the evolution of Centivax. </p><p><strong>Jacob Glanville: </strong>Right on. Well, thanks again for having me on, and it's always fun to talk.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
]]></description>
      <pubDate>Tue, 1 Mar 2022 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Jacob Glanville, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>In March of 2020, as SARS-CoV-2 was first sweeping the globe, Jacob Glanville joined Harry on the podcast to talk about the pandemic and how the kinds of antibody therapies being studied by his company Distributed Bio might help.  At the end of 2020, Charles River Laboratories bought Distributed Bio on the strength of its computational immunology platform—which automates the discovery of antibody therapeutics. But Charles River let Glanville spin off the research programs he'd been pursuing, which included neutralizing antibodies to treat influenza and coronaviruses. And now those programs have been rolled up into Centivax, a South San Francisco-based biotech startup where Glanville is once again CEO.  Glanville returns to the show this week to talk about what's gone right—and wrong—in the biopharma business during the coronavirus crisis, how the pandemic's end might play out, and why he sees such promise for antibody therapies against coronaviruses, drug-resistant bacteria, and even snake bites.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian, and this is The Harry Glorikian Show, where we explore how technology is changing everything we know about healthcare and life sciences. </p><p>Almost two years ago, in the very first weeks of the coronavirus pandemic, we had a guest on the show named Jacob Glanville.</p><p>He had built a company called Distributed Bio around a new computational immunology platform that was designed search for new antibody therapies against a range of infectious diseases, potentially including coronaviruses.</p><p>We had a frank discussion about how quickly the biotech and pharma industries would be able to move to help stop the pandemic, and how antibody therapies might fit in.</p><p>And that conversation went on to become one of our most-listened-to episodes ever.</p><p>I wanted to have Jake back on the show, for a couple of reasons.</p><p>Obviously, we’ve been through a lot over the last two years, and I wanted to hear where Jake’s head is at today about whether and when we’ll get to the point where COVID-19 is under control and we can settle into some kind of new normal. </p><p>But in the meantime, there were some big changes in Jake’s world. </p><p>He sold Distributed Bio to a giant biopharma services company called Charles River Laboratories. </p><p>As you’ll hear in our conversation, Charles River was mainly interested in the computational immunology platform, and they were happy to let Jake hold on to the therapeutics programs he was pursuing.</p><p>Those included a potential universal vaccine against influenza, or the flu, and coronavirus, as well as a vaccine for HIV. They’re even doing some fascinating work on antivenoms to treat snake bites.</p><p>All that science got repackaged into a biotech startup in South San Francisco called Centivax where Jake is once again the CEO. </p><p>A couple of his former Distributed Bio colleagues came along as chief science officer and chief operating officer.</p><p>So I invited him back to hear about progress at Centivax, and also get his thoughts about where the pandemic is headed.</p><p>So here’s my full conversation with Jake Glanville.</p><p><strong>Harry Glorikian: </strong>Hey, Jake, welcome back to the show, it's great to have you again. It's only been two years in the world has completely changed from what it was two years ago. Good to have you back.</p><p><strong>Jacob Glanville: </strong>Hey, thanks for having me on again. It's great to see you.</p><p><strong>Harry Glorikian: </strong>So. Before we talk about your companies, your research, you know, I think people would love to hear your high level thoughts of where we are now in this coronavirus pandemic. I think the last time we had you on the show was March of 2020. It was literally just the first wave was hitting. Now it's almost two years later. What has gone better than you expected in the science and political and public health? And what do you think is gone worse?</p><p><strong>Jacob Glanville: </strong>Sure. Yeah. So, yeah, wow. What a wild ride the last two years have been. So there's some things that have gone definitely better than I expected. There's definitely been some things that have gone worse and. We're we're much better off than we were two years ago, but I think also it's important not to get unrealistic and thinking this is just going to go away. So the the areas where if I look back that we did really well, we got a bit lucky that these new vaccine technologies were very effective. That wasn't necessarily the case. There are some viruses and other pathogens that vaccines just don't work that well for. And it turns out they work pretty well for the coronavirus and that's helped. And they they developed them in record time and produced a lot. And that has reduced the number of deaths and significant illnesses and protects from long COVID. We're starting to see as well, and that's really good news. I think that's been impressive.</p><p><strong>Jacob Glanville: </strong>The areas where I've been underwhelmed, I think there wasn't enough attention paid to to therapies and treatments. We are fortunate now that there's this very nice looking, there's some good antibodies that came out. Most of them got washed away by the Omicron variant. The Vir antibody still looks pretty effective so far, but larger than that, the Pfizer Paxlovid therapy. This is a pill that doesn't require binding to the outside of the virus mutates a lot. It interferes with the virus's ability to chop up and make copies of itself inside of a cell. And that's that's going to be a game changer. I think people aren't fully realizing how much of a game changer that is, and that's good. But I think we could have had more of these kinds of treatments if there was attention on the reality that we're going to need treatments and not just vaccines. The other areas where I wish there had been more effort done and we still need more effort are in the manufacture of enough vaccines. So right now, we don't have the ability as global ability to make enough vaccine before the virus changes a lot. Right now, the current vaccines are giving you, they're the original virus. This thing's already gone through multiple generations of new alpha, beta, gamma, delta, epsilon variants of concern. And so we're kind of living in that flu-like world of the vaccine, always being pretty outdated to the circulating variant.</p><p><strong>Jacob Glanville: </strong>And like right now, there actually is no way to produce enough vaccine in time to vaccinate the world before the thing changes. So we're never going to have enough. The Third World had to wait in line and not get as enough vaccine. So Guatemala, where I grew up, they have only really 30 percent of the population have been vaccinated so far. Another 10 percent has had one shot. So they're not even going to have a reasonable vaccination level of like the vaccine, the virus from two years ago before new generations of vaccine come out. And those are going to go to the First World first again. So right, that's something that needs to get solved. I think there's also just in general, I was underwhelmed by how the world cooperated to address this, and I think this speaks to the need of a pandemic treaty.</p><p><strong>Jacob Glanville: </strong>I think and I'm glad to hear that there's a discussions around this, but really, realistically, it's a major global collective goods problem. This is a virus which is not going to go away. It's going to get more manageable and there's going to be new pandemics coming in the future. We need a global pandemic treaty to make it so that we can better coordinate responses, surveillance and just a global reaction in a coordinated fashion. Part of the problem with this is that every country had different policies and the sort of like "deal with it your own way" policies caused a lot of problems with the realistic need that if you want to stop a big virus like this, you need every nation to act like well-marshalled troops to coordinate their response efforts. And that hasn't been fixed. And it really it should be fixed because that won't just help us with this virus and help us with all the other pathogens we're currently dealing with and the new ones that are going to be coming out of the woods as we march into the future.</p><p><strong>Jacob Glanville: </strong>Part of that would also be like with Omicron. It came out of South Africa, or they detected it first. It could have come from a nation that wasn't doing surveillance, and then South Africa was like, "Hey, what's up, guys? Like, we are the ones who actually warned everyone about this, and then you guys just blocked all of our travel and isolated us." Like, that's going to actually encourage nations, I could imagine many nations being, like, "You know what, let's not test because we can't afford to have people block us." That's crazy. And that's esily addressed with, like, you know, in the U.S., we have a shared fund of federal funds to be able to enable disaster relief. So if any state gets particularly hit, the other forty eight lift them up and a similar system should be in place to provide disaster relief funds because a site which is heavily impacted, to get relief funds to say, "Look, we're going to quarantine you guys, you guys need to do all this extra stuff, but here's a bunch of money to do it because you're protecting all of us, so the problem doesn't reach us. So, handle it well and don't be afraid to report." </p><p><strong>Jacob Glanville: </strong>And so those are areas where I'm not so impressed, I guess, just to wrap up because there was a bunch of stuff we want to talk about. I think the testing has gotten really good. So they have these awesome little kits. Put it in your nose. My kid can go back to school the next day. And I think that's that's been a major advance. And I like that technology because it's useful not just against the coronavirus, but there's actually a lot of areas of infectious disease that have benefited from the last two years of dedicated research into these areas that'll make hopefully for our kids and our kids' kids an easier world to navigate with less pathogens.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I've been I've been talking about distributed diagnostics for, I feel like 15 years and it took the coronavirus to sort of help move the ball forward in an interesting way. So I hope it doesn't die. I hope it continues to be.... But do you see an identifiable end to the pandemic or do you just simply, you know, settle gradually from an emergency to something more of a normal, it's becoming endemic in the society, and public health just sort of manages it like we do the flu.</p><p><strong>Jacob Glanville: </strong>Yeah. So here's the way to think about it. The bad news and the good news. The bad news is, yeah, it's definitely not going away. And like, really, we all knew this six months into it. The thing is so infectious, you saw how quickly it went from first off out of Wuhan to the world. Then you saw Delta, how quickly that got out of India to the world. And then with Omicron, you saw within a couple of weeks of South Africa reporting it, it was everywhere. It's so infectious that it's hard to reach a sufficient, even if you had a vaccine that would provide sterilizing immunity, you probably have to get 95 percent of people to take it to protect it. Above 80 is good, but you'd really have to be above 95 and you'd have to have better surveillance networks. It's not inconceivable to stop the virus. China has actually done pretty astonishingly good job, but they had to apply super draconian measures. And everywhere, everyone everywhere would have to apply those to potentially stamp the thing out. And that and realistically, that's not going to happen, and that means that the virus is here to stay.</p><p><strong>Jacob Glanville: </strong>The good news is that it's not going to be like it was over the last two years. We have a lot of vaccines and good ones that are being administered. You also have natural immunity or natural infection induced immunity. People didn't really want to talk about it in the last year and a half because they were worried, if you heard a natural immunity can provide protection, that people would just throw up their hands and be like, "Well, just let me get infected." And that would cause a crisis of hospitals. But the reality is there are some countries like Guatemala just don't have enough vaccine, and there's people who aren't going to get vaccinated. And so as the thing infects everyone, that's going to provide an additional layer of repeat infection that gives rise to some population-level immunity that boosts people who are vaccinated, and that also helps people who weren't vaccinated. It gives them a level of immunity. Although again, this virus, you do not want to get it if you can avoid it.</p><p><strong>Harry Glorikian: </strong>Yeah, I was going to say, I mean, I've seen people that have have even, you know, my friend's son got double vaccinated and ended up with pericarditis, right? So, you know, you don't know how you're going to react to it when if you if you happen to get it. So, you know, my advice to people is like, if you can, if you can avoid it, that's a good place to be.</p><p><strong>Jacob Glanville: </strong>Yeah. And so that's where we're going to move into in the future. You're going to have a population which is increasingly got some established immunity to it. Kids are going to get exposed early. Hopefully, we'll have vaccines for kids, but otherwise they're going to be exposed early and then repeatedly being exposed to it will provide some level of immune protection. And that means that that plus the rapid testing technologies, means that we can move back to a semblance of normal. But with this being an endemic virus now. We've lived with other endemic viruses before, you know, HIV never went away. We still have it. We have tuberculosis, we have multidrug resistant bacteria, we have the flu and we find ways to make the medical crisis manageable through vaccination and treatments so that when you get sick, there's something.</p><p><strong>Jacob Glanville: </strong>That it's not creating a crisis with the hospital centers. That's where we're going to be with the coronavirus. The the hope is that while people said, "Oh well, Omicron looks more mild, great. The virus is evolving to be more mild." You cannot count on that. Viruses do not naturally evolve to get milder. What happened was it shifts randomly. It can get lucky. They just get more transmissible. That's all the virus selects for. It happened to be this one's more mild. If we're lucky, that means the children of this one will tend to be more mild, but it could also go the other way. And so we just need to keep these.... That's what you're going to experience over the next five, 10 years. It's going to be more rapid testing and surveillance, which to your point about this, I think that's what's actually going to keep that alive and expand it is that that's going to be a part of life vaccinations and monitoring and better treatments. And that's the life we're going to live with and kids are going to grow up in this period, it's like, that's what they've always known like. We've grown used to flu like we've grown, used to. HIV is just part of life.</p><p><strong>Harry Glorikian: </strong>Yeah, I'm hoping that this also, though, encourages sort of global sequencing capability so that we can keep an eye out not just for this, but for anything that's on the horizon so that we can react to it, you know, as quickly or even faster than we did for this one.</p><p> </p><p><strong>Jacob Glanville: </strong>They have this really cool tech that I've starting to see. I heard about it before the coronavirus pandemic, but I've started to see it used quite widely. And that is RNA sequencing or viral sequencing of sewage systems. It's a really cool technique where you can test. It's a way of testing like a citywide level, the prevalence, the the abundance of the coronavirus. But but you can use that technology for any pathogen. And so they're setting this up on a city by city basis. You learn early before people are even showing up at hospitals. You could start learning "Oh, this virus is starting to appear in the sewage. Therefore, it's in the city." And that technology, you could start testing for a whole panel of pathogens quickly, and it gives critical early guidance on disaster response or early response measures and contact tracing. So things like that, things like rapid, there are these cool new rapid sequencing technologies that are available. I do see see a very strong place for them early. I mean, that's it was really contact tracing and low tech testing that kept Ebola in Africa. And I think we have abundant tools like that available globally, especially around people in transit and people in local communities. That's that's useful for coronavirus suppression. And like the flu, we have barely had the flu in last two years, and that's partially because of all these measures. I'm actually hoping that with really good testing, really good sequencing and contact tracing measures, that gives us an advantage over all pathogens.</p><p><strong>Harry Glorikian: </strong>Yeah, I just don't want to be the guy having to go get the sample from the sewage just so you know.</p><p><strong>Jacob Glanville: </strong>Fair enough. Yeah.</p><p><strong>Harry Glorikian: </strong>So, so the last time we, you know you were on the show like it was all about Distributed Bio, which used computational tools and discovery and development to for therapeutic antibodies, right? So you were working on a universal vaccine for humans and pigs, and you were hoping you might find a treatment for COVID-19. You sold that company to Charles River in 2021. Bring us up to date. Tell us the story here.</p><p><strong>Jacob Glanville: </strong>Sure. So, yeah, the history of Distributed Bio was that we were taking advantage of advances in computational immunology and high throughput sequencing, various high throughput assays, which are super useful at analyzing the immune system, which is a very complicated system. So getting a lot of data out is good and in particular, using these to use the immune system as a system for generating drugs, so antibody therapeutics to discover them and engineer them. Using these computational methods that enable Distributed Bio to, we ended up servicing 78 different antibody discovery and optimization contracts for 60 companies. We built part of the generation of new drugs that are coming online over the next few years without taking on venture capital. Because we were profitable the whole time from that service and that I used some of those resources to pour into these internal research campaigns for things that I thought were really cool technologies that were would be too awesome to offer as a service contract, but also too risky. I needed to de-risk them. And so when we worked with Charles River, they were very interested in our service platform and our service business. And they I said, Well, look, I have these things that are near and dear to my heart I've been working on. I literally like like shovel pig manure in my own vivarium to go do some testing on this broad spectrum vaccine tech. And they said, Jake, that's great. We would just want the service business. In fact, our policy is we don't want to have any program internal and Charles River that would be a potential, a competitive therapeutic or vaccine program, to any one of our clients. We want to service the world. And so you can spin those out and have them independently.</p><p><strong>Jacob Glanville: </strong>And so that's what happened at the end of, yeah, it was actually the last day of 2020, December 31st, 2020, and we did the announcement a few days later. In January, we separated the service business, which was the Distributed Bio that Charles River acquired. And that's that business is still super active, and they're generating antibodies for companies around the world. And we spun out the therapeutic portfolio of the broad spectrum or universal vaccines and a series of other typically broad spectrum focused medicines like a universal antivenom, broad spectrum anti-infective against a couple of other disease areas that are important, into Centivax. And so that's what Centivax is. We spent the last year, basically, you know, with a new entity, we were working on our broad spectrum vaccine technology, which you're going to be hearing a lot about from us over the next couple of years for obvious reasons. Our main program was flu that I was working on from 2012 on. And we have a broad spectrum, our universal flu shot. Now we're obviously applying our technology now to the coronavirus. And also we're working on HIV.</p><p><strong>Jacob Glanville: </strong>Then we have these other programs, including, as you alluded to, the CoV-2. So we made an antibody that could act as an injectable treatment for SARS-CoV-2. That's gone through manufacturing. We went up to the in the IND process with the FDA. We're on hold right now with that one because of Omicron. So they basically sent out a an announcement saying, Look, everybody who if you're making therapies, if they don't hit Omicron specifically, we are going to pause the clinical development. So we were supposed to go into humans at the beginning of January. But right now we're looking for a partner. We have additional molecules internally or we'd look for a partner that we're going to create a cocktail with because we we do best in class on a whole bunch of other variants. But like most of the other antibodies, we got hit with Omicron, so that's where that one is sitting. It also just frankly reinvigorated our point where like, look, the broad spectrum vaccines are ultimately what needs to happen here because the best antibodies can be hit by a jump. Omicron was a big jump. We saw how rapid this thing was mutating and suddenly jumped like crazy and then it escaped our antibody. And so our vaccine technology is specifically designed to address problems like that. So we're kind of going all in on it right now as we move forward.</p><p><strong>Harry Glorikian: </strong>Yeah, because I was, you know, looking at the website and it's interesting because, you know, the language for Centivax and the language for Distributed Bio, like computational antibody engineering, right? So they they sound very similar. But you know, if I got it correctly, it sounds like the services business is what got shunted off and then the therapeutic business where you're creating products you sort of kept. Did you keep some of the people or how did you, you know...</p><p><strong>Jacob Glanville: </strong>Very few. So we had a couple of people that came over. But part of the acquisition or is it like, OK, you can go take this stuff, but we want you to build largely a new team because because we need an operating business, because they are acquiring it for the business. And if I went and like, did my little Pied Piper whistle and all my people came with me, then they wouldn't have an operating business, which totally makes sense. So and it actually worked out because therapeutics, going into clinic is a fundamentally different type of business than running lots of antibody discovery. So at Distributed Bio, I had a lot of bioengineers and a team of there was a lot of younger scientists because we just need lots of people to run lots of programs. And then there's a hierarchy of more senior leadership. Whereas Centivax is a therapeutics company, it's a vaccine company. And so we have less people. There are 15 employees right now and a portfolio of things that we're focusing on entirely and IP. And my team is much more senior because what I wanted to do is cherry pick my favorite people I worked with for the last 15 years to have a lot of experience of bringing medicines into clinic and driving them to successful conclusion. And so that's largely a different team. Sawsen Youssef, who is my chief science officer at D Bio, she came with so. And we negotiated hard for that. So she's with me at Centivax. Dave Tsao, he joined in the last year at D Bio, but he he joined with the idea he was going to move on to Centivax. So that was expected and otherwise the whole team was generated, we were building up Centivax so that we'd have an independent company. So we pulled them together over the last two years and right at the spin out, we had people ready to just jump in and continue work. And so that's the team we have now.</p><p><strong>Harry Glorikian: </strong>Now, you know, one of the things we talked about, you know, in our last talk was the influenza, you know, vaccine against influenza. Where are you with that? Because I think I remember you saying 2025 was when you thought that you might have something.</p><p><strong>Jacob Glanville: </strong>We might be off by a year, but we got the results back. So we have some pretty astonishing results. We got back on live challenge studies here in the United States. So I think at the time we were talking up up until then, all the studies we'd run on that technology, we're running the vivarium, the animal facility that we produced in Guatemala. So I run that in partnership with the University of San Carlos, I'm an affiliate professor down there, and it gave me the ability to do rapid iteration cycles on live challenges, or not live challenges, but immunizations in live organisms.</p><p><strong>Harry Glorikian: </strong>And I think it was ferrets and pigs.</p><p><strong>Jacob Glanville: </strong>That's right. So the studies up here, ferrets? Yeah, you've got a great memory. So yeah, so what happened was the Gates Foundation. We won this Grand Challenge in the Pandemic Threat Award, and the Gates Foundation gave us money to go</p><p><strong>Speaker2: </strong>Run the studies. They're like, look, we want you to run live challenge studies, which is where you go, spray the pigs and the ferrets in the nose with virus to see if they get sick. It's the ultimate test, and I can never run that in Guatemala because I can never bring virus down there, and my facility wasn't bio contained enough to do it safely. Whereas up here we're working with the University of Georgia has this guy named Ted Ross, like everybody in the vaccine space, knows he's an expert at running these kinds of studies, and so we ran the ferrets with him. And then we have Konstantinos Caracas, who used to work with Ted Ross, and now he's a professor at Auburn University. He does a bunch of these pig challenge models. And so we ran those studies. Those were cooking for last year and then into all most of last year and they're long studies because you're giving vaccinations. And then after that, you're giving exposing the animals to virus and letting them recover and checking to see, you know, the ultimate question, like, did it protect them from getting sick? Did it protect them from producing the virus in the lungs and the trachea and in the nose and stuff? And the data looks absolutely outstanding. So we're preparing a paper on it right now. We're looking now into manufacturing it to go into clinical trials so that we can go develop a broad spectrum vaccine for flu for humans. We're also going into the pig market because it's a $180 million a year market in veterinary space and it's the the same sets of proteins we'd be using. So it's kind of a free additional line of revenue, which in general, I always like to work on a veterinary relevant application of the same therapeutic when you can, because it makes sure that your drug works because like nobody really cares about a mouse, the mouse is very different than a person, whereas like some farmer cares about that pig, so your drug better work. And you make money earlier, it's a great system. Yeah, so we're pushing on that. And then for the same reasons, you know, we've been slow cooking the same technology on HIV for the last year and a half, and it's looking very promising so far. Although it's early. </p><p><strong>Jacob Glanville: </strong>I had not activated it against the coronavirus for the first first year and a half. I didn't because I thought, Eh, this virus is it's got a proofreading mechanism, so it shouldn't mutate that fast. And B, there are these other technologies that were just blazing forward so fast with the RNA tech. I just said, you know, I want to see how they do. There's like 180 companies working on vaccines. Let's see how they do before I go dive in there. They may not need my technology, but then in the last few months, we've seen the rise of Delta and then Omicron and a whole bunch of other super-mutated versions. And that absolutely needs my technology because the current vaccines are having real problems keeping up with the new mutant versions. So we are running the accelerated studies right now using my same vaccine platform on the coronavirus as we move the flu program in first. The coronavirus is actually moves pretty fast because we can benefit from a lot of the legwork we did already in the pigs and ferrets for the flu program and then the the HIV program, the that one, I'm a little more hesitant on when it will be ready. It's a big, first off, it's a big lift. So I want to have really, really good data before I start trotting around being like, "Hey, you remember that HIV problem? Yeah, fixed it." You know, I can't say that yet, so I need to see the data. But also but like technically, as a bioengineer the HIV proteins are tricky. They tend to fall apart. And so we're doing a number of things to try to figure out how do you make a vaccine and actually make it practical to deliver it? And we haven't solved that yet, and I don't have a solved engineering solution. I always like double my timelines until because because you just don't know how annoying that little path is going to be. It could be easily solved or it could be worse than you think. And so that's sort of our our we're going to get it working. It's just going to take some time to make sure I have it nailed on how we deliver the HIV proteins.</p><p><strong>Harry Glorikian: </strong>Yeah. And when you think about HIV, I actually, you know, I think it's becoming, you know, if you look at. The populations where coronavirus is mutating, it's immunocompromised HIV patients, right? So if we could solve one problem, you might. I don't want to say you could kill two birds with one stone, but you might actually solve another, you know, problem that that maybe hadn't been as big of a problem before coronavirus and now is becoming a problem. </p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So, but, when you're working on these things, do you think there's enough government and private sector support for some of the other things or is coronavirus sort of, you know, sucking all the oxygen out of the room?</p><p><strong>Jacob Glanville: </strong>Yeah, so that's a great question. Yeah, I spent a lot of time thinking about this. So the. You know, we have I have these other programs, right, so that I actually I inherited a whole portfolio, I have more stuff than I know what to do with it. Our decision was first off, because we had amazing data on the time, and this is the time where everyone says, Look, we need to, this is ridiculous. We need better, more broad spectrum vaccines and we have the IP that works. We're focusing on that. These other programs, like at least with the vaccines for flu and HIV, there's resources out there. Paradoxically, like we were told by some government agencies, you know, it's actually easier to apply for flu money than COV-2 money because it's so so like tied up and and policied out already or the bets have already been placed. With HIV, we actually have, basically with HIV I'm waiting for the first of these critical animal studies that will tell me when I can start waving the flag and saying, Hey, look, we have something exciting here and I can run those studies internally and they don't cost me that much. So I'm just waiting to make sure I have a pie to bake before I start yelling around and saying I need an oven. For the other programs it's a mix. I think it's definitely the case that, like one of the things we inherited is a cancer program, and four years ago, venture capital groups. I would show them my vaccine technology. They would listen to it. I'm like, Look, hi guys. You know, I want to be humble here, but like this will solve all of those mutating viruses that we've struggled with. How would you like it? We could contemplate a world without some of the pathogens that we've lived with since the beginning of time. And they're like, "Sweet. Can you apply it to cancer?" Because four years ago, all they all wanted cancer drugs that was really hot. Well, the thing flipped. That's the kind of amazing because it's good timing. I've worked on this thing for nine years. I show up and then suddenly I still thought I was going to have to fight this thing uphill. I have a cancer assets that I could use, talking with venture capital groups, and like much to my delight, they're like, "You know what, actually the vaccine thing is what we care about." So finally, it's like, become popular. I feel like a high school kid who like, went through puberty and suddenly I'm popular at the school ball or something. I'm like, "Oh, sweet, you like this now? This is great because this is what I'm really good at."</p><p><strong>Harry Glorikian: </strong>Timing is everything, man. I mean, you know, if you're just off the mark, people don't see it. So, but you know, I think if I was reading correctly, you're also working on a bunch of antibodies against bacteria like Staphylococcus, Pseudomonas. You know, these are all bacteria that that seem to have evolved some resistance to the classic antibiotics. So is is, you know, why is your platform good at targeting these organisms and where are you at with that sort of thing?</p><p><strong>Jacob Glanville: </strong>Sure. So the unifying concept of the company is like, we have this tagline "Smash the mutants." Yeah, the principle is we focus on areas of medicine where mutations are the thing that causes a problem of effective treatment. And so for our vaccines, we have this broad spectrum spectrum vaccine technology. For areas like cancer or bacteria or snake venom, there's also a problem of mutation, and we in many cases, we use broadly neutralizing antibodies to address them. So with the thing you brought up, which is the multidrug resistant bacteria, there, we're doing something that honestly I think other groups should have done eight years ago. But the there are there's this impending wave of doom of a bunch of new multidrug resistant bacteria. It's pretty easy for bacteria like staph and pseudomonas, the kind of nasty things that get in a wound to develop resistance to the antibiotics. Like within a year of creating a new antibiotic he bacteria has got, there's some new variant out there that's resistant to it, and within 10 years, that becomes the dominant variant if that antibiotic is used at hospitals at any frequency, and it's they're able to do this because there's a lot of genetic diversity in the population of the bacteria. They they have a half, every 30 minutes, they're making a new copy of a bacteria in some cases. And every time they do that, there's a chance of a mutant. So there's lots of mutant bacteria out there in the world. And so as soon as you start using an antibiotic, whatever one of those bacteria that's resistant to it is suddenly going to gain a lot of favor. And it's really easy for them to gain antibiotic resistant because all they need to do is have one mutation in one gene to block the one pathway for that one antibiotic. There were efforts to use antibodies as therapies against multidrug resistant bacteria 10 years ago, I was involved in some of them. But at the time, the feeling was that manufacturers would only want to produce one antibody. And the FDA would only want to prove one antibody. So you need to do the job with one antibody, which is super stupid, because, we knew this back then, bacteria are not, they're not one-trick ponies. Staph is an amazing engine of war. It's releasing multiple different toxins. Here's one to go knock out your B cells. Here's one to knock out your T-cells. This one's going to trip up your, your neutrophils. And so forth. And so we try to make one antibody block one of these things, the other, the other toxins would just do their job and mess you up. And so what we're doing is we're going back and saying, OK, first off, let's get some broadly neutralizing antibodies that can hit multiple toxins at the same family. And second, let's get a couple different antibodies to go after those different, those different toxin classes in parallel, and so we're creating a multivalent solution to go after multiple different toxins all at once. That's really how the body defends itself, and that's an effective drug solution. It uses broadly neutralizing antibodies. So we hit these shared sites that are found between the toxin flavors or variants, but it's otherwise it's a practical approach. I think our technology helps us go after those broadly neutralizing sites, and it also enables us to engineer the antibodies so that they don't require an IV bag, which right now with the coronavirus does. Antibody treatments usually required an IV bag, which means you had to go to an IV infusion center, which means they wouldn't give it to you because they didn't really want you going into the hospital with the virus because they had people that honestly were more sick than you already were. What you really want is an injection that could be done at it  Walgreens, or it could be done at home or an outpatient treatment facility. But to do that, you need to engineer your antibody so you can concentrate them like crazy so they can go in a syringe and they need to not be so thick that it's like toothpaste. They have to have low viscosity so you can inject them. And we are really good at engineering antibodies so they can do an ultra high concentration and low viscosity. And that's part of the reason why we have partnerships with the Navy and the Army because of our capacity to do this. And then it's also with the NIH. We're doing it for our antivenom program. Also, you want something that has no temperature control, can be delivered ultra high concentration and can be shipped around the world, which is really the way I think antibodies should be delivered everywhere. But but certainly in these applications is a great place to start.</p><p><strong>Harry Glorikian: </strong>So, yeah, but you know, it's interesting, right? I mean, you're talking about all these incredible hurdles, right? I mean, you know, people say DARPA-hard, right, these these are not easy, right? So isn't there an intermediate step so that we can? Yeah, help a bunch of people along the way.</p><p><strong>Jacob Glanville: </strong>Yeah. Let's see. Well, I mean, that stuff I just described is done. We like we have a cocktail, which is already a staff is our first, our first bug that we're going after that's done with the Naval Medical Research Center. We have a cocktail of antibodies there, concentration engineered and we already completed our concentration engineering technology. We used it actually on our SARS-CoV-2 program. It's the highest concentration antibody ever produced through GMP at 254  mgs per ml. So we've we've got that built. We just we just can apply this to antibodies when we want to now. And so we don't there's not a set of steps before we can get there. This is just how we produce our drugs.</p><p><strong>Jacob Glanville: </strong>Now, the the thing that you know, the thing I worry about, which is fair, is it's like, OK, I actually have more things in the portfolio than than I have time to effectively focus on all of them. So our strategy has been all in on vaccines right now. This is the time for it and we have these programs. Some of them are supported by grants. And so the grant supports some continued development on them. Some of them, we've frozen down Some of them we continue because they're looking super promising and we have grant money like the the universal antivenom. That one is covered by an NIH grant. The Naval Medical Research Center is working with us on the Staph program and we're running live studies with them. Otherwise, our other programs are mostly being paused right now. This is the beginning of a portfolio later, but right now there's so much promise in the vaccine technology. I'm like, I'd rather just nail that like crazy. And then we have as we grow, as I contemplate an IPO, I'm going to have a nice, rich portfolio or I have a business development partnership portfolio I can I can engage other groups with. And that's kind of how I "Focus on focus" and prioritize these things.</p><p><strong>Harry Glorikian: </strong>Yeah, because when you were talking about the the antivenom, I was like, OK, I don't know much about chemistry of snake venom. That one sort of slipped my purview over time, not been at the top of the list. Maybe if I lived in Arizona or something like that, I might take it a little bit more seriously. But Massachusetts, we don't have this problem. How does your how does your computational platform help identify like? Is it the same thing that we were just talking about when it, you know, when we come to the, you know, against the bacteria, is it the same approach?</p><p><strong>Jacob Glanville: </strong>Yeah. So I mean, at heart, everything I'm talking about involves broadly neutralizing antibodies. These are these antibodies that recognize a shared site that either a virus can't mutate because if it mutates that site, the virus doesn't work anymore and we just get an antibody to go bind that site. It's the Achilles heel of the virus, or it's a shared site between different evolved versions of like a bacteria toxin that it can't change that site because that's the site that's necessary for the the toxin to do its job. If we get one antibody against it, it'll block all the toxins of that class. Or again, snake venom. We have a broadly neutralizing antibody that hits like the one shared site on the neurotoxins of all snakes. Then you have a single antibody that could act as a universal basis of getting rid of neurotoxin against all snakes, so therefore universal antivenom. So that's the power of broadly neutralizing antibodies. And then our technology platforms are either vaccines which are engineered to make you produce them. So we give you actually collections of proteins and you produce those broadly neutralizing antibodies or on the antibody side, we make them in the laboratory And then we deliver them to the patient. But that's the that's the central principle.</p><p><strong>Harry Glorikian: </strong>It's interesting. I wouldn't have. Again, not knowing anything about snake venom, I'm like, is there is there a universal site across all venoms?</p><p><strong>Jacob Glanville: </strong>There is? Yeah, it's actually pretty, this is a cool project, so it's a side project that I lov so much. Som there are five hundred and fifty venomous snakes that cause risk of death or or limb loss in humans, and it's more than you think. 100,000 people die every year, and another 300,000 or more get permanently injured. 550 different snakes and each snake is injecting like 10 to 70 different proteins in their venom. So it's a very complex mix, which seems insane. If you look at that, you're like, How are you ever going to make a universal antivenom? But if you look at it, the the snake venom, actually, if you take all those sequences of all the different toxins and you analyze them, they actually collapse down to 10 families of toxins. And of those, there's really only four that really matter. The other six, it's going to hurt. But you know, like, suck it up and walk it off, you'll be OK. If it's a neurotoxin that's going to stop your heart and stop your lungs and cause you to go rigid and die, that one's no bueno. You have a phospholipase that causes a whole bunch of other tissue problems. Serene protease metallo-proteins. These are these are the things that are going to tear you up. That's the reason you're you have to amputate. That's the reason you die.</p><p><strong>Jacob Glanville: </strong>And so because all the animals use the same, all these snakes use those same four toxins. If you can make an antibody against each one of those four, really four antibodies would be a universal antivenom. Which gets to your question. Ok, but are they concerned enough that you could get a single antibody? And the answer is surprisingly is yes. And here's the reason. Ask yourself there's 550 snakes. These things are eating, they're eating birds, they're eating little mice, they're eating fish, you know, whatever. Like all these different animals, they're all very diverse. How is it that they're neurotoxin works on all these very diverse, diverse, different species? And the reason is this it's pretty cool. The neurotoxin binds to the nicotinic acetylcholine receptor. If you line that up the sequences, it is almost invariant all the way out to fish. And this is even a pretty conserved receptor, even more primitive creatures than fish. So this thing has not changed, particularly the sight of the nicotinic interaction since the dawn of time, right? Evolution hasn't changed the site, and that's because the and this is true for many neurotransmitter mediated brain genes, the ones that interact with a molecule that's providing signaling that those neuron networking, that's like the wiring in your house for the internet, it hasn't changed since the beginning. So they haven't been able to evolve it. And the neurotoxin in these snakes all binds that exact same site, which means that neurotoxin works on all species. That also means that the snake venom, even though the snakes have evolved elsewhere, they can't. They can't change that site that interacts with that gene that's never changed or their their their venom. Their drug won't work on all these species, and we've found an antibody that docks directly into that site and therefore it hits all the venoms.</p><p><strong>Jacob Glanville: </strong>And where we got it from was a guy named Tim Friede, who spent 17 years and nine months self immunizing with escalating doses, 700 self injections of snake venom from Cobras, Taipans, Mambas, western diamondback, Mojave Crate. The list can go on, and he has meticulous records. He built up hyper immunity against the snakes to the point that he had received 202 bites from many of these snakes and survived snake bites that would kill a horse. And I reached out to him in 2017 because I geard what he did, and I built a technology that made it easy to go harvest the DNA sequences of the antibodies you're producing. And I wanted to test it on something. And so I found this. I was looking for someone who like I was looking for a clumsy snake researcher who'd maybe been bit three times. And instead, I found I found out about this guy and I was like, I got to test his blood. And so I said, Look, I think you may have done something amazing because you kept changing the snakes over and over again for almost 18 years. I think you selected for these broadly neutralizing antibodies, and I'd like to find them. And we started collaborating. And sure enough, we found the collection of these remarkable antibodies, and we know that he's got them in him because Tim isn't dead and he should be if he doesn't have broadly neutralizing antibodies. And so that he's the real cool. I mean, computational stuff helps us harvest them out and do some analysis. But the real the real magic for that program is Tim Friede.</p><p><strong>Harry Glorikian: </strong>Yeah. "Honey, honey. Don't worry, I'm just it's just a bite. Nothing's going to happen. It's only a king cobra. Like, we'll survive this. It'll be fine." He's the guy you want walking in front of you through the jungle first. So well, that that's interesting. Well, I'm you know, this is why I do this show, right? I learn something every day. So but in the big picture, like, you know, COVID-19 seems to have like really changed the game in this whole space, right? I mean, it's all sorts of attention for therapies and it's bleeding into, like you said, you know, maybe infectious disease, including autoantibodies, I mean. You know, but here's the question is, is it is it getting easier to do the research in this area than it was Pre-Covid, is there more interest from partners and funders? You know, how is the technology itself improving? I mean. All of this, I think in a lot of areas that I've seen is caused forward thrust of activity, money technology, and so I'm asking you that question is what do you see, is it really helping?</p><p><strong>Jacob Glanville: </strong>This is a mix, so I would say that. There are a number of technologies that benefited, so certainly rapid testing has gotten way better with respect to therapeutic development. There was a period where,</p><p><strong>Jacob Glanville: </strong>And to their credit, the FDA did an amazing job during this period of triaging an insane number of incoming requests. And they did it super fast. Like everyone who I've ever worked with in this space was like, I cannot believe how responsive the FDA is being right now. And so we're all worried that that might change back to the old, you know, the more standard way. Pretty soon, we're hoping that they're actually this has given rise to an improvement in the the pace. It may not be crisis level pandemic fast, but there might be improvements in terms of the turnaround time with the FDA. And that would benefit drug development. There's been it spurred a lot of additional exploration into manufacturing platforms, discovery platforms. I think that stuff before and for me personally, it's I mean, really, it's the timing is brought on like a golden age of interest in better new vaccines, right? When my technology was right for prime time, which I am excited about. I think those things are good. I think there is also a lot of new research, like a remarkable new research. the whole world was so much of us were attending to these rapid inducible animal models for live challenge against new viruses and the like, these pseudo varion particles and all these cool new technologies that will serve us well as we go after additional pathogens. And there's like a level of like reluctantly induced immunology fluency and virology fluency among our politicians and our policymakers, which is helpful, I think. And you know, that'll wear off, but I think over the next five years, I think that's helpful because, you know, nobody used to know what I did. And now I go into rooms and people like, "Oh, what do you think about the immune imprinting theory of original antigenic sin after receiving a cross vaccine?" And I'm like, "Oh, hi, grandma, how are you doing?" It's crazy, people have a lot more knowledge of our space now. That's that's that's great. And because I think that really actually helps. The space is complicated. It's immunology, it's epidemiology. And so how do you even make people start to have good policy decisions if they don't have some level of exposure to the concepts? And I think that's just dramatically changed. The whole world got a master's degree in infectious disease in the last two years, and that's a good thing.</p><p><strong>Harry Glorikian: </strong>Excellent. So you think the glass is half full as opposed to half empty on the future of. Drug development against infectious diseases.</p><p><strong>Jacob Glanville: </strong>I do. I Actually do. I think we're actually in the kind of entering the golden age. It seems funny to say that in the middle of a pandemic we can't seem to squash. But I think this did serve to accelerate infectious disease therapy, vaccines, diagnostics, and I think that's going to serve us really well because there's lots of different pathogens out there that have made us. And I think we have encountered this this time in a golden age of biotechnology and I think a lot of tools and realization of interest. So venture capital is suddenly interested in these technologies. Big Pharmas are realizing, Hey, you can make big money from infectious disease, where before I think it had been relegated to the back seat or the big boy cancer and neuro and a couple of others, cardio, we're sitting up in the front seat and I think that's changing. And that's good because like infectious disease is unlike many other diseases that humans have in that you can eradicate. It's not outside of the question that you could solve the disease forever until the end of time. And that's exciting, to be able to deal with our in our hands and our in our lifetime, if you can contribute to that.</p><p><strong>Jacob Glanville: </strong>Now I want to be blunt, it hasn't happened that often we've gotten really pushed down certain pathogens. We've only really succeeded in eradicating through vaccination one, close with a few others, but maybe we'll have the tools now to actually push farther. Maybe we'll create that network.</p><p><strong>Harry Glorikian: </strong>Yeah, no. I mean, I totally. You know, I try to tell people when I'm giving talks like, some things that would have taken another five or 10 years at a minimum have been pulled forward, yeah, because of this dynamic, and, you know, it's not just in where you are, but like. telemedicine and digital products and all sorts of things that have sort of been thrust forward because of. You know, so I try to look at the silver lining of. I'm sure there are people going, "It still sucks." I know it sucks, but sometimes you need. A push to move this stuff forward or at least get people to take the right level of risk or chance to to to get something to jump forward.</p><p><strong>Jacob Glanville: </strong>Yeah. You know. It's the presence of the crisis has given it a lot of attention and the fact that it's going to be annoying and frustrating and still dangerous for some years ahead means there's going to be sustained attention here I. I got to be blunt, I don't see how they're going to eradicate it in the near future. I think it's possible technically but impractical, and that means that there's going to be a period where this is still going to pose a significant economic burden and annoy people and that that serves to put more. That's going to drive innovation like we innovate in the squeaky wheel, gets the grease and the coronavirus, and pathogens are a squeaky wheel right now. And I think that is a silver lining here, I think. Beyond the wave of people going through yet another cycle of realizing, hey, this isn't just going to magically disappear, I think there is a silver lining on the other side of that where people are going to say other coronaviruses around, but it's manageable now. We don't have lockdowns anymore. We can live our lives. It's just something you have to watch out for it. But there are, there are vaccines and we have better ways of detecting and squashing the outbreak. So I think there is going to be a life resembling normal as we remember it, the new normal. I think that is going to emerge. And that's going to be good for people, but they're still going to be a pressure here, which we also, we it's not only good that we're doing this, we have to do this. Because we have more people on the planet than we've ever had before. And they travel much more than they ever had before. It's the astonishing level of speed that this thing got out of South Africa hit all the major hit all the major airline destinations like within a couple of weeks, the virus was everywhere, and that's the reality world we live in. So we need these tools as we become a rapidly moving and highly populous planet to be able to protect ourselves. Because otherwise we're just going to keep running into this and potentially at an accelerated pace compared to even previous generations, where at least they had slow moving boats that would stop the slowdown.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, can you imagine if we had this level of travel in the 1918 flu? I mean, that would have been bad. Well, look, I'm I'm an optimist like you're an optimist, I'm really hoping that all this like makes the positive change and and I'm on the venture side anyway. So I like, you know, I invest in it and, you know, I'm hoping for, you know, a profitable outcome. But at the same time, you know, making a difference in people's lives and having a positive outcome for, you know, everybody on the planet. So God, it was great to catch up with you again. I mean, it's only been two years in the world is I don't think I've left this room for two years, but that's what it feels like.</p><p><strong>Jacob Glanville: </strong>So we can't because of Omicron. So but we'll be getting out of these rooms soon. That's the point I want to make.</p><p><strong>Harry Glorikian: </strong>Yeah, no, no. And believe me, nobody is looking forward to it more than I am. So I think the extrovert has become an introvert over time. So it was great to talk to you. And you know, I look forward to staying in touch and seeing the evolution of Centivax. </p><p><strong>Jacob Glanville: </strong>Right on. Well, thanks again for having me on, and it's always fun to talk.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
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      <itunes:title>Netflix Docu-series Star Jacob Glanville Returns To Talk About How The Pandemic Ends—and His New Company</itunes:title>
      <itunes:author>Jacob Glanville, Harry Glorikian</itunes:author>
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      <itunes:summary>In March of 2020, as SARS-CoV-2 was first sweeping the globe, Jacob Glanville joined Harry on the podcast to talk about the pandemic and how the kinds of antibody therapies being studied by his company Distributed Bio might help.  At the end of 2020, Charles River Laboratories bought Distributed Bio on the strength of its computational immunology platform—which automates the discovery of antibody therapeutics. But Charles River let Glanville spin off the research programs he&apos;d been pursuing, which included neutralizing antibodies to treat influenza and coronaviruses. And now those programs have been rolled up into Centivax, a South San Francisco-based biotech startup where Glanville is once again CEO.  Glanville returns to the show this week to talk about what&apos;s gone right—and wrong—in the biopharma business during the coronavirus crisis, how the pandemic&apos;s end might play out, and why he sees such promise for antibody therapies against coronaviruses, drug-resistant bacteria, and even snake bites.</itunes:summary>
      <itunes:subtitle>In March of 2020, as SARS-CoV-2 was first sweeping the globe, Jacob Glanville joined Harry on the podcast to talk about the pandemic and how the kinds of antibody therapies being studied by his company Distributed Bio might help.  At the end of 2020, Charles River Laboratories bought Distributed Bio on the strength of its computational immunology platform—which automates the discovery of antibody therapeutics. But Charles River let Glanville spin off the research programs he&apos;d been pursuing, which included neutralizing antibodies to treat influenza and coronaviruses. And now those programs have been rolled up into Centivax, a South San Francisco-based biotech startup where Glanville is once again CEO.  Glanville returns to the show this week to talk about what&apos;s gone right—and wrong—in the biopharma business during the coronavirus crisis, how the pandemic&apos;s end might play out, and why he sees such promise for antibody therapies against coronaviruses, drug-resistant bacteria, and even snake bites.</itunes:subtitle>
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      <title>How to See Inside Your Body Using Continuous Glucose Monitors with Maz Brumand from Levels</title>
      <description><![CDATA[<p>Until recently, getting a blood glucose measurement required a finger stick. The whole process was so painful and annoying that only diabetics taking insulin bothered to do it regularly. But there’s a new class of devices called continuous glucose monitors, or CGMs, that make getting a glucose reading as easy as glancing at your smartwatch to see your heart rate. A CGM is a patch with a tiny electrode that goes into your skin to measure glucose levels in the interstitial fluid, plus a radio that sends the measurement to an external device like your phone. The devices are pain-free to use, and they’re rapidly coming down in price. Harry's guest today, Maz Brumand, is head of business at Levels, a startup that wants to use CGMs to help everyone understand how their choices about food and lifestyle affect their health.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>People used to go through their lives not knowing very much about what they were eating or what was going on inside their bodies.</p><p>If you time-traveled back to the year 1900 and you stopped a person on the street to ask how much they weigh, they probably wouldn’t be able to tell you—because the bathroom scale didn’t become a common consumer item until the 1920s.</p><p>If you visited the 1960s and walked into a grocery store, you wouldn’t be able to figure out the calorie, protein, and carbohydrate content of anything—because nutrition labels weren’t a thing until the 1970s.</p><p>And until very recently, the only way to figure out your blood pressure was to visit a doctor’s office or find someone who’d been trained to use a blood pressure cuff. Now you can buy an automated home blood pressure monitor for under fifty dollars.</p><p>And of course, if you have a wearable device like an Apple Watch, a quick glance at your wrist can show your heart rate or even an EEG readout.</p><p>So, what’s the <i>next</i> health-related measurement that’s about to go from obscure to commonplace?</p><p>It might just be your glucose level. </p><p>Until recently, getting a blood glucose measurement required a finger stick. The whole process was so painful and annoying that only diabetics taking insulin bothered to do it regularly, to avoid episodes of hyper- or hypoglycemia.</p><p>But there’s a new class of devices called continuous glucose monitors, or CGMs. They’re pain-free, and they’re rapidly coming down in price.</p><p>A CGM sticks to your arm and it has a tiny electrode that goes into your skin to measure glucose levels in the interstitial fluid. There’s also a radio that sends the measurement to an external device like your phone. </p><p>I wear a CGM myself. Over time it’s teaching me which foods cause my glucose to spike the fastest, and which ones can help me keep it more even over time.</p><p>My guest today, Maz Brumand, works for a company called Levels that wants to use CGMs to help everyone understand how their choices about food and lifestyle affect their health.</p><p>Maz left a pretty high-level position at Apple last fall to join Levels.</p><p>And my first couple of questions for him were about what attracted him to the company, and why he would leave a company like Apple, with more than a billion users worldwide, for a health-tech startup that isn’t even out of beta.</p><p>So here’s my conversation with Maz Brumand.</p><p><strong>Harry Glorikian: </strong>Maz, welcome to the show.</p><p><strong>Maz Brumand: </strong>Thanks, Harry. Thanks for having me.</p><p><strong>Harry Glorikian: </strong>So I want to start by maybe, [going over] the story behind Levels. I mean, you've got five great founders with, you know, stellar Silicon Valley credentials from companies like Google, SpaceX. And, you know, pretty much why they started the company, you know, and I'd love to understand sort of the special sauce and unique insight that you guys felt that you could bring to the market for mobile health monitoring.</p><p><strong>Maz Brumand: </strong>Yeah, that was a good question. You know, we have found five founders, as you mentioned, and they're just fantastic group of people. They're they're very passionate about this area in health. And I think all of it started from Josh, one of the founders where he quickly understood that there is power in CGMs and that he has been in his account living a healthy life. But when he actually started measuring his glucose, he realized that a lot of the things common knowledge or advice around food was wrong. And there is great stories on that on our podcast. For example, drinking juice. And all of us think that drinking juice is the healthiest thing you could do. And so I think one of the investor meetings, he took a juice that was, you know, presumably very healthy, a green juice, and drank it and shot his saw his glucose spike sky high. And so that was kind of an indication that there is something here. But you know, the thesis behind the company is that we don't know what's going on in our bodies. And if we could create a dynamic where we have bio observability and by that, I mean, we can actually see what's going on inside our body based on our behavior and actions. For example, in the case of CGM, if you eat a hamburger, the CGM will tell you how your body's going to react to that in real time. Or if you eat a doughnut. It will tell you so. There is no two questions about it. It's very specific to you and it will show you in real time how your behavior is going to impact your health. And that's very powerful. And so the thesis of Levels is starting with CGM, can we create that feedback? Can we close it in real time? Can we show you how food and your lifestyle affects your health and create this path towards healthier lifestyle and healthier decisions?</p><p><strong>Harry Glorikian: </strong>Yeah. You know, we're going to jump into all of that, but I want to step back for just a second. You spent nine years at Apple. You were head of business and strategic development for the Health Strategic Initiatives Division. So just did you? What? What products did you did you work on? Because that's super exciting.</p><p><strong>Maz Brumand: </strong>Yeah, the stuff that's public. We worked on a lot of research efforts to really understand, for example, how human cognition works. One of the projects I led was quantifying cognition to understand how cognition changes based on lifestyle and then also based on decline due to disease. And that's just an example of one research. We had research around how screening affect early on will change the trajectory, so I spent a lot of time thinking about how does our behavior and how does technology allow us to improve human health.</p><p><strong>Harry Glorikian: </strong>So I was reading about your background. I mean, you, you seemed like an outdoorsy guy like, former triathlete. If I if I read it correctly, were you always interested in health and wellness technology or did that something was that evolved over time?</p><p><strong>Maz Brumand: </strong>Yeah, that's a tricky question. From the wellness perspective, I've always been interested. I've always been an athlete. I've always been active. I always try to manage my food. But if you asked me 10 years ago that I would end up in health, I would have told you, you're crazy. And the way I thought about health was always like being hospitals and IT systems, and it did not interest me at all. I thought it was slow and and not very interesting. But as Apple entered its health journey, obviously with releasing the Watch and then putting a heart sensor on the Watch, which was actually more elementary, yeah, I've got one, too. We quickly realized that there is so much power putting the consumer at the center of their data, and that kind of led to the whole platform that Apple created around HealthKit and ResearchKit and then built the products at the top. That being involved in that and I was part of the New Technologies Group within Apple on the commercial side. So I got introduced to that. And when I saw that, I fell in love with it because I saw that we can really change the discussion about health and put the consumer at the center. And nobody's better than the consumer to make decisions about their health. They're the one that probably cares most about their health. And so creating the dynamic where you allow consumers to take control of their health, by providing insights, by providing clarity, by providing services to help them manage that, seemed like a better way than having a disintermediation that we've obviously experienced in U.S. health care, and it's very well documented.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, you know, I'm in the venture world, so I mean, I love the the way the technology is changing the entire, you know, center of power or center of gravity that that that's evolving over time. But I mean, Apple is like, I don't know, over a billion users in the world, so, you know, you left for a startup. Why?</p><p><strong>Maz Brumand: </strong>Yeah, that's a good question. You know, working at Apple, I learned that to really make a difference, it has to be an ecosystem. And each of the players in the ecosystem have a different role. For example, Apple has really played a fantastic role in creating the platform and allowing people to take control of their health data on their phones. And it's built a platform where other people can now build on top of to help. But Apple plays a unique role in the sense that it is this platform and it is going into verticals and trying to help wherever they can. But there are many more opportunities for startups like Levels to come and build on top. And when I was doing a little bit of soul searching about what would I do, I want to do with my life for the next 10, 20, 30 years, I was thinking about what are the big problems that we need to solve in health, and two areas became pretty apparent to me. One was metabolic health, because it's the underlying of many of our chronic diseases, which has not only economic implications, but health implications around morbidity and mortality. And it's a big problem not just in the US, but around the world. And then the second was mental health. And looking at the space, what I thought made sense and looking at the companies, metabolic health is what I really wanted to go tackle. And I got introduced to Levels about a year ago and I've been watching them.</p><p><strong>Maz Brumand: </strong>And the fact that they're building in public and being so transparent really helped me get to know them over the years. And I think the metabolic health space or in some of these things that are still in early innings, you need a startup to take the first step and accelerate and take risk to make this into something that consumers will accept. And there is a lot of things that needs to be done and put in place for this mission to be accomplished. But I felt that I could do that inside a startup faster. And then obviously, companies like Apple and others can help scale this and make it available to many, many, many more people, not just here in the U.S., but globally. But I think there's just a different role to be played by startups and Apple, and I felt like getting to know Levels, I felt like they've got the DNA that's not too different than Apple. High integrity, focus on customer trust. Just like Apple, focused on privacy and trust and the way they're building the company focusing on culture is also something that's quite differentiated. So even though there's different places in their evolution, I felt like it was similar DNA between Levels and Apple. And it's just that in metabolic health today, I think a startup like levels can move a lot faster and create that change.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I've looked at a lot of these different, you know, technologies people say, Well, you know, you're wearing an Apple Watch. What does that do? What does this do? And I always tell them, I'm like, I think of the Apple Watch as sort of a aggregator or data repository, and things that sit on top of it are the monitoring or applications that would then do something with the data that that then is useful to me. But I mean, I've I've worn a CGM, you know, I can tell you that Korean bibimbap like spikes the hell out of me and it stays up there for much longer. But but you know, I just I was talking to somebody the other day and they're like, OK, why would you wear a CGM? And and you know, how do I use it and so forth? And I was trying to walk them through the other things. But you get to now tell our listeners: So why do healthy people need this data? Why is this CGM data useful for people who are not diabetic or pre-diabetic, right?</p><p><strong>Maz Brumand: </strong>Yeah, yeah, that's a really good question. Look, you can look at everything from a disease perspective and look at, so now I've got a disease, how do I treat it or treat the symptoms? Or you could think of a foundation. And so what is actually leading to these things that are now disease and or symptoms of disease? It's kind of like saying, I'm overweight, so I should go get a scale versus having a scale to measure yourself to make sure you don't become overweight, but then saying, I only sell you a scale if you're already overweight. So if I show up and I'm skinny, I cannot buy a scale. It's kind of a crazy thought experiment, right? And then the CGM is based, I think, you know, we should think about like, what are the underlying things that are leading to these diseases? And it is metabolic dysfunction, which is how your cell produces and uses energy. And this is a long journey. It doesn't happen overnight. So it may take 10 years for somebody to develop diabetes and you really want to measure their behavior today that's going to lead to that metabolic dysfunction and intervene today. So what CGMs do and other technologies like that, is they provide real time feedback at the molecular level, which is what called bio-observability, to help you change that. So if I don't know something is not working for me metabolically, how can I change that behavior? For example, I used to eat oats in the morning.</p><p><strong>Maz Brumand: </strong>And I think many people do. I always thought that's the healthiest thing I could do, I sometimes would even skip the milk and just be literally oats, which is crazy, right? And I thought I was the healthiest person in the world until I put on a CGM or saw other people put on a CGM, that that oats are really bad for you, especially right smack in the middle of your morning, when you're actually trying to have sustained energy over the day. So CGM enable you to see that. Because first of all, I don't think science and knowledge around some of these things is is is well understood because it's so hard to do a clinical research to study food. There are just so many barriers. I think CMG for the first time at a personal level was telling me, like, what do I need to do today that would help me have a better outcome years from now? And also—that's the disease perspective, so you asked about disease—and then from a wellness perspective, there's a lot of benefits. Like the fact that I have higher energy. The fact that I am probably healthier, metabolically healthier. So I'm more resistant to disease. Obviously COVID being a big issue. So I think there's a lot of benefits in thinking, both from how can I address the underlying factors that lead to disease and then also on a day to day basis, how does that make me feel better?</p><p><strong>Harry Glorikian: </strong>Yeah, so so for those you know, people listening, what's the benefit of keeping your glucose level flat and steady? I mean, I do my best to do that, but you know, I'm not sure that everybody fully appreciates what that does.</p><p><strong>Maz Brumand: </strong>Yeah, I'll talk about it from the wellness perspective. When you have a glucose spike, your body produces insulin and it crashes that back down. And when you get back down, that's the afternoon lull where you feel low energy. That's our lethargic brain fog. So just from a wellness perspective, just from, you know, how do I want to live my life perspective, managing these spikes allows you to feel better during the day, and that's a pretty easily, like, you'll feel that. That's from the energy level, also from brain fog. You know how in the afternoon, you might feel like your brain is not working?</p><p><strong>Harry Glorikian: </strong>Yes, I remember how it used to be.</p><p><strong>Maz Brumand: </strong>Me too, I used to think that afternoon like dosing or feeling tired was normal. Until now, it's like now, why do people take naps in the afternoon? I don't even get it anymore. But you know, joking aside, I think there is a huge impact on energy levels and your mental fog. And then obviously long term leads to insulin insensitivity, which leads to all sorts of problems, chronic problems.</p><p><strong>Harry Glorikian: </strong>Yeah. So. On the website, you know, you guys talk about hardware, software and then this very interesting word called insight. So I want to sort of focus on the insights part of it. What kinds of analysis or advice do you offer members about eating or exercise? And if you can describe the scoring system in the in the app, the I think it's called the zone score and the day score, right? So just if you could help me understand that, that would be good.</p><p><strong>Maz Brumand: </strong>Yeah. Well, you know, one of the things one of the early decisions we made was really focus on creating content and education. So we publish hundreds of articles a year about metabolic health and how different things affect you, and some of them are really deep and well researched. And it's scientifically based. So we put a lot of energy into creating content that will help explain the science and explain the physiology. So there's a lot of content that is available on our blog that's available in our app. And so that's a primary focus for us. One of our objective is actually to make metabolic health into the zeitgeist. And if you go on Google, search that you'll find Levels is one of the top hits as explaining what all that is. So there's a huge philosophy within our company that we want to be science based. We want to help people understand what metabolic health is and how they can affect it. So that's the core philosophy. The second question you asked is around what is Insight. So you want to know, for example, if your glucose spiked right and you haven't logged anything, we ask the user, Hey, did something happen? And that's a teaching moment where they go on and put in, "I ate oats for breakfast," Or something like that's a teaching moment.</p><p><strong>Harry Glorikian: </strong>And then having content that explains that is when you have that aha moment. Or let's say you ate something one day that affected you. Nothing. Fine. And then the next day, it's a crazy response. We give the ability for people to compare. So imagine one of the things is the order in which you eat your food actually matters, which is actually really mind blowing concept, meaning I can enjoy the same thing. I just have to change the order. For example, if you eat naked carbs at the beginning of your meal versus if you're having protein, fats and fiber and then eating the carbs later, glucose response will be different. So helping people compare different instances or behaviors is another insight. And for example, you could also do, easier, you could say, like I ate dinner, sat on the couch, watch TV, or I ate dinner and took my dog for a walk for 10 minutes. Not even something strenuous. And you'll see the response. So these are moments that it creates these aha moments or insights that will help you change your behavior.</p><p><strong>Harry Glorikian: </strong>Does the app actually, you know, other than showing the spike, does it sort of make it digestible for someone? I've not played with it, so that's why I'm asking. Does it put it into, you know, human speak or some way to communicate with someone to let them know that these are things they they should be paying attention to?</p><p><strong>Maz Brumand: </strong>Yeah, I think the short answer is yes and no. Yes, in the sense that we do it today and we're planning to make it better. No. Are we reached the end goal to make the perfect app? Not yet. We're in that journey and we're constantly innovating and creating new experiences and new ways to help people understand their behavior. But I'll give you an example. If you, for example, see a spike after a workout...What happens when you do strenuous workout, your body produces glucose to power you, and so you'll see a spike, but that spike is not the same as if you ate a donut. And so we will show content to people that say, Hey, did you know that this is a spike and we're not going to hold this against you? For example. We'll take it out of your score because it's generated based on good behavior, which is exercise, versus not so good behavior which is eating a donut.</p><p><strong>Harry Glorikian: </strong>Right, right, right. And there's a difference between a spike that comes up and down, which is normal versus one that stays up for a long period of time.</p><p><strong>Maz Brumand: </strong>Yeah. The area under the curve is important now. I think another angle we haven't talked about yet is research. I think we know a lot, but real time CGM in health and wellness, at least in the wellness side, is relatively young. So there is a lot of work to be done to actually understand at a deep level all these questions that we have and you have on the customer will have. So there's a lot to do there, which we could talk about separately.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I actually, I mean, I think about all the different companies in this space and I think like you guys are running probably one of the largest, sort of, I don't want to call it a clinical trial, but for a better word, right, on actually a healthy population looking at this space. So the data is going to be hugely valuable to   drive, you know, next level of how to communicate and what to communicate to each person.</p><p><strong>Maz Brumand: </strong>Yeah. And also, you know, we take actually research pretty seriously and science pretty seriously. If you look at the list of our advisors, we have some of the most thoughtful people in the world being on this journey with us. People like Dr. Lustig wrote the book Metabolical. Or Dr. Ben Bikman that wrote Why We Get Sick. Or Dr. David Sinclair, that wrote Lifespan. So we have a lot of serious people that are involved with us trying to further science, and we also have a lot of research projects going on with some of these folks plus other folks to answer some of these questions.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Maz Brumand: </strong>How do you guys—there's a few different companies out there that are doing this. How do you guys differentiate yourselves from these different players that are out there?</p><p><strong>Maz Brumand: </strong>Yeah, it's a good question. There is a couple of things. I think the consumer angle of this space metabolic health has, for the most part for a long time been ignored. A lot of people are creating products for payers, and kind of disease. And so we put on the hat and say, Look, who's the best person to manage or care about their health and take actions that improve their health? It's the consumer. So our whole approach is consumer-centric, including the consumer in the middle and creating value for them, building trust for them and helping them in their metabolic health journey. So I think that's differentiated in the sense that all of our decisions are ultimately driven by that mission. I think the second thing is that we are very much science based and research based. So if you look at how we think about these things and read our content, it's very much ground level up thinking about at the cell level what's happening. And we also haven't narrowed it to a specific disease, right? We don't call it diabetes management program, which we can't anyways because we're in the wellness space. But even if it could, we wouldn't. And so because we're looking at a much more broad metabolic health. How can we make sure that your cells are healthy and using energy and producing energy in a way that will prevent both the disease states, hopefully, one day, but also the wellness space. So really marrying this short term like I want to feel better, I want to look better. I want to have more energy. I will spend more time with my kids. I want to have high fertility. Whatever it is like that is just as important than trying to tackle disease through payers. So I think going from this broader angle is also something that's unique.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I'm a firm believer that everything is moving towards keeping people healthier as opposed to just treating them when they're sick, it's going to be much more profitable. But which brings me sort of: the website talks about customers as members, right, so I'm assuming the business model is around subscription. So can you explain sort of how that works, that subscription program and what features are included?</p><p><strong>Maz Brumand: </strong>Yeah. So we think of it as a membership. To us membership means something different. We see as the health journey as a long term thing, like managing your health and improving your health is not a one time transaction. It's also a two way conversation between us and our members, meaning we want to engage with our members. We want to hear from them. We want to them to help us improve the product, but also create a community. So it's much more than just transactional. I'm selling you a single product and or a subscription. It's more about like, how can we create this long term relationship that's based on value creation for the member and building trust for the member for the long term so we can continuously drive value for them? And that continuous value creation trust and two way relationship is the basis of why we call it a membership because it will help inform our business vision and product decisions design decisions in a different way. When you think about this as a two way relationship over the long term.</p><p><strong>Harry Glorikian: </strong>So just talking about business models, I mean, you know, people always ask me, you know, Harry, all these technologies are great, but they're usually pretty expensive, right? Depending on where they start. And then, you know, obviously, you know, these things come down over time is, you know, how do you see this? I know, you know, the group is starting with, which is usually the higher price. And how do you see this coming down for a much broader audience over time?</p><p><strong>Maz Brumand: </strong>Yeah, it's a good question. I think the technology, obviously in the wellness space is relatively new, right? And so any new technology is going to be higher priced. So I think, as CGM and sort of all the technologies become more mainstream, the concept of not just CGMs but bio-observability, becomes more mainstream and it becomes a consumer thing, it will help drive down costs. And ultimately, I think there's two questions to be asked. One is, is the product and service providing more value than it's taking in in terms of cost and price? That's question number one that we have to answer regardless of what the price is. When Tesla came out for a subset of their customers, it was a $120,000 car but it created more value in their eyes than the price tag. So I think that has to be important and true. And so that's question number one. The second question is affordability, right? No matter how much value creating, if it costs $10,000 to get this membership per month, know nobody's going to be able to afford it, except a few. So you have to solve both problems, the value problem and the cost problem. And the cost problem is getting more efficient in terms of creating products and services, using technologies that become more mature and consumer friendly so their prices go down.</p><p><strong>Maz Brumand: </strong>And one of the things in our membership, actually, I should have probably clarified, is, we will not mark up the hardware and services that we provide from third parties. And so we will try to do it at close as costs as we can. There may be a small difference just because prices go up and down and there may be volatility cost. But our problem is is that we will provide these products and services at cost to our members so that we have no incentive financial incentive to sell you more stuff up, sell you more stuff. Right. When I say you should buy another CGM, we don't make any money on that. And so therefore, when we say you should get another CGM, you want that to be truly aligned incentive with our members. Or when we say you should go get <i>x y z</i> down the line, that's all possible cost for us. And really, what we're focusing on is the membership fee, which is an annual number that's detached from your level of consumption.</p><p><strong>Harry Glorikian: </strong>And yeah, and I think just for to so that people understand is, you know, you guys don't develop the CGM hardware, you know, the part that sticks into your arm, right? My understanding is that you ship, and correct me if I'm wrong, it's a Freestyle Libra CGM from Abbott, if I'm correct. Okay.</p><p><strong>Maz Brumand: </strong>Yeah. So exactly. So we use third party products and services like the CGM, because that's the sensor that's been developed. Many, many years and a lot of work has gone into it. So we'll take that technology and then our experience and software and insights and scoring will leverage the hardware to help people make decisions about their behavior by closing them.</p><p><strong>Harry Glorikian: </strong>Now, at the same time, I think, again correct me if I'm wrong, but I think you guys are still in beta, getting ready to launch. And when do you guys think, I mean, I know like, well, the last thing I got to see on your website was like, you've got 85,000 people signed up, right? And, you know, I don't know if that number has changed. So I don't know if you have a a newer number for me, but I'm assuming you're going to try and ship that, get this out sometime this year.</p><p><strong>Maz Brumand: </strong>Yeah, I think the number is, I think upwards of 150,000. And the answer is yes, we want to ship it. But one of the decisions we made consciously is we want it to ship it in a way that that makes sense. And that needs a number of things. As you know, one of the strengths of start ups is to be able to iterate and learn fast, to be able to talk to their customers and learn from them. Under a beta, I think that enables you, without having huge volumes of people and problems to deal with, to innovate fast. So you can actually, in the end, get to the product that will really help people or create value for people faster. So that's kind of the thesis of why data. And when we plan to release beta is going to be sometime this year, hopefully sooner than later. Hopefully in Q2, but it all will be predicated on, Do we feel like we're ready to provide that experience?</p><p><strong>Harry Glorikian: </strong>Well, yeah. I mean, if you've got 150,00o people and I think I read on, you've probably have changed this. But again, I want to say it was like, you know, two thousand kits a month. I mean, obviously, the company's got to ramp itself to be able to meet, you know, get the 150,000 out to people as quickly as it can.</p><p><strong>Maz Brumand: </strong>Yeah, exactly.</p><p><strong>Harry Glorikian: </strong>So is there a. I don't know, longer term play that you're thinking about, at Levels? I mean, beyond CGM, right? Beyond the, is that just the tip of the spear? Do you want to integrate more types of health data and apps in so that you can give more holistic advice?</p><p><strong>Maz Brumand: </strong>Well, I think, you know, the North Star is bio observability, right? CGM is just one. But what's happening in my body based on my behavior? And can I show that to the user in a way that will help them change behavior that ultimately will lead to better outcomes for them and short term make them feel better on a day-to-day basis. So I think that's the North Star. Obviously, glucose CGMs are available, so we're using them. But that's the North Star. And if you think about, if you take that to its conclusion, like every action that we have affects a lot of things in our body, whether it's generating stress like the cortisol response or generating other reactions in the body. So I think the long term vision is, can we help close this loop based on our behaviors and what's happening at the molecular level in our body? So that's kind of like closing the feedback. So getting the assessment to the user and then also helping them now that they've got the insight and they see what needs to be done, help them with the products and services that will help them achieve that goal of of improved health.</p><p><strong>Maz Brumand: </strong>So let me, I'm going to pick on your like, you've been at Apple, and now you're doing levels and you've been doing this for a while, like, your personal vision of of possibilities here. Like, can you imagine a time where everybody with a smartphone or a smartwatch is sort of getting daily feedback from their devices on how they can optimize nutrition, exercise, sleep for maximum health?</p><p><strong>Harry Glorikian: </strong>Yeah, I think that's the vision, right? I mean, the consumerization of health. I think the stuff that Apple took to put the data and make their data available to the user and allow people to build on top is, I think, the revolution in personal health. And I think, you know, the market dynamics will drive innovation in many different ways. I mean, Levels is just an example. Levels wouldn't not have existed if this consumerization foundation wasn't set up by companies like Apple. At least that's what I believe. So I think the short answer is yes. I think by putting the tools in place and creating a business environment for people to innovate and provide services to consumers, I think the market will eventually figure out how to help people live healthier lives. Whether it's in this form or not, meaning whether it's a watch on your wrist or a CGM in your skin or whatever, it's hard to say, you know, 20 years from now, but I think the end conclusion is going to be that people are going to know based on their individual physiology, how to optimize their health. And I hope my hope personally is to not focus on just disease, but the wellness leading up to that because. There is a lot to do in that space to make sure people are living their fullest lives and happiest lives.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I find it fascinating, right, that Apple has basically created this ecosystem where they're not necessarily profiting off of the health and wellness space and the way that you would think, being charged for it, but that they've created an ecosystem that everybody says, I have to have these devices and interfaces that that makes them almost core to how this is all rolling out.</p><p><strong>Maz Brumand: </strong>Now, because I think it's not a zero sum game, and if you change your mentality from how can I make the most amount of money to consumer-centric? Like, actually help consumers, like what does that look like? It no longer becomes a zero sum game.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, but, you know, if you think about it, though, like, you know, I've been in the health world for....Everything we make is very purpose built, right? And there's a reimbursement or something that's attached to it. Apple is saying, "Listen, I'm going to create an ecosystem, I'm going to create a platform. You can, you know, use an API to get information in and out, right? And I'm going to make it easy for you to sort of do monitoring and apps and everything else. You just need to buy my devices, ad I'm fairly happy. I don't need to make money on the purpose built product like we do, like we have in health care historically." So it's a different way to make money, but in the same ecosystem, which is fascinating.</p><p><strong>Maz Brumand: </strong>Yeah, yeah, completely. And people that build on top obviously can monetize that in a way. But yeah, I think just idea of being a platform is just a different model. Right. It's not about creating a purpose built product for revenue. It's a platform where other people can build on top and make revenue, but also strengthens your own business too. It's not completely for non profit. There is a business strategy there. But the business strategy is much more aligned with consumer interest and consumer value creation than it is this zero sum game, which unfortunately our health care system has devolved into, with the disintermediation that we've seen with the buyer being different than the end consumer. So when you're actually designing a product, natural incentives will make it so that you're designing it for the buyer, not the consumer. So you end up creating a product and optimizing features for the buyer that has certain interests. But then you expect the end user, which is a different person, to want to use it, and that's how you end up with kludgy products that maybe you don't want to use. Right? So nobody loves using a product that was created for an insurance company as a consumer. So I think this changes that dynamic completely.</p><p><strong>Harry Glorikian: </strong>Oh yeah, I mean, I think, you know, had you looked pre iPhone in apps and so forth, I mean, this platform to lay all these other things on top of just, you know, again, they were either purpose built or they didn't exist. So this completely creates a brand new ecosystem for opportunities like Levels and other technologies like that.</p><p><strong>Harry Glorikian: </strong>Yeah, definitely. And I think, you know, Apple's done a lot of great things, which I'm really proud to be part of and really have deep respect for for the company and leadership. You know, the work on research is quite groundbreaking, starting the virtual research, for example, at the scale that it did for the Apple Heart study and just just change the thinking about research. And you know, obviously you continue with the Research app and collaborating with researchers and then creating the platform ResearchKit for other people to research. It just completely changed the conversation. And I think, you know, it's I have tremendous respect for the impact that Apple has had in this space and will continue to.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, you know, the conversation I always have with people is, you know, when we were working on a product we already knew like we were going to go for regulatory approval. Everything we were doing, like there was no time to sort of play like you had to have it sort of baked of where you were going to go from day one. Whereas a lot of these companies that are in the wellness space, let's say Apple, you get a chance to sort of get feedback, adjust, get feedback, adjust. And then when you if you want to step over the regulatory hurdle, you have a lot of information now to sort of make that play. Historically, the playing was not necessarily easy to do. I mean, getting this data, if you think about, you know, billions of users, that's a lot of data that you get to sort of look at and screen and decide what you're going to do next before you do it.</p><p><strong>Maz Brumand: </strong>Yeah, you know, I think it's not that linear within Apple because very strong privacy stance. So it's not like you can just grab the data and do whatever you want with it. But I think your general concept is true, right? If you take the idea of being startups and think about like, OK, I'm going to iterate, I'm going to try a bunch of stuff, I'm going to iterate and then I'm going to come up with the product and I'm going to go build that right hypothesis test results building. You couldn't historically do that enough. Right? Because you just do what? It's locked, right? It's now locked. You cannot make a change. So even if you found outk, let's say you did that. You created a product and then things changed like, OK, I can't. Yeah, yeah, it's like, sorry guys, I know you really want that feature, but it's not going to happen. I do agree that it's just changing the conversation and then thinking has been fantastic. And, you know, it's also really important to say there is a reason why the regulatory space exists and the fact that we do need protections that the FDA and others put into place. So it doesn't take anything away from that. It's the question is like how do we create other ways to allow innovation to happen while keeping people safe? And in the right things?</p><p><strong>Harry Glorikian: </strong>Oh, yeah, I mean, I believe me, I love the FDA. Don't don't misunderstand me, I think they they definitely like have to play their role, right? But on the other hand, I love the fact that you can actually interact with someone, get data, identify signals, be able to sort of iterate on that. And then when you, you know, when you find something really worth sort of moving on that may be beyond wellness, that that opportunity has now opened itself up assuming, you know, privacy and everything else is is kept, you know, under control. But I think the advances that have been made say in the last five years have been unbelievable. You know, some of these things that we're talking about five years ago were really not available. And now, you know, I can manage myself fairly remotely and get a longitudinal view that I can share with my physician that helps him understand my body better.</p><p><strong>Maz Brumand: </strong>Yeah, yeah. I couldn't agree more. I think this idea that you would have these episodic visits with your doctor and they will not be informed from any of the past interactions or data, it's just we'll look back on this in 10 or 20 years and think, Wow, that was a huge influence on health, where every interaction is like a surprise to the doctor because there's nothing informing them other than a paper thing that you filled out, which nobody reads, and they've got to make decisions about your health.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I think about these things like, you know, I walk in, I give them a longitudinal view of my, you know, whatever I've been tracking. And the human brain is amazing at looking at a pattern and seeing something that's out of line. And if it looks normal, they just go, Hey, that looks great and move on.</p><p><strong>Harry Glorikian: </strong>So we know, you know, obviously you're being in this space for a long time. You'll know a lot of the research is also done in, you know, in perfect situations. And it's done on a cohort that's probably not representative of the entire world. So, yeah, I think it's both things. I think one is if it's not out of the normal, which is probably a large standard deviation, it gets passed through. And then also, if we just don't know because we didn't have the tools to research the way that we're doing research today. And this is my point about Apple changing, also thinking about research not being, you know, 30 people in the northeast that we studied. And then we came up with the guideline for the entire world. It doesn't work that way. So I think, yeah, I think there is a lot. I think we're in the early innings of really changing health and health care, not just Levels, but everybody. I think the big players, us, the health care systems, the payers, and it's pretty exciting time. And you know, you asked me the question of why did I leave Apple to come do this? It is because there's just so much interesting stuff going on, and it is the time to actually make those leaps in collaboration with people like Apple and then hopefully one day also with the payers and the provider.</p><p><strong>Harry Glorikian: </strong>Yeah. No, and I think their world is changing, too, just because now we're, you know, moving more towards paying for outcomes as opposed to, you know, I pay you for everything that you do. So. Anything else that I didn't ask you that is your burning to to tell us about Levels or do you think we covered it?</p><p><strong>Maz Brumand: </strong>I think I think you covered most of it. I think there's just so many things to talk about in this space that we could probably go on forever if you want.</p><p><strong>Harry Glorikian: </strong>Yeah, no, I've been I've been trying to convince people that that are interested in health, wellness, energy, optimal, you know, optimum performance that having a CGM and getting a good feel for. What's the right food, when to have it? What happens measuring it, et cetera? You know, and being able to give them the right feedback, being able to give them maybe an alternative food that so they don't have to give up something necessarily that they really like. Those are all important feedback loops to give them.</p><p><strong>Maz Brumand: </strong>Yeah. And you know, you bring up a really good point because a lot of people think if they want to take control of their health, whether they lose weight or want to feel better, they have to make these massive changes. They've got to stop eating all the foods that they like. They've got to go to the gym, you know, two hours a day. And my personal CGM experience showed me the opposite. There was just a few tweaks I needed to make to change the outcomes completely. And, you know, and the reason I was doing the things I was doing wasn't because I was like, Hey, that's my cheat, and I really want to enjoy that. All this stuff was I didn't even care about it. Like, I really didn't think that oats is so much better than eating eggs in the morning. Like that was not but science. I mean, the best available science of the time was that eggs are bad due to cholesterol and oats are heart healthy. And so so a lot of it is also not just figuring out based on real data that's personalized to you, like one of those small changes that I can make that will completely change my life. I mean, that's what's magical about this technology. It's not somebody writing a hypothesis piece about the general population that's know makes no sense with your lifestyle, but also but instead figuring out okay, based on you, your physiology and your lifestyle. How can I? I can help, you know?</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, my new book just came out on, you know, how to incorporate technology into your life. And I always tell people, I'm like, Pick one. Like your scale. If you see the if you see the line going in the wrong direction, maybe it's time to course correct, right? Or, you know, a wireless blood pressure cuff, right? I mean, blood pressure is one of those things that sneaks up on most people. They don't see it until it's too much of a problem. Well, if you notice that it's moving in the wrong direction, right? Maybe you'll lose some weight. Maybe you won't add as much salt. It's these aren't huge changes because you're trying to do it early enough that you affect where the line is going. And so a CGM is the same thing in a sense. And if you have enough of these in your arsenal over time, I think you can do a pretty good job of managing, at least extending. That you know how healthy you'll be for how long.</p><p><strong>Maz Brumand: </strong>Yeah. You know, we think about this in a... I'll explain how we think about this. So we kind of look at certain metrics or bio metrics or information from your body. You can think about it. There's a law. There are high frequency, and give you feedback. Let's just call them feedback metrics for a second. Right, these are things that, for example, my glucose, when I see that move in real time high frequency, I can change my behavior. And these are all high frequency, completely correlated to your behavior on short-term outcomes. And then there are other metrics that are much lower frequency, meaning you don't take them all the time but are really representative of your of your health, right? Which is, for example, is my A1C below or above a certain amount, is my blood pressure below or a certain amount, is my waist circumference below a certain amount. That really shows you the outcome. And then the question is how can I influence behavior by measuring these feedback metrics today and based on the science and correlations that we know leads to better target metrics or health metrics in the future? And so that's kind of the framework where help affect behavior today with high frequency metrics to drive better outcomes with lower frequency, more outcome driven metrics in the future.</p><p><strong>Maz Brumand: </strong>Yeah, no. And I totally agree, and it really is going to come down to the data that you're putting in the way the software does its analytics and then communicates back with the individual because some of this has to be put into normal speak as opposed to sometimes when you talk to a physician. They're using acronyms and a language that most people can't necessarily easily understand.</p><p><strong>Maz Brumand: </strong>Yeah, yeah, definitely. And I think there are three problems probably to solve to really get to mass market. I think one is the hardware-software, making it the software more intuitive and more insightful. The hardware cheaper, less intrusive, so on and so forth. I think the second problem is the research problem, right? How can we actually find understand these real time metrics better and its correlation to long term metrics? And what are the best ways to influence behavior? So there's a big research component there, given that a lot of these things are new. And then the third one is the social aspect of it, to make sure that people understand it, providers understand it, payers understand it. So how can the ecosystem adopt this new way of thinking and new way of affecting health and wellness? So I think you have to have all those three to really make a big impact at the much larger scale than earlier.</p><p><strong>Harry Glorikian: </strong>Yep. No, couldn't agree more. It was great having you on the show. I wish you and the rest of the Levels team good luck in this upcoming launch. And you know, I should probably go get another CGM and tack it on and and see what's changing over time.</p><p><strong>Maz Brumand: </strong>Sounds great. Thanks, Harry. It was a pleasure.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
]]></description>
      <pubDate>Tue, 15 Feb 2022 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Maz Brumand)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Until recently, getting a blood glucose measurement required a finger stick. The whole process was so painful and annoying that only diabetics taking insulin bothered to do it regularly. But there’s a new class of devices called continuous glucose monitors, or CGMs, that make getting a glucose reading as easy as glancing at your smartwatch to see your heart rate. A CGM is a patch with a tiny electrode that goes into your skin to measure glucose levels in the interstitial fluid, plus a radio that sends the measurement to an external device like your phone. The devices are pain-free to use, and they’re rapidly coming down in price. Harry's guest today, Maz Brumand, is head of business at Levels, a startup that wants to use CGMs to help everyone understand how their choices about food and lifestyle affect their health.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>People used to go through their lives not knowing very much about what they were eating or what was going on inside their bodies.</p><p>If you time-traveled back to the year 1900 and you stopped a person on the street to ask how much they weigh, they probably wouldn’t be able to tell you—because the bathroom scale didn’t become a common consumer item until the 1920s.</p><p>If you visited the 1960s and walked into a grocery store, you wouldn’t be able to figure out the calorie, protein, and carbohydrate content of anything—because nutrition labels weren’t a thing until the 1970s.</p><p>And until very recently, the only way to figure out your blood pressure was to visit a doctor’s office or find someone who’d been trained to use a blood pressure cuff. Now you can buy an automated home blood pressure monitor for under fifty dollars.</p><p>And of course, if you have a wearable device like an Apple Watch, a quick glance at your wrist can show your heart rate or even an EEG readout.</p><p>So, what’s the <i>next</i> health-related measurement that’s about to go from obscure to commonplace?</p><p>It might just be your glucose level. </p><p>Until recently, getting a blood glucose measurement required a finger stick. The whole process was so painful and annoying that only diabetics taking insulin bothered to do it regularly, to avoid episodes of hyper- or hypoglycemia.</p><p>But there’s a new class of devices called continuous glucose monitors, or CGMs. They’re pain-free, and they’re rapidly coming down in price.</p><p>A CGM sticks to your arm and it has a tiny electrode that goes into your skin to measure glucose levels in the interstitial fluid. There’s also a radio that sends the measurement to an external device like your phone. </p><p>I wear a CGM myself. Over time it’s teaching me which foods cause my glucose to spike the fastest, and which ones can help me keep it more even over time.</p><p>My guest today, Maz Brumand, works for a company called Levels that wants to use CGMs to help everyone understand how their choices about food and lifestyle affect their health.</p><p>Maz left a pretty high-level position at Apple last fall to join Levels.</p><p>And my first couple of questions for him were about what attracted him to the company, and why he would leave a company like Apple, with more than a billion users worldwide, for a health-tech startup that isn’t even out of beta.</p><p>So here’s my conversation with Maz Brumand.</p><p><strong>Harry Glorikian: </strong>Maz, welcome to the show.</p><p><strong>Maz Brumand: </strong>Thanks, Harry. Thanks for having me.</p><p><strong>Harry Glorikian: </strong>So I want to start by maybe, [going over] the story behind Levels. I mean, you've got five great founders with, you know, stellar Silicon Valley credentials from companies like Google, SpaceX. And, you know, pretty much why they started the company, you know, and I'd love to understand sort of the special sauce and unique insight that you guys felt that you could bring to the market for mobile health monitoring.</p><p><strong>Maz Brumand: </strong>Yeah, that was a good question. You know, we have found five founders, as you mentioned, and they're just fantastic group of people. They're they're very passionate about this area in health. And I think all of it started from Josh, one of the founders where he quickly understood that there is power in CGMs and that he has been in his account living a healthy life. But when he actually started measuring his glucose, he realized that a lot of the things common knowledge or advice around food was wrong. And there is great stories on that on our podcast. For example, drinking juice. And all of us think that drinking juice is the healthiest thing you could do. And so I think one of the investor meetings, he took a juice that was, you know, presumably very healthy, a green juice, and drank it and shot his saw his glucose spike sky high. And so that was kind of an indication that there is something here. But you know, the thesis behind the company is that we don't know what's going on in our bodies. And if we could create a dynamic where we have bio observability and by that, I mean, we can actually see what's going on inside our body based on our behavior and actions. For example, in the case of CGM, if you eat a hamburger, the CGM will tell you how your body's going to react to that in real time. Or if you eat a doughnut. It will tell you so. There is no two questions about it. It's very specific to you and it will show you in real time how your behavior is going to impact your health. And that's very powerful. And so the thesis of Levels is starting with CGM, can we create that feedback? Can we close it in real time? Can we show you how food and your lifestyle affects your health and create this path towards healthier lifestyle and healthier decisions?</p><p><strong>Harry Glorikian: </strong>Yeah. You know, we're going to jump into all of that, but I want to step back for just a second. You spent nine years at Apple. You were head of business and strategic development for the Health Strategic Initiatives Division. So just did you? What? What products did you did you work on? Because that's super exciting.</p><p><strong>Maz Brumand: </strong>Yeah, the stuff that's public. We worked on a lot of research efforts to really understand, for example, how human cognition works. One of the projects I led was quantifying cognition to understand how cognition changes based on lifestyle and then also based on decline due to disease. And that's just an example of one research. We had research around how screening affect early on will change the trajectory, so I spent a lot of time thinking about how does our behavior and how does technology allow us to improve human health.</p><p><strong>Harry Glorikian: </strong>So I was reading about your background. I mean, you, you seemed like an outdoorsy guy like, former triathlete. If I if I read it correctly, were you always interested in health and wellness technology or did that something was that evolved over time?</p><p><strong>Maz Brumand: </strong>Yeah, that's a tricky question. From the wellness perspective, I've always been interested. I've always been an athlete. I've always been active. I always try to manage my food. But if you asked me 10 years ago that I would end up in health, I would have told you, you're crazy. And the way I thought about health was always like being hospitals and IT systems, and it did not interest me at all. I thought it was slow and and not very interesting. But as Apple entered its health journey, obviously with releasing the Watch and then putting a heart sensor on the Watch, which was actually more elementary, yeah, I've got one, too. We quickly realized that there is so much power putting the consumer at the center of their data, and that kind of led to the whole platform that Apple created around HealthKit and ResearchKit and then built the products at the top. That being involved in that and I was part of the New Technologies Group within Apple on the commercial side. So I got introduced to that. And when I saw that, I fell in love with it because I saw that we can really change the discussion about health and put the consumer at the center. And nobody's better than the consumer to make decisions about their health. They're the one that probably cares most about their health. And so creating the dynamic where you allow consumers to take control of their health, by providing insights, by providing clarity, by providing services to help them manage that, seemed like a better way than having a disintermediation that we've obviously experienced in U.S. health care, and it's very well documented.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, you know, I'm in the venture world, so I mean, I love the the way the technology is changing the entire, you know, center of power or center of gravity that that that's evolving over time. But I mean, Apple is like, I don't know, over a billion users in the world, so, you know, you left for a startup. Why?</p><p><strong>Maz Brumand: </strong>Yeah, that's a good question. You know, working at Apple, I learned that to really make a difference, it has to be an ecosystem. And each of the players in the ecosystem have a different role. For example, Apple has really played a fantastic role in creating the platform and allowing people to take control of their health data on their phones. And it's built a platform where other people can now build on top of to help. But Apple plays a unique role in the sense that it is this platform and it is going into verticals and trying to help wherever they can. But there are many more opportunities for startups like Levels to come and build on top. And when I was doing a little bit of soul searching about what would I do, I want to do with my life for the next 10, 20, 30 years, I was thinking about what are the big problems that we need to solve in health, and two areas became pretty apparent to me. One was metabolic health, because it's the underlying of many of our chronic diseases, which has not only economic implications, but health implications around morbidity and mortality. And it's a big problem not just in the US, but around the world. And then the second was mental health. And looking at the space, what I thought made sense and looking at the companies, metabolic health is what I really wanted to go tackle. And I got introduced to Levels about a year ago and I've been watching them.</p><p><strong>Maz Brumand: </strong>And the fact that they're building in public and being so transparent really helped me get to know them over the years. And I think the metabolic health space or in some of these things that are still in early innings, you need a startup to take the first step and accelerate and take risk to make this into something that consumers will accept. And there is a lot of things that needs to be done and put in place for this mission to be accomplished. But I felt that I could do that inside a startup faster. And then obviously, companies like Apple and others can help scale this and make it available to many, many, many more people, not just here in the U.S., but globally. But I think there's just a different role to be played by startups and Apple, and I felt like getting to know Levels, I felt like they've got the DNA that's not too different than Apple. High integrity, focus on customer trust. Just like Apple, focused on privacy and trust and the way they're building the company focusing on culture is also something that's quite differentiated. So even though there's different places in their evolution, I felt like it was similar DNA between Levels and Apple. And it's just that in metabolic health today, I think a startup like levels can move a lot faster and create that change.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I've looked at a lot of these different, you know, technologies people say, Well, you know, you're wearing an Apple Watch. What does that do? What does this do? And I always tell them, I'm like, I think of the Apple Watch as sort of a aggregator or data repository, and things that sit on top of it are the monitoring or applications that would then do something with the data that that then is useful to me. But I mean, I've I've worn a CGM, you know, I can tell you that Korean bibimbap like spikes the hell out of me and it stays up there for much longer. But but you know, I just I was talking to somebody the other day and they're like, OK, why would you wear a CGM? And and you know, how do I use it and so forth? And I was trying to walk them through the other things. But you get to now tell our listeners: So why do healthy people need this data? Why is this CGM data useful for people who are not diabetic or pre-diabetic, right?</p><p><strong>Maz Brumand: </strong>Yeah, yeah, that's a really good question. Look, you can look at everything from a disease perspective and look at, so now I've got a disease, how do I treat it or treat the symptoms? Or you could think of a foundation. And so what is actually leading to these things that are now disease and or symptoms of disease? It's kind of like saying, I'm overweight, so I should go get a scale versus having a scale to measure yourself to make sure you don't become overweight, but then saying, I only sell you a scale if you're already overweight. So if I show up and I'm skinny, I cannot buy a scale. It's kind of a crazy thought experiment, right? And then the CGM is based, I think, you know, we should think about like, what are the underlying things that are leading to these diseases? And it is metabolic dysfunction, which is how your cell produces and uses energy. And this is a long journey. It doesn't happen overnight. So it may take 10 years for somebody to develop diabetes and you really want to measure their behavior today that's going to lead to that metabolic dysfunction and intervene today. So what CGMs do and other technologies like that, is they provide real time feedback at the molecular level, which is what called bio-observability, to help you change that. So if I don't know something is not working for me metabolically, how can I change that behavior? For example, I used to eat oats in the morning.</p><p><strong>Maz Brumand: </strong>And I think many people do. I always thought that's the healthiest thing I could do, I sometimes would even skip the milk and just be literally oats, which is crazy, right? And I thought I was the healthiest person in the world until I put on a CGM or saw other people put on a CGM, that that oats are really bad for you, especially right smack in the middle of your morning, when you're actually trying to have sustained energy over the day. So CGM enable you to see that. Because first of all, I don't think science and knowledge around some of these things is is is well understood because it's so hard to do a clinical research to study food. There are just so many barriers. I think CMG for the first time at a personal level was telling me, like, what do I need to do today that would help me have a better outcome years from now? And also—that's the disease perspective, so you asked about disease—and then from a wellness perspective, there's a lot of benefits. Like the fact that I have higher energy. The fact that I am probably healthier, metabolically healthier. So I'm more resistant to disease. Obviously COVID being a big issue. So I think there's a lot of benefits in thinking, both from how can I address the underlying factors that lead to disease and then also on a day to day basis, how does that make me feel better?</p><p><strong>Harry Glorikian: </strong>Yeah, so so for those you know, people listening, what's the benefit of keeping your glucose level flat and steady? I mean, I do my best to do that, but you know, I'm not sure that everybody fully appreciates what that does.</p><p><strong>Maz Brumand: </strong>Yeah, I'll talk about it from the wellness perspective. When you have a glucose spike, your body produces insulin and it crashes that back down. And when you get back down, that's the afternoon lull where you feel low energy. That's our lethargic brain fog. So just from a wellness perspective, just from, you know, how do I want to live my life perspective, managing these spikes allows you to feel better during the day, and that's a pretty easily, like, you'll feel that. That's from the energy level, also from brain fog. You know how in the afternoon, you might feel like your brain is not working?</p><p><strong>Harry Glorikian: </strong>Yes, I remember how it used to be.</p><p><strong>Maz Brumand: </strong>Me too, I used to think that afternoon like dosing or feeling tired was normal. Until now, it's like now, why do people take naps in the afternoon? I don't even get it anymore. But you know, joking aside, I think there is a huge impact on energy levels and your mental fog. And then obviously long term leads to insulin insensitivity, which leads to all sorts of problems, chronic problems.</p><p><strong>Harry Glorikian: </strong>Yeah. So. On the website, you know, you guys talk about hardware, software and then this very interesting word called insight. So I want to sort of focus on the insights part of it. What kinds of analysis or advice do you offer members about eating or exercise? And if you can describe the scoring system in the in the app, the I think it's called the zone score and the day score, right? So just if you could help me understand that, that would be good.</p><p><strong>Maz Brumand: </strong>Yeah. Well, you know, one of the things one of the early decisions we made was really focus on creating content and education. So we publish hundreds of articles a year about metabolic health and how different things affect you, and some of them are really deep and well researched. And it's scientifically based. So we put a lot of energy into creating content that will help explain the science and explain the physiology. So there's a lot of content that is available on our blog that's available in our app. And so that's a primary focus for us. One of our objective is actually to make metabolic health into the zeitgeist. And if you go on Google, search that you'll find Levels is one of the top hits as explaining what all that is. So there's a huge philosophy within our company that we want to be science based. We want to help people understand what metabolic health is and how they can affect it. So that's the core philosophy. The second question you asked is around what is Insight. So you want to know, for example, if your glucose spiked right and you haven't logged anything, we ask the user, Hey, did something happen? And that's a teaching moment where they go on and put in, "I ate oats for breakfast," Or something like that's a teaching moment.</p><p><strong>Harry Glorikian: </strong>And then having content that explains that is when you have that aha moment. Or let's say you ate something one day that affected you. Nothing. Fine. And then the next day, it's a crazy response. We give the ability for people to compare. So imagine one of the things is the order in which you eat your food actually matters, which is actually really mind blowing concept, meaning I can enjoy the same thing. I just have to change the order. For example, if you eat naked carbs at the beginning of your meal versus if you're having protein, fats and fiber and then eating the carbs later, glucose response will be different. So helping people compare different instances or behaviors is another insight. And for example, you could also do, easier, you could say, like I ate dinner, sat on the couch, watch TV, or I ate dinner and took my dog for a walk for 10 minutes. Not even something strenuous. And you'll see the response. So these are moments that it creates these aha moments or insights that will help you change your behavior.</p><p><strong>Harry Glorikian: </strong>Does the app actually, you know, other than showing the spike, does it sort of make it digestible for someone? I've not played with it, so that's why I'm asking. Does it put it into, you know, human speak or some way to communicate with someone to let them know that these are things they they should be paying attention to?</p><p><strong>Maz Brumand: </strong>Yeah, I think the short answer is yes and no. Yes, in the sense that we do it today and we're planning to make it better. No. Are we reached the end goal to make the perfect app? Not yet. We're in that journey and we're constantly innovating and creating new experiences and new ways to help people understand their behavior. But I'll give you an example. If you, for example, see a spike after a workout...What happens when you do strenuous workout, your body produces glucose to power you, and so you'll see a spike, but that spike is not the same as if you ate a donut. And so we will show content to people that say, Hey, did you know that this is a spike and we're not going to hold this against you? For example. We'll take it out of your score because it's generated based on good behavior, which is exercise, versus not so good behavior which is eating a donut.</p><p><strong>Harry Glorikian: </strong>Right, right, right. And there's a difference between a spike that comes up and down, which is normal versus one that stays up for a long period of time.</p><p><strong>Maz Brumand: </strong>Yeah. The area under the curve is important now. I think another angle we haven't talked about yet is research. I think we know a lot, but real time CGM in health and wellness, at least in the wellness side, is relatively young. So there is a lot of work to be done to actually understand at a deep level all these questions that we have and you have on the customer will have. So there's a lot to do there, which we could talk about separately.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I actually, I mean, I think about all the different companies in this space and I think like you guys are running probably one of the largest, sort of, I don't want to call it a clinical trial, but for a better word, right, on actually a healthy population looking at this space. So the data is going to be hugely valuable to   drive, you know, next level of how to communicate and what to communicate to each person.</p><p><strong>Maz Brumand: </strong>Yeah. And also, you know, we take actually research pretty seriously and science pretty seriously. If you look at the list of our advisors, we have some of the most thoughtful people in the world being on this journey with us. People like Dr. Lustig wrote the book Metabolical. Or Dr. Ben Bikman that wrote Why We Get Sick. Or Dr. David Sinclair, that wrote Lifespan. So we have a lot of serious people that are involved with us trying to further science, and we also have a lot of research projects going on with some of these folks plus other folks to answer some of these questions.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Maz Brumand: </strong>How do you guys—there's a few different companies out there that are doing this. How do you guys differentiate yourselves from these different players that are out there?</p><p><strong>Maz Brumand: </strong>Yeah, it's a good question. There is a couple of things. I think the consumer angle of this space metabolic health has, for the most part for a long time been ignored. A lot of people are creating products for payers, and kind of disease. And so we put on the hat and say, Look, who's the best person to manage or care about their health and take actions that improve their health? It's the consumer. So our whole approach is consumer-centric, including the consumer in the middle and creating value for them, building trust for them and helping them in their metabolic health journey. So I think that's differentiated in the sense that all of our decisions are ultimately driven by that mission. I think the second thing is that we are very much science based and research based. So if you look at how we think about these things and read our content, it's very much ground level up thinking about at the cell level what's happening. And we also haven't narrowed it to a specific disease, right? We don't call it diabetes management program, which we can't anyways because we're in the wellness space. But even if it could, we wouldn't. And so because we're looking at a much more broad metabolic health. How can we make sure that your cells are healthy and using energy and producing energy in a way that will prevent both the disease states, hopefully, one day, but also the wellness space. So really marrying this short term like I want to feel better, I want to look better. I want to have more energy. I will spend more time with my kids. I want to have high fertility. Whatever it is like that is just as important than trying to tackle disease through payers. So I think going from this broader angle is also something that's unique.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I'm a firm believer that everything is moving towards keeping people healthier as opposed to just treating them when they're sick, it's going to be much more profitable. But which brings me sort of: the website talks about customers as members, right, so I'm assuming the business model is around subscription. So can you explain sort of how that works, that subscription program and what features are included?</p><p><strong>Maz Brumand: </strong>Yeah. So we think of it as a membership. To us membership means something different. We see as the health journey as a long term thing, like managing your health and improving your health is not a one time transaction. It's also a two way conversation between us and our members, meaning we want to engage with our members. We want to hear from them. We want to them to help us improve the product, but also create a community. So it's much more than just transactional. I'm selling you a single product and or a subscription. It's more about like, how can we create this long term relationship that's based on value creation for the member and building trust for the member for the long term so we can continuously drive value for them? And that continuous value creation trust and two way relationship is the basis of why we call it a membership because it will help inform our business vision and product decisions design decisions in a different way. When you think about this as a two way relationship over the long term.</p><p><strong>Harry Glorikian: </strong>So just talking about business models, I mean, you know, people always ask me, you know, Harry, all these technologies are great, but they're usually pretty expensive, right? Depending on where they start. And then, you know, obviously, you know, these things come down over time is, you know, how do you see this? I know, you know, the group is starting with, which is usually the higher price. And how do you see this coming down for a much broader audience over time?</p><p><strong>Maz Brumand: </strong>Yeah, it's a good question. I think the technology, obviously in the wellness space is relatively new, right? And so any new technology is going to be higher priced. So I think, as CGM and sort of all the technologies become more mainstream, the concept of not just CGMs but bio-observability, becomes more mainstream and it becomes a consumer thing, it will help drive down costs. And ultimately, I think there's two questions to be asked. One is, is the product and service providing more value than it's taking in in terms of cost and price? That's question number one that we have to answer regardless of what the price is. When Tesla came out for a subset of their customers, it was a $120,000 car but it created more value in their eyes than the price tag. So I think that has to be important and true. And so that's question number one. The second question is affordability, right? No matter how much value creating, if it costs $10,000 to get this membership per month, know nobody's going to be able to afford it, except a few. So you have to solve both problems, the value problem and the cost problem. And the cost problem is getting more efficient in terms of creating products and services, using technologies that become more mature and consumer friendly so their prices go down.</p><p><strong>Maz Brumand: </strong>And one of the things in our membership, actually, I should have probably clarified, is, we will not mark up the hardware and services that we provide from third parties. And so we will try to do it at close as costs as we can. There may be a small difference just because prices go up and down and there may be volatility cost. But our problem is is that we will provide these products and services at cost to our members so that we have no incentive financial incentive to sell you more stuff up, sell you more stuff. Right. When I say you should buy another CGM, we don't make any money on that. And so therefore, when we say you should get another CGM, you want that to be truly aligned incentive with our members. Or when we say you should go get <i>x y z</i> down the line, that's all possible cost for us. And really, what we're focusing on is the membership fee, which is an annual number that's detached from your level of consumption.</p><p><strong>Harry Glorikian: </strong>And yeah, and I think just for to so that people understand is, you know, you guys don't develop the CGM hardware, you know, the part that sticks into your arm, right? My understanding is that you ship, and correct me if I'm wrong, it's a Freestyle Libra CGM from Abbott, if I'm correct. Okay.</p><p><strong>Maz Brumand: </strong>Yeah. So exactly. So we use third party products and services like the CGM, because that's the sensor that's been developed. Many, many years and a lot of work has gone into it. So we'll take that technology and then our experience and software and insights and scoring will leverage the hardware to help people make decisions about their behavior by closing them.</p><p><strong>Harry Glorikian: </strong>Now, at the same time, I think, again correct me if I'm wrong, but I think you guys are still in beta, getting ready to launch. And when do you guys think, I mean, I know like, well, the last thing I got to see on your website was like, you've got 85,000 people signed up, right? And, you know, I don't know if that number has changed. So I don't know if you have a a newer number for me, but I'm assuming you're going to try and ship that, get this out sometime this year.</p><p><strong>Maz Brumand: </strong>Yeah, I think the number is, I think upwards of 150,000. And the answer is yes, we want to ship it. But one of the decisions we made consciously is we want it to ship it in a way that that makes sense. And that needs a number of things. As you know, one of the strengths of start ups is to be able to iterate and learn fast, to be able to talk to their customers and learn from them. Under a beta, I think that enables you, without having huge volumes of people and problems to deal with, to innovate fast. So you can actually, in the end, get to the product that will really help people or create value for people faster. So that's kind of the thesis of why data. And when we plan to release beta is going to be sometime this year, hopefully sooner than later. Hopefully in Q2, but it all will be predicated on, Do we feel like we're ready to provide that experience?</p><p><strong>Harry Glorikian: </strong>Well, yeah. I mean, if you've got 150,00o people and I think I read on, you've probably have changed this. But again, I want to say it was like, you know, two thousand kits a month. I mean, obviously, the company's got to ramp itself to be able to meet, you know, get the 150,000 out to people as quickly as it can.</p><p><strong>Maz Brumand: </strong>Yeah, exactly.</p><p><strong>Harry Glorikian: </strong>So is there a. I don't know, longer term play that you're thinking about, at Levels? I mean, beyond CGM, right? Beyond the, is that just the tip of the spear? Do you want to integrate more types of health data and apps in so that you can give more holistic advice?</p><p><strong>Maz Brumand: </strong>Well, I think, you know, the North Star is bio observability, right? CGM is just one. But what's happening in my body based on my behavior? And can I show that to the user in a way that will help them change behavior that ultimately will lead to better outcomes for them and short term make them feel better on a day-to-day basis. So I think that's the North Star. Obviously, glucose CGMs are available, so we're using them. But that's the North Star. And if you think about, if you take that to its conclusion, like every action that we have affects a lot of things in our body, whether it's generating stress like the cortisol response or generating other reactions in the body. So I think the long term vision is, can we help close this loop based on our behaviors and what's happening at the molecular level in our body? So that's kind of like closing the feedback. So getting the assessment to the user and then also helping them now that they've got the insight and they see what needs to be done, help them with the products and services that will help them achieve that goal of of improved health.</p><p><strong>Maz Brumand: </strong>So let me, I'm going to pick on your like, you've been at Apple, and now you're doing levels and you've been doing this for a while, like, your personal vision of of possibilities here. Like, can you imagine a time where everybody with a smartphone or a smartwatch is sort of getting daily feedback from their devices on how they can optimize nutrition, exercise, sleep for maximum health?</p><p><strong>Harry Glorikian: </strong>Yeah, I think that's the vision, right? I mean, the consumerization of health. I think the stuff that Apple took to put the data and make their data available to the user and allow people to build on top is, I think, the revolution in personal health. And I think, you know, the market dynamics will drive innovation in many different ways. I mean, Levels is just an example. Levels wouldn't not have existed if this consumerization foundation wasn't set up by companies like Apple. At least that's what I believe. So I think the short answer is yes. I think by putting the tools in place and creating a business environment for people to innovate and provide services to consumers, I think the market will eventually figure out how to help people live healthier lives. Whether it's in this form or not, meaning whether it's a watch on your wrist or a CGM in your skin or whatever, it's hard to say, you know, 20 years from now, but I think the end conclusion is going to be that people are going to know based on their individual physiology, how to optimize their health. And I hope my hope personally is to not focus on just disease, but the wellness leading up to that because. There is a lot to do in that space to make sure people are living their fullest lives and happiest lives.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I find it fascinating, right, that Apple has basically created this ecosystem where they're not necessarily profiting off of the health and wellness space and the way that you would think, being charged for it, but that they've created an ecosystem that everybody says, I have to have these devices and interfaces that that makes them almost core to how this is all rolling out.</p><p><strong>Maz Brumand: </strong>Now, because I think it's not a zero sum game, and if you change your mentality from how can I make the most amount of money to consumer-centric? Like, actually help consumers, like what does that look like? It no longer becomes a zero sum game.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, but, you know, if you think about it, though, like, you know, I've been in the health world for....Everything we make is very purpose built, right? And there's a reimbursement or something that's attached to it. Apple is saying, "Listen, I'm going to create an ecosystem, I'm going to create a platform. You can, you know, use an API to get information in and out, right? And I'm going to make it easy for you to sort of do monitoring and apps and everything else. You just need to buy my devices, ad I'm fairly happy. I don't need to make money on the purpose built product like we do, like we have in health care historically." So it's a different way to make money, but in the same ecosystem, which is fascinating.</p><p><strong>Maz Brumand: </strong>Yeah, yeah, completely. And people that build on top obviously can monetize that in a way. But yeah, I think just idea of being a platform is just a different model. Right. It's not about creating a purpose built product for revenue. It's a platform where other people can build on top and make revenue, but also strengthens your own business too. It's not completely for non profit. There is a business strategy there. But the business strategy is much more aligned with consumer interest and consumer value creation than it is this zero sum game, which unfortunately our health care system has devolved into, with the disintermediation that we've seen with the buyer being different than the end consumer. So when you're actually designing a product, natural incentives will make it so that you're designing it for the buyer, not the consumer. So you end up creating a product and optimizing features for the buyer that has certain interests. But then you expect the end user, which is a different person, to want to use it, and that's how you end up with kludgy products that maybe you don't want to use. Right? So nobody loves using a product that was created for an insurance company as a consumer. So I think this changes that dynamic completely.</p><p><strong>Harry Glorikian: </strong>Oh yeah, I mean, I think, you know, had you looked pre iPhone in apps and so forth, I mean, this platform to lay all these other things on top of just, you know, again, they were either purpose built or they didn't exist. So this completely creates a brand new ecosystem for opportunities like Levels and other technologies like that.</p><p><strong>Harry Glorikian: </strong>Yeah, definitely. And I think, you know, Apple's done a lot of great things, which I'm really proud to be part of and really have deep respect for for the company and leadership. You know, the work on research is quite groundbreaking, starting the virtual research, for example, at the scale that it did for the Apple Heart study and just just change the thinking about research. And you know, obviously you continue with the Research app and collaborating with researchers and then creating the platform ResearchKit for other people to research. It just completely changed the conversation. And I think, you know, it's I have tremendous respect for the impact that Apple has had in this space and will continue to.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, you know, the conversation I always have with people is, you know, when we were working on a product we already knew like we were going to go for regulatory approval. Everything we were doing, like there was no time to sort of play like you had to have it sort of baked of where you were going to go from day one. Whereas a lot of these companies that are in the wellness space, let's say Apple, you get a chance to sort of get feedback, adjust, get feedback, adjust. And then when you if you want to step over the regulatory hurdle, you have a lot of information now to sort of make that play. Historically, the playing was not necessarily easy to do. I mean, getting this data, if you think about, you know, billions of users, that's a lot of data that you get to sort of look at and screen and decide what you're going to do next before you do it.</p><p><strong>Maz Brumand: </strong>Yeah, you know, I think it's not that linear within Apple because very strong privacy stance. So it's not like you can just grab the data and do whatever you want with it. But I think your general concept is true, right? If you take the idea of being startups and think about like, OK, I'm going to iterate, I'm going to try a bunch of stuff, I'm going to iterate and then I'm going to come up with the product and I'm going to go build that right hypothesis test results building. You couldn't historically do that enough. Right? Because you just do what? It's locked, right? It's now locked. You cannot make a change. So even if you found outk, let's say you did that. You created a product and then things changed like, OK, I can't. Yeah, yeah, it's like, sorry guys, I know you really want that feature, but it's not going to happen. I do agree that it's just changing the conversation and then thinking has been fantastic. And, you know, it's also really important to say there is a reason why the regulatory space exists and the fact that we do need protections that the FDA and others put into place. So it doesn't take anything away from that. It's the question is like how do we create other ways to allow innovation to happen while keeping people safe? And in the right things?</p><p><strong>Harry Glorikian: </strong>Oh, yeah, I mean, I believe me, I love the FDA. Don't don't misunderstand me, I think they they definitely like have to play their role, right? But on the other hand, I love the fact that you can actually interact with someone, get data, identify signals, be able to sort of iterate on that. And then when you, you know, when you find something really worth sort of moving on that may be beyond wellness, that that opportunity has now opened itself up assuming, you know, privacy and everything else is is kept, you know, under control. But I think the advances that have been made say in the last five years have been unbelievable. You know, some of these things that we're talking about five years ago were really not available. And now, you know, I can manage myself fairly remotely and get a longitudinal view that I can share with my physician that helps him understand my body better.</p><p><strong>Maz Brumand: </strong>Yeah, yeah. I couldn't agree more. I think this idea that you would have these episodic visits with your doctor and they will not be informed from any of the past interactions or data, it's just we'll look back on this in 10 or 20 years and think, Wow, that was a huge influence on health, where every interaction is like a surprise to the doctor because there's nothing informing them other than a paper thing that you filled out, which nobody reads, and they've got to make decisions about your health.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I think about these things like, you know, I walk in, I give them a longitudinal view of my, you know, whatever I've been tracking. And the human brain is amazing at looking at a pattern and seeing something that's out of line. And if it looks normal, they just go, Hey, that looks great and move on.</p><p><strong>Harry Glorikian: </strong>So we know, you know, obviously you're being in this space for a long time. You'll know a lot of the research is also done in, you know, in perfect situations. And it's done on a cohort that's probably not representative of the entire world. So, yeah, I think it's both things. I think one is if it's not out of the normal, which is probably a large standard deviation, it gets passed through. And then also, if we just don't know because we didn't have the tools to research the way that we're doing research today. And this is my point about Apple changing, also thinking about research not being, you know, 30 people in the northeast that we studied. And then we came up with the guideline for the entire world. It doesn't work that way. So I think, yeah, I think there is a lot. I think we're in the early innings of really changing health and health care, not just Levels, but everybody. I think the big players, us, the health care systems, the payers, and it's pretty exciting time. And you know, you asked me the question of why did I leave Apple to come do this? It is because there's just so much interesting stuff going on, and it is the time to actually make those leaps in collaboration with people like Apple and then hopefully one day also with the payers and the provider.</p><p><strong>Harry Glorikian: </strong>Yeah. No, and I think their world is changing, too, just because now we're, you know, moving more towards paying for outcomes as opposed to, you know, I pay you for everything that you do. So. Anything else that I didn't ask you that is your burning to to tell us about Levels or do you think we covered it?</p><p><strong>Maz Brumand: </strong>I think I think you covered most of it. I think there's just so many things to talk about in this space that we could probably go on forever if you want.</p><p><strong>Harry Glorikian: </strong>Yeah, no, I've been I've been trying to convince people that that are interested in health, wellness, energy, optimal, you know, optimum performance that having a CGM and getting a good feel for. What's the right food, when to have it? What happens measuring it, et cetera? You know, and being able to give them the right feedback, being able to give them maybe an alternative food that so they don't have to give up something necessarily that they really like. Those are all important feedback loops to give them.</p><p><strong>Maz Brumand: </strong>Yeah. And you know, you bring up a really good point because a lot of people think if they want to take control of their health, whether they lose weight or want to feel better, they have to make these massive changes. They've got to stop eating all the foods that they like. They've got to go to the gym, you know, two hours a day. And my personal CGM experience showed me the opposite. There was just a few tweaks I needed to make to change the outcomes completely. And, you know, and the reason I was doing the things I was doing wasn't because I was like, Hey, that's my cheat, and I really want to enjoy that. All this stuff was I didn't even care about it. Like, I really didn't think that oats is so much better than eating eggs in the morning. Like that was not but science. I mean, the best available science of the time was that eggs are bad due to cholesterol and oats are heart healthy. And so so a lot of it is also not just figuring out based on real data that's personalized to you, like one of those small changes that I can make that will completely change my life. I mean, that's what's magical about this technology. It's not somebody writing a hypothesis piece about the general population that's know makes no sense with your lifestyle, but also but instead figuring out okay, based on you, your physiology and your lifestyle. How can I? I can help, you know?</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, my new book just came out on, you know, how to incorporate technology into your life. And I always tell people, I'm like, Pick one. Like your scale. If you see the if you see the line going in the wrong direction, maybe it's time to course correct, right? Or, you know, a wireless blood pressure cuff, right? I mean, blood pressure is one of those things that sneaks up on most people. They don't see it until it's too much of a problem. Well, if you notice that it's moving in the wrong direction, right? Maybe you'll lose some weight. Maybe you won't add as much salt. It's these aren't huge changes because you're trying to do it early enough that you affect where the line is going. And so a CGM is the same thing in a sense. And if you have enough of these in your arsenal over time, I think you can do a pretty good job of managing, at least extending. That you know how healthy you'll be for how long.</p><p><strong>Maz Brumand: </strong>Yeah. You know, we think about this in a... I'll explain how we think about this. So we kind of look at certain metrics or bio metrics or information from your body. You can think about it. There's a law. There are high frequency, and give you feedback. Let's just call them feedback metrics for a second. Right, these are things that, for example, my glucose, when I see that move in real time high frequency, I can change my behavior. And these are all high frequency, completely correlated to your behavior on short-term outcomes. And then there are other metrics that are much lower frequency, meaning you don't take them all the time but are really representative of your of your health, right? Which is, for example, is my A1C below or above a certain amount, is my blood pressure below or a certain amount, is my waist circumference below a certain amount. That really shows you the outcome. And then the question is how can I influence behavior by measuring these feedback metrics today and based on the science and correlations that we know leads to better target metrics or health metrics in the future? And so that's kind of the framework where help affect behavior today with high frequency metrics to drive better outcomes with lower frequency, more outcome driven metrics in the future.</p><p><strong>Maz Brumand: </strong>Yeah, no. And I totally agree, and it really is going to come down to the data that you're putting in the way the software does its analytics and then communicates back with the individual because some of this has to be put into normal speak as opposed to sometimes when you talk to a physician. They're using acronyms and a language that most people can't necessarily easily understand.</p><p><strong>Maz Brumand: </strong>Yeah, yeah, definitely. And I think there are three problems probably to solve to really get to mass market. I think one is the hardware-software, making it the software more intuitive and more insightful. The hardware cheaper, less intrusive, so on and so forth. I think the second problem is the research problem, right? How can we actually find understand these real time metrics better and its correlation to long term metrics? And what are the best ways to influence behavior? So there's a big research component there, given that a lot of these things are new. And then the third one is the social aspect of it, to make sure that people understand it, providers understand it, payers understand it. So how can the ecosystem adopt this new way of thinking and new way of affecting health and wellness? So I think you have to have all those three to really make a big impact at the much larger scale than earlier.</p><p><strong>Harry Glorikian: </strong>Yep. No, couldn't agree more. It was great having you on the show. I wish you and the rest of the Levels team good luck in this upcoming launch. And you know, I should probably go get another CGM and tack it on and and see what's changing over time.</p><p><strong>Maz Brumand: </strong>Sounds great. Thanks, Harry. It was a pleasure.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
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      <itunes:title>How to See Inside Your Body Using Continuous Glucose Monitors with Maz Brumand from Levels</itunes:title>
      <itunes:author>Harry Glorikian, Maz Brumand</itunes:author>
      <itunes:duration>00:53:48</itunes:duration>
      <itunes:summary>Until recently, getting a blood glucose measurement required a finger stick. The whole process was so painful and annoying that only diabetics taking insulin bothered to do it regularly. But there’s a new class of devices called continuous glucose monitors, or CGMs, that make getting a glucose reading as easy as glancing at your smartwatch to see your heart rate. A CGM is a patch with a tiny electrode that goes into your skin to measure glucose levels in the interstitial fluid, plus a radio that sends the measurement to an external device like your phone. The devices are pain-free to use, and they’re rapidly coming down in price. Harry&apos;s guest today, Maz Brumand, is head of business at Levels, a startup that wants to use CGMs to help everyone understand how their choices about food and lifestyle affect their health.</itunes:summary>
      <itunes:subtitle>Until recently, getting a blood glucose measurement required a finger stick. The whole process was so painful and annoying that only diabetics taking insulin bothered to do it regularly. But there’s a new class of devices called continuous glucose monitors, or CGMs, that make getting a glucose reading as easy as glancing at your smartwatch to see your heart rate. A CGM is a patch with a tiny electrode that goes into your skin to measure glucose levels in the interstitial fluid, plus a radio that sends the measurement to an external device like your phone. The devices are pain-free to use, and they’re rapidly coming down in price. Harry&apos;s guest today, Maz Brumand, is head of business at Levels, a startup that wants to use CGMs to help everyone understand how their choices about food and lifestyle affect their health.</itunes:subtitle>
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      <title>Getting Value out of Electronic Health Records, with Verana Health</title>
      <description><![CDATA[<p>Healthcare is one of those areas where more data is almost always better. And I talk a lot on the show about how data is helping doctors and patients make smarter decisions. But a lot of the data we’d still like to have is stuck in those arcane Electronic Health Record systems or EHRs that medical practices or hospital systems use to track their patients. These systems tend to be closed, proprietary, user-unfriendly, and incompatible with one another. And we've repeatedly made the case here on the show that EHR technology is holding back innovation across the healthcare market.</p><p>That’s why we like to meet companies that are working to make EHR data more useful. And in this episode we welcome a pair of guests from a company called Verana Health that’s trying to do just that. The company recently brought in $150 million in new venture capital funding to help scale up its data services, which currently focus on the subspecialties of ophthalmology, neurology, and urology. Verana takes data on patients in these fields, cleans it up, analyzes it, and pulls out insights that could be useful—both for clinicians who want to increase the quality of the care they’re providing, and for pharmaceutical companies who need new ways to measure the effectiveness of their drugs and better ways  to find patients for clinical trials. Here to explain more about all of that are Verana’s CEO, Sujay Jadhav, as well as its senior vice president of clinical and scientific solutions, Shrujal Baxi. (If you’re a longtime listener you might remember that we had Shrujal on the show once before, back in 2018, when she talked about her previous company Flatiron Health.) </p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>Healthcare is one of those areas where more data is almost always better. And I talk a lot on the show about how data is helping doctors and patients make smarter decisions.</p><p>But a lot of the data we’d still like to have is stuck in those arcane Electronic Health Record systems or EHRs that medical practices or hospital systems use to track their patients.</p><p>These systems tend to be closed, proprietary, user-unfriendly, and incompatible with one another.</p><p>And I haven’t been shy here on the show about my opinion that the chaotic state of EHR technology is holding back innovation across the healthcare market.</p><p>That’s why I’m always interested in talking  with companies that are working to make EHR data more useful.</p><p>And today I have a pair of guests from a company called Verana Health that’s trying to do just that.</p><p>The company recently brought in $150 million in new venture capital funding to help scale up its data services, which currently focus on the subspecialties of ophthalmology, neurology, and urology. </p><p>Verana takes data on patients in these fields, cleans it up, analyzes it, and pulls out insights that could be useful—</p><p>both for clinicians who want to increase the quality of the care they’re providing, and for pharmaceutical companies who need new ways to measure the effectiveness of their drugs and better ways  to find patients for clinical trials.</p><p>Here to explain more about all of that are Verana’s CEO, Sujay Jadhav, as well as its senior vice president of clinical and scientific solutions, Shrujal Baxi.</p><p>If you’re a longtime listener you might remember that we had Shrujal on the show once before, back in 2018, when she talked about her previous company Flatiron Health. </p><p>We’re glad to welcome her back.</p><p>Now, on to the show.</p><p><strong>Harry Glorikian: </strong>Sujay, welcome to the show, and Shrujal, welcome back to the show, now that you're at a different place. It's great to have you both here.</p><p><strong>Sujay Jadhav: </strong>Thanks, Harry.</p><p><strong>Shrujal Baxi: </strong>Happy to be here.</p><p><strong>Sujay Jadhav: </strong>Happy to be here as well. Thanks.</p><p><strong>Harry Glorikian: </strong>So. I want, you know, I want to ask you guys like if one or both of you can describe Verana's reason for existing, at least at a high level, and what is the unmet need in in the world of patient care or drug development that you are meeting?</p><p><strong>Sujay Jadhav: </strong>Yeah, yeah. Happy to jump in and Shrujal, you can sort of add in sort of the health care sort of goals that we have as well, but you know, in essence, what Verana is all about, we have an exclusive real-world data network focused on three therapeutic areas: ophthalmology and neurology and urology. And in essence, what we are doing is we're helping provide insights to providers in helping improve quality of care, helping improve their participation in clinical trials and also provide insights to life sciences companies across the drug lifecycle all the way from study design helping out in trial recruitment to helping them out in launching drugs, commercializing drugs so they can overall improve the quality of care in a more holistic fashion. You know, the crux of how we're going about doing it, in essence, is accessing HER data and eventually identifying it to provide these particular insights and high level there's data which is very, very structured and there's data which is unstructured and there's a sort of an increased focus on the unstructured data because I would say that's probably where there is the largest opportunity out there to provide insights across that overall value chain.</p><p><strong>Harry Glorikian: </strong>Yeah, I know I know the area well, but I want to sort of spend a moment on the origin story of of Verana Health, and I'm assuming it has something to do with the relationship between Verana and the American Academy of Ophthalmology, since I think the Academy's CEO David Parke is also a co-founder and executive chairman on Verana. You also have partnerships with the American Academy of Neurology and the American Urological Society. So it seems like these. And it's funny because I think of these associations as publishing journals or, you know, organizing conferences or maybe, you know, having representation in Washington. But it seems like you guys were a spinoff or a piece that came out of at least the American Academy of Ophthalmology. Is that correct?</p><p><strong>Sujay Jadhav: </strong>Yeah, you're absolutely correct. I mean, really, Verana was founded on, you know, sort of the ophthalmology registry, in essence. And, you know, the ophthalmology registry, is probably one of the leading registries in terms of the way that well, first of all, participation, you know, from the specialists, I think it's close to 70 percent of ophthalmologists are part of the registry, but they're one of the leaders in terms of taking the actual data from the ophthalmologists. And they were actually processing that particular data via third party out there to help provide insights, you know, to predominantly the ophthalmologists out there, but eventually to provide insights to help further research. And so Verana was really founded on sort of the ophthalmology registry. They decided to spin out that capability as an independent company, then bring in some external investors, sort of investors, which are very committed to digital health. Brooke Byers from Kleiner Perkins. Google Ventures. And they funded the separate entity. And then ultimately, the goal was to take that data capability that they have and then help normalize it and provide more insights around it to further the overall drug lifecycle. And then, you know, along the way, you know, other societies saw the progress that were making and decided to also partner with Verana, starting with the neurology society and then urology as well.</p><p><strong>Harry Glorikian: </strong>Now, you know, just so like for the listeners, if and you guys can correct me if I'm wrong, but I think like and because I like to give credit where credit is due, right is a lot of these, you know, medical associations began to gather a lot more data and build some giant databases. But I think that was driven by the, you know, CMS or, you know, Centers for Medicare and Medicaid Services sort of setting up this merit based incentive payment system and sort of driving this. So it's sort of like I always like to give government credit when they actually do something right, but they actually put some money behind this to encourage this sort of activity, which has resulted in this sort of dataset that's now available for us to really glean some insights for patients.</p><p><strong>Shrujal Baxi: </strong>I mean, I think I think when we when we look back sort of the development of the electronic health record is what set this off. And that was also a government initiative right to really move us all from paper charts and to electronic health records. And then sort of the potential that comes from that. If we think about the brilliance of these registries, they were smart enough to start collecting the data early on and sort of answering your first two questions from a medical perspective, like what is Verana here to do? We're here to help transform that data that's available in the electronic health record, sort of generated as part of regular care, and get all of the insights we can in health care, the way that data is generating insights and every other industry out there. But there is a particular sensitivity in health care to de-identification, making sure we're taking care and responsibility of that process, which makes sort of what Verana is doing a little bit different than what might be happening out there. But when you when you think about why there's so much excitement around what we're doing, it's that we're actually going to do it from a technological standpoint. So the scale at which we're hoping to do it should drive insights like we haven't been able to do with sort of the first pass at getting value from the EHR, if that makes sense.</p><p><strong>Harry Glorikian: </strong>Oh yeah. I mean, if you've listened to many of my shows, I have a big pet peeve with the normal EHR system. I mean, I've gone so far to say, you know, if anything breaks health care because of its inability to change, it's this arcane accounting system that got morphed into, you know, quote, we're going to manage patients. But you know, you mentioned from a physician's perspective, what kind of data do these databases that you have access to contain that's important or valuable for, you know, assessing quality of care, let's say?</p><p><strong>Shrujal Baxi: </strong>It really, it spans the gamut, right? Because data is just that. It's what we do is we provide, we transform it into a structured format that can be analyzed. But what you use it for is really it's limitless, right? Do we want to look at how to optimize how patients are seen? Who sees those patients? How do we get them into a clinical trial? How do we get a trial set up at a practicing site that happens to be seeing a lot of patients of a particular disease subtype? Are we starting to pick up patterns in how new medications are released into routine care that have been tried in clinical trials? Can we pick up safety signals in the real world that you can never capture when you only have a small clinical trial of 200 patients? But when you launch that drug at a larger cohort, what is actually happening in the real world? All of that is possible once you figure out how to transform all the information that's entered into the EHR into analyzing all formats. And so, you know, it's interesting, because Sujay gave all the real use cases, but in my mind, what we're doing is the technology, which is how are we going to do this in a sort of scalable way? So as the data is coming in, we can take it and output structured data that can then be used for analysis. And the better we get at that transformation step, the faster and the more reliable that is that really sort of unlocks what we can do with the data.</p><p><strong>Harry Glorikian: </strong>Yeah, it's funny. Yeah, it's funny. You're covering, like, I don't know, half a dozen podcasts I think I've done with various companies that are doing different parts of this. But I mean, I've looked at the company's literature and you put a lot of emphasis on what's called real-world data. And this is a topic, you know, I've covered on the show many times. You know, last year, late last year, I did an interview with Jeff Elton from Concert AI, where they collect post-approval data and help improve decision-making inside drug companies. So I want to ask you first, what do the folks at Verana have in mind when they talk about real world data? Does it basically mean any data collected outside of the context of a clinical trial?</p><p><strong>Sujay Jadhav: </strong>I know the real world data terminology has different types of descriptions, but fundamentally we look at it, generally any observational data, you know, is sort of what we categorize as real world data, and what we are focused on from a high level perspective. And you know what we see within the EHR, you know, there's a lot of that data available there. And in essence what we are doing is accessing it, extracting it, normalizing it, and then providing different levels of insights depending on the different types of use cases, which are important to improve the quality of care at the provider level there, and also help further research and within the life sciences arena as well. So, you know, that's high level the way we look at it. You know, one of the things, you know, in order to finish up sort of or complete the overall patient journey and have a holistic perspective, we need to also match that up with other types of data there. And so, you know, claims data, for example, at times there are longitudinal elements to it as well. So we spent a lot of effort and work doing matching there, you know, as well. You know, we're bringing in other types of data forms of imaging data and as well.</p><p><strong>Sujay Jadhav: </strong>So while we are very focused on the data there, we are actively complementing it with other types of data sources to get a more holistic picture there. But you know, I would say that a lot of companies out there have been doing a really good job of accessing this data from a more structured format perspective, right? And one of the things that I've seen, and this is more of a high level comment, is when you look at some of the structured data that can be an element of sort of extra latency in terms of getting that information to make certain decisions or decisions such as hey, for a particular clinical trial, what are the right patients that you should target, et cetera. And so what we are really focused on is the unstructured data, you know, the physician notes, and then leveraging sort of AI techniques there to provide those signals. So that allows us to, on a close to real-time basis, target particularly particular patients, which could be a better fit for a particular trial versus historical means, which have been a little bit more sort of delayed in terms of getting those data inputs.</p><p><strong>Harry Glorikian: </strong>So, you know, this begs the question before we jump into the product itself is. Do you guys have an opinion on why the medical establishment has not been so great at tracking or analyzing real world data up till now? I doubt it's lack of interest. It's probably more like technical limitations is my guess or maybe lack of interoperability, or all of the above.</p><p><strong>Shrujal Baxi: </strong>Harry, since the last time I was here, a lot has happened in the real-world data space. To start with, and I think we talked about this last time, which is real-world data has been here forever, right? Clinicians have been doing chart reviews and publishing case series. That's all real-world data. It's taking a look at what happens in the routine care of patients, pulling it out and analyzing it in order to deliver insights. I think what the electronic health record did or what we believed it would do is allow us to do that type of work at a scale that we couldn't do it before. The second thing, I think, that real-world data is now considered potentially useful for that it wasn't previously, is causation and the analytic ability to actually make linkage between input and output in a way that isn't just hypothesis generating. And the regulators are really sort of driving the space with the guidances that are coming out and really framing for companies like ours, how we should be thinking about data and the data quality and sort of where this data could be used.</p><p><strong>Shrujal Baxi: </strong>So there's sort of two parts, right? One is how do we generate it in real time at scale so that we can understand important questions? And then the other is the part that I think really sort of leaned in on, which is the entirety of a patient's journey. And this is a very patient-centric problem. It isn't captured in a single EHR. So how do we bring together all the different components of a patient's journey such that we get the complete picture, the genetics, the imaging, the multiple different providers, the claims for what was paid for, right? And so it's kind of an exciting time in the sense that we've sort of gotten to second base. Maybe we figured out how to get all the data. Now we're figuring out how to transform the data. Now we're going to figure out how to link the data. In the meantime, in parallel, we're figuring out how to analyze observational data. And a company like Verana is really well poised to do those things because of all the different components and the partners that we have to do that, I think.</p><p><strong>Sujay Jadhav: </strong>Yeah. And I'll just add to what Shrujal said there. And I think it's sort of inherent in your question around the technology was, has the technology been there before, et cetera? I think to some extent it has, but it has been evolving and obviously in the last decade with sort of AI techniques, natural language processing techniques, they've started to mature and kind of scale. But one of the key things around our industry is patient privacy, right? And so we have the technology and it's been leveraging a lot of other different industries. But the stakes are very, very high here because of protecting patient data overall. And so, you know, working through how can you access this data at scale and ensure and make sure that you're adhering to the patient’s privacy? There has taken a little bit longer to do, but now we have it. Currently, right now, we have a lot of techniques on the de-identified data identified realm where we can now leverage that to address that particular point. And I think, you know, it's an exciting time right now. You know, which is we now have the tools to do this at scale, but ensure that we're keeping patient privacy intact as well.</p><p><strong>Shrujal Baxi: </strong>But we also have a responsibility on the end of that spectrum, which is we have to have high quality data. So we need to protect the patient's privacy. We need to be very responsible with the data, but we also have to be very responsible for how the data is generated, such that we don't end up with conclusions that are harmful. The integrity of the data throughout that process needs to be maintained because people are going to act on the output of our analysis using the data that we're generating. And so that's an incredible responsibility that I think we take on and sort of critical to how we think about what we do. It's not just data, it's data that's generated to make decisions in health care that impacts patients very directly.</p><p><strong>Harry Glorikian: </strong>Yeah, absolutely. So, you know, I think this is a maybe a good segue or opportunity. What have you guys actually built? Because we've been talking around it. What is, I think it's called the VeraQ health data engine, if I got it right? Tell me a little bit about the product. And you mentioned natural language processing and machine learning, and so how does that fit, at what point and where does it fit? And I'm sure there's a few people who are going to like listen closely at this part because they're interested in this stuff. Some others may not listen as closely. But if you could tell me a little bit about the product, that would be great for everybody listening.</p><p><strong>Sujay Jadhav: </strong>Sure. Sure, absolutely. So, you know, in essence, what we have is we do have a real-world data network where we access 20,000 providers. We have 90 million de-identified patients currently, and it's growing at a good clip right now. And what we do is we take that data, we ingest the data, we normalize it and curate it to provide insights to providers to improve quality and participate in trials and then also to the life sciences community as well to help further research. Broadly speaking, there, you know, sort of our technology platform is called VeraQ. We released it last year, in essence, it's sort of the secret sauce around ingesting it and normalizing and curating the data. And then once we do that, then what we do is we deliver it in what we call de-identified data modules called Qdata modules, which are aligned according to the therapeutic areas in certain disease states. And so what we do is within each of the three therapeutic areas we release on a quarterly basis different disease modules, Qdata modules there. And then that helps serve out, you know, a lot of insights that life sciences companies can use across different areas. So anything from a helping out in trial design work with a lot of large pharma companies around helping improve sort of how they target particular patients out there by leveraging these de-identified data modules to helping out on recruitment as well. In terms of working through what are the right providers that you're targeting to have that patient population trial to eventually see when you actually launch the drug, you know how the use is occurring out there in the marketplace, how they can better target it to improve the value of the particular drug they have there as well. And, you know, we eventually set that up instead of application modules across that overall drug lifecycle. So, you know, to summarize, our platform is VeraQ. We then serve it up in these Qdata modules and then we deliver it in these solution sets, which are provider facing and also life sciences space.</p><p><strong>Shrujal Baxi: </strong>I was going to say something that's really unique about Verana and shouldn't be glossed over is the fact that so many different EHRs are out there and they're they're created differently and they are so specialized to the provider with bells and whistles that each different practice pays for. And to take all of that disparate information and ingest it and harmonize it such that the output or variables that can be generated at a scalable fashion across millions of charts and then use that for analysis. I mean, GE made it sound really good and clean, but that's actually a that's a lot of work for anyone who's ever touched an EHR and try to get value out of the data that's entered. It's a feat. And I think that that that engine now that it's built, is sort of poised to take in and give out, right? That was the infrastructure build that was 2021. And 2022 is the data that's going to come out as he was describing. But I just want to, I'm particularly passionate about this because I've worked now at different companies that think about this and that particular part of harmonization from the starting point that are so many different places is really, I think, a technological advancement.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>We talk about major EHR systems sold to hospitals and, you know, on this show a lot and the interoperability and it's just, oh my God, it's a mess, right? And I hear it from patients too, right? I had someone call me the other day and they were like, I don't want to say they were chewing my ear off, but they were unhappy and they were like, and it was a friend of mine who had gone into a hospital. And he goes, I'm sure you know all this. I'm like, Yes, I know all this. But hearing it from somebody is interesting. It sounds like, I mean, you guys are harmonizing, or correct me if I'm wrong, at least from what I’ve heard, ophthalmology and neurology and and urology. If you were able to give that back to the physician, I think that would be hugely of value as a physician, assuming that it's simple for them to interact with and, you know, they don't need a degree in computer science, if you know what I mean.</p><p><strong>Sujay Jadhav: </strong>Yeah, yeah, that's exactly what we are also focused on. I mean, you know, sort of part of sort of the way we are approaching this opportunity is sort of twofold. Number one, working with the providers, helping improve that, they can provide care. And we're very committed to that in a way we're committed to. That is. You brought up sort of MIPS quality reporting, which is important for CMS submissions. And, you know, we actually have a particular solution that is provider facing, which allows them to work through sort of their quality scores, understand how they're doing overall in terms of overall quality of care from from a high-level perspective. You know, in addition to that, we're also allowing them to access sort of our patients, you know, data to help improve how they can participate in clinical trials. And, you know, we understand that their bandwidth is very, very constrained. They need to focus on care. And, you know, folks like myself and sure, you know, we've been doing this for a couple of decades as well and spent a lot of time, you know, working with physicians out there. And so we understand that, you know, making this user friendly, allowing them to come in and out as quickly as possible to get the insight they do is extremely important.</p><p><strong>Sujay Jadhav: </strong>And that's sort of a key part of what we are focused on as a company. And we're committed to helping improve quality of care by taking on sort of this MIPS reporting obligation as part of sort of our overall business model as well. But, you know, through that particular process, you know, we obviously have access to the data. We then de-identify it and then we can provide the next generation of insights to the life sciences industry, which is a very, very compelling across the board. And it's a really, really interesting that I've been doing this for, you know, 20 years plus, and I still feel we're just barely scratching the surface in how we leverage this particular data. And so, you know, there's definitely a lot of work that we are doing, leveraging natural language processing techniques to allow us to do this at a particular scale. And that's sort of core for us helping to deliver on this sort of next level of opportunity that we see to help improve care across the overall value chain.</p><p><strong>Harry Glorikian: </strong>Do one of you or both of you have your favorite case study that highlights the different strengths of the system that you can sort of, you know, put it into context for someone.</p><p><strong>Shrujal Baxi: </strong>Sujay, do you want to go first?</p><p><strong>Sujay Jadhav: </strong>Sure, yeah, absolutely, absolutely. So, you know, you know, from my perspective, where we're providing a lot of insights, as I mentioned, across sort of the overall drug life cycle, the area which got me the most excited around Verana is really on the trial side of the house, in essence. And so, you know, we do a lot of work around helping out in trial design, right? But you know, the areas that we're starting to see sort of the biggest next level of value that we're providing is really on the recruitment side of the house. And you know, as you know, recruitment is being a big pain point in the industry at large. I think a lot of companies are out there which are helping work through and target the right sites, help target the right PCs, providers, which you know, have the actual patients there. But that final mile of helping out do the actual recruitment is something which is very difficult to do. You know, the biggest influence in recruitment is a physician and, you know, via sort of the solutions that we're providing around our quality of reporting side as well, how safe we feel. At least we have some bandwidth there with the physician and we want to leverage that to improve recruitment. So, you know, we've done a number of projects in the recruitment side, particularly in the rare disease area, is an area that we've done a lot of work there because historically the way it is, the process has been, which is, hey, you know, these are the particular, you know, you know, physicians out there which have participated in historical trials, et cetera. Let's just target them as well. And it's more around historically which providers participate in trials. But what we're doing is we're doing it from a data level up there. And so what we did with a large pharma company out there in a particular rare disease area there is we actually identified a number of patients with actual providers which have never participated in trials before. And so we yielded a set of patients, which probably they never would have gotten via the normal mechanisms out there. You know, and I would say the types of improvements we're seeing starting to see in the trial side is north of 30 percent sort of efficiency improvements in the trial process overall. And if you extrapolate that to how much they spend in clinical trials, that's tens of millions of dollars of cost savings that you can take out of change. So, you know, that's probably the area where I've seen a lot of value that we're provided with this particular data. Shrujal, do you have any other examples?</p><p><strong>Shrujal Baxi: </strong>Mine is not nearly as grandiose, but it's really sort of brings home why data is important. So recently we ran an analysis with the American Urologic Association just as a sort of look at how the data can show us what's happening, and it's going to come out in their spring newsletter that they send to all their members. And we partnered with one of their academic collaborators, and we just asked a question about uptake of routine bone density scans for patients with prostate cancer who are going to go on to hormonal therapy for about six months to a year. And that has been a, that's been a quality measure that they've been tracking as an organization because it's a place for improvement for urology overall. And we were just curious sort of in our data, what does that look like, right? And so perfect use, create data, analyze data. What we found is that the uptake of this particular recommendation over time has steadily increased. But lo and behold, COVID hit people didn't stop getting prostate cancer, but they did stop doing screening for bone density. And we know that if you don't look for bone density, you're not going to treat low bone  density. And therefore these patients are going to be at risk for fractures, which are, you know, in a certain population, just devastating. And so the I sort of am stealing the thunder of the snapshot. So please forgive me, AUA, but the takeaway here is that there is something we can now do. Let's go back to those patients that we diagnosed in 2020, and let's make sure that all those patients get bone density scans. And if we can prevent even one fracture, then this data has served its purpose directly to the patient, right? And so that's just a glimpse of what we can do with the data. And there are so many opportunities like that to directly impact patient outcomes if we can just figure out what questions to ask and then how to disseminate that information. So not quite as big and grandiose, but really tactical and tangible, I think.</p><p><strong>Harry Glorikian: </strong>Yeah, no, no, I mean, I, you know, once you have the data, my brain goes in, you know, eight, 10 different directions of what can I do with it? Which is why I like investing in the space because it's, you know, if you've really got access to the right quality data and you can actually interrogate it, you're not just a one trick pony. And one of the things that I was thinking of is with all the data you've got, you know, couldn't you create like really optimized digital twins that might be able to also be used in a trial? I mean, that's one of the first things that popped into my head. But Shrujal, last time we talked, you were head of clinical science at Flatiron. And I think if I got it correctly, your title now is senior vice president of clinical and scientific solutions. So what does that mean?</p><p><strong>Shrujal Baxi: </strong>Good question. I think the fact that clinical and science are in both the titles sort of tells you that in many ways my role at a company like Flatiron or my role at a company like Verana is not all that different, right? It's to make sure that we are bringing through the perspective of the clinician who is fundamentally at the heart of the documentation that's happening and that we're translating that when we partner with our technology colleagues, to translate how that data is going to be transformed so that we don't lose the meaning of the information. As a scientist or an outcomes researcher, I was a consumer. I would interrogate databases that were generated like this and so I can put my outcomes or my health services research hat on, my clinician hat on. What questions do I need answered and what is the data need to look like? So I sort of sit in many ways at the start and at the finish and help partner along the way with our cross-functional colleagues who do really the bulk of the work. Like I think it's such a, the strength of these companies is how collaborative they are. The challenge of these companies is how many people have to work together and communicate and say the right words and the same words to mean the same things. And so the title sounds a little different, but in many ways I feel like my role is to preserve the voice of the provider and therefore indirectly the patient in everything that we're doing. </p><p><strong>Shrujal Baxi: </strong>The other piece that I think I've the title seems bigger at Verana, but what it's actually, I think, expanded my my scope into is to understand where engineering and data science and that AI/ML component of the transformation can really take us. I think technology enabled abstraction is one thing, but I think actually applying technology to extract the data is a whole 'nother level of complexity and scale. But once built, it's sort of a receptor just waiting for new data sources to come through because you can take 10 hours, 12 hours, 100 hours. If you built the pipeline and you've built that ML/AI to put on top of it, the output should come sort of instantaneously, so I say that with a wink almost too, because I know it's a lot harder than that, I've learned. But ultimately, that's what Verana is building towards. And so the scope of my work and how I think has changed just slightly.</p><p><strong>Harry Glorikian: </strong>Well, it sounds like a critical piece of the puzzle to make sure that, you know, everything is translated correctly and everything is understood correctly, et cetera. So it's I think it's a valuable position. They might need to clone you, though, because I feel like there's a lot going on there.</p><p><strong>Shrujal Baxi: </strong>I feel like there's a lot going on.</p><p><strong>Sujay Jadhav: </strong>There definitely is. I mean, you know, and we have we have sort of a network of medical professionals that we leverage, you know, across all three therapeutic areas, you know, and that's really, you know, part of sort of our overall process, right? But you know, I think you describe it very, very clearly. But ultimately, you know what, we're trying to get out of Shrujal and the group is sort of how to medically inform the overall process that we're doing right now, and make it relevant and practical to truly provide insights to the clinician right at the end of the day there. And so, you know, there's a pragmatic element to sort of her involvement in the overall process because technology can only take you so far. But to get that sort of final, pragmatic element to that particular therapeutic area, you know, requires a medical professional.</p><p><strong>Harry Glorikian: </strong>Yeah. And I think, you know, one of the most challenging things is how to present it. And like you said, I mean, real time is a that's a whole other, you know, dynamic to tackle that people don't understand. But. You guys just had some fantastic news. I, you know, a I believe recently a series of venture round brought in, I think it was $150 million, if I remember the number correctly, from J&J Innovation, as well as existing investors like Google Ventures. I mean, first of all, congratulations, that's a pretty good sized round. Can you fill us in on like, okay, somebody just handed you a $150 million check. What are you going to do?</p><p><strong>Sujay Jadhav: </strong>Yeah, no, it's a good question. Firstly, the $150 million raise is a significant raise, and we're very fortunate that it's come from comes from a diversified set of, you know, digital health investors, broadly speaking in combination of growth investors, innovation funds from life sciences companies as well as academia as well. And so I think it's a good cross-section mix that we have fundamentally a number of investors which are very committed to digital health overall and will allow us to sort of accelerate the business as we take it to sort of the next level. You know, in a lot of ways I think it's sort of recognition of where Verana is, you know, and you know, we've done a really good job of building out our digital technology platform. We are now commercializing the business very, very well, you know, in terms of what we're going to do with a capital, in essence, it's fuel for growth. We've anchored on a really good business model right now. And what we are going to leverage the money for is to help execute on our existing sustainable product strategy, which is coupled by premium services on a solid data foundation and the sort of sort of three areas that we are going to focus on. The first one is on the provider side of the house that we already have an existing set of solutions in the, you know, the quality area and the clinical trial area. And we're going to further those particular solutions taken to the next level to make it easier for physicians and providers to do that job. The second area that we're going to be investing in even more is on the life sciences solutions side there as well.</p><p><strong>Sujay Jadhav: </strong>And so, you know, both we have a set of trial solutions there. We have what we call data-as-a-service solution set, which allows these life sciences companies to access the curated data in a very easy fashion, so allows them to provide different levels of insights that they feel are important as well. And then, you know, the third area is just furthering sort of expanding sort of the data that we have currently right now. I think we've got a really good critical mass right now with 90 million de-identified patients, you know, 20,000 plus providers there. We're going to continue to increase that across our three therapeutic areas. But, you know, moving to other types of data sources, I think imaging is one we're going to invest in a big way. I think that can really, truly help complete the picture. Genetic information also is something that we're inserting in into the mix as well. And, you know, bringing in each data, bringing in claims data, bringing in imaging and genetic data, you know, is a complex equation, so to speak there, just to say the least. Yeah, it is. And you thought of doing that in a thoughtful way, doing it in a way which is scalable. It takes a lot of effort. And that's where we're going to be investing a lot of these funds to make that happen. And you know, we're well on the way to actually doing this. And so, you know, a lot of the money is in essence, just executing on the strategy.</p><p><strong>Harry Glorikian: </strong>Well, you know, it's been great having you both here. I love talking about this stuff, as you can tell. And you know, I wish you guys incredible luck because, you know, I keep getting older and I think I'm going to be, you know, at some point you become more of a patient. So the more that this advances, the better my health and wellness will become. And I look forward to, you know, maybe having you guys in the future and seeing the evolution of where this goes.</p><p><strong>Sujay Jadhav: </strong>Absolutely. Thanks a lot, Harry. Enjoyed talking.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 1 Feb 2022 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Sujay Jadhav, Shrujal Baxi)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Healthcare is one of those areas where more data is almost always better. And I talk a lot on the show about how data is helping doctors and patients make smarter decisions. But a lot of the data we’d still like to have is stuck in those arcane Electronic Health Record systems or EHRs that medical practices or hospital systems use to track their patients. These systems tend to be closed, proprietary, user-unfriendly, and incompatible with one another. And we've repeatedly made the case here on the show that EHR technology is holding back innovation across the healthcare market.</p><p>That’s why we like to meet companies that are working to make EHR data more useful. And in this episode we welcome a pair of guests from a company called Verana Health that’s trying to do just that. The company recently brought in $150 million in new venture capital funding to help scale up its data services, which currently focus on the subspecialties of ophthalmology, neurology, and urology. Verana takes data on patients in these fields, cleans it up, analyzes it, and pulls out insights that could be useful—both for clinicians who want to increase the quality of the care they’re providing, and for pharmaceutical companies who need new ways to measure the effectiveness of their drugs and better ways  to find patients for clinical trials. Here to explain more about all of that are Verana’s CEO, Sujay Jadhav, as well as its senior vice president of clinical and scientific solutions, Shrujal Baxi. (If you’re a longtime listener you might remember that we had Shrujal on the show once before, back in 2018, when she talked about her previous company Flatiron Health.) </p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>Healthcare is one of those areas where more data is almost always better. And I talk a lot on the show about how data is helping doctors and patients make smarter decisions.</p><p>But a lot of the data we’d still like to have is stuck in those arcane Electronic Health Record systems or EHRs that medical practices or hospital systems use to track their patients.</p><p>These systems tend to be closed, proprietary, user-unfriendly, and incompatible with one another.</p><p>And I haven’t been shy here on the show about my opinion that the chaotic state of EHR technology is holding back innovation across the healthcare market.</p><p>That’s why I’m always interested in talking  with companies that are working to make EHR data more useful.</p><p>And today I have a pair of guests from a company called Verana Health that’s trying to do just that.</p><p>The company recently brought in $150 million in new venture capital funding to help scale up its data services, which currently focus on the subspecialties of ophthalmology, neurology, and urology. </p><p>Verana takes data on patients in these fields, cleans it up, analyzes it, and pulls out insights that could be useful—</p><p>both for clinicians who want to increase the quality of the care they’re providing, and for pharmaceutical companies who need new ways to measure the effectiveness of their drugs and better ways  to find patients for clinical trials.</p><p>Here to explain more about all of that are Verana’s CEO, Sujay Jadhav, as well as its senior vice president of clinical and scientific solutions, Shrujal Baxi.</p><p>If you’re a longtime listener you might remember that we had Shrujal on the show once before, back in 2018, when she talked about her previous company Flatiron Health. </p><p>We’re glad to welcome her back.</p><p>Now, on to the show.</p><p><strong>Harry Glorikian: </strong>Sujay, welcome to the show, and Shrujal, welcome back to the show, now that you're at a different place. It's great to have you both here.</p><p><strong>Sujay Jadhav: </strong>Thanks, Harry.</p><p><strong>Shrujal Baxi: </strong>Happy to be here.</p><p><strong>Sujay Jadhav: </strong>Happy to be here as well. Thanks.</p><p><strong>Harry Glorikian: </strong>So. I want, you know, I want to ask you guys like if one or both of you can describe Verana's reason for existing, at least at a high level, and what is the unmet need in in the world of patient care or drug development that you are meeting?</p><p><strong>Sujay Jadhav: </strong>Yeah, yeah. Happy to jump in and Shrujal, you can sort of add in sort of the health care sort of goals that we have as well, but you know, in essence, what Verana is all about, we have an exclusive real-world data network focused on three therapeutic areas: ophthalmology and neurology and urology. And in essence, what we are doing is we're helping provide insights to providers in helping improve quality of care, helping improve their participation in clinical trials and also provide insights to life sciences companies across the drug lifecycle all the way from study design helping out in trial recruitment to helping them out in launching drugs, commercializing drugs so they can overall improve the quality of care in a more holistic fashion. You know, the crux of how we're going about doing it, in essence, is accessing HER data and eventually identifying it to provide these particular insights and high level there's data which is very, very structured and there's data which is unstructured and there's a sort of an increased focus on the unstructured data because I would say that's probably where there is the largest opportunity out there to provide insights across that overall value chain.</p><p><strong>Harry Glorikian: </strong>Yeah, I know I know the area well, but I want to sort of spend a moment on the origin story of of Verana Health, and I'm assuming it has something to do with the relationship between Verana and the American Academy of Ophthalmology, since I think the Academy's CEO David Parke is also a co-founder and executive chairman on Verana. You also have partnerships with the American Academy of Neurology and the American Urological Society. So it seems like these. And it's funny because I think of these associations as publishing journals or, you know, organizing conferences or maybe, you know, having representation in Washington. But it seems like you guys were a spinoff or a piece that came out of at least the American Academy of Ophthalmology. Is that correct?</p><p><strong>Sujay Jadhav: </strong>Yeah, you're absolutely correct. I mean, really, Verana was founded on, you know, sort of the ophthalmology registry, in essence. And, you know, the ophthalmology registry, is probably one of the leading registries in terms of the way that well, first of all, participation, you know, from the specialists, I think it's close to 70 percent of ophthalmologists are part of the registry, but they're one of the leaders in terms of taking the actual data from the ophthalmologists. And they were actually processing that particular data via third party out there to help provide insights, you know, to predominantly the ophthalmologists out there, but eventually to provide insights to help further research. And so Verana was really founded on sort of the ophthalmology registry. They decided to spin out that capability as an independent company, then bring in some external investors, sort of investors, which are very committed to digital health. Brooke Byers from Kleiner Perkins. Google Ventures. And they funded the separate entity. And then ultimately, the goal was to take that data capability that they have and then help normalize it and provide more insights around it to further the overall drug lifecycle. And then, you know, along the way, you know, other societies saw the progress that were making and decided to also partner with Verana, starting with the neurology society and then urology as well.</p><p><strong>Harry Glorikian: </strong>Now, you know, just so like for the listeners, if and you guys can correct me if I'm wrong, but I think like and because I like to give credit where credit is due, right is a lot of these, you know, medical associations began to gather a lot more data and build some giant databases. But I think that was driven by the, you know, CMS or, you know, Centers for Medicare and Medicaid Services sort of setting up this merit based incentive payment system and sort of driving this. So it's sort of like I always like to give government credit when they actually do something right, but they actually put some money behind this to encourage this sort of activity, which has resulted in this sort of dataset that's now available for us to really glean some insights for patients.</p><p><strong>Shrujal Baxi: </strong>I mean, I think I think when we when we look back sort of the development of the electronic health record is what set this off. And that was also a government initiative right to really move us all from paper charts and to electronic health records. And then sort of the potential that comes from that. If we think about the brilliance of these registries, they were smart enough to start collecting the data early on and sort of answering your first two questions from a medical perspective, like what is Verana here to do? We're here to help transform that data that's available in the electronic health record, sort of generated as part of regular care, and get all of the insights we can in health care, the way that data is generating insights and every other industry out there. But there is a particular sensitivity in health care to de-identification, making sure we're taking care and responsibility of that process, which makes sort of what Verana is doing a little bit different than what might be happening out there. But when you when you think about why there's so much excitement around what we're doing, it's that we're actually going to do it from a technological standpoint. So the scale at which we're hoping to do it should drive insights like we haven't been able to do with sort of the first pass at getting value from the EHR, if that makes sense.</p><p><strong>Harry Glorikian: </strong>Oh yeah. I mean, if you've listened to many of my shows, I have a big pet peeve with the normal EHR system. I mean, I've gone so far to say, you know, if anything breaks health care because of its inability to change, it's this arcane accounting system that got morphed into, you know, quote, we're going to manage patients. But you know, you mentioned from a physician's perspective, what kind of data do these databases that you have access to contain that's important or valuable for, you know, assessing quality of care, let's say?</p><p><strong>Shrujal Baxi: </strong>It really, it spans the gamut, right? Because data is just that. It's what we do is we provide, we transform it into a structured format that can be analyzed. But what you use it for is really it's limitless, right? Do we want to look at how to optimize how patients are seen? Who sees those patients? How do we get them into a clinical trial? How do we get a trial set up at a practicing site that happens to be seeing a lot of patients of a particular disease subtype? Are we starting to pick up patterns in how new medications are released into routine care that have been tried in clinical trials? Can we pick up safety signals in the real world that you can never capture when you only have a small clinical trial of 200 patients? But when you launch that drug at a larger cohort, what is actually happening in the real world? All of that is possible once you figure out how to transform all the information that's entered into the EHR into analyzing all formats. And so, you know, it's interesting, because Sujay gave all the real use cases, but in my mind, what we're doing is the technology, which is how are we going to do this in a sort of scalable way? So as the data is coming in, we can take it and output structured data that can then be used for analysis. And the better we get at that transformation step, the faster and the more reliable that is that really sort of unlocks what we can do with the data.</p><p><strong>Harry Glorikian: </strong>Yeah, it's funny. Yeah, it's funny. You're covering, like, I don't know, half a dozen podcasts I think I've done with various companies that are doing different parts of this. But I mean, I've looked at the company's literature and you put a lot of emphasis on what's called real-world data. And this is a topic, you know, I've covered on the show many times. You know, last year, late last year, I did an interview with Jeff Elton from Concert AI, where they collect post-approval data and help improve decision-making inside drug companies. So I want to ask you first, what do the folks at Verana have in mind when they talk about real world data? Does it basically mean any data collected outside of the context of a clinical trial?</p><p><strong>Sujay Jadhav: </strong>I know the real world data terminology has different types of descriptions, but fundamentally we look at it, generally any observational data, you know, is sort of what we categorize as real world data, and what we are focused on from a high level perspective. And you know what we see within the EHR, you know, there's a lot of that data available there. And in essence what we are doing is accessing it, extracting it, normalizing it, and then providing different levels of insights depending on the different types of use cases, which are important to improve the quality of care at the provider level there, and also help further research and within the life sciences arena as well. So, you know, that's high level the way we look at it. You know, one of the things, you know, in order to finish up sort of or complete the overall patient journey and have a holistic perspective, we need to also match that up with other types of data there. And so, you know, claims data, for example, at times there are longitudinal elements to it as well. So we spent a lot of effort and work doing matching there, you know, as well. You know, we're bringing in other types of data forms of imaging data and as well.</p><p><strong>Sujay Jadhav: </strong>So while we are very focused on the data there, we are actively complementing it with other types of data sources to get a more holistic picture there. But you know, I would say that a lot of companies out there have been doing a really good job of accessing this data from a more structured format perspective, right? And one of the things that I've seen, and this is more of a high level comment, is when you look at some of the structured data that can be an element of sort of extra latency in terms of getting that information to make certain decisions or decisions such as hey, for a particular clinical trial, what are the right patients that you should target, et cetera. And so what we are really focused on is the unstructured data, you know, the physician notes, and then leveraging sort of AI techniques there to provide those signals. So that allows us to, on a close to real-time basis, target particularly particular patients, which could be a better fit for a particular trial versus historical means, which have been a little bit more sort of delayed in terms of getting those data inputs.</p><p><strong>Harry Glorikian: </strong>So, you know, this begs the question before we jump into the product itself is. Do you guys have an opinion on why the medical establishment has not been so great at tracking or analyzing real world data up till now? I doubt it's lack of interest. It's probably more like technical limitations is my guess or maybe lack of interoperability, or all of the above.</p><p><strong>Shrujal Baxi: </strong>Harry, since the last time I was here, a lot has happened in the real-world data space. To start with, and I think we talked about this last time, which is real-world data has been here forever, right? Clinicians have been doing chart reviews and publishing case series. That's all real-world data. It's taking a look at what happens in the routine care of patients, pulling it out and analyzing it in order to deliver insights. I think what the electronic health record did or what we believed it would do is allow us to do that type of work at a scale that we couldn't do it before. The second thing, I think, that real-world data is now considered potentially useful for that it wasn't previously, is causation and the analytic ability to actually make linkage between input and output in a way that isn't just hypothesis generating. And the regulators are really sort of driving the space with the guidances that are coming out and really framing for companies like ours, how we should be thinking about data and the data quality and sort of where this data could be used.</p><p><strong>Shrujal Baxi: </strong>So there's sort of two parts, right? One is how do we generate it in real time at scale so that we can understand important questions? And then the other is the part that I think really sort of leaned in on, which is the entirety of a patient's journey. And this is a very patient-centric problem. It isn't captured in a single EHR. So how do we bring together all the different components of a patient's journey such that we get the complete picture, the genetics, the imaging, the multiple different providers, the claims for what was paid for, right? And so it's kind of an exciting time in the sense that we've sort of gotten to second base. Maybe we figured out how to get all the data. Now we're figuring out how to transform the data. Now we're going to figure out how to link the data. In the meantime, in parallel, we're figuring out how to analyze observational data. And a company like Verana is really well poised to do those things because of all the different components and the partners that we have to do that, I think.</p><p><strong>Sujay Jadhav: </strong>Yeah. And I'll just add to what Shrujal said there. And I think it's sort of inherent in your question around the technology was, has the technology been there before, et cetera? I think to some extent it has, but it has been evolving and obviously in the last decade with sort of AI techniques, natural language processing techniques, they've started to mature and kind of scale. But one of the key things around our industry is patient privacy, right? And so we have the technology and it's been leveraging a lot of other different industries. But the stakes are very, very high here because of protecting patient data overall. And so, you know, working through how can you access this data at scale and ensure and make sure that you're adhering to the patient’s privacy? There has taken a little bit longer to do, but now we have it. Currently, right now, we have a lot of techniques on the de-identified data identified realm where we can now leverage that to address that particular point. And I think, you know, it's an exciting time right now. You know, which is we now have the tools to do this at scale, but ensure that we're keeping patient privacy intact as well.</p><p><strong>Shrujal Baxi: </strong>But we also have a responsibility on the end of that spectrum, which is we have to have high quality data. So we need to protect the patient's privacy. We need to be very responsible with the data, but we also have to be very responsible for how the data is generated, such that we don't end up with conclusions that are harmful. The integrity of the data throughout that process needs to be maintained because people are going to act on the output of our analysis using the data that we're generating. And so that's an incredible responsibility that I think we take on and sort of critical to how we think about what we do. It's not just data, it's data that's generated to make decisions in health care that impacts patients very directly.</p><p><strong>Harry Glorikian: </strong>Yeah, absolutely. So, you know, I think this is a maybe a good segue or opportunity. What have you guys actually built? Because we've been talking around it. What is, I think it's called the VeraQ health data engine, if I got it right? Tell me a little bit about the product. And you mentioned natural language processing and machine learning, and so how does that fit, at what point and where does it fit? And I'm sure there's a few people who are going to like listen closely at this part because they're interested in this stuff. Some others may not listen as closely. But if you could tell me a little bit about the product, that would be great for everybody listening.</p><p><strong>Sujay Jadhav: </strong>Sure. Sure, absolutely. So, you know, in essence, what we have is we do have a real-world data network where we access 20,000 providers. We have 90 million de-identified patients currently, and it's growing at a good clip right now. And what we do is we take that data, we ingest the data, we normalize it and curate it to provide insights to providers to improve quality and participate in trials and then also to the life sciences community as well to help further research. Broadly speaking, there, you know, sort of our technology platform is called VeraQ. We released it last year, in essence, it's sort of the secret sauce around ingesting it and normalizing and curating the data. And then once we do that, then what we do is we deliver it in what we call de-identified data modules called Qdata modules, which are aligned according to the therapeutic areas in certain disease states. And so what we do is within each of the three therapeutic areas we release on a quarterly basis different disease modules, Qdata modules there. And then that helps serve out, you know, a lot of insights that life sciences companies can use across different areas. So anything from a helping out in trial design work with a lot of large pharma companies around helping improve sort of how they target particular patients out there by leveraging these de-identified data modules to helping out on recruitment as well. In terms of working through what are the right providers that you're targeting to have that patient population trial to eventually see when you actually launch the drug, you know how the use is occurring out there in the marketplace, how they can better target it to improve the value of the particular drug they have there as well. And, you know, we eventually set that up instead of application modules across that overall drug lifecycle. So, you know, to summarize, our platform is VeraQ. We then serve it up in these Qdata modules and then we deliver it in these solution sets, which are provider facing and also life sciences space.</p><p><strong>Shrujal Baxi: </strong>I was going to say something that's really unique about Verana and shouldn't be glossed over is the fact that so many different EHRs are out there and they're they're created differently and they are so specialized to the provider with bells and whistles that each different practice pays for. And to take all of that disparate information and ingest it and harmonize it such that the output or variables that can be generated at a scalable fashion across millions of charts and then use that for analysis. I mean, GE made it sound really good and clean, but that's actually a that's a lot of work for anyone who's ever touched an EHR and try to get value out of the data that's entered. It's a feat. And I think that that that engine now that it's built, is sort of poised to take in and give out, right? That was the infrastructure build that was 2021. And 2022 is the data that's going to come out as he was describing. But I just want to, I'm particularly passionate about this because I've worked now at different companies that think about this and that particular part of harmonization from the starting point that are so many different places is really, I think, a technological advancement.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s leave a rating and a review for the show on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. </p><p>It’ll only take a minute, but you’ll be doing a lot to help other listeners discover the show.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in print and ebook formats. Just go to Amazon or Barnes & Noble and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>We talk about major EHR systems sold to hospitals and, you know, on this show a lot and the interoperability and it's just, oh my God, it's a mess, right? And I hear it from patients too, right? I had someone call me the other day and they were like, I don't want to say they were chewing my ear off, but they were unhappy and they were like, and it was a friend of mine who had gone into a hospital. And he goes, I'm sure you know all this. I'm like, Yes, I know all this. But hearing it from somebody is interesting. It sounds like, I mean, you guys are harmonizing, or correct me if I'm wrong, at least from what I’ve heard, ophthalmology and neurology and and urology. If you were able to give that back to the physician, I think that would be hugely of value as a physician, assuming that it's simple for them to interact with and, you know, they don't need a degree in computer science, if you know what I mean.</p><p><strong>Sujay Jadhav: </strong>Yeah, yeah, that's exactly what we are also focused on. I mean, you know, sort of part of sort of the way we are approaching this opportunity is sort of twofold. Number one, working with the providers, helping improve that, they can provide care. And we're very committed to that in a way we're committed to. That is. You brought up sort of MIPS quality reporting, which is important for CMS submissions. And, you know, we actually have a particular solution that is provider facing, which allows them to work through sort of their quality scores, understand how they're doing overall in terms of overall quality of care from from a high-level perspective. You know, in addition to that, we're also allowing them to access sort of our patients, you know, data to help improve how they can participate in clinical trials. And, you know, we understand that their bandwidth is very, very constrained. They need to focus on care. And, you know, folks like myself and sure, you know, we've been doing this for a couple of decades as well and spent a lot of time, you know, working with physicians out there. And so we understand that, you know, making this user friendly, allowing them to come in and out as quickly as possible to get the insight they do is extremely important.</p><p><strong>Sujay Jadhav: </strong>And that's sort of a key part of what we are focused on as a company. And we're committed to helping improve quality of care by taking on sort of this MIPS reporting obligation as part of sort of our overall business model as well. But, you know, through that particular process, you know, we obviously have access to the data. We then de-identify it and then we can provide the next generation of insights to the life sciences industry, which is a very, very compelling across the board. And it's a really, really interesting that I've been doing this for, you know, 20 years plus, and I still feel we're just barely scratching the surface in how we leverage this particular data. And so, you know, there's definitely a lot of work that we are doing, leveraging natural language processing techniques to allow us to do this at a particular scale. And that's sort of core for us helping to deliver on this sort of next level of opportunity that we see to help improve care across the overall value chain.</p><p><strong>Harry Glorikian: </strong>Do one of you or both of you have your favorite case study that highlights the different strengths of the system that you can sort of, you know, put it into context for someone.</p><p><strong>Shrujal Baxi: </strong>Sujay, do you want to go first?</p><p><strong>Sujay Jadhav: </strong>Sure, yeah, absolutely, absolutely. So, you know, you know, from my perspective, where we're providing a lot of insights, as I mentioned, across sort of the overall drug life cycle, the area which got me the most excited around Verana is really on the trial side of the house, in essence. And so, you know, we do a lot of work around helping out in trial design, right? But you know, the areas that we're starting to see sort of the biggest next level of value that we're providing is really on the recruitment side of the house. And you know, as you know, recruitment is being a big pain point in the industry at large. I think a lot of companies are out there which are helping work through and target the right sites, help target the right PCs, providers, which you know, have the actual patients there. But that final mile of helping out do the actual recruitment is something which is very difficult to do. You know, the biggest influence in recruitment is a physician and, you know, via sort of the solutions that we're providing around our quality of reporting side as well, how safe we feel. At least we have some bandwidth there with the physician and we want to leverage that to improve recruitment. So, you know, we've done a number of projects in the recruitment side, particularly in the rare disease area, is an area that we've done a lot of work there because historically the way it is, the process has been, which is, hey, you know, these are the particular, you know, you know, physicians out there which have participated in historical trials, et cetera. Let's just target them as well. And it's more around historically which providers participate in trials. But what we're doing is we're doing it from a data level up there. And so what we did with a large pharma company out there in a particular rare disease area there is we actually identified a number of patients with actual providers which have never participated in trials before. And so we yielded a set of patients, which probably they never would have gotten via the normal mechanisms out there. You know, and I would say the types of improvements we're seeing starting to see in the trial side is north of 30 percent sort of efficiency improvements in the trial process overall. And if you extrapolate that to how much they spend in clinical trials, that's tens of millions of dollars of cost savings that you can take out of change. So, you know, that's probably the area where I've seen a lot of value that we're provided with this particular data. Shrujal, do you have any other examples?</p><p><strong>Shrujal Baxi: </strong>Mine is not nearly as grandiose, but it's really sort of brings home why data is important. So recently we ran an analysis with the American Urologic Association just as a sort of look at how the data can show us what's happening, and it's going to come out in their spring newsletter that they send to all their members. And we partnered with one of their academic collaborators, and we just asked a question about uptake of routine bone density scans for patients with prostate cancer who are going to go on to hormonal therapy for about six months to a year. And that has been a, that's been a quality measure that they've been tracking as an organization because it's a place for improvement for urology overall. And we were just curious sort of in our data, what does that look like, right? And so perfect use, create data, analyze data. What we found is that the uptake of this particular recommendation over time has steadily increased. But lo and behold, COVID hit people didn't stop getting prostate cancer, but they did stop doing screening for bone density. And we know that if you don't look for bone density, you're not going to treat low bone  density. And therefore these patients are going to be at risk for fractures, which are, you know, in a certain population, just devastating. And so the I sort of am stealing the thunder of the snapshot. So please forgive me, AUA, but the takeaway here is that there is something we can now do. Let's go back to those patients that we diagnosed in 2020, and let's make sure that all those patients get bone density scans. And if we can prevent even one fracture, then this data has served its purpose directly to the patient, right? And so that's just a glimpse of what we can do with the data. And there are so many opportunities like that to directly impact patient outcomes if we can just figure out what questions to ask and then how to disseminate that information. So not quite as big and grandiose, but really tactical and tangible, I think.</p><p><strong>Harry Glorikian: </strong>Yeah, no, no, I mean, I, you know, once you have the data, my brain goes in, you know, eight, 10 different directions of what can I do with it? Which is why I like investing in the space because it's, you know, if you've really got access to the right quality data and you can actually interrogate it, you're not just a one trick pony. And one of the things that I was thinking of is with all the data you've got, you know, couldn't you create like really optimized digital twins that might be able to also be used in a trial? I mean, that's one of the first things that popped into my head. But Shrujal, last time we talked, you were head of clinical science at Flatiron. And I think if I got it correctly, your title now is senior vice president of clinical and scientific solutions. So what does that mean?</p><p><strong>Shrujal Baxi: </strong>Good question. I think the fact that clinical and science are in both the titles sort of tells you that in many ways my role at a company like Flatiron or my role at a company like Verana is not all that different, right? It's to make sure that we are bringing through the perspective of the clinician who is fundamentally at the heart of the documentation that's happening and that we're translating that when we partner with our technology colleagues, to translate how that data is going to be transformed so that we don't lose the meaning of the information. As a scientist or an outcomes researcher, I was a consumer. I would interrogate databases that were generated like this and so I can put my outcomes or my health services research hat on, my clinician hat on. What questions do I need answered and what is the data need to look like? So I sort of sit in many ways at the start and at the finish and help partner along the way with our cross-functional colleagues who do really the bulk of the work. Like I think it's such a, the strength of these companies is how collaborative they are. The challenge of these companies is how many people have to work together and communicate and say the right words and the same words to mean the same things. And so the title sounds a little different, but in many ways I feel like my role is to preserve the voice of the provider and therefore indirectly the patient in everything that we're doing. </p><p><strong>Shrujal Baxi: </strong>The other piece that I think I've the title seems bigger at Verana, but what it's actually, I think, expanded my my scope into is to understand where engineering and data science and that AI/ML component of the transformation can really take us. I think technology enabled abstraction is one thing, but I think actually applying technology to extract the data is a whole 'nother level of complexity and scale. But once built, it's sort of a receptor just waiting for new data sources to come through because you can take 10 hours, 12 hours, 100 hours. If you built the pipeline and you've built that ML/AI to put on top of it, the output should come sort of instantaneously, so I say that with a wink almost too, because I know it's a lot harder than that, I've learned. But ultimately, that's what Verana is building towards. And so the scope of my work and how I think has changed just slightly.</p><p><strong>Harry Glorikian: </strong>Well, it sounds like a critical piece of the puzzle to make sure that, you know, everything is translated correctly and everything is understood correctly, et cetera. So it's I think it's a valuable position. They might need to clone you, though, because I feel like there's a lot going on there.</p><p><strong>Shrujal Baxi: </strong>I feel like there's a lot going on.</p><p><strong>Sujay Jadhav: </strong>There definitely is. I mean, you know, and we have we have sort of a network of medical professionals that we leverage, you know, across all three therapeutic areas, you know, and that's really, you know, part of sort of our overall process, right? But you know, I think you describe it very, very clearly. But ultimately, you know what, we're trying to get out of Shrujal and the group is sort of how to medically inform the overall process that we're doing right now, and make it relevant and practical to truly provide insights to the clinician right at the end of the day there. And so, you know, there's a pragmatic element to sort of her involvement in the overall process because technology can only take you so far. But to get that sort of final, pragmatic element to that particular therapeutic area, you know, requires a medical professional.</p><p><strong>Harry Glorikian: </strong>Yeah. And I think, you know, one of the most challenging things is how to present it. And like you said, I mean, real time is a that's a whole other, you know, dynamic to tackle that people don't understand. But. You guys just had some fantastic news. I, you know, a I believe recently a series of venture round brought in, I think it was $150 million, if I remember the number correctly, from J&J Innovation, as well as existing investors like Google Ventures. I mean, first of all, congratulations, that's a pretty good sized round. Can you fill us in on like, okay, somebody just handed you a $150 million check. What are you going to do?</p><p><strong>Sujay Jadhav: </strong>Yeah, no, it's a good question. Firstly, the $150 million raise is a significant raise, and we're very fortunate that it's come from comes from a diversified set of, you know, digital health investors, broadly speaking in combination of growth investors, innovation funds from life sciences companies as well as academia as well. And so I think it's a good cross-section mix that we have fundamentally a number of investors which are very committed to digital health overall and will allow us to sort of accelerate the business as we take it to sort of the next level. You know, in a lot of ways I think it's sort of recognition of where Verana is, you know, and you know, we've done a really good job of building out our digital technology platform. We are now commercializing the business very, very well, you know, in terms of what we're going to do with a capital, in essence, it's fuel for growth. We've anchored on a really good business model right now. And what we are going to leverage the money for is to help execute on our existing sustainable product strategy, which is coupled by premium services on a solid data foundation and the sort of sort of three areas that we are going to focus on. The first one is on the provider side of the house that we already have an existing set of solutions in the, you know, the quality area and the clinical trial area. And we're going to further those particular solutions taken to the next level to make it easier for physicians and providers to do that job. The second area that we're going to be investing in even more is on the life sciences solutions side there as well.</p><p><strong>Sujay Jadhav: </strong>And so, you know, both we have a set of trial solutions there. We have what we call data-as-a-service solution set, which allows these life sciences companies to access the curated data in a very easy fashion, so allows them to provide different levels of insights that they feel are important as well. And then, you know, the third area is just furthering sort of expanding sort of the data that we have currently right now. I think we've got a really good critical mass right now with 90 million de-identified patients, you know, 20,000 plus providers there. We're going to continue to increase that across our three therapeutic areas. But, you know, moving to other types of data sources, I think imaging is one we're going to invest in a big way. I think that can really, truly help complete the picture. Genetic information also is something that we're inserting in into the mix as well. And, you know, bringing in each data, bringing in claims data, bringing in imaging and genetic data, you know, is a complex equation, so to speak there, just to say the least. Yeah, it is. And you thought of doing that in a thoughtful way, doing it in a way which is scalable. It takes a lot of effort. And that's where we're going to be investing a lot of these funds to make that happen. And you know, we're well on the way to actually doing this. And so, you know, a lot of the money is in essence, just executing on the strategy.</p><p><strong>Harry Glorikian: </strong>Well, you know, it's been great having you both here. I love talking about this stuff, as you can tell. And you know, I wish you guys incredible luck because, you know, I keep getting older and I think I'm going to be, you know, at some point you become more of a patient. So the more that this advances, the better my health and wellness will become. And I look forward to, you know, maybe having you guys in the future and seeing the evolution of where this goes.</p><p><strong>Sujay Jadhav: </strong>Absolutely. Thanks a lot, Harry. Enjoyed talking.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s episode. </p><p>You can find a full transcript of this episode as well as the full archive of episodes of The Harry Glorikian Show and MoneyBall Medicine at our website. Just go to glorikian.com and click on the tab Podcasts.</p><p>I’d like to thank our listeners for boosting The Harry Glorikian Show into the top three percent of global podcasts.</p><p>If you want to be sure to get every new episode of the show automatically, be sure to open Apple Podcasts or your favorite podcast player and hit follow or subscribe. </p><p>Don’t forget to leave us a rating and review on Apple Podcasts. </p><p>And we always love to hear from listeners on Twitter, where you can find me at hglorikian.</p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>Getting Value out of Electronic Health Records, with Verana Health</itunes:title>
      <itunes:author>Harry Glorikian, Sujay Jadhav, Shrujal Baxi</itunes:author>
      <itunes:duration>00:46:16</itunes:duration>
      <itunes:summary>Healthcare is one of those areas where more data is almost always better. And I talk a lot on the show about how data is helping doctors and patients make smarter decisions. But a lot of the data we’d still like to have is stuck in those arcane Electronic Health Record systems or EHRs that medical practices or hospital systems use to track their patients. These systems tend to be closed, proprietary, user-unfriendly, and incompatible with one another. And we&apos;ve repeatedly made the case here on the show that EHR technology is holding back innovation across the healthcare market.

That’s why we like to meet companies that are working to make EHR data more useful. And in this episode we welcome a pair of guests from a company called Verana Health that’s trying to do just that. The company recently brought in $150 million in new venture capital funding to help scale up its data services, which currently focus on the subspecialties of ophthalmology, neurology, and urology. Verana takes data on patients in these fields, cleans it up, analyzes it, and pulls out insights that could be useful—both for clinicians who want to increase the quality of the care they’re providing, and for pharmaceutical companies who need new ways to measure the effectiveness of their drugs and better ways  to find patients for clinical trials. Here to explain more about all of that are Verana’s CEO, Sujay Jadhav, as well as its senior vice president of clinical and scientific solutions, Shrujal Baxi. (If you’re a longtime listener you might remember that we had Shrujal on the show once before, back in 2018, when she talked about her previous company Flatiron Health.) </itunes:summary>
      <itunes:subtitle>Healthcare is one of those areas where more data is almost always better. And I talk a lot on the show about how data is helping doctors and patients make smarter decisions. But a lot of the data we’d still like to have is stuck in those arcane Electronic Health Record systems or EHRs that medical practices or hospital systems use to track their patients. These systems tend to be closed, proprietary, user-unfriendly, and incompatible with one another. And we&apos;ve repeatedly made the case here on the show that EHR technology is holding back innovation across the healthcare market.

That’s why we like to meet companies that are working to make EHR data more useful. And in this episode we welcome a pair of guests from a company called Verana Health that’s trying to do just that. The company recently brought in $150 million in new venture capital funding to help scale up its data services, which currently focus on the subspecialties of ophthalmology, neurology, and urology. Verana takes data on patients in these fields, cleans it up, analyzes it, and pulls out insights that could be useful—both for clinicians who want to increase the quality of the care they’re providing, and for pharmaceutical companies who need new ways to measure the effectiveness of their drugs and better ways  to find patients for clinical trials. Here to explain more about all of that are Verana’s CEO, Sujay Jadhav, as well as its senior vice president of clinical and scientific solutions, Shrujal Baxi. (If you’re a longtime listener you might remember that we had Shrujal on the show once before, back in 2018, when she talked about her previous company Flatiron Health.) </itunes:subtitle>
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      <title>What Exponential Change Really Means in Healthcare, with Azeem Azhar</title>
      <description><![CDATA[<p>As we say here on The Harry Glorikian Show, technology is changing everything about healthcare works—and the reason we keep talking about it month after month is that the changes are coming much faster than they ever did in the past. Each leap in innovation enables an even bigger leap just one step down the road. Another way of saying this is that technological change today feels <i>exponential</i>. And there’s nobody who can explain exponential change better than today’s guest, Azeem Azhar.</p><p>Azeem produces a widely followed newsletter about technology called Exponential View. And last year he published a book called <i>The Exponential Age: How Accelerating Technology is Transforming Business, Politics, and Society</i>. He has spent his whole career as an entrepreneur, investor, and writer trying to help people understand what’s driving the acceleration of technology — and how we can get better at adapting to it. Azeem argues that most of our social, business, and political institutions evolved for a period of much slower change—so we need to think about how to adapt these institutions to be more nimble. If we do that right, then maybe we can apply the enormous potential of all these new technologies, from computing to genomics, in ways that improve life for everyone.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>So, when you step back and think about it, why is it that people like me write books or make podcasts about technology and healthcare?</p><p>Well, like I just said, it’s because tech is changing everything about healthcare works—and the changes are coming much faster than they ever did in the past.</p><p>In fact, the change feels like it’s accelerating. </p><p>Each leap in innovation enables an even bigger leap just one step down the road.</p><p>Another way of saying this is that technological change today feels <i>exponential</i>.<br />And there’s nobody who can explain exponential change better than today’s guest, Azeem Azhar.</p><p>Azeem produces a widely followed newsletter about technology called Exponential View.</p><p>And last year he published a book called <i>The Exponential Age: How Accelerating Technology is Transforming Business, Politics, and Society</i>.</p><p>He has spent his whole career as an entrepreneur, investor, and writer trying to help people understand what’s driving the acceleration of technology — and how we can get better at adapting to it.</p><p>Azeem argues that most of our social, business, and political institutions evolved for a period of much slower change. So we need to think about how to adapt these institutions to be more nimble.</p><p>If we do that right, then maybe we can apply the enormous potential of all these new technologies, from computing to genomics, in ways that improve life for everyone.</p><p>Azeem and I focus on different corners of the innovation world. But our ideas about things like the power of data are very much in sync. So this was a really fun conversation. </p><p>Here’s Azeem Azhar.</p><p><strong>Harry Glorikian: </strong>Azeem, welcome to the show.</p><p><strong>Azeem Azhar: </strong>Harry, what a pleasure to be here.</p><p><strong>Harry Glorikian: </strong>I definitely want to give you a chance to sort of talk about your work and your background, so we really get a sense of who you are. But I'd first like to ask a couple of, you know, big picture questions to set the stage for everybody who's listening. You like this, your word and you use it, "exponential," in your branding and almost everything you're doing across your platform, which is what we're going to talk about. But just for people who don't, aren't maybe familiar with that word exponential. What does that word mean to you? Why do you think that that's the right word, word to explain how technology and markets are evolving today?</p><p><strong>Azeem Azhar: </strong>Such a great question. I love the way you started with the easy questions. I'm just kidding because it's it's hard. It's hard to summarize short, but in a brief brief statement. So, you know, exponential is this idea that comes out of math. It is the idea that something grows by a fixed proportion in any given time period. An interest-bearing savings account, 3 percent growth or in the old days, we'd get 3 percent per annum, three percent compounded. And compound interest is really powerful. It's what your mom and your dad told you. Start saving early so that when you're a bit older, you'll have a huge nest egg, and it never made sense to us. And the idea behind an exponential is that these are processes which, you know, grow by that certain fixed percentage every year. And so the amount they grow grows every time. It's not like going from the age of 12 to 13 to 14 to 15 were actually proportionately—you get less older every year because when you go from 15 to 16, you get older by one fifteenth of your previous age. And when you go from 50 to fifty one, it's by one 50th, which is a smaller proportion. Someone who is growing in age exponentially would be growing by, say, 10 percent every year. So you go from 10 to 11 and that's by one year. From 20, you go to 22, two years. From 30 to 33. So that's the idea of an exponential process. It's kind of compound interest. But why I use the phrase today to describe what's going on in the economy and in the technologies that drive the economy, is that many of the key technologies that we currently rely on and will rely on as they replace old industrial processes are improving at exponential rates on a price-performance basis.</p><p><strong>Azeem Azhar: </strong>That means that every year you get more of them for less, or every year what you got for the the same dollar you get much more. And I specifically use a threshold, and that threshold is to say essentially it's an exponential technology if it's improving by double digits, 10 percent or more every year on a compounding basis for decades. And many of the technologies that I look at increased by improve by 30, 40, 50, 60 percent or more every year, which is pretty remarkable. The reverse of that, of course, is deflation, right? These capabilities are getting much cheaper. And I think the reason that's important and the reason it describes the heartbeat of our economies is that we're at a point in development of, you know, sort of economic and technological development where these improvements can be felt. They're viscerally felt across a business cycle. Across a few years, in fact. And that isn't something that we have reliably and regularly seen in any previous point in history. The idea that this pace of change can be as fast as it as it is. And on the cover of my book The Exponential Age, which I'm holding up to you, Harry. The thing about the curve is is that it starts off really flat and a little bit boring, and you would trade that curve for a nice, straight, sharp line at 45 degrees. And then there's an inflection point when it goes suddenly goes kind of crazy and out of control. And my argument is that we are now past that inflection point and we are in that that sort of vertical moment and we're going to have to contend with it.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, we are mentally aligned. And I try to talk to people about this. I mean, when we were doing the genome project that Applied Biosystems, you know, when we had finished, I think it was 2 percent or 4 percent of the genome, everybody's like, Oh, you have like ninety something [to go], and they couldn't see the exponential curve. And then we were done like five years later. And so it's it's this inability of the human mind. You know, it's really not designed to do that, but we're not designed to see exponential shift. We're sort of looking around that corner from an evolutionary perspective to see what's happening. But, you know? Exponential growth is not a new concept, if you think about, you know, really, I think the person that brought it to the forefront was Gordon Moore, right? With, you know, how semiconductor chips were going to keep doubling every two years and cost was going to stay flat. And you know, how do you see it playing out? Today, what is so different right now, or say, in the past two, three, four, five years. What you can see going forward that. May not have been as obvious 10 or 15 years ago.</p><p><strong>Azeem Azhar: </strong>I mean, it is an idea that's been around with us for a long time. You know, arguably Thomas Malthus, the British scholar in the 18th century who worried about the exponential growth of the population destroying the land's carrying capacity and ability to produce crops. And of course, we have the sort of ancient Persian and Hindu stories about the vizier and the chessboard, who, you know, puts a grain of rice and doubles on each square and doubles at each time. So it's an idea that's been around for a while. The thing that I think has happened is that it's back to its back to that point, the kink, the inflection in the curve. The point at which in the story of the chess, the king gets so angry with his vizier that he chops off his head. The point with the semiconductors, where the chips get so powerful and so cheap that computing is everything, and then every way in which we live our lives is mediated through these devices. And that wasn't always the way. I mean, you and I, Harry, are men of a certain age, and we remember posting letters and receiving mail through the letterbox in the morning. And there was then, some 15 years later, there were, or 20 years later, there was a fax, right? I mean, that’s what it looked like.</p><p><strong>Azeem Azhar: </strong>And the thing that's different now from the time of Gordon Moore is that that what he predicted and sort of saw out as his clock speed, turns out to be a process that occurs in many, many different technology fields, not just in computing. And the one that you talked about as well, genome sequencing. And in other areas like renewable energy. And so it becomes a little bit like...the clock speed of this modern economy. But the second thing that is really important is to ask that question: Where is the bend in the curve? And the math purists amongst your listeners will know that an exponential curve has no bend. It depends on where you zoom in. Whatever however you zoom, when you're really close up, you're really far away. You'll always see a band and it will always be in a different place. But the bend that we see today is the moment where we feel there is a new world now. Not an old world. There are things that generally behave differently, that what happens to these things that are connected to exponential processes are not kind of geeks and computer enthusiasts are in Silicon Valley building. They're happening all over the world. And for me, that turning point happens some point between 2011, 2012 and 2015, 2016. Because in 2009, America's largest companies were</p><p><strong>Azeem Azhar: </strong>not in this order, Exxon, Phillips, Wal-Mart, Conoco... Sorry, Exxon Mobil, Wal-Mart, ConocoPhillips, Chevron, General Motors, General Electric, Ford, AT&T, Valero. What do all of them have in common? They are all old companies are all built on three technologies that emerged in the late 19th century. The car or the internal combustion engine, the telephone and electricity. And with the exception of Wal-Mart, every one of those big companies was founded between about 1870 and sort of 1915. And Wal-Mart is dependent on the car because you needed suburbs and you needed large cars with big trunks to haul away 40 rolls of toilet paper. So, so and that was a century long shift. And then if you look out four years after 2009, America's largest firms, in fact, the world's largest firms are all Exponential Age firms like the Tencent and the Facebooks of this world. But it's not just that at that period of time. That's the moment where solar power became for generating electricity became cheaper than generating electricity from oil or gas in in most of the world. It's the point at which the price to sequence the human genome, which you know is so much better than I do, diminished below $1000 per sequence. So all these things came together and they presented a new way of doing things, which I call the Exponential Age.</p><p><strong>Harry Glorikian: </strong>Yeah, in my last book. I, you know, I do state that the difference between evolution and revolution is time, right? If you wait long enough, things happen evolutionarily, but at the speed that things are changing, it feels revolutionary and in how it's affecting everybody. So let's rewind and talk about your background. You've been active as a business columnist, as a journalist, a startup founder, a CEO, a leader of corporate innovation, incubators at Reuters and a venture capital partner. Lately you've built what eems like a very busy career around books and talks and podcasts and all around this theme of accelerating technologies, I'd love to hear how you how you first got interested in all these themes about technological change. You know, how society can manage this change? I know you were in Oxford. You got your master's degree in the famous PPE program. The politics, philosophy and economics. You know, was it soon after that that you went down this road? Or is Oxford where it all started?</p><p><strong>Azeem Azhar: </strong>It started well before then in, in a weird way. So, so you know, my interest really is between sits between technology and an economic institutions and society. And I, I was born, like most of us are, to two parents, and my parents were working in in Zambia in the early 70s, and my dad was working on helping this newly independent country develop economic institutions. It didn't have them and it needed them to go through that sort of good institutions, make for healthy economies, make for social welfare and sort of civil politics. That's the argument. So he was out there doing all of that. And I was born the year after Intel released its 4004 chip, which is widely regarded as the sort of the chip that kicked off the personal computing revolution. And so, so in the backdrop of people talking about development and development economics and being curious about my own personal story, I was exposed to these ideas. I mean, you don't understand them when you're eight or 10 and you know, but you're exposed to them and you have an affiliation to them and so on. And at the same time, computers were entering into the popular consciousness.</p><p><strong>Azeem Azhar: </strong>You know, you had C-3PO, the robot and computers in Star Trek, and I saw a computer in 1979 and I had one from 1981. And so my interest in these things, these two tracks was start set off quite early on and I really, really loved the computing. And I did, you did notice, but you don't necessarily understand that, why computers are getting more and more powerful. My first computer only had one color. Well, it had two, white and black. And my second could manage 16 at some time, probably not 16. Eight out of a palette of 16 at any given time. And they get better and better. And so alongside my life were computers getting faster. I'm learning to program them and discovering the internet and that, I think, has always sat alongside me against this kind of family curiosity. I suspect if my parents had been, I don't know, doctors, I would have been in your field in the field of bioinformatics and applying exponential technologies to health care. And if my parents had been engineers, I would have been doing something that intersected engineering and computing.</p><p><strong>Harry Glorikian: </strong>Yeah, no, it's you know, it's interesting, I remember when we got our first chip, when I was first learning about, you know, computers like it was, you know, eight bits, right? And then 16 bits and oh my god, what can we do with them? And we were building them, and I actually have to get you a copy of my new book because I think if you read the first chapter and what you just said, you'll be like, Oh my God, we have more in common than we may think, even though you know you're where you are and I'm in the health care field to. But you were co-founder and CEO of a company, I believe that was called PeerIndex, which was a startup in the late 2000s. And even back then, you were trying to quantify people's influence on different social media platforms. And I'm trying to remember like, do I even know what the social media platform was back in 2000? It seems like so long ago, and you successfully sold it to Brandwatch in, like, 2014. What did that experience sort of teach you about, you know, the bigger issues and how technology impacts society and vice versa? Because I have to believe that you know your hands on experience and what you were seeing has to have changed the way that you thought about how fast this was going and what it was going to do.</p><p><strong>Azeem Azhar: </strong>Oh, that is an absolutely fantastic, fantastic question. And. You know, you really get to the heart of all of the different things that you learn as a founder. When we when I started PeerIndex, the idea was really that people were going on to the internet with profiles that they maintained for themselves. So up until that point, apart from people who had been really early on the internet, like you and I who used Usenet and then early web pages for ourselves, no one really had a presence. And these social apps like MySpace and Twitter and LinkedIn and Facebook show up and they start to give people a presence. And we felt that initially there would be a clear problem around trying to discover people because at the time the internet was an open network. You could look at anyone's page on Facebook. There weren't these walled gardens. And we looked down on them. So we thought initially that there would be a an opportunity to build some kind of expertise system where I could say, "Listen, find me something that someone who knows something about, you know, sushi restaurants in Berlin." And it would help me find that person. I could connect their profile and talk to them because it was the really early, naive days before Facebook or LinkedIn had advertising on them. And we could we kind of got the technology to work, but actually the market was moving and we couldn't land that.</p><p><strong>Azeem Azhar: </strong>And so we had to kind of pivot, as you do several times, ultimately, until we became this kind of influence analytics for marketers. But the few things that I learned. So the first one was how quickly new players in a market will go from being open to being closed. So it was 2011 when Facebook started to put the shutters down on its data and become a closed garden. And they realized that the network effect and data is what drove them forward. And the second thing was the speed with which what we did changed. So when we were getting going and doing all of this kind of analytics on Twitter and Facebook. They didn't really have data science teams. In fact, Twitter's first data scientists couldn't get a US visa and ended up helping, working with us for several months. And I think back to the fact that we used five or six different core technologies for our data stores in a seven-year period. And in that time, what we did became so much more powerful. So when we started, we had maybe like 50,000 people in this thing, it was really hard to get it to work. The entire company's resources went on it. At one point we were we had about 100 million people in the data in our dataset, or 100 million profiles in the data.</p><p><strong>Azeem Azhar: </strong>They were all public, by the way. I should say this is all public data and it was just like a search engine in a way. And in order to update the index, we would need to run processes on thousands of computers and it would take a big, big, big servers, right? And it would take a day. Yeah. By the time we sold the company, a couple more iterations of Moore's Law, some improvements in software architecture, we were updating 400 million user profiles in real time on a couple of computers. Yep, so not only do we quadrupled the dataset, we had increased its, sort of decreased its latency. It was pretty much real time and we had reduced the amount of computers we needed by a factor of about 400. And it was a really remarkable evolution. And that gets me to the third lesson. So the second lesson is really all about that pace of change in the power of Moore's law. And then the third lesson was really that my engineers learned by doing. They figured out how to do this themselves. And whereas I was sort of roughly involved in the first design, by the time we got to the fifth iteration this was something of a process that was entirely run by some brilliant young members of the team.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, you've got to actually cook something to understand how to do it and taste it and understand how it's going to come out. So your new book, The Exponential Age, came out this fall. You know, in the first chapter, you sort of identify two main problems, right? One is how do we perceive technology and then or the way we relate to technology and. Can you describe the two problems as you see them and maybe, maybe even hint a little? I don't want I don't want if people want to buy the book, I want them to buy it, but maybe hint that the solution?</p><p><strong>Azeem Azhar: </strong>Yeah. Well, I mean, there are there are a couple of issues here, right, in the Exponential Age. The first is that technology creates all sorts of new potentials and we live them. We're doing this over Zoom, for example. Right. And there are. But the arrival of new potentials always means that there's an old system that is going to be partially or entirely replaced. And so I describe that process as the exponential gap. It is the gap between the potentials of the new and the way in which most of us live our lives. And the thing is, the reason I say "the way most of us live our lives" is because our lives, even in America, which doesn't like its sort of government, are governed by institutions and by regulations. You know, when you when you start to cook, you wash your hands, right? There's no law. That's just an institution, its common habit. If you have teenage kids like I do, you're battling with the fact that people are meant to talk over dinner, not stare at their phones. In the UK there is an institution that says on a red light traffic signal, you never turn. You wait. It's not like the US where you can do that. Now some of these institutions are codified like our traffic laws, and some are not.</p><p><strong>Azeem Azhar: </strong>There are then more formal institutions of different types like, you know, the Fed or NATO or the Supreme Court. And the purpose of institutions, social, formal, legal, informal is to make life easier to live, right? Right, you don't have to remember to put our pants on. I will read a rule that says, put your pants on before you leave the house. It's like you just put them on and everybody kind of knows it. And there's no law that says you should or shouldn't, right. So they become very valuable. But the thing is that the institutions in general, by their nature, don't adapt to at the speed with which these new technologies do adapt. And even slower moving technologies like the printing press really upended institutions. I mean, Europe went into centuries of war just after the printing press emerged. So, so the central heart of the challenge is, on the one hand, we have these slightly magical technologies that do amazing things, but they somewhat break our institutions and we have to figure out how we get our institutions to adapt better. But there's a second complication to all of this, which is that which is, I think, more one that's about historical context. And that complication is that the way we have talked about technology, especially in the West in the last 40 or 50 years, has been to suggest that technology is deterministic.</p><p><strong>Azeem Azhar: </strong>We're a bit like people in a pre-med, pre-science era who just say the child got the pox and the child died. We say the technology arrived and now we must use it. The iPhone arrived and we must use it. TheFacebook arrived, and we must use it. We've gotten into this worldview that technology is this sort of unceasing deterministic force that arrives from nowhere and that a few men and women in Silicon Valley control, can harness it. We've lost sight of the fact that technology is something that we as members of society, as business people, as innovators, as academics, as parents get to shape because it is something that we build ourselves. And that for me was a second challenge. And what I sought to do in the book, as I was describing, the Exponential Age is not only persuade people that we are in the Exponential Age, but also describe how it confuses our institutions broadly defined and also explain why our response has sometimes been a bit poor. Some a large part of which I think is connected to putting technology on a particular pedestal where we don't ask questions of it. And then hopefully at the end of this, I do give some suggestions.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting, right, I've had the pleasure of giving talks to different policy makers, and I always tell them like, you need to move faster, you need to implement policy. It's good to be a little wrong and then fix it. But don't be so far behind the curve that you, you know, some of these things need corralling otherwise, they do get a lot of, you know, get out of hand. Now in health care, we have almost the opposite. We're trying to break the silos of data so that we can improve health care, improve diagnosis, improve outcomes for patients, find new drugs. </p><p><strong>Harry Glorikian: </strong>So I'm going to, I'm going to pivot there a little bit and sort of dive a little deeper into life sciences and health care, right, which is the focus of the show, right? And in the book, you you say that our age is defined by the emergence of several general-purpose technologies, which I'm totally aligned with, and that they are all advancing exponentially. And you actually say biology is one of them. So first, what are the most dramatic examples in your mind of exponential change in life sciences? And how do you believe they're affecting people's health?</p><p><strong>Azeem Azhar: </strong>Well, I mean, if you got the Moderna or BioNTech vaccination, you're a lucky recipient of that technology and it's affecting people's health because it's putting a little nanobots controlled by Bill Gates in your bloodstream to get you to hand over all your bitcoin to him, is the other side of the problem. But I mean, you know, I mean, more seriously, the Moderna vaccine is an example that I give at the at the end of the book comes about so remarkably quickly by a combination of these exponential technologies. I'm just going to look up the dates. So on the 6th of January 2020, there's a release of the sequence of a coronavirus genome from from a respiratory disease in Wuhan. Yeah, and the the genome is just a string of letters, and it's put on GenBank, which is a bit like an open-source story storage for gene sequences. People started to download it, and synthetic genes were rapidly led to more than 200 different vaccines being developed. Moderna, by February the 7th, had its first vials of its vaccine. That was 31 days after the initial release of the sequence and another six days they finalized the sequence of the vaccine and 25 more days to manufacture it. And within a year of the virus sequence being made public, 24 million people had had one dose of it.</p><p><strong>Azeem Azhar: </strong>Now that's really remarkable because in the old days, by which I mean February 2020, experts were telling us it would take at least 18 months to figure out what a vaccine might even look like, let alone tested and in place. So you see this dramatic time compression. Now what were the aspects at play? So one aspect at play was a declining cost of genome sequencing, which the machines are much cheaper. It's much cheaper to sequence these samples. That means that the entire supply chain of RNA amplifiers and so on a more widely available. This then gets shared on a website that can be run at very few dollars. It can get access to millions of people. The companies who are doing the work are using synthetic genes, which means basically writing out new bases, which is another core technology that's going through an exponential cost decline. And they're using a lot of machine learning and big data in order to explore the phenomenally complex biological space to zero in on potential candidates. So that the whole thing knits together a set of these different technologies in a very, very powerful and quite distributed combination.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i> It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>Let's step back here for just a minute. So I wonder if you have a thesis—from a fundamental technology perspective, what's really driving the exponential technological change, right? Do you think that that, is there a force maybe outside of semiconductors that are driving biology forward? What's your view? I mean, if you took the computational tools away from life sciences and drug developers, would we still see the same rapid advances in that area, and the answer could be no, because I can tell you my thoughts after you tell me yours.</p><p><strong>Azeem Azhar: </strong>Well, we wouldn't see the same advances, but we would still see significant advances and it's hard to unpack one from another. But if you look at the I mean, you worked on the genome sequencing stuff. So you know that there's a lot of interesting aspects to do with the reagents that are used the electrochemistry, the arrays and making little ongoing improvements in those areas. There are also key improvements in the actual kind of automation of the processes between each to each step, and some of those automations are not, they're not kind of generalized robots, soft robots, they are trays that are being moved at the right time from one spot to another, stop on a kind of lab bench. So you'd still see the improvements, but you wouldn't see the same pace that we have seen from computing. And for two reasons. So one is that kind of the core ability to store lots of this data, which runs into the exabytes and then sift through it, is closely connected to storage capacity and computation capability. But also even the CAD package that the person used to redraw the designs for the new laboratory bench to handle the new vials of reagents required a computer. But yes, but you know, so what? What's your understanding as someone who is on the inside and, note to listener, that was a bit cruel because Harry is the expert on this one!</p><p><strong>Harry Glorikian: </strong>And oh no, no, no, no. I, you know, it's interesting, right… I believe that now that information is more readily available, which again drives back to sensors, technology, computation, speed as well as storage is changing what we do. Because the information feeds our ability to generate that next idea. And most of this was really hard to get. I mean, back in the day, I mean, if you know, now I wear a medical device on my on my wrist. I mean, you know this, I look as a as a data storage device, right? Data aggregation device. And this I look at it more as a coach, right? And but the information that it's getting, you know, from me on a momentary basis is, I mean, one of the companies I helped start, I mean, we have trillions of heartbeats, trillions. Can you imagine the analytics from a machine learning and, you know, A.I. perspective that I can do on that to look for? Is there a signal of a disease? Can I see sleep apnea or one of the I could never have done that 10 years ago.</p><p><strong>Azeem Azhar: </strong>I mean, even 10, how about I mean, five maybe, right? I mean, the thing that I find remarkable about about all of this is what it's told me. So I went from I used to check my bloods every year and so I would get a glucose reading or an insulin reading every year. I then put a CGM on continuous glucose monitor and I wore it for 16 to 18 weeks and it gave me a reading every 15 months minutes. So I literally went from once a year, which is 365 times 96, 15 minute intervals. So it's like a 40,000-fold improvement. I went to from to that every 15 minutes, and it was incredible and amazing and changed my life in so many good ways, which I'm happy to go into later. But the moment I put the 15 minute on, I kid you not, within an hour I was looking for the streaming cGMPs that give you real time feed. No 15-minute delay. And there is one that Abbott makes through a company, sells through a company called Super Sapiens. But because suddenly I was like a pilot whose altimeter doesn't just tell them you're in the air or you've hit the ground, which is what happened when I used to go once a year, I've gone to getting an altitude reading every minute, which is great, but still not brilliant for landing the plane to where I could get this every second. And this would be incredible. And I find that really amazing. I just I just and what we can then do with that across longitudinal data is just something else.</p><p><strong>Harry Glorikian: </strong>We're totally aligned. And, you know, jumping back to the deflationary force of all this. Is. What we can do near-patient, what we can do at home, what we can do at, you know, I'll call it CVS, I think by you, it would be Boots. But what these technologies bring to us and how it helps a person manage themselves more accurately or, you know, more insightfully, I think, brings us not to chronic health, but we will be able to keep people healthier, longer and at a much, much lower cost than we did before because. As you know, every time we go to the hospital, it's usually big machines, very expensive, somebody to do the interpretation. And now if we can get that information to the patient themselves and AI and machine learning can make that information easier for them to interpret. They can actually do something actionable that that that makes a difference.</p><p><strong>Azeem Azhar: </strong>I mean, I think it's a really remarkable opportunity with a big caveat that where we can look at look historically, so you know, we're big fans of the <i>Hamilton</i> musical in my household. And if you go back to that time, which is only a couple of hundred years ago and you said to them, this is the kind of magic medicine they'll have in the US by 2020. I mean, it's space tech. It's alien space tech. You know, you can go in and we measure things they didn't even know could be measured, right, like the level of antibodies in the bloodstream. And you can get that done in an hour almost anywhere, right? Yeah. And it's really quite cheap because GDP per capita in the per head in the US is like $60,000 a year. And I can go and get my blood run. A full panel run for $300 in London, one of the most expensive cities in the world. 60 grand a year. $300. Well, surely everybody's getting that done. And yet and you know this better than me. Right. You know this better than me that despite that, we don't have everyone getting their bloods done because it's just so cheap, right, there are other structural things that go on about who gets access, and I think America is a great example of this because for all the people who read, we are aware of Whoop, and have, you know, biological ages that are 10 years younger than their chronological age, you've also got like a much, much larger incidence of deaths by drug overdose and chronic obesity and sort of diseases of inflammation and so on. And that's despite having magical the magical space technology of the 2020s. So the question I think we have to have is why would we feel that next year's optoelectronic sensors from Rockly or the Series 7 or Series 8 Apple Watch will make the blindest bit of difference to health outcomes for the average American.</p><p><strong>Harry Glorikian: </strong>Now, I totally agree with you, I mean, I think half of it is education, communication. You know, there's a lot of social and political and policy and communication issues that exist, and actually that was going to be my next, one of my next questions for you, which is: What are some of the ways that exponential change challenges our existing social and political structures? And you know, do you see any—based on all the people that you've talked to, you know, writing the book, et cetera—insights of how we're going, what those are and maybe some ideas about how we can move beyond them.</p><p><strong>Azeem Azhar: </strong>Hmm. Well, I mean, on the health care side, I think one of the most important issues is and this is I mean, look, you've got an American audience and your health system is very different to, let's just say everyone.</p><p><strong>Harry Glorikian: </strong>Actually, the audience is global. So everybody, I have people that all over the world that listen to this.</p><p><strong>Azeem Azhar: </strong>Fair enough. Okay. Even better, so the rest of the world will understand this point, perhaps more, which is that, you know, in many place parts of the world, health care is treated as not, you know, it's treated differently to I take a vacation or a mutual bond that you buy, right or a car, it's not seen purely as a kind of profit vehicle. It's seen as something that serves the individual and serves a community and public health and so on matters. And I think one of the opportunities that we have is to think out for it, look out for is how do we get the benefits of aggregated health data, which is what you need. You need aggregate population wide data that connects a genotype to a phenotype. In other words, what the gene says to how it gets expressed to me physically to my biomarkers, you know, my, what's in my microbiota, what my blood pressure is on a minute by minute basis and my glucose levels and so on. And to whatever illnesses and diseases and conditions I seem to have, right, the more of that that we have, the more we can build predictive models that allow for the right kind of interventions and pre-habilitation right rather than rehabilitation. But in order to do that at the heart of that, yes, there's some technology. But at the heart of that is how do we get people's data in such a way that they are willing to provide that in a way that is not forced on them through the duress of the state or the duress of our sort of financial servitude? And so that, I think, is something that we really, really need to think about the trouble that we've had as the companies have done really well out of consumer data recently.</p><p><strong>Azeem Azhar: </strong>And I don't just mean Google and Facebook, but even all the marketing companies before that did so through a kind of abusive use of that data where it wasn't really done for our benefit. You know, I used to get a lot of spam letters through my front door. Physical ones. I was never delighted for it, ever. And so I think that one of the things we have to think, think about is how are we going to be able to build common structures that protect our data but still create the opportunities to develop new and novel therapeutic diagnosis, early warning systems? And that's not to say there shouldn't be profit making companies on there that absolutely should be. But the trouble is, the moment that you allow the data resource to be impinged upon, then you either head down this way of kind of the sort of dominance that Facebook has, or you head down away the root of that kind of abuse of spam, junk email and so on, and junk physical mail.</p><p><strong>Azeem Azhar: </strong>So I think there is this one idea that that emerges as an answer, which is the idea of the data commons or the data collective. Yeah. We actually have a couple of them working in health care in in the U.K., roughly. So there's one around CT scans of COVID patients. So there's lots and lots of CT scans and other kind of lung imaging of COVID patients. And that's maintained in a repository, the sort of national COVID lung imaging databank or something. And if you're if you're an approved researcher, you can get access to that and it's done on a non-commercial basis, but you could build something commercially over the top of it. Now the question is why would I give that scan over? Well, I gave give it over because I've been given a cast-iron guarantee about how it's going to be used and how my personal data will be, may or may not be used within that. I would never consider giving that kind of data to a company run by Mark Zuckerberg or, you know, anyone else. And that, I think, is the the cross-over point, which is in order to access this, the benefits of this aggregate data from all these sensors, we need to have a sort of human-centric approach to ensure that the exploitation can happen profitably, but for our benefit in the long run.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I'm looking at some interesting encryption technologies where nothing is ever unencrypted, but you can, you know, the algorithm can learn from the data, right? And you're not opening it up. And so there, I believe that there are some solutions that can make give the side that needs the data what they need, but protect the other side. I still think we need to policymakers and regulators to step up. That would cause that shift to happen faster. But you know, I think some of those people that are making those policies don't even understand the phone they're holding in their hands most of the time and the power that they're holding. So. You know, last set of questions is. Do you think it's possible for society to adapt to exponential change and learn how to manage it productively?</p><p><strong>Azeem Azhar: </strong>It's a really hard question. I'm sure we will muddle through. We will muddle through because we're good at muddling through, you know? But the question is, does that muddling through look more like the depression years. Or does that muddling through look like a kind of directed Marshall Plan. Because they both get through. One comes through with sort of more productive, generative vigor? What I hoped to do in the book was to be able to express to a wider audience some underlying understanding about how the technologies work, so they can identify the right questions to to ask. And what I wanted to do for people to work in the technology field is draw some threads together because a lot of this will be familiar to them, but take those threads to their consequences. And in a way, you know, if I if I tell you, Harry, don't think of an elephant. What are you thinking about right  now?</p><p><strong>Harry Glorikian: </strong>Yeah. Yeah, of course it's not, you know, suggestive.</p><p><strong>Azeem Azhar: </strong>And by laying out these things for these different audiences in different ways, I'm hoping that they will remember them and bear those in mind when they go out and think about how they influence the world, whether it's decisions they make from a product they might buy or not buy, or how they talk influence their elected officials or how they steer their corporate strategy or the products they choose to build. I mean, that's what you would you would hope to do. And then hopefully you create a more streamlined approach to it to the change that needs to happen. Now here's the sort of fascinating thing here, is that over the summer of 2021, the Chinese authorities across a wide range of areas went in using a number of different regulators and stamped on a whole set of Exponential Age companies, whether it was online gaming or online education. The big, multi sided social networks, a lot of fintech, a lot of crypto. And they essentially had been observing the experiment to learn, and they had figured out what things didn't align with their perceived obligations as a government to the state and to the people. Now, you know, I'm using that language because I don't want this to become a kind of polarized sort of argument.</p><p><strong>Azeem Azhar: </strong>I'm just saying, here's a state where you may not agree with its objectives and the way it's accountable, but in its own conception, it's accountable to its people and has to look out for their benefit. And it took action on these companies in really, really abrupt ways. And. If you assume that their actions were rational and they were smart people and I've met some of them and they're super smart people, it tells you something about what one group of clever people think is needed at these times. This sort of time. And I'm not I'm not advocating for that kind of response in the US or in Western Europe, but rather than to say, you know, when your next-door neighbor, and you live in an apartment block and your next-door neighbor you don't like much runs out and says the whole building is on fire. The fact that you don't like him shouldn't mean that you should ignore the fact that there's a fire. And I think that some sometimes there is some real value in looking at how other countries are contending with this and trying to understand the rationale for it, because the Chinese were for all the strength of their state, were really struggling with the power of the exponential hedge funds in their in their domain within Europe.</p><p><strong>Azeem Azhar: </strong>The European Union has recognized that these companies, the technologies provide a lot of benefit. But the way the companies are structured has a really challenging impact on the way in which European citizens lives operate, and they are making taking their own moves. And I'll give you a simple example, that the right to repair movement has been a very important one, and there's been a lot of legislative pressure in the in Europe that is that we should be have the right to repair our iPhones and smartphones. And having told us for years it wasn't possible suddenly, Apple in the last few days has announced all these repair kits self-repair kits. So it turns out that what is impossible means may mean what's politically expedient rather than anything else. And so my sense is that that by engaging in the conversation and being more active, we can get ultimately get better outcomes. And we don't have to go the route of China in order to achieve those, which is an incredibly sort of…</p><p><strong>Harry Glorikian: </strong>A draconian way. Yes.</p><p><strong>Azeem Azhar: </strong>Yeah. Very, very draconian. But equally, you can't you know where that where I hear the U.S. debate running around, which is an ultimately about Section 230 of the Communications Decency Act, and not much beyond that, I think is problematic because it's missing a lot of opportunities to sort of write the stuff and foster some amazing innovation and some amazing new businesses in this space.</p><p><strong>Harry Glorikian: </strong>Oh yeah, that's, again, that's why, whenever I get a chance to talk to policymakers, I'm like, “You guys need to get ahead of this because you just don't understand how quickly it's moving and how much it's going to impact what's there, and what's going to happen next.” And if you think about the business model shifts by some of these... I mean, what I always tell people is like, okay, if you can now sequence a whole genome for $50 think about all the new business models and all the new opportunities that will open up versus when it was $1000. It sort of changes the paradigm, but most people don't think that we're going to see that stepwise change. Or, you know, Google was, DeepMind was doing the optical analysis, and they announced, you know, they could do one analysis and everybody was like, Oh, that's great, but it's just one. And a year later, they announced we could do 50. Right? And I'm like, you're not seeing how quickly this is changing, right? One to 50 in 12 months is, that's a huge shift, and if you consider what the next one is going to be, it changes the whole field. It could change the entire field of ophthalmology, especially when you combine it with something like telemedicine. So we could talk for hours about this. I look forward to continuing this conversation. I think that we would, you know, there's a lot of common ground, although you're I'm in health care and you're almost everywhere else.</p><p><strong>Azeem Azhar: </strong>I mean, I have to say that the opportunity in in health care is so global as well because, you know, if you think about how long and how much it costs to train a doctor and you think about the kind of margin that live that sits on current medical devices and how fragile, they might be in certain operating environments and the thought that you could start to do more and more of this with a $40 sensor inside a $250 smartwatch is a really, really appealing and exciting, exciting one. Yeah.</p><p><strong>Harry Glorikian: </strong>Excellent. Well, thank you so much for the time and look forward to staying in touch and I wish you great success with the book and everything else.</p><p><strong>Azeem Azhar: </strong>Thank you so much, Harry. Appreciate it.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and the MoneyBall Medicine show at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show. You can also find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 18 Jan 2022 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Azeem Azhar)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>As we say here on The Harry Glorikian Show, technology is changing everything about healthcare works—and the reason we keep talking about it month after month is that the changes are coming much faster than they ever did in the past. Each leap in innovation enables an even bigger leap just one step down the road. Another way of saying this is that technological change today feels <i>exponential</i>. And there’s nobody who can explain exponential change better than today’s guest, Azeem Azhar.</p><p>Azeem produces a widely followed newsletter about technology called Exponential View. And last year he published a book called <i>The Exponential Age: How Accelerating Technology is Transforming Business, Politics, and Society</i>. He has spent his whole career as an entrepreneur, investor, and writer trying to help people understand what’s driving the acceleration of technology — and how we can get better at adapting to it. Azeem argues that most of our social, business, and political institutions evolved for a period of much slower change—so we need to think about how to adapt these institutions to be more nimble. If we do that right, then maybe we can apply the enormous potential of all these new technologies, from computing to genomics, in ways that improve life for everyone.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>So, when you step back and think about it, why is it that people like me write books or make podcasts about technology and healthcare?</p><p>Well, like I just said, it’s because tech is changing everything about healthcare works—and the changes are coming much faster than they ever did in the past.</p><p>In fact, the change feels like it’s accelerating. </p><p>Each leap in innovation enables an even bigger leap just one step down the road.</p><p>Another way of saying this is that technological change today feels <i>exponential</i>.<br />And there’s nobody who can explain exponential change better than today’s guest, Azeem Azhar.</p><p>Azeem produces a widely followed newsletter about technology called Exponential View.</p><p>And last year he published a book called <i>The Exponential Age: How Accelerating Technology is Transforming Business, Politics, and Society</i>.</p><p>He has spent his whole career as an entrepreneur, investor, and writer trying to help people understand what’s driving the acceleration of technology — and how we can get better at adapting to it.</p><p>Azeem argues that most of our social, business, and political institutions evolved for a period of much slower change. So we need to think about how to adapt these institutions to be more nimble.</p><p>If we do that right, then maybe we can apply the enormous potential of all these new technologies, from computing to genomics, in ways that improve life for everyone.</p><p>Azeem and I focus on different corners of the innovation world. But our ideas about things like the power of data are very much in sync. So this was a really fun conversation. </p><p>Here’s Azeem Azhar.</p><p><strong>Harry Glorikian: </strong>Azeem, welcome to the show.</p><p><strong>Azeem Azhar: </strong>Harry, what a pleasure to be here.</p><p><strong>Harry Glorikian: </strong>I definitely want to give you a chance to sort of talk about your work and your background, so we really get a sense of who you are. But I'd first like to ask a couple of, you know, big picture questions to set the stage for everybody who's listening. You like this, your word and you use it, "exponential," in your branding and almost everything you're doing across your platform, which is what we're going to talk about. But just for people who don't, aren't maybe familiar with that word exponential. What does that word mean to you? Why do you think that that's the right word, word to explain how technology and markets are evolving today?</p><p><strong>Azeem Azhar: </strong>Such a great question. I love the way you started with the easy questions. I'm just kidding because it's it's hard. It's hard to summarize short, but in a brief brief statement. So, you know, exponential is this idea that comes out of math. It is the idea that something grows by a fixed proportion in any given time period. An interest-bearing savings account, 3 percent growth or in the old days, we'd get 3 percent per annum, three percent compounded. And compound interest is really powerful. It's what your mom and your dad told you. Start saving early so that when you're a bit older, you'll have a huge nest egg, and it never made sense to us. And the idea behind an exponential is that these are processes which, you know, grow by that certain fixed percentage every year. And so the amount they grow grows every time. It's not like going from the age of 12 to 13 to 14 to 15 were actually proportionately—you get less older every year because when you go from 15 to 16, you get older by one fifteenth of your previous age. And when you go from 50 to fifty one, it's by one 50th, which is a smaller proportion. Someone who is growing in age exponentially would be growing by, say, 10 percent every year. So you go from 10 to 11 and that's by one year. From 20, you go to 22, two years. From 30 to 33. So that's the idea of an exponential process. It's kind of compound interest. But why I use the phrase today to describe what's going on in the economy and in the technologies that drive the economy, is that many of the key technologies that we currently rely on and will rely on as they replace old industrial processes are improving at exponential rates on a price-performance basis.</p><p><strong>Azeem Azhar: </strong>That means that every year you get more of them for less, or every year what you got for the the same dollar you get much more. And I specifically use a threshold, and that threshold is to say essentially it's an exponential technology if it's improving by double digits, 10 percent or more every year on a compounding basis for decades. And many of the technologies that I look at increased by improve by 30, 40, 50, 60 percent or more every year, which is pretty remarkable. The reverse of that, of course, is deflation, right? These capabilities are getting much cheaper. And I think the reason that's important and the reason it describes the heartbeat of our economies is that we're at a point in development of, you know, sort of economic and technological development where these improvements can be felt. They're viscerally felt across a business cycle. Across a few years, in fact. And that isn't something that we have reliably and regularly seen in any previous point in history. The idea that this pace of change can be as fast as it as it is. And on the cover of my book The Exponential Age, which I'm holding up to you, Harry. The thing about the curve is is that it starts off really flat and a little bit boring, and you would trade that curve for a nice, straight, sharp line at 45 degrees. And then there's an inflection point when it goes suddenly goes kind of crazy and out of control. And my argument is that we are now past that inflection point and we are in that that sort of vertical moment and we're going to have to contend with it.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, we are mentally aligned. And I try to talk to people about this. I mean, when we were doing the genome project that Applied Biosystems, you know, when we had finished, I think it was 2 percent or 4 percent of the genome, everybody's like, Oh, you have like ninety something [to go], and they couldn't see the exponential curve. And then we were done like five years later. And so it's it's this inability of the human mind. You know, it's really not designed to do that, but we're not designed to see exponential shift. We're sort of looking around that corner from an evolutionary perspective to see what's happening. But, you know? Exponential growth is not a new concept, if you think about, you know, really, I think the person that brought it to the forefront was Gordon Moore, right? With, you know, how semiconductor chips were going to keep doubling every two years and cost was going to stay flat. And you know, how do you see it playing out? Today, what is so different right now, or say, in the past two, three, four, five years. What you can see going forward that. May not have been as obvious 10 or 15 years ago.</p><p><strong>Azeem Azhar: </strong>I mean, it is an idea that's been around with us for a long time. You know, arguably Thomas Malthus, the British scholar in the 18th century who worried about the exponential growth of the population destroying the land's carrying capacity and ability to produce crops. And of course, we have the sort of ancient Persian and Hindu stories about the vizier and the chessboard, who, you know, puts a grain of rice and doubles on each square and doubles at each time. So it's an idea that's been around for a while. The thing that I think has happened is that it's back to its back to that point, the kink, the inflection in the curve. The point at which in the story of the chess, the king gets so angry with his vizier that he chops off his head. The point with the semiconductors, where the chips get so powerful and so cheap that computing is everything, and then every way in which we live our lives is mediated through these devices. And that wasn't always the way. I mean, you and I, Harry, are men of a certain age, and we remember posting letters and receiving mail through the letterbox in the morning. And there was then, some 15 years later, there were, or 20 years later, there was a fax, right? I mean, that’s what it looked like.</p><p><strong>Azeem Azhar: </strong>And the thing that's different now from the time of Gordon Moore is that that what he predicted and sort of saw out as his clock speed, turns out to be a process that occurs in many, many different technology fields, not just in computing. And the one that you talked about as well, genome sequencing. And in other areas like renewable energy. And so it becomes a little bit like...the clock speed of this modern economy. But the second thing that is really important is to ask that question: Where is the bend in the curve? And the math purists amongst your listeners will know that an exponential curve has no bend. It depends on where you zoom in. Whatever however you zoom, when you're really close up, you're really far away. You'll always see a band and it will always be in a different place. But the bend that we see today is the moment where we feel there is a new world now. Not an old world. There are things that generally behave differently, that what happens to these things that are connected to exponential processes are not kind of geeks and computer enthusiasts are in Silicon Valley building. They're happening all over the world. And for me, that turning point happens some point between 2011, 2012 and 2015, 2016. Because in 2009, America's largest companies were</p><p><strong>Azeem Azhar: </strong>not in this order, Exxon, Phillips, Wal-Mart, Conoco... Sorry, Exxon Mobil, Wal-Mart, ConocoPhillips, Chevron, General Motors, General Electric, Ford, AT&T, Valero. What do all of them have in common? They are all old companies are all built on three technologies that emerged in the late 19th century. The car or the internal combustion engine, the telephone and electricity. And with the exception of Wal-Mart, every one of those big companies was founded between about 1870 and sort of 1915. And Wal-Mart is dependent on the car because you needed suburbs and you needed large cars with big trunks to haul away 40 rolls of toilet paper. So, so and that was a century long shift. And then if you look out four years after 2009, America's largest firms, in fact, the world's largest firms are all Exponential Age firms like the Tencent and the Facebooks of this world. But it's not just that at that period of time. That's the moment where solar power became for generating electricity became cheaper than generating electricity from oil or gas in in most of the world. It's the point at which the price to sequence the human genome, which you know is so much better than I do, diminished below $1000 per sequence. So all these things came together and they presented a new way of doing things, which I call the Exponential Age.</p><p><strong>Harry Glorikian: </strong>Yeah, in my last book. I, you know, I do state that the difference between evolution and revolution is time, right? If you wait long enough, things happen evolutionarily, but at the speed that things are changing, it feels revolutionary and in how it's affecting everybody. So let's rewind and talk about your background. You've been active as a business columnist, as a journalist, a startup founder, a CEO, a leader of corporate innovation, incubators at Reuters and a venture capital partner. Lately you've built what eems like a very busy career around books and talks and podcasts and all around this theme of accelerating technologies, I'd love to hear how you how you first got interested in all these themes about technological change. You know, how society can manage this change? I know you were in Oxford. You got your master's degree in the famous PPE program. The politics, philosophy and economics. You know, was it soon after that that you went down this road? Or is Oxford where it all started?</p><p><strong>Azeem Azhar: </strong>It started well before then in, in a weird way. So, so you know, my interest really is between sits between technology and an economic institutions and society. And I, I was born, like most of us are, to two parents, and my parents were working in in Zambia in the early 70s, and my dad was working on helping this newly independent country develop economic institutions. It didn't have them and it needed them to go through that sort of good institutions, make for healthy economies, make for social welfare and sort of civil politics. That's the argument. So he was out there doing all of that. And I was born the year after Intel released its 4004 chip, which is widely regarded as the sort of the chip that kicked off the personal computing revolution. And so, so in the backdrop of people talking about development and development economics and being curious about my own personal story, I was exposed to these ideas. I mean, you don't understand them when you're eight or 10 and you know, but you're exposed to them and you have an affiliation to them and so on. And at the same time, computers were entering into the popular consciousness.</p><p><strong>Azeem Azhar: </strong>You know, you had C-3PO, the robot and computers in Star Trek, and I saw a computer in 1979 and I had one from 1981. And so my interest in these things, these two tracks was start set off quite early on and I really, really loved the computing. And I did, you did notice, but you don't necessarily understand that, why computers are getting more and more powerful. My first computer only had one color. Well, it had two, white and black. And my second could manage 16 at some time, probably not 16. Eight out of a palette of 16 at any given time. And they get better and better. And so alongside my life were computers getting faster. I'm learning to program them and discovering the internet and that, I think, has always sat alongside me against this kind of family curiosity. I suspect if my parents had been, I don't know, doctors, I would have been in your field in the field of bioinformatics and applying exponential technologies to health care. And if my parents had been engineers, I would have been doing something that intersected engineering and computing.</p><p><strong>Harry Glorikian: </strong>Yeah, no, it's you know, it's interesting, I remember when we got our first chip, when I was first learning about, you know, computers like it was, you know, eight bits, right? And then 16 bits and oh my god, what can we do with them? And we were building them, and I actually have to get you a copy of my new book because I think if you read the first chapter and what you just said, you'll be like, Oh my God, we have more in common than we may think, even though you know you're where you are and I'm in the health care field to. But you were co-founder and CEO of a company, I believe that was called PeerIndex, which was a startup in the late 2000s. And even back then, you were trying to quantify people's influence on different social media platforms. And I'm trying to remember like, do I even know what the social media platform was back in 2000? It seems like so long ago, and you successfully sold it to Brandwatch in, like, 2014. What did that experience sort of teach you about, you know, the bigger issues and how technology impacts society and vice versa? Because I have to believe that you know your hands on experience and what you were seeing has to have changed the way that you thought about how fast this was going and what it was going to do.</p><p><strong>Azeem Azhar: </strong>Oh, that is an absolutely fantastic, fantastic question. And. You know, you really get to the heart of all of the different things that you learn as a founder. When we when I started PeerIndex, the idea was really that people were going on to the internet with profiles that they maintained for themselves. So up until that point, apart from people who had been really early on the internet, like you and I who used Usenet and then early web pages for ourselves, no one really had a presence. And these social apps like MySpace and Twitter and LinkedIn and Facebook show up and they start to give people a presence. And we felt that initially there would be a clear problem around trying to discover people because at the time the internet was an open network. You could look at anyone's page on Facebook. There weren't these walled gardens. And we looked down on them. So we thought initially that there would be a an opportunity to build some kind of expertise system where I could say, "Listen, find me something that someone who knows something about, you know, sushi restaurants in Berlin." And it would help me find that person. I could connect their profile and talk to them because it was the really early, naive days before Facebook or LinkedIn had advertising on them. And we could we kind of got the technology to work, but actually the market was moving and we couldn't land that.</p><p><strong>Azeem Azhar: </strong>And so we had to kind of pivot, as you do several times, ultimately, until we became this kind of influence analytics for marketers. But the few things that I learned. So the first one was how quickly new players in a market will go from being open to being closed. So it was 2011 when Facebook started to put the shutters down on its data and become a closed garden. And they realized that the network effect and data is what drove them forward. And the second thing was the speed with which what we did changed. So when we were getting going and doing all of this kind of analytics on Twitter and Facebook. They didn't really have data science teams. In fact, Twitter's first data scientists couldn't get a US visa and ended up helping, working with us for several months. And I think back to the fact that we used five or six different core technologies for our data stores in a seven-year period. And in that time, what we did became so much more powerful. So when we started, we had maybe like 50,000 people in this thing, it was really hard to get it to work. The entire company's resources went on it. At one point we were we had about 100 million people in the data in our dataset, or 100 million profiles in the data.</p><p><strong>Azeem Azhar: </strong>They were all public, by the way. I should say this is all public data and it was just like a search engine in a way. And in order to update the index, we would need to run processes on thousands of computers and it would take a big, big, big servers, right? And it would take a day. Yeah. By the time we sold the company, a couple more iterations of Moore's Law, some improvements in software architecture, we were updating 400 million user profiles in real time on a couple of computers. Yep, so not only do we quadrupled the dataset, we had increased its, sort of decreased its latency. It was pretty much real time and we had reduced the amount of computers we needed by a factor of about 400. And it was a really remarkable evolution. And that gets me to the third lesson. So the second lesson is really all about that pace of change in the power of Moore's law. And then the third lesson was really that my engineers learned by doing. They figured out how to do this themselves. And whereas I was sort of roughly involved in the first design, by the time we got to the fifth iteration this was something of a process that was entirely run by some brilliant young members of the team.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, you've got to actually cook something to understand how to do it and taste it and understand how it's going to come out. So your new book, The Exponential Age, came out this fall. You know, in the first chapter, you sort of identify two main problems, right? One is how do we perceive technology and then or the way we relate to technology and. Can you describe the two problems as you see them and maybe, maybe even hint a little? I don't want I don't want if people want to buy the book, I want them to buy it, but maybe hint that the solution?</p><p><strong>Azeem Azhar: </strong>Yeah. Well, I mean, there are there are a couple of issues here, right, in the Exponential Age. The first is that technology creates all sorts of new potentials and we live them. We're doing this over Zoom, for example. Right. And there are. But the arrival of new potentials always means that there's an old system that is going to be partially or entirely replaced. And so I describe that process as the exponential gap. It is the gap between the potentials of the new and the way in which most of us live our lives. And the thing is, the reason I say "the way most of us live our lives" is because our lives, even in America, which doesn't like its sort of government, are governed by institutions and by regulations. You know, when you when you start to cook, you wash your hands, right? There's no law. That's just an institution, its common habit. If you have teenage kids like I do, you're battling with the fact that people are meant to talk over dinner, not stare at their phones. In the UK there is an institution that says on a red light traffic signal, you never turn. You wait. It's not like the US where you can do that. Now some of these institutions are codified like our traffic laws, and some are not.</p><p><strong>Azeem Azhar: </strong>There are then more formal institutions of different types like, you know, the Fed or NATO or the Supreme Court. And the purpose of institutions, social, formal, legal, informal is to make life easier to live, right? Right, you don't have to remember to put our pants on. I will read a rule that says, put your pants on before you leave the house. It's like you just put them on and everybody kind of knows it. And there's no law that says you should or shouldn't, right. So they become very valuable. But the thing is that the institutions in general, by their nature, don't adapt to at the speed with which these new technologies do adapt. And even slower moving technologies like the printing press really upended institutions. I mean, Europe went into centuries of war just after the printing press emerged. So, so the central heart of the challenge is, on the one hand, we have these slightly magical technologies that do amazing things, but they somewhat break our institutions and we have to figure out how we get our institutions to adapt better. But there's a second complication to all of this, which is that which is, I think, more one that's about historical context. And that complication is that the way we have talked about technology, especially in the West in the last 40 or 50 years, has been to suggest that technology is deterministic.</p><p><strong>Azeem Azhar: </strong>We're a bit like people in a pre-med, pre-science era who just say the child got the pox and the child died. We say the technology arrived and now we must use it. The iPhone arrived and we must use it. TheFacebook arrived, and we must use it. We've gotten into this worldview that technology is this sort of unceasing deterministic force that arrives from nowhere and that a few men and women in Silicon Valley control, can harness it. We've lost sight of the fact that technology is something that we as members of society, as business people, as innovators, as academics, as parents get to shape because it is something that we build ourselves. And that for me was a second challenge. And what I sought to do in the book, as I was describing, the Exponential Age is not only persuade people that we are in the Exponential Age, but also describe how it confuses our institutions broadly defined and also explain why our response has sometimes been a bit poor. Some a large part of which I think is connected to putting technology on a particular pedestal where we don't ask questions of it. And then hopefully at the end of this, I do give some suggestions.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting, right, I've had the pleasure of giving talks to different policy makers, and I always tell them like, you need to move faster, you need to implement policy. It's good to be a little wrong and then fix it. But don't be so far behind the curve that you, you know, some of these things need corralling otherwise, they do get a lot of, you know, get out of hand. Now in health care, we have almost the opposite. We're trying to break the silos of data so that we can improve health care, improve diagnosis, improve outcomes for patients, find new drugs. </p><p><strong>Harry Glorikian: </strong>So I'm going to, I'm going to pivot there a little bit and sort of dive a little deeper into life sciences and health care, right, which is the focus of the show, right? And in the book, you you say that our age is defined by the emergence of several general-purpose technologies, which I'm totally aligned with, and that they are all advancing exponentially. And you actually say biology is one of them. So first, what are the most dramatic examples in your mind of exponential change in life sciences? And how do you believe they're affecting people's health?</p><p><strong>Azeem Azhar: </strong>Well, I mean, if you got the Moderna or BioNTech vaccination, you're a lucky recipient of that technology and it's affecting people's health because it's putting a little nanobots controlled by Bill Gates in your bloodstream to get you to hand over all your bitcoin to him, is the other side of the problem. But I mean, you know, I mean, more seriously, the Moderna vaccine is an example that I give at the at the end of the book comes about so remarkably quickly by a combination of these exponential technologies. I'm just going to look up the dates. So on the 6th of January 2020, there's a release of the sequence of a coronavirus genome from from a respiratory disease in Wuhan. Yeah, and the the genome is just a string of letters, and it's put on GenBank, which is a bit like an open-source story storage for gene sequences. People started to download it, and synthetic genes were rapidly led to more than 200 different vaccines being developed. Moderna, by February the 7th, had its first vials of its vaccine. That was 31 days after the initial release of the sequence and another six days they finalized the sequence of the vaccine and 25 more days to manufacture it. And within a year of the virus sequence being made public, 24 million people had had one dose of it.</p><p><strong>Azeem Azhar: </strong>Now that's really remarkable because in the old days, by which I mean February 2020, experts were telling us it would take at least 18 months to figure out what a vaccine might even look like, let alone tested and in place. So you see this dramatic time compression. Now what were the aspects at play? So one aspect at play was a declining cost of genome sequencing, which the machines are much cheaper. It's much cheaper to sequence these samples. That means that the entire supply chain of RNA amplifiers and so on a more widely available. This then gets shared on a website that can be run at very few dollars. It can get access to millions of people. The companies who are doing the work are using synthetic genes, which means basically writing out new bases, which is another core technology that's going through an exponential cost decline. And they're using a lot of machine learning and big data in order to explore the phenomenally complex biological space to zero in on potential candidates. So that the whole thing knits together a set of these different technologies in a very, very powerful and quite distributed combination.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i> It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for <i>The Future You</i> by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>Let's step back here for just a minute. So I wonder if you have a thesis—from a fundamental technology perspective, what's really driving the exponential technological change, right? Do you think that that, is there a force maybe outside of semiconductors that are driving biology forward? What's your view? I mean, if you took the computational tools away from life sciences and drug developers, would we still see the same rapid advances in that area, and the answer could be no, because I can tell you my thoughts after you tell me yours.</p><p><strong>Azeem Azhar: </strong>Well, we wouldn't see the same advances, but we would still see significant advances and it's hard to unpack one from another. But if you look at the I mean, you worked on the genome sequencing stuff. So you know that there's a lot of interesting aspects to do with the reagents that are used the electrochemistry, the arrays and making little ongoing improvements in those areas. There are also key improvements in the actual kind of automation of the processes between each to each step, and some of those automations are not, they're not kind of generalized robots, soft robots, they are trays that are being moved at the right time from one spot to another, stop on a kind of lab bench. So you'd still see the improvements, but you wouldn't see the same pace that we have seen from computing. And for two reasons. So one is that kind of the core ability to store lots of this data, which runs into the exabytes and then sift through it, is closely connected to storage capacity and computation capability. But also even the CAD package that the person used to redraw the designs for the new laboratory bench to handle the new vials of reagents required a computer. But yes, but you know, so what? What's your understanding as someone who is on the inside and, note to listener, that was a bit cruel because Harry is the expert on this one!</p><p><strong>Harry Glorikian: </strong>And oh no, no, no, no. I, you know, it's interesting, right… I believe that now that information is more readily available, which again drives back to sensors, technology, computation, speed as well as storage is changing what we do. Because the information feeds our ability to generate that next idea. And most of this was really hard to get. I mean, back in the day, I mean, if you know, now I wear a medical device on my on my wrist. I mean, you know this, I look as a as a data storage device, right? Data aggregation device. And this I look at it more as a coach, right? And but the information that it's getting, you know, from me on a momentary basis is, I mean, one of the companies I helped start, I mean, we have trillions of heartbeats, trillions. Can you imagine the analytics from a machine learning and, you know, A.I. perspective that I can do on that to look for? Is there a signal of a disease? Can I see sleep apnea or one of the I could never have done that 10 years ago.</p><p><strong>Azeem Azhar: </strong>I mean, even 10, how about I mean, five maybe, right? I mean, the thing that I find remarkable about about all of this is what it's told me. So I went from I used to check my bloods every year and so I would get a glucose reading or an insulin reading every year. I then put a CGM on continuous glucose monitor and I wore it for 16 to 18 weeks and it gave me a reading every 15 months minutes. So I literally went from once a year, which is 365 times 96, 15 minute intervals. So it's like a 40,000-fold improvement. I went to from to that every 15 minutes, and it was incredible and amazing and changed my life in so many good ways, which I'm happy to go into later. But the moment I put the 15 minute on, I kid you not, within an hour I was looking for the streaming cGMPs that give you real time feed. No 15-minute delay. And there is one that Abbott makes through a company, sells through a company called Super Sapiens. But because suddenly I was like a pilot whose altimeter doesn't just tell them you're in the air or you've hit the ground, which is what happened when I used to go once a year, I've gone to getting an altitude reading every minute, which is great, but still not brilliant for landing the plane to where I could get this every second. And this would be incredible. And I find that really amazing. I just I just and what we can then do with that across longitudinal data is just something else.</p><p><strong>Harry Glorikian: </strong>We're totally aligned. And, you know, jumping back to the deflationary force of all this. Is. What we can do near-patient, what we can do at home, what we can do at, you know, I'll call it CVS, I think by you, it would be Boots. But what these technologies bring to us and how it helps a person manage themselves more accurately or, you know, more insightfully, I think, brings us not to chronic health, but we will be able to keep people healthier, longer and at a much, much lower cost than we did before because. As you know, every time we go to the hospital, it's usually big machines, very expensive, somebody to do the interpretation. And now if we can get that information to the patient themselves and AI and machine learning can make that information easier for them to interpret. They can actually do something actionable that that that makes a difference.</p><p><strong>Azeem Azhar: </strong>I mean, I think it's a really remarkable opportunity with a big caveat that where we can look at look historically, so you know, we're big fans of the <i>Hamilton</i> musical in my household. And if you go back to that time, which is only a couple of hundred years ago and you said to them, this is the kind of magic medicine they'll have in the US by 2020. I mean, it's space tech. It's alien space tech. You know, you can go in and we measure things they didn't even know could be measured, right, like the level of antibodies in the bloodstream. And you can get that done in an hour almost anywhere, right? Yeah. And it's really quite cheap because GDP per capita in the per head in the US is like $60,000 a year. And I can go and get my blood run. A full panel run for $300 in London, one of the most expensive cities in the world. 60 grand a year. $300. Well, surely everybody's getting that done. And yet and you know this better than me. Right. You know this better than me that despite that, we don't have everyone getting their bloods done because it's just so cheap, right, there are other structural things that go on about who gets access, and I think America is a great example of this because for all the people who read, we are aware of Whoop, and have, you know, biological ages that are 10 years younger than their chronological age, you've also got like a much, much larger incidence of deaths by drug overdose and chronic obesity and sort of diseases of inflammation and so on. And that's despite having magical the magical space technology of the 2020s. So the question I think we have to have is why would we feel that next year's optoelectronic sensors from Rockly or the Series 7 or Series 8 Apple Watch will make the blindest bit of difference to health outcomes for the average American.</p><p><strong>Harry Glorikian: </strong>Now, I totally agree with you, I mean, I think half of it is education, communication. You know, there's a lot of social and political and policy and communication issues that exist, and actually that was going to be my next, one of my next questions for you, which is: What are some of the ways that exponential change challenges our existing social and political structures? And you know, do you see any—based on all the people that you've talked to, you know, writing the book, et cetera—insights of how we're going, what those are and maybe some ideas about how we can move beyond them.</p><p><strong>Azeem Azhar: </strong>Hmm. Well, I mean, on the health care side, I think one of the most important issues is and this is I mean, look, you've got an American audience and your health system is very different to, let's just say everyone.</p><p><strong>Harry Glorikian: </strong>Actually, the audience is global. So everybody, I have people that all over the world that listen to this.</p><p><strong>Azeem Azhar: </strong>Fair enough. Okay. Even better, so the rest of the world will understand this point, perhaps more, which is that, you know, in many place parts of the world, health care is treated as not, you know, it's treated differently to I take a vacation or a mutual bond that you buy, right or a car, it's not seen purely as a kind of profit vehicle. It's seen as something that serves the individual and serves a community and public health and so on matters. And I think one of the opportunities that we have is to think out for it, look out for is how do we get the benefits of aggregated health data, which is what you need. You need aggregate population wide data that connects a genotype to a phenotype. In other words, what the gene says to how it gets expressed to me physically to my biomarkers, you know, my, what's in my microbiota, what my blood pressure is on a minute by minute basis and my glucose levels and so on. And to whatever illnesses and diseases and conditions I seem to have, right, the more of that that we have, the more we can build predictive models that allow for the right kind of interventions and pre-habilitation right rather than rehabilitation. But in order to do that at the heart of that, yes, there's some technology. But at the heart of that is how do we get people's data in such a way that they are willing to provide that in a way that is not forced on them through the duress of the state or the duress of our sort of financial servitude? And so that, I think, is something that we really, really need to think about the trouble that we've had as the companies have done really well out of consumer data recently.</p><p><strong>Azeem Azhar: </strong>And I don't just mean Google and Facebook, but even all the marketing companies before that did so through a kind of abusive use of that data where it wasn't really done for our benefit. You know, I used to get a lot of spam letters through my front door. Physical ones. I was never delighted for it, ever. And so I think that one of the things we have to think, think about is how are we going to be able to build common structures that protect our data but still create the opportunities to develop new and novel therapeutic diagnosis, early warning systems? And that's not to say there shouldn't be profit making companies on there that absolutely should be. But the trouble is, the moment that you allow the data resource to be impinged upon, then you either head down this way of kind of the sort of dominance that Facebook has, or you head down away the root of that kind of abuse of spam, junk email and so on, and junk physical mail.</p><p><strong>Azeem Azhar: </strong>So I think there is this one idea that that emerges as an answer, which is the idea of the data commons or the data collective. Yeah. We actually have a couple of them working in health care in in the U.K., roughly. So there's one around CT scans of COVID patients. So there's lots and lots of CT scans and other kind of lung imaging of COVID patients. And that's maintained in a repository, the sort of national COVID lung imaging databank or something. And if you're if you're an approved researcher, you can get access to that and it's done on a non-commercial basis, but you could build something commercially over the top of it. Now the question is why would I give that scan over? Well, I gave give it over because I've been given a cast-iron guarantee about how it's going to be used and how my personal data will be, may or may not be used within that. I would never consider giving that kind of data to a company run by Mark Zuckerberg or, you know, anyone else. And that, I think, is the the cross-over point, which is in order to access this, the benefits of this aggregate data from all these sensors, we need to have a sort of human-centric approach to ensure that the exploitation can happen profitably, but for our benefit in the long run.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I'm looking at some interesting encryption technologies where nothing is ever unencrypted, but you can, you know, the algorithm can learn from the data, right? And you're not opening it up. And so there, I believe that there are some solutions that can make give the side that needs the data what they need, but protect the other side. I still think we need to policymakers and regulators to step up. That would cause that shift to happen faster. But you know, I think some of those people that are making those policies don't even understand the phone they're holding in their hands most of the time and the power that they're holding. So. You know, last set of questions is. Do you think it's possible for society to adapt to exponential change and learn how to manage it productively?</p><p><strong>Azeem Azhar: </strong>It's a really hard question. I'm sure we will muddle through. We will muddle through because we're good at muddling through, you know? But the question is, does that muddling through look more like the depression years. Or does that muddling through look like a kind of directed Marshall Plan. Because they both get through. One comes through with sort of more productive, generative vigor? What I hoped to do in the book was to be able to express to a wider audience some underlying understanding about how the technologies work, so they can identify the right questions to to ask. And what I wanted to do for people to work in the technology field is draw some threads together because a lot of this will be familiar to them, but take those threads to their consequences. And in a way, you know, if I if I tell you, Harry, don't think of an elephant. What are you thinking about right  now?</p><p><strong>Harry Glorikian: </strong>Yeah. Yeah, of course it's not, you know, suggestive.</p><p><strong>Azeem Azhar: </strong>And by laying out these things for these different audiences in different ways, I'm hoping that they will remember them and bear those in mind when they go out and think about how they influence the world, whether it's decisions they make from a product they might buy or not buy, or how they talk influence their elected officials or how they steer their corporate strategy or the products they choose to build. I mean, that's what you would you would hope to do. And then hopefully you create a more streamlined approach to it to the change that needs to happen. Now here's the sort of fascinating thing here, is that over the summer of 2021, the Chinese authorities across a wide range of areas went in using a number of different regulators and stamped on a whole set of Exponential Age companies, whether it was online gaming or online education. The big, multi sided social networks, a lot of fintech, a lot of crypto. And they essentially had been observing the experiment to learn, and they had figured out what things didn't align with their perceived obligations as a government to the state and to the people. Now, you know, I'm using that language because I don't want this to become a kind of polarized sort of argument.</p><p><strong>Azeem Azhar: </strong>I'm just saying, here's a state where you may not agree with its objectives and the way it's accountable, but in its own conception, it's accountable to its people and has to look out for their benefit. And it took action on these companies in really, really abrupt ways. And. If you assume that their actions were rational and they were smart people and I've met some of them and they're super smart people, it tells you something about what one group of clever people think is needed at these times. This sort of time. And I'm not I'm not advocating for that kind of response in the US or in Western Europe, but rather than to say, you know, when your next-door neighbor, and you live in an apartment block and your next-door neighbor you don't like much runs out and says the whole building is on fire. The fact that you don't like him shouldn't mean that you should ignore the fact that there's a fire. And I think that some sometimes there is some real value in looking at how other countries are contending with this and trying to understand the rationale for it, because the Chinese were for all the strength of their state, were really struggling with the power of the exponential hedge funds in their in their domain within Europe.</p><p><strong>Azeem Azhar: </strong>The European Union has recognized that these companies, the technologies provide a lot of benefit. But the way the companies are structured has a really challenging impact on the way in which European citizens lives operate, and they are making taking their own moves. And I'll give you a simple example, that the right to repair movement has been a very important one, and there's been a lot of legislative pressure in the in Europe that is that we should be have the right to repair our iPhones and smartphones. And having told us for years it wasn't possible suddenly, Apple in the last few days has announced all these repair kits self-repair kits. So it turns out that what is impossible means may mean what's politically expedient rather than anything else. And so my sense is that that by engaging in the conversation and being more active, we can get ultimately get better outcomes. And we don't have to go the route of China in order to achieve those, which is an incredibly sort of…</p><p><strong>Harry Glorikian: </strong>A draconian way. Yes.</p><p><strong>Azeem Azhar: </strong>Yeah. Very, very draconian. But equally, you can't you know where that where I hear the U.S. debate running around, which is an ultimately about Section 230 of the Communications Decency Act, and not much beyond that, I think is problematic because it's missing a lot of opportunities to sort of write the stuff and foster some amazing innovation and some amazing new businesses in this space.</p><p><strong>Harry Glorikian: </strong>Oh yeah, that's, again, that's why, whenever I get a chance to talk to policymakers, I'm like, “You guys need to get ahead of this because you just don't understand how quickly it's moving and how much it's going to impact what's there, and what's going to happen next.” And if you think about the business model shifts by some of these... I mean, what I always tell people is like, okay, if you can now sequence a whole genome for $50 think about all the new business models and all the new opportunities that will open up versus when it was $1000. It sort of changes the paradigm, but most people don't think that we're going to see that stepwise change. Or, you know, Google was, DeepMind was doing the optical analysis, and they announced, you know, they could do one analysis and everybody was like, Oh, that's great, but it's just one. And a year later, they announced we could do 50. Right? And I'm like, you're not seeing how quickly this is changing, right? One to 50 in 12 months is, that's a huge shift, and if you consider what the next one is going to be, it changes the whole field. It could change the entire field of ophthalmology, especially when you combine it with something like telemedicine. So we could talk for hours about this. I look forward to continuing this conversation. I think that we would, you know, there's a lot of common ground, although you're I'm in health care and you're almost everywhere else.</p><p><strong>Azeem Azhar: </strong>I mean, I have to say that the opportunity in in health care is so global as well because, you know, if you think about how long and how much it costs to train a doctor and you think about the kind of margin that live that sits on current medical devices and how fragile, they might be in certain operating environments and the thought that you could start to do more and more of this with a $40 sensor inside a $250 smartwatch is a really, really appealing and exciting, exciting one. Yeah.</p><p><strong>Harry Glorikian: </strong>Excellent. Well, thank you so much for the time and look forward to staying in touch and I wish you great success with the book and everything else.</p><p><strong>Azeem Azhar: </strong>Thank you so much, Harry. Appreciate it.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and the MoneyBall Medicine show at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show. You can also find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>What Exponential Change Really Means in Healthcare, with Azeem Azhar</itunes:title>
      <itunes:author>Harry Glorikian, Azeem Azhar</itunes:author>
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      <itunes:summary>As we say here on The Harry Glorikian Show, technology is changing everything about healthcare works—and the reason we keep talking about it month after month is that the changes are coming much faster than they ever did in the past. Each leap in innovation enables an even bigger leap just one step down the road. Another way of saying this is that technological change today feels exponential. And there’s nobody who can explain exponential change better than today’s guest, Azeem Azhar.</itunes:summary>
      <itunes:subtitle>As we say here on The Harry Glorikian Show, technology is changing everything about healthcare works—and the reason we keep talking about it month after month is that the changes are coming much faster than they ever did in the past. Each leap in innovation enables an even bigger leap just one step down the road. Another way of saying this is that technological change today feels exponential. And there’s nobody who can explain exponential change better than today’s guest, Azeem Azhar.</itunes:subtitle>
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      <title>At the Cutting Edge of Computational Precision Medicine, with Rafael Rosengarten</title>
      <description><![CDATA[<p>Genialis, led by CEO Rafael Rosengarten, is one of the companies working toward a future where there are no more one-size-fits-all drugs—where, instead, every patient gets matched with the best drug for them based on their disease subtype, as measured by gene-sequence and gene-expression data. Analyzing that data—what Rosengarten calls "computational precision medicine"—is already helping drug developers identify the patients who are most likely to respond to experimental medicines. Not long  from now, the same technology could help doctors diagnose patients in the clinic, and/or feed back into drug discovery by providing more biological targets for biopharma companies to hit.</p><p>"Our commitment to biomarker-driven drug development is very principled," Rosengarten tells Harry. "There are some amazing drugs out there that, when they work, work miracles. But they don't work that often. Some work in maybe 15 percent of the patients or 20 percent. If you could tell which of those patients are going to respond, then at least the ones who aren't can seek other options, and we would know that we've got to develop [new] drugs for the others." </p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>For most people, the genomics revolution still feels pretty distant, like something that’s happening off in the ivory towers of big pharma companies or research universities.</p><p>But say, heaven forbid, you get diagnosed with cancer next week. All of a sudden you’re going to want to get very familiar with your own genome. </p><p>Because thanks to the Human Genome Project and all the new tools for sequencing and analyzing genes, we know today that there are many different <i>forms </i>of cancer. </p><p>And each one may respond to a different type of medicine. </p><p>So before you and your doctor can decide which medicines will work best for you, you really need to know which genes and mutations you carry and how they’re expressed in your cells.</p><p>Drug companies need similar data when they’re testing new drugs. Because if they happen to test a drug on a population of people who happen to have the wrong genes to respond to that drug, they could wind up throwing away a medicine that would work perfectly well on people who have the <i>right </i>genes.</p><p>The problem is that all of this gene sequencing and expression testing generates incredible amounts of data. And doctors and hospitals and even big pharma companies aren’t always set up to understand or analyze that data.</p><p>My guest this week is the CEO of a company that’s helping with that problem. His name is Rafael Rosengarten. And his company Genialis has built a software platform that organizes and analyzes data from high-throughput gene sequencing and RNA expression assays. </p><p>We’ll talk more about what all those terms mean. But what you need to know is that Genialis is one of the companies on the cutting edge of translating genetic data into actionable predictions. Those predictions are already helping biotech and pharma companies get drugs to market faster. And in the near future they could help doctors funnel patients toward the right treatments. </p><p>I wrote a whole chapter on this stuff for my new book, <i>The Future You</i>. So it was really fun to talk it through all of it with Rafael. Here’s our conversation.</p><p><strong>Harry Glorikian: </strong>Rafael, welcome to the show.</p><p><strong>Rafael Rosengarten: </strong>Thanks for having me, Harry.</p><p><strong>Harry Glorikian: </strong>For those listeners that don't have backgrounds in, say, computational biology or drug development, could you define a few terms that are probably going to come up later in our discussion? I mean, first, you know, maybe define next-generation sequencing or this term we call NGS. What is next-generation about?</p><p><strong>Rafael Rosengarten: </strong>Sure, I'd be happy to do that, let me start by just kind of saying what Genialis is with some jargon in the words, and then I'll define the jargon for you. Okay. So Genialis is computational precision medicine. So what that means is we're really interested in matching patients to therapies, right? And we use data about the molecular biology of patients' diseases to do that. And our favorite kind of data to work with come from next generation sequencing. So next generation sequencing, often abbreviated as NGS, although we've been doing that for 15 years now, we probably just need to call it this-generation sequencing, is a technology where you can get the genetic information of the entire, say, genome or the transcriptome, that's the expression [for] which genes are expressed, and you get literally every base pair off of a machine that reads the DNA or RNA from cells in our body. And with that information, you do some fancy computation that, frankly, a lot of that's now fairly commoditized. And it kind of maps all of the individual bits of data into what we think we know about the human genome. And so you can say, OK, we've got this much of this gene and that much of this gene or you can say, you know, Gene A has certain mutations and Gene B has other mutations. And so it allows you to ask whether whether they're mutations or changes in the amount of certain molecules and so forth. But you get to do it for all the genes and not only all the genes you can do it for, [but] for all the space in between the genes in the genome.</p><p><strong>Harry Glorikian: </strong>Yeah, I you know, it's funny because just the other day there was the announcement that we quote "actually finished" the entire genome, which I thought was an interesting announcement. One more definition. So this term RNAseq, right? So, you know, drawing the analogy of DNA and saying, OK, RNA is the next level. And why has that become so important now in drug discovery?</p><p><strong>Rafael Rosengarten: </strong>That's a great question, so again, for your listeners who may not live and breathe this stuff, there's a concept in in biology called the central dogma, and it kind of still holds. And the notion is that there are these different levels of organizations or different layers of the onion and peeling back the information that our cells use to conduct business. And the the core of this is DNA, and that's our genetic information that's encoded in our nucleus and it's passed down from parents to children. It's the heritable information, and I apologize to all my friends who do live and breathe this, who are going to call shenanigans on my definition of being overly simplistic. The next level is, as you described, is the RNA. And so RNA is actually a lot of things. But messenger RNAs are the transcription of the genes. So the DNA genes that hold our genetic information are converted through a molecular process into another kind of molecule. And that kind of molecule is RNA. It's chemically similar to DNA, but different, and that RNA tend to be in smaller pieces than the whole chromosomes, and they represent smaller pieces of genetic information, and they can vary widely from, say, one gene to the next in terms of how much RNA is made for that given gene.</p><p><strong>Rafael Rosengarten: </strong>And then just to fill out the picture a bit more, in principle, then, those RNA molecules get turned into protein, or they are the specific instructions to create proteins, and proteins then go do the work of the cell. What I just told you is mostly wrong, but it's sort of the framework that we think about. So the reason why RNA, the middle layer, is so interesting in drug discovery, and I'm going to add to that, in diagnostics world, is because it's a bit more, let's call it dynamic than the DNA level. So mutations sometimes are heritable and sometimes they arise de novo. But once they've arisen, they're kind of there and they go through from cell to cell, once the cells divide. And that's, you know, that's important and interesting and meaningful information, you can learn a lot about what genes are potentially druggable from that. But it doesn't tell you a whole lot about the state of tissue or the state of disease in this moment, right? It's kind of background information in a way. And so RNA is a bit more dynamic.</p><p><strong>Rafael Rosengarten: </strong>It changes. It can change on, you know, really rapid time scales, but certainly therapeutically relevant time scales. And so in some ways, it's a little bit closer to sort of what's happening now. </p><p><strong>Harry Glorikian</strong>: Right.</p><p><strong>Rafael Rosengarten: </strong>It's also just a different, it's a different class of information because there are these abundances, different genes at different levels. Those relative abundances have biological importance and sometimes therapeutic importance. A lot of cancers, for example, are bad for you. They are essentially dysregulation of gene expression, so they can arise from mutations or they can arise from events at the DNA level. But it's understanding how much of some species of gene is being expressed in the RNA that can be informative or potentially therapeutically actionable. And I'm going to shout out to my proteomics friends, the guys who study proteins. That may be even more therapeutically relevant in a sense, because most of our drugs actually target proteins. And that's quite the key of it. Except for gene therapy, which is a big deal, especially in the CRISPR era, we're not often targeting DNA with our drugs, right? Mostly, we're targeting proteins and occasionally we're targeting RNAs and less frequently we're targeting DNA. Again, all CRISPR bets aside, right?</p><p><strong>Harry Glorikian: </strong>Yeah. No, we did an episode with talking about CRISPR and, you know, amazing advancements happening there. But now, being from Applied Biosystems, I remember an entire room full of sequencers where we, I think they were like 600 or 800 we had running 24 hours a day at one point. Now I can do that on a desktop, right? But. There's a lot of data that comes off that. T  hat's a challenge, I think, for people in drug development to manage that much data. You started at Baylor with a lot of your research. How did how did you personally encounter these challenges in your research?</p><p><strong>Rafael Rosengarten: </strong>I mean, it was very much this challenge that inspired us to start Genialis. So the conception story of Genialis is my co-founders and I, we really wanted to be able to do advanced cutting edge data science like machine learning, AI type stuff, which I'm sure we'll talk about at some point, in order to really bring kind of the next level of analytics to bear on biomedical problems. And what we realized is that's all well and good, but you can't do any of that stuff unless you get the data in a place where you can work on it. And I remember going to talk to one of the top researchers at all ofe Baylor College of Medicine. This person is top of her field, chair of department, et cetera, et cetera. And I asked her, How does your lab deal with your data retention and your data management, your data analysis? And she said, Glad you asked, this is such a big problem. We just had one of our postdocs leave, and he took his little thumb drives with him, and all of the data from all of his stuff was on those thumb drives. And now we can't reanalyze. I was like, You're kidding me! She said “We had to go and redownload download some of it that he had published and put online.” So, so even top researchers didn't have a clue how to do this. And this wasn't that long ago. I would say that drug companies by now are mostly more savvy and certainly the commercial sector for data management tools is thriving, right? There are some really good commercial products.</p><p><strong>Rafael Rosengarten: </strong>Genialis has one. There's some others of note. And Big Pharma has invested a lot, obviously, in building in health solutions. But this creates another kind of complication, which is you get all these different solutions and they don't all talk to each other. Even having data on different clouds. Some people may use Amazon and others Google and others still, Microsoft. And those are the three majors. You know, those create silos in a way. So, so you know, the cloud has been super helpful. The advent of software purposely built for biological data management has been helpful. But, you know, there's still a lot of work to do. And I'm going to argue that the kind of next, let's not call it a frontier, but the next big challenge and the one that we encounter a lot, it's not even around the primary data. We're good now. We're good at sucking that off the machines and putting it in the cloud and organizing it and getting it processed really efficiently using distributed computation. Now the challenge is getting what we call the metadata, the annotations of where those data come from. Is it coming from patients and if so, what's the patient information associated with it? Is it an experiment? Getting those metadata consistently curated and attached and linked to the primary data is a big and very important challenge, and it's one that I think will be solved in a similar way through these software solutions. But it takes a lot of will and a lot of manual effort at this point.</p><p><strong>Harry Glorikian: </strong>Just to summarize, the software that you have is helping biologists and clinicians work with data without necessarily having to become a bioinformatician, if I had to frame it that way, is that is that a decent representation?</p><p><strong>Rafael Rosengarten: </strong>That is that's one of the softwares we have. So you're referencing Genialis Expressions, which was kind of our initial flagstone software. I'm excited, though, in November, at Biodata Basel, we launched our new software, our newest product, which is called Responder ID. And this is where our dreams of really applying machine learning and AI to these data have finally come to fruition. Responder ID is a software or really, it's a suite of technologies that we use on those clinical data and on those experimental data to actually extract knowledge and very specifically to figure out which patients are most likely to respond to certain therapies. And so the first piece of software is really the kind of about the data management. It's about getting data organized, getting it processed, all the best practices and efficiencies around that. And that was sort of, you know, I don't want to call it last year's problem because it's still a problem, but it was the first thing we did. It's where we started. And it's got some beautiful visualizations and it does let bench scientists like myself work with their own data. But the new stuff is where we're really bringing the application to bear on human health and on value propositions that I think really resonate with pharma, diagnostics, and other biotech and frankly, clinicians and and ultimately patients.</p><p><strong>Harry Glorikian: </strong>So, well, that's great, I mean, that transition to the new software, I must have missed that in when I was doing my research. I hadn't seen that yet, but what are some of the stories or anecdotes by customers that you can share? What have they been able to say, accomplish with it, so that we can put it into context for the listener?</p><p><strong>Rafael Rosengarten: </strong>Yeah. So you know, most of our customers are biotech drug companies and we help them solve a number of problems. But the key challenge is that drug development is just an incredibly risky and expensive and time consuming proposition. Most of our work's in the oncology space, not all of it, but it's a good place to make this example. The success rate of a drug that enters a Phase I clinical trial in the cancer space that actually makes it to market is something like three or four percent. It's dismal, and it's among the lowest of any therapeutic area. And there are any number of reasons for that. But the simplest, simplistic one is that biology is complicated and patients are diverse, right? Even within a single disease like, let's just say, breast cancer, there are at least four kinds of breast cancer. There are probably 40 kinds, and there are actually probably more than that. Each individual's disease is going to have its own unique flavors. And so what we allow a company to do, let's say a company that's developing a drug against, for example, breast cancer, is to really try to understand how many molecular types are we talking about, which ones are going to respond to our drug? And can we find those patients ahead of time? And what that lets them do is think about alternative and sort of novel and innovative strategies for designing clinical trials. It allows them, if they so desire, to think about partnering out on diagnostic development with third parties to actually create a diagnostic to go with their drug. That's not, obviously, necessary. You can you can build assays that you run in-house, but that's an alternative.</p><p><strong>Rafael Rosengarten: </strong>And to make it very concrete, we have one partner we work with a lot. A company called OncXerna Therapeutics. And with them, we've helped develop their first biomarker as part of their biomarker platform to the point not only of clinical trial assay, but also it's been licensed by Qiagen to be turned into a companion diagnostic for their lead drug and a research-use-only assay for scientists writ large around the world. And so, you know, this is a great success story. In about the course of two years, we went from taking a published academic signature, something in the literature—and by the way, there are about a million of these public academic signatures and there are only 46 approved companion diagnostics, so there's a big gulf between them—we went from an academic signature—and this was hand in glove work with them, so I don't want to take all the credit, but we certainly did a lot of the heavy lifting—and we built a category-defining first-of-its-class machine learning algorithm that learned a complex RNA-sequencing-based signature that predicts with uncanny ability patients that are going to respond to a wide array of drugs in a wide array of diseases. So it's pan-cancer, multi-modality, right? This is just it's an astonishing clinical advance, in my opinion, and it's something I'm clearly very proud of and willing to self-promote. But I do think it's an important advance, and I think it shows the power of both the Genialis philosophy around modeling biology and pairing patient biology with potential therapeutics, but also just what you can do if you're really thoughtful about getting the data in the right place, treating the data properly, and then using machine learning and some of these advanced algorithms to decipher.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I think we're starting to get to that cusp of producing the data is getting faster, more cost effective. I mean, if Illumina actually gets down to, I think they, at the last JPMorgan, they said, we're trying to get it down to $60 for whole-genome. But at some point you're getting to numbers that are, I don't want to say a rounding error, but damn near close to that. And so the burden is going to fall on, how do I interpret all this data and what do I do next, right? What's actionable? I mean, I think the treating doctors are like, this is all great data, but tell me what to do, right? And it sounds like your new suite of software might be more applicable for a clinician or to to be communicated to a clinician, than just on the research side. So is is Genialis now moving beyond its original set of customers and moving more towards the clinical space?</p><p><strong>Rafael Rosengarten: </strong>I certainly think that's, on the horizon, that's something that we're contemplating. You know, the U.S. health system, well, systems, plural, is a complicated beast, right? And so there are certainly big companies that have products that are there for drug companies and products that are there for patients and products that are there for providers and so forth. And that makes sense. I think once you've got a wide enough kind of horizontal, you can stack all these verticals on top of each other. You know, hopefully we get big enough to do that ourselves. But you know, for the time being, we found this really, you know, this really great motion and success story working around certain therapeutic modalities for certain therapeutic opportunities. I actually think what may be the bigger prize is to take what we learn about disease biology from some of these diagnostic models and turn them on their head and say, OK, we've shown this model really captures patient biology and it works. And we know that because look, there are patients and they respond to the drug that we predicted they would. We've definitely cracked something there. Now let's take what we've learned about that patient biology and interrogate this model for new therapeutic opportunities. What about all the patients who don't respond to this drug? What will they respond to? The model still has them pegged as nonresponders. The model understands their biology. We just need to interrogate it for the next generation of therapies. And so I think this is where my vision of precision medicine maybe deviates. Diagnostics is an industry. Drug discovery are an industry. Those are separate companies. Those are separate industries. But to me, precision medicine shouldn't be this kind of linear thing where you start with the target, you end up with a drug and a diagnostic, and that's where it ends. It should be a circle. It should wrap around. And what we learn from patients should feed right into the next round of drug discovery, right? And so I'm interested in playing at that sort of fusion point where the where the ends of the string meet and form a circle. And so we're really interested in partnering and learning more about, for example, discovering new drugs to match the targets, right? And so I kind of see that as where a lot of Genialis's future focus is going to go. I'm not ruling out patient reporting software. I'm not ruling out more clinical products. That would be logical, but my real interest is thinking about helping the patients who just don't have therapeutic options today.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i> It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for The Future You by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p> </p><p><strong>Harry Glorikian: </strong>When I think about this and where we're going with this and the I hate saying it, butthe old dogmatic way of looking at it is very compartmentalized as we look at it in discrete pieces. And these data analytics platforms allow us to look at multifactorial, or almost turn the data into a living organism where we can look at it in multiple ways, and I think it's hard for people to get there mentally. I mean, sometimes, sometimes when I'm looking at something, I realize that my limitation is the information that I have about a particular area and that I need to learn something new to put another piece of the puzzle together. But I think this, let me do this and then let me do this and then let me do this. That's breaking down because of the data analytic capabilities that we're bringing to bear. Applying AI, machine learning, or in reality, sometimes just hard math, to solve certain problems, is opening up a wider aperture of how we would manage a patient and then treat them appropriately. And I think. Hell, I don't know, Rafael,  I'm a little worried, I don't think the system is necessarily designed to absorb that next-gen opportunity, right? Because somebody will be like, OK, where do I get the information? Does that go in the EMR? I mean, wait, where is there a code that I can bill for it? I mean, there's these arcane roadblocks that are in the way that have nothing to do with, "I've got this model, and I'm telling you this will work on this patient," right?</p><p><strong>Rafael Rosengarten: </strong>Yeah, I don't know that I'm smart enough to know the solution to that. I will say that there are some really exciting newish young venture-backed upstarts that are interested in disrupting hospital systems, point of care, EHRs. All of that, is fair game, right? It is, as you described, it's just ripe for disruption because it's so, you know, it's so cobbled together, right? You know, I'm thinking about when my wife and I moved from Houston, Texas, to the Bay Area and then we got pregnant with our second child. We wanted to have all of our medical records from pregnancy number one sent from Texas Medical Center, which is one of the shining jewels of health care institutions, to John Muir Health System in the Bay Area, which, listen, they were changing out the wood panels from the 1970s during all of our doctors' visits. And literally, we asked the doctor if he could just print, print something for us. He said, No, I can't do that, but I could write it down on a sheet of paper for you. Like, you know, it's. But that's that's, you know, I agree with you. There are going to have to be changes top down, bottom up, and there's going to have to be hopefully support for this in the regulatory bodies, you know, at the governmental level. </p><p><strong>Rafael Rosengarten: </strong>Where I live and breathe, those is really kind of in a life sciences sector of the health care system. So again, we're interested in in drug development, we're interested in diagnostics, we're interested in drug discovery. And those themselves are kind of big things. So where I think about changes and regulatory and systemic stuff is more along, like, what is the FDA doing to to adopt or adapt to these kind of new technologies? What about standards like how are we thinking about data standards, model standards? Genialis is a founding member of and I'm on the board of directors of the Alliance for AI and Health Care. And this is a really exciting and rather amazing industry organization that was stood up at JP Morgan in 2019. And you know, we've got gosh, I don't know what the headcount, the member number now is, but over 50 member organizations, including the likes of Google and and Roche and bigs like that. Some of the more household names in the smaller biotech community like Recursion Pharma, In Silico Medicine, Valo Health, et cetera. And then and then companies like Genialis as well. Big academic centers. So we have a real great brain trust and we're interested in tackling, I'm going to call them, these hard, boring but incredibly important systemic questions around regulatory and standards and so forth. Health insurance, Medicare, all that stuff is a big fish, and we haven't, you know, we haven't set our hooks in it yet, but you know how hospitals bill and those kinds of codes, we’ll have to have to revisit that at some point, for sure.</p><p><strong>Harry Glorikian: </strong>Yeah, I know that you're a member there and sort of interesting to hear why you got involved in how you see it working. So if you think about the standardization side of this, you know, what is what is the organization sort of advocating for? Because I totally agree with you, but at some point, I think you almost need to reach back towards, how is somebody doing an experiment to make sure that then the data comes out the other side in a standard way, right? Because I used to joke, which sample prep product are you working with? And I could tell you sort of what direction something is going to lean. And that that in and of itself is a problem. So how is AAIHC thinking about some of these problems, I don't know if there's a proposal. What have you guys proposed so far?</p><p><strong>Rafael Rosengarten: </strong>That's a great question. So we have workstreams around things like the FDA, working with the FDA to propose guidance for a good machine learning, practice guidance for software as a medical device, AI as part of software, as a medical device. So a lot of this, it's less concerned with can we rein in and constrain the experimental part? Because again, that's that's a huge world. And maybe it's not really where the constraints need to be. But rather can we come up with a common set of guidelines for how you evaluate the quality of a data set, right? Recognizing the data are going to come in a lot of shapes and sizes and flavors, and even two different RNA sequencing data sets that are produced on different machines or with different kits may have slightly different flavors or tints to them. That's fine so long as you have some guidelines for characterizing those differences, for appreciating those differences and then for knowing what to do with the data, given those potential differences. A lot of the concern around AI in a regulated setting is that, the whole promise of a machine learning approach is that it gets smarter the more data it sees, right? So these should be, these algorithms should evolve in a way they should be living and breathing. But if you have a regulated product that's to work on patients, it's got to work the same every time or, you know, can't get worse.</p><p><strong>Rafael Rosengarten: </strong>So this is, there's a tension here, but it's not unsolvable. It's not insurmountable. For example, you know, a regulated AI doesn't have to evolve in real time. It can be updated over time, right? Right. And it can be it can be locked and then operate, and then you can improve it and update it and redeploy and relock. So building the plans, what are the change plans? How do you demonstrate that the retraining or the improvements are actually improvements? These are the kinds of things that at least we can sink our teeth into today. And then we're also interested in the standards problem. I think the organization is not necessarily going to be dogmatic about recommending exactly what the standards are today, but what we're trying to catalyze those discussions, right? And we're trying to create frameworks where those discussions can actually lead to some actionable tools. And there are examples of organizations that have done this in other fields. So we do have some blueprints. But it's a lot of work. And frankly, that's the privilege of being in the organization. It gives you the opportunity to roll up your sleeves and build the industry of the future, to build the industry you want to operate in.</p><p><strong>Harry Glorikian: </strong>Yeah. And this has got to be in lockstep with the regulatory authorities and everything to make sure that everything is, everybody's on the same page so that when you come up with a golden solution, they're ready to accept it. Because we can't have, you download the latest software for your phone and then it breaks, right? That's not an acceptable update that you can do, right, and somebody has to release a patch to get it to fix. You know, that's that doesn't necessarily... I'm sure it happens in our world, but it's. It's really not what you'd like to see happen.</p><p><strong>Rafael Rosengarten: </strong>Yeah, yeah. You know, I can tell you from having had to invest in a lot of the kind of procedures around clinical reporting in software and so forth, and, working with some really top tier point of care software providers, it's not foolproof. But boy, there are a lot of hoops to jump through, right? Like things do get tested the whole way. And I would just, I would argue, although, you know, let me not be overly full of hubris, that there are plenty of other failure points that are a lot more likely to fail than the AI software that's predicting a biomarker not working in a particular instance, right? Given the room for error in things like biopsy collection and human handling. There's a lot of stuff upstream of that where human error is more likely to play a part. That that may or may not be sweet solace, right. That might not help you sleep at night. But I think that the regulated environment, especially around regulating computational tools, can be rather bulletproof.</p><p><strong>Rafael Rosengarten: </strong>So is there anything else going on that at Genialis that that we would want to know about that and directionally or what's next, that you can [share]?</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, the exciting stuff is really twofold. It's, you know, just going deeper with our partners, right? So clinical development, as I mentioned, is is a long game. And you know, we like to start working before the drugs in the clinic, right? So these are meant to be long partnerships. And the other piece of this is we're doing a lot more internal R&D. A lot more internal R&D, a lot more work with our academic colleagues. And so we're really, really excited to just, you know, to innovate our way out of some of these hard problems.</p><p><strong>Harry Glorikian: </strong>Well, that's necessary in this field, right, you're always going to run into some, I like to call them speed bumps because I don't believe that they're like insurmountable problems, but they're speed bumps that you need to like innovate over or around.</p><p><strong>Rafael Rosengarten: </strong>Mm hmm. Yeah. So, you know, I want to give you something meaty like, you know what to look for from Genialis. So, sometime soon, my hope, knock on wood, is that we'll have first patients enrolled in clinical trials that are the biomarker I described to you earlier. This is the OncXerna trial. First patient enrolled, that's going to be super exciting. It's a Phase III trial and we're going to be stratifying patients with the biomarker. I mean, just the gratification of actually having our technology potentially impacting outcomes is huge. We've got a lot up our sleeves in terms of internal development improvements to Responder ID, but also, you know, some biomarker work we're kind of doing for ourselves, digging deeper into some pernicious problems in cancer that others haven't adequately addressed, in my opinion. And some some exciting partnerships, hopefully around, kind of…. we'll call them data partnerships. We talked a bit about just the scale of the data challenge, though, is it lives all over the place, right? And so there are different ways of getting your hands on it. And one of the ways a lot of companies have gone about is to become the testing companies, right? There are some giants out there that sequence literally millions of patients a year, and they've got big data warehouses, right? We haven't done that ourselves. And so we rely oncollaborations for a lot of our data. Not all of it, but we're building some of these collaborations, and I'm hoping we can talk more about that in future episodes or in other forums.</p><p><strong>Harry Glorikian: </strong>Just for a second, so people understand the magnitude. This Phase III trial, how many how many patients would you say are in it?</p><p><strong>Rafael Rosengarten: </strong>I need to be super careful not to misrepresent someone else's trial. It's going to be on the order of several hundred. You know, it's a properly powered Phase III and it's got two treatment arms. And so, you know, so it has to have quite a number of patients. And that's, you know, I would say that's a typical sized trial of for this stage in this kind of disease.</p><p><strong>Harry Glorikian: </strong>Yeah, I just want people listening to sort of get an idea of like, these technologies are, you know, can affect lots of people and then if that drug comes through and then the technology is utilized afterwards to sort of stratify people or the biomarkers, then there's an even larger population of people that then gets affected by the work that you guys are doing.</p><p><strong>Rafael Rosengarten: </strong>Yeah, yeah. I think that's right. And you know, in a way, you know, our commitment to the sort of biomarker driven, you know, drug development, it's very principled. It's based on this idea that patients deserve to have the best treatment option, right? And there are some amazing drugs out there that when they work, work miracles. But they don't work that often. Right? And some of these drugs have, you know, first line approvals in dozens of diseases. But again, in some of those diseases, they work for half the patients, and that's great. And that's probably how it should be. But in some, they only work in maybe 15 percent of the patients or 20 or whatever the threshold is, because they were better than the alternative, right? But if you could tell which of those patients are going to respond, then at least the ones who aren't can seek other options. Or you know that we've got to develop drugs for the others. So it's very principled, although it's complicated because from an economic standpoint, if you have the ability to sell your drug to everybody, of course you're going to do that.</p><p><strong>Harry Glorikian: </strong>Yeah, look, I drank that Kool-Aid. I mean, Jesus, 20 years ago, right? I mean, you know, why wouldn't you want...I mean, if you were a patient, you'd want the best drug you can get, right? Because the data says that you respond to this particular drug. It's getting the system to that point. And I have seen, I have had stories where the data said one thing. They put the patient on it. They looked like they were responding. A new trial opened up. And somebody suggested that they go on the new trial, even though the therapy was working. And they switched and the outcome was not positive. Right. And so it's one of those things of like, I don't understand. The data clearly pointed in a particular direction and you deviated from that, and that doesn't make any sense to me. As a science person is as well as an investor, if the data is showing something, you better respond to the data or you're not going to be happy with the outcome. It's just seeing that implemented in a way that makes it very actionable for everybody, and they embrace that. That's where I sometimes, I find, you know, the biggest problems. But I totally agree. I mean, I have a whole chapter in my new book about that whole dynamic of why you want the data, how the data impacts you as a patient. What are the sort of questions you should ask, et cetera, because if you don't have that information, you're making suboptimal decisions.</p><p><strong>Rafael Rosengarten: </strong>Yeah. No, and that's absolutely right, I think the point you make there is probably the key one, which is a lot of biotechs and companies like ours, we operate with kind of a world view of our own research and our customers’. But we have to remember that the reason we do this, the reason we get up every day and the reason we toil is it's because we can impact patient lives. And if you actually want to really foment that change, then that subset, that stakeholder, needs to be involved, right? A patient needs to understand what are my choices? And so if a patient comes into the clinic and has a grave illness and the doctor says, well, this is the approved drug, but there's a test that could tell you if there's something else. I mean, if I'm the patient, I want to take that test. I want to know what my options are. And I think that frankly, it's unrealistic to expect publicly traded companies to not try to maximize revenue. That's just kind of the system we live in. But it's also incumbent upon us to to engage patients, to help them understand what their options are, to engage physicians the same and to say, there are multiple approved drugs, maybe, or this is the one, but there are some investigational drugs that haven't been approved yet that may be better fits for your disease. Remember, your disease isn't necessarily the same as someone else who happens to have it in the same tissue. And so I think that's a big deal, and I do think that there are any number of exciting organizations that are really focused, doggedly focused on this point of patient engagement and especially patient engagement around data.</p><p><strong>Harry Glorikian: </strong>No, I mean, I always I tell every one of my guests, “Hurry up, go faster,” because I'm not getting any younger and theoretically like, you know, statistically, I could end up in that place. I want the best that I can get when I get there. So Rafael, I know it's getting late where you are. So really appreciate your time and the opportunity to talk about what you guys are doing and the impact that it's having on not just drug development, but downstream on patients.</p><p><strong>Rafael Rosengarten: </strong>Well, thank you, Harry, for having me, for giving me the opportunity. This has been a lot of fun to connect over this.</p><p><strong>Harry Glorikian: </strong>Excellent. Thank you. </p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and the MoneyBall Medicine show at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can also  find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 4 Jan 2022 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Rafael Rosengarten, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Genialis, led by CEO Rafael Rosengarten, is one of the companies working toward a future where there are no more one-size-fits-all drugs—where, instead, every patient gets matched with the best drug for them based on their disease subtype, as measured by gene-sequence and gene-expression data. Analyzing that data—what Rosengarten calls "computational precision medicine"—is already helping drug developers identify the patients who are most likely to respond to experimental medicines. Not long  from now, the same technology could help doctors diagnose patients in the clinic, and/or feed back into drug discovery by providing more biological targets for biopharma companies to hit.</p><p>"Our commitment to biomarker-driven drug development is very principled," Rosengarten tells Harry. "There are some amazing drugs out there that, when they work, work miracles. But they don't work that often. Some work in maybe 15 percent of the patients or 20 percent. If you could tell which of those patients are going to respond, then at least the ones who aren't can seek other options, and we would know that we've got to develop [new] drugs for the others." </p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>For most people, the genomics revolution still feels pretty distant, like something that’s happening off in the ivory towers of big pharma companies or research universities.</p><p>But say, heaven forbid, you get diagnosed with cancer next week. All of a sudden you’re going to want to get very familiar with your own genome. </p><p>Because thanks to the Human Genome Project and all the new tools for sequencing and analyzing genes, we know today that there are many different <i>forms </i>of cancer. </p><p>And each one may respond to a different type of medicine. </p><p>So before you and your doctor can decide which medicines will work best for you, you really need to know which genes and mutations you carry and how they’re expressed in your cells.</p><p>Drug companies need similar data when they’re testing new drugs. Because if they happen to test a drug on a population of people who happen to have the wrong genes to respond to that drug, they could wind up throwing away a medicine that would work perfectly well on people who have the <i>right </i>genes.</p><p>The problem is that all of this gene sequencing and expression testing generates incredible amounts of data. And doctors and hospitals and even big pharma companies aren’t always set up to understand or analyze that data.</p><p>My guest this week is the CEO of a company that’s helping with that problem. His name is Rafael Rosengarten. And his company Genialis has built a software platform that organizes and analyzes data from high-throughput gene sequencing and RNA expression assays. </p><p>We’ll talk more about what all those terms mean. But what you need to know is that Genialis is one of the companies on the cutting edge of translating genetic data into actionable predictions. Those predictions are already helping biotech and pharma companies get drugs to market faster. And in the near future they could help doctors funnel patients toward the right treatments. </p><p>I wrote a whole chapter on this stuff for my new book, <i>The Future You</i>. So it was really fun to talk it through all of it with Rafael. Here’s our conversation.</p><p><strong>Harry Glorikian: </strong>Rafael, welcome to the show.</p><p><strong>Rafael Rosengarten: </strong>Thanks for having me, Harry.</p><p><strong>Harry Glorikian: </strong>For those listeners that don't have backgrounds in, say, computational biology or drug development, could you define a few terms that are probably going to come up later in our discussion? I mean, first, you know, maybe define next-generation sequencing or this term we call NGS. What is next-generation about?</p><p><strong>Rafael Rosengarten: </strong>Sure, I'd be happy to do that, let me start by just kind of saying what Genialis is with some jargon in the words, and then I'll define the jargon for you. Okay. So Genialis is computational precision medicine. So what that means is we're really interested in matching patients to therapies, right? And we use data about the molecular biology of patients' diseases to do that. And our favorite kind of data to work with come from next generation sequencing. So next generation sequencing, often abbreviated as NGS, although we've been doing that for 15 years now, we probably just need to call it this-generation sequencing, is a technology where you can get the genetic information of the entire, say, genome or the transcriptome, that's the expression [for] which genes are expressed, and you get literally every base pair off of a machine that reads the DNA or RNA from cells in our body. And with that information, you do some fancy computation that, frankly, a lot of that's now fairly commoditized. And it kind of maps all of the individual bits of data into what we think we know about the human genome. And so you can say, OK, we've got this much of this gene and that much of this gene or you can say, you know, Gene A has certain mutations and Gene B has other mutations. And so it allows you to ask whether whether they're mutations or changes in the amount of certain molecules and so forth. But you get to do it for all the genes and not only all the genes you can do it for, [but] for all the space in between the genes in the genome.</p><p><strong>Harry Glorikian: </strong>Yeah, I you know, it's funny because just the other day there was the announcement that we quote "actually finished" the entire genome, which I thought was an interesting announcement. One more definition. So this term RNAseq, right? So, you know, drawing the analogy of DNA and saying, OK, RNA is the next level. And why has that become so important now in drug discovery?</p><p><strong>Rafael Rosengarten: </strong>That's a great question, so again, for your listeners who may not live and breathe this stuff, there's a concept in in biology called the central dogma, and it kind of still holds. And the notion is that there are these different levels of organizations or different layers of the onion and peeling back the information that our cells use to conduct business. And the the core of this is DNA, and that's our genetic information that's encoded in our nucleus and it's passed down from parents to children. It's the heritable information, and I apologize to all my friends who do live and breathe this, who are going to call shenanigans on my definition of being overly simplistic. The next level is, as you described, is the RNA. And so RNA is actually a lot of things. But messenger RNAs are the transcription of the genes. So the DNA genes that hold our genetic information are converted through a molecular process into another kind of molecule. And that kind of molecule is RNA. It's chemically similar to DNA, but different, and that RNA tend to be in smaller pieces than the whole chromosomes, and they represent smaller pieces of genetic information, and they can vary widely from, say, one gene to the next in terms of how much RNA is made for that given gene.</p><p><strong>Rafael Rosengarten: </strong>And then just to fill out the picture a bit more, in principle, then, those RNA molecules get turned into protein, or they are the specific instructions to create proteins, and proteins then go do the work of the cell. What I just told you is mostly wrong, but it's sort of the framework that we think about. So the reason why RNA, the middle layer, is so interesting in drug discovery, and I'm going to add to that, in diagnostics world, is because it's a bit more, let's call it dynamic than the DNA level. So mutations sometimes are heritable and sometimes they arise de novo. But once they've arisen, they're kind of there and they go through from cell to cell, once the cells divide. And that's, you know, that's important and interesting and meaningful information, you can learn a lot about what genes are potentially druggable from that. But it doesn't tell you a whole lot about the state of tissue or the state of disease in this moment, right? It's kind of background information in a way. And so RNA is a bit more dynamic.</p><p><strong>Rafael Rosengarten: </strong>It changes. It can change on, you know, really rapid time scales, but certainly therapeutically relevant time scales. And so in some ways, it's a little bit closer to sort of what's happening now. </p><p><strong>Harry Glorikian</strong>: Right.</p><p><strong>Rafael Rosengarten: </strong>It's also just a different, it's a different class of information because there are these abundances, different genes at different levels. Those relative abundances have biological importance and sometimes therapeutic importance. A lot of cancers, for example, are bad for you. They are essentially dysregulation of gene expression, so they can arise from mutations or they can arise from events at the DNA level. But it's understanding how much of some species of gene is being expressed in the RNA that can be informative or potentially therapeutically actionable. And I'm going to shout out to my proteomics friends, the guys who study proteins. That may be even more therapeutically relevant in a sense, because most of our drugs actually target proteins. And that's quite the key of it. Except for gene therapy, which is a big deal, especially in the CRISPR era, we're not often targeting DNA with our drugs, right? Mostly, we're targeting proteins and occasionally we're targeting RNAs and less frequently we're targeting DNA. Again, all CRISPR bets aside, right?</p><p><strong>Harry Glorikian: </strong>Yeah. No, we did an episode with talking about CRISPR and, you know, amazing advancements happening there. But now, being from Applied Biosystems, I remember an entire room full of sequencers where we, I think they were like 600 or 800 we had running 24 hours a day at one point. Now I can do that on a desktop, right? But. There's a lot of data that comes off that. T  hat's a challenge, I think, for people in drug development to manage that much data. You started at Baylor with a lot of your research. How did how did you personally encounter these challenges in your research?</p><p><strong>Rafael Rosengarten: </strong>I mean, it was very much this challenge that inspired us to start Genialis. So the conception story of Genialis is my co-founders and I, we really wanted to be able to do advanced cutting edge data science like machine learning, AI type stuff, which I'm sure we'll talk about at some point, in order to really bring kind of the next level of analytics to bear on biomedical problems. And what we realized is that's all well and good, but you can't do any of that stuff unless you get the data in a place where you can work on it. And I remember going to talk to one of the top researchers at all ofe Baylor College of Medicine. This person is top of her field, chair of department, et cetera, et cetera. And I asked her, How does your lab deal with your data retention and your data management, your data analysis? And she said, Glad you asked, this is such a big problem. We just had one of our postdocs leave, and he took his little thumb drives with him, and all of the data from all of his stuff was on those thumb drives. And now we can't reanalyze. I was like, You're kidding me! She said “We had to go and redownload download some of it that he had published and put online.” So, so even top researchers didn't have a clue how to do this. And this wasn't that long ago. I would say that drug companies by now are mostly more savvy and certainly the commercial sector for data management tools is thriving, right? There are some really good commercial products.</p><p><strong>Rafael Rosengarten: </strong>Genialis has one. There's some others of note. And Big Pharma has invested a lot, obviously, in building in health solutions. But this creates another kind of complication, which is you get all these different solutions and they don't all talk to each other. Even having data on different clouds. Some people may use Amazon and others Google and others still, Microsoft. And those are the three majors. You know, those create silos in a way. So, so you know, the cloud has been super helpful. The advent of software purposely built for biological data management has been helpful. But, you know, there's still a lot of work to do. And I'm going to argue that the kind of next, let's not call it a frontier, but the next big challenge and the one that we encounter a lot, it's not even around the primary data. We're good now. We're good at sucking that off the machines and putting it in the cloud and organizing it and getting it processed really efficiently using distributed computation. Now the challenge is getting what we call the metadata, the annotations of where those data come from. Is it coming from patients and if so, what's the patient information associated with it? Is it an experiment? Getting those metadata consistently curated and attached and linked to the primary data is a big and very important challenge, and it's one that I think will be solved in a similar way through these software solutions. But it takes a lot of will and a lot of manual effort at this point.</p><p><strong>Harry Glorikian: </strong>Just to summarize, the software that you have is helping biologists and clinicians work with data without necessarily having to become a bioinformatician, if I had to frame it that way, is that is that a decent representation?</p><p><strong>Rafael Rosengarten: </strong>That is that's one of the softwares we have. So you're referencing Genialis Expressions, which was kind of our initial flagstone software. I'm excited, though, in November, at Biodata Basel, we launched our new software, our newest product, which is called Responder ID. And this is where our dreams of really applying machine learning and AI to these data have finally come to fruition. Responder ID is a software or really, it's a suite of technologies that we use on those clinical data and on those experimental data to actually extract knowledge and very specifically to figure out which patients are most likely to respond to certain therapies. And so the first piece of software is really the kind of about the data management. It's about getting data organized, getting it processed, all the best practices and efficiencies around that. And that was sort of, you know, I don't want to call it last year's problem because it's still a problem, but it was the first thing we did. It's where we started. And it's got some beautiful visualizations and it does let bench scientists like myself work with their own data. But the new stuff is where we're really bringing the application to bear on human health and on value propositions that I think really resonate with pharma, diagnostics, and other biotech and frankly, clinicians and and ultimately patients.</p><p><strong>Harry Glorikian: </strong>So, well, that's great, I mean, that transition to the new software, I must have missed that in when I was doing my research. I hadn't seen that yet, but what are some of the stories or anecdotes by customers that you can share? What have they been able to say, accomplish with it, so that we can put it into context for the listener?</p><p><strong>Rafael Rosengarten: </strong>Yeah. So you know, most of our customers are biotech drug companies and we help them solve a number of problems. But the key challenge is that drug development is just an incredibly risky and expensive and time consuming proposition. Most of our work's in the oncology space, not all of it, but it's a good place to make this example. The success rate of a drug that enters a Phase I clinical trial in the cancer space that actually makes it to market is something like three or four percent. It's dismal, and it's among the lowest of any therapeutic area. And there are any number of reasons for that. But the simplest, simplistic one is that biology is complicated and patients are diverse, right? Even within a single disease like, let's just say, breast cancer, there are at least four kinds of breast cancer. There are probably 40 kinds, and there are actually probably more than that. Each individual's disease is going to have its own unique flavors. And so what we allow a company to do, let's say a company that's developing a drug against, for example, breast cancer, is to really try to understand how many molecular types are we talking about, which ones are going to respond to our drug? And can we find those patients ahead of time? And what that lets them do is think about alternative and sort of novel and innovative strategies for designing clinical trials. It allows them, if they so desire, to think about partnering out on diagnostic development with third parties to actually create a diagnostic to go with their drug. That's not, obviously, necessary. You can you can build assays that you run in-house, but that's an alternative.</p><p><strong>Rafael Rosengarten: </strong>And to make it very concrete, we have one partner we work with a lot. A company called OncXerna Therapeutics. And with them, we've helped develop their first biomarker as part of their biomarker platform to the point not only of clinical trial assay, but also it's been licensed by Qiagen to be turned into a companion diagnostic for their lead drug and a research-use-only assay for scientists writ large around the world. And so, you know, this is a great success story. In about the course of two years, we went from taking a published academic signature, something in the literature—and by the way, there are about a million of these public academic signatures and there are only 46 approved companion diagnostics, so there's a big gulf between them—we went from an academic signature—and this was hand in glove work with them, so I don't want to take all the credit, but we certainly did a lot of the heavy lifting—and we built a category-defining first-of-its-class machine learning algorithm that learned a complex RNA-sequencing-based signature that predicts with uncanny ability patients that are going to respond to a wide array of drugs in a wide array of diseases. So it's pan-cancer, multi-modality, right? This is just it's an astonishing clinical advance, in my opinion, and it's something I'm clearly very proud of and willing to self-promote. But I do think it's an important advance, and I think it shows the power of both the Genialis philosophy around modeling biology and pairing patient biology with potential therapeutics, but also just what you can do if you're really thoughtful about getting the data in the right place, treating the data properly, and then using machine learning and some of these advanced algorithms to decipher.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I think we're starting to get to that cusp of producing the data is getting faster, more cost effective. I mean, if Illumina actually gets down to, I think they, at the last JPMorgan, they said, we're trying to get it down to $60 for whole-genome. But at some point you're getting to numbers that are, I don't want to say a rounding error, but damn near close to that. And so the burden is going to fall on, how do I interpret all this data and what do I do next, right? What's actionable? I mean, I think the treating doctors are like, this is all great data, but tell me what to do, right? And it sounds like your new suite of software might be more applicable for a clinician or to to be communicated to a clinician, than just on the research side. So is is Genialis now moving beyond its original set of customers and moving more towards the clinical space?</p><p><strong>Rafael Rosengarten: </strong>I certainly think that's, on the horizon, that's something that we're contemplating. You know, the U.S. health system, well, systems, plural, is a complicated beast, right? And so there are certainly big companies that have products that are there for drug companies and products that are there for patients and products that are there for providers and so forth. And that makes sense. I think once you've got a wide enough kind of horizontal, you can stack all these verticals on top of each other. You know, hopefully we get big enough to do that ourselves. But you know, for the time being, we found this really, you know, this really great motion and success story working around certain therapeutic modalities for certain therapeutic opportunities. I actually think what may be the bigger prize is to take what we learn about disease biology from some of these diagnostic models and turn them on their head and say, OK, we've shown this model really captures patient biology and it works. And we know that because look, there are patients and they respond to the drug that we predicted they would. We've definitely cracked something there. Now let's take what we've learned about that patient biology and interrogate this model for new therapeutic opportunities. What about all the patients who don't respond to this drug? What will they respond to? The model still has them pegged as nonresponders. The model understands their biology. We just need to interrogate it for the next generation of therapies. And so I think this is where my vision of precision medicine maybe deviates. Diagnostics is an industry. Drug discovery are an industry. Those are separate companies. Those are separate industries. But to me, precision medicine shouldn't be this kind of linear thing where you start with the target, you end up with a drug and a diagnostic, and that's where it ends. It should be a circle. It should wrap around. And what we learn from patients should feed right into the next round of drug discovery, right? And so I'm interested in playing at that sort of fusion point where the where the ends of the string meet and form a circle. And so we're really interested in partnering and learning more about, for example, discovering new drugs to match the targets, right? And so I kind of see that as where a lot of Genialis's future focus is going to go. I'm not ruling out patient reporting software. I'm not ruling out more clinical products. That would be logical, but my real interest is thinking about helping the patients who just don't have therapeutic options today.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i> It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for The Future You by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p> </p><p><strong>Harry Glorikian: </strong>When I think about this and where we're going with this and the I hate saying it, butthe old dogmatic way of looking at it is very compartmentalized as we look at it in discrete pieces. And these data analytics platforms allow us to look at multifactorial, or almost turn the data into a living organism where we can look at it in multiple ways, and I think it's hard for people to get there mentally. I mean, sometimes, sometimes when I'm looking at something, I realize that my limitation is the information that I have about a particular area and that I need to learn something new to put another piece of the puzzle together. But I think this, let me do this and then let me do this and then let me do this. That's breaking down because of the data analytic capabilities that we're bringing to bear. Applying AI, machine learning, or in reality, sometimes just hard math, to solve certain problems, is opening up a wider aperture of how we would manage a patient and then treat them appropriately. And I think. Hell, I don't know, Rafael,  I'm a little worried, I don't think the system is necessarily designed to absorb that next-gen opportunity, right? Because somebody will be like, OK, where do I get the information? Does that go in the EMR? I mean, wait, where is there a code that I can bill for it? I mean, there's these arcane roadblocks that are in the way that have nothing to do with, "I've got this model, and I'm telling you this will work on this patient," right?</p><p><strong>Rafael Rosengarten: </strong>Yeah, I don't know that I'm smart enough to know the solution to that. I will say that there are some really exciting newish young venture-backed upstarts that are interested in disrupting hospital systems, point of care, EHRs. All of that, is fair game, right? It is, as you described, it's just ripe for disruption because it's so, you know, it's so cobbled together, right? You know, I'm thinking about when my wife and I moved from Houston, Texas, to the Bay Area and then we got pregnant with our second child. We wanted to have all of our medical records from pregnancy number one sent from Texas Medical Center, which is one of the shining jewels of health care institutions, to John Muir Health System in the Bay Area, which, listen, they were changing out the wood panels from the 1970s during all of our doctors' visits. And literally, we asked the doctor if he could just print, print something for us. He said, No, I can't do that, but I could write it down on a sheet of paper for you. Like, you know, it's. But that's that's, you know, I agree with you. There are going to have to be changes top down, bottom up, and there's going to have to be hopefully support for this in the regulatory bodies, you know, at the governmental level. </p><p><strong>Rafael Rosengarten: </strong>Where I live and breathe, those is really kind of in a life sciences sector of the health care system. So again, we're interested in in drug development, we're interested in diagnostics, we're interested in drug discovery. And those themselves are kind of big things. So where I think about changes and regulatory and systemic stuff is more along, like, what is the FDA doing to to adopt or adapt to these kind of new technologies? What about standards like how are we thinking about data standards, model standards? Genialis is a founding member of and I'm on the board of directors of the Alliance for AI and Health Care. And this is a really exciting and rather amazing industry organization that was stood up at JP Morgan in 2019. And you know, we've got gosh, I don't know what the headcount, the member number now is, but over 50 member organizations, including the likes of Google and and Roche and bigs like that. Some of the more household names in the smaller biotech community like Recursion Pharma, In Silico Medicine, Valo Health, et cetera. And then and then companies like Genialis as well. Big academic centers. So we have a real great brain trust and we're interested in tackling, I'm going to call them, these hard, boring but incredibly important systemic questions around regulatory and standards and so forth. Health insurance, Medicare, all that stuff is a big fish, and we haven't, you know, we haven't set our hooks in it yet, but you know how hospitals bill and those kinds of codes, we’ll have to have to revisit that at some point, for sure.</p><p><strong>Harry Glorikian: </strong>Yeah, I know that you're a member there and sort of interesting to hear why you got involved in how you see it working. So if you think about the standardization side of this, you know, what is what is the organization sort of advocating for? Because I totally agree with you, but at some point, I think you almost need to reach back towards, how is somebody doing an experiment to make sure that then the data comes out the other side in a standard way, right? Because I used to joke, which sample prep product are you working with? And I could tell you sort of what direction something is going to lean. And that that in and of itself is a problem. So how is AAIHC thinking about some of these problems, I don't know if there's a proposal. What have you guys proposed so far?</p><p><strong>Rafael Rosengarten: </strong>That's a great question. So we have workstreams around things like the FDA, working with the FDA to propose guidance for a good machine learning, practice guidance for software as a medical device, AI as part of software, as a medical device. So a lot of this, it's less concerned with can we rein in and constrain the experimental part? Because again, that's that's a huge world. And maybe it's not really where the constraints need to be. But rather can we come up with a common set of guidelines for how you evaluate the quality of a data set, right? Recognizing the data are going to come in a lot of shapes and sizes and flavors, and even two different RNA sequencing data sets that are produced on different machines or with different kits may have slightly different flavors or tints to them. That's fine so long as you have some guidelines for characterizing those differences, for appreciating those differences and then for knowing what to do with the data, given those potential differences. A lot of the concern around AI in a regulated setting is that, the whole promise of a machine learning approach is that it gets smarter the more data it sees, right? So these should be, these algorithms should evolve in a way they should be living and breathing. But if you have a regulated product that's to work on patients, it's got to work the same every time or, you know, can't get worse.</p><p><strong>Rafael Rosengarten: </strong>So this is, there's a tension here, but it's not unsolvable. It's not insurmountable. For example, you know, a regulated AI doesn't have to evolve in real time. It can be updated over time, right? Right. And it can be it can be locked and then operate, and then you can improve it and update it and redeploy and relock. So building the plans, what are the change plans? How do you demonstrate that the retraining or the improvements are actually improvements? These are the kinds of things that at least we can sink our teeth into today. And then we're also interested in the standards problem. I think the organization is not necessarily going to be dogmatic about recommending exactly what the standards are today, but what we're trying to catalyze those discussions, right? And we're trying to create frameworks where those discussions can actually lead to some actionable tools. And there are examples of organizations that have done this in other fields. So we do have some blueprints. But it's a lot of work. And frankly, that's the privilege of being in the organization. It gives you the opportunity to roll up your sleeves and build the industry of the future, to build the industry you want to operate in.</p><p><strong>Harry Glorikian: </strong>Yeah. And this has got to be in lockstep with the regulatory authorities and everything to make sure that everything is, everybody's on the same page so that when you come up with a golden solution, they're ready to accept it. Because we can't have, you download the latest software for your phone and then it breaks, right? That's not an acceptable update that you can do, right, and somebody has to release a patch to get it to fix. You know, that's that doesn't necessarily... I'm sure it happens in our world, but it's. It's really not what you'd like to see happen.</p><p><strong>Rafael Rosengarten: </strong>Yeah, yeah. You know, I can tell you from having had to invest in a lot of the kind of procedures around clinical reporting in software and so forth, and, working with some really top tier point of care software providers, it's not foolproof. But boy, there are a lot of hoops to jump through, right? Like things do get tested the whole way. And I would just, I would argue, although, you know, let me not be overly full of hubris, that there are plenty of other failure points that are a lot more likely to fail than the AI software that's predicting a biomarker not working in a particular instance, right? Given the room for error in things like biopsy collection and human handling. There's a lot of stuff upstream of that where human error is more likely to play a part. That that may or may not be sweet solace, right. That might not help you sleep at night. But I think that the regulated environment, especially around regulating computational tools, can be rather bulletproof.</p><p><strong>Rafael Rosengarten: </strong>So is there anything else going on that at Genialis that that we would want to know about that and directionally or what's next, that you can [share]?</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, the exciting stuff is really twofold. It's, you know, just going deeper with our partners, right? So clinical development, as I mentioned, is is a long game. And you know, we like to start working before the drugs in the clinic, right? So these are meant to be long partnerships. And the other piece of this is we're doing a lot more internal R&D. A lot more internal R&D, a lot more work with our academic colleagues. And so we're really, really excited to just, you know, to innovate our way out of some of these hard problems.</p><p><strong>Harry Glorikian: </strong>Well, that's necessary in this field, right, you're always going to run into some, I like to call them speed bumps because I don't believe that they're like insurmountable problems, but they're speed bumps that you need to like innovate over or around.</p><p><strong>Rafael Rosengarten: </strong>Mm hmm. Yeah. So, you know, I want to give you something meaty like, you know what to look for from Genialis. So, sometime soon, my hope, knock on wood, is that we'll have first patients enrolled in clinical trials that are the biomarker I described to you earlier. This is the OncXerna trial. First patient enrolled, that's going to be super exciting. It's a Phase III trial and we're going to be stratifying patients with the biomarker. I mean, just the gratification of actually having our technology potentially impacting outcomes is huge. We've got a lot up our sleeves in terms of internal development improvements to Responder ID, but also, you know, some biomarker work we're kind of doing for ourselves, digging deeper into some pernicious problems in cancer that others haven't adequately addressed, in my opinion. And some some exciting partnerships, hopefully around, kind of…. we'll call them data partnerships. We talked a bit about just the scale of the data challenge, though, is it lives all over the place, right? And so there are different ways of getting your hands on it. And one of the ways a lot of companies have gone about is to become the testing companies, right? There are some giants out there that sequence literally millions of patients a year, and they've got big data warehouses, right? We haven't done that ourselves. And so we rely oncollaborations for a lot of our data. Not all of it, but we're building some of these collaborations, and I'm hoping we can talk more about that in future episodes or in other forums.</p><p><strong>Harry Glorikian: </strong>Just for a second, so people understand the magnitude. This Phase III trial, how many how many patients would you say are in it?</p><p><strong>Rafael Rosengarten: </strong>I need to be super careful not to misrepresent someone else's trial. It's going to be on the order of several hundred. You know, it's a properly powered Phase III and it's got two treatment arms. And so, you know, so it has to have quite a number of patients. And that's, you know, I would say that's a typical sized trial of for this stage in this kind of disease.</p><p><strong>Harry Glorikian: </strong>Yeah, I just want people listening to sort of get an idea of like, these technologies are, you know, can affect lots of people and then if that drug comes through and then the technology is utilized afterwards to sort of stratify people or the biomarkers, then there's an even larger population of people that then gets affected by the work that you guys are doing.</p><p><strong>Rafael Rosengarten: </strong>Yeah, yeah. I think that's right. And you know, in a way, you know, our commitment to the sort of biomarker driven, you know, drug development, it's very principled. It's based on this idea that patients deserve to have the best treatment option, right? And there are some amazing drugs out there that when they work, work miracles. But they don't work that often. Right? And some of these drugs have, you know, first line approvals in dozens of diseases. But again, in some of those diseases, they work for half the patients, and that's great. And that's probably how it should be. But in some, they only work in maybe 15 percent of the patients or 20 or whatever the threshold is, because they were better than the alternative, right? But if you could tell which of those patients are going to respond, then at least the ones who aren't can seek other options. Or you know that we've got to develop drugs for the others. So it's very principled, although it's complicated because from an economic standpoint, if you have the ability to sell your drug to everybody, of course you're going to do that.</p><p><strong>Harry Glorikian: </strong>Yeah, look, I drank that Kool-Aid. I mean, Jesus, 20 years ago, right? I mean, you know, why wouldn't you want...I mean, if you were a patient, you'd want the best drug you can get, right? Because the data says that you respond to this particular drug. It's getting the system to that point. And I have seen, I have had stories where the data said one thing. They put the patient on it. They looked like they were responding. A new trial opened up. And somebody suggested that they go on the new trial, even though the therapy was working. And they switched and the outcome was not positive. Right. And so it's one of those things of like, I don't understand. The data clearly pointed in a particular direction and you deviated from that, and that doesn't make any sense to me. As a science person is as well as an investor, if the data is showing something, you better respond to the data or you're not going to be happy with the outcome. It's just seeing that implemented in a way that makes it very actionable for everybody, and they embrace that. That's where I sometimes, I find, you know, the biggest problems. But I totally agree. I mean, I have a whole chapter in my new book about that whole dynamic of why you want the data, how the data impacts you as a patient. What are the sort of questions you should ask, et cetera, because if you don't have that information, you're making suboptimal decisions.</p><p><strong>Rafael Rosengarten: </strong>Yeah. No, and that's absolutely right, I think the point you make there is probably the key one, which is a lot of biotechs and companies like ours, we operate with kind of a world view of our own research and our customers’. But we have to remember that the reason we do this, the reason we get up every day and the reason we toil is it's because we can impact patient lives. And if you actually want to really foment that change, then that subset, that stakeholder, needs to be involved, right? A patient needs to understand what are my choices? And so if a patient comes into the clinic and has a grave illness and the doctor says, well, this is the approved drug, but there's a test that could tell you if there's something else. I mean, if I'm the patient, I want to take that test. I want to know what my options are. And I think that frankly, it's unrealistic to expect publicly traded companies to not try to maximize revenue. That's just kind of the system we live in. But it's also incumbent upon us to to engage patients, to help them understand what their options are, to engage physicians the same and to say, there are multiple approved drugs, maybe, or this is the one, but there are some investigational drugs that haven't been approved yet that may be better fits for your disease. Remember, your disease isn't necessarily the same as someone else who happens to have it in the same tissue. And so I think that's a big deal, and I do think that there are any number of exciting organizations that are really focused, doggedly focused on this point of patient engagement and especially patient engagement around data.</p><p><strong>Harry Glorikian: </strong>No, I mean, I always I tell every one of my guests, “Hurry up, go faster,” because I'm not getting any younger and theoretically like, you know, statistically, I could end up in that place. I want the best that I can get when I get there. So Rafael, I know it's getting late where you are. So really appreciate your time and the opportunity to talk about what you guys are doing and the impact that it's having on not just drug development, but downstream on patients.</p><p><strong>Rafael Rosengarten: </strong>Well, thank you, Harry, for having me, for giving me the opportunity. This has been a lot of fun to connect over this.</p><p><strong>Harry Glorikian: </strong>Excellent. Thank you. </p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and the MoneyBall Medicine show at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can also  find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>At the Cutting Edge of Computational Precision Medicine, with Rafael Rosengarten</itunes:title>
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      <itunes:summary>Genialis, led by CEO Rafael Rosengarten, is one of the companies working toward a future where there are no more one-size-fits-all drugs—where, instead, every patient gets matched with the best drug for them based on their disease subtype, as measured by gene-sequence and gene-expression data. Analyzing that data—what Rosengarten calls &quot;computational precision medicine&quot;—is already helping drug developers identify the patients who are most likely to respond to experimental medicines. Not long  from now, the same technology could help doctors diagnose patients in the clinic, and/or feed back into drug discovery by providing more biological targets for biopharma companies to hit.</itunes:summary>
      <itunes:subtitle>Genialis, led by CEO Rafael Rosengarten, is one of the companies working toward a future where there are no more one-size-fits-all drugs—where, instead, every patient gets matched with the best drug for them based on their disease subtype, as measured by gene-sequence and gene-expression data. Analyzing that data—what Rosengarten calls &quot;computational precision medicine&quot;—is already helping drug developers identify the patients who are most likely to respond to experimental medicines. Not long  from now, the same technology could help doctors diagnose patients in the clinic, and/or feed back into drug discovery by providing more biological targets for biopharma companies to hit.</itunes:subtitle>
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      <title>How To Track The Pandemic Using Mobile Data, With Nuria Oliver</title>
      <description><![CDATA[<p>When the coronavirus pandemic swept across the world in early 2020, Spain was one of the countries hardest hit. At the time, Nuria Oliver was a telecommunications engineer working and living in Valencia, one of Spain's 17 autonomous regions. She’d spent years working for companies like Microsoft, Telefonica, and Vodafone, using AI to analyze data from mobile networks to explore big questions about healthcare, economics, crime, and other issues—so she realized right away that mobile data could be an important tool for government leaders and public health officials trying to get a handle on the spread of COVID-19.</p><p>With the backing of Valencia's president, Oliver put together a team of scientists to analyze network data to understand among other things, how much people in Spain were moving around. That helped them predict infection rates, and to see whether lockdowns were really helping to contain the virus's spread. The team's predictions were so accurate, in fact, that when they entered an X Prize Foundation contest seeking the best AI-based pandemic response systems, they won first place. Nuria Oliver joins Harry to explain how they did it—and why mobile data makes a difference in the fight against the pandemic and other health threats.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>When the pandemic swept across the world in early 2020, Spain was one of the countries hardest hit. </p><p>At the time, Nuria Oliver was a telecommunications engineer working and living in Valencia, which is one of 17 autonomous regions in Spain, the equivalent of U.S. states.  She’d spent years working for companies like Microsoft, Telefonica, and Vodafone, using AI to analyze data from mobile networks to explore big questions about healthcare, economics, crime, and other issues.  And Oliver realized right away that mobile data could be a very important tool for government leaders and public health officials trying to get a handle on the spread of COVID-19.</p><p>She went to the president of Valencia and proposed putting together a team of scientists who could support government decision makers by analyze mobile network data. She thought the data could reveal, among other things, how much people were moving around. That, in turn, could help predict infection rates, and it would show whether lockdowns and other restrictions on people’s movement were really helping to contain the spread of the virus.</p><p>The president immediately accepted her proposal and appointed her to the honorary position of “commissioner to the president on AI and data science against COVID-19.” And as it turned out, the predictions from Oliver’s group were startlingly accurate. </p><p>In December 2020, when the group entered a contest sponsored by the X Prize Foundation for an AI-based pandemic response systems, they won first place and wound up splitting the $500,00 prize with a second-place team from Slovenia.</p><p>And for today’s show, Nuria Oliver joined me to explain how they did it. We also talked about the difference data is making in the fight against the pandemic, and how our phones are helping to keep us healthy. </p><p>We recorded this a couple of months ago, in mid-October. But obviously the pandemic hasn’t receded at all since then, so everything you’ll here is still relevant.</p><p><strong>Harry Glorikian</strong>: Nuria, welcome to the show. It's so great to have you on. I know there's a little bit of a time difference because you're over in Europe right now. But Nuria, I was looking at your background and I was like, Oh my God, I'm like, if I try to go through her entire CV like we're going to, it's the hour of the show is going to like completely go just for the CV. But I wonder if you can sort of give the listeners a quick version of of how your interest in the connection between technology and human behavior has developed over the years. What big themes did you focus on in your various academic and industry posts at MIT Media Lab, Microsoft Research, Telefonica, Vodafone? I mean, those are just a few of the things that you've done. You know, when I when I was think I've done something with my life, I look at people like you and I'm like, I've got so much more to do. But if you could sort of give us that a short version, that would be awesome.</p><p><strong>Nuria Oliver: </strong>All right. Thank you. It's a pleasure to be here. Let's see. So I'm originally from Spain. I studied electrical engineering and computer science in grad school, telecommunications engineering, and since I was very small, I was always fascinated by the idea of being a scientist or being an inventor or being a researcher and discovering something or inventing something new or for answering questions that hadn't been answered before. So I love mysteries and logic problems, and these are difficult things to solve. I wasn't sure how to kind of channel that. And when I studied telecommunications engineering, which was six years at the time, it was like together with a master's or equivalent degree. In my fourth year, I did a project on the parallelism between neural networks and human brain and the human brain and the human sort of like neurons. And it was the discovery of artificial intelligence to me, and it was pretty much love at first sight. I realized that it was fascinating to build technology that could do something intelligent. It sounded like science fiction to me. And I always have had this vision that technology is a great tool that we can use to have positive social impact and to improve the quality of life of people. So this has been my vision since I was also very small. So with artificial intelligence, I thought, Well, if I could build computers that could understand people, that would be the first step to build computers that can help people.</p><p><strong>Nuria Oliver: </strong>So I started focusing on modelling human behavior, and then I went to MIT to do a Ph.D., and that was the main focus of my work. So I built one of the first facial expression recognition systems in the world that was working in real time, or I made an intelligent car that could predict the next maneuver that the driver would do. I participated also in the first smart clothes fashion show in the world in 1997. So it was really an exciting time to be at the Media Lab, and I had a chance to develop new models of different aspects of human behavior. Then I went to Microsoft Research and I continued my work on that topic. I built an intelligent office. I did with a colleague, a system similar to the Minority Report, where you could control the computer. You see your hands in the air. And in 2005, I realized that I had spent a decade building, you know, smart computers, smart cars, smart rooms, but even at the time, the most personal computer was the mobile phone, and it probably was going to be the mobile phone. And I felt that, you know, we weren't really leveraging the opportunities that the phone was bringing to us in terms of helping us.</p><p><strong>Nuria Oliver: </strong>So I decided to explore that topic, and I started working on projects related to the intersection between mobile phones, health and wellness. So I did a project to detect sleep apnea on the phone. I did another one to help people achieve their exercise goals using what is called persuasive computing, which are sort of like theories of human motivation and psychology, but implemented like on the phone to encourage people and motivate people to change behaviors. I got the offer to move back to Spain at the end of 2007 and never thought I was ever going to go back to Spain, but it seemed like an interesting opportunity to create and lead a research area within a very large telco, Telefonica, the largest telco in Spain. And with my family, we decided, okay, let's try. So we move to Barcelona, and the challenge was to create a top research team from scratch in a topics that were not the traditional telco topics at the time. At the time telcos were sort of like networking companies, right? And I was doing, you know, big data, you know, data science, artificial intelligence topics that today are at the core of what a telco company is. But in 2007, it wasn't really the case yet. So so we continued working on on on two streams on the one hand, making phones the serve their name or of a smartphone, basically.</p><p><strong>Nuria Oliver: </strong>So we did a project to help people take their medication correctly, for example, and support medication adherence, particularly in the elderly. But the other strain was a new stream for me, which was because of working in a telco, we could have access to large scale, anonymized mobile network data. So data about an entire city or an entire country, fully anonymized, you know, fully non-personal data and that data transfer that is very valuable for social good. For example, when there is a natural disaster or when or to infer the socioeconomic status of a region or to understand crime and predict hotspots of crime in cities, or to help when there are pandemics. So those are all areas that I started developing and exploring while at Telefonica, and I created the area of data science for social good. I was in Telefonica for eight years and then they offer. I left Telefonica and I joined Vodafone as director of research in data science globally. And again, the challenge was similar to create from scratch research activities across, I don't know, 20 different countries in Vodafone. I also created the area of data science for social good. And then I left Vodafone. But I continue with a connection with Vodafone because I'm still chief scientific adviser to a think tank that Vodafone has in Berlin.</p><p><strong>Nuria Oliver: </strong>Since 2015, I had, while I was at Telefonica, I had also gotten involved with an NGO, which is based in the US, which is called Data-Pop Alliance, and it has been created by the MIT Media Lab, the Harvard Humanitarian Initiative, the Overseas Development Institute and Flowminder. And the goal is how to leverage data and AI for social good. So it was very aligned with what I had been doing, so I've been collaborating with them in parallel, developing a lot of projects in developing countries in showing the value that data analyzed with AI methods can have to actually accelerate development of a lot of regions. Then in 2018, I became very involved with a very exciting European initiative called ELLIS, which means the European Laboratory for Learning and Intelligent Systems, and it is the result of a grassroots movement of the European scientists. And our goal is to contribute to Europe's technological sovereignty in AI by attracting and retaining the best scientists in AI to Europe. And to do that, we need to, you know, change a little bit how things are done in Europe, and we've launched a number of actions and activities that we can possibly talk about later. And then finally, in March of 2020, given that I had been working for over a decade on how to use data and AI for social good, including how to use it in the context of infectious diseases and pandemics, I felt that for the SARS-CoV-2 pandemic, for the coronavirus pandemic, the governments weren't going to use all these advances that we had made in science, in actually analyzing data, using AI methods to support decision making.</p><p><strong>Nuria Oliver: </strong>So I felt that maybe it was a missed opportunity once again to actually have this disconnection between where science is and where sort of like the real world are and the decision makers are. So, I had an idea in March of 2020, which was proposed, my idea was to propose to the central government and also to the state, the state government, Spain is divided into 17 autonomous regions, which are the equivalent to a state in the US, and they have presidents which is equivalent to governors in the US. So I proposed to the president of the region the idea of having a team of scientists working really closely with the decision makers in sort of like performing relevant models and data analysis that would support their decisions. And they said yes immediately and the president of the Valencian government, and they appointed me commissioner to the president on AI and data science against COVID 19, which is an honorary position. And basically I have been leading a team of 20+ scientists in there since then, working on on four big areas and the intersection between data AI and the pandemic.</p><p><strong>Harry Glorikian: </strong>Yeah, I was, you know, it's interesting that you say they don't always take advantage of things. I remember. I have to go back in my memory 20 years ago, actually, because it was right about the time my son was born, I pitched to Telefonica about location-based services. And at the time, it was almost impossible for people to wrap their head around this idea, that location intertwined with data, and giving somebody the information they were looking for to help them make a decision was going to be a, now what is it? You know, it's a billions and billions of dollars of an industry, but at that time it was people couldn't wrap their head around it. So I think if you're ahead of your time, it's always it's always difficult for the average person to sort of understand where things are going.</p><p><strong>Nuria Oliver: </strong>Certainly. Certainly this is certainly the case. And I think the case of our experience in Valencia, we were lucky that there was sort of like a confluence of factors that really enabled this initiative to not only to happen, but to actually be sustained over time for almost two years now, or a year over a year and a half. And to have a certain level of impact and success. And I think one of the elements was the government had already been working for a couple of years prior on the Fourth Industrial Revolution, the profound transformation of our society because of disciplines like biotechnology, nanotechnology or artificial intelligence. They had published their study on artificial intelligence. They had realized that the public administrations haven't undergone the digital transformation that most companies, particularly large companies, have already undergone, and they recognize that there was this opportunity to transform the public administration and become more data driven would become more digital. So I think when I made this proposal, they were in the right mindset and they were already thinking about this. And there was also a relationship of trust with me because I had collaborated with them in drafting the AI strategy.</p><p><strong>Nuria Oliver: </strong>And they they knew that it was a serious effort. They knew that we were going to try to do our best. So I think there are all these different elements that that really helped. And then there was one director general, well there is still there, working for the president who actually comes from the U.S. She's Spanish, but she spent a lot of time working in the for the mayor of New York City. So she had a lot of the same mentality that I had as he was a little bit of an agent of change within the government. She's been a member of our team since the beginning, coming to every single meeting, and that is absolutely necessary because they are the ones that are going to benefit from whatever we do, and they're the ones that need to use it. So they need to see the value and they need to understand it. So I think it's very important to have this sort of like mixed, multidisciplinary, multi-institutional teams.</p><p><strong>Harry Glorikian: </strong>So I mean, I applaud them for seeing that because if you have ever watched our Congress or Senate interview technology people,</p><p><strong>Nuria Oliver: </strong>Yeah, I've seen it, it's famous.</p><p><strong>Harry Glorikian: </strong>It's quite fascinating. Some of the questions where you know, you realize they know so little about. These technologies or their impact and don't understand like. All of these things are like you should be looking at them as nuclear weapons, how do you use them, how do you manage them, how do you use them for good? How do you put things in place to protect people, right?</p><p><strong>Nuria Oliver: </strong>Yes. And the other important message is, I don't think it is acceptable for any policy maker or any representative of citizens to publicly acknowledge, "Oh, I don't know anything about technology." I don't think that is acceptable because technology permeates everything, every single aspect of our lives. So it's it's such a fundamental element of our society that you need to know a lot about technology if you really want to make the right decisions about any topic, absolutely any topic, right? So I think that's definitely something that at least in some governments, they recognize that there is a need for identifying new profiles to work in the public administration, creating new positions, more tech savvy positions, data scientists, but also educating the policymakers and doing courses on on relevant topics related to technology. I think this is very, very, very important.</p><p><strong>Nuria Oliver: </strong>So let's pivot now because I think all of this technology came really in to a lot of good or use when COVID 19 came along. All right. So you know, you one of the data I think you collect in Valencia is mobile data, right? Exactly. Understanding how this data helped you understand and manage the course of the pandemic, can you talk about that a little bit because I think that that's important for people to understand.</p><p><strong>Nuria Oliver: </strong>Yes, so we had four large work streams in this data science for COVID-19 initiative, and the first one was modeling large scale human mobility. Why? Because an infectious disease like COVID-19 that is transmitted from human to human, it doesn't become a pandemic if people don't move. And that's why we have been confined, right? Because it's our movements, the ones that are propagating the disease. So understanding how people move, determining if the confinement measures are working or not, is very important to make the right decisions and the right policies.</p><p><strong>Nuria Oliver: </strong>So there was another lucky factor that I didn't mention, but that has really been very helpful in Spain and is the following factor. For two years prior to the pandemic, the Spanish National Office of Statistics had been drafting a collaboration agreement with the three largest telcos in Spain, which are Telefonica, Vodafone and Orange.</p><p><strong>Harry Glorikian: </strong>Mm hmm.</p><p><strong>Nuria Oliver: </strong>So. So let me rewind a little bit. So part of this transformation that we mentioned of society because you know of the Fourth Industrial Revolution, you know, an artificial intelligence part of this transformation is actually impacting the National Office of Statistics of everyone in the world where the traditional methods to build official statistics, which are via surveys, are susceptible to being improved, leveraging pervasive technology and sort of like big data. So there is a global movement in every National Office of Statistics, in pretty much of every country to explore how they could build official statistics through the analysis of data automatically without having to do surveys, because it's very expensive and it doesn't really scale. And that is why there is only one census every 10 years or 15 years, or in some countries, 40 years, because it's just very expensive to do the census. So the Spanish National Office of Statistics, one of the statistics that they compute is commuting patterns, and they do it by doing surveys. And they thought, OK, maybe we can collaborate with the telcos and analyze aggregated data from the antennas, from the cell phone antennas to infer these mobility patterns automatically without having to do surveys. So that was a very long process of negotiations and getting all the approvals under the data protection agencies and from the legal departments of all these telcos, blah blah blah. So that took them a huge amount of time. So in November of 2019, right before the pandemic, they got all the okays necessary, and they launched the pilot to see how well they could create commuting matrices from this data that was actually a relatively controversial project.</p><p><strong>Nuria Oliver: </strong>It appeared in the media. It wasn't communicated very well because they were saying the National Office of Statistics is tracking you, which is completely wrong. They weren't tracking anyone. But anyhow, when the pandemic happened, they already had all the infrastructure in place and all the legal agreements in place to actually get access to the mobile network data from the operators and combine the data and compute mobility matrices out of the data so that that mobility piece that we did was relatively easy in the sense that the data access was already available. So the vice minister, the vice president of Spain, Calvino, she appointed us the pilot region to be able to use that data during the first wave of the pandemic, at a time when there were really, there was almost no data and it was very hard. We were making a lot of decisions kind of blindly. So through the National Office of Statistics, we were able to access that data and then identify and measure to which degree the confinement measures had impacted the mobility of the population. How successful the stay at home campaign was, how much labor mobility was impactd, h ow was the radius of movement reduced because of the measures? But also what was the impact of those measures on the spread of the virus? Because at the end, you also want to know, OK, is this really slowing down the spread of the virus or not? Right. So we were also able to do that. Yeah.</p><p><strong>Harry Glorikian: </strong>So but now you carried out a large scale survey of the people in Valencia. And so when you look at survey data compared to mobility data, how do you think about that?</p><p><strong>Nuria Oliver: </strong>Yeah, so so the first line of work was the mobility analysis. Then we have two more lines, one which might we might talk about later. One is the computational epidemiological models, the other one was predictive models. And then the fourth line was a citizen survey. And why did we launch this citizen survey? So we launched the survey because in March of 2020 and even today, there were a lot of questions that we couldn't answer. We didn't have any data sources. For example, what is the social behavior that people have? What is the emotional impact of the pandemic. What's the resilience of the population toward all these measures. Are there tests, are people being tested. What is the prevalence of symptoms? Was the labor impact, the economic impact? What kind of protection measures are people taking? How are people moving? Are they leaving their homes, or are they taking public transportation? I mean, there were so many interesting questions that we couldn't really answer, so we decided to ask the people to say, Well, let's just draft, let's design the shortest possible survey that would give us the most information about people's behaviors and perception and situation during the pandemic. So we came out with 26 questions, which we translated to many different languages and the surveys deployed in different countries in the world.</p><p><strong>Nuria Oliver: </strong>It has almost 700,000 answers right now. And one of them is in Spain, evidently. But we also have a very representative sample of in the, I think, in the almost 100,000 from Germany, Italy, Brazil, and the survey has been regularly used by the media, by the policymakers, but also by people to have a sense of how we are doing. So I think the survey has different angles to it. One element is giving a voice to people. You know, I think we have been subject to a lot of measures that have happened to us, but we as citizens haven't had a lot of opportunities to really tell how we were doing and how the pandemic was impacting us and on our fears or what we were thinking. So the survey is a way to listen to to the people and to give them a chance to tell us every week how things are going. It's also an incredible tool to really connect the citizens to the policymakers so they understand, for example, what's the intention to get vaccinated. You know, we know since April of 2020, for example, that the most impacted group emotionally, psychologically is the youth.</p><p><strong>Nuria Oliver: </strong>So the government can think, OK, we need to invest in programs for the youth. But we know that since April of 2020, it's not that we know it now. We know it for over a year and a half from now. So there's a lot of things that we know, you know, for many, many, many months. So that has been incredibly helpful. So the survey is completely complementary to the large scale mobility data. We do have a little bit of mobility information because we ask people their transportation means because we wanted to see people were walking or they were driving individually or they were taking public transport. And we did observe where public transport was kind of shut down for a few weeks or months, there was a huge increase in walking. During the first lockdown, especially. And then there was there wasn't really a big use of public transportation until probably the fall of 2020 or even like the spring of 2021. So, yeah, we did have a little bit of mobility information, but very complementary to the large scale mobility that we could analyze with their mobile data.</p><p><strong>Harry Glorikian: </strong>Yeah, I think this this sort of way that the government or your group is interacting with the people to sort of get this information. I mean, I think that's a more organized and statistically significant way than Facebook or Twitter or any of these other big rooms that you can yell in, right? So, you know, it adds to the discussion.</p><p><strong>Nuria Oliver: </strong>Yeah. I mean, we invested a lot of thought and a fair amount of time. We think the fact that we had no time because we had to react really quickly. But I think if we if we started this effort in mid-March, right, right at the very, very, very beginning of the pandemic. And I think we launched the survey March 28th. So we had about 10 days. Yeah, we're very fast, but we really thought a lot about it. We spent I mean, we worked all day, all night, all the time. I mean, there was nothing else to do anyway. So I mean, we were just sort of like working, working for...I mean, I have three children, too. But we were really working. And my husband also got very involved in this. So it was kind of like a family effort and we invested a lot of time in designing the survey so the questions were really, would be the most helpful possible and sort of like complimentary to the other data sources that we had. And I think that was relatively successful. I mean, it's definitely been very helpful to many different people. We built very quickly visualization tools of all the answers to the survey so anyone can access them, anyone can look at them. And that was very important so everyone can benefit from the answers.</p><p><strong>Harry Glorikian: </strong>So in a pandemic, what can you--if you said, "Oh my God, this these were the, you know, two or three things that we were able to influence," based on this technology integration or information that we were able to provide policymakers that made the biggest difference.</p><p><strong>Nuria Oliver: </strong>Well, I think there are different levels. I think we had the impact at different levels, so the mobility analysis was extremely helpful for the government to really understand to which degree the lockdown and the measures had worked. And They really appreciated that piece of work a lot. The computational epidemiological models, which we haven't talked about yet, but is basically we've been building models to predict the number of cases and the number of hospitalizations and the number of intensive care units and the number of deaths throughout the entire pandemic. And we've built different types of models because one of the take-home messages here is, of course, the underlying reality is extremely complex and it's not a purely deterministic system. Evidently, the world is really, really hard to model. So if we build models that are completely different in their approach and they give us similar predictions, we can be more certain about those predictions than if the models each of them says something different. So we have three different models running all the time with completely different methods like to really see to which degree, you know, they are aligned. So our predictions have been used. I mean, I've been I've been writing reports for many, many months every day with the predictions of the day. So, so they could have a sense of how things were going, how fast the cases were going to be growing and things like that.</p><p><strong>Nuria Oliver: </strong>So that was particularly helpful. I would say in the third wave, which took place after Christmas, and it was the worst wave here in the Valencia region. And it was very helpful because at the time we had just finished our third model, which was using deep neural networks and is a model that we use in the X Competition. And that model predicted extremely accurately the day of the peak of the number of cases and the number of cases at the peak. And it was very helpful because it was a very stressful moment where the cases were growing exponentially. There was a huge amount of tension as to whether to implement more measures or persist with these measures or change the measures or what to do. Because the number of cases were growing, the deaths were growing and they placed a fair amount of faith in our model, maybe more than I would have placed because I was just like, Oh my God, I hope this model works really, really well. But you know, there's this moment where you are thinking, Oh, I don't know. Maybe I mean, this is just a model, you know, the world is more complicated.</p><p><strong>Harry Glorikian: </strong>Exactly.</p><p><strong>Nuria Oliver: </strong>So that was that was very helpful. At the same time, we also build machine learning based, deep neural, network based prediction models of hospital occupancy and intensive care occupancy that was extremely helpful to allocate resources and to figure out which hospitals were going to be saturated and to to anticipate that and to determine whether they needed to mobilize more intensive care units and things like that.</p><p><strong>Nuria Oliver: </strong>And then, as I mentioned, the survey has been helpful, I would say, all throughout the pandemic to really understand the needs of the people, to understand the sort of like the impact of the pandemic on people's lives and and to determine what would be the areas of priority for new policies. So I think the different work streams have had different impacts, but I think that is a broader impact, which is probably the most important, maybe, which is the impact of showing a different way of working, a way of working that is a lot more data driven. That is more technological, that is very, very different to the traditional approach. And seeing that with with a clear example for a very long time and seeing the value that this way of working has brought, I think has been the best way for them to realize what they might be missing if they don't undergo, you know, the necessary digital transformation.</p><p><strong>Harry Glorikian: </strong>Can you have them come over here and talk to our guys? I think you need to have to come here and talk to our guys.</p><p><strong>Nuria Oliver: </strong>I think you would need also internal advocates.</p><p><strong>Harry Glorikian: </strong>I think that I think there's a lot of those. I think there are there are a number of people internally right that that want to you just need to. I think people who sit in powerful positions need to understand the implications and the impact of this,</p><p><strong>Nuria Oliver: </strong>And they have to accept they have to accept that the data might not tell something that they want to hear. I mean, there is also the risk of of losing control in a sense, right? Because the data could say that the policy didn't work, you know, something that maybe you really believed in and you really push for it and then it's like, OK, sorry, but this is not working right and you have to be.</p><p><strong>Harry Glorikian: </strong>But that's, you know, that's part of the that's part of the whole, you know, scientific method. You have a hypothesis, you go test it. And if it didn't work to come up with a new hypothesis, right? I mean, that's that's the way it should be. And you know, in reality, I have this debate with people. </p><p><strong>Nuria Oliver: </strong>The political world is not exactly like that.</p><p><strong>Harry Glorikian: </strong>But I think this sort of decision making is not just from a policy perspective, but it permeates, all the way through. I mean, I have this debate with a lot of people in the medical world of, it doesn't work. It's making the wrong mistake. It's biased. I'm like, it's always evolving. This is software. It's like every day it's getting better. It doesn't sleep, it can get better the next day. So a year from now, it can be an order of magnitude different than it was, you know, when it started. So. But </p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i> It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for The Future You by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>You mentioned the X Prize and you guys won the X Prize. And you split that prize with, you know, people in Slovenia. So did you have some programmers there or did you…</p><p><strong>Nuria Oliver: </strong>No, no, no. There was a first prize and a second prize, and we won the first prize and they won the second prize.</p><p><strong>Harry Glorikian: </strong>Oh okay, okay.</p><p><strong>Nuria Oliver: </strong>So there were first, first, I guess first winner and then second the people there stayed second. Yeah, so.</p><p><strong>Harry Glorikian: </strong>So how did that impact? How did that impact, you winning that, did that impact the way that people thought about the model?</p><p><strong>Nuria Oliver: </strong>I think I think it gave us a lot of legitimacy and, you know, a huge external validation because we had been I felt we had been doing very, you know, rigorous solid work for many, many months. But of course, it was constrained to the Valencia region, maximum to Spain and then the X Prize Challenge asked us to build predictive models of the pandemic in 236 countries and regions in the world. So it was a step up, you know, from what we had to do. So I think I think it definitely gave a lot of like external validation to the work. I think I find it a very inspirational story. I never thought we were going to win. I was a little bit the devil's advocate in the team. When I share with the team this idea, this opportunity of the of participating in the X Prize competition, but it was more like a teaser. I didn't think that they were going to actually decide to go for it. And I and I told them many times, Look, guys, guys and girls. I mean, this is, you know, this is a different level. I mean, this is a global competition. You know, if we go for it, we are going to have to work even harder than we have been working all over Christmas and New Year's and everything because the competition started at the end of November. I think it was a very beginning of December. And, you know, and I think we should try our best. I mean, if we go for it, we go 100 percent you. We just don't sort of go, Yes, this is, let's do it. Let's do it.</p><p><strong>Nuria Oliver: </strong>So we kind of jumped into the pool like the X Prize and. Uh, and it was incredible when we won, I couldn't believe it. It was to me, it really shows that there is talent anywhere and everywhere. And many times what fails is not even the talent, it's actually the environment where this talent is.</p><p><strong>Harry Glorikian: </strong>Correct.</p><p><strong>Nuria Oliver: </strong>If it is not an environment that supports the talent and that encourages the talent and that empowers the talent, that talent is like a little seed, right? And we don't have an environment that enables this seed to grow, it just stays on the ground there, you know, not growing. And I think the entire initiative and particularly the X Prize competition, was this sort of environment where, you know, anyone could win. Everyone was in equal conditions and in our team, our team is extremely sort of like a very flat structure. There are students and there are full professors and everyone contributes equally and anyone can do anything you know is very sort of a hands on, you know, very sort of like a start up. And I think that was a big change from the traditional, well-established, somewhat bureaucratic research processes that prevailed in many institutions, right? Where there is a hierarchy from the full professor to the student. And, you know, many times the students feel that they cannot even do some idea that they might have because they have to be asking for permission, you know. So I think for me, it was also this inspirational story on saying, Well, you know, anyone could win any of these competitions, you know, if the environment,</p><p><strong>Harry Glorikian: </strong>Environment and you know, geography, I always joke. I always say, like, if you're in the West Coast or you can fail multiple times, you come to the East Coast, you've got to fail a lot less and it depends on which college or university you graduated from. You go to Europe, you fail a lot less because your family and everybody around you will not be happy, right? It's depending on where you are, right? You're willing to take more or less risk. And then, of course, that can be superimposed on the organization that's also creating that environment. But let me jump now and say, you know and ask. You guys in Valencia have like a 90 percent vaccination rate, which I think is one of the highest in the world, much higher than the U.S. by far. I'm comparing a region to a country, but. What what do you think accounts for this? The differing levels of a compliance. Do you think the people in Spain are just more trusting of the medical establishment? I mean, you guys have Facebook too, so the same misinformation is getting to you. That's getting to us. Are they more trusting of technology?</p><p><strong>Nuria Oliver: </strong>I think there are multiple factors. I think one very important factor is that fortunately, the pandemic wasn't really overly politicized and anyone from any political inclination or party or view, you know, was adopting measures, was wearing masks, you know, was willing to get vaccinated. So there was there hasn't been this coupling that has happened in many countries between the pandemic and your political views. I think this has been completely orthogonal issues in Spain. You know, the pandemic impacts everyone. The pandemic doesn't care if you are right wing, left wing or center. Yes, the virus is going to infect you the same. It doesn't matter what you believe, you're going to get it. Maybe you don't believe in me but I'm going to infect you. So I that has that has definitely helped a lot. The other issue is Spain didn't have a strong anti-vax movement to start from. There is definitely a lot of trust in the medical system. Spain has universal healthcare for free, so you get the best medical care in the world, pretty much for free, you know, cancer treatment, the best cancer treatment. Everything is for free in Spain, and there is a big trust in the system that is a big trust in the doctors and and and people really love the Spanish medical system because they see that it saves a lot of lives, you know? They see that it helps them and is free.</p><p><strong>Nuria Oliver: </strong>So there isn't really clear economic incentives associated to health care because it's a right that people have. So I think that was another element the element of trust, the element of really trusting the system of the system being free and people realizing that, you know, health care is fundamental for a healthy society and everyone sort of like compliant. So we have the lack of politicization, the fact that we didn't have a strong, anti-vax movement initially, the fact that the health care system, you know, is very trust is trusted a lot and it's for free and people really appreciate it. And then we also have the fact that Spain is a very has a very strong group, whole sort of like group culture where conformism to the group is very important in Spain, as opposed to other cultures where they might emphasize more the individual and individualism. Spain is more of a kind of collective culture in that sense. So as soon as there was a minimum critical mass of people vaccinated, it just became an act of pride to be vaccinated and belonging to the group, you know, and sort of like complying with the group and. And I think that was also a factor.</p><p><strong>Nuria Oliver: </strong>So combining all of this, yeah, we are one of the countries with the highest vaccination rates in the world and we don't really have anti-vax movements like other countries have had or have still. And I think people, you know, you have to also remember that Spain was one of the worst impacted countries in the first wave. So the virus is very real to everyone. I would say everyone knows someone that has had COVID or has died from COVID. So I think as opposed to in other countries or regions in the world where the virus may seen something almost like theoretical because it hasn't been next to you, you don't know people infected. You might think, Oh, I don't know, I don't know anyone. So maybe this could not be real, right? Spain has been very, very real because the first wave was horrible here. And, you know, Spain and Italy were like the most impacted country for a long time. So I think that also has made the pandemic extremely real in Spain since the very, very beginning. And seeing the suffering, seeing people dying, seeing your relatives being in intensive care, you know, has really made people think, Oh, it's not, it's a no-brainer for me to get vaccinated. I don't want to go through this.</p><p><strong>Nuria Oliver: </strong>I don't want anyone from my family to go through this, don't want to infect other people. So I think there is also this element of of having really endured a very, very hard first wave of of of really, really shocked the society and people collectively feeling, OK, we need to defeat this virus together. We need to do anything we can to minimize the impact that is having in our society. So I think there are different reasons, you know, like anything. It isn't a simple answer, right, but there is a confluence of factors...</p><p><strong>Harry Glorikian: </strong>I wish.</p><p><strong>Nuria Oliver: </strong>...that I think have played in our favor in terms of of the pandemic. I mean, the levels of vaccination are extremely high, but also the life is going back to pretty much normal now. I mean, we there is a lot of activity. I mean traveling, a lot of traveling. We had a lot of tourists this year this summer. Spain kept the schools open the entire school year last year. I think that was extremely smart to do. So that was also very positive in terms of not disrupting the lives of the children and the teenagers, which are some of the most affected demographic groups. So, so yeah, so I'm proud that that actually the response has been like this in Spain.</p><p><strong>Harry Glorikian: </strong>So going back to the technological part, do you do you think that phones will be more useful tools for epidemiology or personal health in the next pandemic? And what have we learned that will help us be smarter about how we use [technology]?</p><p><strong>Nuria Oliver: </strong>Yeah, so I think. So I think so there's a difference between phones and the mobile network. Ok, so what we analyzed was data from the mobile network, not from the phones themselves. This is important to clarify because the mobile network is the data captured at the antennas. Correct. That that are all over the geographic space that are the ones providing the cellular connection. So I think that that has proven in many, many cases for many, many years, very valuable, both in developing economies and in developed economies. Then the phone itself, I think the impact this pandemic has been. I would say varied. So the detailed contact tracing, I don't think it has been successful, at least the data that we have from the survey is that in Spain, it didn't really work at all. We didn't advocate for it because based on our research and we didn't think that that was the most important thing to do at the time. We knew since the beginning of the pandemic that roughly 50 percent of the people 59 years old or younger could not self-isolate if they had to. So in what is called TTI Control Strategy, which is trace to know whom to test, to know whom to isolate, if people cannot isolate, there is no point in tracing them and testing them because they're going to be infecting everyone else if they can't isolate? So I think, you know, investing in infrastructure to help people self-isolate and providing support to people so they can self isolate.</p><p><strong>Nuria Oliver: </strong>And it's not a huge burden to them was also very important to enable, you know, everyone to do a proper quarantine. I think there has been quite it's been quite successful actually the part of using the phones for entering symptoms. Many, many people answered our survey on their phones. I would say everyone, pretty much everyone answered a survey on the phones having some sort of like some digital, you know, certificates for vaccinations and things like that. I think that's probably more helpful. They have projects and using the sensors on the phone to diagnose COVID 19 from the... patterns or the coughing patterns. So I think the phone can also be used as a tool for sort of like a screening tool, maybe more than a diagnostic tool. And of course, it can be used for telemedicine as well, particularly in situations where you are. You can leave your house, you know, or you can't really go so. So for quite a few months, actually, the provision of care for non emergencies, non serious issues has been over the phone actually, and in many cases, is the mobile phone. So I think…</p><p><strong>Harry Glorikian: </strong>Which brings me, I have another question for you, though, because based on that is. Separate from the pandemic, because hopefully it's waning and we can get on with our lives. Do you have any ideas you want to pursue in the area of personal health and health care delivery?</p><p><strong>Nuria Oliver: </strong>Yeah, well, there's one idea that I've been trying to do for seven years, but I haven't been able to get around to it yet, which is a project that I call Mobi-well and it's a project that is really the hope is to really shed quantitative light on the interplay between the dependency that we developed towards our phones and our well-being. So I'm very interested in really understanding what are the implications of the fact that we can't live without our phones and our own well-being. I think the phone is an incredibly powerful tool to support our well-being and to help us in many ways, you know, for chronic disease management, for, you know, as I mentioned, the pressures that I mentioned in terms of helping us change behaviors that we want to change, you know, to exercise more or to sleep more or to drink more water or whatever we want to do. The phone is a great ally. It can be a great ally for as a screening tool for different diseases, as an early detection tool. Also for certain diseases. But we cannot obviate that we are addicted to our phones and that we have a dependency towards our phones. So I am also interested in understanding what are the health implications on the wellness implications of such an addiction and such a dependency, particularly in the younger demographic groups. So that's one project that I'm very interested in. I'm also. We are also working a lot in and the ELLIS Alicante Foundation that I just created on the ethical implications of AI.</p><p><strong>Harry Glorikian: </strong>Yes.</p><p><strong>Nuria Oliver: </strong>Implications such as the computational violation of privacy or the lack of veracity or the opacity or the manipulated subliminal manipulation or behavior discrimination, algorithmic discrimination. So a lot of these challenges, you know, we can test them on the phone and we can also explore and develop innovative algorithms that would have guarantees for non-discrimination. Or, you know, that would be privacy preserving. And we can do studies on the phone to see if that is the case. So I think it's also a great tool for human behavioral studies and for what it's called computational social sciences.</p><p><strong>Harry Glorikian: </strong>I mean, if we could just get Facebook to open its data to you?</p><p><strong>Nuria Oliver: </strong>Oh, yeah, I would love that.</p><p><strong>Harry Glorikian: </strong>Yeah, I'm sure that we could see a lot.</p><p><strong>Nuria Oliver: </strong>Yes, definitely. Absolutely. I mean, you see what's happened with the latest, you know, revelations about some of the Facebook research. So so yeah. But I do think more research is needed to really understand this very complex interplay between ourselves, our wellbeing, both mental wellbeing and physical wellbeing and on the technology that we use. And it's an area that I'm very interested in.</p><p><strong>Harry Glorikian: </strong>My new book is all about that direction, which is how can you utilize technology to live a healthier life. Or is one of the gentleman that I interviewed once said a better health span, not just a life span.</p><p><strong>Nuria Oliver: </strong>Yeah, yeah, exactly. Yeah. So I mean, I've devoted my life to inventing and exploring and developing technology to somehow improve the quality of life of people in some way. But I think it's also time to really understand in a rigorous way, you know, what is the impact that that technology is having on our lives, not technology that is explicitly designed to support our well-being, but the the technology that we use on a daily, you know, on a daily basis, you know, the the services and the applications that we use every day for any purpose, you know, not specifically for health care purposes.</p><p><strong>Harry Glorikian: </strong>Yeah, I think you were chosen, you were on the TR100 list, if I remember correctly.</p><p><strong>Nuria Oliver: </strong>Yeah.</p><p><strong>Harry Glorikian: </strong>And so you always wonder, like how well did the TR100 ed predict correctly? And it seems that they at least in your case, they got it. They got it right on the impact that you would have on the world.</p><p><strong>Nuria Oliver: </strong>Oh, thank you. Yeah, that was really. I have a very nice memory. You know, I got my PhD from M.I.T. So getting this recognition for the MIT Technology Review was really, really nice. And I think it was I was the first Spanish person to get it. So that was also really nice in terms of Spain, because I think, you know, it might have helped other scientists from Spain to, I don't know, be considered or for this award. So, yeah, so I have very nice memories, very fond memories of the event. They are</p><p><strong>Harry Glorikian: </strong>So well. I can't thank you enough for staying up later, or, you know, it's actually late afternoon your time and participating today and sort of giving people who are listening an insight of how technology can make such a profound impact on managing pandemic and keeping people safe and communicating the right information to them. It's huge. And so I hope that people hearing this can take the lessons from our discussion, and you never know people may end up reaching out to you because of it. So I hope that all this, you know, moves in a positive direction. So thank you so much for being on the show today.</p><p><strong>Nuria Oliver: </strong>It was my pleasure. Thank you so much for the interest. And yeah, it's been a really lovely conversation, so I thank you also. Also Linkedin for establishing the connection between us. Thank you.</p><p><strong>Harry Glorikian: </strong>Excellent.</p><p><strong>Nuria Oliver: </strong>Thank you. Ciao. </p><p><strong>Harry Glorikian: </strong>Ciao.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 21 Dec 2021 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Nuria Oliver, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>When the coronavirus pandemic swept across the world in early 2020, Spain was one of the countries hardest hit. At the time, Nuria Oliver was a telecommunications engineer working and living in Valencia, one of Spain's 17 autonomous regions. She’d spent years working for companies like Microsoft, Telefonica, and Vodafone, using AI to analyze data from mobile networks to explore big questions about healthcare, economics, crime, and other issues—so she realized right away that mobile data could be an important tool for government leaders and public health officials trying to get a handle on the spread of COVID-19.</p><p>With the backing of Valencia's president, Oliver put together a team of scientists to analyze network data to understand among other things, how much people in Spain were moving around. That helped them predict infection rates, and to see whether lockdowns were really helping to contain the virus's spread. The team's predictions were so accurate, in fact, that when they entered an X Prize Foundation contest seeking the best AI-based pandemic response systems, they won first place. Nuria Oliver joins Harry to explain how they did it—and why mobile data makes a difference in the fight against the pandemic and other health threats.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>When the pandemic swept across the world in early 2020, Spain was one of the countries hardest hit. </p><p>At the time, Nuria Oliver was a telecommunications engineer working and living in Valencia, which is one of 17 autonomous regions in Spain, the equivalent of U.S. states.  She’d spent years working for companies like Microsoft, Telefonica, and Vodafone, using AI to analyze data from mobile networks to explore big questions about healthcare, economics, crime, and other issues.  And Oliver realized right away that mobile data could be a very important tool for government leaders and public health officials trying to get a handle on the spread of COVID-19.</p><p>She went to the president of Valencia and proposed putting together a team of scientists who could support government decision makers by analyze mobile network data. She thought the data could reveal, among other things, how much people were moving around. That, in turn, could help predict infection rates, and it would show whether lockdowns and other restrictions on people’s movement were really helping to contain the spread of the virus.</p><p>The president immediately accepted her proposal and appointed her to the honorary position of “commissioner to the president on AI and data science against COVID-19.” And as it turned out, the predictions from Oliver’s group were startlingly accurate. </p><p>In December 2020, when the group entered a contest sponsored by the X Prize Foundation for an AI-based pandemic response systems, they won first place and wound up splitting the $500,00 prize with a second-place team from Slovenia.</p><p>And for today’s show, Nuria Oliver joined me to explain how they did it. We also talked about the difference data is making in the fight against the pandemic, and how our phones are helping to keep us healthy. </p><p>We recorded this a couple of months ago, in mid-October. But obviously the pandemic hasn’t receded at all since then, so everything you’ll here is still relevant.</p><p><strong>Harry Glorikian</strong>: Nuria, welcome to the show. It's so great to have you on. I know there's a little bit of a time difference because you're over in Europe right now. But Nuria, I was looking at your background and I was like, Oh my God, I'm like, if I try to go through her entire CV like we're going to, it's the hour of the show is going to like completely go just for the CV. But I wonder if you can sort of give the listeners a quick version of of how your interest in the connection between technology and human behavior has developed over the years. What big themes did you focus on in your various academic and industry posts at MIT Media Lab, Microsoft Research, Telefonica, Vodafone? I mean, those are just a few of the things that you've done. You know, when I when I was think I've done something with my life, I look at people like you and I'm like, I've got so much more to do. But if you could sort of give us that a short version, that would be awesome.</p><p><strong>Nuria Oliver: </strong>All right. Thank you. It's a pleasure to be here. Let's see. So I'm originally from Spain. I studied electrical engineering and computer science in grad school, telecommunications engineering, and since I was very small, I was always fascinated by the idea of being a scientist or being an inventor or being a researcher and discovering something or inventing something new or for answering questions that hadn't been answered before. So I love mysteries and logic problems, and these are difficult things to solve. I wasn't sure how to kind of channel that. And when I studied telecommunications engineering, which was six years at the time, it was like together with a master's or equivalent degree. In my fourth year, I did a project on the parallelism between neural networks and human brain and the human brain and the human sort of like neurons. And it was the discovery of artificial intelligence to me, and it was pretty much love at first sight. I realized that it was fascinating to build technology that could do something intelligent. It sounded like science fiction to me. And I always have had this vision that technology is a great tool that we can use to have positive social impact and to improve the quality of life of people. So this has been my vision since I was also very small. So with artificial intelligence, I thought, Well, if I could build computers that could understand people, that would be the first step to build computers that can help people.</p><p><strong>Nuria Oliver: </strong>So I started focusing on modelling human behavior, and then I went to MIT to do a Ph.D., and that was the main focus of my work. So I built one of the first facial expression recognition systems in the world that was working in real time, or I made an intelligent car that could predict the next maneuver that the driver would do. I participated also in the first smart clothes fashion show in the world in 1997. So it was really an exciting time to be at the Media Lab, and I had a chance to develop new models of different aspects of human behavior. Then I went to Microsoft Research and I continued my work on that topic. I built an intelligent office. I did with a colleague, a system similar to the Minority Report, where you could control the computer. You see your hands in the air. And in 2005, I realized that I had spent a decade building, you know, smart computers, smart cars, smart rooms, but even at the time, the most personal computer was the mobile phone, and it probably was going to be the mobile phone. And I felt that, you know, we weren't really leveraging the opportunities that the phone was bringing to us in terms of helping us.</p><p><strong>Nuria Oliver: </strong>So I decided to explore that topic, and I started working on projects related to the intersection between mobile phones, health and wellness. So I did a project to detect sleep apnea on the phone. I did another one to help people achieve their exercise goals using what is called persuasive computing, which are sort of like theories of human motivation and psychology, but implemented like on the phone to encourage people and motivate people to change behaviors. I got the offer to move back to Spain at the end of 2007 and never thought I was ever going to go back to Spain, but it seemed like an interesting opportunity to create and lead a research area within a very large telco, Telefonica, the largest telco in Spain. And with my family, we decided, okay, let's try. So we move to Barcelona, and the challenge was to create a top research team from scratch in a topics that were not the traditional telco topics at the time. At the time telcos were sort of like networking companies, right? And I was doing, you know, big data, you know, data science, artificial intelligence topics that today are at the core of what a telco company is. But in 2007, it wasn't really the case yet. So so we continued working on on on two streams on the one hand, making phones the serve their name or of a smartphone, basically.</p><p><strong>Nuria Oliver: </strong>So we did a project to help people take their medication correctly, for example, and support medication adherence, particularly in the elderly. But the other strain was a new stream for me, which was because of working in a telco, we could have access to large scale, anonymized mobile network data. So data about an entire city or an entire country, fully anonymized, you know, fully non-personal data and that data transfer that is very valuable for social good. For example, when there is a natural disaster or when or to infer the socioeconomic status of a region or to understand crime and predict hotspots of crime in cities, or to help when there are pandemics. So those are all areas that I started developing and exploring while at Telefonica, and I created the area of data science for social good. I was in Telefonica for eight years and then they offer. I left Telefonica and I joined Vodafone as director of research in data science globally. And again, the challenge was similar to create from scratch research activities across, I don't know, 20 different countries in Vodafone. I also created the area of data science for social good. And then I left Vodafone. But I continue with a connection with Vodafone because I'm still chief scientific adviser to a think tank that Vodafone has in Berlin.</p><p><strong>Nuria Oliver: </strong>Since 2015, I had, while I was at Telefonica, I had also gotten involved with an NGO, which is based in the US, which is called Data-Pop Alliance, and it has been created by the MIT Media Lab, the Harvard Humanitarian Initiative, the Overseas Development Institute and Flowminder. And the goal is how to leverage data and AI for social good. So it was very aligned with what I had been doing, so I've been collaborating with them in parallel, developing a lot of projects in developing countries in showing the value that data analyzed with AI methods can have to actually accelerate development of a lot of regions. Then in 2018, I became very involved with a very exciting European initiative called ELLIS, which means the European Laboratory for Learning and Intelligent Systems, and it is the result of a grassroots movement of the European scientists. And our goal is to contribute to Europe's technological sovereignty in AI by attracting and retaining the best scientists in AI to Europe. And to do that, we need to, you know, change a little bit how things are done in Europe, and we've launched a number of actions and activities that we can possibly talk about later. And then finally, in March of 2020, given that I had been working for over a decade on how to use data and AI for social good, including how to use it in the context of infectious diseases and pandemics, I felt that for the SARS-CoV-2 pandemic, for the coronavirus pandemic, the governments weren't going to use all these advances that we had made in science, in actually analyzing data, using AI methods to support decision making.</p><p><strong>Nuria Oliver: </strong>So I felt that maybe it was a missed opportunity once again to actually have this disconnection between where science is and where sort of like the real world are and the decision makers are. So, I had an idea in March of 2020, which was proposed, my idea was to propose to the central government and also to the state, the state government, Spain is divided into 17 autonomous regions, which are the equivalent to a state in the US, and they have presidents which is equivalent to governors in the US. So I proposed to the president of the region the idea of having a team of scientists working really closely with the decision makers in sort of like performing relevant models and data analysis that would support their decisions. And they said yes immediately and the president of the Valencian government, and they appointed me commissioner to the president on AI and data science against COVID 19, which is an honorary position. And basically I have been leading a team of 20+ scientists in there since then, working on on four big areas and the intersection between data AI and the pandemic.</p><p><strong>Harry Glorikian: </strong>Yeah, I was, you know, it's interesting that you say they don't always take advantage of things. I remember. I have to go back in my memory 20 years ago, actually, because it was right about the time my son was born, I pitched to Telefonica about location-based services. And at the time, it was almost impossible for people to wrap their head around this idea, that location intertwined with data, and giving somebody the information they were looking for to help them make a decision was going to be a, now what is it? You know, it's a billions and billions of dollars of an industry, but at that time it was people couldn't wrap their head around it. So I think if you're ahead of your time, it's always it's always difficult for the average person to sort of understand where things are going.</p><p><strong>Nuria Oliver: </strong>Certainly. Certainly this is certainly the case. And I think the case of our experience in Valencia, we were lucky that there was sort of like a confluence of factors that really enabled this initiative to not only to happen, but to actually be sustained over time for almost two years now, or a year over a year and a half. And to have a certain level of impact and success. And I think one of the elements was the government had already been working for a couple of years prior on the Fourth Industrial Revolution, the profound transformation of our society because of disciplines like biotechnology, nanotechnology or artificial intelligence. They had published their study on artificial intelligence. They had realized that the public administrations haven't undergone the digital transformation that most companies, particularly large companies, have already undergone, and they recognize that there was this opportunity to transform the public administration and become more data driven would become more digital. So I think when I made this proposal, they were in the right mindset and they were already thinking about this. And there was also a relationship of trust with me because I had collaborated with them in drafting the AI strategy.</p><p><strong>Nuria Oliver: </strong>And they they knew that it was a serious effort. They knew that we were going to try to do our best. So I think there are all these different elements that that really helped. And then there was one director general, well there is still there, working for the president who actually comes from the U.S. She's Spanish, but she spent a lot of time working in the for the mayor of New York City. So she had a lot of the same mentality that I had as he was a little bit of an agent of change within the government. She's been a member of our team since the beginning, coming to every single meeting, and that is absolutely necessary because they are the ones that are going to benefit from whatever we do, and they're the ones that need to use it. So they need to see the value and they need to understand it. So I think it's very important to have this sort of like mixed, multidisciplinary, multi-institutional teams.</p><p><strong>Harry Glorikian: </strong>So I mean, I applaud them for seeing that because if you have ever watched our Congress or Senate interview technology people,</p><p><strong>Nuria Oliver: </strong>Yeah, I've seen it, it's famous.</p><p><strong>Harry Glorikian: </strong>It's quite fascinating. Some of the questions where you know, you realize they know so little about. These technologies or their impact and don't understand like. All of these things are like you should be looking at them as nuclear weapons, how do you use them, how do you manage them, how do you use them for good? How do you put things in place to protect people, right?</p><p><strong>Nuria Oliver: </strong>Yes. And the other important message is, I don't think it is acceptable for any policy maker or any representative of citizens to publicly acknowledge, "Oh, I don't know anything about technology." I don't think that is acceptable because technology permeates everything, every single aspect of our lives. So it's it's such a fundamental element of our society that you need to know a lot about technology if you really want to make the right decisions about any topic, absolutely any topic, right? So I think that's definitely something that at least in some governments, they recognize that there is a need for identifying new profiles to work in the public administration, creating new positions, more tech savvy positions, data scientists, but also educating the policymakers and doing courses on on relevant topics related to technology. I think this is very, very, very important.</p><p><strong>Nuria Oliver: </strong>So let's pivot now because I think all of this technology came really in to a lot of good or use when COVID 19 came along. All right. So you know, you one of the data I think you collect in Valencia is mobile data, right? Exactly. Understanding how this data helped you understand and manage the course of the pandemic, can you talk about that a little bit because I think that that's important for people to understand.</p><p><strong>Nuria Oliver: </strong>Yes, so we had four large work streams in this data science for COVID-19 initiative, and the first one was modeling large scale human mobility. Why? Because an infectious disease like COVID-19 that is transmitted from human to human, it doesn't become a pandemic if people don't move. And that's why we have been confined, right? Because it's our movements, the ones that are propagating the disease. So understanding how people move, determining if the confinement measures are working or not, is very important to make the right decisions and the right policies.</p><p><strong>Nuria Oliver: </strong>So there was another lucky factor that I didn't mention, but that has really been very helpful in Spain and is the following factor. For two years prior to the pandemic, the Spanish National Office of Statistics had been drafting a collaboration agreement with the three largest telcos in Spain, which are Telefonica, Vodafone and Orange.</p><p><strong>Harry Glorikian: </strong>Mm hmm.</p><p><strong>Nuria Oliver: </strong>So. So let me rewind a little bit. So part of this transformation that we mentioned of society because you know of the Fourth Industrial Revolution, you know, an artificial intelligence part of this transformation is actually impacting the National Office of Statistics of everyone in the world where the traditional methods to build official statistics, which are via surveys, are susceptible to being improved, leveraging pervasive technology and sort of like big data. So there is a global movement in every National Office of Statistics, in pretty much of every country to explore how they could build official statistics through the analysis of data automatically without having to do surveys, because it's very expensive and it doesn't really scale. And that is why there is only one census every 10 years or 15 years, or in some countries, 40 years, because it's just very expensive to do the census. So the Spanish National Office of Statistics, one of the statistics that they compute is commuting patterns, and they do it by doing surveys. And they thought, OK, maybe we can collaborate with the telcos and analyze aggregated data from the antennas, from the cell phone antennas to infer these mobility patterns automatically without having to do surveys. So that was a very long process of negotiations and getting all the approvals under the data protection agencies and from the legal departments of all these telcos, blah blah blah. So that took them a huge amount of time. So in November of 2019, right before the pandemic, they got all the okays necessary, and they launched the pilot to see how well they could create commuting matrices from this data that was actually a relatively controversial project.</p><p><strong>Nuria Oliver: </strong>It appeared in the media. It wasn't communicated very well because they were saying the National Office of Statistics is tracking you, which is completely wrong. They weren't tracking anyone. But anyhow, when the pandemic happened, they already had all the infrastructure in place and all the legal agreements in place to actually get access to the mobile network data from the operators and combine the data and compute mobility matrices out of the data so that that mobility piece that we did was relatively easy in the sense that the data access was already available. So the vice minister, the vice president of Spain, Calvino, she appointed us the pilot region to be able to use that data during the first wave of the pandemic, at a time when there were really, there was almost no data and it was very hard. We were making a lot of decisions kind of blindly. So through the National Office of Statistics, we were able to access that data and then identify and measure to which degree the confinement measures had impacted the mobility of the population. How successful the stay at home campaign was, how much labor mobility was impactd, h ow was the radius of movement reduced because of the measures? But also what was the impact of those measures on the spread of the virus? Because at the end, you also want to know, OK, is this really slowing down the spread of the virus or not? Right. So we were also able to do that. Yeah.</p><p><strong>Harry Glorikian: </strong>So but now you carried out a large scale survey of the people in Valencia. And so when you look at survey data compared to mobility data, how do you think about that?</p><p><strong>Nuria Oliver: </strong>Yeah, so so the first line of work was the mobility analysis. Then we have two more lines, one which might we might talk about later. One is the computational epidemiological models, the other one was predictive models. And then the fourth line was a citizen survey. And why did we launch this citizen survey? So we launched the survey because in March of 2020 and even today, there were a lot of questions that we couldn't answer. We didn't have any data sources. For example, what is the social behavior that people have? What is the emotional impact of the pandemic. What's the resilience of the population toward all these measures. Are there tests, are people being tested. What is the prevalence of symptoms? Was the labor impact, the economic impact? What kind of protection measures are people taking? How are people moving? Are they leaving their homes, or are they taking public transportation? I mean, there were so many interesting questions that we couldn't really answer, so we decided to ask the people to say, Well, let's just draft, let's design the shortest possible survey that would give us the most information about people's behaviors and perception and situation during the pandemic. So we came out with 26 questions, which we translated to many different languages and the surveys deployed in different countries in the world.</p><p><strong>Nuria Oliver: </strong>It has almost 700,000 answers right now. And one of them is in Spain, evidently. But we also have a very representative sample of in the, I think, in the almost 100,000 from Germany, Italy, Brazil, and the survey has been regularly used by the media, by the policymakers, but also by people to have a sense of how we are doing. So I think the survey has different angles to it. One element is giving a voice to people. You know, I think we have been subject to a lot of measures that have happened to us, but we as citizens haven't had a lot of opportunities to really tell how we were doing and how the pandemic was impacting us and on our fears or what we were thinking. So the survey is a way to listen to to the people and to give them a chance to tell us every week how things are going. It's also an incredible tool to really connect the citizens to the policymakers so they understand, for example, what's the intention to get vaccinated. You know, we know since April of 2020, for example, that the most impacted group emotionally, psychologically is the youth.</p><p><strong>Nuria Oliver: </strong>So the government can think, OK, we need to invest in programs for the youth. But we know that since April of 2020, it's not that we know it now. We know it for over a year and a half from now. So there's a lot of things that we know, you know, for many, many, many months. So that has been incredibly helpful. So the survey is completely complementary to the large scale mobility data. We do have a little bit of mobility information because we ask people their transportation means because we wanted to see people were walking or they were driving individually or they were taking public transport. And we did observe where public transport was kind of shut down for a few weeks or months, there was a huge increase in walking. During the first lockdown, especially. And then there was there wasn't really a big use of public transportation until probably the fall of 2020 or even like the spring of 2021. So, yeah, we did have a little bit of mobility information, but very complementary to the large scale mobility that we could analyze with their mobile data.</p><p><strong>Harry Glorikian: </strong>Yeah, I think this this sort of way that the government or your group is interacting with the people to sort of get this information. I mean, I think that's a more organized and statistically significant way than Facebook or Twitter or any of these other big rooms that you can yell in, right? So, you know, it adds to the discussion.</p><p><strong>Nuria Oliver: </strong>Yeah. I mean, we invested a lot of thought and a fair amount of time. We think the fact that we had no time because we had to react really quickly. But I think if we if we started this effort in mid-March, right, right at the very, very, very beginning of the pandemic. And I think we launched the survey March 28th. So we had about 10 days. Yeah, we're very fast, but we really thought a lot about it. We spent I mean, we worked all day, all night, all the time. I mean, there was nothing else to do anyway. So I mean, we were just sort of like working, working for...I mean, I have three children, too. But we were really working. And my husband also got very involved in this. So it was kind of like a family effort and we invested a lot of time in designing the survey so the questions were really, would be the most helpful possible and sort of like complimentary to the other data sources that we had. And I think that was relatively successful. I mean, it's definitely been very helpful to many different people. We built very quickly visualization tools of all the answers to the survey so anyone can access them, anyone can look at them. And that was very important so everyone can benefit from the answers.</p><p><strong>Harry Glorikian: </strong>So in a pandemic, what can you--if you said, "Oh my God, this these were the, you know, two or three things that we were able to influence," based on this technology integration or information that we were able to provide policymakers that made the biggest difference.</p><p><strong>Nuria Oliver: </strong>Well, I think there are different levels. I think we had the impact at different levels, so the mobility analysis was extremely helpful for the government to really understand to which degree the lockdown and the measures had worked. And They really appreciated that piece of work a lot. The computational epidemiological models, which we haven't talked about yet, but is basically we've been building models to predict the number of cases and the number of hospitalizations and the number of intensive care units and the number of deaths throughout the entire pandemic. And we've built different types of models because one of the take-home messages here is, of course, the underlying reality is extremely complex and it's not a purely deterministic system. Evidently, the world is really, really hard to model. So if we build models that are completely different in their approach and they give us similar predictions, we can be more certain about those predictions than if the models each of them says something different. So we have three different models running all the time with completely different methods like to really see to which degree, you know, they are aligned. So our predictions have been used. I mean, I've been I've been writing reports for many, many months every day with the predictions of the day. So, so they could have a sense of how things were going, how fast the cases were going to be growing and things like that.</p><p><strong>Nuria Oliver: </strong>So that was particularly helpful. I would say in the third wave, which took place after Christmas, and it was the worst wave here in the Valencia region. And it was very helpful because at the time we had just finished our third model, which was using deep neural networks and is a model that we use in the X Competition. And that model predicted extremely accurately the day of the peak of the number of cases and the number of cases at the peak. And it was very helpful because it was a very stressful moment where the cases were growing exponentially. There was a huge amount of tension as to whether to implement more measures or persist with these measures or change the measures or what to do. Because the number of cases were growing, the deaths were growing and they placed a fair amount of faith in our model, maybe more than I would have placed because I was just like, Oh my God, I hope this model works really, really well. But you know, there's this moment where you are thinking, Oh, I don't know. Maybe I mean, this is just a model, you know, the world is more complicated.</p><p><strong>Harry Glorikian: </strong>Exactly.</p><p><strong>Nuria Oliver: </strong>So that was that was very helpful. At the same time, we also build machine learning based, deep neural, network based prediction models of hospital occupancy and intensive care occupancy that was extremely helpful to allocate resources and to figure out which hospitals were going to be saturated and to to anticipate that and to determine whether they needed to mobilize more intensive care units and things like that.</p><p><strong>Nuria Oliver: </strong>And then, as I mentioned, the survey has been helpful, I would say, all throughout the pandemic to really understand the needs of the people, to understand the sort of like the impact of the pandemic on people's lives and and to determine what would be the areas of priority for new policies. So I think the different work streams have had different impacts, but I think that is a broader impact, which is probably the most important, maybe, which is the impact of showing a different way of working, a way of working that is a lot more data driven. That is more technological, that is very, very different to the traditional approach. And seeing that with with a clear example for a very long time and seeing the value that this way of working has brought, I think has been the best way for them to realize what they might be missing if they don't undergo, you know, the necessary digital transformation.</p><p><strong>Harry Glorikian: </strong>Can you have them come over here and talk to our guys? I think you need to have to come here and talk to our guys.</p><p><strong>Nuria Oliver: </strong>I think you would need also internal advocates.</p><p><strong>Harry Glorikian: </strong>I think that I think there's a lot of those. I think there are there are a number of people internally right that that want to you just need to. I think people who sit in powerful positions need to understand the implications and the impact of this,</p><p><strong>Nuria Oliver: </strong>And they have to accept they have to accept that the data might not tell something that they want to hear. I mean, there is also the risk of of losing control in a sense, right? Because the data could say that the policy didn't work, you know, something that maybe you really believed in and you really push for it and then it's like, OK, sorry, but this is not working right and you have to be.</p><p><strong>Harry Glorikian: </strong>But that's, you know, that's part of the that's part of the whole, you know, scientific method. You have a hypothesis, you go test it. And if it didn't work to come up with a new hypothesis, right? I mean, that's that's the way it should be. And you know, in reality, I have this debate with people. </p><p><strong>Nuria Oliver: </strong>The political world is not exactly like that.</p><p><strong>Harry Glorikian: </strong>But I think this sort of decision making is not just from a policy perspective, but it permeates, all the way through. I mean, I have this debate with a lot of people in the medical world of, it doesn't work. It's making the wrong mistake. It's biased. I'm like, it's always evolving. This is software. It's like every day it's getting better. It doesn't sleep, it can get better the next day. So a year from now, it can be an order of magnitude different than it was, you know, when it started. So. But </p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i> It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for The Future You by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>You mentioned the X Prize and you guys won the X Prize. And you split that prize with, you know, people in Slovenia. So did you have some programmers there or did you…</p><p><strong>Nuria Oliver: </strong>No, no, no. There was a first prize and a second prize, and we won the first prize and they won the second prize.</p><p><strong>Harry Glorikian: </strong>Oh okay, okay.</p><p><strong>Nuria Oliver: </strong>So there were first, first, I guess first winner and then second the people there stayed second. Yeah, so.</p><p><strong>Harry Glorikian: </strong>So how did that impact? How did that impact, you winning that, did that impact the way that people thought about the model?</p><p><strong>Nuria Oliver: </strong>I think I think it gave us a lot of legitimacy and, you know, a huge external validation because we had been I felt we had been doing very, you know, rigorous solid work for many, many months. But of course, it was constrained to the Valencia region, maximum to Spain and then the X Prize Challenge asked us to build predictive models of the pandemic in 236 countries and regions in the world. So it was a step up, you know, from what we had to do. So I think I think it definitely gave a lot of like external validation to the work. I think I find it a very inspirational story. I never thought we were going to win. I was a little bit the devil's advocate in the team. When I share with the team this idea, this opportunity of the of participating in the X Prize competition, but it was more like a teaser. I didn't think that they were going to actually decide to go for it. And I and I told them many times, Look, guys, guys and girls. I mean, this is, you know, this is a different level. I mean, this is a global competition. You know, if we go for it, we are going to have to work even harder than we have been working all over Christmas and New Year's and everything because the competition started at the end of November. I think it was a very beginning of December. And, you know, and I think we should try our best. I mean, if we go for it, we go 100 percent you. We just don't sort of go, Yes, this is, let's do it. Let's do it.</p><p><strong>Nuria Oliver: </strong>So we kind of jumped into the pool like the X Prize and. Uh, and it was incredible when we won, I couldn't believe it. It was to me, it really shows that there is talent anywhere and everywhere. And many times what fails is not even the talent, it's actually the environment where this talent is.</p><p><strong>Harry Glorikian: </strong>Correct.</p><p><strong>Nuria Oliver: </strong>If it is not an environment that supports the talent and that encourages the talent and that empowers the talent, that talent is like a little seed, right? And we don't have an environment that enables this seed to grow, it just stays on the ground there, you know, not growing. And I think the entire initiative and particularly the X Prize competition, was this sort of environment where, you know, anyone could win. Everyone was in equal conditions and in our team, our team is extremely sort of like a very flat structure. There are students and there are full professors and everyone contributes equally and anyone can do anything you know is very sort of a hands on, you know, very sort of like a start up. And I think that was a big change from the traditional, well-established, somewhat bureaucratic research processes that prevailed in many institutions, right? Where there is a hierarchy from the full professor to the student. And, you know, many times the students feel that they cannot even do some idea that they might have because they have to be asking for permission, you know. So I think for me, it was also this inspirational story on saying, Well, you know, anyone could win any of these competitions, you know, if the environment,</p><p><strong>Harry Glorikian: </strong>Environment and you know, geography, I always joke. I always say, like, if you're in the West Coast or you can fail multiple times, you come to the East Coast, you've got to fail a lot less and it depends on which college or university you graduated from. You go to Europe, you fail a lot less because your family and everybody around you will not be happy, right? It's depending on where you are, right? You're willing to take more or less risk. And then, of course, that can be superimposed on the organization that's also creating that environment. But let me jump now and say, you know and ask. You guys in Valencia have like a 90 percent vaccination rate, which I think is one of the highest in the world, much higher than the U.S. by far. I'm comparing a region to a country, but. What what do you think accounts for this? The differing levels of a compliance. Do you think the people in Spain are just more trusting of the medical establishment? I mean, you guys have Facebook too, so the same misinformation is getting to you. That's getting to us. Are they more trusting of technology?</p><p><strong>Nuria Oliver: </strong>I think there are multiple factors. I think one very important factor is that fortunately, the pandemic wasn't really overly politicized and anyone from any political inclination or party or view, you know, was adopting measures, was wearing masks, you know, was willing to get vaccinated. So there was there hasn't been this coupling that has happened in many countries between the pandemic and your political views. I think this has been completely orthogonal issues in Spain. You know, the pandemic impacts everyone. The pandemic doesn't care if you are right wing, left wing or center. Yes, the virus is going to infect you the same. It doesn't matter what you believe, you're going to get it. Maybe you don't believe in me but I'm going to infect you. So I that has that has definitely helped a lot. The other issue is Spain didn't have a strong anti-vax movement to start from. There is definitely a lot of trust in the medical system. Spain has universal healthcare for free, so you get the best medical care in the world, pretty much for free, you know, cancer treatment, the best cancer treatment. Everything is for free in Spain, and there is a big trust in the system that is a big trust in the doctors and and and people really love the Spanish medical system because they see that it saves a lot of lives, you know? They see that it helps them and is free.</p><p><strong>Nuria Oliver: </strong>So there isn't really clear economic incentives associated to health care because it's a right that people have. So I think that was another element the element of trust, the element of really trusting the system of the system being free and people realizing that, you know, health care is fundamental for a healthy society and everyone sort of like compliant. So we have the lack of politicization, the fact that we didn't have a strong, anti-vax movement initially, the fact that the health care system, you know, is very trust is trusted a lot and it's for free and people really appreciate it. And then we also have the fact that Spain is a very has a very strong group, whole sort of like group culture where conformism to the group is very important in Spain, as opposed to other cultures where they might emphasize more the individual and individualism. Spain is more of a kind of collective culture in that sense. So as soon as there was a minimum critical mass of people vaccinated, it just became an act of pride to be vaccinated and belonging to the group, you know, and sort of like complying with the group and. And I think that was also a factor.</p><p><strong>Nuria Oliver: </strong>So combining all of this, yeah, we are one of the countries with the highest vaccination rates in the world and we don't really have anti-vax movements like other countries have had or have still. And I think people, you know, you have to also remember that Spain was one of the worst impacted countries in the first wave. So the virus is very real to everyone. I would say everyone knows someone that has had COVID or has died from COVID. So I think as opposed to in other countries or regions in the world where the virus may seen something almost like theoretical because it hasn't been next to you, you don't know people infected. You might think, Oh, I don't know, I don't know anyone. So maybe this could not be real, right? Spain has been very, very real because the first wave was horrible here. And, you know, Spain and Italy were like the most impacted country for a long time. So I think that also has made the pandemic extremely real in Spain since the very, very beginning. And seeing the suffering, seeing people dying, seeing your relatives being in intensive care, you know, has really made people think, Oh, it's not, it's a no-brainer for me to get vaccinated. I don't want to go through this.</p><p><strong>Nuria Oliver: </strong>I don't want anyone from my family to go through this, don't want to infect other people. So I think there is also this element of of having really endured a very, very hard first wave of of of really, really shocked the society and people collectively feeling, OK, we need to defeat this virus together. We need to do anything we can to minimize the impact that is having in our society. So I think there are different reasons, you know, like anything. It isn't a simple answer, right, but there is a confluence of factors...</p><p><strong>Harry Glorikian: </strong>I wish.</p><p><strong>Nuria Oliver: </strong>...that I think have played in our favor in terms of of the pandemic. I mean, the levels of vaccination are extremely high, but also the life is going back to pretty much normal now. I mean, we there is a lot of activity. I mean traveling, a lot of traveling. We had a lot of tourists this year this summer. Spain kept the schools open the entire school year last year. I think that was extremely smart to do. So that was also very positive in terms of not disrupting the lives of the children and the teenagers, which are some of the most affected demographic groups. So, so yeah, so I'm proud that that actually the response has been like this in Spain.</p><p><strong>Harry Glorikian: </strong>So going back to the technological part, do you do you think that phones will be more useful tools for epidemiology or personal health in the next pandemic? And what have we learned that will help us be smarter about how we use [technology]?</p><p><strong>Nuria Oliver: </strong>Yeah, so I think. So I think so there's a difference between phones and the mobile network. Ok, so what we analyzed was data from the mobile network, not from the phones themselves. This is important to clarify because the mobile network is the data captured at the antennas. Correct. That that are all over the geographic space that are the ones providing the cellular connection. So I think that that has proven in many, many cases for many, many years, very valuable, both in developing economies and in developed economies. Then the phone itself, I think the impact this pandemic has been. I would say varied. So the detailed contact tracing, I don't think it has been successful, at least the data that we have from the survey is that in Spain, it didn't really work at all. We didn't advocate for it because based on our research and we didn't think that that was the most important thing to do at the time. We knew since the beginning of the pandemic that roughly 50 percent of the people 59 years old or younger could not self-isolate if they had to. So in what is called TTI Control Strategy, which is trace to know whom to test, to know whom to isolate, if people cannot isolate, there is no point in tracing them and testing them because they're going to be infecting everyone else if they can't isolate? So I think, you know, investing in infrastructure to help people self-isolate and providing support to people so they can self isolate.</p><p><strong>Nuria Oliver: </strong>And it's not a huge burden to them was also very important to enable, you know, everyone to do a proper quarantine. I think there has been quite it's been quite successful actually the part of using the phones for entering symptoms. Many, many people answered our survey on their phones. I would say everyone, pretty much everyone answered a survey on the phones having some sort of like some digital, you know, certificates for vaccinations and things like that. I think that's probably more helpful. They have projects and using the sensors on the phone to diagnose COVID 19 from the... patterns or the coughing patterns. So I think the phone can also be used as a tool for sort of like a screening tool, maybe more than a diagnostic tool. And of course, it can be used for telemedicine as well, particularly in situations where you are. You can leave your house, you know, or you can't really go so. So for quite a few months, actually, the provision of care for non emergencies, non serious issues has been over the phone actually, and in many cases, is the mobile phone. So I think…</p><p><strong>Harry Glorikian: </strong>Which brings me, I have another question for you, though, because based on that is. Separate from the pandemic, because hopefully it's waning and we can get on with our lives. Do you have any ideas you want to pursue in the area of personal health and health care delivery?</p><p><strong>Nuria Oliver: </strong>Yeah, well, there's one idea that I've been trying to do for seven years, but I haven't been able to get around to it yet, which is a project that I call Mobi-well and it's a project that is really the hope is to really shed quantitative light on the interplay between the dependency that we developed towards our phones and our well-being. So I'm very interested in really understanding what are the implications of the fact that we can't live without our phones and our own well-being. I think the phone is an incredibly powerful tool to support our well-being and to help us in many ways, you know, for chronic disease management, for, you know, as I mentioned, the pressures that I mentioned in terms of helping us change behaviors that we want to change, you know, to exercise more or to sleep more or to drink more water or whatever we want to do. The phone is a great ally. It can be a great ally for as a screening tool for different diseases, as an early detection tool. Also for certain diseases. But we cannot obviate that we are addicted to our phones and that we have a dependency towards our phones. So I am also interested in understanding what are the health implications on the wellness implications of such an addiction and such a dependency, particularly in the younger demographic groups. So that's one project that I'm very interested in. I'm also. We are also working a lot in and the ELLIS Alicante Foundation that I just created on the ethical implications of AI.</p><p><strong>Harry Glorikian: </strong>Yes.</p><p><strong>Nuria Oliver: </strong>Implications such as the computational violation of privacy or the lack of veracity or the opacity or the manipulated subliminal manipulation or behavior discrimination, algorithmic discrimination. So a lot of these challenges, you know, we can test them on the phone and we can also explore and develop innovative algorithms that would have guarantees for non-discrimination. Or, you know, that would be privacy preserving. And we can do studies on the phone to see if that is the case. So I think it's also a great tool for human behavioral studies and for what it's called computational social sciences.</p><p><strong>Harry Glorikian: </strong>I mean, if we could just get Facebook to open its data to you?</p><p><strong>Nuria Oliver: </strong>Oh, yeah, I would love that.</p><p><strong>Harry Glorikian: </strong>Yeah, I'm sure that we could see a lot.</p><p><strong>Nuria Oliver: </strong>Yes, definitely. Absolutely. I mean, you see what's happened with the latest, you know, revelations about some of the Facebook research. So so yeah. But I do think more research is needed to really understand this very complex interplay between ourselves, our wellbeing, both mental wellbeing and physical wellbeing and on the technology that we use. And it's an area that I'm very interested in.</p><p><strong>Harry Glorikian: </strong>My new book is all about that direction, which is how can you utilize technology to live a healthier life. Or is one of the gentleman that I interviewed once said a better health span, not just a life span.</p><p><strong>Nuria Oliver: </strong>Yeah, yeah, exactly. Yeah. So I mean, I've devoted my life to inventing and exploring and developing technology to somehow improve the quality of life of people in some way. But I think it's also time to really understand in a rigorous way, you know, what is the impact that that technology is having on our lives, not technology that is explicitly designed to support our well-being, but the the technology that we use on a daily, you know, on a daily basis, you know, the the services and the applications that we use every day for any purpose, you know, not specifically for health care purposes.</p><p><strong>Harry Glorikian: </strong>Yeah, I think you were chosen, you were on the TR100 list, if I remember correctly.</p><p><strong>Nuria Oliver: </strong>Yeah.</p><p><strong>Harry Glorikian: </strong>And so you always wonder, like how well did the TR100 ed predict correctly? And it seems that they at least in your case, they got it. They got it right on the impact that you would have on the world.</p><p><strong>Nuria Oliver: </strong>Oh, thank you. Yeah, that was really. I have a very nice memory. You know, I got my PhD from M.I.T. So getting this recognition for the MIT Technology Review was really, really nice. And I think it was I was the first Spanish person to get it. So that was also really nice in terms of Spain, because I think, you know, it might have helped other scientists from Spain to, I don't know, be considered or for this award. So, yeah, so I have very nice memories, very fond memories of the event. They are</p><p><strong>Harry Glorikian: </strong>So well. I can't thank you enough for staying up later, or, you know, it's actually late afternoon your time and participating today and sort of giving people who are listening an insight of how technology can make such a profound impact on managing pandemic and keeping people safe and communicating the right information to them. It's huge. And so I hope that people hearing this can take the lessons from our discussion, and you never know people may end up reaching out to you because of it. So I hope that all this, you know, moves in a positive direction. So thank you so much for being on the show today.</p><p><strong>Nuria Oliver: </strong>It was my pleasure. Thank you so much for the interest. And yeah, it's been a really lovely conversation, so I thank you also. Also Linkedin for establishing the connection between us. Thank you.</p><p><strong>Harry Glorikian: </strong>Excellent.</p><p><strong>Nuria Oliver: </strong>Thank you. Ciao. </p><p><strong>Harry Glorikian: </strong>Ciao.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>How To Track The Pandemic Using Mobile Data, With Nuria Oliver</itunes:title>
      <itunes:author>Nuria Oliver, Harry Glorikian</itunes:author>
      <itunes:duration>00:58:49</itunes:duration>
      <itunes:summary>When the coronavirus pandemic swept across the world in early 2020, Spain was one of the countries hardest hit. At the time, Nuria Oliver was a telecommunications engineer working and living in Valencia, one of Spain&apos;s 17 autonomous regions. She’d spent years working for companies like Microsoft, Telefonica, and Vodafone, using AI to analyze data from mobile networks to explore big questions about healthcare, economics, crime, and other issues—so she realized right away that mobile data could be an important tool for government leaders and public health officials trying to get a handle on the spread of COVID-19. With the backing of Valencia&apos;s president, Oliver put together a team of scientists to analyze network data to understand among other things, how much people in Spain were moving around. That helped them predict infection rates, and to see whether lockdowns were really helping to contain the virus&apos;s spread. The team&apos;s predictions were so accurate, in fact, that when they entered an X Prize Foundation contest seeking the best AI-based pandemic response systems, they won first place. Nuria Oliver joins Harry to explain how they did it—and why mobile data makes a difference in the fight against the pandemic and other health threats.</itunes:summary>
      <itunes:subtitle>When the coronavirus pandemic swept across the world in early 2020, Spain was one of the countries hardest hit. At the time, Nuria Oliver was a telecommunications engineer working and living in Valencia, one of Spain&apos;s 17 autonomous regions. She’d spent years working for companies like Microsoft, Telefonica, and Vodafone, using AI to analyze data from mobile networks to explore big questions about healthcare, economics, crime, and other issues—so she realized right away that mobile data could be an important tool for government leaders and public health officials trying to get a handle on the spread of COVID-19. With the backing of Valencia&apos;s president, Oliver put together a team of scientists to analyze network data to understand among other things, how much people in Spain were moving around. That helped them predict infection rates, and to see whether lockdowns were really helping to contain the virus&apos;s spread. The team&apos;s predictions were so accurate, in fact, that when they entered an X Prize Foundation contest seeking the best AI-based pandemic response systems, they won first place. Nuria Oliver joins Harry to explain how they did it—and why mobile data makes a difference in the fight against the pandemic and other health threats.</itunes:subtitle>
      <itunes:keywords>mobile data, spain, nuria oliver, coronavirus, epidemiology, mobile network data, telefonica, network data, valencia, x prize foundation, mobile phones, vodafone, covid-19, x prize</itunes:keywords>
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      <title>Impact of Artificial Intelligence on the Doctor-Patient relationship</title>
      <description><![CDATA[<p>We've learned from previous guests that machine learning and other forms of AI are helping to identify better disease treatments, get drugs to market faster, and spot health problems before they get out of hand. But what if they could also help patients find the best doctors for them, and help doctors frame their advice in a way that patients can relate to? This week, Harry's guest, Briana Brownell, talks about the computational tools her company Pure Strategy is building to find patterns in people’s personal preferences that can lower cultural barriers, enable better matchmaking between patients and doctors, predict which patients are most likely or least likely to go along with a treatment plan, or help doctors communicate their recommendations better. "Not everybody makes decisions in the same way," Brownell says. "Not everybody values the same things. But by understanding some of those psychological and value-based drivers, we can get better health care outcomes."</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>If you’re a regular listener you know I’ve had dozens of guests on the show who’ve explained how machine learning and other forms of AI are transforming healthcare </p><p>They’ve talked about the ways AI can find better disease treatments, or help get drugs to market faster, or spot health problems before they get out of hand. In a way, that’s what the show is all about.</p><p>But my guest this week, Briana Brownell, thinks there are some gaps at the very core of our healthcare system where the power of AI is only beginning to be tapped.</p><p>And one of those gaps is the relationship between patients and their doctors.</p><p>Brownell is a data scientist and the founder and CEO of a consulting firm in Saskatoon, Saskatchewan, called Pure Strategy. </p><p>The company works with all sorts of clients and industries. And it’s known for a package of computational tools called ANIE that uses forms of AI such as unsupervised learning and natural language processing to find patterns in data.</p><p>In the healthcare sector, Pure Strategy collects that data in the form of patients’ responses to behavioral surveys. </p><p>And then it looks for patterns in people’s personal preferences or cultural identities that can help match them up with the best doctors for them.</p><p>These patterns can also predict which patients are most likely or least likely to go along with a treatment plan. That can help doctors communicate their recommendations better and raise the chances that patients will stay out of the ER or the ICU.</p><p>Brownell argues that medicine should never be <i>completely </i>data-driven, since doctors always need to account for patient’s unique life stories and preferences. </p><p>But with AI, she says, providers can gather more input that helps them understand where patients are coming from and what challenges they’re facing.</p><p>All of which echoes one of the themes of <i>The Future You</i>, which includes several chapters about how technology is changing the relationship between us patients and our doctors.</p><p>By the way, the book is out now in paperback and ebook formats at Barnes & Noble and Amazon. So check it out.</p><p>And now here’s my full conversation with Briana Brownell.</p><p><strong>Harry Glorikian: </strong>Briana, welcome to the show.</p><p><strong>Briana Brownell: </strong>Thank you so much for having me.</p><p><strong>Harry Glorikian: </strong>So, Briana, I've, like, read about what you've done. I've watched the TED talk you had given and seen you win awards and so forth. But I want to step back for everybody here and sort of, so they understand who you are or where you came from. And if you can give a sort of high level biography of yourself how you got to this point in your career, where you're building computational tools to help doctors and patients -- how did all of that start? Where did you grow up? What did you study? You know what? What are the experiences sort of shaped you to go in this direction? Because you didn't start off in health care.</p><p><strong>Briana Brownell: </strong>That's true, yeah. I've had a really kind of a roundabout career, certainly. The first job that I got after my undergraduate degree in mathematics was in finance, which was wonderful. But I started in 2006, which I'm sure you know what's happening next. The global financial crisis happened next, right? And so that was my very first start in the work world. And after that, I actually got into more of the data science area, which was amazing for me because I was always interested in data, always interested in mathematics. But at the time, nobody had ever really heard of data science. Nobody had ever really been all that interested in analytics. And so I found that my job was so bizarre to just about everybody that I met. And so you can't imagine how excited I am when now data science is on everyone's mind. And, you know, artificial intelligence is, you know, a huge industry now. So I feel like, you know, I started somewhere very strange. But, you know, the world kind of came back to realize how interesting it really was.</p><p><strong>Harry Glorikian: </strong>Yeah, it's interesting. I mean, when I was when I came up with the idea for my first book, it was, you know, at least five years before it published, maybe even six where it was like, Oh my god, . It's the data fixation of health care like. Once we get that data like, oh my God, we're going to be able to analyze it and then find opportunities and see patterns and longitudinal, and I was like, "But I don't hear anybody talking about that." So that's what I got me excited to write that first one. But tell us about your company. It's called Pure Strategy, which reminds me of Strategy Consulting, which was, you know, one of my last companies that I had. But you know, what do you you do for your clients? What do you sink your teeth into?</p><p><strong>Briana Brownell: </strong>So, you know, first of all, the name Pure Strategy is a game theory reference. So I actually have a master's in economics. And so it's a little bit of a nerdy game theory reference. And so every time I meet someone else who took game theory, you know, we have a little bit of an eye-to-eye with the name of the company. But so the reason we named it that is a pure strategy gives you a way forward regardless of what your opposition does. So you always know the best thing to do next. And so, you know, with that philosophy is how we approach all kinds of different problems. So what kind of data, what kind of information do companies need to make decisions about how to better serve their customers, what markets to enter, how to invest their money properly? All of those kinds of things.</p><p><strong>Harry Glorikian: </strong>I need to study pure strategy just to manage my wife and kids that so I know what to do every time something happens. But your core product at Pure Strategy is something you call automated neural intelligence engine or ANIE. What is Annie built to do?</p><p><strong>Briana Brownell: </strong>So ANIE has a few different components to it. The reason that we built this intelligence system is because what I found was as a data scientist, a lot of the things that I was doing by hand could be much better done with an automated AI system. And so I began to look at the sort of time intensive but lower value tasks that could be tackled by artificial intelligence. And so we have a suite of four modules within that system that makes data analysis easier, faster, better. All of those good things. And so, you know, working with language, for example, working with prediction, working with choice modeling and then working to find emergent patterns and data that you didn't even know to look for.</p><p><strong>Harry Glorikian: </strong>Ok, so NLP-based predictive capabilities. But step back for a second, so focus in a little bit on on, say, the clients in pharma and health care, because that's the constituency that generally listens to this. What kind of problems are you helping them solve? So if you had a few concrete examples.</p><p><strong>Briana Brownell: </strong>Sure. So one of the areas that we find it's extremely useful is to understand typologies of patients and physicians and understanding how their values and attitudes impact their decision making. So not everybody makes decisions in the same way. Not everybody values the same things. But by understanding some of those psychological and value based drivers, we can get better health care outcomes. So we can look at what are the motivating factors in the patient group. Why are they being readmitted? Why are they not adhering to their treatment plan? Why are they doing things like delaying appointments, canceling appointments, those kinds of things? And then we can understand why they're making those decisions and hopefully sort of break the negative patterns and encourage the positive patterns so that they are healthier, they live longer, healthier lives and that their everyday life is improved as a result.</p><p><strong>Harry Glorikian: </strong>Interesting. When you first started explaining it, my brain was going towards a dating app like making sure I put the right doctor and the right patient together.</p><p><strong>Briana Brownell: </strong>So that's that's a big part of it, actually. Because certain physicians have a world view of their role as a health care provider, they need to be able to match their sort of delivery and their communication with a patient with the way that the patient can best understand it. So some physicians are very science-based and focusing on what are the cutting edge things that are happening in my field? And do I want to sort of use those with my patients to add to their treatment plan, for example. Whereas some other physicians are more looking at these sort of holistic care aspect where the patient is the center of a huge ecosystem of other health impact factors. And so how do they treat that patient as sort of an entire person? Right. And so definitely matching. You can imagine certain patients want certain kinds of doctors, right? So I'm the kind of person that I want to get in there and get out and give me the information. And that's fine, right? But that's not for everybody. And so by treating both the patient group and the physician group as having their own individual sort of beliefs and nuances within their worldview can really, really help things.</p><p><strong>Harry Glorikian: </strong>So essentially, like, I'm simplifying dramatically, but we are talking about the fundamental functions of a sort of a dating app, at least for that application area.</p><p><strong>Briana Brownell: </strong>That's right. Yes, it is a lot like a dating app. Yep.</p><p><strong>Harry Glorikian: </strong>But so if I understood, because I was trying to listen to some of the things you had done and you've guys have written around it, basically you're trying to help lower the cultural barriers between patients and the medical system to make sure they get better care.</p><p><strong>Briana Brownell: </strong>Yes, exactly. Yeah, that's a great way to put it.</p><p><strong>Harry Glorikian: </strong>That sort of feels like a somewhat -- other than the dating aspect of it, right -- that feels like an unconventional problem for a computer science approach to tackle. I mean, we've had a lot of startup CEOs on the show talking about machine learning to sort genomes or chemical libraries, or to discover new drugs. But I don't think I've ever had anybody on, necessarily, that's trying to use AI to bridge a cultural gap. So I'd love to hear more abou that issue, like did you set out from day one to do this? I mean, you know, you've said in past interviews, it feels like you've been building a case that there are effective or emotional cultural issues at stake in the way doctors and patients communicate, and that if medical providers don't know about these issues or if they get them wrong, it can get in the way of achieving the best outcome for the patient. I mean, just summarizing. So if I'm wrong, you feel free to tell me,</p><p><strong>Briana Brownell: </strong>No, that you know that that's a really interesting way of putting it. And so why did we realize that this was an important way to go? Well, part of the answer to that is because early in my career after the GFC [great financial crisis], before I started the company, I did a lot of work understanding the motivating factors in encouraging technology adoption for people who needed to mitigate climate risk. So that's a huge mouthful. But basically, we wanted to see what could encourage people to adapt to climate variability in farming and mining and wineries and grape production, that kind of thing. Because being able to understand how people perceive risk to their business, how people understand technology in terms of it being a business investment, how people sort of copy or don't copy other people in the community who seem like savvy business people in their own right, and then adopt because of the social factor. And so we have seen a huge amount of success using that methodology to understand technology adoption. And so it wasn't too far afield to say, OK, this same kind of technique that's so successful in this other area would have a huge impact in the health care area. If we could understand some of those value-based and behavioral elements to understand why people are making the decisions that they're making. Health care is such a deeply personal thing that you really can't treat it at that surface level, and that's really what we've been doing for generations. We've gotten so far away from that doctor and in the community who knows everyone and their family and who has that close connection. Now we've sort of taken a step back, tried to scale it up, but what we've lost is understanding how those core values impact the decisions that you make around your own health care.</p><p><strong>Harry Glorikian: </strong>Yeah. Well, in the doctor's defense, it's sort of tough to do that in 10 minutes, right?</p><p><strong>Briana Brownell: </strong>Absolutely, it is. And that's that's the problem, is, you know, maybe we can eliminate some of those pressures and bring that right.</p><p><strong>Harry Glorikian: </strong>Yeah. And I and I look at sort of if I think about your system plus, you know, all the new technologies that are coming like wearables and so forth. So if you go to a doctor, they can get a longitudinal view of you, plus maybe the way that you're thinking about how you want your health care from the system that you're creating. But you mentioned you're solving these problems through machine learning or natural language processing. Why did you feel that these were the best tools in the AI toolbox to sort of help you with this?</p><p><strong>Briana Brownell: </strong>So the typology creation is actually an unsupervised learning method. And so the reason that that's so effective is because it doesn't force a pattern on the data due to the bias of the researcher. So it finds emerging patterns that are in the data that someone might necessarily not know to look for that specific pattern. And so it's sort of it doesn't care about your or my preconceived notions about what kinds of attitudes and behaviors are important. All of that comes directly from the data. And so for me, that's a huge, really powerful reason that it's so effective. It's because it will find the patterns, even if it's not something you need to look for.</p><p><strong>Harry Glorikian: </strong>So what's an example of the training dataset or the because I'm wondering like, you've got this system, but it's looking at certain sets of data. What would those be so that it can find those patterns?</p><p><strong>Briana Brownell: </strong>Right. So usually it's a series of attitudinal and behavioral questions that the individual is sort of rating on, let's say, a seven point scale. And the way that we come up with that sort of battery of questions is a whole lot of conversations with the patient group. So usually you talk to a large number of folks and then patterns emerge using the natural language, understanding that you can then quantify in order to find the typologies. So we have partners to find patients and physicians in specific regions with specific conditions. All of that so that we can target people to get their sort of attitudes on these different areas.</p><p><strong>Harry Glorikian: </strong>How do you distill all these squishy things like patient life stories, emotional states, cultural backgrounds, beliefs down into something that can be coded and categorized as data? I keep thinking about as spider graph, right? Yeah, yeah.</p><p><strong>Briana Brownell: </strong>So so that's the hard part. You know, and I fully admit that it's a very challenging area because on the one hand, you have the sort of individual story that needs to be understood in context. And then in the other area, you need to have sort of quantitative data that you can actually make real decisions on. And so moving from that one part to the other is sort of a combination of experience of folks working with patients within that specific treatment area. It's a combination of the sort of cutting edge understanding of psychology, of how people interact with the health care system. There's a huge amount of cultural factors. We, you know, work with patients and physicians all around the world. And so that's always a huge sort of elephant in the room, to make sure to add context to it. And so by combining all of these things together, then you essentially get closer and closer to the right answer.</p><p><strong>Harry Glorikian: </strong>So I'm almost thinking like, there's got to be this graphical interface, right, that somebody can look at quickly. I mean, I don't know why all of a sudden a Myers-Briggs popped into my head. So you get an idea of what that person is like and how to manage them. But so, I've heard you talk before, and you fundamentally believe, and you can correct me if I'm wrong, that it's the data plus the physician that takes it to a different level. It's not just the data itself.</p><p><strong>Briana Brownell: </strong>Mm hmm. And I mean, it's the data and the physician in partnership with the patient because, you know, at the end of the day, we all have a role to play in our own health care maintenance, in our own sort of world through journey through this world, I guess, right? And I think that by empowering the physicians to, as we say, practice at the top of their license, that's really a positive thing for everyone, right? So instead of focusing on tasks that can and should be automated, you're really focusing on making sure that those outcomes are as good as they can be. And so the support system around the patient is also extremely important. So you had mentioned wearables and some of those things. So that is another area that we're involved in as well, is making sure that we have some of that data that can feed into understanding the world view of the patient. And then in turn, so the physician can understand where that patient is coming from and identify whether they may be having challenges with their maintenance, for example, or with something at home.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I've got my new book is coming out soon, and I, you know, by putting it together, I almost feel like the technology plus the physician can almost bring get the patient to have a concierge medicine level experience without the cost of concierge medicine, right? And so I'm assuming your system is trying to give them that elevated level of care by giving the physician the insights that they need. But does the patient also get the same insights to get to know themselves? I'm just curious.</p><p><strong>Briana Brownell: </strong>They do, yes. And so we're actually looking at, rather than sort of -- you mentioned the concierge level medicine. We're actually looking at the most vulnerable people, rather than saying who needs the concierge service on the high end. We're saying, whose outcomes can we most impact? And so looking at the people who are more vulnerable, who struggle a lot more with their health care, where we want to make sure that we avoid them having to seek acute care. Because at the end of the day, nobody wants to end up in the emergency room, nobody wants to end up in the ICU. And so anything that we can do to sort of prevent that for those people is, you know, a huge positive for that individual and not only just them, but their whole support system, their family, their friends, everybody in their community.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for The Future You by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So you grew up in Canada, you went to school in Canada. You operate a business in Canada. And so I'm picking on this sort of cross-border thing, right? Because our health care systems are just a little different. So, you know. But I also imagine you've worked with, you know, clients here in the U.S. and some based in Canada. I'd love to get your -- how do you think about the two systems when it comes to the implementation of a technology like yours? Because they feel like they come at health care from different vantage points.</p><p><strong>Briana Brownell: </strong>Absolutely. So interestingly enough, we actually do work not just in the U.S., but also in Europe and also in Asia. And so for that reason, there's a lot of really interesting cross-cultural differences in how different health care systems work. And so, you know, Canada, we have a single payer system. And so for some, for some areas, it's a huge positive. People aren't going broke paying their medical bills. There's sort of more access in certain areas. But there are struggles. So things like remote communities, being able to have access to health care from places. For example, here in northern Saskatchewan, it's a real challenge for patients to get care from some of those remote areas. Each system, I think, has some challenges and some benefits. And then same with the American system, the advantage being that preventative care is actively incentivized, right? And so in Canada, that's not the case. So I think it's just really a different balance and a different tradeoff.</p><p><strong>Harry Glorikian: </strong>So, so the system is designed -- I almost think you need to use the system to figure out your own clients so that you you can you can understand what their drivers are. But you've you've described yourself as a data scientist, a tech entrepreneur. But I've also heard the word futurist. So I'm super curious about, you know, let's talk about the future. So what do you think about the cutting edge ideas in AI? And, you know, do they really have the potential -- and I know what my bias is, so I don't have to cloud your thought with my bias -- but you know, whether it's in health care or business or other areas, what are you most excited about right now?</p><p><strong>Briana Brownell: </strong>So for me, a lot of the interesting AI applications bring in decision making and sort of data analysis that is completely new and different. So if you look at things like diagnostics, the diagnostic tools using different styles of AI make their decisions in a way that's different than the physicians do. So you could have an AI system that's extremely accurate, but then it misses certain things that a physician will catch and then vice versa. And I think that that, to me is one of the most interesting and most important parts. Because now all of a sudden, you can have a sort of augmented system where the physician can work with the technology in order to get better outcomes for everyone. So that's one area where I'm really excited. The other area is being able to have that personalization at scale. So, you know, we talked about, you have the community physician that knew everyone's family and everyone's coming and going, and so you could have that personalized care. But then we've sort of moved towards a more kind of data-driven system where you didn't have that personal connection. I think we're going to go sort of back. I think we're going to be able to look at ways that we can personalize interactions, treatment plans, even specific medicines at a scale that it can really help a lot of people.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting because I was talking to someone at Facebook in their AI group and it was like, their system already knows so much about you, right? And so people don't realize like how that system truly does probably know them, better than they know themselves in a certain way. So I always think like, wow, if they could really start applying that to health care, you could really make a serious difference in the lives of these individuals, because most of health care is how you make your decisions and how you manage yourself. And did you take your meds? Did you go for that walk you were supposed to go for? Those sorts of simple things, right, that that we all struggle with on a daily basis. But so another futurism question. So you gave a TEDx talk in Calgary a couple of years ago where you talked about research done in pareidolia, just making sure I pronounce it correctly, which is the human brain's tendency to see faces and random things like in the environment, where you look in the I think you look in the clouds and you see a dog or something, right? But but you you tested computer vision. You found that that that doesn't happen. With the computer vision, they recognize different patterns, I guess, but not things like faces. And so from a philosophical question, how do you compare like the human mind and sort of the pattern recognition that we do? Because most of what we do in medicine is a certain form of pattern recognition. I'm just trying to figure out, is that what differentiates an intelligent system versus a conscious system?</p><p><strong>Briana Brownell: </strong>So I would say in that case, it wouldn't be necessarily consciousness, but certainly the human brain works differently from the artificial intelligence systems that we've built so far. Most of the AI systems that we're building are sort of focused on one specific narrow task, and it does really well at one thing. But as soon as it moves outside of that, or as soon as you add sort of additional kinds of media to it, it's really, really challenging. So I think, you know, speaking futurism, the next wave of really good AI applications are going to widen. So we're really, really narrow right now. But we're going to start to widen more and more in order to sort of combine some of this information and be able to sort of get greater insights. So I'll give you an example. So when people do sort of codifying datasets for image recognition, what they do is they link it to what are called synsets. And so what a synset is is a meaning, right? So if you have, let's say, like a coffee mug, right? So you have a picture of this, you know, you say, OK, it's a mug, right? But then what if somebody else codes it as a cup? Well, so there are two different things, right? But they're similar enough that most humans would recognize.</p><p><strong>Briana Brownell: </strong>Well, that's probably sort of really similar, right? But yet when we're doing image recognition and we're training on these huge data sets, that similarity is not always taken into account. So more and more we're able to make multiple linkages like that in order to improve the outcomes. But right now, in a lot of cases, that's not taken into account. And so that'll be I think the next step is, we're going to sort of widen some of the applications of artificial intelligence. And then after that, it's really about proactive and automated systems. So we right now are looking into this, being able to have a system that understands, adapts, and then makes a recommendation in order to improve health care outcomes. So this person is, let's say, their heart rate is constantly elevated. Maybe we need to send them a push notification and sort of ask them, Hey, how are you doing? Is everything OK? Right? Something like that. And so those proactive systems, I think, are going to become even more important in the next five or 10 years.</p><p><strong>Harry Glorikian: </strong>So it's interesting. I was reading a paper yesterday or the day before about how there's, when you make, to speed up memory there's breakages that happen in the DNA in the neurons that sort of helps the system adapt more quickly to a new memory. And so. I want to say, like you're talking about systems that have to be able to change part of the code to be able to then adapt to what it's now looking at. So sort of learning, but not learning the way that we think about learning.</p><p><strong>Briana Brownell: </strong>Yeah, so definitely, I mean, there's also challenges with those systems because you can have them quickly move away from where the original prediction was, right? And so being able to have that monitoring is extremely important. So this this is not a new idea. This is an old idea from the eighties about how you need to make like AI systems as collections of agents, right? So we're just digging up some of the old thought around this. But I think whereas it was extremely difficult to do 40 years ago, now it's actually relatively straightforward. And so I expect a lot of breakthroughs in that area.</p><p><strong>Harry Glorikian: </strong>Well, and I think what you know, some of the other areas that I see is sort of where you turn AI on itself to figure out how to improve what it does, like Google's doing with new chipsets and so forth and so on. Which I think most people aren't factoring in -- the dramatic improvements that could be made when you turn these things on themselves. So the shifts are, what I like to call the turns, are happening much faster than most people anticipate. Let's go back to health care for a second. So try taking today's, you know, trends in AI, looking forward a couple of decades, say 2040. Shit, I'm going to be really old by then. But how do you think technology will change the way patients interact with the health care system, and maybe it's earlier than 2040, so don't let me. You know, that might be too far out, but what do you predict is going to happen at that point?</p><p><strong>Briana Brownell: </strong>I think that there's going to be a much higher-touch system in place. So right now, most people go to the doctor for, maybe they'll go for an annual checkup, maybe not, depending on who you are. They'll go see a doctor when they have something go wrong, where they feel sick or they have an injury or that kind of thing. They might go to minor emergency if they had a sort of more serious injury or something happened there. But the truth is, it's not an everyday sort of a thing, or probably it's not an every week or every month kind of thing for most people. I see that changing. I think that there's going to be sort of a continuous back and forth. There's going to be a much more sort of low-friction way that anyone can communicate with a health care provider or even an AI system to get their health care questions answered. So, you know, I'm sure everybody has been in this situation where you either you feel sick or you have hurt yourself. There's something going on with your health care and you have to make a decision whether or not you're going to actually call and book that appointment and you're going to actually go down to the doctor's office and you're actually going to talk to some somebody about how you're feeling. I think that's going to disappear. I think it's going to be a lot of the sort of seemingly minor things are going to be sort of taken care of by high-touch technology system that can sort of direct people to a physician's care when they need to, but can handle sort of most other things that that happen. And so that drastically reduces sort of the load for things that are people are avoiding for months and months and months. And then all of a sudden it gets really bad and they end up in the emergency room. So I see that being completely eliminated from the system.</p><p><strong>Harry Glorikian: </strong>Yeah. Well, that would be wonderful. It's funny because in my brain, I was going to, OK, the serious movie that lays all this out and it looks totally cool. And then the comedy where the person is totally revolting against the system. But I do agree, like, I truly believe that we're moving towards health care and hopefully away from sick care. Or we sort of push the sick stuff out much further. But like I mean, you can't see it, it's under my shirt, but I've got a CGM [continuous glucose monitor], right, that I'm wearing under my shirt here. And so, you know, why am I wearing a CGM? I'm not diabetic, but I'm sort of monitoring, you know, don't eat -- like, what was it we went to? I think I had bibimbap at a Korean restaurant, and man, whatever was in the rice made that blood sugar spike and totally stay up. So I'm like, OK, no bibimbap. Or if I do it, it's going to be once in a blue moon. But I think the systems are going to be monitoring. I don't think there's anything we buy anymore, your car, your computer or whatever doesn't have a monitoring system in it to sort of do preventive maintenance or alert you before, you know, here's the mean time between failure. And that's what I see happening and what we're doing.</p><p><strong>Briana Brownell: </strong>Yeah, we even get, you know, I get my notification on screen time, like where I was spending time on my iPad, which app I was doing right. And so I feel like that's exactly where we're going to go to is where, you know, maybe every week you actually get a little sort of health care report or you get some some kind of information.</p><p><strong>Harry Glorikian: </strong>Yeah, that the delivery of that information is going to have to be there. We're going to need a few geniuses on how to deliver that to people because I can just see a few people having fits, right? Because my kids don't like the monitoring app. When I say, how long have you been on Instagram or Snapchat? And they're like, Oh, not very long. And then you can see the time. And they don't like that. But do you believe, like every doctor or nurse physician assistant is going to have sort of an AI assistant working alongside them sifting through patient data? Highlighting what the doctor needs to focus on or translating cultural gaps? You're working on a system that sort of is trying to understand people, bridge that gap and sort of make things better, so I just see you're sort of at the beginning stage. And I'm trying to go forward in the future to say, would that just be the natural progression as it goes forward?</p><p><strong>Briana Brownell: </strong>Yeah. So I definitely see multiple AI systems running behind the scenes that can sort of crunch the numbers and understand some of the macro level patterns that can then inform the physicians with information that might be relevant. So one of the areas that we've done some work in is with rare diseases. So you probably have heard the saying: If you hear hoof beats behind you, what do you think it is? Do you think it's a horse or a zebra? Right. So, you know, if you're a doctor and you see symptoms that match extremely rare disease, a zebra or something much more common, you're going to assume you're going to guess that it's a horse. But for the patient, you know, going through that rigmarole when you have a rare condition, when you are that zebra, that's a really difficult thing for the patient. And so if you can say, you know, this actually might be a zebra based on all of these other factors and all of these other sort of subtle cues, I think that that makes it better for everyone. I mean, for the physician who has access to pattern data that they would never be able to do by just sort of seeing patterns in their own patients and being able to look at that on just a much greater scale. And so that's an area where I think that there's going to be a huge, huge boon.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I'm a firm believer in genomic sequencing, to cut to the chase. And then, you know, I just interviewed Matthew Might, who looks at the genetic sequence and then helps identify already-approved drugs that might actually impact that disease state. You know, there's a number of things that are out there. I just wish they moved faster into the existing environment. And that's what drives me. I mean, I think at some point, I don't know how any of the systems can function without implementing these tools that sort of are assistive in nature. I've heard some venture guys say, "Oh, this is going to take the place of the doctor," and I'm like, "Oh my God, you're nuts." Like, that's not going to happen. But I think because I think every piece of data I've seen is the two together result in better outcomes rather than one or the other by themselves.</p><p><strong>Briana Brownell: </strong>Yeah, absolutely. I think you're exactly right on that. The idea is that maybe you have a sort of larger system of people that can support people in their health care. So instead of focusing on doctors and nurses and then things like physiotherapists, et cetera, I see a role for sort of other support people within the health care system that can sort of guide patients to lead healthier lives. Aside from that, so if anything, I think that it's going to be we're going to need more people involved in doing some of these things.</p><p><strong>Harry Glorikian: </strong>Yeah, I think, you know, I keep trying to encourage my brethren in the tech world to come to health care because it has more impact on on everything and we need more people. There's just not enough people to do the computational work or the real hard math, sometimes that's what is required. I find people being pretty lazy at that stuff that moves the needle. But it's been great talking to you. This is fascinating. I would, you know, I almost wish I could turn your system on myself to find out what my biases are. You know, you may want to come up with a consumer facing thing so that people can learn things about themselves and maybe even relay that back to their own physician about how they want to be communicated with.</p><p><strong>Briana Brownell: </strong>Yeah, I love that. I think that right now we are actually working with a consumer facing application within the US system, so hopefully someday you'll be able to have access to it and you can learn all about yourself.</p><p><strong>Harry Glorikian: </strong>Yeah, like I said, I mean, I'm simplifying it, but sort of like a Myers-Briggs. When I was younger, I was ENTJ and now ENTP. But, you know, always good to know yourself. Great to speak to you. I wish you incredible success in your endeavors. And we want to see systems like this making impact on patients and bringing hard data to the table to get even the system itself to sort of change the way that it operates.</p><p><strong>Briana Brownell: </strong>Wonderful, well, it was great to talk to you, and, you know, it's always something that I am excited to chat about, so thank you for having me.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 7 Dec 2021 05:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Briana Brownell)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>We've learned from previous guests that machine learning and other forms of AI are helping to identify better disease treatments, get drugs to market faster, and spot health problems before they get out of hand. But what if they could also help patients find the best doctors for them, and help doctors frame their advice in a way that patients can relate to? This week, Harry's guest, Briana Brownell, talks about the computational tools her company Pure Strategy is building to find patterns in people’s personal preferences that can lower cultural barriers, enable better matchmaking between patients and doctors, predict which patients are most likely or least likely to go along with a treatment plan, or help doctors communicate their recommendations better. "Not everybody makes decisions in the same way," Brownell says. "Not everybody values the same things. But by understanding some of those psychological and value-based drivers, we can get better health care outcomes."</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>If you’re a regular listener you know I’ve had dozens of guests on the show who’ve explained how machine learning and other forms of AI are transforming healthcare </p><p>They’ve talked about the ways AI can find better disease treatments, or help get drugs to market faster, or spot health problems before they get out of hand. In a way, that’s what the show is all about.</p><p>But my guest this week, Briana Brownell, thinks there are some gaps at the very core of our healthcare system where the power of AI is only beginning to be tapped.</p><p>And one of those gaps is the relationship between patients and their doctors.</p><p>Brownell is a data scientist and the founder and CEO of a consulting firm in Saskatoon, Saskatchewan, called Pure Strategy. </p><p>The company works with all sorts of clients and industries. And it’s known for a package of computational tools called ANIE that uses forms of AI such as unsupervised learning and natural language processing to find patterns in data.</p><p>In the healthcare sector, Pure Strategy collects that data in the form of patients’ responses to behavioral surveys. </p><p>And then it looks for patterns in people’s personal preferences or cultural identities that can help match them up with the best doctors for them.</p><p>These patterns can also predict which patients are most likely or least likely to go along with a treatment plan. That can help doctors communicate their recommendations better and raise the chances that patients will stay out of the ER or the ICU.</p><p>Brownell argues that medicine should never be <i>completely </i>data-driven, since doctors always need to account for patient’s unique life stories and preferences. </p><p>But with AI, she says, providers can gather more input that helps them understand where patients are coming from and what challenges they’re facing.</p><p>All of which echoes one of the themes of <i>The Future You</i>, which includes several chapters about how technology is changing the relationship between us patients and our doctors.</p><p>By the way, the book is out now in paperback and ebook formats at Barnes & Noble and Amazon. So check it out.</p><p>And now here’s my full conversation with Briana Brownell.</p><p><strong>Harry Glorikian: </strong>Briana, welcome to the show.</p><p><strong>Briana Brownell: </strong>Thank you so much for having me.</p><p><strong>Harry Glorikian: </strong>So, Briana, I've, like, read about what you've done. I've watched the TED talk you had given and seen you win awards and so forth. But I want to step back for everybody here and sort of, so they understand who you are or where you came from. And if you can give a sort of high level biography of yourself how you got to this point in your career, where you're building computational tools to help doctors and patients -- how did all of that start? Where did you grow up? What did you study? You know what? What are the experiences sort of shaped you to go in this direction? Because you didn't start off in health care.</p><p><strong>Briana Brownell: </strong>That's true, yeah. I've had a really kind of a roundabout career, certainly. The first job that I got after my undergraduate degree in mathematics was in finance, which was wonderful. But I started in 2006, which I'm sure you know what's happening next. The global financial crisis happened next, right? And so that was my very first start in the work world. And after that, I actually got into more of the data science area, which was amazing for me because I was always interested in data, always interested in mathematics. But at the time, nobody had ever really heard of data science. Nobody had ever really been all that interested in analytics. And so I found that my job was so bizarre to just about everybody that I met. And so you can't imagine how excited I am when now data science is on everyone's mind. And, you know, artificial intelligence is, you know, a huge industry now. So I feel like, you know, I started somewhere very strange. But, you know, the world kind of came back to realize how interesting it really was.</p><p><strong>Harry Glorikian: </strong>Yeah, it's interesting. I mean, when I was when I came up with the idea for my first book, it was, you know, at least five years before it published, maybe even six where it was like, Oh my god, . It's the data fixation of health care like. Once we get that data like, oh my God, we're going to be able to analyze it and then find opportunities and see patterns and longitudinal, and I was like, "But I don't hear anybody talking about that." So that's what I got me excited to write that first one. But tell us about your company. It's called Pure Strategy, which reminds me of Strategy Consulting, which was, you know, one of my last companies that I had. But you know, what do you you do for your clients? What do you sink your teeth into?</p><p><strong>Briana Brownell: </strong>So, you know, first of all, the name Pure Strategy is a game theory reference. So I actually have a master's in economics. And so it's a little bit of a nerdy game theory reference. And so every time I meet someone else who took game theory, you know, we have a little bit of an eye-to-eye with the name of the company. But so the reason we named it that is a pure strategy gives you a way forward regardless of what your opposition does. So you always know the best thing to do next. And so, you know, with that philosophy is how we approach all kinds of different problems. So what kind of data, what kind of information do companies need to make decisions about how to better serve their customers, what markets to enter, how to invest their money properly? All of those kinds of things.</p><p><strong>Harry Glorikian: </strong>I need to study pure strategy just to manage my wife and kids that so I know what to do every time something happens. But your core product at Pure Strategy is something you call automated neural intelligence engine or ANIE. What is Annie built to do?</p><p><strong>Briana Brownell: </strong>So ANIE has a few different components to it. The reason that we built this intelligence system is because what I found was as a data scientist, a lot of the things that I was doing by hand could be much better done with an automated AI system. And so I began to look at the sort of time intensive but lower value tasks that could be tackled by artificial intelligence. And so we have a suite of four modules within that system that makes data analysis easier, faster, better. All of those good things. And so, you know, working with language, for example, working with prediction, working with choice modeling and then working to find emergent patterns and data that you didn't even know to look for.</p><p><strong>Harry Glorikian: </strong>Ok, so NLP-based predictive capabilities. But step back for a second, so focus in a little bit on on, say, the clients in pharma and health care, because that's the constituency that generally listens to this. What kind of problems are you helping them solve? So if you had a few concrete examples.</p><p><strong>Briana Brownell: </strong>Sure. So one of the areas that we find it's extremely useful is to understand typologies of patients and physicians and understanding how their values and attitudes impact their decision making. So not everybody makes decisions in the same way. Not everybody values the same things. But by understanding some of those psychological and value based drivers, we can get better health care outcomes. So we can look at what are the motivating factors in the patient group. Why are they being readmitted? Why are they not adhering to their treatment plan? Why are they doing things like delaying appointments, canceling appointments, those kinds of things? And then we can understand why they're making those decisions and hopefully sort of break the negative patterns and encourage the positive patterns so that they are healthier, they live longer, healthier lives and that their everyday life is improved as a result.</p><p><strong>Harry Glorikian: </strong>Interesting. When you first started explaining it, my brain was going towards a dating app like making sure I put the right doctor and the right patient together.</p><p><strong>Briana Brownell: </strong>So that's that's a big part of it, actually. Because certain physicians have a world view of their role as a health care provider, they need to be able to match their sort of delivery and their communication with a patient with the way that the patient can best understand it. So some physicians are very science-based and focusing on what are the cutting edge things that are happening in my field? And do I want to sort of use those with my patients to add to their treatment plan, for example. Whereas some other physicians are more looking at these sort of holistic care aspect where the patient is the center of a huge ecosystem of other health impact factors. And so how do they treat that patient as sort of an entire person? Right. And so definitely matching. You can imagine certain patients want certain kinds of doctors, right? So I'm the kind of person that I want to get in there and get out and give me the information. And that's fine, right? But that's not for everybody. And so by treating both the patient group and the physician group as having their own individual sort of beliefs and nuances within their worldview can really, really help things.</p><p><strong>Harry Glorikian: </strong>So essentially, like, I'm simplifying dramatically, but we are talking about the fundamental functions of a sort of a dating app, at least for that application area.</p><p><strong>Briana Brownell: </strong>That's right. Yes, it is a lot like a dating app. Yep.</p><p><strong>Harry Glorikian: </strong>But so if I understood, because I was trying to listen to some of the things you had done and you've guys have written around it, basically you're trying to help lower the cultural barriers between patients and the medical system to make sure they get better care.</p><p><strong>Briana Brownell: </strong>Yes, exactly. Yeah, that's a great way to put it.</p><p><strong>Harry Glorikian: </strong>That sort of feels like a somewhat -- other than the dating aspect of it, right -- that feels like an unconventional problem for a computer science approach to tackle. I mean, we've had a lot of startup CEOs on the show talking about machine learning to sort genomes or chemical libraries, or to discover new drugs. But I don't think I've ever had anybody on, necessarily, that's trying to use AI to bridge a cultural gap. So I'd love to hear more abou that issue, like did you set out from day one to do this? I mean, you know, you've said in past interviews, it feels like you've been building a case that there are effective or emotional cultural issues at stake in the way doctors and patients communicate, and that if medical providers don't know about these issues or if they get them wrong, it can get in the way of achieving the best outcome for the patient. I mean, just summarizing. So if I'm wrong, you feel free to tell me,</p><p><strong>Briana Brownell: </strong>No, that you know that that's a really interesting way of putting it. And so why did we realize that this was an important way to go? Well, part of the answer to that is because early in my career after the GFC [great financial crisis], before I started the company, I did a lot of work understanding the motivating factors in encouraging technology adoption for people who needed to mitigate climate risk. So that's a huge mouthful. But basically, we wanted to see what could encourage people to adapt to climate variability in farming and mining and wineries and grape production, that kind of thing. Because being able to understand how people perceive risk to their business, how people understand technology in terms of it being a business investment, how people sort of copy or don't copy other people in the community who seem like savvy business people in their own right, and then adopt because of the social factor. And so we have seen a huge amount of success using that methodology to understand technology adoption. And so it wasn't too far afield to say, OK, this same kind of technique that's so successful in this other area would have a huge impact in the health care area. If we could understand some of those value-based and behavioral elements to understand why people are making the decisions that they're making. Health care is such a deeply personal thing that you really can't treat it at that surface level, and that's really what we've been doing for generations. We've gotten so far away from that doctor and in the community who knows everyone and their family and who has that close connection. Now we've sort of taken a step back, tried to scale it up, but what we've lost is understanding how those core values impact the decisions that you make around your own health care.</p><p><strong>Harry Glorikian: </strong>Yeah. Well, in the doctor's defense, it's sort of tough to do that in 10 minutes, right?</p><p><strong>Briana Brownell: </strong>Absolutely, it is. And that's that's the problem, is, you know, maybe we can eliminate some of those pressures and bring that right.</p><p><strong>Harry Glorikian: </strong>Yeah. And I and I look at sort of if I think about your system plus, you know, all the new technologies that are coming like wearables and so forth. So if you go to a doctor, they can get a longitudinal view of you, plus maybe the way that you're thinking about how you want your health care from the system that you're creating. But you mentioned you're solving these problems through machine learning or natural language processing. Why did you feel that these were the best tools in the AI toolbox to sort of help you with this?</p><p><strong>Briana Brownell: </strong>So the typology creation is actually an unsupervised learning method. And so the reason that that's so effective is because it doesn't force a pattern on the data due to the bias of the researcher. So it finds emerging patterns that are in the data that someone might necessarily not know to look for that specific pattern. And so it's sort of it doesn't care about your or my preconceived notions about what kinds of attitudes and behaviors are important. All of that comes directly from the data. And so for me, that's a huge, really powerful reason that it's so effective. It's because it will find the patterns, even if it's not something you need to look for.</p><p><strong>Harry Glorikian: </strong>So what's an example of the training dataset or the because I'm wondering like, you've got this system, but it's looking at certain sets of data. What would those be so that it can find those patterns?</p><p><strong>Briana Brownell: </strong>Right. So usually it's a series of attitudinal and behavioral questions that the individual is sort of rating on, let's say, a seven point scale. And the way that we come up with that sort of battery of questions is a whole lot of conversations with the patient group. So usually you talk to a large number of folks and then patterns emerge using the natural language, understanding that you can then quantify in order to find the typologies. So we have partners to find patients and physicians in specific regions with specific conditions. All of that so that we can target people to get their sort of attitudes on these different areas.</p><p><strong>Harry Glorikian: </strong>How do you distill all these squishy things like patient life stories, emotional states, cultural backgrounds, beliefs down into something that can be coded and categorized as data? I keep thinking about as spider graph, right? Yeah, yeah.</p><p><strong>Briana Brownell: </strong>So so that's the hard part. You know, and I fully admit that it's a very challenging area because on the one hand, you have the sort of individual story that needs to be understood in context. And then in the other area, you need to have sort of quantitative data that you can actually make real decisions on. And so moving from that one part to the other is sort of a combination of experience of folks working with patients within that specific treatment area. It's a combination of the sort of cutting edge understanding of psychology, of how people interact with the health care system. There's a huge amount of cultural factors. We, you know, work with patients and physicians all around the world. And so that's always a huge sort of elephant in the room, to make sure to add context to it. And so by combining all of these things together, then you essentially get closer and closer to the right answer.</p><p><strong>Harry Glorikian: </strong>So I'm almost thinking like, there's got to be this graphical interface, right, that somebody can look at quickly. I mean, I don't know why all of a sudden a Myers-Briggs popped into my head. So you get an idea of what that person is like and how to manage them. But so, I've heard you talk before, and you fundamentally believe, and you can correct me if I'm wrong, that it's the data plus the physician that takes it to a different level. It's not just the data itself.</p><p><strong>Briana Brownell: </strong>Mm hmm. And I mean, it's the data and the physician in partnership with the patient because, you know, at the end of the day, we all have a role to play in our own health care maintenance, in our own sort of world through journey through this world, I guess, right? And I think that by empowering the physicians to, as we say, practice at the top of their license, that's really a positive thing for everyone, right? So instead of focusing on tasks that can and should be automated, you're really focusing on making sure that those outcomes are as good as they can be. And so the support system around the patient is also extremely important. So you had mentioned wearables and some of those things. So that is another area that we're involved in as well, is making sure that we have some of that data that can feed into understanding the world view of the patient. And then in turn, so the physician can understand where that patient is coming from and identify whether they may be having challenges with their maintenance, for example, or with something at home.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I've got my new book is coming out soon, and I, you know, by putting it together, I almost feel like the technology plus the physician can almost bring get the patient to have a concierge medicine level experience without the cost of concierge medicine, right? And so I'm assuming your system is trying to give them that elevated level of care by giving the physician the insights that they need. But does the patient also get the same insights to get to know themselves? I'm just curious.</p><p><strong>Briana Brownell: </strong>They do, yes. And so we're actually looking at, rather than sort of -- you mentioned the concierge level medicine. We're actually looking at the most vulnerable people, rather than saying who needs the concierge service on the high end. We're saying, whose outcomes can we most impact? And so looking at the people who are more vulnerable, who struggle a lot more with their health care, where we want to make sure that we avoid them having to seek acute care. Because at the end of the day, nobody wants to end up in the emergency room, nobody wants to end up in the ICU. And so anything that we can do to sort of prevent that for those people is, you know, a huge positive for that individual and not only just them, but their whole support system, their family, their friends, everybody in their community.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for The Future You by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So you grew up in Canada, you went to school in Canada. You operate a business in Canada. And so I'm picking on this sort of cross-border thing, right? Because our health care systems are just a little different. So, you know. But I also imagine you've worked with, you know, clients here in the U.S. and some based in Canada. I'd love to get your -- how do you think about the two systems when it comes to the implementation of a technology like yours? Because they feel like they come at health care from different vantage points.</p><p><strong>Briana Brownell: </strong>Absolutely. So interestingly enough, we actually do work not just in the U.S., but also in Europe and also in Asia. And so for that reason, there's a lot of really interesting cross-cultural differences in how different health care systems work. And so, you know, Canada, we have a single payer system. And so for some, for some areas, it's a huge positive. People aren't going broke paying their medical bills. There's sort of more access in certain areas. But there are struggles. So things like remote communities, being able to have access to health care from places. For example, here in northern Saskatchewan, it's a real challenge for patients to get care from some of those remote areas. Each system, I think, has some challenges and some benefits. And then same with the American system, the advantage being that preventative care is actively incentivized, right? And so in Canada, that's not the case. So I think it's just really a different balance and a different tradeoff.</p><p><strong>Harry Glorikian: </strong>So, so the system is designed -- I almost think you need to use the system to figure out your own clients so that you you can you can understand what their drivers are. But you've you've described yourself as a data scientist, a tech entrepreneur. But I've also heard the word futurist. So I'm super curious about, you know, let's talk about the future. So what do you think about the cutting edge ideas in AI? And, you know, do they really have the potential -- and I know what my bias is, so I don't have to cloud your thought with my bias -- but you know, whether it's in health care or business or other areas, what are you most excited about right now?</p><p><strong>Briana Brownell: </strong>So for me, a lot of the interesting AI applications bring in decision making and sort of data analysis that is completely new and different. So if you look at things like diagnostics, the diagnostic tools using different styles of AI make their decisions in a way that's different than the physicians do. So you could have an AI system that's extremely accurate, but then it misses certain things that a physician will catch and then vice versa. And I think that that, to me is one of the most interesting and most important parts. Because now all of a sudden, you can have a sort of augmented system where the physician can work with the technology in order to get better outcomes for everyone. So that's one area where I'm really excited. The other area is being able to have that personalization at scale. So, you know, we talked about, you have the community physician that knew everyone's family and everyone's coming and going, and so you could have that personalized care. But then we've sort of moved towards a more kind of data-driven system where you didn't have that personal connection. I think we're going to go sort of back. I think we're going to be able to look at ways that we can personalize interactions, treatment plans, even specific medicines at a scale that it can really help a lot of people.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting because I was talking to someone at Facebook in their AI group and it was like, their system already knows so much about you, right? And so people don't realize like how that system truly does probably know them, better than they know themselves in a certain way. So I always think like, wow, if they could really start applying that to health care, you could really make a serious difference in the lives of these individuals, because most of health care is how you make your decisions and how you manage yourself. And did you take your meds? Did you go for that walk you were supposed to go for? Those sorts of simple things, right, that that we all struggle with on a daily basis. But so another futurism question. So you gave a TEDx talk in Calgary a couple of years ago where you talked about research done in pareidolia, just making sure I pronounce it correctly, which is the human brain's tendency to see faces and random things like in the environment, where you look in the I think you look in the clouds and you see a dog or something, right? But but you you tested computer vision. You found that that that doesn't happen. With the computer vision, they recognize different patterns, I guess, but not things like faces. And so from a philosophical question, how do you compare like the human mind and sort of the pattern recognition that we do? Because most of what we do in medicine is a certain form of pattern recognition. I'm just trying to figure out, is that what differentiates an intelligent system versus a conscious system?</p><p><strong>Briana Brownell: </strong>So I would say in that case, it wouldn't be necessarily consciousness, but certainly the human brain works differently from the artificial intelligence systems that we've built so far. Most of the AI systems that we're building are sort of focused on one specific narrow task, and it does really well at one thing. But as soon as it moves outside of that, or as soon as you add sort of additional kinds of media to it, it's really, really challenging. So I think, you know, speaking futurism, the next wave of really good AI applications are going to widen. So we're really, really narrow right now. But we're going to start to widen more and more in order to sort of combine some of this information and be able to sort of get greater insights. So I'll give you an example. So when people do sort of codifying datasets for image recognition, what they do is they link it to what are called synsets. And so what a synset is is a meaning, right? So if you have, let's say, like a coffee mug, right? So you have a picture of this, you know, you say, OK, it's a mug, right? But then what if somebody else codes it as a cup? Well, so there are two different things, right? But they're similar enough that most humans would recognize.</p><p><strong>Briana Brownell: </strong>Well, that's probably sort of really similar, right? But yet when we're doing image recognition and we're training on these huge data sets, that similarity is not always taken into account. So more and more we're able to make multiple linkages like that in order to improve the outcomes. But right now, in a lot of cases, that's not taken into account. And so that'll be I think the next step is, we're going to sort of widen some of the applications of artificial intelligence. And then after that, it's really about proactive and automated systems. So we right now are looking into this, being able to have a system that understands, adapts, and then makes a recommendation in order to improve health care outcomes. So this person is, let's say, their heart rate is constantly elevated. Maybe we need to send them a push notification and sort of ask them, Hey, how are you doing? Is everything OK? Right? Something like that. And so those proactive systems, I think, are going to become even more important in the next five or 10 years.</p><p><strong>Harry Glorikian: </strong>So it's interesting. I was reading a paper yesterday or the day before about how there's, when you make, to speed up memory there's breakages that happen in the DNA in the neurons that sort of helps the system adapt more quickly to a new memory. And so. I want to say, like you're talking about systems that have to be able to change part of the code to be able to then adapt to what it's now looking at. So sort of learning, but not learning the way that we think about learning.</p><p><strong>Briana Brownell: </strong>Yeah, so definitely, I mean, there's also challenges with those systems because you can have them quickly move away from where the original prediction was, right? And so being able to have that monitoring is extremely important. So this this is not a new idea. This is an old idea from the eighties about how you need to make like AI systems as collections of agents, right? So we're just digging up some of the old thought around this. But I think whereas it was extremely difficult to do 40 years ago, now it's actually relatively straightforward. And so I expect a lot of breakthroughs in that area.</p><p><strong>Harry Glorikian: </strong>Well, and I think what you know, some of the other areas that I see is sort of where you turn AI on itself to figure out how to improve what it does, like Google's doing with new chipsets and so forth and so on. Which I think most people aren't factoring in -- the dramatic improvements that could be made when you turn these things on themselves. So the shifts are, what I like to call the turns, are happening much faster than most people anticipate. Let's go back to health care for a second. So try taking today's, you know, trends in AI, looking forward a couple of decades, say 2040. Shit, I'm going to be really old by then. But how do you think technology will change the way patients interact with the health care system, and maybe it's earlier than 2040, so don't let me. You know, that might be too far out, but what do you predict is going to happen at that point?</p><p><strong>Briana Brownell: </strong>I think that there's going to be a much higher-touch system in place. So right now, most people go to the doctor for, maybe they'll go for an annual checkup, maybe not, depending on who you are. They'll go see a doctor when they have something go wrong, where they feel sick or they have an injury or that kind of thing. They might go to minor emergency if they had a sort of more serious injury or something happened there. But the truth is, it's not an everyday sort of a thing, or probably it's not an every week or every month kind of thing for most people. I see that changing. I think that there's going to be sort of a continuous back and forth. There's going to be a much more sort of low-friction way that anyone can communicate with a health care provider or even an AI system to get their health care questions answered. So, you know, I'm sure everybody has been in this situation where you either you feel sick or you have hurt yourself. There's something going on with your health care and you have to make a decision whether or not you're going to actually call and book that appointment and you're going to actually go down to the doctor's office and you're actually going to talk to some somebody about how you're feeling. I think that's going to disappear. I think it's going to be a lot of the sort of seemingly minor things are going to be sort of taken care of by high-touch technology system that can sort of direct people to a physician's care when they need to, but can handle sort of most other things that that happen. And so that drastically reduces sort of the load for things that are people are avoiding for months and months and months. And then all of a sudden it gets really bad and they end up in the emergency room. So I see that being completely eliminated from the system.</p><p><strong>Harry Glorikian: </strong>Yeah. Well, that would be wonderful. It's funny because in my brain, I was going to, OK, the serious movie that lays all this out and it looks totally cool. And then the comedy where the person is totally revolting against the system. But I do agree, like, I truly believe that we're moving towards health care and hopefully away from sick care. Or we sort of push the sick stuff out much further. But like I mean, you can't see it, it's under my shirt, but I've got a CGM [continuous glucose monitor], right, that I'm wearing under my shirt here. And so, you know, why am I wearing a CGM? I'm not diabetic, but I'm sort of monitoring, you know, don't eat -- like, what was it we went to? I think I had bibimbap at a Korean restaurant, and man, whatever was in the rice made that blood sugar spike and totally stay up. So I'm like, OK, no bibimbap. Or if I do it, it's going to be once in a blue moon. But I think the systems are going to be monitoring. I don't think there's anything we buy anymore, your car, your computer or whatever doesn't have a monitoring system in it to sort of do preventive maintenance or alert you before, you know, here's the mean time between failure. And that's what I see happening and what we're doing.</p><p><strong>Briana Brownell: </strong>Yeah, we even get, you know, I get my notification on screen time, like where I was spending time on my iPad, which app I was doing right. And so I feel like that's exactly where we're going to go to is where, you know, maybe every week you actually get a little sort of health care report or you get some some kind of information.</p><p><strong>Harry Glorikian: </strong>Yeah, that the delivery of that information is going to have to be there. We're going to need a few geniuses on how to deliver that to people because I can just see a few people having fits, right? Because my kids don't like the monitoring app. When I say, how long have you been on Instagram or Snapchat? And they're like, Oh, not very long. And then you can see the time. And they don't like that. But do you believe, like every doctor or nurse physician assistant is going to have sort of an AI assistant working alongside them sifting through patient data? Highlighting what the doctor needs to focus on or translating cultural gaps? You're working on a system that sort of is trying to understand people, bridge that gap and sort of make things better, so I just see you're sort of at the beginning stage. And I'm trying to go forward in the future to say, would that just be the natural progression as it goes forward?</p><p><strong>Briana Brownell: </strong>Yeah. So I definitely see multiple AI systems running behind the scenes that can sort of crunch the numbers and understand some of the macro level patterns that can then inform the physicians with information that might be relevant. So one of the areas that we've done some work in is with rare diseases. So you probably have heard the saying: If you hear hoof beats behind you, what do you think it is? Do you think it's a horse or a zebra? Right. So, you know, if you're a doctor and you see symptoms that match extremely rare disease, a zebra or something much more common, you're going to assume you're going to guess that it's a horse. But for the patient, you know, going through that rigmarole when you have a rare condition, when you are that zebra, that's a really difficult thing for the patient. And so if you can say, you know, this actually might be a zebra based on all of these other factors and all of these other sort of subtle cues, I think that that makes it better for everyone. I mean, for the physician who has access to pattern data that they would never be able to do by just sort of seeing patterns in their own patients and being able to look at that on just a much greater scale. And so that's an area where I think that there's going to be a huge, huge boon.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I'm a firm believer in genomic sequencing, to cut to the chase. And then, you know, I just interviewed Matthew Might, who looks at the genetic sequence and then helps identify already-approved drugs that might actually impact that disease state. You know, there's a number of things that are out there. I just wish they moved faster into the existing environment. And that's what drives me. I mean, I think at some point, I don't know how any of the systems can function without implementing these tools that sort of are assistive in nature. I've heard some venture guys say, "Oh, this is going to take the place of the doctor," and I'm like, "Oh my God, you're nuts." Like, that's not going to happen. But I think because I think every piece of data I've seen is the two together result in better outcomes rather than one or the other by themselves.</p><p><strong>Briana Brownell: </strong>Yeah, absolutely. I think you're exactly right on that. The idea is that maybe you have a sort of larger system of people that can support people in their health care. So instead of focusing on doctors and nurses and then things like physiotherapists, et cetera, I see a role for sort of other support people within the health care system that can sort of guide patients to lead healthier lives. Aside from that, so if anything, I think that it's going to be we're going to need more people involved in doing some of these things.</p><p><strong>Harry Glorikian: </strong>Yeah, I think, you know, I keep trying to encourage my brethren in the tech world to come to health care because it has more impact on on everything and we need more people. There's just not enough people to do the computational work or the real hard math, sometimes that's what is required. I find people being pretty lazy at that stuff that moves the needle. But it's been great talking to you. This is fascinating. I would, you know, I almost wish I could turn your system on myself to find out what my biases are. You know, you may want to come up with a consumer facing thing so that people can learn things about themselves and maybe even relay that back to their own physician about how they want to be communicated with.</p><p><strong>Briana Brownell: </strong>Yeah, I love that. I think that right now we are actually working with a consumer facing application within the US system, so hopefully someday you'll be able to have access to it and you can learn all about yourself.</p><p><strong>Harry Glorikian: </strong>Yeah, like I said, I mean, I'm simplifying it, but sort of like a Myers-Briggs. When I was younger, I was ENTJ and now ENTP. But, you know, always good to know yourself. Great to speak to you. I wish you incredible success in your endeavors. And we want to see systems like this making impact on patients and bringing hard data to the table to get even the system itself to sort of change the way that it operates.</p><p><strong>Briana Brownell: </strong>Wonderful, well, it was great to talk to you, and, you know, it's always something that I am excited to chat about, so thank you for having me.</p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>Impact of Artificial Intelligence on the Doctor-Patient relationship</itunes:title>
      <itunes:author>Harry Glorikian, Briana Brownell</itunes:author>
      <itunes:duration>00:49:24</itunes:duration>
      <itunes:summary>We&apos;ve learned from previous guests that machine learning and other forms of AI are helping to identify better disease treatments, get drugs to market faster, and spot health problems before they get out of hand. But what if they could also help patients find the best doctors for them, and help doctors frame their advice in a way that patients can relate to? This week, Harry&apos;s guest, Briana Brownell, talks about the computational tools her company Pure Strategy is building to find patterns in people’s personal preferences or cultural identities that can enable better matchmaking between patients and doctors, predict which patients are most likely or least likely to go along with a treatment plan, or help doctors communicate their recommendations better. &quot;Not everybody makes decisions in the same way,&quot; Brownell says. &quot;Not everybody values the same things. But by understanding some of those psychological and value-based drivers, we can get better health care outcomes.&quot;</itunes:summary>
      <itunes:subtitle>We&apos;ve learned from previous guests that machine learning and other forms of AI are helping to identify better disease treatments, get drugs to market faster, and spot health problems before they get out of hand. But what if they could also help patients find the best doctors for them, and help doctors frame their advice in a way that patients can relate to? This week, Harry&apos;s guest, Briana Brownell, talks about the computational tools her company Pure Strategy is building to find patterns in people’s personal preferences or cultural identities that can enable better matchmaking between patients and doctors, predict which patients are most likely or least likely to go along with a treatment plan, or help doctors communicate their recommendations better. &quot;Not everybody makes decisions in the same way,&quot; Brownell says. &quot;Not everybody values the same things. But by understanding some of those psychological and value-based drivers, we can get better health care outcomes.&quot;</itunes:subtitle>
      <itunes:keywords>saskatchewan, machine learning, the harry glorikian show, ai, pure strategy, natural language processing</itunes:keywords>
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      <title>Seqster&apos;s Ardy Arianpour on How To Smash Health Data Siloes</title>
      <description><![CDATA[<p>Your medical records don't make pleasant bedtime reading. And not only are they inscrutable—they're often mutually (and deliberately) incompatible, meaning different hospitals and doctor's offices can't share them across institutional boundaries. Harry's guest this week, Ardy Arianpour, is trying to fix all that. He’s the co-founder and CEO of Seqster, a San Diego company that’s spent the last five years working on ways to pull patient data from all the places where it lives, smooth out all the formatting differences, and create a unified picture that patients themselves can understand and use.</p><p>The way Ardy explains it, Seqster “smashes the data siloes.” Meaning, the company can combine EMR data, gene sequence data, wearable device data, pharmacy data, and insurance claims data all in one place. The big goal guiding Seqster, he says, is to put the patient back at the center of healthcare.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare. Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>If you’ve ever gotten a copy of your medical files from your doctor or hospital, you probably know these records <i>don’t </i>make pleasant bedtime reading. </p><p>They aren’t designed to be clear or user-friendly for patients. In fact, it's usually just the opposite.</p><p>The data itself is highly technical. And on top of that, there’s the inscrutable formatting, which is dictated by whatever electronic medical record or “EMR” system your provider happens to use. </p><p>But the problem isn’t just that EMR data is incomprehensible.</p><p>It’s also that different EMRs are often incompatible with each other.</p><p>So if you’re being treated by multiple providers, it can be really tricky to share your data across institutional boundaries. </p><p>That’s why medicine is one of the last industries that still uses old-fashioned fax machines. Because sometimes a fax is the only way to send the data back and forth.</p><p>But my guest today is trying to fix all that.</p><p>His name is Ardy Arianpour, and he’s the co-founder and CEO of Seqster.</p><p>It’s a company in San Diego that’s spent the last five years working on ways to pull patient data from all the places where it lives, smooth out all the formatting differences, and create a unified picture that patients themselves can understand and use.</p><p>The way Ardy explains it, Seqster quote-unquote “smashes the data siloes.” Meaning, the company can combine EMR data, gene sequence data, wearable device data, pharmacy data, and insurance claims data all in one place.</p><p>The big goal guiding Seqster, according to Ardy, is to put the patient back at the center of healthcare.</p><p>At the moment, however, consumers can’t sign up for the service directly. Seqster’s actual customers are players from inside the healthcare industry. </p><p>For example, a life science companies might hire Seqster to help them make the experience of participating in a clinical trial more user friendly for patients.</p><p>Or a health plan might use a Seqster dashboard to get patients more involved in their own care.</p><p>Seqster did let me do a test run on my own medical data as part of my research for this interview. </p><p>And I was impressed by how quickly it pulled in data that normally lives in a bunch of separate places. </p><p>I’m hoping Seqster and other companies in this space will continue to make progress.<br />Because, frankly, I think poor patient access to health data and the lack of interoperability between EMRs are two of the biggest factors holding back improvements in healthcare quality.</p><p>If we can finally get those two things right, I think it can help unlock the data-driven healthcare revolution that I describe in my new book, <i>The Future You</i>. </p><p>Which, by the way, is out now in paperback and ebook format at Barnes & Noble and Amazon.</p><p>When we spoke back in September, Ardy and I talked about better EMRs and many other things. And now here’s our conversation.</p><p><strong>Harry Glorikian: </strong>Ardy, welcome to the show. So, it's good to have you here, and you know, for everybody who doesn't know your story and the story of the company, I'd love to, you know, start covering some basics like, you know, the when, the what, the how, the why. What's the founding story of Seqster and what was the problems that you were really trying to go out there and solve when you started the company in 2016?</p><p><strong>Ardy Arianpour: </strong>Thanks so much, Harry. Always been a fan. I think we've known each other for quite some time, but it's been a long time since we've ran into each other since the genomic and precision medicine days. So great to see you. I hope you and your family are well and yeah, look, Seqster is super special and there's a secret story, I guess, that never has been told. It really starts way beyond 2016 when I founded the company. So I spent 15 plus years in DNA sequencing, next gen sequencing genomic market. And during that time in the 2000s to early 2010s, I was fortunate enough of being part of some amazing endeavors and organizations that allowed my team and I to take some risk. And when you take risk, when you're in biotech, pharma, precision medicine, genomics, bioinformatics, you learn new things that most people don't learn because you're you're you're, you know, trailblazing, I guess you could say. And we were able to do that back with one of my old companies where we were able to launch the first clinical exome test, launch the first BRCA cancer panels, launch the first next gen sequencing panels in a CLIA lab. </p><p><strong>Ardy Arianpour: </strong>And then, you know, it wasn't about the testing. It was all about the data, and we didn't realize that till later and we kept on seeing that wow genome data is really only one set of all the other data pieces, right? I think the genomics folks, me being a genomics guy, I guess you could say, for a decade and a half, we're so forward thinking that we forget about the simple things within science, and we never really thought, Oh, collect your medical data and pair it with your genomic data. We never really thought there would be a wearable out there. That data was going to be siloed, too. We never thought there was going to be, you know, many different medical devices and instruments that would be Bluetooth and sensor enabled, where there would be data that would be siloed. Claims data, pharmacy data. Never even crossed our minds. So, you know, when you put this all together, my inspiration with Seqster was actually really simple. And when I founded the company, I wanted to combine the genomic data with your EMR medical data as well as your wearable data, because in 2016, the tailwinds of those other, you know, services was really taken off.</p><p><strong>Harry Glorikian: </strong>Right. Totally understand it. And you know, as we were talking about before I hit record, it's like it was funny because I was just talking to another company that's working on NLP and they're able to look at, you know, papers and see drugs being used in different, you know, medical conditions. And then they figured out, well, they needed to tap into the unstructured data of a medical record to really, like, add the next layer of value to it. So, you know, there's a lot of activity going on about there. But how do you guys, how do you, how do your co-founders, you know, Zhang and Dana play into like the science, the technology and what's the sort of angle that you guys have taken to solve this problem? Or what's your idea on how to fix it? I'm not saying it's been solved yet, because that would be a Herculean task in and of itself. But how are you guys approaching it that? Is a little different than the. You know, maybe any any of your other you would you would consider anybody else out there, the working on this?</p><p><strong>Ardy Arianpour: </strong>Yeah, look for us we spent a lot of time understanding the power of data. But how what makes Seqster different is no one knows the power of the patient better than us. We've spent time with our platform with, you know, tens of thousands of patients: rare disease patients, oncology patients, parents, autoimmune disease patients, patients that have that are seeing functional medicine folks. Patients that were having issues sharing data through telemedicine, clinical trial patients. All these sorts of patients are very different. At Seqster we focused on putting the patient at the center of health care in order to smash all the data silos from their medical institutions to their wearable technology that they wear to the DNA testing that they get and even maybe a COVID test or a vaccine. How do you bring a 360-degree patient view? And you know, you tried the system, so I think you got a small teaser of how we can do that and we've really cracked this large problem. It is Herculean, I believe, and a lot of people believe because it's interoperability, it is the number one problem in all of health care.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I had the pleasure of trying it and imported my data and was able to see, you know, individual pieces. I mean, I made some suggestions on what might make it easier for me to hone in in different areas, right, and have the system highlighting different things. But I guess each data stream is being brought in separately and then at some point you're going to create a master dashboard above it, because now each one is separate from when I go into each record, right, When I go into my medical record, it gives me one set of data with my lab results and everything else and the notes, and then it pulls in my wearable data separately that I have to look at, right? So you've got to look at it separately. It doesn't. Then I guess the next step would be creating a master sort of view of how everything would look in a sort of I don't want to say integrated, but at least a timeline view of the world. But. You know, following up on the the sort of the what question, you know, how do you sort of combine data from different EMRs, tests, apps, devices in a sort of scalable, repeatable way? I mean, it seems like to date, that's been a hugely manual process, and I can imagine you could figure out every provider's ontology and then create a table that shows what's equivalent to. And but you know, there's got to be sort of a translation scheme that would be required that that provides some constant readjustment as the main providers tweak and evolve their own systems, right? Because if the provider is tweaking their system, your system has then got to adapt to changes that are happening in that end. So how are you guys managing all that craziness?</p><p><strong>Ardy Arianpour: </strong>Yeah. So I think it all and you hit on so many points, I'll try and cover them if I remember them all. Look, the number one thing for us is we can connect to any data source. It doesn't matter. And you saw it. And just before I continue, just tell the audience how fast, how fast, how long did it take for your data to be populated after you connected it?</p><p><strong>Harry Glorikian: </strong>Oh, it was. I mean, yeah, as soon as I created it, I could see that it was, you know, it was digesting and then populating. And, you know, I was just I was watching it as a matter of fact, when I was on the phone with your person, that was helping me. Yeah. At first I said, Oh, it's not there. And then a couple of seconds later, I'm like, Oh no, it's showing up, right? So it was happening in, I don't want to say real time, but it was happening as as we were watching it evolve, right? It was sort of it was. It was almost like watching time lapse.</p><p><strong>Ardy Arianpour: </strong>And that's actually a great way. That's a great way to actually describe it. We created the time lapse of all your health data. Now let's get to the what and the how. So we connect to any health data source. The patient is fully in control. You own your data, you control it. It's all consented by you. We don't own your data and we connect to every single medical record. And that's huge that we've achieved nationwide coverage. We didn't know what data you have, but we're you're able to connect to it. Why? Because our team, which our engineering team gets all the credit for six years now, almost since founding of the company we have written, I don't know, seven million lines of code, that standardizes and harmonizes all of the ICD 9, ICD 10, SNOMED codes and every single lab result to every single wearable terminology, from biking to cycling to, you know, you name it, VitaminDB, you know, characterized in 40 different ways. You know, we're harnessing data to improve patient lives at scale. We built it for scale because you can't do it by the traditional method of just faxes and PDFs. Now, you know, being able to do that is not a bad thing.</p><p><strong>Ardy Arianpour: </strong>We can bring that service into our platform as well. It's already integrated, but that type of service takes 30 to 60 days and it's static data. It's not real time right now. If Harry goes, I don't know, you go on a bike ride and you fall and you go to the E.R. and you had whatever data connected automatically in your sister portal, it'll be populated without you even touching Seqster. That's how our real time data works and another way that we're totally differentiated than anything else in the marketplace. I was never a fan of API businesses because they're just data in data out. I truly wanted us to create a patient engagement platform, a PEP right, or a patient relationship management system, what I call a PRM instead of a CRM. And that's what we created with Seqster. So that is beyond an API, beyond just data. We're visualizing the data, as you saw. We really nailed the longitudinal health record or the individualized health record. And I think it's, I always say this, health data is medicine. The reason why it's medicine is because our platform has saved patient lives.</p><p><strong>Harry Glorikian: </strong>Ardy, how do you, how are you handling the free form notes, right, because I noticed that I could look at all my notes, but they weren't necessarily, it wasn't pulling from the note and sort of making sense of it. I mean, I could look at all of it and it was all in one place. But the the system wasn't necessarily processing it, sort of. I was talking to Jeff Felton from ConcertAI and they do a lot of sort of, their big thing is the NLP that sort of tries to choose chew through that, which is not trivial, you know, yesterday today, context matters in health care.</p><p><strong>Ardy Arianpour: </strong>Yeah. Look, if we created the the the Tesla of health care, let's just say, right, we're we're changing the game. From static data to real time data. Ok. Well, you're talking about is, are you going to create a helicopter as well? Right, OK. And all right. So, no, we're not going to go create the helicopter. Is there going to be an electric helicopter by Tesla? There's no market for that, right? So that's why they're not doing it now. I'm not saying there's not a market for NLP. It's just the fact that we'll go ahead and partner with a third party NLP provider. And we already have we have like four of them and they all have their strengths and weaknesses because it's not a one size fits all thing. And you know, we can already run OCR, you know, over the free text and pull certain ontology information out. And then, you know, when you partner with an NLP company, once you have a system that can capture data, you could do anything. So people always ask me, Are you going to get into AI? It's just the buzzword. There's a million A.I. companies. What have they really done right in health care? It's not really there. Maybe for imaging they've done some things, but it's more of a buzzword. AI only becomes valuable if you have a system, Harry, that can instantly populate data, then you can run some great artificial intelligence things on it. So NLP, AI, OCR, all those things are just many tools that can add. Now, in your experience, you only got to see about 5 percent of the power of Seqster, and that probably blew you away, even though it was five percent of the power. Because you probably never -- I don't know, you tell me, have you ever been able to collect your data that quickly? It took, what, less than a minute or two?</p><p><strong>Harry Glorikian: </strong>Yeah, well, thank God, I don't have a lot of data. So, you know, just when I tap into my my health care provider, you know, my data is there and it's funny, I always tell people, being a not exciting patient is a really good thing in one way, and it's a really bad thing because you can't play with all the data. But you know, like even when I did my genome, it's an extremely boring genome.</p><p><strong>Ardy Arianpour: </strong>My question is it's not about it being exciting or not, because thankfully you're not a chronically ill patients. But imagine if you were and how this helps, but take a step back. I'm just asking the speed, yes, and the quality of the presentation of the data that seeks to you. It was less than what hundred seconds?</p><p><strong>Harry Glorikian: </strong>Yeah. Well, it was very quick. And I've already it's funny because I texted my doctor and I was like, I need to talk to you about a couple of these lab results that look out of out of norm, right? And they weren't anything crazy. But I'm just curious like, you know, how do I get them in norm? I'm just I'm always trying to be in in the normal band, if I can be.</p><p><strong>Ardy Arianpour: </strong>So it's interesting you say that because as a healthy individual. You know, and even a chronically ill patient, it doesn't matter. The best way to actually QC data is through visualization, and this is what this is. That's foundational to interoperability. So we hit on semantic and structural interoperability with our, you know, backend engine that we've created to harmonize and standardize the data. We built many different types of retrievers and then we parse that data and then it's standardized and harmonizes it. But that visualization, which some people call the Tableau of health data, you know that we've created when they see it, is really, we got to give the credit to the patients. We had so many patients, healthy ones and unhealthy ones that told us exactly how they want it to look. We did this on the genomic data, we did this on the wearable data. We did this on the medical device data and we have some great new features that can superimpose your clinical data with your fitness data on our integrated view and timeline.</p><p><strong>Harry Glorikian: </strong>Oh, that? See, now that would be, you know, another level of value, even for a healthy patient, right to be able to see that in an integrated way. I made a suggestion, I think that when a panel shows up is. You know, highlight the ones that are out of Norm very quickly, as opposed to having to look at, you know, the panel of 20 to find the one that's out of whack, just either color them differently or reorient them so that they're easier to find. But those are simple changes just from a UI perspective. But so. How would you describe that that Seqster creates value and say translates that into revenue, right? I'm just trying to figure out like, what's the revenue model for you guys? I know that you're I can actually, I'm not even sure if I can sign up for it myself. I would probably have to do it through a system if I remember your revenue model correctly. But how do you guys generate revenue from what you're doing?</p><p><strong>Ardy Arianpour: </strong>Yeah, I'll share another secret on your show here from the founding of Seqster. My dream was to empower seven billion people on our little mothership here called Earth to have all their health data in one place. And I had a direct to consumer model in 2016. The market wasn't really ready for it, number one. Number two, it was going to cost $500 million worth of marketing to just get the message out for people to know that it exists. So long story short, in 2016, you know, when I founded the company, not that many people wanted to talk to us. They thought we were just like nuts to go after this problem. 2017, we got some calls from some investors, we raised some great seed funding after I personally put in some money in in 2016 to get the company going. And then in 2018, I got a call from Bill Gates and that was when everything changed. Bill called and wanted to meet in person, I was supposed to get 30 minutes with him. And the reason why he called is because our first beachhead was with Alzheimer's patients. My grandmother, both my grandmothers, passed away due to Alzheimer's disease. Both my maternal and paternal grandmothers and being a caregiver for my mom's mom and being very close to her since she raised me, I learned a lot about a multigenerational health record, so I actually filed patents in 2016 on a multigenerational health record because I wanted to have my grandma's data, my mom's data, my data, and be able to pass it on to research as well as to generations down my family.</p><p><strong>Ardy Arianpour: </strong>Long story short there, Bill gets all the credit for telling me after I showed him our platform, "You got to take this enterprise. You guys built something that Google Health failed at and Microsoft Vault Health Vault failed at." And it's funny we're talking about this. Look, Google just dismantled their health division again. Why? Because tech companies just don't get it. They have a lot of money. They have a lot of power. They've got a lot of smart people. But they they they don't know where, I'll give you an example. It's like a tourist with a lot of money coming into a city. You don't know where the really good local bar is, right? Why is that? You don't know where the really good, you know, slice of pizza is. You're going to go to the regular joints that everyone finds on TripAdvisor and whatever. You know your friends told you, but if you're a local, you know where to get the authentic cocktails and the authentic, you know, drinks and food. Why? Because you've lived and breathed it in the city. So we've lived and breathed it right. And so we know what not to do. It's not about knowing what to do in health care or in genomics or in biotech. It's actually knowing what you shouldn't be doing. Yeah.</p><p><strong>Harry Glorikian: </strong>And knowing I got to tell you, there's some problems where I'm like, OK, I know exactly who to call for that problem, because there aren't, you know, they're not falling off trees in that particular problem. There's a small handful of people that understand that problem well enough that they can come in and sort of surgically help you solve that problem. And you can have all the money in the world and have all the smart people you want. Doesn't mean they're going to be able to solve that particular problem, especially in health care, because it's so arcane.</p><p><strong>Ardy Arianpour: </strong>And it's getting, you know, this is a problem that is growing like cancer, interoperability. Just on this 20 minute conversation with you it has grown by hundreds of millions of dollars. Do you know why? Because data is being siloed.</p><p><strong>Harry Glorikian: </strong>Yeah. And I think, look, I've always I've said this on, you know, whatever show or and I've actually I've written letters to Congress. You know, I think this this needs to be mandated because expecting the large EMR companies to do anything is a waste of time. They're not going to do it on their own if their feet are not put to the fire and it changes. And honestly, I believe that if anything will stop the innovation of health care or slow it down is the EMR systems. You know, if you don't have the data, you can't do the work.</p><p><strong>Ardy Arianpour: </strong>Absolutely. But you know what people don't understand. And not to go off that tangent, but I'll get back to the business model in a second to answer that question because I just recalled in my mind here that I didn't answer that. Look, people don't understand that at least the EMR companies, even though they're like Darth Vader, you know, they needed. They've put some foundation there at least. If that wasn't there, we would be in a much worse situation here, right?</p><p><strong>Harry Glorikian: </strong>Correct, but if Satya Nadella hadn't really changed Microsoft, really redone it right, it wouldn't be the company it is now, and I think they [the EMR companies] are just back in the dark ages.</p><p><strong>Ardy Arianpour: </strong>Of course, I totally agree. I'm surprised, actually. Microsoft, as an example, didn't come up with their own EMR system and launch it to the hospitals to go, compete with the servers and all scripts and Epics of the world. If I was Microsoft, that's what I would do. I would have enough money in power, know exactly what to do. I would take a system like Seqster and I would explode it in a good way and be the good guys and have it completely open source and open network. But that's a whole cocktail conversation if anyone's listening on the on the podcast that wants to talk about that. Give me a call or shoot me an email or find me on LinkedIn.</p><p><strong>Ardy Arianpour: </strong>Let me go back to the business model real quick so people understand. So direct to consumer was what I wanted to do. We built it for the consumer, for the patients. It was the smartest and dumbest thing I ever did. Let's go to why it was the dumbest thing first, because it was really, really hard. It was the smartest because we would not be where we are today. You wouldn't have called me to talk on your podcast and all these other great, you know, amazing people that want to hear about how we're, you know, cracking the code on interoperability now and changing the health care system, changing clinical trials, changing decentralized trials with our system.</p><p><strong>Ardy Arianpour: </strong>Why? Well, it's because our system was built by patients. Right, and so it's a patient centric, real time, real world data platform that layers in engagements for both the providers, the payers, the pharma companies and any other enterprise that white labels our platform. We have both iOS and Android SDK and Web available. It gets fully branded. We're the Intel Inside with the Salesforce.com business model. It's a Software as a Service service that we offer to enterprises. Patients never pay for the service. And we do give VIP codes to chronically ill patients and VIPs, you know, journalists, podcasters and to be honest, anyone who emails me that wants to try it. I've been always giving on that. That costs us time and money, and I'm happy to do it because it's my way of giving back to the community and health care because I know our team and I have built a system that have saved lives. It's been covered by the news multiple times.</p><p><strong>Harry Glorikian: </strong>So, so in essence, a large provider comes, buys the access to the system and then offers it to its patient population to utilize to aggregate all this information, right? How can the platform stay patient centric if the patients aren't directly paying for it?</p><p><strong>Ardy Arianpour: </strong>Ok, very simple. All of these enterprises in health care, whether that's Big Pharma, right, or Big Oayer from Pfizer to Cigna, to United Healthcare group to Humana to even Amazon, right, to other tech companies, they all want to go down a patient centric way. It's just what's happening. You know, I've been talking about this since 2016 because we pioneered patient centric interoperability. That's what we did. That's what Seqster did. That's that's what we set out to do. And we did it. Some, you know, a lot of people say they can do it. Very few actually. Do we fit in that model now, right? And you had the experience yourself. And I think the first time I saw patient centric ads was. 2020. No, sorry. Yeah, 2020, JP Morgan Health Care Conference in January, just three months before the lockdowns and the pandemic started. It was the first time I went to Johnson & Johnson's afterparty in downtown San Francisco. And saw a huge banner saying, you know, blah blah blah, patient centricity. It's the 22nd century, you know, whatever. So they add a bunch of ads that were all patient centric, and I looked to my co-founder, Dana, and I'm like, Look at this, these guys finally caught on. I wonder if they've been, because we've been in discussions with a lot of these folks, long story short, it's not because of Seqster, I think it's just the market was headed that way. We were so far ahead of the market and there was no tailwinds. Now it is all there. And the pandemic afterwards accelerated digital health, as I say, by 7 to 10 years.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you enjoy hearing from the kinds of innovators and entrepreneurs I talk to on the show, I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is out in print and ebook format from Amazon and Barnes & Noble. Just go to either site and search for The Future You by Harry Glorikian. </p><p>Thanks. And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So the platform combines EHR, genetic, and fitness data, so. Why did you start with those three?</p><p><strong>Ardy Arianpour: </strong>So we started with those three, and I'll get to that, but we also do pharmacy, social determinants of health, and claims data as well. So we've added three other very large pillars. We can connect to any data source. We've created a universal interoperability platform that's patient centric that brings real time, real world data. And we're just super excited about all the business opportunities and the big pain points that we're solving for enterprise as well as for the patient. Why did we start with genomics, EMR, fitness. Ok. Here's the story. So I named the company Seqster after actually going on a five or six mile run in downtown San Diego, coming back and watching The Italian Job. And in the movie The Italian Job, it's one of my favorite movies, actually. I love that movie. I could just keep watching it over again, the real Napster was in the movie, and I used to be a Napster user where, you know, it was the way of actually pulling all your music and having it kind of in one place. Not really exactly Seqster's model, Seqster's model is is much more legal because it's patient centric. Yes, Napster was kind of stealing the data, right? So long story short, I was trying to think of a company name and I'm like, Oh my God. I don't know what hit me. I'll remember that moment like it was yesterday, Harry. Sequster came up because I had dived into DNA sequencing. We are doing everything that you can on next gen sequencing. And so I was like, Wow! Seqster. S-E-Q-S-T-E-R.</p><p><strong>Ardy Arianpour: </strong>And I went on GoDaddy.com. I bought it for $9.99. And the story started from right then. It was just me and the website. No co-founders, no onee else. I was just thinking, this is a great name. Now, you fast forward to why it's medical data plus genomic data, plus fitness data, to begin with. Well, the genomic data was an easy one because, right, I have 15 years underneath my belt on genomic sequencing technologies and clinical diagnostics and doing a lot of great things for patients in that arena. And I knew that it couldn't just be the genome, right? That's where the medical data came in because we knew and I never knew that we would be able to actually build something that would be able to pull it on together. I knew it was going to be really tough. I didn't think it was going to be this tough. We would have never done it if I knew that it was this tough. It's so great that we did because we solved it. But if you go back and say, "Ardy, would you do it again if you knew it was going to be this tough?" I wouldn't, because it's really, it's not the number two problem, it's the number one problem. And we're just, you know, I'm a peon. I'm a very small dot. I'm not anyone special. I'm just very passionate about solving this problem. That's it. And so is my team, and we got a great team and we've execute on. So great.</p><p><strong>Ardy Arianpour: </strong>And then, you know, it was my idea. I was forcing the wearable and fitness data because I was interested in that. And when the Apple Series One Watch came out, it was very limited, but I saw how it was going to change, you know, just connection of data. And my team being bioinformaticians and from the genomics world were so against bringing it in, I mean, I could show you emails of fights about me saying, get fitness data in here. They were not interested. I forced it on them. And then next thing you knew, clinical trials. One of the biggest things was how do you bring sleeping data and wearable data to x y z data? And that market started taking off. Decentralized trials. You can't even do it if you don't have wearable data. And so everyone started saying, you know, OK, you were right. That was one. I get one big pat on the back. And then we realized we can't be limited to just those three pillars. So what are the next three that we can work on? And that was claims data so we can marry it with the EMR and medical data for payers. And then we ran into pharmacy data. We just signed our first digital pharmacy deal three weeks ago with Paragon Health. And if we didn't have those capabilities, we wouldn't have the business opportunities. And the social determinants of health data being our last integrations comes in very handy for various different use cases.</p><p><strong>Harry Glorikian: </strong>So, three sort of things, right? You know, you combine all this data. What can you learn that wasn't obvious before? How do you translate into better health outcomes for consumers or, say, smarter decision making by consumers, right, so those are two potentially different ways to look at it.</p><p><strong>Ardy Arianpour: </strong>Absolutely. So one word for you: Seqster's longitudinal health record drives health economics, outcomes, research. It drives it.</p><p><strong>Harry Glorikian: </strong>Is that your clients doing that, you doing that, a third party group coming in?</p><p><strong>Ardy Arianpour: </strong>Yeah. We don't do that. We're just the patient engagement and data aggregation operating system that gets implemented for enterprise. And then the enterprise can run the analytics on top of it. They can, you know, take all of the raw data. So we're the only 21 CFR Part 11 compliant platform too. We're fully FDA compliant, Harry. It took us 19 months working with the FDA in order to get our compliance letter in September, October of last year, 2020. So about a year ago. And not only are we HIPAA compliance, not only are we High Trust certified and 256 bit encrypted on all the data that comes in, but having that FDA compliance sets us apart number one. Number two, because we're not an API, we have FHIR fully integrated. We have an API for sharing data, but we're not an API business. We're a SaaS business in health care, in digital health. We can make any company a digital health company. Let's say it's Coca-Cola, and they want to empower their 200,000 employees. They could launch a Coca-Cola Seqster white label in 72 hours to 200,000 employees. That's what we've created. Now, take that and imagine that now within pharma, within precision medicine, within clinical trials, within the payer network, which we're the only platform that's CMS ONC interoperability compliance from the Twenty First Century CURES Act as well.</p><p><strong>Harry Glorikian: </strong>So let me let me see if I... I'm trying to figure out like the angle, right? So I mean, ideally for interoperability, if we talk about the highest level right, you really want to get Epic, Cerner, Kaiser, et cetera, all in a room right? And get them to agree to something. Which is like an act of God.</p><p><strong>Ardy Arianpour: </strong>Some people say, we're doing, you know, it's not my words, but again, a figure of speech, people say, we're doing God's work.</p><p><strong>Harry Glorikian: </strong>But stepping back here for a second, what I see you guys doing is actually giving a platform to the patient and the patient is then connecting the record, not necessarily the systems themselves allowing for interoperability to take place.</p><p><strong>Ardy Arianpour: </strong>So yes, but you're speaking of it because of the direct to consumer experience that you had. The experience we gave you is much different than the experience from the enterprise side. We have a full BI platform built for enterprise as well. Right. And then we have the white label for the enterprise where they launch it to a million patients.</p><p><strong>Harry Glorikian: </strong>That's what, I'm trying to think about that, right? So. Coca-cola says, like, going down your example, Coca-Cola says, "Love to do this. Want to offer it to all of our employees." We make it available to them. But it's the employee that has to push the start button and say, yes, I want my electronic medical record to be integrated into this single platform, right?</p><p><strong>Ardy Arianpour: </strong>But that's that's an example with Coca-Cola. If we're doing something with Big Pharma, they're running a clinical trial for 500,000 COVID patients, as an example. They're getting data collection within one day versus two months, and guess what, we're going to be driving a new possible vaccine. Why? Because of the time it takes for data collection at scale. We empower patients to do that and they get something back. They get to track and monitor all their family health.</p><p><strong>Harry Glorikian: </strong>Right. So so it's sort of, you know, maybe I'm being dense, but sort of the same thing, right? Big Pharma makes it available to the patient. The patient then clicks, Yes, I want to do this and pull in my medical records to make it all everything to be in one place. Yes.</p><p><strong>Ardy Arianpour: </strong>Yes. And I think it's about the fact that we've created a unique data sharing environments. So that's, you know, Harry and Stacey and John and Jennifer and whoever, you know, with whatever use case can share their data and also consent is built with E-consent and digital consent is built within that process. You don't share anything you don't want to share.</p><p><strong>Harry Glorikian: </strong>Right. So let me see if I got this correct. So Seqster is providing a translation and aggregation between systems through a new layer of technology. Not creating true interoperability between systems, right?</p><p><strong>Ardy Arianpour: </strong>Yes. There's a spider web. And. We have untangled the spider beb in the United States of America. We've done all the plumbing and piping to every single health institution, doctor's office clinic, wearable sensor, medical device pharmacy, the list goes on and on, Harry.</p><p><strong>Harry Glorikian: </strong>So let's... Another question. So how does the 21st Century CURES Act of 2016 relate to your business? I think you know you've said something like Seqster has become law, but I'm trying to. I'm trying to understand, what do you mean when you say that?</p><p><strong>Ardy Arianpour: </strong>So when we founded Seqster, we didn't know there was going to be a Twenty First Century CURES Act. We didn't know there was going to be GDPR. We are GDPR compliance before GDPR even came out. Right? Because of our the way that we've structured our business, number one. Number two, how we built the platform by patients for CMS ONC interoperability, you know, final rulings and the Twenty First Century CURES Act, which is, they're synonymous. We worked hand in hand with Don Rucker's team and Seema Verma on the last administration that was doing a lot of the work. Now a wonderful gentleman, Mickey Tripathy has taken the role of ONC, and he understands, you know, the value of Seqster's technology at scale because of his background in interoperability. But what was interesting in the two years that we worked with HHS and CMS was the fact that they used Seqster as the model to build the rules. I was personally part of that, my team was personally part of that, you know, and so we were in private meetings with these folks showing our platform and they were trying to draft certain rules.</p><p><strong>Ardy Arianpour: </strong>We didn't know that they were going to be coming out with rules until they did. And then that's when high level folks in the government told us specifically on calls and also even at Datapalooza when I gave a keynote talk on on Seqster, when Don Rucker did as well right before me. You know, we're sitting in the speaker room and folks are like, "You're going to become law in a month." And this was in February of 2020. March 9th, those rules dropped. I was supposed to give a keynote talk at HL7,  at HIMMS. HIMMS got cancelled in 2020. I just got back from HIMMS 2021 in Vegas just a week and a half ago. It was fantastic. Everyone was masked up. There was only three cases of COVID with 10,000 people there. They did a great job, you know, regulating it. You had to show your vaccine card and all that good stuff. But you know, I would have never thought Seqster becomes law when we were founding the company. And so this is really special now.</p><p><strong>Harry Glorikian: </strong>So what does success look like for Seqster?</p><p><strong>Ardy Arianpour: </strong>It depends how you measure it. So we're in the Olympics. It's a great question. Here's my answer to you. We're in the Olympics just finished, right? So we started out in track and field. We were really good at running the 400 Meters and then somehow we got a use case on the 4x1 and the 4x4. And then we did really well there, too. And then because of our speed, you know, we got some strength and then they wanted us to get into the shot put and the javelin throw and then we started winning there, too. And then somehow, now people are calling us saying, "Are you interested in trying to swim?" We got the 100 meter butterfly. Well, we've never done that. So success for us is based off of use cases. And every use case that we deal with, within clinical trials and pharma, we've define 24 distinct use cases that we're generating business on. Within the payer community now, because of the CMS ONC Twenty First Century Cures Act, there's a major tailwind. Within life insurance for real time underwriting, there's, you know, a plethora of folks that are calling us for our system because of the patient engagement. So this patient centricity for us has been a central pillar, and I've never allowed anyone in our company, whether it's the board or our investors or employees, you know, get sidetracked from that. We've been laser focused on the patients and success at impacting patient lives at scale.</p><p><strong>Harry Glorikian: </strong>So as a venture guide, though, right, like I'm going to, there's only so much money on so much time to tackle, so many different opportunities, right? So it's there is a how do we create a recurring revenue stream and keep plugging along and then generate either enough revenue or raise enough money to do more? And so just trying to think through that for what you guys are trying to do, I get the 4x100 and the swimming. But all of that takes money and resources right to be able to prove out, of course.</p><p><strong>Ardy Arianpour: </strong>And here's another thing we're in a different state. Look, my team and I had a major exit before. We built a billion dollar company out of $3 million. And even though we weren't founders of that company, you know, I was the senior vice president and we we did really well. So, you know, that allowed us to not take salaries that allowed us to take our money and put it into doing something good. And we did that in 2016 to seed it. And then afterwards, I raised, you know, millions of dollars from folks that were interested in, you know, this problem and saw that our team had a track record. And I actually was not interested, Harry, in raising a Series A because of our experience, but we kept on getting calls. And then just six months ago, we announced, you know, our series a funding. Well, we actually announced it in March, I think it was, but we closed our Series A in January of this year and it was led by Takeda Pharma, Anne Wojcicki's 23andMe and United Healthcare Group's Equian folks that created Omniclaim and sold to UnitedHealth Group Omni Health Holdings.</p><p><strong>Ardy Arianpour: </strong>So check this out. Imagine my vision in 2016 of having medical data, genomic data fitness data. Well, if you look at the investors that backed us, it's pretty interesting. What I reflect on is I didn't plan that either. We got amazing genomic investors. I mean, it doesn't get better than getting Anne Wojcicki and 23andMe. Amazing female entrepreneur and, you know, just the just the force. Secondly, Takeda Pharma, a top 10 pharma company. How many digital health startups do you know within Series A that got a top 10 pharma? And then also getting some payer investors from UnitedHealth Group's Omniclaim folks and Equian OmniHealth Holdings. So this is to me, very interesting. But going to focus our focus has been pharma and clinical trials. And so Takeda has been phenomenal for us because of, you know, they they built out the platform and they built it out better for us and they knew exactly what to do with things that we didn't know. And with things that patients didn't know on the enterprise, you know, Takeda did a phenomenal job. And now other pharma companies are utilizing our platform, not just Takeda.</p><p><strong>Harry Glorikian: </strong>Yeah, well, they want their data aggregation. They want as much data on the patient aggregated in one place to make sense of it.</p><p><strong>Ardy Arianpour: </strong>So not necessarily that they actually want to empower patients with a patient centric engagement tool. That's pharma's number one thing right now, the data part, obviously is important, but empowering patient lives at scale is the key, and that's that's our mission. And so, yeah, that's that's a whole 'nother cocktail conversation when I see you soon hopefully in a couple of weeks.</p><p><strong>Harry Glorikian: </strong>Hopefully as life gets, or if it gets back to normal, depending on the variants, you know, we'll hopefully get to meet him in person and have a glass of wine or a cocktail together. So it was great to speak to you. Glad we had this time, and I look forward to, you know, hearing updates on the company and, you know, continually seeing the progress going forward.</p><p><strong>Ardy Arianpour: </strong>Thanks so much, Harry, for having me. Big fan of Moneyball, so thank you to you and your organizers for having me and Seqster on. If anyone wants to get in touch with me personally, you can find me on LinkedIn or you can follow Seqster at @Seqster. And again, thank you so much for. For having a great discussion around, you know, the the insights behind Seqster.</p><p><strong>Harry Glorikian: </strong>Excellent. Thank you.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode.  You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show. You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
]]></description>
      <pubDate>Tue, 23 Nov 2021 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Ardy Arianpour)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Your medical records don't make pleasant bedtime reading. And not only are they inscrutable—they're often mutually (and deliberately) incompatible, meaning different hospitals and doctor's offices can't share them across institutional boundaries. Harry's guest this week, Ardy Arianpour, is trying to fix all that. He’s the co-founder and CEO of Seqster, a San Diego company that’s spent the last five years working on ways to pull patient data from all the places where it lives, smooth out all the formatting differences, and create a unified picture that patients themselves can understand and use.</p><p>The way Ardy explains it, Seqster “smashes the data siloes.” Meaning, the company can combine EMR data, gene sequence data, wearable device data, pharmacy data, and insurance claims data all in one place. The big goal guiding Seqster, he says, is to put the patient back at the center of healthcare.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare. Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>If you’ve ever gotten a copy of your medical files from your doctor or hospital, you probably know these records <i>don’t </i>make pleasant bedtime reading. </p><p>They aren’t designed to be clear or user-friendly for patients. In fact, it's usually just the opposite.</p><p>The data itself is highly technical. And on top of that, there’s the inscrutable formatting, which is dictated by whatever electronic medical record or “EMR” system your provider happens to use. </p><p>But the problem isn’t just that EMR data is incomprehensible.</p><p>It’s also that different EMRs are often incompatible with each other.</p><p>So if you’re being treated by multiple providers, it can be really tricky to share your data across institutional boundaries. </p><p>That’s why medicine is one of the last industries that still uses old-fashioned fax machines. Because sometimes a fax is the only way to send the data back and forth.</p><p>But my guest today is trying to fix all that.</p><p>His name is Ardy Arianpour, and he’s the co-founder and CEO of Seqster.</p><p>It’s a company in San Diego that’s spent the last five years working on ways to pull patient data from all the places where it lives, smooth out all the formatting differences, and create a unified picture that patients themselves can understand and use.</p><p>The way Ardy explains it, Seqster quote-unquote “smashes the data siloes.” Meaning, the company can combine EMR data, gene sequence data, wearable device data, pharmacy data, and insurance claims data all in one place.</p><p>The big goal guiding Seqster, according to Ardy, is to put the patient back at the center of healthcare.</p><p>At the moment, however, consumers can’t sign up for the service directly. Seqster’s actual customers are players from inside the healthcare industry. </p><p>For example, a life science companies might hire Seqster to help them make the experience of participating in a clinical trial more user friendly for patients.</p><p>Or a health plan might use a Seqster dashboard to get patients more involved in their own care.</p><p>Seqster did let me do a test run on my own medical data as part of my research for this interview. </p><p>And I was impressed by how quickly it pulled in data that normally lives in a bunch of separate places. </p><p>I’m hoping Seqster and other companies in this space will continue to make progress.<br />Because, frankly, I think poor patient access to health data and the lack of interoperability between EMRs are two of the biggest factors holding back improvements in healthcare quality.</p><p>If we can finally get those two things right, I think it can help unlock the data-driven healthcare revolution that I describe in my new book, <i>The Future You</i>. </p><p>Which, by the way, is out now in paperback and ebook format at Barnes & Noble and Amazon.</p><p>When we spoke back in September, Ardy and I talked about better EMRs and many other things. And now here’s our conversation.</p><p><strong>Harry Glorikian: </strong>Ardy, welcome to the show. So, it's good to have you here, and you know, for everybody who doesn't know your story and the story of the company, I'd love to, you know, start covering some basics like, you know, the when, the what, the how, the why. What's the founding story of Seqster and what was the problems that you were really trying to go out there and solve when you started the company in 2016?</p><p><strong>Ardy Arianpour: </strong>Thanks so much, Harry. Always been a fan. I think we've known each other for quite some time, but it's been a long time since we've ran into each other since the genomic and precision medicine days. So great to see you. I hope you and your family are well and yeah, look, Seqster is super special and there's a secret story, I guess, that never has been told. It really starts way beyond 2016 when I founded the company. So I spent 15 plus years in DNA sequencing, next gen sequencing genomic market. And during that time in the 2000s to early 2010s, I was fortunate enough of being part of some amazing endeavors and organizations that allowed my team and I to take some risk. And when you take risk, when you're in biotech, pharma, precision medicine, genomics, bioinformatics, you learn new things that most people don't learn because you're you're you're, you know, trailblazing, I guess you could say. And we were able to do that back with one of my old companies where we were able to launch the first clinical exome test, launch the first BRCA cancer panels, launch the first next gen sequencing panels in a CLIA lab. </p><p><strong>Ardy Arianpour: </strong>And then, you know, it wasn't about the testing. It was all about the data, and we didn't realize that till later and we kept on seeing that wow genome data is really only one set of all the other data pieces, right? I think the genomics folks, me being a genomics guy, I guess you could say, for a decade and a half, we're so forward thinking that we forget about the simple things within science, and we never really thought, Oh, collect your medical data and pair it with your genomic data. We never really thought there would be a wearable out there. That data was going to be siloed, too. We never thought there was going to be, you know, many different medical devices and instruments that would be Bluetooth and sensor enabled, where there would be data that would be siloed. Claims data, pharmacy data. Never even crossed our minds. So, you know, when you put this all together, my inspiration with Seqster was actually really simple. And when I founded the company, I wanted to combine the genomic data with your EMR medical data as well as your wearable data, because in 2016, the tailwinds of those other, you know, services was really taken off.</p><p><strong>Harry Glorikian: </strong>Right. Totally understand it. And you know, as we were talking about before I hit record, it's like it was funny because I was just talking to another company that's working on NLP and they're able to look at, you know, papers and see drugs being used in different, you know, medical conditions. And then they figured out, well, they needed to tap into the unstructured data of a medical record to really, like, add the next layer of value to it. So, you know, there's a lot of activity going on about there. But how do you guys, how do you, how do your co-founders, you know, Zhang and Dana play into like the science, the technology and what's the sort of angle that you guys have taken to solve this problem? Or what's your idea on how to fix it? I'm not saying it's been solved yet, because that would be a Herculean task in and of itself. But how are you guys approaching it that? Is a little different than the. You know, maybe any any of your other you would you would consider anybody else out there, the working on this?</p><p><strong>Ardy Arianpour: </strong>Yeah, look for us we spent a lot of time understanding the power of data. But how what makes Seqster different is no one knows the power of the patient better than us. We've spent time with our platform with, you know, tens of thousands of patients: rare disease patients, oncology patients, parents, autoimmune disease patients, patients that have that are seeing functional medicine folks. Patients that were having issues sharing data through telemedicine, clinical trial patients. All these sorts of patients are very different. At Seqster we focused on putting the patient at the center of health care in order to smash all the data silos from their medical institutions to their wearable technology that they wear to the DNA testing that they get and even maybe a COVID test or a vaccine. How do you bring a 360-degree patient view? And you know, you tried the system, so I think you got a small teaser of how we can do that and we've really cracked this large problem. It is Herculean, I believe, and a lot of people believe because it's interoperability, it is the number one problem in all of health care.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I had the pleasure of trying it and imported my data and was able to see, you know, individual pieces. I mean, I made some suggestions on what might make it easier for me to hone in in different areas, right, and have the system highlighting different things. But I guess each data stream is being brought in separately and then at some point you're going to create a master dashboard above it, because now each one is separate from when I go into each record, right, When I go into my medical record, it gives me one set of data with my lab results and everything else and the notes, and then it pulls in my wearable data separately that I have to look at, right? So you've got to look at it separately. It doesn't. Then I guess the next step would be creating a master sort of view of how everything would look in a sort of I don't want to say integrated, but at least a timeline view of the world. But. You know, following up on the the sort of the what question, you know, how do you sort of combine data from different EMRs, tests, apps, devices in a sort of scalable, repeatable way? I mean, it seems like to date, that's been a hugely manual process, and I can imagine you could figure out every provider's ontology and then create a table that shows what's equivalent to. And but you know, there's got to be sort of a translation scheme that would be required that that provides some constant readjustment as the main providers tweak and evolve their own systems, right? Because if the provider is tweaking their system, your system has then got to adapt to changes that are happening in that end. So how are you guys managing all that craziness?</p><p><strong>Ardy Arianpour: </strong>Yeah. So I think it all and you hit on so many points, I'll try and cover them if I remember them all. Look, the number one thing for us is we can connect to any data source. It doesn't matter. And you saw it. And just before I continue, just tell the audience how fast, how fast, how long did it take for your data to be populated after you connected it?</p><p><strong>Harry Glorikian: </strong>Oh, it was. I mean, yeah, as soon as I created it, I could see that it was, you know, it was digesting and then populating. And, you know, I was just I was watching it as a matter of fact, when I was on the phone with your person, that was helping me. Yeah. At first I said, Oh, it's not there. And then a couple of seconds later, I'm like, Oh no, it's showing up, right? So it was happening in, I don't want to say real time, but it was happening as as we were watching it evolve, right? It was sort of it was. It was almost like watching time lapse.</p><p><strong>Ardy Arianpour: </strong>And that's actually a great way. That's a great way to actually describe it. We created the time lapse of all your health data. Now let's get to the what and the how. So we connect to any health data source. The patient is fully in control. You own your data, you control it. It's all consented by you. We don't own your data and we connect to every single medical record. And that's huge that we've achieved nationwide coverage. We didn't know what data you have, but we're you're able to connect to it. Why? Because our team, which our engineering team gets all the credit for six years now, almost since founding of the company we have written, I don't know, seven million lines of code, that standardizes and harmonizes all of the ICD 9, ICD 10, SNOMED codes and every single lab result to every single wearable terminology, from biking to cycling to, you know, you name it, VitaminDB, you know, characterized in 40 different ways. You know, we're harnessing data to improve patient lives at scale. We built it for scale because you can't do it by the traditional method of just faxes and PDFs. Now, you know, being able to do that is not a bad thing.</p><p><strong>Ardy Arianpour: </strong>We can bring that service into our platform as well. It's already integrated, but that type of service takes 30 to 60 days and it's static data. It's not real time right now. If Harry goes, I don't know, you go on a bike ride and you fall and you go to the E.R. and you had whatever data connected automatically in your sister portal, it'll be populated without you even touching Seqster. That's how our real time data works and another way that we're totally differentiated than anything else in the marketplace. I was never a fan of API businesses because they're just data in data out. I truly wanted us to create a patient engagement platform, a PEP right, or a patient relationship management system, what I call a PRM instead of a CRM. And that's what we created with Seqster. So that is beyond an API, beyond just data. We're visualizing the data, as you saw. We really nailed the longitudinal health record or the individualized health record. And I think it's, I always say this, health data is medicine. The reason why it's medicine is because our platform has saved patient lives.</p><p><strong>Harry Glorikian: </strong>Ardy, how do you, how are you handling the free form notes, right, because I noticed that I could look at all my notes, but they weren't necessarily, it wasn't pulling from the note and sort of making sense of it. I mean, I could look at all of it and it was all in one place. But the the system wasn't necessarily processing it, sort of. I was talking to Jeff Felton from ConcertAI and they do a lot of sort of, their big thing is the NLP that sort of tries to choose chew through that, which is not trivial, you know, yesterday today, context matters in health care.</p><p><strong>Ardy Arianpour: </strong>Yeah. Look, if we created the the the Tesla of health care, let's just say, right, we're we're changing the game. From static data to real time data. Ok. Well, you're talking about is, are you going to create a helicopter as well? Right, OK. And all right. So, no, we're not going to go create the helicopter. Is there going to be an electric helicopter by Tesla? There's no market for that, right? So that's why they're not doing it now. I'm not saying there's not a market for NLP. It's just the fact that we'll go ahead and partner with a third party NLP provider. And we already have we have like four of them and they all have their strengths and weaknesses because it's not a one size fits all thing. And you know, we can already run OCR, you know, over the free text and pull certain ontology information out. And then, you know, when you partner with an NLP company, once you have a system that can capture data, you could do anything. So people always ask me, Are you going to get into AI? It's just the buzzword. There's a million A.I. companies. What have they really done right in health care? It's not really there. Maybe for imaging they've done some things, but it's more of a buzzword. AI only becomes valuable if you have a system, Harry, that can instantly populate data, then you can run some great artificial intelligence things on it. So NLP, AI, OCR, all those things are just many tools that can add. Now, in your experience, you only got to see about 5 percent of the power of Seqster, and that probably blew you away, even though it was five percent of the power. Because you probably never -- I don't know, you tell me, have you ever been able to collect your data that quickly? It took, what, less than a minute or two?</p><p><strong>Harry Glorikian: </strong>Yeah, well, thank God, I don't have a lot of data. So, you know, just when I tap into my my health care provider, you know, my data is there and it's funny, I always tell people, being a not exciting patient is a really good thing in one way, and it's a really bad thing because you can't play with all the data. But you know, like even when I did my genome, it's an extremely boring genome.</p><p><strong>Ardy Arianpour: </strong>My question is it's not about it being exciting or not, because thankfully you're not a chronically ill patients. But imagine if you were and how this helps, but take a step back. I'm just asking the speed, yes, and the quality of the presentation of the data that seeks to you. It was less than what hundred seconds?</p><p><strong>Harry Glorikian: </strong>Yeah. Well, it was very quick. And I've already it's funny because I texted my doctor and I was like, I need to talk to you about a couple of these lab results that look out of out of norm, right? And they weren't anything crazy. But I'm just curious like, you know, how do I get them in norm? I'm just I'm always trying to be in in the normal band, if I can be.</p><p><strong>Ardy Arianpour: </strong>So it's interesting you say that because as a healthy individual. You know, and even a chronically ill patient, it doesn't matter. The best way to actually QC data is through visualization, and this is what this is. That's foundational to interoperability. So we hit on semantic and structural interoperability with our, you know, backend engine that we've created to harmonize and standardize the data. We built many different types of retrievers and then we parse that data and then it's standardized and harmonizes it. But that visualization, which some people call the Tableau of health data, you know that we've created when they see it, is really, we got to give the credit to the patients. We had so many patients, healthy ones and unhealthy ones that told us exactly how they want it to look. We did this on the genomic data, we did this on the wearable data. We did this on the medical device data and we have some great new features that can superimpose your clinical data with your fitness data on our integrated view and timeline.</p><p><strong>Harry Glorikian: </strong>Oh, that? See, now that would be, you know, another level of value, even for a healthy patient, right to be able to see that in an integrated way. I made a suggestion, I think that when a panel shows up is. You know, highlight the ones that are out of Norm very quickly, as opposed to having to look at, you know, the panel of 20 to find the one that's out of whack, just either color them differently or reorient them so that they're easier to find. But those are simple changes just from a UI perspective. But so. How would you describe that that Seqster creates value and say translates that into revenue, right? I'm just trying to figure out like, what's the revenue model for you guys? I know that you're I can actually, I'm not even sure if I can sign up for it myself. I would probably have to do it through a system if I remember your revenue model correctly. But how do you guys generate revenue from what you're doing?</p><p><strong>Ardy Arianpour: </strong>Yeah, I'll share another secret on your show here from the founding of Seqster. My dream was to empower seven billion people on our little mothership here called Earth to have all their health data in one place. And I had a direct to consumer model in 2016. The market wasn't really ready for it, number one. Number two, it was going to cost $500 million worth of marketing to just get the message out for people to know that it exists. So long story short, in 2016, you know, when I founded the company, not that many people wanted to talk to us. They thought we were just like nuts to go after this problem. 2017, we got some calls from some investors, we raised some great seed funding after I personally put in some money in in 2016 to get the company going. And then in 2018, I got a call from Bill Gates and that was when everything changed. Bill called and wanted to meet in person, I was supposed to get 30 minutes with him. And the reason why he called is because our first beachhead was with Alzheimer's patients. My grandmother, both my grandmothers, passed away due to Alzheimer's disease. Both my maternal and paternal grandmothers and being a caregiver for my mom's mom and being very close to her since she raised me, I learned a lot about a multigenerational health record, so I actually filed patents in 2016 on a multigenerational health record because I wanted to have my grandma's data, my mom's data, my data, and be able to pass it on to research as well as to generations down my family.</p><p><strong>Ardy Arianpour: </strong>Long story short there, Bill gets all the credit for telling me after I showed him our platform, "You got to take this enterprise. You guys built something that Google Health failed at and Microsoft Vault Health Vault failed at." And it's funny we're talking about this. Look, Google just dismantled their health division again. Why? Because tech companies just don't get it. They have a lot of money. They have a lot of power. They've got a lot of smart people. But they they they don't know where, I'll give you an example. It's like a tourist with a lot of money coming into a city. You don't know where the really good local bar is, right? Why is that? You don't know where the really good, you know, slice of pizza is. You're going to go to the regular joints that everyone finds on TripAdvisor and whatever. You know your friends told you, but if you're a local, you know where to get the authentic cocktails and the authentic, you know, drinks and food. Why? Because you've lived and breathed it in the city. So we've lived and breathed it right. And so we know what not to do. It's not about knowing what to do in health care or in genomics or in biotech. It's actually knowing what you shouldn't be doing. Yeah.</p><p><strong>Harry Glorikian: </strong>And knowing I got to tell you, there's some problems where I'm like, OK, I know exactly who to call for that problem, because there aren't, you know, they're not falling off trees in that particular problem. There's a small handful of people that understand that problem well enough that they can come in and sort of surgically help you solve that problem. And you can have all the money in the world and have all the smart people you want. Doesn't mean they're going to be able to solve that particular problem, especially in health care, because it's so arcane.</p><p><strong>Ardy Arianpour: </strong>And it's getting, you know, this is a problem that is growing like cancer, interoperability. Just on this 20 minute conversation with you it has grown by hundreds of millions of dollars. Do you know why? Because data is being siloed.</p><p><strong>Harry Glorikian: </strong>Yeah. And I think, look, I've always I've said this on, you know, whatever show or and I've actually I've written letters to Congress. You know, I think this this needs to be mandated because expecting the large EMR companies to do anything is a waste of time. They're not going to do it on their own if their feet are not put to the fire and it changes. And honestly, I believe that if anything will stop the innovation of health care or slow it down is the EMR systems. You know, if you don't have the data, you can't do the work.</p><p><strong>Ardy Arianpour: </strong>Absolutely. But you know what people don't understand. And not to go off that tangent, but I'll get back to the business model in a second to answer that question because I just recalled in my mind here that I didn't answer that. Look, people don't understand that at least the EMR companies, even though they're like Darth Vader, you know, they needed. They've put some foundation there at least. If that wasn't there, we would be in a much worse situation here, right?</p><p><strong>Harry Glorikian: </strong>Correct, but if Satya Nadella hadn't really changed Microsoft, really redone it right, it wouldn't be the company it is now, and I think they [the EMR companies] are just back in the dark ages.</p><p><strong>Ardy Arianpour: </strong>Of course, I totally agree. I'm surprised, actually. Microsoft, as an example, didn't come up with their own EMR system and launch it to the hospitals to go, compete with the servers and all scripts and Epics of the world. If I was Microsoft, that's what I would do. I would have enough money in power, know exactly what to do. I would take a system like Seqster and I would explode it in a good way and be the good guys and have it completely open source and open network. But that's a whole cocktail conversation if anyone's listening on the on the podcast that wants to talk about that. Give me a call or shoot me an email or find me on LinkedIn.</p><p><strong>Ardy Arianpour: </strong>Let me go back to the business model real quick so people understand. So direct to consumer was what I wanted to do. We built it for the consumer, for the patients. It was the smartest and dumbest thing I ever did. Let's go to why it was the dumbest thing first, because it was really, really hard. It was the smartest because we would not be where we are today. You wouldn't have called me to talk on your podcast and all these other great, you know, amazing people that want to hear about how we're, you know, cracking the code on interoperability now and changing the health care system, changing clinical trials, changing decentralized trials with our system.</p><p><strong>Ardy Arianpour: </strong>Why? Well, it's because our system was built by patients. Right, and so it's a patient centric, real time, real world data platform that layers in engagements for both the providers, the payers, the pharma companies and any other enterprise that white labels our platform. We have both iOS and Android SDK and Web available. It gets fully branded. We're the Intel Inside with the Salesforce.com business model. It's a Software as a Service service that we offer to enterprises. Patients never pay for the service. And we do give VIP codes to chronically ill patients and VIPs, you know, journalists, podcasters and to be honest, anyone who emails me that wants to try it. I've been always giving on that. That costs us time and money, and I'm happy to do it because it's my way of giving back to the community and health care because I know our team and I have built a system that have saved lives. It's been covered by the news multiple times.</p><p><strong>Harry Glorikian: </strong>So, so in essence, a large provider comes, buys the access to the system and then offers it to its patient population to utilize to aggregate all this information, right? How can the platform stay patient centric if the patients aren't directly paying for it?</p><p><strong>Ardy Arianpour: </strong>Ok, very simple. All of these enterprises in health care, whether that's Big Pharma, right, or Big Oayer from Pfizer to Cigna, to United Healthcare group to Humana to even Amazon, right, to other tech companies, they all want to go down a patient centric way. It's just what's happening. You know, I've been talking about this since 2016 because we pioneered patient centric interoperability. That's what we did. That's what Seqster did. That's that's what we set out to do. And we did it. Some, you know, a lot of people say they can do it. Very few actually. Do we fit in that model now, right? And you had the experience yourself. And I think the first time I saw patient centric ads was. 2020. No, sorry. Yeah, 2020, JP Morgan Health Care Conference in January, just three months before the lockdowns and the pandemic started. It was the first time I went to Johnson & Johnson's afterparty in downtown San Francisco. And saw a huge banner saying, you know, blah blah blah, patient centricity. It's the 22nd century, you know, whatever. So they add a bunch of ads that were all patient centric, and I looked to my co-founder, Dana, and I'm like, Look at this, these guys finally caught on. I wonder if they've been, because we've been in discussions with a lot of these folks, long story short, it's not because of Seqster, I think it's just the market was headed that way. We were so far ahead of the market and there was no tailwinds. Now it is all there. And the pandemic afterwards accelerated digital health, as I say, by 7 to 10 years.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you enjoy hearing from the kinds of innovators and entrepreneurs I talk to on the show, I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is out in print and ebook format from Amazon and Barnes & Noble. Just go to either site and search for The Future You by Harry Glorikian. </p><p>Thanks. And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So the platform combines EHR, genetic, and fitness data, so. Why did you start with those three?</p><p><strong>Ardy Arianpour: </strong>So we started with those three, and I'll get to that, but we also do pharmacy, social determinants of health, and claims data as well. So we've added three other very large pillars. We can connect to any data source. We've created a universal interoperability platform that's patient centric that brings real time, real world data. And we're just super excited about all the business opportunities and the big pain points that we're solving for enterprise as well as for the patient. Why did we start with genomics, EMR, fitness. Ok. Here's the story. So I named the company Seqster after actually going on a five or six mile run in downtown San Diego, coming back and watching The Italian Job. And in the movie The Italian Job, it's one of my favorite movies, actually. I love that movie. I could just keep watching it over again, the real Napster was in the movie, and I used to be a Napster user where, you know, it was the way of actually pulling all your music and having it kind of in one place. Not really exactly Seqster's model, Seqster's model is is much more legal because it's patient centric. Yes, Napster was kind of stealing the data, right? So long story short, I was trying to think of a company name and I'm like, Oh my God. I don't know what hit me. I'll remember that moment like it was yesterday, Harry. Sequster came up because I had dived into DNA sequencing. We are doing everything that you can on next gen sequencing. And so I was like, Wow! Seqster. S-E-Q-S-T-E-R.</p><p><strong>Ardy Arianpour: </strong>And I went on GoDaddy.com. I bought it for $9.99. And the story started from right then. It was just me and the website. No co-founders, no onee else. I was just thinking, this is a great name. Now, you fast forward to why it's medical data plus genomic data, plus fitness data, to begin with. Well, the genomic data was an easy one because, right, I have 15 years underneath my belt on genomic sequencing technologies and clinical diagnostics and doing a lot of great things for patients in that arena. And I knew that it couldn't just be the genome, right? That's where the medical data came in because we knew and I never knew that we would be able to actually build something that would be able to pull it on together. I knew it was going to be really tough. I didn't think it was going to be this tough. We would have never done it if I knew that it was this tough. It's so great that we did because we solved it. But if you go back and say, "Ardy, would you do it again if you knew it was going to be this tough?" I wouldn't, because it's really, it's not the number two problem, it's the number one problem. And we're just, you know, I'm a peon. I'm a very small dot. I'm not anyone special. I'm just very passionate about solving this problem. That's it. And so is my team, and we got a great team and we've execute on. So great.</p><p><strong>Ardy Arianpour: </strong>And then, you know, it was my idea. I was forcing the wearable and fitness data because I was interested in that. And when the Apple Series One Watch came out, it was very limited, but I saw how it was going to change, you know, just connection of data. And my team being bioinformaticians and from the genomics world were so against bringing it in, I mean, I could show you emails of fights about me saying, get fitness data in here. They were not interested. I forced it on them. And then next thing you knew, clinical trials. One of the biggest things was how do you bring sleeping data and wearable data to x y z data? And that market started taking off. Decentralized trials. You can't even do it if you don't have wearable data. And so everyone started saying, you know, OK, you were right. That was one. I get one big pat on the back. And then we realized we can't be limited to just those three pillars. So what are the next three that we can work on? And that was claims data so we can marry it with the EMR and medical data for payers. And then we ran into pharmacy data. We just signed our first digital pharmacy deal three weeks ago with Paragon Health. And if we didn't have those capabilities, we wouldn't have the business opportunities. And the social determinants of health data being our last integrations comes in very handy for various different use cases.</p><p><strong>Harry Glorikian: </strong>So, three sort of things, right? You know, you combine all this data. What can you learn that wasn't obvious before? How do you translate into better health outcomes for consumers or, say, smarter decision making by consumers, right, so those are two potentially different ways to look at it.</p><p><strong>Ardy Arianpour: </strong>Absolutely. So one word for you: Seqster's longitudinal health record drives health economics, outcomes, research. It drives it.</p><p><strong>Harry Glorikian: </strong>Is that your clients doing that, you doing that, a third party group coming in?</p><p><strong>Ardy Arianpour: </strong>Yeah. We don't do that. We're just the patient engagement and data aggregation operating system that gets implemented for enterprise. And then the enterprise can run the analytics on top of it. They can, you know, take all of the raw data. So we're the only 21 CFR Part 11 compliant platform too. We're fully FDA compliant, Harry. It took us 19 months working with the FDA in order to get our compliance letter in September, October of last year, 2020. So about a year ago. And not only are we HIPAA compliance, not only are we High Trust certified and 256 bit encrypted on all the data that comes in, but having that FDA compliance sets us apart number one. Number two, because we're not an API, we have FHIR fully integrated. We have an API for sharing data, but we're not an API business. We're a SaaS business in health care, in digital health. We can make any company a digital health company. Let's say it's Coca-Cola, and they want to empower their 200,000 employees. They could launch a Coca-Cola Seqster white label in 72 hours to 200,000 employees. That's what we've created. Now, take that and imagine that now within pharma, within precision medicine, within clinical trials, within the payer network, which we're the only platform that's CMS ONC interoperability compliance from the Twenty First Century CURES Act as well.</p><p><strong>Harry Glorikian: </strong>So let me let me see if I... I'm trying to figure out like the angle, right? So I mean, ideally for interoperability, if we talk about the highest level right, you really want to get Epic, Cerner, Kaiser, et cetera, all in a room right? And get them to agree to something. Which is like an act of God.</p><p><strong>Ardy Arianpour: </strong>Some people say, we're doing, you know, it's not my words, but again, a figure of speech, people say, we're doing God's work.</p><p><strong>Harry Glorikian: </strong>But stepping back here for a second, what I see you guys doing is actually giving a platform to the patient and the patient is then connecting the record, not necessarily the systems themselves allowing for interoperability to take place.</p><p><strong>Ardy Arianpour: </strong>So yes, but you're speaking of it because of the direct to consumer experience that you had. The experience we gave you is much different than the experience from the enterprise side. We have a full BI platform built for enterprise as well. Right. And then we have the white label for the enterprise where they launch it to a million patients.</p><p><strong>Harry Glorikian: </strong>That's what, I'm trying to think about that, right? So. Coca-cola says, like, going down your example, Coca-Cola says, "Love to do this. Want to offer it to all of our employees." We make it available to them. But it's the employee that has to push the start button and say, yes, I want my electronic medical record to be integrated into this single platform, right?</p><p><strong>Ardy Arianpour: </strong>But that's that's an example with Coca-Cola. If we're doing something with Big Pharma, they're running a clinical trial for 500,000 COVID patients, as an example. They're getting data collection within one day versus two months, and guess what, we're going to be driving a new possible vaccine. Why? Because of the time it takes for data collection at scale. We empower patients to do that and they get something back. They get to track and monitor all their family health.</p><p><strong>Harry Glorikian: </strong>Right. So so it's sort of, you know, maybe I'm being dense, but sort of the same thing, right? Big Pharma makes it available to the patient. The patient then clicks, Yes, I want to do this and pull in my medical records to make it all everything to be in one place. Yes.</p><p><strong>Ardy Arianpour: </strong>Yes. And I think it's about the fact that we've created a unique data sharing environments. So that's, you know, Harry and Stacey and John and Jennifer and whoever, you know, with whatever use case can share their data and also consent is built with E-consent and digital consent is built within that process. You don't share anything you don't want to share.</p><p><strong>Harry Glorikian: </strong>Right. So let me see if I got this correct. So Seqster is providing a translation and aggregation between systems through a new layer of technology. Not creating true interoperability between systems, right?</p><p><strong>Ardy Arianpour: </strong>Yes. There's a spider web. And. We have untangled the spider beb in the United States of America. We've done all the plumbing and piping to every single health institution, doctor's office clinic, wearable sensor, medical device pharmacy, the list goes on and on, Harry.</p><p><strong>Harry Glorikian: </strong>So let's... Another question. So how does the 21st Century CURES Act of 2016 relate to your business? I think you know you've said something like Seqster has become law, but I'm trying to. I'm trying to understand, what do you mean when you say that?</p><p><strong>Ardy Arianpour: </strong>So when we founded Seqster, we didn't know there was going to be a Twenty First Century CURES Act. We didn't know there was going to be GDPR. We are GDPR compliance before GDPR even came out. Right? Because of our the way that we've structured our business, number one. Number two, how we built the platform by patients for CMS ONC interoperability, you know, final rulings and the Twenty First Century CURES Act, which is, they're synonymous. We worked hand in hand with Don Rucker's team and Seema Verma on the last administration that was doing a lot of the work. Now a wonderful gentleman, Mickey Tripathy has taken the role of ONC, and he understands, you know, the value of Seqster's technology at scale because of his background in interoperability. But what was interesting in the two years that we worked with HHS and CMS was the fact that they used Seqster as the model to build the rules. I was personally part of that, my team was personally part of that, you know, and so we were in private meetings with these folks showing our platform and they were trying to draft certain rules.</p><p><strong>Ardy Arianpour: </strong>We didn't know that they were going to be coming out with rules until they did. And then that's when high level folks in the government told us specifically on calls and also even at Datapalooza when I gave a keynote talk on on Seqster, when Don Rucker did as well right before me. You know, we're sitting in the speaker room and folks are like, "You're going to become law in a month." And this was in February of 2020. March 9th, those rules dropped. I was supposed to give a keynote talk at HL7,  at HIMMS. HIMMS got cancelled in 2020. I just got back from HIMMS 2021 in Vegas just a week and a half ago. It was fantastic. Everyone was masked up. There was only three cases of COVID with 10,000 people there. They did a great job, you know, regulating it. You had to show your vaccine card and all that good stuff. But you know, I would have never thought Seqster becomes law when we were founding the company. And so this is really special now.</p><p><strong>Harry Glorikian: </strong>So what does success look like for Seqster?</p><p><strong>Ardy Arianpour: </strong>It depends how you measure it. So we're in the Olympics. It's a great question. Here's my answer to you. We're in the Olympics just finished, right? So we started out in track and field. We were really good at running the 400 Meters and then somehow we got a use case on the 4x1 and the 4x4. And then we did really well there, too. And then because of our speed, you know, we got some strength and then they wanted us to get into the shot put and the javelin throw and then we started winning there, too. And then somehow, now people are calling us saying, "Are you interested in trying to swim?" We got the 100 meter butterfly. Well, we've never done that. So success for us is based off of use cases. And every use case that we deal with, within clinical trials and pharma, we've define 24 distinct use cases that we're generating business on. Within the payer community now, because of the CMS ONC Twenty First Century Cures Act, there's a major tailwind. Within life insurance for real time underwriting, there's, you know, a plethora of folks that are calling us for our system because of the patient engagement. So this patient centricity for us has been a central pillar, and I've never allowed anyone in our company, whether it's the board or our investors or employees, you know, get sidetracked from that. We've been laser focused on the patients and success at impacting patient lives at scale.</p><p><strong>Harry Glorikian: </strong>So as a venture guide, though, right, like I'm going to, there's only so much money on so much time to tackle, so many different opportunities, right? So it's there is a how do we create a recurring revenue stream and keep plugging along and then generate either enough revenue or raise enough money to do more? And so just trying to think through that for what you guys are trying to do, I get the 4x100 and the swimming. But all of that takes money and resources right to be able to prove out, of course.</p><p><strong>Ardy Arianpour: </strong>And here's another thing we're in a different state. Look, my team and I had a major exit before. We built a billion dollar company out of $3 million. And even though we weren't founders of that company, you know, I was the senior vice president and we we did really well. So, you know, that allowed us to not take salaries that allowed us to take our money and put it into doing something good. And we did that in 2016 to seed it. And then afterwards, I raised, you know, millions of dollars from folks that were interested in, you know, this problem and saw that our team had a track record. And I actually was not interested, Harry, in raising a Series A because of our experience, but we kept on getting calls. And then just six months ago, we announced, you know, our series a funding. Well, we actually announced it in March, I think it was, but we closed our Series A in January of this year and it was led by Takeda Pharma, Anne Wojcicki's 23andMe and United Healthcare Group's Equian folks that created Omniclaim and sold to UnitedHealth Group Omni Health Holdings.</p><p><strong>Ardy Arianpour: </strong>So check this out. Imagine my vision in 2016 of having medical data, genomic data fitness data. Well, if you look at the investors that backed us, it's pretty interesting. What I reflect on is I didn't plan that either. We got amazing genomic investors. I mean, it doesn't get better than getting Anne Wojcicki and 23andMe. Amazing female entrepreneur and, you know, just the just the force. Secondly, Takeda Pharma, a top 10 pharma company. How many digital health startups do you know within Series A that got a top 10 pharma? And then also getting some payer investors from UnitedHealth Group's Omniclaim folks and Equian OmniHealth Holdings. So this is to me, very interesting. But going to focus our focus has been pharma and clinical trials. And so Takeda has been phenomenal for us because of, you know, they they built out the platform and they built it out better for us and they knew exactly what to do with things that we didn't know. And with things that patients didn't know on the enterprise, you know, Takeda did a phenomenal job. And now other pharma companies are utilizing our platform, not just Takeda.</p><p><strong>Harry Glorikian: </strong>Yeah, well, they want their data aggregation. They want as much data on the patient aggregated in one place to make sense of it.</p><p><strong>Ardy Arianpour: </strong>So not necessarily that they actually want to empower patients with a patient centric engagement tool. That's pharma's number one thing right now, the data part, obviously is important, but empowering patient lives at scale is the key, and that's that's our mission. And so, yeah, that's that's a whole 'nother cocktail conversation when I see you soon hopefully in a couple of weeks.</p><p><strong>Harry Glorikian: </strong>Hopefully as life gets, or if it gets back to normal, depending on the variants, you know, we'll hopefully get to meet him in person and have a glass of wine or a cocktail together. So it was great to speak to you. Glad we had this time, and I look forward to, you know, hearing updates on the company and, you know, continually seeing the progress going forward.</p><p><strong>Ardy Arianpour: </strong>Thanks so much, Harry, for having me. Big fan of Moneyball, so thank you to you and your organizers for having me and Seqster on. If anyone wants to get in touch with me personally, you can find me on LinkedIn or you can follow Seqster at @Seqster. And again, thank you so much for. For having a great discussion around, you know, the the insights behind Seqster.</p><p><strong>Harry Glorikian: </strong>Excellent. Thank you.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode.  You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show. You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
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      <itunes:title>Seqster&apos;s Ardy Arianpour on How To Smash Health Data Siloes</itunes:title>
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      <itunes:summary>Your medical records don&apos;t make pleasant bedtime reading. And not only are they inscrutable—they&apos;re often mutually (and deliberately) incompatible, meaning different hospitals and doctor&apos;s offices can&apos;t share them across institutional boundaries. Harry&apos;s guest this week, Ardy Arianpour, is trying to fix all that. He’s the co-founder and CEO of Seqster, a San Diego company that’s spent the last five years working on ways to pull patient data from all the places where it lives, smooth out all the formatting differences, and create a unified picture that patients themselves can understand and use.</itunes:summary>
      <itunes:subtitle>Your medical records don&apos;t make pleasant bedtime reading. And not only are they inscrutable—they&apos;re often mutually (and deliberately) incompatible, meaning different hospitals and doctor&apos;s offices can&apos;t share them across institutional boundaries. Harry&apos;s guest this week, Ardy Arianpour, is trying to fix all that. He’s the co-founder and CEO of Seqster, a San Diego company that’s spent the last five years working on ways to pull patient data from all the places where it lives, smooth out all the formatting differences, and create a unified picture that patients themselves can understand and use.</itunes:subtitle>
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      <title>Why AI-based Computational Pathology Detects More Cancers</title>
      <description><![CDATA[<p>Chances are you or someone you love has had a biopsy to check for cancer. Doctors got a tissue sample and they sent it into a pathology lab, and at some point you got a result back. If you were lucky, it was negative and there was no cancer. But have you ever wondered exactly what happens in between those steps? Until recently, it’s been a meticulous but imperfect manual process where a pathologist would put a thin slice of tissue under a high-powered microscope and examine the cells by eye, looking for patterns that indicate malignancy. But now the process is going digital—and growing more accurate.</p><p>Harry's guest this week is Leo Grady, CEO of, Paige AI, which makes an AI-driven test called Paige Prostate. Grady says that in a clinical study, pathologists who had help from the Paige system accurately diagnosed prostate cancer almost 97 percent of the time, up from 90 percent without the tool. That translates into a 70 percent reduction in false negatives—nice odds if your own health is on the line. This week on the show, Grady explains explain how the Paige test works, how the company trained its software to be more accurate than a human pathologist, how it won FDA approval for the test, and what it could all mean for the future of cancer diagnosis and treatment.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>Chances are you or someone you love has had a biopsy to check for cancer. </p><p>Doctors got a tissue sample and they sent it into a pathology lab, and at some point you got a result back. If you were lucky it was negative and there was no cancer.</p><p>But have you ever wondered exactly what happens in between those steps?</p><p>Well, until recently, it’s been an extremely meticulous manual process. </p><p>A pathologist would create a very thin slice of your tissue, put it under a high-powered microscope, and examine the cells by eye, looking for patterns that indicate malignancy. </p><p>But recently the process has started to go digital. </p><p>For one thing, the technology to make a digital scan of a pathology slide has been getting cheaper. That’s a no-brainer, since it makes it way easier for a pathologist to share an image if they want a second opinion.</p><p>But once the data is available digitally, it opens up a bunch of additional possibilities. </p><p>Including letting computers try their hand at pathology. </p><p>That’s what’s happening at a company called Paige AI, which makes a newly FDA-approved test for prostate cancer called Paige Prostate.</p><p>The test uses computer vision and machine learning to find spots on prostate biopsy slides that look suspicious, so a human pathologist can take a closer look.</p><p>So why should <i>you</i> care?</p><p>Well, in a clinical study that Paige submitted to the FDA, pathologists who had help from the Paige system accurately diagnosed cancer almost 97 percent of the time, up from 90 percent without the tool.</p><p>That translates into a 70 percent reduction in false negatives. At the same time there was a 24 percent reduction in false positives. </p><p>I gotta tell you, if I were getting a prostate biopsy, I’d really like those improved odds. </p><p>And it’s a great example of the kinds of AI-driven medical technologies that I write about in The Future You, which is now available from Amazon in Kindle ebook format.</p><p>So I asked Paige’s CEO, Leo Grady, to come on the show to explain how the test works, how Paige trained its software to be more accurate than a human pathologist, how the company got the FDA to give its first ever approval for an AI-based pathology product, and what it could all mean for the future of cancer diagnosis and treatment.</p><p>Here’s our conversation.</p><p><strong>Harry Glorikian: </strong>Leo, welcome to the show.</p><p><strong>Leo Grady: </strong>Hi, Harry. Glad to be here.</p><p><strong>Harry Glorikian: </strong>Yeah. You know, I've been watching the company for some time now, and the big story here seems to be that we're really entering the area of digital pathology, also known as sort of computational pathology, and it's funny because I've been talking about digital pathology since I think I started my career back when I was 25, which seems like a long time ago at this point. But for a lot of laboratory tests that we use, like it's usually done by eye, and now we can get a lot from sort of AI being assistive in this way. So keeping in mind that some of the listeners are professionals, but we have a bunch of sort of non-experts, could you start off explaining the term maybe computational pathology and summarize where the state of the art is, which I assume you guys are right at the cutting edge of it?</p><p><strong>Leo Grady: </strong>Yeah, so I think it actually might help just to jump back a level and talk about what is pathology and how is it done today? So today, so pathology is the branch of medicine where a doctor is taking tissue out of a patient through a biopsy, through surgery and making glass slides out of that tissue, looking at it under a microscope in order to make a diagnosis. And today, all of that process of taking the tissue out, cutting it, staining it, mounting it on slides. Then gets looked at under a microscope by a pathologist to make a diagnosis, and that diagnosis the pathologist makes is the definitive diagnosis that then drives all of the rest of the downstream management and care of that patient. When pathologists are looking through a microscope, sometimes they see something that they're not quite sure what it is. And so they may want to do another test. They may want to do another stain. They may want to cut more out of the tissue, make a second slide. Sometimes they want to ask a colleague for their opinion, or if they really feel like they need an expert opinion, they may want to send that case out for a consultation, in which case the glass slides or are put in a, you know, FedEx and basically shipped out to another lab somewhere. All of those different scenarios can be improved with digital pathology and particularly computational pathology and the sort of technology that we build at Paige. So in a digital world, what happens instead is that the slides don't go to the pathologist as glass. They go into a digital slide scanner, and those slide scanners produce a very high resolution picture of these slides.</p><p><strong>Leo Grady: </strong>So these are quarter-micron resolution images that get produced of each slide. And then the pathologist has a work list on their monitor. They look through those those cases, they open them up and then that digital workflow, they can see the sides digitally. When they have those slides digitally, if they want to send them out to a second opinion or or show them to a colleague, it's much easier to then send those cases electronically than it is to actually ship the glass from one location to another. Once those slides are digital it, it opens up a whole other set of possibilities for how information can come to the pathologist. So if they want additional information about something they see in those slides, rather than doing another stain, doing another cut, sending for a second opinion, what we can do and what we do at Paige is we we identify all the tissue patterns in that piece of tissue, match those against a large database where we have known diagnoses and say, OK, this case, this pattern here has a high match toward to something that's in this database. And by providing that information to the pathologists on request that pathologists can then leverage that information, integrate it and use it in their diagnostic process. And this is the product that the FDA just approved. It's the first ever AI based product in pathology that is specifically aimed at prostate cancer and providing this additional information in the context of a prostate needle biopsy.</p><p><strong>Harry Glorikian: </strong>Well, congratulations on that. That's, you know, that's amazing. And I'm. You know, the fact that the FDA is being more aggressive than I remember them being in the past is also a great thing to see. But, you know, we've been talking and quote digitizing things in pathology for for quite some time, let's say, separate from the AI based analytics part of it moving in that direction. What was the kind of technology advance or prerequisite that you guys came up with when you started Paige that that took this to that next level.</p><p><strong>Leo Grady: </strong>Well, as you're pointing out, Harry, most slides are not digitized today, single digits of slides in a clinical setting get digitized. And the reason for that has been you need to buy scanners, you need to change your workflow, you need to digitize these slides. They're enormously large from a file size and data complexity. So then you have to store them somehow and you make all of that investment and then you get to look at the same slide on a monitor that you look at under a microscope. And so pathologists for years have said, why? Why would we make this investment? Why would we go through all of that expense? And that trouble and that change and learn a new instrument when we don't really get a lot of value out of doing so? And furthermore, there was even a question for a long time, do you get the same information on a digital side that you get on glass through a microscope? Yep. There have been a number of things that have been changing that over time. So one is the maturity of the high capacity digital side scanners. There are now a number of hardware vendors that produce these. Storage costs have come down. And one thing that we offer at Paige is is cloud storage, which is really low cost because we're able to effectively pool costs with the cloud providers from multiple different labs and hospitals, so we can really drive those prices down as far as possible.</p><p><strong>Leo Grady: </strong>So that lowers that barrier. And then back in 2017, the first digital side scanner got approved, which demonstrated there was equivalency in the diagnosis between looking at the slide on a monitor and looking at it under a microscope. And that is something that that we also replicated with our digital side viewer, demonstrated that equivalency between digital and glass. But all of those barriers were barriers just to going digital in the first place. And now, really, for the first time, because of the maturity of the scanners, because of the FDA clearance of just the viewer, because of lower cost storage, many of those barriers have come down. Now what has not happened is still a major clinical benefit for going digital in the first place. Yes, you can share slides easier. Yes, you can retrieve slides easier. Yes, you can do education easier. It's still a lot of cost and a lot of changed your workflow, so I really think that that the introduction of the kinds of technologies that that the FDA approved, which we built with Paige Prostate, that actually adds additional information into the diagnostic workflow that can help pathologists use that information help them. You get to a better diagnosis, reduce false positives, reduce false negatives, which is what we showed in the study that for the first time is is going above and beyond just going digital and some of these conveniences of a digital workflow to providing true clinical benefit.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, whenever I look at this from an investment perspective, like if you take apart something and break it into its first principles, you know, levels, you have to have certain milestones hit. Otherwise, it's not going to come together, right? And I've, you know, looking at digital pathology, it's the same thing. You have to have certain pieces in place for the next evolution to be possible, because it's got to be built on top of these foundational pieces. But, you know, once you get there, the exponential nature of of how things change, once it's digitized and once you're utilizing it and prove that it works is sort of where you see the, you know, large leaps of benefit for the pathologist as well as, you know, ultimately we're doing this for better patient care. But you know, your product was I think the FDA called it the first ever FDA approval for an AI product in pathology, which is a big deal, at least as far as I'm concerned, because I've been doing it for a long time. But because it was first, it must have been a one hell of a learning process for you and the FDA to figure out how to evaluate a test like this. Can you sort of explain maybe a little bit about the process? You know, how did you win approval? What novel questions did you have to answer?</p><p><strong>Leo Grady: </strong>It was a long process. You know, as you point out, this is this is the first ever technology approved in this space. And I think you saw from the FDA's own press release their enthusiasm for what this technology can bring to patient benefits. Fortunately, we applied for breakthrough designation back in early 2019, received that breakthrough designation in February of 2019. And as a result, one of the benefits of breakthrough designation is the FDA commits to working closely with the company to try to iterate on the study protocol, iterate on the the validation that's going to be required in order to bring the the technology to market. And so because of that breakthrough designation, we had the opportunity to work with the the FDA in a much tighter iterative loop. And I think that they are they were concerned, I mean, primarily about the impact of a misdiagnosis and pathology, right? Which is really understandable, right? Their view is that, yes, maybe in radiology, you see something and maybe aren't totally sure. But then there's always pathology as a safety net, you know, in case you ever really need to resolve a ground truth. You can always take the tissue out and look at it under a microscope. But when you're dealing with a product for pathology, that's the end of the road. I mean, that is where the diagnostic buck stops. And so anything there that that was perhaps going to misinform a pathologist, mislead them, you know, ultimately lead to a negative conclusion for the patients could have more severe consequences.</p><p><strong>Speaker2: </strong>The flip side, of course, though, is that if you get it right, the benefits are much greater because you can really positively impact the care of those patients. So I think they they, you know, appropriately, we're concerned with the exacting rigor of the study to really ensure that that this technology was providing benefit and also because it was the first I think they wanted to be able to set a standard for future technologies that would have to live up to the same bar. So there were a lot of meetings, you know, a lot of trips down to Silver Spring. But I have to say that that the FDA, you know, I think in technology, there are a lot of companies that are are quick to, you know, malign regulators and rules. I frankly both at Paige and my previous experience at HeartFlow, at Siemens, I think the FDA brings a very consistent and important standard of clinical trial design of of, you know, technology proving that is safe and effective. And I found them to be great partners to work with in order to really identify what that protocol looks like to be able to produce the validation and then to, you know, ask some tough questions. But that's their job. And I think, you know, at the end of the day, the products that get produced that go through that process really have met the standard of of not only clinical validation, but even things like security and quality management and other really important factors of a clinical product.</p><p><strong>Harry Glorikian: </strong>Oh no, I'm in total agreement. I mean, whenever I'm talking to a company and they're like, Well, I don't know when I'm going to go to the agency, I'm like, go to the agency, like, don't wait till the end. Like there, actually, you need to look at them as a partner, not as an adversary.</p><p><strong>Leo Grady: </strong>Yeah. And a pre-submission meeting is is easy to do. It's an opportunity to make a proposal to the FDA and to understand how they think about it and whether that's that's going to be a strategy that's going to be effective and workable for them. So I always think that that pre subs are the place to start before you do too much work because you generally know whether you're on the right path or not.</p><p><strong>Harry Glorikian: </strong>Yeah, I agree. And it's funny because you said, like, you know, they're concerned about the product, but it's interesting. Like from all the College of American Pathology studies where you send slides to different people, you don't always get the exact same answer, depending on who's looking at it. So I can see how a product can bring some level of standardization to the process that that helps make the call so uniform, even across institutions when you send the slides. So I think that's moving the whole field in a really positive direction.</p><p><strong>Leo Grady: </strong>Well, only if that uniform call is correct, right? Or better? Great. I mean, if you bring everybody down to the lowest common denominator that that standardization, but it's not moving the field forward. So. Correct. One of the curses of of bringing that level of standardization is that you have to really meet the highest bar of the highest pathologists and not not just the average. That said, you know, we're fortunate to come from Memorial Sloan-Kettering and to have the opportunity to work with some of the the leading pathologists in the world to really build in that level of rigor and excellence into the technology.</p><p><strong>Harry Glorikian: </strong>Yeah. So that brings me to like, you know. The algorithms are built on a fairly large training set would be my assumption and of pre labeled sort of images, where do you guys source that from? Is it you have like a thousand people in the background sort of making sure that everything is labeled correctly before it's fed to the to the algorithm itself?</p><p><strong>Leo Grady: </strong>Well, what you're describing is very common where you have pathologists or in radiology radiologists or other experts really marking up images and saying this is the important part to pay attention to. This part is cancer. That part's benign. Our technology actually works differently. Our founder, Thomas Fuchs, and his team at Memorial Sloan-Kettering actually really made a breakthrough not only in the the quality of some of the the AI systems that were building, but also in the technology itself. And what what they did, this was all published in Nature Medicine a couple of years ago, is basically find a way to just show the computer a slide and the final diagnosis without having a pathologist, you know, mark up the slide, but just show them the final diagnosis. And when you show the computer enough examples of the slide and the final diagnosis, the computer starts to learn to say, OK, this pattern is common to all grade threes. This pattern is common to all grade fours. Or whatever it is. And the computer learns to identify those patterns without anybody going through and marking those up. Well, this technology is important for a few reasons.</p><p><strong>Leo Grady: </strong>One, it means we can train systems at enormous scale. We can not just do thousands of cases, but tens of thousands, hundreds of thousands of cases. Second, it means that we can really build out a portfolio of technologies quickly that are very robust and not have to spend years annotating slides. And third, it allows us to start looking for patterns that no pathologists would necessarily know how to mark up. You know, can we identify which tumors are going to respond to certain drugs or certain therapies? You know, no pathologists are going to be able to say, OK, it's this part of the the tumor that you need to look at because they don't really know. But with this technology where we we know these tumors responded, these tumors didn't it actually helps us try to ferret out those patterns. So that that's one of the real key benefits that differentiates Paige from from other companies in this space is just the difference in the technology itself.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, it's funny because I must admit, like when we talk about stuff like this, I get super excited because I can see where things can go. It's. It's always difficult to explain it where somebody else can envision what you've been thinking about because you've been thinking about it so long, but it's super exciting. So let's jump to like the most important benefits, like if you had to rank the benefits of the technology, I mean, I've I read on your website that in the clinical study you guys submitted to the FDA, pathologist used using the Paige Prostate were seven percent more likely to correctly diagnose the cancer. Is that the major innovation? Would that by itself be enough to justify an investment in the technology? I mean, I'm trying to. You know, if you were to say God, this is the most important thing and then go down the list, what would they be?</p><p><strong>Leo Grady: </strong>Yeah, that's right. So so the study that we did was like this. We had 16 pathologists. They diagnosed about six hundred prostate needle core biopsy patients and they they did their diagnosis. They recorded it and then they did it a second time using Paige so they could see the benefit of all this pattern matching that that Paige had done for them. And what we did is we compared the diagnosis. They got the first time and the second time with the ground truth, consensus diagnosis that we had from Memorial. And what we found is that when the pathologists were using Paige, they had a 70 percent reduction in false negatives. They had a 24 percent reduction in false positives, and their interest in obtaining additional information went down because they had more confidence in the diagnosis that they were able to provide. And what was interesting about that group of 16 pathologists is it it included pathologists that were experienced, that were less experienced, some that were specialists in prostate cancer, some that were not so specialized in prostate cancer. And among that entire group of pathologists, they all got better. They all benefited from using this technology. And what's more, is that the gap between the less experienced, less specialized pathologists and more experienced, more specialized pathologists actually decreased as they all used the technology. So it allowed them to, like we were talking about before, actually come up to the level of of the better pathologists and even the better pathologists could leverage the information to get even better.</p><p><strong>Harry Glorikian: </strong>So as a male who you know who's going to age at some point and potentially have to deal with, hopefully not, a prostate issue, we want them to make an accurate diagnosis because you don't want the inaccurate diagnosis, especially in in that sort of an issue. But what about the speed? I mean, you've you talk about that, you know, it helps streamline the process and reduce reduce turnaround time for for patients. What does that do to workload and and how quickly you're able to turn that around compared to, say, a traditional method.</p><p><strong>Leo Grady: </strong>Our study was really focused on clinical benefit and patient benefit. We were not aiming to measure speed and the way in which the study was designed and the device is intended to be used is that the pathologist would look at the case, decide what they they think the result is, and then pull up the Paige results and see if it changes their thinking or calls their attention to something that they may have missed. So the focus of the the product was really on the the benefit to the the clinical diagnosis and the clinical benefit to patients by providing more information to the doctors. And the result of that information was, you know, clearly demonstrated benefit. Now if they can get to that result by looking at the Paige results and they don't need another cut, they don't need another stain, they don't need another consultation, then that's going to get the results back to the urologists faster, back to the patient faster and will ultimately enable them to start acting on that diagnosis more quickly. But the intention of the study, the intended use of the device is not around making pathologists faster. It's really around providing them this additional information so that they can use that in the course of their diagnosis and get the better results from patients.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for The Future You by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So I asked this out of naivete because I didn't I didn't go looking for it. But have you guys done a health economic analysis of the system?</p><p><strong>Leo Grady: </strong>We have one. It certainly it's, as you know, it's really key to be able to look at that we have a model that we've built. We're still refining it with additional data. There was a study that was announced in the U.K. a couple of weeks ago where the NHS is actually funding a prospective multicenter trial that includes Oxford, Warwick, Coventry, Bristol to be able to evaluate the the health, economics and clinical benefits of using this technology in clinical practice prospectively. So that's something that we engaged with NICE [the National Institute for Health and Care Excellence] on in order to try to get the design correct that will help feed in real world data into the model. But we have a model that we've been using internally and are continuing to build and refine.</p><p><strong>Harry Glorikian: </strong>So. Again, incredible that you guys got FDA approval, I think the company was founded in 2017, if I'm correct. Can you talk about, you know, the founders and yow you guys, you know, built this so quickly, I mean time scale wise, it's a pretty compressed time scale, relatively speaking.</p><p><strong>Leo Grady: </strong>Well, yeah, it isn't, it isn't, ...so the company started in 2017, our first employee was actually middle of 2018 and we had our first venture round and in early 2018. However, the work that went into the company that spun out of Memorial Sloan-Kettering started earlier. So there is a group of really visionary individuals at MSK that back, I want to say, 2014, 2015, actually had started this push toward digital pathology, computational pathology, really seeing where the puck was going and building this technology. They formed something called the Warren Alpert Center, and the Warren Alpert Center provided some initial funding to really get this going and to hire some of the founders and to really move this technology in the right direction. And it was really because that technology started to show such promise that MSK made the decision that that was at a point where it could be better, you know, more impactful to actually go outside of MSK into a company where where we could industrialize the technology and really bring it to hospitals and labs around the world. So the technology started earlier, 2014, 2015. Paige was really launched in, I would say, 2018, although technically it was incorporated earlier and and then from that point I personally joined in 2019. And so I'm not I'm not a founder, but when I joined in 2019, you know, we we really spun up a significant team and and brought to bear some of my own experience and industrializing AI technology and bringing it out to clinical benefit.</p><p><strong>Harry Glorikian: </strong>Well, you know, most founders don't take the company all the way. It's a rare breed that's able to get it that far. So you know this a great story, but let's step back here and talk about like now you have to like, get people to accept this technology right, which is the human factor which I always find much more confounding than the the the the computational factor. So you've got to get, you know, somebody inside a hospital or pathology lab. Do you run into resistance or pushback from the technology, I mean, are they skeptical about the algorithm? How do you get a human to sort of buy off on this? I remember when we were presenting this, oh God, again, 25 years ago, they hated it. I mean, just hated it. And as time has gone by, you've seen that that digitization is slowly taking effect and where you know, it's assistive as opposed to something, I remember when we first launched this, it was, "This is going to be better than" or "take your job," which is a great way to make an enemy on the other side. And I see that the two actually being better than one or the other per se on on its own. So how are you guys approaching this? And do you have any anecdotal stories that you might be able to share?</p><p><strong>Leo Grady: </strong>Yeah, and so I think there are two elements are one is, you know. Are people resistant by the nature of the technology because they feel threatened by it, and then the other is how does market adoption start with this sort of technology to just the first point? You know, I tend to be very careful about the term AI. I feel like it know it often introduces this concept of, you know, people think of a robot doctor that's going to run in and start doing things. And it's just it's not. I mean, AI is a technology that's been in development for four decades. I did my PhD in AI, in computer vision, 20 years ago, and it's just a technology, right? It's like a transistor. It can be used to build many different things. At its core, it's just complex pattern matching, which is what we how we leverage that technology. In the case of Paige Prostate was to help provide that information. I think, you know, the better frame to think about this technology is as a diagnostic. This is just like a diagnostic test. You validate it with a standalone sensitivity and specificity. The information gets provided the doctor. You have to do a clinical trial that samples the space effectively of the patient population and the intended use.</p><p><strong>Leo Grady: </strong>And you have to make sure the doctors understand the information and know how to use it effectively. It's before my time, but I heard that when immunohistochemistry was first really introduced in pathology, that there is a discussion that this was going to take all the pathologists' jobs. And who needs a pathologist if you can just stain with IHG and get get a diagnostic result out of it? Well, you know, 20 years, IHT is an essential component of of pathology, and it's a key element of of the diagnostic workflow for pathologists. So, far from replacing any pathologists, it's empowered them. It's made there the benefit that they can provide to the clinicians, even more valuable and even more important. And I think we're going to see a similar trajectory with this computational technology. Now your first question about market adoption, how people adopting this, I would say that, you know, last week I went to the College of American Pathology meeting, which was in person in Chicago. It's my first in-person meeting since COVID, so a year and a half ago. And I noticed--and this was this was right after the announcement by the FDA of of the approval for Paige Prostate--I noticed there was a market shift in the conversations I was having with pathologists.</p><p><strong>Leo Grady: </strong>It was a shift away from "Does this technology work? Is it ready for prime time? What does it really do?" Toward, "Ok, how do we operationalize this? How do we bring it in house, how do we integrate this into a workflow and how do we how do we pay for it?" You know, those are the conversations that we were having in Chicago at CAP. Not does this work? Is it ready for prime time? So I do think that there is a market understanding that the technology is real, that it works, that it can provide benefit. Now it's just a question of how do we operationalize and how do we get it paid for? Because today there's no additional reimbursement for it. But you know, again, with market adoption, you’re got your Moore adoption curve for anything. You get them and you get your innovators and early adopters, your early majority, late majority and your laggards. And you know where I think we're at a stage where we've got innovators and early adopters that are excited to jump in and start leveraging this technology. And I think, you know, we're going to get to your early majority and the late majority over time. It's always going to be a process.</p><p><strong>Harry Glorikian: </strong>Yeah, no. I mean, you know, reflecting on your IHC [immunohistochemistry], that's where I started my career. Like, I think I taught like two hundred and fifty IHC courses over the first, say, three or four years that I was in the in the business. Three or four years. And you know, I agree with you. There's no way that any one of these technologies takes the place of [a pathologist]. They're additive, right? It's just a tool that helps. Make the circle much more complete than it would be in any one component, all by itself.</p><p><strong>Leo Grady: </strong>Could you ever hear when you were teaching these classes? Did anyone ever say that like, are we even going to need pathologists anymore?</p><p><strong>Harry Glorikian: </strong>No, it was when the is is when imaging systems came out that said the imaging system would then replace the pathologists. The IHC was was really the cusp of precision medicine, where I remember when I first started because we were working with ER and PR and, you know, when I first learned, you know about like, you know, the find and grind method, I would always be like, OK, it's x number of femtomoles. Like, What does that really telling you, right? Compared to this stain over here where I can see, you know, the anatomy, I can see where the cells are. I can see. I mean, there's so much more information that's coming from this that lets me make a better call. I will tell you selling it was not that hard to a lot of people, they they could see the benefit and you could you could really sort of get them to adopt it because they saw it as a tool.</p><p><strong>Leo Grady: </strong>Was that post-reimbursement?</p><p><strong>Harry Glorikian: </strong>Uh, even pre-reimbursement.</p><p><strong>Leo Grady: </strong>Really interesting. Yeah, there's there's a lot we can learn from you then.</p><p><strong>Harry Glorikian: </strong>Yeah, it was. It was. It was an interesting ride back then. I mean, I remember my first day at work. My boss comes to me and says. By the way, you're going to give a talk in Arizona in two weeks, and I was like, What do you mean I'm going to go? Who am I going to give a talk to you? He goes, Oh, you got to give a talk on the technology and how to use it. And I said, who's in the audience? And he said histo techs, and there'll be some pathologists. And I was like, Are you kidding me? And he goes, You got two weeks to get ready. Oh my God, I was cramming like crazy. I was in the lab. I was doing all the different types of assays that we had available. And you know, it was you went out there and I learned very quickly like, the show must go on, like you got to get out there and you got to do your thing. But it was it was a great time in my career to be on that on that bleeding edge of what was happening. So quickly, like, why did you guys start with prostate cancer, though like? It's not the most common cancer, although it's high on the list, so. Or maybe it's the second most type of cancer, but why did you guys start with that and where do you guys see it going from there, I guess, is next.</p><p><strong>Leo Grady: </strong>Well, the the decision of how to rank the different opportunities for, you know, ultimately we believe this technology can benefit really the entire diagnostic process, no matter what the question is in pathology. However, we did have to prioritize right and elements of of where to start, right. The elements of prioritization had a few factors. So one factor was how how prevalent is the disease? I mean, as you know, prostate cancer is one of the big four. Second, is there are a lot of benefit that we can provide today with prostate cancer. You know, man of a certain age goes in, gets a PSA test. It's high, they go and they get 12 cores, 14 cores, 20 cores out of their prostate and that produces. You know, it can be 30 slides, it can be 50 slides, I mean, it really depends, and this can take the pathologist a long time to look through. Most of those cores are negative. In fact, most of those patients are negative, but the consequence of missing something is really significant. And so we felt that this was a situation where there was a big need. There's a lot of there's a lot of screening that goes on with prostate cancer. Prostate cancer is prevalent and the consequence of missing something is really significant. So that's where we felt like we could provide maximum benefit, both in terms of the patient, in terms of the doctor, and also that it was a significant need across the space.</p><p><strong>Leo Grady: </strong>We also had the data and the technology that we could go after that one well. But that said, you know, we announced that we have a breast cancer product that is got a CE mark in an enabling clinical use in Europe. We're doing a number of investigational studies with that product in the US right now and and working toward bringing that one to market. You know, after our our recent funding round, we spun up a number of teams and a number of of verticals that were we're going after in other cancer types and ultimately even beyond cancer. So there's more to come. We wanted we really take seriously the quality, the regulatory confirmation as well as the deployment channel. I mean, we built the whole workflow to be able to leverage this technology throughout the workflow in a way that is meaningful to the pathologist. So the development is is maybe a little bit more heavy and validation than some other companies where you have a PhD student that says, Oh, you know, I won some challenge and I went to go bring this to market building real clinical products, validating them, deploying them, supporting them is a real endeavor. But prostate was just the first, breast is second, and we have a whole pipeline coming out. So stay tuned.</p><p><strong>Harry Glorikian: </strong>So before we end here, I want to just tilt the lens a little bit towards the consumer and say, like, you know. Why would consumers show interest or at least be aware that these things are coming? Because I always feel like they're almost the last to know, or they just don't know at all. But, you know, in the future, you know, with technologies like this, do you see it identifying tumors sooner, faster, more accurately? Or, you know, will it will it help increase survival or help us find better drugs? I mean that that's I think, what people are really... If you went down one level from us of the people that are affected by this. Those are the sorts of things they'd want to know.</p><p><strong>Leo Grady: </strong>Well, I think, you know, a useful analogy is what happened with the da Vinci robot. You know, when it was necessary for a patient to get prostate cancer surgery, they often chose centers that had the da Vinci robot. Why? Because they believed that they were able to get better care at those centers. And it's not because the surgeons at the other centers were no good. It's because the the da Vinci added elements of precision and standardization and accuracy that could be demonstrated that would enable the the patient to feel more confident they're getting the best treatment at those centers. So as I think about Paige Prostate and and ultimately the other technologies that we're bringing to market behind that, I would imagine that from the standpoint of the patient, they would want the diagnosis done at a lab where they had access to all of the available information, all the latest technology that could inform the pathologists to get the right answer, right? So would you want to go to a lab where the pathologists had no access to IHC? Would you want to send it to a lab where the pathologist had no ability to do a consultation? Do you want to send your your sample to a lab where the pathologist doesn't have access to Paige? I think in the future the answer is going to be no.</p><p><strong>Leo Grady: </strong>And I think that we're going to see ultimately, insurance companies and Medicare recognize that those labs are able to provide better care to patients and are going to encourage them and incentivize them to adopt these technologies. So, you know, ultimately from a patient standpoint, they they want to choose centers where they're going to get the best care, they're going to get the best diagnosis. I think one of the exciting elements of digital technology is that not everybody is able to go to Memorial Sloan-Kettering, not everyone's able to go to MD Anderson or Mayo Clinic. I think the opportunity with digital technology is to really increase the accessibility and increase the availability of these diagnostic tools that can really empower and enable pathologists in many parts of America, as well as beyond to really get to better results for their patients. And ultimately, you know, every patient cares about getting those those results accurately for themselves and for their loved ones.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I'm always explaining, you know, to different people like once you digitize it, there's so many opportunities that may open up to make things better, faster, easier, more accurate and even start to shift the business model itself of what can be done and where it can be done. So it's it's a super exciting space, and thanks for taking the time. It was great to talk to you. I mean, I don't get to talk to people in pathology all the time anymore. I'm sort of all over the place, but it's it's near and dear to my heart, that's for sure.</p><p><strong>Leo Grady: </strong>Well, thank you so much, Harry. We're so excited by these recent developments with the first ever FDA approved technology in this space and, you know, really excited to help roll this out to labs and hospitals around the country and around the world to really benefit those doctors and patients.</p><p><strong>Harry Glorikian: </strong>Excellent. Well, I look forward to hearing about the next FDA approval.</p><p><strong>Leo Grady: </strong>Working on it. Look forward to telling you.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Leo Grady: </strong>All right. Thanks so much, Harry.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 9 Nov 2021 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Leo Grady)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Chances are you or someone you love has had a biopsy to check for cancer. Doctors got a tissue sample and they sent it into a pathology lab, and at some point you got a result back. If you were lucky, it was negative and there was no cancer. But have you ever wondered exactly what happens in between those steps? Until recently, it’s been a meticulous but imperfect manual process where a pathologist would put a thin slice of tissue under a high-powered microscope and examine the cells by eye, looking for patterns that indicate malignancy. But now the process is going digital—and growing more accurate.</p><p>Harry's guest this week is Leo Grady, CEO of, Paige AI, which makes an AI-driven test called Paige Prostate. Grady says that in a clinical study, pathologists who had help from the Paige system accurately diagnosed prostate cancer almost 97 percent of the time, up from 90 percent without the tool. That translates into a 70 percent reduction in false negatives—nice odds if your own health is on the line. This week on the show, Grady explains explain how the Paige test works, how the company trained its software to be more accurate than a human pathologist, how it won FDA approval for the test, and what it could all mean for the future of cancer diagnosis and treatment.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>Chances are you or someone you love has had a biopsy to check for cancer. </p><p>Doctors got a tissue sample and they sent it into a pathology lab, and at some point you got a result back. If you were lucky it was negative and there was no cancer.</p><p>But have you ever wondered exactly what happens in between those steps?</p><p>Well, until recently, it’s been an extremely meticulous manual process. </p><p>A pathologist would create a very thin slice of your tissue, put it under a high-powered microscope, and examine the cells by eye, looking for patterns that indicate malignancy. </p><p>But recently the process has started to go digital. </p><p>For one thing, the technology to make a digital scan of a pathology slide has been getting cheaper. That’s a no-brainer, since it makes it way easier for a pathologist to share an image if they want a second opinion.</p><p>But once the data is available digitally, it opens up a bunch of additional possibilities. </p><p>Including letting computers try their hand at pathology. </p><p>That’s what’s happening at a company called Paige AI, which makes a newly FDA-approved test for prostate cancer called Paige Prostate.</p><p>The test uses computer vision and machine learning to find spots on prostate biopsy slides that look suspicious, so a human pathologist can take a closer look.</p><p>So why should <i>you</i> care?</p><p>Well, in a clinical study that Paige submitted to the FDA, pathologists who had help from the Paige system accurately diagnosed cancer almost 97 percent of the time, up from 90 percent without the tool.</p><p>That translates into a 70 percent reduction in false negatives. At the same time there was a 24 percent reduction in false positives. </p><p>I gotta tell you, if I were getting a prostate biopsy, I’d really like those improved odds. </p><p>And it’s a great example of the kinds of AI-driven medical technologies that I write about in The Future You, which is now available from Amazon in Kindle ebook format.</p><p>So I asked Paige’s CEO, Leo Grady, to come on the show to explain how the test works, how Paige trained its software to be more accurate than a human pathologist, how the company got the FDA to give its first ever approval for an AI-based pathology product, and what it could all mean for the future of cancer diagnosis and treatment.</p><p>Here’s our conversation.</p><p><strong>Harry Glorikian: </strong>Leo, welcome to the show.</p><p><strong>Leo Grady: </strong>Hi, Harry. Glad to be here.</p><p><strong>Harry Glorikian: </strong>Yeah. You know, I've been watching the company for some time now, and the big story here seems to be that we're really entering the area of digital pathology, also known as sort of computational pathology, and it's funny because I've been talking about digital pathology since I think I started my career back when I was 25, which seems like a long time ago at this point. But for a lot of laboratory tests that we use, like it's usually done by eye, and now we can get a lot from sort of AI being assistive in this way. So keeping in mind that some of the listeners are professionals, but we have a bunch of sort of non-experts, could you start off explaining the term maybe computational pathology and summarize where the state of the art is, which I assume you guys are right at the cutting edge of it?</p><p><strong>Leo Grady: </strong>Yeah, so I think it actually might help just to jump back a level and talk about what is pathology and how is it done today? So today, so pathology is the branch of medicine where a doctor is taking tissue out of a patient through a biopsy, through surgery and making glass slides out of that tissue, looking at it under a microscope in order to make a diagnosis. And today, all of that process of taking the tissue out, cutting it, staining it, mounting it on slides. Then gets looked at under a microscope by a pathologist to make a diagnosis, and that diagnosis the pathologist makes is the definitive diagnosis that then drives all of the rest of the downstream management and care of that patient. When pathologists are looking through a microscope, sometimes they see something that they're not quite sure what it is. And so they may want to do another test. They may want to do another stain. They may want to cut more out of the tissue, make a second slide. Sometimes they want to ask a colleague for their opinion, or if they really feel like they need an expert opinion, they may want to send that case out for a consultation, in which case the glass slides or are put in a, you know, FedEx and basically shipped out to another lab somewhere. All of those different scenarios can be improved with digital pathology and particularly computational pathology and the sort of technology that we build at Paige. So in a digital world, what happens instead is that the slides don't go to the pathologist as glass. They go into a digital slide scanner, and those slide scanners produce a very high resolution picture of these slides.</p><p><strong>Leo Grady: </strong>So these are quarter-micron resolution images that get produced of each slide. And then the pathologist has a work list on their monitor. They look through those those cases, they open them up and then that digital workflow, they can see the sides digitally. When they have those slides digitally, if they want to send them out to a second opinion or or show them to a colleague, it's much easier to then send those cases electronically than it is to actually ship the glass from one location to another. Once those slides are digital it, it opens up a whole other set of possibilities for how information can come to the pathologist. So if they want additional information about something they see in those slides, rather than doing another stain, doing another cut, sending for a second opinion, what we can do and what we do at Paige is we we identify all the tissue patterns in that piece of tissue, match those against a large database where we have known diagnoses and say, OK, this case, this pattern here has a high match toward to something that's in this database. And by providing that information to the pathologists on request that pathologists can then leverage that information, integrate it and use it in their diagnostic process. And this is the product that the FDA just approved. It's the first ever AI based product in pathology that is specifically aimed at prostate cancer and providing this additional information in the context of a prostate needle biopsy.</p><p><strong>Harry Glorikian: </strong>Well, congratulations on that. That's, you know, that's amazing. And I'm. You know, the fact that the FDA is being more aggressive than I remember them being in the past is also a great thing to see. But, you know, we've been talking and quote digitizing things in pathology for for quite some time, let's say, separate from the AI based analytics part of it moving in that direction. What was the kind of technology advance or prerequisite that you guys came up with when you started Paige that that took this to that next level.</p><p><strong>Leo Grady: </strong>Well, as you're pointing out, Harry, most slides are not digitized today, single digits of slides in a clinical setting get digitized. And the reason for that has been you need to buy scanners, you need to change your workflow, you need to digitize these slides. They're enormously large from a file size and data complexity. So then you have to store them somehow and you make all of that investment and then you get to look at the same slide on a monitor that you look at under a microscope. And so pathologists for years have said, why? Why would we make this investment? Why would we go through all of that expense? And that trouble and that change and learn a new instrument when we don't really get a lot of value out of doing so? And furthermore, there was even a question for a long time, do you get the same information on a digital side that you get on glass through a microscope? Yep. There have been a number of things that have been changing that over time. So one is the maturity of the high capacity digital side scanners. There are now a number of hardware vendors that produce these. Storage costs have come down. And one thing that we offer at Paige is is cloud storage, which is really low cost because we're able to effectively pool costs with the cloud providers from multiple different labs and hospitals, so we can really drive those prices down as far as possible.</p><p><strong>Leo Grady: </strong>So that lowers that barrier. And then back in 2017, the first digital side scanner got approved, which demonstrated there was equivalency in the diagnosis between looking at the slide on a monitor and looking at it under a microscope. And that is something that that we also replicated with our digital side viewer, demonstrated that equivalency between digital and glass. But all of those barriers were barriers just to going digital in the first place. And now, really, for the first time, because of the maturity of the scanners, because of the FDA clearance of just the viewer, because of lower cost storage, many of those barriers have come down. Now what has not happened is still a major clinical benefit for going digital in the first place. Yes, you can share slides easier. Yes, you can retrieve slides easier. Yes, you can do education easier. It's still a lot of cost and a lot of changed your workflow, so I really think that that the introduction of the kinds of technologies that that the FDA approved, which we built with Paige Prostate, that actually adds additional information into the diagnostic workflow that can help pathologists use that information help them. You get to a better diagnosis, reduce false positives, reduce false negatives, which is what we showed in the study that for the first time is is going above and beyond just going digital and some of these conveniences of a digital workflow to providing true clinical benefit.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, whenever I look at this from an investment perspective, like if you take apart something and break it into its first principles, you know, levels, you have to have certain milestones hit. Otherwise, it's not going to come together, right? And I've, you know, looking at digital pathology, it's the same thing. You have to have certain pieces in place for the next evolution to be possible, because it's got to be built on top of these foundational pieces. But, you know, once you get there, the exponential nature of of how things change, once it's digitized and once you're utilizing it and prove that it works is sort of where you see the, you know, large leaps of benefit for the pathologist as well as, you know, ultimately we're doing this for better patient care. But you know, your product was I think the FDA called it the first ever FDA approval for an AI product in pathology, which is a big deal, at least as far as I'm concerned, because I've been doing it for a long time. But because it was first, it must have been a one hell of a learning process for you and the FDA to figure out how to evaluate a test like this. Can you sort of explain maybe a little bit about the process? You know, how did you win approval? What novel questions did you have to answer?</p><p><strong>Leo Grady: </strong>It was a long process. You know, as you point out, this is this is the first ever technology approved in this space. And I think you saw from the FDA's own press release their enthusiasm for what this technology can bring to patient benefits. Fortunately, we applied for breakthrough designation back in early 2019, received that breakthrough designation in February of 2019. And as a result, one of the benefits of breakthrough designation is the FDA commits to working closely with the company to try to iterate on the study protocol, iterate on the the validation that's going to be required in order to bring the the technology to market. And so because of that breakthrough designation, we had the opportunity to work with the the FDA in a much tighter iterative loop. And I think that they are they were concerned, I mean, primarily about the impact of a misdiagnosis and pathology, right? Which is really understandable, right? Their view is that, yes, maybe in radiology, you see something and maybe aren't totally sure. But then there's always pathology as a safety net, you know, in case you ever really need to resolve a ground truth. You can always take the tissue out and look at it under a microscope. But when you're dealing with a product for pathology, that's the end of the road. I mean, that is where the diagnostic buck stops. And so anything there that that was perhaps going to misinform a pathologist, mislead them, you know, ultimately lead to a negative conclusion for the patients could have more severe consequences.</p><p><strong>Speaker2: </strong>The flip side, of course, though, is that if you get it right, the benefits are much greater because you can really positively impact the care of those patients. So I think they they, you know, appropriately, we're concerned with the exacting rigor of the study to really ensure that that this technology was providing benefit and also because it was the first I think they wanted to be able to set a standard for future technologies that would have to live up to the same bar. So there were a lot of meetings, you know, a lot of trips down to Silver Spring. But I have to say that that the FDA, you know, I think in technology, there are a lot of companies that are are quick to, you know, malign regulators and rules. I frankly both at Paige and my previous experience at HeartFlow, at Siemens, I think the FDA brings a very consistent and important standard of clinical trial design of of, you know, technology proving that is safe and effective. And I found them to be great partners to work with in order to really identify what that protocol looks like to be able to produce the validation and then to, you know, ask some tough questions. But that's their job. And I think, you know, at the end of the day, the products that get produced that go through that process really have met the standard of of not only clinical validation, but even things like security and quality management and other really important factors of a clinical product.</p><p><strong>Harry Glorikian: </strong>Oh no, I'm in total agreement. I mean, whenever I'm talking to a company and they're like, Well, I don't know when I'm going to go to the agency, I'm like, go to the agency, like, don't wait till the end. Like there, actually, you need to look at them as a partner, not as an adversary.</p><p><strong>Leo Grady: </strong>Yeah. And a pre-submission meeting is is easy to do. It's an opportunity to make a proposal to the FDA and to understand how they think about it and whether that's that's going to be a strategy that's going to be effective and workable for them. So I always think that that pre subs are the place to start before you do too much work because you generally know whether you're on the right path or not.</p><p><strong>Harry Glorikian: </strong>Yeah, I agree. And it's funny because you said, like, you know, they're concerned about the product, but it's interesting. Like from all the College of American Pathology studies where you send slides to different people, you don't always get the exact same answer, depending on who's looking at it. So I can see how a product can bring some level of standardization to the process that that helps make the call so uniform, even across institutions when you send the slides. So I think that's moving the whole field in a really positive direction.</p><p><strong>Leo Grady: </strong>Well, only if that uniform call is correct, right? Or better? Great. I mean, if you bring everybody down to the lowest common denominator that that standardization, but it's not moving the field forward. So. Correct. One of the curses of of bringing that level of standardization is that you have to really meet the highest bar of the highest pathologists and not not just the average. That said, you know, we're fortunate to come from Memorial Sloan-Kettering and to have the opportunity to work with some of the the leading pathologists in the world to really build in that level of rigor and excellence into the technology.</p><p><strong>Harry Glorikian: </strong>Yeah. So that brings me to like, you know. The algorithms are built on a fairly large training set would be my assumption and of pre labeled sort of images, where do you guys source that from? Is it you have like a thousand people in the background sort of making sure that everything is labeled correctly before it's fed to the to the algorithm itself?</p><p><strong>Leo Grady: </strong>Well, what you're describing is very common where you have pathologists or in radiology radiologists or other experts really marking up images and saying this is the important part to pay attention to. This part is cancer. That part's benign. Our technology actually works differently. Our founder, Thomas Fuchs, and his team at Memorial Sloan-Kettering actually really made a breakthrough not only in the the quality of some of the the AI systems that were building, but also in the technology itself. And what what they did, this was all published in Nature Medicine a couple of years ago, is basically find a way to just show the computer a slide and the final diagnosis without having a pathologist, you know, mark up the slide, but just show them the final diagnosis. And when you show the computer enough examples of the slide and the final diagnosis, the computer starts to learn to say, OK, this pattern is common to all grade threes. This pattern is common to all grade fours. Or whatever it is. And the computer learns to identify those patterns without anybody going through and marking those up. Well, this technology is important for a few reasons.</p><p><strong>Leo Grady: </strong>One, it means we can train systems at enormous scale. We can not just do thousands of cases, but tens of thousands, hundreds of thousands of cases. Second, it means that we can really build out a portfolio of technologies quickly that are very robust and not have to spend years annotating slides. And third, it allows us to start looking for patterns that no pathologists would necessarily know how to mark up. You know, can we identify which tumors are going to respond to certain drugs or certain therapies? You know, no pathologists are going to be able to say, OK, it's this part of the the tumor that you need to look at because they don't really know. But with this technology where we we know these tumors responded, these tumors didn't it actually helps us try to ferret out those patterns. So that that's one of the real key benefits that differentiates Paige from from other companies in this space is just the difference in the technology itself.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, it's funny because I must admit, like when we talk about stuff like this, I get super excited because I can see where things can go. It's. It's always difficult to explain it where somebody else can envision what you've been thinking about because you've been thinking about it so long, but it's super exciting. So let's jump to like the most important benefits, like if you had to rank the benefits of the technology, I mean, I've I read on your website that in the clinical study you guys submitted to the FDA, pathologist used using the Paige Prostate were seven percent more likely to correctly diagnose the cancer. Is that the major innovation? Would that by itself be enough to justify an investment in the technology? I mean, I'm trying to. You know, if you were to say God, this is the most important thing and then go down the list, what would they be?</p><p><strong>Leo Grady: </strong>Yeah, that's right. So so the study that we did was like this. We had 16 pathologists. They diagnosed about six hundred prostate needle core biopsy patients and they they did their diagnosis. They recorded it and then they did it a second time using Paige so they could see the benefit of all this pattern matching that that Paige had done for them. And what we did is we compared the diagnosis. They got the first time and the second time with the ground truth, consensus diagnosis that we had from Memorial. And what we found is that when the pathologists were using Paige, they had a 70 percent reduction in false negatives. They had a 24 percent reduction in false positives, and their interest in obtaining additional information went down because they had more confidence in the diagnosis that they were able to provide. And what was interesting about that group of 16 pathologists is it it included pathologists that were experienced, that were less experienced, some that were specialists in prostate cancer, some that were not so specialized in prostate cancer. And among that entire group of pathologists, they all got better. They all benefited from using this technology. And what's more, is that the gap between the less experienced, less specialized pathologists and more experienced, more specialized pathologists actually decreased as they all used the technology. So it allowed them to, like we were talking about before, actually come up to the level of of the better pathologists and even the better pathologists could leverage the information to get even better.</p><p><strong>Harry Glorikian: </strong>So as a male who you know who's going to age at some point and potentially have to deal with, hopefully not, a prostate issue, we want them to make an accurate diagnosis because you don't want the inaccurate diagnosis, especially in in that sort of an issue. But what about the speed? I mean, you've you talk about that, you know, it helps streamline the process and reduce reduce turnaround time for for patients. What does that do to workload and and how quickly you're able to turn that around compared to, say, a traditional method.</p><p><strong>Leo Grady: </strong>Our study was really focused on clinical benefit and patient benefit. We were not aiming to measure speed and the way in which the study was designed and the device is intended to be used is that the pathologist would look at the case, decide what they they think the result is, and then pull up the Paige results and see if it changes their thinking or calls their attention to something that they may have missed. So the focus of the the product was really on the the benefit to the the clinical diagnosis and the clinical benefit to patients by providing more information to the doctors. And the result of that information was, you know, clearly demonstrated benefit. Now if they can get to that result by looking at the Paige results and they don't need another cut, they don't need another stain, they don't need another consultation, then that's going to get the results back to the urologists faster, back to the patient faster and will ultimately enable them to start acting on that diagnosis more quickly. But the intention of the study, the intended use of the device is not around making pathologists faster. It's really around providing them this additional information so that they can use that in the course of their diagnosis and get the better results from patients.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for The Future You by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So I asked this out of naivete because I didn't I didn't go looking for it. But have you guys done a health economic analysis of the system?</p><p><strong>Leo Grady: </strong>We have one. It certainly it's, as you know, it's really key to be able to look at that we have a model that we've built. We're still refining it with additional data. There was a study that was announced in the U.K. a couple of weeks ago where the NHS is actually funding a prospective multicenter trial that includes Oxford, Warwick, Coventry, Bristol to be able to evaluate the the health, economics and clinical benefits of using this technology in clinical practice prospectively. So that's something that we engaged with NICE [the National Institute for Health and Care Excellence] on in order to try to get the design correct that will help feed in real world data into the model. But we have a model that we've been using internally and are continuing to build and refine.</p><p><strong>Harry Glorikian: </strong>So. Again, incredible that you guys got FDA approval, I think the company was founded in 2017, if I'm correct. Can you talk about, you know, the founders and yow you guys, you know, built this so quickly, I mean time scale wise, it's a pretty compressed time scale, relatively speaking.</p><p><strong>Leo Grady: </strong>Well, yeah, it isn't, it isn't, ...so the company started in 2017, our first employee was actually middle of 2018 and we had our first venture round and in early 2018. However, the work that went into the company that spun out of Memorial Sloan-Kettering started earlier. So there is a group of really visionary individuals at MSK that back, I want to say, 2014, 2015, actually had started this push toward digital pathology, computational pathology, really seeing where the puck was going and building this technology. They formed something called the Warren Alpert Center, and the Warren Alpert Center provided some initial funding to really get this going and to hire some of the founders and to really move this technology in the right direction. And it was really because that technology started to show such promise that MSK made the decision that that was at a point where it could be better, you know, more impactful to actually go outside of MSK into a company where where we could industrialize the technology and really bring it to hospitals and labs around the world. So the technology started earlier, 2014, 2015. Paige was really launched in, I would say, 2018, although technically it was incorporated earlier and and then from that point I personally joined in 2019. And so I'm not I'm not a founder, but when I joined in 2019, you know, we we really spun up a significant team and and brought to bear some of my own experience and industrializing AI technology and bringing it out to clinical benefit.</p><p><strong>Harry Glorikian: </strong>Well, you know, most founders don't take the company all the way. It's a rare breed that's able to get it that far. So you know this a great story, but let's step back here and talk about like now you have to like, get people to accept this technology right, which is the human factor which I always find much more confounding than the the the the computational factor. So you've got to get, you know, somebody inside a hospital or pathology lab. Do you run into resistance or pushback from the technology, I mean, are they skeptical about the algorithm? How do you get a human to sort of buy off on this? I remember when we were presenting this, oh God, again, 25 years ago, they hated it. I mean, just hated it. And as time has gone by, you've seen that that digitization is slowly taking effect and where you know, it's assistive as opposed to something, I remember when we first launched this, it was, "This is going to be better than" or "take your job," which is a great way to make an enemy on the other side. And I see that the two actually being better than one or the other per se on on its own. So how are you guys approaching this? And do you have any anecdotal stories that you might be able to share?</p><p><strong>Leo Grady: </strong>Yeah, and so I think there are two elements are one is, you know. Are people resistant by the nature of the technology because they feel threatened by it, and then the other is how does market adoption start with this sort of technology to just the first point? You know, I tend to be very careful about the term AI. I feel like it know it often introduces this concept of, you know, people think of a robot doctor that's going to run in and start doing things. And it's just it's not. I mean, AI is a technology that's been in development for four decades. I did my PhD in AI, in computer vision, 20 years ago, and it's just a technology, right? It's like a transistor. It can be used to build many different things. At its core, it's just complex pattern matching, which is what we how we leverage that technology. In the case of Paige Prostate was to help provide that information. I think, you know, the better frame to think about this technology is as a diagnostic. This is just like a diagnostic test. You validate it with a standalone sensitivity and specificity. The information gets provided the doctor. You have to do a clinical trial that samples the space effectively of the patient population and the intended use.</p><p><strong>Leo Grady: </strong>And you have to make sure the doctors understand the information and know how to use it effectively. It's before my time, but I heard that when immunohistochemistry was first really introduced in pathology, that there is a discussion that this was going to take all the pathologists' jobs. And who needs a pathologist if you can just stain with IHG and get get a diagnostic result out of it? Well, you know, 20 years, IHT is an essential component of of pathology, and it's a key element of of the diagnostic workflow for pathologists. So, far from replacing any pathologists, it's empowered them. It's made there the benefit that they can provide to the clinicians, even more valuable and even more important. And I think we're going to see a similar trajectory with this computational technology. Now your first question about market adoption, how people adopting this, I would say that, you know, last week I went to the College of American Pathology meeting, which was in person in Chicago. It's my first in-person meeting since COVID, so a year and a half ago. And I noticed--and this was this was right after the announcement by the FDA of of the approval for Paige Prostate--I noticed there was a market shift in the conversations I was having with pathologists.</p><p><strong>Leo Grady: </strong>It was a shift away from "Does this technology work? Is it ready for prime time? What does it really do?" Toward, "Ok, how do we operationalize this? How do we bring it in house, how do we integrate this into a workflow and how do we how do we pay for it?" You know, those are the conversations that we were having in Chicago at CAP. Not does this work? Is it ready for prime time? So I do think that there is a market understanding that the technology is real, that it works, that it can provide benefit. Now it's just a question of how do we operationalize and how do we get it paid for? Because today there's no additional reimbursement for it. But you know, again, with market adoption, you’re got your Moore adoption curve for anything. You get them and you get your innovators and early adopters, your early majority, late majority and your laggards. And you know where I think we're at a stage where we've got innovators and early adopters that are excited to jump in and start leveraging this technology. And I think, you know, we're going to get to your early majority and the late majority over time. It's always going to be a process.</p><p><strong>Harry Glorikian: </strong>Yeah, no. I mean, you know, reflecting on your IHC [immunohistochemistry], that's where I started my career. Like, I think I taught like two hundred and fifty IHC courses over the first, say, three or four years that I was in the in the business. Three or four years. And you know, I agree with you. There's no way that any one of these technologies takes the place of [a pathologist]. They're additive, right? It's just a tool that helps. Make the circle much more complete than it would be in any one component, all by itself.</p><p><strong>Leo Grady: </strong>Could you ever hear when you were teaching these classes? Did anyone ever say that like, are we even going to need pathologists anymore?</p><p><strong>Harry Glorikian: </strong>No, it was when the is is when imaging systems came out that said the imaging system would then replace the pathologists. The IHC was was really the cusp of precision medicine, where I remember when I first started because we were working with ER and PR and, you know, when I first learned, you know about like, you know, the find and grind method, I would always be like, OK, it's x number of femtomoles. Like, What does that really telling you, right? Compared to this stain over here where I can see, you know, the anatomy, I can see where the cells are. I can see. I mean, there's so much more information that's coming from this that lets me make a better call. I will tell you selling it was not that hard to a lot of people, they they could see the benefit and you could you could really sort of get them to adopt it because they saw it as a tool.</p><p><strong>Leo Grady: </strong>Was that post-reimbursement?</p><p><strong>Harry Glorikian: </strong>Uh, even pre-reimbursement.</p><p><strong>Leo Grady: </strong>Really interesting. Yeah, there's there's a lot we can learn from you then.</p><p><strong>Harry Glorikian: </strong>Yeah, it was. It was. It was an interesting ride back then. I mean, I remember my first day at work. My boss comes to me and says. By the way, you're going to give a talk in Arizona in two weeks, and I was like, What do you mean I'm going to go? Who am I going to give a talk to you? He goes, Oh, you got to give a talk on the technology and how to use it. And I said, who's in the audience? And he said histo techs, and there'll be some pathologists. And I was like, Are you kidding me? And he goes, You got two weeks to get ready. Oh my God, I was cramming like crazy. I was in the lab. I was doing all the different types of assays that we had available. And you know, it was you went out there and I learned very quickly like, the show must go on, like you got to get out there and you got to do your thing. But it was it was a great time in my career to be on that on that bleeding edge of what was happening. So quickly, like, why did you guys start with prostate cancer, though like? It's not the most common cancer, although it's high on the list, so. Or maybe it's the second most type of cancer, but why did you guys start with that and where do you guys see it going from there, I guess, is next.</p><p><strong>Leo Grady: </strong>Well, the the decision of how to rank the different opportunities for, you know, ultimately we believe this technology can benefit really the entire diagnostic process, no matter what the question is in pathology. However, we did have to prioritize right and elements of of where to start, right. The elements of prioritization had a few factors. So one factor was how how prevalent is the disease? I mean, as you know, prostate cancer is one of the big four. Second, is there are a lot of benefit that we can provide today with prostate cancer. You know, man of a certain age goes in, gets a PSA test. It's high, they go and they get 12 cores, 14 cores, 20 cores out of their prostate and that produces. You know, it can be 30 slides, it can be 50 slides, I mean, it really depends, and this can take the pathologist a long time to look through. Most of those cores are negative. In fact, most of those patients are negative, but the consequence of missing something is really significant. And so we felt that this was a situation where there was a big need. There's a lot of there's a lot of screening that goes on with prostate cancer. Prostate cancer is prevalent and the consequence of missing something is really significant. So that's where we felt like we could provide maximum benefit, both in terms of the patient, in terms of the doctor, and also that it was a significant need across the space.</p><p><strong>Leo Grady: </strong>We also had the data and the technology that we could go after that one well. But that said, you know, we announced that we have a breast cancer product that is got a CE mark in an enabling clinical use in Europe. We're doing a number of investigational studies with that product in the US right now and and working toward bringing that one to market. You know, after our our recent funding round, we spun up a number of teams and a number of of verticals that were we're going after in other cancer types and ultimately even beyond cancer. So there's more to come. We wanted we really take seriously the quality, the regulatory confirmation as well as the deployment channel. I mean, we built the whole workflow to be able to leverage this technology throughout the workflow in a way that is meaningful to the pathologist. So the development is is maybe a little bit more heavy and validation than some other companies where you have a PhD student that says, Oh, you know, I won some challenge and I went to go bring this to market building real clinical products, validating them, deploying them, supporting them is a real endeavor. But prostate was just the first, breast is second, and we have a whole pipeline coming out. So stay tuned.</p><p><strong>Harry Glorikian: </strong>So before we end here, I want to just tilt the lens a little bit towards the consumer and say, like, you know. Why would consumers show interest or at least be aware that these things are coming? Because I always feel like they're almost the last to know, or they just don't know at all. But, you know, in the future, you know, with technologies like this, do you see it identifying tumors sooner, faster, more accurately? Or, you know, will it will it help increase survival or help us find better drugs? I mean that that's I think, what people are really... If you went down one level from us of the people that are affected by this. Those are the sorts of things they'd want to know.</p><p><strong>Leo Grady: </strong>Well, I think, you know, a useful analogy is what happened with the da Vinci robot. You know, when it was necessary for a patient to get prostate cancer surgery, they often chose centers that had the da Vinci robot. Why? Because they believed that they were able to get better care at those centers. And it's not because the surgeons at the other centers were no good. It's because the the da Vinci added elements of precision and standardization and accuracy that could be demonstrated that would enable the the patient to feel more confident they're getting the best treatment at those centers. So as I think about Paige Prostate and and ultimately the other technologies that we're bringing to market behind that, I would imagine that from the standpoint of the patient, they would want the diagnosis done at a lab where they had access to all of the available information, all the latest technology that could inform the pathologists to get the right answer, right? So would you want to go to a lab where the pathologists had no access to IHC? Would you want to send it to a lab where the pathologist had no ability to do a consultation? Do you want to send your your sample to a lab where the pathologist doesn't have access to Paige? I think in the future the answer is going to be no.</p><p><strong>Leo Grady: </strong>And I think that we're going to see ultimately, insurance companies and Medicare recognize that those labs are able to provide better care to patients and are going to encourage them and incentivize them to adopt these technologies. So, you know, ultimately from a patient standpoint, they they want to choose centers where they're going to get the best care, they're going to get the best diagnosis. I think one of the exciting elements of digital technology is that not everybody is able to go to Memorial Sloan-Kettering, not everyone's able to go to MD Anderson or Mayo Clinic. I think the opportunity with digital technology is to really increase the accessibility and increase the availability of these diagnostic tools that can really empower and enable pathologists in many parts of America, as well as beyond to really get to better results for their patients. And ultimately, you know, every patient cares about getting those those results accurately for themselves and for their loved ones.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I'm always explaining, you know, to different people like once you digitize it, there's so many opportunities that may open up to make things better, faster, easier, more accurate and even start to shift the business model itself of what can be done and where it can be done. So it's it's a super exciting space, and thanks for taking the time. It was great to talk to you. I mean, I don't get to talk to people in pathology all the time anymore. I'm sort of all over the place, but it's it's near and dear to my heart, that's for sure.</p><p><strong>Leo Grady: </strong>Well, thank you so much, Harry. We're so excited by these recent developments with the first ever FDA approved technology in this space and, you know, really excited to help roll this out to labs and hospitals around the country and around the world to really benefit those doctors and patients.</p><p><strong>Harry Glorikian: </strong>Excellent. Well, I look forward to hearing about the next FDA approval.</p><p><strong>Leo Grady: </strong>Working on it. Look forward to telling you.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Leo Grady: </strong>All right. Thanks so much, Harry.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>Why AI-based Computational Pathology Detects More Cancers</itunes:title>
      <itunes:author>Harry Glorikian, Leo Grady</itunes:author>
      <itunes:duration>00:49:36</itunes:duration>
      <itunes:summary>Chances are you or someone you love has had a biopsy to check for cancer. Doctors got a tissue sample and they sent it into a pathology lab, and at some point you got a result back. If you were lucky, it was negative and there was no cancer. But have you ever wondered exactly what happens in between those steps? Until recently, it’s been a meticulous but imperfect manual process where a pathologist would put a thin slice of tissue under a high-powered microscope and examine the cells by eye, looking for patterns that indicate malignancy. But now the process is going digital—and growing more accurate.</itunes:summary>
      <itunes:subtitle>Chances are you or someone you love has had a biopsy to check for cancer. Doctors got a tissue sample and they sent it into a pathology lab, and at some point you got a result back. If you were lucky, it was negative and there was no cancer. But have you ever wondered exactly what happens in between those steps? Until recently, it’s been a meticulous but imperfect manual process where a pathologist would put a thin slice of tissue under a high-powered microscope and examine the cells by eye, looking for patterns that indicate malignancy. But now the process is going digital—and growing more accurate.</itunes:subtitle>
      <itunes:keywords>digital pathology, computational pathology, prostate cancer, machine learning, pathology, fda, artificial intelligence, computer vision, cancer, ai, harry glorikian, paige ai, leo grady</itunes:keywords>
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      <title>Nanowear&apos;s Venk Varadan on the Next-Gen of Wearable Technology</title>
      <description><![CDATA[<p>Many of us wear wireless, battery-powered medical sensors on our wrists in the form of our smartwatches or fitness trackers. But someday soon, similar sensors may be woven into our very clothing. Harry's guest this week, Nanowear CEO Venk Varadan, explains that his company's microscopic nanosensors, when embedded in fabric and worn against the skin, can pick up electrical changes that reveal heart rate, heart rhythms, respiration rate, and physical activity and relay the information to doctors in real time. And that kind of technology could move us one step closer to a world where we're far more intimately connected to the medical system and doctors can catch health problems before they turn into disasters.</p><p>Nanowear's leading product is a sash called SimpleSense that fits over the shoulder and around the torso. Last month the company won FDA approval for the software package that goes with the SimpleSense sash and turns it into a diagnostic and predictive device. It's currently being tested in a network of clinics as a way to monitor and manage congestive heart failure.</p><p>Varadan trained in biochemistry at Duke, earned an MBA at Columbia, and spent about a decade in pharmaceutical sales and marketing and technology investment banking before co-founding Brooklyn, NY-based Nanowear in 2014. His father Vijay Varadan, MD, PhD, now an emeritus professor in the Department of Engineering Science and Mechanics at Penn State, is the other co-founder and the company's chief innovation officer. "Nanowear's technology was actually the culmination of his life's work," Venk says.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocateswho are transforming the healthcare system and working to push it in positive directions.</p><p>Everyone’s used to the idea that if they’re being treated in a hospital, they’ll probably get wired up to sensors that track their heart rate or respiration rate or blood oxygen level.</p><p>We’ve talked on the show before about a new generation of <i>portable</i> medical sensors for everyday life, like continuous glucose monitors for people with diabetes.And some people even wear medical sensors on their wrists in the form of their Fitbit or Apple Watch. Some of these devices can go beyond fitness monitoring to alert wearers to problems like cardiac arrhythmia.</p><p>But what if medical sensors were woven into your very clothing? My guest this week is Venk Varadan, and he’s the CEO and co-founder of a company called Nanowear that’s taken a big step in that direction. Nanowear has developed a way to put microscopic nanosensors inside clothes .</p><p>If that cloth is worn against the skin, it can pick up electrical changes that reveal heart rate, heart rhythms, respiration rate, and physical activity and relay the information to doctors in real time. </p><p>Nanowear’s leading product is a sash called SimpleSense that fits over the shoulder and around the torso. And last month the company won FDA approval for the software package that goes with the SimpleSense sash and turns it into a diagnostic and predictive device.</p><p>But Varadan says that in the future the nanosensors and the software could be put into even more places, like headbands, conventional clothing, or bed sheets. That’s just one example of the explosion in mobile health technology that’s putting more power into the hands of patients. </p><p>And it's also one of the topics in my book The Future You, which is available now in Kindle ebook format. You can get your copy by going to Amazon.com and searching for "The Future You," by Harry Glorikian. </p><p>The book grows partly out of conversations like the ones I have here on the podcast with medical researchers and entrepreneurs. But it goes even deeper into the impact of wearable sensors, AI, and so many other technologies that have the potential to help us live longer, healthier lives. So I hope you'll check it out.</p><p>And now on to my conversation with Venk Varadan.</p><p><strong>Harry Glorikian: </strong>Venk, welcome to the show.</p><p><strong>Venk Varadan: </strong>Thank you, Harry.</p><p><strong>Harry Glorikian: </strong>So, look, we all know that with with technology startups, there's always this sort of chicken and the egg question what what came first in the mind of the inventors: the market need or the product that needs to address it. You know, ideally they come together simultaneously and there's a back and forth dialogue between founders and potential customers. And you end up with what the startup community calls--what is it?--product-market fit, if I talk to my, you know, my Silicon Valley nephew of mine. So in the case of Nanowear, you know, did you start to think about the problem and how to solve it? Or did you start out with the technology? Which in your case involves a way to embed these tiny nano-pillar sensors into cloth and then look at ways to make it sellable. So which one was it for you?</p><p><strong>Venk Varadan: </strong>Great question, Harry, and again, thanks for having me on the podcast. We were squarely the latter and I think most entrepreneurs are the former. But we had this great advanced material, a cloth based nanotechnology that could pick up really, really high fidelity clinical grade biomarker data off the body. And we didn't really know what to do with it. Do we start as a consumer company? Work on fitness, B2B, sports? Do we think about industrial safety, military use cases? They've been trying to figure out smart textiles forever. Or do we go into health care? And I think stubbornly so, and a little bit of altruism, we chose the harder route, which was health care. But I think it was probably more premised on that we believed in the quality of the sensor. It was doing something from a quality and quantity standpoint that no other on body sensor or non-invasive sensor out there could do, whether it was consumer grade off the shelf or health care based electrodes. So all we really knew when we started is that we wanted to be a health care company, but we didn't know the right application to start with.</p><p><strong>Harry Glorikian: </strong>Yeah, I was going to say, let's, let's pick the hardest one and see if we can get over that hill. So let's back up here and talk about like the medical need you're trying to address. I mean, at a high level, why is portable diagnostic sensing so important for people's health?</p><p><strong>Venk Varadan: </strong>I think it was always important because of an access issue, right? Not everybody can go see a physician or can do high cost diagnostic tests that require a facility or diagnostic tools in person. And there's a cost even to running a blood pressure cuff or checking your heart with a stethoscope or running a hemodynamic monitor, all the way up to more expensive tests like sleep studies and sleep labs. So I think it started, remote diagnostic needs started with an access issue, and it's not like we haven't had telemedicine in the past. But even that was sort of limited due to access issues. You needed a broadband network, you needed particular devices, you needed smartphones, and there were a lot of industry, I guess, pressures holding this sort of need to sort of push health care out into the more wide stream for those that have access issues. And we all said that this was going to happen one day. Virtual care, telemedicine, remote monitoring at home, replacing offices at home. And it was a nice sound bite. And COVID kind of forced the issue and I think completely accelerated that 10 year frame on the need, right? Because folks were still sick. Folks still have chronic disease. Folks still needed acute procedures. But you weren't really able to do a lot before, during and after, if you had to have these people camped out in the hospital or in outpatient clinics or acute surgical centers. So that's when while everybody thought it was cool and one day I'll employ these digital technologies, it really took COVID to shut their business down or they didn't have any patients, to force them to adopt. So I think a lot of our, companies like us, we were all doing the right thing. And we also are the first to admit that we got fortunate that the pandemic sort of accelerated the need for our solutions.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I remember I put together, god, it's got to be like 15 plus years ago, I put together a distributed diagnostics conference, because I was like, "This is going to happen." And, well, OK, eventually. But so let's talk about, let's step back for a minute and talk about some of the specific medical conditions where continuous, high resolution, high fidelity data is useful. Like, I know we need to probably start with congestive heart failure.</p><p><strong>Venk Varadan: </strong>Yes, so that's where we actually started before COVID. That was the sort of market need where our technology, our ability to sort of simultaneously and synchronously look at biomarkers from the heart, from the lungs, the upper vascular system in a sort of contiguous way and sort of map the trends over the same period of time as you would with a stethoscope or blood pressure cuff and electrocardiogram or hemodynamic monitor if they were all in one platform. That's really what we're replacing as part of our solution and our device-enabled platform. But the economics of heart failure and the business need were really what was pulling us there in the sense that there were penalties from CMS to avoid that next hospitalization within 30 days. And many of these patients are, one in four are being readmitted within 30 days. One in two are readmitted within six months. So this isn't a problem that we can just medicate our way out of. We have to understand when decompensation of the heart is happening before symptoms show up, because once symptom show up in fluids accumulating in their lungs, it's already too late. So I think there was a good product need for us, as well as the economic need with reimbursement and solutions for something that can be done outside the body that a patient could be be using at home.</p><p><strong>Venk Varadan: </strong>And then I think, you know, COVID hit and the market applications really just exploded beyond heart failure. Heart failure is still on our roadmap. Our clinical study to prove that ALERT algorithm of, we take all these data points, send it into the cloud, do a risk based predictive algorithm to predict worsening heart failure or decompensated heart failure weeks before fluid accumulates in the lungs. That's still firmly on our roadmap. We've just got to restart the study that was halted due to COVID. But the same product that does the same parameters with a different sort of algorithmic use cases opened up a lot of other applications that now have a business need and economic need to use us. So the two that we're starting with is pos-procedural or post-surgical follow up in an acute use case setting. And the second is outpatient cardiology longitudinal care for someone who unfortunately probably has to see a cardiologist for the rest of their life.</p><p><strong>Harry Glorikian: </strong>And if I'm not mistaken, congratulations are in order because of an FDA approval.</p><p><strong>Venk Varadan: </strong>Yes, so we actually got our third 510K just two days ago. September 21st, sorry, September 22nd, we got our third 510K. This is actually an example of our of our first digital-only clearance. So our first two clearances, our first clearance in 2016 was primarily around the advanced material, the nanotechnology, to get FDA comfortable in its safety and efficacy profile. The second was for our product, which is the SimpleSense shoulder sash, which simultaneously and synchronously captures data across the heart, lung and upper vascular system biomarkers, feeds that data through a mobile application and into the cloud. And then this clearance is sort of for an end-to-end digital infrastructure that circularly includes ingestion of our 85 biomarkers and then analytics circularly across our spectrum that continues to sort of process and then has the ability to push insights or algorithmic alerts down. So that last part is not included. But if you think about it, Harry, we kind of had a strategy before we got to the AI part. Now everything we submit with FDA has nothing to do with the device, has nothing to do with software infrastructure, has nothing to do with what would be MDDS or what wouldn't be. We can simply send in statistical analysis on the AI algorithms based on the inputs that we've already cleared and then looking retroactively on the outcomes. So it was it's a nice win for us to kind of show that we're not a device company, we're a device-enabled platform. But I think what it's really exciting the market on is that we're ready for AI diagnostics. We hope to have a first one and our fourth 510K, I guess here with FDA pretty soon in the complex chronic disease state. So really exciting times for us.</p><p><strong>Harry Glorikian: </strong>Yeah. And I mean, as an investor, I mean, I, you know, I've been in diagnostics forever and I, you know, I'm so focused on Where's the data? Show me the exponential nature of the data and then what we can do with it and really like blow that up, right? That's where I see the value in these platforms and technologies. But there are technically other methods that had been used, right, that you might say you might or might not say are competitive in some way. But one of them is called a Holter monitor, right? Which people put on their skin to monitor, you know, electrocardiogram and EKG rhythms outside the hospital. And I don't want to say the name wrong, but I think it's SimpleECG for yours and then the SimpleSense vest, [how does it] compare to that. What are the alternatives? How long do you wear it and how do you compare it to the existing status quo?</p><p><strong>Venk Varadan: </strong>Sure. So, you know, a Holter monitor has a specific use case. It's looking at your electrocardiogram rhythm to see if you have a rhythm or abnormality, right? So we one of the metrics we capture is an electrocardiograph, right, and we do multiple channels of that. So it's not a single lead. So we could certainly compete against that application and just look at rhythm abnormalities in the same way. Companies like iRhythm have that, and Apple Watch has that 30 second feature on it. We are not playing in that space. And the difference between us, even though our signal quality, we would argue, is much cleaner than a Holter monitor that's using standard electrocardiographs, with those you have to shave your chest, you have to stand the dead skin down. You have to put gel on for the electrode to get a conductive signal. We don't have to do any of that because of the nanotechnology. But what the nanotechnology also affords, in addition to a better experience and better quality, is the ability to do more than just a Holter monitor, right? So imagine if that same Holter monitor wasn't just looking at rhythm abnormalities, it was also looking at the acoustics of your heart and your lungs, the sounds of your heart in your lungs. It was looking at the flow characteristics. The blood injection times, the fluid accumulation in your lungs. It was looking at your breathing rate, your breath per minute, your lung capacity, your changes in lung capacity over time, if it was looking at your pressure related issues at the aorta, systolic and diastolic blood pressure. In addition to being a better experience in all of these and sort of kind of replacing a Holter monitor and a stethoscope and what have you, the real value is being able to do all of that at the same period of time over the same period of time. So even if I'm monitoring for, our use cases are about 30 minutes to an hour in the morning, 30 minutes or at night. And because we're getting such dense quality and quantity of data over that time period, we can actually see trends across the cardiopulmonary and upper vascular complex, which is actually the first company and platform that can do that. And that may not have been important before COVID. But COVID, I think, was revelatory in the sense that COVID may have started as a respiratory disease, but it affects the heart. It affects the upper vascular system. You can get a DVT from it. And I think it opened the world's eyes into understanding. We're not looking at all of these systems, the heart-lungs-upper-vascular system that all work together and work uniquely in each of our own bodies. We're only getting a risk based signature on just cardiac rhythm or just breaths per minute or just the sound murmurs of your heart, whereas we're doing it now.</p><p><strong>Harry Glorikian: </strong>Yeah. So for a guy like me, like, I'm like, Oh my god, how do I get one of these? I want one of these right now. I'm thinking like, Oh, I could use it right after I work out. And I'm, you know, forget the I'm sick part of it. I want to use it as a wellness monitoring and sort of to see, get a baseline. Tell me where I'm going, right, over time. That's what I'm always discussing with my my physician is we need a baseline because I don't know how it's going to change over time. If I only look at it at that point in the future, I don't know what it was. So, but the other side, I think to myself, there are physicians listening to this show that are probably all excited about this. And there are physicians going, "That's a lot of different data points. How in the hell am I going to make sense of that?" And so I'm I'm assuming what you're going to tell me is you've got this amazing software that lets you visualize, you know, and make sense of all these different parameters together.</p><p><strong>Venk Varadan: </strong>And that's exactly right. You know, we were actually stubbornly annoying to our KOLs, our clinical teams, as well as our original customers in beta rollouts, because Harry, we agreed with you. We looked at where Gen 1 and Gen 2 sort of digital health companies struggled in health care. Health and wellness is a little bit different right? I mean, to each their own, right. I mean, if you market well, you'll find that pocket of people that want to be overwhelmed with data or what have you. But we really listened to what digital health was doing for the provider and patient relationship. There were some good things there and there were other bad things, and the bad things we realized actually wasn't monolithic between clinics. Some people thought that bad things were "I'm alerted too often." Others wanted to be alerted all the time. Some were like, "This is noisy data. It's too unclean." Others were saying, "I just need, you know, 70 percent C-minus level data," right? And then we were thinking about all of those aspects which we couldn't get consensus on. How do you bring all of those aspects that gives control to the provider so the provider can say, how often are they alerted, how much data and the raw signals do I want to look at, how much do I not want to look at? And really, with the thesis of building the platform on them, spending less time than what they do before? Because I think Gen 1 and Gen 2 products unfortunately actually added more time in adjudication and frequency of the provider being notified, and also cause some anxiety for patients as well because they were looking at their screen and their data at all times.</p><p><strong>Venk Varadan: </strong>So we really tried to be sponges of all of those different devices that were tech enabled and sort of moving from hundred-year-old devices to now Gen 1, Gen 2, pushing into the cloud. And really listened on... And I'll tell you, it was mostly from staff. It wasn't necessarily from the physicians and the surgeons themselves. It was mostly from triage nurse, from health care staff, the people that are running around coordinating the follow up visits, coordinating the phone calls from patients that were doing poorly or feeling bad after feeling sick after a procedure. And I just think we just kept our ears open and didn't go in saying, we know what you need. We were asking, What do you?</p><p><strong>Harry Glorikian: </strong>All right, so let's talk about the technology itself, the  SimpleSense wearable sash. How does the cloth sensor in the garment work? I mean, on a microscopic level, what are the kind of changes that this nano pillar detects and how?</p><p><strong>Venk Varadan: </strong>Yeah, so not to get to sort of, you know, granular into the physics, although I'm happy to Harry, if you if your audience ends up sending me some questions. But think about our ability to just detect a difference in potential action potential from point A to point B. And it's an oversimplified way of describing what we do, but the reason we can do it better than anybody else with any other sensor -- and that's what really feeds the cleanliness and the quality of our data and allows us to derive so many biomarkers that other others can't, which obviously feeds the ability for AI -- is because we've got these billions of vertically standing nano sensors per centimeter of surface area. The differential or the potential difference that we can find because our signal quality so clean is so narrow. Whereas other sensors that might be treated as noise, we can consistently see deltas from point A to point B and know exactly what caused those deltas, right? And that's unique to us and our vector orientation. And it's probably a little too wonky here, but if you have a vector across the largest slice of the heart, across the largest slice of the lungs, across the upper vascular system in its entirety, with that finite ability to get really microscopic level changes in potential, irrespective of what signal you're looking at. Because once you we know what signal we're looking for, we just set the frequency bands for those, right? Right. And that's really, in a nutshell, how it works across the multiple parameters that we can capture from a biomarker standpoint.</p><p><strong>Harry Glorikian: </strong>So you said 85 biomarkers, right? We're not going to go through all of them because we'll be at the end of the show. But what are the kinds of, let's say, physiological data that you're pulling in and that you're differentiating on?</p><p><strong>Venk Varadan: </strong>Sure. So I probably summarize it into several different buckets that each have maybe 20 or 30 derivatives under it. But, you know, cardiopulmonary biomarkers. So the coupling between the cardio and pulmonary complexes, impedance cardiography, thoracic impedance and then looking at not only the means and the median trends across those metrics, but the standard deviation. So one of our board members famously said, Nadim Yared, the CEO of CVRx, You will learn so much more from the standard deviations than you will from the trends. Don't just look at the sort of the trend. So that's an example. Cardiopulmonary: We look at the electrical signals of the cardio complex and electrocardiographs. We look at a combinatorial methodology of cardiographs, acoustics, BMI, height and weight. And then we tie activity, posture, movement. What is your sleep orientation? Are you sleeping on your left side? Are you sleeping on your right side? All of these sort of things together actually enable some really interesting insights from a machine learning standpoint. And again, the beauty of our ability to sort of understand them and see more biomarkers. Eighty-five is where what we know right now, what we've validated. There's probably a lot more that we will discover under certain disease states. But what we're able to sort of mesh together from all of those are really cool aspects like blood ejection times. That's not a physical, raw metric we're getting. That's a derived metric and combining a lot of these aspects cardiac output, stroke volume, you know, these are things that could only have previously been done with an arterial line in your body and in a hospital system. So I don't know if that answers your question.</p><p><strong>Harry Glorikian: </strong>Well, no. I mean, listen, I mean, this is why I invest in this space because, you know, theoretically, as I get older, I may be a patient and you know, the better these technologies get, the better off I'm going to be. But so let's talk about for a second, where did where did this originate from? And I think your dad, your father had something to do with this, if my research is correct.</p><p><strong>Venk Varadan: </strong>He sure did. This may be a little bit of a long winded answer, Harry. But but for your audience, I'll tell the story because it's important for dad to be happy at all times, even though I'm 40 years old. So, Dr. Vijay Vardhan is our co-founder and Chief Innovation Officer. My father, 40 plus year academic researcher in the fields of materials, research and biomedical engineering and this was actually, Nanowear's core technology was actually a culmination of his life's work. Back in the 80s and the 90s when I was still a young pup and he was convincing me to go be a doctor, he was doing research in this field, and it wasn't even called nanotechnology back then. There wasn't a term for it, but he was doing defense related projects in the ability to detect very minute signals at very, very, very, very difficult detect detection environment. So an example is submarine coating, right? Submarines when they're below water are picking up their external environment information through sonar. The deeper they get in the ocean, the harder that sonar frequency is to be able to differentiate. Is that a a school of plankton? Is that a whale? Is that a thermal geyser that's sending me the signal? Or is it a Russian sub, right? And his thesis was, if I have a really big footprint of sensors and exponentially higher surface area of sensors and not just one sensor or two or one hundred but billions across the hull, I can start to differentiate over time the nuanced differences between the sonar a whale emits, the sonar a thermal geyser emits, or oh, by the way, what are our friends in the USSR emitting, right? And that's an example in really, really hard to detect environments. He did the same with observatory jets and missile defense systems at 75,000 feet, you know, the opposite, very high frequencies at very high speeds. So that original thesis, the human body is also a very complex environment and hard to detect environment as well, right? So long story short, he kind of took that same thesis over many years of playing around in the lab and publishing papers and doing great work for our government and our Department of Defense, but also with an eye to the future on what could this do in the human body one day?</p><p><strong>Harry Glorikian: </strong>Right. Well, that's great. I mean, it's I'm sure he's very happy that you two are working together to bring this to market.</p><p><strong>Venk Varadan: </strong>He's not as disappointed in me about not going to med school anymore. Let's put it that way.</p><p><strong>Harry Glorikian: </strong>Yeah. Keeping parents happy is is a is a difficult thing. I know many people are like, Are you going to be a doctor or are you going to be a lawyer? You know, I know the I know the joke. So you've got FDA approval for a number of, as you said, you're building on top of, this layering that you've been doing from an FDA approval standpoint. What did it take to get them to sign off? What sort of evidence did they need to see?</p><p><strong>Venk Varadan: </strong>Yeah, it's a great question. I think that we kind of had to create our own playbook with them. I'm sure if they're listening, they don't want to hear this because you're not supposed to sort of commend and compliment the agency. They're just supposed to be there as sort of the gatekeepers. But we used to hear just a lot of horror stories like, "Oh man, you know, working with the agency, it's really tough. You know, they're really tough on this." I mean, we always looked at them as our partners, you know, we were bringing a novel technology to the world. We chose to go into a regulated environment because we believed in the promise of saving patients. We were not taking a sort of anti-regulation attitude that I can fix this, government get out of my way. I'm a patient first. I like living in a country with FDA where something is scrutinized that I have to take when I'm sick. And I think that attitude and going into it from us as a product and R&D team, first of all, helped in clarifying our understanding of FDA's processes because it's a lot, and you really need to dig through the guidance in that. But I would say this is really hats off, Harry, to our founding engineers. I mean, they went from being engineers to really understanding process, and that's really what FDA is. Our first clients we met with, we went down to Washington 11 times in person to demo to ask questions continuously. And "Hey, we read this part of the guidance. Does this make sense for us?" And we shut up and listened when we didn't agree with them. We said, "But what do you think about this? Doesn't this solve it?" We weren't trying to go around them, and so we were trying to develop sort of new understandings of it.</p><p><strong>Venk Varadan: </strong>And I think collaboratively we put together a good playbook with FDA to clear a material that they had never seen before. Right? It would be one thing if we use the standard electrode like all Holter monitors do and combined it with something, and did different things on the software side. That would be somewhat straightforward because they know the data that's being generated is often the standard electrode. But for us, we had to do a lot of different and in many cases, much more rigorous testing, which that was painful. Don't get me wrong, but totally worth it, right? I mean, our sort of boundaries and our understanding of what FDA put us through, it turned out to be a boon in disguise. I mean, our whole team can sort of run through the needs now of FDA and we feel very experienced and very well equipped on how they think. And now that they're comfortable with the sort of data we capture, all the great things we can do on the AI side, which is still scary to a lot of people. You just say I've got a black box and I'm combing electronic medical records, and here's what the unsupervised learning tells me. I was a regulator. I'd be like, Wow, I'm not touching that with a 10-foot pole, you know? So it's different with us, right? I mean, we can define everything that's coming in and we can define the outputs. Yes, the AI in the middle is the magic, but we're not sort of defining everything until the outcomes, right, which is where I see a lot of companies got into trouble. So I think it was worth it with the FDA.</p><p><strong>Harry Glorikian: </strong>Well it's funny because, I mean, I always say to people, I'm like, Listen, they're not the enemy, actually. They can make your life easier because and I say, people tell me, "Well, I'm not going to go until I'm absolutely done." I'm like, If you wait that long and they tell you you're wrong, you just spent a whole lot of money for "and you're wrong." Right? So you should look at them as your partner. Right. And I'm assuming you went to, you worked with the digital health group at the FDA.</p><p><strong>Venk Varadan: </strong>We worked predominantly, consistently we work with CDRH [the Center for Devices and Radiological Health] and now actually as a as a board member on Advamed, sitting on the executive leadership group for digital health, Advamed is a trade association that helps with FDA and with CMS on on industry innovation. CDRH does have its own sort of digital health group within it that's focused on a lot of these issues that we're talking about A.I., data privacy, cybersecurity, which in this sort of next decade, I think is going to be the main sort of frontier for the industry government relationship that we all sort of signed up for when we decided to go into health care, because even the most sleepy widgets right that we use consistently, they're all tech enabled now. Everything is digital, you know?</p><p><strong>Harry Glorikian: </strong>So yeah, and I mean, they're they've been creating that from the ground up. I remember talking to the the gentleman that runs it and he's like, I feel like I'm running a startup because, right, most of the stuff that we're, you know, we need to figure out has never been done before at the regulatory agency. And so we're sort of creating it from scratch, right? So I mean, in a way that that's good because he understands the pains that the companies are having to go through in creating something that hasn't been done before.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll   like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for "The Future You" by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So let's go back for a second to, you know, 2020 in the first wave of coronavirus pandemic, right? You partnered with some medical centers in New York and New Jersey to start using it to monitor patients. And what did you learn from those studies and how did the device help improve treatment?</p><p><strong>Venk Varadan: </strong>There were two things I think. One, it was all anybody was talking about, and there were so many unknowns about it that we recognized that this was a, you know, a virus that was affecting the cardiopulmonary complex. Those that were getting sick and we're going to the E.R. had issues there, and that's what we were doing. And so in the same way that we're looking at potential use cases with the ultimate goal of assessing someone's risk, right, which is really what we're what we're doing as a remote diagnostic company or a remote hospital at home patient monitoring company, we went into COVID with that same thesis in doing so. And obviously in our backyard in New York, we got punched in the mouth first in the USA. With that, pretty much everybody I know was infected in March. We were all riding the subway together, you know, up until the last day as sardines. So it was not escapable here. And we're a dense city, right? We all sort of live on top of each other and our hospitals almost in a week. There were patients in the cafeteria. They were we were making tent villages for additional beds in Crown Heights, Brooklyn. It was completely overwhelming. And so we really feel it felt like we wanted to do something about it now. We would have gotten on patients right away, but. We did have to go through the IRB processes, which would take time, unfortunately, but we learned a couple of things and the two things actually that we learned are is that we're not necessarily super helpful in a acute virus that hits you really fast.</p><p><strong>Venk Varadan: </strong>The patients that this is sending to the ICU, it's doing so very quickly. It's rare that someone is sick for three or four weeks. They progress so badly that then they go to the ICU. They have a drop pretty quickly when it happens. So what we found was, our study was really to go on patients while they were in the general ward, and the endpoint would be when they were transferred to the ICU because they had gotten so sick a morbidity event or they were discharged. And I think we were unable, to be candid, we were unable to find the lead up to that point because we just simply didn't know what patients were coming in. I would have loved data on them from 48 hours beforehand. Right? We could have learned so much, even very basic functions that Fitbit and the Apple Watch are trying to market. "I saw a spike in heart rate from the all patients that got infected with COVID 48 hours before." That is the premise of where I would have loved to go with our granular data, but we're not the type of device that somebody just wears at all times, whether they're sick or not, right? So I think that was a learning experience for us that if there's an unknown of when something's going to hit, it'll be challenging. </p><p><strong>Venk Varadan: </strong>For infectious disease that becomes chronic disease, I think we're going to be in much better shape, and I think we could definitely do a longitudinal study for the long hauler community, right> You know, the folks that have been infected with COVID and have literally seen symptoms for a year or two, I think there's a lot we can learn longitudinally from there. And that's really where I think our study with our with our great partners at Maimonides Medical Center in Brooklyn and Hackensack, New Jersey and others across the country would, we would be more than happy to to participate in some of those longitudinal studies because, you know, we don't know what the long hauler is going to look like in five to 10 years, right? Or even people that have been infected before the vaccines now. That's still a let's figure it out type thing. So it's not you have to balance sort of running a sales product business versus a research part, but with the right resources and the right partners we would love to continue that work in COVID because it's not going anywhere as you know.</p><p><strong>Harry Glorikian: </strong>Well, listen, I actually want you to put it into a T-shirt and send me one so that I can wear it and monitor myself. But let's talk about where this technology is going in the future, right? The SimpleSense sash looks, you know, comfortable, convenient, way more comfortable than, say, a Holter monitor. But you'll correct me if I'm wrong, but it's still a specialty device. It isn't made from off the shelf materials, et cetera. But do you think there's like we're moving to a day where you can sort of embed these sensors in, as I said, a T-shirt, familiar cloth items. I'm looking at digital health and saying it has the ability to monitor me and sort of help identify problems before they come up so I can get ahead of them. And so that's how I'm thinking about this technology, because those sensors look pretty small and thin, at least from what I could see visually in the picture.</p><p><strong>Harry Glorikian: </strong>We're the first to say we don't know when we don't know, Harry. I know the market wants you to always have an answer for everything. A lot is going to depend on the additional aspects that we all use in technology stack. Where does 5G take us? Where does increased broadband take us? You know, 10 years ago, we didn't realize everyone in the world would have a smartphone, right? Villages in India and Africa, they have these now, you know what I mean? They may not have running water, but they've got, you know, a Samsung device, right? And so we may have never thought that monitoring in remote places like that because we couldn't find an economic model to sell shirts or bed sheets for a dollar out there. But maybe with the volume and with the right partners, that's where we could go. We certainly built our our stack with that sort of dream in mind. We filed IP and got patents awarded to embed in clothing and bed sheets and upholstery on cars and seatbelts and on the steering wheel and. You know, this could be in the gloves of a pilot one day. You know, this could replace your sort of neurological monitoring. We've got a prototype of a headband that's calculating all your EEG and EOG signals could replace an 18 lead one day. I think when you throw in real good advances in automated supply chain and 3D printing, there's a lot that can be done in this space and it's going to be done through partnership. We're not going to do it all on our own.</p><p><strong>Harry Glorikian:  </strong>No way. I was going to say Venk, get to work, man! What are you doing? Like, you're using this in a in a medical application, but I really want to understand: so especially if, you must have believed in it because you filed the patents, but do you think that this sort of sensor technology could just be a normal part of preventative health care in healthy patients?</p><p><strong>Venk Varadan: </strong>I think that was always the goal, Harry. What can we do to really help a physician provider and ultimately a payer understand someone's risk without them coming in to a hospital or doing a visit? Because really the only people you should be seeing in person are people that need to be seen, not me, for an annual physical. Not you for an annual physical. Not, you know, somebody in the villages in Africa who really just needs to understand why they have a fever, whether there's something really wrong inside them. That's where I think this should go. It always was that case. We never knew what the right problem was to start to build a business around it. But this should replace your your annual physical, your annual checkup for healthy people. This should replace the follow up visit for your post-surgical, whether you get a knee replacement and angioplasty or a stent in your heart and should replace your chronic disease visits. If you have sleep disorder or heart failure where you know, do you really have to go get a $10,000 test every three months to see if you're regressing, improving or if you're staying the same? I think that this can democratize all of that in some way, and it's cloth. We all wear clothes every day, right? So yeah.</p><p><strong>Harry Glorikian: </strong>I mean, I look at I've looked at all these technological advances and I look at them as deflationary in a sense right. We're allowing people to get higher quality care from these technologies because of the information that comes off of it and then utilizing AI and machine learning and, you know, different forms of data analytics to sort of highlight trends and problems or hopefully, no problems, and then if one comes up, it sort of sticks out like a sore thumb, but it gives you a longitudinal view on that patient. And that's where I see all of this going, I mean, COVID has just pulled everything forward a lot faster than. You know, anybody could have guessed, and I agree with you, if you look at 5G and all these things coming together, it's just it's going to take it one more leap forward that much faster. I mean, I can imagine a partner for you would be Apple or Google thinking about, you know, clothing. Or Lululemon, for that matter, I guess. But somebody that that can incorporate this into their into their materials and make it more available. Because I got to believe that there's a consumer application that somebody could take advantage of rather than just a hardcore medical need, if that makes sense.</p><p><strong>Venk Varadan: </strong>No, you're absolutely right, and again, this sort of went through our strategic thinking when we were thinking about what we wanted to be when we grew up. And we think that the our unique cloth nanosensor technology, which good luck trying to replicate and copy that for anybody who's interested, I mean that again, this was 40 years of work that sort of how to create it and we're bulletproof, protected from a from a patent standpoint. But we think this can enable all of those markets. Our thesis was always, Harry, if we could start in health care we'd have the need-to-have population. The people that don't have a choice, right? I mean, I can go out for a jog or I don't need to go out for a jog, right? I can run with a monitor but I don't need to. But there's a good percentage of the population that doesn't have a choice. They must be monitored. If we could start with that, need to have population and prove it, prove that it works, that it's changing outcomes. Why would the nice-to-have market use something that you know, is already working for for sick people, right? And that was kind of always our thesis. We don't really have a timeline on when we're going into the consumer market, but because, you know, there are different aspects that are involved there from a business standpoint, customer acquisition marketing are the obvious ones, but sexiness, fit, we did not focus on "Do we look cool?" We were focusing on, you know, design is important on everything, don't get me wrong, but we first started with "make it work." We didn't start with "It has to be this big" and then figure it out, right? We started the other way around.</p><p><strong>Harry Glorikian: </strong>Well, and if you think about all the existing wearable technologies, they incorporate a sensor that everybody understands very well, right? There's no question that temperature monitoring, there's no question that, you know, if you can have a CGM on you, you can sort of understand what foods affect you positively or negatively. You're right. We need the scientific publication to prove that the technology that you built does what it needs to do, and it's probably all the time going to give you new information. You're going to be like, I didn't know we could figure that out, right? Which is the beauty of having 85 biomarkers. You're going to find something new all the time, but you could easily see that certain applications would then become accepted and then make its way into mainstream.</p><p><strong>Harry Glorikian: </strong>Yeah, absolutely. And I think the more that folks are using and the cool thing or not, maybe not cool, maybe it bothers some people, I'm sure, but technology goes one way. It does not go backwards, right? And COVID sort of shifting virtual care into the forefront, which is what technophiles did before. "Oh, I just talked to my doctor on the phone." I would have laughed. I was like, What can they do with that right before I started Nanowear, right? But that's not going back right. If you don't have to go see your position in person and you've got an alternative now that replaces it, why wouldn't you do that right? So. Yeah, I think as people get more accustomed with devices, they'll understand how to differentiate from them. You know, I'm not taking shots at our friends in Cupertino, but there's only so much you can do on the wrist, righ</p><p><strong>Harry Glorikian: </strong>Absolutely.</p><p><strong>Venk Varadan: </strong>If you're not going across the heart, across the lungs, across the brain, you're going to be limited in what you can do if you just have an armband device that's picking up your pulse rate and your skin temperature, you're limited in what you can do, right? So I think what we're excited about, maybe not just on this form factor in this product, but understanding its application around the body. You can't put a smartwatch around your body, but you can put a cloth around your body. You can put a sheet around your body, right? I think that hopefully the understanding is going to come that there is a delineation between something that's great for the consumer and something that's great for, you know, the health care population. And where does that nexus come together? I think that's going to be driven by patients. I don't think it's going to be driven by us. I don't think it's going to be driven by the provider or the payer. I think the patients are going to demand, you know, as they are doing now, right? I mean, the reason providers are buying our solution right now is because the patients are demanding it right. The payers are kind of demanding it. To some extent, cardiologists would love to see 40 patients a day in their office again. They were really used to that, right?</p><p><strong>Harry Glorikian: </strong>Yeah. This is a longer debate over a beer at some point.</p><p><strong>Venk Varadan: </strong>It is Friday!</p><p><strong>Harry Glorikian: </strong>Listen, it was great to talk to you. Healthy congratulations on the on the latest approval and look forward to seeing other approvals as as you're taking this thing forward. And you know, I can only wish you great success. I mean, obviously since I'm an investor, I have a soft spot in my heart for every entrepreneur out there.</p><p><strong>Venk Varadan: </strong>Thank you, Harry, and thank you for the opportunity to spend some time with you and and your audience. Hopefully, it's the first of many and I can come back and give an update in a year or so. And hopefully by then, it's not just about FDA approvals, but I'm showing we really built sales here because I know investors care about that. Just selling our product in the enterprise for the first time this month in September, and early numbers are great. So it's a really exciting time. I think six and a half years into the journey and being able to do it starting with dad has been pretty special. So so thanks for having us and appreciate you following our progress going forward. </p><p><strong>Harry Glorikian: </strong>Excellent.Thanks for participating.</p><p><strong>Venk Varadan: </strong>Thanks, Harry.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
]]></description>
      <pubDate>Tue, 26 Oct 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Venk Varadan, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Many of us wear wireless, battery-powered medical sensors on our wrists in the form of our smartwatches or fitness trackers. But someday soon, similar sensors may be woven into our very clothing. Harry's guest this week, Nanowear CEO Venk Varadan, explains that his company's microscopic nanosensors, when embedded in fabric and worn against the skin, can pick up electrical changes that reveal heart rate, heart rhythms, respiration rate, and physical activity and relay the information to doctors in real time. And that kind of technology could move us one step closer to a world where we're far more intimately connected to the medical system and doctors can catch health problems before they turn into disasters.</p><p>Nanowear's leading product is a sash called SimpleSense that fits over the shoulder and around the torso. Last month the company won FDA approval for the software package that goes with the SimpleSense sash and turns it into a diagnostic and predictive device. It's currently being tested in a network of clinics as a way to monitor and manage congestive heart failure.</p><p>Varadan trained in biochemistry at Duke, earned an MBA at Columbia, and spent about a decade in pharmaceutical sales and marketing and technology investment banking before co-founding Brooklyn, NY-based Nanowear in 2014. His father Vijay Varadan, MD, PhD, now an emeritus professor in the Department of Engineering Science and Mechanics at Penn State, is the other co-founder and the company's chief innovation officer. "Nanowear's technology was actually the culmination of his life's work," Venk says.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence. Big data. Predictive analytics. In fields like these, breakthroughs are happening way faster than most people realize. </p><p>If you want to be proactive about your own health and the health of your loved ones, you’ll need to learn everything you can about how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of my new book, <i>The Future You</i>. And it’s also our theme here on the show, where we bring you conversations with the innovators, caregivers, and patient advocateswho are transforming the healthcare system and working to push it in positive directions.</p><p>Everyone’s used to the idea that if they’re being treated in a hospital, they’ll probably get wired up to sensors that track their heart rate or respiration rate or blood oxygen level.</p><p>We’ve talked on the show before about a new generation of <i>portable</i> medical sensors for everyday life, like continuous glucose monitors for people with diabetes.And some people even wear medical sensors on their wrists in the form of their Fitbit or Apple Watch. Some of these devices can go beyond fitness monitoring to alert wearers to problems like cardiac arrhythmia.</p><p>But what if medical sensors were woven into your very clothing? My guest this week is Venk Varadan, and he’s the CEO and co-founder of a company called Nanowear that’s taken a big step in that direction. Nanowear has developed a way to put microscopic nanosensors inside clothes .</p><p>If that cloth is worn against the skin, it can pick up electrical changes that reveal heart rate, heart rhythms, respiration rate, and physical activity and relay the information to doctors in real time. </p><p>Nanowear’s leading product is a sash called SimpleSense that fits over the shoulder and around the torso. And last month the company won FDA approval for the software package that goes with the SimpleSense sash and turns it into a diagnostic and predictive device.</p><p>But Varadan says that in the future the nanosensors and the software could be put into even more places, like headbands, conventional clothing, or bed sheets. That’s just one example of the explosion in mobile health technology that’s putting more power into the hands of patients. </p><p>And it's also one of the topics in my book The Future You, which is available now in Kindle ebook format. You can get your copy by going to Amazon.com and searching for "The Future You," by Harry Glorikian. </p><p>The book grows partly out of conversations like the ones I have here on the podcast with medical researchers and entrepreneurs. But it goes even deeper into the impact of wearable sensors, AI, and so many other technologies that have the potential to help us live longer, healthier lives. So I hope you'll check it out.</p><p>And now on to my conversation with Venk Varadan.</p><p><strong>Harry Glorikian: </strong>Venk, welcome to the show.</p><p><strong>Venk Varadan: </strong>Thank you, Harry.</p><p><strong>Harry Glorikian: </strong>So, look, we all know that with with technology startups, there's always this sort of chicken and the egg question what what came first in the mind of the inventors: the market need or the product that needs to address it. You know, ideally they come together simultaneously and there's a back and forth dialogue between founders and potential customers. And you end up with what the startup community calls--what is it?--product-market fit, if I talk to my, you know, my Silicon Valley nephew of mine. So in the case of Nanowear, you know, did you start to think about the problem and how to solve it? Or did you start out with the technology? Which in your case involves a way to embed these tiny nano-pillar sensors into cloth and then look at ways to make it sellable. So which one was it for you?</p><p><strong>Venk Varadan: </strong>Great question, Harry, and again, thanks for having me on the podcast. We were squarely the latter and I think most entrepreneurs are the former. But we had this great advanced material, a cloth based nanotechnology that could pick up really, really high fidelity clinical grade biomarker data off the body. And we didn't really know what to do with it. Do we start as a consumer company? Work on fitness, B2B, sports? Do we think about industrial safety, military use cases? They've been trying to figure out smart textiles forever. Or do we go into health care? And I think stubbornly so, and a little bit of altruism, we chose the harder route, which was health care. But I think it was probably more premised on that we believed in the quality of the sensor. It was doing something from a quality and quantity standpoint that no other on body sensor or non-invasive sensor out there could do, whether it was consumer grade off the shelf or health care based electrodes. So all we really knew when we started is that we wanted to be a health care company, but we didn't know the right application to start with.</p><p><strong>Harry Glorikian: </strong>Yeah, I was going to say, let's, let's pick the hardest one and see if we can get over that hill. So let's back up here and talk about like the medical need you're trying to address. I mean, at a high level, why is portable diagnostic sensing so important for people's health?</p><p><strong>Venk Varadan: </strong>I think it was always important because of an access issue, right? Not everybody can go see a physician or can do high cost diagnostic tests that require a facility or diagnostic tools in person. And there's a cost even to running a blood pressure cuff or checking your heart with a stethoscope or running a hemodynamic monitor, all the way up to more expensive tests like sleep studies and sleep labs. So I think it started, remote diagnostic needs started with an access issue, and it's not like we haven't had telemedicine in the past. But even that was sort of limited due to access issues. You needed a broadband network, you needed particular devices, you needed smartphones, and there were a lot of industry, I guess, pressures holding this sort of need to sort of push health care out into the more wide stream for those that have access issues. And we all said that this was going to happen one day. Virtual care, telemedicine, remote monitoring at home, replacing offices at home. And it was a nice sound bite. And COVID kind of forced the issue and I think completely accelerated that 10 year frame on the need, right? Because folks were still sick. Folks still have chronic disease. Folks still needed acute procedures. But you weren't really able to do a lot before, during and after, if you had to have these people camped out in the hospital or in outpatient clinics or acute surgical centers. So that's when while everybody thought it was cool and one day I'll employ these digital technologies, it really took COVID to shut their business down or they didn't have any patients, to force them to adopt. So I think a lot of our, companies like us, we were all doing the right thing. And we also are the first to admit that we got fortunate that the pandemic sort of accelerated the need for our solutions.</p><p><strong>Harry Glorikian: </strong>Yeah, I mean, I remember I put together, god, it's got to be like 15 plus years ago, I put together a distributed diagnostics conference, because I was like, "This is going to happen." And, well, OK, eventually. But so let's talk about, let's step back for a minute and talk about some of the specific medical conditions where continuous, high resolution, high fidelity data is useful. Like, I know we need to probably start with congestive heart failure.</p><p><strong>Venk Varadan: </strong>Yes, so that's where we actually started before COVID. That was the sort of market need where our technology, our ability to sort of simultaneously and synchronously look at biomarkers from the heart, from the lungs, the upper vascular system in a sort of contiguous way and sort of map the trends over the same period of time as you would with a stethoscope or blood pressure cuff and electrocardiogram or hemodynamic monitor if they were all in one platform. That's really what we're replacing as part of our solution and our device-enabled platform. But the economics of heart failure and the business need were really what was pulling us there in the sense that there were penalties from CMS to avoid that next hospitalization within 30 days. And many of these patients are, one in four are being readmitted within 30 days. One in two are readmitted within six months. So this isn't a problem that we can just medicate our way out of. We have to understand when decompensation of the heart is happening before symptoms show up, because once symptom show up in fluids accumulating in their lungs, it's already too late. So I think there was a good product need for us, as well as the economic need with reimbursement and solutions for something that can be done outside the body that a patient could be be using at home.</p><p><strong>Venk Varadan: </strong>And then I think, you know, COVID hit and the market applications really just exploded beyond heart failure. Heart failure is still on our roadmap. Our clinical study to prove that ALERT algorithm of, we take all these data points, send it into the cloud, do a risk based predictive algorithm to predict worsening heart failure or decompensated heart failure weeks before fluid accumulates in the lungs. That's still firmly on our roadmap. We've just got to restart the study that was halted due to COVID. But the same product that does the same parameters with a different sort of algorithmic use cases opened up a lot of other applications that now have a business need and economic need to use us. So the two that we're starting with is pos-procedural or post-surgical follow up in an acute use case setting. And the second is outpatient cardiology longitudinal care for someone who unfortunately probably has to see a cardiologist for the rest of their life.</p><p><strong>Harry Glorikian: </strong>And if I'm not mistaken, congratulations are in order because of an FDA approval.</p><p><strong>Venk Varadan: </strong>Yes, so we actually got our third 510K just two days ago. September 21st, sorry, September 22nd, we got our third 510K. This is actually an example of our of our first digital-only clearance. So our first two clearances, our first clearance in 2016 was primarily around the advanced material, the nanotechnology, to get FDA comfortable in its safety and efficacy profile. The second was for our product, which is the SimpleSense shoulder sash, which simultaneously and synchronously captures data across the heart, lung and upper vascular system biomarkers, feeds that data through a mobile application and into the cloud. And then this clearance is sort of for an end-to-end digital infrastructure that circularly includes ingestion of our 85 biomarkers and then analytics circularly across our spectrum that continues to sort of process and then has the ability to push insights or algorithmic alerts down. So that last part is not included. But if you think about it, Harry, we kind of had a strategy before we got to the AI part. Now everything we submit with FDA has nothing to do with the device, has nothing to do with software infrastructure, has nothing to do with what would be MDDS or what wouldn't be. We can simply send in statistical analysis on the AI algorithms based on the inputs that we've already cleared and then looking retroactively on the outcomes. So it was it's a nice win for us to kind of show that we're not a device company, we're a device-enabled platform. But I think what it's really exciting the market on is that we're ready for AI diagnostics. We hope to have a first one and our fourth 510K, I guess here with FDA pretty soon in the complex chronic disease state. So really exciting times for us.</p><p><strong>Harry Glorikian: </strong>Yeah. And I mean, as an investor, I mean, I, you know, I've been in diagnostics forever and I, you know, I'm so focused on Where's the data? Show me the exponential nature of the data and then what we can do with it and really like blow that up, right? That's where I see the value in these platforms and technologies. But there are technically other methods that had been used, right, that you might say you might or might not say are competitive in some way. But one of them is called a Holter monitor, right? Which people put on their skin to monitor, you know, electrocardiogram and EKG rhythms outside the hospital. And I don't want to say the name wrong, but I think it's SimpleECG for yours and then the SimpleSense vest, [how does it] compare to that. What are the alternatives? How long do you wear it and how do you compare it to the existing status quo?</p><p><strong>Venk Varadan: </strong>Sure. So, you know, a Holter monitor has a specific use case. It's looking at your electrocardiogram rhythm to see if you have a rhythm or abnormality, right? So we one of the metrics we capture is an electrocardiograph, right, and we do multiple channels of that. So it's not a single lead. So we could certainly compete against that application and just look at rhythm abnormalities in the same way. Companies like iRhythm have that, and Apple Watch has that 30 second feature on it. We are not playing in that space. And the difference between us, even though our signal quality, we would argue, is much cleaner than a Holter monitor that's using standard electrocardiographs, with those you have to shave your chest, you have to stand the dead skin down. You have to put gel on for the electrode to get a conductive signal. We don't have to do any of that because of the nanotechnology. But what the nanotechnology also affords, in addition to a better experience and better quality, is the ability to do more than just a Holter monitor, right? So imagine if that same Holter monitor wasn't just looking at rhythm abnormalities, it was also looking at the acoustics of your heart and your lungs, the sounds of your heart in your lungs. It was looking at the flow characteristics. The blood injection times, the fluid accumulation in your lungs. It was looking at your breathing rate, your breath per minute, your lung capacity, your changes in lung capacity over time, if it was looking at your pressure related issues at the aorta, systolic and diastolic blood pressure. In addition to being a better experience in all of these and sort of kind of replacing a Holter monitor and a stethoscope and what have you, the real value is being able to do all of that at the same period of time over the same period of time. So even if I'm monitoring for, our use cases are about 30 minutes to an hour in the morning, 30 minutes or at night. And because we're getting such dense quality and quantity of data over that time period, we can actually see trends across the cardiopulmonary and upper vascular complex, which is actually the first company and platform that can do that. And that may not have been important before COVID. But COVID, I think, was revelatory in the sense that COVID may have started as a respiratory disease, but it affects the heart. It affects the upper vascular system. You can get a DVT from it. And I think it opened the world's eyes into understanding. We're not looking at all of these systems, the heart-lungs-upper-vascular system that all work together and work uniquely in each of our own bodies. We're only getting a risk based signature on just cardiac rhythm or just breaths per minute or just the sound murmurs of your heart, whereas we're doing it now.</p><p><strong>Harry Glorikian: </strong>Yeah. So for a guy like me, like, I'm like, Oh my god, how do I get one of these? I want one of these right now. I'm thinking like, Oh, I could use it right after I work out. And I'm, you know, forget the I'm sick part of it. I want to use it as a wellness monitoring and sort of to see, get a baseline. Tell me where I'm going, right, over time. That's what I'm always discussing with my my physician is we need a baseline because I don't know how it's going to change over time. If I only look at it at that point in the future, I don't know what it was. So, but the other side, I think to myself, there are physicians listening to this show that are probably all excited about this. And there are physicians going, "That's a lot of different data points. How in the hell am I going to make sense of that?" And so I'm I'm assuming what you're going to tell me is you've got this amazing software that lets you visualize, you know, and make sense of all these different parameters together.</p><p><strong>Venk Varadan: </strong>And that's exactly right. You know, we were actually stubbornly annoying to our KOLs, our clinical teams, as well as our original customers in beta rollouts, because Harry, we agreed with you. We looked at where Gen 1 and Gen 2 sort of digital health companies struggled in health care. Health and wellness is a little bit different right? I mean, to each their own, right. I mean, if you market well, you'll find that pocket of people that want to be overwhelmed with data or what have you. But we really listened to what digital health was doing for the provider and patient relationship. There were some good things there and there were other bad things, and the bad things we realized actually wasn't monolithic between clinics. Some people thought that bad things were "I'm alerted too often." Others wanted to be alerted all the time. Some were like, "This is noisy data. It's too unclean." Others were saying, "I just need, you know, 70 percent C-minus level data," right? And then we were thinking about all of those aspects which we couldn't get consensus on. How do you bring all of those aspects that gives control to the provider so the provider can say, how often are they alerted, how much data and the raw signals do I want to look at, how much do I not want to look at? And really, with the thesis of building the platform on them, spending less time than what they do before? Because I think Gen 1 and Gen 2 products unfortunately actually added more time in adjudication and frequency of the provider being notified, and also cause some anxiety for patients as well because they were looking at their screen and their data at all times.</p><p><strong>Venk Varadan: </strong>So we really tried to be sponges of all of those different devices that were tech enabled and sort of moving from hundred-year-old devices to now Gen 1, Gen 2, pushing into the cloud. And really listened on... And I'll tell you, it was mostly from staff. It wasn't necessarily from the physicians and the surgeons themselves. It was mostly from triage nurse, from health care staff, the people that are running around coordinating the follow up visits, coordinating the phone calls from patients that were doing poorly or feeling bad after feeling sick after a procedure. And I just think we just kept our ears open and didn't go in saying, we know what you need. We were asking, What do you?</p><p><strong>Harry Glorikian: </strong>All right, so let's talk about the technology itself, the  SimpleSense wearable sash. How does the cloth sensor in the garment work? I mean, on a microscopic level, what are the kind of changes that this nano pillar detects and how?</p><p><strong>Venk Varadan: </strong>Yeah, so not to get to sort of, you know, granular into the physics, although I'm happy to Harry, if you if your audience ends up sending me some questions. But think about our ability to just detect a difference in potential action potential from point A to point B. And it's an oversimplified way of describing what we do, but the reason we can do it better than anybody else with any other sensor -- and that's what really feeds the cleanliness and the quality of our data and allows us to derive so many biomarkers that other others can't, which obviously feeds the ability for AI -- is because we've got these billions of vertically standing nano sensors per centimeter of surface area. The differential or the potential difference that we can find because our signal quality so clean is so narrow. Whereas other sensors that might be treated as noise, we can consistently see deltas from point A to point B and know exactly what caused those deltas, right? And that's unique to us and our vector orientation. And it's probably a little too wonky here, but if you have a vector across the largest slice of the heart, across the largest slice of the lungs, across the upper vascular system in its entirety, with that finite ability to get really microscopic level changes in potential, irrespective of what signal you're looking at. Because once you we know what signal we're looking for, we just set the frequency bands for those, right? Right. And that's really, in a nutshell, how it works across the multiple parameters that we can capture from a biomarker standpoint.</p><p><strong>Harry Glorikian: </strong>So you said 85 biomarkers, right? We're not going to go through all of them because we'll be at the end of the show. But what are the kinds of, let's say, physiological data that you're pulling in and that you're differentiating on?</p><p><strong>Venk Varadan: </strong>Sure. So I probably summarize it into several different buckets that each have maybe 20 or 30 derivatives under it. But, you know, cardiopulmonary biomarkers. So the coupling between the cardio and pulmonary complexes, impedance cardiography, thoracic impedance and then looking at not only the means and the median trends across those metrics, but the standard deviation. So one of our board members famously said, Nadim Yared, the CEO of CVRx, You will learn so much more from the standard deviations than you will from the trends. Don't just look at the sort of the trend. So that's an example. Cardiopulmonary: We look at the electrical signals of the cardio complex and electrocardiographs. We look at a combinatorial methodology of cardiographs, acoustics, BMI, height and weight. And then we tie activity, posture, movement. What is your sleep orientation? Are you sleeping on your left side? Are you sleeping on your right side? All of these sort of things together actually enable some really interesting insights from a machine learning standpoint. And again, the beauty of our ability to sort of understand them and see more biomarkers. Eighty-five is where what we know right now, what we've validated. There's probably a lot more that we will discover under certain disease states. But what we're able to sort of mesh together from all of those are really cool aspects like blood ejection times. That's not a physical, raw metric we're getting. That's a derived metric and combining a lot of these aspects cardiac output, stroke volume, you know, these are things that could only have previously been done with an arterial line in your body and in a hospital system. So I don't know if that answers your question.</p><p><strong>Harry Glorikian: </strong>Well, no. I mean, listen, I mean, this is why I invest in this space because, you know, theoretically, as I get older, I may be a patient and you know, the better these technologies get, the better off I'm going to be. But so let's talk about for a second, where did where did this originate from? And I think your dad, your father had something to do with this, if my research is correct.</p><p><strong>Venk Varadan: </strong>He sure did. This may be a little bit of a long winded answer, Harry. But but for your audience, I'll tell the story because it's important for dad to be happy at all times, even though I'm 40 years old. So, Dr. Vijay Vardhan is our co-founder and Chief Innovation Officer. My father, 40 plus year academic researcher in the fields of materials, research and biomedical engineering and this was actually, Nanowear's core technology was actually a culmination of his life's work. Back in the 80s and the 90s when I was still a young pup and he was convincing me to go be a doctor, he was doing research in this field, and it wasn't even called nanotechnology back then. There wasn't a term for it, but he was doing defense related projects in the ability to detect very minute signals at very, very, very, very difficult detect detection environment. So an example is submarine coating, right? Submarines when they're below water are picking up their external environment information through sonar. The deeper they get in the ocean, the harder that sonar frequency is to be able to differentiate. Is that a a school of plankton? Is that a whale? Is that a thermal geyser that's sending me the signal? Or is it a Russian sub, right? And his thesis was, if I have a really big footprint of sensors and exponentially higher surface area of sensors and not just one sensor or two or one hundred but billions across the hull, I can start to differentiate over time the nuanced differences between the sonar a whale emits, the sonar a thermal geyser emits, or oh, by the way, what are our friends in the USSR emitting, right? And that's an example in really, really hard to detect environments. He did the same with observatory jets and missile defense systems at 75,000 feet, you know, the opposite, very high frequencies at very high speeds. So that original thesis, the human body is also a very complex environment and hard to detect environment as well, right? So long story short, he kind of took that same thesis over many years of playing around in the lab and publishing papers and doing great work for our government and our Department of Defense, but also with an eye to the future on what could this do in the human body one day?</p><p><strong>Harry Glorikian: </strong>Right. Well, that's great. I mean, it's I'm sure he's very happy that you two are working together to bring this to market.</p><p><strong>Venk Varadan: </strong>He's not as disappointed in me about not going to med school anymore. Let's put it that way.</p><p><strong>Harry Glorikian: </strong>Yeah. Keeping parents happy is is a is a difficult thing. I know many people are like, Are you going to be a doctor or are you going to be a lawyer? You know, I know the I know the joke. So you've got FDA approval for a number of, as you said, you're building on top of, this layering that you've been doing from an FDA approval standpoint. What did it take to get them to sign off? What sort of evidence did they need to see?</p><p><strong>Venk Varadan: </strong>Yeah, it's a great question. I think that we kind of had to create our own playbook with them. I'm sure if they're listening, they don't want to hear this because you're not supposed to sort of commend and compliment the agency. They're just supposed to be there as sort of the gatekeepers. But we used to hear just a lot of horror stories like, "Oh man, you know, working with the agency, it's really tough. You know, they're really tough on this." I mean, we always looked at them as our partners, you know, we were bringing a novel technology to the world. We chose to go into a regulated environment because we believed in the promise of saving patients. We were not taking a sort of anti-regulation attitude that I can fix this, government get out of my way. I'm a patient first. I like living in a country with FDA where something is scrutinized that I have to take when I'm sick. And I think that attitude and going into it from us as a product and R&D team, first of all, helped in clarifying our understanding of FDA's processes because it's a lot, and you really need to dig through the guidance in that. But I would say this is really hats off, Harry, to our founding engineers. I mean, they went from being engineers to really understanding process, and that's really what FDA is. Our first clients we met with, we went down to Washington 11 times in person to demo to ask questions continuously. And "Hey, we read this part of the guidance. Does this make sense for us?" And we shut up and listened when we didn't agree with them. We said, "But what do you think about this? Doesn't this solve it?" We weren't trying to go around them, and so we were trying to develop sort of new understandings of it.</p><p><strong>Venk Varadan: </strong>And I think collaboratively we put together a good playbook with FDA to clear a material that they had never seen before. Right? It would be one thing if we use the standard electrode like all Holter monitors do and combined it with something, and did different things on the software side. That would be somewhat straightforward because they know the data that's being generated is often the standard electrode. But for us, we had to do a lot of different and in many cases, much more rigorous testing, which that was painful. Don't get me wrong, but totally worth it, right? I mean, our sort of boundaries and our understanding of what FDA put us through, it turned out to be a boon in disguise. I mean, our whole team can sort of run through the needs now of FDA and we feel very experienced and very well equipped on how they think. And now that they're comfortable with the sort of data we capture, all the great things we can do on the AI side, which is still scary to a lot of people. You just say I've got a black box and I'm combing electronic medical records, and here's what the unsupervised learning tells me. I was a regulator. I'd be like, Wow, I'm not touching that with a 10-foot pole, you know? So it's different with us, right? I mean, we can define everything that's coming in and we can define the outputs. Yes, the AI in the middle is the magic, but we're not sort of defining everything until the outcomes, right, which is where I see a lot of companies got into trouble. So I think it was worth it with the FDA.</p><p><strong>Harry Glorikian: </strong>Well it's funny because, I mean, I always say to people, I'm like, Listen, they're not the enemy, actually. They can make your life easier because and I say, people tell me, "Well, I'm not going to go until I'm absolutely done." I'm like, If you wait that long and they tell you you're wrong, you just spent a whole lot of money for "and you're wrong." Right? So you should look at them as your partner. Right. And I'm assuming you went to, you worked with the digital health group at the FDA.</p><p><strong>Venk Varadan: </strong>We worked predominantly, consistently we work with CDRH [the Center for Devices and Radiological Health] and now actually as a as a board member on Advamed, sitting on the executive leadership group for digital health, Advamed is a trade association that helps with FDA and with CMS on on industry innovation. CDRH does have its own sort of digital health group within it that's focused on a lot of these issues that we're talking about A.I., data privacy, cybersecurity, which in this sort of next decade, I think is going to be the main sort of frontier for the industry government relationship that we all sort of signed up for when we decided to go into health care, because even the most sleepy widgets right that we use consistently, they're all tech enabled now. Everything is digital, you know?</p><p><strong>Harry Glorikian: </strong>So yeah, and I mean, they're they've been creating that from the ground up. I remember talking to the the gentleman that runs it and he's like, I feel like I'm running a startup because, right, most of the stuff that we're, you know, we need to figure out has never been done before at the regulatory agency. And so we're sort of creating it from scratch, right? So I mean, in a way that that's good because he understands the pains that the companies are having to go through in creating something that hasn't been done before.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll   like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available in Kindle format. Just go to Amazon and search for "The Future You" by Harry Glorikian.</p><p>And now, back to the show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>So let's go back for a second to, you know, 2020 in the first wave of coronavirus pandemic, right? You partnered with some medical centers in New York and New Jersey to start using it to monitor patients. And what did you learn from those studies and how did the device help improve treatment?</p><p><strong>Venk Varadan: </strong>There were two things I think. One, it was all anybody was talking about, and there were so many unknowns about it that we recognized that this was a, you know, a virus that was affecting the cardiopulmonary complex. Those that were getting sick and we're going to the E.R. had issues there, and that's what we were doing. And so in the same way that we're looking at potential use cases with the ultimate goal of assessing someone's risk, right, which is really what we're what we're doing as a remote diagnostic company or a remote hospital at home patient monitoring company, we went into COVID with that same thesis in doing so. And obviously in our backyard in New York, we got punched in the mouth first in the USA. With that, pretty much everybody I know was infected in March. We were all riding the subway together, you know, up until the last day as sardines. So it was not escapable here. And we're a dense city, right? We all sort of live on top of each other and our hospitals almost in a week. There were patients in the cafeteria. They were we were making tent villages for additional beds in Crown Heights, Brooklyn. It was completely overwhelming. And so we really feel it felt like we wanted to do something about it now. We would have gotten on patients right away, but. We did have to go through the IRB processes, which would take time, unfortunately, but we learned a couple of things and the two things actually that we learned are is that we're not necessarily super helpful in a acute virus that hits you really fast.</p><p><strong>Venk Varadan: </strong>The patients that this is sending to the ICU, it's doing so very quickly. It's rare that someone is sick for three or four weeks. They progress so badly that then they go to the ICU. They have a drop pretty quickly when it happens. So what we found was, our study was really to go on patients while they were in the general ward, and the endpoint would be when they were transferred to the ICU because they had gotten so sick a morbidity event or they were discharged. And I think we were unable, to be candid, we were unable to find the lead up to that point because we just simply didn't know what patients were coming in. I would have loved data on them from 48 hours beforehand. Right? We could have learned so much, even very basic functions that Fitbit and the Apple Watch are trying to market. "I saw a spike in heart rate from the all patients that got infected with COVID 48 hours before." That is the premise of where I would have loved to go with our granular data, but we're not the type of device that somebody just wears at all times, whether they're sick or not, right? So I think that was a learning experience for us that if there's an unknown of when something's going to hit, it'll be challenging. </p><p><strong>Venk Varadan: </strong>For infectious disease that becomes chronic disease, I think we're going to be in much better shape, and I think we could definitely do a longitudinal study for the long hauler community, right> You know, the folks that have been infected with COVID and have literally seen symptoms for a year or two, I think there's a lot we can learn longitudinally from there. And that's really where I think our study with our with our great partners at Maimonides Medical Center in Brooklyn and Hackensack, New Jersey and others across the country would, we would be more than happy to to participate in some of those longitudinal studies because, you know, we don't know what the long hauler is going to look like in five to 10 years, right? Or even people that have been infected before the vaccines now. That's still a let's figure it out type thing. So it's not you have to balance sort of running a sales product business versus a research part, but with the right resources and the right partners we would love to continue that work in COVID because it's not going anywhere as you know.</p><p><strong>Harry Glorikian: </strong>Well, listen, I actually want you to put it into a T-shirt and send me one so that I can wear it and monitor myself. But let's talk about where this technology is going in the future, right? The SimpleSense sash looks, you know, comfortable, convenient, way more comfortable than, say, a Holter monitor. But you'll correct me if I'm wrong, but it's still a specialty device. It isn't made from off the shelf materials, et cetera. But do you think there's like we're moving to a day where you can sort of embed these sensors in, as I said, a T-shirt, familiar cloth items. I'm looking at digital health and saying it has the ability to monitor me and sort of help identify problems before they come up so I can get ahead of them. And so that's how I'm thinking about this technology, because those sensors look pretty small and thin, at least from what I could see visually in the picture.</p><p><strong>Harry Glorikian: </strong>We're the first to say we don't know when we don't know, Harry. I know the market wants you to always have an answer for everything. A lot is going to depend on the additional aspects that we all use in technology stack. Where does 5G take us? Where does increased broadband take us? You know, 10 years ago, we didn't realize everyone in the world would have a smartphone, right? Villages in India and Africa, they have these now, you know what I mean? They may not have running water, but they've got, you know, a Samsung device, right? And so we may have never thought that monitoring in remote places like that because we couldn't find an economic model to sell shirts or bed sheets for a dollar out there. But maybe with the volume and with the right partners, that's where we could go. We certainly built our our stack with that sort of dream in mind. We filed IP and got patents awarded to embed in clothing and bed sheets and upholstery on cars and seatbelts and on the steering wheel and. You know, this could be in the gloves of a pilot one day. You know, this could replace your sort of neurological monitoring. We've got a prototype of a headband that's calculating all your EEG and EOG signals could replace an 18 lead one day. I think when you throw in real good advances in automated supply chain and 3D printing, there's a lot that can be done in this space and it's going to be done through partnership. We're not going to do it all on our own.</p><p><strong>Harry Glorikian:  </strong>No way. I was going to say Venk, get to work, man! What are you doing? Like, you're using this in a in a medical application, but I really want to understand: so especially if, you must have believed in it because you filed the patents, but do you think that this sort of sensor technology could just be a normal part of preventative health care in healthy patients?</p><p><strong>Venk Varadan: </strong>I think that was always the goal, Harry. What can we do to really help a physician provider and ultimately a payer understand someone's risk without them coming in to a hospital or doing a visit? Because really the only people you should be seeing in person are people that need to be seen, not me, for an annual physical. Not you for an annual physical. Not, you know, somebody in the villages in Africa who really just needs to understand why they have a fever, whether there's something really wrong inside them. That's where I think this should go. It always was that case. We never knew what the right problem was to start to build a business around it. But this should replace your your annual physical, your annual checkup for healthy people. This should replace the follow up visit for your post-surgical, whether you get a knee replacement and angioplasty or a stent in your heart and should replace your chronic disease visits. If you have sleep disorder or heart failure where you know, do you really have to go get a $10,000 test every three months to see if you're regressing, improving or if you're staying the same? I think that this can democratize all of that in some way, and it's cloth. We all wear clothes every day, right? So yeah.</p><p><strong>Harry Glorikian: </strong>I mean, I look at I've looked at all these technological advances and I look at them as deflationary in a sense right. We're allowing people to get higher quality care from these technologies because of the information that comes off of it and then utilizing AI and machine learning and, you know, different forms of data analytics to sort of highlight trends and problems or hopefully, no problems, and then if one comes up, it sort of sticks out like a sore thumb, but it gives you a longitudinal view on that patient. And that's where I see all of this going, I mean, COVID has just pulled everything forward a lot faster than. You know, anybody could have guessed, and I agree with you, if you look at 5G and all these things coming together, it's just it's going to take it one more leap forward that much faster. I mean, I can imagine a partner for you would be Apple or Google thinking about, you know, clothing. Or Lululemon, for that matter, I guess. But somebody that that can incorporate this into their into their materials and make it more available. Because I got to believe that there's a consumer application that somebody could take advantage of rather than just a hardcore medical need, if that makes sense.</p><p><strong>Venk Varadan: </strong>No, you're absolutely right, and again, this sort of went through our strategic thinking when we were thinking about what we wanted to be when we grew up. And we think that the our unique cloth nanosensor technology, which good luck trying to replicate and copy that for anybody who's interested, I mean that again, this was 40 years of work that sort of how to create it and we're bulletproof, protected from a from a patent standpoint. But we think this can enable all of those markets. Our thesis was always, Harry, if we could start in health care we'd have the need-to-have population. The people that don't have a choice, right? I mean, I can go out for a jog or I don't need to go out for a jog, right? I can run with a monitor but I don't need to. But there's a good percentage of the population that doesn't have a choice. They must be monitored. If we could start with that, need to have population and prove it, prove that it works, that it's changing outcomes. Why would the nice-to-have market use something that you know, is already working for for sick people, right? And that was kind of always our thesis. We don't really have a timeline on when we're going into the consumer market, but because, you know, there are different aspects that are involved there from a business standpoint, customer acquisition marketing are the obvious ones, but sexiness, fit, we did not focus on "Do we look cool?" We were focusing on, you know, design is important on everything, don't get me wrong, but we first started with "make it work." We didn't start with "It has to be this big" and then figure it out, right? We started the other way around.</p><p><strong>Harry Glorikian: </strong>Well, and if you think about all the existing wearable technologies, they incorporate a sensor that everybody understands very well, right? There's no question that temperature monitoring, there's no question that, you know, if you can have a CGM on you, you can sort of understand what foods affect you positively or negatively. You're right. We need the scientific publication to prove that the technology that you built does what it needs to do, and it's probably all the time going to give you new information. You're going to be like, I didn't know we could figure that out, right? Which is the beauty of having 85 biomarkers. You're going to find something new all the time, but you could easily see that certain applications would then become accepted and then make its way into mainstream.</p><p><strong>Harry Glorikian: </strong>Yeah, absolutely. And I think the more that folks are using and the cool thing or not, maybe not cool, maybe it bothers some people, I'm sure, but technology goes one way. It does not go backwards, right? And COVID sort of shifting virtual care into the forefront, which is what technophiles did before. "Oh, I just talked to my doctor on the phone." I would have laughed. I was like, What can they do with that right before I started Nanowear, right? But that's not going back right. If you don't have to go see your position in person and you've got an alternative now that replaces it, why wouldn't you do that right? So. Yeah, I think as people get more accustomed with devices, they'll understand how to differentiate from them. You know, I'm not taking shots at our friends in Cupertino, but there's only so much you can do on the wrist, righ</p><p><strong>Harry Glorikian: </strong>Absolutely.</p><p><strong>Venk Varadan: </strong>If you're not going across the heart, across the lungs, across the brain, you're going to be limited in what you can do if you just have an armband device that's picking up your pulse rate and your skin temperature, you're limited in what you can do, right? So I think what we're excited about, maybe not just on this form factor in this product, but understanding its application around the body. You can't put a smartwatch around your body, but you can put a cloth around your body. You can put a sheet around your body, right? I think that hopefully the understanding is going to come that there is a delineation between something that's great for the consumer and something that's great for, you know, the health care population. And where does that nexus come together? I think that's going to be driven by patients. I don't think it's going to be driven by us. I don't think it's going to be driven by the provider or the payer. I think the patients are going to demand, you know, as they are doing now, right? I mean, the reason providers are buying our solution right now is because the patients are demanding it right. The payers are kind of demanding it. To some extent, cardiologists would love to see 40 patients a day in their office again. They were really used to that, right?</p><p><strong>Harry Glorikian: </strong>Yeah. This is a longer debate over a beer at some point.</p><p><strong>Venk Varadan: </strong>It is Friday!</p><p><strong>Harry Glorikian: </strong>Listen, it was great to talk to you. Healthy congratulations on the on the latest approval and look forward to seeing other approvals as as you're taking this thing forward. And you know, I can only wish you great success. I mean, obviously since I'm an investor, I have a soft spot in my heart for every entrepreneur out there.</p><p><strong>Venk Varadan: </strong>Thank you, Harry, and thank you for the opportunity to spend some time with you and and your audience. Hopefully, it's the first of many and I can come back and give an update in a year or so. And hopefully by then, it's not just about FDA approvals, but I'm showing we really built sales here because I know investors care about that. Just selling our product in the enterprise for the first time this month in September, and early numbers are great. So it's a really exciting time. I think six and a half years into the journey and being able to do it starting with dad has been pretty special. So so thanks for having us and appreciate you following our progress going forward. </p><p><strong>Harry Glorikian: </strong>Excellent.Thanks for participating.</p><p><strong>Venk Varadan: </strong>Thanks, Harry.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
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      <itunes:title>Nanowear&apos;s Venk Varadan on the Next-Gen of Wearable Technology</itunes:title>
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      <itunes:summary>Many of us wear wireless, battery-powered medical sensors on our wrists in the form of our smartwatches or fitness trackers. But someday soon, similar sensors may be woven into our very clothing. Harry&apos;s guest this week, Nanowear CEO Venk Varadan, explains that his company&apos;s microscopic nanosensors, when embedded in fabric and worn against the skin, can pick up electrical changes that reveal heart rate, heart rhythms, respiration rate, and physical activity and relay the information to doctors in real time. Nanowear’s leading product is a sash called SimpleSense that fits over the shoulder and around the torso, and last month the company won FDA approval for the software package that goes with the SimpleSense sash and turns it into a diagnostic and predictive device.</itunes:summary>
      <itunes:subtitle>Many of us wear wireless, battery-powered medical sensors on our wrists in the form of our smartwatches or fitness trackers. But someday soon, similar sensors may be woven into our very clothing. Harry&apos;s guest this week, Nanowear CEO Venk Varadan, explains that his company&apos;s microscopic nanosensors, when embedded in fabric and worn against the skin, can pick up electrical changes that reveal heart rate, heart rhythms, respiration rate, and physical activity and relay the information to doctors in real time. Nanowear’s leading product is a sash called SimpleSense that fits over the shoulder and around the torso, and last month the company won FDA approval for the software package that goes with the SimpleSense sash and turns it into a diagnostic and predictive device.</itunes:subtitle>
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      <title>A New Era of Participatory Medicine: Talking with E-Patient Dave, Part 2</title>
      <description><![CDATA[<p>Today we bring you the second half of Harry's conversation with Dave deBronkart, better known as E-Patient Dave for all the work he’s done to help empower patients to be more involved in their own healthcare. </p><p>If you missed Part 1 of our interview with Dave, we recommend that you check that out before listening to this one. In that part, we talked about how Dave’s own brush with cancer in 2007 turned him from a regular patient into a kind of super-patient, doing the kind of research to find the medication that ultimately saved his life. And we heard from Dave how the healthcare system in the late 2000s was completely unprepared to help consumers like him who want to access and understand their own data.</p><p>Today in Part 2, we’ll talk about how all of that is gradually changing, and why new technologies and standards have the potential to open up a new era of participatory medicine – <i>if</i>, that is, patients are willing to do a little more work to understand their health data, if innovators can get better access to that data, and if doctors are willing to create a partnership with the patients over the process of diagnosis and treatment.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian.Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence.</p><p>Big data.</p><p>Predictive analytics.</p><p>In fields like these, breakthroughs are happening much faster than most people realize. If you want to be proactive about your own healthcare and the healthcare of your loved ones, you’ll need to some of these new tips and techniques of how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of the new book I have coming out soon, <i>The Future You</i>. And it’s also our theme here on the show, where we’ll bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>In the previous episode we met Dave deBronkart, better known as E-Patient Dave for all the work he’s done to help empower patients to be more involved in their own healthcare. If you missed it, I’m gonna recommend that you listen to the first discussion, and then come back here.</p><p>We talked about how Dave’s own brush with cancer in 2007 turned him from a regular patient into a kind of super-patient, doing the kind of research to find the medication that ultimately saved his life. And we heard from Dave how the healthcare system in the late 2000s was completely unprepared to help consumers like him who want to access and understand their own data.</p><p>Today in Part 2, we’ll talk about how all of that is gradually changing, and why new technologies and standards have the potential to open up a new era of participatory medicine – <i>if</i>, that is, patients are willing to do a little more work to understand their health data, if innovators can get better access to that data, and if doctors are willing to create a partnership with the patients over the process of diagnosis and treatment.</p><p>We’ll pick up the conversation at a spot where we were talking about that control and the different forms it’s taken over the years.</p><p><strong>Harry Glorikian:</strong> You've observed like that there's some that there's this kind of inversion going on right now where for centuries doctors had sole control over patient data and sole claims to knowledge and authority about how patients should be treated. But now patients may have more detailed, more relevant and more up to date data than your doctors does. Right. You've talked about this as a Kuhnian paradigm shift, if I remember correctly, where patients are the anomalies, helping to tear down an old paradigm, you know. Walk us through the history here. What was the old paradigm and what's the new paradigm and what are you some of your favorite examples of this paradigm shift?</p><p><strong>Dave deBronkart: </strong>Well, so I want to be clear here. I have the deepest admiration for doctors, for physicians and for licensed practitioners at all levels for the training that they went through. I don't blame any of this on any of them. I did a fair amount of study about what paradigms are Thomas Kuhn's epic book The Structure of Scientific Revolutions, like discovering that the Earth isn't the center of the solar system and things like that. The paradigm is an agreement in a scientific field about how things work. And it is the platform, the theoretical model on which all research and further study is done. And these anomalies arise when scientists operating in the field keep finding outcomes that disagree with what the paradigm says. So in the case of the planets circling the earth and the how the solar system works. They discovered that Mars and other planets all of a sudden would stop orbiting and when they would do a little loop de loop. I mean, that's what they observed. And they came up with more and more tortured explanations until finally, finally, somebody said, hey, guess what? We're all orbiting the sun. Now, the paradigm inn health care has been that the physician has important knowledge. Lord knows that's true. The physician has important knowledge and the patient doesn't and can't. Therefore, patient should do as they're told, so called compliance, and should not interfere with the doctors doing their work. Well, now along comes things like all of those things that I mentioned that the patient community told me at the beginning of my cancer. None of that is in the scientific literature. Even here, 15 years later, none of it's in the literature. What's going on here? Here's that first clunk in the paradigm. Right. And we have numerous cases of patients who assisted with the diagnosis. Patients who invented their own treatment. And the shift, the improvement in the paradigm that we have to, where just any scientific thinker -- and if you want to be a doctor and you don't want to be a scientific thinker, then please go away -- any scientific thinker has to accept is that it's now real and legitimate that the patient can be an active person in healthcare.</p><p><strong>Dave deBronkart: </strong>Yeah, I mean, you've said you don't have to be a scientist or a doctor anymore to create a better way to manage a condition. So, I mean, it's interesting, right? Because I always think that my doctor and I are partners in this together.</p><p><strong>Dave deBronkart: </strong>Good participatory medicine. Perfect.</p><p><strong>Harry Glorikian: </strong>You know, he has knowledge in certain places I definitely don't. But there are things where him and I, you know, do talk about things that were like, you know, we need to look into that further. Now, I'm lucky I've got a curious doctor. I found somebody that I can partner with and that I can think about my own health care in a sort of different way. But I mean, sometimes he doesn't have all the answers and we have to go search out something. You know, I was asking him some questions about HRV the other day that, you know, he's like, huh, let me let me ask a few cardiologists, you know, to get some input on this. So do you see that, I mean, I see that as the most desired outcome, where a patient can have their record. They're not expected to go and become a physician at that level of depth, but that the physicians who also have the record can work in a participatory way with the patient and get to a better outcome.</p><p><strong>Dave deBronkart: </strong>Exactly. And the other thing that's happened is and I've only recently in the last year come to realize we are at the end of a century that is unique in the history of humanity until science got to a certain point in the late 1800s, most doctors, as caring as they were, had no knowledge of what was going wrong in the body with different diseases. And then and that began a period of many decades where doctors really did know important things that patients had no access to. But that era has ended. All right, we now have more information coming out every day than anyone can be expected to keep up with. And we now are at a point also where we've seen stories for decades of patients who were kept alive. But at what cost? Right. Well, and we now we are now entering the point where the definition of best care cannot be made without involving the patient and their priorities. So this is the new world we're evolving into, like and Dr. Sands wears a button in clinic that says what matters to you?</p><p><strong>Harry Glorikian: </strong>So I mean, one of the other, based on where you're going with this, I think is you know, there are some movements that have been arising over the years. I don't know, maybe you could talk about one of them, which is OpenAPS. It's an unregulated, open source project to build an artificial pancreas to help people with type 1 diabetes. And I think it was Erich von Hippel's work on patient driven innovation. I talk in my book about, and I ask whether we should be training people to be better patients in the era of, say, A.I. and other technologies. What do you think could be done better to equip the average patient with to demand access to patient data, ask their doctors more important questions, get answers in plain English. You know, be more collaborative. What do you think is going to move us in that direction faster or more efficiently, let's say?</p><p><strong>Dave deBronkart: </strong>Well, I want to be careful about the word better, because I'm very clear that my preferences are not everyone's preferences. Really, you know, autonomy means every person gets to define their own priorities. And another thing is one of the big pushbacks from the hospital industry over the last 10 years as medical records, computers were shoved down their throats along with the mandate that they have to let patients see their data in the patient portal was a complaint that most patients aren't interested. Well, indeed, you know, I've got sorry news for you. You know, when I worked in the graphic arts industry, I worked in marketing, people don't change behavior or start doing something new until they've got a problem. If it's fun or sexy, you know, then they'll change, they'll start doing something new. What we need to do is make it available to people. And then when needs arise, that gets somebody's attention and they're like, holy crap, what's happening to my kid? Right. If they know that they can be involved, then they can start to take action. They can learn how to take action. It's having the infrastructure available, having the app ecosystem start to grow, and then just having plain old awareness. Who knows? Maybe someday there will be a big Hollywood movie where people where people learn about stories like that and. You know, from that I mean that I think nature will take its course.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting because I recently interviewed a gentleman by the name of Matthew Might. He's a computer scientist who became a surrogate patient advocate for his son, Bertrand, who had a rare and undiagnosed genetic disorder that left him without an enzyme that breaks down junk protein in the cells. But he, you know, jumped in there. He did his own research found in over-the-counter drug, Prevacid of all drugs., that could help with Bertrand's deficiency. But, I mean, Dave, you know, Matt is a, he was a high-powered computer scientist who wasn't afraid to jump in and bathe in that, you know. Is that the type of person we need? Is that a cautionary tale, or an inspiring tale? How do you think about that?</p><p><strong>Dave deBronkart: </strong>Desperate people will bring whatever they have to the situation. And this is no different from, you know, there have been very ordinary people who had saved lives at a car crash because they got training about how to on how to stop bleeding as a Boy Scout. You know, it is a mental trap to say, "But you're different." Ok. Some people said, "Well, Dave, you're an MIT graduate, my patients aren't like you." And people say, well, yeah, but Matt Might is a brilliant PhD type guy. What you mentioned few minutes before gives the lie to all of that, the OpenAPS community. All right, now, these are people you need to know appreciate the open apps world. You need to realize that a person with type 1 diabetes can die in their sleep any particular night. You know, they can even have an alarm, even if they have a digital device connected with an alarm, their blood sugar can crash so bad that they can't even hear the alarm. And so and they got tired of waiting the industry. Year after year after year, another five years will have an artificial pancreas, another five years, and a hashtag started: #WeAreNotWaiting. Now, I am I don't know any of the individuals involved, but I'll bet that every single diabetes related executive involved in this thought something along the lines of, "What are they going to do, invent their own artificial pancreas?" Well, ha, ha, ha, folks. Because as I as I imagine, you know, the first thing that happened was this great woman, Dana Lewis, had a digital insulin pump and a CGM, continuous glucose meter, and her boyfriend, who's now her husband, watched her doing the calculation she had to do before eating a hamburger or whatever and said, "I bet I could write a program that would do that."</p><p><strong>Dave deBronkart: </strong>And so they did. And one thing led to another. His program, and she had some great slides about this, over the course of a year, got really good at predicting what her blood sugar was going to be an hour later. Right. And then they said, "Hmm, well, that's interesting. So why don't I put that in a little pocket computer, a little $35 pocket computer?" The point is, they eventually got to where they said, let's try connecting these devices. All right. And to make a long story short, they now have a system, as you said, not a product, they talked to the FDA, but it's not regulated because it's not a product. Right. But they're not saying the hell with the FDA. They're keeping them informed. What are the scientific credentials of Dana Lewis and her boyfriend, Scott? Dana is a PR professional, zero medical computer or scientific skills? Zero. The whole thing was her idea. Various other people got involved and contributed to the code. It is a trap to think that because the pioneering people had special traits, it's all bogus. Those people are lacking the vision to see what the future you is going to be. See, and the beautiful thing from a disruptive standpoint is that when the person who has the problem gains access to power to create tools, they can take it in whatever direction they want. That's one of the things that happened when typesetting was killed by desktop publishing.</p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Dave deBronkart: </strong>In typesetting, they said "You people don't know what you're doing!" And the people said, whatever, dude, they invented Comic Sans, and they went off and did whatever they wanted and the world became more customer centered for them.</p><p><strong>Harry Glorikian: </strong>So. You know, this show is generally about, you know, data, Machine learning and trying to see where that's going to move the needle. I mean, do you see the artificial intelligence umbrella and everything that's under that playing a role to help patients do their own research and design their own treatments?</p><p><strong>Dave deBronkart: </strong>Maybe someday, maybe someday. But I've read enough -- I'm no expert on AI, but I've read enough to know that it's a field that is full of perils of just bad training data sets and also full of immense amounts of risk of the data being misused or misinterpreted. If you haven't yet encountered Cathy O'Neil, she's the author of this phenomenal book, Weapons of Math Destruction. And she said it's not just sloppy brain work. There is sloppy brain work in the mishandling of data in A.I., but there is malicious or ignorant, dangerously ignorant business conduct. For instance, when companies look at somebody who has a bad credit rating and therefore don't give them a chance to do this or this or this or this, and so and they actually cause harm, which is the opposite of what you would think intelligence would be used for.</p><p><strong>Harry Glorikian: </strong>So but then, on the opposite side, because I talk about some of these different applications and tools in in the book where, you know, something like Cardiogram is able to utilize analytics to identify, like it alerted me and said "You know, you might have sleep apnea." Right. And it can also detect an arrhythmia, just like the Apple Watch does, or what's the other one? Oh, it can also sort of alert you to potentially being prediabetic. Right. And so you are seeing, I am seeing discrete use cases where you're seeing a movement forward in the field based on the analytics that can be done on that set of data. So I think I don't want to paint the whole industry as bad, but I think it's in an evolutionary state.</p><p><strong>Dave deBronkart: </strong>Absolutely. Yes. We are at the dawn of this era, there's no question. We don't yet have much. We're just going to have to discover what pans out. Really, I. Were you referring to the Cardia, the Acor, the iPhone EKG device a moment ago?</p><p><strong>Harry Glorikian: </strong>No, there's there's actually an, I've got one here, which is the you know...</p><p><strong>Dave deBronkart: </strong>That's it. That's the mobile version. Exactly. Yeah. Now, I have a friend, a physician friend at Beth Israel Deaconess, who was I just rigidly absolutely firmly trust this guy's brain intelligence and not being pigheaded, he was at first very skeptical that anything attached to an iPhone could be clinically useful. But he's an E.R. doc and he now himself will use that in the E.R. Put the patient's fingers on those electrodes and and send it upstairs because the information, when they're admitting somebody in a crisis, the information gets up there quicker than if he puts it in the EMR.</p><p><strong>Harry Glorikian: </strong>Well, you know, I always try to tell people like these devices, you know, they always say it's not good enough, it's not good enough. And I'm like, it's not good enough today. But it's getting better tomorrow and the next day. And then they're going to improve the sensor. And, yep, you know, the speed of these changes is happening. It's not a 10 year shift. It's it's happening in days, weeks, months, maybe years. But, you know, this is a medical device on my arm as far as I'm concerned.</p><p><strong>Harry Glorikian: </strong>It's a device that does medical-related things. It certainly doesn't meet the FDA's definition of a medical device that requires certification and so on. Now, for all I know, maybe two thirds of the FDA's criteria are bogus. And we know that companies and lobbyists have gamed the system. It's an important book that I read maybe five years ago when it was new, was An American Sickness about the horrifying impacts of the money aspect of health care. And she talked about, when she was talking specifically about device certification, she talked about how some company superbly, and I don't know if they laughed over their three martini lunch or what, some company superbly got something approved by the FDA as saying, we don't need to test this because it's the same as something else.</p><p><strong>Harry Glorikian: </strong>Ok, equivalence.</p><p><strong>Dave deBronkart: </strong>And also got a patent on the same thing for being completely new. Right. Which is not possible. And yet they managed to win the argument in both cases. So but the this is not a medical device, but it is, gives me useful information. Maybe we should call it a health device.</p><p><strong>Harry Glorikian: </strong>Right. Yeah, I mean, there are certain applications that are, you know, cleared by the FDA right now, but, you know, I believe what it's done is it's allowing these companies to gather data and understand where how good the systems are and then apply for specific clearances based on when the system gets good enough, if that makes sense.</p><p><strong>Dave deBronkart: </strong>Yes. Now, one thing I do want to say, there's an important thing going on in the business world, those platforms. You know, companies like Airbnb, Uber, whatever, where they are, a big part of their business, the way they create value is to understand you better by looking at your behavior and not throwing so much irrelevant crap at you. Now, we all know this as it shows up. As you know, you buy something on Amazon and you immediately get flooded by ads on Facebook for the thing that you already bought, for heaven's sake. I mean, how stupid is that? But anyway, I think it's toxic and should be prohibited by law for people to collect health data from your apps and then monetize it. I think that should be completely unacceptable. My current day job is for this company called Pocket Health, where they collect a patient's radiology images for the patient so the patient can have 24/7 access in the cloud. And when I joined there, a friend said, oh, I gather they must make their money by selling the data. Right? And I asked one of the two founding brothers, and he was appalled. That's just not what they do. They have another part of the company. And anybody who gets any medical device, any device to track their health should make certain that the company agrees not to sell it.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll   like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available for pre-order. Just go to Amazon and search for The Future You, Harry Glorikian.</p><p>Thanks. And now back to our show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>You mentioned FHIR or, you know, if I had to spell it out for people, it's Fast Healthcare Interoperability Resource standard from, I think, it's the Health Level 7 organization. What is FHIR? Where did it come from and what does it really enable?</p><p><strong>Dave deBronkart: </strong>So I'll give you my impression, which I think is pretty good, but it may not be the textbook definition. So FHIR is a software standard, very analogous to HTTP and HTML for moving data around the same way those things move data around on the Web. And this is immensely, profoundly different from the clunky, even if possible, old way of moving data between, say, an Epic system, a Cerner system, a Meditech system nd so on. And the it's a standard that was designed and started five or six years ago by an Australian guy named Graham Grieve. A wonderful man. And as he developed it, he offered it to HL7, which is a very big international standards organization, as long as they would make it free forever to everyone. And the important thing about it is that, as required now by the final rule that we were discussing, every medical record system installed at a hospital that wants to get government money for doing health care for Medicare or Medicaid, has to have what's called a FHIR endpoint. And a FHIR endpoint is basically just a plug on it where you can, or an Internet address, the same way you can go to Adobe.com and get whatever Adobe sends you, you can go to the FHIR endpoint with your login credentials and say, give me this patient's health data. That's it. It works. It already works. That's what I use in that My Patient Link app that I mentioned earlier.</p><p><strong>Harry Glorikian: </strong>So just to make it clear to someone that say that's listening, what does the average health care consumer need to know about it, if anything, other than it's accessible? And what's the part that makes you most excited about it?</p><p><strong>Harry Glorikian: </strong>Well, well, well. What people need to know about it is it's a new way. Just like when your hospital got a website, it's a new way for apps to get your data out of the hospital. So when you want it, you know that it has to be available that way. Ironically, my hospital doesn't have a FHIR endpoint yet. Beth Israel Deaconess. But they're required to by the end of the year. What makes me excited about it is that... So really, the universal principle for everything we've discussed is that knowledge is power. More precisely, knowledge enables power. You can give me a ton of knowledge and I might not know what to do with it, but without the knowledge, I'm disempowered. There's no dispute about that. So it will become possible now for software developers to create useful tools for you and your family that would not have been possible 15 years ago or five years ago without FHIR. In fact, it's ironic because one of the earliest speeches I gave in Washington, I said to innovators, data is fuel. Right. We talked about Quicken and Mint. Quicken would have no value to anybody if they couldn't get at your bank information. Right. And that's that would have prevented. So we're going to see new tools get developed that will be possible because of FHIR and the fact that the federal regulations require it.</p><p><strong>Harry Glorikian: </strong>Yeah, my first one of my first bosses actually, like the most brilliant boss, I remember him telling me one at one time, he goes, "Remember something: Knowledge is power." I must have been 19 when he told me that. And I was, you know, it took me a little while to get up to speed on what he meant by that. But so do you believe FHIR is a better foundation for accessing health records than previous attempts like Google Health or Microsoft Health Vault?</p><p><strong>Dave deBronkart: </strong>Well, those are apples and oranges. FHIR is a way of moving the data around. Several years into my "Give me my damn data" campaign, I did a blog post that was titled I Want a Health Data Spigot. I want to be able to connect the garden hose to one place and get all my data flowing. Well, that's what FHIR is now. What's at the other end of the hose? You know, different buckets, drinking glasses, whatever. That's more analogous to Google Health and Health Vault. Google Health and Health Vault might have grown into something useful if they could get all the important information out there, which it turns out was not feasible back then anyway. But that's what's going to happen.</p><p><strong>Harry Glorikian: </strong>What is the evolution you'd like to see in the relationship between the patient and the U.S. health care systems? You know, you once said the key to be would get the money managers out of the room. You know, if you had to sort of think about what you'd want it to evolve to, what would it be?</p><p><strong>Dave deBronkart: </strong>Well, so. There are at least two different issues involved in this. First of all, in terms of the practice of medicine, the paradigm of patient that I mentioned, collaboration, you know, collaboration, including training doctors and nurses on the feasibility and methods of collaboration. How do you do this differently? That won't happen fast because the you know, the I mean, the curriculum in medical schools doesn't change fast. But we do have mid career education and we have people learning practical things. So there's a whole separate issue of the financial structure of the U.S. health system, which is the only one I know in the world that is composed of thousands of individual financially separate organizations, each of which has managers who are required by law to protect their own finances. And the missing ingredient is that as all these organizations manage their own finances, nobody anywhere is accountable for whether care is achieved. Nobody can be fired or fined or put out of business for failing to get the patient taken care of as somebody should have. And so those are those are two separate problems. My ideal world is, remember a third of the US health care spending is excess and somebody a couple of years ago...Guess what? A third of the US health care spending is the insurance companies. Now, maybe the insurance companies are all of the waste. I don't know. I'm not that well-informed. But my point is there is plenty of money there already being spent that would support doctors and nurses spending more time with you and me beyond the 12 or 15 minutes that they get paid for.</p><p><strong>Harry Glorikian: </strong>So it's interesting, right? I mean, the thing that I've sort of my bully pulpit for, for a long time has been, once you digitize everything, it doesn't mean you have to do everything the same way. Which opens up, care may not have to be given in the same place. The business model may now be completely open to shift, as we've seen with the digitization of just about every other business. And so I you know, I worry that the EMRs are holding back innovation and we're seeing a lot of innovation happen outside of the existing rubric, right, the existing ivory towers, when you're seeing drug development using A.I. and machine learning, where we're seeing imaging or pathology scans. I mean, all of those are happening by companies that are accessing this digitized data and then providing it in a different format. But it's not necessarily happening inside those big buildings that are almost held captive by the EMR. Because if you can't access the data, it's really hard to take it to that next level of analytics that you'd like to take it to.</p><p><strong>Dave deBronkart: </strong>Yes, absolutely.</p><p><strong>Harry Glorikian: </strong>I mean, just throwing that out there, I know we've been talking about the system in particular, but I feel that there's the edges of the system aren't as rigid as they used to be. And I think we have a whole ecosystem that's being created outside of it.</p><p><strong>Harry Glorikian: </strong>Absolutely. And the when information can flow you get an increasing number of parties who can potentially do something useful with it, create value with it. And I'm not just talking about financial value, but achieve a cure or something like that. You know, interestingly, when the industry noticed what the open apps people were doing, all of a sudden you could no longer buy a CGM that had the ability to export the data.</p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Dave deBronkart: </strong>Hmm. So somebody is not so happy about that. When an increasing number of people can get out data and combine it with their other ideas and skills and try things, then the net number of new innovations will come along. Dana Lewis has a really important slide that she uses in some presentations, and it ties in exactly with Erich von Hippel's user driven innovation, which of course, shows up in health care as patient driven innovation. The traditional industrial model that von Hippel talks about is if you're going to make a car, if you're going to be a company going into the car business, you start by designing the chassis and doing the wheels and designing the engine and so on and so on. And you do all that investment and you eventually get to where you've got a car. All right. Meanwhile, Dana shows a kid on a skateboard who can get somewhere on the skateboard and then somebody comes up with the idea of putting a handle on it. And now you've scooter. Right. And so on. The user driven innovations at every moment are producing value for the person who has the need.</p><p><strong>Harry Glorikian: </strong>Right. And that's why I believe that, you know, now that we've gotten to sort of that next level of of datafication of health care, that these centers have gotten cheaper, easier, more accessible. You know, like I said, I've got a CGM on my arm. Data becomes much more accessible. FHIR has made it easier to gain access to my health record. And I can share it with an app that might make that data more interpretable to me. This is what I believe is really sort of moving the needle in health care, are people like Matthew Might doing his own work where it's it's changing that. And that's truly what I try to cover in the book, is how these data [that] are now being made accessible to patients gives them the opportunity to manage their own health in a better way or more accurately and get ahead of the warning light going on before the car breaks down. But one of the things I will say is, you know, I love my doctor, but, you know, having my doctor as a partner in this is makes it even even better than rather than just me trying to do anything on my own. </p><p><strong>Dave deBronkart: </strong>Of course, of course. Dr. Sands is fond of saying "I have the medical training or diagnosis and treatment and everything, but Dave's the one who's the expert on what's happening in his life." Right. And and I'm the expert on my own priorities.</p><p><strong>Harry Glorikian: </strong>Right. Which I can't expect. I mean, my doctor has enough people to worry about, let alone like, me being his sole, the only thing he needs to think about. So, Dave, this was great. It was great having you on the show. I hope this is one of many conversations that we can have going forward, because I'm sure there's going to be different topics that we could cover. So I appreciate you taking the time and being on the show.</p><p><strong>Dave deBronkart: </strong>Well, and same to you. The this has been a very stimulating I mean, and the you've got the vision of the arriving future that is informed by where we're coming from, but not constrained by the old way of thinking. And that really matters. The reality, the emerging reality, whether anybody knows it or not, is that people with a big problem are able to act now in ways that they weren't before. I mean, another amazing example is a guy in England named Tal Golesworthy has Marfan syndrome. And one problem that people with Marfan syndrome face is aortic dissection. The walls of the aorta split open and it can be pretty quickly fatal. And he describes himself in his TED talk as a boiler engineer. And he says when we have a weak pipe, we wrap it. So he came up with the idea of exporting his CAT scan data or the MRI data of his beating heart and custom printing a fabric mesh to wrap around his aorta. And it's become and medically accepted treatment now. </p><p><strong>Harry Glorikian: </strong>That's awesome, right.</p><p><strong>Dave deBronkart: </strong>This is the data in the hands of somebody with no medical training, just. But see, that's the point. That's the point. He enabled by the data, is able to create real value, and it's now an accepted treatment that's called PEARS and it's been done hundreds of times. And, you know, here's a beautiful, it's sort of like the Dana Lewis skateboard scooter progression, years later, a subsequent scan discovered something unexpected. The mesh fabric has migrated into the wall of his aorta. So he hadn't he now has a know what doctor, what hospital, what medical device company would have ever dreamed of trying to create that? That's the beauty of liberation when data gets into the hands of the innovators.</p><p><strong>Harry Glorikian: </strong>Well, that's something that everybody can take away from today is at least thinking about their data, how it can help them manage their health better or their life better. Obviously, I always say, in cahoots with your doctor, because they have very specific knowledge, but having the data and managing yourself is better than not having the data and not understanding how to manage yourself. So on that note, Dave, thank you so much for the time today. It was great.</p><p><strong>Dave deBronkart: </strong>Thank you very much. See you next time.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
]]></description>
      <pubDate>Tue, 12 Oct 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Dave deBronkart, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Today we bring you the second half of Harry's conversation with Dave deBronkart, better known as E-Patient Dave for all the work he’s done to help empower patients to be more involved in their own healthcare. </p><p>If you missed Part 1 of our interview with Dave, we recommend that you check that out before listening to this one. In that part, we talked about how Dave’s own brush with cancer in 2007 turned him from a regular patient into a kind of super-patient, doing the kind of research to find the medication that ultimately saved his life. And we heard from Dave how the healthcare system in the late 2000s was completely unprepared to help consumers like him who want to access and understand their own data.</p><p>Today in Part 2, we’ll talk about how all of that is gradually changing, and why new technologies and standards have the potential to open up a new era of participatory medicine – <i>if</i>, that is, patients are willing to do a little more work to understand their health data, if innovators can get better access to that data, and if doctors are willing to create a partnership with the patients over the process of diagnosis and treatment.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>Hello. I’m Harry Glorikian.Welcome to The Harry Glorikian Show, the interview podcast that explores how technology is changing everything we know about healthcare.</p><p>Artificial intelligence.</p><p>Big data.</p><p>Predictive analytics.</p><p>In fields like these, breakthroughs are happening much faster than most people realize. If you want to be proactive about your own healthcare and the healthcare of your loved ones, you’ll need to some of these new tips and techniques of how medicine is changing and how you can take advantage of all the new options.</p><p>Explaining this approaching world is the mission of the new book I have coming out soon, <i>The Future You</i>. And it’s also our theme here on the show, where we’ll bring you conversations with the innovators, caregivers, and patient advocates who are transforming the healthcare system and working to push it in positive directions.</p><p>In the previous episode we met Dave deBronkart, better known as E-Patient Dave for all the work he’s done to help empower patients to be more involved in their own healthcare. If you missed it, I’m gonna recommend that you listen to the first discussion, and then come back here.</p><p>We talked about how Dave’s own brush with cancer in 2007 turned him from a regular patient into a kind of super-patient, doing the kind of research to find the medication that ultimately saved his life. And we heard from Dave how the healthcare system in the late 2000s was completely unprepared to help consumers like him who want to access and understand their own data.</p><p>Today in Part 2, we’ll talk about how all of that is gradually changing, and why new technologies and standards have the potential to open up a new era of participatory medicine – <i>if</i>, that is, patients are willing to do a little more work to understand their health data, if innovators can get better access to that data, and if doctors are willing to create a partnership with the patients over the process of diagnosis and treatment.</p><p>We’ll pick up the conversation at a spot where we were talking about that control and the different forms it’s taken over the years.</p><p><strong>Harry Glorikian:</strong> You've observed like that there's some that there's this kind of inversion going on right now where for centuries doctors had sole control over patient data and sole claims to knowledge and authority about how patients should be treated. But now patients may have more detailed, more relevant and more up to date data than your doctors does. Right. You've talked about this as a Kuhnian paradigm shift, if I remember correctly, where patients are the anomalies, helping to tear down an old paradigm, you know. Walk us through the history here. What was the old paradigm and what's the new paradigm and what are you some of your favorite examples of this paradigm shift?</p><p><strong>Dave deBronkart: </strong>Well, so I want to be clear here. I have the deepest admiration for doctors, for physicians and for licensed practitioners at all levels for the training that they went through. I don't blame any of this on any of them. I did a fair amount of study about what paradigms are Thomas Kuhn's epic book The Structure of Scientific Revolutions, like discovering that the Earth isn't the center of the solar system and things like that. The paradigm is an agreement in a scientific field about how things work. And it is the platform, the theoretical model on which all research and further study is done. And these anomalies arise when scientists operating in the field keep finding outcomes that disagree with what the paradigm says. So in the case of the planets circling the earth and the how the solar system works. They discovered that Mars and other planets all of a sudden would stop orbiting and when they would do a little loop de loop. I mean, that's what they observed. And they came up with more and more tortured explanations until finally, finally, somebody said, hey, guess what? We're all orbiting the sun. Now, the paradigm inn health care has been that the physician has important knowledge. Lord knows that's true. The physician has important knowledge and the patient doesn't and can't. Therefore, patient should do as they're told, so called compliance, and should not interfere with the doctors doing their work. Well, now along comes things like all of those things that I mentioned that the patient community told me at the beginning of my cancer. None of that is in the scientific literature. Even here, 15 years later, none of it's in the literature. What's going on here? Here's that first clunk in the paradigm. Right. And we have numerous cases of patients who assisted with the diagnosis. Patients who invented their own treatment. And the shift, the improvement in the paradigm that we have to, where just any scientific thinker -- and if you want to be a doctor and you don't want to be a scientific thinker, then please go away -- any scientific thinker has to accept is that it's now real and legitimate that the patient can be an active person in healthcare.</p><p><strong>Dave deBronkart: </strong>Yeah, I mean, you've said you don't have to be a scientist or a doctor anymore to create a better way to manage a condition. So, I mean, it's interesting, right? Because I always think that my doctor and I are partners in this together.</p><p><strong>Dave deBronkart: </strong>Good participatory medicine. Perfect.</p><p><strong>Harry Glorikian: </strong>You know, he has knowledge in certain places I definitely don't. But there are things where him and I, you know, do talk about things that were like, you know, we need to look into that further. Now, I'm lucky I've got a curious doctor. I found somebody that I can partner with and that I can think about my own health care in a sort of different way. But I mean, sometimes he doesn't have all the answers and we have to go search out something. You know, I was asking him some questions about HRV the other day that, you know, he's like, huh, let me let me ask a few cardiologists, you know, to get some input on this. So do you see that, I mean, I see that as the most desired outcome, where a patient can have their record. They're not expected to go and become a physician at that level of depth, but that the physicians who also have the record can work in a participatory way with the patient and get to a better outcome.</p><p><strong>Dave deBronkart: </strong>Exactly. And the other thing that's happened is and I've only recently in the last year come to realize we are at the end of a century that is unique in the history of humanity until science got to a certain point in the late 1800s, most doctors, as caring as they were, had no knowledge of what was going wrong in the body with different diseases. And then and that began a period of many decades where doctors really did know important things that patients had no access to. But that era has ended. All right, we now have more information coming out every day than anyone can be expected to keep up with. And we now are at a point also where we've seen stories for decades of patients who were kept alive. But at what cost? Right. Well, and we now we are now entering the point where the definition of best care cannot be made without involving the patient and their priorities. So this is the new world we're evolving into, like and Dr. Sands wears a button in clinic that says what matters to you?</p><p><strong>Harry Glorikian: </strong>So I mean, one of the other, based on where you're going with this, I think is you know, there are some movements that have been arising over the years. I don't know, maybe you could talk about one of them, which is OpenAPS. It's an unregulated, open source project to build an artificial pancreas to help people with type 1 diabetes. And I think it was Erich von Hippel's work on patient driven innovation. I talk in my book about, and I ask whether we should be training people to be better patients in the era of, say, A.I. and other technologies. What do you think could be done better to equip the average patient with to demand access to patient data, ask their doctors more important questions, get answers in plain English. You know, be more collaborative. What do you think is going to move us in that direction faster or more efficiently, let's say?</p><p><strong>Dave deBronkart: </strong>Well, I want to be careful about the word better, because I'm very clear that my preferences are not everyone's preferences. Really, you know, autonomy means every person gets to define their own priorities. And another thing is one of the big pushbacks from the hospital industry over the last 10 years as medical records, computers were shoved down their throats along with the mandate that they have to let patients see their data in the patient portal was a complaint that most patients aren't interested. Well, indeed, you know, I've got sorry news for you. You know, when I worked in the graphic arts industry, I worked in marketing, people don't change behavior or start doing something new until they've got a problem. If it's fun or sexy, you know, then they'll change, they'll start doing something new. What we need to do is make it available to people. And then when needs arise, that gets somebody's attention and they're like, holy crap, what's happening to my kid? Right. If they know that they can be involved, then they can start to take action. They can learn how to take action. It's having the infrastructure available, having the app ecosystem start to grow, and then just having plain old awareness. Who knows? Maybe someday there will be a big Hollywood movie where people where people learn about stories like that and. You know, from that I mean that I think nature will take its course.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting because I recently interviewed a gentleman by the name of Matthew Might. He's a computer scientist who became a surrogate patient advocate for his son, Bertrand, who had a rare and undiagnosed genetic disorder that left him without an enzyme that breaks down junk protein in the cells. But he, you know, jumped in there. He did his own research found in over-the-counter drug, Prevacid of all drugs., that could help with Bertrand's deficiency. But, I mean, Dave, you know, Matt is a, he was a high-powered computer scientist who wasn't afraid to jump in and bathe in that, you know. Is that the type of person we need? Is that a cautionary tale, or an inspiring tale? How do you think about that?</p><p><strong>Dave deBronkart: </strong>Desperate people will bring whatever they have to the situation. And this is no different from, you know, there have been very ordinary people who had saved lives at a car crash because they got training about how to on how to stop bleeding as a Boy Scout. You know, it is a mental trap to say, "But you're different." Ok. Some people said, "Well, Dave, you're an MIT graduate, my patients aren't like you." And people say, well, yeah, but Matt Might is a brilliant PhD type guy. What you mentioned few minutes before gives the lie to all of that, the OpenAPS community. All right, now, these are people you need to know appreciate the open apps world. You need to realize that a person with type 1 diabetes can die in their sleep any particular night. You know, they can even have an alarm, even if they have a digital device connected with an alarm, their blood sugar can crash so bad that they can't even hear the alarm. And so and they got tired of waiting the industry. Year after year after year, another five years will have an artificial pancreas, another five years, and a hashtag started: #WeAreNotWaiting. Now, I am I don't know any of the individuals involved, but I'll bet that every single diabetes related executive involved in this thought something along the lines of, "What are they going to do, invent their own artificial pancreas?" Well, ha, ha, ha, folks. Because as I as I imagine, you know, the first thing that happened was this great woman, Dana Lewis, had a digital insulin pump and a CGM, continuous glucose meter, and her boyfriend, who's now her husband, watched her doing the calculation she had to do before eating a hamburger or whatever and said, "I bet I could write a program that would do that."</p><p><strong>Dave deBronkart: </strong>And so they did. And one thing led to another. His program, and she had some great slides about this, over the course of a year, got really good at predicting what her blood sugar was going to be an hour later. Right. And then they said, "Hmm, well, that's interesting. So why don't I put that in a little pocket computer, a little $35 pocket computer?" The point is, they eventually got to where they said, let's try connecting these devices. All right. And to make a long story short, they now have a system, as you said, not a product, they talked to the FDA, but it's not regulated because it's not a product. Right. But they're not saying the hell with the FDA. They're keeping them informed. What are the scientific credentials of Dana Lewis and her boyfriend, Scott? Dana is a PR professional, zero medical computer or scientific skills? Zero. The whole thing was her idea. Various other people got involved and contributed to the code. It is a trap to think that because the pioneering people had special traits, it's all bogus. Those people are lacking the vision to see what the future you is going to be. See, and the beautiful thing from a disruptive standpoint is that when the person who has the problem gains access to power to create tools, they can take it in whatever direction they want. That's one of the things that happened when typesetting was killed by desktop publishing.</p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Dave deBronkart: </strong>In typesetting, they said "You people don't know what you're doing!" And the people said, whatever, dude, they invented Comic Sans, and they went off and did whatever they wanted and the world became more customer centered for them.</p><p><strong>Harry Glorikian: </strong>So. You know, this show is generally about, you know, data, Machine learning and trying to see where that's going to move the needle. I mean, do you see the artificial intelligence umbrella and everything that's under that playing a role to help patients do their own research and design their own treatments?</p><p><strong>Dave deBronkart: </strong>Maybe someday, maybe someday. But I've read enough -- I'm no expert on AI, but I've read enough to know that it's a field that is full of perils of just bad training data sets and also full of immense amounts of risk of the data being misused or misinterpreted. If you haven't yet encountered Cathy O'Neil, she's the author of this phenomenal book, Weapons of Math Destruction. And she said it's not just sloppy brain work. There is sloppy brain work in the mishandling of data in A.I., but there is malicious or ignorant, dangerously ignorant business conduct. For instance, when companies look at somebody who has a bad credit rating and therefore don't give them a chance to do this or this or this or this, and so and they actually cause harm, which is the opposite of what you would think intelligence would be used for.</p><p><strong>Harry Glorikian: </strong>So but then, on the opposite side, because I talk about some of these different applications and tools in in the book where, you know, something like Cardiogram is able to utilize analytics to identify, like it alerted me and said "You know, you might have sleep apnea." Right. And it can also detect an arrhythmia, just like the Apple Watch does, or what's the other one? Oh, it can also sort of alert you to potentially being prediabetic. Right. And so you are seeing, I am seeing discrete use cases where you're seeing a movement forward in the field based on the analytics that can be done on that set of data. So I think I don't want to paint the whole industry as bad, but I think it's in an evolutionary state.</p><p><strong>Dave deBronkart: </strong>Absolutely. Yes. We are at the dawn of this era, there's no question. We don't yet have much. We're just going to have to discover what pans out. Really, I. Were you referring to the Cardia, the Acor, the iPhone EKG device a moment ago?</p><p><strong>Harry Glorikian: </strong>No, there's there's actually an, I've got one here, which is the you know...</p><p><strong>Dave deBronkart: </strong>That's it. That's the mobile version. Exactly. Yeah. Now, I have a friend, a physician friend at Beth Israel Deaconess, who was I just rigidly absolutely firmly trust this guy's brain intelligence and not being pigheaded, he was at first very skeptical that anything attached to an iPhone could be clinically useful. But he's an E.R. doc and he now himself will use that in the E.R. Put the patient's fingers on those electrodes and and send it upstairs because the information, when they're admitting somebody in a crisis, the information gets up there quicker than if he puts it in the EMR.</p><p><strong>Harry Glorikian: </strong>Well, you know, I always try to tell people like these devices, you know, they always say it's not good enough, it's not good enough. And I'm like, it's not good enough today. But it's getting better tomorrow and the next day. And then they're going to improve the sensor. And, yep, you know, the speed of these changes is happening. It's not a 10 year shift. It's it's happening in days, weeks, months, maybe years. But, you know, this is a medical device on my arm as far as I'm concerned.</p><p><strong>Harry Glorikian: </strong>It's a device that does medical-related things. It certainly doesn't meet the FDA's definition of a medical device that requires certification and so on. Now, for all I know, maybe two thirds of the FDA's criteria are bogus. And we know that companies and lobbyists have gamed the system. It's an important book that I read maybe five years ago when it was new, was An American Sickness about the horrifying impacts of the money aspect of health care. And she talked about, when she was talking specifically about device certification, she talked about how some company superbly, and I don't know if they laughed over their three martini lunch or what, some company superbly got something approved by the FDA as saying, we don't need to test this because it's the same as something else.</p><p><strong>Harry Glorikian: </strong>Ok, equivalence.</p><p><strong>Dave deBronkart: </strong>And also got a patent on the same thing for being completely new. Right. Which is not possible. And yet they managed to win the argument in both cases. So but the this is not a medical device, but it is, gives me useful information. Maybe we should call it a health device.</p><p><strong>Harry Glorikian: </strong>Right. Yeah, I mean, there are certain applications that are, you know, cleared by the FDA right now, but, you know, I believe what it's done is it's allowing these companies to gather data and understand where how good the systems are and then apply for specific clearances based on when the system gets good enough, if that makes sense.</p><p><strong>Dave deBronkart: </strong>Yes. Now, one thing I do want to say, there's an important thing going on in the business world, those platforms. You know, companies like Airbnb, Uber, whatever, where they are, a big part of their business, the way they create value is to understand you better by looking at your behavior and not throwing so much irrelevant crap at you. Now, we all know this as it shows up. As you know, you buy something on Amazon and you immediately get flooded by ads on Facebook for the thing that you already bought, for heaven's sake. I mean, how stupid is that? But anyway, I think it's toxic and should be prohibited by law for people to collect health data from your apps and then monetize it. I think that should be completely unacceptable. My current day job is for this company called Pocket Health, where they collect a patient's radiology images for the patient so the patient can have 24/7 access in the cloud. And when I joined there, a friend said, oh, I gather they must make their money by selling the data. Right? And I asked one of the two founding brothers, and he was appalled. That's just not what they do. They have another part of the company. And anybody who gets any medical device, any device to track their health should make certain that the company agrees not to sell it.</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll   like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book is now available for pre-order. Just go to Amazon and search for The Future You, Harry Glorikian.</p><p>Thanks. And now back to our show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>You mentioned FHIR or, you know, if I had to spell it out for people, it's Fast Healthcare Interoperability Resource standard from, I think, it's the Health Level 7 organization. What is FHIR? Where did it come from and what does it really enable?</p><p><strong>Dave deBronkart: </strong>So I'll give you my impression, which I think is pretty good, but it may not be the textbook definition. So FHIR is a software standard, very analogous to HTTP and HTML for moving data around the same way those things move data around on the Web. And this is immensely, profoundly different from the clunky, even if possible, old way of moving data between, say, an Epic system, a Cerner system, a Meditech system nd so on. And the it's a standard that was designed and started five or six years ago by an Australian guy named Graham Grieve. A wonderful man. And as he developed it, he offered it to HL7, which is a very big international standards organization, as long as they would make it free forever to everyone. And the important thing about it is that, as required now by the final rule that we were discussing, every medical record system installed at a hospital that wants to get government money for doing health care for Medicare or Medicaid, has to have what's called a FHIR endpoint. And a FHIR endpoint is basically just a plug on it where you can, or an Internet address, the same way you can go to Adobe.com and get whatever Adobe sends you, you can go to the FHIR endpoint with your login credentials and say, give me this patient's health data. That's it. It works. It already works. That's what I use in that My Patient Link app that I mentioned earlier.</p><p><strong>Harry Glorikian: </strong>So just to make it clear to someone that say that's listening, what does the average health care consumer need to know about it, if anything, other than it's accessible? And what's the part that makes you most excited about it?</p><p><strong>Harry Glorikian: </strong>Well, well, well. What people need to know about it is it's a new way. Just like when your hospital got a website, it's a new way for apps to get your data out of the hospital. So when you want it, you know that it has to be available that way. Ironically, my hospital doesn't have a FHIR endpoint yet. Beth Israel Deaconess. But they're required to by the end of the year. What makes me excited about it is that... So really, the universal principle for everything we've discussed is that knowledge is power. More precisely, knowledge enables power. You can give me a ton of knowledge and I might not know what to do with it, but without the knowledge, I'm disempowered. There's no dispute about that. So it will become possible now for software developers to create useful tools for you and your family that would not have been possible 15 years ago or five years ago without FHIR. In fact, it's ironic because one of the earliest speeches I gave in Washington, I said to innovators, data is fuel. Right. We talked about Quicken and Mint. Quicken would have no value to anybody if they couldn't get at your bank information. Right. And that's that would have prevented. So we're going to see new tools get developed that will be possible because of FHIR and the fact that the federal regulations require it.</p><p><strong>Harry Glorikian: </strong>Yeah, my first one of my first bosses actually, like the most brilliant boss, I remember him telling me one at one time, he goes, "Remember something: Knowledge is power." I must have been 19 when he told me that. And I was, you know, it took me a little while to get up to speed on what he meant by that. But so do you believe FHIR is a better foundation for accessing health records than previous attempts like Google Health or Microsoft Health Vault?</p><p><strong>Dave deBronkart: </strong>Well, those are apples and oranges. FHIR is a way of moving the data around. Several years into my "Give me my damn data" campaign, I did a blog post that was titled I Want a Health Data Spigot. I want to be able to connect the garden hose to one place and get all my data flowing. Well, that's what FHIR is now. What's at the other end of the hose? You know, different buckets, drinking glasses, whatever. That's more analogous to Google Health and Health Vault. Google Health and Health Vault might have grown into something useful if they could get all the important information out there, which it turns out was not feasible back then anyway. But that's what's going to happen.</p><p><strong>Harry Glorikian: </strong>What is the evolution you'd like to see in the relationship between the patient and the U.S. health care systems? You know, you once said the key to be would get the money managers out of the room. You know, if you had to sort of think about what you'd want it to evolve to, what would it be?</p><p><strong>Dave deBronkart: </strong>Well, so. There are at least two different issues involved in this. First of all, in terms of the practice of medicine, the paradigm of patient that I mentioned, collaboration, you know, collaboration, including training doctors and nurses on the feasibility and methods of collaboration. How do you do this differently? That won't happen fast because the you know, the I mean, the curriculum in medical schools doesn't change fast. But we do have mid career education and we have people learning practical things. So there's a whole separate issue of the financial structure of the U.S. health system, which is the only one I know in the world that is composed of thousands of individual financially separate organizations, each of which has managers who are required by law to protect their own finances. And the missing ingredient is that as all these organizations manage their own finances, nobody anywhere is accountable for whether care is achieved. Nobody can be fired or fined or put out of business for failing to get the patient taken care of as somebody should have. And so those are those are two separate problems. My ideal world is, remember a third of the US health care spending is excess and somebody a couple of years ago...Guess what? A third of the US health care spending is the insurance companies. Now, maybe the insurance companies are all of the waste. I don't know. I'm not that well-informed. But my point is there is plenty of money there already being spent that would support doctors and nurses spending more time with you and me beyond the 12 or 15 minutes that they get paid for.</p><p><strong>Harry Glorikian: </strong>So it's interesting, right? I mean, the thing that I've sort of my bully pulpit for, for a long time has been, once you digitize everything, it doesn't mean you have to do everything the same way. Which opens up, care may not have to be given in the same place. The business model may now be completely open to shift, as we've seen with the digitization of just about every other business. And so I you know, I worry that the EMRs are holding back innovation and we're seeing a lot of innovation happen outside of the existing rubric, right, the existing ivory towers, when you're seeing drug development using A.I. and machine learning, where we're seeing imaging or pathology scans. I mean, all of those are happening by companies that are accessing this digitized data and then providing it in a different format. But it's not necessarily happening inside those big buildings that are almost held captive by the EMR. Because if you can't access the data, it's really hard to take it to that next level of analytics that you'd like to take it to.</p><p><strong>Dave deBronkart: </strong>Yes, absolutely.</p><p><strong>Harry Glorikian: </strong>I mean, just throwing that out there, I know we've been talking about the system in particular, but I feel that there's the edges of the system aren't as rigid as they used to be. And I think we have a whole ecosystem that's being created outside of it.</p><p><strong>Harry Glorikian: </strong>Absolutely. And the when information can flow you get an increasing number of parties who can potentially do something useful with it, create value with it. And I'm not just talking about financial value, but achieve a cure or something like that. You know, interestingly, when the industry noticed what the open apps people were doing, all of a sudden you could no longer buy a CGM that had the ability to export the data.</p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Dave deBronkart: </strong>Hmm. So somebody is not so happy about that. When an increasing number of people can get out data and combine it with their other ideas and skills and try things, then the net number of new innovations will come along. Dana Lewis has a really important slide that she uses in some presentations, and it ties in exactly with Erich von Hippel's user driven innovation, which of course, shows up in health care as patient driven innovation. The traditional industrial model that von Hippel talks about is if you're going to make a car, if you're going to be a company going into the car business, you start by designing the chassis and doing the wheels and designing the engine and so on and so on. And you do all that investment and you eventually get to where you've got a car. All right. Meanwhile, Dana shows a kid on a skateboard who can get somewhere on the skateboard and then somebody comes up with the idea of putting a handle on it. And now you've scooter. Right. And so on. The user driven innovations at every moment are producing value for the person who has the need.</p><p><strong>Harry Glorikian: </strong>Right. And that's why I believe that, you know, now that we've gotten to sort of that next level of of datafication of health care, that these centers have gotten cheaper, easier, more accessible. You know, like I said, I've got a CGM on my arm. Data becomes much more accessible. FHIR has made it easier to gain access to my health record. And I can share it with an app that might make that data more interpretable to me. This is what I believe is really sort of moving the needle in health care, are people like Matthew Might doing his own work where it's it's changing that. And that's truly what I try to cover in the book, is how these data [that] are now being made accessible to patients gives them the opportunity to manage their own health in a better way or more accurately and get ahead of the warning light going on before the car breaks down. But one of the things I will say is, you know, I love my doctor, but, you know, having my doctor as a partner in this is makes it even even better than rather than just me trying to do anything on my own. </p><p><strong>Dave deBronkart: </strong>Of course, of course. Dr. Sands is fond of saying "I have the medical training or diagnosis and treatment and everything, but Dave's the one who's the expert on what's happening in his life." Right. And and I'm the expert on my own priorities.</p><p><strong>Harry Glorikian: </strong>Right. Which I can't expect. I mean, my doctor has enough people to worry about, let alone like, me being his sole, the only thing he needs to think about. So, Dave, this was great. It was great having you on the show. I hope this is one of many conversations that we can have going forward, because I'm sure there's going to be different topics that we could cover. So I appreciate you taking the time and being on the show.</p><p><strong>Dave deBronkart: </strong>Well, and same to you. The this has been a very stimulating I mean, and the you've got the vision of the arriving future that is informed by where we're coming from, but not constrained by the old way of thinking. And that really matters. The reality, the emerging reality, whether anybody knows it or not, is that people with a big problem are able to act now in ways that they weren't before. I mean, another amazing example is a guy in England named Tal Golesworthy has Marfan syndrome. And one problem that people with Marfan syndrome face is aortic dissection. The walls of the aorta split open and it can be pretty quickly fatal. And he describes himself in his TED talk as a boiler engineer. And he says when we have a weak pipe, we wrap it. So he came up with the idea of exporting his CAT scan data or the MRI data of his beating heart and custom printing a fabric mesh to wrap around his aorta. And it's become and medically accepted treatment now. </p><p><strong>Harry Glorikian: </strong>That's awesome, right.</p><p><strong>Dave deBronkart: </strong>This is the data in the hands of somebody with no medical training, just. But see, that's the point. That's the point. He enabled by the data, is able to create real value, and it's now an accepted treatment that's called PEARS and it's been done hundreds of times. And, you know, here's a beautiful, it's sort of like the Dana Lewis skateboard scooter progression, years later, a subsequent scan discovered something unexpected. The mesh fabric has migrated into the wall of his aorta. So he hadn't he now has a know what doctor, what hospital, what medical device company would have ever dreamed of trying to create that? That's the beauty of liberation when data gets into the hands of the innovators.</p><p><strong>Harry Glorikian: </strong>Well, that's something that everybody can take away from today is at least thinking about their data, how it can help them manage their health better or their life better. Obviously, I always say, in cahoots with your doctor, because they have very specific knowledge, but having the data and managing yourself is better than not having the data and not understanding how to manage yourself. So on that note, Dave, thank you so much for the time today. It was great.</p><p><strong>Dave deBronkart: </strong>Thank you very much. See you next time.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s episode. </p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com, under the tab Podcasts.</p><p>Don’t forget to go to Apple Podcasts to leave a rating and review for the show.</p><p>You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p>
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      <itunes:title>A New Era of Participatory Medicine: Talking with E-Patient Dave, Part 2</itunes:title>
      <itunes:author>Dave deBronkart, Harry Glorikian</itunes:author>
      <itunes:duration>00:44:32</itunes:duration>
      <itunes:summary>Today we bring you the second half of Harry&apos;s conversation with Dave deBronkart, better known as E-Patient Dave for all the work he’s done to help empower patients to be more involved in their own healthcare. In Part 1, we talked about how Dave’s own brush with cancer in 2007 turned him from a regular patient into a kind of super-patient, doing the kind of research to find the medication that ultimately saved his life. And we heard from Dave how the healthcare system in the late 2000s was completely unprepared to help consumers like him who want to access and understand their own data. Today in Part 2, we’ll talk about how all of that is gradually changing, and why new technologies and standards have the potential to open up a new era of participatory medicine – if, that is, patients are willing to do a little more work to understand their health data, if innovators can get better access to that data, and if doctors are willing to create a partnership with the patients over the process of diagnosis and treatment.</itunes:summary>
      <itunes:subtitle>Today we bring you the second half of Harry&apos;s conversation with Dave deBronkart, better known as E-Patient Dave for all the work he’s done to help empower patients to be more involved in their own healthcare. In Part 1, we talked about how Dave’s own brush with cancer in 2007 turned him from a regular patient into a kind of super-patient, doing the kind of research to find the medication that ultimately saved his life. And we heard from Dave how the healthcare system in the late 2000s was completely unprepared to help consumers like him who want to access and understand their own data. Today in Part 2, we’ll talk about how all of that is gradually changing, and why new technologies and standards have the potential to open up a new era of participatory medicine – if, that is, patients are willing to do a little more work to understand their health data, if innovators can get better access to that data, and if doctors are willing to create a partnership with the patients over the process of diagnosis and treatment.</itunes:subtitle>
      <itunes:keywords>participatory medicine, electronic health records, moneyball medicine, e-patient dave, the future you, fhir, electronic medical records, harry glorikian, dave debronkart</itunes:keywords>
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      <title>E-Patient Dave Says We Still Need Better Access to our Health Data</title>
      <description><![CDATA[<p>The podcast is back with a new name and a new, expanded focus! Harry will soon be publishing his new book <i>The Future You: How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer</i>. Like his previous book <i>MoneyBall Medicine</i>, it's all about AI and the other big technologies that are transforming healthcare. But this time Harry takes the consumer's point of view, sharing tips, techniques, and insights we can all use to become smarter, more proactive participants in our own health. </p><p>The show's first guest under this expanded mission is Dave deBronkart, better known as "E-Patient Dave" for his relentless efforts to persuade medical providers to cede control over health data and make patients into more equal partners in their own care. Dave explains how he got his nickname, why it's so important for patients to be more engaged in the healthcare system, and what kinds of technology changes at hospitals and physician practices can facilitate that engagement. </p><p>Today we're bringing you the first half of Harry and Dave's wide-ranging conversation, and we'll be back on October 12 with Part 2.</p><p>Dave deBronkart is the author of the highly rated <a href="http://www.epatientdave.com/let-patients-help" target="_blank"><i>Let Patients Help: A Patient Engagement Handbook</i></a> and one of the world’s leading advocates for patient engagement. After beating stage IV kidney cancer in 2007, he became a blogger, health policy advisor, and international keynote speaker, and today is the best-known spokesman for the patient engagement movement. He is the co-founder and chair emeritus of the Society for Participatory Medicine, and has been quoted in <i>Time</i>, <i>U.S. News</i>, <i>USA Today</i>, <i>Wired</i>, <i>MIT Technology Review</i>, and the <i>HealthLeaders</i> cover story “Patient of the Future.” His writings have been published in the British Medical Journal, the Patient Experience Journal,  iHealthBeat, and the conference journal of the American Society for Clinical Oncology. Dave’s <a href="https://www.ted.com/talks/dave_debronkart_meet_e_patient_dave">2011 TEDx talk</a> went viral, and is one the most viewed TED Talks of all time with nearly 700,000 views.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show.</p><p>You heard me right! The podcast has a new name. </p><p>And as you’re about to learn, we have an exciting new focus. But we’re coming to you in the same feed as our old show, MoneyBall Medicine. So if you were already subscribed to the show in your favorite podcast app, you don’t have to do anything! Just keep listening as we publish new episodes. If you’re <i>not</i> a regular listener, please take a second to hit the Subscribe or Follow button right now. And thank you.</p><p>Okay. So. Why are we rebranding the show?</p><p>Well, I’ve got some exciting news to share. Soon we’ll be publishing my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer. </i>It’s all about how AI and big data are changing almost everything we know about our healthcare.</p><p>Now, that might sound a bit like my last book, <i>MoneyBall Medicine</i>. But I wrote that book mainly to inform all the industry insiders who <i>deliver</i> healthcare. Like people who work at pharmaceutical companies, hospitals, health plans, insurance companies, and health-tech startups.</p><p>With this new book, <i>The Future You</i>, I’m turning the lens around and I’m explaining the impact of the AI revolution on people who <i>consume</i> healthcare. Which, of course, means everyone. That impact is going to be significant, and it’s going to change everything from the way you interact with your doctors, to the kind of medicines you take, to the ways you stay fit and healthy.</p><p>We want you to be prepared for this new world. So we’re expanding the focus of the podcast, too. To go along with the new name, we’re bringing you interviews with a new lineup of fascinating people who are changing the way patients <i>experience </i>healthcare. </p><p>And there’s nobody better to start out with than today’s guest, Dave deBronkart.</p><p>Dave is best known by the moniker he earned back in the late 2000s: E-Patient Dave. We’ll talk about what the E stands for. But all you need to know going in is that ever since 2007, when he survived his own fight with kidney cancer, Dave has been a relentless, tireless advocate for the idea that the U.S. medical system needs to open up so that patients can play a more central role in their own healthcare. He’s pushed for changes that would give patients more access to their medical records. And he hasn’t been afraid to call out the institutions that are doing a poor job at that. In fact, some folks inside the business of healthcare might even call Dave an irritant or a gadfly. But you know what? Sometimes the world needs people who aren’t afraid to shake things up.</p><p>And what’s amazing is that in the years since Dave threw himself into this debate, the world of healthcare policy has started to catch up with him. The Affordable Care Act created big incentives for hospitals and physician practices to switch over to digital recordkeeping. In 2016 the Twenty-First Century Cures Act prohibited providers from blocking access to patients’ electronic health information. And now there’s a new interface standard called FHIR that promises to do for medical records what HTML and HTTP did for the World Wide Web, and make all our health data more shareable, from our hospital records to our genomics data to the fitness info on our smartphones.</p><p>But there’s a lot of work left to do. And Dave and I had such a deep and detailed conversation about his past work and how patients experience healthcare today that we’re going to break up the interview into two parts. Today we’ll play the first half of our interview. And in two weeks we’ll be back with Part 2. </p><p>Here we go.</p><p><strong>Harry Glorikian: </strong>Dave, welcome to the show.</p><p><strong>Dave deBronkart: </strong>Thank you so much. This is a fascinating subject, I love your angle on the whole subject of medicine.</p><p><strong>Harry Glorikian: </strong>Thank you. Thank you. So, Dave, I mean, you have been known widely as what's termed as E-patient Dave. And that's like a nickname you've been using in public discussions for, God, at least a decade, as far as I can remember. But a lot of our listeners haven't heard about that jargon word E-patient or know what E stands for. To me, it means somebody who is assertive or provocative when it comes to managing their own health, you know, with added element of being, say, tech savvy or knowing how to use the Internet, you know, mobile, wearable devices and other digital tools to monitor and organize and direct their own care—-all of which happens to describe the type of reader I had in mind when I wrote this new book that I have coming out called The Future You. So how would you describe what E- patient [means]?</p><p><strong>Dave deBronkart: </strong>You know, it's funny because when you see an E-patient or talk with them, they don't stick out as a particularly odd, nerdy, unusual sort of person. But the the term, we can get into its origins back in the 90s someday if you want to, the term has to do with somebody who is involved. What today is in medicine is called patient engagement. And it's funny because to a lot of people in health care, patient engagement means getting the patient to do what they tell us to. Right. Well, tvhere's somebody who's actually an activated, thinking patient, like, I'm engaged in the sense that I want to tell you what's important to me. Right. And I don't just want to do what I'm told. I want to educate myself. That's another version of the E. In general, it means empowered, engaged, equipped, enabled. And these days, as you point out, naturally, anybody who's empowered, engaged and enabled is going to be doing digital things, you know, which weren't possible 20 years ago when the term patient was invented.</p><p><strong>Harry Glorikian: </strong>Yeah, and it's interesting because I was thinking like the E could stand for so many things like, you know, electronic, empowered, engaged, equipped, enabled, right. All of the above. Right. And, you know, I mean, at some point, you know, I do want to talk about access, right, to all levels. But just out of curiosity, right, you've been doing this for a long time, and I'm sure that people have reached out to you. How many E-patients do you think are out there, or as a proportion of all patients at this point?</p><p><strong>Dave deBronkart: </strong>You know, that depends a lot on demographics and stage of life. The, not surprisingly, digital natives are more likely to be actively involved in things just because they're so digital. And these days, by federal policy, we have the ability to look at parts of our medical information online if we want to. As opposed to older people in general are more likely to say just what the doctors do, what they want to. It's funny, because my parents, my dad died a few years ago. My mother's 92. We're very different on this. My dad was "Let them do their work." And my mother is just all over knowing what's going on. And it's a good thing because twice in the last five years, important mistakes were found in her medical record, you know. So what we're at here, this is in addition to the scientific and technological and data oriented changes that the Internet has brought along. We're also in the early stages of what is clearly going to be a massive sociological revolution. And it has strong parallels. I first had this idea years ago in a blog post, but I was a hippie in the 60s and 70s, and I lived through the women's movement as it swept through Boston. And so I've seen lots of parallels. You go back 100 years. I think the you know, we recently hit the 100th anniversary of the 19th Amendment, giving women the right to vote. There were skeptics when the idea was proposed and those skeptics opinions and the things they said and wrote have splendid parallels with many physicians' beliefs about patients.</p><p><strong>Dave deBronkart: </strong>As one example I blogged some years ago, I can send you a link about a wonderful flyer published in 1912 by the National Association Opposed to Women's Suffrage. And it included such spectacular logic as for, I mean, their bullets, their talking points, why we should not give women the vote, the first was "Most women aren't asking for it." Which is precisely parallel to "Most patients aren't acting like Dave, right? So why should we accommodate, why should we adjust? Why should we provide for that? The second thing, and this is another part, is really a nastier part of the social revolution. The second talking point was "Most women eligible to vote are married and all they could do is duplicate or cancel their husband's vote." It's like, what are you thinking? The underlying is we've already got somebody who's voting. Why do we need to bring in somebody else who could only muddy the picture? And clearly all they could do is duplicate or cancel their husband's vote. Just says that the women or the patients, all right, all I could do is get in the way and not improve anything. I bring this up because it's a real mental error for people to say I don't know a lot of E-patients. So it must not be worth thinking about. </p><p><strong>Harry Glorikian: </strong>Yeah, I mean, so, just as a preview so of what we're going to talk about, what's your high-level argument for how we could make it easier for traditional patients to become E-patients?</p><p><strong>Dave deBronkart: </strong>Well, several dimensions on that. The most important thing, though, the most important thing is data and the apps. </p><p><strong>Harry Glorikian: </strong>Yes.</p><p><strong>Dave deBronkart: </strong>When people don't have access to their information, it's much harder for them to ask an intelligent question. It's like, hey, I just noticed this. Why didn't we do something? What's this about? Right. And now the flip side of it and of course, there's something I'm sure we'll be talking about is the so-called final rule that was just published in April of this year or just took effect of this year, that says over the course of the next year, all of our data in medical records systems has to be made available to us through APIs, which means there will be all these apps. And to anybody middle aged who thinks I don't really care that much, all you have to do is think about when it comes down to taking care of your kids or your parents when you want to know what's going on with them. </p><p><strong>Harry Glorikian: </strong>Would you think there would be more E-patients if the health care system gave them easier access to their data? What are some of the big roadblocks right now?</p><p><strong>Dave deBronkart: </strong>Well, one big roadblock is that even though this final federal rule has come out now, the American Medical Group Management Association is pushing back, saying, "Wait, wait, wait, this is a bad idea. We don't need patients getting in the way of what doctors are already doing." There will be foot dragging. There's no question about that. Part of that is craven commercial interests. There are and there have been numerous cases of hospital administrators explicitly saying -- there's one recording from the Connected Health conference a few years ago, Harlan Krumholtz, a cardiologist at Yale, quoted a hospital president who told him, "Why wouldn't I want to make it a little harder for people to take their business elsewhere?"</p><p><strong>Harry Glorikian: </strong>Well, if I remember correctly, I think it was the CEO of Epic who said, “Why would anybody want their data?”</p><p><strong>Dave deBronkart: </strong>Yes. Well, first of all, why I would want my data is none of her damn business. Well, and but that's what Joe Biden -- this was a conversation with Joe Biden. Now, Joe has a, what, the specific thing was, why would you want to see your data? It's 10,000 pages of which you would understand maybe 100. And what he said was, "None of your damn business. And I'll find people that help me understand the parts I want."</p><p><strong>Harry Glorikian: </strong>Yeah. And so but it's so interesting, right? Because I believe right now we're in a we're in a state of a push me, pull you. Right? So if you look at, when you said apps, I think Apple, Microsoft, Google, all these guys would love this data to be accessible because they can then apps can be available to make it more understandable or accessible to a patient population. I mean, I have sleep apps. I have, you know, I just got a CGM, which is under my shirt here, so that I can see how different foods affect me from, you know, and glucose, insulin level. And, you know, I'm wearing my Apple Watch, which tracks me. I mean, this is all interpretable because there are apps that are trying to at least explain what's happening to me physiologically or at least look at my data. And the other day I was talking to, I interviewed the CEO of a company called Seqster, which allows you to download your entire record. And it was interesting because there were some of the panels that I looked at that some of the numbers looked off for a long period of time, so I'm like, I need to talk to my doctor about those particular ones that are off. But they're still somewhat of a, you know, I'm in the business, you've almost learned the business. There's still an educational level that and in our arcane jargon that gets used that sort of, you know, everybody can't very easily cross that dimension.</p><p><strong>Dave deBronkart: </strong>Ah, so what? So what? Ok, this is, that's a beautiful observation because you're right, it's not easy for people to absorb. Not everybody, not off the bat. Look, and I don't claim that I'm a doctor. You know, I still go to doctors. I go to physical therapists and so on and so on. And that is no reason to keep us apart from the data. Some doctors and Judy Faulkner of Epic will say, you know, you'll scare yourself, you're better off not knowing. Well, ladies and gentlemen, welcome to the classic specimen called paternalism. "No, honey, you won't understand." Right now paternal -- this is important because this is a major change enabled by technology and data, right -- the paternal caring is incredibly important when the cared-for party cannot comprehend. And so the art of optimizing and this is where MoneyBall thinking comes in. The art of optimizing is to understand people's evolving capacity and support them in developing that capacity so that the net sum of all the people working on my health care has more competence because I do. </p><p><strong>Harry Glorikian: </strong>Right. And that's where I believe like. You know, hopefully my book The Future You will help people see that they're, and I can see technology apps evolving that are making it easier graphically, making it more digestible so someone can manage themselves more appropriately and optimally. But you mentioned your cancer. And I want to go and at least for the listeners, you know, go a little bit through your biography, your personal history, sort of helping set the stage of why we're having this conversation. So you started your professional work in, I think it was typesetting and then later software development, which is a far cry from E-patient Dave, right? But what what qualities or experiences, do you think, predisposed you to be an E-patient? Is it fair to say that you were already pretty tech savvy or but would you consider yourself unusually so?</p><p><strong>Dave deBronkart: </strong>Well, you know, the unusually so, I mean, I'm not sure there's a valid reason for that question to be relevant. There are in any field, there are pioneers, you know, the first people who do something. I mean, think about the movie Lorenzo's Oil, people back in the 1980s who greatly extended their child's life by being so super engaged and hunting and hunting through libraries and phone calls. That was before there was the Internet. I was online. So here are some examples of how I, and I mentioned that my daughter was gestating in 1983. I took a snapshot of her ultrasound and had it framed and sitting on my office desk at work, and people would say, what's that? Nobody knew that that was going to be a thing now and now commonplace thing. In 1999, I met my second wife online on Match.com. And when I first started mentioning this in speeches, people were like, "Whoa, you found your wife on the Internet?" Well, so here's the thing, 20 years later, it's like no big deal. But that's right. If you want to think about the future, you better be thinking about or at least you have every right to be thinking about what are the emerging possibilities. </p><p><strong>Harry Glorikian:</strong> So, tell us the story about your, you know, renal cancer diagnosis in 2007. I mean, you got better, thank God. And you know, what experience it taught you about the power of patients to become involved in their decision making about the course of treatment?</p><p><strong>Dave deBronkart: </strong>So I want to mention that I'm right in the middle of reading on audio, a book that I'd never heard of by a doctor who nearly died. It's titled In Shock. And I'm going to recommend it for the way she tells the story of being a patient, observing the near fatal process. And as a newly trained doctor. In my case, I went in for a routine physical. I had a shoulder X-ray and the doctor called me the next morning and said, "Your shoulder is going to be fine, but the X-ray showed that there's something in your lung that shouldn't be there." And to make a long story short, what we soon found out was that it was kidney cancer that had already spread. I had five tumors, kidney cancer tumors in both lungs. We soon learned that I had one growing in my skull, a bone metastasis. I had one in my right femur and my thigh bone, which broke in May. I now have a steel rod in my in my thigh. I was really sick. And the best available data, there wasn't much good data, but the best available data said that my median survival. Half the people like me would be dead in 24 weeks. 24 weeks!</p><p><strong>Harry Glorikian: </strong>Yeah.</p><p><strong>Dave deBronkart: </strong>And now a really pivotal moment was that as soon as the biopsy confirmed the disease, that it was kidney cancer, my physician, the famous doctor, Danny Sands, my PCP, because he knew me so well -- and this is why I hate any company that thinks doctors are interchangeable, OK? They they should all fry in hell. They're doing it wrong. They should have their license to do business removed -- because he knew me he said, "Dave, you're an online kind of guy. You might like to join this patient community." Now, think how important this is. This was January 2007, not 2021. Right. Today, many doctors still say stay off the Internet. Dr. Sands showed me where to find the good stuff.</p><p><strong>Harry Glorikian: </strong>Right. Yeah, that's important.</p><p><strong>Dave deBronkart: </strong>Well, right, exactly. So now and this turned out to be part of my surviving. Within two hours of posting my first message in that online community, I heard back. "Thanks for the, welcome to the club that nobody wants to join." Now, that might sound foolish, but I'd never known anybody who had kidney cancer. And here I am thinking I'm likely to die. But now I'm talking to people who got diagnosed 10 years ago and they're not dead. Right? Opening a mental space of hope is a huge factor in a person having the push to move forward. And they said there's no cure for this disease. That was not good news. But the but there's this one thing called high dose Interleukin 2. That usually doesn't work. So this was the patient community telling me usually doesn't work. But if you respond at all, about half the time, the response is complete and permanent. And you've got to find a hospital that does it because it's really difficult. And most hospitals won't even tell you it exists because it's difficult and the odds are bad. And here are four doctors in your area who do it, and here are their phone numbers. Now, ladies and gentlemen, I assert that from the point of view of the consumer, the person who has the need, this is valuable information. Harry, this is such a profound case for patient autonomy. We are all aware that physicians today are very overworked, they're under financial pressure from the evil insurance companies and their employers who get their money from the insurance companies. For a patient to be able to define their own priorities and bring additional information to the table should never be prohibited. At the same time, we have to realize that, you know, the doctors are under time pressure anyway. To make a long story short, they said this this treatment usually doesn't work. They also said when it does work, about four percent of the time, the side effects kill people.</p><p><strong>Harry Glorikian: </strong>So here's a question. Here's a question, though, Dave. So, you know, being in this world for my entire career, it's my first question is, you see something posted in a club, a space. How do you validate that this is real, right, that it's bona fide, that it's not just...I mean, as we've seen because of this whole vaccine, there's stuff online that makes my head want to explode because I know that it's not real just by looking at it. How do you as as a patient validate whether this is real, when it's not coming from a, you know, certified professional?</p><p><strong>Dave deBronkart: </strong>It's a perfect question for the whole concept of The Future You. The future you has more autonomy and more freedom to do things, has more information. You could say that's the good news. The bad news is you've got all this information now and there's no certain source of authority. So here you are, you're just like emancipation of a teenager into the adult life. You have to learn how to figure out who you trust. Yeah, the the good news is you've got some autonomy and some ability to act, some agency, as people say. The bad news is you get to live with the consequences as well. But don't just think "That's it, I'm going to go back and let the doctors make all the decisions, because they're perfect," because they're not, you know, medical errors happen. Diagnostic errors happen. The overall. The good news is that you are in a position to raise the overall level of quality of the conversations.</p><p><strong>Harry Glorikian: </strong>So, you know, talk about your journey after your cancer diagnosis from, say, average patient to E-patient to, now, you're a prominent open data advocate in health care.</p><p><strong>Dave deBronkart: </strong>Yes. So I just want to close the loop on what happened, because although I was diagnosed in January, the kidney came out in March, and my interleukin treatments started in April. And by July, six months after diagnosis, by July, the treatment had ended and I was all better. It's an immunotherapy. When immunotherapy works, it's incredible because follow up scans showed the remaining tumors all through my body shrinking for the next two years. And so I was like, go out and play! And I started blogging. I mean, I had really I had pictured my mother's face at my funeral. It's a, it's a grim thought. But that's how perhaps one of my strengths was that I was willing to look that situation in the eye, which let me then move forward. But in 2008, I just started blogging about health care and statistics and anything I felt like. And in 2009 something that -- I'm actually about to publish a free eBook about that, it's just it's a compilation of the 12 blog posts that led to the world exploding on me late in 2008 -- the financial structure of the U.S. health system meant that even though we're the most expensive system in the world, 50 percent more expensive than the second place country, if we could somehow fix that, because we're the most expensive and we don't have the best outcomes, so some money's being wasted there somewhere. All right. If we could somehow fix that, it would mean an immense amount of revenue for some companies somewhere was going to disappear.</p><p><strong>Dave deBronkart: </strong>Back then, it was $2.4 trillion, was the US health system. Now it's $4 trillion. And I realized if we could cut out the one third that excess, that would be $800 billion that would disappear. And that was, I think, three times as much as if Google went out of business, Apple went out of business and and Microsoft, something like that. So I thought if we want to improve how the system works, I'm happy if there are think tanks that are rethinking everything, but for you and me in this century, we got to get in control of our health. And that had to start with having access to our data. All right. And totally, unbeknownst to me, when the Obama administration came in in early 2009, this big bill was passed, the Recovery Act, that included $40 billion of incentives for hospitals to install medical computers. And one of the rules that came out of that was that we, the patients, had to be able to look at parts of our stuff. And little did I know I tried to use to try to look at my data. I tried to use the thing back then called Google Health. And what my hospital sent to Google was garbage. And I blogged about it, and to my huge surprise, The Boston Globe newspaper called and said they wanted to write about it, and it wasn't the local newspaper, it was the Washington health policy desk. And they put it on Page One. And my life spun out of control.</p><p><strong>Harry Glorikian: </strong>Yeah, no, I remember I remember Google Health and I remember you know, I always try to tell people, medicine was super late to the digitization party. Like if it wasn't for that the Reinvestment and Recovery Act putting that in place, there would still be file folders in everybody's office. So we're still at the baby stage of digitization and then the analytics that go with it. And all I see is the curve moving at a ridiculous rate based on artificial intelligence, machine learning being applied to this, and then the digitized information being able to come into one place. But you said something here that was interesting. You've mentioned this phenomenon of garbage in, garbage out. Right. Can you say more about one of the hospitals that treated you? I think it was Beth Israel. You mentioned Google Health. What went wrong there and what were the lessons you took away from that?</p><p><strong>Dave deBronkart: </strong>Well, there were, so what this revealed to me, much to my amazement, much to my amazement, because I assumed that these genius doctors just had the world's most amazing computers, right, and the computers that I imagined are the computers that we're just now beginning to move toward. Right. R\I was wrong. But the other important thing that happened was, you know, the vast majority of our medical records are blocks of text, long paragraphs of text or were back then. Now, it was in a computer then, it wasn't notes on paper, but it was not the kind of thing you could analyze, any more than you could run a computer program to read a book and write a book report on it. And so but I didn't know that. I didn't know what Google Health might do. The next thing that happened was as a result, since Google Health was looking for what's called structured data -- now, a classic example of structured data is your blood pressure. It's fill in a form, the high number, the low number, what's your heart rate? What's your weight, you know? The key value pairs, as some people call them. Very little of my medical history existed in that kind of form. So for some insane reason, what they decided to send Google instead was my insurance billing history.</p><p><strong>Dave deBronkart: </strong>Now, insurance data is profoundly inappropriate as a model of reality for a number of reasons. One of one reason is that insurance form data buckets don't have to be very precise. So at one point I was tested for metastases to the brain to see if I had kidney cancer tumors growing in my brain. The answer came back No. All right. Well, there's only one billing code for it. Metastases to the brain. And that's a legitimate billing code for either one. But it got sent to Google Health as metastases to the brain, which I never had. All right. Another problem is something called up-coding, where insurance billing clerks are trained you can bill for something based on the keywords that the doctors and nurses put in the computer. So at one point during my treatment, I had a CAT scan of my lungs to look for tumors. And the radiologist noted, by the way, his aorta is slightly enlarged. The billing clerk didn't care that they were only checking for kidney cancer tumors. The billing clerk saw aorta, enlarged, aneurysm, and billed the insurance company for an aneurysm, which I never had. Corruption. Corruption. People ask, why are our health care costs so high? It's this system of keyword-driven billing. But then on top of that, I had things that I never had anything like it. There was, when this blew up in the newspaper, the hospital finally released all my insurance billing codes. It turns out they had billed the insurance company for volvulus of the intestine. That's a lethal kink of the intestine that will kill you in a couple of days if it's not treated. Never had anything of the sort. Billing fraud.</p><p><strong>Harry Glorikian: </strong>Interesting.</p><p><strong>Dave deBronkart: </strong>Anyway, because a random patient had just tried to use Google Health and I knew enough about data from my day job to be able to say, "Wait a minute, this makes no sense, why is all this happening?" And I couldn't get a straight answer. You know, it's a common experience. Sometimes you ask a company, "I've got a problem. This isn't right." And sometimes they just blow you off. Well, that's what my hospital did to me. I asked about these specific questions and they just blew me off. So then once it was on the front page of the newspaper, the hospital is like, "We will be working with the E-patient Dave and his doctor." And there's nothing like publicity, huh?</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll   like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book comes out soon, so keep an eye out for the next announcement.</p><p>Thanks. And now back to our show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>One of your slogans is "Gimme my damn data," meaning, you know, your patient records. And so can you summarize first, the state of the art prior to this digital transformation? Why was it historically the case that patients didn't have easy access to charts from their doctor's office or their visits? Why has the medical establishment traditionally been reluctant or maybe even unable to share this data?</p><p><strong>Dave deBronkart: </strong>Well, first, I want to explain the origin of that of that term. Because the speech in September of that year that launched the global speaking had that title. What happened was that summer of 2009, my world was spinning out of control as I tried to answer people's questions and get involved in the blogging that was going on and health policy arguments in Washington and so on. And so a real visionary in Toronto, a man named Gunther Eisenbach, who had quite a history in pioneering in this area, invited me to give the opening keynote speech for his annual conference in Toronto that fall. And several times during the summer, he asked me a question I'd never been asked. I came to learn that it was normal, but it was "For our brochure, we need to know what do you want to call the speech? What's the title of the speech?" And I remember very well sitting in my office at work one day saying into the telephone, "I don't know, just call it 'Give me my damn data, because you guys can't be trusted." And much to my amazement, It stuck.</p><p><strong>Dave deBronkart:</strong> I want to be clear. Under the 1996 health information law called hip hop, you are entitled to a copy of every single thing they have about you. All right, and a major reason for that. Back in the beginning was to detect mistakes. So it's interesting because HIPAA arose from health insurance portability. 1996 was when it first became mandatory that you had to be able to take your insurance business elsewhere and therefore your records. And that's the origin of the requirement that anybody who holds your health information as part of your insurance or anything else has to be really careful about not letting it leak out. And therefore and it has to be accurate. Therefore, you have a right to look at it and get any mistakes fixed. But. Foot dragging, foot dragging, foot dragging. I don't want to. As we discussed earlier, there are some doctors who simply wanted to keep you captive. But there are also, the data was also handwritten garbage at times, just scribbles that were never intended to be read by anyone other than the person who wrote the note in the first place. </p><p><strong>Harry Glorikian: </strong>Well, but, you know, I'm not trying to necessarily defend or anything, but but, you know, as you found at Beth Israel Deaconess, and I talk about this in The Future You as well, part of the problem is most of these things that people look at as large electronic health record systems were are still are in my mind designed as accounting and billing systems, not to help the doctors or the patients. And that's still a major problem. I mean, I think until we have, you know, a Satya Nadella taking over Microsoft where he, you know, went down and started rewriting the code for Microsoft Office, you're not going to get to management of patients for the betterment of their health as opposed to let me make sure that I bill for that last Tylenol.</p><p><strong>Dave deBronkart: </strong>Absolutely. Well, and where I think this will end up, and I don't know if it'll be five years or 10 or 20, but where this will end up is, the system as it exists now is not sustainable as a platform for patient-centered care. The early stage that we're seeing now, there is an incredibly important software interface that's been developed in the last five or six years still going on called FHIR, F-H-I-R. Which is part of that final rule, all that. So all of our data increasingly in the next couple of years has to be available through an API. All right. So, yeah, using FHIR. And I've done some early work on collecting my own data from the different doctors in the hospitals I've gone to. And what you get what you get when you bring those all in, having told each of them your history and what medications you're on and so on, is you get the digital equivalent of a fax of all of that from all of them. That's not coordinated, right. The medication list from one hospital might not match even the structure, much less the content of the medication list. And here's where it gets tricky, because anybody who's ever tried to have any mistake fixed at a hospital, like "I discontinued that medicine two years ago," never mind something like, "No, I never had that diagnosis," it's a tedious process, tons of paperwork, and you've got to keep track of that because they so often take a long time to get them fixed. And I having been through something similar in graphic arts when desktop publishing took over decades ago. I really wonder, are we will we ultimately end up with all the hospitals getting their act together? Not bloody likely. All right. Or are we more likely to end up with you and me and all of us out here eventually collecting all the data and the big thing the apps will do is organize it, make sense of it. And here's a juicy thing. It will be able to automatically send off corrections back to the hospital that had the wrong information. And so I really think this will be autonomy enabled by the future, you holding your own like you are the master copy of your medical reality.</p><p><strong>Harry Glorikian: </strong>Yeah, I always you know, I always tell like what I like having as a longitudinal view of myself so that I can sort of see something happening before it happens. Right. I don't want to go in once the car is making noise. I like just I'd like to have the warning light go off early before it goes wrong. But. So you mentioned this, but do you have any are there any favorite examples of patient friendly systems or institutions that are doing data access correctly?</p><p><strong>Dave deBronkart: </strong>I don't want to finger any particular one as doing a great job, because I haven't studied it. Ok. I know there are apps, the one that I personally use, which doesn't yet give me a useful it gives me a pile of fax pages, but it does pull together all the data, it's it's not even an app, it's called My Patient Link. And anybody can get it. It's free. And as long as the hospitals you're using have this FHIR software interface, which they're all required to, by the way, but some still don't. As long as they do this, My Patient Link will go and pull it all together. Now it's still up to you to do anything with it. So we're just at the dawn of the age that I actually envisioned back in 2008 when I decided to do the Google Health thing and the world blew up in my face.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, I have access to my chart. And, you know, that's useful because I can go look at stuff, but I have to admit, and again, this is presentation and sort of making it easy to digest, but Seqster sort of puts it in a graphical format that's easier for me to sort of absorb. The information is the same. It's just how it gets communicated to me, which is half the problem. But but, you know, playing devil's advocate, how useful is the data in the charts, really? I mean, sometimes we talk as if our data is some kind of treasure trove of accurate, actionable data. But you've helped show that a lot of it could be, I don't want to say useless, but there's errors in it which technically could make it worse than useless. But how do you think about that when you when you think about this?</p><p><strong>Dave deBronkart: </strong>Very good. First note. First of all, you're right. It will...a lot of the actual consumer patient value will, and any time I think about that again, I think a lot of young adults, I think of parents taking care of a sick kid, you know, or middle aged people taking care of elders who have many declining conditions. Right. There's a ton of data that you really don't care about. All right, it's sort of it's like if you use anything like Quicken or Mint, you probably don't scrutinize every detail that's in there and look for obscure patterns or so on. But you want to know what's going on. And here's the thing. Where the details matter is when trouble hits. And what I guarantee we will see some time, I don't know if it'll be five years, 10, or 20, but I guarantee what we will see someday is apps or features within apps that are tuned to a specific problem. If my blood pressure is something I'm.... Six years ago my doctor said, dude, you're prediabetic, your A1C is too high. Well, that all of a sudden brings my focus on a small set of numbers. And it makes it really important for me to not just be tracking the numbers in the computer, but integrate it with my fitness watch and my diet app.</p><p><strong>Harry Glorikian: </strong>Right. </p><p><strong>Dave deBronkart: </strong>Yeah, I lost 30 pounds in a year. And then at the age of 65, I ran a mile for the first time in my life because my behavior changed. My behavior had changed to my benefit, not because of the doctor micromanaging me, but because I was all of a sudden more engaged in getting off my ass and doing something that was important to me.</p><p><strong>Harry Glorikian:</strong> well, Dave, you need to write a diet book, because I could use I could stand to lose like 10 or 20 pounds.</p><p><strong>Dave deBronkart: </strong>Well, no, I'm not writing any diet books. That's a project for another day. </p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. Dave and I had a lot more to talk about, and we’ll bring you the second part of the conversation in the next episode, two weeks from now.</p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com. Don’t forget to go to Apple Podcasts to leave a rating and review for the show. You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
]]></description>
      <pubDate>Tue, 28 Sep 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Dave deBronkart, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>The podcast is back with a new name and a new, expanded focus! Harry will soon be publishing his new book <i>The Future You: How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer</i>. Like his previous book <i>MoneyBall Medicine</i>, it's all about AI and the other big technologies that are transforming healthcare. But this time Harry takes the consumer's point of view, sharing tips, techniques, and insights we can all use to become smarter, more proactive participants in our own health. </p><p>The show's first guest under this expanded mission is Dave deBronkart, better known as "E-Patient Dave" for his relentless efforts to persuade medical providers to cede control over health data and make patients into more equal partners in their own care. Dave explains how he got his nickname, why it's so important for patients to be more engaged in the healthcare system, and what kinds of technology changes at hospitals and physician practices can facilitate that engagement. </p><p>Today we're bringing you the first half of Harry and Dave's wide-ranging conversation, and we'll be back on October 12 with Part 2.</p><p>Dave deBronkart is the author of the highly rated <a href="http://www.epatientdave.com/let-patients-help" target="_blank"><i>Let Patients Help: A Patient Engagement Handbook</i></a> and one of the world’s leading advocates for patient engagement. After beating stage IV kidney cancer in 2007, he became a blogger, health policy advisor, and international keynote speaker, and today is the best-known spokesman for the patient engagement movement. He is the co-founder and chair emeritus of the Society for Participatory Medicine, and has been quoted in <i>Time</i>, <i>U.S. News</i>, <i>USA Today</i>, <i>Wired</i>, <i>MIT Technology Review</i>, and the <i>HealthLeaders</i> cover story “Patient of the Future.” His writings have been published in the British Medical Journal, the Patient Experience Journal,  iHealthBeat, and the conference journal of the American Society for Clinical Oncology. Dave’s <a href="https://www.ted.com/talks/dave_debronkart_meet_e_patient_dave">2011 TEDx talk</a> went viral, and is one the most viewed TED Talks of all time with nearly 700,000 views.</p><p><strong>Please rate and review The Harry Glorikian Show on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian:</strong> Hello. I’m Harry Glorikian. Welcome to The Harry Glorikian Show.</p><p>You heard me right! The podcast has a new name. </p><p>And as you’re about to learn, we have an exciting new focus. But we’re coming to you in the same feed as our old show, MoneyBall Medicine. So if you were already subscribed to the show in your favorite podcast app, you don’t have to do anything! Just keep listening as we publish new episodes. If you’re <i>not</i> a regular listener, please take a second to hit the Subscribe or Follow button right now. And thank you.</p><p>Okay. So. Why are we rebranding the show?</p><p>Well, I’ve got some exciting news to share. Soon we’ll be publishing my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer. </i>It’s all about how AI and big data are changing almost everything we know about our healthcare.</p><p>Now, that might sound a bit like my last book, <i>MoneyBall Medicine</i>. But I wrote that book mainly to inform all the industry insiders who <i>deliver</i> healthcare. Like people who work at pharmaceutical companies, hospitals, health plans, insurance companies, and health-tech startups.</p><p>With this new book, <i>The Future You</i>, I’m turning the lens around and I’m explaining the impact of the AI revolution on people who <i>consume</i> healthcare. Which, of course, means everyone. That impact is going to be significant, and it’s going to change everything from the way you interact with your doctors, to the kind of medicines you take, to the ways you stay fit and healthy.</p><p>We want you to be prepared for this new world. So we’re expanding the focus of the podcast, too. To go along with the new name, we’re bringing you interviews with a new lineup of fascinating people who are changing the way patients <i>experience </i>healthcare. </p><p>And there’s nobody better to start out with than today’s guest, Dave deBronkart.</p><p>Dave is best known by the moniker he earned back in the late 2000s: E-Patient Dave. We’ll talk about what the E stands for. But all you need to know going in is that ever since 2007, when he survived his own fight with kidney cancer, Dave has been a relentless, tireless advocate for the idea that the U.S. medical system needs to open up so that patients can play a more central role in their own healthcare. He’s pushed for changes that would give patients more access to their medical records. And he hasn’t been afraid to call out the institutions that are doing a poor job at that. In fact, some folks inside the business of healthcare might even call Dave an irritant or a gadfly. But you know what? Sometimes the world needs people who aren’t afraid to shake things up.</p><p>And what’s amazing is that in the years since Dave threw himself into this debate, the world of healthcare policy has started to catch up with him. The Affordable Care Act created big incentives for hospitals and physician practices to switch over to digital recordkeeping. In 2016 the Twenty-First Century Cures Act prohibited providers from blocking access to patients’ electronic health information. And now there’s a new interface standard called FHIR that promises to do for medical records what HTML and HTTP did for the World Wide Web, and make all our health data more shareable, from our hospital records to our genomics data to the fitness info on our smartphones.</p><p>But there’s a lot of work left to do. And Dave and I had such a deep and detailed conversation about his past work and how patients experience healthcare today that we’re going to break up the interview into two parts. Today we’ll play the first half of our interview. And in two weeks we’ll be back with Part 2. </p><p>Here we go.</p><p><strong>Harry Glorikian: </strong>Dave, welcome to the show.</p><p><strong>Dave deBronkart: </strong>Thank you so much. This is a fascinating subject, I love your angle on the whole subject of medicine.</p><p><strong>Harry Glorikian: </strong>Thank you. Thank you. So, Dave, I mean, you have been known widely as what's termed as E-patient Dave. And that's like a nickname you've been using in public discussions for, God, at least a decade, as far as I can remember. But a lot of our listeners haven't heard about that jargon word E-patient or know what E stands for. To me, it means somebody who is assertive or provocative when it comes to managing their own health, you know, with added element of being, say, tech savvy or knowing how to use the Internet, you know, mobile, wearable devices and other digital tools to monitor and organize and direct their own care—-all of which happens to describe the type of reader I had in mind when I wrote this new book that I have coming out called The Future You. So how would you describe what E- patient [means]?</p><p><strong>Dave deBronkart: </strong>You know, it's funny because when you see an E-patient or talk with them, they don't stick out as a particularly odd, nerdy, unusual sort of person. But the the term, we can get into its origins back in the 90s someday if you want to, the term has to do with somebody who is involved. What today is in medicine is called patient engagement. And it's funny because to a lot of people in health care, patient engagement means getting the patient to do what they tell us to. Right. Well, tvhere's somebody who's actually an activated, thinking patient, like, I'm engaged in the sense that I want to tell you what's important to me. Right. And I don't just want to do what I'm told. I want to educate myself. That's another version of the E. In general, it means empowered, engaged, equipped, enabled. And these days, as you point out, naturally, anybody who's empowered, engaged and enabled is going to be doing digital things, you know, which weren't possible 20 years ago when the term patient was invented.</p><p><strong>Harry Glorikian: </strong>Yeah, and it's interesting because I was thinking like the E could stand for so many things like, you know, electronic, empowered, engaged, equipped, enabled, right. All of the above. Right. And, you know, I mean, at some point, you know, I do want to talk about access, right, to all levels. But just out of curiosity, right, you've been doing this for a long time, and I'm sure that people have reached out to you. How many E-patients do you think are out there, or as a proportion of all patients at this point?</p><p><strong>Dave deBronkart: </strong>You know, that depends a lot on demographics and stage of life. The, not surprisingly, digital natives are more likely to be actively involved in things just because they're so digital. And these days, by federal policy, we have the ability to look at parts of our medical information online if we want to. As opposed to older people in general are more likely to say just what the doctors do, what they want to. It's funny, because my parents, my dad died a few years ago. My mother's 92. We're very different on this. My dad was "Let them do their work." And my mother is just all over knowing what's going on. And it's a good thing because twice in the last five years, important mistakes were found in her medical record, you know. So what we're at here, this is in addition to the scientific and technological and data oriented changes that the Internet has brought along. We're also in the early stages of what is clearly going to be a massive sociological revolution. And it has strong parallels. I first had this idea years ago in a blog post, but I was a hippie in the 60s and 70s, and I lived through the women's movement as it swept through Boston. And so I've seen lots of parallels. You go back 100 years. I think the you know, we recently hit the 100th anniversary of the 19th Amendment, giving women the right to vote. There were skeptics when the idea was proposed and those skeptics opinions and the things they said and wrote have splendid parallels with many physicians' beliefs about patients.</p><p><strong>Dave deBronkart: </strong>As one example I blogged some years ago, I can send you a link about a wonderful flyer published in 1912 by the National Association Opposed to Women's Suffrage. And it included such spectacular logic as for, I mean, their bullets, their talking points, why we should not give women the vote, the first was "Most women aren't asking for it." Which is precisely parallel to "Most patients aren't acting like Dave, right? So why should we accommodate, why should we adjust? Why should we provide for that? The second thing, and this is another part, is really a nastier part of the social revolution. The second talking point was "Most women eligible to vote are married and all they could do is duplicate or cancel their husband's vote." It's like, what are you thinking? The underlying is we've already got somebody who's voting. Why do we need to bring in somebody else who could only muddy the picture? And clearly all they could do is duplicate or cancel their husband's vote. Just says that the women or the patients, all right, all I could do is get in the way and not improve anything. I bring this up because it's a real mental error for people to say I don't know a lot of E-patients. So it must not be worth thinking about. </p><p><strong>Harry Glorikian: </strong>Yeah, I mean, so, just as a preview so of what we're going to talk about, what's your high-level argument for how we could make it easier for traditional patients to become E-patients?</p><p><strong>Dave deBronkart: </strong>Well, several dimensions on that. The most important thing, though, the most important thing is data and the apps. </p><p><strong>Harry Glorikian: </strong>Yes.</p><p><strong>Dave deBronkart: </strong>When people don't have access to their information, it's much harder for them to ask an intelligent question. It's like, hey, I just noticed this. Why didn't we do something? What's this about? Right. And now the flip side of it and of course, there's something I'm sure we'll be talking about is the so-called final rule that was just published in April of this year or just took effect of this year, that says over the course of the next year, all of our data in medical records systems has to be made available to us through APIs, which means there will be all these apps. And to anybody middle aged who thinks I don't really care that much, all you have to do is think about when it comes down to taking care of your kids or your parents when you want to know what's going on with them. </p><p><strong>Harry Glorikian: </strong>Would you think there would be more E-patients if the health care system gave them easier access to their data? What are some of the big roadblocks right now?</p><p><strong>Dave deBronkart: </strong>Well, one big roadblock is that even though this final federal rule has come out now, the American Medical Group Management Association is pushing back, saying, "Wait, wait, wait, this is a bad idea. We don't need patients getting in the way of what doctors are already doing." There will be foot dragging. There's no question about that. Part of that is craven commercial interests. There are and there have been numerous cases of hospital administrators explicitly saying -- there's one recording from the Connected Health conference a few years ago, Harlan Krumholtz, a cardiologist at Yale, quoted a hospital president who told him, "Why wouldn't I want to make it a little harder for people to take their business elsewhere?"</p><p><strong>Harry Glorikian: </strong>Well, if I remember correctly, I think it was the CEO of Epic who said, “Why would anybody want their data?”</p><p><strong>Dave deBronkart: </strong>Yes. Well, first of all, why I would want my data is none of her damn business. Well, and but that's what Joe Biden -- this was a conversation with Joe Biden. Now, Joe has a, what, the specific thing was, why would you want to see your data? It's 10,000 pages of which you would understand maybe 100. And what he said was, "None of your damn business. And I'll find people that help me understand the parts I want."</p><p><strong>Harry Glorikian: </strong>Yeah. And so but it's so interesting, right? Because I believe right now we're in a we're in a state of a push me, pull you. Right? So if you look at, when you said apps, I think Apple, Microsoft, Google, all these guys would love this data to be accessible because they can then apps can be available to make it more understandable or accessible to a patient population. I mean, I have sleep apps. I have, you know, I just got a CGM, which is under my shirt here, so that I can see how different foods affect me from, you know, and glucose, insulin level. And, you know, I'm wearing my Apple Watch, which tracks me. I mean, this is all interpretable because there are apps that are trying to at least explain what's happening to me physiologically or at least look at my data. And the other day I was talking to, I interviewed the CEO of a company called Seqster, which allows you to download your entire record. And it was interesting because there were some of the panels that I looked at that some of the numbers looked off for a long period of time, so I'm like, I need to talk to my doctor about those particular ones that are off. But they're still somewhat of a, you know, I'm in the business, you've almost learned the business. There's still an educational level that and in our arcane jargon that gets used that sort of, you know, everybody can't very easily cross that dimension.</p><p><strong>Dave deBronkart: </strong>Ah, so what? So what? Ok, this is, that's a beautiful observation because you're right, it's not easy for people to absorb. Not everybody, not off the bat. Look, and I don't claim that I'm a doctor. You know, I still go to doctors. I go to physical therapists and so on and so on. And that is no reason to keep us apart from the data. Some doctors and Judy Faulkner of Epic will say, you know, you'll scare yourself, you're better off not knowing. Well, ladies and gentlemen, welcome to the classic specimen called paternalism. "No, honey, you won't understand." Right now paternal -- this is important because this is a major change enabled by technology and data, right -- the paternal caring is incredibly important when the cared-for party cannot comprehend. And so the art of optimizing and this is where MoneyBall thinking comes in. The art of optimizing is to understand people's evolving capacity and support them in developing that capacity so that the net sum of all the people working on my health care has more competence because I do. </p><p><strong>Harry Glorikian: </strong>Right. And that's where I believe like. You know, hopefully my book The Future You will help people see that they're, and I can see technology apps evolving that are making it easier graphically, making it more digestible so someone can manage themselves more appropriately and optimally. But you mentioned your cancer. And I want to go and at least for the listeners, you know, go a little bit through your biography, your personal history, sort of helping set the stage of why we're having this conversation. So you started your professional work in, I think it was typesetting and then later software development, which is a far cry from E-patient Dave, right? But what what qualities or experiences, do you think, predisposed you to be an E-patient? Is it fair to say that you were already pretty tech savvy or but would you consider yourself unusually so?</p><p><strong>Dave deBronkart: </strong>Well, you know, the unusually so, I mean, I'm not sure there's a valid reason for that question to be relevant. There are in any field, there are pioneers, you know, the first people who do something. I mean, think about the movie Lorenzo's Oil, people back in the 1980s who greatly extended their child's life by being so super engaged and hunting and hunting through libraries and phone calls. That was before there was the Internet. I was online. So here are some examples of how I, and I mentioned that my daughter was gestating in 1983. I took a snapshot of her ultrasound and had it framed and sitting on my office desk at work, and people would say, what's that? Nobody knew that that was going to be a thing now and now commonplace thing. In 1999, I met my second wife online on Match.com. And when I first started mentioning this in speeches, people were like, "Whoa, you found your wife on the Internet?" Well, so here's the thing, 20 years later, it's like no big deal. But that's right. If you want to think about the future, you better be thinking about or at least you have every right to be thinking about what are the emerging possibilities. </p><p><strong>Harry Glorikian:</strong> So, tell us the story about your, you know, renal cancer diagnosis in 2007. I mean, you got better, thank God. And you know, what experience it taught you about the power of patients to become involved in their decision making about the course of treatment?</p><p><strong>Dave deBronkart: </strong>So I want to mention that I'm right in the middle of reading on audio, a book that I'd never heard of by a doctor who nearly died. It's titled In Shock. And I'm going to recommend it for the way she tells the story of being a patient, observing the near fatal process. And as a newly trained doctor. In my case, I went in for a routine physical. I had a shoulder X-ray and the doctor called me the next morning and said, "Your shoulder is going to be fine, but the X-ray showed that there's something in your lung that shouldn't be there." And to make a long story short, what we soon found out was that it was kidney cancer that had already spread. I had five tumors, kidney cancer tumors in both lungs. We soon learned that I had one growing in my skull, a bone metastasis. I had one in my right femur and my thigh bone, which broke in May. I now have a steel rod in my in my thigh. I was really sick. And the best available data, there wasn't much good data, but the best available data said that my median survival. Half the people like me would be dead in 24 weeks. 24 weeks!</p><p><strong>Harry Glorikian: </strong>Yeah.</p><p><strong>Dave deBronkart: </strong>And now a really pivotal moment was that as soon as the biopsy confirmed the disease, that it was kidney cancer, my physician, the famous doctor, Danny Sands, my PCP, because he knew me so well -- and this is why I hate any company that thinks doctors are interchangeable, OK? They they should all fry in hell. They're doing it wrong. They should have their license to do business removed -- because he knew me he said, "Dave, you're an online kind of guy. You might like to join this patient community." Now, think how important this is. This was January 2007, not 2021. Right. Today, many doctors still say stay off the Internet. Dr. Sands showed me where to find the good stuff.</p><p><strong>Harry Glorikian: </strong>Right. Yeah, that's important.</p><p><strong>Dave deBronkart: </strong>Well, right, exactly. So now and this turned out to be part of my surviving. Within two hours of posting my first message in that online community, I heard back. "Thanks for the, welcome to the club that nobody wants to join." Now, that might sound foolish, but I'd never known anybody who had kidney cancer. And here I am thinking I'm likely to die. But now I'm talking to people who got diagnosed 10 years ago and they're not dead. Right? Opening a mental space of hope is a huge factor in a person having the push to move forward. And they said there's no cure for this disease. That was not good news. But the but there's this one thing called high dose Interleukin 2. That usually doesn't work. So this was the patient community telling me usually doesn't work. But if you respond at all, about half the time, the response is complete and permanent. And you've got to find a hospital that does it because it's really difficult. And most hospitals won't even tell you it exists because it's difficult and the odds are bad. And here are four doctors in your area who do it, and here are their phone numbers. Now, ladies and gentlemen, I assert that from the point of view of the consumer, the person who has the need, this is valuable information. Harry, this is such a profound case for patient autonomy. We are all aware that physicians today are very overworked, they're under financial pressure from the evil insurance companies and their employers who get their money from the insurance companies. For a patient to be able to define their own priorities and bring additional information to the table should never be prohibited. At the same time, we have to realize that, you know, the doctors are under time pressure anyway. To make a long story short, they said this this treatment usually doesn't work. They also said when it does work, about four percent of the time, the side effects kill people.</p><p><strong>Harry Glorikian: </strong>So here's a question. Here's a question, though, Dave. So, you know, being in this world for my entire career, it's my first question is, you see something posted in a club, a space. How do you validate that this is real, right, that it's bona fide, that it's not just...I mean, as we've seen because of this whole vaccine, there's stuff online that makes my head want to explode because I know that it's not real just by looking at it. How do you as as a patient validate whether this is real, when it's not coming from a, you know, certified professional?</p><p><strong>Dave deBronkart: </strong>It's a perfect question for the whole concept of The Future You. The future you has more autonomy and more freedom to do things, has more information. You could say that's the good news. The bad news is you've got all this information now and there's no certain source of authority. So here you are, you're just like emancipation of a teenager into the adult life. You have to learn how to figure out who you trust. Yeah, the the good news is you've got some autonomy and some ability to act, some agency, as people say. The bad news is you get to live with the consequences as well. But don't just think "That's it, I'm going to go back and let the doctors make all the decisions, because they're perfect," because they're not, you know, medical errors happen. Diagnostic errors happen. The overall. The good news is that you are in a position to raise the overall level of quality of the conversations.</p><p><strong>Harry Glorikian: </strong>So, you know, talk about your journey after your cancer diagnosis from, say, average patient to E-patient to, now, you're a prominent open data advocate in health care.</p><p><strong>Dave deBronkart: </strong>Yes. So I just want to close the loop on what happened, because although I was diagnosed in January, the kidney came out in March, and my interleukin treatments started in April. And by July, six months after diagnosis, by July, the treatment had ended and I was all better. It's an immunotherapy. When immunotherapy works, it's incredible because follow up scans showed the remaining tumors all through my body shrinking for the next two years. And so I was like, go out and play! And I started blogging. I mean, I had really I had pictured my mother's face at my funeral. It's a, it's a grim thought. But that's how perhaps one of my strengths was that I was willing to look that situation in the eye, which let me then move forward. But in 2008, I just started blogging about health care and statistics and anything I felt like. And in 2009 something that -- I'm actually about to publish a free eBook about that, it's just it's a compilation of the 12 blog posts that led to the world exploding on me late in 2008 -- the financial structure of the U.S. health system meant that even though we're the most expensive system in the world, 50 percent more expensive than the second place country, if we could somehow fix that, because we're the most expensive and we don't have the best outcomes, so some money's being wasted there somewhere. All right. If we could somehow fix that, it would mean an immense amount of revenue for some companies somewhere was going to disappear.</p><p><strong>Dave deBronkart: </strong>Back then, it was $2.4 trillion, was the US health system. Now it's $4 trillion. And I realized if we could cut out the one third that excess, that would be $800 billion that would disappear. And that was, I think, three times as much as if Google went out of business, Apple went out of business and and Microsoft, something like that. So I thought if we want to improve how the system works, I'm happy if there are think tanks that are rethinking everything, but for you and me in this century, we got to get in control of our health. And that had to start with having access to our data. All right. And totally, unbeknownst to me, when the Obama administration came in in early 2009, this big bill was passed, the Recovery Act, that included $40 billion of incentives for hospitals to install medical computers. And one of the rules that came out of that was that we, the patients, had to be able to look at parts of our stuff. And little did I know I tried to use to try to look at my data. I tried to use the thing back then called Google Health. And what my hospital sent to Google was garbage. And I blogged about it, and to my huge surprise, The Boston Globe newspaper called and said they wanted to write about it, and it wasn't the local newspaper, it was the Washington health policy desk. And they put it on Page One. And my life spun out of control.</p><p><strong>Harry Glorikian: </strong>Yeah, no, I remember I remember Google Health and I remember you know, I always try to tell people, medicine was super late to the digitization party. Like if it wasn't for that the Reinvestment and Recovery Act putting that in place, there would still be file folders in everybody's office. So we're still at the baby stage of digitization and then the analytics that go with it. And all I see is the curve moving at a ridiculous rate based on artificial intelligence, machine learning being applied to this, and then the digitized information being able to come into one place. But you said something here that was interesting. You've mentioned this phenomenon of garbage in, garbage out. Right. Can you say more about one of the hospitals that treated you? I think it was Beth Israel. You mentioned Google Health. What went wrong there and what were the lessons you took away from that?</p><p><strong>Dave deBronkart: </strong>Well, there were, so what this revealed to me, much to my amazement, much to my amazement, because I assumed that these genius doctors just had the world's most amazing computers, right, and the computers that I imagined are the computers that we're just now beginning to move toward. Right. R\I was wrong. But the other important thing that happened was, you know, the vast majority of our medical records are blocks of text, long paragraphs of text or were back then. Now, it was in a computer then, it wasn't notes on paper, but it was not the kind of thing you could analyze, any more than you could run a computer program to read a book and write a book report on it. And so but I didn't know that. I didn't know what Google Health might do. The next thing that happened was as a result, since Google Health was looking for what's called structured data -- now, a classic example of structured data is your blood pressure. It's fill in a form, the high number, the low number, what's your heart rate? What's your weight, you know? The key value pairs, as some people call them. Very little of my medical history existed in that kind of form. So for some insane reason, what they decided to send Google instead was my insurance billing history.</p><p><strong>Dave deBronkart: </strong>Now, insurance data is profoundly inappropriate as a model of reality for a number of reasons. One of one reason is that insurance form data buckets don't have to be very precise. So at one point I was tested for metastases to the brain to see if I had kidney cancer tumors growing in my brain. The answer came back No. All right. Well, there's only one billing code for it. Metastases to the brain. And that's a legitimate billing code for either one. But it got sent to Google Health as metastases to the brain, which I never had. All right. Another problem is something called up-coding, where insurance billing clerks are trained you can bill for something based on the keywords that the doctors and nurses put in the computer. So at one point during my treatment, I had a CAT scan of my lungs to look for tumors. And the radiologist noted, by the way, his aorta is slightly enlarged. The billing clerk didn't care that they were only checking for kidney cancer tumors. The billing clerk saw aorta, enlarged, aneurysm, and billed the insurance company for an aneurysm, which I never had. Corruption. Corruption. People ask, why are our health care costs so high? It's this system of keyword-driven billing. But then on top of that, I had things that I never had anything like it. There was, when this blew up in the newspaper, the hospital finally released all my insurance billing codes. It turns out they had billed the insurance company for volvulus of the intestine. That's a lethal kink of the intestine that will kill you in a couple of days if it's not treated. Never had anything of the sort. Billing fraud.</p><p><strong>Harry Glorikian: </strong>Interesting.</p><p><strong>Dave deBronkart: </strong>Anyway, because a random patient had just tried to use Google Health and I knew enough about data from my day job to be able to say, "Wait a minute, this makes no sense, why is all this happening?" And I couldn't get a straight answer. You know, it's a common experience. Sometimes you ask a company, "I've got a problem. This isn't right." And sometimes they just blow you off. Well, that's what my hospital did to me. I asked about these specific questions and they just blew me off. So then once it was on the front page of the newspaper, the hospital is like, "We will be working with the E-patient Dave and his doctor." And there's nothing like publicity, huh?</p><p>[musical interlude]</p><p><strong>Harry Glorikian:</strong> Let’s pause the conversation for a minute to talk about one small but important thing you can do, to help keep the podcast going. And that’s to make it easier for other listeners discover the show by leaving a rating and a review on Apple Podcasts.</p><p>All you have to do is open the Apple Podcasts app on your smartphone, search for The Harry Glorikian Show, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but you’ll be doing us a huge favor.</p><p>And one more thing. If you like the interviews we do here on the show I know you’ll   like my new book, <i>The Future You</i>: <i>How Artificial Intelligence Can Help You Get Healthier, Stress Less, and Live Longer.</i></p><p>It’s a friendly and accessible tour of all the ways today’s information technologies are helping us diagnose diseases faster, treat them more precisely, and create personalized diet and exercise programs to prevent them in the first place.</p><p>The book comes out soon, so keep an eye out for the next announcement.</p><p>Thanks. And now back to our show.</p><p>[musical interlude]</p><p><strong>Harry Glorikian: </strong>One of your slogans is "Gimme my damn data," meaning, you know, your patient records. And so can you summarize first, the state of the art prior to this digital transformation? Why was it historically the case that patients didn't have easy access to charts from their doctor's office or their visits? Why has the medical establishment traditionally been reluctant or maybe even unable to share this data?</p><p><strong>Dave deBronkart: </strong>Well, first, I want to explain the origin of that of that term. Because the speech in September of that year that launched the global speaking had that title. What happened was that summer of 2009, my world was spinning out of control as I tried to answer people's questions and get involved in the blogging that was going on and health policy arguments in Washington and so on. And so a real visionary in Toronto, a man named Gunther Eisenbach, who had quite a history in pioneering in this area, invited me to give the opening keynote speech for his annual conference in Toronto that fall. And several times during the summer, he asked me a question I'd never been asked. I came to learn that it was normal, but it was "For our brochure, we need to know what do you want to call the speech? What's the title of the speech?" And I remember very well sitting in my office at work one day saying into the telephone, "I don't know, just call it 'Give me my damn data, because you guys can't be trusted." And much to my amazement, It stuck.</p><p><strong>Dave deBronkart:</strong> I want to be clear. Under the 1996 health information law called hip hop, you are entitled to a copy of every single thing they have about you. All right, and a major reason for that. Back in the beginning was to detect mistakes. So it's interesting because HIPAA arose from health insurance portability. 1996 was when it first became mandatory that you had to be able to take your insurance business elsewhere and therefore your records. And that's the origin of the requirement that anybody who holds your health information as part of your insurance or anything else has to be really careful about not letting it leak out. And therefore and it has to be accurate. Therefore, you have a right to look at it and get any mistakes fixed. But. Foot dragging, foot dragging, foot dragging. I don't want to. As we discussed earlier, there are some doctors who simply wanted to keep you captive. But there are also, the data was also handwritten garbage at times, just scribbles that were never intended to be read by anyone other than the person who wrote the note in the first place. </p><p><strong>Harry Glorikian: </strong>Well, but, you know, I'm not trying to necessarily defend or anything, but but, you know, as you found at Beth Israel Deaconess, and I talk about this in The Future You as well, part of the problem is most of these things that people look at as large electronic health record systems were are still are in my mind designed as accounting and billing systems, not to help the doctors or the patients. And that's still a major problem. I mean, I think until we have, you know, a Satya Nadella taking over Microsoft where he, you know, went down and started rewriting the code for Microsoft Office, you're not going to get to management of patients for the betterment of their health as opposed to let me make sure that I bill for that last Tylenol.</p><p><strong>Dave deBronkart: </strong>Absolutely. Well, and where I think this will end up, and I don't know if it'll be five years or 10 or 20, but where this will end up is, the system as it exists now is not sustainable as a platform for patient-centered care. The early stage that we're seeing now, there is an incredibly important software interface that's been developed in the last five or six years still going on called FHIR, F-H-I-R. Which is part of that final rule, all that. So all of our data increasingly in the next couple of years has to be available through an API. All right. So, yeah, using FHIR. And I've done some early work on collecting my own data from the different doctors in the hospitals I've gone to. And what you get what you get when you bring those all in, having told each of them your history and what medications you're on and so on, is you get the digital equivalent of a fax of all of that from all of them. That's not coordinated, right. The medication list from one hospital might not match even the structure, much less the content of the medication list. And here's where it gets tricky, because anybody who's ever tried to have any mistake fixed at a hospital, like "I discontinued that medicine two years ago," never mind something like, "No, I never had that diagnosis," it's a tedious process, tons of paperwork, and you've got to keep track of that because they so often take a long time to get them fixed. And I having been through something similar in graphic arts when desktop publishing took over decades ago. I really wonder, are we will we ultimately end up with all the hospitals getting their act together? Not bloody likely. All right. Or are we more likely to end up with you and me and all of us out here eventually collecting all the data and the big thing the apps will do is organize it, make sense of it. And here's a juicy thing. It will be able to automatically send off corrections back to the hospital that had the wrong information. And so I really think this will be autonomy enabled by the future, you holding your own like you are the master copy of your medical reality.</p><p><strong>Harry Glorikian: </strong>Yeah, I always you know, I always tell like what I like having as a longitudinal view of myself so that I can sort of see something happening before it happens. Right. I don't want to go in once the car is making noise. I like just I'd like to have the warning light go off early before it goes wrong. But. So you mentioned this, but do you have any are there any favorite examples of patient friendly systems or institutions that are doing data access correctly?</p><p><strong>Dave deBronkart: </strong>I don't want to finger any particular one as doing a great job, because I haven't studied it. Ok. I know there are apps, the one that I personally use, which doesn't yet give me a useful it gives me a pile of fax pages, but it does pull together all the data, it's it's not even an app, it's called My Patient Link. And anybody can get it. It's free. And as long as the hospitals you're using have this FHIR software interface, which they're all required to, by the way, but some still don't. As long as they do this, My Patient Link will go and pull it all together. Now it's still up to you to do anything with it. So we're just at the dawn of the age that I actually envisioned back in 2008 when I decided to do the Google Health thing and the world blew up in my face.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, I have access to my chart. And, you know, that's useful because I can go look at stuff, but I have to admit, and again, this is presentation and sort of making it easy to digest, but Seqster sort of puts it in a graphical format that's easier for me to sort of absorb. The information is the same. It's just how it gets communicated to me, which is half the problem. But but, you know, playing devil's advocate, how useful is the data in the charts, really? I mean, sometimes we talk as if our data is some kind of treasure trove of accurate, actionable data. But you've helped show that a lot of it could be, I don't want to say useless, but there's errors in it which technically could make it worse than useless. But how do you think about that when you when you think about this?</p><p><strong>Dave deBronkart: </strong>Very good. First note. First of all, you're right. It will...a lot of the actual consumer patient value will, and any time I think about that again, I think a lot of young adults, I think of parents taking care of a sick kid, you know, or middle aged people taking care of elders who have many declining conditions. Right. There's a ton of data that you really don't care about. All right, it's sort of it's like if you use anything like Quicken or Mint, you probably don't scrutinize every detail that's in there and look for obscure patterns or so on. But you want to know what's going on. And here's the thing. Where the details matter is when trouble hits. And what I guarantee we will see some time, I don't know if it'll be five years, 10, or 20, but I guarantee what we will see someday is apps or features within apps that are tuned to a specific problem. If my blood pressure is something I'm.... Six years ago my doctor said, dude, you're prediabetic, your A1C is too high. Well, that all of a sudden brings my focus on a small set of numbers. And it makes it really important for me to not just be tracking the numbers in the computer, but integrate it with my fitness watch and my diet app.</p><p><strong>Harry Glorikian: </strong>Right. </p><p><strong>Dave deBronkart: </strong>Yeah, I lost 30 pounds in a year. And then at the age of 65, I ran a mile for the first time in my life because my behavior changed. My behavior had changed to my benefit, not because of the doctor micromanaging me, but because I was all of a sudden more engaged in getting off my ass and doing something that was important to me.</p><p><strong>Harry Glorikian:</strong> well, Dave, you need to write a diet book, because I could use I could stand to lose like 10 or 20 pounds.</p><p><strong>Dave deBronkart: </strong>Well, no, I'm not writing any diet books. That's a project for another day. </p><p><strong>Harry Glorikian: </strong>That’s it for this week’s episode. Dave and I had a lot more to talk about, and we’ll bring you the second part of the conversation in the next episode, two weeks from now.</p><p>You can find past episodes of The Harry Glorikian Show and MoneyBall Medicine at my website, glorikian.com. Don’t forget to go to Apple Podcasts to leave a rating and review for the show. You can find me on Twitter at hglorikian. And we always love it when listeners post about the show there, or on other social media. </p><p>Thanks for listening, stay healthy, and be sure to tune in two weeks from now for our next interview.</p><p> </p>
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      <itunes:title>E-Patient Dave Says We Still Need Better Access to our Health Data</itunes:title>
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      <title>How Matthew Might Is Using Computation to Fight Rare Diseases</title>
      <description><![CDATA[<p>Harry's guest this week is Matthew Might, director of the Hugh Kaul Precision Medicine Institute at the University of Alabama at Birmingham. Might trained as a computer scientist, but a personal odyssey inspired him to make the switch into precision medicine. Now he uses computational tools such as knowledge graphs and natural language processing to find existing drug compounds that might help cure people with rare genetic disorders.</p><p>Might's odyssey began with the birth of his first child, Bertrand, in 2007. Bertrand seemed healthy at first, but soon developed a cluster of symptoms including developmental delay, lack of motor control, inability to produce tears, and epilepsy-like seizures.  For more than four years, doctors were unable to diagnose Bertrand's condition. But eventually a technique called whole exome sequencing revealed that he had no functioning gene for NGLY1, an enzyme that normally removes sugars from misfolded proteins. Bertrand, it turned out, was the first person in the world to be diagnosed with NGLY1 deficiency—and as with so many other "N of 1" diseases, there was no known treatment.</p><p>After the diagnosis, Matthew and and his wife Cristina decided to used social media and the Internet to locate other patients with NGLY1 disorders around the world. Eventually the couple discovered 70 patients with the condition. Reasoning from first principles about the role of NGLY1, Might discovered that giving Bertrand a sugar called N-acetylglucosamine, a metabolite of NGLY1, helped restore his ability to form tears. (Around the same time Might, co-founded a startup that screened existing drugs to see whether they could treat ion-channel-driven epilepsy similar to what Bertrand experienced; the company was quickly sold to Q State Biosciences.)</p><p>Working with collaborators at the University of Utah, Might studied planarian worms that had been engineered to lack NGLY1, and found that those that also lacked a second gene had a higher survival rate. That meant one way to treat Bertrand might be to inhibit the analogous gene in humans, in this case a gene for an enzyme called ENGase. Might used computational screening to look for existing drugs that would be inverse in shape and charge to the catalytic domain on ENGase, and might therefore inhibit it. </p><p>He found more than a dozen drugs that were already FDA-approved. One was Prevacid, a proton-pump inhibitor sold as common over-the-counter medication for acid reflux. It turned out that as a previously unsuspected side effect, Prevacid is an ENGase inhibitor. Bertrand started taking the drug, and Might says it was one of the treatments that helped to extend and enrich his life.</p><p>Sadly, Bertrand died in 2020 at the age of 12. But by that point, his father’s work to apply computation to basic biology, and thereby speed up the treatment of rare disorders, had sparked a movement that will long outlive him. Years before, Bertrand's story had caught the attention of the Obama administration, which invited Matthew to the White House to work on a range of precision-medicine projects. One was an NIH program called the All of Us initiative, which is collecting the genomes and medical records of a million Americans to search for correlations between mutations and health impacts. Might also launched a smaller pilot program called the Patient Empowered Precision Medicine Alliance (PEPMA) with the goal of repeating what he and Cristina had done for NGLY1 deficiency—that is, quickly diagnose the problem and identify possible treatments. </p><p>Might resigned from his White House role about one year into the Trump administration, then got an offer from University of Alabama to come to Birmingham to set up an institute to scale up the PEPMA idea. One project there called mediKanren involves using logic programming to highlight what Might calls the "unknown knowns" in the medical literature and identify existing, approved drugs that might treat rare disorders.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. 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Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian: </strong>My guest today is Matthew Might. He’s a computer scientist who transitioned into precision medicine and now builds computational tools to find new treatments for rare diseases. Since 2017 he’s been the director of the Hugh Kaul Precision Medicine Institute at the University of Alabama at Birmingham. </p><p>Might’s journey from pure computer science into medicine is a deeply personal story that began with the birth of his first child Bertrand in 2007. Bertrand seemed healthy at first. But soon he showed a mysterious cluster of symptoms including seizures, lack of motor control, and inability to produce tears. </p><p>For more than four years, doctors were unable to diagnose Bertrand’s condition. But eventually, using a then-new technology called whole exome sequencing, they determined that he had no functioning gene for NGLY1, an enzyme that normally helps to clear junk proteins out of cells. </p><p>It turned out that Bertrand was the first person ever to be diagnosed with NGLY1 deficiency. There was no obvious treatment available. Matthew says that’s when he began his transformation into an amateur biologist. </p><p>He shared Bertrand’s story on social media and in the press, and was able to locate and organize the families of dozens of other patients around the world who had the same mutation. He worked with colleagues at the University of Utah to make genetically engineered planarian worms that had a similar mutation. Experiments on the worms led showed that knocking out a second gene, for another enzyme called ENGase, seemed to help the worms live longer.</p><p>So on a hunch, Might set off on a computational search for compounds that might bind to ENGase in humans and inhibit its activity. He discovered that there was a drug on the market called Prevacid that was approved to treat acid reflux but also, as an unexpected side effect, inhibits ENGase. So Bertrand started taking Prevacid, and it helped. Matthew says it was one of the treatments that helped to extend and enrich his life.</p><p>Sadly, Bertrand passed away last year at the age of 12. But by that point, his father’s work to apply computation to basic biology, and thereby speed up the treatment of rare disorders, had sparked a movement that will long outlive him.</p><p>The story caught the attention of the Obama White House, which asked Matthew to lead several new initiatives in genomics and precision medicine. One of those was a pilot called the Patient-Empowered Precision Medicine Alliance, which had the goal of quickly diagnosing rare conditions and identifying treatments for more patients. </p><p>Now Might is continuing that work at the University of Alabama, Birmingham, where the Precision Medicine Institute uses computer science techniques like knowledge graphs and natural language processing to find more drugs that can be repurposed to fight rare diseases.</p><p>We covered all of that ground and more when we talked in late August. And once you hear our interview, I think you’ll agree with Might that computation is accelerating the genomics revolution in a way that’s going to change healthcare not just for people with rare diseases, but for everyone.</p><p><strong>Harry Glorikian:</strong> Matthew, welcome to the show. </p><p><strong>Matthew Might:</strong> Oh, thanks. Good to be here. </p><p><strong>Harry Glorikian:</strong> [I] spent a lot of time reading about what you're doing your past and sort of the history here, but I want to start off with, which sort of which fits right into the show, is you've said that data is the greatest drug of the 21st century and that precision medicine delivers data as a drug. Can you expand on what you mean by that</p><p><strong>Matthew Might:</strong> Yeah. And I've said this a few times in a few ways, but the principle here is that I think we need to look at data itself as a kind of intervention,that exposure to one's own data could have ramifications for your health. And you can imagine this in a very general sense.</p><p>Like if you get detailed data about your health and you might do something about it,  but if you give extremely detailed data to your physician, they might be able to do something with.  and, and oftentimes I'm thinking in terms of the very molecular in that case. And that's really where I spend a lot of my time, but giving clinicians molecular resolution on the nature of your specific health problems is really what I think is so revolutionary about medicine, right now. And the ways in which we can gather that data and the computational tools that will be available someday to physicians, and even to a certain extent right now will enable them to do things that no drug can do on its own. </p><p><strong>Harry Glorikian:</strong> Well, it's, it's interesting that you say data and, in that sense is I was just playing with something that pulled in all my medical data and put out all the longitudinal charts for me and highlighted all the ones where I was out of whack. And I texted my doctor. I'm like, we need to get on a Zoom call. I need to show you a couple of things that are out of whack, and I want to figure out why they're out of whack. So I agree with you that molecular will be that, that really high resolution level to get to. But even I think the simple data to give patients I think is powerful. It can move the needle,  if we can communicate it to them effectively. </p><p><strong>Matthew Might:</strong> Yeah. I mean, I think even the simplest incarnation of this could do some good, like imagine if your scale not only told you your current weight, but just drew a line between your last three readings and said, this is where you're going to be in 10 weeks. Something that simple might help.</p><p><strong>Harry Glorikian:</strong> My scale does do that and it tells me that you are getting fat, so you gotta, need to do something. So I try to intervene when I can. But, so, you have an interesting history and past, I mean, you went from pure computer scientist from the university of Utah into precision medicine at the University of Alabama. I mean, that's, I almost want to say based on what I was reading like that revolves around your personal experience from finding a diagnosis and treatment for your son. Can you give the listeners may be a condensed version of that story and how did it turn out that your experience studying things like functional programming turned out to be so useful for studying rare diseases?</p><p><strong>Matthew Might:</strong> Yeah, well, that's a wonderfully broad question. And yeah, I've had an unusual path to this point. So I'm currently the director of the Precision Medicine Institute at UAB. And so it's, it's a, very focused medical research institute. We want to help patients find tailored therapies for them.</p><p>My background in computation and computer science certainly influences that. We have a host of computational tools to help do that. Some are based on  artificial intelligence. Some are very systems biology focused, that start to invoke aspects of functional programming. And you're right. And the reason I started all this is my oldest son, who unfortunately passed away in October,  had an undiagnosed [disease]. And for four years I had no idea what he had. Eventually through a novel application of exome sequencing was able to determine that he had the first case ever known of this ultra rare disease called NGLY1 deficiency.</p><p>And I think that's safely the point where I really flipped in my head from a computer scientist to an amateur biologist. I knew enough to try to get him diagnosed, but that's one where I said, I've got to find some way to help him. And even though he passed away, it's hard to look back on his life and see it as anything but a major success in many ways, because he was born with a very short life expectancy and yet he made it to almost 13 years old and that would not have happened without sort of a sequence of emerging technologies that came just barely in time to extend and enrich his life and bring him a lot of joy.</p><p>I miss him every day, but I'm lucky that I have the opportunity to work every day, literally every day towards his legacy of helping patients with science. A lot of which is computational, but much of which is sometimes just good old fashioned wet biology where we go to the bench and try something out. </p><p><strong>Harry Glorikian:</strong> Yeah. I mean, you've sort of described the Precision Medicine Institute as a form of research consultative service, where the goal is to find the next step for any patient that reaches out on their diagnostic or therapeutic odyssey. I mean, that sounds amazing. I mean, maybe you could describe more of what happens on a day-to-day basis. </p><p><strong>Matthew Might:</strong> Yeah. So, it all comes down to Monday. So Monday is case review day. So if someone has reached out to the institute or if we are sort of currently working on something for them, Monday is where we all synchronize and put our heads together and try to figure out that next step.</p><p>So for patients that have reached out for the first time, it's, “Okay. What's the direction of a therapy.” And for those that are in flight, if there's been a change, if some experiment has completed, if some lab has come back, if new information has been introduced, we check to see, is there a new next step? Is there some, is there some new insight? And sometimes on those Mondays information will come back that enables a query to be run on one of our computational tools where, the best example would be, targets emerged. Like, if we modulate the behavior of this gene, we think it will be therapeutic for this patient now. And so we can run queries to see, can we modulate the behavior of that gene using some kind of small molecule or some other approach. </p><p><strong>Harry Glorikian:</strong> So, but when you're doing all this, I mean, are you, do you have a mission to sort of either scale up or automate? And if you do, how's that going? </p><p><strong>Matthew Might:</strong> Yeah, so it's, it's both. And in fact, it's, it's scaling through automating. We realized pretty early on that humans are an essential part of this process, right now, in the sense that humans really do need to—in this case, when I say humans, I mean, undergraduate students, because they're the ones within the institute that act effectively as the case managers and reach out and sort of pull in the information, digest it to some kind of structured format that the tools can process.</p><p>They might engage with the physician. They might reach out to some basic scientists that have insight on the relevant biological processes and figure out how do we drive it to a query or a recommendation for an experiment. And so, in some sense, when I think about scale, what I'm really thinking about is the efficiency of these undergraduates. How many cases per week can we get them to process and how much tooling and automation can we build to make them better and better at what they do? So that's how I think about scale. </p><p>And then I think about replicating this as a process and every academic medicine, medical center across the country. There's no reason you couldn't have a team of extremely bright students in every center of the country that run this kind of process for their patients locally.</p><p><strong>Harry Glorikian:</strong> Yeah. I mean, I would think that that would be one hell of an experience for the students to sort of see something actually being practically applied,as opposed to reading it in a book and it being a little bit more theoretical. </p><p><strong>Matthew Might:</strong> It is actually, in fact, I've noticed that literally 100% of the students that have participated in this program, I mean, all of them have gone on to graduate school, either for an MD, a PhD or both. So it's a 100% success rate to getting students in the grad school or med school.</p><p>And now we have a course version of it. And so in fact, several course versions of this, where you can take this class and you'll get to practice on some existing solved cases, but we even throw some unsolved ones in the mix to see how they do. And when they take these courses, and then for the honors students now at UAB, they can take a special course sequence as freshmen, where they'll get into the lab and build model organisms that represent some of the patients, which could ultimately enable the discovery of therapies for them. So I have to say it's, I can't think of a lot of other places where you get that kind of experience as an undergraduate. </p><p><strong>Harry Glorikian:</strong> Well, no, that's what I was thinking. I was thinking, “Hmm. How do we get this more broadly out there so that more people are doing this and, and get their head in that, in that zone and understand these issues.”</p><p>But I think one of the projects that I was looking at was mediKanren, if I'm pronouncing it correctly. What is it meant to do?</p><p><strong>Matthew Might:</strong> So mediKanren is really our flagship artificial intelligence tool that we use primarily for drug repurposing. We kind of built it with the end application in mind. So I'll tell you what it's really good at doing. If you tell it a gene and you tell it a direction to go, like, I want to make this gene more active or make this gene less active, it does very well on those kinds of questions and it can scour a number of data sets to do this. </p><p>So we're part of a, actually a larger effort through the NIH called the Translator Consortium. This is a huge research effort. We have lots of teams working together to both mine out all biomedical knowledge and make it structured. And another set of teams are trying to do automated reasoning on top of all of that knowledge. So we're on the automated reasoning side. We can do some of the mining too, but,  the other teams do such a fantastic job that we mostly just consume what they produce in terms the mining. And then we try to stitch it together,  so that we can find interesting ways to go after targets of interest. </p><p><strong>Harry Glorikian:</strong> So it's reasoning over medical knowledge graphs, I think, that you're trying to do. And so it sounds like a promising way to find unexpected connections between diseases and existing drugs. But if you had to explain that to a layman, how would you explain sort of a knowledge graph and what you guys are doing with it? Or do you have a favorite example? </p><p><strong>Matthew Might:</strong> I have pictures, but I can also do it with words. Knowledge graph. So let's talk about what it represents. Ultimately, there's a structure, but that's not actually all that important. A knowledge graph is a collection of facts,  and in facts are sentences. And they’re sentences of the form “A somehow relates to B in some sense.” and knowledge graph is just a huge collection of these sentences, “A is related to B,” where there's a specific relationship.</p><p>So a biomedical knowledge graph is going to have some constraints on it. So the A's and the B's that you're connecting are going to be nouns from medicine and biology. So there'll be drugs and diseases and genes and metabolites and all the other stuff that you typically read about in and medical papers. And the relationships are going to be biomedical in nature too. So it's going to be things like A inhibits B, A activates B, A causes B, A treats B. And so if you collect all of these sentences together, you have what we call a knowledge graph. And the cool thing about a knowledge graph is that you can do logic on top of it and try to look for relationships that are there, but not explicitly stated.</p><p>The simplest example of this is let's suppose there's two sentences in this knowledge graph, there's Aa increases B and B increases C. We can infer logically that if you increase A, you should also increase C, because B went up and so C should go up. So that's an example of logical inference on top of one of these knowledge graphs.</p><p><strong>Harry Glorikian:</strong> And so that's typically—there's a human intervention at some point to sort of look at this and then say, yes, this makes sense? </p><p><strong>Matthew Might:</strong> Yes, absolutely. So one of the major roles of these undergraduate analysts is to actually double check what comes back from a tool like this, because it's going to admit a logic argument. It's going to say, “I believe that this is going to influence the right target because,” and then the analyst can look at the because, and it's going to have references into biomedical data sets. It's going to have references to papers in PubMed, and they can go read those. They can look at the data sets and they can double-check the reasoner and say, you know what, I think you got this right. Or no, you made a mistake. And it does make mistakes sometimes. So a lot of the knowledge from the literature has been done by natural language processing and that makes mistakes. It's critical to have a human in the loop to double-check that.</p><p>And towards your earlier question about how we do scale, one of the things that we've added to the tool is ways to make that check go faster. So, for example, on the latest interface, when it tells you that it believes, for example, A increases B and you click on that, it's going to jump straight to the sentence that it pulled that from in the paper. And so you can just look directly at that sentence and say, do I believe this? Do I believe it got A right? Do I think it got B right? Do I think it got the relationship right? It's sitting right in front of the analyst. Whereas previously that was a few clicks away. They had to click on that. They had to click on the paper it found they had to go to the paper on their web browser. They had to look at the abstract, they had to find the sentence that it got it from,  and then figure it out. That's a long process actually now, and going from, a few minutes to verify and inference to a few seconds, that's a huge increase in efficiency for these analysts. </p><p><strong>Harry Glorikian:</strong> one of the things I would say is I always try to find out, is it shortens the overall process of even finding this relationship. I mean, if you had to put sort of time scales on this, how much faster you think that we're speeding up this whole process of being able to even identify something that might have this effect?</p><p><strong>Matthew Might:</strong> Yeah. Yeah. I mean, we we've had some natural experiments in this regard where in some cases there were answers sort of buried in the literature that seemed to have been therapeutically relevant and yet, very motivated disease communities hadn't stumbled across them, and motivated physician-scientists researching these diseases had not run across them, or didn't sort of connect the dots to realize that this could actually be relevant to a patient. Probably the most recent example of this is ADNP-driven autism, where there were results in the literature that could imply the key finding, which is that low-dose ketamine will increase ADNP. That's the key thing that the researchers trying to treat this disease were after. And in some sense that was out publicly known, if you will, in the literature. And yet it took running this query to find it,to sort of make the realization that this was true.</p><p>It’s kind of interesting actually to think about the fact that there's stuff out there that as a species we know, but we don't know that we know. So we call that sometimes the “unknown known.” It actually happens a lot in different contexts. And I even remember this happening in computer science, where there were communities out there so disparate that one had solved a problem the other had been trying to solve for three decades, and they just didn't know that I had effectively been solved. I mean, it can happen, actually.</p><p><strong>Harry Glorikian:</strong> Yes. And I talked to different groups that are working on systems that will make those unknowns more easily findable,  or at least highlight them so that people know they're there. But you guys search scientific literature, drug databases, for existing and approved [drugs]. And basically you're looking to find something that's going to perturb an ultra-rare disease. Why is it better to look for an existing drug rather than a new one? I’m just, curious of the practical arguments around that. </p><p><strong>Matthew Might:</strong> I'm not against developing a novel drug for a single patient. It's just that most patients don't have $2.6 billion. So it's a little out of their price range. That said, of course there's technologies that are changing this equation substantially. So I would say oligonucleotide therapies in general, it's not down to a thousand dollars a patient, but it's dramatically less than $2.6 billion. We're probably closer to the range of a couple million dollars, and that's falling fast, to do these sort of custom-programmed therapeutics for individual patients. So,  yeah, I'm not against finding novel matter. It's just that it's still outside the budget of what most ultra-rare patients can handle.</p><p><strong>Harry Glorikian:</strong> Right. Right. Well, I was talking to, it hasn't even come out yet, but I was talking to Kevin Davies in one of my last podcasts about CRISPR and just exactly that same discussion. So I don't know if you guys have sort of done a ballpark or sort of a thumbnail of what do you think, what fraction of rare conditions do you think, are treatable the way that you're you guys are approaching it? Is it fair to say that eventually you'll exhaust that approach in that we'll have to develop a new drug for the next disease?</p><p><strong>Matthew Might:</strong> Yeah and I guess we’ve got to sort of clarify what we mean by approach. So there's the AI-based approach or sort of strictly computational approach. And then there is what we can do if we're allowed to go to the wet lab for a little bit of stuff.</p><p>If you play the game where you can only use a computer, there's the answer for today and the answer in the limit. Once we’ve sort of saturated biomedical knowledge graphs, if you will, with everything wherever we're going to know—and already, right off the bat, I think we jumped to a reasonable suggestion somewhere between 5 and 10% of the time, for the case of ultra-rare genetic diseases, and there are factors that can influence that. So for example, if it's a dominant disorder where the genetic insult has really just sort of tweaked the thermostat on a gene, so it's a little overactive or a little underactive, we tend to have a better success rate jumping straight to an answer with a computational tool than if the gene has been wiped out and now we have to find a way to replace that activity. </p><p>Now the good news is if you look at sort of the census of rare disease, 70 or 75% of all patients fall into that bucket of the genes have become a little overactive or a little underactive. And so it's very amenable to an approach like this. And for the patients that where the gene is missing, there are still things we can do computationally. The call I had right before this one was exactly that case for you. What can we do computationally? And by playing with the tool, we found some alternate targets to go after. But it takes some play to do it at that point. It's not quite as automated, but you're still using the tool as targets emerge to ask the right questions. </p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> Before you moved to UAB, you were working on precision medicine initiatives for the Obama White House, I believe, and then briefly for the Trump White House. Can you update the status of the, was it, the All for Us initiative and then the Patient Empowered Precision Medicine Alliance? </p><p><strong>Matthew Might:</strong> Sure. So, yeah, I did spend, I think, in total, about three years either working with or working for the White House,  under both Obama and Trumpm on the precision medicine initiative and related initiatives, like the Million Veterans program, as well as micro-initiatives, like the Patient Empowerment Precision Medicine Alliance, where we were just kind of trying to test it out, to see if these ultra-tailored approaches would work. </p><p>So as far as where things stand today, All of Us is a very successful, large scale clinical genomics research program, which is, I think on the way to hitting its target of enrolling a million Americans. And the way I described that program even at the time was like you're trying to build the Rosetta stone of the human genome. It turns out we reached a point where it's really easy to sequence a genome. Not so easy to interpret a genome. So if I sequence you or me and we find mutations, we go, “huh. Well, that's interesting. What does that mean?” And we go, I don't know. But let's suppose you got a million people that donate their health records and their genomes. Well, now you can start to draw statistical connections between what this mutation or this collection of mutations means in terms of actual human health. So it's finally a way to start decoding it. And so that's really what All of Us is about in my view. It's about building that Rosetta stone for the human genome.</p><p>For the Million Veterans program, it's actually sort of inside of it, yet also outside of it and really trying to do the same thing, but leveraging the extensive clinical records and histories that the VA happens to have access to,  and taking a slightly different method to get there in terms of genomic data, starting with SNP chips and genotyping, as opposed to full-on sequencing.</p><p>And then for PEPMA, that was really a pilot project where we just said, okay, can we take a small number of patients and can we actually sort of run this process all the way forward, where we get a genotype and try to find a medication that might help them. And it turns out for a handful of cases, we were actually able to do it. It was all thanks to getting a group of private entities, like, companies and universities to come together so that we actually had enough infrastructure in one place to run the process. And so we were actually able to do that. </p><p><strong>Harry Glorikian:</strong> Yeah, it's funny because I always think to myself, like all these silos, if we could just have them integrate in some way, you'd have a lot more data to work with. I always find that in the beginning, you always find those low hanging fruit that sort of fall out and then it gets harder. If you have enough to start with, something interesting falls out of it. </p><p>You’ve said that in precision medicine, for a lot of cases that we deal with, we don't have sort of the right drug right away, but we can always prescribe an experiment. What do you mean by that?</p><p><strong>Matthew Might:</strong> Yeah, by that, I mean, and so this gets into sort of like the philosophy of medicine itself. So you'll hear clinicians use terms like “This is not actionable.” And then you hear that an awful lot in rare disease. You hear it a lot at the end of cancer, where they'll say, oh, there's nothing we can do, or there's no clinical utility in this. And, and I think precision medicine subverts that whole approach and says that, well, if you've run out of clinical options, you can still do some science.</p><p>And increasingly I think we can systematize that science, so that it's not okay. We need to do something. It's, here's a set of things that you could reasonably do at this point, a set of experiments that if run, might point to what to do or might point to another next step. And a great example of that is,  for, for, particularly for a rare genetic disorder, in many cases you can build a model organism, you can build a fly and you can build a worm pretty inexpensively,  to model that genetic disease, using things like CRISPR. People don't appreciate, I think, the full importance of gene editing. People think about editing human genomes, but the fact that it made it so much easier to edit animal genomes was actually in many ways an even bigger impact and a more immediate one as well.</p><p>So yeah, you could for virtually any genetic disease, if there's an animal equivalent to that gene, you can build the animal. And if it's a small animal, you can test a lot of drugs on it, pretty inexpensively. So, I've got a friend and collaborator, Ethan Perlstein, who built a company around this approach and was very successful actually in treating, some patients this way. I have a collaborator, Clement Chow, who is an academic doing this on the academic side, focused on Drosophila, doing this very successfully.</p><p>So, that's not a drug, it's not a procedure, not a medical procedure anyway, but it's a very well-defined process. And it's a process whose outcomes could be measured statistically. So you might even know what your odds of success are before you try it, whether or not you're going to find something. So I think it takes an evolution in our thinking to realize that this is a perfectly reasonable thing to do for a lot of patients: build that fly, build that worm and test a bunch of drugs. </p><p><strong>Harry Glorikian:</strong> And, there's a lot of times where things seem perfectly normal for me to suggest, and I've had people look at me, like I just grew like two more heads off, off my shoulders.</p><p>So, but this sounds like if this is your fundamental belief that there is nothing that is not actionable, medicine or otherwise. </p><p><strong>Matthew Might:</strong> Right, right. And I think it also requires a degree of stoicism because just because there's something to do, it doesn't mean it's going to work in time. And this was something I was always mindful of during my son's life, was that while there was always something to do, I was mindful that it was probably not going to always happen in time. It was always a race against the clock. But there was always something to do. And even today there's still, as I say, I'm still working on his condition. I'm still very actively engaged in drug development for his disorder. So even now there's something to do. As a parent it's still brings me benefit to know that it, it will benefit others. So it does require a shift in perspective about the meaning of actionable. </p><p><strong>Harry Glorikian:</strong> It feels like finding [computational] ways to use existing drugs, to help people with rare problems, was waiting to be solved with someone with your exact skillset in computer science and your exact set of motivations as a father of a child with a genetic disorder. And so many other key players that I've talked to in this sort of that have this N of 1 stories have very similar biographies. I mean, there's been a few movies made about it, right? It makes somebody wonder that if you know your son hadn't been born to you with your expertise, who could apply knowledge and bring that experience to it, that you wouldn't be moving the ball forward. How does that make you feel about the state of science or medicine? </p><p><strong>Matthew Might:</strong> Yeah. And, you're not the first to make an observation that I sort of ended up in the right place at the right time with the right set of motivations. And there's a lot of truth to that. I think about if he'd been born even a few years earlier, or a few years later, how things would have played out differently.</p><p>I realized early on that there's a desperate need for computer science within medicine, that there is so much opportunity just left on the table for lack of expertise. But I made a deeper observation, which is that as much as medicine needs computer science, what it needs even more is computer scientists.</p><p>The problem is that the average computer scientist doesn't have sufficient motivation to go learn. Medicine's big, it's messy. And I got to say, biology is so messy that to the mind of a computer scientist at times, you're just like, God, what a disaster biology is. It's like every time you have a rule or a law, most of the time at the end of it, there's nothing ever that’s always true. And when you come from a field like computer science, where you can put clean little theorems around everything and layers of abstraction that never break, it's like, oh gosh, who designed all this? Who was the engineer that thought that was a good idea?</p><p>That that's how I feel half the time when I dive into biology. And yet there are abstractions that you can borrow from computer science and you can use these things to start to describe the way biology does what it does. And so I do think of the cell as a computer or a machine—maybe a Rube Goldberg machine, but a machine nonetheless. And one that you can sort of intellectually approach, from the direction of computer science. </p><p>Within computer science, I happen to have a background in functional programming. And there are times when, describing the mechanics of how biological processes operate, where this kind of feels like, I'm playing with a little functional programming language. Like I'm doing graphic writing instead of term rewriting. There's been these moments where I'm like, yeah, this is just a programming language. It's weird, but it is one. And then I think, gosh, I mean, it is strange that I arrived with that particular skill set at this point in biology's history,  to make these observations and use that profitably towards helping patients.</p><p>So in terms of how they makes me feel? Lucky, I guess, that I've, I've just sort of been there on the right place at the right time. And the same thing is true for almost everything else that's occurred since,  since Bertrand was born, from the timing of the precision medicine initiative itself, to getting his story in front of President Obama at just that moment, to getting the invitation to go, to getting the invitation to participate, and then join the team. I mean, the timing on all of it was just so ridiculous to me that I look back and think, I can't believe that happened. </p><p><strong>Harry Glorikian:</strong> Wow. I mean, timing. Being in the right place at the right time, a little luck, I'll take that every day, right, where everything starts ti come together.I think back to, because I was involved at Applied Biosystems when we did the genome and wow, that was such a big deal. And then every once in a while I still see an article saying. Yeah, the genome hasn't really done much. And I'm like, these people, how do they write these things with a straight face? And it gets published in a reasonable journal. And I'm like, these people are out of their minds, considering everything in biotech, everything in, functional genomics, all this stuff is, is grounded in that information.</p><p><strong>Matthew Might:</strong> I see the same stuff and I think, what do you mean nothing has come out of it. What are you talking about? Everything has come from that. And then, when I point to success stories with individual patients, which are growing and growing, they're like, yeah, but that's the exception. It’s turning into the rule more and more, and I think what you're seeing now is that as with any new technology, the barrier to entry starts very high. But that barrier has been falling fast to the point where, people who start off, the parent side, like me, are increasingly finding that they can get into the game and that they can do something.</p><p>And I think it's at a level now where almost any, patient or parent that has a technical background can jump over and do something. But even patients without that background are making the jump now, too. So barrier to entry is falling so fast that it really has changed everything when it comes to patients moving the needle for themselves using the fruits of the genomic era. </p><p><strong>Harry Glorikian:</strong> Yeah. And I think computational, power and costs and ease of use are starting to come down dramatically, which then brings the two together, which is of course the idea of behind the whole show and everybody that I talk to, and I see the, some of the companies I talked to they're like, yep, we sort of eliminated three years of work. We could get it done in, a week to two weeks because of what we're looking at, how we've applied our computer science. How many new pathways we can sort of identify of course, for new drugs. </p><p><strong>Matthew Might:</strong> And I, I can give you examples of where the barriers fell overnight as I needed them to, just by luck. Or when it came to creating model organisms, right? Before CRISPR, gosh, that was an expensive, daunting. process, it took a lot of time. And then CRISPR shows up and they're like, oh yeah, no, it'll be a few months and $10,000. And it was just, I mean, just like that it happened. And there's equivalent revolutions happening on the computational side too. If you look at your protein folding technology, it was a joke, that like, yeah, it'll never happen in silico. And then all of a sudden, like now some say maybe the only way we'll ever get some structures is in silico.  And then that was kind of an overnight thing too. Obviously it wasn't overnight for the engineers on the project at Google. But once it appears like, oh my gosh, what a game changer. </p><p><strong>Harry Glorikian:</strong> Well, and then as soon as somebody does it, it motivates more people to sort of grow and it sort of moves the space forward that much faster. That's the part I find interesting is most people have trouble understanding the speed of change, and it's moving faster now than—and I'm used to, trying to keep track of how fast everything's going, and I'm finding myself having trouble keep up with how quickly things are shifting. </p><p><strong>Matthew Might:</strong> It really is changing faster than I think any one person can predict. And the disruptions are coming almost out of nowhere. Like no one saw CRISPR coming. You might reasonably foresee that at some point, some efficient gene editing technology would have emerged. But I think it emerged much faster than was expected.I remember when I would work with patients, five or six years ago, I'd say, yeah, there's this thing, these antisense oligonucleotides, and maybe someday, but we're probably, I would say at the time, like maybe 20 years away. Then you see oligonucleotide therapies really take off and, then I think it was two years later there's an FDA approval. Then a couple of years after that, there's the first big N of 1 introduction. And then like a year and a half later, we were all injecting mRNA into ourselves. Well, that happened pretty fast. It wasn't a couple years. </p><p><strong>Harry Glorikian:</strong> Yeah. And, and for people like you and me that are in this, like, my, my mind is like, wow, this is awesome. And then I try to explain to someone and they don’t understand the impact that some of this is happening in the implications of what we're talking about. </p><p><strong>Matthew Might:</strong> Yeah. And, I think that, going forward, it's going to be a much steeper acceleration than anybody can really predict because we've suddenly just burst into the era of programmable therapeutics. I mean, COVID really suddenly just threw it on the table. There it is. And an example as well, people said, okay, well, if you can just give mRNA directly, instead of trying to deliver these complicated proteins to do the gene editing, why don't you deliver the mRNA for the CRISPR protein or, for, for CAS9 and deliver this along with the guide RNAs, well that's much easier. And my, my gosh, it looks like it might actually work. So these things, they couple in unexpected ways, and very quickly too. And so I I'm excited cause I have no way to know what's coming now. </p><p><strong>Harry Glorikian:</strong> I've always felt, I don't know what's coming. That's why I try to read such a broad array of, sources, everything that's going on in, you know, chip development to what's going on in our world. But I think the next big wave of shifts is going to be how a lot of this gets implemented, the business models behind it. And that's the next big shift because you don't have to do it exactly the same way you had been doing it up til now.</p><p><strong>Matthew Might:</strong> Oh, I agree. And, and oddly enough, yeah, I spent a fair amount of time thinking about stuff as mundane as how do we get payers to actually pay for some of these things? How do we show them that there is value to be captured already? And, because there is, I think we're not far away from a future where payers realize that it's going to be cheaper to take this very expensive patient with a complex disease and look for sort of a root cause treatment than to continue paying for symptomatic treatment. I think we're at the threshold of that era. </p><p><strong>Harry Glorikian:</strong> Well, I think, the CEO of Illumina said we want to get whole genome down to $60. Right. I mean, at some point you're like, okay, when are you going to stop being worried about the cost of this? Because it's going to be a rounding error at some point. </p><p><strong>Matthew Might:</strong> Yeah. Over the course of someone's life, it's already a rounding error you know it's already there.</p><p><strong>Harry Glorikian:</strong> But $60, yeah. I mean, I was, I was,  talking to a company where they could do, if you could do the initial analytics for $60 and then do the computational on top of it for another $60, at some point you're like, look, we should just be doing this for everybody. The problem is the implementation. And can physicians keep up with, what does it all mean and what am I supposed to do? </p><p><strong>Matthew Might:</strong> Yeah. And that's why I think, when I talk about precision medicine and data as a drug, I always have to highlight the importance of computational aid for the physician. Because if you were to give a physician [raw DNA data[, they would go, “What, I don't know what to do with that.”  Even if you distill it down to the individual mutations, the average physician goes, “I still don't know what to do with that.” It's gotta be broken down into something far more actionable for them.</p><p>And I think we're going to look back at now as sort of like the dark ages of IT in medicine, because we're in a situation where I don't know any physician that loves the EHR they use. In fact, they all hate it. It is a disastrous user experience across the board. And this is a classic problem in software where the people who pay for the things are not the people who use the things, and say, so what are EHRs optimized for? Billing. There's only one EHR as far as I can tell it's optimized for patient care, and that's at the VA, where they're not really concerned about billing. And so people like that one,  which is, not, not a big surprise. </p><p><strong>Harry Glorikian:</strong> Well, and they were talking about, they wanted to put in Epic. I was like, who got paid like behind some closed door to make that decision? That was the dumbest decision I've ever heard anybody make. </p><p><strong>Matthew Might:</strong> I thought the same thing as you, having worked in the Million Veterans program. Like, no, that's the crown jewel. That thing actually works and it works well, and it gets great data,  do not replace that. Keep it as is. </p><p><strong>Harry Glorikian:</strong> Yeah. Well you need to, unfortunately whoever's making that decision has no skin in that game as far as I can tell, but I agree with you. I mean, I've said over and over, if anything's gonna break medicine, it's going to be the existing EMR systems because you can't innovate if you can't get the data out. And Google and Microsoft and Apple and everybody's innovating because they get to change their system at will, right. Everybody gets to jump on AWS and innovate. The system is sort of stuck in stasis and can't move out of it, which is what I find worrisome. </p><p><strong>Matthew Might:</strong> I agree. You've either got to get the data out or the computation in. Preferably both. I've dealt with physicians where I can say, “Hey, we could give you this really cool genomic test for your patients. And then if they try to take a drug, you'll know if it's not going to work for them.” And they go, “Well, will there be automated decision support in the EHR to tell me if that happens? Or do I have to sort of look at the note and see that they have this variant?” I go, “Well, you can have to look at the note.” And they say, “No, I do not want that, because if that note is in there and I don't figure that out, and I prescribe a drug that causes an adverse event. I'll get sued. But if the information's not there at all, I can't be sued.” That's the world we live in.</p><p><strong>Harry Glorikian:</strong> Well, listen, it was great to speak to you. The stuff you're doing is awesome. I wish more people knew about it. I wish more students were involved in it so they could get firsthand experience. Like you said, I think that's when we can start to teach people the crossover between medicine and computational work in general, because I'm always trying to find people that know both, and there’s not a lot of fruit on that tree at the moment. More is growing, but not as much as you'd like.</p><p><strong>Matthew Might:</strong> I agree. We need to get people going more often in both directions. And that's one of my missions at the Institute as well as to cross-train folks in into both sides, biology and computer science.</p><p><strong>Harry Glorikian:</strong> Excellent. Well, it was great to talk to you. I appreciate the time. </p><p><strong>Matthew Might:</strong> Likewise. It has been a pleasure.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian. Thanks for listening, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Tue, 14 Sep 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Matthew Might, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest this week is Matthew Might, director of the Hugh Kaul Precision Medicine Institute at the University of Alabama at Birmingham. Might trained as a computer scientist, but a personal odyssey inspired him to make the switch into precision medicine. Now he uses computational tools such as knowledge graphs and natural language processing to find existing drug compounds that might help cure people with rare genetic disorders.</p><p>Might's odyssey began with the birth of his first child, Bertrand, in 2007. Bertrand seemed healthy at first, but soon developed a cluster of symptoms including developmental delay, lack of motor control, inability to produce tears, and epilepsy-like seizures.  For more than four years, doctors were unable to diagnose Bertrand's condition. But eventually a technique called whole exome sequencing revealed that he had no functioning gene for NGLY1, an enzyme that normally removes sugars from misfolded proteins. Bertrand, it turned out, was the first person in the world to be diagnosed with NGLY1 deficiency—and as with so many other "N of 1" diseases, there was no known treatment.</p><p>After the diagnosis, Matthew and and his wife Cristina decided to used social media and the Internet to locate other patients with NGLY1 disorders around the world. Eventually the couple discovered 70 patients with the condition. Reasoning from first principles about the role of NGLY1, Might discovered that giving Bertrand a sugar called N-acetylglucosamine, a metabolite of NGLY1, helped restore his ability to form tears. (Around the same time Might, co-founded a startup that screened existing drugs to see whether they could treat ion-channel-driven epilepsy similar to what Bertrand experienced; the company was quickly sold to Q State Biosciences.)</p><p>Working with collaborators at the University of Utah, Might studied planarian worms that had been engineered to lack NGLY1, and found that those that also lacked a second gene had a higher survival rate. That meant one way to treat Bertrand might be to inhibit the analogous gene in humans, in this case a gene for an enzyme called ENGase. Might used computational screening to look for existing drugs that would be inverse in shape and charge to the catalytic domain on ENGase, and might therefore inhibit it. </p><p>He found more than a dozen drugs that were already FDA-approved. One was Prevacid, a proton-pump inhibitor sold as common over-the-counter medication for acid reflux. It turned out that as a previously unsuspected side effect, Prevacid is an ENGase inhibitor. Bertrand started taking the drug, and Might says it was one of the treatments that helped to extend and enrich his life.</p><p>Sadly, Bertrand died in 2020 at the age of 12. But by that point, his father’s work to apply computation to basic biology, and thereby speed up the treatment of rare disorders, had sparked a movement that will long outlive him. Years before, Bertrand's story had caught the attention of the Obama administration, which invited Matthew to the White House to work on a range of precision-medicine projects. One was an NIH program called the All of Us initiative, which is collecting the genomes and medical records of a million Americans to search for correlations between mutations and health impacts. Might also launched a smaller pilot program called the Patient Empowered Precision Medicine Alliance (PEPMA) with the goal of repeating what he and Cristina had done for NGLY1 deficiency—that is, quickly diagnose the problem and identify possible treatments. </p><p>Might resigned from his White House role about one year into the Trump administration, then got an offer from University of Alabama to come to Birmingham to set up an institute to scale up the PEPMA idea. One project there called mediKanren involves using logic programming to highlight what Might calls the "unknown knowns" in the medical literature and identify existing, approved drugs that might treat rare disorders.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian: </strong>My guest today is Matthew Might. He’s a computer scientist who transitioned into precision medicine and now builds computational tools to find new treatments for rare diseases. Since 2017 he’s been the director of the Hugh Kaul Precision Medicine Institute at the University of Alabama at Birmingham. </p><p>Might’s journey from pure computer science into medicine is a deeply personal story that began with the birth of his first child Bertrand in 2007. Bertrand seemed healthy at first. But soon he showed a mysterious cluster of symptoms including seizures, lack of motor control, and inability to produce tears. </p><p>For more than four years, doctors were unable to diagnose Bertrand’s condition. But eventually, using a then-new technology called whole exome sequencing, they determined that he had no functioning gene for NGLY1, an enzyme that normally helps to clear junk proteins out of cells. </p><p>It turned out that Bertrand was the first person ever to be diagnosed with NGLY1 deficiency. There was no obvious treatment available. Matthew says that’s when he began his transformation into an amateur biologist. </p><p>He shared Bertrand’s story on social media and in the press, and was able to locate and organize the families of dozens of other patients around the world who had the same mutation. He worked with colleagues at the University of Utah to make genetically engineered planarian worms that had a similar mutation. Experiments on the worms led showed that knocking out a second gene, for another enzyme called ENGase, seemed to help the worms live longer.</p><p>So on a hunch, Might set off on a computational search for compounds that might bind to ENGase in humans and inhibit its activity. He discovered that there was a drug on the market called Prevacid that was approved to treat acid reflux but also, as an unexpected side effect, inhibits ENGase. So Bertrand started taking Prevacid, and it helped. Matthew says it was one of the treatments that helped to extend and enrich his life.</p><p>Sadly, Bertrand passed away last year at the age of 12. But by that point, his father’s work to apply computation to basic biology, and thereby speed up the treatment of rare disorders, had sparked a movement that will long outlive him.</p><p>The story caught the attention of the Obama White House, which asked Matthew to lead several new initiatives in genomics and precision medicine. One of those was a pilot called the Patient-Empowered Precision Medicine Alliance, which had the goal of quickly diagnosing rare conditions and identifying treatments for more patients. </p><p>Now Might is continuing that work at the University of Alabama, Birmingham, where the Precision Medicine Institute uses computer science techniques like knowledge graphs and natural language processing to find more drugs that can be repurposed to fight rare diseases.</p><p>We covered all of that ground and more when we talked in late August. And once you hear our interview, I think you’ll agree with Might that computation is accelerating the genomics revolution in a way that’s going to change healthcare not just for people with rare diseases, but for everyone.</p><p><strong>Harry Glorikian:</strong> Matthew, welcome to the show. </p><p><strong>Matthew Might:</strong> Oh, thanks. Good to be here. </p><p><strong>Harry Glorikian:</strong> [I] spent a lot of time reading about what you're doing your past and sort of the history here, but I want to start off with, which sort of which fits right into the show, is you've said that data is the greatest drug of the 21st century and that precision medicine delivers data as a drug. Can you expand on what you mean by that</p><p><strong>Matthew Might:</strong> Yeah. And I've said this a few times in a few ways, but the principle here is that I think we need to look at data itself as a kind of intervention,that exposure to one's own data could have ramifications for your health. And you can imagine this in a very general sense.</p><p>Like if you get detailed data about your health and you might do something about it,  but if you give extremely detailed data to your physician, they might be able to do something with.  and, and oftentimes I'm thinking in terms of the very molecular in that case. And that's really where I spend a lot of my time, but giving clinicians molecular resolution on the nature of your specific health problems is really what I think is so revolutionary about medicine, right now. And the ways in which we can gather that data and the computational tools that will be available someday to physicians, and even to a certain extent right now will enable them to do things that no drug can do on its own. </p><p><strong>Harry Glorikian:</strong> Well, it's, it's interesting that you say data and, in that sense is I was just playing with something that pulled in all my medical data and put out all the longitudinal charts for me and highlighted all the ones where I was out of whack. And I texted my doctor. I'm like, we need to get on a Zoom call. I need to show you a couple of things that are out of whack, and I want to figure out why they're out of whack. So I agree with you that molecular will be that, that really high resolution level to get to. But even I think the simple data to give patients I think is powerful. It can move the needle,  if we can communicate it to them effectively. </p><p><strong>Matthew Might:</strong> Yeah. I mean, I think even the simplest incarnation of this could do some good, like imagine if your scale not only told you your current weight, but just drew a line between your last three readings and said, this is where you're going to be in 10 weeks. Something that simple might help.</p><p><strong>Harry Glorikian:</strong> My scale does do that and it tells me that you are getting fat, so you gotta, need to do something. So I try to intervene when I can. But, so, you have an interesting history and past, I mean, you went from pure computer scientist from the university of Utah into precision medicine at the University of Alabama. I mean, that's, I almost want to say based on what I was reading like that revolves around your personal experience from finding a diagnosis and treatment for your son. Can you give the listeners may be a condensed version of that story and how did it turn out that your experience studying things like functional programming turned out to be so useful for studying rare diseases?</p><p><strong>Matthew Might:</strong> Yeah, well, that's a wonderfully broad question. And yeah, I've had an unusual path to this point. So I'm currently the director of the Precision Medicine Institute at UAB. And so it's, it's a, very focused medical research institute. We want to help patients find tailored therapies for them.</p><p>My background in computation and computer science certainly influences that. We have a host of computational tools to help do that. Some are based on  artificial intelligence. Some are very systems biology focused, that start to invoke aspects of functional programming. And you're right. And the reason I started all this is my oldest son, who unfortunately passed away in October,  had an undiagnosed [disease]. And for four years I had no idea what he had. Eventually through a novel application of exome sequencing was able to determine that he had the first case ever known of this ultra rare disease called NGLY1 deficiency.</p><p>And I think that's safely the point where I really flipped in my head from a computer scientist to an amateur biologist. I knew enough to try to get him diagnosed, but that's one where I said, I've got to find some way to help him. And even though he passed away, it's hard to look back on his life and see it as anything but a major success in many ways, because he was born with a very short life expectancy and yet he made it to almost 13 years old and that would not have happened without sort of a sequence of emerging technologies that came just barely in time to extend and enrich his life and bring him a lot of joy.</p><p>I miss him every day, but I'm lucky that I have the opportunity to work every day, literally every day towards his legacy of helping patients with science. A lot of which is computational, but much of which is sometimes just good old fashioned wet biology where we go to the bench and try something out. </p><p><strong>Harry Glorikian:</strong> Yeah. I mean, you've sort of described the Precision Medicine Institute as a form of research consultative service, where the goal is to find the next step for any patient that reaches out on their diagnostic or therapeutic odyssey. I mean, that sounds amazing. I mean, maybe you could describe more of what happens on a day-to-day basis. </p><p><strong>Matthew Might:</strong> Yeah. So, it all comes down to Monday. So Monday is case review day. So if someone has reached out to the institute or if we are sort of currently working on something for them, Monday is where we all synchronize and put our heads together and try to figure out that next step.</p><p>So for patients that have reached out for the first time, it's, “Okay. What's the direction of a therapy.” And for those that are in flight, if there's been a change, if some experiment has completed, if some lab has come back, if new information has been introduced, we check to see, is there a new next step? Is there some, is there some new insight? And sometimes on those Mondays information will come back that enables a query to be run on one of our computational tools where, the best example would be, targets emerged. Like, if we modulate the behavior of this gene, we think it will be therapeutic for this patient now. And so we can run queries to see, can we modulate the behavior of that gene using some kind of small molecule or some other approach. </p><p><strong>Harry Glorikian:</strong> So, but when you're doing all this, I mean, are you, do you have a mission to sort of either scale up or automate? And if you do, how's that going? </p><p><strong>Matthew Might:</strong> Yeah, so it's, it's both. And in fact, it's, it's scaling through automating. We realized pretty early on that humans are an essential part of this process, right now, in the sense that humans really do need to—in this case, when I say humans, I mean, undergraduate students, because they're the ones within the institute that act effectively as the case managers and reach out and sort of pull in the information, digest it to some kind of structured format that the tools can process.</p><p>They might engage with the physician. They might reach out to some basic scientists that have insight on the relevant biological processes and figure out how do we drive it to a query or a recommendation for an experiment. And so, in some sense, when I think about scale, what I'm really thinking about is the efficiency of these undergraduates. How many cases per week can we get them to process and how much tooling and automation can we build to make them better and better at what they do? So that's how I think about scale. </p><p>And then I think about replicating this as a process and every academic medicine, medical center across the country. There's no reason you couldn't have a team of extremely bright students in every center of the country that run this kind of process for their patients locally.</p><p><strong>Harry Glorikian:</strong> Yeah. I mean, I would think that that would be one hell of an experience for the students to sort of see something actually being practically applied,as opposed to reading it in a book and it being a little bit more theoretical. </p><p><strong>Matthew Might:</strong> It is actually, in fact, I've noticed that literally 100% of the students that have participated in this program, I mean, all of them have gone on to graduate school, either for an MD, a PhD or both. So it's a 100% success rate to getting students in the grad school or med school.</p><p>And now we have a course version of it. And so in fact, several course versions of this, where you can take this class and you'll get to practice on some existing solved cases, but we even throw some unsolved ones in the mix to see how they do. And when they take these courses, and then for the honors students now at UAB, they can take a special course sequence as freshmen, where they'll get into the lab and build model organisms that represent some of the patients, which could ultimately enable the discovery of therapies for them. So I have to say it's, I can't think of a lot of other places where you get that kind of experience as an undergraduate. </p><p><strong>Harry Glorikian:</strong> Well, no, that's what I was thinking. I was thinking, “Hmm. How do we get this more broadly out there so that more people are doing this and, and get their head in that, in that zone and understand these issues.”</p><p>But I think one of the projects that I was looking at was mediKanren, if I'm pronouncing it correctly. What is it meant to do?</p><p><strong>Matthew Might:</strong> So mediKanren is really our flagship artificial intelligence tool that we use primarily for drug repurposing. We kind of built it with the end application in mind. So I'll tell you what it's really good at doing. If you tell it a gene and you tell it a direction to go, like, I want to make this gene more active or make this gene less active, it does very well on those kinds of questions and it can scour a number of data sets to do this. </p><p>So we're part of a, actually a larger effort through the NIH called the Translator Consortium. This is a huge research effort. We have lots of teams working together to both mine out all biomedical knowledge and make it structured. And another set of teams are trying to do automated reasoning on top of all of that knowledge. So we're on the automated reasoning side. We can do some of the mining too, but,  the other teams do such a fantastic job that we mostly just consume what they produce in terms the mining. And then we try to stitch it together,  so that we can find interesting ways to go after targets of interest. </p><p><strong>Harry Glorikian:</strong> So it's reasoning over medical knowledge graphs, I think, that you're trying to do. And so it sounds like a promising way to find unexpected connections between diseases and existing drugs. But if you had to explain that to a layman, how would you explain sort of a knowledge graph and what you guys are doing with it? Or do you have a favorite example? </p><p><strong>Matthew Might:</strong> I have pictures, but I can also do it with words. Knowledge graph. So let's talk about what it represents. Ultimately, there's a structure, but that's not actually all that important. A knowledge graph is a collection of facts,  and in facts are sentences. And they’re sentences of the form “A somehow relates to B in some sense.” and knowledge graph is just a huge collection of these sentences, “A is related to B,” where there's a specific relationship.</p><p>So a biomedical knowledge graph is going to have some constraints on it. So the A's and the B's that you're connecting are going to be nouns from medicine and biology. So there'll be drugs and diseases and genes and metabolites and all the other stuff that you typically read about in and medical papers. And the relationships are going to be biomedical in nature too. So it's going to be things like A inhibits B, A activates B, A causes B, A treats B. And so if you collect all of these sentences together, you have what we call a knowledge graph. And the cool thing about a knowledge graph is that you can do logic on top of it and try to look for relationships that are there, but not explicitly stated.</p><p>The simplest example of this is let's suppose there's two sentences in this knowledge graph, there's Aa increases B and B increases C. We can infer logically that if you increase A, you should also increase C, because B went up and so C should go up. So that's an example of logical inference on top of one of these knowledge graphs.</p><p><strong>Harry Glorikian:</strong> And so that's typically—there's a human intervention at some point to sort of look at this and then say, yes, this makes sense? </p><p><strong>Matthew Might:</strong> Yes, absolutely. So one of the major roles of these undergraduate analysts is to actually double check what comes back from a tool like this, because it's going to admit a logic argument. It's going to say, “I believe that this is going to influence the right target because,” and then the analyst can look at the because, and it's going to have references into biomedical data sets. It's going to have references to papers in PubMed, and they can go read those. They can look at the data sets and they can double-check the reasoner and say, you know what, I think you got this right. Or no, you made a mistake. And it does make mistakes sometimes. So a lot of the knowledge from the literature has been done by natural language processing and that makes mistakes. It's critical to have a human in the loop to double-check that.</p><p>And towards your earlier question about how we do scale, one of the things that we've added to the tool is ways to make that check go faster. So, for example, on the latest interface, when it tells you that it believes, for example, A increases B and you click on that, it's going to jump straight to the sentence that it pulled that from in the paper. And so you can just look directly at that sentence and say, do I believe this? Do I believe it got A right? Do I think it got B right? Do I think it got the relationship right? It's sitting right in front of the analyst. Whereas previously that was a few clicks away. They had to click on that. They had to click on the paper it found they had to go to the paper on their web browser. They had to look at the abstract, they had to find the sentence that it got it from,  and then figure it out. That's a long process actually now, and going from, a few minutes to verify and inference to a few seconds, that's a huge increase in efficiency for these analysts. </p><p><strong>Harry Glorikian:</strong> one of the things I would say is I always try to find out, is it shortens the overall process of even finding this relationship. I mean, if you had to put sort of time scales on this, how much faster you think that we're speeding up this whole process of being able to even identify something that might have this effect?</p><p><strong>Matthew Might:</strong> Yeah. Yeah. I mean, we we've had some natural experiments in this regard where in some cases there were answers sort of buried in the literature that seemed to have been therapeutically relevant and yet, very motivated disease communities hadn't stumbled across them, and motivated physician-scientists researching these diseases had not run across them, or didn't sort of connect the dots to realize that this could actually be relevant to a patient. Probably the most recent example of this is ADNP-driven autism, where there were results in the literature that could imply the key finding, which is that low-dose ketamine will increase ADNP. That's the key thing that the researchers trying to treat this disease were after. And in some sense that was out publicly known, if you will, in the literature. And yet it took running this query to find it,to sort of make the realization that this was true.</p><p>It’s kind of interesting actually to think about the fact that there's stuff out there that as a species we know, but we don't know that we know. So we call that sometimes the “unknown known.” It actually happens a lot in different contexts. And I even remember this happening in computer science, where there were communities out there so disparate that one had solved a problem the other had been trying to solve for three decades, and they just didn't know that I had effectively been solved. I mean, it can happen, actually.</p><p><strong>Harry Glorikian:</strong> Yes. And I talked to different groups that are working on systems that will make those unknowns more easily findable,  or at least highlight them so that people know they're there. But you guys search scientific literature, drug databases, for existing and approved [drugs]. And basically you're looking to find something that's going to perturb an ultra-rare disease. Why is it better to look for an existing drug rather than a new one? I’m just, curious of the practical arguments around that. </p><p><strong>Matthew Might:</strong> I'm not against developing a novel drug for a single patient. It's just that most patients don't have $2.6 billion. So it's a little out of their price range. That said, of course there's technologies that are changing this equation substantially. So I would say oligonucleotide therapies in general, it's not down to a thousand dollars a patient, but it's dramatically less than $2.6 billion. We're probably closer to the range of a couple million dollars, and that's falling fast, to do these sort of custom-programmed therapeutics for individual patients. So,  yeah, I'm not against finding novel matter. It's just that it's still outside the budget of what most ultra-rare patients can handle.</p><p><strong>Harry Glorikian:</strong> Right. Right. Well, I was talking to, it hasn't even come out yet, but I was talking to Kevin Davies in one of my last podcasts about CRISPR and just exactly that same discussion. So I don't know if you guys have sort of done a ballpark or sort of a thumbnail of what do you think, what fraction of rare conditions do you think, are treatable the way that you're you guys are approaching it? Is it fair to say that eventually you'll exhaust that approach in that we'll have to develop a new drug for the next disease?</p><p><strong>Matthew Might:</strong> Yeah and I guess we’ve got to sort of clarify what we mean by approach. So there's the AI-based approach or sort of strictly computational approach. And then there is what we can do if we're allowed to go to the wet lab for a little bit of stuff.</p><p>If you play the game where you can only use a computer, there's the answer for today and the answer in the limit. Once we’ve sort of saturated biomedical knowledge graphs, if you will, with everything wherever we're going to know—and already, right off the bat, I think we jumped to a reasonable suggestion somewhere between 5 and 10% of the time, for the case of ultra-rare genetic diseases, and there are factors that can influence that. So for example, if it's a dominant disorder where the genetic insult has really just sort of tweaked the thermostat on a gene, so it's a little overactive or a little underactive, we tend to have a better success rate jumping straight to an answer with a computational tool than if the gene has been wiped out and now we have to find a way to replace that activity. </p><p>Now the good news is if you look at sort of the census of rare disease, 70 or 75% of all patients fall into that bucket of the genes have become a little overactive or a little underactive. And so it's very amenable to an approach like this. And for the patients that where the gene is missing, there are still things we can do computationally. The call I had right before this one was exactly that case for you. What can we do computationally? And by playing with the tool, we found some alternate targets to go after. But it takes some play to do it at that point. It's not quite as automated, but you're still using the tool as targets emerge to ask the right questions. </p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> Before you moved to UAB, you were working on precision medicine initiatives for the Obama White House, I believe, and then briefly for the Trump White House. Can you update the status of the, was it, the All for Us initiative and then the Patient Empowered Precision Medicine Alliance? </p><p><strong>Matthew Might:</strong> Sure. So, yeah, I did spend, I think, in total, about three years either working with or working for the White House,  under both Obama and Trumpm on the precision medicine initiative and related initiatives, like the Million Veterans program, as well as micro-initiatives, like the Patient Empowerment Precision Medicine Alliance, where we were just kind of trying to test it out, to see if these ultra-tailored approaches would work. </p><p>So as far as where things stand today, All of Us is a very successful, large scale clinical genomics research program, which is, I think on the way to hitting its target of enrolling a million Americans. And the way I described that program even at the time was like you're trying to build the Rosetta stone of the human genome. It turns out we reached a point where it's really easy to sequence a genome. Not so easy to interpret a genome. So if I sequence you or me and we find mutations, we go, “huh. Well, that's interesting. What does that mean?” And we go, I don't know. But let's suppose you got a million people that donate their health records and their genomes. Well, now you can start to draw statistical connections between what this mutation or this collection of mutations means in terms of actual human health. So it's finally a way to start decoding it. And so that's really what All of Us is about in my view. It's about building that Rosetta stone for the human genome.</p><p>For the Million Veterans program, it's actually sort of inside of it, yet also outside of it and really trying to do the same thing, but leveraging the extensive clinical records and histories that the VA happens to have access to,  and taking a slightly different method to get there in terms of genomic data, starting with SNP chips and genotyping, as opposed to full-on sequencing.</p><p>And then for PEPMA, that was really a pilot project where we just said, okay, can we take a small number of patients and can we actually sort of run this process all the way forward, where we get a genotype and try to find a medication that might help them. And it turns out for a handful of cases, we were actually able to do it. It was all thanks to getting a group of private entities, like, companies and universities to come together so that we actually had enough infrastructure in one place to run the process. And so we were actually able to do that. </p><p><strong>Harry Glorikian:</strong> Yeah, it's funny because I always think to myself, like all these silos, if we could just have them integrate in some way, you'd have a lot more data to work with. I always find that in the beginning, you always find those low hanging fruit that sort of fall out and then it gets harder. If you have enough to start with, something interesting falls out of it. </p><p>You’ve said that in precision medicine, for a lot of cases that we deal with, we don't have sort of the right drug right away, but we can always prescribe an experiment. What do you mean by that?</p><p><strong>Matthew Might:</strong> Yeah, by that, I mean, and so this gets into sort of like the philosophy of medicine itself. So you'll hear clinicians use terms like “This is not actionable.” And then you hear that an awful lot in rare disease. You hear it a lot at the end of cancer, where they'll say, oh, there's nothing we can do, or there's no clinical utility in this. And, and I think precision medicine subverts that whole approach and says that, well, if you've run out of clinical options, you can still do some science.</p><p>And increasingly I think we can systematize that science, so that it's not okay. We need to do something. It's, here's a set of things that you could reasonably do at this point, a set of experiments that if run, might point to what to do or might point to another next step. And a great example of that is,  for, for, particularly for a rare genetic disorder, in many cases you can build a model organism, you can build a fly and you can build a worm pretty inexpensively,  to model that genetic disease, using things like CRISPR. People don't appreciate, I think, the full importance of gene editing. People think about editing human genomes, but the fact that it made it so much easier to edit animal genomes was actually in many ways an even bigger impact and a more immediate one as well.</p><p>So yeah, you could for virtually any genetic disease, if there's an animal equivalent to that gene, you can build the animal. And if it's a small animal, you can test a lot of drugs on it, pretty inexpensively. So, I've got a friend and collaborator, Ethan Perlstein, who built a company around this approach and was very successful actually in treating, some patients this way. I have a collaborator, Clement Chow, who is an academic doing this on the academic side, focused on Drosophila, doing this very successfully.</p><p>So, that's not a drug, it's not a procedure, not a medical procedure anyway, but it's a very well-defined process. And it's a process whose outcomes could be measured statistically. So you might even know what your odds of success are before you try it, whether or not you're going to find something. So I think it takes an evolution in our thinking to realize that this is a perfectly reasonable thing to do for a lot of patients: build that fly, build that worm and test a bunch of drugs. </p><p><strong>Harry Glorikian:</strong> And, there's a lot of times where things seem perfectly normal for me to suggest, and I've had people look at me, like I just grew like two more heads off, off my shoulders.</p><p>So, but this sounds like if this is your fundamental belief that there is nothing that is not actionable, medicine or otherwise. </p><p><strong>Matthew Might:</strong> Right, right. And I think it also requires a degree of stoicism because just because there's something to do, it doesn't mean it's going to work in time. And this was something I was always mindful of during my son's life, was that while there was always something to do, I was mindful that it was probably not going to always happen in time. It was always a race against the clock. But there was always something to do. And even today there's still, as I say, I'm still working on his condition. I'm still very actively engaged in drug development for his disorder. So even now there's something to do. As a parent it's still brings me benefit to know that it, it will benefit others. So it does require a shift in perspective about the meaning of actionable. </p><p><strong>Harry Glorikian:</strong> It feels like finding [computational] ways to use existing drugs, to help people with rare problems, was waiting to be solved with someone with your exact skillset in computer science and your exact set of motivations as a father of a child with a genetic disorder. And so many other key players that I've talked to in this sort of that have this N of 1 stories have very similar biographies. I mean, there's been a few movies made about it, right? It makes somebody wonder that if you know your son hadn't been born to you with your expertise, who could apply knowledge and bring that experience to it, that you wouldn't be moving the ball forward. How does that make you feel about the state of science or medicine? </p><p><strong>Matthew Might:</strong> Yeah. And, you're not the first to make an observation that I sort of ended up in the right place at the right time with the right set of motivations. And there's a lot of truth to that. I think about if he'd been born even a few years earlier, or a few years later, how things would have played out differently.</p><p>I realized early on that there's a desperate need for computer science within medicine, that there is so much opportunity just left on the table for lack of expertise. But I made a deeper observation, which is that as much as medicine needs computer science, what it needs even more is computer scientists.</p><p>The problem is that the average computer scientist doesn't have sufficient motivation to go learn. Medicine's big, it's messy. And I got to say, biology is so messy that to the mind of a computer scientist at times, you're just like, God, what a disaster biology is. It's like every time you have a rule or a law, most of the time at the end of it, there's nothing ever that’s always true. And when you come from a field like computer science, where you can put clean little theorems around everything and layers of abstraction that never break, it's like, oh gosh, who designed all this? Who was the engineer that thought that was a good idea?</p><p>That that's how I feel half the time when I dive into biology. And yet there are abstractions that you can borrow from computer science and you can use these things to start to describe the way biology does what it does. And so I do think of the cell as a computer or a machine—maybe a Rube Goldberg machine, but a machine nonetheless. And one that you can sort of intellectually approach, from the direction of computer science. </p><p>Within computer science, I happen to have a background in functional programming. And there are times when, describing the mechanics of how biological processes operate, where this kind of feels like, I'm playing with a little functional programming language. Like I'm doing graphic writing instead of term rewriting. There's been these moments where I'm like, yeah, this is just a programming language. It's weird, but it is one. And then I think, gosh, I mean, it is strange that I arrived with that particular skill set at this point in biology's history,  to make these observations and use that profitably towards helping patients.</p><p>So in terms of how they makes me feel? Lucky, I guess, that I've, I've just sort of been there on the right place at the right time. And the same thing is true for almost everything else that's occurred since,  since Bertrand was born, from the timing of the precision medicine initiative itself, to getting his story in front of President Obama at just that moment, to getting the invitation to go, to getting the invitation to participate, and then join the team. I mean, the timing on all of it was just so ridiculous to me that I look back and think, I can't believe that happened. </p><p><strong>Harry Glorikian:</strong> Wow. I mean, timing. Being in the right place at the right time, a little luck, I'll take that every day, right, where everything starts ti come together.I think back to, because I was involved at Applied Biosystems when we did the genome and wow, that was such a big deal. And then every once in a while I still see an article saying. Yeah, the genome hasn't really done much. And I'm like, these people, how do they write these things with a straight face? And it gets published in a reasonable journal. And I'm like, these people are out of their minds, considering everything in biotech, everything in, functional genomics, all this stuff is, is grounded in that information.</p><p><strong>Matthew Might:</strong> I see the same stuff and I think, what do you mean nothing has come out of it. What are you talking about? Everything has come from that. And then, when I point to success stories with individual patients, which are growing and growing, they're like, yeah, but that's the exception. It’s turning into the rule more and more, and I think what you're seeing now is that as with any new technology, the barrier to entry starts very high. But that barrier has been falling fast to the point where, people who start off, the parent side, like me, are increasingly finding that they can get into the game and that they can do something.</p><p>And I think it's at a level now where almost any, patient or parent that has a technical background can jump over and do something. But even patients without that background are making the jump now, too. So barrier to entry is falling so fast that it really has changed everything when it comes to patients moving the needle for themselves using the fruits of the genomic era. </p><p><strong>Harry Glorikian:</strong> Yeah. And I think computational, power and costs and ease of use are starting to come down dramatically, which then brings the two together, which is of course the idea of behind the whole show and everybody that I talk to, and I see the, some of the companies I talked to they're like, yep, we sort of eliminated three years of work. We could get it done in, a week to two weeks because of what we're looking at, how we've applied our computer science. How many new pathways we can sort of identify of course, for new drugs. </p><p><strong>Matthew Might:</strong> And I, I can give you examples of where the barriers fell overnight as I needed them to, just by luck. Or when it came to creating model organisms, right? Before CRISPR, gosh, that was an expensive, daunting. process, it took a lot of time. And then CRISPR shows up and they're like, oh yeah, no, it'll be a few months and $10,000. And it was just, I mean, just like that it happened. And there's equivalent revolutions happening on the computational side too. If you look at your protein folding technology, it was a joke, that like, yeah, it'll never happen in silico. And then all of a sudden, like now some say maybe the only way we'll ever get some structures is in silico.  And then that was kind of an overnight thing too. Obviously it wasn't overnight for the engineers on the project at Google. But once it appears like, oh my gosh, what a game changer. </p><p><strong>Harry Glorikian:</strong> Well, and then as soon as somebody does it, it motivates more people to sort of grow and it sort of moves the space forward that much faster. That's the part I find interesting is most people have trouble understanding the speed of change, and it's moving faster now than—and I'm used to, trying to keep track of how fast everything's going, and I'm finding myself having trouble keep up with how quickly things are shifting. </p><p><strong>Matthew Might:</strong> It really is changing faster than I think any one person can predict. And the disruptions are coming almost out of nowhere. Like no one saw CRISPR coming. You might reasonably foresee that at some point, some efficient gene editing technology would have emerged. But I think it emerged much faster than was expected.I remember when I would work with patients, five or six years ago, I'd say, yeah, there's this thing, these antisense oligonucleotides, and maybe someday, but we're probably, I would say at the time, like maybe 20 years away. Then you see oligonucleotide therapies really take off and, then I think it was two years later there's an FDA approval. Then a couple of years after that, there's the first big N of 1 introduction. And then like a year and a half later, we were all injecting mRNA into ourselves. Well, that happened pretty fast. It wasn't a couple years. </p><p><strong>Harry Glorikian:</strong> Yeah. And, and for people like you and me that are in this, like, my, my mind is like, wow, this is awesome. And then I try to explain to someone and they don’t understand the impact that some of this is happening in the implications of what we're talking about. </p><p><strong>Matthew Might:</strong> Yeah. And, I think that, going forward, it's going to be a much steeper acceleration than anybody can really predict because we've suddenly just burst into the era of programmable therapeutics. I mean, COVID really suddenly just threw it on the table. There it is. And an example as well, people said, okay, well, if you can just give mRNA directly, instead of trying to deliver these complicated proteins to do the gene editing, why don't you deliver the mRNA for the CRISPR protein or, for, for CAS9 and deliver this along with the guide RNAs, well that's much easier. And my, my gosh, it looks like it might actually work. So these things, they couple in unexpected ways, and very quickly too. And so I I'm excited cause I have no way to know what's coming now. </p><p><strong>Harry Glorikian:</strong> I've always felt, I don't know what's coming. That's why I try to read such a broad array of, sources, everything that's going on in, you know, chip development to what's going on in our world. But I think the next big wave of shifts is going to be how a lot of this gets implemented, the business models behind it. And that's the next big shift because you don't have to do it exactly the same way you had been doing it up til now.</p><p><strong>Matthew Might:</strong> Oh, I agree. And, and oddly enough, yeah, I spent a fair amount of time thinking about stuff as mundane as how do we get payers to actually pay for some of these things? How do we show them that there is value to be captured already? And, because there is, I think we're not far away from a future where payers realize that it's going to be cheaper to take this very expensive patient with a complex disease and look for sort of a root cause treatment than to continue paying for symptomatic treatment. I think we're at the threshold of that era. </p><p><strong>Harry Glorikian:</strong> Well, I think, the CEO of Illumina said we want to get whole genome down to $60. Right. I mean, at some point you're like, okay, when are you going to stop being worried about the cost of this? Because it's going to be a rounding error at some point. </p><p><strong>Matthew Might:</strong> Yeah. Over the course of someone's life, it's already a rounding error you know it's already there.</p><p><strong>Harry Glorikian:</strong> But $60, yeah. I mean, I was, I was,  talking to a company where they could do, if you could do the initial analytics for $60 and then do the computational on top of it for another $60, at some point you're like, look, we should just be doing this for everybody. The problem is the implementation. And can physicians keep up with, what does it all mean and what am I supposed to do? </p><p><strong>Matthew Might:</strong> Yeah. And that's why I think, when I talk about precision medicine and data as a drug, I always have to highlight the importance of computational aid for the physician. Because if you were to give a physician [raw DNA data[, they would go, “What, I don't know what to do with that.”  Even if you distill it down to the individual mutations, the average physician goes, “I still don't know what to do with that.” It's gotta be broken down into something far more actionable for them.</p><p>And I think we're going to look back at now as sort of like the dark ages of IT in medicine, because we're in a situation where I don't know any physician that loves the EHR they use. In fact, they all hate it. It is a disastrous user experience across the board. And this is a classic problem in software where the people who pay for the things are not the people who use the things, and say, so what are EHRs optimized for? Billing. There's only one EHR as far as I can tell it's optimized for patient care, and that's at the VA, where they're not really concerned about billing. And so people like that one,  which is, not, not a big surprise. </p><p><strong>Harry Glorikian:</strong> Well, and they were talking about, they wanted to put in Epic. I was like, who got paid like behind some closed door to make that decision? That was the dumbest decision I've ever heard anybody make. </p><p><strong>Matthew Might:</strong> I thought the same thing as you, having worked in the Million Veterans program. Like, no, that's the crown jewel. That thing actually works and it works well, and it gets great data,  do not replace that. Keep it as is. </p><p><strong>Harry Glorikian:</strong> Yeah. Well you need to, unfortunately whoever's making that decision has no skin in that game as far as I can tell, but I agree with you. I mean, I've said over and over, if anything's gonna break medicine, it's going to be the existing EMR systems because you can't innovate if you can't get the data out. And Google and Microsoft and Apple and everybody's innovating because they get to change their system at will, right. Everybody gets to jump on AWS and innovate. The system is sort of stuck in stasis and can't move out of it, which is what I find worrisome. </p><p><strong>Matthew Might:</strong> I agree. You've either got to get the data out or the computation in. Preferably both. I've dealt with physicians where I can say, “Hey, we could give you this really cool genomic test for your patients. And then if they try to take a drug, you'll know if it's not going to work for them.” And they go, “Well, will there be automated decision support in the EHR to tell me if that happens? Or do I have to sort of look at the note and see that they have this variant?” I go, “Well, you can have to look at the note.” And they say, “No, I do not want that, because if that note is in there and I don't figure that out, and I prescribe a drug that causes an adverse event. I'll get sued. But if the information's not there at all, I can't be sued.” That's the world we live in.</p><p><strong>Harry Glorikian:</strong> Well, listen, it was great to speak to you. The stuff you're doing is awesome. I wish more people knew about it. I wish more students were involved in it so they could get firsthand experience. Like you said, I think that's when we can start to teach people the crossover between medicine and computational work in general, because I'm always trying to find people that know both, and there’s not a lot of fruit on that tree at the moment. More is growing, but not as much as you'd like.</p><p><strong>Matthew Might:</strong> I agree. We need to get people going more often in both directions. And that's one of my missions at the Institute as well as to cross-train folks in into both sides, biology and computer science.</p><p><strong>Harry Glorikian:</strong> Excellent. Well, it was great to talk to you. I appreciate the time. </p><p><strong>Matthew Might:</strong> Likewise. It has been a pleasure.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian. Thanks for listening, and we’ll be back soon with our next interview.</p>
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      <itunes:title>How Matthew Might Is Using Computation to Fight Rare Diseases</itunes:title>
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      <itunes:summary>Harry&apos;s guest this week is Matthew Might, director of the Hugh Kaul Precision Medicine Institute at the University of Alabama at Birmingham. Might trained as a computer scientist, but a personal odyssey inspired him to make the switch into precision medicine. Now he uses computational tools such as knowledge graphs and natural language processing to find existing drug compounds that might help cure people with rare genetic disorders.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week is Matthew Might, director of the Hugh Kaul Precision Medicine Institute at the University of Alabama at Birmingham. Might trained as a computer scientist, but a personal odyssey inspired him to make the switch into precision medicine. Now he uses computational tools such as knowledge graphs and natural language processing to find existing drug compounds that might help cure people with rare genetic disorders.</itunes:subtitle>
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      <title>Kevin Davies on the CRISPR Revolution and Genome Editing</title>
      <description><![CDATA[<p>This week Harry is joined by Kevin Davies, author of the 2020 book <i>Editing Humanity: The CRISPR Revolution and the New Era of Genome Editing. </i>CRISPR—an acronym for Clustered Regularly Interspaced Short Palindromic Repeats—consists of DNA sequences that evolved to help bacteria recognize and defend against viral invaders, as a kind of primitive immune system. Thanks to its ability to precisely detect and cut other DNA sequences, CRISPR has spread to labs across the world in the nine years since Jennifer Doudna and Emmanuel Charpentier published a groundbreaking 2012 <i>Science</i> paper describing how the process works. </p><p>The Nobel Prize committee recognized the two scientists for the achievement in 2020, one day after Davies' book came out. The book explains how CRISPR was discovered, how it was turned into an easily programmable tool for cutting and pasting stretches of DNA, how most of the early pioneers in the field have now formed competing biotech companies, and how the technology is being used to help patients today—and in at least one famous case, misused. Today's interview covers all of that ground and more.</p><p>Davies is a PhD geneticist who has spent most of his career in life sciences publishing. After his postdoc with Harvey Lodish at the Whitehead Institute, Davies worked as an assistant editor at <i>Nature</i>, the founding editor of <i>Nature Genetics</i> (<i>Nature</i>’s first spinoff journal), editor-in-chief at Cell Press, founding editor-in-chief of the Boston-based publication <i>Bio-IT World</i>, and publisher of <i>Chemical & Engineering News</i>. In 2018 he helped to launch <i>The CRISPR Journal</i>, where he is the executive editor. Davies’ previous books include <i>Breakthrough</i> (1995) about the race to understand the BRCA1 breast cancer gene, <i>Cracking the Genome</i> (2001) about the Human Genome Project, <i>The $1,000 Genome </i>(2010) about next-generation sequencing companies, and <i>DNA</i> (2017), an updated version of James Watson’s 2004 book, co-authored with Watson and Andrew Berry.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian:</strong> We talk a lot on the show about how computation and data are changing the way we develop new medicines and the way we deliver healthcare. Some executives in the drug discovery business speak of the computing and software side of the business as the “dry lab” —to set it apart from the “wet labs” where scientists get their hands dirty working with actual cells, tissues, and reagents.</p><p>But the thing is, recent progress on the wet lab side of biotech has been just as amazing as progress in areas like machine learning. And this week, my friend Kevin Davies is here to talk about the most powerful tool to come along in the last decade, namely, precise gene editing using CRISPR.</p><p>Of course, CRISPR-based gene editing has been all over the news since Jennifer Doudna and Emmanuel Charpentier published a groundbreaking <i>Science</i> paper in 2012 describing how the process works in the lab. That work earned them a Nobel Prize in medicine just eight years later, in 2020.</p><p>But what’s not as well-known is the story of how CRISPR was discovered, how it was turned into an easily programmable tool for cutting and pasting stretches of DNA, how most of the early pioneers in the field have now formed competing biotech companies, and how the technology is being used to help patients today—and in at least one famous case, misused.</p><p>Kevin put that whole fascinating story together in his 2020 book Editing Humanity. And as the executive editor of The CRISPR Journal, the former editor-in-chief of Bio-IT World, the founding editor at Nature Genetics, and the author of several other important books about genomics, Kevin is one of the best-placed people in the world to tell that story. Here’s our conversation.</p><p><strong>Harry Glorikian:</strong> Kevin, welcome to the show. </p><p><strong>Kevin Davies:</strong> Great to see you again, Harry. Thanks for having me on.</p><p><strong>Harry Glorikian:</strong> Yeah, no, I mean, I seem to be saying this a lot lately, it's been such a long time since, because of this whole pandemic, nobody's really seeing anybody on a regular basis. </p><p>I want to give everybody a chance to hear about, you had written this book called Editing Humanity, which is, you know, beautifully placed behind you for, for product placement here. But I want to hear, can you give everybody sort of an overview of the book and why you feel that this fairly technical laboratory tool called CRISPR is so important that you needed to write a book about it?</p><p><strong>Kevin Davies:</strong> Thank you. Yes. As you may know, from some of my previous “bestsellers” or not, I've written about big stories in genetics because that's the only thing I'm remotely qualified to write about. I trained as a human geneticist in London and came over to do actually a pair of post-docs in the Boston area before realizing my talents, whatever they might be, certainly weren't as a bench researcher. So I had to find another way to stay in science but get away from the bench and hang up the lab coats.</p><p>So moving into science publishing and getting a job with Nature and then launching Nature Genetics was the route for me. And over the last 30 years, I've written four or five books that have all been about, a) something big happening in genomics, b) something really big that will have both medical and societal significance, like the mapping and discovery of the BRCA1 breast cancer gene in the mid-90s, the Human Genome Project at the turn of the century, and then the birth and the dawn of consumer genetics and personalized medicine with <i>The $1,000 Genome</i>. And the third ingredient I really look for if I'm trying to reach a moderately, significantly large audience is for the human elements. Who are they, the heroes and the anti heroes to propel the story? Where is the human drama? Because, you know, we all love a good juicy, gossipy piece of story and rating the good guys and the bad guys. </p><p>And CRISPR, when it first really took off in 2012, 2013 as a gene editing tool a lot of scientists knew about this. I mean, these papers are being published in Science in particular, not exactly a specialized journal, but I was off doing other things and really missed the initial excitement, I'm embarrassed to say. It was only a couple of years later, working on a sequel to Jim Watson's <i>DNA</i>, where I was tasked with trying to find and summarize the big advances in genomic technology over the previous decade or whatever, that I thought, well, this CRISPR thing seems to be taking off and the Doudnas and the Charpentiers are, you know, winning Breakthrough Prizes and being feted by celebrities. And it's going on 60 Minutes. They're going to make a film with the Rock, Dwayne Johnson. What the heck is going on. And it took very little time after that, for me to think, you know, this is such an exciting, game-changing disruptive technology that I've got to do two things. I've gotta, a) write a book and b) launch a journal, and that's what I did. And started planning at any rate in sort of 2016 and 17. We launched the CRISPR Journal at the beginning of 2018. And the book Editing Humanity came out towards the end of 2020. So 2020, literally one day before the Nobel Prize—how about that for timing?—for Doudna and Charpentier for chemistry last year. </p><p><strong>Harry Glorikian:</strong> When I think about it, I remember working with different companies that had different types of gene editing technology you know, working with some particularly in the sort of agriculture space, cause it a little bit easier to run faster than in the human space. And you could see what was happening, but CRISPR now is still very new. But from the news and different advances that are happening, especially here in the Boston area, you know, it's having some real world impacts. </p><p>If you had to point to the best or the most exciting example of CRISPR technology helping an actual patient, would you say, and I've heard you say it, Victoria Gray, I think, would be the person that comes to mind. I've even, I think in one of your last interviews, you said something about her being, you know, her name will go down in history. Can you explain the technology that is helping her and what some of the similar uses of CRISPR might be?</p><p><strong>Kevin Davies:</strong> So the first half of Editing Humanity is about the heroes of CRISPR, how we, how scientists turned it from this bizarre under-appreciated bacterial antiviral defense system and leveraged it and got to grips with it, and then figured out ways to turn it into a programmable gene editing technology. And within a year or two of that happening that the classic Doudna-Charpentier paper came out in the summer of 2012. Of course the first wave of biotech companies were launched by some of the big names, indeed most of the big names in CRISPR gene editing hierarchies. So Emmanuel Charpentier, Nobel Laureate, launched CRISPR Therapeutics, Jennifer Doudna co-founded Editas Medicine with several other luminaries. That didn't go well for, for reasons of intellectual property. So she withdrew from Editas and became a co-founder of Intellia Therapeutics as well as her own company, Caribou, which just went public, and Feng Zhang and others launched Editas Medicine. So we had this sort of three-way race, if you will, by three CRISPR empowered gene editing companies who all went public within the next two or three years and all set their sights on various different genetic Mendelian disorders with a view to trying to produce clinical success for this very powerful gene editing tool. </p><p>And so, yes, Victoria Gray is the first patient, the first American patient with sickle cell anemia in a trial that is being run by CRISPR Therapeutics in close association with Vertex Pharmaceuticals. And that breakthrough paper, as I think many of your listeners will know, came out right at the end of 2020 published in the New England Journal of Medicine. Doesn't get much more prestigious than that. And in the first handful of patients that CRISPR Therapeutics have edited with a view to raising the levels of fetal hemoglobin, fetal globin, to compensate for the defective beta globin that these patients have inherited, the results were truly spectacular.</p><p>And if we fast forward now to about two years after the initial administration, the initial procedures for Victoria Gray and some of her other volunteer patients, the results still look as spectacular. Earlier this year CRISPR Therapeutics put out of sort of an update where they are saying that the first 20 or 24 patients that they have dosed with sickle cell and beta thallasemia are all doing well. There've been little or no adverse events. And the idea of this being a once and done therapy appears very well founded. </p><p>Now it's not a trivial therapy. This is ex-vivo gene editing as obviously rounds of chemotherapy to provide the room for the gene edited stem cells to be reimplanted into the patient. So this is not an easily scalable or affordable or ideal system, but when did we, when will we ever able to say we've pretty much got a cure for sickle cell disease? This is an absolutely spectacular moment, not just for CRISPR, but for medicine, I think, overall. And Victoria Gray, who's been brilliantly profiled in a long running series on National Public Radio, led by the science broadcaster Rob Stein, she is, you know, we, we can call her Queen Victoria, we can call it many things, but I really hope that ,it's not just my idea, that she will be one of those names like Louise Brown and other heroes of modern medicine, that we look and celebrate for decades to come.</p><p>So the sickle cell results have been great, and then much more recently, also in the New England Journal, we have work led by Intellia Therapeutics, one of the other three companies that I named, where they've been also using CRISPR gene editing, but they've been looking at a rare liver disease, a form of amyloidosis where a toxic protein builds up and looking to find ways to knock out the production of that abnormal gene.</p><p>And so they've been doing in vivo gene editing, really using CRISPR for the first time. It's been attempted using other gene editing platforms like zinc fingers, but this is the first time that I think we can really say and the New England Journal results prove it. In the first six patients that have been reported remarkable reductions in the level of this toxic protein far, not far better, but certainly better than any approved drugs that are currently on the market. So again, this is a very, very exciting proof of principle for in vivo gene editing, which is important, not just for patients with this rare liver disorder, but it really gives I think the whole field and the whole industry enormous confidence that CRISPR is safe and can be used for a growing list of Mendelian disorders, it's 6,000 or 7,000 diseases about which we know the root genetic cause, and we're not going to tackle all of them anytime soon, but there’s a list of ones that now are within reach. And more and more companies are being launched all the time to try and get at some of these diseases.</p><p>So as we stand here in the summer of 2021, it's a really exciting time. The future looks very bright, but there's so much more to be done. </p><p><strong>Harry Glorikian:</strong> No, we're just at the beginning. I mean, I remember when I first saw this, my first question was off target effects, right? How are we going to manage that? How are they going to get it to that place that they need to get it to, to have it to that cell at that time, in the right way to get it to do what it needs to do. And you know, all these sorts of technical questions, but at the same time, I remember I'm going to, trying to explain this to my friends. I'm like, “You don't understand, this can change everything.” And now a high school student, I say this to people and they look at me strangely, a high school student can order it and it shows up at your house.</p><p><strong>Kevin Davies:</strong> Yeah, well, this is why I think, and this is why one reason why CRISPR has become such an exciting story and receives the Nobel Prize eight years after the sort of launch publication or the first demonstration of it as a gene editing tool. It is so relatively easy to get to work. It's truly become a democratized or democratizing technology. You don't need a million-dollar Illumina sequencer or anything. And so labs literally all around the world can do basic CRISPR experiments. Not everyone is going to be able to launch a clinical trial. But the technology is so universally used, and that means that advances in our understanding of the mechanisms, new tools for the CRISPR toolbox new pathways, new targets, new oftware, new programs, they're all coming from all corners of the globe to help not just medicine, but many other applications of CRISPR as well.</p><p><strong>Harry Glorikian:</strong> Yeah. I always joke about like, there, there are things going on in high school biology classes now that weren't, available, when I was in college and even when we were in industry and now what used to take an entire room, you can do on a corner of a lab bench.</p><p><strong>Kevin Davies:</strong> Yeah. Yeah. As far as the industry goes we mentioned three companies. But you know, today there's probably a dozen or more CRISPR based or gene editing based biotech companies. More undoubtedly are going to be launched before the end of this year. I'm sure we'll spend a bit of time talking about CRISPR 2.0, it seems too soon to be even thinking about a new and improved version of CRISPR, but I think there's a lot of excitement around also two other Boston-based companies, Beam Therapeutics in Cambridge and Verve Therapeutics both of which are launching or commercializing base editing. So base editing is a tool developed from the lab of David Lu of the Broad Institute [of MIT and Harvard]. And the early signs, again, this technology is only five or six years old, but the early signs of this are incredibly promising. David's team, academic team, had a paper in Nature earlier this year, really reporting successful base editing treatment of sickle cell disease in an animal model, not by raising the fetal globin levels, which was sort of a more indirect method that is working very well in the clinic, but by going right at the point mutation that results in sickle cell disease and using given the chemical repertoire of base editing.</p><p>Base editing is able to make specific single base changes. It can't do the full repertoire of single base changes. So there are some limitations on researchers’ flexibility. So they were unable to flip the sickle cell variant back to the quote unquote wild type variants, but the change they were able to make is one that they can live with, we can live with because it's a known benign variant, a very rare variant that has been observed in other, in rare people around the world. So that's completely fine. It's the next best thing. And so that looks very promising. Beam Therapeutics, which is the company that David founded or co-founded is trying a related approach, also going right at the sickle cell mutation. And there are other companies, including one that Matthew Porteus has recently founded and has gone public called Graphite Bio.</p><p>So this is an exciting time for a disease sickle cell disease that has been woefully neglected, I think you would agree, both in terms of basic research, funding, medical prioritization, and medical education. Now we have many, many shots on goal and it doesn't really, it's not a matter of one's going to win and the others are going to fall by the wayside. Just like we have many COVID vaccines. We'll hopefully have many strategies for tackling sickle cell disease, but they are going to be expensive. And I think you know the economics better than I do. But I think that is the worry, that by analogy with gene therapies that have been recently approved, it's all, it's really exciting that we can now see the first quote, unquote cures in the clinic. That's amazingly exciting. But if the price tag is going to be $1 million or $2 million when these things are finally approved, if and when, that's going to be a rather deflating moment. But given the extraordinary research resources that the CRISPRs and Intellias and Beams and Graphites are pouring into this research, obviously they've got to get some return back on their investment so that they can plow it back into the company to develop the next wave of of gene editing therapies. So you know, it's a predicament </p><p><strong>Harry Glorikian:</strong> One of these days maybe I have to have a show based on the financial parts of it. Because there's a number of different ways to look at it. But just for the benefit of the listeners, right, who may not be experts, how would you explain CRISPR is different from say traditional gene therapies. And is CRISPR going to replace older methods of, of gene therapy or, or will they both have their place? </p><p><strong>Kevin Davies:</strong> No, I think they'll both have their place. CRISPR and, and these newer gene editing tools, base editing and another one called prime editing, which has a company behind it now called Prime Medicine, are able to affect specific DNA changes in the human genome.</p><p>So if you can target CRISPR, which is an enzyme that cuts DNA together with a little program, the GPS signal is provided in the form of a short RNA molecule that tells the enzyme where to go, where to go in the genome. And then you have a couple of strategies. You can either cut the DNA at the appropriate target site, because you want to inactivate that gene, or you just want to scramble the sequence because you want to completely squash the expression of that gene. Or particularly using the newer forms of gene editing, like base editing, you can make a specific, a more nuanced, specific precision edit without, with one big potential advantage in the safety profile, which is, you're not completely cutting the DNA, you're just making a nick and then coaxing the cell’s natural repair systems to make the change that you sort of you're able to prime.</p><p>So there are many diseases where this is the way you want to go, but that does not in any way invalidate the great progress that we're making in traditional gene therapy. So for example today earlier today I was recording an interview or for one of my own programs with Laurence Reid, the CEO of Decibel Therapeutics, which is looking at therapies for hearing loss both genetic and other, other types of hearing disorders.</p><p>And I pushed him on this. Aren't you actually joinomg with the gene editing wave? And he was very circumspect and said, no, we're very pleased, very happy with the results that we're getting using old fashioned gene replacement therapy. These are recessive loss of function disorders. And all we need to do is get the expression of some of the gene back. So you don't necessarily need the fancy gene editing tools. If you can just use a an AAV vector and put the healthy gene back into the key cells in the inner ear. So they're complimentary approaches which is great.</p><p><strong>Harry Glorikian:</strong> So, you know, in, in this podcast, I try to have a central theme when I'm talking to people. The relationships of big data, computation, advances in new drugs, and other ways to keep people healthy. So, you know, like question-wise, there's no question in my mind that the whole genomics revolution that started in the ‘90s, and I was happy to be at Applied Biosystems when we were doing that, would have been impossible in the absence of the advances in computing speed and storage in the last three decades. I think computing was the thing that held up the whole human genome, which gave us the book of life that CRISPR is now allowing us to really edit. But I wonder if you could bring us sort of up-to-date and talk about the way CRISPR and computation are intertwined. What happens when you combine precision of an editing tool like CRISPR with the power of machine learning and AI tools to find meaning and patterns in that huge genetic ball? </p><p><strong>Kevin Davies:</strong> Yeah. Well, yeah. I'm got to tread carefully here, but I think we are seeing papers from some really brilliant labs that are using some of the tools that you mentioned. AI and machine learning with a view to better understanding and characterizing some of the properties and selection criteria of some of these gene editing tools. </p><p>So you mentioned earlier Harry, the need to look out for safety and minimize the concern of off-target effects. So I think by using some of these some algorithms and AI tools, researchers have made enormous strides in being able to design the programmable parts of the gene editing constructs in such a way that you increase the chances that they're going to go to the site that you want them to go to, and nnot get hung up latching onto a very similar sequence that's just randomly cropped up on the dark side of the genome, across the nucleus over there. You don't want that to happen. And I don't know that anybody would claim that they have a failsafe way to guarantee that that could never happen. But the you know, the clinical results that we've seen and all the preclinical results are showing in more and more diseases that we've got the tools and learned enough now to almost completely minimize these safety concerns. </p><p>But I think everyone, I think while they're excited and they're moving as fast as they can, they're also doing this responsibly. I mean, they, they have to because no field, gene therapy or gene editing really wants to revisit the Jesse Gelsinger tragedy in 1999, when a teenage volunteer died in volunteering for a gene therapy trial at Penn of, with somebody with a rare liver disease. And of course that, that setback set back the, entire field of gene therapy for a decade. And it's really remarkable that you know, many of the sort of pioneers in the field refuse to throw in the towel, they realized that they had to kind of go back to the drawing board, look at the vectors again, and throw it out. Not completely but most, a lot of the work with adenoviruses has now gone by the wayside. AAV is the new virus that we hear about. It's got a much better safety profile. It's got a smaller cargo hold, so that's one drawback, but there are ways around that. And the, the explosion of gene therapy trials that we're seeing now largely on the back of AAV and now increasingly with, with non-viral delivery systems as well is, is very, very gratifying. </p><p>And it's really delivery. I think that is now the pain point. Digressing from your question a little bit, but delivery, I think is now the big challenge. It's one thing to contemplate a gene therapy for the eye for rare hereditary form of blindness or the ear. Indeed those are very attractive sites and targets for some of these early trials because of the quantities that you need to produce. And the localization, the, the physical localization, those are good things. Those help you hit the target that you want to. But if you're contemplating trying something for Duchenne muscular dystrophy or spinal muscular atrophy, or some of the diseases of the brain, then you're going to need much higher quantities particularly for muscular disorders where, you run into now other challenges, including, production and manufacturing, challenges, and potentially safeguarding and making sure that there isn't an immune response as well. That's another, another issue that is always percolating in the background.</p><p>But given where we were a few years ago and the clinical progress that we've talked about earlier on in the show it, I think you can safely assume that we've collectively made enormous progress in, in negating most, if not all of these potential safety issues.</p><p><strong>Harry Glorikian:</strong> No, you know, it's funny, I know that people will say like, you know, there was a problem in this and that. And I look at like, we're going into uncharted territories and it has to be expected that you just…you've got people that knew what they were doing. All of these people are new at what they are doing. And so you have to expect that along the way everything's not going to go perfectly. But I don't look at it as a negative. I look at it as, they're the new graduating class that's going to go on and understand what they did right. Or wrong, and then be able to modify it and make an improvement. And, you know, that's what we do in science. </p><p><strong>Kevin Davies:</strong> Well, and forget gene editing—in any area of drug development and, and pharmaceutical delivery, things don't always go according to plan. I'm sure many guests on Moneyball Medicine who have had to deal with clinical trial failures and withdrawing drugs that they had all kinds of high hopes for because we didn't understand the biology or there was some other reaction within, we didn't understand the dosing. You can't just extrapolate from an animal model to humans and on and on and on. </p><p>And so gene editing, I don't think, necessarily, should be held to any higher standard. I think the CRISPR field has already in terms of the sort of market performance, some of the companies that we've mentioned, oh my God, it's been a real roller coaster surprisingly, because every time there's been a paper published in a prominent journal that says, oh my God, there's, there's a deletion pattern that we're seeing that we didn't anticipate, or we're seeing some immune responses or we're seeing unusual off target effects, or we're seeing P53 activation and you know, those are at least four off the top of my head. I'm sure there've been others. And all had big transient impact on the financial health of these companies. But I think that was to be expected. And the companies knew that this was just an overreaction. They've worked and demonstrated through peer review publications and preclinical and other reports that these challenges have been identified, when known about, pretty much completely have been overcome or are in the process of being overcome.</p><p>So, you know, and we're still seeing in just traditional gene therapy technologies that have been around for 15, 20 years. We're still seeing reports of adverse events on some of those trials. So for gene editing to have come as far as it's common, to be able to look at these two big New England Journal success stories in sickle cell and ATTR amyloidosis, I don't think any very few, except the most ardent evangelists would have predicted we'd be where we are just a few years ago. </p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong>One of your previous books was called <i>The $1,000 Genome</i>. And when you published that back in 2010, it was still pretty much science fiction that it might be possible to sequence someone’s entire genome for $1,000. But companies like Illumina blew past that barrier pretty quickly, and now people are talking about sequencing individual genome for just a few hundred dollars or less. My question is, how did computing contribute to the exponential trends here. And do you wish you’d called your book <i>The $100 Genome</i>?</p><p><strong>Kevin Davies:</strong> I've thought about putting out a sequel to the book, scratching out the 0's and hoping nobody would notice. Computing was yes, of course, a massive [deal] for the very first human genome. Remember the struggle to put that first assembly together. It’s not just about the wet lab and pulling the DNA sequences off the machines, but then you know, the rapid growth of the data exposure and the ability to store and share and send across to collaborators and put the assemblies together has been critical, absolutely critical to the development of genomics.</p><p>I remember people were expressing shock at the $1,000 genome. I called the book that because I heard Craig Venter use that phrase in public for the first time in 2002. And I had just recently published <i>Cracking the Genome</i>. And we were all still recoiling at the billions of dollars it took to put that first reference genome sequence together. And then here's Craig Venter, chairing a scientific conference in Boston saying what we need is the $1,000 genome. And I almost fell off my chair. “what are you? What are you must you're in, you're on Fantasy Island. This is, there's no way we're going to get, we're still doing automated Sanger sequencing. God bless Fred Sanger. But how on earth are you going to take that technology and go from billions of dollars to a couple of thousand dollars. This is insanity.” </p><p>And that session we had in 2002 in Boston. He had a local, a little episode of America's Got Talent and he invited half a dozen scientists to come up and show what they had. And George Church was one of them. I think Applied Biosystems may have given some sort of talk during that session. And then a guy, a young British guy from a company we'd never heard of called Celexa showed up and showed a couple of pretty PowerPoint slides with colored beads, representing the budding DNA sequence on some sort of chip. I don't know that he showed any data. It was all very pretty and all very fanciful. Well guess what? They had the last laugh. Illumina bought that company in 2006. And as you said, Harry you know, I think when, when they first professed to have cracked the $1,000 dollar genome barrier, a few people felt they needed a pinch of salt to go along with that. But I think now, yeah, we're, we're, we're well past that. And there are definitely outfits like BGI, the Beijing Genomics Institute being one of them, that are touting new technologies that can get us down to a couple of hundred. </p><p>And those were such fun times because for a while there Illumina had enormous competition from companies like 454 and Helicose and PacBio. And those were fun heady times with lots and lots of competition. And in a way, Illumina's had it a little easy, I think over the last few years, but with PacBio and Oxford Nanopore gaining maturity both, both in terms of the technology platforms and their business strategy and growth, I think Illumina’ gonna start to feel a little bit more competition in the long read sequence space. And one is always hearing whispers of new companies that may potentially disrupt next-gen sequencing. And that would be exciting because then we'd have an excuse to write another book. </p><p><strong>Harry Glorikian:</strong> Well, Kevin, start writing because I actually think we're there. I think there are a number of things there and you're right, I think Illumina has not had to bring the price down as quickly because there hasn't been competition. And you know, when I think about the space is, if you could do a $60 genome, right, it starts to become a rounding error. Like what other business models and opportunities now come alive? And those are the things that excite me. All right. </p><p>But so, but you have a unique position as editor of the journal of CRISPR and the former editor of a lot of prominent, you know, publications, Nature Genetics, Bio-IT World, Chemical & Engineering News. Do you think that there's adequate coverage of the biological versus the computing side of it? Because I, I have this feeling that the computing side still gets a little overlooked and underappreciated. </p><p><strong>Kevin Davies:</strong> I think you're right. I mean I think at my own company Genetic Engineering News, we still have such deep roots in the wet lab vision and version of biotechnology that it takes a conscious effort to look and say, you know, that's not where all the innovation is happening. Bio-IT World, which you mentioned is interesting because we launched that in 2002. It was launched by the publisher IDG, best-known from MacWorld and ComputerWorld and this, this whole family of high-tech publications.</p><p>And we launched in 2002 was a very thick glossy print magazine. And ironically, you know, we just couldn't find the advertising to sustain that effort, at least in the way that we'd envisioned it. And in 2006 and 2007, your friend and mine Phillips Kuhl, the proprietor of Cambridge Healthtech Institute, kind of put us out of our misery and said, you know what I'll, take the franchise because IDG just didn't know what to do with it anymore. But what he really wanted was the trade show, the production. And even though at the magazine eventually we fell on our sword and eventually put it out of its misery, the trade show went from strength to strength and it'll be back in Boston very soon because he had the vision to realize there is a big need here as sort of supercomputing for life sciences.</p><p>And it's not just about the raw high-performance computing, but it's about the software, the software tools and data sharing and management. And it's great to go back to that show and see the, you know, the Googles and Amazons and yeah, all the big household names. They're all looking at this because genome technology, as we've discussed earlier has been one of the big growth boom areas for, for their services and their products.</p><p><strong>Harry Glorikian:</strong> Right. I mean, well, if you look at companies like Tempus, right. When I talked to Joel Dudley over there on the show it's, they want to be the Amazon AWS piping for all things genomic analysis. Right. So instead of creating it on your own and building a, just use their platform, basically, so it's definitely a growth area. And at some point, if you have certain disease states, I don't see how you don't get you know, genomic sequencing done, how a physician even today in oncology, how anybody can truly prescribe with all the drugs that are being approved that have, you know, genomic biomarkers associated with them and not use that data.</p><p><strong>Kevin Davies:</strong> On a much lower, lo-fi scale, as I've been doing a lot of reading about sickle cell disease lately, it's clear that a lot of patients who are, of course, as you, as you know, as your listeners know, are mostly African-American because the disease arose in Africa and the carrier status gives carriers a huge health advantage in warding off malaria. So the gene continues to stay, stay high in in frequency. Many African-American patients would benefit from some generic drugs that are available in this country that provide some relief, but aren't aware of it and maybe their physicians aren't completely aware of it either. Which is very sad. And we've neglected the funding of this disease over many decades, whereas a disease like cystic fibrosis, which affects primarily white people of Northern European descent that receives far more funding per capita, per head, than than a disease like sickle cell does. But hopefully that will begin to change as we see the, the potential of some of these more advanced therapies.</p><p>I think as far as your previous comment. I think one of the big challenges now is how we tackle common diseases. I think we're making so much progress in treating rare Mendelian diseases and we know thousands of them. But it’s mental illness and asthma and diabetes you know, diseases that affect millions of people, which have a much more complicated genetic and in part environmental basis.</p><p>And what can we learn, to your point about having a full genome sequence, what can we glean from that that will help the medical establishment diagnose and treat much more common diseases, not quite as simple as just treating a rare Mendelian version of those diseases? So that's, I think going to be an important frontier over the next decade.</p><p><strong>Harry Glorikian:</strong> Yeah. It’s complicated. I think you're going to see as we get more real-world data that's organized and managed well, along with genomic data, I think you'll be able to make more sense of it. But some of these diseases are quite complicated. It's not going to be find one gene, and it's going to give you that answer.</p><p>But I want to go back to, you can't really talk about CRISPR without talking about this specter of germline editing. And a big part of your book is about this firestorm of criticism and condemnation around, you know, the 2018 when the Chinese researcher He Jankui, I think I said it correctly.</p><p>Yep.</p><p><strong>Kevin Davies:</strong> He Jankui is how I say it. Close. </p><p><strong>Harry Glorikian:</strong> He announced that he had created twin baby girls with edits to their genomes that were intended to make them immune to HIV, which sort of like—that already made me go, what? But the experiment was, it seems, unauthorized. It seems that, from what I remember, the edits were sloppy and the case spurred a huge global discussion about the ethics of using CRISPR to make edits that would be inherited by future generations. Now, where are we in that debate now? I mean, I know the National Academy of Sciences published a list of criteria, which said, don't do that. </p><p><strong>Kevin Davies:</strong> It was a little more nuanced than that. It wasn't don't do that. It was, there is a very small window through which we could move through if a whole raft of criteria are met. So they, they refuse to say hereditary genome editing should be banned or there should be a moratorium. But they said it should not proceed until we do many things. One was to make sure it is safe. We can't run before we can walk. And by that, I mean, we've got to first demonstrate—because shockingly, this hasn't been done yet—that genome editing can be done safely in human embryos. And in the last 18 months there've been at least three groups, arguably the three leading groups in terms of looking at genetic changes in early human embryos, Kathy Niakan in London, Shoukhrat Mitalipov in Oregon, and Dieter Egli in New York, who all at roughly the same time published and reports that said, or posted preprints at least that said, when we attempt to do CRISPR editing experiments in very early human embryos, we're seeing a mess. We're seeing a slew of off-target and even on-target undesirable edits.</p><p>And I think that says to me, we don't completely understand the molecular biology of DNA repair in the early human embryo. It may be that there are other factors that are used in embryogenesis that are not used after we're born. That's speculation on my part. I may be wrong. But the point is we still have a lot to do to understand, even if we wanted to.</p><p>And even if everybody said, “Here's a good case where we should pursue germline editing,” we've gotta be convinced that we can do it safely. And at the moment, I don't think anybody can say that. So that's a huge red flag.</p><p>But let's assume, because I believe in the power of research, let's assume that we're going to figure out ways to do this safely, or maybe we say CRISPR isn't the right tool for human embryos, but other tools such as those that we've touched on earlier in the show base editing or prime editing, or maybe CRISPR 3.0 or whatever that is right now to be published somewhere. [Let’s say ] those are more safe, more precise tools. Then we've got to figure out well, under what circumstances would we even want to go down this road? </p><p>And the pushback was quite rightly that, well, we already have technologies that can safeguard against families having children with genetic diseases. It's called IVF and pre-implantation genetic diagnosis. So we can select from a pool of IVF embryos. The embryos that we can see by biopsy are safe and can therefore be transplanted back into the mother, taken to term and you know, a healthy baby will emerge.</p><p>So why talk about gene editing when we have that proven technology? And I think that's a very strong case, but there are a small number of circumstances in which pre-implantation genetic diagnosis will simply not work. And those are those rare instances where a couple who want to have a biological child, but have both of them have a serious recessive genetic disease. Sickle cell would be an obvious case in point. So two sickle cell patients who by definition carry two copies of the sickle cell gene, once I have a healthy biological child preimplantation genetic diagnosis, it’s not going to help them because there are no healthy embryos from whatever pool that they produce that they can select. So gene editing would be their only hope in that circumstance. </p><p>Now the National Academy's report that you cited, Harry, did say for serious diseases, such as sickle cell and maybe a few others they could down the road potentially see and condone the use of germline gene editing in those rare cases.</p><p>But they're going to be very rare, I think. It's not impossible that in an authorized approved setting that we will see the return of genome editing, but that's okay. </p><p>Of course you can can issue no end of blue ribbon reports from all the world's experts, and that's not going to necessarily prevent some entrepreneur whose ethical values don't align with yours or mine to say, “You know what, there's big money to be made here. I'm going offshore and I'm going to launch a CRISPR clinic and you know, who's going to stop me because I'll be out of the clutches of the authorities.” And I think a lot of people are potentially worried that that scenario might happen. Although if anyone did try to do that, the scientific establishment would come down on them like a ton of bricks. And there'll be a lot of pressure brought to bear, I think, to make sure that they didn't cause any harm.</p><p><strong>Harry Glorikian:</strong> Yeah. It's funny. I would like to not call them entrepreneurs. I like entrepreneurs. I'd like to call them a rogue scientist. </p><p><strong>Kevin Davies:</strong> So as you say, there's the third section of four in Editing Humanity was all about the He Jankui debacle or saga. I had flown to Hong Kong. It's a funny story. I had a little bit of money left in my travel budget and there were two conferences, one in Hong Kong and one in China coming up in the last quarter of 2018. So I thought, well, okay, I'll go to one of them. And I just narrowed, almost a flip of a coin, I think. Okay, let's go to the Hong Kong meeting.</p><p>It's a bioethics conference since I don't expect it to be wildly exciting, but there are some big speakers and this is an important field for the CRISPR Journal to monitor. So I flew there literally, you know, trying to get some sleep on the long flights from New York and then on landing, turn on the phone, wait for the new wireless signal provider to kick in. And then Twitter just explode on my feed as this very, very astute journalists at MIT Technology Review, Antonio Regalado, had really got the scoop of the century by identifying a registration on a Chinese clinical trial website that he and only he had the foresight and intelligence to sort of see. </p><p>He had met He Jankui in an off the record meeting, as I described in the book, about a month earlier. A spider sense was tingling. He knew something was up and this was the final clue. He didn't know at that time that the Lulu and Nana, the CRISPR babies that you mentioned, had actually been born, but he knew that there was a pregnancy, at least one pregnancy, from some of the records that he'd seen attached to this registration document. So it was a brilliant piece of sleuthing. </p><p>And what he didn't know is that the Asociated Press chief medical writer Marilynm Marchion had confidentially been alerted to the potential upcoming birth of these twins by an American PR professional who was working with He Jankui in Shenzhen. So she had been working on an embargoed big feature story that He Jankui and his associates hoped would be the definitive story that would tell the world, we did this quote unquote, “responsibly and accurately, and this is the story that you can believe.” So that story was posted within hours.</p><p>And of course the famous YouTube videos that He Jankui had recorded announcing with some paternal pride that he had ushered into the world these two gene edited, children, screaming and crying into the world as beautiful babies I think was [the phrase]. And he thought that he was going to become famous and celebrated and lauded by not just the Chinese scientific community, but by the world community for having the ability and the bravery to go ahead and do this work after Chinese researchers spent the previous few years editing human embryos. </p><p>And he was persuaded that he had to present his work in Hong Kong, because he'd set off such a such an extraordinary firestorm. And I think you've all seen now you're the clips of the videos of him nervously walking onto stage the muffled, the silence, or the only sound in the front row, the only sound in the big auditorium at Hong Kong university—[which] was absolutely packed to the rim, one side of the auditorium was packed with press photographers, hundreds of journalists and cameras clicking—and the shutters clattering was the only, that was the applause that he got as he walked on stage.</p><p>And to his credit, he tried to answer the questions directly in the face of great skepticism from the audience. The first question, which was posed by David Liu, who had traveled all the way there, who just asked him simply, “What was the unmet medical need that you are trying to solve with this reckless experiment? There are medical steps that you can do, even if the couple that you're trying to help has HIV and you're trying to prevent this from being passed on. There are techniques that you can use sperm washing being one of them. That is a key element of the IVF process to ensure that the no HIV is transmitted.”</p><p>But he was unable to answer the question in terms of I'm trying to help a family. He'd already moved out and was thinking far, far bigger. Right? And his naiveté was shown in the manuscript that he'd written up and by that point submitted to Nature, excerpts of which were leaked out sometime later.</p><p>So he went back to Shenzhen and he was put under house arrest after he gave that talk in Hong Kong. And about a year later was sentenced to three years in jail. And so he's, to the best of my knowledge that's where he is. </p><p>But I often get asked what about the children? As far as we know, there was a third child born about six months later, also gene-edited. We don't even know a name for that child, let alone anything about their health. So one hopes that somebody in the Chinese medical establishment is looking after these kids and monitoring them and doing appropriate tests. The editing, as you said, was very shoddily performed. He knocked out the gene in question, but he did not mimic the natural 32-base deletion in this gene CCR5 that exists in many members of the population that confers, essentially, HIV resistance. So Lulu and Nana on the third child are walking human experiments, sad to say. This should never have been done. Never should have been attempted. And so we hope that he hasn't condemned them to a life of, you know, cancer checkups and that there were no off-target effects. They'll be able to live, hopefully, with this inactivated CCR5 gene, but it's been inactivated in a way that I don't think any, no other humans have ever been recorded with such modifications. So we, we really hope and pray that no other damage has been done. </p><p><strong>Harry Glorikian:</strong> So before we end, I'd love to give you the chance to speculate on the future of medicine in light of CRISPR. Easy, fast, inexpensive genome sequencing, give us access to everybody's genetic code, if they so choose. Machine learning and other forms of AI are helping understand the code and trace interactions between our 20,000 genes. And now CRISPR gives us a way to modify it. So, you know, it feels like [we have] almost everything we need to create, you know, precise, targeted, custom cures for people with genetic conditions. What might be possible soon, in your view? What remaining problems need to be solved to get to this new area of medicine? </p><p><strong>Kevin Davies:</strong> If you know the sequence that has been mutated to give rise to a particular disease then in principle, we can devise a, some sort of gene edit to repair that sequence. It may be flipping the actual base or bases directly, or maybe as we saw with the first sickle cell trial, it's because we understand the bigger genetic pathway. We don't have to necessarily go after the gene mutation directly, but there may be other ways that we can compensate boost the level of a compensating gene.</p><p>But I think we, we should be careful not to get too carried away. As excited as I am—and hopefully my excitement comes through in Editing Humanity—but for every company that we've just mentioned, you know, you can go on their website and look at their pipeline. And so Editas might have maybe 10 diseases in its cross hairs. And CRISPR [Therapeutics] might have 12 diseases. And Intellia might have 14 diseases and Graphite has got maybe a couple. And Beam Therapeutics has got maybe 10 or 12. And Prime Medicine will hasn't listed any yet, but we'll hopefully have a few announced soon. And so I just reeled off 50, 60, less than a hundred. And some of these are gonna work really, really well. And some are going to be either proven, ineffective or unviable economically because the patient pool is too small. And we've got, how many did we say, 6,000 known genetic diseases. </p><p>So one of the companies that is particularly interesting, although they would admit they're in very early days yet, is Verve Therapeutics. I touched on them earlier because they're looking at to modify a gene called PCSK9 that is relevant to heart disease and could be a gene modification that many people might undergo because the PCSK9 gene may be perfectly fine and the sequence could be perfectly normal, but we know that if we re remove this gene, levels of the bad cholesterol plummet, and that's usually a good thing as far as heart management goes. So that's an interesting, very interesting study case study, I think, to monitor over the coming years, because there's a company looking at a much larger patient pool potentially than just some of these rare syndromes with unpronounceable names. </p><p>So the future of CRISPR and gene editing is very bright. I think one of the lessons I took away from CRISPR in Editing Humanity is, looking at the full story, is how this technology, this game-changing gene-editing technology, developed because 25 years ago, a handful of European microbiologists got really interested in why certain microbes were thriving in a salt lake in Southeastern Spain. This is not exactly high-profile, NIH-must-fund-this research. There was a biological question that they wanted to answer. And the CRISPR repeats and the function of those repeats fell out of that pure curiosity, just science for science's sake. And so it's the value of basic investigator-driven, hypothesis-driven research that led to CRISPR being described and then the function of the repeats.</p><p>And then the story shifted to a yogurt company in Europe that was able to experimentally show how having the right sequence within the CRISPR array could safeguard their cultures against viral infection. And then five years of work people in various groups started to see, were drawn to this like moths to a flame. Jennifer Doudna was intrigued by this from a tip-off from a coffee morning discussion with a Berkeley faculty colleagues, Jill Banfield, a brilliant microbiologist in her own. And then she met meets Emmanuelle Charpentier in Puerto Rico at a conference, and they struck up a friendship and collaboration over the course of an afternoon. And that, why should that have worked? Well, it did, because a year later they're publishing in Science. So it's serendipity and basic research. And if that can work for CRISPR, then I know that there's another technology beginning to emerge from somewhere that may, yet trump CRISPR.</p><p>And I think the beauty of CRISPR is its universal appeal. And the fact is, it’s drawn in so many people, it could be in Japan or China or South Korea or parts of Europe or Canada or the U.S. or South America. Somebody is taking the elements of CRISPR and thinking well, how can we improve it? How can we tweak it?</p><p>And so this CRISPR toolbox is being expanded and modified and updated all the time. So there's a hugely exciting future for genome medicine. And you know, whether it's a new form of sequencing or a new form of synthetic biology, you know, hopefully your show is going to be filled for many years to come with cool, talented, young energetic entrepreneurs who've developed more cool gadgets to work with our genome and other genomes as well. We haven't even had time to talk about what this could do for rescuing the wooly mammoth from extinction. So fun things, but maybe, maybe another time. </p><p><strong>Harry Glorikian:</strong> Excellent. Well, great to have you on the show. Really appreciate the time. I hope everybody got a flavor for the enormous impact this technology can have. Like you said, we talked about human genome, but there's so many other genomic applications of CRISPR that we didn't even touch. </p><p><strong>Kevin Davies:</strong> Yup. Yup. So you have to read the book. </p><p><strong>Harry Glorikian:</strong> Yeah. I will look forward to the next book. So, great. Thank you so much. </p><p><strong>Kevin Davies:</strong> Thanks for having me on the show, Harry. All the best.</p><p><strong>Harry Glorikian:</strong> Take care.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p>
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      <pubDate>Tue, 31 Aug 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Kevin Davies)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week Harry is joined by Kevin Davies, author of the 2020 book <i>Editing Humanity: The CRISPR Revolution and the New Era of Genome Editing. </i>CRISPR—an acronym for Clustered Regularly Interspaced Short Palindromic Repeats—consists of DNA sequences that evolved to help bacteria recognize and defend against viral invaders, as a kind of primitive immune system. Thanks to its ability to precisely detect and cut other DNA sequences, CRISPR has spread to labs across the world in the nine years since Jennifer Doudna and Emmanuel Charpentier published a groundbreaking 2012 <i>Science</i> paper describing how the process works. </p><p>The Nobel Prize committee recognized the two scientists for the achievement in 2020, one day after Davies' book came out. The book explains how CRISPR was discovered, how it was turned into an easily programmable tool for cutting and pasting stretches of DNA, how most of the early pioneers in the field have now formed competing biotech companies, and how the technology is being used to help patients today—and in at least one famous case, misused. Today's interview covers all of that ground and more.</p><p>Davies is a PhD geneticist who has spent most of his career in life sciences publishing. After his postdoc with Harvey Lodish at the Whitehead Institute, Davies worked as an assistant editor at <i>Nature</i>, the founding editor of <i>Nature Genetics</i> (<i>Nature</i>’s first spinoff journal), editor-in-chief at Cell Press, founding editor-in-chief of the Boston-based publication <i>Bio-IT World</i>, and publisher of <i>Chemical & Engineering News</i>. In 2018 he helped to launch <i>The CRISPR Journal</i>, where he is the executive editor. Davies’ previous books include <i>Breakthrough</i> (1995) about the race to understand the BRCA1 breast cancer gene, <i>Cracking the Genome</i> (2001) about the Human Genome Project, <i>The $1,000 Genome </i>(2010) about next-generation sequencing companies, and <i>DNA</i> (2017), an updated version of James Watson’s 2004 book, co-authored with Watson and Andrew Berry.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian:</strong> We talk a lot on the show about how computation and data are changing the way we develop new medicines and the way we deliver healthcare. Some executives in the drug discovery business speak of the computing and software side of the business as the “dry lab” —to set it apart from the “wet labs” where scientists get their hands dirty working with actual cells, tissues, and reagents.</p><p>But the thing is, recent progress on the wet lab side of biotech has been just as amazing as progress in areas like machine learning. And this week, my friend Kevin Davies is here to talk about the most powerful tool to come along in the last decade, namely, precise gene editing using CRISPR.</p><p>Of course, CRISPR-based gene editing has been all over the news since Jennifer Doudna and Emmanuel Charpentier published a groundbreaking <i>Science</i> paper in 2012 describing how the process works in the lab. That work earned them a Nobel Prize in medicine just eight years later, in 2020.</p><p>But what’s not as well-known is the story of how CRISPR was discovered, how it was turned into an easily programmable tool for cutting and pasting stretches of DNA, how most of the early pioneers in the field have now formed competing biotech companies, and how the technology is being used to help patients today—and in at least one famous case, misused.</p><p>Kevin put that whole fascinating story together in his 2020 book Editing Humanity. And as the executive editor of The CRISPR Journal, the former editor-in-chief of Bio-IT World, the founding editor at Nature Genetics, and the author of several other important books about genomics, Kevin is one of the best-placed people in the world to tell that story. Here’s our conversation.</p><p><strong>Harry Glorikian:</strong> Kevin, welcome to the show. </p><p><strong>Kevin Davies:</strong> Great to see you again, Harry. Thanks for having me on.</p><p><strong>Harry Glorikian:</strong> Yeah, no, I mean, I seem to be saying this a lot lately, it's been such a long time since, because of this whole pandemic, nobody's really seeing anybody on a regular basis. </p><p>I want to give everybody a chance to hear about, you had written this book called Editing Humanity, which is, you know, beautifully placed behind you for, for product placement here. But I want to hear, can you give everybody sort of an overview of the book and why you feel that this fairly technical laboratory tool called CRISPR is so important that you needed to write a book about it?</p><p><strong>Kevin Davies:</strong> Thank you. Yes. As you may know, from some of my previous “bestsellers” or not, I've written about big stories in genetics because that's the only thing I'm remotely qualified to write about. I trained as a human geneticist in London and came over to do actually a pair of post-docs in the Boston area before realizing my talents, whatever they might be, certainly weren't as a bench researcher. So I had to find another way to stay in science but get away from the bench and hang up the lab coats.</p><p>So moving into science publishing and getting a job with Nature and then launching Nature Genetics was the route for me. And over the last 30 years, I've written four or five books that have all been about, a) something big happening in genomics, b) something really big that will have both medical and societal significance, like the mapping and discovery of the BRCA1 breast cancer gene in the mid-90s, the Human Genome Project at the turn of the century, and then the birth and the dawn of consumer genetics and personalized medicine with <i>The $1,000 Genome</i>. And the third ingredient I really look for if I'm trying to reach a moderately, significantly large audience is for the human elements. Who are they, the heroes and the anti heroes to propel the story? Where is the human drama? Because, you know, we all love a good juicy, gossipy piece of story and rating the good guys and the bad guys. </p><p>And CRISPR, when it first really took off in 2012, 2013 as a gene editing tool a lot of scientists knew about this. I mean, these papers are being published in Science in particular, not exactly a specialized journal, but I was off doing other things and really missed the initial excitement, I'm embarrassed to say. It was only a couple of years later, working on a sequel to Jim Watson's <i>DNA</i>, where I was tasked with trying to find and summarize the big advances in genomic technology over the previous decade or whatever, that I thought, well, this CRISPR thing seems to be taking off and the Doudnas and the Charpentiers are, you know, winning Breakthrough Prizes and being feted by celebrities. And it's going on 60 Minutes. They're going to make a film with the Rock, Dwayne Johnson. What the heck is going on. And it took very little time after that, for me to think, you know, this is such an exciting, game-changing disruptive technology that I've got to do two things. I've gotta, a) write a book and b) launch a journal, and that's what I did. And started planning at any rate in sort of 2016 and 17. We launched the CRISPR Journal at the beginning of 2018. And the book Editing Humanity came out towards the end of 2020. So 2020, literally one day before the Nobel Prize—how about that for timing?—for Doudna and Charpentier for chemistry last year. </p><p><strong>Harry Glorikian:</strong> When I think about it, I remember working with different companies that had different types of gene editing technology you know, working with some particularly in the sort of agriculture space, cause it a little bit easier to run faster than in the human space. And you could see what was happening, but CRISPR now is still very new. But from the news and different advances that are happening, especially here in the Boston area, you know, it's having some real world impacts. </p><p>If you had to point to the best or the most exciting example of CRISPR technology helping an actual patient, would you say, and I've heard you say it, Victoria Gray, I think, would be the person that comes to mind. I've even, I think in one of your last interviews, you said something about her being, you know, her name will go down in history. Can you explain the technology that is helping her and what some of the similar uses of CRISPR might be?</p><p><strong>Kevin Davies:</strong> So the first half of Editing Humanity is about the heroes of CRISPR, how we, how scientists turned it from this bizarre under-appreciated bacterial antiviral defense system and leveraged it and got to grips with it, and then figured out ways to turn it into a programmable gene editing technology. And within a year or two of that happening that the classic Doudna-Charpentier paper came out in the summer of 2012. Of course the first wave of biotech companies were launched by some of the big names, indeed most of the big names in CRISPR gene editing hierarchies. So Emmanuel Charpentier, Nobel Laureate, launched CRISPR Therapeutics, Jennifer Doudna co-founded Editas Medicine with several other luminaries. That didn't go well for, for reasons of intellectual property. So she withdrew from Editas and became a co-founder of Intellia Therapeutics as well as her own company, Caribou, which just went public, and Feng Zhang and others launched Editas Medicine. So we had this sort of three-way race, if you will, by three CRISPR empowered gene editing companies who all went public within the next two or three years and all set their sights on various different genetic Mendelian disorders with a view to trying to produce clinical success for this very powerful gene editing tool. </p><p>And so, yes, Victoria Gray is the first patient, the first American patient with sickle cell anemia in a trial that is being run by CRISPR Therapeutics in close association with Vertex Pharmaceuticals. And that breakthrough paper, as I think many of your listeners will know, came out right at the end of 2020 published in the New England Journal of Medicine. Doesn't get much more prestigious than that. And in the first handful of patients that CRISPR Therapeutics have edited with a view to raising the levels of fetal hemoglobin, fetal globin, to compensate for the defective beta globin that these patients have inherited, the results were truly spectacular.</p><p>And if we fast forward now to about two years after the initial administration, the initial procedures for Victoria Gray and some of her other volunteer patients, the results still look as spectacular. Earlier this year CRISPR Therapeutics put out of sort of an update where they are saying that the first 20 or 24 patients that they have dosed with sickle cell and beta thallasemia are all doing well. There've been little or no adverse events. And the idea of this being a once and done therapy appears very well founded. </p><p>Now it's not a trivial therapy. This is ex-vivo gene editing as obviously rounds of chemotherapy to provide the room for the gene edited stem cells to be reimplanted into the patient. So this is not an easily scalable or affordable or ideal system, but when did we, when will we ever able to say we've pretty much got a cure for sickle cell disease? This is an absolutely spectacular moment, not just for CRISPR, but for medicine, I think, overall. And Victoria Gray, who's been brilliantly profiled in a long running series on National Public Radio, led by the science broadcaster Rob Stein, she is, you know, we, we can call her Queen Victoria, we can call it many things, but I really hope that ,it's not just my idea, that she will be one of those names like Louise Brown and other heroes of modern medicine, that we look and celebrate for decades to come.</p><p>So the sickle cell results have been great, and then much more recently, also in the New England Journal, we have work led by Intellia Therapeutics, one of the other three companies that I named, where they've been also using CRISPR gene editing, but they've been looking at a rare liver disease, a form of amyloidosis where a toxic protein builds up and looking to find ways to knock out the production of that abnormal gene.</p><p>And so they've been doing in vivo gene editing, really using CRISPR for the first time. It's been attempted using other gene editing platforms like zinc fingers, but this is the first time that I think we can really say and the New England Journal results prove it. In the first six patients that have been reported remarkable reductions in the level of this toxic protein far, not far better, but certainly better than any approved drugs that are currently on the market. So again, this is a very, very exciting proof of principle for in vivo gene editing, which is important, not just for patients with this rare liver disorder, but it really gives I think the whole field and the whole industry enormous confidence that CRISPR is safe and can be used for a growing list of Mendelian disorders, it's 6,000 or 7,000 diseases about which we know the root genetic cause, and we're not going to tackle all of them anytime soon, but there’s a list of ones that now are within reach. And more and more companies are being launched all the time to try and get at some of these diseases.</p><p>So as we stand here in the summer of 2021, it's a really exciting time. The future looks very bright, but there's so much more to be done. </p><p><strong>Harry Glorikian:</strong> No, we're just at the beginning. I mean, I remember when I first saw this, my first question was off target effects, right? How are we going to manage that? How are they going to get it to that place that they need to get it to, to have it to that cell at that time, in the right way to get it to do what it needs to do. And you know, all these sorts of technical questions, but at the same time, I remember I'm going to, trying to explain this to my friends. I'm like, “You don't understand, this can change everything.” And now a high school student, I say this to people and they look at me strangely, a high school student can order it and it shows up at your house.</p><p><strong>Kevin Davies:</strong> Yeah, well, this is why I think, and this is why one reason why CRISPR has become such an exciting story and receives the Nobel Prize eight years after the sort of launch publication or the first demonstration of it as a gene editing tool. It is so relatively easy to get to work. It's truly become a democratized or democratizing technology. You don't need a million-dollar Illumina sequencer or anything. And so labs literally all around the world can do basic CRISPR experiments. Not everyone is going to be able to launch a clinical trial. But the technology is so universally used, and that means that advances in our understanding of the mechanisms, new tools for the CRISPR toolbox new pathways, new targets, new oftware, new programs, they're all coming from all corners of the globe to help not just medicine, but many other applications of CRISPR as well.</p><p><strong>Harry Glorikian:</strong> Yeah. I always joke about like, there, there are things going on in high school biology classes now that weren't, available, when I was in college and even when we were in industry and now what used to take an entire room, you can do on a corner of a lab bench.</p><p><strong>Kevin Davies:</strong> Yeah. Yeah. As far as the industry goes we mentioned three companies. But you know, today there's probably a dozen or more CRISPR based or gene editing based biotech companies. More undoubtedly are going to be launched before the end of this year. I'm sure we'll spend a bit of time talking about CRISPR 2.0, it seems too soon to be even thinking about a new and improved version of CRISPR, but I think there's a lot of excitement around also two other Boston-based companies, Beam Therapeutics in Cambridge and Verve Therapeutics both of which are launching or commercializing base editing. So base editing is a tool developed from the lab of David Lu of the Broad Institute [of MIT and Harvard]. And the early signs, again, this technology is only five or six years old, but the early signs of this are incredibly promising. David's team, academic team, had a paper in Nature earlier this year, really reporting successful base editing treatment of sickle cell disease in an animal model, not by raising the fetal globin levels, which was sort of a more indirect method that is working very well in the clinic, but by going right at the point mutation that results in sickle cell disease and using given the chemical repertoire of base editing.</p><p>Base editing is able to make specific single base changes. It can't do the full repertoire of single base changes. So there are some limitations on researchers’ flexibility. So they were unable to flip the sickle cell variant back to the quote unquote wild type variants, but the change they were able to make is one that they can live with, we can live with because it's a known benign variant, a very rare variant that has been observed in other, in rare people around the world. So that's completely fine. It's the next best thing. And so that looks very promising. Beam Therapeutics, which is the company that David founded or co-founded is trying a related approach, also going right at the sickle cell mutation. And there are other companies, including one that Matthew Porteus has recently founded and has gone public called Graphite Bio.</p><p>So this is an exciting time for a disease sickle cell disease that has been woefully neglected, I think you would agree, both in terms of basic research, funding, medical prioritization, and medical education. Now we have many, many shots on goal and it doesn't really, it's not a matter of one's going to win and the others are going to fall by the wayside. Just like we have many COVID vaccines. We'll hopefully have many strategies for tackling sickle cell disease, but they are going to be expensive. And I think you know the economics better than I do. But I think that is the worry, that by analogy with gene therapies that have been recently approved, it's all, it's really exciting that we can now see the first quote, unquote cures in the clinic. That's amazingly exciting. But if the price tag is going to be $1 million or $2 million when these things are finally approved, if and when, that's going to be a rather deflating moment. But given the extraordinary research resources that the CRISPRs and Intellias and Beams and Graphites are pouring into this research, obviously they've got to get some return back on their investment so that they can plow it back into the company to develop the next wave of of gene editing therapies. So you know, it's a predicament </p><p><strong>Harry Glorikian:</strong> One of these days maybe I have to have a show based on the financial parts of it. Because there's a number of different ways to look at it. But just for the benefit of the listeners, right, who may not be experts, how would you explain CRISPR is different from say traditional gene therapies. And is CRISPR going to replace older methods of, of gene therapy or, or will they both have their place? </p><p><strong>Kevin Davies:</strong> No, I think they'll both have their place. CRISPR and, and these newer gene editing tools, base editing and another one called prime editing, which has a company behind it now called Prime Medicine, are able to affect specific DNA changes in the human genome.</p><p>So if you can target CRISPR, which is an enzyme that cuts DNA together with a little program, the GPS signal is provided in the form of a short RNA molecule that tells the enzyme where to go, where to go in the genome. And then you have a couple of strategies. You can either cut the DNA at the appropriate target site, because you want to inactivate that gene, or you just want to scramble the sequence because you want to completely squash the expression of that gene. Or particularly using the newer forms of gene editing, like base editing, you can make a specific, a more nuanced, specific precision edit without, with one big potential advantage in the safety profile, which is, you're not completely cutting the DNA, you're just making a nick and then coaxing the cell’s natural repair systems to make the change that you sort of you're able to prime.</p><p>So there are many diseases where this is the way you want to go, but that does not in any way invalidate the great progress that we're making in traditional gene therapy. So for example today earlier today I was recording an interview or for one of my own programs with Laurence Reid, the CEO of Decibel Therapeutics, which is looking at therapies for hearing loss both genetic and other, other types of hearing disorders.</p><p>And I pushed him on this. Aren't you actually joinomg with the gene editing wave? And he was very circumspect and said, no, we're very pleased, very happy with the results that we're getting using old fashioned gene replacement therapy. These are recessive loss of function disorders. And all we need to do is get the expression of some of the gene back. So you don't necessarily need the fancy gene editing tools. If you can just use a an AAV vector and put the healthy gene back into the key cells in the inner ear. So they're complimentary approaches which is great.</p><p><strong>Harry Glorikian:</strong> So, you know, in, in this podcast, I try to have a central theme when I'm talking to people. The relationships of big data, computation, advances in new drugs, and other ways to keep people healthy. So, you know, like question-wise, there's no question in my mind that the whole genomics revolution that started in the ‘90s, and I was happy to be at Applied Biosystems when we were doing that, would have been impossible in the absence of the advances in computing speed and storage in the last three decades. I think computing was the thing that held up the whole human genome, which gave us the book of life that CRISPR is now allowing us to really edit. But I wonder if you could bring us sort of up-to-date and talk about the way CRISPR and computation are intertwined. What happens when you combine precision of an editing tool like CRISPR with the power of machine learning and AI tools to find meaning and patterns in that huge genetic ball? </p><p><strong>Kevin Davies:</strong> Yeah. Well, yeah. I'm got to tread carefully here, but I think we are seeing papers from some really brilliant labs that are using some of the tools that you mentioned. AI and machine learning with a view to better understanding and characterizing some of the properties and selection criteria of some of these gene editing tools. </p><p>So you mentioned earlier Harry, the need to look out for safety and minimize the concern of off-target effects. So I think by using some of these some algorithms and AI tools, researchers have made enormous strides in being able to design the programmable parts of the gene editing constructs in such a way that you increase the chances that they're going to go to the site that you want them to go to, and nnot get hung up latching onto a very similar sequence that's just randomly cropped up on the dark side of the genome, across the nucleus over there. You don't want that to happen. And I don't know that anybody would claim that they have a failsafe way to guarantee that that could never happen. But the you know, the clinical results that we've seen and all the preclinical results are showing in more and more diseases that we've got the tools and learned enough now to almost completely minimize these safety concerns. </p><p>But I think everyone, I think while they're excited and they're moving as fast as they can, they're also doing this responsibly. I mean, they, they have to because no field, gene therapy or gene editing really wants to revisit the Jesse Gelsinger tragedy in 1999, when a teenage volunteer died in volunteering for a gene therapy trial at Penn of, with somebody with a rare liver disease. And of course that, that setback set back the, entire field of gene therapy for a decade. And it's really remarkable that you know, many of the sort of pioneers in the field refuse to throw in the towel, they realized that they had to kind of go back to the drawing board, look at the vectors again, and throw it out. Not completely but most, a lot of the work with adenoviruses has now gone by the wayside. AAV is the new virus that we hear about. It's got a much better safety profile. It's got a smaller cargo hold, so that's one drawback, but there are ways around that. And the, the explosion of gene therapy trials that we're seeing now largely on the back of AAV and now increasingly with, with non-viral delivery systems as well is, is very, very gratifying. </p><p>And it's really delivery. I think that is now the pain point. Digressing from your question a little bit, but delivery, I think is now the big challenge. It's one thing to contemplate a gene therapy for the eye for rare hereditary form of blindness or the ear. Indeed those are very attractive sites and targets for some of these early trials because of the quantities that you need to produce. And the localization, the, the physical localization, those are good things. Those help you hit the target that you want to. But if you're contemplating trying something for Duchenne muscular dystrophy or spinal muscular atrophy, or some of the diseases of the brain, then you're going to need much higher quantities particularly for muscular disorders where, you run into now other challenges, including, production and manufacturing, challenges, and potentially safeguarding and making sure that there isn't an immune response as well. That's another, another issue that is always percolating in the background.</p><p>But given where we were a few years ago and the clinical progress that we've talked about earlier on in the show it, I think you can safely assume that we've collectively made enormous progress in, in negating most, if not all of these potential safety issues.</p><p><strong>Harry Glorikian:</strong> No, you know, it's funny, I know that people will say like, you know, there was a problem in this and that. And I look at like, we're going into uncharted territories and it has to be expected that you just…you've got people that knew what they were doing. All of these people are new at what they are doing. And so you have to expect that along the way everything's not going to go perfectly. But I don't look at it as a negative. I look at it as, they're the new graduating class that's going to go on and understand what they did right. Or wrong, and then be able to modify it and make an improvement. And, you know, that's what we do in science. </p><p><strong>Kevin Davies:</strong> Well, and forget gene editing—in any area of drug development and, and pharmaceutical delivery, things don't always go according to plan. I'm sure many guests on Moneyball Medicine who have had to deal with clinical trial failures and withdrawing drugs that they had all kinds of high hopes for because we didn't understand the biology or there was some other reaction within, we didn't understand the dosing. You can't just extrapolate from an animal model to humans and on and on and on. </p><p>And so gene editing, I don't think, necessarily, should be held to any higher standard. I think the CRISPR field has already in terms of the sort of market performance, some of the companies that we've mentioned, oh my God, it's been a real roller coaster surprisingly, because every time there's been a paper published in a prominent journal that says, oh my God, there's, there's a deletion pattern that we're seeing that we didn't anticipate, or we're seeing some immune responses or we're seeing unusual off target effects, or we're seeing P53 activation and you know, those are at least four off the top of my head. I'm sure there've been others. And all had big transient impact on the financial health of these companies. But I think that was to be expected. And the companies knew that this was just an overreaction. They've worked and demonstrated through peer review publications and preclinical and other reports that these challenges have been identified, when known about, pretty much completely have been overcome or are in the process of being overcome.</p><p>So, you know, and we're still seeing in just traditional gene therapy technologies that have been around for 15, 20 years. We're still seeing reports of adverse events on some of those trials. So for gene editing to have come as far as it's common, to be able to look at these two big New England Journal success stories in sickle cell and ATTR amyloidosis, I don't think any very few, except the most ardent evangelists would have predicted we'd be where we are just a few years ago. </p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong>One of your previous books was called <i>The $1,000 Genome</i>. And when you published that back in 2010, it was still pretty much science fiction that it might be possible to sequence someone’s entire genome for $1,000. But companies like Illumina blew past that barrier pretty quickly, and now people are talking about sequencing individual genome for just a few hundred dollars or less. My question is, how did computing contribute to the exponential trends here. And do you wish you’d called your book <i>The $100 Genome</i>?</p><p><strong>Kevin Davies:</strong> I've thought about putting out a sequel to the book, scratching out the 0's and hoping nobody would notice. Computing was yes, of course, a massive [deal] for the very first human genome. Remember the struggle to put that first assembly together. It’s not just about the wet lab and pulling the DNA sequences off the machines, but then you know, the rapid growth of the data exposure and the ability to store and share and send across to collaborators and put the assemblies together has been critical, absolutely critical to the development of genomics.</p><p>I remember people were expressing shock at the $1,000 genome. I called the book that because I heard Craig Venter use that phrase in public for the first time in 2002. And I had just recently published <i>Cracking the Genome</i>. And we were all still recoiling at the billions of dollars it took to put that first reference genome sequence together. And then here's Craig Venter, chairing a scientific conference in Boston saying what we need is the $1,000 genome. And I almost fell off my chair. “what are you? What are you must you're in, you're on Fantasy Island. This is, there's no way we're going to get, we're still doing automated Sanger sequencing. God bless Fred Sanger. But how on earth are you going to take that technology and go from billions of dollars to a couple of thousand dollars. This is insanity.” </p><p>And that session we had in 2002 in Boston. He had a local, a little episode of America's Got Talent and he invited half a dozen scientists to come up and show what they had. And George Church was one of them. I think Applied Biosystems may have given some sort of talk during that session. And then a guy, a young British guy from a company we'd never heard of called Celexa showed up and showed a couple of pretty PowerPoint slides with colored beads, representing the budding DNA sequence on some sort of chip. I don't know that he showed any data. It was all very pretty and all very fanciful. Well guess what? They had the last laugh. Illumina bought that company in 2006. And as you said, Harry you know, I think when, when they first professed to have cracked the $1,000 dollar genome barrier, a few people felt they needed a pinch of salt to go along with that. But I think now, yeah, we're, we're, we're well past that. And there are definitely outfits like BGI, the Beijing Genomics Institute being one of them, that are touting new technologies that can get us down to a couple of hundred. </p><p>And those were such fun times because for a while there Illumina had enormous competition from companies like 454 and Helicose and PacBio. And those were fun heady times with lots and lots of competition. And in a way, Illumina's had it a little easy, I think over the last few years, but with PacBio and Oxford Nanopore gaining maturity both, both in terms of the technology platforms and their business strategy and growth, I think Illumina’ gonna start to feel a little bit more competition in the long read sequence space. And one is always hearing whispers of new companies that may potentially disrupt next-gen sequencing. And that would be exciting because then we'd have an excuse to write another book. </p><p><strong>Harry Glorikian:</strong> Well, Kevin, start writing because I actually think we're there. I think there are a number of things there and you're right, I think Illumina has not had to bring the price down as quickly because there hasn't been competition. And you know, when I think about the space is, if you could do a $60 genome, right, it starts to become a rounding error. Like what other business models and opportunities now come alive? And those are the things that excite me. All right. </p><p>But so, but you have a unique position as editor of the journal of CRISPR and the former editor of a lot of prominent, you know, publications, Nature Genetics, Bio-IT World, Chemical & Engineering News. Do you think that there's adequate coverage of the biological versus the computing side of it? Because I, I have this feeling that the computing side still gets a little overlooked and underappreciated. </p><p><strong>Kevin Davies:</strong> I think you're right. I mean I think at my own company Genetic Engineering News, we still have such deep roots in the wet lab vision and version of biotechnology that it takes a conscious effort to look and say, you know, that's not where all the innovation is happening. Bio-IT World, which you mentioned is interesting because we launched that in 2002. It was launched by the publisher IDG, best-known from MacWorld and ComputerWorld and this, this whole family of high-tech publications.</p><p>And we launched in 2002 was a very thick glossy print magazine. And ironically, you know, we just couldn't find the advertising to sustain that effort, at least in the way that we'd envisioned it. And in 2006 and 2007, your friend and mine Phillips Kuhl, the proprietor of Cambridge Healthtech Institute, kind of put us out of our misery and said, you know what I'll, take the franchise because IDG just didn't know what to do with it anymore. But what he really wanted was the trade show, the production. And even though at the magazine eventually we fell on our sword and eventually put it out of its misery, the trade show went from strength to strength and it'll be back in Boston very soon because he had the vision to realize there is a big need here as sort of supercomputing for life sciences.</p><p>And it's not just about the raw high-performance computing, but it's about the software, the software tools and data sharing and management. And it's great to go back to that show and see the, you know, the Googles and Amazons and yeah, all the big household names. They're all looking at this because genome technology, as we've discussed earlier has been one of the big growth boom areas for, for their services and their products.</p><p><strong>Harry Glorikian:</strong> Right. I mean, well, if you look at companies like Tempus, right. When I talked to Joel Dudley over there on the show it's, they want to be the Amazon AWS piping for all things genomic analysis. Right. So instead of creating it on your own and building a, just use their platform, basically, so it's definitely a growth area. And at some point, if you have certain disease states, I don't see how you don't get you know, genomic sequencing done, how a physician even today in oncology, how anybody can truly prescribe with all the drugs that are being approved that have, you know, genomic biomarkers associated with them and not use that data.</p><p><strong>Kevin Davies:</strong> On a much lower, lo-fi scale, as I've been doing a lot of reading about sickle cell disease lately, it's clear that a lot of patients who are, of course, as you, as you know, as your listeners know, are mostly African-American because the disease arose in Africa and the carrier status gives carriers a huge health advantage in warding off malaria. So the gene continues to stay, stay high in in frequency. Many African-American patients would benefit from some generic drugs that are available in this country that provide some relief, but aren't aware of it and maybe their physicians aren't completely aware of it either. Which is very sad. And we've neglected the funding of this disease over many decades, whereas a disease like cystic fibrosis, which affects primarily white people of Northern European descent that receives far more funding per capita, per head, than than a disease like sickle cell does. But hopefully that will begin to change as we see the, the potential of some of these more advanced therapies.</p><p>I think as far as your previous comment. I think one of the big challenges now is how we tackle common diseases. I think we're making so much progress in treating rare Mendelian diseases and we know thousands of them. But it’s mental illness and asthma and diabetes you know, diseases that affect millions of people, which have a much more complicated genetic and in part environmental basis.</p><p>And what can we learn, to your point about having a full genome sequence, what can we glean from that that will help the medical establishment diagnose and treat much more common diseases, not quite as simple as just treating a rare Mendelian version of those diseases? So that's, I think going to be an important frontier over the next decade.</p><p><strong>Harry Glorikian:</strong> Yeah. It’s complicated. I think you're going to see as we get more real-world data that's organized and managed well, along with genomic data, I think you'll be able to make more sense of it. But some of these diseases are quite complicated. It's not going to be find one gene, and it's going to give you that answer.</p><p>But I want to go back to, you can't really talk about CRISPR without talking about this specter of germline editing. And a big part of your book is about this firestorm of criticism and condemnation around, you know, the 2018 when the Chinese researcher He Jankui, I think I said it correctly.</p><p>Yep.</p><p><strong>Kevin Davies:</strong> He Jankui is how I say it. Close. </p><p><strong>Harry Glorikian:</strong> He announced that he had created twin baby girls with edits to their genomes that were intended to make them immune to HIV, which sort of like—that already made me go, what? But the experiment was, it seems, unauthorized. It seems that, from what I remember, the edits were sloppy and the case spurred a huge global discussion about the ethics of using CRISPR to make edits that would be inherited by future generations. Now, where are we in that debate now? I mean, I know the National Academy of Sciences published a list of criteria, which said, don't do that. </p><p><strong>Kevin Davies:</strong> It was a little more nuanced than that. It wasn't don't do that. It was, there is a very small window through which we could move through if a whole raft of criteria are met. So they, they refuse to say hereditary genome editing should be banned or there should be a moratorium. But they said it should not proceed until we do many things. One was to make sure it is safe. We can't run before we can walk. And by that, I mean, we've got to first demonstrate—because shockingly, this hasn't been done yet—that genome editing can be done safely in human embryos. And in the last 18 months there've been at least three groups, arguably the three leading groups in terms of looking at genetic changes in early human embryos, Kathy Niakan in London, Shoukhrat Mitalipov in Oregon, and Dieter Egli in New York, who all at roughly the same time published and reports that said, or posted preprints at least that said, when we attempt to do CRISPR editing experiments in very early human embryos, we're seeing a mess. We're seeing a slew of off-target and even on-target undesirable edits.</p><p>And I think that says to me, we don't completely understand the molecular biology of DNA repair in the early human embryo. It may be that there are other factors that are used in embryogenesis that are not used after we're born. That's speculation on my part. I may be wrong. But the point is we still have a lot to do to understand, even if we wanted to.</p><p>And even if everybody said, “Here's a good case where we should pursue germline editing,” we've gotta be convinced that we can do it safely. And at the moment, I don't think anybody can say that. So that's a huge red flag.</p><p>But let's assume, because I believe in the power of research, let's assume that we're going to figure out ways to do this safely, or maybe we say CRISPR isn't the right tool for human embryos, but other tools such as those that we've touched on earlier in the show base editing or prime editing, or maybe CRISPR 3.0 or whatever that is right now to be published somewhere. [Let’s say ] those are more safe, more precise tools. Then we've got to figure out well, under what circumstances would we even want to go down this road? </p><p>And the pushback was quite rightly that, well, we already have technologies that can safeguard against families having children with genetic diseases. It's called IVF and pre-implantation genetic diagnosis. So we can select from a pool of IVF embryos. The embryos that we can see by biopsy are safe and can therefore be transplanted back into the mother, taken to term and you know, a healthy baby will emerge.</p><p>So why talk about gene editing when we have that proven technology? And I think that's a very strong case, but there are a small number of circumstances in which pre-implantation genetic diagnosis will simply not work. And those are those rare instances where a couple who want to have a biological child, but have both of them have a serious recessive genetic disease. Sickle cell would be an obvious case in point. So two sickle cell patients who by definition carry two copies of the sickle cell gene, once I have a healthy biological child preimplantation genetic diagnosis, it’s not going to help them because there are no healthy embryos from whatever pool that they produce that they can select. So gene editing would be their only hope in that circumstance. </p><p>Now the National Academy's report that you cited, Harry, did say for serious diseases, such as sickle cell and maybe a few others they could down the road potentially see and condone the use of germline gene editing in those rare cases.</p><p>But they're going to be very rare, I think. It's not impossible that in an authorized approved setting that we will see the return of genome editing, but that's okay. </p><p>Of course you can can issue no end of blue ribbon reports from all the world's experts, and that's not going to necessarily prevent some entrepreneur whose ethical values don't align with yours or mine to say, “You know what, there's big money to be made here. I'm going offshore and I'm going to launch a CRISPR clinic and you know, who's going to stop me because I'll be out of the clutches of the authorities.” And I think a lot of people are potentially worried that that scenario might happen. Although if anyone did try to do that, the scientific establishment would come down on them like a ton of bricks. And there'll be a lot of pressure brought to bear, I think, to make sure that they didn't cause any harm.</p><p><strong>Harry Glorikian:</strong> Yeah. It's funny. I would like to not call them entrepreneurs. I like entrepreneurs. I'd like to call them a rogue scientist. </p><p><strong>Kevin Davies:</strong> So as you say, there's the third section of four in Editing Humanity was all about the He Jankui debacle or saga. I had flown to Hong Kong. It's a funny story. I had a little bit of money left in my travel budget and there were two conferences, one in Hong Kong and one in China coming up in the last quarter of 2018. So I thought, well, okay, I'll go to one of them. And I just narrowed, almost a flip of a coin, I think. Okay, let's go to the Hong Kong meeting.</p><p>It's a bioethics conference since I don't expect it to be wildly exciting, but there are some big speakers and this is an important field for the CRISPR Journal to monitor. So I flew there literally, you know, trying to get some sleep on the long flights from New York and then on landing, turn on the phone, wait for the new wireless signal provider to kick in. And then Twitter just explode on my feed as this very, very astute journalists at MIT Technology Review, Antonio Regalado, had really got the scoop of the century by identifying a registration on a Chinese clinical trial website that he and only he had the foresight and intelligence to sort of see. </p><p>He had met He Jankui in an off the record meeting, as I described in the book, about a month earlier. A spider sense was tingling. He knew something was up and this was the final clue. He didn't know at that time that the Lulu and Nana, the CRISPR babies that you mentioned, had actually been born, but he knew that there was a pregnancy, at least one pregnancy, from some of the records that he'd seen attached to this registration document. So it was a brilliant piece of sleuthing. </p><p>And what he didn't know is that the Asociated Press chief medical writer Marilynm Marchion had confidentially been alerted to the potential upcoming birth of these twins by an American PR professional who was working with He Jankui in Shenzhen. So she had been working on an embargoed big feature story that He Jankui and his associates hoped would be the definitive story that would tell the world, we did this quote unquote, “responsibly and accurately, and this is the story that you can believe.” So that story was posted within hours.</p><p>And of course the famous YouTube videos that He Jankui had recorded announcing with some paternal pride that he had ushered into the world these two gene edited, children, screaming and crying into the world as beautiful babies I think was [the phrase]. And he thought that he was going to become famous and celebrated and lauded by not just the Chinese scientific community, but by the world community for having the ability and the bravery to go ahead and do this work after Chinese researchers spent the previous few years editing human embryos. </p><p>And he was persuaded that he had to present his work in Hong Kong, because he'd set off such a such an extraordinary firestorm. And I think you've all seen now you're the clips of the videos of him nervously walking onto stage the muffled, the silence, or the only sound in the front row, the only sound in the big auditorium at Hong Kong university—[which] was absolutely packed to the rim, one side of the auditorium was packed with press photographers, hundreds of journalists and cameras clicking—and the shutters clattering was the only, that was the applause that he got as he walked on stage.</p><p>And to his credit, he tried to answer the questions directly in the face of great skepticism from the audience. The first question, which was posed by David Liu, who had traveled all the way there, who just asked him simply, “What was the unmet medical need that you are trying to solve with this reckless experiment? There are medical steps that you can do, even if the couple that you're trying to help has HIV and you're trying to prevent this from being passed on. There are techniques that you can use sperm washing being one of them. That is a key element of the IVF process to ensure that the no HIV is transmitted.”</p><p>But he was unable to answer the question in terms of I'm trying to help a family. He'd already moved out and was thinking far, far bigger. Right? And his naiveté was shown in the manuscript that he'd written up and by that point submitted to Nature, excerpts of which were leaked out sometime later.</p><p>So he went back to Shenzhen and he was put under house arrest after he gave that talk in Hong Kong. And about a year later was sentenced to three years in jail. And so he's, to the best of my knowledge that's where he is. </p><p>But I often get asked what about the children? As far as we know, there was a third child born about six months later, also gene-edited. We don't even know a name for that child, let alone anything about their health. So one hopes that somebody in the Chinese medical establishment is looking after these kids and monitoring them and doing appropriate tests. The editing, as you said, was very shoddily performed. He knocked out the gene in question, but he did not mimic the natural 32-base deletion in this gene CCR5 that exists in many members of the population that confers, essentially, HIV resistance. So Lulu and Nana on the third child are walking human experiments, sad to say. This should never have been done. Never should have been attempted. And so we hope that he hasn't condemned them to a life of, you know, cancer checkups and that there were no off-target effects. They'll be able to live, hopefully, with this inactivated CCR5 gene, but it's been inactivated in a way that I don't think any, no other humans have ever been recorded with such modifications. So we, we really hope and pray that no other damage has been done. </p><p><strong>Harry Glorikian:</strong> So before we end, I'd love to give you the chance to speculate on the future of medicine in light of CRISPR. Easy, fast, inexpensive genome sequencing, give us access to everybody's genetic code, if they so choose. Machine learning and other forms of AI are helping understand the code and trace interactions between our 20,000 genes. And now CRISPR gives us a way to modify it. So, you know, it feels like [we have] almost everything we need to create, you know, precise, targeted, custom cures for people with genetic conditions. What might be possible soon, in your view? What remaining problems need to be solved to get to this new area of medicine? </p><p><strong>Kevin Davies:</strong> If you know the sequence that has been mutated to give rise to a particular disease then in principle, we can devise a, some sort of gene edit to repair that sequence. It may be flipping the actual base or bases directly, or maybe as we saw with the first sickle cell trial, it's because we understand the bigger genetic pathway. We don't have to necessarily go after the gene mutation directly, but there may be other ways that we can compensate boost the level of a compensating gene.</p><p>But I think we, we should be careful not to get too carried away. As excited as I am—and hopefully my excitement comes through in Editing Humanity—but for every company that we've just mentioned, you know, you can go on their website and look at their pipeline. And so Editas might have maybe 10 diseases in its cross hairs. And CRISPR [Therapeutics] might have 12 diseases. And Intellia might have 14 diseases and Graphite has got maybe a couple. And Beam Therapeutics has got maybe 10 or 12. And Prime Medicine will hasn't listed any yet, but we'll hopefully have a few announced soon. And so I just reeled off 50, 60, less than a hundred. And some of these are gonna work really, really well. And some are going to be either proven, ineffective or unviable economically because the patient pool is too small. And we've got, how many did we say, 6,000 known genetic diseases. </p><p>So one of the companies that is particularly interesting, although they would admit they're in very early days yet, is Verve Therapeutics. I touched on them earlier because they're looking at to modify a gene called PCSK9 that is relevant to heart disease and could be a gene modification that many people might undergo because the PCSK9 gene may be perfectly fine and the sequence could be perfectly normal, but we know that if we re remove this gene, levels of the bad cholesterol plummet, and that's usually a good thing as far as heart management goes. So that's an interesting, very interesting study case study, I think, to monitor over the coming years, because there's a company looking at a much larger patient pool potentially than just some of these rare syndromes with unpronounceable names. </p><p>So the future of CRISPR and gene editing is very bright. I think one of the lessons I took away from CRISPR in Editing Humanity is, looking at the full story, is how this technology, this game-changing gene-editing technology, developed because 25 years ago, a handful of European microbiologists got really interested in why certain microbes were thriving in a salt lake in Southeastern Spain. This is not exactly high-profile, NIH-must-fund-this research. There was a biological question that they wanted to answer. And the CRISPR repeats and the function of those repeats fell out of that pure curiosity, just science for science's sake. And so it's the value of basic investigator-driven, hypothesis-driven research that led to CRISPR being described and then the function of the repeats.</p><p>And then the story shifted to a yogurt company in Europe that was able to experimentally show how having the right sequence within the CRISPR array could safeguard their cultures against viral infection. And then five years of work people in various groups started to see, were drawn to this like moths to a flame. Jennifer Doudna was intrigued by this from a tip-off from a coffee morning discussion with a Berkeley faculty colleagues, Jill Banfield, a brilliant microbiologist in her own. And then she met meets Emmanuelle Charpentier in Puerto Rico at a conference, and they struck up a friendship and collaboration over the course of an afternoon. And that, why should that have worked? Well, it did, because a year later they're publishing in Science. So it's serendipity and basic research. And if that can work for CRISPR, then I know that there's another technology beginning to emerge from somewhere that may, yet trump CRISPR.</p><p>And I think the beauty of CRISPR is its universal appeal. And the fact is, it’s drawn in so many people, it could be in Japan or China or South Korea or parts of Europe or Canada or the U.S. or South America. Somebody is taking the elements of CRISPR and thinking well, how can we improve it? How can we tweak it?</p><p>And so this CRISPR toolbox is being expanded and modified and updated all the time. So there's a hugely exciting future for genome medicine. And you know, whether it's a new form of sequencing or a new form of synthetic biology, you know, hopefully your show is going to be filled for many years to come with cool, talented, young energetic entrepreneurs who've developed more cool gadgets to work with our genome and other genomes as well. We haven't even had time to talk about what this could do for rescuing the wooly mammoth from extinction. So fun things, but maybe, maybe another time. </p><p><strong>Harry Glorikian:</strong> Excellent. Well, great to have you on the show. Really appreciate the time. I hope everybody got a flavor for the enormous impact this technology can have. Like you said, we talked about human genome, but there's so many other genomic applications of CRISPR that we didn't even touch. </p><p><strong>Kevin Davies:</strong> Yup. Yup. So you have to read the book. </p><p><strong>Harry Glorikian:</strong> Yeah. I will look forward to the next book. So, great. Thank you so much. </p><p><strong>Kevin Davies:</strong> Thanks for having me on the show, Harry. All the best.</p><p><strong>Harry Glorikian:</strong> Take care.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p>
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      <itunes:title>Kevin Davies on the CRISPR Revolution and Genome Editing</itunes:title>
      <itunes:author>Harry Glorikian, Kevin Davies</itunes:author>
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      <itunes:summary>This week Harry is joined by Kevin Davies, author of the 2020 book Editing Humanity: The CRISPR Revolution and the New Era of Genome Editing. CRISPR—an acronym for Clustered Regularly Interspaced Short Palindromic Repeats—consists of DNA sequences that evolved to help bacteria recognize and defend against viral invaders, as a kind of primitive immune system. Thanks to its ability to precisely detect and cut other DNA sequences, CRISPR has spread to labs across the world in the nine years since Jennifer Doudna and Emmanuel Charpentier published a groundbreaking 2012 Science paper describing how the process works.</itunes:summary>
      <itunes:subtitle>This week Harry is joined by Kevin Davies, author of the 2020 book Editing Humanity: The CRISPR Revolution and the New Era of Genome Editing. CRISPR—an acronym for Clustered Regularly Interspaced Short Palindromic Repeats—consists of DNA sequences that evolved to help bacteria recognize and defend against viral invaders, as a kind of primitive immune system. Thanks to its ability to precisely detect and cut other DNA sequences, CRISPR has spread to labs across the world in the nine years since Jennifer Doudna and Emmanuel Charpentier published a groundbreaking 2012 Science paper describing how the process works.</itunes:subtitle>
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      <title>The Legacy of Stanford’s Biomedical Informatics Program</title>
      <description><![CDATA[<p>Harry traveled to the San Francisco Bay Area this summer, and while there he interviewed the co-founders of three local data-driven diagnostics and drug discovery startups, all of whom participated in the same graduate program: the Biomedical Informatics Program at Stanford's School of Medicine.  Joining Harry were Aria Pharmaceuticals co-founder and CEO Andrew Radin, BigHat Biosciences co-founder and chief scientific officer Peyton Greenside, and Inflammatix co-founder and CEO Tim Sweeney. The conversation covered how each company's work to advance healthcare and therapeutics rests on data and  computation, and how the ideas, skills, connections each entrepreneur picked up at Stanford have played into their startups and their careers.</p><p>Radin's company, formerly known as twoXar, models pathogenesis computationally to identify potential drug molecules, shaving years off the drug development process. Radin developed Aria’s core technology, a collection of proprietary algorithms for discovering novel small molecule therapies. The algorithms incorporate system biology data, disease-specific data, chemistry libraries, and more than 60 separate AI methods to sift through molecules with known chemistry to find those with novel mechanisms of action and favorable safety profiles absorption properties. Whereas traditional drug discovery methods have a 1-2% success rate after 4 years, Aria claims its approach has a 30% success rate after just 6 months. It has a pipeline of at 18 drug candidates in areas including kidney, lung, and liver diseases, lupus, cancers of the liver and lung, glioblastoma, and glaucoma. Radin holds MS and BS degrees in computer science from Rochester Institute of Technology, studied computational biology and medicine through the Stanford Center for Professional Development, and was formerly an advisor to several venture capital firms and startup accelerators. </p><p>Greenside started BigHat to combine wet-lab science and machine learning with the goal of speeding up the design of antibody therapies. BigHat’s lab consists of numerous “workcells,” each of which cycles through multiple tests of a given set of antibodies synthesized from <i>in silico</i> designs. Assays characterize each antibody variant for traits such as yield, stability, solubility, specificity, affinity, and function. Machine learning algorithms determine how mutations affected each of these properties and feed this learning back into a new set of designs for the next round. The company says this approach allows it to identify therapeutic-grade antibodies faster than traditional bulk screening techniques (in days rather than weeks or months). Greenside is a computational biologist with a PhD from Stanford, an MPhil from Cambridge University, and a BA from Harvard. Silicon Valley Business Journal named her to its 2021 list of “Women of Influence in Silicon Valley.”</p><p>Sweeney co-founded Inflammatix to develop a new class of diagnostic tests that—rather than searching for a specific bug—“read” the host response of a patient’s immune system for clues about the cause and severity of an infection. The problem, as Sweeney originally saw it, is that traditional tests can only detect infections once a pathogen has spread to the bloodstream, meaning that doctors often guess incorrectly about whether a patient needs an antibiotic, or which one they need. Inflammatix is built around the idea that the human immune system has evolved targeted responses to different kinds of infections and other diseases. These responses are complex and vary according to age and setting, but by analyzing mRNA samples from multiple, diverse cohorts, the company believes it can identify a “reproducible signal in the ‘noise’ of multiple datasets.” Inflammatix is developing a cartridge-based system called Myrna for use in emergency rooms, urgent care clinics, and outpatient clinics that can screen for acute bacterial infections, viral infections, and sepsis in 30 minutes. Sweeney is a physician and data scientist who earned an MD/PhD from Duke and then trained as a general surgery resident at Stanford.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian: </strong>Home base for MoneyBall Medicine is the Boston area. It’s one of the world capitals for biomedical innovation and the digital revolution in healthcare. So I don’t have to venture far to find great guests.</p><p>But obviously Boston isn’t the <i>only</i> capital for biosciences innovation. This summer, during the brief break between surges in the coronavirus pandemic, I escaped to the San Francisco Bay area. And while I was there, I got a lesson about the considerable impact created by one particular Bay Area institution. Namely, the Stanford School of Medicine’s Biomedical Informatics program, or BMI for short.</p><p>BMI trains students how to use and adapt computational methods like machine learning to solve hard problems in biology and medicine. And a remarkable number of BMI alumni have fanned out into the world of life science startups. On today’s show you’ll hear from three of them. We’ll talk about the work their companies are doing now and how the skills and connections they picked up at Stanford have played into their careers.</p><p>The first guest, and the person who helped to organize the group interview, has actually been on the show twice before. His name is Andrew Radin, and he joined me in November of 2018 and again in August of 2020 to talk about his Palo Alto-based company Aria Pharmaceuticals, formerly known as twoXar. </p><p>Aria uses a collection of proprietary AI algorithms to discover new small-molecule drugs for a range of diseases. In traditional drug discovery, years can go by between the identification of a new drug candidate and testing the drug in animals. Radin says Aria’s AI can reduce that time to just weeks.</p><p>Andrew kindly recruited two of his fellow Stanford BMI alumni for our conversation. One is Peyton Greenside, the co-founder and chief scientific officer at BigHat Biosciences in San Carlos, California. The company combines wet-lab science and machine learning to make it easier and faster to design new antibody therapies. And again, the leap forward is that BigHat’s rapid cycle of antibody design, synthesis, and characterization vastly speed things up, reducing the time required to identify new therapeutic antibodies from months to just days.</p><p>And our final guest is Tim Sweeney. He trained as a surgery resident at Stanford and then founded a company to tackle one of the biggest problems in acute care, namely how to diagnose infections faster and more accurately. The company is called Inflammatix, and it’s building a device that emergency departments and outpatient clinics can use to rapidly analyze messenger RNA in patients’ blood to screen for sepsis and other kinds of infections.</p><p>All three of these companies are benefiting in different ways from the computational methods their founders studied at Stanford. And they’ve got some great stories to share about how their time at BMI convinced them that future progress in medicine and drug discovery would depend on data above all else.</p><p>We originally planned to meet up in person for this interview. But we switched to Zoom at the last minute out of concerns over the Delta variant. So without further ado, here’s my talk with Andrew Radin, Peyton Greenside, and Tim Sweeney.</p><p><strong>Harry Glorikian: </strong>Well, hello everybody. And welcome to today's show. </p><p><strong>Tim Sweeney: </strong>Thank you. </p><p><strong>Peyton Greenside: </strong>It's great to be here. </p><p><strong>Harry Glorikian: </strong>Yeah, it's, it's great to have all of you here. For everybody listening and watching, we were actually supposed to do this in person, but unfortunately the Delta variant sort of threw a monkey wrench in that whole process. So I reserve the right that we can do this in the future and actually get together when this whole thing is over, like normal human beings. </p><p>Each of you are working on super exciting things. Different companies, focusing in different areas. And I know you all know each other, so I'm going to step back one second and say, if you had to give a brief description of your company or pretend you don't know each other, where we're at a cocktail party and you're going to give me two or three sentences about what you're doing and why it's interesting, how would you sort of do that? And Andrew, since you're the ringleader that sort of helped bring this group together, I'll throw it out to you first to sort of get going.</p><p><strong>Andrew Radin: </strong>Well, that's a lot of pressure, but certainly like, our description I think is pretty simple. We are a preclinical stage pharmaceutical company. And we happen to have a proprietary artificial intelligence platform that's discovered all the assets that we have under development. And these days we have 18 programs, 18 different disease areas where we've got new experimental medications and we are working on progressing those new inventions to the clinic and ultimately to FDA approval.</p><p><strong>Harry Glorikian: </strong>Peyton?</p><p><strong>Peyton Greenside: </strong>Hi everyone. I'm Peyton and one of the co-founders of Big Hat Biosciences, and our mission is to improve human health by making it easier to design advanced antibody therapeutics. So we actually do that through a combination of a high-speed wet lab and machine learning techniques in order to very iteratively design and improve antibodies until they meet unmet patient need. And it's been a lot of fun. Then we've been founded since 2019.</p><p><strong>Harry Glorikian: </strong>And finally, Tim. </p><p><strong>Tim Sweeney: </strong>Thanks for the opportunity, Harry. Inflammatix was founded about five years ago, spun out of Stanford along with, of course, Aria and Big Hat. We are designing novel diagnostics focused on acute care and critical illness needs. So we basically have a data analytics platform that allows us to decode certain signals of gene expression within the immune system. And then for those of you watching, I'll show you, we have a cartridge that allows us to sort of implement that in a 30 minute point of care diagnostic setting.</p><p>So our particular focus is basically bringing precision medicine into acute care settings, the hospital, the clinic, the ICU, where sort of historically there hasn't been a lot of diagnostic innovation. </p><p><strong>Harry Glorikian: </strong>Interesting. That's funny because I actually, I wrote a a textbook on how to commercialize novel diagnostics a few years ago. Because you know, unless you've been through the ringer, you may not know all the different pieces.</p><p>But you guys now all know each other right? Now, that may not surprising because we're in Silicon Valley, and I'm actually in Berkeley right now, but that's close enough. And drug discovery companies and tech companies are all swimming around each other. But your connection is a little bit deeper. I mean, you guys all went to Stanford together. So this is not necessarily a commercial for Stanford, but it's, that's pretty interesting that three CEOs of data-driven, you know, healthcare companies out of the same class, whoosh, come out of Stanford. So how did you, how did you guys meet at first?</p><p><strong>Andrew Radin: </strong>Well, and I would say we're not the only ones to—it's just, you know, the people that happen to be in front of you today. It was funny. So, right before this, I sent a panicked email, because I didn't want to say something that wasn't true. I was like, Peyton, you were in this class, weren't you? </p><p><strong>Peyton Greenside: </strong>Yeah. I don’t know if I was Andrew's TA or if we'd all actually been in the same class. But I think our Stanford journeys all started, it sounds like, the same year. Same time. And we all were taking translational bioinformatics, which was a course taught by, I believe, Atul Butte who I think, you know, really brought to fame the idea of big data for biology, what you can draw out a very large data sets and drawing insights. So we were all in the same class and with many other people, as Andrew said, and it was a lot of fun. And I think it was the start of long journeys for all of us than in a similar vein. </p><p><strong>Andrew Radin: </strong>And it was a place for…I think what was awesome about that class, again, not to be an advertisement for the coursework, but it was kind of my characterization of the class was, you basically learned how other people use data science to solve some medical mystery, like across the spectrum. And so the, the purpose of learning all that was to just kind of fill you full of ideas of things that you could do. And then the kind of the capstone of the class was a final project where you basically had to come up with something, right? And so you were just sort of primed with all this like super interesting sort of research on how other people had approached very different problems in the space. And for me, it was just the source of lots of interesting ideas that then, you know, helped me ultimately create what's the technology behind our company today. </p><p><strong>Tim Sweeney: </strong>It is remarkable how much came out of Stanford biomedical informatics. Though, I mean, to Andrew's point, there are, there are a number of other CEOs that came through in that sort of in maybe a five or seven year stretch, all out of the same program. And I think a lot of it had to do with that, yes, this one particular class had all the different applications of data science sort of across the spectrum of life sciences, but they also attracted people like that. Right? I mean, everyone on this call has a very different background before Stanford BMI. And I think that was part of what made that culture so special is that it ended up being a real team sport, whether your background was medicine or business or math or computer science or bio-engineering or anything else, learning a technique from A, and applying it into area B, I think, was a pretty successful way to grow innovation. </p><p><strong>Harry Glorikian: </strong>I feel like as a venture guy, I should be standing at the exit door and just sort of saying, you know, “What's your idea, what's your idea,” screening as they're coming out the door.</p><p><strong>Peyton Greenside: </strong>Well, you know, some folks have also become venture capitalists. </p><p><strong>Harry Glorikian: </strong>That's true. </p><p><strong>Peyton Greenside: </strong>Yep.</p><p><strong>Harry Glorikian: </strong>So was there anything in particular that you guys, interests or questions or discussions that you sort of bonded over that sort of brought you together? I mean, even, even as just friends that decided to keep in touch? </p><p><strong>Andrew Radin: </strong>Well, I think it's probably different for different people. I think the first real interaction I had with Tim, you know,the details escape me, because this is almost 10 years ago now, but I remember, he's a medical doctor, right? He's got a MD and a PhD if I'm, if I'm not mistaken. And so my, you know, I'm a hardcore computer scientist. That's my background. And so back in those days, I was rapidly learning all I could about medicine and biology. And I don’t remember the topic, but I do recall him helping me after class was something that wasn't just quite, you know, sitting in my head correctly. And I remember thinking like, what a nice dude, to, like, you know, kind of take some time and give me like, you know, a little private tutoring. </p><p>And then and then if I recall afterwards, you said, yeah, so I'm trying to do this stuff with some clinical data. Can you help me with this sort of stuff? Which if I remember correctly, I never actually helped you. I was talking about, oh, I might be able to help you. And then eventually you said, “I figured it out. I don't need you”</p><p><strong>Tim Sweeney: </strong>I said I needed to build a web scraper. And I said, I have no idea how to.</p><p><strong>Andrew Radin: </strong>Oh yeah, I have totally done that. Lots of times. So yeah, something like that. That's how the conversation started with Tim, which was sort of to the point about having very different backgrounds, You know, with Peyton, I don't really recall the first interaction. I remember we were in a journal club, maybe with Russ and you were talking about some stuff, but I think the more I got connected to her was around the time she was working on her defense and I actually went to her PhD defense. And I have this BS detector that sometimes go off a little early, right? When people make a statement, I'm like, “I don't know about that.” We're sitting in her defense and every time she said something that made me, do one of these, like, “Wait a minute,” she instantly resolved that in the next sentence. I was like, “Okay. All right. That's cool.”</p><p><strong>Peyton Greenside: </strong>Okay, that feels good. Fortunately, fortunately. </p><p><strong>Andrew Radin: </strong>You don't have to pass my scrutiny obviously, but yeah, I think that led to a number of kind of interesting conversations as she was contemplating, you know, what to do next. She was moving through her career, but yeah, I think that the interactions are very, very different for each person. At least that's my view, but I don't know if you guys have different memories. </p><p><strong>Peyton Greenside: </strong>Yeah, I think what's, what's interesting, I mean, just generally I agree with that. And I think one of the most interesting parts of BMI, as Tim said, is just the backgrounds that everyone has. And I also come from the kind of applied math, computer science background, and there's this kind of fascination of what you can do with computational skills in biology. I think to me, a lot of the conversations were around where do I even apply this to? I think people sort of think of computational biology as a, maybe sort of a niche, small field at the intersection of maybe somewhere where biology meets, I guess, you know, statistics, computer science and math. But it's so broad and it's so vast. And I think most of the, I say the most exciting conversations I've had are, you know, we work in immunology, you know, you're a clinician, you work with clinical data. How do you apply these tools? The most daunting but fun task upon showing up at Stanford with such an incredible ecosystem here is, where do you even focus your attention? Where should you work? There's too many exciting opportunities to pick. And I think some of the fun conversations I remember also having a Tim, with a more clinical background, is what's actually useful? You know, I want, I want to do something useful and sort of try to figure out, you know, where this, you know, where are you can actually kind of apply your time to the most impactful problem. It was a lot of fun. </p><p><strong>Andrew Radin: </strong>And I think, Tim, it'd be great for you to share. I mean, when we first met, I'd asked you kind of like, what were you doing there? What your story was? I can't remember the words back then. But you basically said like, “Look, I'm a surgeon,” if I recall, “I'm trying to save people's lives and I'm just thinking like, is there a better way? Can I like just, you know, do something that's going to have a much larger impact? And I don't know what that is yet.” I know I’m wildly paraphrasing what you said, right. But I'm thinking about like what that could be. And I think. You know, when I met you, you were sort of on the hunt for figuring out where to apply, you know, kind of the, the skill set.</p><p><strong>Tim Sweeney: </strong>I think that the everyone shows up with their strengths and weaknesses. Mine certainly was the summer before the program actually started, I had to take, you know, basic courses in computer science and linear algebra. And I remember, I mean, I literally went from my last overnight call at Santa Clara Valley Medical Center, running two ICUs, to the next morning CS 106x. Which, because it was the summer, was filled with all the high school students that are just total whiz kids, like 16 year olds, and they're like, you know, we're learning like order of operations or something and they're raising their hands and I'm like desperately trying to write down like, oh, if n means....</p><p>You know, and obviously Andrew and Peyton were among the folks that sort of helped me on the basic science side of things. But I think that the story about sort of getting the question right is absolutely correct. And I remember actually the time that I knew I was in the right program was maybe two or three months in to training. They used to have these like sort of work in progress talks, and it was like, you know, Wednesday or Thursday or something, you bring a lunch. And somebody was talking about this thing that sounded very, very cool to me. It was all about how you could, you could program a system to learn new knowledge on its own. And it was like, you know, generalized AI for health data. And I was incredibly impressed. And, and the first example that was given was like, you know, so we've sifted through all of the billions of data points. And I have discovered—he stumbles over the drug name—I've discovered that plopacapagril, by which he meant clopidogrel, is associated with bleeding events. And everyone goes, “oh.” And I put my hand up, like, “That's an anti-platelet medication.” And he looks at me and I'm like, “the point of that is that it thins the blood.” He looked at me and was like, “So bleeding is a known side effect?” Totally crestfallen that people knew this already. Like, he had no idea. I was like, I do have something to contribute, so it's good. It's a good merge.</p><p><strong>Harry Glorikian: </strong>Yeah. So, you know, Tim, you're running a diagnostics company you know, Peyton and Andrew you're running what I'll lump together as drug discovery companies in different markets, different regulatory processes. You know, I'm sure there are common challenges to life science startups in the valley. What are some of the biggest challenges that you guys see? Is it scalability? Is it finding the right people? Is it finding the right investors? Where do you guys see your challenges?</p><p><strong>Andrew Radin: </strong>And I would just say for a little clarification to Peyton's point about there's so many different problems. Even though Peyton and I are both in the business of creating new medicines, we couldn't be any more different. We're a small molecule company. She's a large molecule company. If you know what that means. You know, I'm making motorcycles, she's making trucks. Like, we're just, we're just, we're just doing completely different things. To your question about like, kind of what are the very similar things, we're not really even competing with one another from that perspective.</p><p>But I think, to answer your question, at least from my viewpoint, you kind of have to do all those things. I think, you know, in startups, everything has to work. You can't sort of have any one thing that doesn't function and whether that's the science or the fundraising or the team or all of those things, if you've got a problem in any one of those areas, it can be life-threatening to the company.</p><p>And so I think part of the experience for the entrepreneur is sort of, you know, because your time is limited and your resources are limited is sort of finding a best fit to try to solve, you know, or, or to maximize all of those problems simultaneously. And I would say all the things that you've listed, they all at various points in the company, they’ve been critical and it's more of a juggling act rather than “Geez, all you need to do is just knock it out of the park, on, you know, financing and who cares about anything else?” We know lots of stories where that hasn't gone well. Or you knock it on the park on an exceptional team, and the other things don't come together. So, you know, from my standpoint, all of that stuff has to work. </p><p><strong>Peyton Greenside: </strong>I think my answer continues. I think one of the things I, and what many people who just find, I would say many scientific, inquiries fascinating, is just what to work on that. And I have the same problem now, you know, I think it happened when I went to Stanford and happened you know, postdoc and have it happened now.</p><p>And, in the context of my company, wo we basically have a platform that can work on engineering any protein. We work on antibodies, but really can be anything. So, you know, we have this landscape. There are tons of diseases with unmet need. There's sort of tons of opportunities for the type of therapeutic protein you would use, whether that's a standard antibody, monoclonal IgG, sort of a next generation antibody. And so we always have to decide, you know, what, what are the programs gonna be? What are you going to go after? What's the modality? And I think at the crux of it, like you know, for a drug discovery company, is what is the shape of your company. But our platform is so broad that basically we can work on so many things. And I, once again, by myself faced the same problem, which is okay, like, you know, where should we focus our attention? And that's been really fun. This is getting maybe more of Tim's background, but so we're learning more about the clinical side of things and where that need is and where that pairs with our technology. But I agree with what Andrew said, nothing really can go shortchanged, but that's been the same theme, I would say just now in a different vein. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, I think about this as a balance of dynamics where you're at different stages at different points, depending on where you are in the development cycle. And you need different people and different issues become a problem at different points or maybe become more acute at different points. But you know, all of you guys have one theme in common, which is why we're on the show together. It’s data and some form of machine learning or other, you know, part of artificial intelligence that's being applied to find something valuable or identify some valuable piece of information that can make something actionable. It's sort of a big question, but how do you employ machine learning and AI in what you're doing in each of your businesses? Because I think of these things as like I have a toolbox and then I have to apply that tool in a very specific way with a specific set of knowledge that can feed it, where I can get an output that I'm looking for. And so each one of you, like you said, Andrew, you're, you're working on the motorcycle, she's working on the big truck, and he's trying to make sure that everybody gets diagnosed and not, not ends up in worse than they already are. So how are you each of you thinking or approaching this in your own unique way? If you can summarize. Tim, why don't you go first?</p><p><strong>Tim Sweeney: </strong>Our tests work by measuring a discrete number of genes within the body. It's their expression levels. So for instance, for our flagship test inset, we look at 29 different gene expression levels from, from blood. And then of course we have to somehow integrate  29 different levels into actionable information. And so the backend of that is the data science part, the machine learning. So step one is actually choosing what to measure. And then after you've chosen what to measure, then it's training hardened algorithms that turn 29 different things into a score that says, “This person has a bacterial infection.” And then of course doing that repeatably, doing it in a way that is traceable and verifiable. And then all of the post hoc, you know, how is it affected by different demographics? And how has it, in the actual context of care, and of course in the coming years when actually implemented in a health system, how does it impact patients and providers and does it save costs and improve outcomes?</p><p>And maybe just since I didn't get a chance to answer, I think one of the questions about challenges is a lot of times it changes with the application that you're taking further. Right? One of the things that we all have in common, I think is that we're all platform companies. And to, to Peyton's point, like you can apply that data science platform to a lot of different areas, but each one of those areas has to be taken through a very long development process to actually help a person and the challenges totally change along that development life cycle. </p><p><strong>Harry Glorikian: </strong>And just for everybody listening—so you developed this product. What is the, so what, what is the impact? </p><p><strong>Tim Sweeney: </strong>In our case, we decided that we wanted to go after one first indication that would be a big enough hit to make the business matter. We've got lots of things we'd like to do in the long run, but sepsis is an area of outstanding unmet need. And the “so what” is right now, if you go in and you're feeling sick and you see a doctor and you want to know, Hey doc, like, do I need antibiotics? There is literally no test that can answer that question. It's a guess. So it's not to say that antibiotics aren't administered quickly, but as a physician myself, I can tell you that that is it's a guess at first, and then you have to wait for tests to come back and those tests themselves are imperfect. And so something like 40% of antibiotics are probably misprescribed. </p><p>And if you knew in 30 minutes, Hey, this person has a bacterial infection or no, you could greatly simplify care and really improve outcomes. And that's the premise. But the challenge of course is that beyond the data science, there's so much that goes into building the product and proving out the clinical data and get it through FDA and then getting it reimbursed and, and, you know, getting it rolled out more broadly, if you want to get to the point where you've actually helped a number of people and built a solid business. </p><p><strong>Harry Glorikian: </strong>When I, in my last company, before I moved on to venture, I, we had a strategy consulting firm and we did a lot of digging into sepsis. That was a big problem, a nut that people were trying to crack, and, you know, if you could crack it, the opportunity is quite significant.</p><p>So Peyton, Andrew, how do you guys think about it? Because I'm, I'm thinking manipulating an antibody and sort of tweaking little parts of it until you find the exact fit. [It requires] supercomputing or massive computing. </p><p><strong>Peyton Greenside: </strong>It's funny. I actually think that the context in which we all met, which is you know, when I think big data was becoming really popular in medicine is actually a great context, I think, for where Big Hat ended up, and it's funny, because it's going to been kind of a long journey—it always happens when I look back, I'm like, yeah, that makes, that makes sense. Right? Based on where I was. We actually put a lot of our attention into integrating the wet lab with the dry lab. And this is actually, you know, with a goal of making big data into what I might call sort of smart data or agile data, which is that the idea of back in the day when first, I would say you got tons and tons of really large data sets. And you can sort of mine them, or you can look for trends. You can sort of just figure out something, you know, interesting relationship between gene expression and patient outcome. And I kept throughout my career feeling frustrated by being handed the dataset and sort of having to just mine it and not having kind of, you know, ownership of being able to say, “I want to look here, I want more data here.” Right? You're sort of handed a really large data set and you're, a passenger in this dataset that has already been generated. You cannot modify it. That’s kind of the fixed dataset. And, you know, as a computational person, that, that you're often the second person, like a wet lab or experimental lab is making the data, then you kind of get it right. And so, you know, throughout I would say, especially in my time at Stanford this was very much the case, where I was felt kind of trapped in being given a data set that I didn't actually design, but I could sort of mine. </p><p>And so at Big Hat we're basically trying to now put computation in the driver's seat and kind of change that paradigm. We're actually now, instead of just getting one large data set that you design up front, you acknowledge that biology and the science are very iterative, right? As as you said, you sort of start with an antibody sequence, but, you know, would you stop there? If you could just make one tweak, maybe you'd make it, you know, 10x better, 100x better with two. So how do you enable it? How do you want to enable that very rapid cycling? And so we view this as kind of the intersection of how closely can a lab and the computational side interact and how can they inform each other? How can you one learn from the other? And so we actually enabled a computational person to design an antibody on Monday and in a few days you synthesize, purify, characterize the antibody and kind of understand, are you moving in the right direction or are you not? And repeat, and then repeat it and repeat and repeat. So you don't get kind of stuck in the fixed data set again. </p><p>So it's really attractive for a lot of ways, right? There are a lot of reasons you kind of can end up in a really good regime and it's big data or sort of area, but, you know, there's kind of a lot of lost opportunity in terms of being able to kind of be very agile and move toward something that looks promising and then iterate more. And the goal is that that will allow us to enable types of antibodies they don't even exist today because you can't engineer them that easily. You’re kind of are stuck with a fixed format. So that's been really fun. And so we've been spending a lot of time designing the wet lab to kind of support the machine learning side and data science side from the ground up and, and vice versa.</p><p>And so it's a pretty unique sort of set up. And I think I like to think of it as sort of smart data, right? You're thinking really closely about what should I generate that will be helpful and can use that to inform how you redesign the next dataset and improve your antibody every time in our case.</p><p><strong>Andrew Radin: </strong>Yeah, it's interesting to hear the different stories. You know, I think all of us are kind of taking the approach that, you know, what data sources and what artificial intelligence allows you to do is to take real world data and then make some prediction under uncertainty. You know, with the expectation that prediction is potentially better than what you could, what you could do with other methods.</p><p>And so, you know, kind of tying this back to when I was student and thinking about where are the places I can make a big impact, it was very interesting to me that with very complex diseases there was really no single biomedical measurement that would help kind of unravel the mystery of the biology behind that disease. And therefore could, you know, explain something about pathogenesis that would lead to a new discovery or a new medication as a result. And, you know, part of that coursework in 2.17 was this concept of integrative genomics. This idea of using, you know, different data sources that are all keyed to the same thing, maybe a, a gene or a gene product, and kind of looking for that overlapping evidence.</p><p>And there were some great papers that were shown. There was one, I think, by, by Eric Lander in particular, where he was using, GWAS and proteomics and maybe some gene expression microarray data, each of which would give you, you know, like hundreds of quote-unquote “answers” and the real answers in there buried with a bunch of false positives. But ultimately what would happen in this paper is he showed that there was one overlapping gene in all three of these datasets and he ran some assays and determined, indeed that was the key to unlock this mystery. </p><p>And that certainly worked well if all of your data sets are sort of keyed to the same thing, but that's not the reality of biomedical data sets. There’s genomics measures, there's chemistry measures, there's phenotypical measures, there's different patient measures. And unless you're conveniently measuring them all from the same patient population over time, which is very expensive and very, very time consuming to do, there's really no easy way to sort of key all these things together. </p><p>And my thought was like, “Hmm, maybe, maybe there, there is a way.” And so the technology that I created and ultimately has been expanded upon is taking this concept, the concept that the answer to a very complex disease doesn't necessarily live in any one measurement or anyone biomedical data set. And if you have the ability to ultimately pull in lots of very diverse—and by diverse I mean statistically independent—data sets across a wide range of biomedical measures and integrate them as a single processing unit, you can ultimately uncover things that other people essentially haven't noticed before. And then use that, in our case, you know, to do lots of things, but in our case specifically to develop new therapeutics. </p><p>So in all of our disease areas, ultimately what this means is we are working on new mechanisms of action. These are, these are new, if you will, new concepts or new understanding of biology in these disease areas and therefore what it means or what the impact is—to your earlier statement—is, we're going after biology that potentially has a disease modifying effect that others have not approached before. And therefore the promise of the opportunity is to make a significant dent in these very complex diseases. </p><p>And so that's a kind of a high level view of what we do, but ultimately it's all about, you know, integration of these very different datasets. And then using that to ultimately come up with new experimental medicine that we would explore and experiment with and see what it can mean for patient impact.</p><p><strong>Harry Glorikian: </strong>Yeah. I think that's one of the most exciting parts of when I talk to everybody. Assuming the system is designed well, and the data going in is actually good, it's like, “Wow, I didn't notice. I didn't know that that happened. I didn't know that pathway was involved or this little tweak could make this difference.” And so that's what I see when I talk to different people that are working in this area. “I just didn't know,” or “None of the papers talked about this,” or “That's not what I learned in school.” And so that's the most fascinating part of these systems where you can identify things faster, hopefully and more accurately, hopefully than you might normally do with a human being. No knock to human beings, all of them are valuable, but it seems the systems move at a different pace and can handle a much broader level of data being input into them. </p><p>And so that brings me to the question that Andrew, you and I have talked about. If you had to put a timeframe around it or something is, is this shortening the time to discovery? And I think you and I, the last time we talked, you said to about three years where I can shave off on the front. And then at some point when I have to get to a mouse, I have to follow the normal trajectory of that mouse. But if that's changed and you you've, you're finding other areas, I'd love to hear it. But Peyton and Tim, where do you see the aha the speed or the financial impact of what you're doing? You're doing it because it's moving at faster or you're able to identify something that you haven't, but it's better than X or Y that's already being done in the marketplace.</p><p><strong>Peyton Greenside: </strong>For us actually, this is, I mean, we do do things faster. We do improve on a lot of metrics. But it's actually, at least for my company about designing antibodies that couldn't otherwise exist. So for example, the standard monoclonal IgG, there are many tools out there to sort of discover initial molecules and optimize them, but you start getting into these kinds of next-generation or kind of Frankenstein antibodies, antibodies that are a tenth of the size, or SCRBs which are these fragments that are part of car T therapies or other formats.</p><p>They become more complex and people have trouble engineering them, and you can kind of run your imagination and say, well, if I had the ability to engineer things, what other formats would I conceive? Would I consider, tiny antibodies like cell-penetrating peptides that can get into cells and sort of have all sorts of characteristics? But they're difficult to engineer.</p><p>And so we actually, instead of sort of doing the same thing faster we actually think more about how can we expand the universe of what could be a potential therapeutic protein and how would that solve current patient needs in ways that existing therapeutics do not. And we do that by doing things faster, sort of, and cheaper and, sort of. More smartly. But hopefully that's what we really care about. </p><p><strong>Tim Sweeney: </strong>I'd answer probably somewhat like Peyton's. But if you look at a diagnostics and biomarkers in particular, a lot of diagnostics are about, “Hey, you know, we found that if you measure this one protein that's useful for health.” So it's just a very slow process and it's not optimized. You tend to study things that are obvious because they're easy to measure. Or like in our field, there's one protein called procalcitonin that's sort of the current closest biomarker for whether or not somebody has a bacterial infection, but PCT, as procalcitonin is abbreviated, was discovered 30 years ago and it was originally basically by accident that someone even measured it in someone with bacterial infections, and then it worked pretty well. And you know what I mean, it's a sort of based on serendipity and it can't be improved upon it has. However good procalcitonin was yesterday, that's how good it's going to be tomorrow and how it's going to be the day afterwards.</p><p>I think the benefit of data science and in diagnostics was really began with cancer, when you had sort of the wonderfully successful tests like Oncotype showing how you could measure signals across complex diseases by integrating things from multiple biomarkers. And a lot of those were designed and there, again, the problem was that they took a long time to develop. And of course they take a long time to actually run, right? I mean, most of them, if you've ever had one of those tests done, it's like a week to send out, you know, you send some tissue to a company, it gets processed. You get your answer seven days later. So one of the things we're doing differently, one, it has to do with the way that we gather and integrate data sets to empower faster discovery.</p><p>And that’s kind of like Andrew. The other is basically the ability to build new answers that haven't yet existed, sort of more like Peyton. And ultimately the hope is to create a feedback loop where you know, better and better versions of the tests can be slowly released. And so over time, it's not just that you're sort of stuck with, “Hey, you know, procalcitonin is as good as it is [going to get].” It's like, you know, you're on Insept version five in 2030, and it’s now X percent more accurate. And I think that's a real benefit to patients.</p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p><strong>Harry Glorikian: </strong>So you guys have been doing this for a while. Do you see the promise of big data and AI playing out the way that you thought and or is, or is it different than you thought now that now that you like jumped into the pool and you've been swimming in it for a while? Is it fulfilling the dream you had, is it more exciting than you thought?</p><p><strong>Andrew Radin: </strong>It's a funny question. Coming from very different industries, you know, looking at where I was 10 years ago, I think I was very naïve about what it actually takes to bring a drug to market. And I think in the very early days of the company, you know, my prior startups, you know, one of them I was in and out in a year and it exited. And there's no such thing in this industry, to do anything like that. And so, you know, part of it was biased by my prior experience, but I think part of it as well is, sometimes I think it’s also hard to see how far things have moved along. And I think even in Tim's description is he was sort of talking about, well, you know, this, this was state-of-the-art science, you know, in decades past you know, the work he's doing today was impossible back then. So, you know, there's sort of these steady, incremental improvements.</p><p>And I, and I think part of what really is happening in the industry is that the things to solve essentially are becoming exponentially harder. For example, for high throughput screening, which is maybe the old way of doing things, to find a hit is exponentially harder. For diagnostic tests or blood tests to sort of detect these nuances, you sort of have to bring in these technologies and these capabilities that are exponentially better at solving those things.</p><p>And so I think what happens is, you can therefore characterize it in a different way, you know, is the time faster compared to the old way? Well, of course, because those old ways just don't have a chance of being able to do these things. Like, is it cheaper? Well, yeah, because those old ways, again, just don't have a chance. But I think part of it is what is the pace of innovation? And that's, I think kind of where the rubber meets the road and what is actually possible and what it’s capable of. </p><p>And so today, you know, we're, we talk about having, you know, 18 concurrent disease programs and we've got a very small team and we haven't raised very much money. You know, that would just be flat out impossible 10 years ago. And we still like raise some eyebrows around that, but now, it’s okay. We recognize software is doing a lot of what used to happen in the wet labs. So this, you know, sort of fits within the expectation of what a modern technology company would do in this space.</p><p>So I think there's that other angle of where expectations are kind of catching up with what's actually been produced. And therefore, you know, at, at some point we become the old technology. Thirty years from now, some next generation we'll be talking about, oh, those, those slow, painful people that, you know, tried this in the past kind of stuff. And so it's, you know, each, I think each iteration of innovation has its moment in the sun, if you will. And this is definitely the time for the work that we're collectively doing.</p><p><strong>Peyton Greenside: </strong>I think the promise is ahead of us. We're in an amazing time where I think things are starting to gain traction. We're starting to get tools and infrastructure, but if I were to say my conception of what machine learning and data science and generally computational power is going to do in biology and medicine, I think it's just starting.</p><p>So I'm excited to see things like AlphaFold. I'm excited to see a lot of these kind of tools and capabilities to be unlocked. But I think, you're solving a complex problem, right? That protein that you're affecting is in a cell, it's part of the tissue, and it's part of a human, and there's so many more layers, I think, to consider.</p><p>Yeah, we're making great progress. And I still certainly believe in the potential. That's why I'm here. But I do like to say, I think we're at the very, very early days. And as Andrew said, I think it's going to be fun to see what happens in 30 years. So I'm still very excited, but I wouldn't say we're at the accomplishments that I would consider as sort of really demonstrating the cornerstones of machine learning in, in biology and medicine.</p><p><strong>Tim Sweeney: </strong>I have to agree with Peyton, I think the best is ahead of us. So one of the courses we had to take at Stanford BMI, and I don't know if you two remember this, was Marc Musen taught this course on ontologies, but part of it had to do with sort of like the history of applications of sort of clinical data systems. And the oldest one, I forget the details, but it was in like, the '70s. And it was around sort of you know, clinical decision support for therapeutic prescribing. Obviously that system isn't around today and failed for its own reasons and he sort of walked through all of the failures of systems since then.</p><p>And maybe one of the most remarkable things is how, how little AI and machine learning is actually employed in most clinical practice. You know, for all the buzz around computer vision, the AI that radiologists use most is probably their dictation. I mean, it isn't yet commonplace to have machine assisted radiography reads. And so will that be coming? Absolutely. But the interesting challenges in each successive generation of like, oh, you know, we got pretty close, but it turned out that X wasn't good enough, or it wasn't built in the right way to be integrated with workflow or is coming soon, but still needs some regulatory work or whatever else. There's plenty left to do. </p><p><strong>Peyton Greenside: </strong>I, I think that's probably one thing we all experience actually transitioning from academia to industry is, what's exciting in academia is not necessarily what's going to be reliable when you really want to make a good drug. So what you might think about it, you’d be like, “Oh man, that's a really cool model. I'd love to try that, you know, that's great.” And you kind of go right into industry and you're like, okay, well this is going to matter. This is, this is going to go to patients. It has to work multiple times. I think it is a very different standard. Right. And so I actually think it's the right thing. Just because you find something to be very, very cool and kind of, you know, I would say cutting edge, you really want it to work and want it to work over and over again. I think there's an unappreciated gap between when something is first proposed or conceived of or demonstrated and when you can really make it work at scale, over and over again in areas that matter.</p><p>So I think we're basically in that transition, for, I would say, a lot of these techniques in biology and medicine. Now let's get to work and practice. Let's get to work and practice reliably. And now we can start sort of really seeing where we're going with the needle on really impactful problems. But it's funny, because I do think that's an important divide between sort of where we all started together.</p><p><strong>Andrew Radin: </strong>Yeah, no, I would, I would agree with that. I mean, look, most of our focus, these days is not on discovery. It is actually in the development of the therapeutics. It is about, you know, preparing for IND filings. It's all the regulatory work we need to do there. It's medicinal chemistry. It's a whole bunch of things that are outside of the discovery process. And as we proceed to the clinic, more and more of our overall effort as an organization has less to do about the core innovation that created all of these assets and more about the heavy lifting you have to do to ultimately get that product to market.</p><p>And I think, to kind of tie it back to my previous comments, I think there's been a new generation of capabilities that has been created. To what these guys just said, it's gonna be a while until we actually see those things in the clinic. And to Tim's point about, you know, computer vision and radiology, like there's, there's a lot of good science that's already there and has been shown, experimentally to do a better job than obviously the, the human looking at those images. But yeah, it it's gonna take awhile until that becomes the standard. I am, you know, my daughter was born almost five years ago now, but I was shocked to observe, even back then, which is only five years ago, that medical records were being passed from clinic to clinic with a fax machine. It just blew my mind. Like you gotta be kidding me, a fax machine? I don't think I've seen a fax machine in all these years. </p><p>And so, yeah, I think part of it is, if you want to take the place where innovation moves the slowest it's certainly got to be, you know, government, healthcare, or education. I'm not sure which of those might be the slowest, but there is a time for these new technologies to permeate the industry. And that is going to take time. And I think that's when, ultimately, patients and the people that are on the receiving end of all this innovation, like that's, when they're going to see that difference. And it is going to take many years for this stuff to kind of make its way through the process and ultimately into the hands of providers and ultimately to patients. And that big benefit is going to come in the years to come. It’s obviously not in front of patients in many cases.</p><p><strong>Harry Glorikian: </strong>Yeah, well, maybe my brain is wired towards risk or innovation because I'm like, “well, if you're, if you wait till it's done to get involved, you're way too late,” right. You're going to be a dinosaur or you're going to be obsolete. And we've seen that in a lot of areas of tech compared to, you know, old standard industry.</p><p>There was a great piece the other day about this engineer at Ford who had been working on the gas engine for 40 years and then wakes up one morning and he’s like, I need to take early retirement because software and electric EV is the way it's going to go. And now I'm just in this sort of maintenance mode of what I'm doing.</p><p>And I think about healthcare and I'm like any institution that isn't at least dabbling in using image analytics. for radiology or something and starting to  get used to this, I think they're way behind where they may want to be in the next five years, because technology doesn't follow just a slow curve on the way up. It has a way to go straight up at one point it before moving into an exponential curve. And I think the same for you guys. I mean, those companies that are not involved are partnering, investing in entities like you guys is, if you wait till it's finished, you're, it's already too late. Because Andrew, your system will keep kicking out new molecules and Peyton, you'll be making new antibodies and it'll be a little too late to catch up. I mean, that's, that's the way I think about it. </p><p><strong>Andrew Radin: </strong>I would temper that a little bit and the reason I would say that is because the companies that have been successful in the past in creating diagnostics and therapeutics…Products are on patent. They have long life cycles and they generate lots and lots of cash. And so, you know, big pharma, big diagnostics companies, they can kind of wait around and sort of see how things shake out with different younger companies and simply, buy or acquire, assuming that the companies are willing to be acquired. And so I think, large firms have been very successful in becoming, you know, acquisition and essentially manufacturing and marketing machines. </p><p>So I don't necessarily think that some of these larger and established players that they're necessarily, their livelihoods are threatened. I think they will continue to acquire the best of the best with their, with their large cash reserves. I think some companies in this space will gather the momentum and break out. And I think in time we might see some changes over time as to what the big, you know, sort of players are in this space. But it’s unlike other industries. Certainly software. It's like MySpace disappears and Facebook reappears the next day. And that’s because you can deploy new technology and move users over in the course of an afternoon. And from a therapeutic perspective or a diagnostics perspective, that's just not that the pace at which those things move.</p><p>So there's, there's lots of room for that. You know, and maybe similar in the automotive industry, you kind of have to build a factory and build some cars. It takes some times, right? So, so maybe there's some parallels there, I think in some cases, but. I don't see like a wholesale change happening overnight. At least from where I stand. </p><p><strong>Harry Glorikian: </strong>Not overnight, but we definitely have to have dinner and like have a discussion around this topic. Because I would love to bring some examples to the table about how I see things. Once you digitize something, the model itself doesn't have to stay the same way as it used to be. It is up for change. So I think those are the shifts that may change the dynamics of the market.</p><p>But I'd love to have that discussion with a wonderful glass of wine. After having come from Napa this week, I can show up with a few nice bottles. Thank you so much for taking the time. Andrew, thank you for bringing this group together. Peyton, Tim, it was wonderful to meet both of you. I hope that we stay in touch and I'll keep watching the companies as they, progress. And I wish you guys incredible success. </p><p><strong>Peyton Greenside: </strong>Thanks so much. </p><p><strong>Tim Sweeney: </strong>Thank you Harry. </p><p><strong>Andrew Radin: </strong>It was our pleasure.</p><p><strong>Tim Sweeney: </strong>Andrew, Peyton, good to see you as always.</p><p><strong>Andrew Radin: </strong>Absolutely. </p><p><strong>Peyton Greenside: </strong>You too.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Tue, 17 Aug 2021 11:54:44 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Peyton Greenside, Andrew Radin, Tim Sweeey)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry traveled to the San Francisco Bay Area this summer, and while there he interviewed the co-founders of three local data-driven diagnostics and drug discovery startups, all of whom participated in the same graduate program: the Biomedical Informatics Program at Stanford's School of Medicine.  Joining Harry were Aria Pharmaceuticals co-founder and CEO Andrew Radin, BigHat Biosciences co-founder and chief scientific officer Peyton Greenside, and Inflammatix co-founder and CEO Tim Sweeney. The conversation covered how each company's work to advance healthcare and therapeutics rests on data and  computation, and how the ideas, skills, connections each entrepreneur picked up at Stanford have played into their startups and their careers.</p><p>Radin's company, formerly known as twoXar, models pathogenesis computationally to identify potential drug molecules, shaving years off the drug development process. Radin developed Aria’s core technology, a collection of proprietary algorithms for discovering novel small molecule therapies. The algorithms incorporate system biology data, disease-specific data, chemistry libraries, and more than 60 separate AI methods to sift through molecules with known chemistry to find those with novel mechanisms of action and favorable safety profiles absorption properties. Whereas traditional drug discovery methods have a 1-2% success rate after 4 years, Aria claims its approach has a 30% success rate after just 6 months. It has a pipeline of at 18 drug candidates in areas including kidney, lung, and liver diseases, lupus, cancers of the liver and lung, glioblastoma, and glaucoma. Radin holds MS and BS degrees in computer science from Rochester Institute of Technology, studied computational biology and medicine through the Stanford Center for Professional Development, and was formerly an advisor to several venture capital firms and startup accelerators. </p><p>Greenside started BigHat to combine wet-lab science and machine learning with the goal of speeding up the design of antibody therapies. BigHat’s lab consists of numerous “workcells,” each of which cycles through multiple tests of a given set of antibodies synthesized from <i>in silico</i> designs. Assays characterize each antibody variant for traits such as yield, stability, solubility, specificity, affinity, and function. Machine learning algorithms determine how mutations affected each of these properties and feed this learning back into a new set of designs for the next round. The company says this approach allows it to identify therapeutic-grade antibodies faster than traditional bulk screening techniques (in days rather than weeks or months). Greenside is a computational biologist with a PhD from Stanford, an MPhil from Cambridge University, and a BA from Harvard. Silicon Valley Business Journal named her to its 2021 list of “Women of Influence in Silicon Valley.”</p><p>Sweeney co-founded Inflammatix to develop a new class of diagnostic tests that—rather than searching for a specific bug—“read” the host response of a patient’s immune system for clues about the cause and severity of an infection. The problem, as Sweeney originally saw it, is that traditional tests can only detect infections once a pathogen has spread to the bloodstream, meaning that doctors often guess incorrectly about whether a patient needs an antibiotic, or which one they need. Inflammatix is built around the idea that the human immune system has evolved targeted responses to different kinds of infections and other diseases. These responses are complex and vary according to age and setting, but by analyzing mRNA samples from multiple, diverse cohorts, the company believes it can identify a “reproducible signal in the ‘noise’ of multiple datasets.” Inflammatix is developing a cartridge-based system called Myrna for use in emergency rooms, urgent care clinics, and outpatient clinics that can screen for acute bacterial infections, viral infections, and sepsis in 30 minutes. Sweeney is a physician and data scientist who earned an MD/PhD from Duke and then trained as a general surgery resident at Stanford.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian: </strong>Home base for MoneyBall Medicine is the Boston area. It’s one of the world capitals for biomedical innovation and the digital revolution in healthcare. So I don’t have to venture far to find great guests.</p><p>But obviously Boston isn’t the <i>only</i> capital for biosciences innovation. This summer, during the brief break between surges in the coronavirus pandemic, I escaped to the San Francisco Bay area. And while I was there, I got a lesson about the considerable impact created by one particular Bay Area institution. Namely, the Stanford School of Medicine’s Biomedical Informatics program, or BMI for short.</p><p>BMI trains students how to use and adapt computational methods like machine learning to solve hard problems in biology and medicine. And a remarkable number of BMI alumni have fanned out into the world of life science startups. On today’s show you’ll hear from three of them. We’ll talk about the work their companies are doing now and how the skills and connections they picked up at Stanford have played into their careers.</p><p>The first guest, and the person who helped to organize the group interview, has actually been on the show twice before. His name is Andrew Radin, and he joined me in November of 2018 and again in August of 2020 to talk about his Palo Alto-based company Aria Pharmaceuticals, formerly known as twoXar. </p><p>Aria uses a collection of proprietary AI algorithms to discover new small-molecule drugs for a range of diseases. In traditional drug discovery, years can go by between the identification of a new drug candidate and testing the drug in animals. Radin says Aria’s AI can reduce that time to just weeks.</p><p>Andrew kindly recruited two of his fellow Stanford BMI alumni for our conversation. One is Peyton Greenside, the co-founder and chief scientific officer at BigHat Biosciences in San Carlos, California. The company combines wet-lab science and machine learning to make it easier and faster to design new antibody therapies. And again, the leap forward is that BigHat’s rapid cycle of antibody design, synthesis, and characterization vastly speed things up, reducing the time required to identify new therapeutic antibodies from months to just days.</p><p>And our final guest is Tim Sweeney. He trained as a surgery resident at Stanford and then founded a company to tackle one of the biggest problems in acute care, namely how to diagnose infections faster and more accurately. The company is called Inflammatix, and it’s building a device that emergency departments and outpatient clinics can use to rapidly analyze messenger RNA in patients’ blood to screen for sepsis and other kinds of infections.</p><p>All three of these companies are benefiting in different ways from the computational methods their founders studied at Stanford. And they’ve got some great stories to share about how their time at BMI convinced them that future progress in medicine and drug discovery would depend on data above all else.</p><p>We originally planned to meet up in person for this interview. But we switched to Zoom at the last minute out of concerns over the Delta variant. So without further ado, here’s my talk with Andrew Radin, Peyton Greenside, and Tim Sweeney.</p><p><strong>Harry Glorikian: </strong>Well, hello everybody. And welcome to today's show. </p><p><strong>Tim Sweeney: </strong>Thank you. </p><p><strong>Peyton Greenside: </strong>It's great to be here. </p><p><strong>Harry Glorikian: </strong>Yeah, it's, it's great to have all of you here. For everybody listening and watching, we were actually supposed to do this in person, but unfortunately the Delta variant sort of threw a monkey wrench in that whole process. So I reserve the right that we can do this in the future and actually get together when this whole thing is over, like normal human beings. </p><p>Each of you are working on super exciting things. Different companies, focusing in different areas. And I know you all know each other, so I'm going to step back one second and say, if you had to give a brief description of your company or pretend you don't know each other, where we're at a cocktail party and you're going to give me two or three sentences about what you're doing and why it's interesting, how would you sort of do that? And Andrew, since you're the ringleader that sort of helped bring this group together, I'll throw it out to you first to sort of get going.</p><p><strong>Andrew Radin: </strong>Well, that's a lot of pressure, but certainly like, our description I think is pretty simple. We are a preclinical stage pharmaceutical company. And we happen to have a proprietary artificial intelligence platform that's discovered all the assets that we have under development. And these days we have 18 programs, 18 different disease areas where we've got new experimental medications and we are working on progressing those new inventions to the clinic and ultimately to FDA approval.</p><p><strong>Harry Glorikian: </strong>Peyton?</p><p><strong>Peyton Greenside: </strong>Hi everyone. I'm Peyton and one of the co-founders of Big Hat Biosciences, and our mission is to improve human health by making it easier to design advanced antibody therapeutics. So we actually do that through a combination of a high-speed wet lab and machine learning techniques in order to very iteratively design and improve antibodies until they meet unmet patient need. And it's been a lot of fun. Then we've been founded since 2019.</p><p><strong>Harry Glorikian: </strong>And finally, Tim. </p><p><strong>Tim Sweeney: </strong>Thanks for the opportunity, Harry. Inflammatix was founded about five years ago, spun out of Stanford along with, of course, Aria and Big Hat. We are designing novel diagnostics focused on acute care and critical illness needs. So we basically have a data analytics platform that allows us to decode certain signals of gene expression within the immune system. And then for those of you watching, I'll show you, we have a cartridge that allows us to sort of implement that in a 30 minute point of care diagnostic setting.</p><p>So our particular focus is basically bringing precision medicine into acute care settings, the hospital, the clinic, the ICU, where sort of historically there hasn't been a lot of diagnostic innovation. </p><p><strong>Harry Glorikian: </strong>Interesting. That's funny because I actually, I wrote a a textbook on how to commercialize novel diagnostics a few years ago. Because you know, unless you've been through the ringer, you may not know all the different pieces.</p><p>But you guys now all know each other right? Now, that may not surprising because we're in Silicon Valley, and I'm actually in Berkeley right now, but that's close enough. And drug discovery companies and tech companies are all swimming around each other. But your connection is a little bit deeper. I mean, you guys all went to Stanford together. So this is not necessarily a commercial for Stanford, but it's, that's pretty interesting that three CEOs of data-driven, you know, healthcare companies out of the same class, whoosh, come out of Stanford. So how did you, how did you guys meet at first?</p><p><strong>Andrew Radin: </strong>Well, and I would say we're not the only ones to—it's just, you know, the people that happen to be in front of you today. It was funny. So, right before this, I sent a panicked email, because I didn't want to say something that wasn't true. I was like, Peyton, you were in this class, weren't you? </p><p><strong>Peyton Greenside: </strong>Yeah. I don’t know if I was Andrew's TA or if we'd all actually been in the same class. But I think our Stanford journeys all started, it sounds like, the same year. Same time. And we all were taking translational bioinformatics, which was a course taught by, I believe, Atul Butte who I think, you know, really brought to fame the idea of big data for biology, what you can draw out a very large data sets and drawing insights. So we were all in the same class and with many other people, as Andrew said, and it was a lot of fun. And I think it was the start of long journeys for all of us than in a similar vein. </p><p><strong>Andrew Radin: </strong>And it was a place for…I think what was awesome about that class, again, not to be an advertisement for the coursework, but it was kind of my characterization of the class was, you basically learned how other people use data science to solve some medical mystery, like across the spectrum. And so the, the purpose of learning all that was to just kind of fill you full of ideas of things that you could do. And then the kind of the capstone of the class was a final project where you basically had to come up with something, right? And so you were just sort of primed with all this like super interesting sort of research on how other people had approached very different problems in the space. And for me, it was just the source of lots of interesting ideas that then, you know, helped me ultimately create what's the technology behind our company today. </p><p><strong>Tim Sweeney: </strong>It is remarkable how much came out of Stanford biomedical informatics. Though, I mean, to Andrew's point, there are, there are a number of other CEOs that came through in that sort of in maybe a five or seven year stretch, all out of the same program. And I think a lot of it had to do with that, yes, this one particular class had all the different applications of data science sort of across the spectrum of life sciences, but they also attracted people like that. Right? I mean, everyone on this call has a very different background before Stanford BMI. And I think that was part of what made that culture so special is that it ended up being a real team sport, whether your background was medicine or business or math or computer science or bio-engineering or anything else, learning a technique from A, and applying it into area B, I think, was a pretty successful way to grow innovation. </p><p><strong>Harry Glorikian: </strong>I feel like as a venture guy, I should be standing at the exit door and just sort of saying, you know, “What's your idea, what's your idea,” screening as they're coming out the door.</p><p><strong>Peyton Greenside: </strong>Well, you know, some folks have also become venture capitalists. </p><p><strong>Harry Glorikian: </strong>That's true. </p><p><strong>Peyton Greenside: </strong>Yep.</p><p><strong>Harry Glorikian: </strong>So was there anything in particular that you guys, interests or questions or discussions that you sort of bonded over that sort of brought you together? I mean, even, even as just friends that decided to keep in touch? </p><p><strong>Andrew Radin: </strong>Well, I think it's probably different for different people. I think the first real interaction I had with Tim, you know,the details escape me, because this is almost 10 years ago now, but I remember, he's a medical doctor, right? He's got a MD and a PhD if I'm, if I'm not mistaken. And so my, you know, I'm a hardcore computer scientist. That's my background. And so back in those days, I was rapidly learning all I could about medicine and biology. And I don’t remember the topic, but I do recall him helping me after class was something that wasn't just quite, you know, sitting in my head correctly. And I remember thinking like, what a nice dude, to, like, you know, kind of take some time and give me like, you know, a little private tutoring. </p><p>And then and then if I recall afterwards, you said, yeah, so I'm trying to do this stuff with some clinical data. Can you help me with this sort of stuff? Which if I remember correctly, I never actually helped you. I was talking about, oh, I might be able to help you. And then eventually you said, “I figured it out. I don't need you”</p><p><strong>Tim Sweeney: </strong>I said I needed to build a web scraper. And I said, I have no idea how to.</p><p><strong>Andrew Radin: </strong>Oh yeah, I have totally done that. Lots of times. So yeah, something like that. That's how the conversation started with Tim, which was sort of to the point about having very different backgrounds, You know, with Peyton, I don't really recall the first interaction. I remember we were in a journal club, maybe with Russ and you were talking about some stuff, but I think the more I got connected to her was around the time she was working on her defense and I actually went to her PhD defense. And I have this BS detector that sometimes go off a little early, right? When people make a statement, I'm like, “I don't know about that.” We're sitting in her defense and every time she said something that made me, do one of these, like, “Wait a minute,” she instantly resolved that in the next sentence. I was like, “Okay. All right. That's cool.”</p><p><strong>Peyton Greenside: </strong>Okay, that feels good. Fortunately, fortunately. </p><p><strong>Andrew Radin: </strong>You don't have to pass my scrutiny obviously, but yeah, I think that led to a number of kind of interesting conversations as she was contemplating, you know, what to do next. She was moving through her career, but yeah, I think that the interactions are very, very different for each person. At least that's my view, but I don't know if you guys have different memories. </p><p><strong>Peyton Greenside: </strong>Yeah, I think what's, what's interesting, I mean, just generally I agree with that. And I think one of the most interesting parts of BMI, as Tim said, is just the backgrounds that everyone has. And I also come from the kind of applied math, computer science background, and there's this kind of fascination of what you can do with computational skills in biology. I think to me, a lot of the conversations were around where do I even apply this to? I think people sort of think of computational biology as a, maybe sort of a niche, small field at the intersection of maybe somewhere where biology meets, I guess, you know, statistics, computer science and math. But it's so broad and it's so vast. And I think most of the, I say the most exciting conversations I've had are, you know, we work in immunology, you know, you're a clinician, you work with clinical data. How do you apply these tools? The most daunting but fun task upon showing up at Stanford with such an incredible ecosystem here is, where do you even focus your attention? Where should you work? There's too many exciting opportunities to pick. And I think some of the fun conversations I remember also having a Tim, with a more clinical background, is what's actually useful? You know, I want, I want to do something useful and sort of try to figure out, you know, where this, you know, where are you can actually kind of apply your time to the most impactful problem. It was a lot of fun. </p><p><strong>Andrew Radin: </strong>And I think, Tim, it'd be great for you to share. I mean, when we first met, I'd asked you kind of like, what were you doing there? What your story was? I can't remember the words back then. But you basically said like, “Look, I'm a surgeon,” if I recall, “I'm trying to save people's lives and I'm just thinking like, is there a better way? Can I like just, you know, do something that's going to have a much larger impact? And I don't know what that is yet.” I know I’m wildly paraphrasing what you said, right. But I'm thinking about like what that could be. And I think. You know, when I met you, you were sort of on the hunt for figuring out where to apply, you know, kind of the, the skill set.</p><p><strong>Tim Sweeney: </strong>I think that the everyone shows up with their strengths and weaknesses. Mine certainly was the summer before the program actually started, I had to take, you know, basic courses in computer science and linear algebra. And I remember, I mean, I literally went from my last overnight call at Santa Clara Valley Medical Center, running two ICUs, to the next morning CS 106x. Which, because it was the summer, was filled with all the high school students that are just total whiz kids, like 16 year olds, and they're like, you know, we're learning like order of operations or something and they're raising their hands and I'm like desperately trying to write down like, oh, if n means....</p><p>You know, and obviously Andrew and Peyton were among the folks that sort of helped me on the basic science side of things. But I think that the story about sort of getting the question right is absolutely correct. And I remember actually the time that I knew I was in the right program was maybe two or three months in to training. They used to have these like sort of work in progress talks, and it was like, you know, Wednesday or Thursday or something, you bring a lunch. And somebody was talking about this thing that sounded very, very cool to me. It was all about how you could, you could program a system to learn new knowledge on its own. And it was like, you know, generalized AI for health data. And I was incredibly impressed. And, and the first example that was given was like, you know, so we've sifted through all of the billions of data points. And I have discovered—he stumbles over the drug name—I've discovered that plopacapagril, by which he meant clopidogrel, is associated with bleeding events. And everyone goes, “oh.” And I put my hand up, like, “That's an anti-platelet medication.” And he looks at me and I'm like, “the point of that is that it thins the blood.” He looked at me and was like, “So bleeding is a known side effect?” Totally crestfallen that people knew this already. Like, he had no idea. I was like, I do have something to contribute, so it's good. It's a good merge.</p><p><strong>Harry Glorikian: </strong>Yeah. So, you know, Tim, you're running a diagnostics company you know, Peyton and Andrew you're running what I'll lump together as drug discovery companies in different markets, different regulatory processes. You know, I'm sure there are common challenges to life science startups in the valley. What are some of the biggest challenges that you guys see? Is it scalability? Is it finding the right people? Is it finding the right investors? Where do you guys see your challenges?</p><p><strong>Andrew Radin: </strong>And I would just say for a little clarification to Peyton's point about there's so many different problems. Even though Peyton and I are both in the business of creating new medicines, we couldn't be any more different. We're a small molecule company. She's a large molecule company. If you know what that means. You know, I'm making motorcycles, she's making trucks. Like, we're just, we're just, we're just doing completely different things. To your question about like, kind of what are the very similar things, we're not really even competing with one another from that perspective.</p><p>But I think, to answer your question, at least from my viewpoint, you kind of have to do all those things. I think, you know, in startups, everything has to work. You can't sort of have any one thing that doesn't function and whether that's the science or the fundraising or the team or all of those things, if you've got a problem in any one of those areas, it can be life-threatening to the company.</p><p>And so I think part of the experience for the entrepreneur is sort of, you know, because your time is limited and your resources are limited is sort of finding a best fit to try to solve, you know, or, or to maximize all of those problems simultaneously. And I would say all the things that you've listed, they all at various points in the company, they’ve been critical and it's more of a juggling act rather than “Geez, all you need to do is just knock it out of the park, on, you know, financing and who cares about anything else?” We know lots of stories where that hasn't gone well. Or you knock it on the park on an exceptional team, and the other things don't come together. So, you know, from my standpoint, all of that stuff has to work. </p><p><strong>Peyton Greenside: </strong>I think my answer continues. I think one of the things I, and what many people who just find, I would say many scientific, inquiries fascinating, is just what to work on that. And I have the same problem now, you know, I think it happened when I went to Stanford and happened you know, postdoc and have it happened now.</p><p>And, in the context of my company, wo we basically have a platform that can work on engineering any protein. We work on antibodies, but really can be anything. So, you know, we have this landscape. There are tons of diseases with unmet need. There's sort of tons of opportunities for the type of therapeutic protein you would use, whether that's a standard antibody, monoclonal IgG, sort of a next generation antibody. And so we always have to decide, you know, what, what are the programs gonna be? What are you going to go after? What's the modality? And I think at the crux of it, like you know, for a drug discovery company, is what is the shape of your company. But our platform is so broad that basically we can work on so many things. And I, once again, by myself faced the same problem, which is okay, like, you know, where should we focus our attention? And that's been really fun. This is getting maybe more of Tim's background, but so we're learning more about the clinical side of things and where that need is and where that pairs with our technology. But I agree with what Andrew said, nothing really can go shortchanged, but that's been the same theme, I would say just now in a different vein. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, I think about this as a balance of dynamics where you're at different stages at different points, depending on where you are in the development cycle. And you need different people and different issues become a problem at different points or maybe become more acute at different points. But you know, all of you guys have one theme in common, which is why we're on the show together. It’s data and some form of machine learning or other, you know, part of artificial intelligence that's being applied to find something valuable or identify some valuable piece of information that can make something actionable. It's sort of a big question, but how do you employ machine learning and AI in what you're doing in each of your businesses? Because I think of these things as like I have a toolbox and then I have to apply that tool in a very specific way with a specific set of knowledge that can feed it, where I can get an output that I'm looking for. And so each one of you, like you said, Andrew, you're, you're working on the motorcycle, she's working on the big truck, and he's trying to make sure that everybody gets diagnosed and not, not ends up in worse than they already are. So how are you each of you thinking or approaching this in your own unique way? If you can summarize. Tim, why don't you go first?</p><p><strong>Tim Sweeney: </strong>Our tests work by measuring a discrete number of genes within the body. It's their expression levels. So for instance, for our flagship test inset, we look at 29 different gene expression levels from, from blood. And then of course we have to somehow integrate  29 different levels into actionable information. And so the backend of that is the data science part, the machine learning. So step one is actually choosing what to measure. And then after you've chosen what to measure, then it's training hardened algorithms that turn 29 different things into a score that says, “This person has a bacterial infection.” And then of course doing that repeatably, doing it in a way that is traceable and verifiable. And then all of the post hoc, you know, how is it affected by different demographics? And how has it, in the actual context of care, and of course in the coming years when actually implemented in a health system, how does it impact patients and providers and does it save costs and improve outcomes?</p><p>And maybe just since I didn't get a chance to answer, I think one of the questions about challenges is a lot of times it changes with the application that you're taking further. Right? One of the things that we all have in common, I think is that we're all platform companies. And to, to Peyton's point, like you can apply that data science platform to a lot of different areas, but each one of those areas has to be taken through a very long development process to actually help a person and the challenges totally change along that development life cycle. </p><p><strong>Harry Glorikian: </strong>And just for everybody listening—so you developed this product. What is the, so what, what is the impact? </p><p><strong>Tim Sweeney: </strong>In our case, we decided that we wanted to go after one first indication that would be a big enough hit to make the business matter. We've got lots of things we'd like to do in the long run, but sepsis is an area of outstanding unmet need. And the “so what” is right now, if you go in and you're feeling sick and you see a doctor and you want to know, Hey doc, like, do I need antibiotics? There is literally no test that can answer that question. It's a guess. So it's not to say that antibiotics aren't administered quickly, but as a physician myself, I can tell you that that is it's a guess at first, and then you have to wait for tests to come back and those tests themselves are imperfect. And so something like 40% of antibiotics are probably misprescribed. </p><p>And if you knew in 30 minutes, Hey, this person has a bacterial infection or no, you could greatly simplify care and really improve outcomes. And that's the premise. But the challenge of course is that beyond the data science, there's so much that goes into building the product and proving out the clinical data and get it through FDA and then getting it reimbursed and, and, you know, getting it rolled out more broadly, if you want to get to the point where you've actually helped a number of people and built a solid business. </p><p><strong>Harry Glorikian: </strong>When I, in my last company, before I moved on to venture, I, we had a strategy consulting firm and we did a lot of digging into sepsis. That was a big problem, a nut that people were trying to crack, and, you know, if you could crack it, the opportunity is quite significant.</p><p>So Peyton, Andrew, how do you guys think about it? Because I'm, I'm thinking manipulating an antibody and sort of tweaking little parts of it until you find the exact fit. [It requires] supercomputing or massive computing. </p><p><strong>Peyton Greenside: </strong>It's funny. I actually think that the context in which we all met, which is you know, when I think big data was becoming really popular in medicine is actually a great context, I think, for where Big Hat ended up, and it's funny, because it's going to been kind of a long journey—it always happens when I look back, I'm like, yeah, that makes, that makes sense. Right? Based on where I was. We actually put a lot of our attention into integrating the wet lab with the dry lab. And this is actually, you know, with a goal of making big data into what I might call sort of smart data or agile data, which is that the idea of back in the day when first, I would say you got tons and tons of really large data sets. And you can sort of mine them, or you can look for trends. You can sort of just figure out something, you know, interesting relationship between gene expression and patient outcome. And I kept throughout my career feeling frustrated by being handed the dataset and sort of having to just mine it and not having kind of, you know, ownership of being able to say, “I want to look here, I want more data here.” Right? You're sort of handed a really large data set and you're, a passenger in this dataset that has already been generated. You cannot modify it. That’s kind of the fixed dataset. And, you know, as a computational person, that, that you're often the second person, like a wet lab or experimental lab is making the data, then you kind of get it right. And so, you know, throughout I would say, especially in my time at Stanford this was very much the case, where I was felt kind of trapped in being given a data set that I didn't actually design, but I could sort of mine. </p><p>And so at Big Hat we're basically trying to now put computation in the driver's seat and kind of change that paradigm. We're actually now, instead of just getting one large data set that you design up front, you acknowledge that biology and the science are very iterative, right? As as you said, you sort of start with an antibody sequence, but, you know, would you stop there? If you could just make one tweak, maybe you'd make it, you know, 10x better, 100x better with two. So how do you enable it? How do you want to enable that very rapid cycling? And so we view this as kind of the intersection of how closely can a lab and the computational side interact and how can they inform each other? How can you one learn from the other? And so we actually enabled a computational person to design an antibody on Monday and in a few days you synthesize, purify, characterize the antibody and kind of understand, are you moving in the right direction or are you not? And repeat, and then repeat it and repeat and repeat. So you don't get kind of stuck in the fixed data set again. </p><p>So it's really attractive for a lot of ways, right? There are a lot of reasons you kind of can end up in a really good regime and it's big data or sort of area, but, you know, there's kind of a lot of lost opportunity in terms of being able to kind of be very agile and move toward something that looks promising and then iterate more. And the goal is that that will allow us to enable types of antibodies they don't even exist today because you can't engineer them that easily. You’re kind of are stuck with a fixed format. So that's been really fun. And so we've been spending a lot of time designing the wet lab to kind of support the machine learning side and data science side from the ground up and, and vice versa.</p><p>And so it's a pretty unique sort of set up. And I think I like to think of it as sort of smart data, right? You're thinking really closely about what should I generate that will be helpful and can use that to inform how you redesign the next dataset and improve your antibody every time in our case.</p><p><strong>Andrew Radin: </strong>Yeah, it's interesting to hear the different stories. You know, I think all of us are kind of taking the approach that, you know, what data sources and what artificial intelligence allows you to do is to take real world data and then make some prediction under uncertainty. You know, with the expectation that prediction is potentially better than what you could, what you could do with other methods.</p><p>And so, you know, kind of tying this back to when I was student and thinking about where are the places I can make a big impact, it was very interesting to me that with very complex diseases there was really no single biomedical measurement that would help kind of unravel the mystery of the biology behind that disease. And therefore could, you know, explain something about pathogenesis that would lead to a new discovery or a new medication as a result. And, you know, part of that coursework in 2.17 was this concept of integrative genomics. This idea of using, you know, different data sources that are all keyed to the same thing, maybe a, a gene or a gene product, and kind of looking for that overlapping evidence.</p><p>And there were some great papers that were shown. There was one, I think, by, by Eric Lander in particular, where he was using, GWAS and proteomics and maybe some gene expression microarray data, each of which would give you, you know, like hundreds of quote-unquote “answers” and the real answers in there buried with a bunch of false positives. But ultimately what would happen in this paper is he showed that there was one overlapping gene in all three of these datasets and he ran some assays and determined, indeed that was the key to unlock this mystery. </p><p>And that certainly worked well if all of your data sets are sort of keyed to the same thing, but that's not the reality of biomedical data sets. There’s genomics measures, there's chemistry measures, there's phenotypical measures, there's different patient measures. And unless you're conveniently measuring them all from the same patient population over time, which is very expensive and very, very time consuming to do, there's really no easy way to sort of key all these things together. </p><p>And my thought was like, “Hmm, maybe, maybe there, there is a way.” And so the technology that I created and ultimately has been expanded upon is taking this concept, the concept that the answer to a very complex disease doesn't necessarily live in any one measurement or anyone biomedical data set. And if you have the ability to ultimately pull in lots of very diverse—and by diverse I mean statistically independent—data sets across a wide range of biomedical measures and integrate them as a single processing unit, you can ultimately uncover things that other people essentially haven't noticed before. And then use that, in our case, you know, to do lots of things, but in our case specifically to develop new therapeutics. </p><p>So in all of our disease areas, ultimately what this means is we are working on new mechanisms of action. These are, these are new, if you will, new concepts or new understanding of biology in these disease areas and therefore what it means or what the impact is—to your earlier statement—is, we're going after biology that potentially has a disease modifying effect that others have not approached before. And therefore the promise of the opportunity is to make a significant dent in these very complex diseases. </p><p>And so that's a kind of a high level view of what we do, but ultimately it's all about, you know, integration of these very different datasets. And then using that to ultimately come up with new experimental medicine that we would explore and experiment with and see what it can mean for patient impact.</p><p><strong>Harry Glorikian: </strong>Yeah. I think that's one of the most exciting parts of when I talk to everybody. Assuming the system is designed well, and the data going in is actually good, it's like, “Wow, I didn't notice. I didn't know that that happened. I didn't know that pathway was involved or this little tweak could make this difference.” And so that's what I see when I talk to different people that are working in this area. “I just didn't know,” or “None of the papers talked about this,” or “That's not what I learned in school.” And so that's the most fascinating part of these systems where you can identify things faster, hopefully and more accurately, hopefully than you might normally do with a human being. No knock to human beings, all of them are valuable, but it seems the systems move at a different pace and can handle a much broader level of data being input into them. </p><p>And so that brings me to the question that Andrew, you and I have talked about. If you had to put a timeframe around it or something is, is this shortening the time to discovery? And I think you and I, the last time we talked, you said to about three years where I can shave off on the front. And then at some point when I have to get to a mouse, I have to follow the normal trajectory of that mouse. But if that's changed and you you've, you're finding other areas, I'd love to hear it. But Peyton and Tim, where do you see the aha the speed or the financial impact of what you're doing? You're doing it because it's moving at faster or you're able to identify something that you haven't, but it's better than X or Y that's already being done in the marketplace.</p><p><strong>Peyton Greenside: </strong>For us actually, this is, I mean, we do do things faster. We do improve on a lot of metrics. But it's actually, at least for my company about designing antibodies that couldn't otherwise exist. So for example, the standard monoclonal IgG, there are many tools out there to sort of discover initial molecules and optimize them, but you start getting into these kinds of next-generation or kind of Frankenstein antibodies, antibodies that are a tenth of the size, or SCRBs which are these fragments that are part of car T therapies or other formats.</p><p>They become more complex and people have trouble engineering them, and you can kind of run your imagination and say, well, if I had the ability to engineer things, what other formats would I conceive? Would I consider, tiny antibodies like cell-penetrating peptides that can get into cells and sort of have all sorts of characteristics? But they're difficult to engineer.</p><p>And so we actually, instead of sort of doing the same thing faster we actually think more about how can we expand the universe of what could be a potential therapeutic protein and how would that solve current patient needs in ways that existing therapeutics do not. And we do that by doing things faster, sort of, and cheaper and, sort of. More smartly. But hopefully that's what we really care about. </p><p><strong>Tim Sweeney: </strong>I'd answer probably somewhat like Peyton's. But if you look at a diagnostics and biomarkers in particular, a lot of diagnostics are about, “Hey, you know, we found that if you measure this one protein that's useful for health.” So it's just a very slow process and it's not optimized. You tend to study things that are obvious because they're easy to measure. Or like in our field, there's one protein called procalcitonin that's sort of the current closest biomarker for whether or not somebody has a bacterial infection, but PCT, as procalcitonin is abbreviated, was discovered 30 years ago and it was originally basically by accident that someone even measured it in someone with bacterial infections, and then it worked pretty well. And you know what I mean, it's a sort of based on serendipity and it can't be improved upon it has. However good procalcitonin was yesterday, that's how good it's going to be tomorrow and how it's going to be the day afterwards.</p><p>I think the benefit of data science and in diagnostics was really began with cancer, when you had sort of the wonderfully successful tests like Oncotype showing how you could measure signals across complex diseases by integrating things from multiple biomarkers. And a lot of those were designed and there, again, the problem was that they took a long time to develop. And of course they take a long time to actually run, right? I mean, most of them, if you've ever had one of those tests done, it's like a week to send out, you know, you send some tissue to a company, it gets processed. You get your answer seven days later. So one of the things we're doing differently, one, it has to do with the way that we gather and integrate data sets to empower faster discovery.</p><p>And that’s kind of like Andrew. The other is basically the ability to build new answers that haven't yet existed, sort of more like Peyton. And ultimately the hope is to create a feedback loop where you know, better and better versions of the tests can be slowly released. And so over time, it's not just that you're sort of stuck with, “Hey, you know, procalcitonin is as good as it is [going to get].” It's like, you know, you're on Insept version five in 2030, and it’s now X percent more accurate. And I think that's a real benefit to patients.</p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p><strong>Harry Glorikian: </strong>So you guys have been doing this for a while. Do you see the promise of big data and AI playing out the way that you thought and or is, or is it different than you thought now that now that you like jumped into the pool and you've been swimming in it for a while? Is it fulfilling the dream you had, is it more exciting than you thought?</p><p><strong>Andrew Radin: </strong>It's a funny question. Coming from very different industries, you know, looking at where I was 10 years ago, I think I was very naïve about what it actually takes to bring a drug to market. And I think in the very early days of the company, you know, my prior startups, you know, one of them I was in and out in a year and it exited. And there's no such thing in this industry, to do anything like that. And so, you know, part of it was biased by my prior experience, but I think part of it as well is, sometimes I think it’s also hard to see how far things have moved along. And I think even in Tim's description is he was sort of talking about, well, you know, this, this was state-of-the-art science, you know, in decades past you know, the work he's doing today was impossible back then. So, you know, there's sort of these steady, incremental improvements.</p><p>And I, and I think part of what really is happening in the industry is that the things to solve essentially are becoming exponentially harder. For example, for high throughput screening, which is maybe the old way of doing things, to find a hit is exponentially harder. For diagnostic tests or blood tests to sort of detect these nuances, you sort of have to bring in these technologies and these capabilities that are exponentially better at solving those things.</p><p>And so I think what happens is, you can therefore characterize it in a different way, you know, is the time faster compared to the old way? Well, of course, because those old ways just don't have a chance of being able to do these things. Like, is it cheaper? Well, yeah, because those old ways, again, just don't have a chance. But I think part of it is what is the pace of innovation? And that's, I think kind of where the rubber meets the road and what is actually possible and what it’s capable of. </p><p>And so today, you know, we're, we talk about having, you know, 18 concurrent disease programs and we've got a very small team and we haven't raised very much money. You know, that would just be flat out impossible 10 years ago. And we still like raise some eyebrows around that, but now, it’s okay. We recognize software is doing a lot of what used to happen in the wet labs. So this, you know, sort of fits within the expectation of what a modern technology company would do in this space.</p><p>So I think there's that other angle of where expectations are kind of catching up with what's actually been produced. And therefore, you know, at, at some point we become the old technology. Thirty years from now, some next generation we'll be talking about, oh, those, those slow, painful people that, you know, tried this in the past kind of stuff. And so it's, you know, each, I think each iteration of innovation has its moment in the sun, if you will. And this is definitely the time for the work that we're collectively doing.</p><p><strong>Peyton Greenside: </strong>I think the promise is ahead of us. We're in an amazing time where I think things are starting to gain traction. We're starting to get tools and infrastructure, but if I were to say my conception of what machine learning and data science and generally computational power is going to do in biology and medicine, I think it's just starting.</p><p>So I'm excited to see things like AlphaFold. I'm excited to see a lot of these kind of tools and capabilities to be unlocked. But I think, you're solving a complex problem, right? That protein that you're affecting is in a cell, it's part of the tissue, and it's part of a human, and there's so many more layers, I think, to consider.</p><p>Yeah, we're making great progress. And I still certainly believe in the potential. That's why I'm here. But I do like to say, I think we're at the very, very early days. And as Andrew said, I think it's going to be fun to see what happens in 30 years. So I'm still very excited, but I wouldn't say we're at the accomplishments that I would consider as sort of really demonstrating the cornerstones of machine learning in, in biology and medicine.</p><p><strong>Tim Sweeney: </strong>I have to agree with Peyton, I think the best is ahead of us. So one of the courses we had to take at Stanford BMI, and I don't know if you two remember this, was Marc Musen taught this course on ontologies, but part of it had to do with sort of like the history of applications of sort of clinical data systems. And the oldest one, I forget the details, but it was in like, the '70s. And it was around sort of you know, clinical decision support for therapeutic prescribing. Obviously that system isn't around today and failed for its own reasons and he sort of walked through all of the failures of systems since then.</p><p>And maybe one of the most remarkable things is how, how little AI and machine learning is actually employed in most clinical practice. You know, for all the buzz around computer vision, the AI that radiologists use most is probably their dictation. I mean, it isn't yet commonplace to have machine assisted radiography reads. And so will that be coming? Absolutely. But the interesting challenges in each successive generation of like, oh, you know, we got pretty close, but it turned out that X wasn't good enough, or it wasn't built in the right way to be integrated with workflow or is coming soon, but still needs some regulatory work or whatever else. There's plenty left to do. </p><p><strong>Peyton Greenside: </strong>I, I think that's probably one thing we all experience actually transitioning from academia to industry is, what's exciting in academia is not necessarily what's going to be reliable when you really want to make a good drug. So what you might think about it, you’d be like, “Oh man, that's a really cool model. I'd love to try that, you know, that's great.” And you kind of go right into industry and you're like, okay, well this is going to matter. This is, this is going to go to patients. It has to work multiple times. I think it is a very different standard. Right. And so I actually think it's the right thing. Just because you find something to be very, very cool and kind of, you know, I would say cutting edge, you really want it to work and want it to work over and over again. I think there's an unappreciated gap between when something is first proposed or conceived of or demonstrated and when you can really make it work at scale, over and over again in areas that matter.</p><p>So I think we're basically in that transition, for, I would say, a lot of these techniques in biology and medicine. Now let's get to work and practice. Let's get to work and practice reliably. And now we can start sort of really seeing where we're going with the needle on really impactful problems. But it's funny, because I do think that's an important divide between sort of where we all started together.</p><p><strong>Andrew Radin: </strong>Yeah, no, I would, I would agree with that. I mean, look, most of our focus, these days is not on discovery. It is actually in the development of the therapeutics. It is about, you know, preparing for IND filings. It's all the regulatory work we need to do there. It's medicinal chemistry. It's a whole bunch of things that are outside of the discovery process. And as we proceed to the clinic, more and more of our overall effort as an organization has less to do about the core innovation that created all of these assets and more about the heavy lifting you have to do to ultimately get that product to market.</p><p>And I think, to kind of tie it back to my previous comments, I think there's been a new generation of capabilities that has been created. To what these guys just said, it's gonna be a while until we actually see those things in the clinic. And to Tim's point about, you know, computer vision and radiology, like there's, there's a lot of good science that's already there and has been shown, experimentally to do a better job than obviously the, the human looking at those images. But yeah, it it's gonna take awhile until that becomes the standard. I am, you know, my daughter was born almost five years ago now, but I was shocked to observe, even back then, which is only five years ago, that medical records were being passed from clinic to clinic with a fax machine. It just blew my mind. Like you gotta be kidding me, a fax machine? I don't think I've seen a fax machine in all these years. </p><p>And so, yeah, I think part of it is, if you want to take the place where innovation moves the slowest it's certainly got to be, you know, government, healthcare, or education. I'm not sure which of those might be the slowest, but there is a time for these new technologies to permeate the industry. And that is going to take time. And I think that's when, ultimately, patients and the people that are on the receiving end of all this innovation, like that's, when they're going to see that difference. And it is going to take many years for this stuff to kind of make its way through the process and ultimately into the hands of providers and ultimately to patients. And that big benefit is going to come in the years to come. It’s obviously not in front of patients in many cases.</p><p><strong>Harry Glorikian: </strong>Yeah, well, maybe my brain is wired towards risk or innovation because I'm like, “well, if you're, if you wait till it's done to get involved, you're way too late,” right. You're going to be a dinosaur or you're going to be obsolete. And we've seen that in a lot of areas of tech compared to, you know, old standard industry.</p><p>There was a great piece the other day about this engineer at Ford who had been working on the gas engine for 40 years and then wakes up one morning and he’s like, I need to take early retirement because software and electric EV is the way it's going to go. And now I'm just in this sort of maintenance mode of what I'm doing.</p><p>And I think about healthcare and I'm like any institution that isn't at least dabbling in using image analytics. for radiology or something and starting to  get used to this, I think they're way behind where they may want to be in the next five years, because technology doesn't follow just a slow curve on the way up. It has a way to go straight up at one point it before moving into an exponential curve. And I think the same for you guys. I mean, those companies that are not involved are partnering, investing in entities like you guys is, if you wait till it's finished, you're, it's already too late. Because Andrew, your system will keep kicking out new molecules and Peyton, you'll be making new antibodies and it'll be a little too late to catch up. I mean, that's, that's the way I think about it. </p><p><strong>Andrew Radin: </strong>I would temper that a little bit and the reason I would say that is because the companies that have been successful in the past in creating diagnostics and therapeutics…Products are on patent. They have long life cycles and they generate lots and lots of cash. And so, you know, big pharma, big diagnostics companies, they can kind of wait around and sort of see how things shake out with different younger companies and simply, buy or acquire, assuming that the companies are willing to be acquired. And so I think, large firms have been very successful in becoming, you know, acquisition and essentially manufacturing and marketing machines. </p><p>So I don't necessarily think that some of these larger and established players that they're necessarily, their livelihoods are threatened. I think they will continue to acquire the best of the best with their, with their large cash reserves. I think some companies in this space will gather the momentum and break out. And I think in time we might see some changes over time as to what the big, you know, sort of players are in this space. But it’s unlike other industries. Certainly software. It's like MySpace disappears and Facebook reappears the next day. And that’s because you can deploy new technology and move users over in the course of an afternoon. And from a therapeutic perspective or a diagnostics perspective, that's just not that the pace at which those things move.</p><p>So there's, there's lots of room for that. You know, and maybe similar in the automotive industry, you kind of have to build a factory and build some cars. It takes some times, right? So, so maybe there's some parallels there, I think in some cases, but. I don't see like a wholesale change happening overnight. At least from where I stand. </p><p><strong>Harry Glorikian: </strong>Not overnight, but we definitely have to have dinner and like have a discussion around this topic. Because I would love to bring some examples to the table about how I see things. Once you digitize something, the model itself doesn't have to stay the same way as it used to be. It is up for change. So I think those are the shifts that may change the dynamics of the market.</p><p>But I'd love to have that discussion with a wonderful glass of wine. After having come from Napa this week, I can show up with a few nice bottles. Thank you so much for taking the time. Andrew, thank you for bringing this group together. Peyton, Tim, it was wonderful to meet both of you. I hope that we stay in touch and I'll keep watching the companies as they, progress. And I wish you guys incredible success. </p><p><strong>Peyton Greenside: </strong>Thanks so much. </p><p><strong>Tim Sweeney: </strong>Thank you Harry. </p><p><strong>Andrew Radin: </strong>It was our pleasure.</p><p><strong>Tim Sweeney: </strong>Andrew, Peyton, good to see you as always.</p><p><strong>Andrew Radin: </strong>Absolutely. </p><p><strong>Peyton Greenside: </strong>You too.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p>
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      <itunes:title>The Legacy of Stanford’s Biomedical Informatics Program</itunes:title>
      <itunes:author>Harry Glorikian, Peyton Greenside, Andrew Radin, Tim Sweeey</itunes:author>
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      <itunes:summary>Harry traveled to the San Francisco Bay Area this summer, and while there he interviewed the co-founders of three local data-driven diagnostics and drug discovery startups, all of whom participated in the same graduate program: the Biomedical Informatics Program at Stanford&apos;s School of Medicine.  Joining Harry were Aria Pharmaceuticals co-founder and CEO Andrew Radin, BigHat Biosciences co-founder and chief scientific officer Peyton Greenside, and Inflammatix co-founder and CEO Tim Sweeney. The conversation covered how each company&apos;s work to advance healthcare and therapeutics rests on data and  computation, and how the ideas, skills, connections each entrepreneur picked up at Stanford have played into their startups and their careers.</itunes:summary>
      <itunes:subtitle>Harry traveled to the San Francisco Bay Area this summer, and while there he interviewed the co-founders of three local data-driven diagnostics and drug discovery startups, all of whom participated in the same graduate program: the Biomedical Informatics Program at Stanford&apos;s School of Medicine.  Joining Harry were Aria Pharmaceuticals co-founder and CEO Andrew Radin, BigHat Biosciences co-founder and chief scientific officer Peyton Greenside, and Inflammatix co-founder and CEO Tim Sweeney. The conversation covered how each company&apos;s work to advance healthcare and therapeutics rests on data and  computation, and how the ideas, skills, connections each entrepreneur picked up at Stanford have played into their startups and their careers.</itunes:subtitle>
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      <title>Jeff Elton On How To Speed Drug Development Using &quot;Real-World Data&quot;</title>
      <description><![CDATA[<p>Harry's guest this week is Jeff Elton, CEO of a Boston-based startup called Concert AI that's working to bring more "real-world data" and "real-world evidence" into the process of drug development. What's real-world data? It's everything about patients' health that's not included in the narrow outcomes measured by randomized, controlled clinical trials. By collecting, organizing, and analyzing it, Elton argues, pharmaceutical makers can it design better clinical trials, get drugs approved faster, and—after approval—learn who's really benefiting from a new medicine, and how. </p><p>Concert AI, which has offices in Boston, Philadelphia, Memphis, New York, and Bangalore, specializes in providing “research-grade real-world data” and AI-based analytical services to companies developing cancer drugs. Before joining Concert AI, Elton was managing director of strategy and global lead of predictive health intelligence at Accenture, and before that he was a senior vice president of strategy and global chief operating officer at the Novartis Institutes of BioMedical Research. He’s the co-author with Anne O’Riordan of a 2016 book from Wiley called <i>Healthcare Disrupted: Next Generation Business Models and Strategies</i>.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p>• Launch the “Podcasts” app on your device. If you can’t find this app, swipe all the way to the left on your home screen until you’re on the Search page. Tap the search field at the top and type in “Podcasts.” Apple’s Podcasts app should show up in the search results.</p><p>• Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</p><p>• Type MoneyBall Medicine into the search field and press the Search button.</p><p>• In the search results, click on the MoneyBall Medicine logo.</p><p>• On the next page, scroll down until you see the Ratings & Reviews section. Below that, you’ll see five purple stars.</p><p>• Tap the stars to rate the show.</p><p>• Scroll down a little farther. You’ll see a purple link saying “Write a Review.”</p><p>• On the next screen, you’ll see the stars again. You can tap them to leave a rating if you haven’t already.</p><p>• In the Title field, type a summary for your review.</p><p>• In the Review field, type your review.</p><p>• When you’re finished, click Send.</p><p>• That’s it, you’re done. Thanks!</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian: </strong>In the world of drug development, there’s a tendency to think that the only data that matter are the data that get collected from patients during randomized controlled clinical trials. That’s the type of study that drug companies use as the gold standard to test the safety and effectiveness of new drugs and that the FDA uses to make drug approval decisions. But it’s just not true. </p><p>Way before clinical trials begin, there’s a ton of genomic or proteomic or chemical data that can go into identifying new drug candidates, as we’ve learned from many of our previous guests on the show. </p><p>And today my old friend Jeff Elton is here to tell us about <i>another</i> important kind of data that get collected before, during, and even after clinical trials that can have a huge impact on how drugs are used.</p><p>It’s called real-world data, and it basically means everything about a patient’s health that isn’t included in the narrow parameters and outcomes measured by clinical trials.</p><p>Jeff is the CEO of a startup here in Boston called Concert AI that specializes in organizing and analyzing this real-world data. And his argument is that when you pay attention to real-world data, it can help you to design better clinical studies. </p><p>It can help support the core clinical data that drug companies submit to the FDA when they’re applying for approval. And after approval, it can help show who’s really benefiting from a new medicine, and how. </p><p>Jeff has been thinking about the importance of real-world data for a long time, at least since 2016, when he leading predictive health intelligence at Accenture and he published a book called <i>Healthcare Disrupted</i>. </p><p>The book argued that real-world data from wearable devices, the Internet of Things, electronic medical record systems, and other sources could be combined with advanced analytics to change how and where healthcare is delivered. In our interview, I asked Jeff to explain how Concert AI is helping patients and how the predictions he made in the book are playing out today.</p><p><strong>Harry Glorikian: </strong>Hey, Jeff, welcome to the show. </p><p><strong>Jeff Elton: </strong>Thank you Harry. Pleasure to be here. </p><p><strong>Harry Glorikian: </strong>Yeah, it's been a long time since we've actually seen each other. I mean I feel like it was just yesterday. We were you know, interacting. Arshad was there and we were talking about all sorts of stuff. It's actually been quite a few years and, and, and you have now transitioned to a few different places and, and right now you're running something called Concert AI. And so, I mean, let's just start with what is Concert AI, for everybody who's listening. </p><p><strong>Jeff Elton: </strong>Yeah. So Concert AI is a real-world evidence company. We'll spend a little bit of time breaking that down. We are very focused on oncology, hematology, urological cancers. So we kind of tend to stay very much in that space.</p><p>And within the real-world evidence area, we really focus on bringing together high credibility research grade data. This usually means clinical data. Genomic data can include medical images combined with technologies that aid gaining insights out of those particular data and that kind of align with our own various use cases.</p><p>A use case could be designing a clinical study, it could be supporting a regulatory submission. It could be gaining insight, post-approval, about who's benefiting, who's not benefiting. And you know, our whole mission in life is accelerating needed new medicines and actually improving the effectiveness of current medicines out there.</p><p><strong>Harry Glorikian: </strong>So who's like, I don't know, the user, the beneficiary, in a sense, of this.</p><p><strong>Jeff Elton: </strong>So, you know, we like to think we have a very heavily clinical workforce. You know, we always put the patient first. So I'm actually gonna say that a lot of the reason why we're doing things is that we have the benefit to be stewards, combined with provider entities, of focusing on questions that matter for patient outcomes.</p><p>So the first beneficiary is patients. I think the second beneficiary are biomedical innovators. We're trying to kind of support those innovations. We're trying to understand how to go into the clinic. We're trying to understand how to design those clinical trials to have them be more effective. We're trying to understand how to show that relative to the current standard of care, they offer a range of incremental therapeutic benefit. A lot of medicines become improved once they're actually already approved. And so we actually spend time doing a lot of post-approval research that actually begins to improve the outcomes by beginning to kind of refine the treatment approaches.</p><p>And then the clinical communities we work very closely [with]. We're a very close working partner with American Society of Clinical Oncology and their canceling program. We're in a 10-year relationship with them that allows us to do work in truly high need areas. We did a COVID-19 registry jointly with ASCO that worked off of some of the data we brought together because it you know, COVID-19 uniquely hit cancer and particularly hematological malignancy patients.</p><p>We do work with them in health disparities, making sure that racial, ethnic, and economic groups can be the beneficiaries of new medicines and are appropriately part of doing clinical trials, clinical studies. And then we work directly with provider communities who oftentimes are seeing the value of the work we're doing and making sure that for research purposes, we have appropriate access to data, information to conduct that research.</p><p><strong>Harry Glorikian: </strong>Yeah. I want to get into, you know, I think we're going to, I'm going to hit on some of that later, but I just want to make sure everybody's sort of on a level playing field with some of these wonky terms we use. How do you define real-world data and real-world evidence. I mean, I know what the FDA defines it as. I’m just curious. </p><p><strong>Jeff Elton: </strong>Yeah. So yeah. And FDA does have some, they have some publications really there that came out at the end of 2018 that actually began to lay out a framework around that, which I would encourage folks to reference. It's actually a very well-written document.</p><p>So real-world data is sort of what it sounds like. It's the data. Right. And You know, if you were a clinician, if you were sitting in a clinical care environment, you probably wouldn't be using the word real-world data because those are the data generated through your treatment of the patient. So clinicians sometimes actually kind of pause for a moment to say, what's real-world? It’s the things I'm doing. And in fact, you know, real-world data would be structured data in a structured field. It’s a lab value that may have come in from the laboratory information system or a drop down menu. Did they smoke or not? Which can be a fixed field in an EMR. All the way over to physician notes, to appended molecular diagnostic reports, to imaging interpretation reports.</p><p>So all those are forms of data. Now, evidence is a little bit about also what it would sound like. Data are not evidence. You have to actually, and in fact, to generate evidence, I want to have to trust the data. I have to believe those data are an accurate reflection of the source systems they came from. I have to believe they're representative or appropriate for the question that I'm actually trying to address. And then I have to make sure that the methodologies I'm using to analyze something, either comparing the effectiveness of two drugs relative to each other, actually then when I look at that analysis, I'm willing to either make a regulatory decision or a guideline modification.</p><p>And the intent of evidence is either to support a regulatory decision or something that can inform practice of medicine or nature of treatment. So there's a bar, right, that one has to achieve to actually become evidence. But I think evidence is the right goal by what we're trying to do.</p><p><strong>Harry Glorikian: </strong>So you know, in the past, I mean, because I've, worked with companies like Evidation Health and so forth right there, some of this data was in paper form, right. Not in electronic form. So, what holes in the current system of, say, drug development would better real-world data or real world evidence help fill or, or drive forward.</p><p><strong>Jeff Elton: </strong>Yeah, that's a super good question. And, you know, Harry, you were kind of going back to your, I mean, you were one of the primary, leading individuals around that when the days of personalized and individualized and precision medicine, and even some of molecular medicine kind of came around. In fact, that's probably where you are my first point of interaction.</p><p>And I come back to that concept because when you, when you're looking at data—and again, not all data are kind of created equal here—when I think about setting up and designing a clinical study, so now I'm with an experimental therapeutic or I'm thinking about moving it in. If it worked in one solid tumor and I suspect that same molecular pathway or kind of disease mechanism may be at work in another one. And so I want to kind of think about doing a pan tumor strategy or something of that nature. When I actually, when I, if I can bring together molecular diagnostic information, aspects of the individual patients, but do it at scale and understand the homogeneity, the heterogeneity and the different characteristics in there, I can design my trials differently and I can make my trials more precise. And the more precise the trials are, the higher the likelihood that I'm going to get meaningful outcomes. The outcomes here that are meaningful is what actually helps medicines progress. It's actually getting those questions to be as narrow and as precise and as declarative in their outcomes as possible.</p><p>And so a lot of these data can actually be used to help guide that study design. Now, if I also have very rare cancers or very rare diseases—so this would apply even outside of oncology, although most of our work is oncology related—even if I'm outside of that, if I'm in very rare, oftentimes finding, you know, putting a patient on a  standard of care therapy as a control oftentimes may not be in the patient's best interests. And so this notion of either a single arm or having an external control or having a real-world evidence support package, as part of that, may be part of what can occur between the sponsor and actually the FDA, et cetera, for kind of moving that through.</p><p>But, you know, this has to be done individually around the individual program and the program and the characteristics have to kind of merit that, but these are big deals. So we feel that these are forms of data that can complement what would have been traditional legacy approaches to give more confidence in the decisions being made in the evaluation, the ones actually coming, too.</p><p><strong>Harry Glorikian: </strong>Yeah, I can hardly wait. I mean, maybe it's a dream, but I can hardly wait until we get rid of first-line and second-line and we just say, okay, look, here's a battery of assays or whatever. This is what you should be taking. No more first line or second line. I mean, these are sort of in my mind, I mean, almost arcane concepts from, because we didn't have the tools in the past and now we're starting to move in that direction.</p><p><strong>Jeff Elton: </strong>Yeah. So, Harry, just to, maybe to build on that a little bit. So if you look at some of our publications and things that we presented at this last ASCO, there's work one can do when you look at different features of patient response, et cetera. We're a company, but we also have a very strong data science backbone to what we do. And AI and ML applications. There are features that sometimes you can predict metastatic status. You can predict rate of response. You can predict progression. Now the very fact that I can make that statement kind of indicates that as you started thinking about the paradigm in the future, particularly when I start doing it liquid tumor, biopsies and surveillance mechanisms where I can see response much more rapidly in less invasive ways, you are going to start even over the course of this next five years, I think some of these will start to start influencing practice patterns in some very positive ways for patients, Harry.</p><p><strong>Harry Glorikian: </strong>From your lips to his or her ears. It needs to move faster. But, but it's interesting, right? I feel like you've been on this path for quite some time, like, I want to say since you're at least since your book in 2016, if not before. </p><p><strong>Jeff Elton: </strong>Yeah. So, you know yeah, you and I, in fact, you and I interacted first, I think we were kind of in the hallways, first interaction of what had been the Necco candy factory on Massachusetts Avenue in the Novartis building, where I was working in the Novartis Institute for Biomedical Research at the time.</p><p>And Even prior to that, I think I did my first work back in the days of Millennium Pharmaceutical when it was still a standalone company, doing work in precision medicine and personalized medicine all the way through. And obviously Novartis's strategy was looking at pathway biology and actually using that as the basis of actually understanding where in a pathway system one could actually target and actually understanding that it is a system, it's got redundancy both in a bad, in a positive way. How do we use it to progress new medicines? So there's been an aspect of this that's always been kind of a little bit hard. </p><p>I think I kind of made a decision to kind of pivot much more to a large scale data-centric, insight-technology-centric approach, and actually at scale, bring some of that back to the biomedical innovators. But yeah, it's been a progression over time and some of this it's a field that I feel, you know, strong passion around and will stay committed to for the duration of whatever my professional career looks like.</p><p><strong>Harry Glorikian: </strong>So can you give us maybe an example? I mean, I know some of it may be confidential. How does the data that you're providing, say, improve maybe drug safety or effectiveness? </p><p><strong>Jeff Elton: </strong>So you know, we're doing a project right now that that's safety related and I'll kind of try to keep it such that it I'm not betraying anybody's confidence. Eventually this will be in a publication, but it's not at the point yet. We're looking at a subpopulation that had severe adverse events, cardiac adverse events in the population. And originally the hypothesis was, it was a relatively homogeneous group. And we brought together some of our deepest clinical data, which means we have many different features of intermediate measures of disease, recurrence, progression, response, adverse events, severe adverse events. And we also brought some of our data science and AI solutions to it. And one of the major insights that came out of that is actually it wasn't a single homogeneous group. One group was characterized by having a series of co-morbidities that then linked to this significant adverse event and the other were purely immunological based.</p><p>And so therefore actually in both cases, they're screenable, they're predictable. They're surveillable. And monitorable. And so therefore, but the actions would be very different if you didn't know what the two groups are. So in this particular case, we could discriminate that now. Well, we'll take that into more classical biostatistical analysis and do some confirmatory work on that, but that has significant implications on how you're going to kind of screen a patient survey of patients, look for whether or not they exhibit that area, and how you would kind of handle it, manage that. That would improve the outcome significantly of that subpopulation.</p><p>So that's one example. In other areas, some of our data was actually being used as part of a regulatory submission. It was a very, very rare population in lung cancer. And it was unclear exactly how nonresponsive they were to the full range of current standard of care. And we were actually illustrating that there was almost a complete non-response to all current medicines that were actually used against this particular molecular target because of a sub mutation. And that actually was part of the regulatory submission. And that program both actually got breakthrough designation status, and that actually supported that and actually got an approval ahead of the PDUFA date. So when you start pulling some of these pieces together, they work to again, provide more confidence and interpretation and more confidence in decision-making. And in this particular case, certainly accelerated medicines being available to patients. </p><p><strong>Harry Glorikian: </strong>Oh yeah. Yeah. Drive value for patients and drive value for the people that are using the, the capability to get the product through. So, you know, we're talking about data, data, data. At some point, you've got to turn this into a product or a service of some sort or, or some, or maybe a SaaS as, as, as you guys might look at it, but you've got something called, you know, Eureka Health, right, in your product lineup. Can you give us an idea of what that is? I think it's a cloud-based SaaS product. You call it research-ready real-world data. So I'm just curious how that works. </p><p><strong>Jeff Elton: </strong>Yeah. So we do think.. So if you think about what we're trying to do, we're trying to allow a level of scale and a level of precision and depth on demand in the hands of individual researchers, from translational scientists, folks in clinical development, post-approval medical value and access. Kind of in that domain. And so each of those have different use cases. Each of those have different kind of demands that they'll place on data and technology for kind of doing that.</p><p>We’re trying to move away from the world of bespokeness, because by nature of bespokeness, the question has its own orientation. The data is just unique to the question and that utility later is very low and, you know, in a way, what we'd rather do, what have we learned about what actually kind of create utility out of data, and let's make sure that we're covering the use cases of interest, but let's do it at very large scale. And that scale itself and the data we even represent at that very large scale is in itself representative and actually has significance whether it's on a prevalence basis of sub cohorts of disease or not. </p><p>Now, the reason why I'm spending so much time developing that is when you put that in the hands of the right people, you're avoiding bias, but you're also giving utility at the same time and so you're actually improving their ability to conduct rapid question interrogation, but also structure really good research questions and have the discipline if I have a good research methods right around that. So we do structure those as products.</p><p>And so, so actually one of the things we think of is, the work that we do in non-small cell lung cancer is an extremely large data set. It also has high depth on the molecular basis of non-small cell lung cancer. And it's created in a way that actually allows you to make those questions from translational through post-approval medical and doing that.</p><p>Eureka is the technical environment. It is a cloud environment we are working in, and it actually allows you to do on-the-fly actually insights. So, outcome curves, which are called Kaplan-Meier and a few other measures. I can compare groups. I can compare cohorts. I can ask questions. It's actually exceptionally fast.</p><p>And so this ability to navigate through a series of questions, its ability to make comparisons of alternative groups of patients on different classes of questions and finally get down to the patient cohort of interest that you may want to move into in the next phase, your research is done a lot faster. </p><p>Now we took that, and now we're integrating more AI and ML into that. So we now have created probably what's one of the leading solutions for doing clinical study design. So we can optimize different features of that study design. We can actually release lab values. We can change parameters. There's a level of kind of fitness, ECOG scoring. We can actually modify that and show what the changes would be in the addressable patient population, and actually optimize that study design all the way down to the base activity level. And we're basically creating a digital object that's rooted on huge amounts of data. Underneath the 4.5 million records runs inside that particular area.</p><p>There is no other solution in oncology, hematology that gets anywhere to that depth of information that can reflect, with different optimization, to the endpoint and even reflect statistical power. </p><p>Now we're integrating in work around health disparities. How do you assure that if it's a disease like multiple myeloma, which may disproportionately affect black Americans, that I'm actually getting adequate representation of the groups that in fact, actually may be afflicted by the disease and actually assure the design of the study itself assures their representativeness actually in that work?</p><p><strong>Harry Glorikian: </strong>This dataset, what are some of the features of it? What is it? What sort of information does it have in it that you would be pulling from? Because my brain is like going on all sorts of levels that you would pull from, and some of it is incredibly messy.</p><p><strong>Jeff Elton: </strong>Yeah. So you are absolutely right. And so there have been expressions in the field of people who do work in real-world data that the real world's messy you know, fields may be empty. Do you know, as an empty field, because nothing got put there where's the empty field, because in that electronic medical record environment empty means it was not true of the state of the patient. That may sound like a nuanced thing, but sometimes empty actually is a value and sometimes empty is empty. And so you start getting into some things like that, which you start thinking about, like, those are pretty nuanced questions, but they all have to do with, if you don't know which it is, you don't know how to treat and move the data through.</p><p>So back to your question here a little bit. What we actually, the sources of where we bring data from are portions of a clinical record. So, you know, we work under businesses, the work we do is either research- or quality-of-care-focused. And so, you know, we work actually, whether it's with the American Society of Clinical Oncology and et cetera, appropriately under all HIPAA guidelines and rules for how you interact with data around doing that. So I'll put that as a caveat because methods and how you do that security and everything else is super, super important. </p><p>We have a clinical workforce. These are all credentialed people. Most of them have active clinical credentials. Most of them were in the clinic 10 to 15 years and even still interact on it. So a lot of my people feel they're still in clinical care. It's just happens to be a digital representation pf the individuals that are in there. And we're seeing, whether it's features of notes, depth of the molecular diagnostic information, radiologically acquired images that may show how the tumor progressed, regressed, et cetera, that's in there, any other, the medications, prior treatment history, comorbidities that may confound, actually, response. So all those different features are brought together, but if you don't bring it together consistently, we have tens of thousands of lines of business rules, concepts, and models that we try to publish around about how you bring a concept forward.</p><p>So if you want to bring a concept forward, want to do it consistently, we come out of 10 different electronic medical record environments, and we're, we're actually interacting with the work of 1,100 medical oncologists and hematologists, et cetera. You have a lot of heterogeneity. Handle that heterogeneity with a clinical informatics team into a set of rules as it's coming forward so that everything comes to the point that you can have confidence in that, you know, in that particular analysis and that presentation.</p><p>So there's something called abstraction, which is a term applied to unstructured data—and unstructured just means a machine can't read it on the fly. And so we're actually interacting with that, which could have a PDF document or something else. And from that, we use the business rules to then develop something that now is machine-readable, but actually has a definition behind it that one can trust, that one can, that kind of comes from some published basis about why did you create that variable? So I could measure outcomes of interest progression-free survival, adverse events, severe, whatever the feature of interests can. Help me answer the question we try to kind of bring through. So we're usually creating about 120 unique variables that never would have been  machine-readable, in addition to the hundred, that probably were machine-readable when we bring that together. </p><p><strong>Harry Glorikian: </strong>So you're using a rule-based AI system, maybe not just a straight natural language processing system, to parse the words.</p><p><strong>Jeff Elton: </strong>Yeah. So natural language processing gets a little tricky. We do. We have, actually, excellent natural language processing. We'll sometimes use that for pre-processing, but you have to be careful with natural language processing. If it has context sensitivity, and if you're parsing for sets of reliable terms, it can actually be relatively accurate. If I'm doing something like a laboratory report that's so discreet, so finite, and it's so finite with how many alternatives you have with the same concept, it works really well. When you start getting into things that are much more nuanced, you actually start to have a combination of technology with the expert humans to actually have confidence in the ultimate outcome.</p><p>Now we do have some very sophisticated AI models. Like I’ll give you an example. When you're looking at a medical record, usually metastatic status has just done a point of first but diagnosis in cancer care. So if the patient actually progressed and they made through there that they don't update the electronic medical record because they want to maintain what the starting point was when therapy was administered.</p><p>But a biomedical researcher wants to know it at a point in time. So we have models that can literally read the record and bring back that status at any point in the time of disease progression. Now, would that work up to the grade of, say, for regulatory submission? No, but for a rapid analysis to pull back your question of interest and have it done in minutes, as opposed to weeks or months it works exceptionally well.</p><p><strong>Harry Glorikian: </strong>Understood. Understood. So now you and I both know that clinical trials, you know, are available only to a certain portion of the population really participate for  a whole bunch of reasons. And then if you go down to sort of, you know, equality or, or across, you know, the socioeconomic scale, it, it gets even, it gets pretty thin, right? You guys, I, I think you've been pushing around inequality and cancer care and you have this program called ERACE which I think stands for Engaging Research to Achieve Clinical Care Equality. So help me out here. What is that? </p><p><strong>Jeff Elton: </strong>So we are, as an organization we're super privileged to have a very, very diverse workforce. And you know, men, women all forms of background races, ethnicities, and we really value that. And we've tried very hard to build that in our scientific committee. And I think when the public discourse around kind of equity, diversity, inclusiveness came forward, and you know, as you know, Harry, this has been a unprecedented period of time for just about anything, any of us. I mean, COVID-19 and social issues. You know, things of that nature. It's, it's really been a very, very unprecedented time in terms of how we work and how we interact and the questions.</p><p>Our organization and our scientists actually came forward to me and said, you know Jeff, we have a tremendous amount of data. We have partners like American Society of Clinical Oncology and some of the leading biopharmaceutical researchers in the world. And we've got technology, et cetera. We want relevance. We really want what to make contributions back and we believe that actually, we can do some research that no one else can do. And we can actually begin to deliver insights that no one has the capability to do. Would you kind of support us in doing that? And so we put together the ERACE program and it actually was named by a couple of our internal scientists.</p><p>And the program actually now is being collaboratively done. We've done a couple of webinars, with you know, some of our partners and that's included, you know, folks from, whether it's AstraZeneca, Janssen, and BMS, et cetera. It's become something around, how can we rethink how research takes place and actually assure its representativeness for all groups, but particularly in specific diseases. It impacts different groups differently. And so can we make sure it reflects that? Would we be generating the evidence so that they can in fact be appropriate beneficiaries earlier? And a lot of this came from when we looked at aspects of diagnostic activity we could say that, you know, black American women have a higher incidence of triple negative breast cancer and a few other diseases. When we look at patterns of diagnosis and activity, unfortunately, the evidence that we even have is not substantially in the practice of what we're actually seeing sometimes when we begin reviewing our data. </p><p>And so we began confederating through our own work. We now have actually set up research funding. So we actually now will fund researchers who come in the academic community. If they come up with research proposals that have to do with, you know, health related disparities, whether it's economically based, or if it's racial, ethnically based. Those questions. </p><p>We've got an external review board on those proposals. We'll provide them data technology and financial support to get that research done. We're doing it with our own group and we're doing it collaboratively with our own kind of biopharma sponsor partners kind of as well. So for us right now, it's about confederating an ecosystem, it's about building it into the fabric about how research questions are framed, research is conducted, clinical trials are conducted, and then actually those insights put into clinical practice for the benefit of all those groups. And so, you know, it's even changing where we get our data from now. So it's, it's like an integral part of how of everything we do. </p><p><strong>Harry Glorikian: </strong>So you saw, I don't want to say an immediate benefit, fooking at it this way or bringing this on, but I mean, you must have seen within a short period of time, the benefit of, of, I don't want to say broadening the lens, but I can't think of a better way to frame it. </p><p><strong>Jeff Elton: </strong>We were surprised how quickly, whether it was academic groups or others, rallied around some of the concepts and the notions. And we were surprised how quickly we were able to make progress in some of our own research questions. And we were pleased and astonished, only in the best ways, that we saw industry and biomedical research, the whole biomedical community, attempting to integrate into their research and the questions that they asked actually different ways of approaching that.</p><p>And in fact, it's probably one of the most heartening areas. You couldn't have legislated this as quickly as I believe leading industry biomedical innovators decided it was time to kind of change portions of the research model. And you made a, Harry, you made a statement earlier on that. It's not just about kind of us analyzing data. Sometimes bow you find that to broaden actual, say, clinical trial participation, I actually have to go to sites that historically didn't conduct clinical trials. I may need to have investigators that are trusted, because some of the populations we may want to interact with don't trust clinical research and have a long history about why they didn't trust clinical research.</p><p>So you're changing a social paradigm. You're changing research locations and capacity and capability for that research. So we're now moving research capacity out into community settings in specific communities with this idea that we actually, we actually need to bring the infrastructure to the people and not assume again, that people want to kind of go to where the research historically was conducted because that wasn't working before, you know?</p><p> </p><p><strong>Harry Glorikian: </strong>At some point, you turn the crank enough, you start to influence, you should be able to influence, you know, standard of care and all that stuff, because if you're missing data in different places, you’ve got to make sure that we fill these holes. Otherwise we're never going to be able to diagnose and then treat appropriately.</p><p><strong>Jeff Elton: </strong>Generate the evidence that supports actually doing that and do it on an accelerated basis, but also that it gets confidence for those decisions. Absolutely. That's part of our goal. </p><p><strong>Harry Glorikian: </strong>Yeah. So I want to jump back in time here and sort of go back to your your <i>Healthcare Disrupted</i> book. You know, I feel like, you know, we're on the same page because I think the message was, you know, pharma, devices, diagnostics, healthcare, they need to rethink their business model to respond to this digital transformation, you know, which is obviously something in my own heart. I've been sort of banging that drum for quite some time.</p><p>In particular, you argued in the book that real-world data from EMRs, wearables, the Internet of Things could be combined to change how and where healthcare is delivered. Is there a way in which like Concert AI's mission reflects the message of your book? Can I make that leap?</p><p><strong>Jeff Elton: </strong>I appreciate the way you asked the question and I think if you said our principles and perspectives about that, we need to kind of focus on value and outcomes, and then we're going to be bringing insights, digital cloud, and a variety of other tools to underpin how we work and operate. Absolutely.</p><p>And in fact, I think, you know, positively. I had a lot of engagement and did a lot of interviews, even as we were putting the book together, which took place over a couple of months ago, it was probably, you've done your own books. Whatever you think it's going to be, it's a lot longer. So I'll leave it at that. I have recovered from the process now, but I think we had a lot of engagement, whether it was with medical community, biopharma, leadership, community, et cetera. And I think that alignment is some of the alignment we have with our partners today. It's actually around some of the same principles.</p><p>What I couldn't have predicted, in fact, I was a couple of years ago and this probably would have been towards the tail end of 2019, I was already starting to think about, okay, I've recovered from the first writing. How did I do? And what would I say now? And at the time I was beginning to say certain things seem to be taking shape slightly more slowly than I originally forecast, but then COVID-19 happened. And all of a sudden certain things that we kind of had thought about and kind of had put there actually accelerated. And in fact, I think, you know, out of adversity, you'd like to say we bring sources of strength we didn't know we would kind of be beneficiaries of. But out of that, you could argue this concept of say a decentralized trial activity.</p><p>So we have, let me pick up, you know, I'm one company, but let me pick a parallel company that I have respect for, say, Medable as an example, and Michelle [Longmire] leads that company, it does a very nice job, but that's the idea. Everything could be done remotely. I can actually do a device cloud around the individual. I can do a data collection and run RCT-grade trial activity. Now that doesn't work super well in oncology, hematology, et cetera, where I'm, you know, I'm doing chemo infusion and I have to do very close surveillance, but that concept is an accelerated version and got broader adoption and actually was part of some of the COVID-19 kind of clinical studies and capability. And it's not going to revert back. </p><p>So actually what happens is you find it has a level of efficiency, a level of effectiveness and a level of inclusiveness that wasn't available before, when it had to do facilities-based only. Now we ourselves now we're asked to accelerate, we bring technologies and integrate them into provider settings for doing retrospective analysis. But actually during that period, not only did we bring our clinical study design tools and use AI and ML for doing that, which led to, we've supported the restart of many oncology studies now, and actually the redesign of studies to be able to move into different settings that they never were in before.</p><p>And actually now we're beginning to use some of our same approaches for running prospective studies, but from clinically only derived data sources. It’s a very different paradigm about how you conduct clinical research. So when you think about this, there are unpredictable shocks, you know, which, you know, some of may have called Black Swan events or whatever you may ascribe to it, that actually are now consistent with everything we did. But actually accelerating it and in a weird way back on trajectory, if you will. </p><p>But I think, yes, everything we're doing was informed by a lot of that seminal work and research and foundation about what worked in health system and didn't how are people being beneficiaries or not? How do we need to change how we do discovery translational clinical development? And we're very committed to doing that. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, it's interesting cause you almost answer my next two questions. I'm really hoping it doesn't slide backwards. That's one of my biggest fears is, you know, people like to revert back to what they were used to.</p><p><strong>Jeff Elton: </strong>But you know, maybe to encourage you and me. So one of the things, if you take a, let's take a look at a teleconsult. So during COVID-19, HHS opened up and allowed as a coded event, doing a digital teleconsult for kind of digital medicine, telemedicine, and that was put into place on an emergency basis by HHS. And then before the outgoing HHS had that, it's now made permanent. And it's now part of the code that actually will continue to actually be a reimbursable event for clinicians. That was actually super important during COVID-19. What’s not that well known is, not only did that allow people to be seen, but hospital systems were really financially distressed because most of their work was informed by kind of, you know, elective procedures and things of that nature. And that couldn't take place. But the teleconsult became a very important part of their even having economic viability, which you can't underestimate the importance of that during a pandemic. Right. So now that's part of how we're going to work. </p><p>My personal view is, now that people are using digitally screening tools, they have decentralized trials, some of the solutions that we're putting into place, AI-based, bringing RWE as part of a regulatory submission, I don't see anything going back. And the work we're doing is if we can start putting 30 to 50% time and cost improvements and add more evidence around a decision, more robustly than we did before, that's not going backwards at all.</p><p><strong>Harry Glorikian: </strong>Good. That's that makes me. I'm hoping that we're all right, because we've been saying this and beating this drum for quite some time.</p><p>It's interesting, right? Because I don't think I've gotten over the whole writing thing because I've got a new book coming out in the fall. So you know, I, I couldn't help myself. I hope, you know, we. We're able to give the listeners sort of a view of where this whole world is changing, how data's changing it.</p><p>I mean, I've had the pleasure of talking to people about digital twins and that sort of data. And I believe that this, we're gonna be able to make predictions, as you say off this data almost proactively. It's interesting because I do talk to some people who are in the field that look at me strange when I say that, but after working with different forms of data in different places for so long, I can see how you can look at things predictively and sort of, you know, decide what's, you know, see what's going to happen almost before it happens for the most part, if you have a big enough data set. </p><p><strong>Jeff Elton: </strong>So we do a lot of prediction thing in the AI and ML world. And we predict, you can actually be relatively accurate on who's going to adhere and not adhere. You can begin to look at the biological response to being placed on a new therapy and understand whether that response is kind of in a direction that, that patient's going to remain on that therapy, or you need to discontinue to be placed on a new therapy.</p><p>And you're right. And in fact, some of these features…well, the question, we use it from generating insights to design and hopefully improve outcomes, et cetera. That's a rapid process. I mean, I've seen things in the last three years in setting up Concert AI that would have taken me a decade to have seen in previous methods. But we're still not as fast and as effective as we can be.</p><p>And the very fact that I can in my digital laboratory, if you will, create AI/ML to predict whether that patient is going to be discontinued or continue on to that course of therapy. Some of that needs to be brought into confidence tools that can start to inform parts of practice as well. They're not ready for that. They have to ascend to that. But when you look at these, some of these, whether it's coming in as software, as a medical device, sets and solutions to augment, are going to add a huge, huge amount of utility. And you're finding a lot of interest, even biomedical innovators are looking for predictive tools, too, complement their medicines.</p><p>And you know, we're doing a couple of things that would be definitely considered in a more confidential area around doing that right now. And I have to tell you I've been so pleased and it's just for me, it's so, so catalyzing of our energy to be brought into this, to see people willing to reshape the paradigm about how they do things that actually will reshape how medicine's delivered and care provided too. </p><p><strong>Harry Glorikian: </strong>Oh yeah. I mean, look, ideally, right, I think every physician wants to give the patient the optimal therapy. Not pick the wrong one and have to redo it again. But, but I think a lot of these tools are also gonna lend themselves to adjudication.</p><p><strong>Jeff Elton: </strong>Absolutely. </p><p><strong>Harry Glorikian: </strong>Right? And that is a huge paradigm shift for everybody to wrap their head around. And I think we're going to get pushback from some people, but I can't see how you don't end up there at some point. You can see where it's going. You know, what's going to work, here's the drug. And if it doesn't work, here's the data to show [why] it didn't work.</p><p><strong>Jeff Elton: </strong>Well, and actually and Harry, to your point, right now you're thinking about how payers authorized the treatment that's proposed by our clinician for super expensive medicines. Right? But if I'm an oncology, I can tell you right now that claims data as a single data source can't tell you much about whether that patient responds, whether they're being treated according to NCCN ASCO guidelines or not. So you're wondering what's the basis of that. Whereas I can actually look at the data and I can understand how that patient presents and I can see what's actually the intended treatment. And you can immediately say that perfectly makes sense, given how everything's matched up and I can continue to kind of say what that response is it consistent with what I would have hoped for placed in that patient on that specific treatment. So to your point, this is going to change all sorts of things.</p><p><strong>Harry Glorikian: </strong>I love it when it changes on that level, it just makes me all happy inside. So, Jeff, it was great catching up with you. I hope when this pandemic is open, we can get together in person and you know, have a beer. Maybe we'll even bring Arshad because I think he's been working in this whole data area with a number of companies for a while now. </p><p><strong>Jeff Elton: </strong>Yeah. Would love it.</p><p><strong>Harry Glorikian: </strong>Excellent. </p><p><strong>Jeff Elton: </strong>All right. </p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Jeff Elton: </strong>Thank you too.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p><p> </p>
]]></description>
      <pubDate>Tue, 3 Aug 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Jeff Elton)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest this week is Jeff Elton, CEO of a Boston-based startup called Concert AI that's working to bring more "real-world data" and "real-world evidence" into the process of drug development. What's real-world data? It's everything about patients' health that's not included in the narrow outcomes measured by randomized, controlled clinical trials. By collecting, organizing, and analyzing it, Elton argues, pharmaceutical makers can it design better clinical trials, get drugs approved faster, and—after approval—learn who's really benefiting from a new medicine, and how. </p><p>Concert AI, which has offices in Boston, Philadelphia, Memphis, New York, and Bangalore, specializes in providing “research-grade real-world data” and AI-based analytical services to companies developing cancer drugs. Before joining Concert AI, Elton was managing director of strategy and global lead of predictive health intelligence at Accenture, and before that he was a senior vice president of strategy and global chief operating officer at the Novartis Institutes of BioMedical Research. He’s the co-author with Anne O’Riordan of a 2016 book from Wiley called <i>Healthcare Disrupted: Next Generation Business Models and Strategies</i>.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p>• Launch the “Podcasts” app on your device. If you can’t find this app, swipe all the way to the left on your home screen until you’re on the Search page. Tap the search field at the top and type in “Podcasts.” Apple’s Podcasts app should show up in the search results.</p><p>• Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</p><p>• Type MoneyBall Medicine into the search field and press the Search button.</p><p>• In the search results, click on the MoneyBall Medicine logo.</p><p>• On the next page, scroll down until you see the Ratings & Reviews section. Below that, you’ll see five purple stars.</p><p>• Tap the stars to rate the show.</p><p>• Scroll down a little farther. You’ll see a purple link saying “Write a Review.”</p><p>• On the next screen, you’ll see the stars again. You can tap them to leave a rating if you haven’t already.</p><p>• In the Title field, type a summary for your review.</p><p>• In the Review field, type your review.</p><p>• When you’re finished, click Send.</p><p>• That’s it, you’re done. Thanks!</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian: </strong>In the world of drug development, there’s a tendency to think that the only data that matter are the data that get collected from patients during randomized controlled clinical trials. That’s the type of study that drug companies use as the gold standard to test the safety and effectiveness of new drugs and that the FDA uses to make drug approval decisions. But it’s just not true. </p><p>Way before clinical trials begin, there’s a ton of genomic or proteomic or chemical data that can go into identifying new drug candidates, as we’ve learned from many of our previous guests on the show. </p><p>And today my old friend Jeff Elton is here to tell us about <i>another</i> important kind of data that get collected before, during, and even after clinical trials that can have a huge impact on how drugs are used.</p><p>It’s called real-world data, and it basically means everything about a patient’s health that isn’t included in the narrow parameters and outcomes measured by clinical trials.</p><p>Jeff is the CEO of a startup here in Boston called Concert AI that specializes in organizing and analyzing this real-world data. And his argument is that when you pay attention to real-world data, it can help you to design better clinical studies. </p><p>It can help support the core clinical data that drug companies submit to the FDA when they’re applying for approval. And after approval, it can help show who’s really benefiting from a new medicine, and how. </p><p>Jeff has been thinking about the importance of real-world data for a long time, at least since 2016, when he leading predictive health intelligence at Accenture and he published a book called <i>Healthcare Disrupted</i>. </p><p>The book argued that real-world data from wearable devices, the Internet of Things, electronic medical record systems, and other sources could be combined with advanced analytics to change how and where healthcare is delivered. In our interview, I asked Jeff to explain how Concert AI is helping patients and how the predictions he made in the book are playing out today.</p><p><strong>Harry Glorikian: </strong>Hey, Jeff, welcome to the show. </p><p><strong>Jeff Elton: </strong>Thank you Harry. Pleasure to be here. </p><p><strong>Harry Glorikian: </strong>Yeah, it's been a long time since we've actually seen each other. I mean I feel like it was just yesterday. We were you know, interacting. Arshad was there and we were talking about all sorts of stuff. It's actually been quite a few years and, and, and you have now transitioned to a few different places and, and right now you're running something called Concert AI. And so, I mean, let's just start with what is Concert AI, for everybody who's listening. </p><p><strong>Jeff Elton: </strong>Yeah. So Concert AI is a real-world evidence company. We'll spend a little bit of time breaking that down. We are very focused on oncology, hematology, urological cancers. So we kind of tend to stay very much in that space.</p><p>And within the real-world evidence area, we really focus on bringing together high credibility research grade data. This usually means clinical data. Genomic data can include medical images combined with technologies that aid gaining insights out of those particular data and that kind of align with our own various use cases.</p><p>A use case could be designing a clinical study, it could be supporting a regulatory submission. It could be gaining insight, post-approval, about who's benefiting, who's not benefiting. And you know, our whole mission in life is accelerating needed new medicines and actually improving the effectiveness of current medicines out there.</p><p><strong>Harry Glorikian: </strong>So who's like, I don't know, the user, the beneficiary, in a sense, of this.</p><p><strong>Jeff Elton: </strong>So, you know, we like to think we have a very heavily clinical workforce. You know, we always put the patient first. So I'm actually gonna say that a lot of the reason why we're doing things is that we have the benefit to be stewards, combined with provider entities, of focusing on questions that matter for patient outcomes.</p><p>So the first beneficiary is patients. I think the second beneficiary are biomedical innovators. We're trying to kind of support those innovations. We're trying to understand how to go into the clinic. We're trying to understand how to design those clinical trials to have them be more effective. We're trying to understand how to show that relative to the current standard of care, they offer a range of incremental therapeutic benefit. A lot of medicines become improved once they're actually already approved. And so we actually spend time doing a lot of post-approval research that actually begins to improve the outcomes by beginning to kind of refine the treatment approaches.</p><p>And then the clinical communities we work very closely [with]. We're a very close working partner with American Society of Clinical Oncology and their canceling program. We're in a 10-year relationship with them that allows us to do work in truly high need areas. We did a COVID-19 registry jointly with ASCO that worked off of some of the data we brought together because it you know, COVID-19 uniquely hit cancer and particularly hematological malignancy patients.</p><p>We do work with them in health disparities, making sure that racial, ethnic, and economic groups can be the beneficiaries of new medicines and are appropriately part of doing clinical trials, clinical studies. And then we work directly with provider communities who oftentimes are seeing the value of the work we're doing and making sure that for research purposes, we have appropriate access to data, information to conduct that research.</p><p><strong>Harry Glorikian: </strong>Yeah. I want to get into, you know, I think we're going to, I'm going to hit on some of that later, but I just want to make sure everybody's sort of on a level playing field with some of these wonky terms we use. How do you define real-world data and real-world evidence. I mean, I know what the FDA defines it as. I’m just curious. </p><p><strong>Jeff Elton: </strong>Yeah. So yeah. And FDA does have some, they have some publications really there that came out at the end of 2018 that actually began to lay out a framework around that, which I would encourage folks to reference. It's actually a very well-written document.</p><p>So real-world data is sort of what it sounds like. It's the data. Right. And You know, if you were a clinician, if you were sitting in a clinical care environment, you probably wouldn't be using the word real-world data because those are the data generated through your treatment of the patient. So clinicians sometimes actually kind of pause for a moment to say, what's real-world? It’s the things I'm doing. And in fact, you know, real-world data would be structured data in a structured field. It’s a lab value that may have come in from the laboratory information system or a drop down menu. Did they smoke or not? Which can be a fixed field in an EMR. All the way over to physician notes, to appended molecular diagnostic reports, to imaging interpretation reports.</p><p>So all those are forms of data. Now, evidence is a little bit about also what it would sound like. Data are not evidence. You have to actually, and in fact, to generate evidence, I want to have to trust the data. I have to believe those data are an accurate reflection of the source systems they came from. I have to believe they're representative or appropriate for the question that I'm actually trying to address. And then I have to make sure that the methodologies I'm using to analyze something, either comparing the effectiveness of two drugs relative to each other, actually then when I look at that analysis, I'm willing to either make a regulatory decision or a guideline modification.</p><p>And the intent of evidence is either to support a regulatory decision or something that can inform practice of medicine or nature of treatment. So there's a bar, right, that one has to achieve to actually become evidence. But I think evidence is the right goal by what we're trying to do.</p><p><strong>Harry Glorikian: </strong>So you know, in the past, I mean, because I've, worked with companies like Evidation Health and so forth right there, some of this data was in paper form, right. Not in electronic form. So, what holes in the current system of, say, drug development would better real-world data or real world evidence help fill or, or drive forward.</p><p><strong>Jeff Elton: </strong>Yeah, that's a super good question. And, you know, Harry, you were kind of going back to your, I mean, you were one of the primary, leading individuals around that when the days of personalized and individualized and precision medicine, and even some of molecular medicine kind of came around. In fact, that's probably where you are my first point of interaction.</p><p>And I come back to that concept because when you, when you're looking at data—and again, not all data are kind of created equal here—when I think about setting up and designing a clinical study, so now I'm with an experimental therapeutic or I'm thinking about moving it in. If it worked in one solid tumor and I suspect that same molecular pathway or kind of disease mechanism may be at work in another one. And so I want to kind of think about doing a pan tumor strategy or something of that nature. When I actually, when I, if I can bring together molecular diagnostic information, aspects of the individual patients, but do it at scale and understand the homogeneity, the heterogeneity and the different characteristics in there, I can design my trials differently and I can make my trials more precise. And the more precise the trials are, the higher the likelihood that I'm going to get meaningful outcomes. The outcomes here that are meaningful is what actually helps medicines progress. It's actually getting those questions to be as narrow and as precise and as declarative in their outcomes as possible.</p><p>And so a lot of these data can actually be used to help guide that study design. Now, if I also have very rare cancers or very rare diseases—so this would apply even outside of oncology, although most of our work is oncology related—even if I'm outside of that, if I'm in very rare, oftentimes finding, you know, putting a patient on a  standard of care therapy as a control oftentimes may not be in the patient's best interests. And so this notion of either a single arm or having an external control or having a real-world evidence support package, as part of that, may be part of what can occur between the sponsor and actually the FDA, et cetera, for kind of moving that through.</p><p>But, you know, this has to be done individually around the individual program and the program and the characteristics have to kind of merit that, but these are big deals. So we feel that these are forms of data that can complement what would have been traditional legacy approaches to give more confidence in the decisions being made in the evaluation, the ones actually coming, too.</p><p><strong>Harry Glorikian: </strong>Yeah, I can hardly wait. I mean, maybe it's a dream, but I can hardly wait until we get rid of first-line and second-line and we just say, okay, look, here's a battery of assays or whatever. This is what you should be taking. No more first line or second line. I mean, these are sort of in my mind, I mean, almost arcane concepts from, because we didn't have the tools in the past and now we're starting to move in that direction.</p><p><strong>Jeff Elton: </strong>Yeah. So, Harry, just to, maybe to build on that a little bit. So if you look at some of our publications and things that we presented at this last ASCO, there's work one can do when you look at different features of patient response, et cetera. We're a company, but we also have a very strong data science backbone to what we do. And AI and ML applications. There are features that sometimes you can predict metastatic status. You can predict rate of response. You can predict progression. Now the very fact that I can make that statement kind of indicates that as you started thinking about the paradigm in the future, particularly when I start doing it liquid tumor, biopsies and surveillance mechanisms where I can see response much more rapidly in less invasive ways, you are going to start even over the course of this next five years, I think some of these will start to start influencing practice patterns in some very positive ways for patients, Harry.</p><p><strong>Harry Glorikian: </strong>From your lips to his or her ears. It needs to move faster. But, but it's interesting, right? I feel like you've been on this path for quite some time, like, I want to say since you're at least since your book in 2016, if not before. </p><p><strong>Jeff Elton: </strong>Yeah. So, you know yeah, you and I, in fact, you and I interacted first, I think we were kind of in the hallways, first interaction of what had been the Necco candy factory on Massachusetts Avenue in the Novartis building, where I was working in the Novartis Institute for Biomedical Research at the time.</p><p>And Even prior to that, I think I did my first work back in the days of Millennium Pharmaceutical when it was still a standalone company, doing work in precision medicine and personalized medicine all the way through. And obviously Novartis's strategy was looking at pathway biology and actually using that as the basis of actually understanding where in a pathway system one could actually target and actually understanding that it is a system, it's got redundancy both in a bad, in a positive way. How do we use it to progress new medicines? So there's been an aspect of this that's always been kind of a little bit hard. </p><p>I think I kind of made a decision to kind of pivot much more to a large scale data-centric, insight-technology-centric approach, and actually at scale, bring some of that back to the biomedical innovators. But yeah, it's been a progression over time and some of this it's a field that I feel, you know, strong passion around and will stay committed to for the duration of whatever my professional career looks like.</p><p><strong>Harry Glorikian: </strong>So can you give us maybe an example? I mean, I know some of it may be confidential. How does the data that you're providing, say, improve maybe drug safety or effectiveness? </p><p><strong>Jeff Elton: </strong>So you know, we're doing a project right now that that's safety related and I'll kind of try to keep it such that it I'm not betraying anybody's confidence. Eventually this will be in a publication, but it's not at the point yet. We're looking at a subpopulation that had severe adverse events, cardiac adverse events in the population. And originally the hypothesis was, it was a relatively homogeneous group. And we brought together some of our deepest clinical data, which means we have many different features of intermediate measures of disease, recurrence, progression, response, adverse events, severe adverse events. And we also brought some of our data science and AI solutions to it. And one of the major insights that came out of that is actually it wasn't a single homogeneous group. One group was characterized by having a series of co-morbidities that then linked to this significant adverse event and the other were purely immunological based.</p><p>And so therefore actually in both cases, they're screenable, they're predictable. They're surveillable. And monitorable. And so therefore, but the actions would be very different if you didn't know what the two groups are. So in this particular case, we could discriminate that now. Well, we'll take that into more classical biostatistical analysis and do some confirmatory work on that, but that has significant implications on how you're going to kind of screen a patient survey of patients, look for whether or not they exhibit that area, and how you would kind of handle it, manage that. That would improve the outcome significantly of that subpopulation.</p><p>So that's one example. In other areas, some of our data was actually being used as part of a regulatory submission. It was a very, very rare population in lung cancer. And it was unclear exactly how nonresponsive they were to the full range of current standard of care. And we were actually illustrating that there was almost a complete non-response to all current medicines that were actually used against this particular molecular target because of a sub mutation. And that actually was part of the regulatory submission. And that program both actually got breakthrough designation status, and that actually supported that and actually got an approval ahead of the PDUFA date. So when you start pulling some of these pieces together, they work to again, provide more confidence and interpretation and more confidence in decision-making. And in this particular case, certainly accelerated medicines being available to patients. </p><p><strong>Harry Glorikian: </strong>Oh yeah. Yeah. Drive value for patients and drive value for the people that are using the, the capability to get the product through. So, you know, we're talking about data, data, data. At some point, you've got to turn this into a product or a service of some sort or, or some, or maybe a SaaS as, as, as you guys might look at it, but you've got something called, you know, Eureka Health, right, in your product lineup. Can you give us an idea of what that is? I think it's a cloud-based SaaS product. You call it research-ready real-world data. So I'm just curious how that works. </p><p><strong>Jeff Elton: </strong>Yeah. So we do think.. So if you think about what we're trying to do, we're trying to allow a level of scale and a level of precision and depth on demand in the hands of individual researchers, from translational scientists, folks in clinical development, post-approval medical value and access. Kind of in that domain. And so each of those have different use cases. Each of those have different kind of demands that they'll place on data and technology for kind of doing that.</p><p>We’re trying to move away from the world of bespokeness, because by nature of bespokeness, the question has its own orientation. The data is just unique to the question and that utility later is very low and, you know, in a way, what we'd rather do, what have we learned about what actually kind of create utility out of data, and let's make sure that we're covering the use cases of interest, but let's do it at very large scale. And that scale itself and the data we even represent at that very large scale is in itself representative and actually has significance whether it's on a prevalence basis of sub cohorts of disease or not. </p><p>Now, the reason why I'm spending so much time developing that is when you put that in the hands of the right people, you're avoiding bias, but you're also giving utility at the same time and so you're actually improving their ability to conduct rapid question interrogation, but also structure really good research questions and have the discipline if I have a good research methods right around that. So we do structure those as products.</p><p>And so, so actually one of the things we think of is, the work that we do in non-small cell lung cancer is an extremely large data set. It also has high depth on the molecular basis of non-small cell lung cancer. And it's created in a way that actually allows you to make those questions from translational through post-approval medical and doing that.</p><p>Eureka is the technical environment. It is a cloud environment we are working in, and it actually allows you to do on-the-fly actually insights. So, outcome curves, which are called Kaplan-Meier and a few other measures. I can compare groups. I can compare cohorts. I can ask questions. It's actually exceptionally fast.</p><p>And so this ability to navigate through a series of questions, its ability to make comparisons of alternative groups of patients on different classes of questions and finally get down to the patient cohort of interest that you may want to move into in the next phase, your research is done a lot faster. </p><p>Now we took that, and now we're integrating more AI and ML into that. So we now have created probably what's one of the leading solutions for doing clinical study design. So we can optimize different features of that study design. We can actually release lab values. We can change parameters. There's a level of kind of fitness, ECOG scoring. We can actually modify that and show what the changes would be in the addressable patient population, and actually optimize that study design all the way down to the base activity level. And we're basically creating a digital object that's rooted on huge amounts of data. Underneath the 4.5 million records runs inside that particular area.</p><p>There is no other solution in oncology, hematology that gets anywhere to that depth of information that can reflect, with different optimization, to the endpoint and even reflect statistical power. </p><p>Now we're integrating in work around health disparities. How do you assure that if it's a disease like multiple myeloma, which may disproportionately affect black Americans, that I'm actually getting adequate representation of the groups that in fact, actually may be afflicted by the disease and actually assure the design of the study itself assures their representativeness actually in that work?</p><p><strong>Harry Glorikian: </strong>This dataset, what are some of the features of it? What is it? What sort of information does it have in it that you would be pulling from? Because my brain is like going on all sorts of levels that you would pull from, and some of it is incredibly messy.</p><p><strong>Jeff Elton: </strong>Yeah. So you are absolutely right. And so there have been expressions in the field of people who do work in real-world data that the real world's messy you know, fields may be empty. Do you know, as an empty field, because nothing got put there where's the empty field, because in that electronic medical record environment empty means it was not true of the state of the patient. That may sound like a nuanced thing, but sometimes empty actually is a value and sometimes empty is empty. And so you start getting into some things like that, which you start thinking about, like, those are pretty nuanced questions, but they all have to do with, if you don't know which it is, you don't know how to treat and move the data through.</p><p>So back to your question here a little bit. What we actually, the sources of where we bring data from are portions of a clinical record. So, you know, we work under businesses, the work we do is either research- or quality-of-care-focused. And so, you know, we work actually, whether it's with the American Society of Clinical Oncology and et cetera, appropriately under all HIPAA guidelines and rules for how you interact with data around doing that. So I'll put that as a caveat because methods and how you do that security and everything else is super, super important. </p><p>We have a clinical workforce. These are all credentialed people. Most of them have active clinical credentials. Most of them were in the clinic 10 to 15 years and even still interact on it. So a lot of my people feel they're still in clinical care. It's just happens to be a digital representation pf the individuals that are in there. And we're seeing, whether it's features of notes, depth of the molecular diagnostic information, radiologically acquired images that may show how the tumor progressed, regressed, et cetera, that's in there, any other, the medications, prior treatment history, comorbidities that may confound, actually, response. So all those different features are brought together, but if you don't bring it together consistently, we have tens of thousands of lines of business rules, concepts, and models that we try to publish around about how you bring a concept forward.</p><p>So if you want to bring a concept forward, want to do it consistently, we come out of 10 different electronic medical record environments, and we're, we're actually interacting with the work of 1,100 medical oncologists and hematologists, et cetera. You have a lot of heterogeneity. Handle that heterogeneity with a clinical informatics team into a set of rules as it's coming forward so that everything comes to the point that you can have confidence in that, you know, in that particular analysis and that presentation.</p><p>So there's something called abstraction, which is a term applied to unstructured data—and unstructured just means a machine can't read it on the fly. And so we're actually interacting with that, which could have a PDF document or something else. And from that, we use the business rules to then develop something that now is machine-readable, but actually has a definition behind it that one can trust, that one can, that kind of comes from some published basis about why did you create that variable? So I could measure outcomes of interest progression-free survival, adverse events, severe, whatever the feature of interests can. Help me answer the question we try to kind of bring through. So we're usually creating about 120 unique variables that never would have been  machine-readable, in addition to the hundred, that probably were machine-readable when we bring that together. </p><p><strong>Harry Glorikian: </strong>So you're using a rule-based AI system, maybe not just a straight natural language processing system, to parse the words.</p><p><strong>Jeff Elton: </strong>Yeah. So natural language processing gets a little tricky. We do. We have, actually, excellent natural language processing. We'll sometimes use that for pre-processing, but you have to be careful with natural language processing. If it has context sensitivity, and if you're parsing for sets of reliable terms, it can actually be relatively accurate. If I'm doing something like a laboratory report that's so discreet, so finite, and it's so finite with how many alternatives you have with the same concept, it works really well. When you start getting into things that are much more nuanced, you actually start to have a combination of technology with the expert humans to actually have confidence in the ultimate outcome.</p><p>Now we do have some very sophisticated AI models. Like I’ll give you an example. When you're looking at a medical record, usually metastatic status has just done a point of first but diagnosis in cancer care. So if the patient actually progressed and they made through there that they don't update the electronic medical record because they want to maintain what the starting point was when therapy was administered.</p><p>But a biomedical researcher wants to know it at a point in time. So we have models that can literally read the record and bring back that status at any point in the time of disease progression. Now, would that work up to the grade of, say, for regulatory submission? No, but for a rapid analysis to pull back your question of interest and have it done in minutes, as opposed to weeks or months it works exceptionally well.</p><p><strong>Harry Glorikian: </strong>Understood. Understood. So now you and I both know that clinical trials, you know, are available only to a certain portion of the population really participate for  a whole bunch of reasons. And then if you go down to sort of, you know, equality or, or across, you know, the socioeconomic scale, it, it gets even, it gets pretty thin, right? You guys, I, I think you've been pushing around inequality and cancer care and you have this program called ERACE which I think stands for Engaging Research to Achieve Clinical Care Equality. So help me out here. What is that? </p><p><strong>Jeff Elton: </strong>So we are, as an organization we're super privileged to have a very, very diverse workforce. And you know, men, women all forms of background races, ethnicities, and we really value that. And we've tried very hard to build that in our scientific committee. And I think when the public discourse around kind of equity, diversity, inclusiveness came forward, and you know, as you know, Harry, this has been a unprecedented period of time for just about anything, any of us. I mean, COVID-19 and social issues. You know, things of that nature. It's, it's really been a very, very unprecedented time in terms of how we work and how we interact and the questions.</p><p>Our organization and our scientists actually came forward to me and said, you know Jeff, we have a tremendous amount of data. We have partners like American Society of Clinical Oncology and some of the leading biopharmaceutical researchers in the world. And we've got technology, et cetera. We want relevance. We really want what to make contributions back and we believe that actually, we can do some research that no one else can do. And we can actually begin to deliver insights that no one has the capability to do. Would you kind of support us in doing that? And so we put together the ERACE program and it actually was named by a couple of our internal scientists.</p><p>And the program actually now is being collaboratively done. We've done a couple of webinars, with you know, some of our partners and that's included, you know, folks from, whether it's AstraZeneca, Janssen, and BMS, et cetera. It's become something around, how can we rethink how research takes place and actually assure its representativeness for all groups, but particularly in specific diseases. It impacts different groups differently. And so can we make sure it reflects that? Would we be generating the evidence so that they can in fact be appropriate beneficiaries earlier? And a lot of this came from when we looked at aspects of diagnostic activity we could say that, you know, black American women have a higher incidence of triple negative breast cancer and a few other diseases. When we look at patterns of diagnosis and activity, unfortunately, the evidence that we even have is not substantially in the practice of what we're actually seeing sometimes when we begin reviewing our data. </p><p>And so we began confederating through our own work. We now have actually set up research funding. So we actually now will fund researchers who come in the academic community. If they come up with research proposals that have to do with, you know, health related disparities, whether it's economically based, or if it's racial, ethnically based. Those questions. </p><p>We've got an external review board on those proposals. We'll provide them data technology and financial support to get that research done. We're doing it with our own group and we're doing it collaboratively with our own kind of biopharma sponsor partners kind of as well. So for us right now, it's about confederating an ecosystem, it's about building it into the fabric about how research questions are framed, research is conducted, clinical trials are conducted, and then actually those insights put into clinical practice for the benefit of all those groups. And so, you know, it's even changing where we get our data from now. So it's, it's like an integral part of how of everything we do. </p><p><strong>Harry Glorikian: </strong>So you saw, I don't want to say an immediate benefit, fooking at it this way or bringing this on, but I mean, you must have seen within a short period of time, the benefit of, of, I don't want to say broadening the lens, but I can't think of a better way to frame it. </p><p><strong>Jeff Elton: </strong>We were surprised how quickly, whether it was academic groups or others, rallied around some of the concepts and the notions. And we were surprised how quickly we were able to make progress in some of our own research questions. And we were pleased and astonished, only in the best ways, that we saw industry and biomedical research, the whole biomedical community, attempting to integrate into their research and the questions that they asked actually different ways of approaching that.</p><p>And in fact, it's probably one of the most heartening areas. You couldn't have legislated this as quickly as I believe leading industry biomedical innovators decided it was time to kind of change portions of the research model. And you made a, Harry, you made a statement earlier on that. It's not just about kind of us analyzing data. Sometimes bow you find that to broaden actual, say, clinical trial participation, I actually have to go to sites that historically didn't conduct clinical trials. I may need to have investigators that are trusted, because some of the populations we may want to interact with don't trust clinical research and have a long history about why they didn't trust clinical research.</p><p>So you're changing a social paradigm. You're changing research locations and capacity and capability for that research. So we're now moving research capacity out into community settings in specific communities with this idea that we actually, we actually need to bring the infrastructure to the people and not assume again, that people want to kind of go to where the research historically was conducted because that wasn't working before, you know?</p><p> </p><p><strong>Harry Glorikian: </strong>At some point, you turn the crank enough, you start to influence, you should be able to influence, you know, standard of care and all that stuff, because if you're missing data in different places, you’ve got to make sure that we fill these holes. Otherwise we're never going to be able to diagnose and then treat appropriately.</p><p><strong>Jeff Elton: </strong>Generate the evidence that supports actually doing that and do it on an accelerated basis, but also that it gets confidence for those decisions. Absolutely. That's part of our goal. </p><p><strong>Harry Glorikian: </strong>Yeah. So I want to jump back in time here and sort of go back to your your <i>Healthcare Disrupted</i> book. You know, I feel like, you know, we're on the same page because I think the message was, you know, pharma, devices, diagnostics, healthcare, they need to rethink their business model to respond to this digital transformation, you know, which is obviously something in my own heart. I've been sort of banging that drum for quite some time.</p><p>In particular, you argued in the book that real-world data from EMRs, wearables, the Internet of Things could be combined to change how and where healthcare is delivered. Is there a way in which like Concert AI's mission reflects the message of your book? Can I make that leap?</p><p><strong>Jeff Elton: </strong>I appreciate the way you asked the question and I think if you said our principles and perspectives about that, we need to kind of focus on value and outcomes, and then we're going to be bringing insights, digital cloud, and a variety of other tools to underpin how we work and operate. Absolutely.</p><p>And in fact, I think, you know, positively. I had a lot of engagement and did a lot of interviews, even as we were putting the book together, which took place over a couple of months ago, it was probably, you've done your own books. Whatever you think it's going to be, it's a lot longer. So I'll leave it at that. I have recovered from the process now, but I think we had a lot of engagement, whether it was with medical community, biopharma, leadership, community, et cetera. And I think that alignment is some of the alignment we have with our partners today. It's actually around some of the same principles.</p><p>What I couldn't have predicted, in fact, I was a couple of years ago and this probably would have been towards the tail end of 2019, I was already starting to think about, okay, I've recovered from the first writing. How did I do? And what would I say now? And at the time I was beginning to say certain things seem to be taking shape slightly more slowly than I originally forecast, but then COVID-19 happened. And all of a sudden certain things that we kind of had thought about and kind of had put there actually accelerated. And in fact, I think, you know, out of adversity, you'd like to say we bring sources of strength we didn't know we would kind of be beneficiaries of. But out of that, you could argue this concept of say a decentralized trial activity.</p><p>So we have, let me pick up, you know, I'm one company, but let me pick a parallel company that I have respect for, say, Medable as an example, and Michelle [Longmire] leads that company, it does a very nice job, but that's the idea. Everything could be done remotely. I can actually do a device cloud around the individual. I can do a data collection and run RCT-grade trial activity. Now that doesn't work super well in oncology, hematology, et cetera, where I'm, you know, I'm doing chemo infusion and I have to do very close surveillance, but that concept is an accelerated version and got broader adoption and actually was part of some of the COVID-19 kind of clinical studies and capability. And it's not going to revert back. </p><p>So actually what happens is you find it has a level of efficiency, a level of effectiveness and a level of inclusiveness that wasn't available before, when it had to do facilities-based only. Now we ourselves now we're asked to accelerate, we bring technologies and integrate them into provider settings for doing retrospective analysis. But actually during that period, not only did we bring our clinical study design tools and use AI and ML for doing that, which led to, we've supported the restart of many oncology studies now, and actually the redesign of studies to be able to move into different settings that they never were in before.</p><p>And actually now we're beginning to use some of our same approaches for running prospective studies, but from clinically only derived data sources. It’s a very different paradigm about how you conduct clinical research. So when you think about this, there are unpredictable shocks, you know, which, you know, some of may have called Black Swan events or whatever you may ascribe to it, that actually are now consistent with everything we did. But actually accelerating it and in a weird way back on trajectory, if you will. </p><p>But I think, yes, everything we're doing was informed by a lot of that seminal work and research and foundation about what worked in health system and didn't how are people being beneficiaries or not? How do we need to change how we do discovery translational clinical development? And we're very committed to doing that. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, it's interesting cause you almost answer my next two questions. I'm really hoping it doesn't slide backwards. That's one of my biggest fears is, you know, people like to revert back to what they were used to.</p><p><strong>Jeff Elton: </strong>But you know, maybe to encourage you and me. So one of the things, if you take a, let's take a look at a teleconsult. So during COVID-19, HHS opened up and allowed as a coded event, doing a digital teleconsult for kind of digital medicine, telemedicine, and that was put into place on an emergency basis by HHS. And then before the outgoing HHS had that, it's now made permanent. And it's now part of the code that actually will continue to actually be a reimbursable event for clinicians. That was actually super important during COVID-19. What’s not that well known is, not only did that allow people to be seen, but hospital systems were really financially distressed because most of their work was informed by kind of, you know, elective procedures and things of that nature. And that couldn't take place. But the teleconsult became a very important part of their even having economic viability, which you can't underestimate the importance of that during a pandemic. Right. So now that's part of how we're going to work. </p><p>My personal view is, now that people are using digitally screening tools, they have decentralized trials, some of the solutions that we're putting into place, AI-based, bringing RWE as part of a regulatory submission, I don't see anything going back. And the work we're doing is if we can start putting 30 to 50% time and cost improvements and add more evidence around a decision, more robustly than we did before, that's not going backwards at all.</p><p><strong>Harry Glorikian: </strong>Good. That's that makes me. I'm hoping that we're all right, because we've been saying this and beating this drum for quite some time.</p><p>It's interesting, right? Because I don't think I've gotten over the whole writing thing because I've got a new book coming out in the fall. So you know, I, I couldn't help myself. I hope, you know, we. We're able to give the listeners sort of a view of where this whole world is changing, how data's changing it.</p><p>I mean, I've had the pleasure of talking to people about digital twins and that sort of data. And I believe that this, we're gonna be able to make predictions, as you say off this data almost proactively. It's interesting because I do talk to some people who are in the field that look at me strange when I say that, but after working with different forms of data in different places for so long, I can see how you can look at things predictively and sort of, you know, decide what's, you know, see what's going to happen almost before it happens for the most part, if you have a big enough data set. </p><p><strong>Jeff Elton: </strong>So we do a lot of prediction thing in the AI and ML world. And we predict, you can actually be relatively accurate on who's going to adhere and not adhere. You can begin to look at the biological response to being placed on a new therapy and understand whether that response is kind of in a direction that, that patient's going to remain on that therapy, or you need to discontinue to be placed on a new therapy.</p><p>And you're right. And in fact, some of these features…well, the question, we use it from generating insights to design and hopefully improve outcomes, et cetera. That's a rapid process. I mean, I've seen things in the last three years in setting up Concert AI that would have taken me a decade to have seen in previous methods. But we're still not as fast and as effective as we can be.</p><p>And the very fact that I can in my digital laboratory, if you will, create AI/ML to predict whether that patient is going to be discontinued or continue on to that course of therapy. Some of that needs to be brought into confidence tools that can start to inform parts of practice as well. They're not ready for that. They have to ascend to that. But when you look at these, some of these, whether it's coming in as software, as a medical device, sets and solutions to augment, are going to add a huge, huge amount of utility. And you're finding a lot of interest, even biomedical innovators are looking for predictive tools, too, complement their medicines.</p><p>And you know, we're doing a couple of things that would be definitely considered in a more confidential area around doing that right now. And I have to tell you I've been so pleased and it's just for me, it's so, so catalyzing of our energy to be brought into this, to see people willing to reshape the paradigm about how they do things that actually will reshape how medicine's delivered and care provided too. </p><p><strong>Harry Glorikian: </strong>Oh yeah. I mean, look, ideally, right, I think every physician wants to give the patient the optimal therapy. Not pick the wrong one and have to redo it again. But, but I think a lot of these tools are also gonna lend themselves to adjudication.</p><p><strong>Jeff Elton: </strong>Absolutely. </p><p><strong>Harry Glorikian: </strong>Right? And that is a huge paradigm shift for everybody to wrap their head around. And I think we're going to get pushback from some people, but I can't see how you don't end up there at some point. You can see where it's going. You know, what's going to work, here's the drug. And if it doesn't work, here's the data to show [why] it didn't work.</p><p><strong>Jeff Elton: </strong>Well, and actually and Harry, to your point, right now you're thinking about how payers authorized the treatment that's proposed by our clinician for super expensive medicines. Right? But if I'm an oncology, I can tell you right now that claims data as a single data source can't tell you much about whether that patient responds, whether they're being treated according to NCCN ASCO guidelines or not. So you're wondering what's the basis of that. Whereas I can actually look at the data and I can understand how that patient presents and I can see what's actually the intended treatment. And you can immediately say that perfectly makes sense, given how everything's matched up and I can continue to kind of say what that response is it consistent with what I would have hoped for placed in that patient on that specific treatment. So to your point, this is going to change all sorts of things.</p><p><strong>Harry Glorikian: </strong>I love it when it changes on that level, it just makes me all happy inside. So, Jeff, it was great catching up with you. I hope when this pandemic is open, we can get together in person and you know, have a beer. Maybe we'll even bring Arshad because I think he's been working in this whole data area with a number of companies for a while now. </p><p><strong>Jeff Elton: </strong>Yeah. Would love it.</p><p><strong>Harry Glorikian: </strong>Excellent. </p><p><strong>Jeff Elton: </strong>All right. </p><p><strong>Harry Glorikian: </strong>Thank you.</p><p><strong>Jeff Elton: </strong>Thank you too.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p><p> </p>
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      <itunes:title>Jeff Elton On How To Speed Drug Development Using &quot;Real-World Data&quot;</itunes:title>
      <itunes:author>Harry Glorikian, Jeff Elton</itunes:author>
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      <itunes:summary>Harry&apos;s guest this week is Jeff Elton, CEO of a Boston-based startup called Concert AI that&apos;s working to bring more &quot;real-world data&quot; and &quot;real-world evidence&quot; into the process of drug development. What&apos;s real-world data? It&apos;s everything about patients&apos; health that&apos;s not included in the narrow outcomes measured by randomized, controlled clinical trials. By collecting, organizing, and analyzing it, Elton argues, pharmaceutical makers can it design better clinical trials, get drugs approved faster, and—after approval—learn who&apos;s really benefiting from a new medicine, and how. 
</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week is Jeff Elton, CEO of a Boston-based startup called Concert AI that&apos;s working to bring more &quot;real-world data&quot; and &quot;real-world evidence&quot; into the process of drug development. What&apos;s real-world data? It&apos;s everything about patients&apos; health that&apos;s not included in the narrow outcomes measured by randomized, controlled clinical trials. By collecting, organizing, and analyzing it, Elton argues, pharmaceutical makers can it design better clinical trials, get drugs approved faster, and—after approval—learn who&apos;s really benefiting from a new medicine, and how. 
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      <title>Noosheen Hashemi on January&apos;s Personalized Tech for Controlling Blood Sugar</title>
      <description><![CDATA[<p>In a companion interview to his June 7 talk with Stanford's Michael Snyder, Harry speaks this week with Noosheen Hashemi, who—with Snyder—co-founded the personalized health startup January.ai in 2017. The company focuses on helping users understand how their bodies respond to different foods and activities, so they can make diet and exercise choices that help them avoid unhealthy spikes in blood glucose levels.</p><p>January's smartphone app collects blood glucose levels from disposable devices called continuous glucose monitors (CGMs), as well as heart rate data from patients’ Fitbits or Apple Watches. The app also makes it easier for users to log the food they eat, and see what impact each food has on their glucose levels. Once the app has enough data, January’s machine learning algorithms can start predicting the effects of different foods and activities on blood glucose. It can then recommend meals and exercise that’ll help users keep their blood glucose in a healthy target range. </p><p>The goal isn’t to prevent glucose spikes completely, but rather to prevent diabetes from emerging over the long term in people at risk for a cluster of serious conditions known metabolic syndrome. That could help individuals live longer, healthier lives. And at a population level it could save billions in healthcare costs.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p>1.Open the Podcasts app on your iPhone, iPad, or Mac.</p><p>2.Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p>3.Scroll down to find the subhead titled "Ratings & Reviews."</p><p>4.Under one of the highlighted reviews, select "Write a Review."</p><p>5.Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p>6.Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p>7.Once you've finished, select "Send" or "Save" in the top-right corner.</p><p>8.If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p>9.After selecting a nickname, tap OK. Your review may not be immediately visible</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian:</strong> I’ve been making the show long enough that you can see a kind of family tree emerging, with branches that connect many of our episodes.</p><p>That’s definitely the case with today’s interview with Noosheen Hashemi, the co-founder and CEO of the precision health company January AI.</p><p>The branch leading to Hashemi started back in June of 2021 when I interviewed Professor Michael Snyder, the chair of Stanford’s Department of Genetics.</p><p>Snyder is a huge proponent of using wearable devices to help people make better decisions about their own health. In fact, the day we spoke he was wearing seven separate devices, including one called a continuous glucose monitor or CGM.</p><p>A CGM is standard equipment these days for about 3.5 million diabetics in the U.S. who need to know when their blood sugar is too high and when it’s time to take more insulin. But Snyder believes that blood glucose data could also help tens of millions of other people who don’t yet take insulin but may be on their way to developing full-blown diabetes.</p><p>Back in 2016 Snyder got a visit from Hashemi. She’s a longtime Silicon Valley tech executive and philanthropist who’d been searching for a way to use AI, wearable devices, and big data to get more people involved in medical research. Hashemi told me it took just two meetings for her and Snyder to decide to join forces to co-found January. </p><p>The company makes a smartphone app that collects blood glucose data from disposable CGMs, as well as heart rate data from patients’ existing wearable devices such as their Fitbit or Apple Watch. The app also makes it easier for users to log the food they eat, and see what impact each food has on their glucose levels. Once the app has enough data, January’s machine learning algorithms can start predicting the effects of different foods and activities on blood glucose. It can then recommend meals and exercise that’ll help users keep their blood glucose in a healthy target range. </p><p>The goal isn’t to prevent glucose spikes completely, but rather to prevent diabetes from emerging over the long term in people at risk for a cluster of serious conditions known metabolic syndrome. That could help individuals live longer, healthier lives. And at a population level it could save billions in healthcare costs.</p><p>As you’re about to hear, Hashemi and I talked about why glucose monitoring is so important and what companies like January can do in the future to make the predictive power of AI available to more people.</p><p><strong>Harry Glorikian: </strong>Noosheen, welcome to the show. </p><p><strong>Noosheen Hashemi: </strong>Thank you, Harry. </p><p><strong>Harry Glorikian: </strong>So, it's great to have you on the show. It was interesting that, you know, the minute Dr. Snyder mentioned the company, I was immediately Googling it. And I was like, oh, I have to talk to this company. I have to understand what they're doing and, and what's going on.</p><p>And to be quite honest, I've been doing my homework for the past couple of weeks. And I'm like: I think I have to call my doctor and get a ‘script to actually use the product. </p><p>Just to help everybody get up to speed on this, can you bring people up to speed on where we are with glucose monitoring and health in general? Whether they have diabetes or whether they're just, you know, what, I, maybe someone like me who I hope is a generally a healthy person.</p><p><strong>Noosheen Hashemi: </strong>Sure, absolutely.  Yeah. So from Mike Snyder's four-year multi-omic IPOP research,  we learned that people who are so-called healthy and have healthy A1C levels could actually have huge glycemic variability. He sometimes calls these people with pre pre-diabetes.  I think eight people developed diabetes during his four-year study.</p><p>There haven't been enough longitudinal studies in healthy people with glycemic variability to suggest that they will necessarily develop diabetes. So to date, there's really no conclusive evidence that healthy people can benefit from balancing their blood sugar. Also, not all sugar spikes are bad and a two-hour bike ride might produce a big spike, but that's fine. It's not the spike by itself that we worry about. It's really  how high the spike is against our baseline, against the population, whether the spike comes down quickly, the shape of the curve, the area under the curve. These are the things that are illuminating in terms of our state of metabolic health.</p><p>So  at January we really view metabolic health as a spectrum. So we want to support people to figure out kind of where they are on that spectrum. And to try to really help them move up to healthier points on that spectrum. So we don't see it as a moment in time where you are something or you are not something. You are kind of on a spectrum of metabolic health, and we continuously want you to be self-aware and, and really improve your location on that spectrum. </p><p>Now, something to keep in mind,  and why I think it's important for people to take action on this, is that 84% of the 88 million people believed to have pre-diabetes today, and 22% of the 34 million people that are believed to have diabetes today, are not diagnosed. They are undiagnosed. That's 75 million people walking around with pre-diabetes and don't even know. So, if we don't measure people's health, that doesn't mean they're healthy.  So we really encourage people to be  you know, vigilant with their health learn so that they can, they can act, you know, self-advocate. Be able to self-manage.</p><p>So we do think that wearables are an easy, useful way to kind of see where things are, but then you need companies like January to make sense of it all. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean  you know, it's interesting because you know, I'll go to my doctor and they'll do that one time measurement. It's like taking your car in and you're like, it was making a noise. It's not making the noise right now, but, you know, try and diagnose when that event is not happening. Whereas with the wearables, I can, I can actually see, you know, my, my heart rate variability change depending on my exercise process. I can see my sleep change if I had one too many glasses of wine. I have to tell you, I hate it because I would like to have more wine than my monitor allows me to have, but you know, you see the immediate feedback, which would let you sort of course-adjust accordingly. And you know, when I, there was a paper, I believe that was published in Israel where there, I think it was 500 people that they looked at and where you could see that every person, they could eat the same foods, but their spikes would be different or how long that spike would be based on genetics, based on their microbiome. And so if you're not monitoring, how will you know that your quote, healthy diet is actually healthy for you? </p><p><strong>Noosheen Hashemi: </strong>You don't.  You definitely don't. And yes, that's study shows variability between people, but also we've shown glycemic variability for the same person. So we had somebody at the office have the same good sleep nine days in a row, and they had a different glycemic response to that. Mostly every single day, nine days in a row, depending on how much they had slept, how stressed they were, how much workout they had done. And most importantly, how much fiber was in there.  So we are radically different person to person, and this is why we encourage people.  No one is going to know you as well as you do. And no one's going to be as interested in your health as you are  as you should be, as you might be. So we really encourage people to learn, learn, be self-aware self-advocate, self-educate. </p><p><strong>Harry Glorikian: </strong>So, help people understand this term metabolic syndrome, you know, and, and talk about how many people, maybe who are pre-diabetic go to full-blown diabetes, you know? </p><p><strong>Noosheen Hashemi: </strong>Okay. Yeah. So  I mentioned that 122 million people have either diabetes or pre-diabetes in America.  88 million plus 34 [million]. And then a larger number of people, if you believe Mike Snyder's pre-diabetes number, that's even a larger number. But metabolic syndrome is a cluster of conditions that leads to type 2 diabetes, heart disease, and stroke. These conditions are basically high blood sugar—which has been historically measured by A1C  blood tests called hemoglobin A1C, but increasingly it's measured by time and range using a CGM—high cholesterol and triglyceride levels, high blood pressure, high BMI, and high waist to hip ratio. So this kind of fat right in the middle.</p><p>So the 2002 diabetes prevention study showed that unless there's an intervention, 58% of the people that have pre-diabetes could end up with diabetes. And usually they think of this prevention as weight loss.That's what the DPP programs, diabetes prevention programs, are about.</p><p>So if you have pre-diabetes the cells in your body don't respond normally to insulin. And insulin is a hormone that facilitates your cells taking up glucose, which is a source of energy for your body. Your pancreas basically makes more insulin to try to get the cells to take up glucose. You sort of get into this terrible vicious circle. So eventually your pancreas can't keep up and then you have this sort of excess sugar sitting in your bloodstream, which is really a problem. And it can really lead to microvascular complications like retinopathy or neuropathy or diabetic nephropathy.</p><p>So as you know, diabetic retinopathy is the most common cause of blindness in working adults in the developed world. And in diabetic neuropathy, essentially high blood sugar can injure nerves throughout the body. And usually damages nerves in the feet, in the legs and feet, which hear about foot ulcers and amputations coming from this.</p><p>And of course  diabetic kidney disease. Nephropathy is something that  is the number one cause of kidney failure, actually. Almost a third of people with diabetes develop kidney disease. So you add this with the high blood pressure we can increase the force of blood through your arteries and damage arteries. And then you have excess blood pressure, you knowblood pressure and diabetes together, basically increase your risk for heart disease. So it's really a terrible cluster of conditions to have. </p><p>And so if you have three of these conditions, three of these five, you essentially have metabolic syndrome. And if you have metabolic syndrome, you're at a higher risk of developing these different diseases. You really don't want to go down this path. The path itself is not great. And then the comorbidities from this path are just worse and complications of course are very painful, costly, and potentially, deadly.</p><p><strong>Harry Glorikian: </strong>And so that's one end of the spectrum, but in reality, even someone like me who tries to watch he eats, who goes running regularly, or tries to go running regularly. I mean, you know, I have sleep apnea because they tell me my BMI is too high. Right. So  but this sort of technology, you know, I could be spiking and keeping a high glucose level, which would inhibit my ability to lose weight, et cetera. So how can more data about blood glucose, and its relationship to diet, help people avoid diabetes?</p><p><strong>Noosheen Hashemi: </strong>Yeah. So for so long, we've been able, we've been told just to avoid refined sugar, refined flour, eat a lot of vegetables, walk 10,000 steps. You'll be fine. Or, you know, weight loss is given as the end goal to cure all diseases. You know, why don't you, Harry, drop 25 pounds? Or how about drop 5 to 10% of your weight? </p><p><strong>Harry Glorikian: </strong>Just like that!</p><p><strong>Noosheen Hashemi: </strong>It's true, weight loss really improves biomarkers. But how many people who get this advice can actually do that? And at the timeframe that they need to. So we feel like that's just not a practical approach to solving a problem.</p><p>A more practical approach is to really figure out what works for each individual. You know, you mentioned you've dialed your own wine drinking based on its impact. I've done the same. I was, you know, enjoying two, three sips of wine. And then I learned that it would wake me up in the middle of the night. So I stopped having even the two, three sips of wine. So don't feel bad that you can't have your second and third and fourth glass. But basically we offer a multitude of levers that you can dial for your lifestyle. </p><p>For example, intermittent fasting and calorie restriction together have shown benefits in clinical studies for improving insulin sensitivity, if you do them together. So you can't just fast and then gorge yourself. But if you fast and you restrict your calories together, you can really improve insulin sensitivity. So we let you, we help you using the January program to learn to experiment with fasting and calorie restriction and figure out what works for you. How much of it you can make. You know, slowly  help you essentially build it into your habits and your daily routines to fast. You know, we increase your fasting period 15 minutes at a time. So you may start with January you're eating 16 hours a day and you're fasting eight hours. You may end the program having reversed that.</p><p>And other thing is we, we really pro promote fiber consumption. So increased fiber intake has been associated with higher levels of bacteria-derived short chain fatty acids, which is a regulator of GLP-1 production. As you know, GLP-1 is an incretin and a recognized regulator of glycemic homeostasis and satiety. So we help you track how much fiber you're eating. We encourage you to eat more, knowing what foods spike you, spike your blood sugar, helps you basically eliminate or reduce consumption of those foods. It tells you how much, how much of those things to eat  or alternatives that kind of honor your food preferences  and food tastes, but have lower glycemic index. If you can't walk 10,000 steps a day, okay. January tells you how much you need to walk, when you need to walk to keep your blood sugar in a healthy range. </p><p>So you really need data  to, to dial your lifestyle. There are many levers and there are no silver bullets and there's too much to keep in your head. Which is why it's nice to have AI sort of help you kind of make, you know, take it all in to a platform and then synthesize it and give you insights.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, like,  I've got my, my Apple Watch. I've got my, you know, Whoop band. Right.I don't have as many as he [Mike Snyder] does, but  I know, I think my wife would kill me if I, if I was wearing eight things, but, but it's, you know, it's true. Like it's, you know, each one of these, because they're not holistically designed, give me a different piece of data that then I can then react to. You know, one is probably more of a coach that causes me to push a little bit farther, you know, et cetera. So  I mean, I hope one day we evolve to something that's a little bit more holistic so that the average person can sort of, it becomes more digestible and more actionable. But you know, I do believe, based on my conversation with him and even all the work that I do multi-factorial biomarkers or multi biomarkers are going to be how you manage, you know, yourself much better.</p><p>But you know, tell me how January started. What is the thing that excited you about what you saw and what attracted you to this role? </p><p><strong>Noosheen Hashemi: </strong>Yes, absolutely. So January's origin story started with me deciding in 2016 to start my own company, essentially, after many years of running a family office, investing in, serving on boards of companies and nonprofits.  I had early success at Oracle  where I rose basically from the bottom of the organization in 1985 to vice-president by age 27. Along [with] Mark Benioff, who at the time was 26. It was quite the time, taking the company from $25 million to $3 billion in revenue. So  you know  a really, really amazing tenure there. </p><p>In 2016, I started this massive research in, into theses that were getting a lot of attention, you know, big trends over the next decade. And most importantly, what I really knew. You know, the classic kind of [inaudible].  I happened to attend a conference, a White House Stanford University conference on societal benefits of AI and how to integrate sort of ever-changing AI into everyday life and into the real world. It was a healthcare panel that took my breath away. So Faith A. Lee who had organized the conference with Russ Goldman. They suggested that interested parties run off to this machine learning and healthcare conference in LA two weeks. I immediately booked my ticket. </p><p>And there I met Larry Smarr. I don't know if you've come across him or not, but he was the first quantified self, maniacal quantified self person I had come across. And he had diagnosed his own Crohn's disease way before symptoms had manifested. And so, and then the common theme of this conference, between all of these presentations was that machine learning could essentially fill in for missing variables in research, not just going forward, but going backwards. So I was just hooked and I never looked back.</p><p>But it was a hard problem. My own husband had been investing in healthcare and warned of like an opaque sector. He was like, “Honey, this is heavily regulated incentives are aligned with acute disease, not with chronic disease, not to mention even anything or prevention. It's just not a market economy.” And he knew how interested I am in market economies. My first love before medicine was economics. So that's a whole different podcast. So he warned that I'd be sort of fighting this uphill battle, but I was not discouraged. I basically kept on researching.</p><p>I came across the MIT economist Andrew Lo. I don't know if you've come across him, but you should definitely talk to him. He's brilliant. His work showed that so little research had been done compared to what we really need to do in terms of medical research. And he comes up with ways of funding, medical research, he has a lot of innovative ways that we could really change  the whole model of medical and scientific research, but it kind of became obvious to me that the answer was that we needed to get everyone involved in research.</p><p>So just, just putting things in perspective. After Nixon declared a war on cancer 50 years ago, we now have some therapeutics and some solutions to cancer. We have really nothing for neurological diseases. We're spending over $300 billion just on symptoms of Alzheimer's— don't talk about even the cure or anything like that. We have nothing for aging, which is the ultimate killer. So it was, to me, the answer was obvious, which was, we have to get everyone contributing to research. Everyone should be looking at themselves. And then with the data, we can also learn across populations. And so deep phenotyping of the population sort of in a multi-omic way was the answer.</p><p>And that's what led me to Mike Snyder. I actually looked for multi-omics. I went to Stanford medical school and I met with the CEO. He said, what are you interested in? I said I'm interested in multi-omics. He said, you have to talk to Mike Snyder. And so  basically what Larry Smarr had done at the [San Diego Supercomputer Center] was to measure everything by himself. But Mike had essentially extended this kind of research to others, not just to himself. So not only sort of diagnosed himself with diabetes before the doctors, but he'd also run the Human Microbiome Project, the IPOP study, innumerable other research using metabolomics, proteomics, transcriptomics, wearables, and so on.</p><p>So he had spent a lifetime studying how people went from healthy to disease essentially. And he had taken a whole person approach, which is what I was interested in.  And so in his role as chairman of genetics at Stanford and head of precision medicine at Stanford, he was kind of already living in the future. And that's kind of where I thought, you know, all of us needed to go. </p><p>So our first meeting was supposed to take 45 minutes. It took 90 minutes. And in our second meeting, we agreed to join forces. It was like, it was instant.  It was just instant chemistry. Like the universe just brought us together.</p><p>And then all of a sudden sort of everything fell into place for me. Looking back at my life, I been getting ready for this actually all along. Caring for my dad who had been diagnosed with cancer too late to actually give him  a surviving chance. My mom  had been misdiagnosed with asthma when she had heart failure. So I had to leave my family, you know, everyone get together and really intervene. Really changed her, her lifestyle in order to save her life. She is thankfully now 91 years old and living fine, but it has absolutely no salt in her life and a completely different, different life. My own health, my own health journey sitting in front of a computer for three decades, more than three decades, as we know that now they call it called sitting, you know, </p><p><strong>Harry Glorikian: </strong>Right, the new smoking. </p><p><strong>Noosheen Hashemi: </strong>The new smoking. My experience running a couple of hardware companies, my love of food, and my skills of kind of scaling companies. You know, all of this came together. I just basically became obsessed with prevention and I felt that, you know, food could play an outsized role.</p><p>So wearables, you know, give you signals from the body continuously, which is incredible.  But you also need to understand what people are eating and, you know, we can talk about that a little bit later, but we can basically now imagine predicting chronic conditions, much like Larry and Mike had. And then, you know, postponing and potentially preventing them. And if they've already started, prevent them. </p><p><strong>Harry Glorikian: </strong>Yeah, I was lucky enough to be there and help when Evidation Health was getting off the ground and, you know, once we started to see the data coming in, I remember looking at the data. Is that real, like, is that actually happening? And I was like, the first thing I was thinking of was like, how do we design a clinical trial? Like if you're going to actually say that’s happening, that trial is not going to be trivial to set up, to make that claim, but you could see it in the data.</p><p>And, you know  I actually think some of the shifts that you're talking about, if it wasn't for things like the Affordable Care Act, if it wasn't for putting EMRs in place, if it wasn't for some of these shifts that have happened, you and I would still be, you know, battling this system that pays you no matter what. Right? And I think now is technology is a way that that can empower the average person to manage their own health. I'm not going to say optimally, but boy, a hell of a lot better than no information. I mean, at least some information can maybe give you an early warning light of something that you might be able to intervene in.</p><p>And I don't know anybody that likes being sick. I mean, I don't do well when this thing starts to age a little bit and not function the way that I want it to. So I've tried to try and keep it in as good of a running condition as I can. So it lasts as long as possible. I mean, I'm one of those people that would listen if I just drop dead at 95, like just boom gone. I would be so happy. Right. As opposed to this sort of chronic  dynamic. </p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p>So you mentioned AI, you mentioned machine learning. Where do machine learning and other forms of AI fit into January's service and you know, what do you do on consumer data? What kind of predictions can you make that wouldn't otherwise be possible?</p><p><strong>Noosheen Hashemi: </strong>Okay. I can first talk about exactly that. What did we do that hadn't been done before. What is really unique? What are we filling? So essentially in one word, it is prediction. You said it. </p><p>So  as you know, there've been, there have been glycemic prediction models for type 1 diabetes, but type 1, as, you know, is a serious condition, which, you know, precision really matters for type one. It's life and death.</p><p>But there hasn't been much done with type 2 diabetes. And so we set out to do predictions, for type 2 diabetes. And  the type 1 diabetes models are pretty simple. They basically are an insulin-carb calculus, essentially. But as we dug in, we realized that  you know, carbs are not all the same and that there are so many other factors besides carbs that affect glycemic response, including things like fiber fat and protein, water, and foods. We wanted to understand glycemic index and glycemic load of foods. So our major  machine learning  research projects, we basically did research for two and a half years before we sold anything.  One of the first things that we did was to try to understand the foods themselves. So we essentially built the largest database. Essentially we licensed all the, these curated food databases, and then we labeled the foods that didn't have food labels, because right now the only food labeling you really have is like grocery foods and chain restaurants.</p><p>So we labeled foods and then, recognizing that glycemic response was better associated with glycemic index than carbs alone, we set out to create glycemic index and glycemic load for all these foods. Then we ran a clinical trial and associated people's glycemic response to the glycemic load of foods they were eating. And then we turned that into a prediction. </p><p>So, the prediction model.  Why is it so cool? Well, why should you use your body to figure out how many glasses of wine is going to spike you? Why not have the AI tell you that? Why not do that in silico?  It's this weekend, you want to cook for your wife. You want to get her the right fried chicken recipe. Well, check those out in January, check out those recipes in January. If you know what the glycemic response of, of each one of those recipes could be, it really helps you compare foods. For kind of recipes you can comparefood items in your local cafe. You want to figure out what to eat. You don't have to put them through your body to figure out how you're going to respond, put them through the AI to figure out how you're going to respond.</p><p>And then in terms of, you know, how we're different. I mean, we essentially live in the future. We, we don't  we don't live in blood pricks and strips and blood glucose meters. We kind of live in the CGM, HRM (heart rate monitor) precision foodworld. We've turned food into actionable health data, which is a necessary ingredient you need if you want to understand people's glycemic response. And if you want to be able to predict it, and that is our huge innovation that nobody has. And we have quite a bit of IP around it. </p><p>There are a number of things that we're using. We're using meta-learning.  We're using  neural networks. I don't know how much I should say about what we're using. Yeah. We have one paper that we've put out, which is really, really, really simple.  But we, we always talk about, what kind of papers we want to put out and how much we should put out and how much should we not put out, but essentially you can look at the people that advise the company and you can see that, you know, we have a lot of expertise around  essentially… </p><p><strong>Harry Glorikian: </strong>But Noosheen, when you're doing this right, you need to, at some point, I think you need a baseline on say me for a certain period of time before the algorithm can then respond appropriately to that. And then doesn't that potentially change over time, time you mentioned the yogurt, the meusli, right.  And how that affects. So it's constantly gotta be in a feedback learning loop.</p><p><strong>Noosheen Hashemi: </strong>Yes. Yes. And the beauty of January is that essentially you don't have to wear a CGM 365 days out of the year. We think that with AI, we allow you to wear a CGM intermittently. So maybe you want to wear it every quarter  to update our models  just to see how things are going, but you don't need to wear it all the time. You can wear it for a period of training and then basically run your simulations in silico rather than through your body. Let the AI do the work. </p><p>So you definitely should wear it intermittently so we can update our, our models because people do age. People do have inflection points in their health. They get pregnant, they travel, a lot of things change, but we don't think it's necessary for healthy people to wear CGMs all year long necessarily. </p><p><strong>Harry Glorikian: </strong>So now we're talking about consumer behavior, right, for a, for a tech product like this. And if, you know, if you look at some of the data that I've read in some of these papers, you know, the potential market is significant. It's, you know, it's quite large. I mean, if I just said, you know, 15% of the people have pre-diabetic levels of glucose after eating, that would translate to like 50 million people in the United States alone. But the service depends on the CGM, the app, the external heart monitor. It's, you know, users have to be diligent about monitoring and logging food intake and activities during the introductory month. So for a quantified self junkie, I get it. They're all over this.  What's the plan for getting everybody else on to this? </p><p><strong>Noosheen Hashemi: </strong>Well, I think it's all about the user experience. And I think we have a, we have a long way to go as an industry and for us as well.As a company we have, what we imagine to be the user experience is nowhere near where we are today.</p><p>I'm old enough to remember world before Starbucks. So you would see ads on TV for MJB coffee, which is something you made at home. You know, I don't know if you remember that but Starbucks created a new experience, really a place between home and work where you would stop by for coffee.</p><p>And so the outrage around the, you know, $3, $4 latteat the time, do you remember that?Well, Starbucks continue to improve the experience. They added wi-fi, they had ethical coffee, they had kind of a diverse employee population. People's initial wonder and worry gave way to this, you know, gigantic global brand. And I think all of that is because of the experience that people had. I think we need to make health a positive experience. We need to—we, including January—need to make health something that people….it’s going to be a little clunky in the beginning, just like the old, you know, cell phones used to be. But while we're going through this process, the companies need to work on to improve the experience and people need to be patient with the clunkiness of everything  to get us to a place where these things become much, much more pleasant to use and easier to use, and essentially AI starts reading your mind about what you were eating and what you were doing. </p><p>That is going to happen. You know, I've gotten so used to my Apple Watch now that I actually love it. It actually is doing a very good job training me. Just at the right time, you know, “Come on, you still have a chance. Let's go.” You know, all the things that it's doing  I'm actually liking it. It's it's enjoyable. Because it Is coaching. And I feel like the answer for mass adoption lives in experience. We need to improve the experience dramatically. </p><p><strong>Harry Glorikian: </strong>It's interesting though, because I I'm play with a lot of these different things and I noticed that depending on how they're designed, how they're put together, it nudges me to do that much more or et cetera. I don't always listen. Human beings don't always do what they're supposed to do for their better good. But  you can see how, when the app is designed in a way to nudge someone the right in through the right mechanisms. And that's the problem, right, is trying to—not the same mechanism works on everybody. So you may have to have multiple approaches that the system tries like AB testing for a website to, to get them to do that.</p><p>But so, if the average person like me wants to do something like this, obviously I have to get a ‘script from my doctor, which just drives me crazy that I can't just—because I can buy a finger-prick, right, over the counter and poke myself a thousand times and then write down these numbers to see what happens. Which seems a little clunky in my opinion. But I can't buy the CGM that does it automatically. There's gotta be some medical person saying like, we're gonna make more money off this if we do this or do that, or, or it just doesn't make any sense to me.  How do you, how does January come at the expense reimbursement or the insured part of it, or is this just out of pocket for everybody? </p><p><strong>Noosheen Hashemi: </strong>Sure. So right now  government insurance, companies, and private insurance companies cover CGMs for people that are intense insulin users. So people that prick themselves four times a day. And so that's three and a half million out of 122 million people that have pre-diabetes or diabetes. So it's a very small population. And the rest is all cash paid. And it it's really out of pocket. </p><p>So we have an early access price of $288. And we, you know, we include the CGM, but you can also buy CGMs only from January. You can just, if you just want a CGM, you don't want to do anything else. You're just curious. You want an introduction to this world? You can order a CGM from January for $80 if you want to do that. So if you're one of the 12 million people that are insured by Kaiser—and Kaiser doctors will not write you a prescription, you can go to your doctor and ask them, they won't write you a prescription—come to January. We will give you a CGM. You can be introduced to the program and then, you know, take, take up January from there and experience the magic of CGMs alone. </p><p>I really do think they are a magical product because they they're showing you for the first time you kind of can see inside your body, which is really phenomenal. Unfortunately by themselves, they're not that effective and they're not that effective by themselves longitudinally. So if you really want to keep track of how you've been doing, what food spiked you, how you can, you know, what kind of exercise, things like that. They don't really have that additional intelligence, but they are magical, they are really magical tools. But, you know, you want an insightful experience on top of that. With the AI that can essentially synthesize this kind of data from your heart rate, monitor from your food, from your glucose monitor and sort of let you know how much to eat, what to eat, how to hack your food, how much to walk, how much, how much to fast, when to fast, how much fiber you're having, not having. That's where we come in. </p><p><strong>Harry Glorikian: </strong>I feel like at some point I'm going to need a big monitor in my house that just tells me these things as I'm walking by. But you know, it, it's interesting. I mean, we are entering the era of real wearables and apps and big data and, and, you know, but here's the question though. Soyou know, Apple just announced what's going to be the update to their iOS and, you know, pretty soon I'm going to be able to push a button and share data with my physician.  Which is funny because I go in his office and I pull up my phone and I'm like, here's my longitudinal. And here's my longitudinal. And I'm like, look, you can take the measurement because you're supposed to, but here's how it looks over the last three months as opposed to the one time when I'm here. Can January's customers export and share the data with their doctor? </p><p><strong>Noosheen Hashemi: </strong>We have a report  midstream at 14 days that you can share  with, with your doctor. But of course we intend to, you know, we have features planned that are going to make things way more easily done, much more easily in the future. We really strongly believe that people should own their own health data. We are huge advocates for people owning their own health data, because there are a lot of people hanging onto your health data and they don't want to give it to you. I'm talking about device makers and others. You're paying for the device, which comes with the data, but they don't want you to have the data. So they're like, “You can have the data and study it yourself, but you can't give that data to other people.” But that doesn't work.</p><p>We are living in a multi-omics world. Single 'omics by themselves, the single side node biomarkers, you know, “Harry, you just manage your cholesterol. Noosheen, you can't keep two things in your head. Why don't you just manage your A1C? And Mike, you should watch your blood pressure.” That just doesn't work. There are many, many markers that you've just, as you just said, that we need to keep in our heads. We can't keep them in our heads, but that's where AI comes in. We need to feed them into something and people must have the right to own their data and share their data with whoever they want. If it's their coach, it's their doctor, it's their wife or spouse or significant other, their dog. They should be able to share the data that they own.</p><p>As long as they provision it properly to whoever they want to give it to because you know, someone doesn't want their employer to know X, Y, and Z. Somebody else wants their coach to know that is people's rights. And coming from kind of a libertarian point of view, I really think people, you know, people should own their own data and they should be able to mix it with other data  for synthesis, if they want to. </p><p><strong>Harry Glorikian: </strong>Yeah, it's interesting. I mean, I totally believe in that. I always, I also understand that people may not understand the implications of sharing sometimes.  And that's not clear, but I do believe that the next iteration of where we're going to see this technology go is multifactorial software programs that can take a number of different inputs to give a much more holistic view of what's going on with me, so I can manage myself better share that information. My biggest worry is most physicians I know are—it's not totally like, it's not their fault, right….</p><p><strong>Noosheen Hashemi: </strong>They're so busy, so they're spending 15 minutes a year with you. And during that 15 minutes, you know, they're taking a point in time, you know, to see a snapshot of your health. And your health is way more complicated than that. We're talking about reverse engineering, 5 billion, years of evolution. And you know, they're going to get, see if such an infinite small part of that. We need to be way more self-aware.</p><p><strong>Harry Glorikian: </strong>Well, it's funny because I do have, some of my physician friends will be like, you want me to understand that genomic marker that whatever, like, I can't, I can't get my patient to manage their insulin level!</p><p><strong>Noosheen Hashemi: </strong>I have a lot of empathy for that. They just don't have the time.  I completely fully understand. Which is why I think we should carry more of the, we should have more agency over our health and we should carry the burden a little bit more.</p><p><strong>Harry Glorikian: </strong>So what is wild success for January? </p><p><strong>Noosheen Hashemi: </strong>Well, we want to keep on this path of developing our multi-omic platform. We want to essentially  help people understand themselves deeply and figure out how to dial their lifestyles and sort of tweak and tune their health. This is non-trivial obviously because there's not enough research in food science or enough research on prevention. You know, out of the $3.8 trillion that we spend on healthcare, 2.9% goes to prevention and 10% goes to acute care end of life care. Just think about that. More than three times as much goes to end of life acute care than goes to prevention. And I'm talking about healthcare costs, I'm not talking about research costs in terms of what NIH and USAID and all of those people spend. So there's not enough research that's happening. </p><p>You know, people's health data is not organized today. I'm sure there are companies who are trying to organize the world's data. You know, the company that tries to organize the world's data is trying to organize your health data. So I think that's pretty smart.  I think today it's still very opaque and it lives in silos, but I think in the future is going to be mixed.  I think today people just aren't fully empowered yet, you know, with the knowledge and with the agency and with the tools they need to really manage their health.</p><p>Wild success for us means that people, that we're part of this revolution of consumerized healthcare. We're part of the food-as-medicine revolution, the precision nutrition revolution. So we see ourselves coming up with tools that can essentially get amazing experiences in the hands of millions of people.</p><p>If you can think about a company like Livongo going public with 192,000 patients. Or if you think about everyone that's playing in the metabolic health today, if you put 12 or 13 companies together, maybe they have a million users, or maybe a million and a half users. Where is that compared to 122 million people that have pre-diabetes diabetes and another a hundred million people that are optimizers? They're either wearing a wearable, they belong to a gym, they're on a diet. You have the entire population as your market. And we have very little that has really made a major foray into health. So wild success means having a product that becomes mainstream. </p><p><strong>Harry Glorikian: </strong>So I think what you're saying is January is moving beyond just CGMs and metabolic syndrome, right?</p><p><strong>Noosheen Hashemi: </strong>Absolutely. Yeah, we, we imagine ourselves, we have built an expandable platform. Our goal is to keep doing deep phenotyping. So we will add 'omics  you will see us adding 'omics beyond what we have today. You will see us  get to other cardio-metabolic disease, you know, cardiometabolic disease, essentially going beyond metabolic disease to the rest ofmetabolic syndrome. You'll see us be ahardware-agnostic company. We want to essentially let people wear whatever they want.  Whatever works for them and, and still try to bring that data, synthesize it and make sense of it and feed it back to them so they can take action. </p><p><strong>Harry Glorikian: </strong>Excellent. Well, that's, that's a great way to end the program with. We have so much more to see from the company and what it's going to be able to do with the data and, and, and help  you know, people live a healthier life. Or like I said, with me I'm constantly trying to measure what's going on. It's just distilling it to make it easily consumable to do what I need to do rather than have me learn statistics so that I can figure it out. </p><p><strong>Noosheen Hashemi: </strong>We have to get, all of us need to get better than that. I remember when I first put on my Oura ring, you know, there's, you know, most people  first when they wear their Fitbits, you know, first it was like, how much did I sleep? And then they kind of learned about REM and sort of deep sleep and then slowly. And then Oura came and then it was like, oh, and Whoop had already had heart rate variability, but then, you know, Oura came in with their other markers, you know, restfulness. And efficiency, sleep efficiency and timing, et cetera. And so people are slowly wrapping their heads around this. It takes a little whil. And yes, January gives you a lot of levers. You know, there's fasting, there's fiber, there's calorie management. There's you know, the spikers. There is the activity counterfactuals—I ate this, but had I eaten this other thing, this would have been my glycemic response. Or had I walked X number of minutes after that, this would have been my glycemic response. At the beginning it's a lot, but that's where it goes back to the experience. We must make the experience enjoyable and better, and we must, companies like us should strive to make the experience enjoyable, make them fantastic consumer experiences like Apple products. But remember Apple's 45 years old and we're just getting going with this, But [Apple is] a great role model. </p><p><strong>Harry Glorikian: </strong>Wellyou know, my doctor may not like it, but I may have to get one of these. He's listening to this podcast. I know that he will, because he always comments on them. </p><p><strong>Noosheen Hashemi: </strong>We're definitely doing that. And you know what? You can have Mike Snyder, you can chat with Mike  about your numbers after. That would be a lot of fun.</p><p><strong>Harry Glorikian: </strong>Excellent. Oh, I look forward to it. So thank you so much for participating. </p><p><strong>Noosheen Hashemi: </strong>Thank you, Harry. It was pleasure.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Tue, 20 Jul 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Noosheen Hashemi)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>In a companion interview to his June 7 talk with Stanford's Michael Snyder, Harry speaks this week with Noosheen Hashemi, who—with Snyder—co-founded the personalized health startup January.ai in 2017. The company focuses on helping users understand how their bodies respond to different foods and activities, so they can make diet and exercise choices that help them avoid unhealthy spikes in blood glucose levels.</p><p>January's smartphone app collects blood glucose levels from disposable devices called continuous glucose monitors (CGMs), as well as heart rate data from patients’ Fitbits or Apple Watches. The app also makes it easier for users to log the food they eat, and see what impact each food has on their glucose levels. Once the app has enough data, January’s machine learning algorithms can start predicting the effects of different foods and activities on blood glucose. It can then recommend meals and exercise that’ll help users keep their blood glucose in a healthy target range. </p><p>The goal isn’t to prevent glucose spikes completely, but rather to prevent diabetes from emerging over the long term in people at risk for a cluster of serious conditions known metabolic syndrome. That could help individuals live longer, healthier lives. And at a population level it could save billions in healthcare costs.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p>1.Open the Podcasts app on your iPhone, iPad, or Mac.</p><p>2.Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p>3.Scroll down to find the subhead titled "Ratings & Reviews."</p><p>4.Under one of the highlighted reviews, select "Write a Review."</p><p>5.Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p>6.Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p>7.Once you've finished, select "Send" or "Save" in the top-right corner.</p><p>8.If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p>9.After selecting a nickname, tap OK. Your review may not be immediately visible</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian:</strong> I’ve been making the show long enough that you can see a kind of family tree emerging, with branches that connect many of our episodes.</p><p>That’s definitely the case with today’s interview with Noosheen Hashemi, the co-founder and CEO of the precision health company January AI.</p><p>The branch leading to Hashemi started back in June of 2021 when I interviewed Professor Michael Snyder, the chair of Stanford’s Department of Genetics.</p><p>Snyder is a huge proponent of using wearable devices to help people make better decisions about their own health. In fact, the day we spoke he was wearing seven separate devices, including one called a continuous glucose monitor or CGM.</p><p>A CGM is standard equipment these days for about 3.5 million diabetics in the U.S. who need to know when their blood sugar is too high and when it’s time to take more insulin. But Snyder believes that blood glucose data could also help tens of millions of other people who don’t yet take insulin but may be on their way to developing full-blown diabetes.</p><p>Back in 2016 Snyder got a visit from Hashemi. She’s a longtime Silicon Valley tech executive and philanthropist who’d been searching for a way to use AI, wearable devices, and big data to get more people involved in medical research. Hashemi told me it took just two meetings for her and Snyder to decide to join forces to co-found January. </p><p>The company makes a smartphone app that collects blood glucose data from disposable CGMs, as well as heart rate data from patients’ existing wearable devices such as their Fitbit or Apple Watch. The app also makes it easier for users to log the food they eat, and see what impact each food has on their glucose levels. Once the app has enough data, January’s machine learning algorithms can start predicting the effects of different foods and activities on blood glucose. It can then recommend meals and exercise that’ll help users keep their blood glucose in a healthy target range. </p><p>The goal isn’t to prevent glucose spikes completely, but rather to prevent diabetes from emerging over the long term in people at risk for a cluster of serious conditions known metabolic syndrome. That could help individuals live longer, healthier lives. And at a population level it could save billions in healthcare costs.</p><p>As you’re about to hear, Hashemi and I talked about why glucose monitoring is so important and what companies like January can do in the future to make the predictive power of AI available to more people.</p><p><strong>Harry Glorikian: </strong>Noosheen, welcome to the show. </p><p><strong>Noosheen Hashemi: </strong>Thank you, Harry. </p><p><strong>Harry Glorikian: </strong>So, it's great to have you on the show. It was interesting that, you know, the minute Dr. Snyder mentioned the company, I was immediately Googling it. And I was like, oh, I have to talk to this company. I have to understand what they're doing and, and what's going on.</p><p>And to be quite honest, I've been doing my homework for the past couple of weeks. And I'm like: I think I have to call my doctor and get a ‘script to actually use the product. </p><p>Just to help everybody get up to speed on this, can you bring people up to speed on where we are with glucose monitoring and health in general? Whether they have diabetes or whether they're just, you know, what, I, maybe someone like me who I hope is a generally a healthy person.</p><p><strong>Noosheen Hashemi: </strong>Sure, absolutely.  Yeah. So from Mike Snyder's four-year multi-omic IPOP research,  we learned that people who are so-called healthy and have healthy A1C levels could actually have huge glycemic variability. He sometimes calls these people with pre pre-diabetes.  I think eight people developed diabetes during his four-year study.</p><p>There haven't been enough longitudinal studies in healthy people with glycemic variability to suggest that they will necessarily develop diabetes. So to date, there's really no conclusive evidence that healthy people can benefit from balancing their blood sugar. Also, not all sugar spikes are bad and a two-hour bike ride might produce a big spike, but that's fine. It's not the spike by itself that we worry about. It's really  how high the spike is against our baseline, against the population, whether the spike comes down quickly, the shape of the curve, the area under the curve. These are the things that are illuminating in terms of our state of metabolic health.</p><p>So  at January we really view metabolic health as a spectrum. So we want to support people to figure out kind of where they are on that spectrum. And to try to really help them move up to healthier points on that spectrum. So we don't see it as a moment in time where you are something or you are not something. You are kind of on a spectrum of metabolic health, and we continuously want you to be self-aware and, and really improve your location on that spectrum. </p><p>Now, something to keep in mind,  and why I think it's important for people to take action on this, is that 84% of the 88 million people believed to have pre-diabetes today, and 22% of the 34 million people that are believed to have diabetes today, are not diagnosed. They are undiagnosed. That's 75 million people walking around with pre-diabetes and don't even know. So, if we don't measure people's health, that doesn't mean they're healthy.  So we really encourage people to be  you know, vigilant with their health learn so that they can, they can act, you know, self-advocate. Be able to self-manage.</p><p>So we do think that wearables are an easy, useful way to kind of see where things are, but then you need companies like January to make sense of it all. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean  you know, it's interesting because you know, I'll go to my doctor and they'll do that one time measurement. It's like taking your car in and you're like, it was making a noise. It's not making the noise right now, but, you know, try and diagnose when that event is not happening. Whereas with the wearables, I can, I can actually see, you know, my, my heart rate variability change depending on my exercise process. I can see my sleep change if I had one too many glasses of wine. I have to tell you, I hate it because I would like to have more wine than my monitor allows me to have, but you know, you see the immediate feedback, which would let you sort of course-adjust accordingly. And you know, when I, there was a paper, I believe that was published in Israel where there, I think it was 500 people that they looked at and where you could see that every person, they could eat the same foods, but their spikes would be different or how long that spike would be based on genetics, based on their microbiome. And so if you're not monitoring, how will you know that your quote, healthy diet is actually healthy for you? </p><p><strong>Noosheen Hashemi: </strong>You don't.  You definitely don't. And yes, that's study shows variability between people, but also we've shown glycemic variability for the same person. So we had somebody at the office have the same good sleep nine days in a row, and they had a different glycemic response to that. Mostly every single day, nine days in a row, depending on how much they had slept, how stressed they were, how much workout they had done. And most importantly, how much fiber was in there.  So we are radically different person to person, and this is why we encourage people.  No one is going to know you as well as you do. And no one's going to be as interested in your health as you are  as you should be, as you might be. So we really encourage people to learn, learn, be self-aware self-advocate, self-educate. </p><p><strong>Harry Glorikian: </strong>So, help people understand this term metabolic syndrome, you know, and, and talk about how many people, maybe who are pre-diabetic go to full-blown diabetes, you know? </p><p><strong>Noosheen Hashemi: </strong>Okay. Yeah. So  I mentioned that 122 million people have either diabetes or pre-diabetes in America.  88 million plus 34 [million]. And then a larger number of people, if you believe Mike Snyder's pre-diabetes number, that's even a larger number. But metabolic syndrome is a cluster of conditions that leads to type 2 diabetes, heart disease, and stroke. These conditions are basically high blood sugar—which has been historically measured by A1C  blood tests called hemoglobin A1C, but increasingly it's measured by time and range using a CGM—high cholesterol and triglyceride levels, high blood pressure, high BMI, and high waist to hip ratio. So this kind of fat right in the middle.</p><p>So the 2002 diabetes prevention study showed that unless there's an intervention, 58% of the people that have pre-diabetes could end up with diabetes. And usually they think of this prevention as weight loss.That's what the DPP programs, diabetes prevention programs, are about.</p><p>So if you have pre-diabetes the cells in your body don't respond normally to insulin. And insulin is a hormone that facilitates your cells taking up glucose, which is a source of energy for your body. Your pancreas basically makes more insulin to try to get the cells to take up glucose. You sort of get into this terrible vicious circle. So eventually your pancreas can't keep up and then you have this sort of excess sugar sitting in your bloodstream, which is really a problem. And it can really lead to microvascular complications like retinopathy or neuropathy or diabetic nephropathy.</p><p>So as you know, diabetic retinopathy is the most common cause of blindness in working adults in the developed world. And in diabetic neuropathy, essentially high blood sugar can injure nerves throughout the body. And usually damages nerves in the feet, in the legs and feet, which hear about foot ulcers and amputations coming from this.</p><p>And of course  diabetic kidney disease. Nephropathy is something that  is the number one cause of kidney failure, actually. Almost a third of people with diabetes develop kidney disease. So you add this with the high blood pressure we can increase the force of blood through your arteries and damage arteries. And then you have excess blood pressure, you knowblood pressure and diabetes together, basically increase your risk for heart disease. So it's really a terrible cluster of conditions to have. </p><p>And so if you have three of these conditions, three of these five, you essentially have metabolic syndrome. And if you have metabolic syndrome, you're at a higher risk of developing these different diseases. You really don't want to go down this path. The path itself is not great. And then the comorbidities from this path are just worse and complications of course are very painful, costly, and potentially, deadly.</p><p><strong>Harry Glorikian: </strong>And so that's one end of the spectrum, but in reality, even someone like me who tries to watch he eats, who goes running regularly, or tries to go running regularly. I mean, you know, I have sleep apnea because they tell me my BMI is too high. Right. So  but this sort of technology, you know, I could be spiking and keeping a high glucose level, which would inhibit my ability to lose weight, et cetera. So how can more data about blood glucose, and its relationship to diet, help people avoid diabetes?</p><p><strong>Noosheen Hashemi: </strong>Yeah. So for so long, we've been able, we've been told just to avoid refined sugar, refined flour, eat a lot of vegetables, walk 10,000 steps. You'll be fine. Or, you know, weight loss is given as the end goal to cure all diseases. You know, why don't you, Harry, drop 25 pounds? Or how about drop 5 to 10% of your weight? </p><p><strong>Harry Glorikian: </strong>Just like that!</p><p><strong>Noosheen Hashemi: </strong>It's true, weight loss really improves biomarkers. But how many people who get this advice can actually do that? And at the timeframe that they need to. So we feel like that's just not a practical approach to solving a problem.</p><p>A more practical approach is to really figure out what works for each individual. You know, you mentioned you've dialed your own wine drinking based on its impact. I've done the same. I was, you know, enjoying two, three sips of wine. And then I learned that it would wake me up in the middle of the night. So I stopped having even the two, three sips of wine. So don't feel bad that you can't have your second and third and fourth glass. But basically we offer a multitude of levers that you can dial for your lifestyle. </p><p>For example, intermittent fasting and calorie restriction together have shown benefits in clinical studies for improving insulin sensitivity, if you do them together. So you can't just fast and then gorge yourself. But if you fast and you restrict your calories together, you can really improve insulin sensitivity. So we let you, we help you using the January program to learn to experiment with fasting and calorie restriction and figure out what works for you. How much of it you can make. You know, slowly  help you essentially build it into your habits and your daily routines to fast. You know, we increase your fasting period 15 minutes at a time. So you may start with January you're eating 16 hours a day and you're fasting eight hours. You may end the program having reversed that.</p><p>And other thing is we, we really pro promote fiber consumption. So increased fiber intake has been associated with higher levels of bacteria-derived short chain fatty acids, which is a regulator of GLP-1 production. As you know, GLP-1 is an incretin and a recognized regulator of glycemic homeostasis and satiety. So we help you track how much fiber you're eating. We encourage you to eat more, knowing what foods spike you, spike your blood sugar, helps you basically eliminate or reduce consumption of those foods. It tells you how much, how much of those things to eat  or alternatives that kind of honor your food preferences  and food tastes, but have lower glycemic index. If you can't walk 10,000 steps a day, okay. January tells you how much you need to walk, when you need to walk to keep your blood sugar in a healthy range. </p><p>So you really need data  to, to dial your lifestyle. There are many levers and there are no silver bullets and there's too much to keep in your head. Which is why it's nice to have AI sort of help you kind of make, you know, take it all in to a platform and then synthesize it and give you insights.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, like,  I've got my, my Apple Watch. I've got my, you know, Whoop band. Right.I don't have as many as he [Mike Snyder] does, but  I know, I think my wife would kill me if I, if I was wearing eight things, but, but it's, you know, it's true. Like it's, you know, each one of these, because they're not holistically designed, give me a different piece of data that then I can then react to. You know, one is probably more of a coach that causes me to push a little bit farther, you know, et cetera. So  I mean, I hope one day we evolve to something that's a little bit more holistic so that the average person can sort of, it becomes more digestible and more actionable. But you know, I do believe, based on my conversation with him and even all the work that I do multi-factorial biomarkers or multi biomarkers are going to be how you manage, you know, yourself much better.</p><p>But you know, tell me how January started. What is the thing that excited you about what you saw and what attracted you to this role? </p><p><strong>Noosheen Hashemi: </strong>Yes, absolutely. So January's origin story started with me deciding in 2016 to start my own company, essentially, after many years of running a family office, investing in, serving on boards of companies and nonprofits.  I had early success at Oracle  where I rose basically from the bottom of the organization in 1985 to vice-president by age 27. Along [with] Mark Benioff, who at the time was 26. It was quite the time, taking the company from $25 million to $3 billion in revenue. So  you know  a really, really amazing tenure there. </p><p>In 2016, I started this massive research in, into theses that were getting a lot of attention, you know, big trends over the next decade. And most importantly, what I really knew. You know, the classic kind of [inaudible].  I happened to attend a conference, a White House Stanford University conference on societal benefits of AI and how to integrate sort of ever-changing AI into everyday life and into the real world. It was a healthcare panel that took my breath away. So Faith A. Lee who had organized the conference with Russ Goldman. They suggested that interested parties run off to this machine learning and healthcare conference in LA two weeks. I immediately booked my ticket. </p><p>And there I met Larry Smarr. I don't know if you've come across him or not, but he was the first quantified self, maniacal quantified self person I had come across. And he had diagnosed his own Crohn's disease way before symptoms had manifested. And so, and then the common theme of this conference, between all of these presentations was that machine learning could essentially fill in for missing variables in research, not just going forward, but going backwards. So I was just hooked and I never looked back.</p><p>But it was a hard problem. My own husband had been investing in healthcare and warned of like an opaque sector. He was like, “Honey, this is heavily regulated incentives are aligned with acute disease, not with chronic disease, not to mention even anything or prevention. It's just not a market economy.” And he knew how interested I am in market economies. My first love before medicine was economics. So that's a whole different podcast. So he warned that I'd be sort of fighting this uphill battle, but I was not discouraged. I basically kept on researching.</p><p>I came across the MIT economist Andrew Lo. I don't know if you've come across him, but you should definitely talk to him. He's brilliant. His work showed that so little research had been done compared to what we really need to do in terms of medical research. And he comes up with ways of funding, medical research, he has a lot of innovative ways that we could really change  the whole model of medical and scientific research, but it kind of became obvious to me that the answer was that we needed to get everyone involved in research.</p><p>So just, just putting things in perspective. After Nixon declared a war on cancer 50 years ago, we now have some therapeutics and some solutions to cancer. We have really nothing for neurological diseases. We're spending over $300 billion just on symptoms of Alzheimer's— don't talk about even the cure or anything like that. We have nothing for aging, which is the ultimate killer. So it was, to me, the answer was obvious, which was, we have to get everyone contributing to research. Everyone should be looking at themselves. And then with the data, we can also learn across populations. And so deep phenotyping of the population sort of in a multi-omic way was the answer.</p><p>And that's what led me to Mike Snyder. I actually looked for multi-omics. I went to Stanford medical school and I met with the CEO. He said, what are you interested in? I said I'm interested in multi-omics. He said, you have to talk to Mike Snyder. And so  basically what Larry Smarr had done at the [San Diego Supercomputer Center] was to measure everything by himself. But Mike had essentially extended this kind of research to others, not just to himself. So not only sort of diagnosed himself with diabetes before the doctors, but he'd also run the Human Microbiome Project, the IPOP study, innumerable other research using metabolomics, proteomics, transcriptomics, wearables, and so on.</p><p>So he had spent a lifetime studying how people went from healthy to disease essentially. And he had taken a whole person approach, which is what I was interested in.  And so in his role as chairman of genetics at Stanford and head of precision medicine at Stanford, he was kind of already living in the future. And that's kind of where I thought, you know, all of us needed to go. </p><p>So our first meeting was supposed to take 45 minutes. It took 90 minutes. And in our second meeting, we agreed to join forces. It was like, it was instant.  It was just instant chemistry. Like the universe just brought us together.</p><p>And then all of a sudden sort of everything fell into place for me. Looking back at my life, I been getting ready for this actually all along. Caring for my dad who had been diagnosed with cancer too late to actually give him  a surviving chance. My mom  had been misdiagnosed with asthma when she had heart failure. So I had to leave my family, you know, everyone get together and really intervene. Really changed her, her lifestyle in order to save her life. She is thankfully now 91 years old and living fine, but it has absolutely no salt in her life and a completely different, different life. My own health, my own health journey sitting in front of a computer for three decades, more than three decades, as we know that now they call it called sitting, you know, </p><p><strong>Harry Glorikian: </strong>Right, the new smoking. </p><p><strong>Noosheen Hashemi: </strong>The new smoking. My experience running a couple of hardware companies, my love of food, and my skills of kind of scaling companies. You know, all of this came together. I just basically became obsessed with prevention and I felt that, you know, food could play an outsized role.</p><p>So wearables, you know, give you signals from the body continuously, which is incredible.  But you also need to understand what people are eating and, you know, we can talk about that a little bit later, but we can basically now imagine predicting chronic conditions, much like Larry and Mike had. And then, you know, postponing and potentially preventing them. And if they've already started, prevent them. </p><p><strong>Harry Glorikian: </strong>Yeah, I was lucky enough to be there and help when Evidation Health was getting off the ground and, you know, once we started to see the data coming in, I remember looking at the data. Is that real, like, is that actually happening? And I was like, the first thing I was thinking of was like, how do we design a clinical trial? Like if you're going to actually say that’s happening, that trial is not going to be trivial to set up, to make that claim, but you could see it in the data.</p><p>And, you know  I actually think some of the shifts that you're talking about, if it wasn't for things like the Affordable Care Act, if it wasn't for putting EMRs in place, if it wasn't for some of these shifts that have happened, you and I would still be, you know, battling this system that pays you no matter what. Right? And I think now is technology is a way that that can empower the average person to manage their own health. I'm not going to say optimally, but boy, a hell of a lot better than no information. I mean, at least some information can maybe give you an early warning light of something that you might be able to intervene in.</p><p>And I don't know anybody that likes being sick. I mean, I don't do well when this thing starts to age a little bit and not function the way that I want it to. So I've tried to try and keep it in as good of a running condition as I can. So it lasts as long as possible. I mean, I'm one of those people that would listen if I just drop dead at 95, like just boom gone. I would be so happy. Right. As opposed to this sort of chronic  dynamic. </p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p>So you mentioned AI, you mentioned machine learning. Where do machine learning and other forms of AI fit into January's service and you know, what do you do on consumer data? What kind of predictions can you make that wouldn't otherwise be possible?</p><p><strong>Noosheen Hashemi: </strong>Okay. I can first talk about exactly that. What did we do that hadn't been done before. What is really unique? What are we filling? So essentially in one word, it is prediction. You said it. </p><p>So  as you know, there've been, there have been glycemic prediction models for type 1 diabetes, but type 1, as, you know, is a serious condition, which, you know, precision really matters for type one. It's life and death.</p><p>But there hasn't been much done with type 2 diabetes. And so we set out to do predictions, for type 2 diabetes. And  the type 1 diabetes models are pretty simple. They basically are an insulin-carb calculus, essentially. But as we dug in, we realized that  you know, carbs are not all the same and that there are so many other factors besides carbs that affect glycemic response, including things like fiber fat and protein, water, and foods. We wanted to understand glycemic index and glycemic load of foods. So our major  machine learning  research projects, we basically did research for two and a half years before we sold anything.  One of the first things that we did was to try to understand the foods themselves. So we essentially built the largest database. Essentially we licensed all the, these curated food databases, and then we labeled the foods that didn't have food labels, because right now the only food labeling you really have is like grocery foods and chain restaurants.</p><p>So we labeled foods and then, recognizing that glycemic response was better associated with glycemic index than carbs alone, we set out to create glycemic index and glycemic load for all these foods. Then we ran a clinical trial and associated people's glycemic response to the glycemic load of foods they were eating. And then we turned that into a prediction. </p><p>So, the prediction model.  Why is it so cool? Well, why should you use your body to figure out how many glasses of wine is going to spike you? Why not have the AI tell you that? Why not do that in silico?  It's this weekend, you want to cook for your wife. You want to get her the right fried chicken recipe. Well, check those out in January, check out those recipes in January. If you know what the glycemic response of, of each one of those recipes could be, it really helps you compare foods. For kind of recipes you can comparefood items in your local cafe. You want to figure out what to eat. You don't have to put them through your body to figure out how you're going to respond, put them through the AI to figure out how you're going to respond.</p><p>And then in terms of, you know, how we're different. I mean, we essentially live in the future. We, we don't  we don't live in blood pricks and strips and blood glucose meters. We kind of live in the CGM, HRM (heart rate monitor) precision foodworld. We've turned food into actionable health data, which is a necessary ingredient you need if you want to understand people's glycemic response. And if you want to be able to predict it, and that is our huge innovation that nobody has. And we have quite a bit of IP around it. </p><p>There are a number of things that we're using. We're using meta-learning.  We're using  neural networks. I don't know how much I should say about what we're using. Yeah. We have one paper that we've put out, which is really, really, really simple.  But we, we always talk about, what kind of papers we want to put out and how much we should put out and how much should we not put out, but essentially you can look at the people that advise the company and you can see that, you know, we have a lot of expertise around  essentially… </p><p><strong>Harry Glorikian: </strong>But Noosheen, when you're doing this right, you need to, at some point, I think you need a baseline on say me for a certain period of time before the algorithm can then respond appropriately to that. And then doesn't that potentially change over time, time you mentioned the yogurt, the meusli, right.  And how that affects. So it's constantly gotta be in a feedback learning loop.</p><p><strong>Noosheen Hashemi: </strong>Yes. Yes. And the beauty of January is that essentially you don't have to wear a CGM 365 days out of the year. We think that with AI, we allow you to wear a CGM intermittently. So maybe you want to wear it every quarter  to update our models  just to see how things are going, but you don't need to wear it all the time. You can wear it for a period of training and then basically run your simulations in silico rather than through your body. Let the AI do the work. </p><p>So you definitely should wear it intermittently so we can update our, our models because people do age. People do have inflection points in their health. They get pregnant, they travel, a lot of things change, but we don't think it's necessary for healthy people to wear CGMs all year long necessarily. </p><p><strong>Harry Glorikian: </strong>So now we're talking about consumer behavior, right, for a, for a tech product like this. And if, you know, if you look at some of the data that I've read in some of these papers, you know, the potential market is significant. It's, you know, it's quite large. I mean, if I just said, you know, 15% of the people have pre-diabetic levels of glucose after eating, that would translate to like 50 million people in the United States alone. But the service depends on the CGM, the app, the external heart monitor. It's, you know, users have to be diligent about monitoring and logging food intake and activities during the introductory month. So for a quantified self junkie, I get it. They're all over this.  What's the plan for getting everybody else on to this? </p><p><strong>Noosheen Hashemi: </strong>Well, I think it's all about the user experience. And I think we have a, we have a long way to go as an industry and for us as well.As a company we have, what we imagine to be the user experience is nowhere near where we are today.</p><p>I'm old enough to remember world before Starbucks. So you would see ads on TV for MJB coffee, which is something you made at home. You know, I don't know if you remember that but Starbucks created a new experience, really a place between home and work where you would stop by for coffee.</p><p>And so the outrage around the, you know, $3, $4 latteat the time, do you remember that?Well, Starbucks continue to improve the experience. They added wi-fi, they had ethical coffee, they had kind of a diverse employee population. People's initial wonder and worry gave way to this, you know, gigantic global brand. And I think all of that is because of the experience that people had. I think we need to make health a positive experience. We need to—we, including January—need to make health something that people….it’s going to be a little clunky in the beginning, just like the old, you know, cell phones used to be. But while we're going through this process, the companies need to work on to improve the experience and people need to be patient with the clunkiness of everything  to get us to a place where these things become much, much more pleasant to use and easier to use, and essentially AI starts reading your mind about what you were eating and what you were doing. </p><p>That is going to happen. You know, I've gotten so used to my Apple Watch now that I actually love it. It actually is doing a very good job training me. Just at the right time, you know, “Come on, you still have a chance. Let's go.” You know, all the things that it's doing  I'm actually liking it. It's it's enjoyable. Because it Is coaching. And I feel like the answer for mass adoption lives in experience. We need to improve the experience dramatically. </p><p><strong>Harry Glorikian: </strong>It's interesting though, because I I'm play with a lot of these different things and I noticed that depending on how they're designed, how they're put together, it nudges me to do that much more or et cetera. I don't always listen. Human beings don't always do what they're supposed to do for their better good. But  you can see how, when the app is designed in a way to nudge someone the right in through the right mechanisms. And that's the problem, right, is trying to—not the same mechanism works on everybody. So you may have to have multiple approaches that the system tries like AB testing for a website to, to get them to do that.</p><p>But so, if the average person like me wants to do something like this, obviously I have to get a ‘script from my doctor, which just drives me crazy that I can't just—because I can buy a finger-prick, right, over the counter and poke myself a thousand times and then write down these numbers to see what happens. Which seems a little clunky in my opinion. But I can't buy the CGM that does it automatically. There's gotta be some medical person saying like, we're gonna make more money off this if we do this or do that, or, or it just doesn't make any sense to me.  How do you, how does January come at the expense reimbursement or the insured part of it, or is this just out of pocket for everybody? </p><p><strong>Noosheen Hashemi: </strong>Sure. So right now  government insurance, companies, and private insurance companies cover CGMs for people that are intense insulin users. So people that prick themselves four times a day. And so that's three and a half million out of 122 million people that have pre-diabetes or diabetes. So it's a very small population. And the rest is all cash paid. And it it's really out of pocket. </p><p>So we have an early access price of $288. And we, you know, we include the CGM, but you can also buy CGMs only from January. You can just, if you just want a CGM, you don't want to do anything else. You're just curious. You want an introduction to this world? You can order a CGM from January for $80 if you want to do that. So if you're one of the 12 million people that are insured by Kaiser—and Kaiser doctors will not write you a prescription, you can go to your doctor and ask them, they won't write you a prescription—come to January. We will give you a CGM. You can be introduced to the program and then, you know, take, take up January from there and experience the magic of CGMs alone. </p><p>I really do think they are a magical product because they they're showing you for the first time you kind of can see inside your body, which is really phenomenal. Unfortunately by themselves, they're not that effective and they're not that effective by themselves longitudinally. So if you really want to keep track of how you've been doing, what food spiked you, how you can, you know, what kind of exercise, things like that. They don't really have that additional intelligence, but they are magical, they are really magical tools. But, you know, you want an insightful experience on top of that. With the AI that can essentially synthesize this kind of data from your heart rate, monitor from your food, from your glucose monitor and sort of let you know how much to eat, what to eat, how to hack your food, how much to walk, how much, how much to fast, when to fast, how much fiber you're having, not having. That's where we come in. </p><p><strong>Harry Glorikian: </strong>I feel like at some point I'm going to need a big monitor in my house that just tells me these things as I'm walking by. But you know, it, it's interesting. I mean, we are entering the era of real wearables and apps and big data and, and, you know, but here's the question though. Soyou know, Apple just announced what's going to be the update to their iOS and, you know, pretty soon I'm going to be able to push a button and share data with my physician.  Which is funny because I go in his office and I pull up my phone and I'm like, here's my longitudinal. And here's my longitudinal. And I'm like, look, you can take the measurement because you're supposed to, but here's how it looks over the last three months as opposed to the one time when I'm here. Can January's customers export and share the data with their doctor? </p><p><strong>Noosheen Hashemi: </strong>We have a report  midstream at 14 days that you can share  with, with your doctor. But of course we intend to, you know, we have features planned that are going to make things way more easily done, much more easily in the future. We really strongly believe that people should own their own health data. We are huge advocates for people owning their own health data, because there are a lot of people hanging onto your health data and they don't want to give it to you. I'm talking about device makers and others. You're paying for the device, which comes with the data, but they don't want you to have the data. So they're like, “You can have the data and study it yourself, but you can't give that data to other people.” But that doesn't work.</p><p>We are living in a multi-omics world. Single 'omics by themselves, the single side node biomarkers, you know, “Harry, you just manage your cholesterol. Noosheen, you can't keep two things in your head. Why don't you just manage your A1C? And Mike, you should watch your blood pressure.” That just doesn't work. There are many, many markers that you've just, as you just said, that we need to keep in our heads. We can't keep them in our heads, but that's where AI comes in. We need to feed them into something and people must have the right to own their data and share their data with whoever they want. If it's their coach, it's their doctor, it's their wife or spouse or significant other, their dog. They should be able to share the data that they own.</p><p>As long as they provision it properly to whoever they want to give it to because you know, someone doesn't want their employer to know X, Y, and Z. Somebody else wants their coach to know that is people's rights. And coming from kind of a libertarian point of view, I really think people, you know, people should own their own data and they should be able to mix it with other data  for synthesis, if they want to. </p><p><strong>Harry Glorikian: </strong>Yeah, it's interesting. I mean, I totally believe in that. I always, I also understand that people may not understand the implications of sharing sometimes.  And that's not clear, but I do believe that the next iteration of where we're going to see this technology go is multifactorial software programs that can take a number of different inputs to give a much more holistic view of what's going on with me, so I can manage myself better share that information. My biggest worry is most physicians I know are—it's not totally like, it's not their fault, right….</p><p><strong>Noosheen Hashemi: </strong>They're so busy, so they're spending 15 minutes a year with you. And during that 15 minutes, you know, they're taking a point in time, you know, to see a snapshot of your health. And your health is way more complicated than that. We're talking about reverse engineering, 5 billion, years of evolution. And you know, they're going to get, see if such an infinite small part of that. We need to be way more self-aware.</p><p><strong>Harry Glorikian: </strong>Well, it's funny because I do have, some of my physician friends will be like, you want me to understand that genomic marker that whatever, like, I can't, I can't get my patient to manage their insulin level!</p><p><strong>Noosheen Hashemi: </strong>I have a lot of empathy for that. They just don't have the time.  I completely fully understand. Which is why I think we should carry more of the, we should have more agency over our health and we should carry the burden a little bit more.</p><p><strong>Harry Glorikian: </strong>So what is wild success for January? </p><p><strong>Noosheen Hashemi: </strong>Well, we want to keep on this path of developing our multi-omic platform. We want to essentially  help people understand themselves deeply and figure out how to dial their lifestyles and sort of tweak and tune their health. This is non-trivial obviously because there's not enough research in food science or enough research on prevention. You know, out of the $3.8 trillion that we spend on healthcare, 2.9% goes to prevention and 10% goes to acute care end of life care. Just think about that. More than three times as much goes to end of life acute care than goes to prevention. And I'm talking about healthcare costs, I'm not talking about research costs in terms of what NIH and USAID and all of those people spend. So there's not enough research that's happening. </p><p>You know, people's health data is not organized today. I'm sure there are companies who are trying to organize the world's data. You know, the company that tries to organize the world's data is trying to organize your health data. So I think that's pretty smart.  I think today it's still very opaque and it lives in silos, but I think in the future is going to be mixed.  I think today people just aren't fully empowered yet, you know, with the knowledge and with the agency and with the tools they need to really manage their health.</p><p>Wild success for us means that people, that we're part of this revolution of consumerized healthcare. We're part of the food-as-medicine revolution, the precision nutrition revolution. So we see ourselves coming up with tools that can essentially get amazing experiences in the hands of millions of people.</p><p>If you can think about a company like Livongo going public with 192,000 patients. Or if you think about everyone that's playing in the metabolic health today, if you put 12 or 13 companies together, maybe they have a million users, or maybe a million and a half users. Where is that compared to 122 million people that have pre-diabetes diabetes and another a hundred million people that are optimizers? They're either wearing a wearable, they belong to a gym, they're on a diet. You have the entire population as your market. And we have very little that has really made a major foray into health. So wild success means having a product that becomes mainstream. </p><p><strong>Harry Glorikian: </strong>So I think what you're saying is January is moving beyond just CGMs and metabolic syndrome, right?</p><p><strong>Noosheen Hashemi: </strong>Absolutely. Yeah, we, we imagine ourselves, we have built an expandable platform. Our goal is to keep doing deep phenotyping. So we will add 'omics  you will see us adding 'omics beyond what we have today. You will see us  get to other cardio-metabolic disease, you know, cardiometabolic disease, essentially going beyond metabolic disease to the rest ofmetabolic syndrome. You'll see us be ahardware-agnostic company. We want to essentially let people wear whatever they want.  Whatever works for them and, and still try to bring that data, synthesize it and make sense of it and feed it back to them so they can take action. </p><p><strong>Harry Glorikian: </strong>Excellent. Well, that's, that's a great way to end the program with. We have so much more to see from the company and what it's going to be able to do with the data and, and, and help  you know, people live a healthier life. Or like I said, with me I'm constantly trying to measure what's going on. It's just distilling it to make it easily consumable to do what I need to do rather than have me learn statistics so that I can figure it out. </p><p><strong>Noosheen Hashemi: </strong>We have to get, all of us need to get better than that. I remember when I first put on my Oura ring, you know, there's, you know, most people  first when they wear their Fitbits, you know, first it was like, how much did I sleep? And then they kind of learned about REM and sort of deep sleep and then slowly. And then Oura came and then it was like, oh, and Whoop had already had heart rate variability, but then, you know, Oura came in with their other markers, you know, restfulness. And efficiency, sleep efficiency and timing, et cetera. And so people are slowly wrapping their heads around this. It takes a little whil. And yes, January gives you a lot of levers. You know, there's fasting, there's fiber, there's calorie management. There's you know, the spikers. There is the activity counterfactuals—I ate this, but had I eaten this other thing, this would have been my glycemic response. Or had I walked X number of minutes after that, this would have been my glycemic response. At the beginning it's a lot, but that's where it goes back to the experience. We must make the experience enjoyable and better, and we must, companies like us should strive to make the experience enjoyable, make them fantastic consumer experiences like Apple products. But remember Apple's 45 years old and we're just getting going with this, But [Apple is] a great role model. </p><p><strong>Harry Glorikian: </strong>Wellyou know, my doctor may not like it, but I may have to get one of these. He's listening to this podcast. I know that he will, because he always comments on them. </p><p><strong>Noosheen Hashemi: </strong>We're definitely doing that. And you know what? You can have Mike Snyder, you can chat with Mike  about your numbers after. That would be a lot of fun.</p><p><strong>Harry Glorikian: </strong>Excellent. Oh, I look forward to it. So thank you so much for participating. </p><p><strong>Noosheen Hashemi: </strong>Thank you, Harry. It was pleasure.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p>
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      <itunes:title>Noosheen Hashemi on January&apos;s Personalized Tech for Controlling Blood Sugar</itunes:title>
      <itunes:author>Harry Glorikian, Noosheen Hashemi</itunes:author>
      <itunes:duration>00:48:59</itunes:duration>
      <itunes:summary>In a companion interview to his June 7 talk with Stanford&apos;s Michael Snyder, Harry speaks this week with Noosheen Hashemi, who—with Snyder—co-founded the personalized health startup January.ai in 2017. The company focuses on helping users understand how their bodies respond to different foods and activities, so they can make diet and exercise choices that help them avoid unhealthy spikes in blood glucose levels.</itunes:summary>
      <itunes:subtitle>In a companion interview to his June 7 talk with Stanford&apos;s Michael Snyder, Harry speaks this week with Noosheen Hashemi, who—with Snyder—co-founded the personalized health startup January.ai in 2017. The company focuses on helping users understand how their bodies respond to different foods and activities, so they can make diet and exercise choices that help them avoid unhealthy spikes in blood glucose levels.</itunes:subtitle>
      <itunes:keywords>pre-diabetes, moneyball medicine, continuous glucose monitoring, machine learning, metabolic syndrome, continuous glucose monitors, january.ai, ai, harry glorikian, blood sugar, blood glucose, diabetes, michael snyder</itunes:keywords>
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      <title>Intelligencia&apos;s Vangelis Vergetis on Building a Successful Drug Pipeline</title>
      <description><![CDATA[<p>This week Harry sits down with Vangelis Vergetis, the co-founder and co-executive director of Intelligencia, a startup that uses big data and machine learning to help pharmaceutical companies make better decisions throughout the drug development process. Vergetis argues that if you put a group of pharma executives in a conference room, then add an extra chair for a machine-learning system, the whole group ends up smarter—and able to make more accurate predictions about which drug candidates will succeed and which will fail.</p><p>Bringing better analytics into the pharma industry has been an uphill battle, Vergetis says. One survey by McKinsey, his former employer, showed that financial services companies were the most likely to adopt AI and machine learning tools; the least likely were the building and construction trades. But just one rung up from the bottom was healthcare and pharmaceuticals. "The impact that AI could have on health care is "enormous," Vergetis says. "It's in the trillions. But in terms of AI adoption, we are right above construction—and no offense to construction, but it's not the most innovative industry."</p><p>But with the proper data, machine learning algorithms can help drug makers form far more accurate predictions about the probability that a new drug will perform well in Phase I clinical trials, or whether a drug that's succeeded in Phase I should be advanced to Phase II. "For years we've seen the productivity of R&D declining in our space in pharma and biotech, and I refuse to accept that," Vergetis says. "In the era of a lot of data becoming available, in the era of us being able to use techniques like machine learning to do something with that data, there's gotta be a way to reverse that trend."</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>MoneyBall Medicine - Vangelis Vergetis Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p> </p><p><strong>Harry Glorikian: </strong>My guest today is Vangelis Vergetis, the co-founder and co-executive director of Intelligencia. It’s big-data analytics startup focused on the pharmaceutical industry. And the argument Vergetis makes to potential clients is that you can take any group of 10 drug development experts in a conference room, and make them a lot smarter by adding an eleventh chair for a machine-learning system.</p><p>Of course, there’s always an art to deciding which drug candidates should advance to clinical trials; which Phase 1 trials should advance to Phase 2; and so on. Decisions that like are risky and expensive, and you can’t make them without having a lot of old-fashioned experience and instinct around the table.</p><p>Even so, sometimes the experts are biased and the experience doesn’t apply. And there’s only so much data they humans can keep in their heads. And let’s be honest: if decision makers at the big drug companies were <i>that</i> smart and talented, they’d have more home runs and fewer strikeouts.</p><p>Vergetis argues that we’ve got the historical data and the computing power today to make far more informed predictions about which drug programs to push forward. And if more drug companies used those tools, he thinks, it might reverse the decline in R&D productivity.</p><p>In the conversation you’re about to hear, we talked about how Vergetis and his co-founder Dimitrios Skaltsas started Intelligencia; how they built their own datasets; how they work with clients; and why it is that he and I think a lot alike—to the point of using the same MoneyBall metaphor when we talk about transforming drug discovery and healthcare.</p><p>So here’s my conversation with Vangelis Vergetis.</p><p><strong>Harry Glorikian: </strong>Vangelis, welcome to the show. </p><p><strong>Vangelis Vergetis: </strong>Thank you. Very good to be here. </p><p><strong>Harry Glorikian: </strong>You know, it's interesting. I was looking at the company and looking at what you guys are doing. And I, I've probably talked to, I don't know, close to 70 experts in different areas of healthcare, drug discovery, computer science you know. Out of all those people, I honestly think you and your company Intelligencia might be the most exact reflection of the argument I was making in my 2017 book MoneyBall Medicine. In fact, I actually think you used the MoneyBall metaphor in your own talks. So I want to start out with having you explain the parallels between your company and what Billy Bean did at the Oakland A's.</p><p><strong>Vangelis Vergetis: </strong>it's very funny. You say this Harry, by the way when we started the company, what is it, three, three and a half years ago now, we had a slide actually. You know, baseball did it in the nineties. Is it about time that healthcare does the same? and going through the MoneyBall analogy. So look, the quick or the easiest way to explain it, right, it's the analogy of how do you pick baseball players and build a winning baseball team and how do you pick drug candidates and development programs and build a winning pipeline?</p><p>So, you know, back in the day, what baseball did is a lot of experts in a big conference room. And these guys have watched—and I say guys, because yeah, they were primarily guys—they watched, you know, thousands of baseball games each, and they had their own perspectives and views and biases and experience in terms of what's you know, who's a good baseball player and who's not, and who they want on the team and how do they complement each other.</p><p>And that's how they built a baseball team and, you know, the, the kid comes in and, you know, the chubby kid, I think Jonah Hill, right, and tells Brad Pitt, or Billy Bean in real life, I think we can do this differently. And that's a little bit of the analogy here, look, it's not a perfect analogy, like everything. Right? But the analogy here is how do you go from when you design a clinical trial or when you think about the pros and cons and the risks of a development program, how do you take that conversation from a room full of people, the oncology PhD, the statistician, the person who's developed dozens of drugs in the past and so on, and you inject some data science and machine learning capability into that conversation. There is art in drug development. We'll be the first one to acknowledge that, the same way there's art in baseball. So I would not expect that you know, that room gets replaced by a machine in any shape or form and definitely not in the, in the near or even medium, medium future. But the idea is, you know, if you have 10 people in the room, can you pull up an 11th chair, have the machine learning algorithms, sit at a chair. And provide a very unbiased data-driven perspective into that conversation. So that, that, that's what we do. </p><p><strong>Harry Glorikian: </strong>So we're going to, I want to get into some of the details, but I want to step back and fill in some history here for the people and how Intelligencia got started. If I'm not mistaken, your background is computer science, not biology. Right? Okay. And your co-founder Dimitrios [Skaltsas] is trained in law. So you both spent times at McKinsey, is that where you guys met? </p><p><strong>Vangelis Vergetis: </strong>So we, it's a, it's a good, good both of those good points. So you have a former lawyer—which we don’t hold against him, we still like him very, very much—and a former computer scientist or electrical engineer who are running a company in drug development. Like, how does that work? A couple of things. As you, as you rightly pointed out, we met at McKinsey. We were both part of the healthcare practice there. Initially I was in the, in the US. Dimitrios was in Europe. We met 10 years before starting a company just running client projects together. We kept in touch over the years. And at some point, I think it was 2014, Dimitrios moved to New York, moved to the US with McKinsey and took some AI responsibilities. McKinsey was doing some internal AI. I think it was called McKinsey Solutions or something like that.</p><p>So we became closer when he was in New York. We were both in healthcare for the better part of the last a decade, and we were looking for, what is the opportunity? You know, what's the area in, in drug development or frankly in pharma more broadly, where we believe we can have an impact.</p><p>And it was partly us thinking through different areas. It was frankly customers or clients coming. We were both at McKinsey and we have done this study over and over again. Right. How do you design a better clinical trial? We had, I had done this, I don't know, two dozen times, maybe more. And clients kept asking McKinsey or us, Hey guys, you know, we understand how you do this and you do it very well, but are you using machine learning? Are you using data? And after saying no for about, you know, 50 times we said, okay, we should stop saying no and just go build the damn business. So here we are. </p><p><strong>Harry Glorikian: </strong>Yeah, no, I know that. I mean, from my days having Scientia Advisors, they ask over and over and over again and you keep it. It's great profitability by the way, but because you sort of know the answer. But you couldn't have picked a harder space though this is not a trivial exercise, especially if you go back to 2014 where some of the data was not even truly available or not in a format or not labeled or, or, or, or, or, or—right, to where we are today.</p><p><strong>Vangelis Vergetis: </strong>We started the company basically in 2018. The biggest challenge, I think you, you, you rightly put it, it's getting your hands on the right data. You need to answer the question you want to answer. And we took that view by the way. And some people go differently and I'll have my biases, my own biases, I'll admit. In a lot of places, what we've seen, particularly some big pharma, because they're sitting on a vast amount of their own data, but whether it's CTMS data or whatever clinical trial data they have, and the exercise they mentally do is okay, I have all this data. What questions can I answer? What can I do? And there's a lot of value there. We can answer a lot of good questions. But sometimes the question you ask needs more data than what you have, and you're kind of force-fitting it a little bit and say, yeah. Okay. But maybe I can answer most of it. Well, not really. </p><p>So we flipped it. We asked the question, the question is, what is the risk of this clinical development program or the flip side of it? How likely is it that this clinical program or this drug will eventually reach a patient, will eventually receive approval by the FDA and be used by a patient. Then we went there. We said, okay, if that's the question, what data do we need to answer that question? Some of it very easily accessible. Some of it doable, but you need to build data pipelines. You need to clean it up. It's a little bit messy, whatever. Some of it doesn't exist. We've got to build it from scratch. So if you do it the other way and say, what do I have, you'll ignore that piece that says, doesn't exist. I have to build this from scratch. You're going to try to solve the problem with the other stuff.</p><p>And then you realize it's not enough. So we asked the question and then we went very systematically to get all the data we needed to train the machine learning models. To answer that question. </p><p><strong>Harry Glorikian: </strong>Sounds like a consulting approach. What do we need to fill the two by two? So I totally get it. What are the biggest limitations you see right now from pharma's current method of assessing clinical trial risk? </p><p><strong>Vangelis Vergetis: </strong>Yeah, there is, there's a few and some are bigger. Some are smaller. And it's, it's hard to paint the whole industry with a broad brush, but there are some technical limitations that everybody has like as humanity, as a scientific community. Do we really understand drug biology or biology? Really well, human biology. I don't know. We understand it well enough, but from the, total knowledge, biological knowledge, we probably know this much. That's one challenge and it's a technical challenge or a scientific challenge.</p><p>A technical challenge is and I think you put your finger on it, data availability. But it goes beyond, can I get my hands on the right data? Is it curated in a particular way? Is it well annotated? Is it labeled? Does it have the same quality? Is it consistent? You know, I, I take data from this genomic database. I pick data from that genomic database. Are they structured the same way? Kind of combine them or how much work do I need to do combine them. </p><p>Now, it's a solvable problem. You know, the understanding of biology. It is solvable over time, but not immediate. The technical aspect of, can I make data consistent, solvable, is incredibly painful, and very few people have the patience for it or are willing to, I mean, we've killed a lot of brain cells pulling that data together, but we've done it.</p><p>And then there's a third group, I think, of challenges that I would put in the broader, you know, cultural umbrella. You know, there is the, what I call the “every drug is unique” syndrome. A lot of people out there will say, well, you know, there's so many differences between drugs and programs and all that, there's no way you can use machine learning to estimate the success of this drug. Most of it not true, actually there's that syndrome there is the—and it's actually very interesting in the pharma industry, particularly, or in biotech—here is the “I want to see very quick results. I want to try this AI thing, whatever this AI thing is. Let me try it for two, three months. Show something quick. If I can show us a quick win. Great. If not, I'll throw it away. I don't have the patience for it.” </p><p>And this is an industry that will easily not even think about investing 10 years and a billion dollars to develop, forget clinical, in the preclinical world, to discover a new target or a new molecule that could cure Alzheimer's or pancreatic cancer or something. So we are an industry that we're very much into putting an enormous amount of resources, time, patience, to discover a drug, but when it comes to incorporating an AI system methodology model that may help us tremendously, we are impatient. “Three months. Let's see what I can do. Oh, no results? Throw it away. I'll never see it again.” </p><p>And there's a little bit about this, I think in all fairness, companies are getting better. So most of the large pharmas, they have now chief digital officers or chief innovation officers with a whole structure underneath them and mandates and all that. So I don't want to be too, too pessimistic here. Right. There's a lot of effort. And I think the industry at the very least has acknowledged they have a cultural barrier that needs to be overcome. But I don't think we're fully there in how we overcome it. But we're making progress, </p><p><strong>Harry Glorikian: </strong>But it's interesting, right. I look at existing big pharma and the lumbering ways they sort of move forward in fits and starts. And, you know, do I want to disrupt my kingdom to implement this thing? I mean, there's, there's a lot of human psychology that's involved here and a lack of understanding right. Of fully understanding this and what it can do for them in different areas.</p><p>Then I look at the startups that literally from day one are totally data purpose-built right. Everything they're looking at is, “What's the data. How do I label it? Where are we going to use it? How do I manipulate it?” I mean, literally it is from the ground up. And I always think to myself sooner or later on my bet is that the startup is going to out maneuver the big guy.</p><p>I mean, Google started from as a purpose-built entity and it's, you know, it, it outstrips most of its competitors and reshapes industries. I always think it's harder to take an existing entity and reprogram its DNA rather than have a predesigned piece of DNA from, from day one. </p><p><strong>Vangelis Vergetis: </strong>Harry it's an incredibly interesting thought, and I don't have an answer for it. And only time will tell. I would expect some pharma companies, whether we're talking about big pharma, you know, the big 10 or, you know, the, the massive guys or some of the, you know, in our industry, it's very funny, like a mid-sized biotech, it's still a $20 billion business. So, but I would bet some of them, to use your words, will adapt, will reprogram their DNA to some degree, a little bit painfully, it's going to be a little bit slow or they're going to have some false starts, but somehow they'll, they'll get there. Some others will just buy and we've seen this in the industry, right? So, interesting startup, I'll just buy them. And a few of these have already happened. We've seen, what is it, Flatiron was bought by, I believe it was Roche, right? Yes. There's many other similar examples. That's probably one of them more, the bigger ones, the more prominent ones. </p><p>So I would expect this reprogramming of DNA will not fully happen organically. Some of it will happen by big pharma realizing, “Yeah. We need to play, you know, if we, if we're not a data company in a few years from now, we're, we'll be nowhere, right? How do we get there? Let's get our stuff stuff organized, and maybe we'll go make a couple of select acquisitions and eventually we'll get there.”</p><p>So I think all of these flavors will materialize in some shape or form, and some companies will lose. Some companies will do the investments and put the, hire the right people and make the right acquisitions and, and, and they will continue to grow. </p><p><strong>Harry Glorikian: </strong>Yeah. And I look at it as an analogy to like, if I look at say JP Morgan or Goldman Sachs, I mean, they are the amount of money that they're spending trying to transition to this new capability is, we're not spending the same amount of money in pharma for sure. Right? Not even close. </p><p><strong>Vangelis Vergetis: </strong>I don't know the actual amount of money, because I haven't done the analysis. I haven't seen numbers. But my former employer, McKinsey, has done quite a bit of work. I think it was MGI. So MGI is McKinsey's think tank, it's the McKinsey Global Institute. They had done a lot of work on this. And I remember seeing a chart that I thought was, was mind boggling. Areas that are way ahead in AI, or industries that are way ahead in AI, I would say financial services. So the Goldmans and JP Morgans and Morgan Stanleys and some of the world’s high-tech of course, and a few others. Who's at the bottom? I think it was like building materials or construction, which I get it. Second from the bottom? Health care. It was literally that bad.</p><p>Well, it's true. If you look at the data, the, the sad thing for me the part that we need to think about as an industry, the promise or the impact that AI can have in healthcare. And I'm talking about healthcare more broadly now, including hospitals and payers, not just drug development or a pharma. But the impact that AI can have on health care is enormous. It's in the trillions. But in terms of AI adoption, we are right above construction and no offense to the construction, but it's not the most innovative industry.</p><p><strong>Harry Glorikian: </strong>So, this is why I love investing in this area, because it's such an incredible, I mean, some of the other opportunities are still incredible, don't misunderstand me, but this is at its nascent stage in my mind, where the opportunity is dramatic to sort of move the ball forward. Okay. Which brings me to the next question, which is, you know, and you don't have to name any names or anything like that. Walk us through sort of a real world example of how you help a client in practice. </p><p><strong>Vangelis Vergetis: </strong>Ooh. Maybe I'll give you two examples. You asked for one, I'll give you two. Actually I'm gonna give you more, but let, let's start with that. </p><p>So where do we typically you know, we work with several flavors of customers, right? So we, we serve some of the largest, you know, top five big pharma companies we serve. Some of the smaller, even private biotechs. And we serve a bunch of the mid sized biotechs or midsize pharma companies. One area that that comes or one example is a specific program. So I'll, I'll pick on an actual example. So a specific, it's a phase two asset on a phase two program. It was a combination program, I believe for pancreatic [cancer] that our client was running. It was the phase two. It had been going on for about a year, I want to say. So it was in the middle of phase two, they were starting to see some interim results.</p><p>They hadn't published anything. They were starting to see some interim results, but they were still waiting for the phase three to complete. And then there were basically three questions with increasing degrees of difficulty, if you will. Question number one, how likely is it that this program, so this combo, so our molecule with, I believe it was chemo for pancreatic cancer, will eventually reach a patient, will eventually receive regulatory approval by the FDA? That was question number one, which is our bread and butter. This is what our algorithms do. I'll make up the number now. It's a, you know, 13%, which by the way, for pancreatic cancer, phase two, that's not bad. </p><p>The second question was, okay, now let's start thinking forward. So at the end of phase two, we're able to show ABC, how does that probability change? Because given the interim results we've seen, we have pretty decent conviction we'll be able to show something in that range when it comes to OS or ORR or whatever end points we're measuring. What will our probability to change to. It’s 13 now, will it go to 20 or we'll go to zero?</p><p>What if we managed to show something better or something worse. So in that sense, we're trying to calibrate and say, based on what we show at the end of phase two, how do we make a decision? Should we go to phase three or not? Is it too risky still? And it needs to be derisked further? Or are we comfortable with the risk we're taking, and we're willing to write a, you know, $200 million check to run a phase three program. </p><p>So we did the simulations, if you will, of the analysis to say, based on what your phase two will show, here's what you should expect your risk to be at the beginning of phase three. That was the second layer. </p><p>The third layer went even a step further and said, okay, let's assume we are now comfortable moving forward. So the risk is within what we're willing to take given the size of the prize, right? Because if you do get this drug approved, we estimate an enormous commercial potential. So we're willing to take significant risks here. How should we do this? So help us think through how different choices for continuing our development program affect our chances for approval.</p><p>For example, should we run a smaller phase two-B and then two large phase three trials. Should we scrap the phase two-B and go straight to pivotal phase three and do a much larger trial. And there are different trade offs there that have to do with costs, time and risk. We help them think through from the middle of phase two where they are today, how likely is it that they go approved? How will that evolve once they publish results? And if they decide to move forward, what the best path forward is from a risk point of view. So that's one example. Well, I'll spare you. The second one, I spent too long on the first one. </p><p><strong>Harry Glorikian: </strong>So you've written this machine learning model, right? So, and I want to say there's at least a hundred factors, clinical trial, design outcomes, regulatory process, you know, the biology itself that you mentioned, right? The history. You have to train a model like that. Where did you get the data to train this complex model?</p><p><strong>Vangelis Vergetis: </strong>There's no single. So I wish there was. So we we've been to now dozens of data sources. So I think what I said at the very beginning, right? Some of the data was easy to get. So for example, there is a bunch of data that clinical trials.gov has. Of course we have that, and everybody else has that. That's very easy to get right. Valuable, but very easy to get, which is good.</p><p>There are some data where you need to, it's publicly available, but you need to spend a lot of time cleaning up and curating. So think of genomic databases, whether it's TCGA or GTX, or, you know, dozens of other genomic databases that needs a lot of analysis and lot of processing and a lot of cleanup before you create features out of that data to put in your machine learning algorithms. So that's a, probably a second group.</p><p>And a third group that goes back to the point initially that, you know, not all the data you want to answer, the question, is available. So you have to build it yourself. We built it ourselves. So an example, there is clinical trial outcome. So there is no to our knowledge and we looked hard. There is no data you can buy that has in an incredibly consistent, systematic way, all the outcomes of clinical trials in a particular therapeutic area for the last 20 years. </p><p>So let's say, I mean, I mean, oncology, I'll give you an example. There's been a few thousand trials in the last 20 years. Let's say since 2000, we need to know every end point that this trial measured. How many patients were in each patient cohort or in each arm of the trial. What was the value of that endpoint? What ORR did they achieve? What OS did they achieve? Whatever. When was that? </p><p>Because sometimes we say, OS, Overall Survival, well, was it measured at six months or 12 months. One layer more of specificity of exactly how the end point was captured. And then you need the number. How many patients survived at the six month mark or whatever it is. So there's all that, all that stuff that you need, and then you need it, not just for the trial or the program you're assessing, that's easy to do, right? It's one program. We can get it from the, from the pharma company themselves. We need it for every single trial that has ever succeeded in the past. And for every single trial that has ever failed. That's how you train a machine learning algorithm. That was very painful. </p><p>We have a whole team in Athens, actually. So if the name didn't give it up, I'm from Greece originally. I've been in New York for like 25 years now, but I'm from Greece originally. So a lot of the team is based in Greece and part of that team, they're a very highly educated team and, you know, PhDs in biology, oncology, immunology, pharmacology, all the ologies. And that team curates in an incredibly systematic way all that data, before our data engineers and before our machine learning team can take over to build models. Right? </p><p>So to answer your question in a short way, dozens of data sources, some easy to get some much harder with a lot of processing. And some we had to just create from scratch. </p><p><strong>Harry Glorikian: </strong>I mean, that was just thinking about what you were saying. That, that last piece we were just discussing. I mean, I can imagine to hospitals and to doctors that would be—if you could put that into interesting matrix, they could get an interesting view into these drugs instead of memorizing off the top of their head. It's it, you know, I always find all these discussions with companies that have data. I can think of five other things to do easily. Once you've got the data source. </p><p><strong>Vangelis Vergetis: </strong>We've been discussing internally, both as a team, but also with our advisors and even our customers at this point where they're coming to us on the saying, Hey guys, that's amazing what you have. We'll pay you money. Can we now do this. Can we now do that. And some of that we would love to do and we're entertaining it. Some of it, you know, we, we're still a growing company or, you know, there's 40 of us total in the company. You also don't want to get distracted by too many shiny objects. You know, find the right shiny object and focus on a couple of them, but not too many.</p><p>So for some of them, we'll say, look, we could do it. We can, we don't have the time. We don't have the bandwidth today. Maybe later. For some of them we would say, yeah, that's incredibly interesting. And we were planning to go there anyway. Let's do it faster together. So we're discussing with one of our customers today about building something that goes beyond risk and starts thinking about the commercial implications of what happens when a drug actually gets approved. So it's not just predicting approval, but can you predict anything in the commercial space, whether that's revenue reimbursement market shares and so on. </p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p><strong>Harry Glorikian: </strong>If you have it to say, what is your defensible advantage, your special sauce? Like, what is it that you're doing for pharma that they can't somehow reproduce for themselves? </p><p><strong>Vangelis Vergetis: </strong>That's a great question, Harry. I will say a couple of things. Some are softer, some are harder. On the softer side, and probably more important by the way, is the persistent focus you know, unrelenting pursuit of what we're here to build. In a larger company, it's too easy to lose focus, budgets, get cut, people, get reassigned, promoted, change departments, move.</p><p>So it's very hard to get a team together to focus on something for an extended period of time and only do that. So that's probably one thing when, when you compare it to a larger pharma company, right. The, the second thing would be. Bringing together people with very different expertise and experiences.</p><p>So if you go to our office in Athens—and not the last year, given all the mess, we're all living in with coronavirus—but if you go to our office in Athens either before that, or hopefully very soon, it's a room and you have, you know, the data scientist is sitting here. The oncology PhD is right next to her. Right across is the data engineer. The drug developer is sitting over there. The statistician is there. </p><p>So it's literally having all those people in one room or in, you know, a series of rooms in one floor, let's say, where they work together on the same topic. And it sounds a little bit mundane and it sounds a little trite, but it makes a difference for the biologist to be listening into, as these computer scientists or data scientists are talking about their models. And I'm sitting here entering all the biological clinical data from this New England Journal of Medicine article that I'm reading. I actually understand how they use it and I can offer an idea. I can say, Hey, actually, I can capture it in a way that will help you guys given what you're discussing. So all those things help.</p><p>So that's the second element, which is a team of you know, we use diversity in many ways. So a diverse team, not just in the, in the racial or, or, you know any other perspective, but also in experiences and backgrounds. </p><p>And the third one, which is the more technical one. It's the data we actually do have. It does take an enormous amount of time, a lot of people, an enormous amount of effort to actually build and create the data cube that we have. Nobody else has this. It's incredibly painful but we've done it. So that does set us apart. There are companies out there that are trying to solve the same or very similar questions or answer very similar questions based on a much more limited set of data. And they fall short. They're okay. But they will short of, of our predictive power. Not because they're not doing anything wrong, not because they're not good data scientists, all of those things are fine. They just don't have the data we have. </p><p><strong>Harry Glorikian: </strong>And so that brings me to that next question. In all of these models, there there's little issues, fraught throughout the process…</p><p><strong>Vangelis Vergetis: </strong>Oh my God. There's so many. And some of them are longer. </p><p><strong>Harry Glorikian: </strong>Many, right, that you have to think through. Right. That's why whenever somebody says, oh yeah, I've got the perfect answer, I'm like, it's impossible. Perfect? No, right. So what is the accuracy? I mean, if you said your predictive algorithm, how do you, how do you, first of all, what do you compare it against? And then let me just pick and say, if I will, putting it against a traditional way of making decisions. How do you measure your accuracy? And then do you go back and look at real world evidence versus the system?</p><p><strong>Vangelis Vergetis: </strong>Yeah. So we we've done a few things that are very interesting. There is a standard metric for machine learning. So let's not get too technical or I don't know how technical your audience is. But there's the AUC, which is Area Under the Curve, which means the area under the ROC curve…whatever, there's a metric called AUC. It's pretty much a number between 0.5 and 1. I mean, technically it could be low as 0.5, but that's a silly, so it's a number between 0.5 and 1. The higher it is the more predictive your model is. We are in the high eighties, low nineties, which is, which is incredibly predictive for a problem this nuanced and this hard. If you do image recognition and you use deep learning for image recognition, you get close to 0.999.</p><p>These are very different problems. So with a standard AUC metric, we score very highly and we've compared that with what others have published in literature. And we are higher than at least what we've seen published. But by others then you do obvious things, right? So, so what do you do, you say, okay, let me take an example of hundred trials or a hundred programs for which my algorithm predicts that they are, let's say in the 20 to 30% success.</p><p>All right. So my algorithm says all of these hundred fall in the 20 to 30% range. Now let me follow them over time and see what happens. What do you want? Ideally you want 25% of them to succeed, you know, somewhere in the middle. And it most often that's what happens. So when we say zero to 10 on average, let's say 7% of them succeed.</p><p>When we say 10 to 30 on average, 22% succeed. When we say 30 to 50 on average, 39% succeed. So you do that on a large amount of trials, and then you start gaining confidence that dammit, what this algorithm or what this model is telling me eventually reflects reality. Now, of course, these are averages, right? So there will be trials for which you say 5% and they succeed. Now the obvious thing there to say is, and what we like about this actually, it's a true probability measure. So 5%, what does it mean? Right. I don't need to tell you. 5% means one out of 20 should succeed. Otherwise it's not 5%. If every, if every trial for which you say 5% fails, well, it's not 5%. It's zero. So if you say 5%, you should have one out of 20 succeeding. So you want to see that and you do see that, which is good. </p><p>Similarly, if you go to a drug developer and you say, you know, 80%, they've never heard a higher number in drug development. Those numbers are rarely exist. So 80% to a drug developer means success. Well, no, it means two out of 10 will fail. Right. So you want to see that you run statistical checks, like the bins that I mentioned, Brier scores, AUC. So you run a bunch of statistical tests and you get very high predictive power. </p><p>Look, I'll summarize it like this in the beginning of phase two, which is pretty early in drug development, right? So you still have, five, six years of, of development left ahead of you. The predictive power of our algorithms are about 90%. So we can tell you with 90% confidence that the probability that we give you is the right probability. When we tell you 20 it's 20, when we tell you it’s 60 it’s 60, we don't give you a one-zero estimate, we'll give you a number. And we're 90% confident on that number. </p><p><strong>Harry Glorikian: </strong>That's a pretty bold statement. So I'll, you know, let's, let's think about it here though. Right? So two things, right? Mof this stuff at some point has to be explainable, which is typically an issue in machine learning is the explainability of the model. So how have you designed it in a way where you can be like, yeah. Okay. This is why I got to this answer. </p><p><strong>Vangelis Vergetis: </strong>It's a great point. I wish we could do exactly what you said. But we can come close. So a couple of things, culturally, and for the right reasons, if you go, eh in front of the EVP of R&D in a large pharma company or the head of portfolio, whatever, and you tell them the answer is 42, they’re going to throw you out of the room. They want to know, “Where does the 42 coming from? Why are you telling me this? Give me some, I need to know what can I do about it? I need to understand it.” Which it's very human and it's also the right thing. </p><p>So we run, by design, we run machine learning models that are explainable. And there is explainability work being done in the academic community even for, let's say deep learning models, which are still much less explainable than a random forest or a KNN or, or something like that. So we run explainable machine learning algorithms. We spend a lot of time on explainability.</p><p>And if one goes on our platform or uses our software, if you look at the number and then you literally click on a thing that says, explain to me why, and you see all the features that contribute to that answer and how important each feature is. So the reason I'm telling you that your probability is 42 is because on the positive side—and I'm making it up for a second, right?—a target that's a gene that's highly expressed in the tissue. You're going after let's say the lung or, or, or the breast or the liver or whatever it is. The cancerous tissue versus the healthy tissue. You've designed a very good trial with the right endpoints. It's well sized with the, the amount of patients you're putting in. You have a biomarker, which is a good thing, blah, blah. And maybe we'll also say on the negative side, by the way you know, as a company, you may not have that much experience in this particular disease area. So I'm dinging you a little bit. And the regulator hasn't said anything special about you, you haven't received any breakthrough or accelerated approval or anything like that. The gene you picked is highly expressed, but there has been zero, it's a first in class indication. If it's a first in class molecule that has been no approvals in the past of that target. So that tells me it's a little more risky than the 20th PD1 in the market. So it will give you all that.</p><p>And people can do two things with that. One, and perhaps less important, but important. It gives them confidence that they understand why the machine is telling something. They can wrap their head around it and they can get more confident, even though I can tell you, yeah, I've run the statistics and the predictive power is 90%, you want to be able to understand it. You want to touch it. You want to feel it. You want to understand why? So it does that. </p><p>The second thing it does is you might be able to do something about it. So back to the simulation, right? What do we help our customer? I can maybe assess for you what the difference will be if you use the biomarker versus not. If you have a larger trial with another arm or not. If you use this endpoint versus that endpoint. So you may be able to say, okay, I understand that the probability is 42%, but if I change these three things, can I make it 50? And those eight points in PTRS and probability of approval are massive in terms of NPV or whatever, evaluation you use. </p><p><strong>Harry Glorikian: </strong>That was going to be what I would, one of my next questions is, so you're doing all this. And so do they always act on the data or in some cases, do they make a different decision based on what the model said?</p><p><strong>Vangelis Vergetis: </strong>Both. So, and, and the model is not a black or white model, right? It's not going to tell you do this, or don't do this, or move to phase three or don't move to phase two. I'll give you an example, if you are in oncology if I tell you that this asset has a 80% probability of success versus 60% probably of success. It probably doesn't matter. You're going to move ahead. Anyway. It's high enough and the risk is too low. You might as well do it. So sometimes, you know, at the extreme, it may not make a big difference whether if I tell you it's a 5% probability versus a 3% probability, do you actually care? It's pretty damn low. </p><p>Now in a lot of cases though, they, they fall somewhere in the gray zone and this is where a lot of other factors come in. So what do we think of that commercial potential. What are our competitors doing? How does it fit broadly with the rest of our pipeline and all of the other assets, both approved and the programs we have out there. So there's a lot of other considerations that go into making a decision, whether I move to phase three or whether I de-risk it, or you know, what I do.</p><p>But for the most part what we've seen is our customers act on the information. They are able to take that information, enhance their decision-making process and make at the end of the day, a better decision either because they stopped something they should have stopped, they progressed something they should have progressed, or they designed the trial a little bit differently, or they  you know, put a program in place that maximizes the potential of the asset they have in their pipeline.</p><p>So all of those things happen. The last thing I'll say, Harry, and this one is where we see a lot of action as well, is in business development. So while most of our, we're not, most actually, a lot of our work is in R&D. So pharma companies developing their own molecules. We see two more areas where this approach is gaining a lot of steam.</p><p>Actually one is business development. So as I'm looking not for my own pipeline, but as I'm looking to identify or attract programs out there that I may want to go buy or partner with or in-license and do all sorts of things. So we work with a customer early on phase one and they said, you know, what are the innovative, if you will, first-in-class assets in phase one, so risky stuff for a particular indication, RA or IBD or Parkinson's or pancreatic cancer, whatever it is for the indication that I care about, what are the phase one programs out there that one are scientifically innovative. So I don't want the me-too drugs. I don't want the 21st PD1 in the market, but I want something innovative. And two, can I see that list ranked from a risk point of view or from an attractiveness point of view, you know, some have a 2% chance of approval. Some have a 20% chance of approval. Well, I want to talk about the 20.</p><p>Yes. And we've, we've helped customers identify molecules and programs like that, where they go and they have a conversation with a biotech in south San Francisco or in Zurich, Switzerland, or in Tokyo or wherever, with that biotech about in-licensing or partnerships or acquisitions or whatever it is. So with that we've seen quite a bit of action.</p><p><strong>Harry Glorikian: </strong>Machine learning takes hold in drug development. What's the big picture outcome. What do you think, you know, how do you think…is it the Intelligencias of the world that are going to change the dynamic? Is it going to be the companies themselves? You know, I believe this is going to have a profound impact on how things are done and what goes forward. </p><p><strong>Vangelis Vergetis: </strong>Here's what I'd love to see Harry, I'd love to see… For years we've seen—and there's some change recently—we've seen the productivity of R&D declining in our space in pharma and biotech. I refuse to accept that. In the era of a lot of data becoming available, in the era of us being able to use techniques like machine learning, to do something with that data, there's gotta be a way to reverse that trend, that declining trend in R&D productivity, and see it going up again. Who benefits? Patients, where they see better drugs reaching them faster and curing disease. And of course the broader community of pharma companies, biotechnology companies and so on. So the, the big picture is I'd love to see the productivity of R&D in our space increase.</p><p>And AI, whether it's Intelligencia—and I'm hoping, and I'm sure we will, but there we'll be honest there and that's great. We all need to think through, you know, how do we reverse the trend? So in, in pharma or, or in drug development, I see that as the big picture you know, how do I pick the winners? How do I invest behind the winners? How do I make sure I don't create any, you know, biases in that way where I miss some of the drugs that would have existed had I made the right choice and make my R&D dollars and R&D hours and effort much more productive at the end of the day for delivering drugs to people that need them.</p><p><strong>Harry Glorikian: </strong>So I saw you were quoted in a report from a law firm called Orrick that I liked. I think you were paraphrasing Derek Lowe from Novartis where you said, “It is not that AI will replace drug developers. It's that the drug developers who use AI will replace those who don't.” And coming back to the beginning, you know, do you think this is happening across the board in all businesses? Whether it's on experimental drugs or winning baseball teams.</p><p><strong>Vangelis Vergetis: </strong>Yeah. So it's a great question. Look, I think it is happening across all industries but each industry is different. So I think the scale of impact and the scale of adoption to date are very different across industries.</p><p>We talked about, you know, we used construction as an example earlier. If you think about construction, the impact that AI will have a construction, it's not zero. I know one, a friend and a mentor runs a cement business and their AI. I'm not joking. They're using AI in cement production to make it more environmentally friendly, increased productivity, increased—he'll do all those things. So yeah, there will be impact. But it's going to be less in construction and building materials than it is in healthcare. </p><p>Or it's going to be built different in, in, in financial services, let's say that, than it is in travel and tourism. Again there are opportunities for machine learning in travel and tourism. Probably less than in banking or financial services broadly or healthcare. </p><p>To attempt to answer your question, because I don't know, I don't know what the answer is, I can tell you what my bias is or my view. Yes, it will be used across industries, but the scale of impact will be materially different, whether you're in healthcare or in travel.</p><p>And two, the adoption to date is very different. All this excitement about AI and all this energy and all this impact that it can have, it's fantastic, and it will have it, but let's also be thoughtful here. I think we all are. But you need experts. There's a lot of art and a lot of things that happen. There's art in drug development. There is art in baseball, there's art, in a lot of things. There is instincts, gut feels that humans have. Some of it is bad because it's biased, but some of…he didn't miss it. There's decisions that doctors make every day as they treat patients. Forget drug development, that yes, that can be made better by AI. Maybe they can be guided by AI, but I'm not sure an AI will take over a physician's job and anytime soon.</p><p><strong>Harry Glorikian: </strong>No, I mean, I think the two together always, at least right now, will equate to step wise function up, right? The AI may not miss a piece of data that the physician didn't see. I've been with physicians where they call it and they were missing a piece of data. Had they had that data, that decision would have been different. The machine isn't going to miss that last piece, right, necessarily. And so I think the two together can be much more powerful than any one alone per se.</p><p><strong>Vangelis Vergetis: </strong>Yeah. And it varies a lot by the use case, meaning can a machine read a lung image or can it tell me if this picture is a dog or a cat? Yeah. Probably can do it better than a human or, or equally good, equally well. But in use cases that are much more intricate than, you know, reading looking at an image, whether it's building a baseball team or designing a phase three trial or anything approaching that level of complexity, the two need to come together and will for a long time to come. So I think Derek is right in that sense. Yeah. If, you know, the ones that use drug development will replace the ones that don't, but AI by itself is not going to replace everybody. Not anytime soon. </p><p><strong>Harry Glorikian: </strong>Yep. I agree. Well, listen, it was great to speak to you. I look forward to continuing our conversation, because I can see that there's many areas of overlap. And it's been great. </p><p><strong>Vangelis Vergetis: </strong>Thank you, Harry. I appreciate it. </p><p><strong>Harry Glorikian: </strong>Thank you. </p><p><strong>Vangelis Vergetis: </strong>Bye.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p>
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      <pubDate>Mon, 5 Jul 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (harry glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week Harry sits down with Vangelis Vergetis, the co-founder and co-executive director of Intelligencia, a startup that uses big data and machine learning to help pharmaceutical companies make better decisions throughout the drug development process. Vergetis argues that if you put a group of pharma executives in a conference room, then add an extra chair for a machine-learning system, the whole group ends up smarter—and able to make more accurate predictions about which drug candidates will succeed and which will fail.</p><p>Bringing better analytics into the pharma industry has been an uphill battle, Vergetis says. One survey by McKinsey, his former employer, showed that financial services companies were the most likely to adopt AI and machine learning tools; the least likely were the building and construction trades. But just one rung up from the bottom was healthcare and pharmaceuticals. "The impact that AI could have on health care is "enormous," Vergetis says. "It's in the trillions. But in terms of AI adoption, we are right above construction—and no offense to construction, but it's not the most innovative industry."</p><p>But with the proper data, machine learning algorithms can help drug makers form far more accurate predictions about the probability that a new drug will perform well in Phase I clinical trials, or whether a drug that's succeeded in Phase I should be advanced to Phase II. "For years we've seen the productivity of R&D declining in our space in pharma and biotech, and I refuse to accept that," Vergetis says. "In the era of a lot of data becoming available, in the era of us being able to use techniques like machine learning to do something with that data, there's gotta be a way to reverse that trend."</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>MoneyBall Medicine - Vangelis Vergetis Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p> </p><p><strong>Harry Glorikian: </strong>My guest today is Vangelis Vergetis, the co-founder and co-executive director of Intelligencia. It’s big-data analytics startup focused on the pharmaceutical industry. And the argument Vergetis makes to potential clients is that you can take any group of 10 drug development experts in a conference room, and make them a lot smarter by adding an eleventh chair for a machine-learning system.</p><p>Of course, there’s always an art to deciding which drug candidates should advance to clinical trials; which Phase 1 trials should advance to Phase 2; and so on. Decisions that like are risky and expensive, and you can’t make them without having a lot of old-fashioned experience and instinct around the table.</p><p>Even so, sometimes the experts are biased and the experience doesn’t apply. And there’s only so much data they humans can keep in their heads. And let’s be honest: if decision makers at the big drug companies were <i>that</i> smart and talented, they’d have more home runs and fewer strikeouts.</p><p>Vergetis argues that we’ve got the historical data and the computing power today to make far more informed predictions about which drug programs to push forward. And if more drug companies used those tools, he thinks, it might reverse the decline in R&D productivity.</p><p>In the conversation you’re about to hear, we talked about how Vergetis and his co-founder Dimitrios Skaltsas started Intelligencia; how they built their own datasets; how they work with clients; and why it is that he and I think a lot alike—to the point of using the same MoneyBall metaphor when we talk about transforming drug discovery and healthcare.</p><p>So here’s my conversation with Vangelis Vergetis.</p><p><strong>Harry Glorikian: </strong>Vangelis, welcome to the show. </p><p><strong>Vangelis Vergetis: </strong>Thank you. Very good to be here. </p><p><strong>Harry Glorikian: </strong>You know, it's interesting. I was looking at the company and looking at what you guys are doing. And I, I've probably talked to, I don't know, close to 70 experts in different areas of healthcare, drug discovery, computer science you know. Out of all those people, I honestly think you and your company Intelligencia might be the most exact reflection of the argument I was making in my 2017 book MoneyBall Medicine. In fact, I actually think you used the MoneyBall metaphor in your own talks. So I want to start out with having you explain the parallels between your company and what Billy Bean did at the Oakland A's.</p><p><strong>Vangelis Vergetis: </strong>it's very funny. You say this Harry, by the way when we started the company, what is it, three, three and a half years ago now, we had a slide actually. You know, baseball did it in the nineties. Is it about time that healthcare does the same? and going through the MoneyBall analogy. So look, the quick or the easiest way to explain it, right, it's the analogy of how do you pick baseball players and build a winning baseball team and how do you pick drug candidates and development programs and build a winning pipeline?</p><p>So, you know, back in the day, what baseball did is a lot of experts in a big conference room. And these guys have watched—and I say guys, because yeah, they were primarily guys—they watched, you know, thousands of baseball games each, and they had their own perspectives and views and biases and experience in terms of what's you know, who's a good baseball player and who's not, and who they want on the team and how do they complement each other.</p><p>And that's how they built a baseball team and, you know, the, the kid comes in and, you know, the chubby kid, I think Jonah Hill, right, and tells Brad Pitt, or Billy Bean in real life, I think we can do this differently. And that's a little bit of the analogy here, look, it's not a perfect analogy, like everything. Right? But the analogy here is how do you go from when you design a clinical trial or when you think about the pros and cons and the risks of a development program, how do you take that conversation from a room full of people, the oncology PhD, the statistician, the person who's developed dozens of drugs in the past and so on, and you inject some data science and machine learning capability into that conversation. There is art in drug development. We'll be the first one to acknowledge that, the same way there's art in baseball. So I would not expect that you know, that room gets replaced by a machine in any shape or form and definitely not in the, in the near or even medium, medium future. But the idea is, you know, if you have 10 people in the room, can you pull up an 11th chair, have the machine learning algorithms, sit at a chair. And provide a very unbiased data-driven perspective into that conversation. So that, that, that's what we do. </p><p><strong>Harry Glorikian: </strong>So we're going to, I want to get into some of the details, but I want to step back and fill in some history here for the people and how Intelligencia got started. If I'm not mistaken, your background is computer science, not biology. Right? Okay. And your co-founder Dimitrios [Skaltsas] is trained in law. So you both spent times at McKinsey, is that where you guys met? </p><p><strong>Vangelis Vergetis: </strong>So we, it's a, it's a good, good both of those good points. So you have a former lawyer—which we don’t hold against him, we still like him very, very much—and a former computer scientist or electrical engineer who are running a company in drug development. Like, how does that work? A couple of things. As you, as you rightly pointed out, we met at McKinsey. We were both part of the healthcare practice there. Initially I was in the, in the US. Dimitrios was in Europe. We met 10 years before starting a company just running client projects together. We kept in touch over the years. And at some point, I think it was 2014, Dimitrios moved to New York, moved to the US with McKinsey and took some AI responsibilities. McKinsey was doing some internal AI. I think it was called McKinsey Solutions or something like that.</p><p>So we became closer when he was in New York. We were both in healthcare for the better part of the last a decade, and we were looking for, what is the opportunity? You know, what's the area in, in drug development or frankly in pharma more broadly, where we believe we can have an impact.</p><p>And it was partly us thinking through different areas. It was frankly customers or clients coming. We were both at McKinsey and we have done this study over and over again. Right. How do you design a better clinical trial? We had, I had done this, I don't know, two dozen times, maybe more. And clients kept asking McKinsey or us, Hey guys, you know, we understand how you do this and you do it very well, but are you using machine learning? Are you using data? And after saying no for about, you know, 50 times we said, okay, we should stop saying no and just go build the damn business. So here we are. </p><p><strong>Harry Glorikian: </strong>Yeah, no, I know that. I mean, from my days having Scientia Advisors, they ask over and over and over again and you keep it. It's great profitability by the way, but because you sort of know the answer. But you couldn't have picked a harder space though this is not a trivial exercise, especially if you go back to 2014 where some of the data was not even truly available or not in a format or not labeled or, or, or, or, or, or—right, to where we are today.</p><p><strong>Vangelis Vergetis: </strong>We started the company basically in 2018. The biggest challenge, I think you, you, you rightly put it, it's getting your hands on the right data. You need to answer the question you want to answer. And we took that view by the way. And some people go differently and I'll have my biases, my own biases, I'll admit. In a lot of places, what we've seen, particularly some big pharma, because they're sitting on a vast amount of their own data, but whether it's CTMS data or whatever clinical trial data they have, and the exercise they mentally do is okay, I have all this data. What questions can I answer? What can I do? And there's a lot of value there. We can answer a lot of good questions. But sometimes the question you ask needs more data than what you have, and you're kind of force-fitting it a little bit and say, yeah. Okay. But maybe I can answer most of it. Well, not really. </p><p>So we flipped it. We asked the question, the question is, what is the risk of this clinical development program or the flip side of it? How likely is it that this clinical program or this drug will eventually reach a patient, will eventually receive approval by the FDA and be used by a patient. Then we went there. We said, okay, if that's the question, what data do we need to answer that question? Some of it very easily accessible. Some of it doable, but you need to build data pipelines. You need to clean it up. It's a little bit messy, whatever. Some of it doesn't exist. We've got to build it from scratch. So if you do it the other way and say, what do I have, you'll ignore that piece that says, doesn't exist. I have to build this from scratch. You're going to try to solve the problem with the other stuff.</p><p>And then you realize it's not enough. So we asked the question and then we went very systematically to get all the data we needed to train the machine learning models. To answer that question. </p><p><strong>Harry Glorikian: </strong>Sounds like a consulting approach. What do we need to fill the two by two? So I totally get it. What are the biggest limitations you see right now from pharma's current method of assessing clinical trial risk? </p><p><strong>Vangelis Vergetis: </strong>Yeah, there is, there's a few and some are bigger. Some are smaller. And it's, it's hard to paint the whole industry with a broad brush, but there are some technical limitations that everybody has like as humanity, as a scientific community. Do we really understand drug biology or biology? Really well, human biology. I don't know. We understand it well enough, but from the, total knowledge, biological knowledge, we probably know this much. That's one challenge and it's a technical challenge or a scientific challenge.</p><p>A technical challenge is and I think you put your finger on it, data availability. But it goes beyond, can I get my hands on the right data? Is it curated in a particular way? Is it well annotated? Is it labeled? Does it have the same quality? Is it consistent? You know, I, I take data from this genomic database. I pick data from that genomic database. Are they structured the same way? Kind of combine them or how much work do I need to do combine them. </p><p>Now, it's a solvable problem. You know, the understanding of biology. It is solvable over time, but not immediate. The technical aspect of, can I make data consistent, solvable, is incredibly painful, and very few people have the patience for it or are willing to, I mean, we've killed a lot of brain cells pulling that data together, but we've done it.</p><p>And then there's a third group, I think, of challenges that I would put in the broader, you know, cultural umbrella. You know, there is the, what I call the “every drug is unique” syndrome. A lot of people out there will say, well, you know, there's so many differences between drugs and programs and all that, there's no way you can use machine learning to estimate the success of this drug. Most of it not true, actually there's that syndrome there is the—and it's actually very interesting in the pharma industry, particularly, or in biotech—here is the “I want to see very quick results. I want to try this AI thing, whatever this AI thing is. Let me try it for two, three months. Show something quick. If I can show us a quick win. Great. If not, I'll throw it away. I don't have the patience for it.” </p><p>And this is an industry that will easily not even think about investing 10 years and a billion dollars to develop, forget clinical, in the preclinical world, to discover a new target or a new molecule that could cure Alzheimer's or pancreatic cancer or something. So we are an industry that we're very much into putting an enormous amount of resources, time, patience, to discover a drug, but when it comes to incorporating an AI system methodology model that may help us tremendously, we are impatient. “Three months. Let's see what I can do. Oh, no results? Throw it away. I'll never see it again.” </p><p>And there's a little bit about this, I think in all fairness, companies are getting better. So most of the large pharmas, they have now chief digital officers or chief innovation officers with a whole structure underneath them and mandates and all that. So I don't want to be too, too pessimistic here. Right. There's a lot of effort. And I think the industry at the very least has acknowledged they have a cultural barrier that needs to be overcome. But I don't think we're fully there in how we overcome it. But we're making progress, </p><p><strong>Harry Glorikian: </strong>But it's interesting, right. I look at existing big pharma and the lumbering ways they sort of move forward in fits and starts. And, you know, do I want to disrupt my kingdom to implement this thing? I mean, there's, there's a lot of human psychology that's involved here and a lack of understanding right. Of fully understanding this and what it can do for them in different areas.</p><p>Then I look at the startups that literally from day one are totally data purpose-built right. Everything they're looking at is, “What's the data. How do I label it? Where are we going to use it? How do I manipulate it?” I mean, literally it is from the ground up. And I always think to myself sooner or later on my bet is that the startup is going to out maneuver the big guy.</p><p>I mean, Google started from as a purpose-built entity and it's, you know, it, it outstrips most of its competitors and reshapes industries. I always think it's harder to take an existing entity and reprogram its DNA rather than have a predesigned piece of DNA from, from day one. </p><p><strong>Vangelis Vergetis: </strong>Harry it's an incredibly interesting thought, and I don't have an answer for it. And only time will tell. I would expect some pharma companies, whether we're talking about big pharma, you know, the big 10 or, you know, the, the massive guys or some of the, you know, in our industry, it's very funny, like a mid-sized biotech, it's still a $20 billion business. So, but I would bet some of them, to use your words, will adapt, will reprogram their DNA to some degree, a little bit painfully, it's going to be a little bit slow or they're going to have some false starts, but somehow they'll, they'll get there. Some others will just buy and we've seen this in the industry, right? So, interesting startup, I'll just buy them. And a few of these have already happened. We've seen, what is it, Flatiron was bought by, I believe it was Roche, right? Yes. There's many other similar examples. That's probably one of them more, the bigger ones, the more prominent ones. </p><p>So I would expect this reprogramming of DNA will not fully happen organically. Some of it will happen by big pharma realizing, “Yeah. We need to play, you know, if we, if we're not a data company in a few years from now, we're, we'll be nowhere, right? How do we get there? Let's get our stuff stuff organized, and maybe we'll go make a couple of select acquisitions and eventually we'll get there.”</p><p>So I think all of these flavors will materialize in some shape or form, and some companies will lose. Some companies will do the investments and put the, hire the right people and make the right acquisitions and, and, and they will continue to grow. </p><p><strong>Harry Glorikian: </strong>Yeah. And I look at it as an analogy to like, if I look at say JP Morgan or Goldman Sachs, I mean, they are the amount of money that they're spending trying to transition to this new capability is, we're not spending the same amount of money in pharma for sure. Right? Not even close. </p><p><strong>Vangelis Vergetis: </strong>I don't know the actual amount of money, because I haven't done the analysis. I haven't seen numbers. But my former employer, McKinsey, has done quite a bit of work. I think it was MGI. So MGI is McKinsey's think tank, it's the McKinsey Global Institute. They had done a lot of work on this. And I remember seeing a chart that I thought was, was mind boggling. Areas that are way ahead in AI, or industries that are way ahead in AI, I would say financial services. So the Goldmans and JP Morgans and Morgan Stanleys and some of the world’s high-tech of course, and a few others. Who's at the bottom? I think it was like building materials or construction, which I get it. Second from the bottom? Health care. It was literally that bad.</p><p>Well, it's true. If you look at the data, the, the sad thing for me the part that we need to think about as an industry, the promise or the impact that AI can have in healthcare. And I'm talking about healthcare more broadly now, including hospitals and payers, not just drug development or a pharma. But the impact that AI can have on health care is enormous. It's in the trillions. But in terms of AI adoption, we are right above construction and no offense to the construction, but it's not the most innovative industry.</p><p><strong>Harry Glorikian: </strong>So, this is why I love investing in this area, because it's such an incredible, I mean, some of the other opportunities are still incredible, don't misunderstand me, but this is at its nascent stage in my mind, where the opportunity is dramatic to sort of move the ball forward. Okay. Which brings me to the next question, which is, you know, and you don't have to name any names or anything like that. Walk us through sort of a real world example of how you help a client in practice. </p><p><strong>Vangelis Vergetis: </strong>Ooh. Maybe I'll give you two examples. You asked for one, I'll give you two. Actually I'm gonna give you more, but let, let's start with that. </p><p>So where do we typically you know, we work with several flavors of customers, right? So we, we serve some of the largest, you know, top five big pharma companies we serve. Some of the smaller, even private biotechs. And we serve a bunch of the mid sized biotechs or midsize pharma companies. One area that that comes or one example is a specific program. So I'll, I'll pick on an actual example. So a specific, it's a phase two asset on a phase two program. It was a combination program, I believe for pancreatic [cancer] that our client was running. It was the phase two. It had been going on for about a year, I want to say. So it was in the middle of phase two, they were starting to see some interim results.</p><p>They hadn't published anything. They were starting to see some interim results, but they were still waiting for the phase three to complete. And then there were basically three questions with increasing degrees of difficulty, if you will. Question number one, how likely is it that this program, so this combo, so our molecule with, I believe it was chemo for pancreatic cancer, will eventually reach a patient, will eventually receive regulatory approval by the FDA? That was question number one, which is our bread and butter. This is what our algorithms do. I'll make up the number now. It's a, you know, 13%, which by the way, for pancreatic cancer, phase two, that's not bad. </p><p>The second question was, okay, now let's start thinking forward. So at the end of phase two, we're able to show ABC, how does that probability change? Because given the interim results we've seen, we have pretty decent conviction we'll be able to show something in that range when it comes to OS or ORR or whatever end points we're measuring. What will our probability to change to. It’s 13 now, will it go to 20 or we'll go to zero?</p><p>What if we managed to show something better or something worse. So in that sense, we're trying to calibrate and say, based on what we show at the end of phase two, how do we make a decision? Should we go to phase three or not? Is it too risky still? And it needs to be derisked further? Or are we comfortable with the risk we're taking, and we're willing to write a, you know, $200 million check to run a phase three program. </p><p>So we did the simulations, if you will, of the analysis to say, based on what your phase two will show, here's what you should expect your risk to be at the beginning of phase three. That was the second layer. </p><p>The third layer went even a step further and said, okay, let's assume we are now comfortable moving forward. So the risk is within what we're willing to take given the size of the prize, right? Because if you do get this drug approved, we estimate an enormous commercial potential. So we're willing to take significant risks here. How should we do this? So help us think through how different choices for continuing our development program affect our chances for approval.</p><p>For example, should we run a smaller phase two-B and then two large phase three trials. Should we scrap the phase two-B and go straight to pivotal phase three and do a much larger trial. And there are different trade offs there that have to do with costs, time and risk. We help them think through from the middle of phase two where they are today, how likely is it that they go approved? How will that evolve once they publish results? And if they decide to move forward, what the best path forward is from a risk point of view. So that's one example. Well, I'll spare you. The second one, I spent too long on the first one. </p><p><strong>Harry Glorikian: </strong>So you've written this machine learning model, right? So, and I want to say there's at least a hundred factors, clinical trial, design outcomes, regulatory process, you know, the biology itself that you mentioned, right? The history. You have to train a model like that. Where did you get the data to train this complex model?</p><p><strong>Vangelis Vergetis: </strong>There's no single. So I wish there was. So we we've been to now dozens of data sources. So I think what I said at the very beginning, right? Some of the data was easy to get. So for example, there is a bunch of data that clinical trials.gov has. Of course we have that, and everybody else has that. That's very easy to get right. Valuable, but very easy to get, which is good.</p><p>There are some data where you need to, it's publicly available, but you need to spend a lot of time cleaning up and curating. So think of genomic databases, whether it's TCGA or GTX, or, you know, dozens of other genomic databases that needs a lot of analysis and lot of processing and a lot of cleanup before you create features out of that data to put in your machine learning algorithms. So that's a, probably a second group.</p><p>And a third group that goes back to the point initially that, you know, not all the data you want to answer, the question, is available. So you have to build it yourself. We built it ourselves. So an example, there is clinical trial outcome. So there is no to our knowledge and we looked hard. There is no data you can buy that has in an incredibly consistent, systematic way, all the outcomes of clinical trials in a particular therapeutic area for the last 20 years. </p><p>So let's say, I mean, I mean, oncology, I'll give you an example. There's been a few thousand trials in the last 20 years. Let's say since 2000, we need to know every end point that this trial measured. How many patients were in each patient cohort or in each arm of the trial. What was the value of that endpoint? What ORR did they achieve? What OS did they achieve? Whatever. When was that? </p><p>Because sometimes we say, OS, Overall Survival, well, was it measured at six months or 12 months. One layer more of specificity of exactly how the end point was captured. And then you need the number. How many patients survived at the six month mark or whatever it is. So there's all that, all that stuff that you need, and then you need it, not just for the trial or the program you're assessing, that's easy to do, right? It's one program. We can get it from the, from the pharma company themselves. We need it for every single trial that has ever succeeded in the past. And for every single trial that has ever failed. That's how you train a machine learning algorithm. That was very painful. </p><p>We have a whole team in Athens, actually. So if the name didn't give it up, I'm from Greece originally. I've been in New York for like 25 years now, but I'm from Greece originally. So a lot of the team is based in Greece and part of that team, they're a very highly educated team and, you know, PhDs in biology, oncology, immunology, pharmacology, all the ologies. And that team curates in an incredibly systematic way all that data, before our data engineers and before our machine learning team can take over to build models. Right? </p><p>So to answer your question in a short way, dozens of data sources, some easy to get some much harder with a lot of processing. And some we had to just create from scratch. </p><p><strong>Harry Glorikian: </strong>I mean, that was just thinking about what you were saying. That, that last piece we were just discussing. I mean, I can imagine to hospitals and to doctors that would be—if you could put that into interesting matrix, they could get an interesting view into these drugs instead of memorizing off the top of their head. It's it, you know, I always find all these discussions with companies that have data. I can think of five other things to do easily. Once you've got the data source. </p><p><strong>Vangelis Vergetis: </strong>We've been discussing internally, both as a team, but also with our advisors and even our customers at this point where they're coming to us on the saying, Hey guys, that's amazing what you have. We'll pay you money. Can we now do this. Can we now do that. And some of that we would love to do and we're entertaining it. Some of it, you know, we, we're still a growing company or, you know, there's 40 of us total in the company. You also don't want to get distracted by too many shiny objects. You know, find the right shiny object and focus on a couple of them, but not too many.</p><p>So for some of them, we'll say, look, we could do it. We can, we don't have the time. We don't have the bandwidth today. Maybe later. For some of them we would say, yeah, that's incredibly interesting. And we were planning to go there anyway. Let's do it faster together. So we're discussing with one of our customers today about building something that goes beyond risk and starts thinking about the commercial implications of what happens when a drug actually gets approved. So it's not just predicting approval, but can you predict anything in the commercial space, whether that's revenue reimbursement market shares and so on. </p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p><strong>Harry Glorikian: </strong>If you have it to say, what is your defensible advantage, your special sauce? Like, what is it that you're doing for pharma that they can't somehow reproduce for themselves? </p><p><strong>Vangelis Vergetis: </strong>That's a great question, Harry. I will say a couple of things. Some are softer, some are harder. On the softer side, and probably more important by the way, is the persistent focus you know, unrelenting pursuit of what we're here to build. In a larger company, it's too easy to lose focus, budgets, get cut, people, get reassigned, promoted, change departments, move.</p><p>So it's very hard to get a team together to focus on something for an extended period of time and only do that. So that's probably one thing when, when you compare it to a larger pharma company, right. The, the second thing would be. Bringing together people with very different expertise and experiences.</p><p>So if you go to our office in Athens—and not the last year, given all the mess, we're all living in with coronavirus—but if you go to our office in Athens either before that, or hopefully very soon, it's a room and you have, you know, the data scientist is sitting here. The oncology PhD is right next to her. Right across is the data engineer. The drug developer is sitting over there. The statistician is there. </p><p>So it's literally having all those people in one room or in, you know, a series of rooms in one floor, let's say, where they work together on the same topic. And it sounds a little bit mundane and it sounds a little trite, but it makes a difference for the biologist to be listening into, as these computer scientists or data scientists are talking about their models. And I'm sitting here entering all the biological clinical data from this New England Journal of Medicine article that I'm reading. I actually understand how they use it and I can offer an idea. I can say, Hey, actually, I can capture it in a way that will help you guys given what you're discussing. So all those things help.</p><p>So that's the second element, which is a team of you know, we use diversity in many ways. So a diverse team, not just in the, in the racial or, or, you know any other perspective, but also in experiences and backgrounds. </p><p>And the third one, which is the more technical one. It's the data we actually do have. It does take an enormous amount of time, a lot of people, an enormous amount of effort to actually build and create the data cube that we have. Nobody else has this. It's incredibly painful but we've done it. So that does set us apart. There are companies out there that are trying to solve the same or very similar questions or answer very similar questions based on a much more limited set of data. And they fall short. They're okay. But they will short of, of our predictive power. Not because they're not doing anything wrong, not because they're not good data scientists, all of those things are fine. They just don't have the data we have. </p><p><strong>Harry Glorikian: </strong>And so that brings me to that next question. In all of these models, there there's little issues, fraught throughout the process…</p><p><strong>Vangelis Vergetis: </strong>Oh my God. There's so many. And some of them are longer. </p><p><strong>Harry Glorikian: </strong>Many, right, that you have to think through. Right. That's why whenever somebody says, oh yeah, I've got the perfect answer, I'm like, it's impossible. Perfect? No, right. So what is the accuracy? I mean, if you said your predictive algorithm, how do you, how do you, first of all, what do you compare it against? And then let me just pick and say, if I will, putting it against a traditional way of making decisions. How do you measure your accuracy? And then do you go back and look at real world evidence versus the system?</p><p><strong>Vangelis Vergetis: </strong>Yeah. So we we've done a few things that are very interesting. There is a standard metric for machine learning. So let's not get too technical or I don't know how technical your audience is. But there's the AUC, which is Area Under the Curve, which means the area under the ROC curve…whatever, there's a metric called AUC. It's pretty much a number between 0.5 and 1. I mean, technically it could be low as 0.5, but that's a silly, so it's a number between 0.5 and 1. The higher it is the more predictive your model is. We are in the high eighties, low nineties, which is, which is incredibly predictive for a problem this nuanced and this hard. If you do image recognition and you use deep learning for image recognition, you get close to 0.999.</p><p>These are very different problems. So with a standard AUC metric, we score very highly and we've compared that with what others have published in literature. And we are higher than at least what we've seen published. But by others then you do obvious things, right? So, so what do you do, you say, okay, let me take an example of hundred trials or a hundred programs for which my algorithm predicts that they are, let's say in the 20 to 30% success.</p><p>All right. So my algorithm says all of these hundred fall in the 20 to 30% range. Now let me follow them over time and see what happens. What do you want? Ideally you want 25% of them to succeed, you know, somewhere in the middle. And it most often that's what happens. So when we say zero to 10 on average, let's say 7% of them succeed.</p><p>When we say 10 to 30 on average, 22% succeed. When we say 30 to 50 on average, 39% succeed. So you do that on a large amount of trials, and then you start gaining confidence that dammit, what this algorithm or what this model is telling me eventually reflects reality. Now, of course, these are averages, right? So there will be trials for which you say 5% and they succeed. Now the obvious thing there to say is, and what we like about this actually, it's a true probability measure. So 5%, what does it mean? Right. I don't need to tell you. 5% means one out of 20 should succeed. Otherwise it's not 5%. If every, if every trial for which you say 5% fails, well, it's not 5%. It's zero. So if you say 5%, you should have one out of 20 succeeding. So you want to see that and you do see that, which is good. </p><p>Similarly, if you go to a drug developer and you say, you know, 80%, they've never heard a higher number in drug development. Those numbers are rarely exist. So 80% to a drug developer means success. Well, no, it means two out of 10 will fail. Right. So you want to see that you run statistical checks, like the bins that I mentioned, Brier scores, AUC. So you run a bunch of statistical tests and you get very high predictive power. </p><p>Look, I'll summarize it like this in the beginning of phase two, which is pretty early in drug development, right? So you still have, five, six years of, of development left ahead of you. The predictive power of our algorithms are about 90%. So we can tell you with 90% confidence that the probability that we give you is the right probability. When we tell you 20 it's 20, when we tell you it’s 60 it’s 60, we don't give you a one-zero estimate, we'll give you a number. And we're 90% confident on that number. </p><p><strong>Harry Glorikian: </strong>That's a pretty bold statement. So I'll, you know, let's, let's think about it here though. Right? So two things, right? Mof this stuff at some point has to be explainable, which is typically an issue in machine learning is the explainability of the model. So how have you designed it in a way where you can be like, yeah. Okay. This is why I got to this answer. </p><p><strong>Vangelis Vergetis: </strong>It's a great point. I wish we could do exactly what you said. But we can come close. So a couple of things, culturally, and for the right reasons, if you go, eh in front of the EVP of R&D in a large pharma company or the head of portfolio, whatever, and you tell them the answer is 42, they’re going to throw you out of the room. They want to know, “Where does the 42 coming from? Why are you telling me this? Give me some, I need to know what can I do about it? I need to understand it.” Which it's very human and it's also the right thing. </p><p>So we run, by design, we run machine learning models that are explainable. And there is explainability work being done in the academic community even for, let's say deep learning models, which are still much less explainable than a random forest or a KNN or, or something like that. So we run explainable machine learning algorithms. We spend a lot of time on explainability.</p><p>And if one goes on our platform or uses our software, if you look at the number and then you literally click on a thing that says, explain to me why, and you see all the features that contribute to that answer and how important each feature is. So the reason I'm telling you that your probability is 42 is because on the positive side—and I'm making it up for a second, right?—a target that's a gene that's highly expressed in the tissue. You're going after let's say the lung or, or, or the breast or the liver or whatever it is. The cancerous tissue versus the healthy tissue. You've designed a very good trial with the right endpoints. It's well sized with the, the amount of patients you're putting in. You have a biomarker, which is a good thing, blah, blah. And maybe we'll also say on the negative side, by the way you know, as a company, you may not have that much experience in this particular disease area. So I'm dinging you a little bit. And the regulator hasn't said anything special about you, you haven't received any breakthrough or accelerated approval or anything like that. The gene you picked is highly expressed, but there has been zero, it's a first in class indication. If it's a first in class molecule that has been no approvals in the past of that target. So that tells me it's a little more risky than the 20th PD1 in the market. So it will give you all that.</p><p>And people can do two things with that. One, and perhaps less important, but important. It gives them confidence that they understand why the machine is telling something. They can wrap their head around it and they can get more confident, even though I can tell you, yeah, I've run the statistics and the predictive power is 90%, you want to be able to understand it. You want to touch it. You want to feel it. You want to understand why? So it does that. </p><p>The second thing it does is you might be able to do something about it. So back to the simulation, right? What do we help our customer? I can maybe assess for you what the difference will be if you use the biomarker versus not. If you have a larger trial with another arm or not. If you use this endpoint versus that endpoint. So you may be able to say, okay, I understand that the probability is 42%, but if I change these three things, can I make it 50? And those eight points in PTRS and probability of approval are massive in terms of NPV or whatever, evaluation you use. </p><p><strong>Harry Glorikian: </strong>That was going to be what I would, one of my next questions is, so you're doing all this. And so do they always act on the data or in some cases, do they make a different decision based on what the model said?</p><p><strong>Vangelis Vergetis: </strong>Both. So, and, and the model is not a black or white model, right? It's not going to tell you do this, or don't do this, or move to phase three or don't move to phase two. I'll give you an example, if you are in oncology if I tell you that this asset has a 80% probability of success versus 60% probably of success. It probably doesn't matter. You're going to move ahead. Anyway. It's high enough and the risk is too low. You might as well do it. So sometimes, you know, at the extreme, it may not make a big difference whether if I tell you it's a 5% probability versus a 3% probability, do you actually care? It's pretty damn low. </p><p>Now in a lot of cases though, they, they fall somewhere in the gray zone and this is where a lot of other factors come in. So what do we think of that commercial potential. What are our competitors doing? How does it fit broadly with the rest of our pipeline and all of the other assets, both approved and the programs we have out there. So there's a lot of other considerations that go into making a decision, whether I move to phase three or whether I de-risk it, or you know, what I do.</p><p>But for the most part what we've seen is our customers act on the information. They are able to take that information, enhance their decision-making process and make at the end of the day, a better decision either because they stopped something they should have stopped, they progressed something they should have progressed, or they designed the trial a little bit differently, or they  you know, put a program in place that maximizes the potential of the asset they have in their pipeline.</p><p>So all of those things happen. The last thing I'll say, Harry, and this one is where we see a lot of action as well, is in business development. So while most of our, we're not, most actually, a lot of our work is in R&D. So pharma companies developing their own molecules. We see two more areas where this approach is gaining a lot of steam.</p><p>Actually one is business development. So as I'm looking not for my own pipeline, but as I'm looking to identify or attract programs out there that I may want to go buy or partner with or in-license and do all sorts of things. So we work with a customer early on phase one and they said, you know, what are the innovative, if you will, first-in-class assets in phase one, so risky stuff for a particular indication, RA or IBD or Parkinson's or pancreatic cancer, whatever it is for the indication that I care about, what are the phase one programs out there that one are scientifically innovative. So I don't want the me-too drugs. I don't want the 21st PD1 in the market, but I want something innovative. And two, can I see that list ranked from a risk point of view or from an attractiveness point of view, you know, some have a 2% chance of approval. Some have a 20% chance of approval. Well, I want to talk about the 20.</p><p>Yes. And we've, we've helped customers identify molecules and programs like that, where they go and they have a conversation with a biotech in south San Francisco or in Zurich, Switzerland, or in Tokyo or wherever, with that biotech about in-licensing or partnerships or acquisitions or whatever it is. So with that we've seen quite a bit of action.</p><p><strong>Harry Glorikian: </strong>Machine learning takes hold in drug development. What's the big picture outcome. What do you think, you know, how do you think…is it the Intelligencias of the world that are going to change the dynamic? Is it going to be the companies themselves? You know, I believe this is going to have a profound impact on how things are done and what goes forward. </p><p><strong>Vangelis Vergetis: </strong>Here's what I'd love to see Harry, I'd love to see… For years we've seen—and there's some change recently—we've seen the productivity of R&D declining in our space in pharma and biotech. I refuse to accept that. In the era of a lot of data becoming available, in the era of us being able to use techniques like machine learning, to do something with that data, there's gotta be a way to reverse that trend, that declining trend in R&D productivity, and see it going up again. Who benefits? Patients, where they see better drugs reaching them faster and curing disease. And of course the broader community of pharma companies, biotechnology companies and so on. So the, the big picture is I'd love to see the productivity of R&D in our space increase.</p><p>And AI, whether it's Intelligencia—and I'm hoping, and I'm sure we will, but there we'll be honest there and that's great. We all need to think through, you know, how do we reverse the trend? So in, in pharma or, or in drug development, I see that as the big picture you know, how do I pick the winners? How do I invest behind the winners? How do I make sure I don't create any, you know, biases in that way where I miss some of the drugs that would have existed had I made the right choice and make my R&D dollars and R&D hours and effort much more productive at the end of the day for delivering drugs to people that need them.</p><p><strong>Harry Glorikian: </strong>So I saw you were quoted in a report from a law firm called Orrick that I liked. I think you were paraphrasing Derek Lowe from Novartis where you said, “It is not that AI will replace drug developers. It's that the drug developers who use AI will replace those who don't.” And coming back to the beginning, you know, do you think this is happening across the board in all businesses? Whether it's on experimental drugs or winning baseball teams.</p><p><strong>Vangelis Vergetis: </strong>Yeah. So it's a great question. Look, I think it is happening across all industries but each industry is different. So I think the scale of impact and the scale of adoption to date are very different across industries.</p><p>We talked about, you know, we used construction as an example earlier. If you think about construction, the impact that AI will have a construction, it's not zero. I know one, a friend and a mentor runs a cement business and their AI. I'm not joking. They're using AI in cement production to make it more environmentally friendly, increased productivity, increased—he'll do all those things. So yeah, there will be impact. But it's going to be less in construction and building materials than it is in healthcare. </p><p>Or it's going to be built different in, in, in financial services, let's say that, than it is in travel and tourism. Again there are opportunities for machine learning in travel and tourism. Probably less than in banking or financial services broadly or healthcare. </p><p>To attempt to answer your question, because I don't know, I don't know what the answer is, I can tell you what my bias is or my view. Yes, it will be used across industries, but the scale of impact will be materially different, whether you're in healthcare or in travel.</p><p>And two, the adoption to date is very different. All this excitement about AI and all this energy and all this impact that it can have, it's fantastic, and it will have it, but let's also be thoughtful here. I think we all are. But you need experts. There's a lot of art and a lot of things that happen. There's art in drug development. There is art in baseball, there's art, in a lot of things. There is instincts, gut feels that humans have. Some of it is bad because it's biased, but some of…he didn't miss it. There's decisions that doctors make every day as they treat patients. Forget drug development, that yes, that can be made better by AI. Maybe they can be guided by AI, but I'm not sure an AI will take over a physician's job and anytime soon.</p><p><strong>Harry Glorikian: </strong>No, I mean, I think the two together always, at least right now, will equate to step wise function up, right? The AI may not miss a piece of data that the physician didn't see. I've been with physicians where they call it and they were missing a piece of data. Had they had that data, that decision would have been different. The machine isn't going to miss that last piece, right, necessarily. And so I think the two together can be much more powerful than any one alone per se.</p><p><strong>Vangelis Vergetis: </strong>Yeah. And it varies a lot by the use case, meaning can a machine read a lung image or can it tell me if this picture is a dog or a cat? Yeah. Probably can do it better than a human or, or equally good, equally well. But in use cases that are much more intricate than, you know, reading looking at an image, whether it's building a baseball team or designing a phase three trial or anything approaching that level of complexity, the two need to come together and will for a long time to come. So I think Derek is right in that sense. Yeah. If, you know, the ones that use drug development will replace the ones that don't, but AI by itself is not going to replace everybody. Not anytime soon. </p><p><strong>Harry Glorikian: </strong>Yep. I agree. Well, listen, it was great to speak to you. I look forward to continuing our conversation, because I can see that there's many areas of overlap. And it's been great. </p><p><strong>Vangelis Vergetis: </strong>Thank you, Harry. I appreciate it. </p><p><strong>Harry Glorikian: </strong>Thank you. </p><p><strong>Vangelis Vergetis: </strong>Bye.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p>
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      <itunes:title>Intelligencia&apos;s Vangelis Vergetis on Building a Successful Drug Pipeline</itunes:title>
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      <itunes:summary>This week Harry sits down with Vangelis Vergetis, the co-founder and co-executive director of Intelligencia, a startup that uses big data and machine learning to help pharmaceutical companies make better decisions throughout the drug development process. Vergetis argues that if you put a group of pharma executives in a conference room, then add an extra chair for a machine-learning system, the whole group ends up smarter—and able to make more accurate predictions about which drug candidates will succeed and which will fail.</itunes:summary>
      <itunes:subtitle>This week Harry sits down with Vangelis Vergetis, the co-founder and co-executive director of Intelligencia, a startup that uses big data and machine learning to help pharmaceutical companies make better decisions throughout the drug development process. Vergetis argues that if you put a group of pharma executives in a conference room, then add an extra chair for a machine-learning system, the whole group ends up smarter—and able to make more accurate predictions about which drug candidates will succeed and which will fail.</itunes:subtitle>
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      <title>Wendy Chung on The Largest Autism Study</title>
      <description><![CDATA[<p>From her TED talks and her appearances on PBS, geneticist Wendy Chung is known to millions of people as an expert on autism. But thanks to funding from the Simons Foundation, she’s also known to tens of thousands of people with autism and their families as the leader of history’s largest study of the genetics of autism spectrum disorder (ASD). It’s called SPARK, for Simons Foundation Powering Autism Research for Knowledge, and it's a big-data exercise of unprecedented proportions.</p><p>SPARK is partnering with more than 30 medical schools and research centers to recruit 50,000 families with members affected the ASD. Participants have their DNA sequenced, enabling SPARK to build a list of genetic differences linked to autism as a starting point for research on the causes and mechanisms behind the condition. </p><p>At the moment the list includes 157 single genes and 28 copy number variants. But changes in these known ASD genes show up in only about 10 percent of families studied—suggesting that the existing list is just the tip of the iceberg. Identifying common gene variants with small effects requires large sample sizes, which is why SPARK aims to recruit so many participants. At 50,000, the SPARK researchers think they'll be able to find as many as 150 individuals with mutations in each of the 100 most common ASD genes.</p><p>SPARK is unusual not just for its scale but for its participant-friendly design. Biospecimens such as saliva samples are mailed in, and patient data is collected through remote online questionnaires rather than in a clinic. The study also follows participants longitudinally, and it returns genetic data to them—an uncommon practice in large studies due to its resource-intensiveness.</p><p>Chung trained in biochemistry and economics at Cornell, earned a PhD in genetics from Rockefeller University, and got her MD from Cornell University Medical College. On top of her role as SPARK's principal investigator, she is also the  Kennedy Family Professor of Pediatrics and Medicine and Chief of Clinical Genetics at Columbia University Medical Center.  </p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian:</strong> From her TED talks and her appearances on PBS, geneticist Wendy Chung is known to millions of people as an expert on autism. But thanks to funding from the Simons Foundation, she’s also known to tens of thousands of people with autism and their families as the leader of history’s largest study of the genetics of autism spectrum disorder.</p><p>It’s called SPARK, which stands for Simons Foundation Powering Autism Research for Knowledge. The study has enrolled over 100,000 individuals with autism and another 165,000 family members. It’s designed not just to advance understanding of autism’s causes but to follow people over years or decades and help them lead successful lives.</p><p>Chung calls it the Framingham of autism, a reference to the famous Framingham heart study that began in 1948 and is still going on today. So, talk about big data! When you’re sequencing the exomes, that is, the expressed genes, of a quarter million people, and sharing all of your data back with patients, you’re dealing with an unprecedented data management challenge. In fact, SPARK has so much data Chung jokes that she has to compete with Bitcoin farmers to buy new computer servers.</p><p>But Chung isn’t finished. She wants to keep going until SPARK has enrolled 50,000 families altogether. The hope is that with that volume of genetic data, scientists will be able to to figure out which genetic variants that contribute to autism might be amenable to treatment with new drugs molecules. And because the SPARK study is also collecting data about the lives of people with autism as they grow up and encounter all of life’s challenges, Chung hopes the project will be able to provide individuals on the ASD spectrum with coaching and other forms of support.</p><p>A few weeks back Wendy made time to talk with me about all that. And now here’s our conversation.</p><p><strong>Harry Glorikian: </strong>Dr. Chung, welcome to the show. </p><p><strong>Wendy Chung: </strong>Thank you for having me today. </p><p><strong>Harry Glorikian: </strong>So I feel like I almost know you from watching you on PBS and watching you interact with your patients. So you'll forgive me if I'm more comfortable than, than actually meeting you for the first time face to face.</p><p>Or I should say virtually, I think we've been doing this too long now. But, you know, I know we're going to talk a lot about your program SPARK today. But I'd like to sort of start with a little bit of maybe of history and some background, you know, it seems like one big question that attracts you above all.</p><p>Others is the genetic basis of human disease. And so how did you first get interested in that?</p><p><strong>Wendy Chung: </strong>All right, so I'll go way, way back. I think I've always known that I wanted to go into science and medicine and tried to figure out a way to put things together. And for me, I guess the moment, and you'll be able to calculate my age from this.</p><p>But the year that I started, my MD-PhD training program was the year the announcement was made that we would start the human genome project. And I knew I already had a passion. For what we call inborn errors of metabolism or metabolic diseases, but it became very clear to me that we would have insight into the genes and the genome to treat conditions like that.</p><p>Plus other ones as well. And an MD-PhD program takes a long time to finish your entire training going to graduate school and medical school and residency and fellowship and all of those things. And so you could project out. that it might be as long as 15 years before I would finish my training.</p><p>And if you looked at the projections for how long it would take to finish the genome, they basically converged about the same time. And I'm one of these people. I like to think that I'm a strategic planner and visionary. I don't want to sound egotistical on this, but I am a planner. And as I started planning, I thought to myself, well, this is really going to be incredible.</p><p>The power that we'll have as a scientific and medical community. And this whole job description doesn't exist. You know, so we are gonna need people to be essentially, genomicist a brand new field of both science and medicine. And I kinda like puzzles. I like logic and I like having definitive answers.</p><p>And that's what I think the genetics often provides us. And so it's really with the excitement of the opportunities with a brand new field along with just. The way my mind works, that this was really perfect. And, and I was lucky. I have to admit to be able to discover that early in my career. So what I start out to do almost the first day of medical school has really been what I've continued to do for my entire career.</p><p>So, anyway, </p><p><strong>Harry Glorikian: </strong>well that is that's, that's incredibly lucky. I mean, I do believe in a process and a plan. I can't say that at a young age, like you, I knew exactly what I was going to do when I grew up. It seems to be in the same area of, of. Biology, but I think that's the only common theme that I would say. So this program SPARK grew out of the existing Simmons foundation called SAFARI right?</p><p>The Simmons foundation, autism research initiative. You were on the board of SAFARI for a long time. And then, and then you became a program director of clinical research. Can you talk about. Why you felt drawn deeper and deeper into specifically autism research? </p><p><strong>Wendy Chung: </strong>Sure. So I'm trained as a pediatrician and a medical geneticist and a fair number of the patients that I see.</p><p>And this was true for pre-existing before SAFARI or SPARK ever came along. But a lot of my patients have neurodevelopmental conditions and or autism. So it's a common reason for people coming to see us over my career. A lot has changed in terms of our ability to understand the underlying etiology, especially with the genetic etiology.</p><p>And I will give credit that was in large part due to the SAFARI program at the Simons foundation, they really did have this original vision in terms of, we needed to understand the brain and behavior across for individuals across the spectrum. And that a really. Powerful tool to do that would be genetics.</p><p>It's not all genetics. I want to be clear about that. And it's a wide spectrum. But I got pulled in just because of my expertise as a geneticists to advise the SAFARI program. And as you said it started out as advice and due to. Individuals who were there and got to know me and thought I might be able to contribute.</p><p>in even bigger ways got sort of pulled from the outside to the inside, so to speak. And as that happened and understanding what the gaps were SPARK or Simons Foundation powering autism research for knowledge is the acronym. That was a vision realizing that to really make the. It's scientific inroads, we needed to do.</p><p>We needed to think big. And that's because autism is not one condition. It's quite heterogeneous. It's quite complicated in terms of etiologies. And we really need to base, we need to have hard foundations, really solid evidence to be able to know what direction to go with the science and that genetics provides that solid foundation.</p><p><strong>Harry Glorikian: </strong>Yeah. I'd say it's, you know, I've I was trying to get ready for this. And I was trying to do as much reading as I could. And I realized like, We know, we know some things, but there's a lot we don't know. And then there's certain things that seem to trigger it and we're not, we don't fully understand what all those things.</p><p>It's a very interesting sort of set of reading that I went through very quickly. So I'm probably like a millimeter deep and pretty wide compared to you. But it is interesting how. Genomics and genetics have, are really driving a lot of areas that we see right now. It's funny because I remember when someone way back in the beginning, so I'm dating myself also.</p><p>It was said, why would you sequence anything? And now it's like, we, we want to sequence everything. And the information that it's giving us. So can you give us a high level explanation of what SPARK is and. How different it is from some of the previous studies of autism spectrum disorder and in terms of scale and goals.</p><p>And, and when did you decide and how did you decide to embark on this? Cause it's I was reading this study. I mean, it is, it's a pretty ambitious goal. </p><p><strong>Wendy Chung: </strong>So again, At the Simons Foundation we had started out with something called the Simon simplex collection. And I think of that as sort of the first foray into the genomics, that was to give you a sense of order of magnitude about 2,500 individuals with autism.</p><p>So, you know, a big, big order, you know, 20 fold difference in terms of the original goals, at least for SPARK But that was, I think of as being very careful in terms of making sure the individuals within that Simon simplex collection, they went through very extensive in-person evaluations with masterful clinicians, psychologists to make sure the diagnosis was unambiguous and then had the genomics sort of layered on top of that.</p><p>And I won't get into the specifics of cost per person to run through that, but that was really, I think, of as the platinum version. And that was important for the field. To be able to have that again as a solid foundation and to be able to make some statistical arguments about what sample size did you need to be able to get to understand the entire complexity of autism.</p><p>So it was definitely foundational and necessary. But in terms of being able to do that with about 2,500 individuals, you could make estimates, right? But in terms of the number of genes that would be involved in autism, it would be around the order of 500. And so that's just for, you know, a certain portion of the spectrum as well.</p><p>And you can understand therefore, the complexity in terms of what we're talking about. And, and I'm just because I know there are some people who may not understand exactly what I'm talking about. Let me just be a little bit more granular. For people who come in to see me with a child with autism example, I'll have some individuals who may be non-verbal.</p><p>They, they will never be verbal. That is they'll never talk. They may be able to communicate in some way, but they may be intellectually disabled. They may have. Seizures or epilepsy. They may have even medical problems associated with that. And that's one portion of the spectrum to another portion of the spectrum are individuals who are just incredible in that their mind works differently.</p><p>It doesn't necessarily work in a wrong way. It just works differently. And they see the world in a different way. And oftentimes I have to say are profoundly insightful in terms of. Problem solving because they do come at it from a different direction and they do have just fresh eyes to be able to look at complex problems.</p><p>So, and again, I, I want to be very clear in terms of how I'm talking about this. I don't consider autism a disease in that way. It's a difference, right. In terms of all of what we're talking about. And I want to be very clear also in terms of the genetics. Yeah. That this is not to get rid of anyone. This is not to be able to have a eugenics movement where we're trying to eliminate individuals with autism.</p><p>It has nothing at all to do with that. It really has to do with understanding the underlying biology of how the brain works, because we've really been so much in the dark that people had theories and hypotheses, and they'd waste a lot of energy doing the wrong science because it wasn't based on that foundation of really.</p><p>Truth with a capital T what are the molecules in the brain? What are the different parts of the brain that are involved? How does it change over time? We really needed that foundational information to go from kind of the dark ages of autism research into the modern age and era. And so in doing so that's the Simon simplex collection found, you know, allowed us to see what sample size did we need.</p><p>So we started doing some rigorous statistical calculations of how many we'd need to get to that goal of having maybe not every single gene, but the majority of genes. And that's where the calculation of having 50,000 families. originally came up. And so that was our original goal to be able to scale that you know, 20 fold higher than what we'd done with Simon simplex collection.</p><p>But if you started looking at number one who was able to participate, like who literally could give up a couple of days of their life to go in for these evaluations who was close enough to one of these study centers to do it it, it was. Partially an equity issue for me that I wanted to make sure everyone could get access to be part of understanding better and to be represented, because if you're not represented, your voice may not be heard in terms of the research.</p><p>So part of it was from that point of view is from a convenience point of view making sure that individuals wherever in the United States, if they wanted to be in their pajamas at 11 o'clock at night, to be able to do this, they could do it. Then, and it wasn't so burdensome. So the whole process, you know, it takes maybe an hour or so to be able to register and become part of this, not to say that you can't do more than that first hour, but to start this off, it becomes easier.</p><p>So it was with that and, you know, we've had, in terms of timing, we've had lots of ability to do things online that we couldn't do before. So when we first started this, you know, the internet wasn't as evolved as it is, and there's just a lot more we can do from home. And in general, one of the parts about SPARK that I think is really important is.</p><p>That it's meant to capture people where they are. And so, I mean that both in terms of just the convenience of participating, I also mean in terms of behaviors. And so, again, as a clinician, I have children with autism who come into my office, who I have to admit it's a terrible experience for them. They're petrified in terms of, you know, they like it.</p><p>They liked to understand what's coming. They don't like surprises. They get anxious. Being out of their elements is really hard for them. And so being able to do things where they're on their home turf, they're on their home territory and being able to capture behaviors where they really are rather than our artificial environments of being at a laboratory at a university at a hospital.</p><p>All I think is really important to truly see what life is like for individuals. So we're trying to do all of those things in terms of really capturing, you know, more of accurate information, more data. So in terms of doing this, not just the one time you can come in and be evaluated, but over your life course.</p><p>And so that's one of the things about SPARK is this is not a one and done type of. Snapshot of who you are. This is really thinking about a life course. And I really, I want to emphasize this. One of the other things about SPARK is not just the number of individuals, but it's the longevity of what we're planning to do.</p><p>We've, we're celebrating our fifth anniversary this year. And from my point of view, we're planning on going this for a lot, lot longer. I don't know if it's going to be 50 years. I don't know if I'll last for myself for 50 years. But but, but this is, I tell people who will understand what I mean, this is meant to be kind of like the Framingham of autism.</p><p>Another words, you know, being able to really see people through different changes over their life course, different stages of life, different challenges, trajectories of how things evolve and importantly, what we can do to change that trajectory potentially or support people better. So that sometimes when people fall through the cracks with young adults, especially is one area that I'm mindful of.</p><p>How do we prop them up? How do we make sure that transition is easier? And so, like I said, for anyone, wherever they are on the spectrum, I think there's always some time, some place in your life where you need an extra helping hand. And so I hope this will start to provide that evidence base for where we can provide that helping hand and have the greatest potential impact.</p><p><strong>Harry Glorikian: </strong>Yeah, no, it's, it's this term we're using autism is, is, is quite captures a very broad set of. People as, as you indicated, like, you know, you know, Elon Musk recently got up on SNL. Right. And you had to know that he was a little off anyway before that, but, you know, I actually believe that people like that can see the world in a certain light, through a certain lens that a lot of other people would be like, I have no idea what you're talking about.</p><p>I can't see it. So. All of these people, right on one spectrum or the other, which I think all of them add value as, as they're going through their lives. But the other interesting part of this study is you guys are sharing the results with participants, right. Which is not usual and not, I don't think trivial to do.</p><p>So. You've got a unprecedented level of engagement and data returned to individuals and their families. You're not just returning genetic data, but aggregate reports, which in accessible language, which, you know, I'm trying to re I just finished my third book, trying to write it more accessible, of our world and I can tell you that was truly challenging.</p><p>So I, what was the philosophy behind that? And what are your challenges around trying to do that?</p><p><strong>Wendy Chung: </strong>Right. So you're, you're absolutely right. I, I think in a very good way, we've been from the very beginning, and even in the planning stages of this had participants as part of that planning process and they still are literally on our staff on everything that we do, they are integrated on our teams.</p><p>So let me paint a picture for you. About some of the details of what you're talking about. So as of this morning, as an example, we have over a hundred thousand individuals with autism in SPARK. We have over 265,000 total participants. So the reason why the difference for those is some of those are.</p><p>Parents for instance of individuals with autism or siblings because we do encourage families to participate. So you can see that this is massive, right? This is over a quarter of a million people that we're trying to be able to in some way, juggle with all of this. And so for me, that was, you know, I don't unlike.</p><p>Most of my other research studies. I don't personally know every single person in the study. I never will, unfortunately, but we do have anchors of 31 clinical sites around the country. So that's one of the things that we do to make sure that we have our finger on the pulse in some way of our participants.</p><p>But I will also admit you could just be, like I said, in your jammies at 11 o'clock at night tonight and Google SPARK for autism and be able to find and sign up for this, you know, there's no, you don't have to be at one of these sites to do this. You're right. That the philosophy I heard from our participants from the very beginning, and some people may have heard this term is nothing about us without us.</p><p>And so in terms of research, the idea that we want to be as research participants, we want to be part of the research team. We want to be able to have a voice we want to help you do your job better as researchers. So, you know, it's not just in a selfish way. It's about, what's going to really make us committed to doing this, not as a one and done study, but as the picture I painted to be able to continue to participate for decades forward. And so in hearing that then in hearing what was important to participants, keeping in mind that I can't do everything for everyone, you know, we have to have compromises in this. It became important for people to have access to their genetic information.</p><p>But not just like, give me a flash drive with my raw data. Right. That's not helpful. If you're interpreting this information to understand genetic causes of autism and you find that for me, let me know about that. And in addition, and I, I am proud of the way we did this. We did this, not with just sort of sending someone, an email and sending, okay, well, guess what, you've got to SHANK3 variant, and this is the cause of your autism.</p><p>We do this. And I think about this for myself, what would I want to do for me? What would I want to do for my family? If this were my son, how would I want this done? If I weren't a geneticist? And so we've built in I call it, choose your own adventure, but we give people choice in the sense that. When we return, number one, it costs no one, anything.</p><p>Let me be very clear about that. So it's not like you're buying a test or anything. If anything, we will not. If anything, we do give you a token of a gift certificate to thank you for your time, because we know it takes time to be able to do this, but we pay for everything with this. And so we do it.</p><p>For those that are aficionados. We do a process called exome sequencing to be able to look at comprehensively across the genome as we do this. And it's about right now as of today, about 10% of our participants, where we find something that we can be pretty certain is the cause of the autism in the family.</p><p>And we. Again, pay for this ourselves to have a second group of people. Double check, make sure it's correct. And then the choose your own adventure is either you can choose to have your own doctor to give you that information back and explain it to you. Or if you don't feel like your doctor is the best person to do it, because maybe they're not a geneticist, maybe they don't have any idea what we're talking about.</p><p>We pay for the study centrally to have a trained set of genetic counselors, be able to return the information. And I, and my team have personally written out what we call brochures in. As you were talking about lay person language that describe each one of the over a hundred conditions that we now return.</p><p>And so it was a lot of work to write each one of those brochures for each one of those conditions. And to keep them up to date, but. That's how committed we are to this community. That's how important I think it is. </p><p><strong>Harry Glorikian: </strong>I, I almost feel like I need to sit down. That's just the enormity of that task is, is is extremely commendable.</p><p>I can't believe I'm getting a commercial enterprise like to do that. Right. Is, is not trivial. So. That's that's incredible. </p><p><strong>Wendy Chung: </strong>This is like the Ginsu knife set, but wait, there's more! So we also appreciate that not everyone is going to have a genetic result. And so we also have parents for instance, that are completing questionnaires that tell us about how their child is doing in terms of behaviors or you know, things that are related to autism or behavioral issues.</p><p>And I have to say during COVID as well, Especially, this was a big issue for many people, not just individuals with autism but about psychological differences and making adjustments during COVID. So within that we give and these are again, standard psychometric tests that are used so-called in the industry.</p><p>So in other words, by psychologists who are practicing we give that information back to families. We use infographics. And so all of this has been test driven in plain language with groups of individuals that are average parents, individuals with autism. We have a commendable group of about 80 of our participants that sit on our board again, giving us feedback before we go live with any of this, telling us how to tweak it, to make this more accessible, using different infographics, to be able to make this easy.</p><p>But every one of those things that we can return, then. We return it to our participants. We have something called a research match program. So we have over 150 researchers who use SPARK as a way of letting the community know about the research they're doing and being able to match SPARK participants with research so that this is, as you can see, it continues to kind of organically grow, not just SPARK, but the entire research community.</p><p>And a requirement for every one of those researchers is that when they complete their research, they have to actually give that information back to the people who participated in the research, into the SPARK community, in lay language. So in a way that families and individuals. Can access and understand it.</p><p>And we have many of them give webinars or be featured in our newsletter, but the whole process is we're learning together. And I want, I want people to see how science is done. I want them to be part of like the front lines. Like they're getting the preview in terms of hot off the presses information.</p><p>So with this, hopefully this is a movement in science. It's not just SPARK. I hope all, all people do this. </p><p><strong>Harry Glorikian: </strong>I was going to say, I think you need to teach a master class on how to do this because. I'm not familiar. Maybe somebody else is doing it, but I'm not familiar with it. Usually I get gobbledygook back.</p><p>I mean, I just actually volunteered to do a diagnostic clinical trial and it was, and I'm in the, in the business and I was reading what they wanted and I was like, I don't understand this at all. I don't understand what you want from me. I don't understand what I'm going to get back. I don't understand anything.</p><p>I'm not participating. I don't have time for this. So but all the stuff you said now really rings in my head of A), a data management challenge, B), analytics challenge, and C), how do you automate some of this? Because the first thing that goes into my head is is there, you know, some aspect of AI or machine learning that can do some of this because.</p><p>If I'm not mistaken, every time you discover more variants, you're going back and reanalyzing the genomic data. And that becomes exponentially a bigger and bigger task. If there isn't some level of automation to sort of make part of that more turnkey. So what are you doing there? </p><p><strong>Wendy Chung: </strong>Yep. So you're absolutely right about you know, we have thought about ways to scale.</p><p>This scale is one of my favorite words right now. Because you're right, that each time we get more people that come in and more data, we turn, we, you know, turn the crank. One more time. Knowledge is increasing around us about the brain and behavior. We're adding that and putting that back in, and then again, increasing the robustness of what we do.</p><p>And we do want to be really rigorous in terms of as we're doing this. So that's on the genetic side. And so there are. Our ways of being able to do that, I will say it takes more and more in terms of computing time or sort of, you know, person power to do this Bitcoin, by the way has been a problem.</p><p>They're buying a lot of servers. They need to, you know, free up some of those for science anyway. But aside from that there's also the issue in terms of people report to us behaviors and in an interesting way. And it's just kind of what happens when you do science this way. Not everyone is perfect in terms of how they.</p><p>Decide to participate and I get that. And so what I mean by that is there's missing ness of data that we as researchers have, you know, we realized that we've used the machine learning and some ways to fill in those missing pieces. And so what we've tried to do is use machine learning. I talked about a spectrum for instance, and people are at different ends of the spectrum that ends up being incredibly important to interpret the genomic information, as well as information about other people in the family.</p><p>And yeah. How their genetics go with their own particular place on the spectrum. And so putting all that together, we can get a profile with machine learning, to fill in some of the gaps, fill in some of the blanks, understand issues with trajectory, and then combine that with the genetics. And so the good thing, and this is another reason why we set up SPARK the way it is.</p><p>I'll be very clear to anyone who's thinking about this, either as a contributor, as a user. Everything is de-identified of course. So no one knows who any participant is, but I, I set this up originally so that the broad research community would be able to think about these problems. And I tried to de-risk it for any scientists who wanted to enter this.</p><p>So as a data scientist, for instance, You may not be an expert in autism, but I want you to be able to contribute in terms of doing this. And so the way this is set up again is the entry to access this as you do. We make sure you're a real bonafide researcher. We do go through a rigorous check of that, but you don't have to be an autism researcher.</p><p>You could be in industry, you could be an academia, you know, you could be at a private foundation. We just want to make sure you're doing good science. And I have been saying that many of the people who are using the data. are not necessarily, they didn't start out as autism researchers. They simply are data scientists, computational biologists, who are able to look at the data in interesting ways.</p><p>And I think the more we can bring smart people to the table on this, the faster we'll get some of the answers we need. </p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p><strong>Harry Glorikian: </strong>Did you ever think when you were getting your MD-PhD that you'd have to become a data scientist or an IT manager? </p><p><strong>Wendy Chung: </strong>So not exactly. And in fact, so anyway, I'll tell you sort of how I grew up. I was actually as growing up, if you had asked me what my natural proclivity or skill was, I was definitely mathematically inclined.</p><p>It was very data science inclined, very mathematically inclined. And. Probably even too good in some ways for my own shoes. Cause I kind of got ahead of myself in terms of taking very advanced courses at an early age it was, I'll never forget this conversation though. I had a discussion with my math professor as an undergraduate and said, you know, I'm really good at this stuff, but what can I do with a degree in math?</p><p>And he said, oh, well you can go work at an insurance company. You can be an actuary. You can. You can figure out what rates, you know, people should be paying in terms of their insurance. And I said, Really that's what you do with a math degree. And like, literally I did a 180 pivot and said, that's not worth, you know, going into for that.</p><p>And that was, I have to admit unfortunate and, and, you know, I, I'm not saying everything happens for a reason. I have no regrets in terms of what I've done with my life. I think that, you know, I found my home and, you know, a great thing to do. But I do have some regrets that, you know, He had that influence on me in that way.</p><p>So, you know, I could've seen myself the time when I grew up, you know, we were just starting to have personal computers, you know, we were, we didn't even have emails or internet or, you know, it's a completely different world than when I was training. So I will admit. That a lot of what I do is done by others.</p><p>I think that's a good thing. I will say team science is incredibly important. And even though I'm here talking to you today, really I'm representing literally hundreds of scientists behind the teams that are actually doing the hard work, whether it's coding, to be able to make our interfaces for users valuable, whether it's data scientists analyzing the data, psychologists neurobiologists, you know, there are just amazing people that are behind the scenes doing all of this.</p><p>And so when it comes to a lot of the really heavy lifting. I will admit that they're the ones doing the heavy lifting and, you know, in a good way, I think I've got the vision to guide the ship. But there are a lot of really smart, especially young minds that are driving a lot of the science. </p><p><strong>Harry Glorikian: </strong>So I want to switch here and switch to recruitment here just for a minute or so, because I also want to ask some of the listeners to point people in, in the direction of this study.</p><p>Right. Dump more people the better, but W w where are you now from a numbers perspective? The last numbers that I saw were. 18,000 individuals in 2017 and 28,000 family members on top of that, I'm sure it's grown since then, but w what are the numbers right now? </p><p><strong>Wendy Chung: </strong>Yep. So, as I was saying, you know, the numbers are in terms of people registered just over a hundred thousand with autism and just over, it's about 265,000 total.</p><p>So I'm not gonna. Anyway, I'll I'll go ahead and just say it. So there are individuals who get stuck at various different stages in the process. I will say, dads seem to get stuck more than moms do, and I can understand dads are busy. But when I, some of the numbers you were quoting, for instance, we have registration.</p><p>We also have send out a saliva kit for people to be able to donate a DNA sample. So they spit in a tube and they send that back. And so we have a fair number of people that get stuck at that point and dads in particular. Yeah. When we started out the sequencing, one of the things that I'll just give a little science behind this is that we call them Denovo genetic variants.</p><p>So variants that are brand new in the individual with autism are oftentimes some of that 10% that we'll recognize as a cause of autism. I'm not saying those are the only causes, but those are the ones we recognize at this point. So it became a, and has always been really critical to have both mother and father and the individual with autism whenever possible, so that we.</p><p>You could very quickly recognize what was different in the child with autism, from either their mother or father, having them in comparison, just like makes that sort of crank we were turning about very easy to turn. We've had issues in terms of being able to get, and I call it, we call them dangling dads.</p><p>But dads that, you know, just haven't quite gotten it together and have found the time or found their kit to send that back in. And that has decreased the number of family units, mothers, fathers, and children with autism that we can look at. And so. has limited. Some of the analysis that we do on the other hand, as I said, we want to make sure everyone that contributes is able to contribute.</p><p>So we have our analyses now include every single person who's contributed a saliva sample to SPARK, at least a, you know, saliva sample that's been sufficient to be able to sequence. So whether it's just one person or one person in their mother or one person and their father, everyone is represented in what SPARK does.</p><p>Just a question, as I said, of what we can recognize I do want to call out and this may or may not be obvious to listeners, but I do want to call out. It is really important for everyone to be represented because of the number of types of autisms. But also I think it's an equity issue in terms of ancestral diversity.</p><p>So where in the world. Your family came from, if they came from China, if they came from Brazil, if they came from Ghana, wherever in the world, they came from, it's really important because the genetic variants from our ancestors differ depending on where in the world you came from. And right now, in terms of genetics, about 80% of the genetic data we have as part of research comes from individuals from about 20% of the world's population.</p><p>And so we are. Overrepresented for individuals of European ancestry, which means that in terms of being able to recognize those genetic factors, we do a pretty good job. If you're of European ancestry, we don't do nearly as good a job, though. If your family comes from other parts of the world and. Both in terms of equity and making sure that we don't increase this gap in terms of genomic medicine and utility of this information.</p><p>It's really important to me that everyone gets the same shot at this. And that's part of, like I said, why we made this so easy for people. And I hope they'll take advantage of that because some people won't get this information any other way,</p><p><strong>Harry Glorikian: </strong>We need to be inclusive of everybody, but when I look at the trajectory and the, and the.</p><p>How all of these technologies across a number of different areas, that seems to be a common theme is, you know, who accessed it first? Where do we have the most data and what do we need to do next? And I, I look at the, all these technologies as on an evolutionary scale, right? Where, where we're, we're continuing to add and how do we get to more people?</p><p>How do we make it easier for people to participate, et cetera? Cause. When we were at applied Biosystems and there were sequencers right there. I mean, you could just, it was pretty easy to participate. Whereas for other people who don't have access or it's not as, I mean, if D'Souza at Illumina does what he wants to where he's, he's talking about a $60, whole genome.</p><p>There'll be things that we'll be doing that we haven't even thought of yet. </p><p><strong>Wendy Chung: </strong>Absolutely. And we've thought of some of those things. So the next time you have me on, we'll talk about some of those others. But, but I, you know, in So, although there's the accessibility, I do think there are some issues, understandable issues about trust.</p><p>And do I want you to have my genome? Do I trust you to have my genome? You know, could you do something Is some police officer going to arrest me or, you know, try and somehow plant evidence. That's going to be used against me in some way. So I think there are all sorts of reasons why certain members of our community don't feel comfortable with them.</p><p>Participating and I totally get that. I think part of it is I want to make it easy for people. I also want to make sure and it's through SPARK that we're doing, this is to understand and have those individuals have a seat at the table, be able to address as many of those concerns as we have. So we can build that trust and build that, you know, shared vision and shared goal in terms of moving the science forward.</p><p>And I say this and it's slightly different. I'm going to slightly digress, but I also, as a geneticist, for instance Treat patients for instance, who have cancer or have a family history of cancer. And I'll just very briefly share a story, which is that I had a patient who happened to be of African-American ancestry.</p><p>And she actually through a very long I'll just long story short had a family history of breast and ovarian cancer. And although she did the sort of BRCA tests that some people talk about BRCA1 and 2, she did not really get the full. Understanding of the information from that test because she had a genetic variant that at the time wasn't recognized it happened to be a real true, what we call disease causing variant to increase the risk of breast and ovarian cancer.</p><p>But it wasn't recognized because her community, her individuals from the same ancestry, weren't represented to be able to distinguish sort of the signal from the noise if you will. And so that's what happens in terms of, and she ultimately went on to develop. Metastatic cancer, unfortunately. And so there's this gap that has been evolving and actually gets wider and wider with the more that we depend on using genomic medicine, either to select the right medication or be able to decide what preventative treatments or what increased screening to do.</p><p>There becomes a wider and wider gap between the haves and the have-nots. And I, I just want to make sure we narrow that gap. We get back to being equitable. </p><p><strong>Harry Glorikian: </strong>I totally agree. I mean, I have my own pet peeve stories about BRCA I mean, I was lucky enough to do I helped Myriad with some of their strategies and, you know and I got to learn a lot about their database versus everybody else's database.</p><p>And so I have my pet peeves on where people should go and get their testing. But I also agree that being able to explain this to someone. Is not trivial. That person didn't fall off the turnip truck. Right. And the data is changing daily. I used to be able to turn on my computer and I'd be like, oh, I can keep track of that one and keep track of it.</p><p>Now it's for forget it. If I don't have IT support. Hmm. And somebody who's been studying it it's, I don't want to say it's relatively impossible, but it's extremely daunting. To sort of keep up with what's going on. </p><p><strong>Wendy Chung: </strong>So let me just I'm going to stay on that note, although it's not directly SPARK related.</p><p>There's some listener out there who would this'll resonate with your point of scalability and to be able to wrangle all of that changing interpretation of the data in real time is very important to me because like you said, there's a lot that we don't yet know what it means, not just related to autism, but related to a lot of the way our bodies function.</p><p>And there needs to be a platform and informatics system that facilitates that you as an individual to your doctor would be great. But you also, as an individual can contribute to and engage in to be able to manage your own health. </p><p><strong>Harry Glorikian: </strong>So I have to tell you, I mean, after all the work I've done and everything that I've tried to write and so on and so forth, this whole idea that everybody has, that they're going to have their individual silos is to me, a bunch of malarkey, right?</p><p>We've all seen that when you put all the mapping information and Google has it, it's an exquisite piece of, you know, useful database that you get you around tells you where you need to go, what you need to do. It's not. there aren't 50 of them or a hundred of them. I mean, in our world, if I think of everybody's individual silos, there's thousands of them.</p><p>And it should be, I mean, the country itself needs to aggregate this. I know that medical professionals will be like, no, it's my data. It's not your data. It's the patient's data. And it should be aggregated. And by aggregation, we can gain more insight into it, but, you know, These are policy issues that every once in a while, I try to influence people on.</p><p>But boy, they, they, the technology is moving much faster than the understanding of the people that are writing the policy and not to digress. But I think if we want to solve problems or at least gain a deeper understanding until we do that, I think it's just going to be chipping away except for programs like yours or certain companies that I know that are spending the money to.</p><p>Build a massive data set that they can then sift through. But all of this work that you're doing is to diagnose the patient better, manage the patient, better, understand the progression of PA of the patient, but it's also to eventually I'm assuming design certain drugs or, or certain therapeutic interventions that, that, that w w where are you from?</p><p>In that standpoint. </p><p><strong>Wendy Chung: </strong>Yep. So we are moving forward. It's not going to happen overnight, but I talk a lot about getting people to the starting line. So we have a sister study for SPARK called Simon Searchlight. That's actually, we've been doing that for about 10 years. That now is once you get a diagnosis, a genetic diagnosis, the point is then you've got a group of individuals that all share that same genetic diagnosis.</p><p>You can learn from each other. You can learn from researchers. And to your point now, you know what starting line and what race you need to line up for. Right? Because you're in terms of a treatment or a support, it's likely to be specific. There may be some commonalities across genes, but in some cases, if you think about a gene therapy or gene editing or gene replacement or something like that, That is going to be at the level of specificity, at least at the gene.</p><p>And in some cases, maybe even by the genetic variant. So in terms of doing that number one is that I do think this is going to be, I call it a step function mathematically, right? So there are going to be enabling technologies. And when certain enabling technologies and delivery systems are in place, they're going to be, it's not just going to be one condition.</p><p>That's now treatable. It's going to be a whole class genetically of conditions that are treatable. And it's a matter of as modules popping in the right gene into that system and making sure that the window of opportunity for treatment is still open. But as we're doing that, it's important to me that even for conditions that are seemingly very rare, they're in the aggregate.</p><p>Quite common. And there are a lot of lessons to be learned from each other as we're doing that. So it's kind of getting everyone lined up. We're starting to think about, and I don't want to put a timeframe on it, but it may be as soon as within the next year or two, that we'll be starting to actually use treatments.</p><p>In some of the individuals, either in SPARK or Simon Searchlight with one of those genetic events that's amenable to some of these molecular technologies. We have a clinical trial for something called R-Baclofen that got shut down by COVID, but hopefully we'll be opening up again soon. And that will be it's a small molecule or a pill that you'll take.</p><p>But for certain individuals with a particular group called 16P11.2 deletions, again, one genetically defined group. But that clinical trial, I hope will be opening up in later in 2021. So we are marching forward towards treatments. We also think of, as I said, supports for individuals.</p><p>So it's not just about changing the person or giving them a drug. But thinking about, you know, what do you need? Is it that you need coaching in terms of how to, you know, ask someone out on a date, how to be able to interview for a job, how to, you know, be able to get your life together, to go off to college and live somewhat independently, you know, Things like that, that may be a little bit more difficult for certain individuals.</p><p>But how do we deal with some of those things as well? All of these I think are going to be incredible opportunities. And like I said, a large part of what I do is try and de-risk all of this. So think about the research community. What does the research community need? What are we going to need for FDA registration?</p><p>How can I make this easier, more accessible? Like how can I. What are the tools I can put in the toolkit so that if someone has got a hammer, I can point them to all of these nails out here that they can just start hammering one by one and be able to hopefully make a much bigger impact than they could if they just, you know, saw one nail that they could hit.</p><p>But with this, like I said, it's not going to happen overnight. It's still, I think, you know, when I think back to the last year of what we've had in terms of molecular therapies, you know, things like Spinraza and spinal muscular atrophy have been truly revolutionized you know, what used to be for me, the most common genetic cause of death for infants is now something that we do with.</p><p>Newborn screening and we have a one and done gene therapy. I mean, it's just remarkable. I, I never, in my wildest dreams 20 years ago would have thought that we would be there. And I think that's part of the, you know, that sort of vision, that way of thinking about things I wonder and hope that at some point in the not too distant future, we'll be able to identify kids.</p><p>Early at a window of opportunity for treatment line them up for the right safe treatment, if they needed and be able to bend that curve, put them on a different trajectory than they might otherwise have been on. </p><p><strong>Harry Glorikian: </strong>I've spent time you know, talking to Robert Green about BabySeq and sequencing, you know, children and, and you're right.</p><p>I mean, if I think about from the day we were starting the genome project to now We we've revolutionized some areas. I mean, things that were a death sentence or whatever have completely changed. I'm not sure the public or people fully appreciate that. That's why, when somebody writes a paper, the genomic sequencing hasn't had an impact.</p><p>I, it just drives me nuts. Okay we've talked about the benefits of all this, but if you could say to. Why should people donate their genetic data? I want to want to see if we can get some of the listeners to touch some of the people that they know or at least get the word out.</p><p>And then what, what can the rest of us do to help? Sure. </p><p><strong>Wendy Chung: </strong>So, so if you'd like to participate, the website is sparkforautism.org, sparkforautism.org, right there on that website, on that landing page, you just, there's a tab that says join us today. And that starts you on the process of being able to sign up for doing this.</p><p>You can share that with a friend. Everyone in the United States is welcome who has we call it a professional diagnosis of autism. So in other words, a psychologist a doctor you know someone has officially said that they have autism, not just that. They think it's a possibility, but someone has really said that they do have autism and of any age.</p><p>So it could be a two year old to a 50 year old. And then as I said, their family members, so that's in terms of doing it in terms of, like I said, the information that you get back from it, I do hope. This, this, I will say also as a practicing geneticist, this doesn't replace me in terms of wearing my hat as a doctor providing genetic information.</p><p>So if you're a pregnant mom out there who has a son with autism, and you're worried about, you know, the risks to your baby right now see a medical doctor about this because it takes us a little while on the research side, I won't be able to get you a result a week later, it does take time. So, so we're not meaning to replace the medical system.</p><p>But as you're doing this, I do hope you'll find it helpful. Like I said, to get some of your own personal information genetically about autism, and most importantly, it's to be represented that is that I don't know where the insight is going to come from. And I want to make sure that we have information that's useful to us.</p><p>Everyone across the spectrum, whether it be by age, whether it be by gender, whether it be by where you live in the United States, whether it be by your gene. There's so many different dimensions and it changes over the life course that it's a big ask. I realize. But we are committed to doing this and I will say it's through the generosity of the Simons family and the Simons Foundation</p><p>that we're committed to this for the long run. I don't have to worry about will NIH fund this for another five-year cycle. I don't have to worry about the upturn or the downturn of the economy or fundraising for this year. This is one of the truths in life that I can say this is going to be around for the longterm.</p><p>And so you don't have to worry that this is going to disappear or go down in flames or that, you know, your samples and your information are going to be stuck in a freezer or warehouse. And no one's going to pay attention to this. This is, and I've emphasized this, but. This is what's driving autism research in the United States.</p><p>There are literally hundreds of researchers that are using this as the way to know better. And if you want to be easily in touch with those researchers, find the cutting edge information. This is an easy way to become an insider. So I hope you'll use the opportunity in whatever way suits you best, but definitely share it with a friend and hopefully you'll be able to get something out of this too.</p><p><strong>Harry Glorikian: </strong>No, this is, this is fascinating. I'm, I'm really glad that we have the opportunity to talk and expose the listeners to this because I think what you're doing as a process needs to be replicated in a number of different areas. And then at some point it would be interesting to have a portal that would potentially share and aggregate that information in a, in a way But I, cause I always think, you know, we just don't know what we don't know yet and there's gotta be a way to evolve this as it goes forward.</p><p>So it was great to talk to you. As I said, I feel like I know you from the PBS show, but great to actually meet you in person and look forward to publishing the episode and, and, you know, getting people excited about this opportunity.</p><p><strong>Wendy Chung: </strong>Well, thanks for having me and helping to increase the awareness and thanks for what you do educating the public about what science and big data are about is so incredible to educate all of us so that we can make better decisions.</p><p><strong>Harry Glorikian: </strong>Excellent. Thank you.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Mon, 21 Jun 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Wendy Chung)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>From her TED talks and her appearances on PBS, geneticist Wendy Chung is known to millions of people as an expert on autism. But thanks to funding from the Simons Foundation, she’s also known to tens of thousands of people with autism and their families as the leader of history’s largest study of the genetics of autism spectrum disorder (ASD). It’s called SPARK, for Simons Foundation Powering Autism Research for Knowledge, and it's a big-data exercise of unprecedented proportions.</p><p>SPARK is partnering with more than 30 medical schools and research centers to recruit 50,000 families with members affected the ASD. Participants have their DNA sequenced, enabling SPARK to build a list of genetic differences linked to autism as a starting point for research on the causes and mechanisms behind the condition. </p><p>At the moment the list includes 157 single genes and 28 copy number variants. But changes in these known ASD genes show up in only about 10 percent of families studied—suggesting that the existing list is just the tip of the iceberg. Identifying common gene variants with small effects requires large sample sizes, which is why SPARK aims to recruit so many participants. At 50,000, the SPARK researchers think they'll be able to find as many as 150 individuals with mutations in each of the 100 most common ASD genes.</p><p>SPARK is unusual not just for its scale but for its participant-friendly design. Biospecimens such as saliva samples are mailed in, and patient data is collected through remote online questionnaires rather than in a clinic. The study also follows participants longitudinally, and it returns genetic data to them—an uncommon practice in large studies due to its resource-intensiveness.</p><p>Chung trained in biochemistry and economics at Cornell, earned a PhD in genetics from Rockefeller University, and got her MD from Cornell University Medical College. On top of her role as SPARK's principal investigator, she is also the  Kennedy Family Professor of Pediatrics and Medicine and Chief of Clinical Genetics at Columbia University Medical Center.  </p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian:</strong> From her TED talks and her appearances on PBS, geneticist Wendy Chung is known to millions of people as an expert on autism. But thanks to funding from the Simons Foundation, she’s also known to tens of thousands of people with autism and their families as the leader of history’s largest study of the genetics of autism spectrum disorder.</p><p>It’s called SPARK, which stands for Simons Foundation Powering Autism Research for Knowledge. The study has enrolled over 100,000 individuals with autism and another 165,000 family members. It’s designed not just to advance understanding of autism’s causes but to follow people over years or decades and help them lead successful lives.</p><p>Chung calls it the Framingham of autism, a reference to the famous Framingham heart study that began in 1948 and is still going on today. So, talk about big data! When you’re sequencing the exomes, that is, the expressed genes, of a quarter million people, and sharing all of your data back with patients, you’re dealing with an unprecedented data management challenge. In fact, SPARK has so much data Chung jokes that she has to compete with Bitcoin farmers to buy new computer servers.</p><p>But Chung isn’t finished. She wants to keep going until SPARK has enrolled 50,000 families altogether. The hope is that with that volume of genetic data, scientists will be able to to figure out which genetic variants that contribute to autism might be amenable to treatment with new drugs molecules. And because the SPARK study is also collecting data about the lives of people with autism as they grow up and encounter all of life’s challenges, Chung hopes the project will be able to provide individuals on the ASD spectrum with coaching and other forms of support.</p><p>A few weeks back Wendy made time to talk with me about all that. And now here’s our conversation.</p><p><strong>Harry Glorikian: </strong>Dr. Chung, welcome to the show. </p><p><strong>Wendy Chung: </strong>Thank you for having me today. </p><p><strong>Harry Glorikian: </strong>So I feel like I almost know you from watching you on PBS and watching you interact with your patients. So you'll forgive me if I'm more comfortable than, than actually meeting you for the first time face to face.</p><p>Or I should say virtually, I think we've been doing this too long now. But, you know, I know we're going to talk a lot about your program SPARK today. But I'd like to sort of start with a little bit of maybe of history and some background, you know, it seems like one big question that attracts you above all.</p><p>Others is the genetic basis of human disease. And so how did you first get interested in that?</p><p><strong>Wendy Chung: </strong>All right, so I'll go way, way back. I think I've always known that I wanted to go into science and medicine and tried to figure out a way to put things together. And for me, I guess the moment, and you'll be able to calculate my age from this.</p><p>But the year that I started, my MD-PhD training program was the year the announcement was made that we would start the human genome project. And I knew I already had a passion. For what we call inborn errors of metabolism or metabolic diseases, but it became very clear to me that we would have insight into the genes and the genome to treat conditions like that.</p><p>Plus other ones as well. And an MD-PhD program takes a long time to finish your entire training going to graduate school and medical school and residency and fellowship and all of those things. And so you could project out. that it might be as long as 15 years before I would finish my training.</p><p>And if you looked at the projections for how long it would take to finish the genome, they basically converged about the same time. And I'm one of these people. I like to think that I'm a strategic planner and visionary. I don't want to sound egotistical on this, but I am a planner. And as I started planning, I thought to myself, well, this is really going to be incredible.</p><p>The power that we'll have as a scientific and medical community. And this whole job description doesn't exist. You know, so we are gonna need people to be essentially, genomicist a brand new field of both science and medicine. And I kinda like puzzles. I like logic and I like having definitive answers.</p><p>And that's what I think the genetics often provides us. And so it's really with the excitement of the opportunities with a brand new field along with just. The way my mind works, that this was really perfect. And, and I was lucky. I have to admit to be able to discover that early in my career. So what I start out to do almost the first day of medical school has really been what I've continued to do for my entire career.</p><p>So, anyway, </p><p><strong>Harry Glorikian: </strong>well that is that's, that's incredibly lucky. I mean, I do believe in a process and a plan. I can't say that at a young age, like you, I knew exactly what I was going to do when I grew up. It seems to be in the same area of, of. Biology, but I think that's the only common theme that I would say. So this program SPARK grew out of the existing Simmons foundation called SAFARI right?</p><p>The Simmons foundation, autism research initiative. You were on the board of SAFARI for a long time. And then, and then you became a program director of clinical research. Can you talk about. Why you felt drawn deeper and deeper into specifically autism research? </p><p><strong>Wendy Chung: </strong>Sure. So I'm trained as a pediatrician and a medical geneticist and a fair number of the patients that I see.</p><p>And this was true for pre-existing before SAFARI or SPARK ever came along. But a lot of my patients have neurodevelopmental conditions and or autism. So it's a common reason for people coming to see us over my career. A lot has changed in terms of our ability to understand the underlying etiology, especially with the genetic etiology.</p><p>And I will give credit that was in large part due to the SAFARI program at the Simons foundation, they really did have this original vision in terms of, we needed to understand the brain and behavior across for individuals across the spectrum. And that a really. Powerful tool to do that would be genetics.</p><p>It's not all genetics. I want to be clear about that. And it's a wide spectrum. But I got pulled in just because of my expertise as a geneticists to advise the SAFARI program. And as you said it started out as advice and due to. Individuals who were there and got to know me and thought I might be able to contribute.</p><p>in even bigger ways got sort of pulled from the outside to the inside, so to speak. And as that happened and understanding what the gaps were SPARK or Simons Foundation powering autism research for knowledge is the acronym. That was a vision realizing that to really make the. It's scientific inroads, we needed to do.</p><p>We needed to think big. And that's because autism is not one condition. It's quite heterogeneous. It's quite complicated in terms of etiologies. And we really need to base, we need to have hard foundations, really solid evidence to be able to know what direction to go with the science and that genetics provides that solid foundation.</p><p><strong>Harry Glorikian: </strong>Yeah. I'd say it's, you know, I've I was trying to get ready for this. And I was trying to do as much reading as I could. And I realized like, We know, we know some things, but there's a lot we don't know. And then there's certain things that seem to trigger it and we're not, we don't fully understand what all those things.</p><p>It's a very interesting sort of set of reading that I went through very quickly. So I'm probably like a millimeter deep and pretty wide compared to you. But it is interesting how. Genomics and genetics have, are really driving a lot of areas that we see right now. It's funny because I remember when someone way back in the beginning, so I'm dating myself also.</p><p>It was said, why would you sequence anything? And now it's like, we, we want to sequence everything. And the information that it's giving us. So can you give us a high level explanation of what SPARK is and. How different it is from some of the previous studies of autism spectrum disorder and in terms of scale and goals.</p><p>And, and when did you decide and how did you decide to embark on this? Cause it's I was reading this study. I mean, it is, it's a pretty ambitious goal. </p><p><strong>Wendy Chung: </strong>So again, At the Simons Foundation we had started out with something called the Simon simplex collection. And I think of that as sort of the first foray into the genomics, that was to give you a sense of order of magnitude about 2,500 individuals with autism.</p><p>So, you know, a big, big order, you know, 20 fold difference in terms of the original goals, at least for SPARK But that was, I think of as being very careful in terms of making sure the individuals within that Simon simplex collection, they went through very extensive in-person evaluations with masterful clinicians, psychologists to make sure the diagnosis was unambiguous and then had the genomics sort of layered on top of that.</p><p>And I won't get into the specifics of cost per person to run through that, but that was really, I think, of as the platinum version. And that was important for the field. To be able to have that again as a solid foundation and to be able to make some statistical arguments about what sample size did you need to be able to get to understand the entire complexity of autism.</p><p>So it was definitely foundational and necessary. But in terms of being able to do that with about 2,500 individuals, you could make estimates, right? But in terms of the number of genes that would be involved in autism, it would be around the order of 500. And so that's just for, you know, a certain portion of the spectrum as well.</p><p>And you can understand therefore, the complexity in terms of what we're talking about. And, and I'm just because I know there are some people who may not understand exactly what I'm talking about. Let me just be a little bit more granular. For people who come in to see me with a child with autism example, I'll have some individuals who may be non-verbal.</p><p>They, they will never be verbal. That is they'll never talk. They may be able to communicate in some way, but they may be intellectually disabled. They may have. Seizures or epilepsy. They may have even medical problems associated with that. And that's one portion of the spectrum to another portion of the spectrum are individuals who are just incredible in that their mind works differently.</p><p>It doesn't necessarily work in a wrong way. It just works differently. And they see the world in a different way. And oftentimes I have to say are profoundly insightful in terms of. Problem solving because they do come at it from a different direction and they do have just fresh eyes to be able to look at complex problems.</p><p>So, and again, I, I want to be very clear in terms of how I'm talking about this. I don't consider autism a disease in that way. It's a difference, right. In terms of all of what we're talking about. And I want to be very clear also in terms of the genetics. Yeah. That this is not to get rid of anyone. This is not to be able to have a eugenics movement where we're trying to eliminate individuals with autism.</p><p>It has nothing at all to do with that. It really has to do with understanding the underlying biology of how the brain works, because we've really been so much in the dark that people had theories and hypotheses, and they'd waste a lot of energy doing the wrong science because it wasn't based on that foundation of really.</p><p>Truth with a capital T what are the molecules in the brain? What are the different parts of the brain that are involved? How does it change over time? We really needed that foundational information to go from kind of the dark ages of autism research into the modern age and era. And so in doing so that's the Simon simplex collection found, you know, allowed us to see what sample size did we need.</p><p>So we started doing some rigorous statistical calculations of how many we'd need to get to that goal of having maybe not every single gene, but the majority of genes. And that's where the calculation of having 50,000 families. originally came up. And so that was our original goal to be able to scale that you know, 20 fold higher than what we'd done with Simon simplex collection.</p><p>But if you started looking at number one who was able to participate, like who literally could give up a couple of days of their life to go in for these evaluations who was close enough to one of these study centers to do it it, it was. Partially an equity issue for me that I wanted to make sure everyone could get access to be part of understanding better and to be represented, because if you're not represented, your voice may not be heard in terms of the research.</p><p>So part of it was from that point of view is from a convenience point of view making sure that individuals wherever in the United States, if they wanted to be in their pajamas at 11 o'clock at night, to be able to do this, they could do it. Then, and it wasn't so burdensome. So the whole process, you know, it takes maybe an hour or so to be able to register and become part of this, not to say that you can't do more than that first hour, but to start this off, it becomes easier.</p><p>So it was with that and, you know, we've had, in terms of timing, we've had lots of ability to do things online that we couldn't do before. So when we first started this, you know, the internet wasn't as evolved as it is, and there's just a lot more we can do from home. And in general, one of the parts about SPARK that I think is really important is.</p><p>That it's meant to capture people where they are. And so, I mean that both in terms of just the convenience of participating, I also mean in terms of behaviors. And so, again, as a clinician, I have children with autism who come into my office, who I have to admit it's a terrible experience for them. They're petrified in terms of, you know, they like it.</p><p>They liked to understand what's coming. They don't like surprises. They get anxious. Being out of their elements is really hard for them. And so being able to do things where they're on their home turf, they're on their home territory and being able to capture behaviors where they really are rather than our artificial environments of being at a laboratory at a university at a hospital.</p><p>All I think is really important to truly see what life is like for individuals. So we're trying to do all of those things in terms of really capturing, you know, more of accurate information, more data. So in terms of doing this, not just the one time you can come in and be evaluated, but over your life course.</p><p>And so that's one of the things about SPARK is this is not a one and done type of. Snapshot of who you are. This is really thinking about a life course. And I really, I want to emphasize this. One of the other things about SPARK is not just the number of individuals, but it's the longevity of what we're planning to do.</p><p>We've, we're celebrating our fifth anniversary this year. And from my point of view, we're planning on going this for a lot, lot longer. I don't know if it's going to be 50 years. I don't know if I'll last for myself for 50 years. But but, but this is, I tell people who will understand what I mean, this is meant to be kind of like the Framingham of autism.</p><p>Another words, you know, being able to really see people through different changes over their life course, different stages of life, different challenges, trajectories of how things evolve and importantly, what we can do to change that trajectory potentially or support people better. So that sometimes when people fall through the cracks with young adults, especially is one area that I'm mindful of.</p><p>How do we prop them up? How do we make sure that transition is easier? And so, like I said, for anyone, wherever they are on the spectrum, I think there's always some time, some place in your life where you need an extra helping hand. And so I hope this will start to provide that evidence base for where we can provide that helping hand and have the greatest potential impact.</p><p><strong>Harry Glorikian: </strong>Yeah, no, it's, it's this term we're using autism is, is, is quite captures a very broad set of. People as, as you indicated, like, you know, you know, Elon Musk recently got up on SNL. Right. And you had to know that he was a little off anyway before that, but, you know, I actually believe that people like that can see the world in a certain light, through a certain lens that a lot of other people would be like, I have no idea what you're talking about.</p><p>I can't see it. So. All of these people, right on one spectrum or the other, which I think all of them add value as, as they're going through their lives. But the other interesting part of this study is you guys are sharing the results with participants, right. Which is not usual and not, I don't think trivial to do.</p><p>So. You've got a unprecedented level of engagement and data returned to individuals and their families. You're not just returning genetic data, but aggregate reports, which in accessible language, which, you know, I'm trying to re I just finished my third book, trying to write it more accessible, of our world and I can tell you that was truly challenging.</p><p>So I, what was the philosophy behind that? And what are your challenges around trying to do that?</p><p><strong>Wendy Chung: </strong>Right. So you're, you're absolutely right. I, I think in a very good way, we've been from the very beginning, and even in the planning stages of this had participants as part of that planning process and they still are literally on our staff on everything that we do, they are integrated on our teams.</p><p>So let me paint a picture for you. About some of the details of what you're talking about. So as of this morning, as an example, we have over a hundred thousand individuals with autism in SPARK. We have over 265,000 total participants. So the reason why the difference for those is some of those are.</p><p>Parents for instance of individuals with autism or siblings because we do encourage families to participate. So you can see that this is massive, right? This is over a quarter of a million people that we're trying to be able to in some way, juggle with all of this. And so for me, that was, you know, I don't unlike.</p><p>Most of my other research studies. I don't personally know every single person in the study. I never will, unfortunately, but we do have anchors of 31 clinical sites around the country. So that's one of the things that we do to make sure that we have our finger on the pulse in some way of our participants.</p><p>But I will also admit you could just be, like I said, in your jammies at 11 o'clock at night tonight and Google SPARK for autism and be able to find and sign up for this, you know, there's no, you don't have to be at one of these sites to do this. You're right. That the philosophy I heard from our participants from the very beginning, and some people may have heard this term is nothing about us without us.</p><p>And so in terms of research, the idea that we want to be as research participants, we want to be part of the research team. We want to be able to have a voice we want to help you do your job better as researchers. So, you know, it's not just in a selfish way. It's about, what's going to really make us committed to doing this, not as a one and done study, but as the picture I painted to be able to continue to participate for decades forward. And so in hearing that then in hearing what was important to participants, keeping in mind that I can't do everything for everyone, you know, we have to have compromises in this. It became important for people to have access to their genetic information.</p><p>But not just like, give me a flash drive with my raw data. Right. That's not helpful. If you're interpreting this information to understand genetic causes of autism and you find that for me, let me know about that. And in addition, and I, I am proud of the way we did this. We did this, not with just sort of sending someone, an email and sending, okay, well, guess what, you've got to SHANK3 variant, and this is the cause of your autism.</p><p>We do this. And I think about this for myself, what would I want to do for me? What would I want to do for my family? If this were my son, how would I want this done? If I weren't a geneticist? And so we've built in I call it, choose your own adventure, but we give people choice in the sense that. When we return, number one, it costs no one, anything.</p><p>Let me be very clear about that. So it's not like you're buying a test or anything. If anything, we will not. If anything, we do give you a token of a gift certificate to thank you for your time, because we know it takes time to be able to do this, but we pay for everything with this. And so we do it.</p><p>For those that are aficionados. We do a process called exome sequencing to be able to look at comprehensively across the genome as we do this. And it's about right now as of today, about 10% of our participants, where we find something that we can be pretty certain is the cause of the autism in the family.</p><p>And we. Again, pay for this ourselves to have a second group of people. Double check, make sure it's correct. And then the choose your own adventure is either you can choose to have your own doctor to give you that information back and explain it to you. Or if you don't feel like your doctor is the best person to do it, because maybe they're not a geneticist, maybe they don't have any idea what we're talking about.</p><p>We pay for the study centrally to have a trained set of genetic counselors, be able to return the information. And I, and my team have personally written out what we call brochures in. As you were talking about lay person language that describe each one of the over a hundred conditions that we now return.</p><p>And so it was a lot of work to write each one of those brochures for each one of those conditions. And to keep them up to date, but. That's how committed we are to this community. That's how important I think it is. </p><p><strong>Harry Glorikian: </strong>I, I almost feel like I need to sit down. That's just the enormity of that task is, is is extremely commendable.</p><p>I can't believe I'm getting a commercial enterprise like to do that. Right. Is, is not trivial. So. That's that's incredible. </p><p><strong>Wendy Chung: </strong>This is like the Ginsu knife set, but wait, there's more! So we also appreciate that not everyone is going to have a genetic result. And so we also have parents for instance, that are completing questionnaires that tell us about how their child is doing in terms of behaviors or you know, things that are related to autism or behavioral issues.</p><p>And I have to say during COVID as well, Especially, this was a big issue for many people, not just individuals with autism but about psychological differences and making adjustments during COVID. So within that we give and these are again, standard psychometric tests that are used so-called in the industry.</p><p>So in other words, by psychologists who are practicing we give that information back to families. We use infographics. And so all of this has been test driven in plain language with groups of individuals that are average parents, individuals with autism. We have a commendable group of about 80 of our participants that sit on our board again, giving us feedback before we go live with any of this, telling us how to tweak it, to make this more accessible, using different infographics, to be able to make this easy.</p><p>But every one of those things that we can return, then. We return it to our participants. We have something called a research match program. So we have over 150 researchers who use SPARK as a way of letting the community know about the research they're doing and being able to match SPARK participants with research so that this is, as you can see, it continues to kind of organically grow, not just SPARK, but the entire research community.</p><p>And a requirement for every one of those researchers is that when they complete their research, they have to actually give that information back to the people who participated in the research, into the SPARK community, in lay language. So in a way that families and individuals. Can access and understand it.</p><p>And we have many of them give webinars or be featured in our newsletter, but the whole process is we're learning together. And I want, I want people to see how science is done. I want them to be part of like the front lines. Like they're getting the preview in terms of hot off the presses information.</p><p>So with this, hopefully this is a movement in science. It's not just SPARK. I hope all, all people do this. </p><p><strong>Harry Glorikian: </strong>I was going to say, I think you need to teach a master class on how to do this because. I'm not familiar. Maybe somebody else is doing it, but I'm not familiar with it. Usually I get gobbledygook back.</p><p>I mean, I just actually volunteered to do a diagnostic clinical trial and it was, and I'm in the, in the business and I was reading what they wanted and I was like, I don't understand this at all. I don't understand what you want from me. I don't understand what I'm going to get back. I don't understand anything.</p><p>I'm not participating. I don't have time for this. So but all the stuff you said now really rings in my head of A), a data management challenge, B), analytics challenge, and C), how do you automate some of this? Because the first thing that goes into my head is is there, you know, some aspect of AI or machine learning that can do some of this because.</p><p>If I'm not mistaken, every time you discover more variants, you're going back and reanalyzing the genomic data. And that becomes exponentially a bigger and bigger task. If there isn't some level of automation to sort of make part of that more turnkey. So what are you doing there? </p><p><strong>Wendy Chung: </strong>Yep. So you're absolutely right about you know, we have thought about ways to scale.</p><p>This scale is one of my favorite words right now. Because you're right, that each time we get more people that come in and more data, we turn, we, you know, turn the crank. One more time. Knowledge is increasing around us about the brain and behavior. We're adding that and putting that back in, and then again, increasing the robustness of what we do.</p><p>And we do want to be really rigorous in terms of as we're doing this. So that's on the genetic side. And so there are. Our ways of being able to do that, I will say it takes more and more in terms of computing time or sort of, you know, person power to do this Bitcoin, by the way has been a problem.</p><p>They're buying a lot of servers. They need to, you know, free up some of those for science anyway. But aside from that there's also the issue in terms of people report to us behaviors and in an interesting way. And it's just kind of what happens when you do science this way. Not everyone is perfect in terms of how they.</p><p>Decide to participate and I get that. And so what I mean by that is there's missing ness of data that we as researchers have, you know, we realized that we've used the machine learning and some ways to fill in those missing pieces. And so what we've tried to do is use machine learning. I talked about a spectrum for instance, and people are at different ends of the spectrum that ends up being incredibly important to interpret the genomic information, as well as information about other people in the family.</p><p>And yeah. How their genetics go with their own particular place on the spectrum. And so putting all that together, we can get a profile with machine learning, to fill in some of the gaps, fill in some of the blanks, understand issues with trajectory, and then combine that with the genetics. And so the good thing, and this is another reason why we set up SPARK the way it is.</p><p>I'll be very clear to anyone who's thinking about this, either as a contributor, as a user. Everything is de-identified of course. So no one knows who any participant is, but I, I set this up originally so that the broad research community would be able to think about these problems. And I tried to de-risk it for any scientists who wanted to enter this.</p><p>So as a data scientist, for instance, You may not be an expert in autism, but I want you to be able to contribute in terms of doing this. And so the way this is set up again is the entry to access this as you do. We make sure you're a real bonafide researcher. We do go through a rigorous check of that, but you don't have to be an autism researcher.</p><p>You could be in industry, you could be an academia, you know, you could be at a private foundation. We just want to make sure you're doing good science. And I have been saying that many of the people who are using the data. are not necessarily, they didn't start out as autism researchers. They simply are data scientists, computational biologists, who are able to look at the data in interesting ways.</p><p>And I think the more we can bring smart people to the table on this, the faster we'll get some of the answers we need. </p><p>[musical transition]</p><p><strong>Harry Glorikian:</strong> I want to pause the conversation for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve published dozens of interviews with leading scientists and entrepreneurs exploring the boundaries of data-driven healthcare and research. And you can listen to all of those episodes for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you can do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to help other listeners find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll help us out immensely. Thank you! </p><p>And now back to the show.</p><p>[musical transition]</p><p><strong>Harry Glorikian: </strong>Did you ever think when you were getting your MD-PhD that you'd have to become a data scientist or an IT manager? </p><p><strong>Wendy Chung: </strong>So not exactly. And in fact, so anyway, I'll tell you sort of how I grew up. I was actually as growing up, if you had asked me what my natural proclivity or skill was, I was definitely mathematically inclined.</p><p>It was very data science inclined, very mathematically inclined. And. Probably even too good in some ways for my own shoes. Cause I kind of got ahead of myself in terms of taking very advanced courses at an early age it was, I'll never forget this conversation though. I had a discussion with my math professor as an undergraduate and said, you know, I'm really good at this stuff, but what can I do with a degree in math?</p><p>And he said, oh, well you can go work at an insurance company. You can be an actuary. You can. You can figure out what rates, you know, people should be paying in terms of their insurance. And I said, Really that's what you do with a math degree. And like, literally I did a 180 pivot and said, that's not worth, you know, going into for that.</p><p>And that was, I have to admit unfortunate and, and, you know, I, I'm not saying everything happens for a reason. I have no regrets in terms of what I've done with my life. I think that, you know, I found my home and, you know, a great thing to do. But I do have some regrets that, you know, He had that influence on me in that way.</p><p>So, you know, I could've seen myself the time when I grew up, you know, we were just starting to have personal computers, you know, we were, we didn't even have emails or internet or, you know, it's a completely different world than when I was training. So I will admit. That a lot of what I do is done by others.</p><p>I think that's a good thing. I will say team science is incredibly important. And even though I'm here talking to you today, really I'm representing literally hundreds of scientists behind the teams that are actually doing the hard work, whether it's coding, to be able to make our interfaces for users valuable, whether it's data scientists analyzing the data, psychologists neurobiologists, you know, there are just amazing people that are behind the scenes doing all of this.</p><p>And so when it comes to a lot of the really heavy lifting. I will admit that they're the ones doing the heavy lifting and, you know, in a good way, I think I've got the vision to guide the ship. But there are a lot of really smart, especially young minds that are driving a lot of the science. </p><p><strong>Harry Glorikian: </strong>So I want to switch here and switch to recruitment here just for a minute or so, because I also want to ask some of the listeners to point people in, in the direction of this study.</p><p>Right. Dump more people the better, but W w where are you now from a numbers perspective? The last numbers that I saw were. 18,000 individuals in 2017 and 28,000 family members on top of that, I'm sure it's grown since then, but w what are the numbers right now? </p><p><strong>Wendy Chung: </strong>Yep. So, as I was saying, you know, the numbers are in terms of people registered just over a hundred thousand with autism and just over, it's about 265,000 total.</p><p>So I'm not gonna. Anyway, I'll I'll go ahead and just say it. So there are individuals who get stuck at various different stages in the process. I will say, dads seem to get stuck more than moms do, and I can understand dads are busy. But when I, some of the numbers you were quoting, for instance, we have registration.</p><p>We also have send out a saliva kit for people to be able to donate a DNA sample. So they spit in a tube and they send that back. And so we have a fair number of people that get stuck at that point and dads in particular. Yeah. When we started out the sequencing, one of the things that I'll just give a little science behind this is that we call them Denovo genetic variants.</p><p>So variants that are brand new in the individual with autism are oftentimes some of that 10% that we'll recognize as a cause of autism. I'm not saying those are the only causes, but those are the ones we recognize at this point. So it became a, and has always been really critical to have both mother and father and the individual with autism whenever possible, so that we.</p><p>You could very quickly recognize what was different in the child with autism, from either their mother or father, having them in comparison, just like makes that sort of crank we were turning about very easy to turn. We've had issues in terms of being able to get, and I call it, we call them dangling dads.</p><p>But dads that, you know, just haven't quite gotten it together and have found the time or found their kit to send that back in. And that has decreased the number of family units, mothers, fathers, and children with autism that we can look at. And so. has limited. Some of the analysis that we do on the other hand, as I said, we want to make sure everyone that contributes is able to contribute.</p><p>So we have our analyses now include every single person who's contributed a saliva sample to SPARK, at least a, you know, saliva sample that's been sufficient to be able to sequence. So whether it's just one person or one person in their mother or one person and their father, everyone is represented in what SPARK does.</p><p>Just a question, as I said, of what we can recognize I do want to call out and this may or may not be obvious to listeners, but I do want to call out. It is really important for everyone to be represented because of the number of types of autisms. But also I think it's an equity issue in terms of ancestral diversity.</p><p>So where in the world. Your family came from, if they came from China, if they came from Brazil, if they came from Ghana, wherever in the world, they came from, it's really important because the genetic variants from our ancestors differ depending on where in the world you came from. And right now, in terms of genetics, about 80% of the genetic data we have as part of research comes from individuals from about 20% of the world's population.</p><p>And so we are. Overrepresented for individuals of European ancestry, which means that in terms of being able to recognize those genetic factors, we do a pretty good job. If you're of European ancestry, we don't do nearly as good a job, though. If your family comes from other parts of the world and. Both in terms of equity and making sure that we don't increase this gap in terms of genomic medicine and utility of this information.</p><p>It's really important to me that everyone gets the same shot at this. And that's part of, like I said, why we made this so easy for people. And I hope they'll take advantage of that because some people won't get this information any other way,</p><p><strong>Harry Glorikian: </strong>We need to be inclusive of everybody, but when I look at the trajectory and the, and the.</p><p>How all of these technologies across a number of different areas, that seems to be a common theme is, you know, who accessed it first? Where do we have the most data and what do we need to do next? And I, I look at the, all these technologies as on an evolutionary scale, right? Where, where we're, we're continuing to add and how do we get to more people?</p><p>How do we make it easier for people to participate, et cetera? Cause. When we were at applied Biosystems and there were sequencers right there. I mean, you could just, it was pretty easy to participate. Whereas for other people who don't have access or it's not as, I mean, if D'Souza at Illumina does what he wants to where he's, he's talking about a $60, whole genome.</p><p>There'll be things that we'll be doing that we haven't even thought of yet. </p><p><strong>Wendy Chung: </strong>Absolutely. And we've thought of some of those things. So the next time you have me on, we'll talk about some of those others. But, but I, you know, in So, although there's the accessibility, I do think there are some issues, understandable issues about trust.</p><p>And do I want you to have my genome? Do I trust you to have my genome? You know, could you do something Is some police officer going to arrest me or, you know, try and somehow plant evidence. That's going to be used against me in some way. So I think there are all sorts of reasons why certain members of our community don't feel comfortable with them.</p><p>Participating and I totally get that. I think part of it is I want to make it easy for people. I also want to make sure and it's through SPARK that we're doing, this is to understand and have those individuals have a seat at the table, be able to address as many of those concerns as we have. So we can build that trust and build that, you know, shared vision and shared goal in terms of moving the science forward.</p><p>And I say this and it's slightly different. I'm going to slightly digress, but I also, as a geneticist, for instance Treat patients for instance, who have cancer or have a family history of cancer. And I'll just very briefly share a story, which is that I had a patient who happened to be of African-American ancestry.</p><p>And she actually through a very long I'll just long story short had a family history of breast and ovarian cancer. And although she did the sort of BRCA tests that some people talk about BRCA1 and 2, she did not really get the full. Understanding of the information from that test because she had a genetic variant that at the time wasn't recognized it happened to be a real true, what we call disease causing variant to increase the risk of breast and ovarian cancer.</p><p>But it wasn't recognized because her community, her individuals from the same ancestry, weren't represented to be able to distinguish sort of the signal from the noise if you will. And so that's what happens in terms of, and she ultimately went on to develop. Metastatic cancer, unfortunately. And so there's this gap that has been evolving and actually gets wider and wider with the more that we depend on using genomic medicine, either to select the right medication or be able to decide what preventative treatments or what increased screening to do.</p><p>There becomes a wider and wider gap between the haves and the have-nots. And I, I just want to make sure we narrow that gap. We get back to being equitable. </p><p><strong>Harry Glorikian: </strong>I totally agree. I mean, I have my own pet peeve stories about BRCA I mean, I was lucky enough to do I helped Myriad with some of their strategies and, you know and I got to learn a lot about their database versus everybody else's database.</p><p>And so I have my pet peeves on where people should go and get their testing. But I also agree that being able to explain this to someone. Is not trivial. That person didn't fall off the turnip truck. Right. And the data is changing daily. I used to be able to turn on my computer and I'd be like, oh, I can keep track of that one and keep track of it.</p><p>Now it's for forget it. If I don't have IT support. Hmm. And somebody who's been studying it it's, I don't want to say it's relatively impossible, but it's extremely daunting. To sort of keep up with what's going on. </p><p><strong>Wendy Chung: </strong>So let me just I'm going to stay on that note, although it's not directly SPARK related.</p><p>There's some listener out there who would this'll resonate with your point of scalability and to be able to wrangle all of that changing interpretation of the data in real time is very important to me because like you said, there's a lot that we don't yet know what it means, not just related to autism, but related to a lot of the way our bodies function.</p><p>And there needs to be a platform and informatics system that facilitates that you as an individual to your doctor would be great. But you also, as an individual can contribute to and engage in to be able to manage your own health. </p><p><strong>Harry Glorikian: </strong>So I have to tell you, I mean, after all the work I've done and everything that I've tried to write and so on and so forth, this whole idea that everybody has, that they're going to have their individual silos is to me, a bunch of malarkey, right?</p><p>We've all seen that when you put all the mapping information and Google has it, it's an exquisite piece of, you know, useful database that you get you around tells you where you need to go, what you need to do. It's not. there aren't 50 of them or a hundred of them. I mean, in our world, if I think of everybody's individual silos, there's thousands of them.</p><p>And it should be, I mean, the country itself needs to aggregate this. I know that medical professionals will be like, no, it's my data. It's not your data. It's the patient's data. And it should be aggregated. And by aggregation, we can gain more insight into it, but, you know, These are policy issues that every once in a while, I try to influence people on.</p><p>But boy, they, they, the technology is moving much faster than the understanding of the people that are writing the policy and not to digress. But I think if we want to solve problems or at least gain a deeper understanding until we do that, I think it's just going to be chipping away except for programs like yours or certain companies that I know that are spending the money to.</p><p>Build a massive data set that they can then sift through. But all of this work that you're doing is to diagnose the patient better, manage the patient, better, understand the progression of PA of the patient, but it's also to eventually I'm assuming design certain drugs or, or certain therapeutic interventions that, that, that w w where are you from?</p><p>In that standpoint. </p><p><strong>Wendy Chung: </strong>Yep. So we are moving forward. It's not going to happen overnight, but I talk a lot about getting people to the starting line. So we have a sister study for SPARK called Simon Searchlight. That's actually, we've been doing that for about 10 years. That now is once you get a diagnosis, a genetic diagnosis, the point is then you've got a group of individuals that all share that same genetic diagnosis.</p><p>You can learn from each other. You can learn from researchers. And to your point now, you know what starting line and what race you need to line up for. Right? Because you're in terms of a treatment or a support, it's likely to be specific. There may be some commonalities across genes, but in some cases, if you think about a gene therapy or gene editing or gene replacement or something like that, That is going to be at the level of specificity, at least at the gene.</p><p>And in some cases, maybe even by the genetic variant. So in terms of doing that number one is that I do think this is going to be, I call it a step function mathematically, right? So there are going to be enabling technologies. And when certain enabling technologies and delivery systems are in place, they're going to be, it's not just going to be one condition.</p><p>That's now treatable. It's going to be a whole class genetically of conditions that are treatable. And it's a matter of as modules popping in the right gene into that system and making sure that the window of opportunity for treatment is still open. But as we're doing that, it's important to me that even for conditions that are seemingly very rare, they're in the aggregate.</p><p>Quite common. And there are a lot of lessons to be learned from each other as we're doing that. So it's kind of getting everyone lined up. We're starting to think about, and I don't want to put a timeframe on it, but it may be as soon as within the next year or two, that we'll be starting to actually use treatments.</p><p>In some of the individuals, either in SPARK or Simon Searchlight with one of those genetic events that's amenable to some of these molecular technologies. We have a clinical trial for something called R-Baclofen that got shut down by COVID, but hopefully we'll be opening up again soon. And that will be it's a small molecule or a pill that you'll take.</p><p>But for certain individuals with a particular group called 16P11.2 deletions, again, one genetically defined group. But that clinical trial, I hope will be opening up in later in 2021. So we are marching forward towards treatments. We also think of, as I said, supports for individuals.</p><p>So it's not just about changing the person or giving them a drug. But thinking about, you know, what do you need? Is it that you need coaching in terms of how to, you know, ask someone out on a date, how to be able to interview for a job, how to, you know, be able to get your life together, to go off to college and live somewhat independently, you know, Things like that, that may be a little bit more difficult for certain individuals.</p><p>But how do we deal with some of those things as well? All of these I think are going to be incredible opportunities. And like I said, a large part of what I do is try and de-risk all of this. So think about the research community. What does the research community need? What are we going to need for FDA registration?</p><p>How can I make this easier, more accessible? Like how can I. What are the tools I can put in the toolkit so that if someone has got a hammer, I can point them to all of these nails out here that they can just start hammering one by one and be able to hopefully make a much bigger impact than they could if they just, you know, saw one nail that they could hit.</p><p>But with this, like I said, it's not going to happen overnight. It's still, I think, you know, when I think back to the last year of what we've had in terms of molecular therapies, you know, things like Spinraza and spinal muscular atrophy have been truly revolutionized you know, what used to be for me, the most common genetic cause of death for infants is now something that we do with.</p><p>Newborn screening and we have a one and done gene therapy. I mean, it's just remarkable. I, I never, in my wildest dreams 20 years ago would have thought that we would be there. And I think that's part of the, you know, that sort of vision, that way of thinking about things I wonder and hope that at some point in the not too distant future, we'll be able to identify kids.</p><p>Early at a window of opportunity for treatment line them up for the right safe treatment, if they needed and be able to bend that curve, put them on a different trajectory than they might otherwise have been on. </p><p><strong>Harry Glorikian: </strong>I've spent time you know, talking to Robert Green about BabySeq and sequencing, you know, children and, and you're right.</p><p>I mean, if I think about from the day we were starting the genome project to now We we've revolutionized some areas. I mean, things that were a death sentence or whatever have completely changed. I'm not sure the public or people fully appreciate that. That's why, when somebody writes a paper, the genomic sequencing hasn't had an impact.</p><p>I, it just drives me nuts. Okay we've talked about the benefits of all this, but if you could say to. Why should people donate their genetic data? I want to want to see if we can get some of the listeners to touch some of the people that they know or at least get the word out.</p><p>And then what, what can the rest of us do to help? Sure. </p><p><strong>Wendy Chung: </strong>So, so if you'd like to participate, the website is sparkforautism.org, sparkforautism.org, right there on that website, on that landing page, you just, there's a tab that says join us today. And that starts you on the process of being able to sign up for doing this.</p><p>You can share that with a friend. Everyone in the United States is welcome who has we call it a professional diagnosis of autism. So in other words, a psychologist a doctor you know someone has officially said that they have autism, not just that. They think it's a possibility, but someone has really said that they do have autism and of any age.</p><p>So it could be a two year old to a 50 year old. And then as I said, their family members, so that's in terms of doing it in terms of, like I said, the information that you get back from it, I do hope. This, this, I will say also as a practicing geneticist, this doesn't replace me in terms of wearing my hat as a doctor providing genetic information.</p><p>So if you're a pregnant mom out there who has a son with autism, and you're worried about, you know, the risks to your baby right now see a medical doctor about this because it takes us a little while on the research side, I won't be able to get you a result a week later, it does take time. So, so we're not meaning to replace the medical system.</p><p>But as you're doing this, I do hope you'll find it helpful. Like I said, to get some of your own personal information genetically about autism, and most importantly, it's to be represented that is that I don't know where the insight is going to come from. And I want to make sure that we have information that's useful to us.</p><p>Everyone across the spectrum, whether it be by age, whether it be by gender, whether it be by where you live in the United States, whether it be by your gene. There's so many different dimensions and it changes over the life course that it's a big ask. I realize. But we are committed to doing this and I will say it's through the generosity of the Simons family and the Simons Foundation</p><p>that we're committed to this for the long run. I don't have to worry about will NIH fund this for another five-year cycle. I don't have to worry about the upturn or the downturn of the economy or fundraising for this year. This is one of the truths in life that I can say this is going to be around for the longterm.</p><p>And so you don't have to worry that this is going to disappear or go down in flames or that, you know, your samples and your information are going to be stuck in a freezer or warehouse. And no one's going to pay attention to this. This is, and I've emphasized this, but. This is what's driving autism research in the United States.</p><p>There are literally hundreds of researchers that are using this as the way to know better. And if you want to be easily in touch with those researchers, find the cutting edge information. This is an easy way to become an insider. So I hope you'll use the opportunity in whatever way suits you best, but definitely share it with a friend and hopefully you'll be able to get something out of this too.</p><p><strong>Harry Glorikian: </strong>No, this is, this is fascinating. I'm, I'm really glad that we have the opportunity to talk and expose the listeners to this because I think what you're doing as a process needs to be replicated in a number of different areas. And then at some point it would be interesting to have a portal that would potentially share and aggregate that information in a, in a way But I, cause I always think, you know, we just don't know what we don't know yet and there's gotta be a way to evolve this as it goes forward.</p><p>So it was great to talk to you. As I said, I feel like I know you from the PBS show, but great to actually meet you in person and look forward to publishing the episode and, and, you know, getting people excited about this opportunity.</p><p><strong>Wendy Chung: </strong>Well, thanks for having me and helping to increase the awareness and thanks for what you do educating the public about what science and big data are about is so incredible to educate all of us so that we can make better decisions.</p><p><strong>Harry Glorikian: </strong>Excellent. Thank you.</p><p><strong>Harry Glorikian: </strong>That’s it for this week’s show. You can find past episodes of MoneyBall Medicine at my website, glorikian.com, under the tab “Podcast.” And you can follow me on Twitter at hglorikian.  Thanks for listening, and we’ll be back soon with our next interview.</p>
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      <itunes:title>Wendy Chung on The Largest Autism Study</itunes:title>
      <itunes:author>Harry Glorikian, Wendy Chung</itunes:author>
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      <itunes:summary>From her TED talks and her appearances on PBS, geneticist Wendy Chung is known to millions of people as an expert on autism. But thanks to funding from the Simons Foundation, she’s also known to tens of thousands of people with autism and their families as the leader of history’s largest study of the genetics of autism spectrum disorder (ASD). It’s called SPARK, for Simons Foundation Powering Autism Research for Knowledge, and it&apos;s a big-data exercise of unprecedented proportions.</itunes:summary>
      <itunes:subtitle>From her TED talks and her appearances on PBS, geneticist Wendy Chung is known to millions of people as an expert on autism. But thanks to funding from the Simons Foundation, she’s also known to tens of thousands of people with autism and their families as the leader of history’s largest study of the genetics of autism spectrum disorder (ASD). It’s called SPARK, for Simons Foundation Powering Autism Research for Knowledge, and it&apos;s a big-data exercise of unprecedented proportions.</itunes:subtitle>
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      <title>Michael Snyder on Using Data to Keep People Healthy</title>
      <description><![CDATA[<p>Having helped to bring big data to genomics through the lab techniques he invented, such as RNA-Seq, the Stanford molecular biologist Michael Snyder is focused today on how to use data from devices to increase the human healthspan. Some cars have as many as 400 sensors, Snyder notes. "And you can't imagine driving your car around without a dashboard...Yet here we are as people, which are more important than cars, and we're all running around without any sensors on us, except for internal ones." To Snyder, smart watches and other wearable devices should become those sensors, feeding information to our smartphones, which can then be "the health dashboard for humans and just let us know how our health is doing."  (You can sign up to participate in the Snyder lab's study of wearables and COVID-19 at <a href="https://innovations.stanford.edu/wearables">https://innovations.stanford.edu/wearables</a>.)</p><p>Snyder has been chair of Stanford’s Department of Genetics since 2009 and is director of the Stanford Center for Genomics and Personalized Medicine. He has a BA in chemistry and biology from the University of Rochester (1977) and a PhD from Caltech (1982), where he studied with the molecular biologist Norman Davidson. He did a postdoc at Stanford from 1982 to 1986 and then went to teach at Yale in the Department of Molecular, Cellular, and Developmental Biology from 1986 to 2009, when he moved back to Stanford. </p><p>At Yale, Snyder and his lab helped to develop many of the tools undergirding functional genomics, including RNA-Seq, one of the two pillars of transcriptomics (alongside microarrays). Snyder is also known in the world of personalized medicine for having discovered through genomic analysis of his own blood that he was at high risk for Type 2 diabetes, which he later did develop, but controlled through exercise and diet. That work to create an “integrated personal omics profile” (iPOP) was later described in a 2012 <a href="https://www.cell.com/fulltext/S0092-8674%2812%2900166-3">Cell article</a>. Eric Topol of the Scripps Research Institute <a href="https://www.nytimes.com/2012/06/03/business/geneticists-research-finds-his-own-diabetes.html">called it</a> “a landmark for personalized medicine” and an “unprecedented look at one person’s biology, showing what can be accomplished in the future.”</p><p>Snyder is the author of a 2016 book from Oxford University Press called <i>Personalized Medicine: What Everyone Needs to Know</i>. And he has founded or co-founded numerous life sciences companies, including:</p><ul><li>Personalis (precision oncology through liquid biopsies of tumors)</li><li>SensOmics (genomics + machine learning to screen for childhood conditions such as autism)</li><li>Qbio (membership-based access to “BioVault” platform gathering numerous biomarkers to predict health risks and recommend healthy habits)</li><li>January.ai (smartphone apps with machine learning to help pre-diabetic users avoid spikes in blood glucose)</li><li>Filtricine (cancer management through “Tality,” a line of foods that cuts off amino acids needed for tumor growth)</li><li>Mirvie (formerly Akna – blood tests to predict pregnancy risks such as preeclampsia, preterm birth, gestational diabetes)</li><li>Protometrix (maker of protein microarrays, acquired by Thermo Fisher)</li><li>Affomix (maker of technology for high-throughput screening of antibodies against human proteins; acquired by Illumina)</li></ul><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian:</strong> Michael Snyder says his life is all about using big data to understand things.</p><p>He’s a molecular biologist, genomics expert, and life sciences entrepreneur based at Stanford University. It’s partly thanks to Snyder’s work that genomics is a field defined today by big data. </p><p>In an earlier phase of his career, when he was at Yale, he and his lab members invented some of the fundamental technologies behind functional genomics, that is, the study of gene transcription and regulation, and also transcriptomics, which focuses on the RNA transcripts genes produce.</p><p>At Stanford he’s focused on using big data to transform the healthcare industry, so that it focuses less on reacting to illness and more on proactively lengthening people’s healthy lifespans.</p><p>Snyder is like me in that he’s convinced that smartwatches and other wearable devices are going to be an important source of health data. If everyone had one, we could probably detect health problems a lot earlier and make better lifestyle decisions. </p><p>In fact, about halfway through the interview you’ll hear Snyder explain how his own wearable devices have gotten him out of some personal health scrapes. In the middle of one flight to Norway, Snyder says his heart rate went up and his blood oxygen went down. Before his flight even landed, he’d correctly diagnosed himself with Lyme disease and was able to get an antibiotic that quickly cleared out the infection.</p><p>Later, during the height of the covid pandemic in the U.S., Snyder’s lab proved that about three-quarters of the time, they could predict which FitBit users would develop covid symptoms based solely on heart rate data from their devices.</p><p>The medical establishment hasn’t always been receptive to this kind of science. And the era of data-driven collaboration between patients and their doctors has been a long time coming. But thanks to better technology and the impact of the pandemic, Snyder thinks it’s finally arriving now.</p><p><strong>Harry Glorikian: </strong>Dr. Snyder, welcome to the show. </p><p><strong>Michael Snyder: </strong>Thanks for having me. </p><p><strong>Harry Glorikian: </strong>It was funny cause I was reading your background and I was like, wow. I mean, so many different aspects of your background, both, you know, from a scientist and an entrepreneur from, you know, helping start, like, I was going through the list of the companies. It was longer than, than I remember. Like, I know quite a few of them, but not all of them. And so I just thought like from a high level, like, how do you explain to someone what you do and why you do it? </p><p><strong>Michael Snyder: </strong>Okay. Well, we're all about big data. We like to use big data to understand things. And these days we want to use big data to transform health. And really that's what my career has kind of been built around. So over the years, we've invented technologies for collecting big data and then we've implemented them. For a long time, when I started out, it was really to try and understand biological systems. People use to study genes one at a time, for example, and proteins, one at a time, we came up with a way of studying them all at once. And that hadn't been done before. And then try and understand them in a systems context so that you weren't really just looking at, you know, if you have a jigsaw puzzle, look at one or a few pieces of the time, we wanted to see the whole puzzle at once as best we could. And so that's really been the philosophy. </p><p>As I say, it was first choosing to study basic cell biological problems. And then I moved to Stanford now about 12 years ago. And the goal there really was to bring it to medicine see if we can understand medicine, you know, at a holistic level, not just, you know, if you've got high sugar that, you know, you're diabetic. Sure. But are there other things going on as well? Like other metabolic conditions? And that's really the philosophy. Let's look at the whole system, better understand what's going on, and see if we can come up with solutions. </p><p>Now, the thing, I think that's been a big shtick of ours and at least in the recent years has been focused on keeping people healthy, extending the healthspan as opposed to just doing sick care, which is where medicine is today. So we really want to transform medicine. </p><p><strong>Harry Glorikian: </strong>Yeah. It seems that, you know, health span has become the, the big shift.  And if you look at where we're going from the Affordable Care Act and everything, it's better to, it's more profitable actually to keep someone healthy than just treat them when they're sick. So I like that shift because it brings technology more into the forefront. </p><p><strong>Michael Snyder: </strong>Totally. Yeah, no. And it's going to require a lot of changes and a lot of levels, the whole payment level in the United States is broken. People often only get paid when sick people go in to see them like hospitals, you only get paid to show up when you're ill. We don't put enough emphasis on keeping people healthy because people have said, well, you know, show me it saves money, show me it does it. But until you run those studies, it's hard to do that. So I think the incentive systems are changing. That's slow, but it's also getting  you know, physicians and others used to this concept of bringing in big data to better understand people's health. </p><p>And maybe to elaborate a little more on this. You know, if you walk into a doctor's office today, it looks pretty similar to the doctor's office of 40 years ago, you know, a few gadgets are updated, but otherwise the same. And guess what the number one user fax machines is in the U.S.? It's the healthcare system. My daughters don't even know what a fax machine is.</p><p><strong>Harry Glorikian: </strong>Yes, yes. It's true. Somebody did ask me the other day, like, can you fax it to me? I'm like, yeah. I think my scanner might, but I don't think I've got a jack that I can actually plug it into to actually send it. ‘Cause I don't do that anymore. </p><p><strong>Michael Snyder: </strong>Nobody does that except for the medical system pretty much. Yeah.</p><p><strong>Harry Glorikian: </strong>So, you know, you've had you, you mentioned it, you had a hand in, in, you know, developing these foundational ideas and technologies in functional genomics, such as, you know, high throughput protein sequencing techniques, you know, known as RNA-seq and then making transcriptomics possible. Like, can you talk about what it's been like to sort of, you know, develop those technologies and then, you know, be at the forefront of trying to answer these big molecular biology questions and, and what in your mind, what came first? Was it, I gotta answer this molecular biology question so I'm actually, I'm going to develop this instrument and then be able to answer that question. Does that make sense?</p><p><strong>Michael Snyder: </strong>Yeah, it's a little of both to be honest. Often we develop technologies out of need or out of observations. We have, so for example, in RNA-seq, we were trying to map where all the transcribed regions were, where all the genes were in yeast, which was the organism we were studying at the time. And we tried this one now very outdated method that just work miserably and we just stepped back a minute, said there's gotta be a better way. And so that's how we came up with, we thought about it, came up with a way and then implemented it and, and showed it worked. And then of course if it works, it takes off quickly, very much like CRISPR. And that’s been true for other things. In some cases as we'll make an observation like when we first  invented a way to map the targets of key regulatory proteins called transcription factors there, we saw that these things were, were giving these dots in what's called the nucleus of the cell. And we said, well, where are those dots located? And so we came up with a method for figuring out where are all the, where all the binding sites for our, for these key regulatory proteins. So it's, it's been a variety of ways. </p><p>And then when it's come to medicine, we, once we invent the technology, so well, people will say, well, well, how can we use these now in other ways that would be beneficial. And I'm not sure what you know, but I was at Yale for a long time, and I had a great time, it was fantastic place, but I was more on the main campus and it was just harder to implement them into medicine. And then about 12 years ago, I moved to Stanford and I'm right in the heart of the medical school where there's all these clinicians and very eager, beavers around, trying to figure out how to better, you know, do medicine these days. And so it's just been easier as we've implemented technologies to roll them out and see how they might work in the clinic. </p><p>And so I think one of the biggest projects we launched when it came to Stanford was we call it personal ’omics profiling. The idea, you collect a lot of deep data around a person and you do it longitudinally. So we'll, we'll sequence their genome we'll look at all the molecules we can in their blood and urine, meaning their RNA and their proteins and their metabolites. We, we do deep questionnaires and clinical tests on people. </p><p>And then, and then, yeah, about eight years ago, we sort of got into wearables back when they were just fitness trackers, realizing they would be powerful. So the idea was to collect data on people—while they're healthy, by the way, not while they were sick, while they were healthy—and do it longitudinally, do it every three months and see how they change. And if they got ill, then we collected more sample. And that was the idea. That's turned out to be a really flagship project, I think, for just how we might better implement health. </p><p>And you raise the issue about starting companies. So a little of my philosophy is I think academics are great at discovery. They're great at proof of principle, but they're not good at scaling. They think they are, but they're not. And this is what companies are just fantastic about. So we've spun off, we think some, what I hope will be powerful companies. One was a DNA sequencing company called Personalis. They've done very, very well.</p><p>Then we've spun off Qbio, which is doing sort of a, you know, a more commercial version of this personal ’omics profiling, as I mentioned, but they added on whole-body MRI and have some other things that are pretty powerful. So they've, they've got a medical version of, a more actionable version, again, our academic lab is doing this research for us and trying to figure this out, but the company can do it, implement it.</p><p>And then we have another company, January AI, it's doing continuous glucose monitoring for trying to better control diabetes. So again, we figured out some things in the lab and then it made sense to commercialize it. So, so it all goes kind of hand in hand to me. It all makes sense. And it's very satisfying by the way to do stuff in the lab that, that we think is impactful and then try and get it out there to a broader group. We think that's how you scale. I don't think academics are capable of scaling. Certainly not very well, whereas companies are. </p><p><strong>Harry Glorikian: </strong>Well, yeah, I mean, I, you know, quite some time ago being a product manager, I mean, you, you, you had to like your biggest accomplishment was getting that thing from the bench right out into somebody in the field and, oh my God, it actually, yeah, it did something. Right. And that was the exciting part. Stopping at the research, I would have been like, “That's it? Like, all I got was all I got was a paper out of it?” Like, no, no. I want to, you know, I know that that's always the beginning. </p><p><strong>Michael Snyder: </strong>Yeah, we got excited about the papers, absolutely. But we're very also, it's just fun to see it get out further. Totally. And again, so that's literally all the companies, maybe with one exception have spun off of the things we were doing in the lab said, all right, we get it. Now it's time to scale this out and develop it into something people would be interested in. And it is very satisfying, as you say.</p><p><strong>Harry Glorikian: </strong>So, so, you know, I mean the genome has come down in cost. I mean, a lot of other analytic technologies have come down in cost. I mean, I know the latest thing that Illumina has said is they want to get the genome down to like $60 to do the functional work. Not necessarily the analytics or analyzing part of it. How do you see that changing what you're doing and the impact? I mean, you've got a lot of data, so I feel like you can almost. paint a picture of the evolution of a person.  If you could sort of see the initial traces, how do you see this playing a role in what you're doing and the impact that it's going to have on where it's going next?</p><p><strong>Michael Snyder: </strong>Yeah. I think getting the cost down is a big deal because when we set this up as research, it was very, very expensive. And so  getting it out there will help, especially when you're talking about keeping people healthy because people don't want to dump a lot of money into a healthy person. ’Cause they don't know that—here's a problem with our healthcare system. Most people will shift every 18 months, that's the average time people stay with their provider and then they'll shift to a new one. And that may be because their company's shifted. Not necessarily they did, but their company may have done it. And sometimes they change their job, they shift. So  that's whyIt's a barrier then for, for providers, healthcare providers put a lot of money into you, when 18 months later you're going to be with somebody else. But if the costs are pretty cheap, like the genome sequences, let's say, but the interpretation is $200. It's worth it to you because then it's a lot easier to execute preventative medicine, get your genome sequenced, predict what you're at risk for, and with a fairly low cost. But if they're going to dump $2,000 and you're going to be with somebody else, there's a lot more balking, if you know what I mean.</p><p>So I think, I think keeping the costs down is a big deal. Qbio, for their exam, they charge $3,500, and on one hand that's a lot of money and we, we like people to do it two months. You get a whole-body MRI and other things. On the other hand, we would argue for it. It should save and already has. We found like early prostate cancer, early ovarian cancer, early   pancreatic cancer, which is a big deal and some heart things and stuff like this is from the first a hundred people that we did. And it's more now. So, so we show it has utility. And of course, if you're one of those people, it's a big, big deal. </p><p>So, and, but by getting the cost down, it just gets the whole barrier away. Right now you have to pay out of pocket because there is no reimbursement. So the cost gets down and I think people would reimburse because there'll be willing to run trials to show it does work and saves money. So I, I think the whole thing will go together as costs drop, and we can expand this out and show utility. </p><p><strong>Harry Glorikian: </strong>Well, and you know, if you think about the implementation of technology, like if you could carry it around on your iPhone, when you go to your next physician, and you've got it with you right at that also brings the cost down rather than have to do everything all over again.</p><p><strong>Michael Snyder: </strong>Totally. Yeah. In the future. And I think physicians are just warming up those. There's an education side of this from the physicians, you know. When we first got involved in the wearable space, they would tell us how inaccurate it was. And they didn't like the idea that your iPhone would be so powerful. Possibly more powerful than they are. There was a threatening aspect of the whole thing. And I think they're now reassured that, first of all, they're very important. They're not going away. There's these technologies to augment what they're already doing. </p><p>And, and it's, there's an education side. I remember when genome sequencing first came out, even at an enlightened place like Stanford, I would talk to some of my colleagues and they'd say, well, nobody shows that really worked, you know, and it's got a lot of errors. They just think about the negative. The instant reaction is, you know  we don't really know how to do it. You might tell people something they're not going to get. That's harmful and, and try to tell them, well, look, you have just educate people and educate the physicians. </p><p>And now, when we first started actually, you know, cancer, even people were pushing back  and cancer is a no brainer. You need genetic tests or sequencing. But for elderly people, it was a strong pushback, right? Everybody's telling you, Mike, what you're doing is really harmful to people. You're going to get people to turn them into hypochondriacs when you sequence their DNA. And now there's some, some people feel that way, but most people have kind of warmed up or at least maybe it's 50-50 are receptive to the idea. Maybe it is a good idea to get a, to find these risks. </p><p>From our standpoint, just from the first 70 people we sequenced the genome, we found someone's BRCA mutation. And now that person out of mutation suggests they might have certain kinds of cancer. They did a whole-body MRI that early thyroid cancer, we caught that had it removed, saved their thyroid, the rest of their thyroid. That is, you know, very, very useful. Another person, a very young person had a mutation in a heart gene and would have been at risk for cardiomyopathy. It turns out his father died young of a heart attack. And so he had this mutation, we saw this thing and sure enough, he had a heart defect. Didn't even know it. He's on drugs now. </p><p>So, so these technologies can be very, very useful, very, very powerful. But you have to show physicians that, and then they sort of go, “Oh yeah. Now I get it. We kind of get it.” They may say, well, show us the evidence. And so that's what we're trying to do. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, I just. I've got a book coming out in the fall and I just interviewed somebody who had done participated in BabySeq. Robert Greene's thing, right? And identified an issue  that had a profound effect actually on the decisions of the mother, not the baby.  And so it’s an interesting story when she went through it, I was like, wow, that is super impactful. You know, it adds a lot of, you know, it is funny. She said, you know, we did this and I was not expecting this. Right. So it was an eye opener, but it's affected her decision-making going forward.  And it's along the lines of BRCA, what she was informed of, but  I'm sort of saving it for the book. So when it comes out in the fall. </p><p><strong>Harry Glorikian: </strong>But you know, you wrote a book back in 2016, that introduces non-experts to personalized medicine. You know, you covered everything from how DNA works to the applications in genomics, in cancer. So. I almost think like that might need a refresh or at least the publisher might want to put it out again, because I think people are more interested now. But if you were writing that book from scratch today, you know, five years later  would you write it at all? Would you, the field is, I feel like it's exploded in the last five years on the one hand. On the other hand, I still feel like I talk to people that still don't understand the impact of it. So I feel like I'm talking to both sides sometimes, but. How do you think the field has changed in the last five years? And where do you see it going next? </p><p><strong>Michael Snyder: </strong>Yeah. Great question. So when we wrote the book, you know, people really didn't like this area. They didn't like it, sequencing genomes and things. They thought it was harmful.  And the same idea where, I mean, we literally collect millions of data points. Every time we sample someone, then people still bring it up. And so it was really, the goal there was to educate people about what the technologies are, what they're capable of, and this sort of thing. </p><p>So I think we have come a long ways since then, where the field was mostly against. I asked people to raise their hand. How many of you want to get their genome sequenced? Usually there's a small fraction, even in an educated group. Now it's probably the majority. If they haven't even done it already—they may have already done it. So  I think the world has changed. I think what I would do is update the power of the new technologies. New technologies have come out, even since we first put that book out.</p><p>So I'd add more. Expand the wearable space. I just think we can put a smartwatch on every person on the planet. If we wanted to a very inexpensive one that would be a health monitor for people. And, and there would be a no better time for that than this pandemic that's going on now, because we actually can show, we can tell when people are getting ill prior tosymptoms from a smartwatch, from covid and other infections. So we can talk about that more if you like, but it's a pretty cool study. We can show again, 70% of the time, we can tell when you're getting ill, because your heart rate jumped up, and we pick it up with a smartwatch. So imagine putting that on everyone in the planet and just letting them know, “Look, we can tell when you're getting ill.” You know, even if it's not perfect, a bunch of the time that we think would be very useful. They don't send their kids who are sick to school, affecting everyone, or it shows up in a nursing home and, you know, you flag it right away. And that would be, we think very, very powerful.</p><p>I view it as analogous to, you know, a car. A car usually has several sensors. Some have as many as 400 sensors on them. And you can't imagine driving your car around without a dashboard, the gas gauge or, you know, a speedometer or an engine light or all these things on we've gotten so used to this is what you do when you drive a car.</p><p>Yet here we are as people, which are more important than cars, and we're all running around without any sensors on us, except for internal ones. They're okay. But they're kind of slow. And I just, to me, it's just totally logical. We should all have our own, you know, sensors on us. It's the car health dashboard. Our smartphone will be the health dashboard for humans and just let us know how our health is doing. And it doesn't mean when you see a light go off that for sure something is wrong, but it gives you a heads up. And it has, you know, in, in some cases our profiling has really had life-saving consequences.</p><p><strong>Harry Glorikian: </strong>Yeah. And I'm, well, I mean, it's funny cause I think about these things and I look at a lot of these technologies and. You know, it's always a single biomarker of some sort, right? That that's, you know, a heartbeat or temperature or something. And then I think about, well, the next level has got to be a combination of them, which makes the predictive power that much better. </p><p><strong>Michael Snyder: </strong>That's right. Yeah. We call that multivariate, yeah, where you bring in several features. So you start seeing it enlarge something or a thing on an image, and then you see that those biomarkers of those. That's how we discovered someone with an early lymphoma in our study that had an enlarged spleen, and then we saw certain markers are up in their blood and said, something's not right here. And then they did follow up and sure enough had early lymphoma, no symptoms yet. So again, caught it early, a lot easier to manage just much better off. We have a number of examples like that. So the combination tells you. </p><p>And the other thing that's very under appreciated is the longitudinal profiling.  People don't realize that if you go in and get tested now, and they rarely look at your old measurements. And so they just see if you're in the normal range and you can be at the high end of the normal range, but you're still “No, all right, you're fine. Don't worry about it.” But if you look at your trajectory, you know, maybe you've been running kind of normally in the low normal range and suddenly this one jumped up, you know 50%. You can still be in the normal range, up 50% and something's headed in the wrong direction and you would be ignored for that. Whereas if we just had very simple algorithms that can flag that sort of stuff. “Look, you're not only up in this marker, but you're up in that one too, which is related, you know, maybe something's going on early.” Let's see what's going on there a little better and catch things earlier again when you can manage it better. So, so I think we ought to bring in longitudinal information again, to me, that's why the wearables are so powerful because they measure it 24/7. </p><p><strong>Harry Glorikian: </strong>Well, I do that with my, my physician. I walk in, I'm like, okay, here's my data for the last, you know, X amount of time. And it's funny because even I've noticed, like during covid, cause I was much more sedentary, like certain things were going in the wrong direction. And I was like, oh no, no, no, no. I got to get those, those back in line. If I didn't have the ability to look at it over time. And I was only looking at that one point, you know, how am I going to see where it's going? </p><p><strong>Michael Snyder: </strong>Out of context. Yeah. Here's another thing that's wrong with medicine today. It's all population-based, so they will make every decision about your health based on population averages and hence that normal range. But again, you may not at all be like normal population levels. </p><p>And so you've been told, and here's my favorite example, you've been told since day zero that your oral temperature, when you put it thermometer in your mouth is 98.6, but it turns out, first of all, that number is wrong. Yeah. Average temperature is 97.5. But more importantly, there's a spread. So the what's called the 25th quartile is 94.6. So four degrees below and the 75th quartile, 99.1.</p><p>So in today's world, if your normal baseline temperature is 94.6, that's your healthy temperature, and you walk into a physician's office at 98.6, they'll tell you, “You're healthy. Everything's great. What are you doing? Go home.” But you're at four degrees Fahrenheit over your baseline. I guarantee you're ill.  This is just, it's not healthy. So you got to know your baseline. And for me, by the way, mine is 97.3 and it's been dropping a little bit over the last 10 years. Which is, there's some studies suggesting that is the case actually, so that people do drop a little bit as they get older. But the point is that, you know, my baseline is not 98.6, if I am at 98.6, I am ill. </p><p>[music interlude]</p><p><strong>Harry Glorikian:</strong>I want to pause the conversation with Michael Snyder for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve made more than 60 episodes of the show. And you can listen to all of them for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you could do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to make sure that other listeners will find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll be a huge boost for the show.</p><p>Thank you! And now back to the interview.</p><p>[music interlude]</p><p><strong>Harry Glorikian: </strong>You know, just talking about the wearables, because I noticed like earlier you had at least four devices and I think an Oura ring, or maybe… </p><p><strong>Michael Snyder: </strong>I lost it recently, but yes, I normally wear, I normally wear eight of these devices. An Oura ring and four smart watches. I have a continuous glucose monitor and environmental sensors. I've got all kinds of gadgets. </p><p><strong>Harry Glorikian: </strong>Oh Jesus. Okay. Well, so tell us where you see the overlap of these digital devices and the personalized medicine sort of coming together, because I feel like one is much earlier warning system or could be an earlier warning system of what may come in the future. And one is a current monitoring system, of how the machine is working. </p><p><strong>Michael Snyder: </strong>Yeah. I mean, I do think they're an integral part of personalized medicine.   Only now I think people are realizing the power. The pandemic, I hate to say it, helped with that because remote monitoring is now become popular and the concept that you can start managing people.</p><p>So, a little background, we started on this about eight years ago, when the Fitbit was out there. And people are using these fitness trackers. We thought, well, gosh, these are pretty powerful health monitors because they're measuring your heart rate and they measured 24/7. In fact  you know, the first device we used doesn't exist anymore, a Base watch, it takes 250,000 measurements a day. Now some of them will take 2.5 million measurements. They really follow you in a deep way and they'll measure heart rate, variability, skin temperature. Those can all be pretty accurate, by the way. It depends on the device. Some will measure blood oxygen and even blood pressure. Those are less accurate, but their deltas are pretty good, meaning the changes. And then there's other things out there too, something called galvanic stress response. </p><p>So they can measure all kinds of things. They're always following you. So we think that's super powerful. Now when we first started, again, physicians pushed back and said, well, you know, everybody knows they're not accurate and we actually want paper coming out. Very soon [they started] saying, well, actually they're more accurate for some measurements, like heart rate than what you measure in a physician's office. My heartbeat can vary by as much as 40 beats per minute, depending whether I drove their biked there. Even if I rest at 15 minutes, it's still different and whatever's going on in my life.</p><p>And, but if I pull my resting heart rate off in the morning, first thing it's pretty constant, unless I'm either stressed or ill. So you actually have better measurements from some, for certain kinds of measurements from these devices. </p><p>So that's the first thing you have to show, show them they are accurate and things. So we think we've done that in some cases for some kinds of things. So I think we now just need to get physicians to start thinking about that more and get them as an integral part of your healthcare. That when they show up, they don't have to take your heart rate anymore. They'll just read it from, it'll already be pumped into the system. You can already have it there, and they can follow your trajectory. Since the last time they saw it last, whatever month, six months, two years, what have you, and see what's going on much, much better than these static measurements that they take every few years when you're healthy.</p><p>So I just think they're going to be super powerful for following your healthy physiology. And then when you get ill, it's all about the delta, the shift from your personal baseline. And what's powerful is because we all have different baselines, different heart rate, different blood oxygen, just what have you. When you shift up, you can figure it out. </p><p>And the way we got in the most was from our first work, we actually showed a, I actually figured out my Lyme disease. I picked it up from my smartwatch. I suddenly got a pulse-ox, a blood oxygen. And it was because my, my heart rate went up. I was flying to Norway, of all things, and my heart rate went up much harder than normal. And my blood oxygen dropped much lower than normal. And I saw it on the airplane and it didn't return to normal after I landed. And I knew something wasn't right. I thought it was Lyme disease, because two weeks earlier, I was in a Lyme-infested area helping my brother put a fence in in Massachusetts. Most places are Lyme-infested in Massachusetts.</p><p>And then I saw this and I, I warned a doctor there. It might be, that's a classic case, I warned him, it might be Lyme because of the timing. And later got, by the way, I didn't have symptoms. That was a key. I saw these things before symptoms. I later had symptoms, went to a doctor in Norway. He pulled blood said, yep. My immune cells are up. I've got a bacterial infection. And he wanted me to take penicillin. I said, no, I should take doxycycline. The classic case of, you know, you have to take charge of your own health. He pushed back, but he did give in, in the end  And, and it turns out it cleared it up. I took it for two weeks and when I got back, I got measured. Sure enough, I was Lyme positive, by a sero test and I give him blood right before I left I was negative, so I seroconverted, a very well controlled experiment. </p><p>The point of all of this aside is, I can figure out my Lyme disease from a simple smartwatch and a pulse-ox. And so that showed the power of these smartwatches for doing this sort of thing. And then that's how we got, we looked into the data and saw every time I got ill from respiratory viral infection, including asymptomatic time, I could see the jump up in heart rate. So we knew it would work for infectious disease. And then when the covid pandemic came, as you might imagine, we just ramped up or really scaled out that study.</p><p>We are device agnostic. So we rolled out the study in a two part manner. So meaning we first wanted to show that our algorithms and perfect algorithms for detecting covid-19. So we partnered with Fitbit  but also talk to other groups as well, pulled in data. We started with Fitbit, we could, right away, we got 32 people who had been covid-infected  with their Fitbit watch still running. Some people let them burn out.  But we, we, and we had a diagnosis date and a symptom date. And so we could actually show, we initially showed that for 26 of 32, we could see a jump up in resting heart rate from a simple smartwatch, in this case a Fitbit. And we had several different algorithms, both steps and a resting heart rate. We, we showed the algorithms work and then we built what we call it a real time alerting algorithm, actually two of them, we tested them out and they seem to work. So then in December—and we love all of you listening to this to enroll in our study at innovations.stanford.edu/wearables—anyway, what we did in December is showed, we rolled out a real time alerting system that will actually send off a red alert when your heart rate jumps up. It works about  73% of the time. We have 60 people have gotten ill, a little over 60, and we can see those red alert will go out before at the time of symptoms in 73% of cases. And we even now caught two asymptomatic cases where their heart rate went up. They had no symptoms but they happened to get tested and they were positive. So we can show that this thing really does work.  And so now we're trying as the say we are building an infrastructure to roll this out for millions and millions of people.</p><p><strong>Harry Glorikian: </strong>That's good because I was just thinking it would be great if these things would proactively ping you and tell you there's a problem rather than you have to look at them all the time and see where you are compared to baseline.</p><p><strong>Michael Snyder: </strong>Yeah. The one minus is you have to open your app and sync it, and we're trying to do exactly what you just said, set it up so you don't even have to open the app. You probably have to leave it open, but we want to be able to ping you. We have to get IRB approval. That's our review board approval, but we want to do exactly what you just said. So right now you just have to check it out every day. You open your app and you'll see, oh, do I have an alert or not, when you wake up. Do it first thing in the morning. And if you have an alert. We’re not allowed to give a medical recommendation but we could say, look, you have a jump up a resting heart rate and I'll let you figure out how to interpret it. But ultimately the plan would be to say, you know, Gosh, maybe you don't want to go to that party tonight or go to work and maybe you want to go get tested for that. Something could be up. That's ultimately where we want to get to with this alerting system. So, and I don't think it will be too far away where we're showing it, where it's going to pull in more kinds of data. So we can get that 73% up to 95%. That's our goal. </p><p><strong>Harry Glorikian: </strong>Yeah, it's interesting. Cause I was talking to just the other night to a friend of mine who's a primary care physician and she was saying, “Well, you know, these things are not very accurate and you know, people are going to come in for problems.” I'm like, okay, hold on. They're, they're actually pretty accurate. They take a lot of data over a long period of time. So, you know, those blips, I can sort of, you know, wipe them out if it's a truly a blip and I can see a lot of information. And it's more accurate than me coming in that one time you'll see me. But the other thing I said to her was, you know, you realize like this is just going to get better. Like the more and more data we have, the better and better these things get. And at some point it is going to be like the standard of how things are done. And it's, I think it's difficult for people to understand that more data, better algorithms. You know, better equipment, all of them coming together. You just end up at a place where you're going to, this is going to be the standard.</p><p><strong>Michael Snyder: </strong>A hundred percent agree. A good case is, imagine if we told people you can't own a thermometer. They're medical devices, nobody should have a thermometer. That means that, you know, nobody would be taking their kid's temperature. By the way, a thermometer is a terrible way to tell if you're getting ill. It's an okay way, I should say. Your resting heart rate is way better. When you show that, that it's kind of funny. A thermometer is a 300-year-old technology, very ingrained in our medical system, and it has some value. Don't get me wrong. But it's not as good as any of these other technologies. We can pull off a smartwatch like resting heart rate and other signals and soon respiration rate, all that stuff you can pull off and you'll have a much better signal for when you're getting ill than a simple, stick a thermometer in your mouth.</p><p>And it's going to go way beyond infectious disease. One thing we can show, we can get a signal for something called a hematocrit and hemoglobin from a smartwatch, and we can, and that actually can be an early sign that following those levels can give you a clue as to whether you're getting anemia.</p><p>We have another signal coming from a smartwatch about diabetes, something called insulin resistance with diabetes. So we can get, they're not clinically diagnostic tests. So that, and they're just, they're kind of hints if you know what I mean, but very valuable hints. We think, oh, you see this and you see this change, maybe you should go to a physician and follow up on this. </p><p>And there's some measurements from a wearable that there isn't even a clinical correlate for. There's something called galvanic stress response, which is conductance on your skin that you know, there is no medical, typical medical correlate for that yet that's a valuable measure. If you're stressed, you will sweat more. If your diabetic you'll have drier skin, it'll give you a signal towards diabetes.</p><p>So these measurements we think are going to be very, very powerful. No one measurement, it comes back to what you were saying earlier. Multiple measurements together will help give you a better idea of what's going on and clues that something may be up that alert you while you're still in this, you know, fairly healthy state, we hope and can then take the right course, the right intervention course </p><p><strong>Harry Glorikian: </strong>You almost wish there was a spider graph that had your normal, and then show deviation from normal on these multivariates. So you could evaluate it over time. I mean, I find myself having to go, I have to go to that one and I have to go to that one. Then I have to go to that one and it would be a whole lot easier if it was in one format or one graph that could show me where things are. Let  me ask you a question…   </p><p><strong>Michael Snyder: </strong>By the way I think those integrated systems will happen. Yeah. And your car dashboard is a good example, right? There's aren't usually single or single sensors that are triggering. Sometimes they’re integrating multiple sensors to set up a signal and that'll be true for your health. And just the way the data is organized again, in our antiquated healthcare system, it comes back because to these individual measurements, whereas instead, you want this as well here, here's your cardiovascular panel, you know, with the five measurements all together and these other panels around systems to tie and even some broader panels besides that, so that you can see things in this more holistic fashion. And another analogy might be, you know, when a pathologist reads images, they write up a report which they give to your physician. Hour physician can't read a pathology image slide to see if you have cancer not, but they can read the report that pathologists get. And so I think that's how we need to integrate these data. To put it in a usable fashion. To be honest, it's not just for the physician, but for the consumer, because they're the ones who can act on it most quickly. They're the ones who are going to have the most time to think about the information. Again, another flaw, and it's, it's no negativity to the physician, but they only have 15 minutes to spend with you. At least in the U S you know, you get a half hour appointment, the physician's only there 15 minutes, they glance at your chart. They do a few things. They make a quick assessment and they're off to the next patient. Then they have to write it up manually. Ironically.  And then  you know, you have a lot more time to spend thinking about what's going on. So if you have this information accessible to you, something doesn't look right. I think it's a better chance for you to take control. It's like me and my Lyme disease, you know, if I wasn't watching what was going on, I don't know what would have happened. It was very valuable for me to have that information. </p><p><strong>Harry Glorikian: </strong>No, no. I mean, I, you know, it's funny because I was, you know, we're using these machines all the time and  you know I try to be as deep in the space as I can be. But if there was an algorithm or a series of algorithms, looking at different data streams that are coming off of me and can sort of be like  my friend, right? Whether it's weight or heartbeat or blood ox or something else that could sort of highlight it for me and then put it into a format that is easy for me to digest. Either graphically or, or a few words. I mean, it would be a lot easier for me to manage myself. </p><p><strong>Michael Snyder: </strong>Yeah, it's coming. I think it will hit, but you're right. I mean, again, medicine's conservative. If you do belong to, you know, Fitbit, or there are certain programs. Or Apple. They'll ping you, you know, here was your weight this week, you get these, but we're just at the trivial stage of what can come. Obviously I think what you're saying, where you would integrate different data types and then see these, and again, in this paper we'll have coming  out soon weshow that you can actually follow people's trajectories and set up AI systems, artificial intelligence systems, follow people's trajectories to look for these deviations. It's still very, very at the early phases. I think they're going to be super powerful for managing chronic diseases like diabetes, obesity. </p><p>There's something called chronic fatigue syndrome that a lot of folks have, and they have crash days and good days. And to be able to tell all these things are associated with your crash days, watch out for those trying to avoid those. These are your good days, do more of those. It's very, very true in the glucose monitoring space, diabetes. People don't realize it's the next endemic, if you don't realize that. 9% of the us population is diabetic 33% are pre-diabetic. And 70% of those are going to become diabetic. By 2050, they estimate half the population can be diabetic if we keep going the way we're going. So  we need new intervention plans while people are healthy. Don't wait until they're already diabetic and have problems.</p><p>And this is where the continuous glucose monitoring technology I think is going to be really powerful. Figure out what spikes you. It's very personalized. What spikes you is very different from what spikes me. Right. And be able to see that. I don't know if you've ever worn one, but they're just very, very powerful. And so it's, again, one reason why we formed a company called January AI to help help with that. </p><p><strong>Harry Glorikian: </strong>Well, it's funny because my wife was asking me, she goes, you know, I'm wanting, I'm thinking I want to wear one of these so that I can see what I eat, sort of how it affects me, but it's all by physician prescription. Go and convince your physician, you know, Hey, by the way, I need a script for this. </p><p><strong>Michael Snyder: </strong>Yeah. So  two comments there. One is in Europe there is no prescription, you can get over the counter. So there's less regulation. So they're ahead of us on that. I think it'll happen in the U.S. Right now you do need a physician, but there are studies, there are groups rolling out. So again, I mention ours, but there are others as well. But with January AI, their case. They'd take it even further and you get this continuous glucose monitor for, for 28 days and do the program longer. But you can, it not only shows you what spikes you, but they also train you a little bit, meaning you eat, you know, your favorite food or it could be rice, what have you. Rice, by the way spikes almost everybody. And then the next day you did the same thing. You do it for breakfast, you do the same thing and take a 15 minute walk and it shows how it suppresses your spike. So it's a, it's a behavior intervention program as well. So it teaches you. And we think that's kind of powerful as well. You not only want to get the data in and have people learn from it. And this thing does food recommendations as well.  You want to be able to teach people how to live better, healthier lives as well, doing an intervention, as they say, </p><p><strong>Harry Glorikian: </strong>Oh yeah, yeah. I mean, I think that, you know, some seeing it so that the data convinces me and then understanding what I need to do to fix it is also very useful. Right. So. Do you think we're ever going to get to? You know, I know that we have data-driven healthcare. Everybody always likes to say we are data-driven, but I mean, truly, like I don't make decisions on businesses without really understanding their profit and loss where their costs are, what their spent. I mean, very detailed analysis. Do you think that we're going to get to this point of [going] beyond hunch-driven medical decision-making? What was that show, oh my God, where the doctor would sort of put all these pieces together and then come out, with a famous actor, I forgot the name of it, but—House yes, yes. House. That was it. I mean, do you think are going to get to more data-driven. I feel like we should be there already in some way. </p><p><strong>Michael Snyder: </strong>Yeah. So, you know, I'm very Pollyannaish. I believe the answer is going to be yes.  I'm like you, I feel like we should be a lot further along and I just think that's the conservative nature of medicine. People think, you know, do no harm. And so they do nothing. And I would argue that doing nothing is harmful.  So I do think we need to get these, the, you know, this data integrated better. I think the best way is to roll out studies like the ones we're doing and others that can show it has power has impact. And that's how you convince people.</p><p>I'd love to come up with a way to accelerate it. I think programs like this are a really great way to do it. A lot of this stuff is going to be consumer driven. I mean, people are now wearing smartwatches not just for fitness tracking, but for health devices, which is itself now the new concept.</p><p>So it's coming. And luckily they're fairly inexpensive. I think that's the way it'll happen at, you know, when a lot of new technologies roll out, they are pretty expensive and then only the wealthy can have access to it. But the hope is that as the wealthy uses these and shows it has utility, then the price drops and they get out to everyone. Certainly that's how genome sequencing started. And I think it will be true for a lot of these other technologies. Luckily, smartwatches are pretty cheap to begin with. So even a hundred-dollar smartwatch is a pretty powerful health device, I would argue. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, if, if Illumina achieves its $60, right, for the function—I've been looking at an analytics approach that will bring down whole genome sequencing to $60. So if it's $60 to do the actual work, the wet chemistry, and then $60 to do the analysis, I don't think there's many barriers in the way anymore. </p><p><strong>Michael Snyder: </strong>Yeah,totally, and we're not so far away where people will they'll get their genome sequenced, but now there are technologies to look for early cancer by sequencing DNA in blood, and you know</p><p><strong>Harry Glorikian: </strong>Liquid biopsy.</p><p><strong>Michael Snyder: </strong>So GRAIL and Gaurdant are leaders there. My company, Personalis is, I think, doing all right. So anyway, that's a, those are areas that we think are going to be powerful and soon they'll become routine tasks, once you show utility. But no company pays for it right now until you show that gee, you do this on healthy people and it doesn't cost the company $5 billion to find three cases, which I won't  yeah, that then it'll roll out.</p><p>So right now, and the way this works too, for the liquid biopsies, it's looking for, they use it for cancer recurrence, if you've had cancer, you try and see if it'll appear again. And that's very logical. They'll demonstrate utility there. They already are. And then soon it'll be early detection and that'll go to the high-risk families. And it always comes down to who pays and insurers won't pay unless you're at high risk generally. And then soon if it's cheap enough, comes back to your point, if it's cheap enough. It'll be there for everybody. </p><p><strong>Harry Glorikian: </strong>Yeah. I have this vision that you're going to go into your CVS or your Walgreens and you, you know, once a year or whatever, and we're going to see things so early that, I'm hoping one day in my lifetime that people will be like “Cancer. What, what, what, what happened?” Like you were able to get so far ahead of it, that it stops becoming an issue. </p><p><strong>Michael Snyder: “</strong>What do you mean you detected cancer only when you saw this giant lump what's that all about?” </p><p><strong>Harry Glorikian: </strong>Yes, exactly. Exactly. </p><p><strong>Michael Snyder: </strong>Yeah. I'm a hundred percent with you. Yeah. </p><p><strong>Harry Glorikian: </strong>So let's say we start, I mean, implementing this at a much larger scale, and broader than what we have now, because I think you and I are probably way ahead of a lot of others on these things. But do you see that effecting a longer life, or do you see it—like, I'm trying to weigh healthspan and lifespan, right?</p><p><strong>Michael Snyder: </strong>Well, it's all about healthspan, yeah. It's all about healthspan. You want to extend the healthy life.  You don't want people hanging on in miserable fashion for years. I think anyway, that's, that's my own view and I think it'll definitely extend healthspan because you'll catch things while people are healthy, not once they're ill, and then you take corrective action and keep them healthy. I think it'll totally extend the healthspan. And the goal is to do that. You know, you want have people that have held a healthy life and then just die. That's how it should go. </p><p><strong>Harry Glorikian: </strong>That's yes. My, my grandmother used to say that when I was younger and I thought it was morbid. And then now as I've gotten older, I'm like, Nope, Nope. That's, that's a good way to go. Like if you're just going to go go, </p><p><strong>Michael Snyder: </strong>Yeah, I think so too. We all know cases where people say, well, at least they died quickly. And we all know cases where somebody is hung on for three years and a lot of pain and very miserable fashion. And I don't, again, at least my own personal view is that that's just certainly not what I want. And those probably should be personal decisions, but minimally, regardless, everything we've been talking about should extend the healthspan, catch things while people are healthy, see these trajectories heading in a bad direction and then take corrective action. And that will have the desired impact. </p><p><strong>Harry Glorikian: </strong>So, one, one final question, before we go. Who do you think  is going to drive that? Is it going to be the healthcare life sciences world, or is it going to be the technology world? That's quickly encroaching. Cause it's, it's not Pfizer that's making this device on my wrist, right? It's, you know, all the other companies you can name. </p><p><strong>Michael Snyder: </strong>Yeah, no, I think it's kind of, ideally it would involve everybody partnering together, but you're right. Technology is having a big impact because consumers are eager for this information, as they often are. And especially as the word gets out and people like you and me start, you know, espousing the wonders and the power of those, these technologies.</p><p>So I think there's that part. I do think we've got to get all the shareholders aligned, meaning I think employers as well should be big incentivizers of this. Meaning it pays for them to have their employees healthy. And that could be a plan I offer. If you're a big employer, maybe you have your folks enroll in one of these, you know, preventative plans, a hundred bucks a month, keep them healthy. You save a lot of money. I do think it helps to incentivize the users as well. I think people are often lazy. But they're, they're all concerned about their pocketbook and their loved ones.</p><p>So I think the two ways to incentivize people are give them, you know, discounts on their insurance if they walk their 10,000 steps and you got to come up with ways for them not to cheat  or, or do various things. But  I, I do think that will help. Or you relay their family members who like egg them on a bit. It's because sometimes that's very incentivizing. So I think we need, we need to have good incentive ways to do that.</p><p>I think financial incentives are one of the better ones. And again, that can relay back to the employer. The employer can offer these plans and then give people bonuses if they do, they're supposed to, you know, if you, if you are overweight and lose weight you know, maybe that would, well, you don't want to be able to get overweight and then lose weight, but you want to incentivize people to lose weight.</p><p>Anyway, you come up with the right models for incentivizing folks. So, so we need to get the financial models in place. We need to show the stuff works and the technology is going to keep improving, getting cheaper, et cetera. So it's all going to go together, I think, in parallel. And then people like you and me will be out there saying, man, this is amazing. Everybody should be doing this sort of stuff. </p><p><strong>Harry Glorikian: </strong>I say it now. It's just tough to get everybody on board. </p><p><strong>Michael Snyder: </strong>Yeah. People are still scared. Yeah. But that'll go away. </p><p><strong>Harry Glorikian: </strong>I hope so. I hope that physicians get less scared. That's my biggest hope. </p><p><strong>Michael Snyder: </strong>Yeah. We’ve got to educate them. And those folks, you have to show that it works, that it has power. But they do have these refresher classes, they call them continuing medical education, and a lot of physicians do that. And I think it's a great way. I give a lot of talks at those, as a way to try to, I think, at least show the potential of what we're trying to do. And I think some of them buy it and some of them don't. </p><p><strong>Harry Glorikian: </strong>Yeah. And, and, you know, I think it needs to be integrated into their technological solutions to make it easier for them to sort of absorb it. And the current systems suck. </p><p><strong>Michael Snyder: </strong>That's true. Very true. Yeah. Yeah. They say, well, how do I have time to learn this and know if it's working, I'm too busy taking care of my patients. Yeah. Your point's well taken. </p><p><strong>Harry Glorikian: </strong>So great to speak to you. I look forward to continuing to read all the stuff that you produce and all these amazing, you know, technologies that you're constantly prolifically seem to be putting out there. And I'll let you know when the, when the, when my book is out, </p><p><strong>Michael Snyder: </strong>I definitely want to see it. Thank you. </p><p><strong>Harry Glorikian: </strong>Take care. Bye-bye.</p>
]]></description>
      <pubDate>Mon, 7 Jun 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Michael Snyder, harry glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Having helped to bring big data to genomics through the lab techniques he invented, such as RNA-Seq, the Stanford molecular biologist Michael Snyder is focused today on how to use data from devices to increase the human healthspan. Some cars have as many as 400 sensors, Snyder notes. "And you can't imagine driving your car around without a dashboard...Yet here we are as people, which are more important than cars, and we're all running around without any sensors on us, except for internal ones." To Snyder, smart watches and other wearable devices should become those sensors, feeding information to our smartphones, which can then be "the health dashboard for humans and just let us know how our health is doing."  (You can sign up to participate in the Snyder lab's study of wearables and COVID-19 at <a href="https://innovations.stanford.edu/wearables">https://innovations.stanford.edu/wearables</a>.)</p><p>Snyder has been chair of Stanford’s Department of Genetics since 2009 and is director of the Stanford Center for Genomics and Personalized Medicine. He has a BA in chemistry and biology from the University of Rochester (1977) and a PhD from Caltech (1982), where he studied with the molecular biologist Norman Davidson. He did a postdoc at Stanford from 1982 to 1986 and then went to teach at Yale in the Department of Molecular, Cellular, and Developmental Biology from 1986 to 2009, when he moved back to Stanford. </p><p>At Yale, Snyder and his lab helped to develop many of the tools undergirding functional genomics, including RNA-Seq, one of the two pillars of transcriptomics (alongside microarrays). Snyder is also known in the world of personalized medicine for having discovered through genomic analysis of his own blood that he was at high risk for Type 2 diabetes, which he later did develop, but controlled through exercise and diet. That work to create an “integrated personal omics profile” (iPOP) was later described in a 2012 <a href="https://www.cell.com/fulltext/S0092-8674%2812%2900166-3">Cell article</a>. Eric Topol of the Scripps Research Institute <a href="https://www.nytimes.com/2012/06/03/business/geneticists-research-finds-his-own-diabetes.html">called it</a> “a landmark for personalized medicine” and an “unprecedented look at one person’s biology, showing what can be accomplished in the future.”</p><p>Snyder is the author of a 2016 book from Oxford University Press called <i>Personalized Medicine: What Everyone Needs to Know</i>. And he has founded or co-founded numerous life sciences companies, including:</p><ul><li>Personalis (precision oncology through liquid biopsies of tumors)</li><li>SensOmics (genomics + machine learning to screen for childhood conditions such as autism)</li><li>Qbio (membership-based access to “BioVault” platform gathering numerous biomarkers to predict health risks and recommend healthy habits)</li><li>January.ai (smartphone apps with machine learning to help pre-diabetic users avoid spikes in blood glucose)</li><li>Filtricine (cancer management through “Tality,” a line of foods that cuts off amino acids needed for tumor growth)</li><li>Mirvie (formerly Akna – blood tests to predict pregnancy risks such as preeclampsia, preterm birth, gestational diabetes)</li><li>Protometrix (maker of protein microarrays, acquired by Thermo Fisher)</li><li>Affomix (maker of technology for high-throughput screening of antibodies against human proteins; acquired by Illumina)</li></ul><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Full Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian:</strong> Michael Snyder says his life is all about using big data to understand things.</p><p>He’s a molecular biologist, genomics expert, and life sciences entrepreneur based at Stanford University. It’s partly thanks to Snyder’s work that genomics is a field defined today by big data. </p><p>In an earlier phase of his career, when he was at Yale, he and his lab members invented some of the fundamental technologies behind functional genomics, that is, the study of gene transcription and regulation, and also transcriptomics, which focuses on the RNA transcripts genes produce.</p><p>At Stanford he’s focused on using big data to transform the healthcare industry, so that it focuses less on reacting to illness and more on proactively lengthening people’s healthy lifespans.</p><p>Snyder is like me in that he’s convinced that smartwatches and other wearable devices are going to be an important source of health data. If everyone had one, we could probably detect health problems a lot earlier and make better lifestyle decisions. </p><p>In fact, about halfway through the interview you’ll hear Snyder explain how his own wearable devices have gotten him out of some personal health scrapes. In the middle of one flight to Norway, Snyder says his heart rate went up and his blood oxygen went down. Before his flight even landed, he’d correctly diagnosed himself with Lyme disease and was able to get an antibiotic that quickly cleared out the infection.</p><p>Later, during the height of the covid pandemic in the U.S., Snyder’s lab proved that about three-quarters of the time, they could predict which FitBit users would develop covid symptoms based solely on heart rate data from their devices.</p><p>The medical establishment hasn’t always been receptive to this kind of science. And the era of data-driven collaboration between patients and their doctors has been a long time coming. But thanks to better technology and the impact of the pandemic, Snyder thinks it’s finally arriving now.</p><p><strong>Harry Glorikian: </strong>Dr. Snyder, welcome to the show. </p><p><strong>Michael Snyder: </strong>Thanks for having me. </p><p><strong>Harry Glorikian: </strong>It was funny cause I was reading your background and I was like, wow. I mean, so many different aspects of your background, both, you know, from a scientist and an entrepreneur from, you know, helping start, like, I was going through the list of the companies. It was longer than, than I remember. Like, I know quite a few of them, but not all of them. And so I just thought like from a high level, like, how do you explain to someone what you do and why you do it? </p><p><strong>Michael Snyder: </strong>Okay. Well, we're all about big data. We like to use big data to understand things. And these days we want to use big data to transform health. And really that's what my career has kind of been built around. So over the years, we've invented technologies for collecting big data and then we've implemented them. For a long time, when I started out, it was really to try and understand biological systems. People use to study genes one at a time, for example, and proteins, one at a time, we came up with a way of studying them all at once. And that hadn't been done before. And then try and understand them in a systems context so that you weren't really just looking at, you know, if you have a jigsaw puzzle, look at one or a few pieces of the time, we wanted to see the whole puzzle at once as best we could. And so that's really been the philosophy. </p><p>As I say, it was first choosing to study basic cell biological problems. And then I moved to Stanford now about 12 years ago. And the goal there really was to bring it to medicine see if we can understand medicine, you know, at a holistic level, not just, you know, if you've got high sugar that, you know, you're diabetic. Sure. But are there other things going on as well? Like other metabolic conditions? And that's really the philosophy. Let's look at the whole system, better understand what's going on, and see if we can come up with solutions. </p><p>Now, the thing, I think that's been a big shtick of ours and at least in the recent years has been focused on keeping people healthy, extending the healthspan as opposed to just doing sick care, which is where medicine is today. So we really want to transform medicine. </p><p><strong>Harry Glorikian: </strong>Yeah. It seems that, you know, health span has become the, the big shift.  And if you look at where we're going from the Affordable Care Act and everything, it's better to, it's more profitable actually to keep someone healthy than just treat them when they're sick. So I like that shift because it brings technology more into the forefront. </p><p><strong>Michael Snyder: </strong>Totally. Yeah, no. And it's going to require a lot of changes and a lot of levels, the whole payment level in the United States is broken. People often only get paid when sick people go in to see them like hospitals, you only get paid to show up when you're ill. We don't put enough emphasis on keeping people healthy because people have said, well, you know, show me it saves money, show me it does it. But until you run those studies, it's hard to do that. So I think the incentive systems are changing. That's slow, but it's also getting  you know, physicians and others used to this concept of bringing in big data to better understand people's health. </p><p>And maybe to elaborate a little more on this. You know, if you walk into a doctor's office today, it looks pretty similar to the doctor's office of 40 years ago, you know, a few gadgets are updated, but otherwise the same. And guess what the number one user fax machines is in the U.S.? It's the healthcare system. My daughters don't even know what a fax machine is.</p><p><strong>Harry Glorikian: </strong>Yes, yes. It's true. Somebody did ask me the other day, like, can you fax it to me? I'm like, yeah. I think my scanner might, but I don't think I've got a jack that I can actually plug it into to actually send it. ‘Cause I don't do that anymore. </p><p><strong>Michael Snyder: </strong>Nobody does that except for the medical system pretty much. Yeah.</p><p><strong>Harry Glorikian: </strong>So, you know, you've had you, you mentioned it, you had a hand in, in, you know, developing these foundational ideas and technologies in functional genomics, such as, you know, high throughput protein sequencing techniques, you know, known as RNA-seq and then making transcriptomics possible. Like, can you talk about what it's been like to sort of, you know, develop those technologies and then, you know, be at the forefront of trying to answer these big molecular biology questions and, and what in your mind, what came first? Was it, I gotta answer this molecular biology question so I'm actually, I'm going to develop this instrument and then be able to answer that question. Does that make sense?</p><p><strong>Michael Snyder: </strong>Yeah, it's a little of both to be honest. Often we develop technologies out of need or out of observations. We have, so for example, in RNA-seq, we were trying to map where all the transcribed regions were, where all the genes were in yeast, which was the organism we were studying at the time. And we tried this one now very outdated method that just work miserably and we just stepped back a minute, said there's gotta be a better way. And so that's how we came up with, we thought about it, came up with a way and then implemented it and, and showed it worked. And then of course if it works, it takes off quickly, very much like CRISPR. And that’s been true for other things. In some cases as we'll make an observation like when we first  invented a way to map the targets of key regulatory proteins called transcription factors there, we saw that these things were, were giving these dots in what's called the nucleus of the cell. And we said, well, where are those dots located? And so we came up with a method for figuring out where are all the, where all the binding sites for our, for these key regulatory proteins. So it's, it's been a variety of ways. </p><p>And then when it's come to medicine, we, once we invent the technology, so well, people will say, well, well, how can we use these now in other ways that would be beneficial. And I'm not sure what you know, but I was at Yale for a long time, and I had a great time, it was fantastic place, but I was more on the main campus and it was just harder to implement them into medicine. And then about 12 years ago, I moved to Stanford and I'm right in the heart of the medical school where there's all these clinicians and very eager, beavers around, trying to figure out how to better, you know, do medicine these days. And so it's just been easier as we've implemented technologies to roll them out and see how they might work in the clinic. </p><p>And so I think one of the biggest projects we launched when it came to Stanford was we call it personal ’omics profiling. The idea, you collect a lot of deep data around a person and you do it longitudinally. So we'll, we'll sequence their genome we'll look at all the molecules we can in their blood and urine, meaning their RNA and their proteins and their metabolites. We, we do deep questionnaires and clinical tests on people. </p><p>And then, and then, yeah, about eight years ago, we sort of got into wearables back when they were just fitness trackers, realizing they would be powerful. So the idea was to collect data on people—while they're healthy, by the way, not while they were sick, while they were healthy—and do it longitudinally, do it every three months and see how they change. And if they got ill, then we collected more sample. And that was the idea. That's turned out to be a really flagship project, I think, for just how we might better implement health. </p><p>And you raise the issue about starting companies. So a little of my philosophy is I think academics are great at discovery. They're great at proof of principle, but they're not good at scaling. They think they are, but they're not. And this is what companies are just fantastic about. So we've spun off, we think some, what I hope will be powerful companies. One was a DNA sequencing company called Personalis. They've done very, very well.</p><p>Then we've spun off Qbio, which is doing sort of a, you know, a more commercial version of this personal ’omics profiling, as I mentioned, but they added on whole-body MRI and have some other things that are pretty powerful. So they've, they've got a medical version of, a more actionable version, again, our academic lab is doing this research for us and trying to figure this out, but the company can do it, implement it.</p><p>And then we have another company, January AI, it's doing continuous glucose monitoring for trying to better control diabetes. So again, we figured out some things in the lab and then it made sense to commercialize it. So, so it all goes kind of hand in hand to me. It all makes sense. And it's very satisfying by the way to do stuff in the lab that, that we think is impactful and then try and get it out there to a broader group. We think that's how you scale. I don't think academics are capable of scaling. Certainly not very well, whereas companies are. </p><p><strong>Harry Glorikian: </strong>Well, yeah, I mean, I, you know, quite some time ago being a product manager, I mean, you, you, you had to like your biggest accomplishment was getting that thing from the bench right out into somebody in the field and, oh my God, it actually, yeah, it did something. Right. And that was the exciting part. Stopping at the research, I would have been like, “That's it? Like, all I got was all I got was a paper out of it?” Like, no, no. I want to, you know, I know that that's always the beginning. </p><p><strong>Michael Snyder: </strong>Yeah, we got excited about the papers, absolutely. But we're very also, it's just fun to see it get out further. Totally. And again, so that's literally all the companies, maybe with one exception have spun off of the things we were doing in the lab said, all right, we get it. Now it's time to scale this out and develop it into something people would be interested in. And it is very satisfying, as you say.</p><p><strong>Harry Glorikian: </strong>So, so, you know, I mean the genome has come down in cost. I mean, a lot of other analytic technologies have come down in cost. I mean, I know the latest thing that Illumina has said is they want to get the genome down to like $60 to do the functional work. Not necessarily the analytics or analyzing part of it. How do you see that changing what you're doing and the impact? I mean, you've got a lot of data, so I feel like you can almost. paint a picture of the evolution of a person.  If you could sort of see the initial traces, how do you see this playing a role in what you're doing and the impact that it's going to have on where it's going next?</p><p><strong>Michael Snyder: </strong>Yeah. I think getting the cost down is a big deal because when we set this up as research, it was very, very expensive. And so  getting it out there will help, especially when you're talking about keeping people healthy because people don't want to dump a lot of money into a healthy person. ’Cause they don't know that—here's a problem with our healthcare system. Most people will shift every 18 months, that's the average time people stay with their provider and then they'll shift to a new one. And that may be because their company's shifted. Not necessarily they did, but their company may have done it. And sometimes they change their job, they shift. So  that's whyIt's a barrier then for, for providers, healthcare providers put a lot of money into you, when 18 months later you're going to be with somebody else. But if the costs are pretty cheap, like the genome sequences, let's say, but the interpretation is $200. It's worth it to you because then it's a lot easier to execute preventative medicine, get your genome sequenced, predict what you're at risk for, and with a fairly low cost. But if they're going to dump $2,000 and you're going to be with somebody else, there's a lot more balking, if you know what I mean.</p><p>So I think, I think keeping the costs down is a big deal. Qbio, for their exam, they charge $3,500, and on one hand that's a lot of money and we, we like people to do it two months. You get a whole-body MRI and other things. On the other hand, we would argue for it. It should save and already has. We found like early prostate cancer, early ovarian cancer, early   pancreatic cancer, which is a big deal and some heart things and stuff like this is from the first a hundred people that we did. And it's more now. So, so we show it has utility. And of course, if you're one of those people, it's a big, big deal. </p><p>So, and, but by getting the cost down, it just gets the whole barrier away. Right now you have to pay out of pocket because there is no reimbursement. So the cost gets down and I think people would reimburse because there'll be willing to run trials to show it does work and saves money. So I, I think the whole thing will go together as costs drop, and we can expand this out and show utility. </p><p><strong>Harry Glorikian: </strong>Well, and you know, if you think about the implementation of technology, like if you could carry it around on your iPhone, when you go to your next physician, and you've got it with you right at that also brings the cost down rather than have to do everything all over again.</p><p><strong>Michael Snyder: </strong>Totally. Yeah. In the future. And I think physicians are just warming up those. There's an education side of this from the physicians, you know. When we first got involved in the wearable space, they would tell us how inaccurate it was. And they didn't like the idea that your iPhone would be so powerful. Possibly more powerful than they are. There was a threatening aspect of the whole thing. And I think they're now reassured that, first of all, they're very important. They're not going away. There's these technologies to augment what they're already doing. </p><p>And, and it's, there's an education side. I remember when genome sequencing first came out, even at an enlightened place like Stanford, I would talk to some of my colleagues and they'd say, well, nobody shows that really worked, you know, and it's got a lot of errors. They just think about the negative. The instant reaction is, you know  we don't really know how to do it. You might tell people something they're not going to get. That's harmful and, and try to tell them, well, look, you have just educate people and educate the physicians. </p><p>And now, when we first started actually, you know, cancer, even people were pushing back  and cancer is a no brainer. You need genetic tests or sequencing. But for elderly people, it was a strong pushback, right? Everybody's telling you, Mike, what you're doing is really harmful to people. You're going to get people to turn them into hypochondriacs when you sequence their DNA. And now there's some, some people feel that way, but most people have kind of warmed up or at least maybe it's 50-50 are receptive to the idea. Maybe it is a good idea to get a, to find these risks. </p><p>From our standpoint, just from the first 70 people we sequenced the genome, we found someone's BRCA mutation. And now that person out of mutation suggests they might have certain kinds of cancer. They did a whole-body MRI that early thyroid cancer, we caught that had it removed, saved their thyroid, the rest of their thyroid. That is, you know, very, very useful. Another person, a very young person had a mutation in a heart gene and would have been at risk for cardiomyopathy. It turns out his father died young of a heart attack. And so he had this mutation, we saw this thing and sure enough, he had a heart defect. Didn't even know it. He's on drugs now. </p><p>So, so these technologies can be very, very useful, very, very powerful. But you have to show physicians that, and then they sort of go, “Oh yeah. Now I get it. We kind of get it.” They may say, well, show us the evidence. And so that's what we're trying to do. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, I just. I've got a book coming out in the fall and I just interviewed somebody who had done participated in BabySeq. Robert Greene's thing, right? And identified an issue  that had a profound effect actually on the decisions of the mother, not the baby.  And so it’s an interesting story when she went through it, I was like, wow, that is super impactful. You know, it adds a lot of, you know, it is funny. She said, you know, we did this and I was not expecting this. Right. So it was an eye opener, but it's affected her decision-making going forward.  And it's along the lines of BRCA, what she was informed of, but  I'm sort of saving it for the book. So when it comes out in the fall. </p><p><strong>Harry Glorikian: </strong>But you know, you wrote a book back in 2016, that introduces non-experts to personalized medicine. You know, you covered everything from how DNA works to the applications in genomics, in cancer. So. I almost think like that might need a refresh or at least the publisher might want to put it out again, because I think people are more interested now. But if you were writing that book from scratch today, you know, five years later  would you write it at all? Would you, the field is, I feel like it's exploded in the last five years on the one hand. On the other hand, I still feel like I talk to people that still don't understand the impact of it. So I feel like I'm talking to both sides sometimes, but. How do you think the field has changed in the last five years? And where do you see it going next? </p><p><strong>Michael Snyder: </strong>Yeah. Great question. So when we wrote the book, you know, people really didn't like this area. They didn't like it, sequencing genomes and things. They thought it was harmful.  And the same idea where, I mean, we literally collect millions of data points. Every time we sample someone, then people still bring it up. And so it was really, the goal there was to educate people about what the technologies are, what they're capable of, and this sort of thing. </p><p>So I think we have come a long ways since then, where the field was mostly against. I asked people to raise their hand. How many of you want to get their genome sequenced? Usually there's a small fraction, even in an educated group. Now it's probably the majority. If they haven't even done it already—they may have already done it. So  I think the world has changed. I think what I would do is update the power of the new technologies. New technologies have come out, even since we first put that book out.</p><p>So I'd add more. Expand the wearable space. I just think we can put a smartwatch on every person on the planet. If we wanted to a very inexpensive one that would be a health monitor for people. And, and there would be a no better time for that than this pandemic that's going on now, because we actually can show, we can tell when people are getting ill prior tosymptoms from a smartwatch, from covid and other infections. So we can talk about that more if you like, but it's a pretty cool study. We can show again, 70% of the time, we can tell when you're getting ill, because your heart rate jumped up, and we pick it up with a smartwatch. So imagine putting that on everyone in the planet and just letting them know, “Look, we can tell when you're getting ill.” You know, even if it's not perfect, a bunch of the time that we think would be very useful. They don't send their kids who are sick to school, affecting everyone, or it shows up in a nursing home and, you know, you flag it right away. And that would be, we think very, very powerful.</p><p>I view it as analogous to, you know, a car. A car usually has several sensors. Some have as many as 400 sensors on them. And you can't imagine driving your car around without a dashboard, the gas gauge or, you know, a speedometer or an engine light or all these things on we've gotten so used to this is what you do when you drive a car.</p><p>Yet here we are as people, which are more important than cars, and we're all running around without any sensors on us, except for internal ones. They're okay. But they're kind of slow. And I just, to me, it's just totally logical. We should all have our own, you know, sensors on us. It's the car health dashboard. Our smartphone will be the health dashboard for humans and just let us know how our health is doing. And it doesn't mean when you see a light go off that for sure something is wrong, but it gives you a heads up. And it has, you know, in, in some cases our profiling has really had life-saving consequences.</p><p><strong>Harry Glorikian: </strong>Yeah. And I'm, well, I mean, it's funny cause I think about these things and I look at a lot of these technologies and. You know, it's always a single biomarker of some sort, right? That that's, you know, a heartbeat or temperature or something. And then I think about, well, the next level has got to be a combination of them, which makes the predictive power that much better. </p><p><strong>Michael Snyder: </strong>That's right. Yeah. We call that multivariate, yeah, where you bring in several features. So you start seeing it enlarge something or a thing on an image, and then you see that those biomarkers of those. That's how we discovered someone with an early lymphoma in our study that had an enlarged spleen, and then we saw certain markers are up in their blood and said, something's not right here. And then they did follow up and sure enough had early lymphoma, no symptoms yet. So again, caught it early, a lot easier to manage just much better off. We have a number of examples like that. So the combination tells you. </p><p>And the other thing that's very under appreciated is the longitudinal profiling.  People don't realize that if you go in and get tested now, and they rarely look at your old measurements. And so they just see if you're in the normal range and you can be at the high end of the normal range, but you're still “No, all right, you're fine. Don't worry about it.” But if you look at your trajectory, you know, maybe you've been running kind of normally in the low normal range and suddenly this one jumped up, you know 50%. You can still be in the normal range, up 50% and something's headed in the wrong direction and you would be ignored for that. Whereas if we just had very simple algorithms that can flag that sort of stuff. “Look, you're not only up in this marker, but you're up in that one too, which is related, you know, maybe something's going on early.” Let's see what's going on there a little better and catch things earlier again when you can manage it better. So, so I think we ought to bring in longitudinal information again, to me, that's why the wearables are so powerful because they measure it 24/7. </p><p><strong>Harry Glorikian: </strong>Well, I do that with my, my physician. I walk in, I'm like, okay, here's my data for the last, you know, X amount of time. And it's funny because even I've noticed, like during covid, cause I was much more sedentary, like certain things were going in the wrong direction. And I was like, oh no, no, no, no. I got to get those, those back in line. If I didn't have the ability to look at it over time. And I was only looking at that one point, you know, how am I going to see where it's going? </p><p><strong>Michael Snyder: </strong>Out of context. Yeah. Here's another thing that's wrong with medicine today. It's all population-based, so they will make every decision about your health based on population averages and hence that normal range. But again, you may not at all be like normal population levels. </p><p>And so you've been told, and here's my favorite example, you've been told since day zero that your oral temperature, when you put it thermometer in your mouth is 98.6, but it turns out, first of all, that number is wrong. Yeah. Average temperature is 97.5. But more importantly, there's a spread. So the what's called the 25th quartile is 94.6. So four degrees below and the 75th quartile, 99.1.</p><p>So in today's world, if your normal baseline temperature is 94.6, that's your healthy temperature, and you walk into a physician's office at 98.6, they'll tell you, “You're healthy. Everything's great. What are you doing? Go home.” But you're at four degrees Fahrenheit over your baseline. I guarantee you're ill.  This is just, it's not healthy. So you got to know your baseline. And for me, by the way, mine is 97.3 and it's been dropping a little bit over the last 10 years. Which is, there's some studies suggesting that is the case actually, so that people do drop a little bit as they get older. But the point is that, you know, my baseline is not 98.6, if I am at 98.6, I am ill. </p><p>[music interlude]</p><p><strong>Harry Glorikian:</strong>I want to pause the conversation with Michael Snyder for a minute to make a quick request. </p><p>If you’re a fan of MoneyBall Medicine, you know that we’ve made more than 60 episodes of the show. And you can listen to all of them for free at Apple Podcasts, or at my website glorikian.com, or wherever you get your podcasts.</p><p>There’s one small thing you could do in return, and that’s to leave a rating and a review of the show on Apple Podcasts. It’s one of the best ways to make sure that other listeners will find and follow the show.</p><p>If you’ve never posted a review or a rating, it’s easy. All you have to do is open the Apple Podcasts app on your smartphone, search for MoneyBall Medicine, and scroll down to the Ratings & Reviews section. Tap the stars to rate the show, and then tap the link that says Write a Review to leave your comments. It’ll only take a minute, but it’ll be a huge boost for the show.</p><p>Thank you! And now back to the interview.</p><p>[music interlude]</p><p><strong>Harry Glorikian: </strong>You know, just talking about the wearables, because I noticed like earlier you had at least four devices and I think an Oura ring, or maybe… </p><p><strong>Michael Snyder: </strong>I lost it recently, but yes, I normally wear, I normally wear eight of these devices. An Oura ring and four smart watches. I have a continuous glucose monitor and environmental sensors. I've got all kinds of gadgets. </p><p><strong>Harry Glorikian: </strong>Oh Jesus. Okay. Well, so tell us where you see the overlap of these digital devices and the personalized medicine sort of coming together, because I feel like one is much earlier warning system or could be an earlier warning system of what may come in the future. And one is a current monitoring system, of how the machine is working. </p><p><strong>Michael Snyder: </strong>Yeah. I mean, I do think they're an integral part of personalized medicine.   Only now I think people are realizing the power. The pandemic, I hate to say it, helped with that because remote monitoring is now become popular and the concept that you can start managing people.</p><p>So, a little background, we started on this about eight years ago, when the Fitbit was out there. And people are using these fitness trackers. We thought, well, gosh, these are pretty powerful health monitors because they're measuring your heart rate and they measured 24/7. In fact  you know, the first device we used doesn't exist anymore, a Base watch, it takes 250,000 measurements a day. Now some of them will take 2.5 million measurements. They really follow you in a deep way and they'll measure heart rate, variability, skin temperature. Those can all be pretty accurate, by the way. It depends on the device. Some will measure blood oxygen and even blood pressure. Those are less accurate, but their deltas are pretty good, meaning the changes. And then there's other things out there too, something called galvanic stress response. </p><p>So they can measure all kinds of things. They're always following you. So we think that's super powerful. Now when we first started, again, physicians pushed back and said, well, you know, everybody knows they're not accurate and we actually want paper coming out. Very soon [they started] saying, well, actually they're more accurate for some measurements, like heart rate than what you measure in a physician's office. My heartbeat can vary by as much as 40 beats per minute, depending whether I drove their biked there. Even if I rest at 15 minutes, it's still different and whatever's going on in my life.</p><p>And, but if I pull my resting heart rate off in the morning, first thing it's pretty constant, unless I'm either stressed or ill. So you actually have better measurements from some, for certain kinds of measurements from these devices. </p><p>So that's the first thing you have to show, show them they are accurate and things. So we think we've done that in some cases for some kinds of things. So I think we now just need to get physicians to start thinking about that more and get them as an integral part of your healthcare. That when they show up, they don't have to take your heart rate anymore. They'll just read it from, it'll already be pumped into the system. You can already have it there, and they can follow your trajectory. Since the last time they saw it last, whatever month, six months, two years, what have you, and see what's going on much, much better than these static measurements that they take every few years when you're healthy.</p><p>So I just think they're going to be super powerful for following your healthy physiology. And then when you get ill, it's all about the delta, the shift from your personal baseline. And what's powerful is because we all have different baselines, different heart rate, different blood oxygen, just what have you. When you shift up, you can figure it out. </p><p>And the way we got in the most was from our first work, we actually showed a, I actually figured out my Lyme disease. I picked it up from my smartwatch. I suddenly got a pulse-ox, a blood oxygen. And it was because my, my heart rate went up. I was flying to Norway, of all things, and my heart rate went up much harder than normal. And my blood oxygen dropped much lower than normal. And I saw it on the airplane and it didn't return to normal after I landed. And I knew something wasn't right. I thought it was Lyme disease, because two weeks earlier, I was in a Lyme-infested area helping my brother put a fence in in Massachusetts. Most places are Lyme-infested in Massachusetts.</p><p>And then I saw this and I, I warned a doctor there. It might be, that's a classic case, I warned him, it might be Lyme because of the timing. And later got, by the way, I didn't have symptoms. That was a key. I saw these things before symptoms. I later had symptoms, went to a doctor in Norway. He pulled blood said, yep. My immune cells are up. I've got a bacterial infection. And he wanted me to take penicillin. I said, no, I should take doxycycline. The classic case of, you know, you have to take charge of your own health. He pushed back, but he did give in, in the end  And, and it turns out it cleared it up. I took it for two weeks and when I got back, I got measured. Sure enough, I was Lyme positive, by a sero test and I give him blood right before I left I was negative, so I seroconverted, a very well controlled experiment. </p><p>The point of all of this aside is, I can figure out my Lyme disease from a simple smartwatch and a pulse-ox. And so that showed the power of these smartwatches for doing this sort of thing. And then that's how we got, we looked into the data and saw every time I got ill from respiratory viral infection, including asymptomatic time, I could see the jump up in heart rate. So we knew it would work for infectious disease. And then when the covid pandemic came, as you might imagine, we just ramped up or really scaled out that study.</p><p>We are device agnostic. So we rolled out the study in a two part manner. So meaning we first wanted to show that our algorithms and perfect algorithms for detecting covid-19. So we partnered with Fitbit  but also talk to other groups as well, pulled in data. We started with Fitbit, we could, right away, we got 32 people who had been covid-infected  with their Fitbit watch still running. Some people let them burn out.  But we, we, and we had a diagnosis date and a symptom date. And so we could actually show, we initially showed that for 26 of 32, we could see a jump up in resting heart rate from a simple smartwatch, in this case a Fitbit. And we had several different algorithms, both steps and a resting heart rate. We, we showed the algorithms work and then we built what we call it a real time alerting algorithm, actually two of them, we tested them out and they seem to work. So then in December—and we love all of you listening to this to enroll in our study at innovations.stanford.edu/wearables—anyway, what we did in December is showed, we rolled out a real time alerting system that will actually send off a red alert when your heart rate jumps up. It works about  73% of the time. We have 60 people have gotten ill, a little over 60, and we can see those red alert will go out before at the time of symptoms in 73% of cases. And we even now caught two asymptomatic cases where their heart rate went up. They had no symptoms but they happened to get tested and they were positive. So we can show that this thing really does work.  And so now we're trying as the say we are building an infrastructure to roll this out for millions and millions of people.</p><p><strong>Harry Glorikian: </strong>That's good because I was just thinking it would be great if these things would proactively ping you and tell you there's a problem rather than you have to look at them all the time and see where you are compared to baseline.</p><p><strong>Michael Snyder: </strong>Yeah. The one minus is you have to open your app and sync it, and we're trying to do exactly what you just said, set it up so you don't even have to open the app. You probably have to leave it open, but we want to be able to ping you. We have to get IRB approval. That's our review board approval, but we want to do exactly what you just said. So right now you just have to check it out every day. You open your app and you'll see, oh, do I have an alert or not, when you wake up. Do it first thing in the morning. And if you have an alert. We’re not allowed to give a medical recommendation but we could say, look, you have a jump up a resting heart rate and I'll let you figure out how to interpret it. But ultimately the plan would be to say, you know, Gosh, maybe you don't want to go to that party tonight or go to work and maybe you want to go get tested for that. Something could be up. That's ultimately where we want to get to with this alerting system. So, and I don't think it will be too far away where we're showing it, where it's going to pull in more kinds of data. So we can get that 73% up to 95%. That's our goal. </p><p><strong>Harry Glorikian: </strong>Yeah, it's interesting. Cause I was talking to just the other night to a friend of mine who's a primary care physician and she was saying, “Well, you know, these things are not very accurate and you know, people are going to come in for problems.” I'm like, okay, hold on. They're, they're actually pretty accurate. They take a lot of data over a long period of time. So, you know, those blips, I can sort of, you know, wipe them out if it's a truly a blip and I can see a lot of information. And it's more accurate than me coming in that one time you'll see me. But the other thing I said to her was, you know, you realize like this is just going to get better. Like the more and more data we have, the better and better these things get. And at some point it is going to be like the standard of how things are done. And it's, I think it's difficult for people to understand that more data, better algorithms. You know, better equipment, all of them coming together. You just end up at a place where you're going to, this is going to be the standard.</p><p><strong>Michael Snyder: </strong>A hundred percent agree. A good case is, imagine if we told people you can't own a thermometer. They're medical devices, nobody should have a thermometer. That means that, you know, nobody would be taking their kid's temperature. By the way, a thermometer is a terrible way to tell if you're getting ill. It's an okay way, I should say. Your resting heart rate is way better. When you show that, that it's kind of funny. A thermometer is a 300-year-old technology, very ingrained in our medical system, and it has some value. Don't get me wrong. But it's not as good as any of these other technologies. We can pull off a smartwatch like resting heart rate and other signals and soon respiration rate, all that stuff you can pull off and you'll have a much better signal for when you're getting ill than a simple, stick a thermometer in your mouth.</p><p>And it's going to go way beyond infectious disease. One thing we can show, we can get a signal for something called a hematocrit and hemoglobin from a smartwatch, and we can, and that actually can be an early sign that following those levels can give you a clue as to whether you're getting anemia.</p><p>We have another signal coming from a smartwatch about diabetes, something called insulin resistance with diabetes. So we can get, they're not clinically diagnostic tests. So that, and they're just, they're kind of hints if you know what I mean, but very valuable hints. We think, oh, you see this and you see this change, maybe you should go to a physician and follow up on this. </p><p>And there's some measurements from a wearable that there isn't even a clinical correlate for. There's something called galvanic stress response, which is conductance on your skin that you know, there is no medical, typical medical correlate for that yet that's a valuable measure. If you're stressed, you will sweat more. If your diabetic you'll have drier skin, it'll give you a signal towards diabetes.</p><p>So these measurements we think are going to be very, very powerful. No one measurement, it comes back to what you were saying earlier. Multiple measurements together will help give you a better idea of what's going on and clues that something may be up that alert you while you're still in this, you know, fairly healthy state, we hope and can then take the right course, the right intervention course </p><p><strong>Harry Glorikian: </strong>You almost wish there was a spider graph that had your normal, and then show deviation from normal on these multivariates. So you could evaluate it over time. I mean, I find myself having to go, I have to go to that one and I have to go to that one. Then I have to go to that one and it would be a whole lot easier if it was in one format or one graph that could show me where things are. Let  me ask you a question…   </p><p><strong>Michael Snyder: </strong>By the way I think those integrated systems will happen. Yeah. And your car dashboard is a good example, right? There's aren't usually single or single sensors that are triggering. Sometimes they’re integrating multiple sensors to set up a signal and that'll be true for your health. And just the way the data is organized again, in our antiquated healthcare system, it comes back because to these individual measurements, whereas instead, you want this as well here, here's your cardiovascular panel, you know, with the five measurements all together and these other panels around systems to tie and even some broader panels besides that, so that you can see things in this more holistic fashion. And another analogy might be, you know, when a pathologist reads images, they write up a report which they give to your physician. Hour physician can't read a pathology image slide to see if you have cancer not, but they can read the report that pathologists get. And so I think that's how we need to integrate these data. To put it in a usable fashion. To be honest, it's not just for the physician, but for the consumer, because they're the ones who can act on it most quickly. They're the ones who are going to have the most time to think about the information. Again, another flaw, and it's, it's no negativity to the physician, but they only have 15 minutes to spend with you. At least in the U S you know, you get a half hour appointment, the physician's only there 15 minutes, they glance at your chart. They do a few things. They make a quick assessment and they're off to the next patient. Then they have to write it up manually. Ironically.  And then  you know, you have a lot more time to spend thinking about what's going on. So if you have this information accessible to you, something doesn't look right. I think it's a better chance for you to take control. It's like me and my Lyme disease, you know, if I wasn't watching what was going on, I don't know what would have happened. It was very valuable for me to have that information. </p><p><strong>Harry Glorikian: </strong>No, no. I mean, I, you know, it's funny because I was, you know, we're using these machines all the time and  you know I try to be as deep in the space as I can be. But if there was an algorithm or a series of algorithms, looking at different data streams that are coming off of me and can sort of be like  my friend, right? Whether it's weight or heartbeat or blood ox or something else that could sort of highlight it for me and then put it into a format that is easy for me to digest. Either graphically or, or a few words. I mean, it would be a lot easier for me to manage myself. </p><p><strong>Michael Snyder: </strong>Yeah, it's coming. I think it will hit, but you're right. I mean, again, medicine's conservative. If you do belong to, you know, Fitbit, or there are certain programs. Or Apple. They'll ping you, you know, here was your weight this week, you get these, but we're just at the trivial stage of what can come. Obviously I think what you're saying, where you would integrate different data types and then see these, and again, in this paper we'll have coming  out soon weshow that you can actually follow people's trajectories and set up AI systems, artificial intelligence systems, follow people's trajectories to look for these deviations. It's still very, very at the early phases. I think they're going to be super powerful for managing chronic diseases like diabetes, obesity. </p><p>There's something called chronic fatigue syndrome that a lot of folks have, and they have crash days and good days. And to be able to tell all these things are associated with your crash days, watch out for those trying to avoid those. These are your good days, do more of those. It's very, very true in the glucose monitoring space, diabetes. People don't realize it's the next endemic, if you don't realize that. 9% of the us population is diabetic 33% are pre-diabetic. And 70% of those are going to become diabetic. By 2050, they estimate half the population can be diabetic if we keep going the way we're going. So  we need new intervention plans while people are healthy. Don't wait until they're already diabetic and have problems.</p><p>And this is where the continuous glucose monitoring technology I think is going to be really powerful. Figure out what spikes you. It's very personalized. What spikes you is very different from what spikes me. Right. And be able to see that. I don't know if you've ever worn one, but they're just very, very powerful. And so it's, again, one reason why we formed a company called January AI to help help with that. </p><p><strong>Harry Glorikian: </strong>Well, it's funny because my wife was asking me, she goes, you know, I'm wanting, I'm thinking I want to wear one of these so that I can see what I eat, sort of how it affects me, but it's all by physician prescription. Go and convince your physician, you know, Hey, by the way, I need a script for this. </p><p><strong>Michael Snyder: </strong>Yeah. So  two comments there. One is in Europe there is no prescription, you can get over the counter. So there's less regulation. So they're ahead of us on that. I think it'll happen in the U.S. Right now you do need a physician, but there are studies, there are groups rolling out. So again, I mention ours, but there are others as well. But with January AI, their case. They'd take it even further and you get this continuous glucose monitor for, for 28 days and do the program longer. But you can, it not only shows you what spikes you, but they also train you a little bit, meaning you eat, you know, your favorite food or it could be rice, what have you. Rice, by the way spikes almost everybody. And then the next day you did the same thing. You do it for breakfast, you do the same thing and take a 15 minute walk and it shows how it suppresses your spike. So it's a, it's a behavior intervention program as well. So it teaches you. And we think that's kind of powerful as well. You not only want to get the data in and have people learn from it. And this thing does food recommendations as well.  You want to be able to teach people how to live better, healthier lives as well, doing an intervention, as they say, </p><p><strong>Harry Glorikian: </strong>Oh yeah, yeah. I mean, I think that, you know, some seeing it so that the data convinces me and then understanding what I need to do to fix it is also very useful. Right. So. Do you think we're ever going to get to? You know, I know that we have data-driven healthcare. Everybody always likes to say we are data-driven, but I mean, truly, like I don't make decisions on businesses without really understanding their profit and loss where their costs are, what their spent. I mean, very detailed analysis. Do you think that we're going to get to this point of [going] beyond hunch-driven medical decision-making? What was that show, oh my God, where the doctor would sort of put all these pieces together and then come out, with a famous actor, I forgot the name of it, but—House yes, yes. House. That was it. I mean, do you think are going to get to more data-driven. I feel like we should be there already in some way. </p><p><strong>Michael Snyder: </strong>Yeah. So, you know, I'm very Pollyannaish. I believe the answer is going to be yes.  I'm like you, I feel like we should be a lot further along and I just think that's the conservative nature of medicine. People think, you know, do no harm. And so they do nothing. And I would argue that doing nothing is harmful.  So I do think we need to get these, the, you know, this data integrated better. I think the best way is to roll out studies like the ones we're doing and others that can show it has power has impact. And that's how you convince people.</p><p>I'd love to come up with a way to accelerate it. I think programs like this are a really great way to do it. A lot of this stuff is going to be consumer driven. I mean, people are now wearing smartwatches not just for fitness tracking, but for health devices, which is itself now the new concept.</p><p>So it's coming. And luckily they're fairly inexpensive. I think that's the way it'll happen at, you know, when a lot of new technologies roll out, they are pretty expensive and then only the wealthy can have access to it. But the hope is that as the wealthy uses these and shows it has utility, then the price drops and they get out to everyone. Certainly that's how genome sequencing started. And I think it will be true for a lot of these other technologies. Luckily, smartwatches are pretty cheap to begin with. So even a hundred-dollar smartwatch is a pretty powerful health device, I would argue. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, you know, if, if Illumina achieves its $60, right, for the function—I've been looking at an analytics approach that will bring down whole genome sequencing to $60. So if it's $60 to do the actual work, the wet chemistry, and then $60 to do the analysis, I don't think there's many barriers in the way anymore. </p><p><strong>Michael Snyder: </strong>Yeah,totally, and we're not so far away where people will they'll get their genome sequenced, but now there are technologies to look for early cancer by sequencing DNA in blood, and you know</p><p><strong>Harry Glorikian: </strong>Liquid biopsy.</p><p><strong>Michael Snyder: </strong>So GRAIL and Gaurdant are leaders there. My company, Personalis is, I think, doing all right. So anyway, that's a, those are areas that we think are going to be powerful and soon they'll become routine tasks, once you show utility. But no company pays for it right now until you show that gee, you do this on healthy people and it doesn't cost the company $5 billion to find three cases, which I won't  yeah, that then it'll roll out.</p><p>So right now, and the way this works too, for the liquid biopsies, it's looking for, they use it for cancer recurrence, if you've had cancer, you try and see if it'll appear again. And that's very logical. They'll demonstrate utility there. They already are. And then soon it'll be early detection and that'll go to the high-risk families. And it always comes down to who pays and insurers won't pay unless you're at high risk generally. And then soon if it's cheap enough, comes back to your point, if it's cheap enough. It'll be there for everybody. </p><p><strong>Harry Glorikian: </strong>Yeah. I have this vision that you're going to go into your CVS or your Walgreens and you, you know, once a year or whatever, and we're going to see things so early that, I'm hoping one day in my lifetime that people will be like “Cancer. What, what, what, what happened?” Like you were able to get so far ahead of it, that it stops becoming an issue. </p><p><strong>Michael Snyder: “</strong>What do you mean you detected cancer only when you saw this giant lump what's that all about?” </p><p><strong>Harry Glorikian: </strong>Yes, exactly. Exactly. </p><p><strong>Michael Snyder: </strong>Yeah. I'm a hundred percent with you. Yeah. </p><p><strong>Harry Glorikian: </strong>So let's say we start, I mean, implementing this at a much larger scale, and broader than what we have now, because I think you and I are probably way ahead of a lot of others on these things. But do you see that effecting a longer life, or do you see it—like, I'm trying to weigh healthspan and lifespan, right?</p><p><strong>Michael Snyder: </strong>Well, it's all about healthspan, yeah. It's all about healthspan. You want to extend the healthy life.  You don't want people hanging on in miserable fashion for years. I think anyway, that's, that's my own view and I think it'll definitely extend healthspan because you'll catch things while people are healthy, not once they're ill, and then you take corrective action and keep them healthy. I think it'll totally extend the healthspan. And the goal is to do that. You know, you want have people that have held a healthy life and then just die. That's how it should go. </p><p><strong>Harry Glorikian: </strong>That's yes. My, my grandmother used to say that when I was younger and I thought it was morbid. And then now as I've gotten older, I'm like, Nope, Nope. That's, that's a good way to go. Like if you're just going to go go, </p><p><strong>Michael Snyder: </strong>Yeah, I think so too. We all know cases where people say, well, at least they died quickly. And we all know cases where somebody is hung on for three years and a lot of pain and very miserable fashion. And I don't, again, at least my own personal view is that that's just certainly not what I want. And those probably should be personal decisions, but minimally, regardless, everything we've been talking about should extend the healthspan, catch things while people are healthy, see these trajectories heading in a bad direction and then take corrective action. And that will have the desired impact. </p><p><strong>Harry Glorikian: </strong>So, one, one final question, before we go. Who do you think  is going to drive that? Is it going to be the healthcare life sciences world, or is it going to be the technology world? That's quickly encroaching. Cause it's, it's not Pfizer that's making this device on my wrist, right? It's, you know, all the other companies you can name. </p><p><strong>Michael Snyder: </strong>Yeah, no, I think it's kind of, ideally it would involve everybody partnering together, but you're right. Technology is having a big impact because consumers are eager for this information, as they often are. And especially as the word gets out and people like you and me start, you know, espousing the wonders and the power of those, these technologies.</p><p>So I think there's that part. I do think we've got to get all the shareholders aligned, meaning I think employers as well should be big incentivizers of this. Meaning it pays for them to have their employees healthy. And that could be a plan I offer. If you're a big employer, maybe you have your folks enroll in one of these, you know, preventative plans, a hundred bucks a month, keep them healthy. You save a lot of money. I do think it helps to incentivize the users as well. I think people are often lazy. But they're, they're all concerned about their pocketbook and their loved ones.</p><p>So I think the two ways to incentivize people are give them, you know, discounts on their insurance if they walk their 10,000 steps and you got to come up with ways for them not to cheat  or, or do various things. But  I, I do think that will help. Or you relay their family members who like egg them on a bit. It's because sometimes that's very incentivizing. So I think we need, we need to have good incentive ways to do that.</p><p>I think financial incentives are one of the better ones. And again, that can relay back to the employer. The employer can offer these plans and then give people bonuses if they do, they're supposed to, you know, if you, if you are overweight and lose weight you know, maybe that would, well, you don't want to be able to get overweight and then lose weight, but you want to incentivize people to lose weight.</p><p>Anyway, you come up with the right models for incentivizing folks. So, so we need to get the financial models in place. We need to show the stuff works and the technology is going to keep improving, getting cheaper, et cetera. So it's all going to go together, I think, in parallel. And then people like you and me will be out there saying, man, this is amazing. Everybody should be doing this sort of stuff. </p><p><strong>Harry Glorikian: </strong>I say it now. It's just tough to get everybody on board. </p><p><strong>Michael Snyder: </strong>Yeah. People are still scared. Yeah. But that'll go away. </p><p><strong>Harry Glorikian: </strong>I hope so. I hope that physicians get less scared. That's my biggest hope. </p><p><strong>Michael Snyder: </strong>Yeah. We’ve got to educate them. And those folks, you have to show that it works, that it has power. But they do have these refresher classes, they call them continuing medical education, and a lot of physicians do that. And I think it's a great way. I give a lot of talks at those, as a way to try to, I think, at least show the potential of what we're trying to do. And I think some of them buy it and some of them don't. </p><p><strong>Harry Glorikian: </strong>Yeah. And, and, you know, I think it needs to be integrated into their technological solutions to make it easier for them to sort of absorb it. And the current systems suck. </p><p><strong>Michael Snyder: </strong>That's true. Very true. Yeah. Yeah. They say, well, how do I have time to learn this and know if it's working, I'm too busy taking care of my patients. Yeah. Your point's well taken. </p><p><strong>Harry Glorikian: </strong>So great to speak to you. I look forward to continuing to read all the stuff that you produce and all these amazing, you know, technologies that you're constantly prolifically seem to be putting out there. And I'll let you know when the, when the, when my book is out, </p><p><strong>Michael Snyder: </strong>I definitely want to see it. Thank you. </p><p><strong>Harry Glorikian: </strong>Take care. Bye-bye.</p>
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      <itunes:title>Michael Snyder on Using Data to Keep People Healthy</itunes:title>
      <itunes:author>Michael Snyder, harry glorikian</itunes:author>
      <itunes:duration>00:55:27</itunes:duration>
      <itunes:summary>Having helped to bring big data to genomics through the lab techniques he invented, such as RNA-Seq, the Stanford molecular biologist Michael Snyder is focused today on how to use data from devices to increase the human healthspan. Some cars have as many as 400 sensors, Snyder notes. &quot;And you can&apos;t imagine driving your car around without a dashboard...Yet here we are as people, which are more important than cars, and we&apos;re all running around without any sensors on us, except for internal ones.&quot; To Snyder, smart watches and other wearable devices should become those sensors, feeding information to our smartphones, which can then be &quot;the health dashboard for humans and just let us know how our health is doing.&quot; (You can sign up to participate in the Snyder lab&apos;s study of wearables and COVID-19 at https://innovations.stanford.edu/wearables.)</itunes:summary>
      <itunes:subtitle>Having helped to bring big data to genomics through the lab techniques he invented, such as RNA-Seq, the Stanford molecular biologist Michael Snyder is focused today on how to use data from devices to increase the human healthspan. Some cars have as many as 400 sensors, Snyder notes. &quot;And you can&apos;t imagine driving your car around without a dashboard...Yet here we are as people, which are more important than cars, and we&apos;re all running around without any sensors on us, except for internal ones.&quot; To Snyder, smart watches and other wearable devices should become those sensors, feeding information to our smartphones, which can then be &quot;the health dashboard for humans and just let us know how our health is doing.&quot; (You can sign up to participate in the Snyder lab&apos;s study of wearables and COVID-19 at https://innovations.stanford.edu/wearables.)</itunes:subtitle>
      <itunes:keywords>healthspan, transcriptomics, moneyball medicine, stanford, stanford university, rna-seq, smart watches, proteomics, genomics, harry glorikian, michael snyder</itunes:keywords>
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      <itunes:episode>63</itunes:episode>
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      <title>Geeking Out about Data with Roche’s Angeli Moeller</title>
      <description><![CDATA[<p>Angeli Moeller is a molecular biologist, a neuroscientist, a systems biologist, and a data scientist all rolled into one—which makes her a perfect example of the kind of multidisciplinary executive needed for this new digital health ecosystem defined by big data, AI, and machine learning. She's a founding member of the Alliance for Artificial Intelligence in Healthcare, does extensive work for the nonprofit rare disease advocacy group Rare-X, and has spent almost five years managing global data assets and IT partnerships at Bayer. At the beginning of 2021 she became the head of international pharma informatics for Roche, the world’s largest drug company. Harry caught up with her on Zoom in February, and the conversation started with the role of informatics at Roche, but quickly expanded to cover all the areas where deep learning and other forms of AI and data science are transforming drug discovery and healthcare, and what life sciences entrepreneurs need to do to get on board.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Angeli Moeller is one of those people who seems like a born leader for the emerging field of data-driven healthcare and drug discovery. She’s a molecular biologist, a neuroscientist, a systems biologist, and a data scientist all rolled into one. </p><p>Which makes her a perfect example of the kind of multidisciplinary executive I’ve been saying for years that we’re going to need in this new digital health ecosystem defined by big data, AI, and machine learning.</p><p>She’s a founding member of the Alliance for Artificial Intelligence in Healthcare. She does extensive work for the nonprofit rare disease advocacy group Rare-X. She spent almost five years managing global data assets and IT partnerships at Bayer. And at the beginning of this year she became the head of international pharma informatics for Roche, the world’s largest drug company.</p><p>Angeli and I seem to be on exactly the same wavelength about how Roche and other life sciences companies should be taking advantage of the huge leaps in computing power now available to them. And every time we see each other we end up geeking out about the enormous potential of today’s advances in artificial intelligence and machine learning to unlock revolutionary new treatments and even a new standard of care in our medical systems.</p><p>Our last conversation happened back in February, and this time <i>you</i> get a chance to listen in.</p><p><strong>Harry Glorikian: </strong>Angeli, welcome to the show. </p><p><strong>Angeli Moeller: </strong>Hi Harry. So I'm really glad to be here today with you. </p><p><strong>Harry Glorikian: </strong>Yeah. And you're in this like really cool room. I almost wish I could like be there. It's like, so it looks very social. I mean, I forget what social is like at this time in life. </p><p><strong>Angeli Moeller: </strong>Well, that's it. So I mean, I'm sitting in Berlin, Germany and but I can't go out into the city at the moment. So I try to bring some of that feeling here in my virtual environment and for anyone online, who knows that studio. So this is great. And the studio. I'm having some fun on the weekends, making virtual backgrounds since during the lockdown. There's not much else to do.</p><p><strong>Harry Glorikian: </strong>God. Now that you mentioned it, I sort of missed some great places I've been in Berlin, so, Oh my God. Well, there's this one place I remember I walked down the street. It was a beautiful sunny day it's it was near the, like a river and. Just the greatest beers. We're all like, Oh my God. Yeah. So let's not go there, but we're supposed to be talking about data and how it's changing healthcare, not beers. But tell me, tell me about, you've got this new position at Roche. You’re head of pharma informatics international. What does that—has that role ever existed? What do you do and what does that mean? </p><p><strong>Angeli Moeller: </strong>Yeah. Thank you so much for asking, Harry and, and the funny thing is you and I were talking just before I took the role, then just as I took the role, and now I've been in the role for eight weeks and we get to, to now have some more coherent answers and what that looks like.</p><p>So the role did exist. It's pharma international informatics. So within Roche Pharma, we have an informatics teams. So, so the digital arm of all of the affiliates outside of the United States. So that's our definition of what is the international group, it's everything apart from Genentech, essentially.</p><p>So it's all of our affiliates outside of the U S, and the informatics team within that. We're really then the digital arm of that organization. But one thing that has been evolving at Roche over the past a year and a half or two to three years is very much that it's about, in each of these countries, in each of these incredibly diverse markets, how were we then engaging with the external ecosystem? How were we supporting patients through their journey and different parts of their journey, as they perhaps go from not having a diagnosis to having a diagnosis and then different disease states? So the work is just so diverse. I think that's the thing that strikes me most about the work.</p><p><strong>Harry Glorikian: </strong>So, so how has, how do I say this? How are you thinking about it from, do you have everything you need? Do you see what I'm saying? It sounds like there's quite a bit there and I'm trying to figure out, like, it sounds like there's new tools that you may need to create. </p><p><strong>Angeli Moeller: </strong>Yeah, that's a, that's an interesting question, Harry.</p><p>So I’ll admit I don't tend to focus too much on the tool question. I think that there are new challenges that are, or perhaps challenges that have always been there, but now we're looking at more closely in each of these countries and in each of these patient journeys and for each of these health ecosystems and I think that there are tools that already exist, but perhaps haven't been applied to these challenges before, or haven't been applied in a specific combination before.</p><p>And I think, for instance, what do you do in Alzheimer's disease in these different countries as a patient is before diagnosis, as they go through diagnosis. What is the interaction, not just for that individual, as the first symptoms appear, as they're told the first diagnosis, emotionally and physically, what they have to endure during that period, but what's happening for their spouse? What's happening for the family around them. What is useful information for their health care provider? Who's having that discussion with them? And this just looks incredibly different in many different parts of the world. So I think— </p><p><strong>Harry Glorikian: </strong>It sounds different, period. You just, it sort of describes an entire healthcare experience as opposed to one tiny sliver of a healthcare experience.</p><p><strong>Angeli Moeller: </strong>And I think here first of all, it is a very broad area, so that's accurate. And of course we do have our focus points at Roche. So there are certain therapeutic areas that we're focusing on. I think that what we are really learning and the real strength of the international organization within Roche, but the approach that Roche takes is, is very much about what can we reuse? What can be applied and scaled across multiple countries, multiple disease areas so that we can as efficiently as possible, have the most meaningful impact on each of these healthcare ecosystems. </p><p>And I know that's broad. So let me make it a little bit more tangible. If we're looking for instance in the neurological space, we know that in that space changes in sleep patterns can be really critical. And we know that's true also in rare disease. And we know that that's true in several therapeutic areas and we know it can be an indication of quality of life.</p><p>What can we do and how can we make measurements on sleep patterns. There you go. For anyone who's listening to this on the podcast, he's holding up his Apple Watch. What can we do to really then, to understand how is that quality of life progressing? And, and I think there are these reusable components that really apply in multiple countries in multiple therapeutic areas.</p><p><strong>Harry Glorikian: </strong>So, for those that don't know, Roche is the world's largest pharma company and, and, everybody also may not know that you guys have a fairly large US subsidiary and in Genentech. Can you guys give the listeners a sketch of the drug areas where Roche is most active.</p><p><strong>Angeli Moeller: </strong>Mmm hmm. So in oncology, in neurological disorders, and in rare disorders, so these are all three largest therapeutic areas. And and, I think, this Harry that I also work for the charity Rare-X and and then that, that was one of the things that made it quite a good match with what we do in in the, in the rare space for, for me at Roche.</p><p>So it meant that I had some familiarity with Roche coming in. I think you also know that my PhD was in oncology and my post-doctoral studies were neurodegeneration. So I manage to have in my past done a bit of rare neuro and oncology, but I think as well as you come in/ And that's just the pharma division, the diversity, that was so rich, and that was so much to do.</p><p>I mean, looking at Roche total, beyond Roche Pharma we also have a diagnostics division which is suddenly had a significant impact around the world this year. And that's the other key division within Roche.</p><p><strong>Harry Glorikian: </strong>Yeah, that's the one division I knew well from, being in, I started out my career in immunohistochemistry a long time ago.  We did, I had, I had a consulting firm that really it would either would take a hard look at Roche or would help Roche think about what they were going to do. So which one of those areas that you talked about do you think is going to be most transformed by the impact of the combination of AI and all of its tools that fall under it and the data that you're able to accumulate. And I know that we're doing better on data accumulation in certain geographies, rather than other geographies, but hopefully it's a heterogeneous population and we might be able to start to see patterns that we can utilize in more in certain places than others.</p><p><strong>Angeli Moeller: </strong>Yeah, thank you for the question, Harry. And I have to admit, it's a question I get asked, quite consistently, where is artificial intelligence, where is data science, where is data generation going to have the biggest impact. And I was reflecting that I think my answer changes. So, if somebody was to put together all the recordings and interviews I've done in the past year, I think my answer might evolve.</p><p>Because, I'll be honest with you. I'm sure you have the same, Harry, because I've listened to your podcast. It's moving so quickly, places where we didn't expect to see impact, suddenly an amazing new discovery is made in, in machine learning or deep learning or in another space in data science that says something we thought we couldn't do now we can suddenly do. </p><p>I think for me, what's going to be most impactful for healthcare systems, for global economies, for patients, and for doctors is really what can we do to the patient that will also be meaningful pre-diagnosis. So that's a question that we're asking ourselves. What can we do that will really be a signal we can detect in very complex data sets. I mean, think of the watch you have, I have the same watch. We have other similar wearable devices which are penetrating the market, and we also have electronic medical record data becoming increasingly accessible. What can we do at either very early stages of diagnosis at very mild disease states and pre-diagnosis states to prevent that continuation of disease severity, to prevent the point where somebody needs an acute intervention or a very serious therapeutic response. So we're really discussing and looking at how do we make the healthcare system sustainable globally, by really understanding how we can use data science and detections and patterns of the data to really have those early interventions.</p><p>And the second shift that I'm seeing is also on real focus on quality of life and all of the, the wearable data and the high density data that we have now which is collected outside of a clinical setting is giving us a much better view on what does quality of life really look like. So how is that patient or that individual really doing outside of the clinic?</p><p><strong>Harry Glorikian: </strong>Yeah. And it's interesting, like, when I think about all these different parts that are being impacted by data, historically, we've, we've looked at them as different silos. So we treat them as they are like, I'm in this room today and I'm in that room tomorrow and I'm in that room tomorrow. And I, I'm not sure if everybody understands that the data actually coalesces the room. In other words, if I start to see somebody that's in early diagnosis, being diagnosed early, first of all, what data analytics platform do I put there to capture that? But that information might indicate that either a therapeutic regime or a clinical trial might be relevant.</p><p>So that bleeds with what you're doing and might also influence drug discovery. Right. And then the outcomes, data of how we manage you. I mean, I think of it like Google maps. If there's not a constant communication between all the points that are moving around live on the map, the map can't rejigger itself to tell the next person, how long is it going to take you to get from point A to point B? I mean, the map is a little simpler than what I'm saying, but it's having all the data sort of swirling in an ecosystem that can share and be accessible at one time. Maybe I'll see that in my lifetime. I'm not sure.</p><p><strong>Angeli Moeller: </strong>I think here, so back to the question you asked before, which is, where might we see earliest impact, I think the rare disease space is moving very quickly, because of need, because of really critical need. And also because the patients themselves and their caregivers, it’s parents, as these diseases often affect young children, are really actively promoting data sharing, actively asking for data sharing and putting out that data into platforms where it can be accessed and shared because they want to drive forward that conversation.</p><p>And in some of the Rare-X discussions we have, so we have discussions with different partners who want to work with us in the charity Rare-X on how to study and analyze that, that patient data. So we go out to ultra rare diseases and also to some larger disease communities. They've normally been creating their own registry. Looking after the data themselves. We host the data. We connect the data. The data stays patient owned, continuously throughout, but we give them the tools to make it really easy for them to withdraw or give consent at any time during that journey and also forever so that, they can change their mind and say, no, I want to withdraw consent or yes, I'm happy to continue to have this data available.</p><p>So we try to put all the power back in the patient's hand. And here, itt's really then—we have debates, I've been sitting sometimes in an hour long debates. What's most valuable. Is it the electronic medical record? Is it the patient-reported outcome for the natural history study? Is it the genomic test thing that we can offer on top in our collaboration with the Broad Institute? Is it the wearable data that we can collect and able to detect if a patient's going to have a seizure or not? And I see you smiling. Cause I think you agree with me. It's all of it. </p><p><strong>Harry Glorikian: </strong>I was thinking of the multiple choice in where the bottom one, it says all of, all of the above. </p><p><strong>Angeli Moeller: </strong>Exactly, exactly. And I think that's I understand why this question keeps coming up because people have to know where to invest and where to invest at which time. And as somebody who spent a lot of time in academia before, I think that's why there's a lot of value in defining which scientific questions you want to ask and then prioritizing which data you're going to clean and collect based on that. But at the same time as this field emerges, we're seeing there are more questions we can answer that perhaps we didn't even have in our minds when we started to collect that data.</p><p><strong>Harry Glorikian: </strong>And if, it's interesting, right? So I was talking to Joel Dudley at Tempus, right. And one of the things he said is, well, you get a sample. We do everything we can do on that sample. Even if it's not going to be used right this minute, we know that that is going to play in the symphony that's being created like, maybe French horns. If we had French horns, we could like, this would sound better. Right. And everything that I'm finding in the data space is, yeah, we do our analytics. We look for a signal, but if we could add another component to it, it gets, this gets better over time. This we're adding to it. It's like trying to determine whether based on one marker, which is impossible, you have to look at, hundreds of things that are happening to be able to, and they don't even do it well, even with the with the hundreds, but let's hope we do better, better in healthcare. </p><p>But let's jump, jump back for a minute because when you were explaining your, your background I mean you're a unique duck in a sense, right.</p><p><strong>Angeli Moeller: </strong>Duck?</p><p><strong>Harry Glorikian: </strong>And like, I mean, it's not many people that have all these different areas. Plus the data science in one individual. Like, I think we need to rewrite the curriculum because we need more like you, if we're going to make the advances that we're having. But, How did you master all these new fields? How did, how did it, did they just fall into place? Did, how did you come about going in that direction? Because I'm hoping some young people might listen to this and think, Hmm. I get this question all the time: Harry, what should I study? I'm like, Hmm, not sure. You should definitely understand computer science and you should understand finance. And then you should learn how to learn, is my last one, because it's ever changing. But how would you, if you were giving somebody advice, the younger, maybe you what, what would you say?</p><p><strong>Angeli Moeller: </strong>I mean, I mean, very similar. How are you making me smile low? Cause you were calling me a duck today. And I know when you and I were at JP Morgan earlier this year at the virtual JP Morgan, you referred to this profile as mutts.</p><p><strong>Harry Glorikian: </strong>Well, it's true, right? I mean, actually it's funny because I gave my kids this book called Range. Because I was trying to explain to them, being super deep in one area. Like that's great if that thing lasts forever, but having range allows you to think about a broader area that, and what we're finding is that area that we didn't think it mattered, actually matters. And if I was only deep in this one area, I'm not going to see the, how it's all coming together. </p><p><strong>Angeli Moeller: </strong>Yeah. And I would definitely support that and agree to that. But also, and I do go out to universities, a lot to either do mentoring with students or do careers talks and I think, I always say, you've got to love what you do. You spend so much time at work and it can be such a big and rewarding part of your life that normally the first thing I say is, do something you absolutely love. And then I say for me, that happened to be this, and that's why I do this.</p><p>The other reflection on. So, yes, I have switched fields quite a few times and that can be a pro and a con, but in the end, it's my personality. Right. And I think also people know this when they hire me. People know this when they work with me. So I know that when I started off choosing what I wanted to study, I guess the one red thread is it's always been healthcare. So when I was at school, I was thinking Médecins sans frontières, and I was always thinking, what can I do in healthcare, in that space? And at the age of 16, I was volunteering in an emergency room back in England, just thinking, okay, I've really got to do something that's, that's helping patients and that's really focused on that. And then and then at the time, being in Newcastle in the North of England, Dolly the sheep was happening. And it was, it was a time, and that wasn't happening far away. That was just in Dundee. So a couple of hours drive and. And so I, I just thought, yes, this is something I want to be part of, I don't know what it is, but I want to be part of it. So it just began with a commitment to genetics and biochemistry. And then when I turned up at university on my first day, they said, we've transformed that into a molecular biology degree. It's the first time we've had that degree and you’re our first student, and three of you. And then after that, as I, went into my PhD it was again, okay we’re going to work in single chain, antibody engineering and nobody thinks that these re-engineered antibodies will ever make it into humans. We're going to start, but we’re a long way from that.</p><p><strong>Harry Glorikian: </strong>But that's the funnest part of this stuff, right? Like, I don't think I've ever done. I, and sometimes I think I'm crazy is I don't think I've ever done the same thing twice. It's always some left turn, right turn, building on what was there. But every once in a while I'm like, you're a nut case, you're just making your life so much harder. There's something new to learn every time, but I can't help myself. </p><p><strong>Angeli Moeller: </strong>Yeah. And I know Harry from talking to you before that you have this personality as well, but I have to say I have full respect and would also encourage somebody who has a consistent passion that they want to stay with and something that is in the same field. And they say that this is what I want to do forever. And I have a lot of friends who pursued those sorts of career paths and find them very enriching. So I would always say, do something you love. I mean, f or me then as I moved into neurobiology and as we started to have IPS cells and be able to differentiate them into neurons, I remember that moment in the lab and how exciting that was.</p><p>I think I just feel so honored because if I look at single chain antibodies, if I look at IPS cell differentiation, if I now look at, where as we start to, to really capitalize on this machine learning revolution, I feel like for my generation, I've been just really lucky to be at the right place at the right time and have those opportunities to be part of what to me are some of the major milestones of my generation. And maybe that's not very scientific.</p><p><strong>Harry Glorikian: </strong>No, I mean, I, I totally agree. I mean, when I try to explain to people, I'm like, well, this is happening. And then we went from this to this, and it went in this period of time. The problem is, is most people don't understand like what the timescale was and what the timescale is and what I can see the timescale will be. Right? And the impact is. And the science is just like, we can do what, like we did, what? I get super excited and everybody around me in my house goes. Again, with this healthcare discussion, like, can you, can we talk about something else? But… </p><p><strong>Angeli Moeller: </strong>I’m having those same discussions at the dinner table, but I think the one thing, and maybe building on the theme, things you and I have in common, is that is now the excitement of connecting that to something that's sustainable. And that sustainable also means that it's working economically and financially, and that it becomes sustainable, and that's the journey that I would say I'm now very much thinking about sustainability. And, and how do we make sure that this innovation to patients really becomes sustaining, moves past academia and moves past the lab and moves past the computer and the algorithm, and really becomes something sustainable in terms of delivery to patients. </p><p><strong>Harry Glorikian: </strong>All right. Let's, let's dig into that a little bit because I mean, I think you're,  you're part of this group called the Alliance for Artificial Intelligence in Healthcare and, and you're the treasurer. So I don't know how you have time for all this stuff. Like, wait, let me get the spreadsheet. Let's see how much money we spent. No, no, we gotta make that system work and it's gotta work for those patients in wherever. I don't know how you have time for all this. But what's the, what's the, what's the origin story of the Alliance and, why are you so passionate about it?</p><p><strong>Angeli Moeller: </strong>Yeah. And I certainly am passionate about it. So we, when I was in my former role at Bayer we started on on our digital transformation journey there. And I was invited to lead the work stream on artificial intelligence, so, for all of the, the pharma division across the pharma division, and he I, I started to just think, okay, who's moving this area who I might know already. Who's doing what in this area? Who could I talk to? And Naheed [Kurja], was somebody who's the CEO of Cyclica at the time. And he and I had recently had lunch. He'd just been in Berlin and we just had lunch. And I saw online that he was attached to a post about the Alliance for Artificial Intelligence in Healthcare, and they were just brainstorming what that could be. And so I pinged him and I said, what is this? Can I get involved? What's going on here? What are you trying to do? And that was three months before the JP Morgan in 2019, which is where we launched. So we had a three month, very intensive period in deciding who we were and what we were. </p><p>But the frustration and the opportunity that led to the AAIH was there were quite a lot of extremely technical CEOs in the health tech space who were meeting constantly, who were all at the same conferences, who were always all together, and who were seeing a lot of confusion around the topic of artificial intelligence in healthcare. And were feeling that they were constantly having the same conversations, that they were constantly trying to push past the hype cycle into something more tangible.</p><p>And they, were also seeing a lot of companies coming up with the .ai and, and not much else behind them. And so they were seeing this trend, they wanted to shift the conversation into something more concrete and more grounded in good engineering and good science practices. So this was their driver. And my driver was, I want to learn from you guys. I want to learn from you guys. And I think that you're wonderful. And then in that spirit, and as we come together now, where we're about 45 companies, that was the: this is bigger than any one of us. This is more important for the movement of our industry than any one company than any one individual. And we really believe so much in that. We believe that patients are missing out on innovations they could use today because there's so much hype and so much confusion around artificial intelligence. And it's taking away opportunities from patients because they're not getting access to things that could help them just because of this fog of confusion. And we felt so strongly about that, that we put it above our company roles and we decided that we would together found this organization. And it’s been an honor to be… </p><p><strong>Harry Glorikian: </strong>So let's talk about the, let's talk about the impact of this. Cause I always think to myself, all right. So two years ago when I said AI, people were like, huh? Right. Now, when I say AI, it seems like if every CEO is not talking about or implementing something in AI, they're behind and, we're starting to get to the point is if you haven't already put something into place, you are going to be so far behind. So the curve of, it forever for some things to come up that curve. And now this one seems like it’s crashing  in on itself. From a timescale perspective. I mean, where do you guys see the organization having its largest impact, so that you can do what you want to do, which is get these products or services or both into either an organization or that's going to have an actual impact on a patient, right? Assuming that the organizations you're trying to get it into or already trying to do this themselves. Right? So what's the overarching—how are you going to do that? </p><p><strong>Angeli Moeller: </strong>Yeah. Thank you so much. And, and it's actually very timely you asked, Harry, because we just had our strategy workshop last week as well to have a refreshing and a good look and have an intense discussion amongst our board of directors about how we see our strategy. </p><p>So one piece which won't be surprising to you is data sharing. So data sharing and to talk to regulatory bodies about how we can incentivize data sharing in specific areas. So you may know that Roche, our clinical trials in the COVID space, that we shared the data from those trials. And we do see that that's happened in other specific areas. So we want to work together with regulatory bodies to really incentivize data sharing, particularly where we see an acute need, and also sharing of models. And models that can be used to bring new solutions to patients. So to have more open sharing of algorithms that are developed, but in a sustainable way. So in a way that still allows the innovation to be rewarded for the individual companies and the individual data scientists who are doing that innovation. So we're looking at how to make that sharing possible, but also sustainable.</p><p>The second part that we work on, which is a lot of our, a lot of our man hours, let's put it that way, is working with policy makers, business leaders. Healthcare professionals on myth-busting. So we just spend a lot of time doing educational sessions, on preparing webinars, on running conferences, on going, even doing smaller sessions to really answer questions. So we're so lucky that this is a growing expert community. And and that also our founders are fairly strict in, in the technical excellence and in what good engineering and good data science looks like. And that means that we just want to go out there and be a resource, to also take away fear, to take away misconceptions around artificial intelligence, to maybe move away from the HAL in 2001: A Space Odyssey to, this is just something in your smartphone and you can rely on it. So that's a really big part of, of how we spend our time. </p><p>And then I think the third part, which we're really looking at very tangibly and which may be a new thing for us this year as an organization that's now getting a little bit older and a bit more established and a bit bigger, is we want to run some joint projects together. So we're looking at which joint projects. Basically we just looked at each other around the table and we said, we have some very smart people here who I'm privileged to look after the finances for, but we sit around the table. And I imagine if we all took a very important challenge, a very important healthcare challenge, and we all worked on it and we took all of our great data scientists and all of our great biologists, chemists, cloud engineers, such a mix of diverse talents. And, and then we just really worked on a very important challenge together. So that's the angle that we're really looking at this year. </p><p><strong>Harry Glorikian: </strong>Well, being on the investor side, that sounds like a roll-up, like an incredible company. But it also sounds like you guys are developing or want to develop something like GitHub where, there's a repository of algorithms already available to people that they can use. The data sharing, everybody's not super good at that. COVID was an incredible exception. I don't think I've ever seen data sharing like that before. But I'm not sure that how much it's going to continue when the world is not being threatened. </p><p><strong>Angeli Moeller: </strong>And I think, I think on some topics you do have to already now be starting to make sure we've got things in place to keep momentum. So Paul Howard from Amicus, he and I did an AAIH panel yesterday evening. And this was one of the topics we intensively discussed. I think here, with the library of models. So that all great things on GitHub, I don't want to make a new GitHub. I mean, that's all great. It's more about working on what is validation look like and what does good look like and how do we have a repository of validated models that are of a standard that would make a regulatory organization happy? And how do we build up that library? So that's really where we're shaping the conversation. I think, I think for ure academic brilliance, there's already repositories out there. There’s already great libraries out of that. </p><p><strong>Harry Glorikian: </strong>I was going to say to you, I think, I think, well, I'm going to add one more thing in your career. You're going to need to write a book based on this All your experiences, </p><p><strong>Angeli Moeller: </strong>All right. So hat would we call the title?</p><p><strong>Harry Glorikian: </strong>No, we'll come up with something. Listen, I'm working on number three right now, so don't worry, it's totally doable. Let's jump to, to, Rare-X. So you're Roche, AAIH, Rare-X. I thought I was doing a lot. You've got me beat hands down. And you have a life. I mean, let's, let's add that to the table, but what drew you to that organization? </p><p><strong>Angeli Moeller: </strong>And you can see today, and Nicole Boice is going to be so proud of me ‘cause I know we're being videoed, but I'm also wearing my Rare-X sweater. But what drew me to it? Well, I was visiting Anthony Philippakis at the Broad Institute. And and he and his organization, are part of the AAIH, and we were talking about informed consent, which is one of my pet passions. How do you make informed content manageable and work for all parties involved? And he, and and Morry Ruffin who also helped found the AAIH. They said, you've got to meet Nicole Boice. And I hear this story. So often people are taken aside somewhere and I told you've got to meet Nicole Boice. And Harry, if anyone ever says this to you, the answer is yes, please. Oh, it's the founder of Global Genes. And now sits on the board for that organization. And and she's also our founder and CEO at Rare-X and she's worked in the patient advocacy space for rare diseases for most of her career. And for me, Nicole is a moral compass or she's increasingly become that because every time we're talking about what we could do together, and as we talk about sustainability, and there's often a time when you can look at short term gating and also short term revenue, and Nicole is the person who in every conversation brings it back to, what does this mean for the patient? What does this mean for that parent, for that child, for this rare disease community? And I value what Rare-X has brought to my life and to my career so much for that for just being within network of people who ask themselves that every day and for that to be trained and to become such a big part of my life.</p><p>The solution. I mean, the reason I started to get into it is that I really liked the technology as well. Right. As much as, as much as the commitment to the goal. So it was a, it was a few things I cared deeply about coming together. The platform is based on Tara Bio. You might've seen recently that Anthony's group got an additional investment from Verily and Microsoft into their Tara Bio platform. And the way that they've set it up with the different modules means that we can go out to these rare patients. We can help them host that data, but they always see their own data. So they can always see how they doing in comparison to an aggregate of other individuals with similar phenotypes, with similar genotypes, with similar clinical progression. </p><p>And for a lot of the ultra rare disease patients, they find out or rather their parents find out they have a mutation. They try to find out what does that mean for life expectancy? What does that mean for breathing problems? Sleep problems? All of the symptoms look so unique that they're seeing in their child. But then they can also map to other phenotypes and other families who are similar phenotypes and who are also then seeing what treatments are effective. And they can see that in an anonymized way and it can start to give clues to them and their health care providers for these very ultra, even N of 1 diseases that are struggling so hard to find what is the right treatment path for me? </p><p><strong>Harry Glorikian: </strong>Well, I'm going to, yeah. I mean, I've spoken quite a few times to Robert Green, who's done BabySeq. Right. And I'm actually, I'm going to catch up with him next week. But you can see as you're looking at this, first of all. And Sharon Terry, right? And you start to understand that the power of the technology is the N of 1 is no longer the N of 1. Right? It's, you may be geographically the N of 1, but in an aggregate you can get more of them in one place. And as soon as you can see more than one, it's better for us to try to figure out what's going on. I remember when,  one of the people that Applied Biosystems sequenced their own kids and found what was wrong and was able to give them an over the counter drug that made a huge difference in the person's life. Right. That was sort of the first shot across the bow. Now I think it's taken the rest of the world for forever to catch up with what I think was almost,  15 years ago. Right. I mean, it's a long time. And the system you're describing of being able to look at myself along other patients, shouldn't that be standard of care, like for everybody, every boddy who has cancer or anything else. </p><p><strong>Angeli Moeller: </strong>And then Harry, I mean, you really getting onto the vision of the future and where all these things fit together for me, because, with the AAIH, then, you can start to have the conversations with patients and healthcare providers and policy makers to create this shared vision to talk about the practicalities of, if I imagine my parents having this information on, on their health care journey, and then they need to understand that it needs to be in a digestible way, but their healthcare professional has to be open to talking to them about it. Even though they don't have an acute disease, they have to be open to saying, let's look at this data together. Let's think about what it can mean about you as an individual, not you as an average person who has, in the case of my father Type 2 diabetes, but you as an individual and how to your phenotypes, genotypes and clinical progression look on an individual level when we look at your data compared to the aggregate.</p><p>And I think with Rare-X, one is before I'd worked with Nicole, I hadn't worked in the rare disease space before, so there's so much about that space that I had, but it's also, the patients are so engaged because the need is so acute and they really understand the value of that data and the value of having as many researchers as possible looking at that data and being able to integrate that data for meta analysis. And they're so engaged on that journey with us that I think it's an opportunity to showcase what that could look like in a faster way, in a more tangible way. </p><p><strong>Harry Glorikian: </strong>Well, it's interesting, right? Because you are talking about children and patients parents aren't. Yeah. They will do things for their children that they might never do for themselves. So that's that's always a driver but, we talk about rare disease and I, I know that we're talking about, like, I think we're, we should start calling it the ultra rare disease, because if we look at breast cancer or neurological diseases, every one of them is going to go down a different branch and there's going to be subsets.  And they're all going to be a rare disease at some point. I just, I can't imagine that we're not going to get better and better at targeting something. And then maybe thinking of combos because it's different pathways we need to hit at the same time. And I don't know how we're going to do that without some level of artificial intelligence and, the entire toolbox that comes underneath that, that can help identify that.</p><p><strong>Angeli Moeller: </strong>I mean, I completely completely agree. And I think it's just about, the problems are there already. I mean, now I know your background's in immunohistochemistry Harry, I can, I can get into it, but I come from proteomics. And if we look at…</p><p><strong>Harry Glorikian: </strong>Way more complicated.</p><p><strong>Angeli Moeller: </strong>I mean, you've got, I've got all the information at a genetic level. Then I've got all the transcriptome information, then I've got all the proteome information. Then I've got every single post-translational modification on top of that proteome, I've lost your whole audience now, it's hard. That's why I went to use these tools in the first place, because, at that level, every cell is extremely unique. Never mind every human individual. </p><p><strong>Harry Glorikian: </strong>Yeah, no. I remember when we were at Applied Biosystems. Okay. We're going to do the genome. Oka,, I was like, all right, chemistry, we can do that. Like, that's not a problem. Right. And then somebody said to me, and our next thing is, we're going to do the proteome. And like, we're going to do what, like. I went to my wife. I'm like, I think I should sell some stock, because this is going to be really hard. Right. And look at how long it's taken us to just start to scratch the surface of that whole, methylation and this and that, and trying to bring all that information together. It's trivial.</p><p>I still think there's low-hanging fruit just on the genomic side. I mean, let alone everything else. I do believe like one of the next big areas is going to be spatial genomics, like basically immunohistochemistry, but looking at it from a, which cells are lighting up and how much gene expression and what's going on in that space and being look at it relative to other cells. I mean, for me, that's just molecular immunohistochemistry. </p><p><strong>Angeli Moeller: </strong>Yeah. And, and I think, I think that, the actual tools that you need, and here I'm talking about laboratory equipment, the actual quick pace as well, at the same time, the, the algorithms used by system biologist developing. And I think when you add onto that, okay, that complexity at the cell level, the complexity you have now at a pharmacometrics level with all of the different organs in the body, talking to each other and what that looks like, and then you bring it up to the complexity of our population level. And now you asked me, I think it was the second question you asked me is, how did I come into the informatics space? And I would say here. I'm not that old. Right? So I'm 37 and I would, I always tell people at the time I went through university, there was no molecular biologist in the lab who wasn't also doing bioinformatics.</p><p>And I see the same now for people doing marketing degrees today, or people doing other traditional degrees in many different areas. I think informatics has now become part of every profession. And I think that, you can do a marketing degree, but it's going to have digital marketing, and it's just going to be inherent and you can do an MBA, but it's going to have a lot of big modules which are going to be focused on informatics. And you can become a biologist, but you're going to do a lot of big modules on informatics. And that's just the nature of where we are today. </p><p><strong>Harry Glorikian: </strong>Well, just to put it into a timescale, and I would say I'm a, I'm a little bit older than you. Not that much, but just a little bit older than you. And I would say that, when we were doing the genome. We're like, we need this bioinformatics, right? It's like, what the hell is that? Well, get the comp sci guy and get the biologist, put them in a room and have them figure it out. And they could barely talk to each other. Right. And that wasn't that long ago, relatively speaking. So it's interesting. I always wonder, like the university curriculums are not, I don't think they're keeping up with the pace of what needs to happen for us to keep this momentum going? Because like you said, everybody has .ai. Well, I start digging under the covers and I'm like, you don't have what it takes to do what you're saying you're going to do. You don't have the people, we haven't graduated enough of them. So to keep that momentum going, I think we really do need mutts t o come out of the woodwork because otherwise I don't think we're going to achieve that next level of, of growth. I mean, we keep taking physicists and putting them into this area because they're so good at the math. I think we need a physicist crossed with a biologist, not just one or the other, because they don't, sometimes they don't think about the problem, the way that they should. I'm bringing my biases into this, but….</p><p><strong>Angeli Moeller: </strong>I love the diversity we have in the Alliance for Artificial Intelligence in Healthcare. So, there are astrophysicists there. There are people with MBAs. There are chemists, molecular biologists like me, pure computer scientists. I think that often the slight differences in the way we approach a problem, how — we also have public affairs specialists and lawyers — and the slightly different way we approach a problem often is what helps us find the solution to that problem in the end.</p><p>I think, though, the one thing I definitely don't underestimate is the value of hard skills. So I think I been, I'd love to hear your thoughts even on this Harry, but as digital, as we move away from the roles that we've just learned and know and accept, I'm a molecular biologist, I'm a bioinformatician, I'm a chem-informatician. These are things that mean something very tangible to me. There are now a lot of job titles with digital in them. I'm a, I'm a digital lead. I'm a digital officer. I'm a digital transformation officer. And I think, I think there, in trying to pick a  way in the same way we have with the .ai. What does that mean? And what are you going to do? That's it, that's an interesting question for the industry, right now. </p><p><strong>Harry Glorikian: </strong>No, and there's very few people that I've spoken to where I'm like, Oh, this person gets it. Like this person really understands it. Right. And they understand it at a level where I'm, I'm struggling to just keep up with where they are. And that is the, the re not tens of thousands of those. Right. There's, there's few of those. And I'm not sure talking about just the machine learning of the AI. That's just, okay, great. I can go to Silicon Valley. I can find a 2- year-old that can, righ, probably run circles around me in that sense. But that understands how some of these pieces are going to come together, how they need to think about the math differently than just taking what was and slapping it on there. I mean, in some cases, and I'm talking to somebody about this now is, some of the math we're using is just old, and it was we're using it because that was as good as they could do at that time. Well, we have this thing called a computer now. Like we should be able to, like, improve that math to a certain degree to actually come up with a new mathematical pathway to this problem. And I'm reading a whole bunch of papers right now so that I can continue my debate with the individual, but this whole field is changing so rapidly that every week, I'm having a conversation that I'm seeing it move forward. The problem is, is I don't think the existing status quo can keep up with the how quickly it's moving.</p><p><strong>Angeli Moeller: </strong>And Harry, sometimes I’ve felt like that. And and again, if you put all my interviews side by side, I think you can see the days when I felt like that. But I'll be honest, I was having this discussion with some colleagues just this week, and I think the emotional intelligence that most senior leaders have, will get them through whatever comes, whatever digital, whatever machine learning, whatever informatics brings. Because, you, and I know you're not going to have a team of 50 fresh machine learning graduates producing something immediately fantastic, patient-centric and commercialization, and that we're going to need seasoned leaders with good business acumen still playing a key role and critical role there and the skills that are taking them through every other twist and turn of business life are still going to take them through this next digital transformation and also mean that they can really unlock the power of what machine learning and other new technologies can bring in the same way they did           when single chain antibodies came out and when pluripotent stem cells came out and they used the same emotional intelligence. </p><p><strong>Harry Glorikian: </strong>I agree. And I disagree. Right. I agree because I totally understand the historical  line that you're drawing on the biological technologies. I think that leaders need to be really looking at what tech is doing, how quickly tech is advancing, what are the, the arcane things that are going on there that they, they is not even in their view on a daily basis, and then be able to superimpose some of those what's going on there into our world to actually see how this is going to happen. Or what's going to change because I do think that there are things that are happening there that people in our world don't fully understand the impact of, which I think is, is the coolest stuff that's going on. </p><p><strong>Angeli Moeller: </strong>How many of our colleagues audit the new Nvidia graphics card and understood what that could mean for healthcare? </p><p><strong>Harry Glorikian: </strong>Well, it's also just trying to, I mean, I remember the impact when we were at Applied Biosystems and, Intel released a new chip and all of a sudden we could do 72 hour unattended sequencing. We had nothing to do with that. We just took the chip, plugged it in and off we went. Those changes are happening….I'm having trouble keeping up with some, I don't know if you saw. Samsung is releasing a new memory chip where it'll have AI machine learning capabilities on the memory chip. So if you start to rethink the architecture of the computing platform and then superimpose that on what we're doing, there are big changes that are coming, that if you talk to people in our field, they're completely unaware of the, how quickly it's coming. And so as a leader of an organization, you need to preplan for some of that, right? Otherwise you can't absorb it. So that would be my 2 cents. </p><p><strong>Angeli Moeller: </strong>We're really getting into it Harry and we're probably going to have to do another recording. But I mean, I think it's about the mindset and, and sometimes, I'm like, it's about the hard skills. Because you can't get away from the hard skills. There are hard skills you needed in your organization. So let's say that's a given at the leadership level, it's been, the mindset becomes even more critical because it's about, I think with software it just moves so much faster than drug development, clinical development than pharmaceutical development, it just moves so, so, so much faster. And even what we would call a traditional IT project where you choose the solution, you roll out a solution, it's there, you don't retire a solution as you roll out the next solution, anyone in the software industry, nobody thinks like that anymore. Maybe they did 20 years ago. And it's about, how do we prepare for the fact that everything is replaced the second that goes live and how do you prepare everyone to be comfortable with that. That I'm going to have DevOps, I'm going to have my data science plus it's going to go and have a new release every two weeks based on what there I immediately get from the end-users. I'm not going to ask the end users what they think, but I'm going to have different metrics that the software immediately picks up to see how they like it, how they use it. I'm going to throw out features to this group and do AB testing. I think.</p><p><strong>Harry Glorikian: </strong>Yes, but this is why I think we need to have skunkworks areas that can move this thing forward, but also a leader that can understand the implications of if that's skunkworks is successful what is the implication on the organization?  And that's hard in a big organization, right?</p><p><strong>Angeli Moeller: </strong>Yeah. I mean, absolutely. I can, I can see challenges, but I've got to say, I feel, I feel really optimistic. But people understand, what it can mean to have an agile transformation at an enterprise level, and also about what sort of mindsets are going to keep them safe during this journey.</p><p><strong>Harry Glorikian: </strong>Yes. I think it, again, leadership sets the tone, right? As an investor, I'm looking for the Series A guy, right, that's going to. Revolutionize something. Right. And it's 13 people, right? Or 15 people. It's, it's not, 5,000 people, right? Hopefully, maybe the organization will grow to that much. Although I think, I don't know if you ever need that many people anymore to change the world. It's I think it's a smaller group.</p><p>But look, it was great to talk to you. I wish we were actually sitting at that bar. Right behind you and able to releax. Cause I have not left this room, I don't think since last March. But it was great to catch up with you. And I look forward to continuing the conversation. </p><p><strong>Angeli Moeller: </strong>Absolutely. Harry, and it was always a pleasure to speak to you. Thank you so much again and have a great rest of the day.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Mon, 24 May 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Angeli Moeller, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Angeli Moeller is a molecular biologist, a neuroscientist, a systems biologist, and a data scientist all rolled into one—which makes her a perfect example of the kind of multidisciplinary executive needed for this new digital health ecosystem defined by big data, AI, and machine learning. She's a founding member of the Alliance for Artificial Intelligence in Healthcare, does extensive work for the nonprofit rare disease advocacy group Rare-X, and has spent almost five years managing global data assets and IT partnerships at Bayer. At the beginning of 2021 she became the head of international pharma informatics for Roche, the world’s largest drug company. Harry caught up with her on Zoom in February, and the conversation started with the role of informatics at Roche, but quickly expanded to cover all the areas where deep learning and other forms of AI and data science are transforming drug discovery and healthcare, and what life sciences entrepreneurs need to do to get on board.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Angeli Moeller is one of those people who seems like a born leader for the emerging field of data-driven healthcare and drug discovery. She’s a molecular biologist, a neuroscientist, a systems biologist, and a data scientist all rolled into one. </p><p>Which makes her a perfect example of the kind of multidisciplinary executive I’ve been saying for years that we’re going to need in this new digital health ecosystem defined by big data, AI, and machine learning.</p><p>She’s a founding member of the Alliance for Artificial Intelligence in Healthcare. She does extensive work for the nonprofit rare disease advocacy group Rare-X. She spent almost five years managing global data assets and IT partnerships at Bayer. And at the beginning of this year she became the head of international pharma informatics for Roche, the world’s largest drug company.</p><p>Angeli and I seem to be on exactly the same wavelength about how Roche and other life sciences companies should be taking advantage of the huge leaps in computing power now available to them. And every time we see each other we end up geeking out about the enormous potential of today’s advances in artificial intelligence and machine learning to unlock revolutionary new treatments and even a new standard of care in our medical systems.</p><p>Our last conversation happened back in February, and this time <i>you</i> get a chance to listen in.</p><p><strong>Harry Glorikian: </strong>Angeli, welcome to the show. </p><p><strong>Angeli Moeller: </strong>Hi Harry. So I'm really glad to be here today with you. </p><p><strong>Harry Glorikian: </strong>Yeah. And you're in this like really cool room. I almost wish I could like be there. It's like, so it looks very social. I mean, I forget what social is like at this time in life. </p><p><strong>Angeli Moeller: </strong>Well, that's it. So I mean, I'm sitting in Berlin, Germany and but I can't go out into the city at the moment. So I try to bring some of that feeling here in my virtual environment and for anyone online, who knows that studio. So this is great. And the studio. I'm having some fun on the weekends, making virtual backgrounds since during the lockdown. There's not much else to do.</p><p><strong>Harry Glorikian: </strong>God. Now that you mentioned it, I sort of missed some great places I've been in Berlin, so, Oh my God. Well, there's this one place I remember I walked down the street. It was a beautiful sunny day it's it was near the, like a river and. Just the greatest beers. We're all like, Oh my God. Yeah. So let's not go there, but we're supposed to be talking about data and how it's changing healthcare, not beers. But tell me, tell me about, you've got this new position at Roche. You’re head of pharma informatics international. What does that—has that role ever existed? What do you do and what does that mean? </p><p><strong>Angeli Moeller: </strong>Yeah. Thank you so much for asking, Harry and, and the funny thing is you and I were talking just before I took the role, then just as I took the role, and now I've been in the role for eight weeks and we get to, to now have some more coherent answers and what that looks like.</p><p>So the role did exist. It's pharma international informatics. So within Roche Pharma, we have an informatics teams. So, so the digital arm of all of the affiliates outside of the United States. So that's our definition of what is the international group, it's everything apart from Genentech, essentially.</p><p>So it's all of our affiliates outside of the U S, and the informatics team within that. We're really then the digital arm of that organization. But one thing that has been evolving at Roche over the past a year and a half or two to three years is very much that it's about, in each of these countries, in each of these incredibly diverse markets, how were we then engaging with the external ecosystem? How were we supporting patients through their journey and different parts of their journey, as they perhaps go from not having a diagnosis to having a diagnosis and then different disease states? So the work is just so diverse. I think that's the thing that strikes me most about the work.</p><p><strong>Harry Glorikian: </strong>So, so how has, how do I say this? How are you thinking about it from, do you have everything you need? Do you see what I'm saying? It sounds like there's quite a bit there and I'm trying to figure out, like, it sounds like there's new tools that you may need to create. </p><p><strong>Angeli Moeller: </strong>Yeah, that's a, that's an interesting question, Harry.</p><p>So I’ll admit I don't tend to focus too much on the tool question. I think that there are new challenges that are, or perhaps challenges that have always been there, but now we're looking at more closely in each of these countries and in each of these patient journeys and for each of these health ecosystems and I think that there are tools that already exist, but perhaps haven't been applied to these challenges before, or haven't been applied in a specific combination before.</p><p>And I think, for instance, what do you do in Alzheimer's disease in these different countries as a patient is before diagnosis, as they go through diagnosis. What is the interaction, not just for that individual, as the first symptoms appear, as they're told the first diagnosis, emotionally and physically, what they have to endure during that period, but what's happening for their spouse? What's happening for the family around them. What is useful information for their health care provider? Who's having that discussion with them? And this just looks incredibly different in many different parts of the world. So I think— </p><p><strong>Harry Glorikian: </strong>It sounds different, period. You just, it sort of describes an entire healthcare experience as opposed to one tiny sliver of a healthcare experience.</p><p><strong>Angeli Moeller: </strong>And I think here first of all, it is a very broad area, so that's accurate. And of course we do have our focus points at Roche. So there are certain therapeutic areas that we're focusing on. I think that what we are really learning and the real strength of the international organization within Roche, but the approach that Roche takes is, is very much about what can we reuse? What can be applied and scaled across multiple countries, multiple disease areas so that we can as efficiently as possible, have the most meaningful impact on each of these healthcare ecosystems. </p><p>And I know that's broad. So let me make it a little bit more tangible. If we're looking for instance in the neurological space, we know that in that space changes in sleep patterns can be really critical. And we know that's true also in rare disease. And we know that that's true in several therapeutic areas and we know it can be an indication of quality of life.</p><p>What can we do and how can we make measurements on sleep patterns. There you go. For anyone who's listening to this on the podcast, he's holding up his Apple Watch. What can we do to really then, to understand how is that quality of life progressing? And, and I think there are these reusable components that really apply in multiple countries in multiple therapeutic areas.</p><p><strong>Harry Glorikian: </strong>So, for those that don't know, Roche is the world's largest pharma company and, and, everybody also may not know that you guys have a fairly large US subsidiary and in Genentech. Can you guys give the listeners a sketch of the drug areas where Roche is most active.</p><p><strong>Angeli Moeller: </strong>Mmm hmm. So in oncology, in neurological disorders, and in rare disorders, so these are all three largest therapeutic areas. And and, I think, this Harry that I also work for the charity Rare-X and and then that, that was one of the things that made it quite a good match with what we do in in the, in the rare space for, for me at Roche.</p><p>So it meant that I had some familiarity with Roche coming in. I think you also know that my PhD was in oncology and my post-doctoral studies were neurodegeneration. So I manage to have in my past done a bit of rare neuro and oncology, but I think as well as you come in/ And that's just the pharma division, the diversity, that was so rich, and that was so much to do.</p><p>I mean, looking at Roche total, beyond Roche Pharma we also have a diagnostics division which is suddenly had a significant impact around the world this year. And that's the other key division within Roche.</p><p><strong>Harry Glorikian: </strong>Yeah, that's the one division I knew well from, being in, I started out my career in immunohistochemistry a long time ago.  We did, I had, I had a consulting firm that really it would either would take a hard look at Roche or would help Roche think about what they were going to do. So which one of those areas that you talked about do you think is going to be most transformed by the impact of the combination of AI and all of its tools that fall under it and the data that you're able to accumulate. And I know that we're doing better on data accumulation in certain geographies, rather than other geographies, but hopefully it's a heterogeneous population and we might be able to start to see patterns that we can utilize in more in certain places than others.</p><p><strong>Angeli Moeller: </strong>Yeah, thank you for the question, Harry. And I have to admit, it's a question I get asked, quite consistently, where is artificial intelligence, where is data science, where is data generation going to have the biggest impact. And I was reflecting that I think my answer changes. So, if somebody was to put together all the recordings and interviews I've done in the past year, I think my answer might evolve.</p><p>Because, I'll be honest with you. I'm sure you have the same, Harry, because I've listened to your podcast. It's moving so quickly, places where we didn't expect to see impact, suddenly an amazing new discovery is made in, in machine learning or deep learning or in another space in data science that says something we thought we couldn't do now we can suddenly do. </p><p>I think for me, what's going to be most impactful for healthcare systems, for global economies, for patients, and for doctors is really what can we do to the patient that will also be meaningful pre-diagnosis. So that's a question that we're asking ourselves. What can we do that will really be a signal we can detect in very complex data sets. I mean, think of the watch you have, I have the same watch. We have other similar wearable devices which are penetrating the market, and we also have electronic medical record data becoming increasingly accessible. What can we do at either very early stages of diagnosis at very mild disease states and pre-diagnosis states to prevent that continuation of disease severity, to prevent the point where somebody needs an acute intervention or a very serious therapeutic response. So we're really discussing and looking at how do we make the healthcare system sustainable globally, by really understanding how we can use data science and detections and patterns of the data to really have those early interventions.</p><p>And the second shift that I'm seeing is also on real focus on quality of life and all of the, the wearable data and the high density data that we have now which is collected outside of a clinical setting is giving us a much better view on what does quality of life really look like. So how is that patient or that individual really doing outside of the clinic?</p><p><strong>Harry Glorikian: </strong>Yeah. And it's interesting, like, when I think about all these different parts that are being impacted by data, historically, we've, we've looked at them as different silos. So we treat them as they are like, I'm in this room today and I'm in that room tomorrow and I'm in that room tomorrow. And I, I'm not sure if everybody understands that the data actually coalesces the room. In other words, if I start to see somebody that's in early diagnosis, being diagnosed early, first of all, what data analytics platform do I put there to capture that? But that information might indicate that either a therapeutic regime or a clinical trial might be relevant.</p><p>So that bleeds with what you're doing and might also influence drug discovery. Right. And then the outcomes, data of how we manage you. I mean, I think of it like Google maps. If there's not a constant communication between all the points that are moving around live on the map, the map can't rejigger itself to tell the next person, how long is it going to take you to get from point A to point B? I mean, the map is a little simpler than what I'm saying, but it's having all the data sort of swirling in an ecosystem that can share and be accessible at one time. Maybe I'll see that in my lifetime. I'm not sure.</p><p><strong>Angeli Moeller: </strong>I think here, so back to the question you asked before, which is, where might we see earliest impact, I think the rare disease space is moving very quickly, because of need, because of really critical need. And also because the patients themselves and their caregivers, it’s parents, as these diseases often affect young children, are really actively promoting data sharing, actively asking for data sharing and putting out that data into platforms where it can be accessed and shared because they want to drive forward that conversation.</p><p>And in some of the Rare-X discussions we have, so we have discussions with different partners who want to work with us in the charity Rare-X on how to study and analyze that, that patient data. So we go out to ultra rare diseases and also to some larger disease communities. They've normally been creating their own registry. Looking after the data themselves. We host the data. We connect the data. The data stays patient owned, continuously throughout, but we give them the tools to make it really easy for them to withdraw or give consent at any time during that journey and also forever so that, they can change their mind and say, no, I want to withdraw consent or yes, I'm happy to continue to have this data available.</p><p>So we try to put all the power back in the patient's hand. And here, itt's really then—we have debates, I've been sitting sometimes in an hour long debates. What's most valuable. Is it the electronic medical record? Is it the patient-reported outcome for the natural history study? Is it the genomic test thing that we can offer on top in our collaboration with the Broad Institute? Is it the wearable data that we can collect and able to detect if a patient's going to have a seizure or not? And I see you smiling. Cause I think you agree with me. It's all of it. </p><p><strong>Harry Glorikian: </strong>I was thinking of the multiple choice in where the bottom one, it says all of, all of the above. </p><p><strong>Angeli Moeller: </strong>Exactly, exactly. And I think that's I understand why this question keeps coming up because people have to know where to invest and where to invest at which time. And as somebody who spent a lot of time in academia before, I think that's why there's a lot of value in defining which scientific questions you want to ask and then prioritizing which data you're going to clean and collect based on that. But at the same time as this field emerges, we're seeing there are more questions we can answer that perhaps we didn't even have in our minds when we started to collect that data.</p><p><strong>Harry Glorikian: </strong>And if, it's interesting, right? So I was talking to Joel Dudley at Tempus, right. And one of the things he said is, well, you get a sample. We do everything we can do on that sample. Even if it's not going to be used right this minute, we know that that is going to play in the symphony that's being created like, maybe French horns. If we had French horns, we could like, this would sound better. Right. And everything that I'm finding in the data space is, yeah, we do our analytics. We look for a signal, but if we could add another component to it, it gets, this gets better over time. This we're adding to it. It's like trying to determine whether based on one marker, which is impossible, you have to look at, hundreds of things that are happening to be able to, and they don't even do it well, even with the with the hundreds, but let's hope we do better, better in healthcare. </p><p>But let's jump, jump back for a minute because when you were explaining your, your background I mean you're a unique duck in a sense, right.</p><p><strong>Angeli Moeller: </strong>Duck?</p><p><strong>Harry Glorikian: </strong>And like, I mean, it's not many people that have all these different areas. Plus the data science in one individual. Like, I think we need to rewrite the curriculum because we need more like you, if we're going to make the advances that we're having. But, How did you master all these new fields? How did, how did it, did they just fall into place? Did, how did you come about going in that direction? Because I'm hoping some young people might listen to this and think, Hmm. I get this question all the time: Harry, what should I study? I'm like, Hmm, not sure. You should definitely understand computer science and you should understand finance. And then you should learn how to learn, is my last one, because it's ever changing. But how would you, if you were giving somebody advice, the younger, maybe you what, what would you say?</p><p><strong>Angeli Moeller: </strong>I mean, I mean, very similar. How are you making me smile low? Cause you were calling me a duck today. And I know when you and I were at JP Morgan earlier this year at the virtual JP Morgan, you referred to this profile as mutts.</p><p><strong>Harry Glorikian: </strong>Well, it's true, right? I mean, actually it's funny because I gave my kids this book called Range. Because I was trying to explain to them, being super deep in one area. Like that's great if that thing lasts forever, but having range allows you to think about a broader area that, and what we're finding is that area that we didn't think it mattered, actually matters. And if I was only deep in this one area, I'm not going to see the, how it's all coming together. </p><p><strong>Angeli Moeller: </strong>Yeah. And I would definitely support that and agree to that. But also, and I do go out to universities, a lot to either do mentoring with students or do careers talks and I think, I always say, you've got to love what you do. You spend so much time at work and it can be such a big and rewarding part of your life that normally the first thing I say is, do something you absolutely love. And then I say for me, that happened to be this, and that's why I do this.</p><p>The other reflection on. So, yes, I have switched fields quite a few times and that can be a pro and a con, but in the end, it's my personality. Right. And I think also people know this when they hire me. People know this when they work with me. So I know that when I started off choosing what I wanted to study, I guess the one red thread is it's always been healthcare. So when I was at school, I was thinking Médecins sans frontières, and I was always thinking, what can I do in healthcare, in that space? And at the age of 16, I was volunteering in an emergency room back in England, just thinking, okay, I've really got to do something that's, that's helping patients and that's really focused on that. And then and then at the time, being in Newcastle in the North of England, Dolly the sheep was happening. And it was, it was a time, and that wasn't happening far away. That was just in Dundee. So a couple of hours drive and. And so I, I just thought, yes, this is something I want to be part of, I don't know what it is, but I want to be part of it. So it just began with a commitment to genetics and biochemistry. And then when I turned up at university on my first day, they said, we've transformed that into a molecular biology degree. It's the first time we've had that degree and you’re our first student, and three of you. And then after that, as I, went into my PhD it was again, okay we’re going to work in single chain, antibody engineering and nobody thinks that these re-engineered antibodies will ever make it into humans. We're going to start, but we’re a long way from that.</p><p><strong>Harry Glorikian: </strong>But that's the funnest part of this stuff, right? Like, I don't think I've ever done. I, and sometimes I think I'm crazy is I don't think I've ever done the same thing twice. It's always some left turn, right turn, building on what was there. But every once in a while I'm like, you're a nut case, you're just making your life so much harder. There's something new to learn every time, but I can't help myself. </p><p><strong>Angeli Moeller: </strong>Yeah. And I know Harry from talking to you before that you have this personality as well, but I have to say I have full respect and would also encourage somebody who has a consistent passion that they want to stay with and something that is in the same field. And they say that this is what I want to do forever. And I have a lot of friends who pursued those sorts of career paths and find them very enriching. So I would always say, do something you love. I mean, f or me then as I moved into neurobiology and as we started to have IPS cells and be able to differentiate them into neurons, I remember that moment in the lab and how exciting that was.</p><p>I think I just feel so honored because if I look at single chain antibodies, if I look at IPS cell differentiation, if I now look at, where as we start to, to really capitalize on this machine learning revolution, I feel like for my generation, I've been just really lucky to be at the right place at the right time and have those opportunities to be part of what to me are some of the major milestones of my generation. And maybe that's not very scientific.</p><p><strong>Harry Glorikian: </strong>No, I mean, I, I totally agree. I mean, when I try to explain to people, I'm like, well, this is happening. And then we went from this to this, and it went in this period of time. The problem is, is most people don't understand like what the timescale was and what the timescale is and what I can see the timescale will be. Right? And the impact is. And the science is just like, we can do what, like we did, what? I get super excited and everybody around me in my house goes. Again, with this healthcare discussion, like, can you, can we talk about something else? But… </p><p><strong>Angeli Moeller: </strong>I’m having those same discussions at the dinner table, but I think the one thing, and maybe building on the theme, things you and I have in common, is that is now the excitement of connecting that to something that's sustainable. And that sustainable also means that it's working economically and financially, and that it becomes sustainable, and that's the journey that I would say I'm now very much thinking about sustainability. And, and how do we make sure that this innovation to patients really becomes sustaining, moves past academia and moves past the lab and moves past the computer and the algorithm, and really becomes something sustainable in terms of delivery to patients. </p><p><strong>Harry Glorikian: </strong>All right. Let's, let's dig into that a little bit because I mean, I think you're,  you're part of this group called the Alliance for Artificial Intelligence in Healthcare and, and you're the treasurer. So I don't know how you have time for all this stuff. Like, wait, let me get the spreadsheet. Let's see how much money we spent. No, no, we gotta make that system work and it's gotta work for those patients in wherever. I don't know how you have time for all this. But what's the, what's the, what's the origin story of the Alliance and, why are you so passionate about it?</p><p><strong>Angeli Moeller: </strong>Yeah. And I certainly am passionate about it. So we, when I was in my former role at Bayer we started on on our digital transformation journey there. And I was invited to lead the work stream on artificial intelligence, so, for all of the, the pharma division across the pharma division, and he I, I started to just think, okay, who's moving this area who I might know already. Who's doing what in this area? Who could I talk to? And Naheed [Kurja], was somebody who's the CEO of Cyclica at the time. And he and I had recently had lunch. He'd just been in Berlin and we just had lunch. And I saw online that he was attached to a post about the Alliance for Artificial Intelligence in Healthcare, and they were just brainstorming what that could be. And so I pinged him and I said, what is this? Can I get involved? What's going on here? What are you trying to do? And that was three months before the JP Morgan in 2019, which is where we launched. So we had a three month, very intensive period in deciding who we were and what we were. </p><p>But the frustration and the opportunity that led to the AAIH was there were quite a lot of extremely technical CEOs in the health tech space who were meeting constantly, who were all at the same conferences, who were always all together, and who were seeing a lot of confusion around the topic of artificial intelligence in healthcare. And were feeling that they were constantly having the same conversations, that they were constantly trying to push past the hype cycle into something more tangible.</p><p>And they, were also seeing a lot of companies coming up with the .ai and, and not much else behind them. And so they were seeing this trend, they wanted to shift the conversation into something more concrete and more grounded in good engineering and good science practices. So this was their driver. And my driver was, I want to learn from you guys. I want to learn from you guys. And I think that you're wonderful. And then in that spirit, and as we come together now, where we're about 45 companies, that was the: this is bigger than any one of us. This is more important for the movement of our industry than any one company than any one individual. And we really believe so much in that. We believe that patients are missing out on innovations they could use today because there's so much hype and so much confusion around artificial intelligence. And it's taking away opportunities from patients because they're not getting access to things that could help them just because of this fog of confusion. And we felt so strongly about that, that we put it above our company roles and we decided that we would together found this organization. And it’s been an honor to be… </p><p><strong>Harry Glorikian: </strong>So let's talk about the, let's talk about the impact of this. Cause I always think to myself, all right. So two years ago when I said AI, people were like, huh? Right. Now, when I say AI, it seems like if every CEO is not talking about or implementing something in AI, they're behind and, we're starting to get to the point is if you haven't already put something into place, you are going to be so far behind. So the curve of, it forever for some things to come up that curve. And now this one seems like it’s crashing  in on itself. From a timescale perspective. I mean, where do you guys see the organization having its largest impact, so that you can do what you want to do, which is get these products or services or both into either an organization or that's going to have an actual impact on a patient, right? Assuming that the organizations you're trying to get it into or already trying to do this themselves. Right? So what's the overarching—how are you going to do that? </p><p><strong>Angeli Moeller: </strong>Yeah. Thank you so much. And, and it's actually very timely you asked, Harry, because we just had our strategy workshop last week as well to have a refreshing and a good look and have an intense discussion amongst our board of directors about how we see our strategy. </p><p>So one piece which won't be surprising to you is data sharing. So data sharing and to talk to regulatory bodies about how we can incentivize data sharing in specific areas. So you may know that Roche, our clinical trials in the COVID space, that we shared the data from those trials. And we do see that that's happened in other specific areas. So we want to work together with regulatory bodies to really incentivize data sharing, particularly where we see an acute need, and also sharing of models. And models that can be used to bring new solutions to patients. So to have more open sharing of algorithms that are developed, but in a sustainable way. So in a way that still allows the innovation to be rewarded for the individual companies and the individual data scientists who are doing that innovation. So we're looking at how to make that sharing possible, but also sustainable.</p><p>The second part that we work on, which is a lot of our, a lot of our man hours, let's put it that way, is working with policy makers, business leaders. Healthcare professionals on myth-busting. So we just spend a lot of time doing educational sessions, on preparing webinars, on running conferences, on going, even doing smaller sessions to really answer questions. So we're so lucky that this is a growing expert community. And and that also our founders are fairly strict in, in the technical excellence and in what good engineering and good data science looks like. And that means that we just want to go out there and be a resource, to also take away fear, to take away misconceptions around artificial intelligence, to maybe move away from the HAL in 2001: A Space Odyssey to, this is just something in your smartphone and you can rely on it. So that's a really big part of, of how we spend our time. </p><p>And then I think the third part, which we're really looking at very tangibly and which may be a new thing for us this year as an organization that's now getting a little bit older and a bit more established and a bit bigger, is we want to run some joint projects together. So we're looking at which joint projects. Basically we just looked at each other around the table and we said, we have some very smart people here who I'm privileged to look after the finances for, but we sit around the table. And I imagine if we all took a very important challenge, a very important healthcare challenge, and we all worked on it and we took all of our great data scientists and all of our great biologists, chemists, cloud engineers, such a mix of diverse talents. And, and then we just really worked on a very important challenge together. So that's the angle that we're really looking at this year. </p><p><strong>Harry Glorikian: </strong>Well, being on the investor side, that sounds like a roll-up, like an incredible company. But it also sounds like you guys are developing or want to develop something like GitHub where, there's a repository of algorithms already available to people that they can use. The data sharing, everybody's not super good at that. COVID was an incredible exception. I don't think I've ever seen data sharing like that before. But I'm not sure that how much it's going to continue when the world is not being threatened. </p><p><strong>Angeli Moeller: </strong>And I think, I think on some topics you do have to already now be starting to make sure we've got things in place to keep momentum. So Paul Howard from Amicus, he and I did an AAIH panel yesterday evening. And this was one of the topics we intensively discussed. I think here, with the library of models. So that all great things on GitHub, I don't want to make a new GitHub. I mean, that's all great. It's more about working on what is validation look like and what does good look like and how do we have a repository of validated models that are of a standard that would make a regulatory organization happy? And how do we build up that library? So that's really where we're shaping the conversation. I think, I think for ure academic brilliance, there's already repositories out there. There’s already great libraries out of that. </p><p><strong>Harry Glorikian: </strong>I was going to say to you, I think, I think, well, I'm going to add one more thing in your career. You're going to need to write a book based on this All your experiences, </p><p><strong>Angeli Moeller: </strong>All right. So hat would we call the title?</p><p><strong>Harry Glorikian: </strong>No, we'll come up with something. Listen, I'm working on number three right now, so don't worry, it's totally doable. Let's jump to, to, Rare-X. So you're Roche, AAIH, Rare-X. I thought I was doing a lot. You've got me beat hands down. And you have a life. I mean, let's, let's add that to the table, but what drew you to that organization? </p><p><strong>Angeli Moeller: </strong>And you can see today, and Nicole Boice is going to be so proud of me ‘cause I know we're being videoed, but I'm also wearing my Rare-X sweater. But what drew me to it? Well, I was visiting Anthony Philippakis at the Broad Institute. And and he and his organization, are part of the AAIH, and we were talking about informed consent, which is one of my pet passions. How do you make informed content manageable and work for all parties involved? And he, and and Morry Ruffin who also helped found the AAIH. They said, you've got to meet Nicole Boice. And I hear this story. So often people are taken aside somewhere and I told you've got to meet Nicole Boice. And Harry, if anyone ever says this to you, the answer is yes, please. Oh, it's the founder of Global Genes. And now sits on the board for that organization. And and she's also our founder and CEO at Rare-X and she's worked in the patient advocacy space for rare diseases for most of her career. And for me, Nicole is a moral compass or she's increasingly become that because every time we're talking about what we could do together, and as we talk about sustainability, and there's often a time when you can look at short term gating and also short term revenue, and Nicole is the person who in every conversation brings it back to, what does this mean for the patient? What does this mean for that parent, for that child, for this rare disease community? And I value what Rare-X has brought to my life and to my career so much for that for just being within network of people who ask themselves that every day and for that to be trained and to become such a big part of my life.</p><p>The solution. I mean, the reason I started to get into it is that I really liked the technology as well. Right. As much as, as much as the commitment to the goal. So it was a, it was a few things I cared deeply about coming together. The platform is based on Tara Bio. You might've seen recently that Anthony's group got an additional investment from Verily and Microsoft into their Tara Bio platform. And the way that they've set it up with the different modules means that we can go out to these rare patients. We can help them host that data, but they always see their own data. So they can always see how they doing in comparison to an aggregate of other individuals with similar phenotypes, with similar genotypes, with similar clinical progression. </p><p>And for a lot of the ultra rare disease patients, they find out or rather their parents find out they have a mutation. They try to find out what does that mean for life expectancy? What does that mean for breathing problems? Sleep problems? All of the symptoms look so unique that they're seeing in their child. But then they can also map to other phenotypes and other families who are similar phenotypes and who are also then seeing what treatments are effective. And they can see that in an anonymized way and it can start to give clues to them and their health care providers for these very ultra, even N of 1 diseases that are struggling so hard to find what is the right treatment path for me? </p><p><strong>Harry Glorikian: </strong>Well, I'm going to, yeah. I mean, I've spoken quite a few times to Robert Green, who's done BabySeq. Right. And I'm actually, I'm going to catch up with him next week. But you can see as you're looking at this, first of all. And Sharon Terry, right? And you start to understand that the power of the technology is the N of 1 is no longer the N of 1. Right? It's, you may be geographically the N of 1, but in an aggregate you can get more of them in one place. And as soon as you can see more than one, it's better for us to try to figure out what's going on. I remember when,  one of the people that Applied Biosystems sequenced their own kids and found what was wrong and was able to give them an over the counter drug that made a huge difference in the person's life. Right. That was sort of the first shot across the bow. Now I think it's taken the rest of the world for forever to catch up with what I think was almost,  15 years ago. Right. I mean, it's a long time. And the system you're describing of being able to look at myself along other patients, shouldn't that be standard of care, like for everybody, every boddy who has cancer or anything else. </p><p><strong>Angeli Moeller: </strong>And then Harry, I mean, you really getting onto the vision of the future and where all these things fit together for me, because, with the AAIH, then, you can start to have the conversations with patients and healthcare providers and policy makers to create this shared vision to talk about the practicalities of, if I imagine my parents having this information on, on their health care journey, and then they need to understand that it needs to be in a digestible way, but their healthcare professional has to be open to talking to them about it. Even though they don't have an acute disease, they have to be open to saying, let's look at this data together. Let's think about what it can mean about you as an individual, not you as an average person who has, in the case of my father Type 2 diabetes, but you as an individual and how to your phenotypes, genotypes and clinical progression look on an individual level when we look at your data compared to the aggregate.</p><p>And I think with Rare-X, one is before I'd worked with Nicole, I hadn't worked in the rare disease space before, so there's so much about that space that I had, but it's also, the patients are so engaged because the need is so acute and they really understand the value of that data and the value of having as many researchers as possible looking at that data and being able to integrate that data for meta analysis. And they're so engaged on that journey with us that I think it's an opportunity to showcase what that could look like in a faster way, in a more tangible way. </p><p><strong>Harry Glorikian: </strong>Well, it's interesting, right? Because you are talking about children and patients parents aren't. Yeah. They will do things for their children that they might never do for themselves. So that's that's always a driver but, we talk about rare disease and I, I know that we're talking about, like, I think we're, we should start calling it the ultra rare disease, because if we look at breast cancer or neurological diseases, every one of them is going to go down a different branch and there's going to be subsets.  And they're all going to be a rare disease at some point. I just, I can't imagine that we're not going to get better and better at targeting something. And then maybe thinking of combos because it's different pathways we need to hit at the same time. And I don't know how we're going to do that without some level of artificial intelligence and, the entire toolbox that comes underneath that, that can help identify that.</p><p><strong>Angeli Moeller: </strong>I mean, I completely completely agree. And I think it's just about, the problems are there already. I mean, now I know your background's in immunohistochemistry Harry, I can, I can get into it, but I come from proteomics. And if we look at…</p><p><strong>Harry Glorikian: </strong>Way more complicated.</p><p><strong>Angeli Moeller: </strong>I mean, you've got, I've got all the information at a genetic level. Then I've got all the transcriptome information, then I've got all the proteome information. Then I've got every single post-translational modification on top of that proteome, I've lost your whole audience now, it's hard. That's why I went to use these tools in the first place, because, at that level, every cell is extremely unique. Never mind every human individual. </p><p><strong>Harry Glorikian: </strong>Yeah, no. I remember when we were at Applied Biosystems. Okay. We're going to do the genome. Oka,, I was like, all right, chemistry, we can do that. Like, that's not a problem. Right. And then somebody said to me, and our next thing is, we're going to do the proteome. And like, we're going to do what, like. I went to my wife. I'm like, I think I should sell some stock, because this is going to be really hard. Right. And look at how long it's taken us to just start to scratch the surface of that whole, methylation and this and that, and trying to bring all that information together. It's trivial.</p><p>I still think there's low-hanging fruit just on the genomic side. I mean, let alone everything else. I do believe like one of the next big areas is going to be spatial genomics, like basically immunohistochemistry, but looking at it from a, which cells are lighting up and how much gene expression and what's going on in that space and being look at it relative to other cells. I mean, for me, that's just molecular immunohistochemistry. </p><p><strong>Angeli Moeller: </strong>Yeah. And, and I think, I think that, the actual tools that you need, and here I'm talking about laboratory equipment, the actual quick pace as well, at the same time, the, the algorithms used by system biologist developing. And I think when you add onto that, okay, that complexity at the cell level, the complexity you have now at a pharmacometrics level with all of the different organs in the body, talking to each other and what that looks like, and then you bring it up to the complexity of our population level. And now you asked me, I think it was the second question you asked me is, how did I come into the informatics space? And I would say here. I'm not that old. Right? So I'm 37 and I would, I always tell people at the time I went through university, there was no molecular biologist in the lab who wasn't also doing bioinformatics.</p><p>And I see the same now for people doing marketing degrees today, or people doing other traditional degrees in many different areas. I think informatics has now become part of every profession. And I think that, you can do a marketing degree, but it's going to have digital marketing, and it's just going to be inherent and you can do an MBA, but it's going to have a lot of big modules which are going to be focused on informatics. And you can become a biologist, but you're going to do a lot of big modules on informatics. And that's just the nature of where we are today. </p><p><strong>Harry Glorikian: </strong>Well, just to put it into a timescale, and I would say I'm a, I'm a little bit older than you. Not that much, but just a little bit older than you. And I would say that, when we were doing the genome. We're like, we need this bioinformatics, right? It's like, what the hell is that? Well, get the comp sci guy and get the biologist, put them in a room and have them figure it out. And they could barely talk to each other. Right. And that wasn't that long ago, relatively speaking. So it's interesting. I always wonder, like the university curriculums are not, I don't think they're keeping up with the pace of what needs to happen for us to keep this momentum going? Because like you said, everybody has .ai. Well, I start digging under the covers and I'm like, you don't have what it takes to do what you're saying you're going to do. You don't have the people, we haven't graduated enough of them. So to keep that momentum going, I think we really do need mutts t o come out of the woodwork because otherwise I don't think we're going to achieve that next level of, of growth. I mean, we keep taking physicists and putting them into this area because they're so good at the math. I think we need a physicist crossed with a biologist, not just one or the other, because they don't, sometimes they don't think about the problem, the way that they should. I'm bringing my biases into this, but….</p><p><strong>Angeli Moeller: </strong>I love the diversity we have in the Alliance for Artificial Intelligence in Healthcare. So, there are astrophysicists there. There are people with MBAs. There are chemists, molecular biologists like me, pure computer scientists. I think that often the slight differences in the way we approach a problem, how — we also have public affairs specialists and lawyers — and the slightly different way we approach a problem often is what helps us find the solution to that problem in the end.</p><p>I think, though, the one thing I definitely don't underestimate is the value of hard skills. So I think I been, I'd love to hear your thoughts even on this Harry, but as digital, as we move away from the roles that we've just learned and know and accept, I'm a molecular biologist, I'm a bioinformatician, I'm a chem-informatician. These are things that mean something very tangible to me. There are now a lot of job titles with digital in them. I'm a, I'm a digital lead. I'm a digital officer. I'm a digital transformation officer. And I think, I think there, in trying to pick a  way in the same way we have with the .ai. What does that mean? And what are you going to do? That's it, that's an interesting question for the industry, right now. </p><p><strong>Harry Glorikian: </strong>No, and there's very few people that I've spoken to where I'm like, Oh, this person gets it. Like this person really understands it. Right. And they understand it at a level where I'm, I'm struggling to just keep up with where they are. And that is the, the re not tens of thousands of those. Right. There's, there's few of those. And I'm not sure talking about just the machine learning of the AI. That's just, okay, great. I can go to Silicon Valley. I can find a 2- year-old that can, righ, probably run circles around me in that sense. But that understands how some of these pieces are going to come together, how they need to think about the math differently than just taking what was and slapping it on there. I mean, in some cases, and I'm talking to somebody about this now is, some of the math we're using is just old, and it was we're using it because that was as good as they could do at that time. Well, we have this thing called a computer now. Like we should be able to, like, improve that math to a certain degree to actually come up with a new mathematical pathway to this problem. And I'm reading a whole bunch of papers right now so that I can continue my debate with the individual, but this whole field is changing so rapidly that every week, I'm having a conversation that I'm seeing it move forward. The problem is, is I don't think the existing status quo can keep up with the how quickly it's moving.</p><p><strong>Angeli Moeller: </strong>And Harry, sometimes I’ve felt like that. And and again, if you put all my interviews side by side, I think you can see the days when I felt like that. But I'll be honest, I was having this discussion with some colleagues just this week, and I think the emotional intelligence that most senior leaders have, will get them through whatever comes, whatever digital, whatever machine learning, whatever informatics brings. Because, you, and I know you're not going to have a team of 50 fresh machine learning graduates producing something immediately fantastic, patient-centric and commercialization, and that we're going to need seasoned leaders with good business acumen still playing a key role and critical role there and the skills that are taking them through every other twist and turn of business life are still going to take them through this next digital transformation and also mean that they can really unlock the power of what machine learning and other new technologies can bring in the same way they did           when single chain antibodies came out and when pluripotent stem cells came out and they used the same emotional intelligence. </p><p><strong>Harry Glorikian: </strong>I agree. And I disagree. Right. I agree because I totally understand the historical  line that you're drawing on the biological technologies. I think that leaders need to be really looking at what tech is doing, how quickly tech is advancing, what are the, the arcane things that are going on there that they, they is not even in their view on a daily basis, and then be able to superimpose some of those what's going on there into our world to actually see how this is going to happen. Or what's going to change because I do think that there are things that are happening there that people in our world don't fully understand the impact of, which I think is, is the coolest stuff that's going on. </p><p><strong>Angeli Moeller: </strong>How many of our colleagues audit the new Nvidia graphics card and understood what that could mean for healthcare? </p><p><strong>Harry Glorikian: </strong>Well, it's also just trying to, I mean, I remember the impact when we were at Applied Biosystems and, Intel released a new chip and all of a sudden we could do 72 hour unattended sequencing. We had nothing to do with that. We just took the chip, plugged it in and off we went. Those changes are happening….I'm having trouble keeping up with some, I don't know if you saw. Samsung is releasing a new memory chip where it'll have AI machine learning capabilities on the memory chip. So if you start to rethink the architecture of the computing platform and then superimpose that on what we're doing, there are big changes that are coming, that if you talk to people in our field, they're completely unaware of the, how quickly it's coming. And so as a leader of an organization, you need to preplan for some of that, right? Otherwise you can't absorb it. So that would be my 2 cents. </p><p><strong>Angeli Moeller: </strong>We're really getting into it Harry and we're probably going to have to do another recording. But I mean, I think it's about the mindset and, and sometimes, I'm like, it's about the hard skills. Because you can't get away from the hard skills. There are hard skills you needed in your organization. So let's say that's a given at the leadership level, it's been, the mindset becomes even more critical because it's about, I think with software it just moves so much faster than drug development, clinical development than pharmaceutical development, it just moves so, so, so much faster. And even what we would call a traditional IT project where you choose the solution, you roll out a solution, it's there, you don't retire a solution as you roll out the next solution, anyone in the software industry, nobody thinks like that anymore. Maybe they did 20 years ago. And it's about, how do we prepare for the fact that everything is replaced the second that goes live and how do you prepare everyone to be comfortable with that. That I'm going to have DevOps, I'm going to have my data science plus it's going to go and have a new release every two weeks based on what there I immediately get from the end-users. I'm not going to ask the end users what they think, but I'm going to have different metrics that the software immediately picks up to see how they like it, how they use it. I'm going to throw out features to this group and do AB testing. I think.</p><p><strong>Harry Glorikian: </strong>Yes, but this is why I think we need to have skunkworks areas that can move this thing forward, but also a leader that can understand the implications of if that's skunkworks is successful what is the implication on the organization?  And that's hard in a big organization, right?</p><p><strong>Angeli Moeller: </strong>Yeah. I mean, absolutely. I can, I can see challenges, but I've got to say, I feel, I feel really optimistic. But people understand, what it can mean to have an agile transformation at an enterprise level, and also about what sort of mindsets are going to keep them safe during this journey.</p><p><strong>Harry Glorikian: </strong>Yes. I think it, again, leadership sets the tone, right? As an investor, I'm looking for the Series A guy, right, that's going to. Revolutionize something. Right. And it's 13 people, right? Or 15 people. It's, it's not, 5,000 people, right? Hopefully, maybe the organization will grow to that much. Although I think, I don't know if you ever need that many people anymore to change the world. It's I think it's a smaller group.</p><p>But look, it was great to talk to you. I wish we were actually sitting at that bar. Right behind you and able to releax. Cause I have not left this room, I don't think since last March. But it was great to catch up with you. And I look forward to continuing the conversation. </p><p><strong>Angeli Moeller: </strong>Absolutely. Harry, and it was always a pleasure to speak to you. Thank you so much again and have a great rest of the day.</p><p><strong>Harry Glorikian: </strong>Thanks.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
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      <itunes:title>Geeking Out about Data with Roche’s Angeli Moeller</itunes:title>
      <itunes:author>Angeli Moeller, Harry Glorikian</itunes:author>
      <itunes:duration>00:57:19</itunes:duration>
      <itunes:summary>Angeli Moeller is a molecular biologist, a neuroscientist, a systems biologist, and a data scientist all rolled into one—which makes her a perfect example of the kind of multidisciplinary executive needed for this new digital health ecosystem defined by big data, AI, and machine learning. She&apos;s a founding member of the Alliance for Artificial Intelligence in Healthcare, does extensive work for the nonprofit rare disease advocacy group Rare-X, and has spent almost five years managing global data assets and IT partnerships at Bayer. At the beginning of 2021 she became the head of international pharma informatics for Roche, the world’s largest drug company. Harry caught up with her on Zoom in February, and the conversation started with the role of informatics at Roche, but quickly expanded to cover all the areas where deep learning and other forms of AI and data science are transforming drug discovery and healthcare, and what life sciences entrepreneurs need to do to get on board.</itunes:summary>
      <itunes:subtitle>Angeli Moeller is a molecular biologist, a neuroscientist, a systems biologist, and a data scientist all rolled into one—which makes her a perfect example of the kind of multidisciplinary executive needed for this new digital health ecosystem defined by big data, AI, and machine learning. She&apos;s a founding member of the Alliance for Artificial Intelligence in Healthcare, does extensive work for the nonprofit rare disease advocacy group Rare-X, and has spent almost five years managing global data assets and IT partnerships at Bayer. At the beginning of 2021 she became the head of international pharma informatics for Roche, the world’s largest drug company. Harry caught up with her on Zoom in February, and the conversation started with the role of informatics at Roche, but quickly expanded to cover all the areas where deep learning and other forms of AI and data science are transforming drug discovery and healthcare, and what life sciences entrepreneurs need to do to get on board.</itunes:subtitle>
      <itunes:keywords>angeli moelleer, moneyball medicine, drug discovery, deep learning, machine learning, big data, bioinformatics, ai, healthcare, harry glorikian, data science</itunes:keywords>
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      <itunes:episode>62</itunes:episode>
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      <title>How Tag.bio Makes It Easier to Interrogate Your Data</title>
      <description><![CDATA[<p>The discoveries medical researchers and drug developers can make are constrained by the kinds of questions they can ask of their data. Unfortunately, when it comes to clinical trial data, or gene expression data, or population health data, it feels like you need a PhD in computer science just to know which questions are "askable" and how to frame them. This week, Harry talks with the founders of a startup working to solve that problem.</p><p>Tag.bio aims to make it possible for any worker in the life sciences sector—even if they don't have a PhD in computer science or data science—to interrogate their data quickly and automatically. The idea is to help them uncover trends or connections in their data that would otherwise require months of work and help from a data scientist or a data engineer.</p><p>The company was founded in 2014 as a spinoff from the University of California, San Francisco Cancer Center. That’s where co-founder Jesse Paquette first invented a system that let oncology researchers ask guided questions of their data without help from a bioinformatics expert. Now Paquette is Tag.bio’s chief science officer, and in this episode, he's joined by Tag.bio CEO Tom Covington to talk about how the startup's technology works and why easier access to data is critical to faster progress in drug discovery and to the whole idea of precision medicine.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian: </strong>In healthcare and drug discovery, everybody’s got data. Knowing <i>what to do with your data</i> and <i>how to get value out of it</i> is the trick. That’s what we’ve spent the last 60-something episodes of this podcast talking about. </p><p>Unfortunately, when it comes to clinical trial data, or gene expression data, or population health data, it feels like you need a PhD in computer science just to know what questions to ask and how to ask them.</p><p>But there’s a startup in San Francisco that aims to break down that barrier and make it possible for any worker in the life sciences sector to interrogate their data quickly and automatically. The idea is to help them uncover trends or connections in their data that would otherwise require months of work and help from a data scientist or a data engineer.</p><p>The company is called Tag.bio, and it was founded in 2014 as a spinoff from the University of California, San Francisco Cancer Center. That’s where co-founder Jesse Paquette first invented a system that let oncology researchers ask guided questions of their data without help from a bioinformatics expert.</p><p>Now Paquette is Tag.bio’s chief science officer. And I’ve got him here today, together with chief executive officer Tom Covington, to talk about how Tag.bio’s technology works, and why easier access to data is critical to faster progress in drug discovery and to the whole idea of precision medicine.</p><p><strong>Harry Glorikian: </strong>Tom, Jesse, welcome to the show. </p><p><strong>Tom Covington: </strong>Thanks, Harry. Thanks for having us. </p><p><strong>Harry Glorikian: </strong>So, I’m trying to wrap my head around Tag.bio and, and all the technical details and everything, but, but sort of, I want to step back and give people who are listening the chance to understand the organization and the goals. And so I'll start with a grand vision question and it’d be like, okay: What's wrong with precision medicine and the way that we're sort of looking at data today?</p><p><strong>Tom Covington: </strong>Yeah, I think first and foremost, precision medicine is at its heart is a bit of a data management problem. There are disparate data sources within healthcare and life sciences, so that to truly enable kind of an N of 1 or small N medicine, it requires the integration of those data types and the ability to ask questions of those disparate data sources.</p><p>And there isn't really, or there previously has not been, a great solution for that problem. As a part of that, given the complexity of the underlying data, there are experts in manipulating and analyzing data, but they are not the same experts that are going to be practicing medicine or advancing science, the knowledge workers in the healthcare and life sciences space. If they have a question that could be answered in data, they have to hand off that question to an expert in manipulating or analyzing data. So data scientists, bioinformaticians analysts, and the like. And that process is slow and human powered.</p><p>And so if you have a question, it can be answered in data, and you're a physician, it may take you one to two months to get an answer. We're trying to take that process and turn it into something that takes two minutes or less. </p><p><strong>Harry Glorikian: </strong>I keep thinking we'll just hybridize them and then we'll have the best of both worlds. But I think that might take too long based on my experience when we first came up with the term bioinformatics, right? Stick two people in a room and have them figure it out. And that, that took a while. But what's not working so well. What's not working as well as it could in this whole life science arena. How do you guys see what you guys are working on bringing that one step closer to being more fundamentally useful and providing value to the industry? </p><p><strong>Tom Covington: </strong>Yeah, so I think the easiest way to think about it is with kind of use case examples. So we were working with a researcher who had published a paper on thymoma, the cancer, and when that was uploaded to the cancer genome atlas, and, theoretically, they had mined this data for all of its worth, we gave him access to the platform. And over the course of the evening and a glass of wine, he found three novel insights in his data that warranted publication in a paper. And essentially what we did was reduce the cost of him asking and answering the question of data. Whereas previously it would have taken him months to ask one of these questions, he was able to ask and then iterate on the questions until he found the right question that generated the right output. That allowed, that was novel. And I think that's the big advantage of this kind of acceleration of discovery that happens via platforms like ours. </p><p><strong>Harry Glorikian: </strong>So go ahead, Jesse. </p><p><strong>Jesse Paquette: </strong>A lot of people are going to look at data problems in the life sciences and healthcare space, and they're going to say, well, the problem has to do with the siloization of data. It has to do with the quality of data. It has to do with the integratability of data, and a lot of cultural problems that exist in the system. And then they're going to fall back to the old adage, which is, 90% of the time of a data scientist or data engineer is just processing the data, working on the quality, getting the data in analysis-ready shape.</p><p>So why we get the question: Why aren't we solving that problem? Well, it's a hard problem. And ultimately what we've realized over many years is that if you're spending 90% of your time working on processing and transforming and getting data analysis-ready, you don't have enough time to do any of the analyses that you really want him to do. Case in point, this TCGA data set. They did analyses, basically what they could, they got published and they wanted to do so much more, but the data has so much value and you have to spend so much time just getting it ready. This is really what we're trying to accomplish and making this data just rapidly. In an assembly of line, sort of an analyzable.</p><p><strong>Harry Glorikian: </strong>Yeah, I'm trying to draw analogies to other things that I see going on in the tech industry, like, codeless sort of programming, where people who aren't familiar with the data analytics side of it can sort of pull different analytics packages or, or scripts that they can use to run on their data without having to know how to code everything up from scratch. Is that a reasonable analogy to make? I mean, the other one that I was thinking of earlier that was GitHub, right. Where people can access these things that are written once by one person, but used by multiple people. So you don't have to always go back to a data scientist and say, do this for me. </p><p><strong>Jesse Paquette: </strong>Yeah, I can, I can take that. In some sense what you're talking about is a marketplace and we do have a longer term vision for being a great marketplace for resources around an analysis of data. So if, if we have a really good turnkey connector to a critical data source, like an electronic medical record or a genomics data source, we can bring that in and people could use our system to build hybrid solutions. In many ways, it's, it's similar to, I think the way JavaScript works with NPM, or R works with  all of its R libraries or Python works with all of its Python libraries. There's this whole world of really useful stuff out there that you can sort of just swap in and out and, and, and make useful.</p><p>And I think our system really does that very well with data sources and data modules that represent algorithms or apps workflows on data. That's a long-term vision of ours. Definitely. I think in the short term, what we're focusing mostly is the low-code system and being able to deploy useful application layers on top of data in such a way that you can just do it really quickly with robustness and security, and then also get to iterate with the end users. It’s very important that you actually, if you're going to build an application for a physician or for a researcher, you have to work with them to make sure that it's really useful. </p><p><strong>Harry Glorikian: </strong>Yeah, that was the word I was actually, it's funny that escaped me. Low-code was the word. There's too many damn new words that I need to keep track of for all these changes that are happening. So your VP of customer, Mark Mooney, said that you guys are solving this, quote “Last mile” of data analysis. What does he mean by that? Yeah. </p><p><strong>Tom Covington: </strong>Yeah, so if you think about it from a physician's perspective, it gets back or scientist's perspective. It gets back to this long lag between making a request, an analysis request, and getting a result. We touched on GitHub earlier. Even if we had something—well, let's say you've got something in GitHub that can be reused by others. How big a population can it be reused by? It's likely, if it's in GitHub, it's likely for data scientists and other practitioners of those arts. For the physicians, the knowledge workers who are trying to extract the insights and make discoveries and data, they need a place where they can actually ask questions. And that's where this kind of low-code application development environment helps, because you can very quickly build and deploy apps that speak the language of the domain expert, and allow them to ask their questions as they come to them, as opposed to having to work with or through a data scientist to generate those insights.</p><p><strong>Harry Glorikian: </strong>But it is the data scientists that are helping build certain parts of this, right? So they're not excluded from the process. </p><p><strong>Tom Covington: </strong>So no, no, they're critical to the process. They basically, instead of most of the time, and Jesse can speak more fluently on this, or eloquently on this, but traditionally, if you have a request, you hand it off to a data scientist, they tend to do ad hoc analysis.</p><p>So they're like, okay, what are, what are the tools that I've got at my disposal? What's the fastest way to generate this answer for the requester? And they will use various scripts and various languages and come up, generate the output. If there is a follow-up question, some of that may be reusable, but not all of it.</p><p>And then the process of extracting, doing a follow-up question can take a lot of time. If the data scientist instead builds an analysis app that allows reparameterization and the ability to, for the end-user, to ask 10,000 variants that have a similar type of question, then they can do the work once, publish it, and then lots of people can use that basic workflow to answer their specific question. </p><p><strong>Harry Glorikian: </strong>So it's basically, over time, any organization will end up theoretically with a library of these analytic tools that then they can use in different variation. And so theoretically then maybe the data scientist can work on more complex issues.</p><p><strong>Tom Covington: </strong>Exactly. The more fun stuff. </p><p><strong>Harry Glorikian: </strong>Yeah. Okay. So, let's go to history, right? You guys started this in 2014. I don't even know if there was a low-code movement happening in tech in 2014. I'm not so sure. </p><p><strong>Jesse Paquette: </strong>WordPress is low-code. </p><p><strong>Tom Covington: </strong>I guess we started it a bit, a bit early. But it was, based on some of Jesse's, his kind of career as a bioinformatician and what he saw as shortcomings within the industry and the ultimate job of empowering physicians and scientists to make discoveries and, find insights quickly. He recognized that this was a constraint in the pace of innovation. And so we, when we started the company, nobody was talking about data mesh. I'm not even sure there was much around low code other than, as Jesse mentioned, in WordPress. But there has been a shift in the past, I would say, in the past couple of years towards data mesh as a an improved solution for data lakes and data warehouses. And low-code is the preferred path forward for developing software applications. </p><p><strong>Harry Glorikian: </strong>Yeah, Jesse. I mean, I think if I remember correctly, you were doing that, you were doing sort of analytics of gene sequence data at Life, right? So is this, is that where you, the epiphany came? </p><p><strong>Jesse Paquette: </strong>Before then, actually. I was working at the UCSF cancer center and as Tom described, I was in a situation where I was working with a number of really talented researchers, these knowledge workers that had interesting datasets, but it all required computational analysis. They were either too big or too complex. And I found myself repeatedly doing a lot of analyses. And at some point I thought,  what? I can start to automate this. I can start to automate that. And I put together a platform for a specific purpose. It's called EGAN, E-G-A-N, which stands for exploratory gene association networks. And it was basically a new way of looking at data as well as a new way of structuring data so that these analyses can be done more repeatedly, and in more of a workflow. </p><p><strong>Jesse Paquette: </strong>And then I went to Life Tech and worked on similar applications. I went to a company called Ayasdi in Palo Alto. That was they, they had a, just a blockbuster algorithm which is, which is still really cool. And they were building applications around that and I was working on their life science applications for them, and it really comes down to the user experience. Physicians, they need to be able to start with something and know how to use it out of the box or with very minimal training. And when they come back and when they have that question again, two weeks later, they want to be able to come right back to the application and use it like they're using email or they're using Google or just like using the, tapping on their phone. </p><p>And, and it was, it was interesting. We started working in sports. And with the sports users specifically with an NFL team, our earliest iteration of our platform, what we had was a very complicated user experience. And we showed them how to do this really cool analysis analyzing when a certain receiver was getting passes and scoring touchdowns. And he said, well, great, but can you do it again for a different player? And I said, Oh yeah, well, I just have to click here, here, here, here, here, here, and here. The light bulb went off and we realized all we should have to do is just choose a different player. That's how it should work.</p><p><strong>Harry Glorikian: </strong>Yeah, but this is sort of like, I should be using it. Cause I'm asking questions all the time about a company or a technology or, and there's all this data behind it that I'm sort of putting together to do my analytics of what makes a good company, what doesn't make a good company. When is a technology on its upwardly mobile curve, right? So I'm, it's not the same type of data, but it's definitely data that I will make decisions based on. So a tool like this, I can see has more application than just where you guys are focused. </p><p>But Tom, your background is mechanical engineering manufacturing, clean energy. How did you two get together and start a bioinformatics company? </p><p><strong>Tom Covington: </strong>Yeah, well, so Jesse and I have known each other for about 12, 13 years now. We played soccer together every Monday night and I knew a little bit about what he was doing. But one night after a match, we often would, go have a beer afterwards. And we started talking about, or he started talking about his idea. And his idea was essentially built on the foundations of EGAN, which he had developed to allow biologists to do some of their own pathway analysis when he was at UCSF. And as he started talking about it, I realized, I thought back to my time, because I was a race engineer for Honda for several years. And we were always generating large amounts of data at the track every weekend and trying to analyze that to improve the software, come up with new algorithms, new ways of controlling the engines. And I was pretty good at torturing the data in Excel, but that was the limits of my capabilities.</p><p>And what I recognized that he was describing was a tool for people like myself, to allow me to rapidly find insights in complex data. And that was pretty appealing. And this is, as you kind of alluded to, is a fairly generic platform. We have aimed it at the healthcare and life sciences space, because from our perspective, precision medicine is a, it's a long described Holy Grail. There are some inherent challenges specifically with the kind of the disparate data sources and bringing them together. And, my wife is a physician at UCSF, Jesse's worked at UCSF, I've worked at UCSF. We kept getting pulled back into the healthcare life sciences space. And so we decided to focus there and we think it's a, satisfying and fantastic opportunity. At some point we may evolve beyond precision medicine, but for right now, we're very clearly focused on precision medicine and the opportunities that it provides.</p><p><strong>Harry Glorikian: </strong>So I like the word tortured, torturing data. I got it. I got it. I got to use that in a few places that, that, that I've always tried to be nice to the data, so it's nice to me, but I'm happy to torture it. And it does sound like there's a more of a generic application to what you guys are creating. I know that that everything requires some focus, but this does look like it could be used in a lot of other spaces that, even if you drew diagrams of, of adjacent areas that would give you that expansion.</p><p>So I was thinking like, what does Tag.bio mean? And I'm thinking, Does, is it based on, Jesse's previous work of tag based analysis? Or how, how did, where did that name come up from? </p><p><strong>Jesse Paquette: </strong>Essentially? Yes. I mean, if we had to, if it had to answer quickly. Yes. I mean, Tom, I don't think has the whiteboard where we drew all of the possible names of the company and started to put together portmanteaus and stuff. I think his kids have long since drawn over that multiple times. We were going for a lot of things with the name. We wanted it to be short. We wanted to sort of not be a name that people had to ask, How do you say that? Which a lot of startups get, right? You try to come up with a really crafty way of spelling something. And then that's your first question is like, how do you say that? So it's clear. And it uses the .bio domain for better or for worse. And it really relates to the concept which we had initially, which was, which I had even farther back going back to UCSF which is based around treating categorical data as sets.</p><p>And, and so it gets a bit into the mathematics of things. And that basically, if we talk about the set of patients who lived versus the patients who died right in categorical data, it's represented as sort of deceased or alive. Right. And, and many times algorithms are just going to look at that and treat them as words, or treat them as, as certain things as statisticians would.</p><p>But if you consider those to be sets and you can start to intersect sets with others, like you have treatment, right? So some people were treated and some people responded well and some people didn't respond well. Some people weren't treated and they responded well or didn't respond well. And all of a sudden you started thinking about that using set mathematics tags is a good concept for that.</p><p><strong>Tom Covington: </strong>Yeah, the simplest explanation is we live in tagged data and we came from biology. </p><p><strong>Harry Glorikian: </strong>So you guys have been working on this for seven years, right? If my, if my math is correct. And that's enough time, for both the product and business model to have evolved. I'm assuming that it has a few times can you walk me through how the platform has changed over time or that how the concept for the ideal customer,  for the platform has changed?</p><p><strong>Tom Covington: </strong>Yeah. </p><p><strong>Jesse Paquette: </strong>Can I, if I could start from the technical side, I don't think that the form has changed really at all. It's, it's exactly what we designed seven years ago. It's just gotten a whole lot better based on all of the, the team members that we brought in to do the workforce, all the things that Tom and I don't do particularly well. We've been able to complement ourselves with cloud architecture people working on projects in specific healthcare or life science areas. But when it comes down to the core tech and how useful it is and how scalable it is, I don't think it's changed. So I'll let Tom talk about the business, because that has changed.</p><p><strong>Tom Covington: </strong>Yeah, we had our original vision was to essentially mirror the worldwide web, but for data. So in a worldwide web, you've got data, you've got web servers, you've got a communication protocol HTTP, and you've got browsers for interfacing with that content. And we wanted to mirror that for data. And so we have data servers, we've got a smart API as a communication protocol, and you can similarly access content on those data servers via a web portal. That concept is [gone, but] the platform has remained the same. What we've learned through customer interactions is how to improve the user experience and around accessing data. And I think that, in, in our explorations, in multiple verticals, speaking about that NFL team, like that really simple kind of aha moments like, Oh, that's going to be critical for kind of any user. And so we've learned a lot from the interactions with customers about how to improve the user experience. So I think from the platform perspective, and the kind of flexibility and generic applicability of it, we have by looking at a bunch of different verticals, initially, we, we learned what was going to be core across verticals. </p><p><strong>Tom Covington: </strong>Part of the reason for the focus on healthcare life sciences is they, on the surface they look pretty different in terms of their data types. But if we have, we've developed a platform that can be kind of agnostic to data types and analysis types. And so, it is well-suited to marrying two disparate types of data together. And so for us, the opportunity of precision medicine is one that. Kind of emerged from those realizations and those learnings from other customers from the types of people that want to use it and the, the, how the businesses evolved. Originally, we started with kind of researchers, people that were not quite high enough in an organization to make buying decisions. We've since learned and we, now approach it a higher level within an organization. And that makes—because this is a concept that requires It's different enough that it requires some vision and some, there are various users within an ecosystem, whether it be on the IT side security side, all the way up to the end user domain experts. And so you, you need to approach at a high enough level of an organization that they can see the vision. And be receptive to the idea that the current status quo is not working well enough and not fast enough. And the cost of answering your question from data is just far too high. And if it is that high, you were fundamentally limiting the pace of innovation within an organization.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, because I was thinking to myself, I'm like, the next level would be like, again, if somebody writes the analytics part that can be reused at multiple organizations, right. That just theoretically speeds everything along, regardless of the data source that it's ingesting. But how did you guys come about this whole idea of like, quote, “analysis apps” and do you guide users to like, this might be the right one for you to click on, to use for this? Or do you guys just provide the platform? </p><p><strong>Tom Covington: </strong>Jesse. Do you want to take that? </p><p><strong>Jesse Paquette: </strong>I mean, there's the technical aspect and then there's the business aspect. I'll talk about the technical aspect and it's something that we're learning about with every interaction we have with a user or a customer. With big organizations there are policies in place they're either formalized SOPs or there are rigid sort of cultural silos and, and things like that. And it, and as everybody knows, even if you have the most useful thing, if you don't Institute some form of change management or training within the organization, you're not going to get the adoption that you need, even if you just have the best tool ever. If you put Google in front of somebody who's never seen Google before, they still might not use it unless you actually turn on their phone and point their fingers at it. And so we do make some effort to onboard users.</p><p>We think it's very useful. We also then get to observe their experience and learn about the naive user experience. Something we care about specifically. And the experienced user is also important. We find that we have some power users who just love our system and they have no problem trying to do all sorts of fancy things with it, to the point where they want more apps. And, and at that point it's, it's up to us or their in-house development team to start giving them some more apps on some, maybe some new data that they need. And it's, so we, we do spend a fair amount of time with our users. Yeah, Tom?</p><p><strong>Tom Covington: </strong>Yeah, I think I'm kind of from a big picture perspective. Like the platform is flexible enough that you can build very simple apps and also very sophisticated apps. So, an example of a simple app would be, how much does this particular drug cost within a hospital system? That's a simple dropdown, any user can see the title of the app and click on it and know exactly what it's going to do. And you get into more complicated, where it may be doing some advanced clustering algorithm, and you've got to select the cohort that you want to look at. But it's the, it's designed so that the data scientist developer of these apps can write them in a way that will speak to the end user.</p><p>So, a healthcare app is going to a physician who is gonna understand that intuitively versus a researcher at a large pharma organization, they're gonna have different data, different analysis needs, their apps are gonna speak their language. And so it's a lot of it is down to, and this is one of our learnings through these various customer interactions, was that we need to enable the building and deployment of apps that speak the language of the domain expert and make it really easy and intuitive for them. When they just, they see an app they're like, “Oh, I know what this is going to do automatically because I can, I recognize the, the analysis methodology, or I recognize the data fields in there.”</p><p>But it's, it's all tied around making the user experience as easy as possible. So there is minimal onboarding. One of the things that other software platforms that allow analyses don't do so well with is the user experience. You've got, just think about something like Excel. If I build an Excel model and then share it with you, you may have questions or concerns about tweaking anything, because you don't know what went into that Excel model. And you can add all sorts of things. You can do all sorts of things. There's all, there's all sorts of functionality available within the front end of Excel. And honestly, there's too much complexity. And even Excel can be over overwhelming to somebody who hasn't used it before. And we're trying to make something that the least sophisticated computer user would be able to understand just from clicking around and trying it and running an analysis. </p><p><strong>Harry Glorikian: </strong>I should start using this myself for all this stuff I try to do. But how hard is it to sell the product, and the big ideas behind it, to potential customers. I mean, do they, do they go like, “Oh my God, I totally get it. Now I'm jumping on this.” Or is it,  I don't want to call it a slog, but how much education does it take for an organization to get this big idea?</p><p><strong>Tom Covington: </strong>Yeah. So it previously has been a slog, because there is enough, it is enough of a shift in the thinking that it takes some time for them to understand and use cases and deployments. Some of the large pharma and health care organizations that we're currently at, it has certainly helped. The other thing that has really helped make things go faster is the recent kind of adoption of data mesh as a kind of a new paradigm for the next generation of data lakes and data warehouses. Domain-specific data products, the fact that other people are talking about that.</p><p>And then, we essentially built to that seven years ago, has certainly made things easier. It's, there's less education that has to happen from us respective to a customer. Also low-code, that is something that, for the most part you can just say, and that people kind of intuitively understand because there are other examples in the marketplace. And so I think that, we started the company pretty early relative to where the market was. But now the market is kind of catching up in terms of understanding the core concepts. And so that has made customer acquisition a lot easier. </p><p><strong>Jesse Paquette: </strong>I'd like to add one more thing. So we've been talking a lot about end user experience. And that's been our primary focus from the beginning. Over the last couple of years, we have learned about a second domain of user experience, which is equally important, which is the developer experience. And we've always been trying to support our internal developers and our collaborator developers and our customer developers but working on improving their experience.</p><p>So if they're data scientists, they should be able to work natively in R and Python to develop on our platform, they should be able to bring in their own algorithms into our platform in their own visualizations. If they are more of a front-end application developer, they want to use JavaScript. And they're okay using the JSON low-code templates to configure the platform and the data nodes. If they're data engineers, they're going to be working on the data plumbing layer, and we need to have a very good API system and set of SDK software development tools, right, for mapping the data in, from the, the, the state-of-the-art data platforms that they're very proud of.</p><p>So we want to fit very nicely within the things that people have already been building and in doing so we find that customers are, the reception that we're getting is much more positive because instead of saying, “You've got to throw away all this stuff and use tag.bio,” it's, “Well tag.bio fits right here, and it fits right there and it could fit over there, but you're using that other thing. So we'll just wait on that one for a while.” </p><p><strong>Harry Glorikian: </strong>Okay. So somebody buys this and puts it in place, starts to utilize it. How do you guys measure, I don't know, a payback. How do you measure advancement? How do you measure impact? Because right. All of this is to make life easier, faster, and find that, billion dollar molecule, if you're looking at it that way faster or identifying a patient that would benefit from something faster, right. I'm assuming there are lots of use cases that you guys have. So how do you, measure the “Holy shit? I found it” moment. </p><p><strong>Tom Covington: </strong>Yeah, that's a great question because, so one of the things that the platform kind of inherently does is it keeps a history of every analysis that's been run. So when a user has a full history of their analysis, so, thinking back to, if you're thinking about an Excel model, any tweak you make to an Excel model, you may notate by just changing the file name. In our world, every analysis that's been run is annotatable, it's replayable, it is shareable. So you've got a user history, then you've got an organization's user history. So across all data nodes, all users so from an ROI perspective, the simplest metric is: how many more questions are you able to ask of your data than you previously could? The quick answer is it's about 1000x more. Just by short-circuiting the process to ask and answer your question, people ask a lot more questions, not surprisingly. </p><p>The other is, we hear from the customers. Their direct feedback on like, how impactful it's been, how much has changed the culture of the organization, how people are now talking about data the same way. Whereas previously, the domain experts, the knowledge workers talked about data in a different way than the people who are actually practicing the arts of extracting information from data. So they, we see it on the cultural side, but then we also hear use cases, say, one of our large AMCs. They're using it right now for strategic financial recovery after COVID and they've been tasked with, how do we reduce costs, increase revenue still while maintaining or improving care. And, there are examples from that that are in, literally in the millions of dollars, just from one physician asking questions over the course of a couple of hours, able to identify opportunities and then, surface those and they implement them and sure enough, it's dramatic in terms of the impact to the organization.</p><p>So those are the kinds of, that's the feedback that we get. And so that's why the use cases are so impactful when we engage with new customers, we can say, look, this is, this is what was possible at organization X. And this can be similarly possible with, for you and your organization. </p><p><strong>Harry Glorikian: </strong>Yeah. You almost want to publish all that to make sure that everybody gets the message because that's the goal, right?</p><p><strong>Tom Covington: </strong>Yeah. There will be publications that come out of this because some of the work they're doing and the impact it’s having on organizations are, is going to be replicable at other places. And it's there are novel ways of thinking about data, looking at data that they get to leverage via tag.bio that fundamentally is going to change these organizations for the better.</p><p><strong>Jesse Paquette: </strong>I'd like to bring up one thing and it kind of relates to what Tom was saying. And it sort of boils down to a bit of an ethos that we started with, which back in 2014 was sort of completely contrary to the hype of AI that was happening between say 2014 and 2016, we would talk to a lot of folks and they would say, are you AI? And we would have these debates about, Tom, do we actually say we're AI? And we think, okay, now we're going to say we're AI because everyone cares about it. And then we would think, no, we are definitively not AI. While we have machine learning algorithms under the hood, we are first and foremost focused on the knowledge and the discovery power of the knowledge worker, the physician who has 20 years of experience in the ER, the, the biochemist who's been working at a pharmaceutical company and in academia for, for 20, 30 years. They have so much information and their community of peers has so much information, detailed knowledge data inside their brains that is not being joined properly with the data that exists in these databases. And that's really what we're trying to do is bring those two together. And it's interesting to try to quantify as Tom was talking about we're working on those metrics. </p><p><strong>Harry Glorikian: </strong>So who do you guys see as your competitors? Because when I hear low-code and things like that, there's, I immediately go to the tech side. Right. Because they're all, the valuations are off the chart right now on some of these things, but who do you see as competitors and how do you differentiate from them? </p><p><strong>Tom Covington: </strong>That's a great question and it's one we've gotten a lot. So there are, we kind of tie three areas together, there's this data engineering aspect, there's the data science aspect, and then there's the end user experience. We have competitors in all three of those areas, but there are none that span those three areas. So we may have folks that are doing some really great work on the data engineering side, or maybe on the data science side, or even in the end user software side. But there are none that currently link those three together, those three legs together. So some of the competitors may start to approach us in certain avenues in certain areas, but there is not a kind of end to end solution that takes generally analysis-ready data, marries it with these data science capabilities, and then turns that into low-code application platform. So, for the time being, we're a bit unique. But I, obviously as we start to gain more traction, they're going to be people that are going to start trying to approximate what we're doing. And, we're anticipate that look forward, look forward to the competition. But realistically right now there's, there's no great solution that kind of packages up those three legs that we span. </p><p><strong>Jesse Paquette: </strong>We've encountered a lot of potential customers or customers of ours that had previously tried to stitch together a solution which didn't look like ours, but it was trying to solve the same problem. Really connects those three layers, the algorithms, the data engineering and the end user experience. And they're trying to stitch them together using open source components. They're basically trying to support a whole software environment within either a pharmaceutical or a healthcare organization. And it's really hard for them to sustain, the technical debt mounts, and the project eventually fails.</p><p>So we, we do see that people, like a customer, for example, we would approach a large pharma or big healthcare institution. They are familiar with the problem. They probably have an in-house solution that they either built, or they had some consulting firm coming in and build for them. And some people in that organization feel rather proud of that thing that they've built. And other folks absolutely hate it because it doesn't solve 80% of their problems. And it's an interesting environment to get into, but it's usually not another vendor. It's an in-house self-built solution. </p><p><strong>Harry Glorikian: </strong>Yeah. Tough to get over some of those issues. I know if one of my partners was here, the first question he'd be like is, I'm sure you guys are filing IP on some of this. So hopefully you guys are able to protect it and create at least a moat around what you guys are building. Because it does sound like it was way ahead of a lot of the competitors. </p><p><strong>Tom Covington: </strong>We have filed for some patent protection, or some patents, yes.</p><p><strong>Harry Glorikian: </strong>So, COVID seems to have had an impact on, it seems like every organization I talk to these days and some of it has caused things to move a lot faster. Have you guys seen an acceleration of your business and, or are there places where people have said, yeah, your system is how I'm going to help find a solution from analyzing patients in COVID I'm looking at it from both sides, right? Where the telemedicine came whooshing in, because everybody needed it. And so I'm trying to figure out like, did it accelerate your business? And then through the acceleration, did it actually help identify opportunities in patient populations? </p><p><strong>Tom Covington: </strong>Yeah, so it hasn't been as dramatic as say telemedicine because that was, clearly everybody needed that right away. And so there was a big push in that effort. But it has accelerated certain aspects because, once you've got COVID patients, you want to understand that patient population and, understand you want to be able to do research on those patients. And so from that perspective, it has accelerated some business. Specifically there's a large AMC that wanted to be able to look at, do analyses on their COVID patient registry and they wanted to create a COVID patient registry.</p><p>And we were able to get that up and running for them in about five days which allowed their researchers to do some pretty sophisticated analyses around survival, looking at what the makeup was, what was correlated with folks that ended up being, for example, intubated. So there was a clear need on their part to very rapidly be able to perform analysis on their COVID patients. And tag.bio was able to fill that need very quickly for them. And so I think there are other examples like that, that have been accelerated via COVID or the pressing need of COVID. But there's, it's also not as high a priority, say as telemedicine. So I think it's been good for us in general. But I also think it is not quite as bright and shiny as the, “Oh my God, we need a solution for how we can continue to see patients when they can't come into clinic.” </p><p><strong>Jesse Paquette: </strong>I would add that I think what we're doing is we're riding a much larger, but slower moving wave because of COVID, which has to do with cloud adoption. We are working with a number of cloud providers as channel partners and within the healthcare and life science space, there is a lagging surge in cloud adoption. And we're seeing more interest in our platform more, more meetings, more proof of concepts, more and more getting through the stages of the sales cycle, which, usually it's a really long sales cycle in healthcare and life sciences. You have to get a lot of people to approve. You have to go through the security approvals and, and the risk assessments and, and you get the right people to sign off at all levels. There's a lot of stakeholders within the organization. But being part of this cloud wave means that it's, that the organization has already decided we're going to pick one of the major cloud providers. We're going to build out more infrastructure, perhaps all of our infrastructure on that cloud. And it's this sort of new green field opportunity where applications useful applications like ours can come in and be easily adopted compared to the older model where there's more inertia.</p><p><strong>Tom Covington: </strong>Yeah, that's a, that's a great point. Yeah. </p><p><strong>Harry Glorikian: </strong>So what have I have I not asked you guys? I mean, I'm also thinking about like,  how does all this data, does the platform actually let you also visualize some of it? Cause I can see the things I like to see in certain ways, make it easier for me to tease things apart when I'm looking at it. But what have I not asked you about your platform that you think I missed?</p><p><strong>Tom Covington: </strong>It's a good question. I mean, I think one of the things that we are realizing is that there's a lot of value in having full provenance of analysis and have kind of a full history. It creates an additional essentially additional data source for how data are being used within an organization.</p><p>So being able to understand which data nodes are of value, which analysis apps are of value. We talk about UDATs or useful data artifacts, and those could be gene signatures. That could be a particular cohort of patients. But those UDATs that get discovered via the platform and then get shared via the platform. And then the visibility on those is accessible to the kind of senior leaders within an organization. You start to understand the value of your data a lot better. And right now, particularly on the life sciences side, and even on the healthcare side, they may have immense volumes of data that are not being utilized. They're being stored because they believe there's value in them. But the time to extract that information is so high and the cost associated asking questions is so high that you don't have a good sense of like, what are valuable datasets, what are valuable analysis applications? And, we've, we provided this additional useful dataset of, for an organization around where the greatest value I, and there were organizational within their industry and within their infrastructure.</p><p><strong>Jesse Paquette: </strong>I'd like to extrapolate on that. If I could again, to quote our VP of customer Mark Mooney, we think about it this way. Even if you have the most useful data analysis application on top of your data right now, what happens is that people use it and you get information and you start to save it to your computer. You start to take it away from the system to be able to take action on it. Maybe for example, in health care, you might realize that if you do something in the ER, you're going to improve patient care and improve your bottom line. And it's a really useful thing. What Tom had just described the useful data artifacts means that there's a gravity in our system, that all of the useful things that are found and created in our system, right. They stay central to the system with attribution and provenance about who made them and who created them. They become shareable units of information and reusable, which is a very different paradigm than other analysis systems. Say, if you take your favorite visualization app, you're going to take something away. You're going to send it to somebody in an email. It goes away from the system. And ours is really trying to bring all of the useful things that were created from the system and keep them there so that they can be found and reused. </p><p><strong>Harry Glorikian: </strong>Yeah, I'm almost thinking like you would rank these, you would, at some point be able to rank them to let people know which ones are more or less useful and maybe why they were useful. Right. Which might generate more of that type of data. </p><p><strong>Tom Covington: </strong>Exactly. </p><p><strong>Harry Glorikian: </strong>Wow. So great learning about this. Because I have to admit, when I started reading about this, I'm like, I'm going to get in over my head really quickly, but this was incredibly useful. It sounds like something I almost wish was self-serve and I could use it for some of the stuff that I have, but it sounds like it's more, you have to deploy it within a certain network, as opposed to one individual like me utilizing it.</p><p><strong>Tom Covington: </strong>We are, we are coming for you though. It's going to be probably a year and a half or so, but yes, ultimately we want to empower people like yourself to be able to deploy these, set, set up a system like this for yourself relatively easily.</p><p><strong>Harry Glorikian: </strong>This was great. I look forward to keeping in touch and hearing how this evolves, and maybe one of these days I'll be your beta user to try my own data analytics and see how we can use it for our own organization.</p><p><strong>Tom Covington: </strong>That would be fantastic. We would love to help. </p><p><strong>Harry Glorikian: </strong>Thank you so much for joining me today. </p><p><strong>Tom Covington: </strong>Thank you very much for having us. We really appreciate it. And we enjoyed the conversation.</p><p><strong>Jesse Paquette: </strong>Thanks, Harry.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Mon, 10 May 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Jesse Paquette, harry glorikian, Tom Covington)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>The discoveries medical researchers and drug developers can make are constrained by the kinds of questions they can ask of their data. Unfortunately, when it comes to clinical trial data, or gene expression data, or population health data, it feels like you need a PhD in computer science just to know which questions are "askable" and how to frame them. This week, Harry talks with the founders of a startup working to solve that problem.</p><p>Tag.bio aims to make it possible for any worker in the life sciences sector—even if they don't have a PhD in computer science or data science—to interrogate their data quickly and automatically. The idea is to help them uncover trends or connections in their data that would otherwise require months of work and help from a data scientist or a data engineer.</p><p>The company was founded in 2014 as a spinoff from the University of California, San Francisco Cancer Center. That’s where co-founder Jesse Paquette first invented a system that let oncology researchers ask guided questions of their data without help from a bioinformatics expert. Now Paquette is Tag.bio’s chief science officer, and in this episode, he's joined by Tag.bio CEO Tom Covington to talk about how the startup's technology works and why easier access to data is critical to faster progress in drug discovery and to the whole idea of precision medicine.</p><p><strong>Please rate and review MoneyBall Medicine on Apple Podcasts! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac. </p><p><strong>2. </strong>Navigate to the page of the MoneyBall Medicine podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3.</strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4.</strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5.</strong>Next, select a star rating at the top — you have the option of choosing between one and five stars. </p><p><strong>6.</strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7.</strong>Once you've finished, select "Send" or "Save" in the top-right corner. </p><p><strong>8.</strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out. </p><p><strong>9.</strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian: </strong>In healthcare and drug discovery, everybody’s got data. Knowing <i>what to do with your data</i> and <i>how to get value out of it</i> is the trick. That’s what we’ve spent the last 60-something episodes of this podcast talking about. </p><p>Unfortunately, when it comes to clinical trial data, or gene expression data, or population health data, it feels like you need a PhD in computer science just to know what questions to ask and how to ask them.</p><p>But there’s a startup in San Francisco that aims to break down that barrier and make it possible for any worker in the life sciences sector to interrogate their data quickly and automatically. The idea is to help them uncover trends or connections in their data that would otherwise require months of work and help from a data scientist or a data engineer.</p><p>The company is called Tag.bio, and it was founded in 2014 as a spinoff from the University of California, San Francisco Cancer Center. That’s where co-founder Jesse Paquette first invented a system that let oncology researchers ask guided questions of their data without help from a bioinformatics expert.</p><p>Now Paquette is Tag.bio’s chief science officer. And I’ve got him here today, together with chief executive officer Tom Covington, to talk about how Tag.bio’s technology works, and why easier access to data is critical to faster progress in drug discovery and to the whole idea of precision medicine.</p><p><strong>Harry Glorikian: </strong>Tom, Jesse, welcome to the show. </p><p><strong>Tom Covington: </strong>Thanks, Harry. Thanks for having us. </p><p><strong>Harry Glorikian: </strong>So, I’m trying to wrap my head around Tag.bio and, and all the technical details and everything, but, but sort of, I want to step back and give people who are listening the chance to understand the organization and the goals. And so I'll start with a grand vision question and it’d be like, okay: What's wrong with precision medicine and the way that we're sort of looking at data today?</p><p><strong>Tom Covington: </strong>Yeah, I think first and foremost, precision medicine is at its heart is a bit of a data management problem. There are disparate data sources within healthcare and life sciences, so that to truly enable kind of an N of 1 or small N medicine, it requires the integration of those data types and the ability to ask questions of those disparate data sources.</p><p>And there isn't really, or there previously has not been, a great solution for that problem. As a part of that, given the complexity of the underlying data, there are experts in manipulating and analyzing data, but they are not the same experts that are going to be practicing medicine or advancing science, the knowledge workers in the healthcare and life sciences space. If they have a question that could be answered in data, they have to hand off that question to an expert in manipulating or analyzing data. So data scientists, bioinformaticians analysts, and the like. And that process is slow and human powered.</p><p>And so if you have a question, it can be answered in data, and you're a physician, it may take you one to two months to get an answer. We're trying to take that process and turn it into something that takes two minutes or less. </p><p><strong>Harry Glorikian: </strong>I keep thinking we'll just hybridize them and then we'll have the best of both worlds. But I think that might take too long based on my experience when we first came up with the term bioinformatics, right? Stick two people in a room and have them figure it out. And that, that took a while. But what's not working so well. What's not working as well as it could in this whole life science arena. How do you guys see what you guys are working on bringing that one step closer to being more fundamentally useful and providing value to the industry? </p><p><strong>Tom Covington: </strong>Yeah, so I think the easiest way to think about it is with kind of use case examples. So we were working with a researcher who had published a paper on thymoma, the cancer, and when that was uploaded to the cancer genome atlas, and, theoretically, they had mined this data for all of its worth, we gave him access to the platform. And over the course of the evening and a glass of wine, he found three novel insights in his data that warranted publication in a paper. And essentially what we did was reduce the cost of him asking and answering the question of data. Whereas previously it would have taken him months to ask one of these questions, he was able to ask and then iterate on the questions until he found the right question that generated the right output. That allowed, that was novel. And I think that's the big advantage of this kind of acceleration of discovery that happens via platforms like ours. </p><p><strong>Harry Glorikian: </strong>So go ahead, Jesse. </p><p><strong>Jesse Paquette: </strong>A lot of people are going to look at data problems in the life sciences and healthcare space, and they're going to say, well, the problem has to do with the siloization of data. It has to do with the quality of data. It has to do with the integratability of data, and a lot of cultural problems that exist in the system. And then they're going to fall back to the old adage, which is, 90% of the time of a data scientist or data engineer is just processing the data, working on the quality, getting the data in analysis-ready shape.</p><p>So why we get the question: Why aren't we solving that problem? Well, it's a hard problem. And ultimately what we've realized over many years is that if you're spending 90% of your time working on processing and transforming and getting data analysis-ready, you don't have enough time to do any of the analyses that you really want him to do. Case in point, this TCGA data set. They did analyses, basically what they could, they got published and they wanted to do so much more, but the data has so much value and you have to spend so much time just getting it ready. This is really what we're trying to accomplish and making this data just rapidly. In an assembly of line, sort of an analyzable.</p><p><strong>Harry Glorikian: </strong>Yeah, I'm trying to draw analogies to other things that I see going on in the tech industry, like, codeless sort of programming, where people who aren't familiar with the data analytics side of it can sort of pull different analytics packages or, or scripts that they can use to run on their data without having to know how to code everything up from scratch. Is that a reasonable analogy to make? I mean, the other one that I was thinking of earlier that was GitHub, right. Where people can access these things that are written once by one person, but used by multiple people. So you don't have to always go back to a data scientist and say, do this for me. </p><p><strong>Jesse Paquette: </strong>Yeah, I can, I can take that. In some sense what you're talking about is a marketplace and we do have a longer term vision for being a great marketplace for resources around an analysis of data. So if, if we have a really good turnkey connector to a critical data source, like an electronic medical record or a genomics data source, we can bring that in and people could use our system to build hybrid solutions. In many ways, it's, it's similar to, I think the way JavaScript works with NPM, or R works with  all of its R libraries or Python works with all of its Python libraries. There's this whole world of really useful stuff out there that you can sort of just swap in and out and, and, and make useful.</p><p>And I think our system really does that very well with data sources and data modules that represent algorithms or apps workflows on data. That's a long-term vision of ours. Definitely. I think in the short term, what we're focusing mostly is the low-code system and being able to deploy useful application layers on top of data in such a way that you can just do it really quickly with robustness and security, and then also get to iterate with the end users. It’s very important that you actually, if you're going to build an application for a physician or for a researcher, you have to work with them to make sure that it's really useful. </p><p><strong>Harry Glorikian: </strong>Yeah, that was the word I was actually, it's funny that escaped me. Low-code was the word. There's too many damn new words that I need to keep track of for all these changes that are happening. So your VP of customer, Mark Mooney, said that you guys are solving this, quote “Last mile” of data analysis. What does he mean by that? Yeah. </p><p><strong>Tom Covington: </strong>Yeah, so if you think about it from a physician's perspective, it gets back or scientist's perspective. It gets back to this long lag between making a request, an analysis request, and getting a result. We touched on GitHub earlier. Even if we had something—well, let's say you've got something in GitHub that can be reused by others. How big a population can it be reused by? It's likely, if it's in GitHub, it's likely for data scientists and other practitioners of those arts. For the physicians, the knowledge workers who are trying to extract the insights and make discoveries and data, they need a place where they can actually ask questions. And that's where this kind of low-code application development environment helps, because you can very quickly build and deploy apps that speak the language of the domain expert, and allow them to ask their questions as they come to them, as opposed to having to work with or through a data scientist to generate those insights.</p><p><strong>Harry Glorikian: </strong>But it is the data scientists that are helping build certain parts of this, right? So they're not excluded from the process. </p><p><strong>Tom Covington: </strong>So no, no, they're critical to the process. They basically, instead of most of the time, and Jesse can speak more fluently on this, or eloquently on this, but traditionally, if you have a request, you hand it off to a data scientist, they tend to do ad hoc analysis.</p><p>So they're like, okay, what are, what are the tools that I've got at my disposal? What's the fastest way to generate this answer for the requester? And they will use various scripts and various languages and come up, generate the output. If there is a follow-up question, some of that may be reusable, but not all of it.</p><p>And then the process of extracting, doing a follow-up question can take a lot of time. If the data scientist instead builds an analysis app that allows reparameterization and the ability to, for the end-user, to ask 10,000 variants that have a similar type of question, then they can do the work once, publish it, and then lots of people can use that basic workflow to answer their specific question. </p><p><strong>Harry Glorikian: </strong>So it's basically, over time, any organization will end up theoretically with a library of these analytic tools that then they can use in different variation. And so theoretically then maybe the data scientist can work on more complex issues.</p><p><strong>Tom Covington: </strong>Exactly. The more fun stuff. </p><p><strong>Harry Glorikian: </strong>Yeah. Okay. So, let's go to history, right? You guys started this in 2014. I don't even know if there was a low-code movement happening in tech in 2014. I'm not so sure. </p><p><strong>Jesse Paquette: </strong>WordPress is low-code. </p><p><strong>Tom Covington: </strong>I guess we started it a bit, a bit early. But it was, based on some of Jesse's, his kind of career as a bioinformatician and what he saw as shortcomings within the industry and the ultimate job of empowering physicians and scientists to make discoveries and, find insights quickly. He recognized that this was a constraint in the pace of innovation. And so we, when we started the company, nobody was talking about data mesh. I'm not even sure there was much around low code other than, as Jesse mentioned, in WordPress. But there has been a shift in the past, I would say, in the past couple of years towards data mesh as a an improved solution for data lakes and data warehouses. And low-code is the preferred path forward for developing software applications. </p><p><strong>Harry Glorikian: </strong>Yeah, Jesse. I mean, I think if I remember correctly, you were doing that, you were doing sort of analytics of gene sequence data at Life, right? So is this, is that where you, the epiphany came? </p><p><strong>Jesse Paquette: </strong>Before then, actually. I was working at the UCSF cancer center and as Tom described, I was in a situation where I was working with a number of really talented researchers, these knowledge workers that had interesting datasets, but it all required computational analysis. They were either too big or too complex. And I found myself repeatedly doing a lot of analyses. And at some point I thought,  what? I can start to automate this. I can start to automate that. And I put together a platform for a specific purpose. It's called EGAN, E-G-A-N, which stands for exploratory gene association networks. And it was basically a new way of looking at data as well as a new way of structuring data so that these analyses can be done more repeatedly, and in more of a workflow. </p><p><strong>Jesse Paquette: </strong>And then I went to Life Tech and worked on similar applications. I went to a company called Ayasdi in Palo Alto. That was they, they had a, just a blockbuster algorithm which is, which is still really cool. And they were building applications around that and I was working on their life science applications for them, and it really comes down to the user experience. Physicians, they need to be able to start with something and know how to use it out of the box or with very minimal training. And when they come back and when they have that question again, two weeks later, they want to be able to come right back to the application and use it like they're using email or they're using Google or just like using the, tapping on their phone. </p><p>And, and it was, it was interesting. We started working in sports. And with the sports users specifically with an NFL team, our earliest iteration of our platform, what we had was a very complicated user experience. And we showed them how to do this really cool analysis analyzing when a certain receiver was getting passes and scoring touchdowns. And he said, well, great, but can you do it again for a different player? And I said, Oh yeah, well, I just have to click here, here, here, here, here, here, and here. The light bulb went off and we realized all we should have to do is just choose a different player. That's how it should work.</p><p><strong>Harry Glorikian: </strong>Yeah, but this is sort of like, I should be using it. Cause I'm asking questions all the time about a company or a technology or, and there's all this data behind it that I'm sort of putting together to do my analytics of what makes a good company, what doesn't make a good company. When is a technology on its upwardly mobile curve, right? So I'm, it's not the same type of data, but it's definitely data that I will make decisions based on. So a tool like this, I can see has more application than just where you guys are focused. </p><p>But Tom, your background is mechanical engineering manufacturing, clean energy. How did you two get together and start a bioinformatics company? </p><p><strong>Tom Covington: </strong>Yeah, well, so Jesse and I have known each other for about 12, 13 years now. We played soccer together every Monday night and I knew a little bit about what he was doing. But one night after a match, we often would, go have a beer afterwards. And we started talking about, or he started talking about his idea. And his idea was essentially built on the foundations of EGAN, which he had developed to allow biologists to do some of their own pathway analysis when he was at UCSF. And as he started talking about it, I realized, I thought back to my time, because I was a race engineer for Honda for several years. And we were always generating large amounts of data at the track every weekend and trying to analyze that to improve the software, come up with new algorithms, new ways of controlling the engines. And I was pretty good at torturing the data in Excel, but that was the limits of my capabilities.</p><p>And what I recognized that he was describing was a tool for people like myself, to allow me to rapidly find insights in complex data. And that was pretty appealing. And this is, as you kind of alluded to, is a fairly generic platform. We have aimed it at the healthcare and life sciences space, because from our perspective, precision medicine is a, it's a long described Holy Grail. There are some inherent challenges specifically with the kind of the disparate data sources and bringing them together. And, my wife is a physician at UCSF, Jesse's worked at UCSF, I've worked at UCSF. We kept getting pulled back into the healthcare life sciences space. And so we decided to focus there and we think it's a, satisfying and fantastic opportunity. At some point we may evolve beyond precision medicine, but for right now, we're very clearly focused on precision medicine and the opportunities that it provides.</p><p><strong>Harry Glorikian: </strong>So I like the word tortured, torturing data. I got it. I got it. I got to use that in a few places that, that, that I've always tried to be nice to the data, so it's nice to me, but I'm happy to torture it. And it does sound like there's a more of a generic application to what you guys are creating. I know that that everything requires some focus, but this does look like it could be used in a lot of other spaces that, even if you drew diagrams of, of adjacent areas that would give you that expansion.</p><p>So I was thinking like, what does Tag.bio mean? And I'm thinking, Does, is it based on, Jesse's previous work of tag based analysis? Or how, how did, where did that name come up from? </p><p><strong>Jesse Paquette: </strong>Essentially? Yes. I mean, if we had to, if it had to answer quickly. Yes. I mean, Tom, I don't think has the whiteboard where we drew all of the possible names of the company and started to put together portmanteaus and stuff. I think his kids have long since drawn over that multiple times. We were going for a lot of things with the name. We wanted it to be short. We wanted to sort of not be a name that people had to ask, How do you say that? Which a lot of startups get, right? You try to come up with a really crafty way of spelling something. And then that's your first question is like, how do you say that? So it's clear. And it uses the .bio domain for better or for worse. And it really relates to the concept which we had initially, which was, which I had even farther back going back to UCSF which is based around treating categorical data as sets.</p><p>And, and so it gets a bit into the mathematics of things. And that basically, if we talk about the set of patients who lived versus the patients who died right in categorical data, it's represented as sort of deceased or alive. Right. And, and many times algorithms are just going to look at that and treat them as words, or treat them as, as certain things as statisticians would.</p><p>But if you consider those to be sets and you can start to intersect sets with others, like you have treatment, right? So some people were treated and some people responded well and some people didn't respond well. Some people weren't treated and they responded well or didn't respond well. And all of a sudden you started thinking about that using set mathematics tags is a good concept for that.</p><p><strong>Tom Covington: </strong>Yeah, the simplest explanation is we live in tagged data and we came from biology. </p><p><strong>Harry Glorikian: </strong>So you guys have been working on this for seven years, right? If my, if my math is correct. And that's enough time, for both the product and business model to have evolved. I'm assuming that it has a few times can you walk me through how the platform has changed over time or that how the concept for the ideal customer,  for the platform has changed?</p><p><strong>Tom Covington: </strong>Yeah. </p><p><strong>Jesse Paquette: </strong>Can I, if I could start from the technical side, I don't think that the form has changed really at all. It's, it's exactly what we designed seven years ago. It's just gotten a whole lot better based on all of the, the team members that we brought in to do the workforce, all the things that Tom and I don't do particularly well. We've been able to complement ourselves with cloud architecture people working on projects in specific healthcare or life science areas. But when it comes down to the core tech and how useful it is and how scalable it is, I don't think it's changed. So I'll let Tom talk about the business, because that has changed.</p><p><strong>Tom Covington: </strong>Yeah, we had our original vision was to essentially mirror the worldwide web, but for data. So in a worldwide web, you've got data, you've got web servers, you've got a communication protocol HTTP, and you've got browsers for interfacing with that content. And we wanted to mirror that for data. And so we have data servers, we've got a smart API as a communication protocol, and you can similarly access content on those data servers via a web portal. That concept is [gone, but] the platform has remained the same. What we've learned through customer interactions is how to improve the user experience and around accessing data. And I think that, in, in our explorations, in multiple verticals, speaking about that NFL team, like that really simple kind of aha moments like, Oh, that's going to be critical for kind of any user. And so we've learned a lot from the interactions with customers about how to improve the user experience. So I think from the platform perspective, and the kind of flexibility and generic applicability of it, we have by looking at a bunch of different verticals, initially, we, we learned what was going to be core across verticals. </p><p><strong>Tom Covington: </strong>Part of the reason for the focus on healthcare life sciences is they, on the surface they look pretty different in terms of their data types. But if we have, we've developed a platform that can be kind of agnostic to data types and analysis types. And so, it is well-suited to marrying two disparate types of data together. And so for us, the opportunity of precision medicine is one that. Kind of emerged from those realizations and those learnings from other customers from the types of people that want to use it and the, the, how the businesses evolved. Originally, we started with kind of researchers, people that were not quite high enough in an organization to make buying decisions. We've since learned and we, now approach it a higher level within an organization. And that makes—because this is a concept that requires It's different enough that it requires some vision and some, there are various users within an ecosystem, whether it be on the IT side security side, all the way up to the end user domain experts. And so you, you need to approach at a high enough level of an organization that they can see the vision. And be receptive to the idea that the current status quo is not working well enough and not fast enough. And the cost of answering your question from data is just far too high. And if it is that high, you were fundamentally limiting the pace of innovation within an organization.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, because I was thinking to myself, I'm like, the next level would be like, again, if somebody writes the analytics part that can be reused at multiple organizations, right. That just theoretically speeds everything along, regardless of the data source that it's ingesting. But how did you guys come about this whole idea of like, quote, “analysis apps” and do you guide users to like, this might be the right one for you to click on, to use for this? Or do you guys just provide the platform? </p><p><strong>Tom Covington: </strong>Jesse. Do you want to take that? </p><p><strong>Jesse Paquette: </strong>I mean, there's the technical aspect and then there's the business aspect. I'll talk about the technical aspect and it's something that we're learning about with every interaction we have with a user or a customer. With big organizations there are policies in place they're either formalized SOPs or there are rigid sort of cultural silos and, and things like that. And it, and as everybody knows, even if you have the most useful thing, if you don't Institute some form of change management or training within the organization, you're not going to get the adoption that you need, even if you just have the best tool ever. If you put Google in front of somebody who's never seen Google before, they still might not use it unless you actually turn on their phone and point their fingers at it. And so we do make some effort to onboard users.</p><p>We think it's very useful. We also then get to observe their experience and learn about the naive user experience. Something we care about specifically. And the experienced user is also important. We find that we have some power users who just love our system and they have no problem trying to do all sorts of fancy things with it, to the point where they want more apps. And, and at that point it's, it's up to us or their in-house development team to start giving them some more apps on some, maybe some new data that they need. And it's, so we, we do spend a fair amount of time with our users. Yeah, Tom?</p><p><strong>Tom Covington: </strong>Yeah, I think I'm kind of from a big picture perspective. Like the platform is flexible enough that you can build very simple apps and also very sophisticated apps. So, an example of a simple app would be, how much does this particular drug cost within a hospital system? That's a simple dropdown, any user can see the title of the app and click on it and know exactly what it's going to do. And you get into more complicated, where it may be doing some advanced clustering algorithm, and you've got to select the cohort that you want to look at. But it's the, it's designed so that the data scientist developer of these apps can write them in a way that will speak to the end user.</p><p>So, a healthcare app is going to a physician who is gonna understand that intuitively versus a researcher at a large pharma organization, they're gonna have different data, different analysis needs, their apps are gonna speak their language. And so it's a lot of it is down to, and this is one of our learnings through these various customer interactions, was that we need to enable the building and deployment of apps that speak the language of the domain expert and make it really easy and intuitive for them. When they just, they see an app they're like, “Oh, I know what this is going to do automatically because I can, I recognize the, the analysis methodology, or I recognize the data fields in there.”</p><p>But it's, it's all tied around making the user experience as easy as possible. So there is minimal onboarding. One of the things that other software platforms that allow analyses don't do so well with is the user experience. You've got, just think about something like Excel. If I build an Excel model and then share it with you, you may have questions or concerns about tweaking anything, because you don't know what went into that Excel model. And you can add all sorts of things. You can do all sorts of things. There's all, there's all sorts of functionality available within the front end of Excel. And honestly, there's too much complexity. And even Excel can be over overwhelming to somebody who hasn't used it before. And we're trying to make something that the least sophisticated computer user would be able to understand just from clicking around and trying it and running an analysis. </p><p><strong>Harry Glorikian: </strong>I should start using this myself for all this stuff I try to do. But how hard is it to sell the product, and the big ideas behind it, to potential customers. I mean, do they, do they go like, “Oh my God, I totally get it. Now I'm jumping on this.” Or is it,  I don't want to call it a slog, but how much education does it take for an organization to get this big idea?</p><p><strong>Tom Covington: </strong>Yeah. So it previously has been a slog, because there is enough, it is enough of a shift in the thinking that it takes some time for them to understand and use cases and deployments. Some of the large pharma and health care organizations that we're currently at, it has certainly helped. The other thing that has really helped make things go faster is the recent kind of adoption of data mesh as a kind of a new paradigm for the next generation of data lakes and data warehouses. Domain-specific data products, the fact that other people are talking about that.</p><p>And then, we essentially built to that seven years ago, has certainly made things easier. It's, there's less education that has to happen from us respective to a customer. Also low-code, that is something that, for the most part you can just say, and that people kind of intuitively understand because there are other examples in the marketplace. And so I think that, we started the company pretty early relative to where the market was. But now the market is kind of catching up in terms of understanding the core concepts. And so that has made customer acquisition a lot easier. </p><p><strong>Jesse Paquette: </strong>I'd like to add one more thing. So we've been talking a lot about end user experience. And that's been our primary focus from the beginning. Over the last couple of years, we have learned about a second domain of user experience, which is equally important, which is the developer experience. And we've always been trying to support our internal developers and our collaborator developers and our customer developers but working on improving their experience.</p><p>So if they're data scientists, they should be able to work natively in R and Python to develop on our platform, they should be able to bring in their own algorithms into our platform in their own visualizations. If they are more of a front-end application developer, they want to use JavaScript. And they're okay using the JSON low-code templates to configure the platform and the data nodes. If they're data engineers, they're going to be working on the data plumbing layer, and we need to have a very good API system and set of SDK software development tools, right, for mapping the data in, from the, the, the state-of-the-art data platforms that they're very proud of.</p><p>So we want to fit very nicely within the things that people have already been building and in doing so we find that customers are, the reception that we're getting is much more positive because instead of saying, “You've got to throw away all this stuff and use tag.bio,” it's, “Well tag.bio fits right here, and it fits right there and it could fit over there, but you're using that other thing. So we'll just wait on that one for a while.” </p><p><strong>Harry Glorikian: </strong>Okay. So somebody buys this and puts it in place, starts to utilize it. How do you guys measure, I don't know, a payback. How do you measure advancement? How do you measure impact? Because right. All of this is to make life easier, faster, and find that, billion dollar molecule, if you're looking at it that way faster or identifying a patient that would benefit from something faster, right. I'm assuming there are lots of use cases that you guys have. So how do you, measure the “Holy shit? I found it” moment. </p><p><strong>Tom Covington: </strong>Yeah, that's a great question because, so one of the things that the platform kind of inherently does is it keeps a history of every analysis that's been run. So when a user has a full history of their analysis, so, thinking back to, if you're thinking about an Excel model, any tweak you make to an Excel model, you may notate by just changing the file name. In our world, every analysis that's been run is annotatable, it's replayable, it is shareable. So you've got a user history, then you've got an organization's user history. So across all data nodes, all users so from an ROI perspective, the simplest metric is: how many more questions are you able to ask of your data than you previously could? The quick answer is it's about 1000x more. Just by short-circuiting the process to ask and answer your question, people ask a lot more questions, not surprisingly. </p><p>The other is, we hear from the customers. Their direct feedback on like, how impactful it's been, how much has changed the culture of the organization, how people are now talking about data the same way. Whereas previously, the domain experts, the knowledge workers talked about data in a different way than the people who are actually practicing the arts of extracting information from data. So they, we see it on the cultural side, but then we also hear use cases, say, one of our large AMCs. They're using it right now for strategic financial recovery after COVID and they've been tasked with, how do we reduce costs, increase revenue still while maintaining or improving care. And, there are examples from that that are in, literally in the millions of dollars, just from one physician asking questions over the course of a couple of hours, able to identify opportunities and then, surface those and they implement them and sure enough, it's dramatic in terms of the impact to the organization.</p><p>So those are the kinds of, that's the feedback that we get. And so that's why the use cases are so impactful when we engage with new customers, we can say, look, this is, this is what was possible at organization X. And this can be similarly possible with, for you and your organization. </p><p><strong>Harry Glorikian: </strong>Yeah. You almost want to publish all that to make sure that everybody gets the message because that's the goal, right?</p><p><strong>Tom Covington: </strong>Yeah. There will be publications that come out of this because some of the work they're doing and the impact it’s having on organizations are, is going to be replicable at other places. And it's there are novel ways of thinking about data, looking at data that they get to leverage via tag.bio that fundamentally is going to change these organizations for the better.</p><p><strong>Jesse Paquette: </strong>I'd like to bring up one thing and it kind of relates to what Tom was saying. And it sort of boils down to a bit of an ethos that we started with, which back in 2014 was sort of completely contrary to the hype of AI that was happening between say 2014 and 2016, we would talk to a lot of folks and they would say, are you AI? And we would have these debates about, Tom, do we actually say we're AI? And we think, okay, now we're going to say we're AI because everyone cares about it. And then we would think, no, we are definitively not AI. While we have machine learning algorithms under the hood, we are first and foremost focused on the knowledge and the discovery power of the knowledge worker, the physician who has 20 years of experience in the ER, the, the biochemist who's been working at a pharmaceutical company and in academia for, for 20, 30 years. They have so much information and their community of peers has so much information, detailed knowledge data inside their brains that is not being joined properly with the data that exists in these databases. And that's really what we're trying to do is bring those two together. And it's interesting to try to quantify as Tom was talking about we're working on those metrics. </p><p><strong>Harry Glorikian: </strong>So who do you guys see as your competitors? Because when I hear low-code and things like that, there's, I immediately go to the tech side. Right. Because they're all, the valuations are off the chart right now on some of these things, but who do you see as competitors and how do you differentiate from them? </p><p><strong>Tom Covington: </strong>That's a great question and it's one we've gotten a lot. So there are, we kind of tie three areas together, there's this data engineering aspect, there's the data science aspect, and then there's the end user experience. We have competitors in all three of those areas, but there are none that span those three areas. So we may have folks that are doing some really great work on the data engineering side, or maybe on the data science side, or even in the end user software side. But there are none that currently link those three together, those three legs together. So some of the competitors may start to approach us in certain avenues in certain areas, but there is not a kind of end to end solution that takes generally analysis-ready data, marries it with these data science capabilities, and then turns that into low-code application platform. So, for the time being, we're a bit unique. But I, obviously as we start to gain more traction, they're going to be people that are going to start trying to approximate what we're doing. And, we're anticipate that look forward, look forward to the competition. But realistically right now there's, there's no great solution that kind of packages up those three legs that we span. </p><p><strong>Jesse Paquette: </strong>We've encountered a lot of potential customers or customers of ours that had previously tried to stitch together a solution which didn't look like ours, but it was trying to solve the same problem. Really connects those three layers, the algorithms, the data engineering and the end user experience. And they're trying to stitch them together using open source components. They're basically trying to support a whole software environment within either a pharmaceutical or a healthcare organization. And it's really hard for them to sustain, the technical debt mounts, and the project eventually fails.</p><p>So we, we do see that people, like a customer, for example, we would approach a large pharma or big healthcare institution. They are familiar with the problem. They probably have an in-house solution that they either built, or they had some consulting firm coming in and build for them. And some people in that organization feel rather proud of that thing that they've built. And other folks absolutely hate it because it doesn't solve 80% of their problems. And it's an interesting environment to get into, but it's usually not another vendor. It's an in-house self-built solution. </p><p><strong>Harry Glorikian: </strong>Yeah. Tough to get over some of those issues. I know if one of my partners was here, the first question he'd be like is, I'm sure you guys are filing IP on some of this. So hopefully you guys are able to protect it and create at least a moat around what you guys are building. Because it does sound like it was way ahead of a lot of the competitors. </p><p><strong>Tom Covington: </strong>We have filed for some patent protection, or some patents, yes.</p><p><strong>Harry Glorikian: </strong>So, COVID seems to have had an impact on, it seems like every organization I talk to these days and some of it has caused things to move a lot faster. Have you guys seen an acceleration of your business and, or are there places where people have said, yeah, your system is how I'm going to help find a solution from analyzing patients in COVID I'm looking at it from both sides, right? Where the telemedicine came whooshing in, because everybody needed it. And so I'm trying to figure out like, did it accelerate your business? And then through the acceleration, did it actually help identify opportunities in patient populations? </p><p><strong>Tom Covington: </strong>Yeah, so it hasn't been as dramatic as say telemedicine because that was, clearly everybody needed that right away. And so there was a big push in that effort. But it has accelerated certain aspects because, once you've got COVID patients, you want to understand that patient population and, understand you want to be able to do research on those patients. And so from that perspective, it has accelerated some business. Specifically there's a large AMC that wanted to be able to look at, do analyses on their COVID patient registry and they wanted to create a COVID patient registry.</p><p>And we were able to get that up and running for them in about five days which allowed their researchers to do some pretty sophisticated analyses around survival, looking at what the makeup was, what was correlated with folks that ended up being, for example, intubated. So there was a clear need on their part to very rapidly be able to perform analysis on their COVID patients. And tag.bio was able to fill that need very quickly for them. And so I think there are other examples like that, that have been accelerated via COVID or the pressing need of COVID. But there's, it's also not as high a priority, say as telemedicine. So I think it's been good for us in general. But I also think it is not quite as bright and shiny as the, “Oh my God, we need a solution for how we can continue to see patients when they can't come into clinic.” </p><p><strong>Jesse Paquette: </strong>I would add that I think what we're doing is we're riding a much larger, but slower moving wave because of COVID, which has to do with cloud adoption. We are working with a number of cloud providers as channel partners and within the healthcare and life science space, there is a lagging surge in cloud adoption. And we're seeing more interest in our platform more, more meetings, more proof of concepts, more and more getting through the stages of the sales cycle, which, usually it's a really long sales cycle in healthcare and life sciences. You have to get a lot of people to approve. You have to go through the security approvals and, and the risk assessments and, and you get the right people to sign off at all levels. There's a lot of stakeholders within the organization. But being part of this cloud wave means that it's, that the organization has already decided we're going to pick one of the major cloud providers. We're going to build out more infrastructure, perhaps all of our infrastructure on that cloud. And it's this sort of new green field opportunity where applications useful applications like ours can come in and be easily adopted compared to the older model where there's more inertia.</p><p><strong>Tom Covington: </strong>Yeah, that's a, that's a great point. Yeah. </p><p><strong>Harry Glorikian: </strong>So what have I have I not asked you guys? I mean, I'm also thinking about like,  how does all this data, does the platform actually let you also visualize some of it? Cause I can see the things I like to see in certain ways, make it easier for me to tease things apart when I'm looking at it. But what have I not asked you about your platform that you think I missed?</p><p><strong>Tom Covington: </strong>It's a good question. I mean, I think one of the things that we are realizing is that there's a lot of value in having full provenance of analysis and have kind of a full history. It creates an additional essentially additional data source for how data are being used within an organization.</p><p>So being able to understand which data nodes are of value, which analysis apps are of value. We talk about UDATs or useful data artifacts, and those could be gene signatures. That could be a particular cohort of patients. But those UDATs that get discovered via the platform and then get shared via the platform. And then the visibility on those is accessible to the kind of senior leaders within an organization. You start to understand the value of your data a lot better. And right now, particularly on the life sciences side, and even on the healthcare side, they may have immense volumes of data that are not being utilized. They're being stored because they believe there's value in them. But the time to extract that information is so high and the cost associated asking questions is so high that you don't have a good sense of like, what are valuable datasets, what are valuable analysis applications? And, we've, we provided this additional useful dataset of, for an organization around where the greatest value I, and there were organizational within their industry and within their infrastructure.</p><p><strong>Jesse Paquette: </strong>I'd like to extrapolate on that. If I could again, to quote our VP of customer Mark Mooney, we think about it this way. Even if you have the most useful data analysis application on top of your data right now, what happens is that people use it and you get information and you start to save it to your computer. You start to take it away from the system to be able to take action on it. Maybe for example, in health care, you might realize that if you do something in the ER, you're going to improve patient care and improve your bottom line. And it's a really useful thing. What Tom had just described the useful data artifacts means that there's a gravity in our system, that all of the useful things that are found and created in our system, right. They stay central to the system with attribution and provenance about who made them and who created them. They become shareable units of information and reusable, which is a very different paradigm than other analysis systems. Say, if you take your favorite visualization app, you're going to take something away. You're going to send it to somebody in an email. It goes away from the system. And ours is really trying to bring all of the useful things that were created from the system and keep them there so that they can be found and reused. </p><p><strong>Harry Glorikian: </strong>Yeah, I'm almost thinking like you would rank these, you would, at some point be able to rank them to let people know which ones are more or less useful and maybe why they were useful. Right. Which might generate more of that type of data. </p><p><strong>Tom Covington: </strong>Exactly. </p><p><strong>Harry Glorikian: </strong>Wow. So great learning about this. Because I have to admit, when I started reading about this, I'm like, I'm going to get in over my head really quickly, but this was incredibly useful. It sounds like something I almost wish was self-serve and I could use it for some of the stuff that I have, but it sounds like it's more, you have to deploy it within a certain network, as opposed to one individual like me utilizing it.</p><p><strong>Tom Covington: </strong>We are, we are coming for you though. It's going to be probably a year and a half or so, but yes, ultimately we want to empower people like yourself to be able to deploy these, set, set up a system like this for yourself relatively easily.</p><p><strong>Harry Glorikian: </strong>This was great. I look forward to keeping in touch and hearing how this evolves, and maybe one of these days I'll be your beta user to try my own data analytics and see how we can use it for our own organization.</p><p><strong>Tom Covington: </strong>That would be fantastic. We would love to help. </p><p><strong>Harry Glorikian: </strong>Thank you so much for joining me today. </p><p><strong>Tom Covington: </strong>Thank you very much for having us. We really appreciate it. And we enjoyed the conversation.</p><p><strong>Jesse Paquette: </strong>Thanks, Harry.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
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      <itunes:title>How Tag.bio Makes It Easier to Interrogate Your Data</itunes:title>
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      <itunes:subtitle>The discoveries medical researchers and drug developers can make are constrained by the kinds of questions they can ask of their data. Unfortunately, when it comes to clinical trial data, or gene expression data, or population health data, it feels like you need a PhD in computer science just to know which questions are &quot;askable&quot; and how to frame them. This week, Harry talks with the founders of a startup working to solve that problem.</itunes:subtitle>
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      <title>Richard Fox: Scaling Genome Editing To Drive The Industrial Bio-Economy</title>
      <description><![CDATA[<p>This week Harry speaks with Richard Fox, a computational biologist whose work at two life sciences startups, Inscripta and Infinome, is helping to automate and vastly scale up the process of engineering an organism's genome to evoke new functions or uncover important genetic pathways.</p><p>With the discovery of the genetic scissors known as CRISPR-Cas9 in 2012, biologists gained the ability to make precise cuts in the genes of almost any organism. For genetic engineers, what used to be a slow, labor-intensive, manual process was suddenly easy. It was like jumping from a medieval monastery where all the monks write their manuscripts longhand into a world where everyone has a word processor on their desktop. But the first generation of CRISPR technology was still pretty limited. To continue with the word processing metaphor: you could use CRISPR to change individual letters in a text, but you couldn’t use it to modify entire words, sentences, or paragraphs.</p><p>At Inscripta, Fox helped to turn CRISPR into a fully featured editing program. The company sells an automated device that can take bacteria or yeast cells and make thousands of programmed edits to different parts of their genomes in parallel. For researchers, a tool like that can vastly speed up the process of figuring out the relationship between an organism’s genotype and its phenotype. And that can help bioengineers create useful new strains of microorganisms—or uncover the genetic pathways that lead to disease in higher organisms like plants and humans.</p><p>And now Fox has left Inscripta to start a new synthetic biology company called Infinome. It’s a service provider that works with customers to design new types of organisms through directed evolution. The idea is to take Inscripta’s technology and add the power of data science and machine learning to speed up what Fox calls the “design, built, test, learn” cycle to create better custom organisms faster. The implications are mind-boggling—but in this episode Fox walks through the ideas step by step. </p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p>With the discovery of the genetic scissors known as CRISPR-Cas9 in 2012, biologists gained the ability to make precise cuts in the genes of almost any organism. For genetic engineers, what used to be a slow, labor-intensive, manual process was suddenly easy. It was like jumping from a medieval monastery where all the monks write their manuscripts longhand into a world where everyone has a word processor on their desktop.  But the first generation of CRISPR technology was still pretty limited. To continue with the word processing metaphor: you could use CRISPR to change individual letters in a text, but you couldn’t use it to modify entire words, sentences, or paragraphs.</p><p>My guest this week is the computational biologist Richard Fox, and he spent years working at a company called Inscripta that’s working to turn CRISPR into a fully featured editing program. Inscripta sells an automated device that can take bacteria or yeast cells and make thousands of programmed edits to different parts of their genomes in parallel. For researchers, a tool like that can vastly speed up the process of figuring out the relationship between an organism’s genotype and its phenotype. And that can help bioengineers create useful new strains of microorganisms…—or uncover the genetic pathways that lead to disease in higher organisms like plants and humans.</p><p>And now Fox has left Inscripta to start a new synthetic biology company called Infinome. It’s a service provider that works with customers to design new types of organisms through directed evolution. The idea is to take Inscripta’s technology and add the power of data science and machine learning to speed up what Fox calls the “design, built, test, learn” cycle to create better custom organisms faster. The implications are enormous, I’d even say mind-boggling. But in our recent conversation Richard took the time to walk me through the idea step by step. So let’s get straight to it. </p><p><strong>Harry Glorikian: </strong>Richard, welcome to the show. </p><p><strong>Richard Fox: </strong>Thanks Harry. It's great to be here. </p><p><strong>Harry Glorikian: </strong>Richard, I was putting together my notes, like on all the different things you've done and I'm like, Oh my God. I feel like I haven't done anything with my life relative to what you've like accomplished. I mean, you started out as a nuclear engineer, but then you make this complete  turn into biological world. I'm making that assumption. I think you said somewhere, you read a book I can't remember which book it was, that totally like flipped you into that direction. And then it was bioinformatics protein engineering. And then now gene editing. How, what, tell me a little bit about that.</p><p><strong>Richard Fox: </strong>How did I get there? Yeah, no, that's that's right. It was a meandering path, especially early on, but then the last I'd say couple of decades has been pretty consistently in the field of biotechnology, especially protein engineering. And now metabolic construct engineering. We'll talk a good bit,  I'm sure today. Yeah, I guess, sort of to rewind, you're right. I did study nuclear engineering in college and I was working for the US Navy actually as an analyst, civilian. And I was on a ship actually out in the middle of the Pacific Ocean. And I had just been sort of spending my time reading a book called <i>The Selfish Gene</i> by Richard Dawkins. And it completely transformed the way I thought about the world, my place in the world, how evolution worked, and I was completely smitten with the concept of evolution and what it could do. The complexity that it could craft, that nature has done over billions of years. And from that moment on, I had a deep interest in evolutionary biology and the principles of that really elegant algorithm to optimize exceedingly complex systems.</p><p>So it wasn't long after that, that I found myself ultimately, working for a biotechnology company. To be able to practice some of the principles  of evolution, although at a much smaller scale, at least. </p><p><strong>Harry Glorikian: </strong>Yeah. It's funny when you said the elegant algorithm and I'm like, wow. I wonder if there's gotta be a lot of them, right, if you think about evolutionary biology. But I think the company you're talking about is Codexis, was the one that you went to.</p><p><strong>Richard Fox: </strong>Yup. That's right. </p><p><strong>Harry Glorikian: </strong>You worked on protein engineering, drug design, but relying on bioinformatics, statistical analysis, machine learning, evolutionary programming, sort of packing all those things together. Like, how did you bootstrap yourself into a position where you understood like all of these different components? </p><p><strong>Richard Fox: </strong>That's a great question. I think it's like a lot of folks who take a keen interest in something. My career has pretty much been dominated by being interested in things and being passionate and being curious. And so those led to all of the experiences that I've had really that's, that's the short answer. It, it was driven by this interest in biology, but because I had in my studies in nuclear engineering that we talked about earlier, I had pretty much always worked on the computational side of things.</p><p>I was not good in the lab. I've never been good in the lab. I'm always amazed at what the scientists who can actually generate the data that I get to play with can do it's stunning. But I get to sit and I get to play with that data. And I, for many, many years written software and algorithms to process that kind of data. And so that sort of was a natural, natural fit for me. </p><p><strong>Harry Glorikian: </strong>So, just so people can sort of get an evolution of where you were, because we're eventually going to get to where you are now, but, but so sort of what was the main focus of Codexis or the special sauce? </p><p><strong>Richard Fox: </strong>Yeah. Great question. So actually Codexis was a spin-out from a company called Maxygen and Maxygen started if I remember correctly in the mid-90s with the invention of the technology a gentleman by the name of Ken Stemmer. He was really one of the pioneers in the field called directed evolution which ultimately went on to receive a Nobel prize that Frances Arnold won in 2018 for that field. Ken Stemmer was one of the great luminaries in the field early on. And he had developed this technology that would allow you to do evolution in vitro in the lab. Primarily around small or sequences evolving genes, proteins enzymes. And so that core technology was called DNA shuffling and it was very much all the main principles of evolution. So mutation, recombination, selection, all was being carried out in vitro. Very high throughput, very fast to evolve proteins and enzymes for different properties.</p><p>And so Maxygen, the founding company in the mid-90s got started and then in the early 2000s took that core technology and licensed it out to different subsidiaries. And the one that I was associated with, I started with Maxygen, but then I went with the Codexis  subsidiary, and they use that DNA shuffling technology to work with enzymes, primarily for pharmaceutical manufacturing processes.</p><p><strong>Harry Glorikian: </strong>But, I mean, you invented, I think it was called proSAR while you were there, it was sort of to sort through protein mutation faster.  Should we have seen that as  foreshadowing to where you've sort of progressed to and where you are today?</p><p><strong>Richard Fox: </strong>Yeah, I think so, actually it's interesting before I had even joined Maxygen, so it turns out my wife was a scientist at Maxygen. When we first started dating, she told me about this really interesting company that she worked for and she described, it was evolution in the lab. And I was, of course already keenly interested in evolution as we talked about earlier.</p><p>And I think to this day, my wife wonders if I married her for directed evolution! Of course she's a wonderful person, but I very clearly remember, or before I even came to Maxygen given the background I had in software and algorithms. I understood what they were doing in the lab. At least as much as my wife would describe it. And like most people with a background that I had, statistics and optimization, it's sort of a natural, it’s sort of an obvious thing that you would want to do is given, given genotype and phenotype data. How can you search through that space more efficiently by trying to model the system?</p><p>This is something that statisticians have done, for decades. And it was just sort of being in the right place at the right time. So when I, when I then went to Maxygen I, and others, were very interested in applying these, these principles to the searching and seeking space.</p><p><strong>Harry Glorikian: </strong>Yeah. And if you think about, computational capabilities, that whole space has changed, dramatically compared to what we could do in the ‘90s. But, and then you went on to, if I've got my history correctly, Inscripta. And tell the world a little bit about Inscripta, because I'm not sure how well it's understood or how well the company is known. </p><p><strong>Richard Fox: </strong>Yeah. So Inscripta is a life science tools company. So the easiest way to think about is they want to do for writing what Illumina has done for reading. So they want to be able to, at scale, intervene in the genome. Initially they're working in microbes. Eventually they will be having a mammalian capabilities as well. But they want to be able to interrogate the genome at scale. They want to offer tools, benchtop tools, and reagents and software to be able to essentially automate and scale up as much as possible the editing process so that researchers can focus on their research goals and questions. Which is, if I intervene here and there and everywhere, as the case may be with these capabilities, and then being able to test a phenotype, what is the result of those interventions?</p><p>It's hard to overstate how transformational that is, right? I mean, genome biology for years has more or less been dominated as an observational science with this ability to go and intervene at scale. You really, for the first time ever are turning it into an interventional science where you can really get at causality by making the changes in the genome rather than just reading them passively.</p><p><strong>Harry Glorikian: </strong>I mean, if, if you can make the changes you want on human, the industrial application is unbelievable. I mean, the things that you could, right, design and then have that produce something that is for some particular downstream use, would be incredible now. But you guys weren't using, I think you guys said you decided not to use the CAS9 approach. You use something called I think it was MAD7. So how, how did, what was, what was the motivation behind? </p><p><strong>Richard Fox: </strong>Yeah, so it's still straight up CRISPR. It's just it's with a different nuclease.  So early on Inscripta was looking at how to enable this high throughput, massively parallel editing capability. The inventor of the technology, his name is Andrew Garst, who was a co-founder of Incripta, and now he's actually a co-founder of new company that that I started with him and two other gentlemen, and that core technology to be able to do high throughput CRISPR is based on the standard editing technology that centrally involves a nuclease. And Inscripta early on, was looking at the landscape around licensing and enabling researchers and because of some of the issues around licensing of the nucleases that were  out there, Inscripta made a concerted effort to go in and discover and develop a different nuclease. So it could still do the basic process of finding DNA and cutting it in the right place. But the advantage of using this other enzyme is this, that Inscripta offers it basically free to the world to use. So that they're not encumbered by some of the more onerous licensing terms that are out there. </p><p><strong>Harry Glorikian: </strong>So just so everybody kind of understands Inscripta, like, what was the process let's say before Inscripta. And then now if you utilize something like the Inscripta platform.</p><p><strong>Richard Fox: </strong>ah, great question. So CRISPR works. It's amazing. And it well-deserved the Nobel prize in 2020. It is truly stunning its precision and its efficiency. But it's still fairly low throughput. So if you want to go in and you want to make a change to a genome, you have to design your sequences so that they are targeted to the right location. Then the nuclease performs the cut and then there's some repair process to usually insert the sequence that you want. And that can be done. by hand manually that design process can be scaled up obviously with computational tools, but you'd still be limited physically to doing only a small number of changes.</p><p>Just the molecular biology associated with bringing all the right reagents together is sort of can be a laborious process. If you're making one or five or 10 changes, that's not too bad. But if you want to make hundreds, thousands, tens of thousands, that's a different proposition.</p><p><strong>Harry Glorikian: </strong>Yeah. I was just thinking like, I'm just thinking, like even doing one or 10, like, and doing them. Right. And then now you're talking about hundreds or thousands and doing them, it’s a completely different order. So if that's what Inscripta does, then I almost, answered my own question of like…your data scientist group to plan out what you're going to do has got to be, very good. I mean, your analytics capability. Is that what you spend the majority of your time working on and thinking about? </p><p><strong>Richard Fox: </strong>For sure. When I was at Inscripta, that was the majority of what the team and I did, was to think about planning the experiments. And then ultimately when the data come back, you have, when you look at all the data coming back, you basically have millions of data points. When you multiply all of the sequencing data that comes back by the number of conditions and the number of edits that you have all across the system, you're processing large sets of data to understand what each of these edits do.</p><p><strong>Harry Glorikian: </strong>So,  if I, if I had to ask you like, so you've seen a lot, you've sort of made this evolution, and I want to get to Infinome in a moment here, but if you had to summarize sort of the impact of the computational methods that you've worked on on the biopharmaceutical industry, how would you sort of put that into context?</p><p><strong>Richard Fox: </strong>It's yeah, I mean, it's hard to overstate the importance of computational tools. I mean, this, you couldn't do much of this work without that, certainly on the informatics side of things, just managing the data. It's not that sexy, but it's of course critical. And then once you have all that data, actually turning it into meaningful insights. It's profound. The algorithms for evolution do work though. And so one of the interesting things of the DNA shuffling technology that we talked about earlier worked without really a lot of informatics, you would basically apply, survival of the fittest to molecules and it would work and actually quite well, but it was ultimately a blind process at the end of the day.</p><p>And so to accelerate the fitness gain, you want to try and make use of that data to drive towards higher levels of performance in your system. And that really you can only do when you start interrogating what we call the genotype-phenotype map or relationship. And that's allowed us to accelerate the process of evolution more than, than ever before.</p><p><strong>Harry Glorikian: </strong>So that makes me ask the question of, is that what you sort of learned at Inscripta that guided you to start Infinome? Or was there other pieces of the puzzle that sort of the light bulb went on and you're like, I need to go and start this next entity. </p><p><strong>Richard Fox: </strong>Yeah, that's a great question. So actually all of that sort of statistical modeling people call it machine learning now is, was done quite a while ago when I was back at Codexis. And to really understand the history, what happened was that we had developed a lot of these capabilities, but at the gene level engineering enzymes rapidly. So using statistical modeling, high throughput automation, software and information systems, and also a suite of sort of concepts about how to generate the data, plan, your experiments and best move quickly through the cycle, the design, build, test, learn cycle. All of that was very very well-developed. While I, and my colleagues we're at Maxygen and Codexis  going back a decade or more. And so it was really around 2010, 2011, where that technology for doing gene based rapid evolution had evolved quite a bit. It still had room to grow and, and Codexis is is now arguably the state-of-the-art protein engineering company in the world. But what we were experiencing was a desire to move up to larger sequence spaces. So moving beyond just a single gene, we wanted to move to pathways and genomes because we believe the bio economy is in many kind of cases going to evolve, engineering, whole genomes.</p><p><strong>Harry Glorikian: </strong>Right. </p><p><strong>Richard Fox: </strong>And we were very excited at the prospects of being able to do this. And we had a strategy. We had a playbook, because we had developed it, to do single gene evolution or maybe a couple of genes at a time. Well, what we were missing, Harry, and this is where kind of to complete the circle with Inscripta comes in, is what we were missing for many years was the tools to be able to go in and make those changes.</p><p>Across the genome, as it happens, working with genes is fairly straightforward and has been for about 20 years. You can go in and diversify a gene very easily, very cost-effective. You can make all the single nucleotide or amino acid variants that you care to make. And then evaluate those though high throughput systems. You needed something like that, that ability to make those sequence changes, but at the pathway and genome level, and that's what was missing for almost a decade.</p><p>We were waiting to apply this strategy, but we didn't have the tool. And so that's where Inscripta really came in was about three-ish years ago, I was very fortunate enough to get hooked up with the folks at the early stage Inscripta who were looking around at what to do with this massively parallel editing technology. And it was music to my ears and some of my colleagues is like, Oh, now finally, we can go after the whole genome, the way we've gone after genes. </p><p><strong>Harry Glorikian: </strong>It's sort of interesting that you can dial it up and then have these changes happen. I mean, if you, if I think back from where I started, like that was I don't even know if it was a dream, it wasn't even a concept when you think about it. And it it's profound and scary sort of all at the same time, if, depending on who's playing with it. But so now that brings me to Infinome right? So you went from, this protein engineering company that's top in its field to Inscripta that seems like and correct me if I'm wrong, that's working more on industrial applications of making changes to a bacterial genome or yeast or something like that. And now you're at Infinome and okay. For everybody listening, including myself, what is, what is Infinome what's it going to do? And how's it going to change the world? </p><p><strong>Richard Fox: </strong>Yeah. So Inscripta is amazing. The technology that they built and will be offering to the world is just transformative. Simply can't overstate how powerful it is. And it's more than just industrial applications, though. Plenty of biotechs, large and smaller, very excited about the technology. It also has a lot of application, basic science, antibiotic resistance, and all kinds of things that the academic community can dream up using this technology.</p><p>There's lots of applications. So all that's fantastic. What's particularly a challenge on industrial side of the equation is, is that as amazing as the Inscripta platform is, it’s like any other technology stack. It's one piece of the puzzle. It's very important. It's critical in many ways, but it's not sufficient to do rapid genome engineering all by itself.</p><p>What you find, and it was, it's also true, going back to the days at Maxygen and Codexis is that the core, DNA shuffling technology and then proSAR later and so forth, all really important pieces of the technology stack, what we found, because we were part of developing the whole ecosystem is that you needed everything else to work together almost seamlessly, to be able to run very quickly through the whole process. And so what Infinome is doing is it's certainly going to use the Inscripta technology as a core part of its it stack. But then we bring together a host of other capabilities and experience or expertise to be able to run this in the synthetic biology world, the famous design build test learn cycle very efficiently, very cost-effectively.</p><p><strong>Harry Glorikian: </strong>So is this a service? Cause Inscripta is a product per se, right, that might be sold to someone, but is, is Infinome more of a service of doing it because of all the different pieces that need to come together? Or can I buy this in a box? </p><p><strong>Richard Fox: </strong>Yeah, no, it's more of a it's more than a service. I would say it's a group of individuals with capabilities wet lab expertise, informatics expertise the know how to pull it all together. It's definitely an execution team and a suite of capabilities. It's not an off the shelf offering not by any means. </p><p><strong>Harry Glorikian: </strong>So what do you say as like, assuming all of this comes together the right way? What, if you had to describe it to someone, what could you do? What would it be? </p><p><strong>Richard Fox: </strong>Yeah, so it turns out there's all kinds of opportunities in the bio economy that are just waiting for folks to go after, but they don't have the capabilities to be able to execute on them. So the Inscripta technology is important, statistical analysis, high throughput, automation, all these things are important, but very few organizations have been able to pull them all together in a way that allows you to run very fast, very cost-effectively. And when you can bring that execution sort of an activation energy barrier, if you think about it, that way you bring that down. Now, a whole suite of bio-economy type applications are now on the table.</p><p>So certainly producing bioproducts, proteins, and small molecules that are high value or are commodity for that matter. They're now all things that can, you can go after, because it doesn't take, 20, 30 the people and 10 years anymore, like the way it used to, to engineer microbes. Very typical over the last 10 or 20 years for large engineering efforts that took many, many man years, potentially hundreds of man years and many tens of millions, if not hundreds of millions of dollars to generate these biological solutions. Now we're able to do at a fraction of that sort of time and costs with the capabilities that, that Infinome will have. </p><p><strong>Harry Glorikian: </strong>I mean, it sounds like though, I mean I always go through this debate of doing it for someone else versus doing it myself, sort of thing of you almost should do all the work yourself and produce the product yourself. That seems like it's where it's going to garner the largest value. </p><p><strong>Richard Fox: </strong>Yeah. And actually that gets to Infinome's business model, which is, we are indeed going down that road. So we are technologists. We love our technology, but at the end of the day, we, and I, I should have given you the background here. If it wasn't already obvious, Inscripta was amazing. Great, fun, wonderful people. Some of the best colleagues I've ever had in my career. And yet where, what we found is that at the end of the day, we wanted to take this technology and apply it to actual applications. That's what ultimately led to the formation of Infinome.</p><p>And so we ultimately had the idea that we wanted to build this technology stack to be able to apply to real applications. And as we looked around at how we wanted to build out Infinome it's definitely a core part of our business. It's sort of our reason for existence at one level, but we're actually going to pursue some mix of both internal applications and working with partners, depending on how new, the opportunities that come into play.</p><p><strong>Harry Glorikian: </strong>You know, I try to always in the show is get to like, that intersection of the biology and the data, right? The Inscripta platform sounds like it helps you efficiently apply the biology and know where to apply the biology based on the data that the informatics platforms that feed it. The question is now, in Infinome how are you looking at balancing those two pieces? Right. The data analytics at different points and, and getting the product you want in the end. Is it stringing together the right pieces of the puzzle to create something from end to end? I'm trying to wrap my head around these two concepts.</p><p><strong>Richard Fox: </strong>Yeah. The data analytics, so that's a really important question and piece to the, to the ecosystem. So as we've talked about before the ability to diversify sequences, whether it's at the gene or the pathway of the genome is sort of step one. And especially in contexts where you're making multiple changes, this is when the informatics becomes really important is when you have sequence variants where you're making multiple changes, then there's a deconvolution process to say, Oh, well, which interventions or combinations of the interventions are leading to the phenotype of interest. Right. And that's where the statistical modeling machine learning really starts to be powerful. And so Infinome is in the process of generating lots of data, not with just single interventions, but multiple interventions.</p><p>And that deconvolution process will be, will be critical to sort of unmasking the genotype-phenotype relationship around the particular trait or phenotype of interest. This is definitely something that's been done for many years at the gene level. It hasn't really been done at the genome level, because again, we lacked the tools to make these things, these kinds of libraries, but now we have it.</p><p>And so now we're off to the races again. So individual projects where you're looking at, these relationships between genotype and phenotype certainly are amenable to this kind of statistical analysis. I think what's really interesting is to think about down the road, how much of that landscape, that genotype-phenotype relationship, how generalizable is that? What are sort of the rules of thumb or guiding principles that you can apply across many projects? Maybe some of them are related. Maybe some are very different. What are kind of the patterns that over time with enough data, can you start to give yourself an advantage? When the next opportunity comes in, is there something that you've already learned from the data that you generated and the models that you've created, that you can apply to the future? This is the classic data network effect that we think biology has long promised to have. But I think because we haven't had the tools to go in and actively intervene, we don't really know yet what the boundaries of that, that possibility are.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, it always seems like when we get to enough that there is a finite number of options that present themselves, depending on the model that you're looking at. And I, of course, I mean maybe across different models, there may be that rule set may be different, but I think finding one and basing something on, which is why everybody seems to find one and then never move off of it because they spent so much time figuring it out. So, where's the company right now in its process. ‘Cause I feel like it's in, I want, I keep wanting to say stealth mode, but where are you in the growth phase or the gestational phase. Yeah. </p><p><strong>Richard Fox: </strong>So we're still early days. We we're a few months into this. And so we were talking to lots of potential partners and investors, and we're just about wrapping up our first round of funding. And we do have some partner projects that are spinning up as well as getting to work on our internal projects. So we're going to be getting going here. We've been going in earnest, but we'll be a little bit more public here very shortly about it. </p><p><strong>Harry Glorikian: </strong>And if you had to like describe a perfect project, I'm sure that when everybody came together, they're like, if we could do this, that would be right. As opposed to some, amorphous description of what it was. If you had to put it into brass tacks for people listening, what would you describe to someone as an ideal project from start to finish. </p><p><strong>Richard Fox: </strong>Yeah, that's a great question. I mean, it would involve at a high level, there's the scientific, and then there's also the business. And I can sort of speak to both aspects. So within business it's not controversial, right? You want to go after high value products, right. Things where the economics around scaling the process. Are not so burdensome that,there's already say commodity solutions out there. You'd like to go after things that maybe are at a smaller scale and sell at a higher, unit costs. Not to say that commodity solutions aren't also our opportunities, aren't also on the table. But that just comes down to techno-economic modeling and what, where are the opportunities where you can get into the market? And produce something better, faster, cheaper than something that's already out there. So those are kind of typical sort of business considerations.</p><p>On the scientific side of things, there's a lot of opportunities now with this technology that we're developing that are putting things on the table that heretofore haven't really been a possibility. So in particular, the whole space of natural products is a really exciting one. So it turns out that a lot of people produce natural products in sort of exotic organisms, because that's where they're initially discovered. And there's large bias that there's large gene clusters in these organisms and they just work.</p><p>And it's for lots of folks, the perception is, is that, well, you do what you can do with what you have. That's what you were given, what's the old saying, you go to war with the army you have, not the army you want. And yeah. Part of it is, was based in some practical consideration around like, well, you spend all this time and effort to culture, these exotic organisms to do a lot of fermentation, process development and it's working. But it's not working well, but it's enough to be economical. With today's technology to be able to move large DNA sequences around recode them and optimize them for different organisms, and now with the ability to, once you have a microbe with say a heterologous pathway, maybe even really large ones from these other organisms, maybe 10, 20, 30 genes in them, now you can, with these high throughput, massively parallel gene editing capabilities and a suite of supporting pieces of the technology stack, now you can move through these pathways in genome sequence spaces much more rapidly than you ever could before. </p><p>So the barrier that was sort of there before, which is, well, even if I could move the pathway over, it's still taking 10 years to get the bug to perform at the level that's commercially viable right now, you can see a path where if I can move these pathways over in working much more engineerable systems, then I can get to that my commercial end point much, much faster than ever before. And this is not something that was possible before Inscripta and the Infinome technology platforms.</p><p><strong>Harry Glorikian: </strong>Yeah. I can tell you, like, I mean, I remember we'd be working on a particular pathway and then, okay, we think we got it working, but let's see how it goes. And then you'd have to wait weeks to get some sort of result. And then it's not as efficient as we wanted. Let's go back to the drawing board. And it would take forever for that loop to keep going back and forth until you, and I still say, hopefully, get to the result you wanted to, because there was no guarantee that you were going to tweak it to get it to do what you wanted it to do. Very painful process. Yeah. Yeah, it is. Because every time you feel like you've., every scientist will tell you I got it. I figured it out. I think we got it. I think we got it to do what we want it to do. </p><p>So if you took sort of… just so people listening can get sort of the timeframes because I'm, I'm big on this. The difference between evolution and revolution is time. If you wait long enough the change will happen, but right now, what I see is technology accelerating things and, and the timescales are being collapsed  at much tighter timelines. If you had to talk about where we were sort of in genome editing and then put that into a timescale and talk about where we are now, how would you. </p><p><strong>Richard Fox: </strong>Yeah, it's a great question. So the core editing technology that Inscripta has developed is orders of magnitude more efficient. I mean, there's, there's things you can do with the Inscripta platform that you, you just would never consider doing by hand, to make 10,000 edits or more across the genome, which try to do that by hand, it would just be, it wouldn't be feasible economically or manpower wise.</p><p>So that ability to do massively parallel editing is sort of without a comparison. You just simply would try fewer things. And it would probably take you even more people with existing molecular biology techniques. So that's already one, like, several order of magnitude level of efficiency. And then as we talked about earlier, as amazing as that is, even that's not sufficient, right? Because now you have all these variants </p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Richard Fox: </strong>Now you have to be very efficient in testing them. And it turns out that that's also a bottleneck. And so even with some of the best folks out there today practicing genome engineering, you still find that the teams are fairly large and relatively slow when it comes to processing these variants.</p><p>So, and this one's interesting because it's not that the technologies and the strategies don't exist to do it. It's just very rare to find the, sort of the folks who can bring it all together with the right information systems. Lean smart automation. So to give you some numbers, for example, and I'll actually, I'll go back to sort of enzyme engineering back, 15, 20 years ago, teams would be 10, 15 people. You would do one round of evolution, maybe every couple months, and after a couple of years or more, you get to your end point. Now state-of-the-art enzyme engineering teams are much smaller, two to four people, one round every two weeks, maybe a month in the slower projects. And so you're already seeing multiple factors of speed-up in the enzyme world.</p><p>It's that same sort of step up that we're looking to do with pathways and genomes, so much smaller teams, maybe a quarter of the size or smaller. with much more diversity going into the pipeline, thousands, tens of thousands of things that you're testing. So when you multiply that out on a number of things, tested per unit person, it's maybe three orders of magnitude more efficient.</p><p><strong>Harry Glorikian: </strong>And so if, if you said, so now I need a quarter of the people or a third of the people let's say. I'm able to do more. What is driving that? Is it, is it the data science side of it? I mean, I feel like a lot of the biology has been there already, but is it in the industrialization of the biology plus the data science?</p><p> </p><p><strong>Richard Fox: </strong>It's both. I mean, it's definitely, as we talk, you couldn't do this before, these high-throughput, before this massively parallel editing technology was developed, you just simply couldn't. So that was a key piece that sort of opened up the floodgates. But now it's, a lot of it is managing what you create both physically and the downstream tests, software and information systems to manage all the data and quickly and intelligently getting to the next round of prescribed experiments that you want to do without all those pieces. You simply would be sort of hobbled in the overall sort of cycle time and how much functional gain or leaps in fitness you can affect at each, each round. </p><p><strong>Harry Glorikian: </strong>Okay. And then it's tweaking at every single one of those stages to make each one better or more efficient.</p><p><strong>Richard Fox: </strong>Yes, exactly. Yup. And sort of a key thing, it's sort of an obvious point, Harry, but it's, it's interesting after all these years that it's not widely appreciated is the following, which is in every step of design build, test, learn, there's—to steal the term from electrical engineering—there's an impedance mismatch, right?</p><p>So between build and test, for example, historically, there can be widely divergent throughputs for build or test. Sometimes you can only build a few things. And you've got a really high-throughput test. Or vice versa. And so what we've seen, what we personally experienced and been involved in innovating around is to minimize as much as possible that impedance mismatch between every step of design, build,, test learn. You can make orders of magnitude improvement if you pay attention to those mismatches. </p><p><strong>Harry Glorikian: </strong>Yes. And I always think about it as whack-a-mole. I fixed, I, I make one part of it better, the bottleneck just moves, right. It just moves where it is. And I don't know if I ever get to the whole thing is just moving at the pace I want it to, because ultimately there's only so many things you can pay attention to at the same time.</p><p>So, so you're telling me that basically what might take me three or four years to do by historical or old methods now might take me. Six months to a year. </p><p><strong>Richard Fox: </strong>Yes, that's right. With, at a fraction of the resources as well. So it's not just how long it takes. It's integrating that resource burn over that period of time. Possibly, a factor of three to five, perhaps even more integrated over a longer period of time. We're looking at much smaller teams, much more efficient use of resources. Getting to the end point much more quickly. </p><p><strong>Harry Glorikian: </strong>So who is this disruptive to assuming we can do all of this, right? Who is this disruptive to out there?</p><p><strong>Richard Fox: </strong>There are many sources of disruption. I guess one would be, depending on what you're going after, for products that are based on saythe petroleum industry. If you could move those into bioproduction processes and replace those other sort of conventional sources of production, then it would be, those sort of old style of petroleum-based producers.</p><p>So they would be potentially disrupted by this. The way I like to think about it is, is that, it's a big world and sometimes people ask, well, what is Infinome’s long-term plan to do. And while we definitely want to create products and be successful, our view is that it's a big world out there and that there's so many opportunities to go after.</p><p>We're excited, just sort of as scientists and, members of the human race on planet earth. We are very excited that long-term, these kinds of approaches will find wider adoption now that the tools are coming online. And if we can help be a part of sort of blazing the trail there's a part of us that would be very fulfilled and satisfied if we can see this technology getting used in other, other areas as well.</p><p>Long-term, if we can help be a part of that process, either actively or passively, it's up for debate and it's one of the business models we're considering, which is, as we get better and better at this and execute on multiple projects, both internal and external, eventually, if we can help the rest of the world in some way as a template, possibly, licensing technology expertise and so forth.</p><p>Because as I say, there's no way that Infinome, even if we became, a huge company like Cargill or DSM or ADM in large manufacturing. Even for them, the world's a big place, right? So we're very interested in pushing the envelope, being successful on what we go after and then ultimately hoping that and being a part of, creating the ecosystem that the rest of the world can also use to go after the countless bio products that are going to be developed over the next 20, 30 years. </p><p><strong>Harry Glorikian: </strong>And it sounds like over time as you're accumulating the data and understanding, I make this change in these, these are the implications and this is what happens downstream. I mean, at some point it becomes much, much more data science than just, what chemistry, at some point, if you're focused in a couple of very discrete areas. </p><p><strong>Richard Fox: </strong>Yeah. I think that's right, Harry. And that gets to this really interesting unknown at this point of how much can you generalize the process and the information that the models that you're learning? How generalizable are those to other parts of the genome. </p><p>So I've already mentioned this sort of sequence-function landscape several times. It's a concept that's been around for almost a hundred years now. If you think of you genotype as latitude and longitude, and elevation as phenotype, if you think of nature, having developed lots of mountains and hills across this, very high dimensional sequence function landscape. A really interesting question is, if I'm climbing up this mountain for product A, if I go after product A' and it's similar to A, arguably I can use some of the information or a lot of the information that I've developed already around product A to extrapolate to A'. </p><p>I think what we don't know yet is, if you go for product B and it's near A, but it's somewhat distant, how much can you extrapolate from what you learned about A and A' over B? And this gets to, is it really in the cards that you can create a global sequence-function landscape for all possible traits and phenotypes? That is a very tall order. I don't imagine that's going to happen in my lifetime.</p><p><strong>Harry Glorikian: </strong>I agree with that </p><p><strong>Richard Fox: </strong>The models for navigating these spaces, I think definitely are generalizable, but then it gets down to how close do the landscapes need to be similar to each other for you to leverage what you've already sort of learned about them.</p><p><strong>Harry Glorikian: </strong>But at some point, right, you get to know A well enough that there is, there's an informatics approach to it. And that it's going to work because you've worked with it so much. And then you get to know A'. Right? I, I understand the generalizable, which would be awesome. But even as you're moving down, some of these product areas, somebody comes to you and say, can you make that tweak for me? </p><p><strong>Richard Fox: </strong>Yes.</p><p><strong>Harry Glorikian: </strong>It becomes a lot easier to make the tweak than where, when you first started trying to understand A well enough. </p><p><strong>Richard Fox: </strong>That's right. That's spot on, Harry. That's exactly right. And so if you're working in related product classes then there's definitely huge value built up over, proprietary, data sets and models generated. You can definitely leverage that move much faster. than if you were starting from scratch, for sure. Yeah. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, it's funny, right? I always used to say to them, I ran a consulting firm for a while, strategy consulting, and I'd be like, the first customer that comes by then, we're going to do our best, right? The fifth customer, man, they got such a good, insight, an answer, because there were five that we learned from, and we knew exactly what was going to happen. But, and I look at this the same way, but, but with more solidified data pathways, understanding what changes cause what downstream. And now someone says, well, can you make this slight tweak for me? It's not starting from scratch. There's an informatics backend that sort of, you can dial up and get what you want. And so the timescale of being able to do it would also be less. It will also shrink. </p><p><strong>Richard Fox: </strong>Yeah, that's right. That's right. </p><p><strong>Harry Glorikian: </strong>Well, all this sounds super exciting and super scary all at the same time. Right? Cause I can think of all the great stuff that can be done, but then I can also think of like, the easier and easier this technology gets, the more you worry about who's doing that work. </p><p><strong>Richard Fox: </strong>Yeah, I, that's a good question. And that one, so just so Inscripta takes that [seriously] along with a lot of people who work in this business. The gene synthesis providers have faced this for many years and they have taken that very seriously. So they, they screen for nefarious sequences or uses that could potentially be problematic. Inscripta is the same way. You can't just order up whatever you want and create new pathogens. There are pretty strong restrictions against doing that. So it'll be interesting to see, going forward, how companies like Inscripta and others will continue to stay ahead of this. I think it's very important for them to take an active role in this and not because the alternative is, is that the government would step in and legislate and create a lot of bureaucracy and slow down the science.</p><p>And so I think the industry behooves them, all these tool providers and users, it behooves everyone to try to do the right thing here. And so far, everything that we're seeing from Inscripta and in other companies is that they are, and they are taking this seriously. And they're putting methods in place to prevent uses that could be dangerous.</p><p><strong>Harry Glorikian: </strong>Yeah, no, that's good. But it's interesting because this, this whole area that you and I are talking about, the implications are profound and I'm not sure everybody fully, I'm not sure that most people appreciate how quickly things have moved compared to where they were, I don't know, I want to say 10 years ago. I mean, 10 years ago, it feels like a lifetime, when you look at the level of change that's happened, across the board. </p><p><strong>Richard Fox: </strong>Yeah. It really is stunning. I mean, I, the first I remember being in Inscripta and seeing the first real large-scale experiments, that I was involved with at least. And seeing that come out and seeing that we were literally editing, five, ten thousand different genomes with things that we precisely designed and wanted to have integrated into the genome.</p><p>I couldn't believe that I was really looking at the data that was really corresponding to reality out there and that we had created. 10,000 new organisms. I mean, in a precise way, people have been doing random mutagenesis, but like in a directed, precise conscious way having that power. I'll never to be able to describe it. It was, yeah, it was something as a computer guy I have long wanted, because I can sit and write out sequences, and I'd always wanted this ability to do this for genes and pathfways and genomes. And so to actually finally hold it. It was it was really special.</p><p><strong>Harry Glorikian: </strong>it's funny because I've always said over the years, like biology always, you can come up with a great thing. You can map it out, you can do all the work you want. It doesn't mean that biology is going to participate willingly. Right. And now what you're saying is, is we're getting a whole lot better at figuring out how to get the, the software of biology to do what we want it to, or, or manipulate the hardware within biology. However you want to look at it, but to get it to do what we want it to do when we want it to do it. </p><p><strong>Richard Fox: </strong>Yeah. I think that's right. And actually, we didn't really linger on this, I had talked a lot about my interest in evolution, but just to be very explicit about it, because it's important: The reason why this technology is so important is because we don't know the rules of biology.</p><p>If you knew the 10 or 20 changes that you needed to make, and you just went in and made them, and from first principles could design these biological systems, it would be wonderful. And there was a lot of interest in synthetic biology when it first started gaining currency as a term 10 or 15 years ago, that was the aspiration.</p><p>And that was certainly laudable, but it's met with very limited success in the way that a mechanical and electrical engineer would think about engineering a system. This is just not in the cards for biology anytime soon. So being able to try lots of different things is critical to being able to get to your desired influence faster. This is something we've known from proteins for many years, and it's always been true, of course, at the larger sequences of pathways and genomes as well. </p><p><strong>Harry Glorikian: </strong>Yeah, I see it across, multiple areas,  materials, chemistry, there's all sorts of areas where people now are applying, machine learning and AI. The properties that they've got from the chemicals that they're working with and being able to just go through a giant sort of figure eight and just keep testing out until they figure out what gets this thing to get to where they want it to be and then being able to make it reproducibly.</p><p><strong>Richard Fox: </strong>Yup. That's right. Yeah. I mean, there's a reason Frances Arnold won the Nobel prize in directed evolution and not a computational protein engineer. As amazing as the work they've done, it's just, you can't design a protein from first principles to get a 4,000-fold improvement for some property of interest. It's just, it's not possible. So you have to try many things and let nature tell you what works and what doesn't. And it's absolutely the same for pathways and genomes as well. </p><p><strong>Harry Glorikian: </strong>Yeah, I guess just to summarize it here, though, what we're saying is we're going to start telling nature. What we want it to do and it's going to do it for us.</p><p><strong>Richard Fox: </strong>Yes, exactly. Maybe over time, as we've talked about, some of these patterns will become emergent, especially around A or A’. But, the full, the full truth behind nature will be, I think, hidden for the foreseeable future. So we're going to have to rely on empiricism, </p><p><strong>Harry Glorikian: </strong>I think to, yeah, I'm happy to take it one, one at a time, one step at a time is fine. You can still make a big difference in people's lives in the environment and that's what we're in this business for. So, well, it was great to catch up with you. I do want to talk to you once things are up and running and hear how the dream is becoming, the fulfilled reality. But maybe we can stay in touch and, and, and touch base at that point. </p><p><strong>Richard Fox: </strong>Yeah. Yeah, o, this has been great. I'd be really excited to share with you some of our early successes. Once, once we get going and you start to talk more about it. </p><p><strong>Harry Glorikian: </strong>Excellent. Great talking to you. </p><p><strong>Richard Fox: </strong>Great. Thanks, Harry.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Mon, 26 Apr 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (harry glorikian, richard fox)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week Harry speaks with Richard Fox, a computational biologist whose work at two life sciences startups, Inscripta and Infinome, is helping to automate and vastly scale up the process of engineering an organism's genome to evoke new functions or uncover important genetic pathways.</p><p>With the discovery of the genetic scissors known as CRISPR-Cas9 in 2012, biologists gained the ability to make precise cuts in the genes of almost any organism. For genetic engineers, what used to be a slow, labor-intensive, manual process was suddenly easy. It was like jumping from a medieval monastery where all the monks write their manuscripts longhand into a world where everyone has a word processor on their desktop. But the first generation of CRISPR technology was still pretty limited. To continue with the word processing metaphor: you could use CRISPR to change individual letters in a text, but you couldn’t use it to modify entire words, sentences, or paragraphs.</p><p>At Inscripta, Fox helped to turn CRISPR into a fully featured editing program. The company sells an automated device that can take bacteria or yeast cells and make thousands of programmed edits to different parts of their genomes in parallel. For researchers, a tool like that can vastly speed up the process of figuring out the relationship between an organism’s genotype and its phenotype. And that can help bioengineers create useful new strains of microorganisms—or uncover the genetic pathways that lead to disease in higher organisms like plants and humans.</p><p>And now Fox has left Inscripta to start a new synthetic biology company called Infinome. It’s a service provider that works with customers to design new types of organisms through directed evolution. The idea is to take Inscripta’s technology and add the power of data science and machine learning to speed up what Fox calls the “design, built, test, learn” cycle to create better custom organisms faster. The implications are mind-boggling—but in this episode Fox walks through the ideas step by step. </p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p>With the discovery of the genetic scissors known as CRISPR-Cas9 in 2012, biologists gained the ability to make precise cuts in the genes of almost any organism. For genetic engineers, what used to be a slow, labor-intensive, manual process was suddenly easy. It was like jumping from a medieval monastery where all the monks write their manuscripts longhand into a world where everyone has a word processor on their desktop.  But the first generation of CRISPR technology was still pretty limited. To continue with the word processing metaphor: you could use CRISPR to change individual letters in a text, but you couldn’t use it to modify entire words, sentences, or paragraphs.</p><p>My guest this week is the computational biologist Richard Fox, and he spent years working at a company called Inscripta that’s working to turn CRISPR into a fully featured editing program. Inscripta sells an automated device that can take bacteria or yeast cells and make thousands of programmed edits to different parts of their genomes in parallel. For researchers, a tool like that can vastly speed up the process of figuring out the relationship between an organism’s genotype and its phenotype. And that can help bioengineers create useful new strains of microorganisms…—or uncover the genetic pathways that lead to disease in higher organisms like plants and humans.</p><p>And now Fox has left Inscripta to start a new synthetic biology company called Infinome. It’s a service provider that works with customers to design new types of organisms through directed evolution. The idea is to take Inscripta’s technology and add the power of data science and machine learning to speed up what Fox calls the “design, built, test, learn” cycle to create better custom organisms faster. The implications are enormous, I’d even say mind-boggling. But in our recent conversation Richard took the time to walk me through the idea step by step. So let’s get straight to it. </p><p><strong>Harry Glorikian: </strong>Richard, welcome to the show. </p><p><strong>Richard Fox: </strong>Thanks Harry. It's great to be here. </p><p><strong>Harry Glorikian: </strong>Richard, I was putting together my notes, like on all the different things you've done and I'm like, Oh my God. I feel like I haven't done anything with my life relative to what you've like accomplished. I mean, you started out as a nuclear engineer, but then you make this complete  turn into biological world. I'm making that assumption. I think you said somewhere, you read a book I can't remember which book it was, that totally like flipped you into that direction. And then it was bioinformatics protein engineering. And then now gene editing. How, what, tell me a little bit about that.</p><p><strong>Richard Fox: </strong>How did I get there? Yeah, no, that's that's right. It was a meandering path, especially early on, but then the last I'd say couple of decades has been pretty consistently in the field of biotechnology, especially protein engineering. And now metabolic construct engineering. We'll talk a good bit,  I'm sure today. Yeah, I guess, sort of to rewind, you're right. I did study nuclear engineering in college and I was working for the US Navy actually as an analyst, civilian. And I was on a ship actually out in the middle of the Pacific Ocean. And I had just been sort of spending my time reading a book called <i>The Selfish Gene</i> by Richard Dawkins. And it completely transformed the way I thought about the world, my place in the world, how evolution worked, and I was completely smitten with the concept of evolution and what it could do. The complexity that it could craft, that nature has done over billions of years. And from that moment on, I had a deep interest in evolutionary biology and the principles of that really elegant algorithm to optimize exceedingly complex systems.</p><p>So it wasn't long after that, that I found myself ultimately, working for a biotechnology company. To be able to practice some of the principles  of evolution, although at a much smaller scale, at least. </p><p><strong>Harry Glorikian: </strong>Yeah. It's funny when you said the elegant algorithm and I'm like, wow. I wonder if there's gotta be a lot of them, right, if you think about evolutionary biology. But I think the company you're talking about is Codexis, was the one that you went to.</p><p><strong>Richard Fox: </strong>Yup. That's right. </p><p><strong>Harry Glorikian: </strong>You worked on protein engineering, drug design, but relying on bioinformatics, statistical analysis, machine learning, evolutionary programming, sort of packing all those things together. Like, how did you bootstrap yourself into a position where you understood like all of these different components? </p><p><strong>Richard Fox: </strong>That's a great question. I think it's like a lot of folks who take a keen interest in something. My career has pretty much been dominated by being interested in things and being passionate and being curious. And so those led to all of the experiences that I've had really that's, that's the short answer. It, it was driven by this interest in biology, but because I had in my studies in nuclear engineering that we talked about earlier, I had pretty much always worked on the computational side of things.</p><p>I was not good in the lab. I've never been good in the lab. I'm always amazed at what the scientists who can actually generate the data that I get to play with can do it's stunning. But I get to sit and I get to play with that data. And I, for many, many years written software and algorithms to process that kind of data. And so that sort of was a natural, natural fit for me. </p><p><strong>Harry Glorikian: </strong>So, just so people can sort of get an evolution of where you were, because we're eventually going to get to where you are now, but, but so sort of what was the main focus of Codexis or the special sauce? </p><p><strong>Richard Fox: </strong>Yeah. Great question. So actually Codexis was a spin-out from a company called Maxygen and Maxygen started if I remember correctly in the mid-90s with the invention of the technology a gentleman by the name of Ken Stemmer. He was really one of the pioneers in the field called directed evolution which ultimately went on to receive a Nobel prize that Frances Arnold won in 2018 for that field. Ken Stemmer was one of the great luminaries in the field early on. And he had developed this technology that would allow you to do evolution in vitro in the lab. Primarily around small or sequences evolving genes, proteins enzymes. And so that core technology was called DNA shuffling and it was very much all the main principles of evolution. So mutation, recombination, selection, all was being carried out in vitro. Very high throughput, very fast to evolve proteins and enzymes for different properties.</p><p>And so Maxygen, the founding company in the mid-90s got started and then in the early 2000s took that core technology and licensed it out to different subsidiaries. And the one that I was associated with, I started with Maxygen, but then I went with the Codexis  subsidiary, and they use that DNA shuffling technology to work with enzymes, primarily for pharmaceutical manufacturing processes.</p><p><strong>Harry Glorikian: </strong>But, I mean, you invented, I think it was called proSAR while you were there, it was sort of to sort through protein mutation faster.  Should we have seen that as  foreshadowing to where you've sort of progressed to and where you are today?</p><p><strong>Richard Fox: </strong>Yeah, I think so, actually it's interesting before I had even joined Maxygen, so it turns out my wife was a scientist at Maxygen. When we first started dating, she told me about this really interesting company that she worked for and she described, it was evolution in the lab. And I was, of course already keenly interested in evolution as we talked about earlier.</p><p>And I think to this day, my wife wonders if I married her for directed evolution! Of course she's a wonderful person, but I very clearly remember, or before I even came to Maxygen given the background I had in software and algorithms. I understood what they were doing in the lab. At least as much as my wife would describe it. And like most people with a background that I had, statistics and optimization, it's sort of a natural, it’s sort of an obvious thing that you would want to do is given, given genotype and phenotype data. How can you search through that space more efficiently by trying to model the system?</p><p>This is something that statisticians have done, for decades. And it was just sort of being in the right place at the right time. So when I, when I then went to Maxygen I, and others, were very interested in applying these, these principles to the searching and seeking space.</p><p><strong>Harry Glorikian: </strong>Yeah. And if you think about, computational capabilities, that whole space has changed, dramatically compared to what we could do in the ‘90s. But, and then you went on to, if I've got my history correctly, Inscripta. And tell the world a little bit about Inscripta, because I'm not sure how well it's understood or how well the company is known. </p><p><strong>Richard Fox: </strong>Yeah. So Inscripta is a life science tools company. So the easiest way to think about is they want to do for writing what Illumina has done for reading. So they want to be able to, at scale, intervene in the genome. Initially they're working in microbes. Eventually they will be having a mammalian capabilities as well. But they want to be able to interrogate the genome at scale. They want to offer tools, benchtop tools, and reagents and software to be able to essentially automate and scale up as much as possible the editing process so that researchers can focus on their research goals and questions. Which is, if I intervene here and there and everywhere, as the case may be with these capabilities, and then being able to test a phenotype, what is the result of those interventions?</p><p>It's hard to overstate how transformational that is, right? I mean, genome biology for years has more or less been dominated as an observational science with this ability to go and intervene at scale. You really, for the first time ever are turning it into an interventional science where you can really get at causality by making the changes in the genome rather than just reading them passively.</p><p><strong>Harry Glorikian: </strong>I mean, if, if you can make the changes you want on human, the industrial application is unbelievable. I mean, the things that you could, right, design and then have that produce something that is for some particular downstream use, would be incredible now. But you guys weren't using, I think you guys said you decided not to use the CAS9 approach. You use something called I think it was MAD7. So how, how did, what was, what was the motivation behind? </p><p><strong>Richard Fox: </strong>Yeah, so it's still straight up CRISPR. It's just it's with a different nuclease.  So early on Inscripta was looking at how to enable this high throughput, massively parallel editing capability. The inventor of the technology, his name is Andrew Garst, who was a co-founder of Incripta, and now he's actually a co-founder of new company that that I started with him and two other gentlemen, and that core technology to be able to do high throughput CRISPR is based on the standard editing technology that centrally involves a nuclease. And Inscripta early on, was looking at the landscape around licensing and enabling researchers and because of some of the issues around licensing of the nucleases that were  out there, Inscripta made a concerted effort to go in and discover and develop a different nuclease. So it could still do the basic process of finding DNA and cutting it in the right place. But the advantage of using this other enzyme is this, that Inscripta offers it basically free to the world to use. So that they're not encumbered by some of the more onerous licensing terms that are out there. </p><p><strong>Harry Glorikian: </strong>So just so everybody kind of understands Inscripta, like, what was the process let's say before Inscripta. And then now if you utilize something like the Inscripta platform.</p><p><strong>Richard Fox: </strong>ah, great question. So CRISPR works. It's amazing. And it well-deserved the Nobel prize in 2020. It is truly stunning its precision and its efficiency. But it's still fairly low throughput. So if you want to go in and you want to make a change to a genome, you have to design your sequences so that they are targeted to the right location. Then the nuclease performs the cut and then there's some repair process to usually insert the sequence that you want. And that can be done. by hand manually that design process can be scaled up obviously with computational tools, but you'd still be limited physically to doing only a small number of changes.</p><p>Just the molecular biology associated with bringing all the right reagents together is sort of can be a laborious process. If you're making one or five or 10 changes, that's not too bad. But if you want to make hundreds, thousands, tens of thousands, that's a different proposition.</p><p><strong>Harry Glorikian: </strong>Yeah. I was just thinking like, I'm just thinking, like even doing one or 10, like, and doing them. Right. And then now you're talking about hundreds or thousands and doing them, it’s a completely different order. So if that's what Inscripta does, then I almost, answered my own question of like…your data scientist group to plan out what you're going to do has got to be, very good. I mean, your analytics capability. Is that what you spend the majority of your time working on and thinking about? </p><p><strong>Richard Fox: </strong>For sure. When I was at Inscripta, that was the majority of what the team and I did, was to think about planning the experiments. And then ultimately when the data come back, you have, when you look at all the data coming back, you basically have millions of data points. When you multiply all of the sequencing data that comes back by the number of conditions and the number of edits that you have all across the system, you're processing large sets of data to understand what each of these edits do.</p><p><strong>Harry Glorikian: </strong>So,  if I, if I had to ask you like, so you've seen a lot, you've sort of made this evolution, and I want to get to Infinome in a moment here, but if you had to summarize sort of the impact of the computational methods that you've worked on on the biopharmaceutical industry, how would you sort of put that into context?</p><p><strong>Richard Fox: </strong>It's yeah, I mean, it's hard to overstate the importance of computational tools. I mean, this, you couldn't do much of this work without that, certainly on the informatics side of things, just managing the data. It's not that sexy, but it's of course critical. And then once you have all that data, actually turning it into meaningful insights. It's profound. The algorithms for evolution do work though. And so one of the interesting things of the DNA shuffling technology that we talked about earlier worked without really a lot of informatics, you would basically apply, survival of the fittest to molecules and it would work and actually quite well, but it was ultimately a blind process at the end of the day.</p><p>And so to accelerate the fitness gain, you want to try and make use of that data to drive towards higher levels of performance in your system. And that really you can only do when you start interrogating what we call the genotype-phenotype map or relationship. And that's allowed us to accelerate the process of evolution more than, than ever before.</p><p><strong>Harry Glorikian: </strong>So that makes me ask the question of, is that what you sort of learned at Inscripta that guided you to start Infinome? Or was there other pieces of the puzzle that sort of the light bulb went on and you're like, I need to go and start this next entity. </p><p><strong>Richard Fox: </strong>Yeah, that's a great question. So actually all of that sort of statistical modeling people call it machine learning now is, was done quite a while ago when I was back at Codexis. And to really understand the history, what happened was that we had developed a lot of these capabilities, but at the gene level engineering enzymes rapidly. So using statistical modeling, high throughput automation, software and information systems, and also a suite of sort of concepts about how to generate the data, plan, your experiments and best move quickly through the cycle, the design, build, test, learn cycle. All of that was very very well-developed. While I, and my colleagues we're at Maxygen and Codexis  going back a decade or more. And so it was really around 2010, 2011, where that technology for doing gene based rapid evolution had evolved quite a bit. It still had room to grow and, and Codexis is is now arguably the state-of-the-art protein engineering company in the world. But what we were experiencing was a desire to move up to larger sequence spaces. So moving beyond just a single gene, we wanted to move to pathways and genomes because we believe the bio economy is in many kind of cases going to evolve, engineering, whole genomes.</p><p><strong>Harry Glorikian: </strong>Right. </p><p><strong>Richard Fox: </strong>And we were very excited at the prospects of being able to do this. And we had a strategy. We had a playbook, because we had developed it, to do single gene evolution or maybe a couple of genes at a time. Well, what we were missing, Harry, and this is where kind of to complete the circle with Inscripta comes in, is what we were missing for many years was the tools to be able to go in and make those changes.</p><p>Across the genome, as it happens, working with genes is fairly straightforward and has been for about 20 years. You can go in and diversify a gene very easily, very cost-effective. You can make all the single nucleotide or amino acid variants that you care to make. And then evaluate those though high throughput systems. You needed something like that, that ability to make those sequence changes, but at the pathway and genome level, and that's what was missing for almost a decade.</p><p>We were waiting to apply this strategy, but we didn't have the tool. And so that's where Inscripta really came in was about three-ish years ago, I was very fortunate enough to get hooked up with the folks at the early stage Inscripta who were looking around at what to do with this massively parallel editing technology. And it was music to my ears and some of my colleagues is like, Oh, now finally, we can go after the whole genome, the way we've gone after genes. </p><p><strong>Harry Glorikian: </strong>It's sort of interesting that you can dial it up and then have these changes happen. I mean, if you, if I think back from where I started, like that was I don't even know if it was a dream, it wasn't even a concept when you think about it. And it it's profound and scary sort of all at the same time, if, depending on who's playing with it. But so now that brings me to Infinome right? So you went from, this protein engineering company that's top in its field to Inscripta that seems like and correct me if I'm wrong, that's working more on industrial applications of making changes to a bacterial genome or yeast or something like that. And now you're at Infinome and okay. For everybody listening, including myself, what is, what is Infinome what's it going to do? And how's it going to change the world? </p><p><strong>Richard Fox: </strong>Yeah. So Inscripta is amazing. The technology that they built and will be offering to the world is just transformative. Simply can't overstate how powerful it is. And it's more than just industrial applications, though. Plenty of biotechs, large and smaller, very excited about the technology. It also has a lot of application, basic science, antibiotic resistance, and all kinds of things that the academic community can dream up using this technology.</p><p>There's lots of applications. So all that's fantastic. What's particularly a challenge on industrial side of the equation is, is that as amazing as the Inscripta platform is, it’s like any other technology stack. It's one piece of the puzzle. It's very important. It's critical in many ways, but it's not sufficient to do rapid genome engineering all by itself.</p><p>What you find, and it was, it's also true, going back to the days at Maxygen and Codexis is that the core, DNA shuffling technology and then proSAR later and so forth, all really important pieces of the technology stack, what we found, because we were part of developing the whole ecosystem is that you needed everything else to work together almost seamlessly, to be able to run very quickly through the whole process. And so what Infinome is doing is it's certainly going to use the Inscripta technology as a core part of its it stack. But then we bring together a host of other capabilities and experience or expertise to be able to run this in the synthetic biology world, the famous design build test learn cycle very efficiently, very cost-effectively.</p><p><strong>Harry Glorikian: </strong>So is this a service? Cause Inscripta is a product per se, right, that might be sold to someone, but is, is Infinome more of a service of doing it because of all the different pieces that need to come together? Or can I buy this in a box? </p><p><strong>Richard Fox: </strong>Yeah, no, it's more of a it's more than a service. I would say it's a group of individuals with capabilities wet lab expertise, informatics expertise the know how to pull it all together. It's definitely an execution team and a suite of capabilities. It's not an off the shelf offering not by any means. </p><p><strong>Harry Glorikian: </strong>So what do you say as like, assuming all of this comes together the right way? What, if you had to describe it to someone, what could you do? What would it be? </p><p><strong>Richard Fox: </strong>Yeah, so it turns out there's all kinds of opportunities in the bio economy that are just waiting for folks to go after, but they don't have the capabilities to be able to execute on them. So the Inscripta technology is important, statistical analysis, high throughput, automation, all these things are important, but very few organizations have been able to pull them all together in a way that allows you to run very fast, very cost-effectively. And when you can bring that execution sort of an activation energy barrier, if you think about it, that way you bring that down. Now, a whole suite of bio-economy type applications are now on the table.</p><p>So certainly producing bioproducts, proteins, and small molecules that are high value or are commodity for that matter. They're now all things that can, you can go after, because it doesn't take, 20, 30 the people and 10 years anymore, like the way it used to, to engineer microbes. Very typical over the last 10 or 20 years for large engineering efforts that took many, many man years, potentially hundreds of man years and many tens of millions, if not hundreds of millions of dollars to generate these biological solutions. Now we're able to do at a fraction of that sort of time and costs with the capabilities that, that Infinome will have. </p><p><strong>Harry Glorikian: </strong>I mean, it sounds like though, I mean I always go through this debate of doing it for someone else versus doing it myself, sort of thing of you almost should do all the work yourself and produce the product yourself. That seems like it's where it's going to garner the largest value. </p><p><strong>Richard Fox: </strong>Yeah. And actually that gets to Infinome's business model, which is, we are indeed going down that road. So we are technologists. We love our technology, but at the end of the day, we, and I, I should have given you the background here. If it wasn't already obvious, Inscripta was amazing. Great, fun, wonderful people. Some of the best colleagues I've ever had in my career. And yet where, what we found is that at the end of the day, we wanted to take this technology and apply it to actual applications. That's what ultimately led to the formation of Infinome.</p><p>And so we ultimately had the idea that we wanted to build this technology stack to be able to apply to real applications. And as we looked around at how we wanted to build out Infinome it's definitely a core part of our business. It's sort of our reason for existence at one level, but we're actually going to pursue some mix of both internal applications and working with partners, depending on how new, the opportunities that come into play.</p><p><strong>Harry Glorikian: </strong>You know, I try to always in the show is get to like, that intersection of the biology and the data, right? The Inscripta platform sounds like it helps you efficiently apply the biology and know where to apply the biology based on the data that the informatics platforms that feed it. The question is now, in Infinome how are you looking at balancing those two pieces? Right. The data analytics at different points and, and getting the product you want in the end. Is it stringing together the right pieces of the puzzle to create something from end to end? I'm trying to wrap my head around these two concepts.</p><p><strong>Richard Fox: </strong>Yeah. The data analytics, so that's a really important question and piece to the, to the ecosystem. So as we've talked about before the ability to diversify sequences, whether it's at the gene or the pathway of the genome is sort of step one. And especially in contexts where you're making multiple changes, this is when the informatics becomes really important is when you have sequence variants where you're making multiple changes, then there's a deconvolution process to say, Oh, well, which interventions or combinations of the interventions are leading to the phenotype of interest. Right. And that's where the statistical modeling machine learning really starts to be powerful. And so Infinome is in the process of generating lots of data, not with just single interventions, but multiple interventions.</p><p>And that deconvolution process will be, will be critical to sort of unmasking the genotype-phenotype relationship around the particular trait or phenotype of interest. This is definitely something that's been done for many years at the gene level. It hasn't really been done at the genome level, because again, we lacked the tools to make these things, these kinds of libraries, but now we have it.</p><p>And so now we're off to the races again. So individual projects where you're looking at, these relationships between genotype and phenotype certainly are amenable to this kind of statistical analysis. I think what's really interesting is to think about down the road, how much of that landscape, that genotype-phenotype relationship, how generalizable is that? What are sort of the rules of thumb or guiding principles that you can apply across many projects? Maybe some of them are related. Maybe some are very different. What are kind of the patterns that over time with enough data, can you start to give yourself an advantage? When the next opportunity comes in, is there something that you've already learned from the data that you generated and the models that you've created, that you can apply to the future? This is the classic data network effect that we think biology has long promised to have. But I think because we haven't had the tools to go in and actively intervene, we don't really know yet what the boundaries of that, that possibility are.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, it always seems like when we get to enough that there is a finite number of options that present themselves, depending on the model that you're looking at. And I, of course, I mean maybe across different models, there may be that rule set may be different, but I think finding one and basing something on, which is why everybody seems to find one and then never move off of it because they spent so much time figuring it out. So, where's the company right now in its process. ‘Cause I feel like it's in, I want, I keep wanting to say stealth mode, but where are you in the growth phase or the gestational phase. Yeah. </p><p><strong>Richard Fox: </strong>So we're still early days. We we're a few months into this. And so we were talking to lots of potential partners and investors, and we're just about wrapping up our first round of funding. And we do have some partner projects that are spinning up as well as getting to work on our internal projects. So we're going to be getting going here. We've been going in earnest, but we'll be a little bit more public here very shortly about it. </p><p><strong>Harry Glorikian: </strong>And if you had to like describe a perfect project, I'm sure that when everybody came together, they're like, if we could do this, that would be right. As opposed to some, amorphous description of what it was. If you had to put it into brass tacks for people listening, what would you describe to someone as an ideal project from start to finish. </p><p><strong>Richard Fox: </strong>Yeah, that's a great question. I mean, it would involve at a high level, there's the scientific, and then there's also the business. And I can sort of speak to both aspects. So within business it's not controversial, right? You want to go after high value products, right. Things where the economics around scaling the process. Are not so burdensome that,there's already say commodity solutions out there. You'd like to go after things that maybe are at a smaller scale and sell at a higher, unit costs. Not to say that commodity solutions aren't also our opportunities, aren't also on the table. But that just comes down to techno-economic modeling and what, where are the opportunities where you can get into the market? And produce something better, faster, cheaper than something that's already out there. So those are kind of typical sort of business considerations.</p><p>On the scientific side of things, there's a lot of opportunities now with this technology that we're developing that are putting things on the table that heretofore haven't really been a possibility. So in particular, the whole space of natural products is a really exciting one. So it turns out that a lot of people produce natural products in sort of exotic organisms, because that's where they're initially discovered. And there's large bias that there's large gene clusters in these organisms and they just work.</p><p>And it's for lots of folks, the perception is, is that, well, you do what you can do with what you have. That's what you were given, what's the old saying, you go to war with the army you have, not the army you want. And yeah. Part of it is, was based in some practical consideration around like, well, you spend all this time and effort to culture, these exotic organisms to do a lot of fermentation, process development and it's working. But it's not working well, but it's enough to be economical. With today's technology to be able to move large DNA sequences around recode them and optimize them for different organisms, and now with the ability to, once you have a microbe with say a heterologous pathway, maybe even really large ones from these other organisms, maybe 10, 20, 30 genes in them, now you can, with these high throughput, massively parallel gene editing capabilities and a suite of supporting pieces of the technology stack, now you can move through these pathways in genome sequence spaces much more rapidly than you ever could before. </p><p>So the barrier that was sort of there before, which is, well, even if I could move the pathway over, it's still taking 10 years to get the bug to perform at the level that's commercially viable right now, you can see a path where if I can move these pathways over in working much more engineerable systems, then I can get to that my commercial end point much, much faster than ever before. And this is not something that was possible before Inscripta and the Infinome technology platforms.</p><p><strong>Harry Glorikian: </strong>Yeah. I can tell you, like, I mean, I remember we'd be working on a particular pathway and then, okay, we think we got it working, but let's see how it goes. And then you'd have to wait weeks to get some sort of result. And then it's not as efficient as we wanted. Let's go back to the drawing board. And it would take forever for that loop to keep going back and forth until you, and I still say, hopefully, get to the result you wanted to, because there was no guarantee that you were going to tweak it to get it to do what you wanted it to do. Very painful process. Yeah. Yeah, it is. Because every time you feel like you've., every scientist will tell you I got it. I figured it out. I think we got it. I think we got it to do what we want it to do. </p><p>So if you took sort of… just so people listening can get sort of the timeframes because I'm, I'm big on this. The difference between evolution and revolution is time. If you wait long enough the change will happen, but right now, what I see is technology accelerating things and, and the timescales are being collapsed  at much tighter timelines. If you had to talk about where we were sort of in genome editing and then put that into a timescale and talk about where we are now, how would you. </p><p><strong>Richard Fox: </strong>Yeah, it's a great question. So the core editing technology that Inscripta has developed is orders of magnitude more efficient. I mean, there's, there's things you can do with the Inscripta platform that you, you just would never consider doing by hand, to make 10,000 edits or more across the genome, which try to do that by hand, it would just be, it wouldn't be feasible economically or manpower wise.</p><p>So that ability to do massively parallel editing is sort of without a comparison. You just simply would try fewer things. And it would probably take you even more people with existing molecular biology techniques. So that's already one, like, several order of magnitude level of efficiency. And then as we talked about earlier, as amazing as that is, even that's not sufficient, right? Because now you have all these variants </p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Richard Fox: </strong>Now you have to be very efficient in testing them. And it turns out that that's also a bottleneck. And so even with some of the best folks out there today practicing genome engineering, you still find that the teams are fairly large and relatively slow when it comes to processing these variants.</p><p>So, and this one's interesting because it's not that the technologies and the strategies don't exist to do it. It's just very rare to find the, sort of the folks who can bring it all together with the right information systems. Lean smart automation. So to give you some numbers, for example, and I'll actually, I'll go back to sort of enzyme engineering back, 15, 20 years ago, teams would be 10, 15 people. You would do one round of evolution, maybe every couple months, and after a couple of years or more, you get to your end point. Now state-of-the-art enzyme engineering teams are much smaller, two to four people, one round every two weeks, maybe a month in the slower projects. And so you're already seeing multiple factors of speed-up in the enzyme world.</p><p>It's that same sort of step up that we're looking to do with pathways and genomes, so much smaller teams, maybe a quarter of the size or smaller. with much more diversity going into the pipeline, thousands, tens of thousands of things that you're testing. So when you multiply that out on a number of things, tested per unit person, it's maybe three orders of magnitude more efficient.</p><p><strong>Harry Glorikian: </strong>And so if, if you said, so now I need a quarter of the people or a third of the people let's say. I'm able to do more. What is driving that? Is it, is it the data science side of it? I mean, I feel like a lot of the biology has been there already, but is it in the industrialization of the biology plus the data science?</p><p> </p><p><strong>Richard Fox: </strong>It's both. I mean, it's definitely, as we talk, you couldn't do this before, these high-throughput, before this massively parallel editing technology was developed, you just simply couldn't. So that was a key piece that sort of opened up the floodgates. But now it's, a lot of it is managing what you create both physically and the downstream tests, software and information systems to manage all the data and quickly and intelligently getting to the next round of prescribed experiments that you want to do without all those pieces. You simply would be sort of hobbled in the overall sort of cycle time and how much functional gain or leaps in fitness you can affect at each, each round. </p><p><strong>Harry Glorikian: </strong>Okay. And then it's tweaking at every single one of those stages to make each one better or more efficient.</p><p><strong>Richard Fox: </strong>Yes, exactly. Yup. And sort of a key thing, it's sort of an obvious point, Harry, but it's, it's interesting after all these years that it's not widely appreciated is the following, which is in every step of design build, test, learn, there's—to steal the term from electrical engineering—there's an impedance mismatch, right?</p><p>So between build and test, for example, historically, there can be widely divergent throughputs for build or test. Sometimes you can only build a few things. And you've got a really high-throughput test. Or vice versa. And so what we've seen, what we personally experienced and been involved in innovating around is to minimize as much as possible that impedance mismatch between every step of design, build,, test learn. You can make orders of magnitude improvement if you pay attention to those mismatches. </p><p><strong>Harry Glorikian: </strong>Yes. And I always think about it as whack-a-mole. I fixed, I, I make one part of it better, the bottleneck just moves, right. It just moves where it is. And I don't know if I ever get to the whole thing is just moving at the pace I want it to, because ultimately there's only so many things you can pay attention to at the same time.</p><p>So, so you're telling me that basically what might take me three or four years to do by historical or old methods now might take me. Six months to a year. </p><p><strong>Richard Fox: </strong>Yes, that's right. With, at a fraction of the resources as well. So it's not just how long it takes. It's integrating that resource burn over that period of time. Possibly, a factor of three to five, perhaps even more integrated over a longer period of time. We're looking at much smaller teams, much more efficient use of resources. Getting to the end point much more quickly. </p><p><strong>Harry Glorikian: </strong>So who is this disruptive to assuming we can do all of this, right? Who is this disruptive to out there?</p><p><strong>Richard Fox: </strong>There are many sources of disruption. I guess one would be, depending on what you're going after, for products that are based on saythe petroleum industry. If you could move those into bioproduction processes and replace those other sort of conventional sources of production, then it would be, those sort of old style of petroleum-based producers.</p><p>So they would be potentially disrupted by this. The way I like to think about it is, is that, it's a big world and sometimes people ask, well, what is Infinome’s long-term plan to do. And while we definitely want to create products and be successful, our view is that it's a big world out there and that there's so many opportunities to go after.</p><p>We're excited, just sort of as scientists and, members of the human race on planet earth. We are very excited that long-term, these kinds of approaches will find wider adoption now that the tools are coming online. And if we can help be a part of sort of blazing the trail there's a part of us that would be very fulfilled and satisfied if we can see this technology getting used in other, other areas as well.</p><p>Long-term, if we can help be a part of that process, either actively or passively, it's up for debate and it's one of the business models we're considering, which is, as we get better and better at this and execute on multiple projects, both internal and external, eventually, if we can help the rest of the world in some way as a template, possibly, licensing technology expertise and so forth.</p><p>Because as I say, there's no way that Infinome, even if we became, a huge company like Cargill or DSM or ADM in large manufacturing. Even for them, the world's a big place, right? So we're very interested in pushing the envelope, being successful on what we go after and then ultimately hoping that and being a part of, creating the ecosystem that the rest of the world can also use to go after the countless bio products that are going to be developed over the next 20, 30 years. </p><p><strong>Harry Glorikian: </strong>And it sounds like over time as you're accumulating the data and understanding, I make this change in these, these are the implications and this is what happens downstream. I mean, at some point it becomes much, much more data science than just, what chemistry, at some point, if you're focused in a couple of very discrete areas. </p><p><strong>Richard Fox: </strong>Yeah. I think that's right, Harry. And that gets to this really interesting unknown at this point of how much can you generalize the process and the information that the models that you're learning? How generalizable are those to other parts of the genome. </p><p>So I've already mentioned this sort of sequence-function landscape several times. It's a concept that's been around for almost a hundred years now. If you think of you genotype as latitude and longitude, and elevation as phenotype, if you think of nature, having developed lots of mountains and hills across this, very high dimensional sequence function landscape. A really interesting question is, if I'm climbing up this mountain for product A, if I go after product A' and it's similar to A, arguably I can use some of the information or a lot of the information that I've developed already around product A to extrapolate to A'. </p><p>I think what we don't know yet is, if you go for product B and it's near A, but it's somewhat distant, how much can you extrapolate from what you learned about A and A' over B? And this gets to, is it really in the cards that you can create a global sequence-function landscape for all possible traits and phenotypes? That is a very tall order. I don't imagine that's going to happen in my lifetime.</p><p><strong>Harry Glorikian: </strong>I agree with that </p><p><strong>Richard Fox: </strong>The models for navigating these spaces, I think definitely are generalizable, but then it gets down to how close do the landscapes need to be similar to each other for you to leverage what you've already sort of learned about them.</p><p><strong>Harry Glorikian: </strong>But at some point, right, you get to know A well enough that there is, there's an informatics approach to it. And that it's going to work because you've worked with it so much. And then you get to know A'. Right? I, I understand the generalizable, which would be awesome. But even as you're moving down, some of these product areas, somebody comes to you and say, can you make that tweak for me? </p><p><strong>Richard Fox: </strong>Yes.</p><p><strong>Harry Glorikian: </strong>It becomes a lot easier to make the tweak than where, when you first started trying to understand A well enough. </p><p><strong>Richard Fox: </strong>That's right. That's spot on, Harry. That's exactly right. And so if you're working in related product classes then there's definitely huge value built up over, proprietary, data sets and models generated. You can definitely leverage that move much faster. than if you were starting from scratch, for sure. Yeah. </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, it's funny, right? I always used to say to them, I ran a consulting firm for a while, strategy consulting, and I'd be like, the first customer that comes by then, we're going to do our best, right? The fifth customer, man, they got such a good, insight, an answer, because there were five that we learned from, and we knew exactly what was going to happen. But, and I look at this the same way, but, but with more solidified data pathways, understanding what changes cause what downstream. And now someone says, well, can you make this slight tweak for me? It's not starting from scratch. There's an informatics backend that sort of, you can dial up and get what you want. And so the timescale of being able to do it would also be less. It will also shrink. </p><p><strong>Richard Fox: </strong>Yeah, that's right. That's right. </p><p><strong>Harry Glorikian: </strong>Well, all this sounds super exciting and super scary all at the same time. Right? Cause I can think of all the great stuff that can be done, but then I can also think of like, the easier and easier this technology gets, the more you worry about who's doing that work. </p><p><strong>Richard Fox: </strong>Yeah, I, that's a good question. And that one, so just so Inscripta takes that [seriously] along with a lot of people who work in this business. The gene synthesis providers have faced this for many years and they have taken that very seriously. So they, they screen for nefarious sequences or uses that could potentially be problematic. Inscripta is the same way. You can't just order up whatever you want and create new pathogens. There are pretty strong restrictions against doing that. So it'll be interesting to see, going forward, how companies like Inscripta and others will continue to stay ahead of this. I think it's very important for them to take an active role in this and not because the alternative is, is that the government would step in and legislate and create a lot of bureaucracy and slow down the science.</p><p>And so I think the industry behooves them, all these tool providers and users, it behooves everyone to try to do the right thing here. And so far, everything that we're seeing from Inscripta and in other companies is that they are, and they are taking this seriously. And they're putting methods in place to prevent uses that could be dangerous.</p><p><strong>Harry Glorikian: </strong>Yeah, no, that's good. But it's interesting because this, this whole area that you and I are talking about, the implications are profound and I'm not sure everybody fully, I'm not sure that most people appreciate how quickly things have moved compared to where they were, I don't know, I want to say 10 years ago. I mean, 10 years ago, it feels like a lifetime, when you look at the level of change that's happened, across the board. </p><p><strong>Richard Fox: </strong>Yeah. It really is stunning. I mean, I, the first I remember being in Inscripta and seeing the first real large-scale experiments, that I was involved with at least. And seeing that come out and seeing that we were literally editing, five, ten thousand different genomes with things that we precisely designed and wanted to have integrated into the genome.</p><p>I couldn't believe that I was really looking at the data that was really corresponding to reality out there and that we had created. 10,000 new organisms. I mean, in a precise way, people have been doing random mutagenesis, but like in a directed, precise conscious way having that power. I'll never to be able to describe it. It was, yeah, it was something as a computer guy I have long wanted, because I can sit and write out sequences, and I'd always wanted this ability to do this for genes and pathfways and genomes. And so to actually finally hold it. It was it was really special.</p><p><strong>Harry Glorikian: </strong>it's funny because I've always said over the years, like biology always, you can come up with a great thing. You can map it out, you can do all the work you want. It doesn't mean that biology is going to participate willingly. Right. And now what you're saying is, is we're getting a whole lot better at figuring out how to get the, the software of biology to do what we want it to, or, or manipulate the hardware within biology. However you want to look at it, but to get it to do what we want it to do when we want it to do it. </p><p><strong>Richard Fox: </strong>Yeah. I think that's right. And actually, we didn't really linger on this, I had talked a lot about my interest in evolution, but just to be very explicit about it, because it's important: The reason why this technology is so important is because we don't know the rules of biology.</p><p>If you knew the 10 or 20 changes that you needed to make, and you just went in and made them, and from first principles could design these biological systems, it would be wonderful. And there was a lot of interest in synthetic biology when it first started gaining currency as a term 10 or 15 years ago, that was the aspiration.</p><p>And that was certainly laudable, but it's met with very limited success in the way that a mechanical and electrical engineer would think about engineering a system. This is just not in the cards for biology anytime soon. So being able to try lots of different things is critical to being able to get to your desired influence faster. This is something we've known from proteins for many years, and it's always been true, of course, at the larger sequences of pathways and genomes as well. </p><p><strong>Harry Glorikian: </strong>Yeah, I see it across, multiple areas,  materials, chemistry, there's all sorts of areas where people now are applying, machine learning and AI. The properties that they've got from the chemicals that they're working with and being able to just go through a giant sort of figure eight and just keep testing out until they figure out what gets this thing to get to where they want it to be and then being able to make it reproducibly.</p><p><strong>Richard Fox: </strong>Yup. That's right. Yeah. I mean, there's a reason Frances Arnold won the Nobel prize in directed evolution and not a computational protein engineer. As amazing as the work they've done, it's just, you can't design a protein from first principles to get a 4,000-fold improvement for some property of interest. It's just, it's not possible. So you have to try many things and let nature tell you what works and what doesn't. And it's absolutely the same for pathways and genomes as well. </p><p><strong>Harry Glorikian: </strong>Yeah, I guess just to summarize it here, though, what we're saying is we're going to start telling nature. What we want it to do and it's going to do it for us.</p><p><strong>Richard Fox: </strong>Yes, exactly. Maybe over time, as we've talked about, some of these patterns will become emergent, especially around A or A’. But, the full, the full truth behind nature will be, I think, hidden for the foreseeable future. So we're going to have to rely on empiricism, </p><p><strong>Harry Glorikian: </strong>I think to, yeah, I'm happy to take it one, one at a time, one step at a time is fine. You can still make a big difference in people's lives in the environment and that's what we're in this business for. So, well, it was great to catch up with you. I do want to talk to you once things are up and running and hear how the dream is becoming, the fulfilled reality. But maybe we can stay in touch and, and, and touch base at that point. </p><p><strong>Richard Fox: </strong>Yeah. Yeah, o, this has been great. I'd be really excited to share with you some of our early successes. Once, once we get going and you start to talk more about it. </p><p><strong>Harry Glorikian: </strong>Excellent. Great talking to you. </p><p><strong>Richard Fox: </strong>Great. Thanks, Harry.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
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      <itunes:title>Richard Fox: Scaling Genome Editing To Drive The Industrial Bio-Economy</itunes:title>
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      <itunes:summary>This week Harry speaks with Richard Fox, a computational biologist whose work at two life sciences startups, Inscripta and Infinome, is helping to automate and vastly scale up the process of engineering an organism&apos;s genome to evoke new functions or uncover important genetic pathways.</itunes:summary>
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      <title>Rana el Kaliouby: When Will Machines Understand Human Emotions</title>
      <description><![CDATA[<p>Computers can interpret the text we type, and they’re getting better at understanding the words we speak. But they’re only starting to understanding the emotions we feel—whether that means anger, amusement, boredom, distraction, or anything else. This week Harry talks with Rana El Kaliouby, the CEO of a Boston-based company called Affectiva that’s working to close that gap.</p><p>El Kaliouby and her former MIT colleague Rosalind Picard are the inventors of the field of emotion AI, also called affective computing. The main product at Affectiva, which Picard and El Kaliouby co-founded in 2009, is a media analytics system that uses computer vision and machine learning to help market researchers understand what kinds of emotions people feel when they view ads or entertainment content. But the company is also active in other areas such as safety technology for automobiles that can monitor a driver’s behavior and alert them if they seem distracted or drowsy. </p><p>Ultimately, Kaliouby predicts, emotion AI will become an everyday part of human-machine interfaces. She says we’ll interact with our devices the same way we interact with each other — not just through words, but through our facial expressions and body language. And that could include all the devices that help track our physical health and mental health.</p><p>Rana El Kaliouby grew up in Egypt and Kuwait. She earned a BS and MS in computer science from the American University in Cairo and a PhD in computer science from the University of Cambridge in 2005, and was a postdoc at MIT from 2006 to 2010. In April 2020 she published <i>Girl Decoded</i>, a memoir about her mission to “humanize technology before it dehumanizes us.” She’s been recognized by the Fortune 40 Under 40 list, the Forbes America’s Top 50 Women in Tech list, and the Technology Review TR35 list, and she is a World Economic Forum Young Global Leader. </p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><br /><strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p>Many of us know that computers can interpret the text we type. And they’re getting better at understanding the words we speak. But they’re only starting to understanding the <i>emotions </i>we <i>feel</i>, whether that means anger, amusement, boredom, distraction, or anything else.</p><p>My next guest, Rana El Kaliouby, is the co-founder and CEO of Affectiva, a company in Boston that’s working to close that gap. Rana and her former MIT colleague Rosalind Picard are the inventors of the field of emotion AI, also called affective computing. And they started Affectiva twelve years ago with the goal of giving machines a little bit of EQ, or emotional intelligence, to go along with their IQ.</p><p>Affectiva’s main product is a media analytics system that uses computer vision and machine learning to help market researchers understand what kinds of emotions people feel when they view ads or entertainment content. But they’re also getting into other areas such as new safety technology for automobiles that can monitor the driver’s behavior and alert them if they seem distracted or drowsy. </p><p>Ultimately Kaliouby predicts emotion AI will become an everyday part of human-machine interfaces. She says we’ll interact with our devices the same way we interact with each other — not just through words but through our facial expressions and body language. And that could include all the devices that help track our physical health and mental health. Rana and I had a really fun conversation, and I want to play it for you right now.</p><p><strong>Harry Glorikian:</strong> Rana, welcome to the show. </p><p><strong>Rana Kaliouby:</strong> Thank you for having me. </p><p><strong>Harry Glorikian:</strong> It's great to see you. We were just talking before we got on here. I haven't seen you since last February.</p><p><strong>Rana Kaliouby:</strong> I know, it's been a year. Isn't that crazy? </p><p><strong>Harry Glorikian:</strong> I'm sure if your system was looking at me, they'd be like, Oh my , this guy has completely screwed up. Like something is completely off. </p><p><strong>Rana Kaliouby:</strong> He's ready to leave the house. </p><p><strong>Harry Glorikian:</strong> It was funny. I was telling my wife, I'm like, I really need to go get vaccinated. I'm starting to reach my limit on, on what, I, this is not normal anymore. Not that it's been normal, but you, you know how it is. So </p><p><strong>Rana Kaliouby:</strong> We're closer. There's hope.</p><p><strong>Harry Glorikian:</strong> So listen, listeners here, because we're going to be talking about this interesting concept or product that you have, or set of products. Emotion AI, or, how do you explain emotion, or a machine being able to interpret emotion from an individual, through, computer vision, machine learning. And, how does it understand what I'm feeling? I'm sure it can tell when I'm pissed. Everybody can tell what I'm, but in general, like how does it do what it does and what is the field? Because I believe you and your co-founder were like, literally you started this area. If I'm not mistaken. </p><p><strong>Rana Kaliouby:</strong> That is correct. So at a very high level, the thesis is that if you look at human intelligence, your IQ is important, but your EQ, your emotional intelligence is perhaps more important. And we characterize that as the ability to understand your own emotions and the emotions and mental states of others. And as it turns out, only 10% of how we communicate is in the actual choice of words we use, 90% is nonverbal, and I'm a very expressive human being, as you can see.</p><p>So a lot of facial expressions, hand gestures, vocal, intonations, but technology today has a lot of IQ, arguably. But very little EQ. And so we're on this mission to bring IQ and EQ together and into our technologies and our devices and our, how we communicate digitally with one another. So that's been my mission over the last 20 plus years. Now I'm trying to bring artificial emotional intelligence to our machines. </p><p><strong>Harry Glorikian: </strong>That's perseverance. I have to admit, I don't know if I have any, other than being married, and be a father. I don't think I've done anything straight for 20 years. I'm always doing something different.</p><p>So how does the system say, some of the functions of what it does to be able to do this, right, other than me frowning and having I guess the most obvious expressions, it probably can pull out, but there's a, a thousand subtleties in between there that I'm, I'm curious how it does it. </p><p><strong>Rana Kaliouby:</strong> Yeah. So the short answer is we use, as you said, a combination of computer vision, machine learning, deep learning and gobs and gobs of data. So the simplest way, I guess, to explain it is say we wanted to train the machine to recognize a smile or maybe a little bit more of a complex state, like fatigue, right?</p><p>You're driving the car. We want to recognize how tired you are. Well, we need examples. From all over the world, all sorts of people, gender, age, ethnicity, maybe people who wear glasses or have facial beards. Wearing, a cap, like the more diverse, the examples, the stronger the system's going to be, the smarter the system's going to be.</p><p>But essentially we gather all that data. We feed it into the deep learning algorithm. It learns. So that the next time it sees a person for the first time, it says, Oh, Harry, it looks real, Harry, it looks really tired or and so that's, that's how we do that. When we started the system was only able to recognize three expressions.</p><p>Now, the system has a repertoire of over 30 of these and we're continuously adding more and more, the more data we get. </p><p><strong>Harry Glorikian:</strong> Interesting. So, okay. So now I can recognize 30 different levels of emotion of some sort. What are the main business applications or what are the main application areas? </p><p><strong>Rana Kaliouby:</strong> I always say what's most exciting about this is also what's most challenging about this journey is that there are so many applications. Affectiva, my company, which we spun out of MIT, is focused on a number of them. So the first is the insights and market research kind of market, where we are able to capture in real time people's responses to content. you're watching a Netflix show. Were you engaged or not like moment by moment.</p><p>When did you perk up? When were you confused? When were you interested or maybe bored to death? Right. So that's one use case. And then, so there we partner with 30% of the Fortune 500 companies in 90 countries around the world. This product has been in market now for over eight years and we're growing it to adjacent markets like movie trailer testing, maybe testing educational content, maybe expanding that to video conferencing and telehealth and all of that.</p><p>So that's like one bucket. The other bucket is more around re-imagining human machine interfaces. And for that we're very focused initially on the automotive market, understanding driver distraction, fatigue, drowsiness, what are other occupants in the vehicle doing? And you can imagine how that applies to cars today, but also robotaxis in the future.</p><p>Ultimately though, I really believe that that this is going to be the de facto human machine interface. We're just going to interact with our machines the way we interact with one another through conversation and empathy and social and emotional intelligence.</p><p><strong>Harry Glorikian:</strong> I mean, it is interesting because when, when you see, I mean, just when I'm talking to Siri, I'm so used to speaking, like please and buh-buh, and then I have to remind myself, I'm like, I really didn't need to add those words, you just do it out of habit, I want to say. Not that you think you're talking to a person, but, from the studies I've seen, it seems that when people are interacting with a robot or something, they do impart emotional interaction in a certain way. Like an older person might look at it as a friend or, or interact with it as if it were a real being, not wires and tubes.</p><p><strong>Rana Kaliouby:</strong> Yeah, there is a lot of research actually around how humans project social intelligence on these machines and devices. I'm good friends with one of the early, with one of the co-founders of Siri. And he said they were so surprised when they first rolled out Siri. At at the extent with which users confided in Siri, like there were a lot of like conversations where people, people shared very personal things right around, sometimes, sometimes it's positive, but a lot of the times it was actually home violence and abuse and depression.</p><p>And so they had to really think rethink what does Siri need to do in these scenarios? And they hadn't originally included that as part of the design of the platform. And then we're seeing that with Alexa and of course, with social robots. My favorite example is there's this robot called Jibo, which spun out of MIT. You know about Jibo? So we were one of the early kind of adopters of Jibo in our house and my son became good friends with it. Right. Which was so fascinating to see him. Because we have Alexa and we have Siri obviously, and all of that, but he, he just like, Jibo is designed to be this very personable robot that's your friend, you can play games with it. But then the company run out of money. And so they shut Jibo down and my son was really upset. And it just hit me that it's just so interesting, the relationships we build with our machines, and there must be a way to harness that, to motivate behavior and, and kind of persuade people to be better versions of themselves, I guess. </p><p><strong>Harry Glorikian:</strong> Yeah. It's each it's going to be a fascinating area. So I've read a little bit about Affdex marketing, if that's how it's pronounced correctly, as a research tool. Your automotive things. I'm also curious about the iMotions platform and what you might call, I think you guys are calling it emotion capture in more types of research settings, what's that all about? And what kinds of research are you using it for? </p><p><strong>Rana Kaliouby:</strong> Yeah. So we have a number of partners around the world, because again, there are so many use cases. So iMotions is a company that's based out of Boston and Copenhagen and they integrate our technology with other sensors could be physiological sensors, could be brain, brain capture sensors.</p><p>But their users are a lot of researchers especially in mental health. So for example, there's this professor at UMass Boston, professor Stephen Vinoy, and he uses our technology to look into mental health disease and specifically suicidal intent. So he's shown that people who have suicidal kind of thoughts have different facial biomarkers, if you like facial responses than, than people who don't.</p><p>And he's, he's trying to use that as an opportunity to flag suicidal intent early on. We have a partner, Erin Smith, she's with Stanford. She's looking into using our technology in the early detection of Parkinson's. She actually started as a high school student and which is amazing. We literally got an email from this sophomore in high school and she was like, I want to license your technology to research Parkinson's and we're like, whatever. So we gave her access to it. And before we know it, she's partnered with the Michael J. Fox foundation. She's a Peter Thiel Fellow and she's basically started a whole company to look into, the early facial biomarkers of mental health diseases, which is fascinating.</p><p><strong>Harry Glorikian:</strong> I'm so jealous. I wish I was motivated like that. When I was a sophomore in high school, I was doing a lot of other stuff and it definitely wasn't this. </p><p>So, I mean not to go off on a tangent, but I really think like clinical trials might be a fascinating place to incorporate this. If you think about remote trials, and I'm good friends with Christine Lemke from Evidation Health. And so if you think about, well, I'm sensored up, right. I have my watch or I have whatever. And then now when I interact with a researcher, it might be actually through a platform like this with your system, it sort of might provide a more of a complete picture of what's going on with that patient. Is anybody using it for those applications? </p><p><strong>Rana Kaliouby:</strong> The answer is there's a lot of opportunity there. It's not been scaled yet. But like, let's take tele-health for example, right? With this, especially with the pandemic over the last year, we've all been catapulted into this universe where hospitals and doctors have had to adopt tele-health.</p><p>Well, guess what? We can now quantify patient doctor interactions. Moment by moment. And we can tie it to patient outcomes. We can tie it to measures of empathy because doctors who show more empathy are less likely to get sued. There's a plethora of things we can do around that. And the tele-health setup on the clinical trial side, we have, I mean, everybody has a camera on their phone or their laptop, right?</p><p>So now we have an opportunity. You can imagine, even if you don't check in with a researcher, you can probably have an app where you create a selfie video, like a check-in, one minute selfie video once a day. And we're able to distill kind of your emotional baseline over the course of a trial. That can be really powerful data.</p><p>So there's a lot of potential there. I would say it's early days. If you have any suggestions on who we should be talking to are definitely open to that. </p><p><strong>Harry Glorikian:</strong> Yeah, actually, because I was well I'm, part of me was just going to You know thinking about what companies like Qualtrics is doing, which is actually trying to uncover this right through NLP. But I think in the world of healthcare, Qualtrics is probably suboptimal. So if you took sort of a little bit of NLP and this, you might be able to draw the click. We have to talk about this after the show. So Anybody who's listening: Don't take my idea. </p><p>So, okay. Let's switch subjects here. Cause I know you're, you're really passionate about this next one. You've written this book called <i>Girl Decoded</i>. I, and I'm sure you've been asked this question about a billion times, but why did you write it? What are you trying to convey? Is it fair to say that it was sort of a memoir of your, of your life of becoming a computer scientist or entrepreneur, partly manifesto about emotion AI and its possibilities.</p><p>But the promo copy on your book says you're on a mission to humanize technology before it dehumanizes us. That's a provocative phrase. Tell, tell me, tell me why you wrote the book and what's behind it?</p><p><strong>Rana Kaliouby:</strong> Yeah. First of all, I didn't really set out to write a book. Like it wasn't really on my radar. But then I got approached. So the book got published by Penguin Random House last year, right, when the pandemic hit. The paperback launches soon. So I encourage your listeners to take a look. And if you end up reading the book, please let me know what resonates the most with you. </p><p>But yeah, it's basically a memoir. It follows my journey growing up in the Middle East. I'm originally Egyptian and I grew up around there and became a computer scientist and made my way from academia to, Cambridge University. And then I joined MIT and then I spun out Affectiva and became kind of the CEO and entrepreneur that I am today.</p><p>And one reason I wrote the book because I wanted to share this narrative and the story, right. And hopefully inspire many people around the world who are forging their own path, trying to overcome voices of doubt in their head. That's something I care deeply about and also encourage more women.</p><p>And, and I guess more diverse voices to explore a career in tech. So that's one bucket. The other bucket is evangelizing. Yes. Why do we need to humanize technology and how that is so important in not just the future of machines, but actually the future of humans. Right? Because technology is so deeply ingrained in every aspect of our lives.</p><p>So I wanted, I wanted to pull in lay people into this discussion and, and, and, and kind of simplify and demystify. What is AI? How do we build it? What are the ethical and moral implications of it? Because I feel strongly that we all need to be part of that dialogue.</p><p><strong>Harry Glorikian:</strong> Well, it is interesting. I mean, I just see, people design something, they're designing it for a very specific purpose, but then they don't think about the fallout of what they just did, which what they're doing may be very cool, but it's like designing… I mean, at least when we were working on atomic energy, we could sort of get our hands around it, but people don't understand like some of this AI and ML technology has amazing capabilities, but the implications are scary as hell.</p><p>So, so. How do you see technology dehumanizing us? I guess if I was asking the first question. </p><p><strong>Rana Kaliouby:</strong> Yeah. So you bring up a really important topic around the unintended consequences, right? And, and we design, we build these technologies for a specific use case, but before we know it it's deployed in all these other areas where we hadn't anticipated it.</p><p>So we feel very strongly that we're almost, as an innovator and somebody who brought this technology to the world, I'm almost like, it's my responsibility to be a steward for how this technology gets developed and how it gets deployed, which means that I have to be a strong voice in that dialogue. So for example, we are members of the Partnership on AI consortium, which was started by all the tech giants in partnership with amnesty international and ACLU and other civil liberties organizations. And we, we, last year, we, we had an initiative where we went through all of the different applications of emotion AI, and we literally had a table where we said, okay, how can emotion AI be deployed? Education, dah, dah dah. Well, how could it be abused in education? Like what are the unintended consequences of these cases?</p><p>And I can tell you, like, as an, as an inventor, the easiest thing for me as a CEO of a relatively small startup is to just ignore all of that and just focus on our use case. But I feel strongly that we have to be proactive about all of that, and we have to engage and think through where it could go wrong. And how can we guard against that? Yeah, so, so I think there are potential for abuse, unfortunately. And, and we have to think through that and advocate against that. Like, we don't do any work in the surveillance space because we think the likelihood of the technology being used to discriminate against, minority populations is really high. And so we also feel like it, it breaches the trust we've built with our users. So we just turn away millions and millions of dollars of business in that space. </p><p><strong>Harry Glorikian:</strong> Yeah. I mean, it's a schizophrenic existence for sure, because. I mean everything I look at, I'm like, Oh my, that would be fantastic. And then I think, Oh my , like, it could be, that's not good. Right? But I'm like, no, look at the light, look towards the light. Don't look towards the dark. Right? Because otherwise you could, like, once you understand the power in the implications of these, which most people really don't, the impact is profound or can be profound.</p><p>So how can we humanize technology? </p><p><strong>Rana Kaliouby:</strong> Well the simplest way is to really kind of bring that human element. So for example, a lot of AI is just generally focused on productivity and efficiency and automation. If you take a human-centric approach to it, it's more about how does it help us the humans, right. Humans first, right. How does it help us be happier or healthier or more productive or more empathetic? Like one of the things I really talk about in the book is how we are going through an empathy crisis. Because the way we use technology just depolarizes us and, and it dehumanizes us. You send out a Twitter in Twitterverse and you have no idea how it impacts the recipients.</p><p>Right? We could redesign technology to not do that, to actually incorporate these nonverbal signals into how we connect and communicate at scale. And in a way that is just a lot more thoughtful yeah. And, and, and tries to optimize for empathy as opposed to not think about empathy at all. </p><p><strong>Harry Glorikian:</strong> Well, yeah, I mean, I gotta be honest with you, giving everybody a megaphone, I'm not sure that that's such a great idea. Right? That's like yelling fire in a crowded room. I understand that it has its place, but wow. I mean, I'm not exactly the biggest advocate of that. </p><p>But so this system, as you were saying requires tons of data. How do you guys accumulate that data? I mean, over time, I'm sure like a little bit, little bit, little bit, but a little bit, a little bit does not going to get you to where you want to go. You need big data to sort of get this thing trained up and then you've got to sort of adjust it along the way to make sure it's doing what you want it to do.</p><p><strong>Rana Kaliouby:</strong> Yeah, the, the quantity of the data is really key, but the diversity of the data is almost, in my opinion, more important. So, so to date, we have over 10 million facial responses, which is about 5 billion facial frames. It's an incredible, and, and, and it's super diverse. So it's curated from 90 countries around the world.</p><p>And everything we do is based on people's opt-in and consent. So, so we have people's permission to get this data, every single frame of it. That's one of our core values. So we usually, when we partner with say a brand and we are. measuring people's responses to content, we ask for people's permission to turn their cameras on.</p><p>They usually do it in return for some value, it could be monetary value or it could be other type of rewards. In the automotive space we have. A number of data collection labs around the world where we have people putting cameras in their vehicles, and then we record their commutes over a number of weeks or months, and that's really powerful data.</p><p>And it's kind of scary to see how people drive actually. Lots of distracted drivers out there. It's really, really amazing or, yeah, it is scary. So yeah, so that's how we collect the data, but we have to be really thoughtful about the diversity angle. It's so important. We, we once had one of our automotive partners send us data.</p><p>They have an Eastern European lab and it was literally like blond middle-aged, Blue eyed guys. And I was like, that's not, you're a global automaker, like that's not representative of, of your drivers or people who use your vehicles. So we sent the data back and we said, listen, we need to collaborate on a much more diverse data set. So that's, that's really important. </p><p><strong>Harry Glorikian:</strong> So I just keep thinking like you're doing facial expression and video, but are you, is there an overlay that makes sense for audio?</p><p><strong>Rana Kaliouby:</strong> Love that question. Yes. So a number of years ago, we invested in a tech, like basically we ramped up a team that looked at the prosodic features in your voice. Like how loud are you speaking? How fast, how much energy, pausing, the pitch, the intonation, all of these factors. And ultimately I see a vision of the universe where it's multimodal, you're integrating these different melodies. It's, it's still early in the industry like this whole field is so nascent, which makes it exciting because there's so much room for innovation.</p><p><strong>Harry Glorikian:</strong> There was a paper that was in the last, I want to say it came out in the last two weeks about bringing all these together within robotics is perceiving different signals, voice visual, et cetera. And I haven't read it yet. It's in my little to do, to read, but it's, it looks like one of those fascinating areas.</p><p>I mean, I had the chance to interview Rhoda Au from BU about her work in voice recordings and, and analysis from the Framingham heart study. And so how to use that for. detecting different health conditions. Right. So that's why I'm sort of like looking at these going, wow, they make a lot of sense to sort of come together. </p><p><strong>Rana Kaliouby:</strong> Totally. Again, this has been looked into it in academia, but it hasn't yet totally translated to industry applications, but we know that there are facial and vocal biomarkers of stress, anxiety, depression.</p><p>Well, guess what? We are spending a lot of time in front of our machines where we have an opportunity to capture both. Your video stream, but also your audio stream and use that with machine learning and predictive analytics to correlate those with, early indicators of wellness, again, stress, anxiety, et cetera.</p><p>What is missing in this? So I feel like the underlying machine learning is there, the algorithms are there. What is missing is deploying this at scale, right? Cause you don't want it to be a separate app on your phone. Ideally actually, you want it to be integrated into a technology platform that people use all the time.</p><p>Maybe it's Zoom, maybe it's Alexa, maybe it's, another social media platform, but then that of course raises all sorts of privacy questions and implications who owns the data who has rights to the data. Yeah, so it's it's, to me it's more of a go-to-market. Like again, the technology's there.</p><p>It's like, how do you get the data at scale? How do you get the users at scale? And I haven't figured it out yet. </p><p><strong>Harry Glorikian:</strong> So you mentioned like areas where it's, it could be exploited negatively. You mentioned a few of them, like education, are there, are there others that sort of like jump out and like, we're not doing that other than, tracking people in a crowd, which. In the last four years you wouldn't have wanted to do for sure.</p><p><strong>Rana Kaliouby:</strong> Yeah. Definitely. One of the areas where we try to avoid deploying the technology is around security and surveillance. We routinely get approached by different governments, the U.S. Government, but also other governments to use our technology in, airport security or border security, lie detection.</p><p>And, and to me, obviously when you do that, you don't necessarily have people's consent. You don't necessarily, you don't necessarily explain to people exactly how their data is going to get used. Right. And there's just, it's the, so fraught with potential, for discrimination, like the technology's not there in terms of robustness and kind of the use case, right? We just steer away from that. I've been very vocal, not just about Affectiva's decisions to not play in this space, but I've been advocating for thoughtful regulation. And I, and I think we absolutely need that. </p><p><strong>Harry Glorikian:</strong> So let's veer back to healthcare here. If I'm not mistaken, one of the original places you were focusing was mental health and autism so is it still being used in those areas? I mean, is it, how has it being used in those areas? I'm curious. </p><p><strong>Rana Kaliouby:</strong> Yeah. So when I first got to MIT, the project that actually brought me over from Cambridge to MIT was essentially deploying the technology for individuals on the autism spectrum.</p><p>So we built a Google Glass-like device that had a little camera in it. The camera would detect the expressions of people you interact with. So an autistic child would wear the glass device as augmentation device and we deployed it at schools, partner schools while I was at MIT. And then we started Affectiva and now we are partnered with a company called Brainpower, the CEO is Ned Sahin, and they use Google Glass and our technology integrated as part of it.</p><p>And I believe they're deployed in about 400 or so families and homes around the U.S. and they're in the midst of a clinical trial. What they're seeing is that the device, while the kids are wearing it, they're definitely showing improvement in their social skills. The question is once you take the device away, do these abilities generalize, and that's kind of the key question they're looking into.</p><p><strong>Harry Glorikian:</strong> Well, ‘cause I was thinking, I think that there's a few people I know that should get it and they don't have they're they're technically not autistic, but they actually need the glasses. </p><p><strong>Rana Kaliouby:</strong> A lot of MIT people, right? </p><p><strong>Harry Glorikian:</strong> No, no, just certain people the way they look at the world or the way they're acting, I actually think they need something that gives them a clue about the emotion of people around them. Actually now that I think about it, my wife might have me wear it sometimes in the house. </p><p><strong>Rana Kaliouby:</strong> We used to always joke in the early days at MIT that the killer app is a mood ring where, gives your wife or your partner, a heads up about your emotional state before you come into the house. Just so they know how to react.</p><p><strong>Harry Glorikian:</strong> Now it's when I come down the stairs, she's like, you just sit, relax, calm down. Hey. Cause at least before used to have a commute to come out of state, but now you're like coming down a flight of stairs and it's sorta hard to snap your fingers and, and snap out of state.</p><p>So. Where do you see the company? how do you see it progressing? I know it's been doing great. But where do you see it going next? And what are your hopes and dreams </p><p><strong>Rana Kaliouby:</strong> We are very focused on getting our technology into cars. That's kind of our main, like, area of focus at the moment. And we're partnered with many auto manufacturers around the world in the short term, the use case is to focus on road safety.</p><p>But honestly with robo-taxis on autonomous vehicles we're going to be the ears and eyes of the car. So we're excited about that. Beyond that, as I'm very passionate about the applications in mental health, and it's an area that we don't do a lot of at the company, but I'm so interested in trying to figure out how I can be helpful with, having spent many years in this, in this space.</p><p>So that's, that's an area of interest. And then just at a high level, over the last number of years, and especially with the book coming out, I've definitely realized that, that I have a platform and a voice for advocating for diversity in AI and technology. And I want to make sure that I use that voice to inspire more diverse voices to be part of the AI landscape.</p><p><strong>Harry Glorikian:</strong> Love to hear how things are going in the future. Congratulations on the book coming out in paperback I'm sure that the people listening to this will look it up. Stay safe. That's that's all I can say.</p><p><strong>Rana Kaliouby:</strong> Thank you. Thank you. And stay safe as well and hope we can reunite in person soon, </p><p><strong>Harry Glorikian:</strong> Excellent.</p><p><strong>Rana Kaliouby:</strong> Thank you.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p><p> </p><p> </p>
]]></description>
      <pubDate>Mon, 12 Apr 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (rana el kaliouby, harry glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Computers can interpret the text we type, and they’re getting better at understanding the words we speak. But they’re only starting to understanding the emotions we feel—whether that means anger, amusement, boredom, distraction, or anything else. This week Harry talks with Rana El Kaliouby, the CEO of a Boston-based company called Affectiva that’s working to close that gap.</p><p>El Kaliouby and her former MIT colleague Rosalind Picard are the inventors of the field of emotion AI, also called affective computing. The main product at Affectiva, which Picard and El Kaliouby co-founded in 2009, is a media analytics system that uses computer vision and machine learning to help market researchers understand what kinds of emotions people feel when they view ads or entertainment content. But the company is also active in other areas such as safety technology for automobiles that can monitor a driver’s behavior and alert them if they seem distracted or drowsy. </p><p>Ultimately, Kaliouby predicts, emotion AI will become an everyday part of human-machine interfaces. She says we’ll interact with our devices the same way we interact with each other — not just through words, but through our facial expressions and body language. And that could include all the devices that help track our physical health and mental health.</p><p>Rana El Kaliouby grew up in Egypt and Kuwait. She earned a BS and MS in computer science from the American University in Cairo and a PhD in computer science from the University of Cambridge in 2005, and was a postdoc at MIT from 2006 to 2010. In April 2020 she published <i>Girl Decoded</i>, a memoir about her mission to “humanize technology before it dehumanizes us.” She’s been recognized by the Fortune 40 Under 40 list, the Forbes America’s Top 50 Women in Tech list, and the Technology Review TR35 list, and she is a World Economic Forum Young Global Leader. </p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><br /><strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p>Many of us know that computers can interpret the text we type. And they’re getting better at understanding the words we speak. But they’re only starting to understanding the <i>emotions </i>we <i>feel</i>, whether that means anger, amusement, boredom, distraction, or anything else.</p><p>My next guest, Rana El Kaliouby, is the co-founder and CEO of Affectiva, a company in Boston that’s working to close that gap. Rana and her former MIT colleague Rosalind Picard are the inventors of the field of emotion AI, also called affective computing. And they started Affectiva twelve years ago with the goal of giving machines a little bit of EQ, or emotional intelligence, to go along with their IQ.</p><p>Affectiva’s main product is a media analytics system that uses computer vision and machine learning to help market researchers understand what kinds of emotions people feel when they view ads or entertainment content. But they’re also getting into other areas such as new safety technology for automobiles that can monitor the driver’s behavior and alert them if they seem distracted or drowsy. </p><p>Ultimately Kaliouby predicts emotion AI will become an everyday part of human-machine interfaces. She says we’ll interact with our devices the same way we interact with each other — not just through words but through our facial expressions and body language. And that could include all the devices that help track our physical health and mental health. Rana and I had a really fun conversation, and I want to play it for you right now.</p><p><strong>Harry Glorikian:</strong> Rana, welcome to the show. </p><p><strong>Rana Kaliouby:</strong> Thank you for having me. </p><p><strong>Harry Glorikian:</strong> It's great to see you. We were just talking before we got on here. I haven't seen you since last February.</p><p><strong>Rana Kaliouby:</strong> I know, it's been a year. Isn't that crazy? </p><p><strong>Harry Glorikian:</strong> I'm sure if your system was looking at me, they'd be like, Oh my , this guy has completely screwed up. Like something is completely off. </p><p><strong>Rana Kaliouby:</strong> He's ready to leave the house. </p><p><strong>Harry Glorikian:</strong> It was funny. I was telling my wife, I'm like, I really need to go get vaccinated. I'm starting to reach my limit on, on what, I, this is not normal anymore. Not that it's been normal, but you, you know how it is. So </p><p><strong>Rana Kaliouby:</strong> We're closer. There's hope.</p><p><strong>Harry Glorikian:</strong> So listen, listeners here, because we're going to be talking about this interesting concept or product that you have, or set of products. Emotion AI, or, how do you explain emotion, or a machine being able to interpret emotion from an individual, through, computer vision, machine learning. And, how does it understand what I'm feeling? I'm sure it can tell when I'm pissed. Everybody can tell what I'm, but in general, like how does it do what it does and what is the field? Because I believe you and your co-founder were like, literally you started this area. If I'm not mistaken. </p><p><strong>Rana Kaliouby:</strong> That is correct. So at a very high level, the thesis is that if you look at human intelligence, your IQ is important, but your EQ, your emotional intelligence is perhaps more important. And we characterize that as the ability to understand your own emotions and the emotions and mental states of others. And as it turns out, only 10% of how we communicate is in the actual choice of words we use, 90% is nonverbal, and I'm a very expressive human being, as you can see.</p><p>So a lot of facial expressions, hand gestures, vocal, intonations, but technology today has a lot of IQ, arguably. But very little EQ. And so we're on this mission to bring IQ and EQ together and into our technologies and our devices and our, how we communicate digitally with one another. So that's been my mission over the last 20 plus years. Now I'm trying to bring artificial emotional intelligence to our machines. </p><p><strong>Harry Glorikian: </strong>That's perseverance. I have to admit, I don't know if I have any, other than being married, and be a father. I don't think I've done anything straight for 20 years. I'm always doing something different.</p><p>So how does the system say, some of the functions of what it does to be able to do this, right, other than me frowning and having I guess the most obvious expressions, it probably can pull out, but there's a, a thousand subtleties in between there that I'm, I'm curious how it does it. </p><p><strong>Rana Kaliouby:</strong> Yeah. So the short answer is we use, as you said, a combination of computer vision, machine learning, deep learning and gobs and gobs of data. So the simplest way, I guess, to explain it is say we wanted to train the machine to recognize a smile or maybe a little bit more of a complex state, like fatigue, right?</p><p>You're driving the car. We want to recognize how tired you are. Well, we need examples. From all over the world, all sorts of people, gender, age, ethnicity, maybe people who wear glasses or have facial beards. Wearing, a cap, like the more diverse, the examples, the stronger the system's going to be, the smarter the system's going to be.</p><p>But essentially we gather all that data. We feed it into the deep learning algorithm. It learns. So that the next time it sees a person for the first time, it says, Oh, Harry, it looks real, Harry, it looks really tired or and so that's, that's how we do that. When we started the system was only able to recognize three expressions.</p><p>Now, the system has a repertoire of over 30 of these and we're continuously adding more and more, the more data we get. </p><p><strong>Harry Glorikian:</strong> Interesting. So, okay. So now I can recognize 30 different levels of emotion of some sort. What are the main business applications or what are the main application areas? </p><p><strong>Rana Kaliouby:</strong> I always say what's most exciting about this is also what's most challenging about this journey is that there are so many applications. Affectiva, my company, which we spun out of MIT, is focused on a number of them. So the first is the insights and market research kind of market, where we are able to capture in real time people's responses to content. you're watching a Netflix show. Were you engaged or not like moment by moment.</p><p>When did you perk up? When were you confused? When were you interested or maybe bored to death? Right. So that's one use case. And then, so there we partner with 30% of the Fortune 500 companies in 90 countries around the world. This product has been in market now for over eight years and we're growing it to adjacent markets like movie trailer testing, maybe testing educational content, maybe expanding that to video conferencing and telehealth and all of that.</p><p>So that's like one bucket. The other bucket is more around re-imagining human machine interfaces. And for that we're very focused initially on the automotive market, understanding driver distraction, fatigue, drowsiness, what are other occupants in the vehicle doing? And you can imagine how that applies to cars today, but also robotaxis in the future.</p><p>Ultimately though, I really believe that that this is going to be the de facto human machine interface. We're just going to interact with our machines the way we interact with one another through conversation and empathy and social and emotional intelligence.</p><p><strong>Harry Glorikian:</strong> I mean, it is interesting because when, when you see, I mean, just when I'm talking to Siri, I'm so used to speaking, like please and buh-buh, and then I have to remind myself, I'm like, I really didn't need to add those words, you just do it out of habit, I want to say. Not that you think you're talking to a person, but, from the studies I've seen, it seems that when people are interacting with a robot or something, they do impart emotional interaction in a certain way. Like an older person might look at it as a friend or, or interact with it as if it were a real being, not wires and tubes.</p><p><strong>Rana Kaliouby:</strong> Yeah, there is a lot of research actually around how humans project social intelligence on these machines and devices. I'm good friends with one of the early, with one of the co-founders of Siri. And he said they were so surprised when they first rolled out Siri. At at the extent with which users confided in Siri, like there were a lot of like conversations where people, people shared very personal things right around, sometimes, sometimes it's positive, but a lot of the times it was actually home violence and abuse and depression.</p><p>And so they had to really think rethink what does Siri need to do in these scenarios? And they hadn't originally included that as part of the design of the platform. And then we're seeing that with Alexa and of course, with social robots. My favorite example is there's this robot called Jibo, which spun out of MIT. You know about Jibo? So we were one of the early kind of adopters of Jibo in our house and my son became good friends with it. Right. Which was so fascinating to see him. Because we have Alexa and we have Siri obviously, and all of that, but he, he just like, Jibo is designed to be this very personable robot that's your friend, you can play games with it. But then the company run out of money. And so they shut Jibo down and my son was really upset. And it just hit me that it's just so interesting, the relationships we build with our machines, and there must be a way to harness that, to motivate behavior and, and kind of persuade people to be better versions of themselves, I guess. </p><p><strong>Harry Glorikian:</strong> Yeah. It's each it's going to be a fascinating area. So I've read a little bit about Affdex marketing, if that's how it's pronounced correctly, as a research tool. Your automotive things. I'm also curious about the iMotions platform and what you might call, I think you guys are calling it emotion capture in more types of research settings, what's that all about? And what kinds of research are you using it for? </p><p><strong>Rana Kaliouby:</strong> Yeah. So we have a number of partners around the world, because again, there are so many use cases. So iMotions is a company that's based out of Boston and Copenhagen and they integrate our technology with other sensors could be physiological sensors, could be brain, brain capture sensors.</p><p>But their users are a lot of researchers especially in mental health. So for example, there's this professor at UMass Boston, professor Stephen Vinoy, and he uses our technology to look into mental health disease and specifically suicidal intent. So he's shown that people who have suicidal kind of thoughts have different facial biomarkers, if you like facial responses than, than people who don't.</p><p>And he's, he's trying to use that as an opportunity to flag suicidal intent early on. We have a partner, Erin Smith, she's with Stanford. She's looking into using our technology in the early detection of Parkinson's. She actually started as a high school student and which is amazing. We literally got an email from this sophomore in high school and she was like, I want to license your technology to research Parkinson's and we're like, whatever. So we gave her access to it. And before we know it, she's partnered with the Michael J. Fox foundation. She's a Peter Thiel Fellow and she's basically started a whole company to look into, the early facial biomarkers of mental health diseases, which is fascinating.</p><p><strong>Harry Glorikian:</strong> I'm so jealous. I wish I was motivated like that. When I was a sophomore in high school, I was doing a lot of other stuff and it definitely wasn't this. </p><p>So, I mean not to go off on a tangent, but I really think like clinical trials might be a fascinating place to incorporate this. If you think about remote trials, and I'm good friends with Christine Lemke from Evidation Health. And so if you think about, well, I'm sensored up, right. I have my watch or I have whatever. And then now when I interact with a researcher, it might be actually through a platform like this with your system, it sort of might provide a more of a complete picture of what's going on with that patient. Is anybody using it for those applications? </p><p><strong>Rana Kaliouby:</strong> The answer is there's a lot of opportunity there. It's not been scaled yet. But like, let's take tele-health for example, right? With this, especially with the pandemic over the last year, we've all been catapulted into this universe where hospitals and doctors have had to adopt tele-health.</p><p>Well, guess what? We can now quantify patient doctor interactions. Moment by moment. And we can tie it to patient outcomes. We can tie it to measures of empathy because doctors who show more empathy are less likely to get sued. There's a plethora of things we can do around that. And the tele-health setup on the clinical trial side, we have, I mean, everybody has a camera on their phone or their laptop, right?</p><p>So now we have an opportunity. You can imagine, even if you don't check in with a researcher, you can probably have an app where you create a selfie video, like a check-in, one minute selfie video once a day. And we're able to distill kind of your emotional baseline over the course of a trial. That can be really powerful data.</p><p>So there's a lot of potential there. I would say it's early days. If you have any suggestions on who we should be talking to are definitely open to that. </p><p><strong>Harry Glorikian:</strong> Yeah, actually, because I was well I'm, part of me was just going to You know thinking about what companies like Qualtrics is doing, which is actually trying to uncover this right through NLP. But I think in the world of healthcare, Qualtrics is probably suboptimal. So if you took sort of a little bit of NLP and this, you might be able to draw the click. We have to talk about this after the show. So Anybody who's listening: Don't take my idea. </p><p>So, okay. Let's switch subjects here. Cause I know you're, you're really passionate about this next one. You've written this book called <i>Girl Decoded</i>. I, and I'm sure you've been asked this question about a billion times, but why did you write it? What are you trying to convey? Is it fair to say that it was sort of a memoir of your, of your life of becoming a computer scientist or entrepreneur, partly manifesto about emotion AI and its possibilities.</p><p>But the promo copy on your book says you're on a mission to humanize technology before it dehumanizes us. That's a provocative phrase. Tell, tell me, tell me why you wrote the book and what's behind it?</p><p><strong>Rana Kaliouby:</strong> Yeah. First of all, I didn't really set out to write a book. Like it wasn't really on my radar. But then I got approached. So the book got published by Penguin Random House last year, right, when the pandemic hit. The paperback launches soon. So I encourage your listeners to take a look. And if you end up reading the book, please let me know what resonates the most with you. </p><p>But yeah, it's basically a memoir. It follows my journey growing up in the Middle East. I'm originally Egyptian and I grew up around there and became a computer scientist and made my way from academia to, Cambridge University. And then I joined MIT and then I spun out Affectiva and became kind of the CEO and entrepreneur that I am today.</p><p>And one reason I wrote the book because I wanted to share this narrative and the story, right. And hopefully inspire many people around the world who are forging their own path, trying to overcome voices of doubt in their head. That's something I care deeply about and also encourage more women.</p><p>And, and I guess more diverse voices to explore a career in tech. So that's one bucket. The other bucket is evangelizing. Yes. Why do we need to humanize technology and how that is so important in not just the future of machines, but actually the future of humans. Right? Because technology is so deeply ingrained in every aspect of our lives.</p><p>So I wanted, I wanted to pull in lay people into this discussion and, and, and, and kind of simplify and demystify. What is AI? How do we build it? What are the ethical and moral implications of it? Because I feel strongly that we all need to be part of that dialogue.</p><p><strong>Harry Glorikian:</strong> Well, it is interesting. I mean, I just see, people design something, they're designing it for a very specific purpose, but then they don't think about the fallout of what they just did, which what they're doing may be very cool, but it's like designing… I mean, at least when we were working on atomic energy, we could sort of get our hands around it, but people don't understand like some of this AI and ML technology has amazing capabilities, but the implications are scary as hell.</p><p>So, so. How do you see technology dehumanizing us? I guess if I was asking the first question. </p><p><strong>Rana Kaliouby:</strong> Yeah. So you bring up a really important topic around the unintended consequences, right? And, and we design, we build these technologies for a specific use case, but before we know it it's deployed in all these other areas where we hadn't anticipated it.</p><p>So we feel very strongly that we're almost, as an innovator and somebody who brought this technology to the world, I'm almost like, it's my responsibility to be a steward for how this technology gets developed and how it gets deployed, which means that I have to be a strong voice in that dialogue. So for example, we are members of the Partnership on AI consortium, which was started by all the tech giants in partnership with amnesty international and ACLU and other civil liberties organizations. And we, we, last year, we, we had an initiative where we went through all of the different applications of emotion AI, and we literally had a table where we said, okay, how can emotion AI be deployed? Education, dah, dah dah. Well, how could it be abused in education? Like what are the unintended consequences of these cases?</p><p>And I can tell you, like, as an, as an inventor, the easiest thing for me as a CEO of a relatively small startup is to just ignore all of that and just focus on our use case. But I feel strongly that we have to be proactive about all of that, and we have to engage and think through where it could go wrong. And how can we guard against that? Yeah, so, so I think there are potential for abuse, unfortunately. And, and we have to think through that and advocate against that. Like, we don't do any work in the surveillance space because we think the likelihood of the technology being used to discriminate against, minority populations is really high. And so we also feel like it, it breaches the trust we've built with our users. So we just turn away millions and millions of dollars of business in that space. </p><p><strong>Harry Glorikian:</strong> Yeah. I mean, it's a schizophrenic existence for sure, because. I mean everything I look at, I'm like, Oh my, that would be fantastic. And then I think, Oh my , like, it could be, that's not good. Right? But I'm like, no, look at the light, look towards the light. Don't look towards the dark. Right? Because otherwise you could, like, once you understand the power in the implications of these, which most people really don't, the impact is profound or can be profound.</p><p>So how can we humanize technology? </p><p><strong>Rana Kaliouby:</strong> Well the simplest way is to really kind of bring that human element. So for example, a lot of AI is just generally focused on productivity and efficiency and automation. If you take a human-centric approach to it, it's more about how does it help us the humans, right. Humans first, right. How does it help us be happier or healthier or more productive or more empathetic? Like one of the things I really talk about in the book is how we are going through an empathy crisis. Because the way we use technology just depolarizes us and, and it dehumanizes us. You send out a Twitter in Twitterverse and you have no idea how it impacts the recipients.</p><p>Right? We could redesign technology to not do that, to actually incorporate these nonverbal signals into how we connect and communicate at scale. And in a way that is just a lot more thoughtful yeah. And, and, and tries to optimize for empathy as opposed to not think about empathy at all. </p><p><strong>Harry Glorikian:</strong> Well, yeah, I mean, I gotta be honest with you, giving everybody a megaphone, I'm not sure that that's such a great idea. Right? That's like yelling fire in a crowded room. I understand that it has its place, but wow. I mean, I'm not exactly the biggest advocate of that. </p><p>But so this system, as you were saying requires tons of data. How do you guys accumulate that data? I mean, over time, I'm sure like a little bit, little bit, little bit, but a little bit, a little bit does not going to get you to where you want to go. You need big data to sort of get this thing trained up and then you've got to sort of adjust it along the way to make sure it's doing what you want it to do.</p><p><strong>Rana Kaliouby:</strong> Yeah, the, the quantity of the data is really key, but the diversity of the data is almost, in my opinion, more important. So, so to date, we have over 10 million facial responses, which is about 5 billion facial frames. It's an incredible, and, and, and it's super diverse. So it's curated from 90 countries around the world.</p><p>And everything we do is based on people's opt-in and consent. So, so we have people's permission to get this data, every single frame of it. That's one of our core values. So we usually, when we partner with say a brand and we are. measuring people's responses to content, we ask for people's permission to turn their cameras on.</p><p>They usually do it in return for some value, it could be monetary value or it could be other type of rewards. In the automotive space we have. A number of data collection labs around the world where we have people putting cameras in their vehicles, and then we record their commutes over a number of weeks or months, and that's really powerful data.</p><p>And it's kind of scary to see how people drive actually. Lots of distracted drivers out there. It's really, really amazing or, yeah, it is scary. So yeah, so that's how we collect the data, but we have to be really thoughtful about the diversity angle. It's so important. We, we once had one of our automotive partners send us data.</p><p>They have an Eastern European lab and it was literally like blond middle-aged, Blue eyed guys. And I was like, that's not, you're a global automaker, like that's not representative of, of your drivers or people who use your vehicles. So we sent the data back and we said, listen, we need to collaborate on a much more diverse data set. So that's, that's really important. </p><p><strong>Harry Glorikian:</strong> So I just keep thinking like you're doing facial expression and video, but are you, is there an overlay that makes sense for audio?</p><p><strong>Rana Kaliouby:</strong> Love that question. Yes. So a number of years ago, we invested in a tech, like basically we ramped up a team that looked at the prosodic features in your voice. Like how loud are you speaking? How fast, how much energy, pausing, the pitch, the intonation, all of these factors. And ultimately I see a vision of the universe where it's multimodal, you're integrating these different melodies. It's, it's still early in the industry like this whole field is so nascent, which makes it exciting because there's so much room for innovation.</p><p><strong>Harry Glorikian:</strong> There was a paper that was in the last, I want to say it came out in the last two weeks about bringing all these together within robotics is perceiving different signals, voice visual, et cetera. And I haven't read it yet. It's in my little to do, to read, but it's, it looks like one of those fascinating areas.</p><p>I mean, I had the chance to interview Rhoda Au from BU about her work in voice recordings and, and analysis from the Framingham heart study. And so how to use that for. detecting different health conditions. Right. So that's why I'm sort of like looking at these going, wow, they make a lot of sense to sort of come together. </p><p><strong>Rana Kaliouby:</strong> Totally. Again, this has been looked into it in academia, but it hasn't yet totally translated to industry applications, but we know that there are facial and vocal biomarkers of stress, anxiety, depression.</p><p>Well, guess what? We are spending a lot of time in front of our machines where we have an opportunity to capture both. Your video stream, but also your audio stream and use that with machine learning and predictive analytics to correlate those with, early indicators of wellness, again, stress, anxiety, et cetera.</p><p>What is missing in this? So I feel like the underlying machine learning is there, the algorithms are there. What is missing is deploying this at scale, right? Cause you don't want it to be a separate app on your phone. Ideally actually, you want it to be integrated into a technology platform that people use all the time.</p><p>Maybe it's Zoom, maybe it's Alexa, maybe it's, another social media platform, but then that of course raises all sorts of privacy questions and implications who owns the data who has rights to the data. Yeah, so it's it's, to me it's more of a go-to-market. Like again, the technology's there.</p><p>It's like, how do you get the data at scale? How do you get the users at scale? And I haven't figured it out yet. </p><p><strong>Harry Glorikian:</strong> So you mentioned like areas where it's, it could be exploited negatively. You mentioned a few of them, like education, are there, are there others that sort of like jump out and like, we're not doing that other than, tracking people in a crowd, which. In the last four years you wouldn't have wanted to do for sure.</p><p><strong>Rana Kaliouby:</strong> Yeah. Definitely. One of the areas where we try to avoid deploying the technology is around security and surveillance. We routinely get approached by different governments, the U.S. Government, but also other governments to use our technology in, airport security or border security, lie detection.</p><p>And, and to me, obviously when you do that, you don't necessarily have people's consent. You don't necessarily, you don't necessarily explain to people exactly how their data is going to get used. Right. And there's just, it's the, so fraught with potential, for discrimination, like the technology's not there in terms of robustness and kind of the use case, right? We just steer away from that. I've been very vocal, not just about Affectiva's decisions to not play in this space, but I've been advocating for thoughtful regulation. And I, and I think we absolutely need that. </p><p><strong>Harry Glorikian:</strong> So let's veer back to healthcare here. If I'm not mistaken, one of the original places you were focusing was mental health and autism so is it still being used in those areas? I mean, is it, how has it being used in those areas? I'm curious. </p><p><strong>Rana Kaliouby:</strong> Yeah. So when I first got to MIT, the project that actually brought me over from Cambridge to MIT was essentially deploying the technology for individuals on the autism spectrum.</p><p>So we built a Google Glass-like device that had a little camera in it. The camera would detect the expressions of people you interact with. So an autistic child would wear the glass device as augmentation device and we deployed it at schools, partner schools while I was at MIT. And then we started Affectiva and now we are partnered with a company called Brainpower, the CEO is Ned Sahin, and they use Google Glass and our technology integrated as part of it.</p><p>And I believe they're deployed in about 400 or so families and homes around the U.S. and they're in the midst of a clinical trial. What they're seeing is that the device, while the kids are wearing it, they're definitely showing improvement in their social skills. The question is once you take the device away, do these abilities generalize, and that's kind of the key question they're looking into.</p><p><strong>Harry Glorikian:</strong> Well, ‘cause I was thinking, I think that there's a few people I know that should get it and they don't have they're they're technically not autistic, but they actually need the glasses. </p><p><strong>Rana Kaliouby:</strong> A lot of MIT people, right? </p><p><strong>Harry Glorikian:</strong> No, no, just certain people the way they look at the world or the way they're acting, I actually think they need something that gives them a clue about the emotion of people around them. Actually now that I think about it, my wife might have me wear it sometimes in the house. </p><p><strong>Rana Kaliouby:</strong> We used to always joke in the early days at MIT that the killer app is a mood ring where, gives your wife or your partner, a heads up about your emotional state before you come into the house. Just so they know how to react.</p><p><strong>Harry Glorikian:</strong> Now it's when I come down the stairs, she's like, you just sit, relax, calm down. Hey. Cause at least before used to have a commute to come out of state, but now you're like coming down a flight of stairs and it's sorta hard to snap your fingers and, and snap out of state.</p><p>So. Where do you see the company? how do you see it progressing? I know it's been doing great. But where do you see it going next? And what are your hopes and dreams </p><p><strong>Rana Kaliouby:</strong> We are very focused on getting our technology into cars. That's kind of our main, like, area of focus at the moment. And we're partnered with many auto manufacturers around the world in the short term, the use case is to focus on road safety.</p><p>But honestly with robo-taxis on autonomous vehicles we're going to be the ears and eyes of the car. So we're excited about that. Beyond that, as I'm very passionate about the applications in mental health, and it's an area that we don't do a lot of at the company, but I'm so interested in trying to figure out how I can be helpful with, having spent many years in this, in this space.</p><p>So that's, that's an area of interest. And then just at a high level, over the last number of years, and especially with the book coming out, I've definitely realized that, that I have a platform and a voice for advocating for diversity in AI and technology. And I want to make sure that I use that voice to inspire more diverse voices to be part of the AI landscape.</p><p><strong>Harry Glorikian:</strong> Love to hear how things are going in the future. Congratulations on the book coming out in paperback I'm sure that the people listening to this will look it up. Stay safe. That's that's all I can say.</p><p><strong>Rana Kaliouby:</strong> Thank you. Thank you. And stay safe as well and hope we can reunite in person soon, </p><p><strong>Harry Glorikian:</strong> Excellent.</p><p><strong>Rana Kaliouby:</strong> Thank you.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p><p> </p><p> </p>
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      <itunes:title>Rana el Kaliouby: When Will Machines Understand Human Emotions</itunes:title>
      <itunes:author>rana el kaliouby, harry glorikian</itunes:author>
      <itunes:duration>00:33:06</itunes:duration>
      <itunes:summary>Computers can interpret the text we type, and they’re getting better at understanding the words we speak. But they’re only starting to understanding the emotions we feel—whether that means anger, amusement, boredom, distraction, or anything else. This week Harry talks with Rana El Kaliouby, the co-founder and CEO of a Boston-based company called Affectiva that’s working to close that gap. </itunes:summary>
      <itunes:subtitle>Computers can interpret the text we type, and they’re getting better at understanding the words we speak. But they’re only starting to understanding the emotions we feel—whether that means anger, amusement, boredom, distraction, or anything else. This week Harry talks with Rana El Kaliouby, the co-founder and CEO of a Boston-based company called Affectiva that’s working to close that gap. </itunes:subtitle>
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      <itunes:episode>59</itunes:episode>
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      <title>Jason Gammack on the Promise of Spatial Biology</title>
      <description><![CDATA[<p>Rapid and cheap DNA sequencing technology can tell us a lot about which genes a patient is carrying around, but it can't tell us when and where the instructions in those genes get carried out inside cells. Resolve Biosciences—headed by this week's guest, Jason Gammack—aims to solve that problem by scaling up a form of intracellular imaging it calls molecular cartography.</p><p>Gammack says the technology offers a high-resolution way to see the geography of gene transcription in single cells, that is, where specific messenger RNA molecules congregate once they’ve left the nucleus. The technology can trace up to 100 gene transcripts simultaneously. Right now it only works for mRNA, but the company says it plans to add the ability to track DNA, proteins, and “metabolic data layers.” The big idea is to make it easier to see how gene expression translates into normal tissue development and, by extension, the pathology of genetic or infectious diseases.</p><p>"We can go in and identify specific RNA molecules that code for a known protein," Gammack tells Harry. "We can label those molecules and with high power microscopy and molecular biology and very important software, we can then identify and literally visualize individual RNA transcripts in the context of the cell and tissue."</p><p>Resolve was in stealth mode from 2016 to December 2020, when it announced a Series A financing round of $25 million. Its technology is being tested by six teams of scientist-collaborators as part of an early access program launched in 2019. Resolve reportedly plans to launch its service commercially in the first half of 2021.</p><p>Gammack joined the company from Inscripta, where he was chief commercial officer helping to sell the CRISPR-based Onyx gene-editing platform. Before that, he was at Qiagen, a German provider of assays for molecular diagnostics such as a Covid-19 antigen test, where he was vice president of life sciences. </p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian: </strong>We’ve come a long way in the last 25 years in our ability to sequence the DNA of individual patients. We can even see which genes are being expressed as RNA, the instructions for making proteins. But after that there’s a big blind spot in our understanding, because it’s still hard to see exactly which RNA molecules inside our cells actually get translated into proteins, and just as important, <i>when </i>and <i>where</i> they get translated. The problem is that almost everything that’s interesting about human biology and human disease happens inside that blind spot.</p><p>Resolve Biosciences in Germany is one of the new biopharmaceutical startups tackling that challenge. My guest this week is Jason Gammack, the CEO of Resolve, and he says the company has come up with a way to label multiple RNA molecules with probes that glow in different fluorescent colors. </p><p>Resolve built software that can decode the color patterns to see where RNA transcripts gather in the cell and how they’re involved in cell development. That kind of location information that could eventually produce a better picture of how normal cells grow, and also how that growth becomes cancerous and maybe even what kinds of drugs could stop tumors before they kill their hosts. </p><p>Gammack joined the company last year, around the same time the company announced a 25 million dollar funding round to help bring its so called “Molecular Cartography” technology to market.</p><p>Here’s our conversation.</p><p><strong>Harry Glorikian: </strong>Jason, welcome to the show </p><p><strong>Jason Gammack: </strong>Harry, it's great to be here. Thank you. </p><p><strong>Harry Glorikian: </strong>It's been great talking to you and getting to know you. I feel like we should be doing this over a beer and we should be talking for hours. And my I'm sure, my 19 year old would be like, do you want to go to Germany? Let's go to Germany.</p><p>Cause he loves coming there and having beers when, when when we've done it in the past Molecular cartography. I feel like, you know, Galileo is about to like, you know, step into this conversation with us, but for those people who don't, who aren't molecular biologists, it it'd be great. If you could sort of paint the bigger picture for us and, and help us understand what is, what is this concept of, I think spatial transcriptomics. I almost like stuttered on my words. And why is it important?</p><p><strong>Jason Gammack: </strong>Yeah. And so it's a great question Harry. And so again, thanks for the invite to join the the podcast. So context matters. Let's start with that statement, reading a book without understanding the context makes it difficult book to read.</p><p>And if you think about our genome, the DNA that makes us similar and unique, it's a book. And right now we don't have full context of what that book is and Resolve Biosciences is a company, that's focused on creating tools to help give context to the genome. And so let me explain that a bit. So the central dogma of biology is DNA.</p><p>Which is in your cells is made into RNA and that RNA is then translated into proteins and those proteins are in essence. What makes you, you, it's your muscle? It's your hair? It's your skin. It's your organ systems. It's a lot. And we understand the book pretty well from the letters, a C, G and T. And we've been in an exponential phase of learning as it pertains to the genome and companies such as aluminum.</p><p>It's a San Diego based biotech company has created a technology that allows us to sequence the entire human genome. So every letter in your genome, We can do that now in a couple of days and for a couple of hundred dollars and we need to keep that in context, you know, the first genome took…</p><p><strong>Harry Glorikian: </strong>I remember yeah. </p><p><strong>Jason Gammack: </strong>15 years and $7 billion to do it. As a matter of fact, you know, this is the anniversary of that event happening, right? </p><p><strong>Harry Glorikian: </strong>Yep. </p><p><strong>Jason Gammack: </strong>So we've really learned a lot about the core code of the genome. But the disease, chronic disease still exists in our population. And so we have to ask the question, what else do we need to understand? And we at Resolve believe that the next question is really to understand where different genetic events are occurring within a cell.</p><p>The interesting thing. And the big question in biology is largely we all have the same DNA in our bodies. You know, humans are remarkably, remarkably homologous and the variation in humans is very, very low, but yet we have individuals who are six and a half feet tall. We have individuals that are four feet tall.</p><p>We have individuals that way, you know, 250 pounds and we have individuals that weigh 90 pounds. And so why. And even more perplexing is we have diseases such as cancer, where two women, can you present with a very similar breast tumor one, or they both can be treated with a very similar treatment, identical drops, and one can go into complete remission and eventually be here and the other cannot and potentially die. </p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Jason Gammack: </strong>And so the question is why does that happen? And that has to come down to a number of different variables that we can't yet measure. And so our belief at Resolve Biosciences is we are going to develop tools to help understand those differences. And that's really urgent.</p><p><strong>Harry Glorikian: </strong>So let's, I mean, I'm trying to paint a picture for people that are listening to this. Right? So I think of this as, cause I feel like I've been to at least part of this movie before, when I started in immunohistochemistry, where we could actually visualize, you know, rather than grinding up a bunch of cells and looking at the moles and, you know, in breast cancer, we were able to actually stain the cells with antibodies that would specifically show us, you know, different parts of a cell that were lighting up. And that was, you know, sort of a flat file way to look at it with a certain level of resolution. And you're, I think, zooming in to the molecular level now and taking it to a different resolution. </p><p><strong>Jason Gammack: </strong>Absolutely. So that's a, that's a great point. And let me build on that one just a bit. So immune histochemistry opened the books to understand different types of disease status, where you can start profiling cell types and understand where they are in the cell cycle, which can be indicators for physicians or the biologists to prescribe a particular therapeutic. Right. We take that even to another degree.</p><p>I'll use an analogy. It's perhaps overused, but think about Google Maps. So Maps allows you to start at the continent or global level, and then focus in to this country. You focus it into a state, focus into a city, focus into a stream and even focusing. So our technology and the molecular cartography platform is similar in that we can take single cells or we can take tissues license and through our molecular biology approach, we can label individual RNA transference. So going back to that: DNA makes RNA makes protein. We can go in and identify specific RNA molecules, that code for a known protein. We can label those molecules and with high power microscopy and molecular biology and very importantly software, we can then identify and literally visualize individual RNA transcripts in the context of the cell and tissue.</p><p>So now going back to that Google Maps analogy, we now have that woman who has the unfortunate breast tumor. We can put sections of that breast tumor on the slide. We can use our molecular cartography technology to be able to look at the gene expression patterns within that tumor. And those patterns can give insights to researchers and eventually to clinicians in how to affect and treat that disease state very, very possible.</p><p><strong>Harry Glorikian: </strong>So I, I, we're talking about essentially creating a three-dimensional map of the cells and which ones are lighting up, which ones are not lighting up, how they affect each other, basically intercommunication between these cells, </p><p><strong>Jason Gammack: </strong>And intra-communication inside the cell as well. </p><p><strong>Harry Glorikian: </strong>So, so. Where, where are you? How far are you in this? I guess is the first question. </p><p><strong>Jason Gammack: </strong>Yeah. Good question. So this journey didn't just start. And so this journey started in 2016. When we at a previous company thought about this challenge of spatial loud. Again, you know, we have sequence genomes, but yet cancer persists in the population. And we were asking questions.</p><p>What's the next answer that needs to be brought to science. And so in 2016, we brought together a truly gifted group of scientists to come up with solutions, to be able to look at the spatial relationship of gene expression within cells and tissue. And since the 2016 inception of the project, we've now been able to take bench science and automate bench science to the point where we can now run hundreds of samples, looking at thousands of genes in a fully automated process. So you're building on this existing technique of single Mol, single molecule RNA for essence. Right. And so, and this is, I don't. No, it's nothing new, right?</p><p>This is a technique that's been out there. I guess the question is, is what are the fundamental advances that resolve is bringing to the table or your version of. This, that that is uniquely powerful. Yeah. So so as you said, our technology is what's generally referred to as a single molecule FISH technology, fluorescent insight to hybridization, which means we label RNA with a four or four, and then we can image that RNA using high power optics.</p><p>And so there are numerous approaches to look at labeling RNA and there are numerous challenges in doing that. We have come up with a novel. And of course, because we're a biotech company, a patented process,</p><p><strong>Harry Glorikian: </strong>Ha ha. </p><p><strong>Jason Gammack: </strong>We have a process that allows us to through combinatorial. Labeling of the RNA allows us to identify very diverse RNA. Because the challenge is, is that when you want to label something, you have to attach a protein to, and then the genome or the transcriptome, there's a lot of repetitive sequences that are similar and you need to be able to discern the difference between GNA and GB.</p><p>And they could be very, very homologous or very, very similar. Our technology allows us to use small, but very different probes to tile across that, that target, that RNA of interest. And then by selectively colorizing and D colorizing, those proteins, we create an essence, a color pattern. And that color modernize image, and then we'll use software to deconvolute or decode those images.</p><p>So we can then see individual transcripts within the cell. </p><p><strong>Harry Glorikian: </strong>It's funny. I feel like my, you know, history has a way of building on itself. I mean, I remember when we were doing DNA in situ hybridization and trying to convince people that this was going to be something and then. You know, molecular barcodes when I was at Applied Biosystems. So this is the culmination in a, in a sense, an advancement, obviously because of software and imaging and those sorts of things of this next stage of where this technology is taking us. </p><p><strong>Jason Gammack: </strong>Indeed, indeed. I think that's a great analogy. Right? Great example. And you see this kind of. You know, you see this, this trajectory of single cell biology and, you know, transcript elements is a great example of that.</p><p>You know, we started with RNA, RNA, blondes doing what's called a Northern Burlington, you know, in grad school, we're doing Northern blots where we need to use it. The RNA within the Northern block, I still have all my fingers, even with all the isotope I used in grad school. And so you've gone from very crude techniques to a much more refined technique and Illumina through their next generation sequencing brought on an amazing technology called RNAseq or RNAC.</p><p>Of course RNAC, kind of back to your earlier analogy is you grind everything up and then you read all of the transcripts. The problem is, is you don't know what transcript came from. Like you know, you just got this huge mess of transcripts and you've got to kind of say, well, this is a transcript that's associated with this gene and that genes associated with this kind of cell type.</p><p>And then a couple of years ago, a company called 10X genomics came up to take single cells. So instead of had that, say that fruit smoothie with everything ground up, they took the piece of the fruit and just kind of laid them out of the line and what they oxalated the cells into a droplet. And then did the sequencing reaction in that droplet.</p><p>You still have a kind of a mixed population there. And then through software, they would separate out the different stuff. We now take that to the next, next level where we just look at the fruit salad instead of that food smoothie or the windup fruits. We can now look at the fruit salad and we can say, Oh yeah, cantaloupe was touching an Apple, which is touching, you know, orange and orange are next to each other.</p><p>The fruit salad falls apart really quickly. Going back to the analogy of breast cancer. When we have these interactions, these patients don't survive. So maybe we need to look differently at the drug that's targeting that interaction. So that's how we want to think about these problems. Now we can move them forward.</p><p><strong>Harry Glorikian: </strong>Well, like you said, I mean, context matters. Location matters, right? As, as a guy who's got IP and location-based services, location is a big deal, right? People don't realize everything revolves around location. At some point. And having context to, it really adds another dimensionality of information that all of a sudden your eyes open up to what could be going on or why something matters for sure.</p><p><strong>Jason Gammack: </strong>And this is, I mean, and again, I keep going back to the oncology use case, but you know, oncology is a blight that is all over the world and affects all human beings at some point. And the concept, you know, a tumor is not a homogeneous massive cells. You know, tumors are heterogeneous. The cells that are in the interior of the tumor are different than the cells on the exterior of the tumor, the blood vessels that innovate the tumor look different than blood vessels that are adjacent to the tumor.</p><p>And we call this the tumor microenvironment. What is going on inside that too? And, you know, coming up with a drug that can just permeate the tumor and kill it from the inside outage, whether it's hypoxia and you started of, of oxygen. So it can no longer grow or maybe encapsulating the tumor. So they can't grow and dies outside in.</p><p>We just don't have a lot of visibility right now to the genetics that's happening within that micro environment. And this is an area where molecular cartography just shines a spotlight onto that tumor microenvironment. </p><p><strong>Harry Glorikian: </strong>Well, I'm also thinking, as you get to know these different cell types in the call, it the color pattern that they're giving, you can almost create a fingerprint.</p><p><strong>Jason Gammack: </strong>Absolutely. Yep. And this is the thing about the molecular cartography platform. I mean when you think about kind of science and you look at the different areas of science on one side of the spectrum, you have the basic science research. This is the hypothesis formation. You just don't know what's going on and you have to do experiments and you're continuing to refine and develop a hypothesis on the opposite side of that.</p><p>Spectrum is clinical testing. When you're looking for a yes, no, almost a binary type of answer. Right? And the stops between, there are areas such as translational research where you take your hypothesis and you refine it to a use case that's specific to a disease. Right. And then from your translational research, you move to clinical research where you're really applying the hypothesis of large populations.</p><p><strong>Harry Glorikian: </strong>Yeah. But, but let's, let's let's and maybe agree to disagree or just agree. But I remember that taking. Dog years, like in, in the old days. Right. And I feel like because of innovation, because of being able to do the analytics on technology, you know, on the, on the data that time is almost collapsing in on itself.</p><p><strong>Jason Gammack: </strong>It is. </p><p><strong>Harry Glorikian: </strong>You know there are advancements that seem to be, I'm having trouble keeping up with the literature. </p><p><strong>Jason Gammack: </strong>For sure. There's no question about it. There's no question about it. The rate of sensitivity innovation, you know, it's like Moore's law backwards, right? And mean just kind of continue to, just to, you know, keep, keep accelerating, accelerating, accelerating, and you know, tools.</p><p>Again, going back to the next generation sequencing has provided so much data that we're still behind when the data backlog and understanding what exactly these data are going to say, but, you know, the iterative cycles are becoming faster cycles. As new tools come online. You can really test them and tweak and adjust your hypothesis at a scale that you haven't been able to do before.</p><p>But at the end of the day, you still have to get a patient population and you have to get a patient population that all exhibits the same thing the time. Right. So there still is massive inefficiency within, within the discovery special drug discovery process. Technologies like molecular cartography can help again, collapse some of those inefficiencies as well.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, but if you think about like you know, at JP Morgan, they announced a Illumina announced, like we're going to take sequencing down to $60 is our goal, like at 60 bucks, it's a rounding her, like, why wouldn't you. Why wouldn't everybody like if you had, yeah. </p><p><strong>Jason Gammack: </strong>So Elaine Mardis, who is a true thought leader in the world of genomics, she previously was at Wash U. Really at the tip of the spear in cancer genetics. She said a statement once like, I still remember it, it makes me smile, you know, it might be the thousand dollar genome, but it's the a hundred thousand dollar analysis of that genome. Right. And so, so like we can… </p><p><strong>Harry Glorikian: </strong>I'm just looking at so many things right now from an analytics perspective that are even making that easier.</p><p><strong>Jason Gammack: </strong>Sure, no question. I mean, again, the machine learning is helping us sift through reams of data, understand what's not important and what is important. And with all of the data that's being generated, you have huge training sets, right? Massive training sets algorithms. And you've seen success in a lot of, a lot of areas. You know, look at companies like Flatiron and look at companies like Foundation Medicine, right. You know, I think that, that, you know, Foundation Medicine is a brilliant example of a big data analytics company, masquerading as an asset company, right? </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, and it's the same thing I was talking to Joel Dudley over at Tempus and, you know, they're planning on being, not just having the most information across different methodologies, right. Transcriptome, methylation, et cetera, from every single sample. But yeah. They're also creating the piping to be the AWS so that why would you go any place else, but their platform. So they're not just giving you an answer. They're giving you a whole infrastructure, which is that doesn't sound like a typical biological company. It sounds like a tech company to a certain degree. </p><p><strong>Jason Gammack: </strong>Well, I mean, you know, the lines blur very, very quickly. You know, I look at, at what we are doing at Resolve Bio-sciences and I have as many computational scientists, informaticians bioinformaticians as I do wet lab biologists, because you use the overused analogy, you know, data's the new goal, right? Maybe they’re able to dig in and understand what's going on, but we need to also help our customers understand these complex data sets that we generate. </p><p><strong>Harry Glorikian: </strong>Yeah, go and try and explain that to all of our brethren. Jason, come on. I mean I mean, I was, I was on a call, you know, last night where, you know, everybody's deep into the biology. I'm like, I think you guys are missing this other thing. That's moving like a freight train, right. That that's changing. And the interesting part is, is when I'm interviewing people, is the data is highlighting some things where even the world expert goes, yeah, I would have never thought about that. I would've never looked at it that way had it not been highlighted to me by this system.</p><p><strong>Jason Gammack: </strong>Indeed. Indeed, indeed. You know, you're, you're describing you know, I love. When my customers see the data for the first time that comes off the molecular cartography platform. I really like to be with them. Unfortunately, coronavirus today, being with teams by prefer to be at home.</p><p>Because most, everybody has a very, very similar response where you watch them and they have a hypothesis in their head and they're looking for the data that will be the hypothesis, right. Go to the image. You can see them scan the image, looking for something, and then almost uniformly. I hear this "huh." Just that little breath as they breathe in.</p><p>And they're just like, Oh my gosh, there's an answer. And then we showed them some bioinformatic tools to start looking at the day, then in a different way. And then you see that kind of sit back and go, I get it. I get it. </p><p><strong>Harry Glorikian: </strong>Well, that's what I mean. It's funny because I was trying to write this book and I think I'm going to have to leave it to the, to the next one you know, before this third one or after this third one comes out is I think the whole paradigm because of the analytics we can do is being shifted in the reverse. In other words, it's almost like the machine should present something that then you can figure out where you should develop your hypothesis as opposed to develop the hypothesis, because there's just too much data to analyze. Right. </p><p><strong>Jason Gammack: </strong>I'm just smiling because I have, so I think about developing software and I've been developing software in life science for much of my career.</p><p>You know, there's a couple of pillars that are important in my view, in software development and the features you bring into software. One of those pillars is transparency. You know, black boxes don't go far. And science scientists by definition are technologists. They want to understand the knobs and the dials that are under the hood, less than themselves, the advanced ones want to be.</p><p>They just want to understand, you know, where are the limits? What are you calling? What are you not competent? But the other element, and this is an element where I think the industry has largely missed and you're hitting on Mike here is the concept of guiding. The concept of guiding the customer to insights and outcomes.</p><p>And even if you're wrong and your guidance, you're stimulating that scientist to think because of that, that scientists may not have thought about that hypothesis or that answer. And so by proposing the next step by proposing how that hypothesis could be tweaked, you're stimulating thought that may not have previously existed.</p><p>And I find this to be a very, very powerful tool. And this is where, you know, tools like artificial intelligence and machine learning are critically important because you need those non-biased systems to come in and start looking at the data and making calls. And then you use your bias system, the gray matter to judge those calls and challenge your thoughts. </p><p><strong>Harry Glorikian: </strong>Well , yeah, but that's not the way that we're taught. Right. We're supposed to go in with the answer, go in with the miraculous hypothesis of this is absolutely going to change. And I just find, you know, predicting the weather. I mean, there's just too many factors for any one human being to go like, you know, that's the trigger.</p><p><strong>Jason Gammack: </strong>Absolutely. </p><p><strong>Harry Glorikian: </strong>So let's get back to the, to the technology, like your technology. Like I think I remember reading, it's like a 0.27 micron resolution, which I think is if I read correctly 10 times higher than some of the competitors. How do you, how do you you can't tell me the secret sauce, but how do you get to that sort of resolution? It's gotta be a combination of hardware and software to a certain point. </p><p><strong>Jason Gammack: </strong>I mean, our, our resolution limit is the diffraction limit of light and the diffraction limit of light being again, we image individual RNA transfers. You know, these are very, very small, couple of hundred base pair, a couple hundred nucleotide pieces of genetic material.</p><p>And so our resolution allows us to discriminate two dots, two different transcripts that are sitting close to each other at that 0.27 micron range, which again is the, the limit of light to be able to separate those two photons from themselves. And so we are pushing the absolute edge of optics, the ability to detect these events.</p><p>There are other techniques that we're exploring that would allow us to even go beyond that like super resolution microscopy. But with that there's trade offs, of course, as you zoom in, you lose larger fields of view and you got to kind of manage that. And the analogy I use is squishy squishy on the one that pops up on the other and vice versa.</p><p><strong>Harry Glorikian: </strong>Yeah. You almost wish you could layer them on top of each other and create the zoom we were talking about with the Google map. </p><p><strong>Jason Gammack: </strong>Yeah, I mean, so, in essence,, that's what we do. So we, we take a slice or cells that are on a slide you know, and we image through that individual cell later. And we stopped at a very, very fine fence license.</p><p>So, you know, when you fix the tissues of the slide, you're looking at micron thick tissue stacks on top of that. So yeah, you can, then you can actually see when we image the top of the face explore and kind of like, as you think about a basketball, right, as you slice through the basketball and we see the dock, when it's really small, we see the doc, if it gets larger than it meets its maximum, that goes back down to it's intimidating.</p><p><strong>Harry Glorikian: </strong>I always have a vision. When I, when I talk to people about these technologies that sort of create the maps is you know, wearing a VR lens and being able to like, look at it spatially, which would be I've. I've tried to encourage a couple of other people and some of the companies, you need to have some of your cause you might see something through that then you might not see through a normal methodology </p><p><strong>Jason Gammack: </strong>There's no question about it. And the other thing that we need to keep in mind and, you know, as a 50 year old scientist, it's difficult to always think about who my customers are, which are non 50 year old scientist or the postdocs and grad students that are going to become the next leaders in science.</p><p>You know, everybody talks about digitization, you know, that's kind of granted that things are moving to digital. But we can't ignore macro trends such as augmented reality and virtual. Right. That's even, even me being a dinosaur, I've got an Oculus, of course I have a nine year old and 11 year old as well.</p><p>I, at one point in my career, I worked for a company called Sigma Ulrich. Cigna is now owned by Merck. But Sigma Ulrich was a leading company in fine organics for industry, you know, high throughput, you know, synthesis of, of pharmaceutical compounds. And 20 years ago, you would walk into the chem informatics suite and you'd see people with these huge honk and goggles on, as they're looking at structure function, relationships, they've got molecules.</p><p>How do you dock molecules on the proteins. Biology surprisingly hasn't kept up, you know, how many biological tools are using augmented reality, virtual reality, right? </p><p><strong>Harry Glorikian: </strong>No, I know. I mean, I've been, I've been attending and going to different talks from the tech world, right? The entertainment world. Right. And looking at the boundaries they're pushing, and then imagining that in our world, the opportunities are mindblowing.</p><p><strong>Jason Gammack: </strong>They are. </p><p><strong>Harry Glorikian: </strong>It's just our world doesn't think about it that way. </p><p><strong>Jason Gammack: </strong>But when we think about again, the molecular cartography platform, so, you know, why did we call them molecular cartographer? Right? The cartographers were the explorers of the new world. Yeah, they were the folks that went out and map the world so everybody could follow behind and find the riches, the land, the bounty, and so on.</p><p>So when we think about how we want to build a map, if we really think about building a map for a single person, we're losing that race and tools like augmented reality and virtual reality have future in our technology. And Harry, and I see a day and not far away where not only will we be able to look at these beautiful images that we create in this three dimensional space where you can sit, put your goggles on and look around at your Sunstone, your restructuring yourselves, and see the transcripts.</p><p>But more importantly, my collaborator in Zurich can join me on that journey. And we can collaborate, you know, virtually, but yet looking at a actual scientific experiment underway, you then take that to the next level and get into therapeutic approaches or clinical approaches where a pathologist and a general practitioner can explore the tumor biology of the patient.</p><p>It is a complete paradigm destroying proposition.</p><p><strong>Harry Glorikian: </strong>Well, I'm also, I'm just thinking about man, if you put that into the education system in a different way to have people look at this, right. As well as super-imposed tools from, you know, the artificial intelligence world to sort of highlight different things that the machine might be able to, that that now you're talking about really seeing where you could drive diagnosis treatment, therapy, you know making new drugs or for that matter. I mean, you know, we have these big projects. I talk about thetranscriptome and the genome, but we should have one around this cartography area, although I I'm sort of struggling to figure out whether how consistent the map would be. </p><p><strong>Jason Gammack: </strong>Well, I mean, so the point is we build maps of every tissue type and every disease state.</p><p>And this is where, again, the ability to harm it's software to help us interpret those maps is going to be critically important. So one element where we use software in our, in our workflow and machine learning is in identifying cell types. And so, you know, most neurons look the same or have a similar phenotype to those neurons.</p><p>Yeah, right now there's inefficiency in a lot of biology because in essence, we use channels to identify a cell type and that channel was then occupied, identifying the cell type. What if we could free that channel out to identify more, say disease, specific genes. And so to do that, we need to still be alive, identify the cell type.</p><p>So we need to train algorithms to be able to look at tens of thousands, millions of slices of brain. To be able to identify the neurons, the different cells within the brain, so that when we put it into a wind storm, we don't have to use a channel to identify a neuron. We use all of our channels to identify disease, state genes, and then we use machine learning and envision learning to be able to overlay, okay, that's a neuron because it looks like this and we've got 57,000 data sets that support.</p><p><strong>Harry Glorikian: </strong>It feels like facial recognition in a crowd. </p><p><strong>Jason Gammack: </strong>Yeah. You know, it's it, it is. And then we take it to another level when we now start phenotyping disease States. So, you know, we've just finished an early access program with the molecular cartography platform. And we looked at, you know, a number of different disease States.</p><p>One of them being Alzheimer's disease, that's a disease my grandmother passed away from. And I'll tell you, I think most people listening to the podcast. I've had someone in their life who impacted by Alzheimer's disease devastating disease that steals the person in front of you. And, you know, we have been able to make mouse models that have, you know, 10 cow tangles and amyloid plaques, and we can demonstrate Alzheimer's disease, but yet, you know, as well as I nearly every company that's been in the phase three clinical trial for Alzheimer's drug has failed. </p><p><strong>Harry Glorikian: </strong>Yes. </p><p><strong>Jason Gammack: </strong>You have to ask why is that happen? Right? What are we missing? Even within those trials, people are looking at different approaches to address that. And so we partnered with a major pharma company to use our technology, to look at amyloid plaques in a way they haven't been able to do before to look at an amyloid plaque. And then as a, as a temporal spatial approach, being able to identify a plaque and look at the cascading impacts of different genes that are expressed in proximity to the plaque itself.</p><p>To say, you know, right now we have been focused on the plaque. Well, let's take that spirit further and let's focus on the micro environment around the plant and understand what is causing the plaque to grow. What are elements, what are genes that are in play that we could potentially target from the therapeutic area that we see high levels of expression.</p><p>What happens if we turn that expression down? Can we get that plaque to stop growing. More importantly, it couldn't get that plaque to actually shrink in size. And so a lot of these really interesting questions that previously were difficult to ask and answer our cartography platform is now allowing some unique insights.</p><p>And so it's a great study. We're writing a manuscript right now, and I look forward to being back on the podcast talking about, so.</p><p><strong>Harry Glorikian: </strong>That'll be great. I mean, I, you know, I, I have talked to some of those companies and I think one of the biggest problems is. You know, the guy that looks at images is used to looking at images, the person that works in the assets, it's hard to get them to come into a room. And I, and I've seen them in a room. They still don't do the interactive discussion. Right. They don't, they're not using the machine learning platforms that I've seen to really bring together the understanding, which would then go to being able to segment the population. Because I think half the failures are we might not be subsegment thinking the population in the right ways. </p><p><strong>Jason Gammack: </strong>I think that's spot on. I mean, the ability to phenotype the population appropriately because of phenotype is still usually determined by a person, you know, and that's a physician well-trained, but yet there's nuance and especially in diseases.</p><p>Like Alzheimer's that are highly nuanced diseases in different States. And so I agree, and I made the comment earlier about, you still have to get the patient population to study and you have to make sure you can properly identify that population. </p><p><strong>Harry Glorikian: </strong>So let let's jump back here and switch to a different gear that the story of resolve the story of Qiagen, your personal story They're somehow all. Intertwined. I feel like we know a lot of the same people that caused this intertwining to happen, but, but you know, how, how did you between the startup and you becoming CEO because you were an instructor and I think that was a pretty good gig. So how did this, how did this come come about? </p><p><strong>Jason Gammack: </strong>Yeah, no. So it's a great question. So, you know, again, I was at Inscripta, it's a fantastic company and just amazingly talented people working on some really cool technology that is going to drive sustainability in a way. And so for me to leave that, obviously we have a pretty compelling opportunity here. And this story started back in 2016 at Qiagen, when we were looking at trying to come up with some really unique science to solve this spatial challenge. We brought together a team of brilliant scientists to in essence, their only job was to figure out how do we create tools that really at this phase spatial context that started in 2016, we worked together as a team to develop that technology.</p><p>I stepped away for two years to go to Boulder, Colorado, and stand up and sprint. Back in 2020, a pair of shots, the former CEO of Cajun and Michael, the founder said we got a union, got opportunity to Jason to build something really special. And, you know, it was one of those things area where I remember, well, of course we were all locked in our basements during the 2020 time.</p><p>And I remember having a conversation with parents walking upstairs to to talk to my wife, Adeline. I said, I think we're moving back to Germany, I think.</p><p><strong>Harry Glorikian: </strong>And she said?</p><p><strong>Jason Gammack: </strong>And she said, hell yeah, let's make that happen. And so it's you know, Germany is a very special place for, for my family. You know, we lived here for five years. The first time my children moved to Germany. We made the choice to live in Germany, like a German. We have amazing friends here and our children went to school, a great school here, public schools, and speak German like native Germans. Yeah, we really discovered the heart of a, an amazing country and just gracious people and great scientists. You know, we're starting something unique here. There aren't, there's a lot of startups in Germany. The German startup culture is a very different culture than in the United States.</p><p>And as I say about a lot of things, If we could meet halfway and be the perfect world, you know, to give you an example of when we're raising money for Resolve, we'd speak to American investors and it would be don't. You need more money. And we'd speak to European investors and they'd say, why do you need so much?</p><p>So if you could meet halfway, sometimes the overexuberance of just throwing money at problems versus the conservative. Well, you know, let's do this incrementally and so on. You know, when we started Resolve, we had a choice to make doing, bring the business to the United States or do we grow the business in Germany.</p><p>And we had a lot of discussion around that. And you know, for me, it was a very obvious answer. The answer is we take advantage of both worlds. So in resolved bio-sciences our corporate headquarters is in Germany and our product development center of excellence is in Germany because it's thinking about what our core technology is.</p><p>It's molecular biology cooked to automation and engineering with optics and software. So I think we can all agree that the best physicists and optical engineers in the world reside within 500 kilometers of where we are right now, here in Dusseldorf, Germany, just amazing talent and companies that have created huge industries, such as CISE and Leica and so on are all based in Germany. Right? And that goes to, you know, the German engineering, German physics optics itself. Great molecular biologists. We've got amazing academic centers across Europe and bull, so on and so forth that develop amazing molecular biologists. And when it comes to our computational abilities, that's a global skillset.</p><p>I've got a great development in Eastern Europe. I've got great developers in Western Europe and great developers in the United States. We're opening our office in the United States and San Jose, California, and the Bay area. And one area where the us has excelled past Europe is the softer side of science.</p><p>So the marketing, the commercialization, the brand development. So we're going to put our feet on both continents and really use those pillars of excellence. North America will be our commercial headquarters of our business, where our marketing and brand creation, outbound marketing content creation efforts are going to reside.</p><p>And Europe will be our center of excellence for product innovation and product development. And so we're going to really be able to harness both, you know, amazing capabilities that each region brings to us. </p><p><strong>Harry Glorikian: </strong>Yeah. I, you know, whenever I'm talking to different companies and they're talking about where they're going to be geographically, I mean that, that people, people don't give that enough thought as much as they, I think they should, because there are cultural differences and that. Can really hurt you if you don't understand these little nuances. I mean, I can tell you the difference between being in Canada and being here big difference. Right. And people say, well, no, but it's right there. No, it's actually not right there. It might as well be in a different place. </p><p><strong>Jason Gammack: </strong>Yeah. You can work straight. Also the difference between being in Southern California in Northern Colorado. But it's very, very different. I've lived in San Diego and in the Bay area multiple times. And the difference between the regions are, this is significant. Yeah, no, I grew up, grew up in Northern California. And when I would say to someone, I was from California and they'd be like, Oh, you're from Southern California.</p><p>I remember being like, no, absolutely not. Don't don't tell me that. Cause you know, you didn't Northern California had more of a. Well, when I was growing up a relaxed, you know, yet, you know, we want it to be ahead at least from an intellectual perspective, but. And now the Northern California has gotten a little arrogant thanks to tech, but you know, it is what it is.</p><p>It's driven a just unbelievable amount of growth that tech has and unbelievable amounts of innovation has come from that region, which is why, you know, when we looked at. Where we wanted to open our us office. We were eventually the two narratives. We looked at Boston, Cambridge, and we looked at the mayor.</p><p>I mean, those were the two areas that we honed in on and we made the decision to be in the San Jose, San Francisco area. You know, we know the market well, talent is amazing there. You know, Stanford, Berkeley, the universities there just contributed just an amazing amount of, of gifted computer scientists and developers and so on.</p><p>You know, both cities would have been great. But California is where we will have our us operations. Well, when do you expect that to open? We hope to have that opening in April. That's our, that's our plan. </p><p><strong>Harry Glorikian: </strong>When do you guys launch, when is this gonna…</p><p><strong>Jason Gammack: </strong>Yeah. So, so, you know, within the life science tool space, there's a very say kind of common dissemination path for, for technology.</p><p>So technology like ours, which is very complex and capital intensive. It starts with the company, refining that technology and then gain granted access to that technology too early access customers, usually key opinion leaders or thought leaders in particular fields. So we have just completed our early access program, or we had 15 institutions involved in that program.</p><p>The focus of that program is really to understand the. Application space and how our customers are thinking about using the technology. The technology that point has exited product development. So we're not really still developing the product, finding and nudging and guiding the product in areas like software, or you never stopped developing software software where it's just a constant development.</p><p>You know, we put a flag in the sand and say, this is where, what the software is going to start. And we do a lot of user acceptance testing and understand how the customers are going to use the software and then start dropping those features that we want to incorporate. Once you finished early access, usually what you then move to a dissemination approach, which is what we're in right now.</p><p>And so for us, dissemination is twofold. Our product is largely data. I mean, that is our product. You know, a random molecular cartography generates four terabytes of data, which is a significant amount of data. And so we are launching a data as a service approach where we will run molecular cartography and our service lab had spoken in our North American facility expanding our European facility.</p><p>And at the end of this year, our plan was to open a facility in Asia. So we can begin pushing our data to market because especially when it comes to things like software, we will never develop faster than the community will develop. And quite honestly, the community is going to bring ideas to us that we've never even thought of before, how to look at the data.</p><p>So we are going to scale our services to provide more access to the technology. Early access is tough because you have to say no to customers. You have to say, yeah, we're oversubscribed. We can't take you in. We're not going to open up the phone with the brain. The second phone number dissemination strategy is we have a number of large advanced institutions that want the workflow deployed at their facilities.</p><p>So major pharma that sees this as an amazing insight and a biomarker discovery and understanding, you know, how do they move the ball forward, even faster? Talk about collapsing those cycles. So we will be in the latter half of this year, deploying the technology at very advanced, very qualified customer sites.</p><p>And then the last phase of dissemination is what I call the democratization phase, which is when we then kind of push the button and start pushing the platform onto benchtops. So it scientists at university scientists and non-profit research institutions and so on. And that will happen in, in the later months.</p><p><strong>Harry Glorikian: </strong>But you almost wished like… I've become a believer. And I know that this is, you know, sometimes it's a pipe dream, but you'd want this, all these images, like Google maps to at some point coalesce into one repository. Like I understand that everybody wants their own confidential information, but. We didn't build the human genome on confidential information. We, we sort of put it together and said, here's the genome, right? Otherwise, nothing we have right now would have, you know, been realized and everything is built on that, on what was done in those early years. I feel like what you're doing almost. If you're going to build a map, you need everybody mapping. And adding to the map so that everybody can then benefit from it in their own unique way. </p><p><strong>Jason Gammack: </strong>No question about it, you know, you and I are in violent agreement on that point. And so hence our urgency to get our data into the scientist's hands so that they can understand the value and the number of insights that come from the data.</p><p>So there are a number of international consortium efforts on your way right now that are commonly referred to as cell Atlas efforts where they're is different cells. And so on. We want to put the cell Atlas three-dimensional context and you know, those are a couple of stories. And so, so we have a strategy to engage those organizations to be able to kind of say, okay, you're now not in the single cell sequencing.</p><p>You're done single cell RNA seq now we need to take it to the next level, take that RNA seek data, which is the counting of the transcripts in a tune D kind of planar effect. Let's now blow that into a 3d effect. Let's correlate our visualization of the transcripts with the digital readouts of RNAC and this collaboration that I spoke of with this major pharma company in Alzheimer's.</p><p>We did it in their Alzheimer's mouse mall. Where we correlated all of the single cell on a sick day that they'd been accumulated over the last five years and map that to three-dimensional spatial, single molecule fish data. And it was a beautiful study because we showed a correlation and R squared of 0.9, nine, seven to the RNA seek data to our visualization of the transcripts.</p><p>And then we added the three-dimensional context, very importantly, at some cellular resolution where you can actually see structures within the cells. And so it was just this. Yeah, it was one of those kinds of moments where you get goosebumps and you're like, Holy smokes. This is real. I mean, we knew it was good, but this really showed how good it was.</p><p><strong>Harry Glorikian: </strong>Well, I'll look forward to that to that paper when you said it's, it's on its way for publication?</p><p><strong>Jason Gammack: </strong>We're reviewing the manuscript now. So it's an iterative process and it's a major pharma. So, you know, they're embargo mania.</p><p><strong>Harry Glorikian: </strong>Well, when it's out, you can, you can send me a copy, but Jason, it's been great to talk to you. I feel like we could talk. Knowing the last time we talked, we could probably talk for hours about these things. But I I'm sure that you'll, we'll have you back on the show when we get to the next iteration. You know, what we should do is we should, we should get Per to come on the show with us and, and, and do a three-way conversation because his perspectives are always insightful and unique.</p><p><strong>Jason Gammack: </strong>Indeed. He is a I've known Per for 20 years and the opportunity to join with pair and start this company. It was an amazing opportunity. Truly a thought leader and a visionary in the field. And we just had so much runway in front of us. We've got such an amazing team and the team is growing amazingly fast and it is truly an honor and a privilege to be working with them and bring this technology to market because we believe that this technology will absolutely have a positive impact on the human condition. There's no question about that. </p><p><strong>Harry Glorikian: </strong>Well, you know, I just, like I said, I'm reflecting on, you know, the, what immunohistochemistry opened up to us. And I still don't think it gets the credit that it deserves. Right. But I think now with the computational capabilities and the insights that that could provide, and then you can overlay other information onto that it's changing the con the context where the persistent identifier is the location, but then everything that's happening around it is what really puts it into context of what's happening in that cellular dynamic. So great talking to you and I look forward to keeping in touch. </p><p><strong>Jason Gammack: </strong>Absolutely. Thank you, Harry. Really appreciate it.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Mon, 29 Mar 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Jason Gammack, harry glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Rapid and cheap DNA sequencing technology can tell us a lot about which genes a patient is carrying around, but it can't tell us when and where the instructions in those genes get carried out inside cells. Resolve Biosciences—headed by this week's guest, Jason Gammack—aims to solve that problem by scaling up a form of intracellular imaging it calls molecular cartography.</p><p>Gammack says the technology offers a high-resolution way to see the geography of gene transcription in single cells, that is, where specific messenger RNA molecules congregate once they’ve left the nucleus. The technology can trace up to 100 gene transcripts simultaneously. Right now it only works for mRNA, but the company says it plans to add the ability to track DNA, proteins, and “metabolic data layers.” The big idea is to make it easier to see how gene expression translates into normal tissue development and, by extension, the pathology of genetic or infectious diseases.</p><p>"We can go in and identify specific RNA molecules that code for a known protein," Gammack tells Harry. "We can label those molecules and with high power microscopy and molecular biology and very important software, we can then identify and literally visualize individual RNA transcripts in the context of the cell and tissue."</p><p>Resolve was in stealth mode from 2016 to December 2020, when it announced a Series A financing round of $25 million. Its technology is being tested by six teams of scientist-collaborators as part of an early access program launched in 2019. Resolve reportedly plans to launch its service commercially in the first half of 2021.</p><p>Gammack joined the company from Inscripta, where he was chief commercial officer helping to sell the CRISPR-based Onyx gene-editing platform. Before that, he was at Qiagen, a German provider of assays for molecular diagnostics such as a Covid-19 antigen test, where he was vice president of life sciences. </p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p><strong>Harry Glorikian: </strong>We’ve come a long way in the last 25 years in our ability to sequence the DNA of individual patients. We can even see which genes are being expressed as RNA, the instructions for making proteins. But after that there’s a big blind spot in our understanding, because it’s still hard to see exactly which RNA molecules inside our cells actually get translated into proteins, and just as important, <i>when </i>and <i>where</i> they get translated. The problem is that almost everything that’s interesting about human biology and human disease happens inside that blind spot.</p><p>Resolve Biosciences in Germany is one of the new biopharmaceutical startups tackling that challenge. My guest this week is Jason Gammack, the CEO of Resolve, and he says the company has come up with a way to label multiple RNA molecules with probes that glow in different fluorescent colors. </p><p>Resolve built software that can decode the color patterns to see where RNA transcripts gather in the cell and how they’re involved in cell development. That kind of location information that could eventually produce a better picture of how normal cells grow, and also how that growth becomes cancerous and maybe even what kinds of drugs could stop tumors before they kill their hosts. </p><p>Gammack joined the company last year, around the same time the company announced a 25 million dollar funding round to help bring its so called “Molecular Cartography” technology to market.</p><p>Here’s our conversation.</p><p><strong>Harry Glorikian: </strong>Jason, welcome to the show </p><p><strong>Jason Gammack: </strong>Harry, it's great to be here. Thank you. </p><p><strong>Harry Glorikian: </strong>It's been great talking to you and getting to know you. I feel like we should be doing this over a beer and we should be talking for hours. And my I'm sure, my 19 year old would be like, do you want to go to Germany? Let's go to Germany.</p><p>Cause he loves coming there and having beers when, when when we've done it in the past Molecular cartography. I feel like, you know, Galileo is about to like, you know, step into this conversation with us, but for those people who don't, who aren't molecular biologists, it it'd be great. If you could sort of paint the bigger picture for us and, and help us understand what is, what is this concept of, I think spatial transcriptomics. I almost like stuttered on my words. And why is it important?</p><p><strong>Jason Gammack: </strong>Yeah. And so it's a great question Harry. And so again, thanks for the invite to join the the podcast. So context matters. Let's start with that statement, reading a book without understanding the context makes it difficult book to read.</p><p>And if you think about our genome, the DNA that makes us similar and unique, it's a book. And right now we don't have full context of what that book is and Resolve Biosciences is a company, that's focused on creating tools to help give context to the genome. And so let me explain that a bit. So the central dogma of biology is DNA.</p><p>Which is in your cells is made into RNA and that RNA is then translated into proteins and those proteins are in essence. What makes you, you, it's your muscle? It's your hair? It's your skin. It's your organ systems. It's a lot. And we understand the book pretty well from the letters, a C, G and T. And we've been in an exponential phase of learning as it pertains to the genome and companies such as aluminum.</p><p>It's a San Diego based biotech company has created a technology that allows us to sequence the entire human genome. So every letter in your genome, We can do that now in a couple of days and for a couple of hundred dollars and we need to keep that in context, you know, the first genome took…</p><p><strong>Harry Glorikian: </strong>I remember yeah. </p><p><strong>Jason Gammack: </strong>15 years and $7 billion to do it. As a matter of fact, you know, this is the anniversary of that event happening, right? </p><p><strong>Harry Glorikian: </strong>Yep. </p><p><strong>Jason Gammack: </strong>So we've really learned a lot about the core code of the genome. But the disease, chronic disease still exists in our population. And so we have to ask the question, what else do we need to understand? And we at Resolve believe that the next question is really to understand where different genetic events are occurring within a cell.</p><p>The interesting thing. And the big question in biology is largely we all have the same DNA in our bodies. You know, humans are remarkably, remarkably homologous and the variation in humans is very, very low, but yet we have individuals who are six and a half feet tall. We have individuals that are four feet tall.</p><p>We have individuals that way, you know, 250 pounds and we have individuals that weigh 90 pounds. And so why. And even more perplexing is we have diseases such as cancer, where two women, can you present with a very similar breast tumor one, or they both can be treated with a very similar treatment, identical drops, and one can go into complete remission and eventually be here and the other cannot and potentially die. </p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Jason Gammack: </strong>And so the question is why does that happen? And that has to come down to a number of different variables that we can't yet measure. And so our belief at Resolve Biosciences is we are going to develop tools to help understand those differences. And that's really urgent.</p><p><strong>Harry Glorikian: </strong>So let's, I mean, I'm trying to paint a picture for people that are listening to this. Right? So I think of this as, cause I feel like I've been to at least part of this movie before, when I started in immunohistochemistry, where we could actually visualize, you know, rather than grinding up a bunch of cells and looking at the moles and, you know, in breast cancer, we were able to actually stain the cells with antibodies that would specifically show us, you know, different parts of a cell that were lighting up. And that was, you know, sort of a flat file way to look at it with a certain level of resolution. And you're, I think, zooming in to the molecular level now and taking it to a different resolution. </p><p><strong>Jason Gammack: </strong>Absolutely. So that's a, that's a great point. And let me build on that one just a bit. So immune histochemistry opened the books to understand different types of disease status, where you can start profiling cell types and understand where they are in the cell cycle, which can be indicators for physicians or the biologists to prescribe a particular therapeutic. Right. We take that even to another degree.</p><p>I'll use an analogy. It's perhaps overused, but think about Google Maps. So Maps allows you to start at the continent or global level, and then focus in to this country. You focus it into a state, focus into a city, focus into a stream and even focusing. So our technology and the molecular cartography platform is similar in that we can take single cells or we can take tissues license and through our molecular biology approach, we can label individual RNA transference. So going back to that: DNA makes RNA makes protein. We can go in and identify specific RNA molecules, that code for a known protein. We can label those molecules and with high power microscopy and molecular biology and very importantly software, we can then identify and literally visualize individual RNA transcripts in the context of the cell and tissue.</p><p>So now going back to that Google Maps analogy, we now have that woman who has the unfortunate breast tumor. We can put sections of that breast tumor on the slide. We can use our molecular cartography technology to be able to look at the gene expression patterns within that tumor. And those patterns can give insights to researchers and eventually to clinicians in how to affect and treat that disease state very, very possible.</p><p><strong>Harry Glorikian: </strong>So I, I, we're talking about essentially creating a three-dimensional map of the cells and which ones are lighting up, which ones are not lighting up, how they affect each other, basically intercommunication between these cells, </p><p><strong>Jason Gammack: </strong>And intra-communication inside the cell as well. </p><p><strong>Harry Glorikian: </strong>So, so. Where, where are you? How far are you in this? I guess is the first question. </p><p><strong>Jason Gammack: </strong>Yeah. Good question. So this journey didn't just start. And so this journey started in 2016. When we at a previous company thought about this challenge of spatial loud. Again, you know, we have sequence genomes, but yet cancer persists in the population. And we were asking questions.</p><p>What's the next answer that needs to be brought to science. And so in 2016, we brought together a truly gifted group of scientists to come up with solutions, to be able to look at the spatial relationship of gene expression within cells and tissue. And since the 2016 inception of the project, we've now been able to take bench science and automate bench science to the point where we can now run hundreds of samples, looking at thousands of genes in a fully automated process. So you're building on this existing technique of single Mol, single molecule RNA for essence. Right. And so, and this is, I don't. No, it's nothing new, right?</p><p>This is a technique that's been out there. I guess the question is, is what are the fundamental advances that resolve is bringing to the table or your version of. This, that that is uniquely powerful. Yeah. So so as you said, our technology is what's generally referred to as a single molecule FISH technology, fluorescent insight to hybridization, which means we label RNA with a four or four, and then we can image that RNA using high power optics.</p><p>And so there are numerous approaches to look at labeling RNA and there are numerous challenges in doing that. We have come up with a novel. And of course, because we're a biotech company, a patented process,</p><p><strong>Harry Glorikian: </strong>Ha ha. </p><p><strong>Jason Gammack: </strong>We have a process that allows us to through combinatorial. Labeling of the RNA allows us to identify very diverse RNA. Because the challenge is, is that when you want to label something, you have to attach a protein to, and then the genome or the transcriptome, there's a lot of repetitive sequences that are similar and you need to be able to discern the difference between GNA and GB.</p><p>And they could be very, very homologous or very, very similar. Our technology allows us to use small, but very different probes to tile across that, that target, that RNA of interest. And then by selectively colorizing and D colorizing, those proteins, we create an essence, a color pattern. And that color modernize image, and then we'll use software to deconvolute or decode those images.</p><p>So we can then see individual transcripts within the cell. </p><p><strong>Harry Glorikian: </strong>It's funny. I feel like my, you know, history has a way of building on itself. I mean, I remember when we were doing DNA in situ hybridization and trying to convince people that this was going to be something and then. You know, molecular barcodes when I was at Applied Biosystems. So this is the culmination in a, in a sense, an advancement, obviously because of software and imaging and those sorts of things of this next stage of where this technology is taking us. </p><p><strong>Jason Gammack: </strong>Indeed, indeed. I think that's a great analogy. Right? Great example. And you see this kind of. You know, you see this, this trajectory of single cell biology and, you know, transcript elements is a great example of that.</p><p>You know, we started with RNA, RNA, blondes doing what's called a Northern Burlington, you know, in grad school, we're doing Northern blots where we need to use it. The RNA within the Northern block, I still have all my fingers, even with all the isotope I used in grad school. And so you've gone from very crude techniques to a much more refined technique and Illumina through their next generation sequencing brought on an amazing technology called RNAseq or RNAC.</p><p>Of course RNAC, kind of back to your earlier analogy is you grind everything up and then you read all of the transcripts. The problem is, is you don't know what transcript came from. Like you know, you just got this huge mess of transcripts and you've got to kind of say, well, this is a transcript that's associated with this gene and that genes associated with this kind of cell type.</p><p>And then a couple of years ago, a company called 10X genomics came up to take single cells. So instead of had that, say that fruit smoothie with everything ground up, they took the piece of the fruit and just kind of laid them out of the line and what they oxalated the cells into a droplet. And then did the sequencing reaction in that droplet.</p><p>You still have a kind of a mixed population there. And then through software, they would separate out the different stuff. We now take that to the next, next level where we just look at the fruit salad instead of that food smoothie or the windup fruits. We can now look at the fruit salad and we can say, Oh yeah, cantaloupe was touching an Apple, which is touching, you know, orange and orange are next to each other.</p><p>The fruit salad falls apart really quickly. Going back to the analogy of breast cancer. When we have these interactions, these patients don't survive. So maybe we need to look differently at the drug that's targeting that interaction. So that's how we want to think about these problems. Now we can move them forward.</p><p><strong>Harry Glorikian: </strong>Well, like you said, I mean, context matters. Location matters, right? As, as a guy who's got IP and location-based services, location is a big deal, right? People don't realize everything revolves around location. At some point. And having context to, it really adds another dimensionality of information that all of a sudden your eyes open up to what could be going on or why something matters for sure.</p><p><strong>Jason Gammack: </strong>And this is, I mean, and again, I keep going back to the oncology use case, but you know, oncology is a blight that is all over the world and affects all human beings at some point. And the concept, you know, a tumor is not a homogeneous massive cells. You know, tumors are heterogeneous. The cells that are in the interior of the tumor are different than the cells on the exterior of the tumor, the blood vessels that innovate the tumor look different than blood vessels that are adjacent to the tumor.</p><p>And we call this the tumor microenvironment. What is going on inside that too? And, you know, coming up with a drug that can just permeate the tumor and kill it from the inside outage, whether it's hypoxia and you started of, of oxygen. So it can no longer grow or maybe encapsulating the tumor. So they can't grow and dies outside in.</p><p>We just don't have a lot of visibility right now to the genetics that's happening within that micro environment. And this is an area where molecular cartography just shines a spotlight onto that tumor microenvironment. </p><p><strong>Harry Glorikian: </strong>Well, I'm also thinking, as you get to know these different cell types in the call, it the color pattern that they're giving, you can almost create a fingerprint.</p><p><strong>Jason Gammack: </strong>Absolutely. Yep. And this is the thing about the molecular cartography platform. I mean when you think about kind of science and you look at the different areas of science on one side of the spectrum, you have the basic science research. This is the hypothesis formation. You just don't know what's going on and you have to do experiments and you're continuing to refine and develop a hypothesis on the opposite side of that.</p><p>Spectrum is clinical testing. When you're looking for a yes, no, almost a binary type of answer. Right? And the stops between, there are areas such as translational research where you take your hypothesis and you refine it to a use case that's specific to a disease. Right. And then from your translational research, you move to clinical research where you're really applying the hypothesis of large populations.</p><p><strong>Harry Glorikian: </strong>Yeah. But, but let's, let's let's and maybe agree to disagree or just agree. But I remember that taking. Dog years, like in, in the old days. Right. And I feel like because of innovation, because of being able to do the analytics on technology, you know, on the, on the data that time is almost collapsing in on itself.</p><p><strong>Jason Gammack: </strong>It is. </p><p><strong>Harry Glorikian: </strong>You know there are advancements that seem to be, I'm having trouble keeping up with the literature. </p><p><strong>Jason Gammack: </strong>For sure. There's no question about it. There's no question about it. The rate of sensitivity innovation, you know, it's like Moore's law backwards, right? And mean just kind of continue to, just to, you know, keep, keep accelerating, accelerating, accelerating, and you know, tools.</p><p>Again, going back to the next generation sequencing has provided so much data that we're still behind when the data backlog and understanding what exactly these data are going to say, but, you know, the iterative cycles are becoming faster cycles. As new tools come online. You can really test them and tweak and adjust your hypothesis at a scale that you haven't been able to do before.</p><p>But at the end of the day, you still have to get a patient population and you have to get a patient population that all exhibits the same thing the time. Right. So there still is massive inefficiency within, within the discovery special drug discovery process. Technologies like molecular cartography can help again, collapse some of those inefficiencies as well.</p><p><strong>Harry Glorikian: </strong>Yeah. I mean, but if you think about like you know, at JP Morgan, they announced a Illumina announced, like we're going to take sequencing down to $60 is our goal, like at 60 bucks, it's a rounding her, like, why wouldn't you. Why wouldn't everybody like if you had, yeah. </p><p><strong>Jason Gammack: </strong>So Elaine Mardis, who is a true thought leader in the world of genomics, she previously was at Wash U. Really at the tip of the spear in cancer genetics. She said a statement once like, I still remember it, it makes me smile, you know, it might be the thousand dollar genome, but it's the a hundred thousand dollar analysis of that genome. Right. And so, so like we can… </p><p><strong>Harry Glorikian: </strong>I'm just looking at so many things right now from an analytics perspective that are even making that easier.</p><p><strong>Jason Gammack: </strong>Sure, no question. I mean, again, the machine learning is helping us sift through reams of data, understand what's not important and what is important. And with all of the data that's being generated, you have huge training sets, right? Massive training sets algorithms. And you've seen success in a lot of, a lot of areas. You know, look at companies like Flatiron and look at companies like Foundation Medicine, right. You know, I think that, that, you know, Foundation Medicine is a brilliant example of a big data analytics company, masquerading as an asset company, right? </p><p><strong>Harry Glorikian: </strong>Yeah. I mean, and it's the same thing I was talking to Joel Dudley over at Tempus and, you know, they're planning on being, not just having the most information across different methodologies, right. Transcriptome, methylation, et cetera, from every single sample. But yeah. They're also creating the piping to be the AWS so that why would you go any place else, but their platform. So they're not just giving you an answer. They're giving you a whole infrastructure, which is that doesn't sound like a typical biological company. It sounds like a tech company to a certain degree. </p><p><strong>Jason Gammack: </strong>Well, I mean, you know, the lines blur very, very quickly. You know, I look at, at what we are doing at Resolve Bio-sciences and I have as many computational scientists, informaticians bioinformaticians as I do wet lab biologists, because you use the overused analogy, you know, data's the new goal, right? Maybe they’re able to dig in and understand what's going on, but we need to also help our customers understand these complex data sets that we generate. </p><p><strong>Harry Glorikian: </strong>Yeah, go and try and explain that to all of our brethren. Jason, come on. I mean I mean, I was, I was on a call, you know, last night where, you know, everybody's deep into the biology. I'm like, I think you guys are missing this other thing. That's moving like a freight train, right. That that's changing. And the interesting part is, is when I'm interviewing people, is the data is highlighting some things where even the world expert goes, yeah, I would have never thought about that. I would've never looked at it that way had it not been highlighted to me by this system.</p><p><strong>Jason Gammack: </strong>Indeed. Indeed, indeed. You know, you're, you're describing you know, I love. When my customers see the data for the first time that comes off the molecular cartography platform. I really like to be with them. Unfortunately, coronavirus today, being with teams by prefer to be at home.</p><p>Because most, everybody has a very, very similar response where you watch them and they have a hypothesis in their head and they're looking for the data that will be the hypothesis, right. Go to the image. You can see them scan the image, looking for something, and then almost uniformly. I hear this "huh." Just that little breath as they breathe in.</p><p>And they're just like, Oh my gosh, there's an answer. And then we showed them some bioinformatic tools to start looking at the day, then in a different way. And then you see that kind of sit back and go, I get it. I get it. </p><p><strong>Harry Glorikian: </strong>Well, that's what I mean. It's funny because I was trying to write this book and I think I'm going to have to leave it to the, to the next one you know, before this third one or after this third one comes out is I think the whole paradigm because of the analytics we can do is being shifted in the reverse. In other words, it's almost like the machine should present something that then you can figure out where you should develop your hypothesis as opposed to develop the hypothesis, because there's just too much data to analyze. Right. </p><p><strong>Jason Gammack: </strong>I'm just smiling because I have, so I think about developing software and I've been developing software in life science for much of my career.</p><p>You know, there's a couple of pillars that are important in my view, in software development and the features you bring into software. One of those pillars is transparency. You know, black boxes don't go far. And science scientists by definition are technologists. They want to understand the knobs and the dials that are under the hood, less than themselves, the advanced ones want to be.</p><p>They just want to understand, you know, where are the limits? What are you calling? What are you not competent? But the other element, and this is an element where I think the industry has largely missed and you're hitting on Mike here is the concept of guiding. The concept of guiding the customer to insights and outcomes.</p><p>And even if you're wrong and your guidance, you're stimulating that scientist to think because of that, that scientists may not have thought about that hypothesis or that answer. And so by proposing the next step by proposing how that hypothesis could be tweaked, you're stimulating thought that may not have previously existed.</p><p>And I find this to be a very, very powerful tool. And this is where, you know, tools like artificial intelligence and machine learning are critically important because you need those non-biased systems to come in and start looking at the data and making calls. And then you use your bias system, the gray matter to judge those calls and challenge your thoughts. </p><p><strong>Harry Glorikian: </strong>Well , yeah, but that's not the way that we're taught. Right. We're supposed to go in with the answer, go in with the miraculous hypothesis of this is absolutely going to change. And I just find, you know, predicting the weather. I mean, there's just too many factors for any one human being to go like, you know, that's the trigger.</p><p><strong>Jason Gammack: </strong>Absolutely. </p><p><strong>Harry Glorikian: </strong>So let's get back to the, to the technology, like your technology. Like I think I remember reading, it's like a 0.27 micron resolution, which I think is if I read correctly 10 times higher than some of the competitors. How do you, how do you you can't tell me the secret sauce, but how do you get to that sort of resolution? It's gotta be a combination of hardware and software to a certain point. </p><p><strong>Jason Gammack: </strong>I mean, our, our resolution limit is the diffraction limit of light and the diffraction limit of light being again, we image individual RNA transfers. You know, these are very, very small, couple of hundred base pair, a couple hundred nucleotide pieces of genetic material.</p><p>And so our resolution allows us to discriminate two dots, two different transcripts that are sitting close to each other at that 0.27 micron range, which again is the, the limit of light to be able to separate those two photons from themselves. And so we are pushing the absolute edge of optics, the ability to detect these events.</p><p>There are other techniques that we're exploring that would allow us to even go beyond that like super resolution microscopy. But with that there's trade offs, of course, as you zoom in, you lose larger fields of view and you got to kind of manage that. And the analogy I use is squishy squishy on the one that pops up on the other and vice versa.</p><p><strong>Harry Glorikian: </strong>Yeah. You almost wish you could layer them on top of each other and create the zoom we were talking about with the Google map. </p><p><strong>Jason Gammack: </strong>Yeah, I mean, so, in essence,, that's what we do. So we, we take a slice or cells that are on a slide you know, and we image through that individual cell later. And we stopped at a very, very fine fence license.</p><p>So, you know, when you fix the tissues of the slide, you're looking at micron thick tissue stacks on top of that. So yeah, you can, then you can actually see when we image the top of the face explore and kind of like, as you think about a basketball, right, as you slice through the basketball and we see the dock, when it's really small, we see the doc, if it gets larger than it meets its maximum, that goes back down to it's intimidating.</p><p><strong>Harry Glorikian: </strong>I always have a vision. When I, when I talk to people about these technologies that sort of create the maps is you know, wearing a VR lens and being able to like, look at it spatially, which would be I've. I've tried to encourage a couple of other people and some of the companies, you need to have some of your cause you might see something through that then you might not see through a normal methodology </p><p><strong>Jason Gammack: </strong>There's no question about it. And the other thing that we need to keep in mind and, you know, as a 50 year old scientist, it's difficult to always think about who my customers are, which are non 50 year old scientist or the postdocs and grad students that are going to become the next leaders in science.</p><p>You know, everybody talks about digitization, you know, that's kind of granted that things are moving to digital. But we can't ignore macro trends such as augmented reality and virtual. Right. That's even, even me being a dinosaur, I've got an Oculus, of course I have a nine year old and 11 year old as well.</p><p>I, at one point in my career, I worked for a company called Sigma Ulrich. Cigna is now owned by Merck. But Sigma Ulrich was a leading company in fine organics for industry, you know, high throughput, you know, synthesis of, of pharmaceutical compounds. And 20 years ago, you would walk into the chem informatics suite and you'd see people with these huge honk and goggles on, as they're looking at structure function, relationships, they've got molecules.</p><p>How do you dock molecules on the proteins. Biology surprisingly hasn't kept up, you know, how many biological tools are using augmented reality, virtual reality, right? </p><p><strong>Harry Glorikian: </strong>No, I know. I mean, I've been, I've been attending and going to different talks from the tech world, right? The entertainment world. Right. And looking at the boundaries they're pushing, and then imagining that in our world, the opportunities are mindblowing.</p><p><strong>Jason Gammack: </strong>They are. </p><p><strong>Harry Glorikian: </strong>It's just our world doesn't think about it that way. </p><p><strong>Jason Gammack: </strong>But when we think about again, the molecular cartography platform, so, you know, why did we call them molecular cartographer? Right? The cartographers were the explorers of the new world. Yeah, they were the folks that went out and map the world so everybody could follow behind and find the riches, the land, the bounty, and so on.</p><p>So when we think about how we want to build a map, if we really think about building a map for a single person, we're losing that race and tools like augmented reality and virtual reality have future in our technology. And Harry, and I see a day and not far away where not only will we be able to look at these beautiful images that we create in this three dimensional space where you can sit, put your goggles on and look around at your Sunstone, your restructuring yourselves, and see the transcripts.</p><p>But more importantly, my collaborator in Zurich can join me on that journey. And we can collaborate, you know, virtually, but yet looking at a actual scientific experiment underway, you then take that to the next level and get into therapeutic approaches or clinical approaches where a pathologist and a general practitioner can explore the tumor biology of the patient.</p><p>It is a complete paradigm destroying proposition.</p><p><strong>Harry Glorikian: </strong>Well, I'm also, I'm just thinking about man, if you put that into the education system in a different way to have people look at this, right. As well as super-imposed tools from, you know, the artificial intelligence world to sort of highlight different things that the machine might be able to, that that now you're talking about really seeing where you could drive diagnosis treatment, therapy, you know making new drugs or for that matter. I mean, you know, we have these big projects. I talk about thetranscriptome and the genome, but we should have one around this cartography area, although I I'm sort of struggling to figure out whether how consistent the map would be. </p><p><strong>Jason Gammack: </strong>Well, I mean, so the point is we build maps of every tissue type and every disease state.</p><p>And this is where, again, the ability to harm it's software to help us interpret those maps is going to be critically important. So one element where we use software in our, in our workflow and machine learning is in identifying cell types. And so, you know, most neurons look the same or have a similar phenotype to those neurons.</p><p>Yeah, right now there's inefficiency in a lot of biology because in essence, we use channels to identify a cell type and that channel was then occupied, identifying the cell type. What if we could free that channel out to identify more, say disease, specific genes. And so to do that, we need to still be alive, identify the cell type.</p><p>So we need to train algorithms to be able to look at tens of thousands, millions of slices of brain. To be able to identify the neurons, the different cells within the brain, so that when we put it into a wind storm, we don't have to use a channel to identify a neuron. We use all of our channels to identify disease, state genes, and then we use machine learning and envision learning to be able to overlay, okay, that's a neuron because it looks like this and we've got 57,000 data sets that support.</p><p><strong>Harry Glorikian: </strong>It feels like facial recognition in a crowd. </p><p><strong>Jason Gammack: </strong>Yeah. You know, it's it, it is. And then we take it to another level when we now start phenotyping disease States. So, you know, we've just finished an early access program with the molecular cartography platform. And we looked at, you know, a number of different disease States.</p><p>One of them being Alzheimer's disease, that's a disease my grandmother passed away from. And I'll tell you, I think most people listening to the podcast. I've had someone in their life who impacted by Alzheimer's disease devastating disease that steals the person in front of you. And, you know, we have been able to make mouse models that have, you know, 10 cow tangles and amyloid plaques, and we can demonstrate Alzheimer's disease, but yet, you know, as well as I nearly every company that's been in the phase three clinical trial for Alzheimer's drug has failed. </p><p><strong>Harry Glorikian: </strong>Yes. </p><p><strong>Jason Gammack: </strong>You have to ask why is that happen? Right? What are we missing? Even within those trials, people are looking at different approaches to address that. And so we partnered with a major pharma company to use our technology, to look at amyloid plaques in a way they haven't been able to do before to look at an amyloid plaque. And then as a, as a temporal spatial approach, being able to identify a plaque and look at the cascading impacts of different genes that are expressed in proximity to the plaque itself.</p><p>To say, you know, right now we have been focused on the plaque. Well, let's take that spirit further and let's focus on the micro environment around the plant and understand what is causing the plaque to grow. What are elements, what are genes that are in play that we could potentially target from the therapeutic area that we see high levels of expression.</p><p>What happens if we turn that expression down? Can we get that plaque to stop growing. More importantly, it couldn't get that plaque to actually shrink in size. And so a lot of these really interesting questions that previously were difficult to ask and answer our cartography platform is now allowing some unique insights.</p><p>And so it's a great study. We're writing a manuscript right now, and I look forward to being back on the podcast talking about, so.</p><p><strong>Harry Glorikian: </strong>That'll be great. I mean, I, you know, I, I have talked to some of those companies and I think one of the biggest problems is. You know, the guy that looks at images is used to looking at images, the person that works in the assets, it's hard to get them to come into a room. And I, and I've seen them in a room. They still don't do the interactive discussion. Right. They don't, they're not using the machine learning platforms that I've seen to really bring together the understanding, which would then go to being able to segment the population. Because I think half the failures are we might not be subsegment thinking the population in the right ways. </p><p><strong>Jason Gammack: </strong>I think that's spot on. I mean, the ability to phenotype the population appropriately because of phenotype is still usually determined by a person, you know, and that's a physician well-trained, but yet there's nuance and especially in diseases.</p><p>Like Alzheimer's that are highly nuanced diseases in different States. And so I agree, and I made the comment earlier about, you still have to get the patient population to study and you have to make sure you can properly identify that population. </p><p><strong>Harry Glorikian: </strong>So let let's jump back here and switch to a different gear that the story of resolve the story of Qiagen, your personal story They're somehow all. Intertwined. I feel like we know a lot of the same people that caused this intertwining to happen, but, but you know, how, how did you between the startup and you becoming CEO because you were an instructor and I think that was a pretty good gig. So how did this, how did this come come about? </p><p><strong>Jason Gammack: </strong>Yeah, no. So it's a great question. So, you know, again, I was at Inscripta, it's a fantastic company and just amazingly talented people working on some really cool technology that is going to drive sustainability in a way. And so for me to leave that, obviously we have a pretty compelling opportunity here. And this story started back in 2016 at Qiagen, when we were looking at trying to come up with some really unique science to solve this spatial challenge. We brought together a team of brilliant scientists to in essence, their only job was to figure out how do we create tools that really at this phase spatial context that started in 2016, we worked together as a team to develop that technology.</p><p>I stepped away for two years to go to Boulder, Colorado, and stand up and sprint. Back in 2020, a pair of shots, the former CEO of Cajun and Michael, the founder said we got a union, got opportunity to Jason to build something really special. And, you know, it was one of those things area where I remember, well, of course we were all locked in our basements during the 2020 time.</p><p>And I remember having a conversation with parents walking upstairs to to talk to my wife, Adeline. I said, I think we're moving back to Germany, I think.</p><p><strong>Harry Glorikian: </strong>And she said?</p><p><strong>Jason Gammack: </strong>And she said, hell yeah, let's make that happen. And so it's you know, Germany is a very special place for, for my family. You know, we lived here for five years. The first time my children moved to Germany. We made the choice to live in Germany, like a German. We have amazing friends here and our children went to school, a great school here, public schools, and speak German like native Germans. Yeah, we really discovered the heart of a, an amazing country and just gracious people and great scientists. You know, we're starting something unique here. There aren't, there's a lot of startups in Germany. The German startup culture is a very different culture than in the United States.</p><p>And as I say about a lot of things, If we could meet halfway and be the perfect world, you know, to give you an example of when we're raising money for Resolve, we'd speak to American investors and it would be don't. You need more money. And we'd speak to European investors and they'd say, why do you need so much?</p><p>So if you could meet halfway, sometimes the overexuberance of just throwing money at problems versus the conservative. Well, you know, let's do this incrementally and so on. You know, when we started Resolve, we had a choice to make doing, bring the business to the United States or do we grow the business in Germany.</p><p>And we had a lot of discussion around that. And you know, for me, it was a very obvious answer. The answer is we take advantage of both worlds. So in resolved bio-sciences our corporate headquarters is in Germany and our product development center of excellence is in Germany because it's thinking about what our core technology is.</p><p>It's molecular biology cooked to automation and engineering with optics and software. So I think we can all agree that the best physicists and optical engineers in the world reside within 500 kilometers of where we are right now, here in Dusseldorf, Germany, just amazing talent and companies that have created huge industries, such as CISE and Leica and so on are all based in Germany. Right? And that goes to, you know, the German engineering, German physics optics itself. Great molecular biologists. We've got amazing academic centers across Europe and bull, so on and so forth that develop amazing molecular biologists. And when it comes to our computational abilities, that's a global skillset.</p><p>I've got a great development in Eastern Europe. I've got great developers in Western Europe and great developers in the United States. We're opening our office in the United States and San Jose, California, and the Bay area. And one area where the us has excelled past Europe is the softer side of science.</p><p>So the marketing, the commercialization, the brand development. So we're going to put our feet on both continents and really use those pillars of excellence. North America will be our commercial headquarters of our business, where our marketing and brand creation, outbound marketing content creation efforts are going to reside.</p><p>And Europe will be our center of excellence for product innovation and product development. And so we're going to really be able to harness both, you know, amazing capabilities that each region brings to us. </p><p><strong>Harry Glorikian: </strong>Yeah. I, you know, whenever I'm talking to different companies and they're talking about where they're going to be geographically, I mean that, that people, people don't give that enough thought as much as they, I think they should, because there are cultural differences and that. Can really hurt you if you don't understand these little nuances. I mean, I can tell you the difference between being in Canada and being here big difference. Right. And people say, well, no, but it's right there. No, it's actually not right there. It might as well be in a different place. </p><p><strong>Jason Gammack: </strong>Yeah. You can work straight. Also the difference between being in Southern California in Northern Colorado. But it's very, very different. I've lived in San Diego and in the Bay area multiple times. And the difference between the regions are, this is significant. Yeah, no, I grew up, grew up in Northern California. And when I would say to someone, I was from California and they'd be like, Oh, you're from Southern California.</p><p>I remember being like, no, absolutely not. Don't don't tell me that. Cause you know, you didn't Northern California had more of a. Well, when I was growing up a relaxed, you know, yet, you know, we want it to be ahead at least from an intellectual perspective, but. And now the Northern California has gotten a little arrogant thanks to tech, but you know, it is what it is.</p><p>It's driven a just unbelievable amount of growth that tech has and unbelievable amounts of innovation has come from that region, which is why, you know, when we looked at. Where we wanted to open our us office. We were eventually the two narratives. We looked at Boston, Cambridge, and we looked at the mayor.</p><p>I mean, those were the two areas that we honed in on and we made the decision to be in the San Jose, San Francisco area. You know, we know the market well, talent is amazing there. You know, Stanford, Berkeley, the universities there just contributed just an amazing amount of, of gifted computer scientists and developers and so on.</p><p>You know, both cities would have been great. But California is where we will have our us operations. Well, when do you expect that to open? We hope to have that opening in April. That's our, that's our plan. </p><p><strong>Harry Glorikian: </strong>When do you guys launch, when is this gonna…</p><p><strong>Jason Gammack: </strong>Yeah. So, so, you know, within the life science tool space, there's a very say kind of common dissemination path for, for technology.</p><p>So technology like ours, which is very complex and capital intensive. It starts with the company, refining that technology and then gain granted access to that technology too early access customers, usually key opinion leaders or thought leaders in particular fields. So we have just completed our early access program, or we had 15 institutions involved in that program.</p><p>The focus of that program is really to understand the. Application space and how our customers are thinking about using the technology. The technology that point has exited product development. So we're not really still developing the product, finding and nudging and guiding the product in areas like software, or you never stopped developing software software where it's just a constant development.</p><p>You know, we put a flag in the sand and say, this is where, what the software is going to start. And we do a lot of user acceptance testing and understand how the customers are going to use the software and then start dropping those features that we want to incorporate. Once you finished early access, usually what you then move to a dissemination approach, which is what we're in right now.</p><p>And so for us, dissemination is twofold. Our product is largely data. I mean, that is our product. You know, a random molecular cartography generates four terabytes of data, which is a significant amount of data. And so we are launching a data as a service approach where we will run molecular cartography and our service lab had spoken in our North American facility expanding our European facility.</p><p>And at the end of this year, our plan was to open a facility in Asia. So we can begin pushing our data to market because especially when it comes to things like software, we will never develop faster than the community will develop. And quite honestly, the community is going to bring ideas to us that we've never even thought of before, how to look at the data.</p><p>So we are going to scale our services to provide more access to the technology. Early access is tough because you have to say no to customers. You have to say, yeah, we're oversubscribed. We can't take you in. We're not going to open up the phone with the brain. The second phone number dissemination strategy is we have a number of large advanced institutions that want the workflow deployed at their facilities.</p><p>So major pharma that sees this as an amazing insight and a biomarker discovery and understanding, you know, how do they move the ball forward, even faster? Talk about collapsing those cycles. So we will be in the latter half of this year, deploying the technology at very advanced, very qualified customer sites.</p><p>And then the last phase of dissemination is what I call the democratization phase, which is when we then kind of push the button and start pushing the platform onto benchtops. So it scientists at university scientists and non-profit research institutions and so on. And that will happen in, in the later months.</p><p><strong>Harry Glorikian: </strong>But you almost wished like… I've become a believer. And I know that this is, you know, sometimes it's a pipe dream, but you'd want this, all these images, like Google maps to at some point coalesce into one repository. Like I understand that everybody wants their own confidential information, but. We didn't build the human genome on confidential information. We, we sort of put it together and said, here's the genome, right? Otherwise, nothing we have right now would have, you know, been realized and everything is built on that, on what was done in those early years. I feel like what you're doing almost. If you're going to build a map, you need everybody mapping. And adding to the map so that everybody can then benefit from it in their own unique way. </p><p><strong>Jason Gammack: </strong>No question about it, you know, you and I are in violent agreement on that point. And so hence our urgency to get our data into the scientist's hands so that they can understand the value and the number of insights that come from the data.</p><p>So there are a number of international consortium efforts on your way right now that are commonly referred to as cell Atlas efforts where they're is different cells. And so on. We want to put the cell Atlas three-dimensional context and you know, those are a couple of stories. And so, so we have a strategy to engage those organizations to be able to kind of say, okay, you're now not in the single cell sequencing.</p><p>You're done single cell RNA seq now we need to take it to the next level, take that RNA seek data, which is the counting of the transcripts in a tune D kind of planar effect. Let's now blow that into a 3d effect. Let's correlate our visualization of the transcripts with the digital readouts of RNAC and this collaboration that I spoke of with this major pharma company in Alzheimer's.</p><p>We did it in their Alzheimer's mouse mall. Where we correlated all of the single cell on a sick day that they'd been accumulated over the last five years and map that to three-dimensional spatial, single molecule fish data. And it was a beautiful study because we showed a correlation and R squared of 0.9, nine, seven to the RNA seek data to our visualization of the transcripts.</p><p>And then we added the three-dimensional context, very importantly, at some cellular resolution where you can actually see structures within the cells. And so it was just this. Yeah, it was one of those kinds of moments where you get goosebumps and you're like, Holy smokes. This is real. I mean, we knew it was good, but this really showed how good it was.</p><p><strong>Harry Glorikian: </strong>Well, I'll look forward to that to that paper when you said it's, it's on its way for publication?</p><p><strong>Jason Gammack: </strong>We're reviewing the manuscript now. So it's an iterative process and it's a major pharma. So, you know, they're embargo mania.</p><p><strong>Harry Glorikian: </strong>Well, when it's out, you can, you can send me a copy, but Jason, it's been great to talk to you. I feel like we could talk. Knowing the last time we talked, we could probably talk for hours about these things. But I I'm sure that you'll, we'll have you back on the show when we get to the next iteration. You know, what we should do is we should, we should get Per to come on the show with us and, and, and do a three-way conversation because his perspectives are always insightful and unique.</p><p><strong>Jason Gammack: </strong>Indeed. He is a I've known Per for 20 years and the opportunity to join with pair and start this company. It was an amazing opportunity. Truly a thought leader and a visionary in the field. And we just had so much runway in front of us. We've got such an amazing team and the team is growing amazingly fast and it is truly an honor and a privilege to be working with them and bring this technology to market because we believe that this technology will absolutely have a positive impact on the human condition. There's no question about that. </p><p><strong>Harry Glorikian: </strong>Well, you know, I just, like I said, I'm reflecting on, you know, the, what immunohistochemistry opened up to us. And I still don't think it gets the credit that it deserves. Right. But I think now with the computational capabilities and the insights that that could provide, and then you can overlay other information onto that it's changing the con the context where the persistent identifier is the location, but then everything that's happening around it is what really puts it into context of what's happening in that cellular dynamic. So great talking to you and I look forward to keeping in touch. </p><p><strong>Jason Gammack: </strong>Absolutely. Thank you, Harry. Really appreciate it.</p><p><strong>Harry Glorikian:</strong>That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
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      <itunes:title>Jason Gammack on the Promise of Spatial Biology</itunes:title>
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      <itunes:summary>Rapid and cheap DNA sequencing technology can tell us a lot about which genes a patient is carrying around, but it can&apos;t tell us when and where the instructions in those genes get carried out inside cells. Resolve Biosciences—headed by this week&apos;s guest, Jason Gammack—aims to solve that problem by scaling up a form of intracellular imaging it calls molecular cartography.</itunes:summary>
      <itunes:subtitle>Rapid and cheap DNA sequencing technology can tell us a lot about which genes a patient is carrying around, but it can&apos;t tell us when and where the instructions in those genes get carried out inside cells. Resolve Biosciences—headed by this week&apos;s guest, Jason Gammack—aims to solve that problem by scaling up a form of intracellular imaging it calls molecular cartography.</itunes:subtitle>
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      <title>Auransa&apos;s Pek Lum on Using Machine Learning to Match New Drugs with the Right Patients</title>
      <description><![CDATA[<p>Pek Lum, co-founder, and CEO of Auransa believes that a lot fewer drugs would fail in Phase 2 clinical trials if they were tested on patients predisposed to respond. The problem is finding the sub-populations of likely high-responders in advance and matching them up with promising drug compounds. That’s Auransa's specialty.</p><p>The Palo Alto, CA-based drug discovery startup, formerly known as Capella Biosciences, has a pipeline of novel compounds for treating cancer and other conditions identified through machine learning analysis of genomic data and other kinds of data. It’s closest to the clinical trial stage with a gene expression modulator for liver cancer (AU-409) and is also working on drugs for prostate cancer and for protecting the heart against chemotherapy drugs. </p><p>The company says it discovered AU-409 as part of a broad evaluation of data sets on a range of close to 30 diseases. The company’s discovery process uses a platform called the SMarTR Engine that uses hypothesis-free machine learning to identify druggable targets and compounds as well as likely high-responder patients. Lum  calls it “interrogating gene expression profiles to identify patient sub-populations.” The company believes this approach can identify unexpected connections between diverse molecular pathways to disease, and that it will lead to progress in drug development for intractable conditions with poorly understood biology, including cancer and autoimmune, metabolic, infectious, and neurological diseases.</p><p>Lum co-founded Auransa with Viwat Visuthikraisee in 2014 and is the chief architect behind its technology. Before Auransa, she was VP of Product, VP of Solutions, and Chief Data Scientist at Ayasdi (now SymphonyAyasdiAI), a Stanford spinout known for building hypothesis-free machine learning models to detect patterns in business data. Before that, she spent 10 years as a scientific director at Rosetta Inpharmatics, a microarray and genomics company that was acquired by Merck. She has bachelor's and master's of science degrees in biochemistry from Hokkaido University in Japan and a Ph.D. in molecular biology from the University of Washington, where she studied yeast genetics.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p>•<strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, <i>MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market</i>. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p>For every drug candidate that makes it all the way through the three phases of clinical trials to win FDA approval, there are about 20 others that fail along the way. Phase 2, where drug makers have to prove that a new drug is safer or more effective than existing treatments, is where a lot of drugs falter.</p><p>But often, it’s not because the drugs don’t work. Sometimes it’s just because they weren’t tested on the right patients. Meaning, the people in the treatment group didn’t happen have the right genes or gene expression profiles to respond. If you <i>could</i> find enough patients who were likely high-responders and try your new drug just on them, your chances of approval might go way up. The tough part is identifying those subpopulations in advance and matching them up with promising drug compounds.</p><p>That’s where a company like Auransa comes in. It’s a Palo Alto startup that has built an AI platform called the SMarTR Engine. The engine uses public datasets on gene expression to identify subtypes of molecular diseases and predict what kinds of compounds might work against specific subtypes. Auransa used the engine to discover a drug for liver cancer that’s about to enter clinical trials. And it’s licensing out other drugs it discovered for prostate cancer and for protecting the heart against the effects of cancer chemotherapy.</p><p>Some of the ideas baked into the SMarTR Engine come from a sub-field of artificial intelligence called hypothesis-free machine learning. And joining us this week to explain exactly what that means is our guest Pek Lum. She’s a biochemist and molecular biologist who worked at the microarray maker Rosetta Inpharmatics and the software company Ayasdi before founding Auransa in 2014. And she says one of the real revolutions in drug development is that almost <i>every</i> disease can be divided up into molecular subtypes that can best be treated using targeted drugs.</p><p><strong>Harry Glorikian: </strong>Pek, welcome to the show.</p><p><strong>Pek Lum: </strong>Thank you. Pleasure to be here.</p><p><strong>Harry Glorikian: </strong>You know, I always try to ask this opening question when I start the show to give the listeners a good idea of of what your company does. But you guys are in in drug discovery. What tell us how people understand what is the basic approach that you guys have. And I'll get into the special sauce later. But what do you guys do in the drug discovery space?</p><p><strong>Pek Lum: </strong>No, that's a really great question in the sense that when we first started in about five years ago, we... I've always been in the drug discovery field in the sense that I worked for over 20 years ago at that time in a company called Rosetta Inpharmatics, which is really pushing the cutting edge of thinking about using molecular data. Right. And to solve the mysteries of biology. And I was extremely lucky to be one of the core members in when we were very small. And then that really kind of put me in the sense put me in the stage where I could think about more than just one gene. Right. Because the technology was just kind of getting really kind of I would say not rolling forward, like propelling forward, with microarrays.</p><p><strong>Harry Glorikian: </strong>Yes.</p><p><strong>Pek Lum: </strong>So I was part of the whole movement and it was really amazing to be kind of like, you know, in the show as it runs, so to speak. And so and then Merck bought us after we went public and worked for Merck and Co. for another eight years, really learning how technology, how we should apply technology, how we can apply technology, molecular data, RNA data, DNA data to a drug discovery pipeline. And really kind of figured out that there are many things that the pharmaceutical world does very well, but there are many things that it also fails in and that how can we do it better? So I've always been in the mindset of, when starting Auransa with my co-founder, How do we do it better? And not only just do it better, but do it very differently so that we can address the most, I would say critical problems. So Auransa is really a company started by us to address the problem of why drugs actually fail a lot when we go into a Phase II efficacy trial. Right. Is not like the drug is bad or toxic. And most of the time is you can find enough responders to make your clinical trial a success.</p><p><strong>Pek Lum: </strong>And that cause, I guess, drugs actually made to maybe against one target. You don't really think about the biology that much at the beginning or the biology responders. So Auransa was really created to think about first, the heterogeneity of the disease and the heterogeneity of patient response. So we start from looking at molecular data of the disease from the get go. We take RNA, is really the RNA world is coming back with the vaccines.</p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Pek Lum: </strong>And the RNA has always been fascinating because it tells you about the activity of the cell, of a normal cell versus a disease cell. So we use RNA transcriptomes right, transcriptomics to study the biology and the heterogeneity. So our algorithms, there are many algorithms, one of the first algorithms of the engine is really to look at the biology of heterogeneity, whether we can subdivide a disease into more homogeneous categories before doing anything.</p><p><strong>Harry Glorikian: </strong>Right. Yeah, I remember when, because when I was at Applied Biosystems, I remember Applied Biosystems, Affymetrix and then Stephen Friend starting this and like, you know, it was all starting back then. And I want to say we sort of had an idea of what we were doing, but compared to now, it's like, wow, how naive we were back then compared to how much this whole space has evolved. And it's interesting you mention, you know, RNA and its activity because in a couple of weeks, I'm actually going to be talking to a spatial genomics company so that you get a better idea from a visual standpoint of which cells are actually activating and which aren't.</p><p><strong>Harry Glorikian: </strong>But so, you've got an interesting professional career, and I say that because you were working at a big data analytics company for a while that was utilizing an approach that was hypothesis-free machine learning, where the machine was sort of identifying unique or aspects that you should be paying attention to. Maybe that it was seeing that instead of you going in there saying, let's just look over here, you could see what the machine was seeing for you. How much can you tell us a little bit about that experience? And then how did that influence what you're doing now? Because I have to believe that they superimpose at some level.</p><p><strong>Pek Lum: </strong>Right. I think, you know, ever since my first job at Rosetta and then my subsequent jobs really kind of culminated into this into this tech, as you see today. Right. All this experience and certainly experience while being a founding member of a small team at that time of Ayasdi, which is the software company, has been also an eye-opening experience for me because we were trying to create, using a very old mathematical idea called topology, or TDA, really start to figure out whether there's maybe there's some things that can't be learned. Right. And so typical machine learning methods need a training set or a test. But there are just some things where you don't really know what the ground truth is. So how do you do that? So that's the idea of like I say, the hypothesis-free approach. And the approach that that that the tech company, the software company that we built is really around the idea that not everything can be learned. But you can actually adapt some very interesting ideas around a hypothesis-free approach and then use it in a machine learning AI framework. So I definitely have been influenced by that thinking, you know, as I as we built the software.</p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Pek Lum: </strong>And also, when we were Rosetta, we were generating in parallel, data on thousands of genes. And often at that time we were called, "Oh, you're just going fishing," you know, but fishing is not a bad idea because you don't really know which part of the ocean you need to go to catch your Blue Marlin, for example, right?</p><p><strong>Harry Glorikian: </strong>Yeah, no, no, absolutely.</p><p><strong>Pek Lum: </strong>Fish a little bit, not the whole ocean, but, you know, to get some, I would say, boundaries. Right. So in that sense, to me, a hypothesis-free approach gives you the boundaries where you can look. So, you know, so the experience, definitely the idea that you can use methods or thinking, algorithms, that could help you in a field where you do not know the ground truth. Like patient heterogeneity, I would say nobody really can pinpoint and say, OK, I can say that, oh, this is THE subtype, these are THE markers. And therefore, I'm going to go after this. And there are many. I guess, for example, you can think of a Herceptin as a great example, right, but when you first started, you know, it was like, wow, OK, you're going to go after a target. And then the idea of really kind of subtyping breast cancer, you know, I don't know, 20, 30 years ago. Right. And we're still learning about, you know, in a patient heterogeneity and we're just beginning to scratch the surface. So for Auransa, we wanted to use a method very much like the thinking that and the idea that we had, you know, when we were when I was at Ayasdi, is that you could search with some parameters, you know, a very complex space without needing to say, this is my hypothesis. This is that one gene, because we all know that if you have a target, you know ... to have to respond you need the target. But if you have the target, it doesn't mean you're going to respond. Because things below the target or above the target are much more complex than that.</p><p><strong>Harry Glorikian: </strong>Correct. And I always feel that there's, you know, I always call them low hanging fruit. Like the first one is, OK, well, it's either luck or skill, but I got to one level. But then you start to see people that are not responding. So that means something else is going on and there's subtypes. Right. So it's funny how we always also call it "rare diseases" in these smaller population. I'm pretty convinced that at some point everything is going to be a rare disease. Right. Because of the subtypes that we're going to start to see. I mean, even we're seeing in a neurological now, or Alzheimer's. There's subtypes of Alzheimer’s. No! Really? Shocking. Amazing to me that there's subtypes. Right. We've been dealing with this for ages. And I do believe that these technologies are so good at highlighting something where a human might not have seen it, might not have understood it. You know, I was I was interviewing actually I just posted it today on imaging and agriculture. And they were saying that sometimes the machine sees things that we don't fully understand how it sees it, but it sees it and points it out, which allows us now to dig into it and be able to sort of identify what that unique feature is that the machine has pulled out. I'm not sure I want drug discovery and drugs being based on something we don't fully understand, but the machine highlighting something for us that then we can go dig into, I think is an interesting greenfield space that that we need to explore more.</p><p><strong>Pek Lum: </strong>Right. I think you're absolutely right. You know, when we first started Auransa, that was the idea that we had. And then my co-founder and I thought, what if we find like hundreds of subtypes? We're never going to be able to make a drug again a hundred subtypes. So let's hope we find a small enough number of buckets that we can say this is approximately what it looks like, to be able to be practical to find drugs against those subtypes. So when we talk about subtypes, we are talking about you're absolutely right, it's like a leaf on a tree and that we have to cut it off at one point. Enough that things that, OK, this is homogeneous enough that actually makes sense out of it. And that's where the engine, that's what the engine does. Basically, it takes data, very, very complex data, things that we could never figure that out ourselves and say this approximately five, six buckets. So we've actually not found hundreds of subtypes, otherwise we probably would not have started Auransan, because it would have been impossible. But instead, we find n of one, but maybe a five to seven subtypes at most. That is enough for us to say, the machine says, OK, it is homogeneous enough, go for this. So that's kind of where we are, where we start at Auransa. And I think that's an important concept because people often thought about precision medicine as being, oh, I'm going to make a medicine for you and you only. But actually you could learn from, say, breast cancer, and that's approximately people with estrogen-receptor-positive tumors. And then you will likely respond to a drug like Tamoxifen. And even though we know that the response rate is only about, I think maybe 30, 40 percent. Right. But that's really good. At least at this poibt. So that's where we how we think about the engine as a shining light on a homogeneous enough population that we can actually make a drug against that.</p><p><strong>Harry Glorikian: </strong>Yeah. So that sort of leads us into you have this technology that you've termed SMarTR, S-M-A-R-T-R engine. Right. What does that stand for?</p><p><strong>Pek Lum: </strong>You know, that's my one of my rare occasion where I put my marketing hat on. I don't like marketing all. And we so and you notice the Mar is big-M, little-a-r. So S is for Subpopulation. Markers. Targets. And Redefining. Because I needed it to be Smartr.</p><p><strong>Harry Glorikian: </strong>Ok, ok. So and when you like when you've described this in the papers that I've looked at it, it's a machine learning mathematical statistical approaches, highly automated and totally runs in the cloud. So can you give us a little more color on the sort of the highly automated, and why is that so important?</p><p><strong>Pek Lum: </strong>Right. It's important because it comes from my own experience of working with, like, amazingly talented implementations and data scientist at the at Merck or I know how it goes where biologists will often ask them for something and they would run their magic and they'd give us an Excel sheet or a PowerPoint. Right. It's always a one-off one of those and one of that because you know, biologists are kind of one-off. So the idea of of us building this engine is not just equipping it with algorithms. So first of all, we don't have one algorithm, a hammer looking for a nail. We have a problem to solve. The problem is how to find novel drugs, drugs that people have never thought about, for patient populations that will respond.</p><p><strong>Pek Lum: </strong>So with that in mind, we built a pipeline of algorithms that starting from thinking about heterogeneity, to understanding preclinical models that reflect the biology of human subtypes, to predicting drugs and targets for those, and getting biomarkers for the patients when we go to the clinic. And we have different algorithms for each step of the pathway. So instead of having my team do a one-off thing, we know that if we don't do good software engineering it's going to be problematic because first it's going to take a really long time. This will be kind of higgledy piggledy in Excel sheets and we might be able to solve one thing. But to do this as a platform and as a pipeline builder, it would be impossible without good engineering practices. So we wanted to put this in, like I say, in a framework where everything is connected, so where it gets to run faster and faster through better algorithms, through better software engineering. And this really kind of came from my experience to at Ayasdi, a software engineering, a software firm. And also my co-founder who is a physicist and a software engineer, that we need to have good software practices. So what we did was we built first. We don't want any servers. Everything is done on AWS and is done in modules. So we create algorithms for each part of the pipeline, of the <i>in silico</i> pipeline. And then we have in such a way that when we take data in, when we ingest data, that we also automate it, and then by the time it ingest data and it spits out, I would say, what subtypes of disease, what biomarkers could be used in the clinic, what targets are interesting to you, what compounds from our digital library of compounds may be effective for that. Everything is more or less connected and could be done up in the cloud and now it finishes in about 24 hours.</p><p><strong>Harry Glorikian: </strong>When do humans look at it to say hmmm, makes sense. Or maybe we need to tweak the model a little. Right. Because it's not making sense. When does that happen?</p><p><strong>Pek Lum: </strong>So we, it happens at several steps. So within our engine we actually have benchmarks in there that we run periodically. You know, for example we have about about eight to ten data sets that we have for breast cancer, thousands of patient tumors. And we know approximately that it should be discovering, and it has discovered ER+ flavored subtypes, ERBB2, HER2+ subtypes, triple negative subtypes. So that is kind of like the rails that we put into our engine as well to make sure that when we actually do tweak an algorithm, it still has its wheels. But what we do is at this point, we generate out all the in-between data, but it's kept on the cloud. And once it's up, when it outputs the the list of things, the biologists actually, I would say the biologists with a knack for computation, we look at it and I myself look at it. I love to do data analysis in my spare time when I'm not doing CEO stuff. And we can see that we will look at once it's done that it also allows you...Ok, so this is an interesting one. The engine on the cloud outputs all of this. And right now, let's say my CSO, who is not a computational person, or me, or whoever really would be kind of a big pain to kind of go up and install the stuff and look at the things, some things you can't see. So what we did as a company is to build another kind of software, which is the visualization software on top of that.</p><p><strong>Pek Lum: </strong>So we have on our other end a visualization software that we call Polo because it's exploring that basically connects everything the SMarTR engine has done into something that's visualizable. It has a URL, we go to it and let's say, for example, my CSO wants to know, OK, the last one you did on head and neck cancer, you know, how many subtypes did you find? What is the biology, what's the pathway? And it could do all of that by him just going then looking at things. Or he can actually type in his favorite gene and then see what the favorite gene actually is predicted for how it behaves across over 30 diseases, and you can do that all at his fingertips, so we have that part of the engine as well, which is not the engine. We call it Polo, which is our visualization platform.</p><p><strong>Harry Glorikian: </strong>Right. It's funny because one of the first times I interviewed Berg Pharma and they were talking about their system, I was like, if you put on a pair of VR glasses, could you see the interconnectivity and be able to look in a spatial.... I was on another planet at the time, but it was a lot of fun sort of thinking about how you could visualize how these things interact to make it easy. Because human beings I mean, you see a picture. Somehow we're able to process a picture a lot faster than all this individual data. I think it... I just slow down. I rather look at a visual if it's possible.</p><p><strong>Pek Lum: </strong>It is so important because, you know, even though the engine is extremely powerful now, takes it 24 hours to finish from data input to kind of spitting out this information that we need. Visualization and also like the interpretation and just kind of making sure kind of like the human intelligence. Can I keep an eye on things. The visualization platform is so, so important. That's why I feel like that we did the right thing in making and taking time, putting a bit of resources to make this visualization platform for our preclinical team who actually then needs to look at it and go, OK, these are the drugs that are that are predicted by the engine. Can we actually have an analog of it or does it have development legs? Does it make sense? Does the biology makes sense. And so now we're basically connected everything. So you can click on a, you can find a drug in a database and it will pop up, you know, the structure and then it will tell you, hey, this one has a furan ring. So maybe you might want to be careful about that. This one has a reactive oxygen moiety. You might want to be careful about that. As we grew the visualization platform, we got feedback from the users. So we put more and more things in there, such that now it has a little visualization module that you can go to. And if you ever want to know something, I can just, I don't have to email my data scientist at 1:00 am in the morning saying, hey, can you send me that Excel sheet that has that that particular thing on it that I want to know from two weeks ago? I can just go to Auransa's Polo, right? As long as I have wi-fi. Right. And be able to be self-sufficient and look at things and then ask them questions if things look weird or, you know, talk to my CEO and say, hey, look at this. This is actually pretty interesting. And this one gets accessed by anybody in Auransa as long as you have Wi-Fi.</p><p><strong>Harry Glorikian: </strong>So so it's software development and drug development at the same time. Right. It's interesting because I always think to myself, if we ever, like, went back and thought about how to redo pharma, you'd probably tear apart the existing big pharma. Other than maybe the marketing group, right, marketing and sales group, you tear apart the rest of it and build it completely differently from the ground up? It was funny, I was talking to someone yesterday at a financial firm, a good friend of mine, and it's her new job and she's like, my job is to fully automate the back to the back end and the middle and go from 200 people down to 30 people because we're fully automating it. I'm like, well, that sounds really cool. I'm not really thrilled about losing the other 170 people. But with today's technology, you can make some of these processes much more automated and efficient. So where do you get your data sets that you feed your programs?</p><p><strong>Pek Lum: </strong>Yeah, let me tell you this. We are asked this a lot of times. And just kind of coming back again for my background as an RNA person. Right. One thing that I think NIH and CBI did really well over 20 years ago is to say, guys, now we no longer doing a one gene thing. We have microarrays and we're going to have sequencing. There's going to be a ton of data. We need to start a national database. Right. And it will enable, for anybody that publishes, to put the data into a coherent place. And even with big projects like TCGA, they need things that could be accessed. Right. So I think it is really cool that we have this kind of, I would say, repository. That unfortunately is not used by a lot of people because, you know, everything goes in. That's a ton of heterogeneity. So when we first started the company, before we even started the company, we thought about, OK, where is it that we can get data? We could spend billions of dollars generating data on cells, pristine data, but then it would never represent what's in the clinical trials without what's out there in the human the human world, which is the wild, wild west. Right. Heterogeneity is abundant. So we thought, aha, a repository like, you know, like GEO, the Gene Expression Omnibus, right, and ANBO or TCGA allows this kind of heterogeneity to come in and allows us the opportunity to actually use the algorithms which actually have algorithms that we look for. We actually use to look for heterogeneity and put them into homogeneity. These kind of data sets. So we love the public data sets. So because it's free, is generated by a ton of money. It is just sitting there and it's got heterogeneity like nobody's business. Like you could find a cohort of patients that came from India, a cohort of patients that came from North Carolina, and group of patients that came from Singapore and from different places in the US and different platforms. So because the algorithms at first that studied heterogeneity is actually, I would say, platform independent, platform agnostic, we don't use things that are done 20 years ago. They were done yesterday. And what we do is we look at each one of them individually and then we look for recurrent biological signals. So that's the idea behind looking for true signals, because people always say, you go fishing, you may be getting junk out. Right?</p><p><strong>Pek Lum: </strong>So let's say, for example, we go to, the engine points to a spot in the sea, in the ocean, and five people go, then you're always fishing out the same thing, the Blue Marlin, then you know that there is something there. So what we do is we take each data set, runs it through an engine and say these are the subtypes that I find. It does the same thing again in another data set and say these are the things that I find. And then it looks for recurrence signals, which is if you are a artifact that came from this one lab over here, or some kind of something that is unique to this other code over there, you can never find it to be recurrent. And that's a very weird, systematic bias, you know, so so because of that, we are able to then very quickly, I would say, get the wheat and throw away the chaff. Right. And basically by just looking by the engine, looking at looking for recurring signals. So public data sets is like a a treasure trove for Auransa because we can use it.</p><p><strong>Harry Glorikian: </strong>So you guys use your engine to I think you identified something unexpected, a correlation between plant-derived flavonoid compound and the heart. I think it was, you found that it helps mitigate toxic effects in a chemotherapy drug, you know. Can you say more about how the system figured that out, because that sounds not necessarily like a brand-new opportunity, but identifying something that works in a different way than what we thought originally.</p><p><strong>Pek Lum: </strong>Right, exactly. So in our digital library, let me explain a little bit about that. We have collected probably close to half a million gene expression profiles. So it's all RNA gene expression based, representing about 22,000 unique compounds. And these are things that we might generate ourselves or they are in the public domain. So any compound that has seen a live cell is fair game to our algorithms. So basically you put a compound, could be Merck's compound, could be a tool compound, could be a natural compound, could be a compound from somewhere. And it's put on a cell and gene expression was captured. And those are the profiles or the signatures that we gather. And then the idea is that, because remember, we have this part of the engine where we say we're going to take the biology and study it and then we're going to match it or we're going to look for compounds or targets. When you knock it down, who's gene expression actually goes the opposite way of the the disease. Now, this is a concept that is not new, right. In the sense that over 20 years ago, I think Rosetta probably was one of the first companies that say, look, if you have a compound that affects the living cell and it affects biology in a way that is the opposite of your disease, it's a good thing. Right thing. So that's the concept. But, you know, the idea then is to do this in such a way that you don't have to test thousands of compounds.</p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Pek Lum: </strong>That is accurate enough for you to test a handful. And that's what we do. And by putting the heterogeneity concept together with this is something extremely novel and extremely important for the engine. And so with this kind of toxicity is actually an interesting story. We have a bunch of friends who are spun off a company from Stanford and they were building cardiomyocytes from IPS cells to print stem cells. And they wanted to do work with us, saying that why do we work together on a cool project? We were just starting out together and we thought about this project where it is a highly unmet medical need, even though chemotherapy works extremely well. Anthracyclines, it actually takes heart, takes a toll. There is toxicity and is it's a known fact. And there's only one drug in the market and a very old drug in the market today. And there is not much attention paid to this very critical aspect. So we thought we can marry the engine. At that time were starting up with oncology. We still we still are in oncology, and they were in cardiomyocytes. So we decided to tackle this extremely difficult biology where we say, what is a how does chemotherapy affect heart cells and what does the toxicity look like? So the engine took all kinds of data sets, heart failure data sets, its key stroke and cells that's been treated with anthracyclines. So a ton of data and look for homogeneity and signals of the of the toxicity.</p><p><strong>Pek Lum: </strong>So this is a little bit different from the disease biology, but it is studying toxicity. And we then ask the engine to find compounds that we have in our digital library, that says that what is the, I would say the biology of these compounds when they hit a living cell that goes the opposite way of the toxicity. And that's how we found, actually we gave the company probably about seven, I forget, maybe seven to 10 compounds to test. The one thing that's really great about our engine is that you don't have to test thousands of compounds and it's not a screen because you screened it in silico. And then it would choose a small number of compounds, usually not usually fewer than 30. And then we able to test and get at least a handful of those that are worth looking into and have what they call development legs. So this I would say this IPSC cardiomyocyte system is actually quite complex. You can imagine that to screen a drug that protects against, say, doxorubicin is going to be a pretty complicated screen that can probably very, very hard to do in a high throughput screen because you have to hit it with docs and then you have to hit it with the compounds you want to test and see whether it protects against a readout that is quite complex, like the beating heart.</p><p><strong>Pek Lum: </strong>And so we give them about, I think, seven to 10 and actually four of them came out to be positive. Pretty amazing. Out of the four, one of them, the engine, noticed that it belonged to a family of other compounds that looked like it. So so that was really another hint for the the developers to say, oh, the developers I mean, drug developers to say, this is interesting. So we tested then a whole bunch of compounds that look like it. And then one of them became the lead compound that we actually licensed to a a pharma company in China to develop it for the Chinese market first. We still have the worldwide rights to that. So that's how we tackled toxicity. And I think you might have read about another project with Genentech, actually, Roche. We have a poster together. And that is also the same idea, that if you can do that for cardio tox, perhaps you can do it for other kinds of toxicity. And one of them is actually GI tox, which is a very common toxicity. Some of them are rate limiting, you might have to pull a drug from clinical trials because there's too much GI tox or it could be rate limiting to that. So we are tackling the idea that you can use to use machine, our engine, to create drugs for an adjuvant for a disease, a life-saving drug that otherwise could not be used properly, for example. So that's kind of one way that we have to use the engine just starting from this little project that we did with the spin out, basically.</p><p><strong>Pek Lum: </strong>So basically, you're sort of, the engine is going in two directions. One is to identify new things, but one is to, I dare say, repurpose something for something that wasn't expected or wasn't known.</p><p><strong>Pek Lum: </strong>That is right. Because it doesn't really know. It doesn't read papers and know is it's a repurposed drug or something. You just put in it basically, you know, the gene expression profiles or patterns of all kinds of drugs. And then from there, as a company, we decided on two things. We want to be practical, right. And then we want to find novel things, things that, and it doesn't matter where that comes from, as long as the drug could be used to do something novel or something that nobody has ever thought of or it could help save lives, we go for it. However, you know, we could find something. We were lucky to find something like this flavanol that has never been in humans before. So it still qualifies as an NCE, actually, and because it's just a natural compound. So so in that sense, I would say maybe is not repurposing, but it's repositioning. I don't know from it being a natural compound to being something maybe useful for heart protection. </p><p><strong>Pek Lum: </strong>Now for our liver cancer compound, it is a total, totally brand-new compound. The initial compound that the engine found is actually a very, very old drug. But it was just a completely different thing and definitely not suitable for cancer patients the way it is delivered.</p><p><strong>Harry Glorikian: </strong>This is the AU 409?</p><p><strong>Pek Lum: </strong>Correct? Entirely new entity. New composition of matter. But the engine gave us the first lead, the first hit, and told us that we analyzed over a thousand liver tumors and probably over a thousand normal controls, found actually three subtypes, two of them the main subtypes and very interesting biology. And the engine predicted this compound that it thinks will work on both big subtypes. We thought this is interesting. But we look at the compound. You know, it's been in humans. It's been used. It's an old drug. But it could never be given to a cancer patient. And so and so our team, our preclinical development team basically took that and say, can we actually make this into a cancer drug? So we evaluated that and thought, yes, we can. So we can basically, we analogged it. It becomes a new chemical. Now it's water-soluble. We want to be given as a pill once a day for liver cancer patients. So so that's how we kind of, as each of the drug programs move forward, we make a decision, the humans make a decision, after the leadds us to that and say can we make it into a drug that can be given to patients?</p><p><strong>Harry Glorikian: </strong>So where does that program stand now? I mean, where is it in its process or its in its lifecycle?</p><p><strong>Pek Lum: </strong>Yeah, it's actually we are GMP manufacturing right now. It's already gone through a pre-IND meeting, so it's very exciting for us and it's got a superior toxicity profile. We think it's very well tolerated, let's put it that way. It could be very well tolerated. And it's it's at the the stage where we are in the GMP manufacturing phase, thinking about how to make that product and so on.</p><p><strong>Harry Glorikian: </strong>So that that begs the question of do you see the company as a standalone pharma company? Do you see it as a drug discovery partner that that works with somebody else? I'm you know, it's interesting because I've talked to other groups and they start out one place and then they they migrate someplace else. Right. Because they want the bigger opportunities. And so I'm wondering where you guys are.</p><p><strong>Pek Lum: </strong>Yeah, we've always wanted to be, I say we describe ourselves as a technology company, deep tech company with the killer app. And the killer app is drug discovery and development especially. And we've always thought about our company as a platform company, and we were never shy about partnering with others from the get go. So with our O18 our team, which is a cardioprotection drug, we out-licensed that really early, and it's found a home and now is being developed. And then we moved on to our liver cancer product, which we brought a little bit further. Now it's in GMP manufacturing. And we're actually looking for partners for that. And we have a prostate cancer compound in lead optimization that will probably pan out as well. So we see ourselves as being partners. Either we co-develop, or we out-license it and maybe one day, hopefully not too far in the future, we might bring one or two of our favorite ones into later stage clinical trials. But we are not shy about partnering at different stages. So we are going to be opportunistic because we really have a lot to offer. And also one thing that we've been talking to other partners, entrepreneurs, is that using our engine to form actually other companies, to really make sure the engine gets used and properly leveraged for other things that Auransa may not do because we just can't do everything.</p><p><strong>Harry Glorikian: </strong>No, that's impossible. And the conversation I have with entrepreneurs all the time, yes, I know you can do it all, but can we just pick one thing and get it across the finish line? And it also dramatically changes valuation, being able to get what I have people that tell me, you know, one of these days I have to see one of these A.I. systems get something out. And I always tell them, like, if you wait that long, you'll be too late.</p><p><strong>Harry Glorikian: </strong>So here's an interesting question, though. And jumping back to almost the beginning. The company was named Capella. And you change the name to Auransa.</p><p><strong>Pek Lum: </strong>That's right.</p><p><strong>Harry Glorikian: </strong>And so what's the story behind that? Gosh, you know.</p><p><strong>Harry Glorikian: </strong>When somebody woke up one morning and said, I don't like that name.</p><p><strong>Pek Lum: </strong>It's actually pretty funny. So we so we like to go to the Palo Alto foothills and watch the stars with the kids. And then one day we saw Capella. From afar, you look at it, it's actually one star. You look at closer, it's two stars. Then closer, it's four stars. It's pretty remarkable. And I thought, OK, we should name it Capella Biosciences. Thinking we are the only ones on the planet that are named. So we got Capella Biosciences and then probably, we never actually had a website yet. So we were just kind of chugging along early days and then we realized that there was a Capella Bioscience across the pond in the U.K. We said what? How can somebody be named Capella Bioscience without an S? So I actually called up the company and said, “Hey, we are like your twin across the pond. We're doing something a little different, actually completely different. But you are Capella Bioscience and I am Capella Biosciences. What should we do?” And they're like, “Well, we like the name.” We're like, “Well, we like it too.” So we kind of waited for a while. And but in the meantime, I started to think about a new name in case we need to change it. And then we realized that one day we were trying to buy a table, one of those cool tables that you can use as a ping pong table that also doubles as a as a conference room table. So we called up this New York City company and they said, oh, yeah, when are you going to launch the rockets into space. We're like what? So apparently, there's a Capella Space.</p><p><strong>Harry Glorikian: </strong>Yeah, OK.</p><p><strong>Pek Lum: </strong>Well, that's the last straw, because we get people tweeting about using our Twitter handle for something else. And so it's just a mess. So we've been thinking about this other name, and I thought this is a good name. <i>Au</i> means gold. And <i>ansa</i> is actually Latin for opportunity, which we found out. So we're like oh, golden opportunity. Golden answer. That kind of fits into the platform idea. Auransa sounds feminine. I like it. I'm female CEO. And I can get auransa.com. Nobody has Auransa. So that is how Auransa came to be.</p><p><strong>Harry Glorikian: </strong>Well, you got to love the…I love the Latin dictionary when I'm going through there and when I'm looking for names for a company, I've done that a number of times, so. Well, I can only wish you incredible success in your journey and what you're doing, it's such a fascinating area. I mean, I always have this dream that one day everybody is going to share all this data and we're going to move even faster. But I'm not holding my breath on that one when it comes to private companies. But it was great to talk to you. And I hope that we can continue the conversation in the future and watch the watch the progression of the company.</p><p><strong>Pek Lum: </strong>Thank you, Harry. This has been really fun.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p><p> </p><p> </p>
]]></description>
      <pubDate>Mon, 15 Mar 2021 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Pek Lum, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Pek Lum, co-founder, and CEO of Auransa believes that a lot fewer drugs would fail in Phase 2 clinical trials if they were tested on patients predisposed to respond. The problem is finding the sub-populations of likely high-responders in advance and matching them up with promising drug compounds. That’s Auransa's specialty.</p><p>The Palo Alto, CA-based drug discovery startup, formerly known as Capella Biosciences, has a pipeline of novel compounds for treating cancer and other conditions identified through machine learning analysis of genomic data and other kinds of data. It’s closest to the clinical trial stage with a gene expression modulator for liver cancer (AU-409) and is also working on drugs for prostate cancer and for protecting the heart against chemotherapy drugs. </p><p>The company says it discovered AU-409 as part of a broad evaluation of data sets on a range of close to 30 diseases. The company’s discovery process uses a platform called the SMarTR Engine that uses hypothesis-free machine learning to identify druggable targets and compounds as well as likely high-responder patients. Lum  calls it “interrogating gene expression profiles to identify patient sub-populations.” The company believes this approach can identify unexpected connections between diverse molecular pathways to disease, and that it will lead to progress in drug development for intractable conditions with poorly understood biology, including cancer and autoimmune, metabolic, infectious, and neurological diseases.</p><p>Lum co-founded Auransa with Viwat Visuthikraisee in 2014 and is the chief architect behind its technology. Before Auransa, she was VP of Product, VP of Solutions, and Chief Data Scientist at Ayasdi (now SymphonyAyasdiAI), a Stanford spinout known for building hypothesis-free machine learning models to detect patterns in business data. Before that, she spent 10 years as a scientific director at Rosetta Inpharmatics, a microarray and genomics company that was acquired by Merck. She has bachelor's and master's of science degrees in biochemistry from Hokkaido University in Japan and a Ph.D. in molecular biology from the University of Washington, where she studied yeast genetics.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p>•<strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, <i>MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market</i>. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p>For every drug candidate that makes it all the way through the three phases of clinical trials to win FDA approval, there are about 20 others that fail along the way. Phase 2, where drug makers have to prove that a new drug is safer or more effective than existing treatments, is where a lot of drugs falter.</p><p>But often, it’s not because the drugs don’t work. Sometimes it’s just because they weren’t tested on the right patients. Meaning, the people in the treatment group didn’t happen have the right genes or gene expression profiles to respond. If you <i>could</i> find enough patients who were likely high-responders and try your new drug just on them, your chances of approval might go way up. The tough part is identifying those subpopulations in advance and matching them up with promising drug compounds.</p><p>That’s where a company like Auransa comes in. It’s a Palo Alto startup that has built an AI platform called the SMarTR Engine. The engine uses public datasets on gene expression to identify subtypes of molecular diseases and predict what kinds of compounds might work against specific subtypes. Auransa used the engine to discover a drug for liver cancer that’s about to enter clinical trials. And it’s licensing out other drugs it discovered for prostate cancer and for protecting the heart against the effects of cancer chemotherapy.</p><p>Some of the ideas baked into the SMarTR Engine come from a sub-field of artificial intelligence called hypothesis-free machine learning. And joining us this week to explain exactly what that means is our guest Pek Lum. She’s a biochemist and molecular biologist who worked at the microarray maker Rosetta Inpharmatics and the software company Ayasdi before founding Auransa in 2014. And she says one of the real revolutions in drug development is that almost <i>every</i> disease can be divided up into molecular subtypes that can best be treated using targeted drugs.</p><p><strong>Harry Glorikian: </strong>Pek, welcome to the show.</p><p><strong>Pek Lum: </strong>Thank you. Pleasure to be here.</p><p><strong>Harry Glorikian: </strong>You know, I always try to ask this opening question when I start the show to give the listeners a good idea of of what your company does. But you guys are in in drug discovery. What tell us how people understand what is the basic approach that you guys have. And I'll get into the special sauce later. But what do you guys do in the drug discovery space?</p><p><strong>Pek Lum: </strong>No, that's a really great question in the sense that when we first started in about five years ago, we... I've always been in the drug discovery field in the sense that I worked for over 20 years ago at that time in a company called Rosetta Inpharmatics, which is really pushing the cutting edge of thinking about using molecular data. Right. And to solve the mysteries of biology. And I was extremely lucky to be one of the core members in when we were very small. And then that really kind of put me in the sense put me in the stage where I could think about more than just one gene. Right. Because the technology was just kind of getting really kind of I would say not rolling forward, like propelling forward, with microarrays.</p><p><strong>Harry Glorikian: </strong>Yes.</p><p><strong>Pek Lum: </strong>So I was part of the whole movement and it was really amazing to be kind of like, you know, in the show as it runs, so to speak. And so and then Merck bought us after we went public and worked for Merck and Co. for another eight years, really learning how technology, how we should apply technology, how we can apply technology, molecular data, RNA data, DNA data to a drug discovery pipeline. And really kind of figured out that there are many things that the pharmaceutical world does very well, but there are many things that it also fails in and that how can we do it better? So I've always been in the mindset of, when starting Auransa with my co-founder, How do we do it better? And not only just do it better, but do it very differently so that we can address the most, I would say critical problems. So Auransa is really a company started by us to address the problem of why drugs actually fail a lot when we go into a Phase II efficacy trial. Right. Is not like the drug is bad or toxic. And most of the time is you can find enough responders to make your clinical trial a success.</p><p><strong>Pek Lum: </strong>And that cause, I guess, drugs actually made to maybe against one target. You don't really think about the biology that much at the beginning or the biology responders. So Auransa was really created to think about first, the heterogeneity of the disease and the heterogeneity of patient response. So we start from looking at molecular data of the disease from the get go. We take RNA, is really the RNA world is coming back with the vaccines.</p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Pek Lum: </strong>And the RNA has always been fascinating because it tells you about the activity of the cell, of a normal cell versus a disease cell. So we use RNA transcriptomes right, transcriptomics to study the biology and the heterogeneity. So our algorithms, there are many algorithms, one of the first algorithms of the engine is really to look at the biology of heterogeneity, whether we can subdivide a disease into more homogeneous categories before doing anything.</p><p><strong>Harry Glorikian: </strong>Right. Yeah, I remember when, because when I was at Applied Biosystems, I remember Applied Biosystems, Affymetrix and then Stephen Friend starting this and like, you know, it was all starting back then. And I want to say we sort of had an idea of what we were doing, but compared to now, it's like, wow, how naive we were back then compared to how much this whole space has evolved. And it's interesting you mention, you know, RNA and its activity because in a couple of weeks, I'm actually going to be talking to a spatial genomics company so that you get a better idea from a visual standpoint of which cells are actually activating and which aren't.</p><p><strong>Harry Glorikian: </strong>But so, you've got an interesting professional career, and I say that because you were working at a big data analytics company for a while that was utilizing an approach that was hypothesis-free machine learning, where the machine was sort of identifying unique or aspects that you should be paying attention to. Maybe that it was seeing that instead of you going in there saying, let's just look over here, you could see what the machine was seeing for you. How much can you tell us a little bit about that experience? And then how did that influence what you're doing now? Because I have to believe that they superimpose at some level.</p><p><strong>Pek Lum: </strong>Right. I think, you know, ever since my first job at Rosetta and then my subsequent jobs really kind of culminated into this into this tech, as you see today. Right. All this experience and certainly experience while being a founding member of a small team at that time of Ayasdi, which is the software company, has been also an eye-opening experience for me because we were trying to create, using a very old mathematical idea called topology, or TDA, really start to figure out whether there's maybe there's some things that can't be learned. Right. And so typical machine learning methods need a training set or a test. But there are just some things where you don't really know what the ground truth is. So how do you do that? So that's the idea of like I say, the hypothesis-free approach. And the approach that that that the tech company, the software company that we built is really around the idea that not everything can be learned. But you can actually adapt some very interesting ideas around a hypothesis-free approach and then use it in a machine learning AI framework. So I definitely have been influenced by that thinking, you know, as I as we built the software.</p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Pek Lum: </strong>And also, when we were Rosetta, we were generating in parallel, data on thousands of genes. And often at that time we were called, "Oh, you're just going fishing," you know, but fishing is not a bad idea because you don't really know which part of the ocean you need to go to catch your Blue Marlin, for example, right?</p><p><strong>Harry Glorikian: </strong>Yeah, no, no, absolutely.</p><p><strong>Pek Lum: </strong>Fish a little bit, not the whole ocean, but, you know, to get some, I would say, boundaries. Right. So in that sense, to me, a hypothesis-free approach gives you the boundaries where you can look. So, you know, so the experience, definitely the idea that you can use methods or thinking, algorithms, that could help you in a field where you do not know the ground truth. Like patient heterogeneity, I would say nobody really can pinpoint and say, OK, I can say that, oh, this is THE subtype, these are THE markers. And therefore, I'm going to go after this. And there are many. I guess, for example, you can think of a Herceptin as a great example, right, but when you first started, you know, it was like, wow, OK, you're going to go after a target. And then the idea of really kind of subtyping breast cancer, you know, I don't know, 20, 30 years ago. Right. And we're still learning about, you know, in a patient heterogeneity and we're just beginning to scratch the surface. So for Auransa, we wanted to use a method very much like the thinking that and the idea that we had, you know, when we were when I was at Ayasdi, is that you could search with some parameters, you know, a very complex space without needing to say, this is my hypothesis. This is that one gene, because we all know that if you have a target, you know ... to have to respond you need the target. But if you have the target, it doesn't mean you're going to respond. Because things below the target or above the target are much more complex than that.</p><p><strong>Harry Glorikian: </strong>Correct. And I always feel that there's, you know, I always call them low hanging fruit. Like the first one is, OK, well, it's either luck or skill, but I got to one level. But then you start to see people that are not responding. So that means something else is going on and there's subtypes. Right. So it's funny how we always also call it "rare diseases" in these smaller population. I'm pretty convinced that at some point everything is going to be a rare disease. Right. Because of the subtypes that we're going to start to see. I mean, even we're seeing in a neurological now, or Alzheimer's. There's subtypes of Alzheimer’s. No! Really? Shocking. Amazing to me that there's subtypes. Right. We've been dealing with this for ages. And I do believe that these technologies are so good at highlighting something where a human might not have seen it, might not have understood it. You know, I was I was interviewing actually I just posted it today on imaging and agriculture. And they were saying that sometimes the machine sees things that we don't fully understand how it sees it, but it sees it and points it out, which allows us now to dig into it and be able to sort of identify what that unique feature is that the machine has pulled out. I'm not sure I want drug discovery and drugs being based on something we don't fully understand, but the machine highlighting something for us that then we can go dig into, I think is an interesting greenfield space that that we need to explore more.</p><p><strong>Pek Lum: </strong>Right. I think you're absolutely right. You know, when we first started Auransa, that was the idea that we had. And then my co-founder and I thought, what if we find like hundreds of subtypes? We're never going to be able to make a drug again a hundred subtypes. So let's hope we find a small enough number of buckets that we can say this is approximately what it looks like, to be able to be practical to find drugs against those subtypes. So when we talk about subtypes, we are talking about you're absolutely right, it's like a leaf on a tree and that we have to cut it off at one point. Enough that things that, OK, this is homogeneous enough that actually makes sense out of it. And that's where the engine, that's what the engine does. Basically, it takes data, very, very complex data, things that we could never figure that out ourselves and say this approximately five, six buckets. So we've actually not found hundreds of subtypes, otherwise we probably would not have started Auransan, because it would have been impossible. But instead, we find n of one, but maybe a five to seven subtypes at most. That is enough for us to say, the machine says, OK, it is homogeneous enough, go for this. So that's kind of where we are, where we start at Auransa. And I think that's an important concept because people often thought about precision medicine as being, oh, I'm going to make a medicine for you and you only. But actually you could learn from, say, breast cancer, and that's approximately people with estrogen-receptor-positive tumors. And then you will likely respond to a drug like Tamoxifen. And even though we know that the response rate is only about, I think maybe 30, 40 percent. Right. But that's really good. At least at this poibt. So that's where we how we think about the engine as a shining light on a homogeneous enough population that we can actually make a drug against that.</p><p><strong>Harry Glorikian: </strong>Yeah. So that sort of leads us into you have this technology that you've termed SMarTR, S-M-A-R-T-R engine. Right. What does that stand for?</p><p><strong>Pek Lum: </strong>You know, that's my one of my rare occasion where I put my marketing hat on. I don't like marketing all. And we so and you notice the Mar is big-M, little-a-r. So S is for Subpopulation. Markers. Targets. And Redefining. Because I needed it to be Smartr.</p><p><strong>Harry Glorikian: </strong>Ok, ok. So and when you like when you've described this in the papers that I've looked at it, it's a machine learning mathematical statistical approaches, highly automated and totally runs in the cloud. So can you give us a little more color on the sort of the highly automated, and why is that so important?</p><p><strong>Pek Lum: </strong>Right. It's important because it comes from my own experience of working with, like, amazingly talented implementations and data scientist at the at Merck or I know how it goes where biologists will often ask them for something and they would run their magic and they'd give us an Excel sheet or a PowerPoint. Right. It's always a one-off one of those and one of that because you know, biologists are kind of one-off. So the idea of of us building this engine is not just equipping it with algorithms. So first of all, we don't have one algorithm, a hammer looking for a nail. We have a problem to solve. The problem is how to find novel drugs, drugs that people have never thought about, for patient populations that will respond.</p><p><strong>Pek Lum: </strong>So with that in mind, we built a pipeline of algorithms that starting from thinking about heterogeneity, to understanding preclinical models that reflect the biology of human subtypes, to predicting drugs and targets for those, and getting biomarkers for the patients when we go to the clinic. And we have different algorithms for each step of the pathway. So instead of having my team do a one-off thing, we know that if we don't do good software engineering it's going to be problematic because first it's going to take a really long time. This will be kind of higgledy piggledy in Excel sheets and we might be able to solve one thing. But to do this as a platform and as a pipeline builder, it would be impossible without good engineering practices. So we wanted to put this in, like I say, in a framework where everything is connected, so where it gets to run faster and faster through better algorithms, through better software engineering. And this really kind of came from my experience to at Ayasdi, a software engineering, a software firm. And also my co-founder who is a physicist and a software engineer, that we need to have good software practices. So what we did was we built first. We don't want any servers. Everything is done on AWS and is done in modules. So we create algorithms for each part of the pipeline, of the <i>in silico</i> pipeline. And then we have in such a way that when we take data in, when we ingest data, that we also automate it, and then by the time it ingest data and it spits out, I would say, what subtypes of disease, what biomarkers could be used in the clinic, what targets are interesting to you, what compounds from our digital library of compounds may be effective for that. Everything is more or less connected and could be done up in the cloud and now it finishes in about 24 hours.</p><p><strong>Harry Glorikian: </strong>When do humans look at it to say hmmm, makes sense. Or maybe we need to tweak the model a little. Right. Because it's not making sense. When does that happen?</p><p><strong>Pek Lum: </strong>So we, it happens at several steps. So within our engine we actually have benchmarks in there that we run periodically. You know, for example we have about about eight to ten data sets that we have for breast cancer, thousands of patient tumors. And we know approximately that it should be discovering, and it has discovered ER+ flavored subtypes, ERBB2, HER2+ subtypes, triple negative subtypes. So that is kind of like the rails that we put into our engine as well to make sure that when we actually do tweak an algorithm, it still has its wheels. But what we do is at this point, we generate out all the in-between data, but it's kept on the cloud. And once it's up, when it outputs the the list of things, the biologists actually, I would say the biologists with a knack for computation, we look at it and I myself look at it. I love to do data analysis in my spare time when I'm not doing CEO stuff. And we can see that we will look at once it's done that it also allows you...Ok, so this is an interesting one. The engine on the cloud outputs all of this. And right now, let's say my CSO, who is not a computational person, or me, or whoever really would be kind of a big pain to kind of go up and install the stuff and look at the things, some things you can't see. So what we did as a company is to build another kind of software, which is the visualization software on top of that.</p><p><strong>Pek Lum: </strong>So we have on our other end a visualization software that we call Polo because it's exploring that basically connects everything the SMarTR engine has done into something that's visualizable. It has a URL, we go to it and let's say, for example, my CSO wants to know, OK, the last one you did on head and neck cancer, you know, how many subtypes did you find? What is the biology, what's the pathway? And it could do all of that by him just going then looking at things. Or he can actually type in his favorite gene and then see what the favorite gene actually is predicted for how it behaves across over 30 diseases, and you can do that all at his fingertips, so we have that part of the engine as well, which is not the engine. We call it Polo, which is our visualization platform.</p><p><strong>Harry Glorikian: </strong>Right. It's funny because one of the first times I interviewed Berg Pharma and they were talking about their system, I was like, if you put on a pair of VR glasses, could you see the interconnectivity and be able to look in a spatial.... I was on another planet at the time, but it was a lot of fun sort of thinking about how you could visualize how these things interact to make it easy. Because human beings I mean, you see a picture. Somehow we're able to process a picture a lot faster than all this individual data. I think it... I just slow down. I rather look at a visual if it's possible.</p><p><strong>Pek Lum: </strong>It is so important because, you know, even though the engine is extremely powerful now, takes it 24 hours to finish from data input to kind of spitting out this information that we need. Visualization and also like the interpretation and just kind of making sure kind of like the human intelligence. Can I keep an eye on things. The visualization platform is so, so important. That's why I feel like that we did the right thing in making and taking time, putting a bit of resources to make this visualization platform for our preclinical team who actually then needs to look at it and go, OK, these are the drugs that are that are predicted by the engine. Can we actually have an analog of it or does it have development legs? Does it make sense? Does the biology makes sense. And so now we're basically connected everything. So you can click on a, you can find a drug in a database and it will pop up, you know, the structure and then it will tell you, hey, this one has a furan ring. So maybe you might want to be careful about that. This one has a reactive oxygen moiety. You might want to be careful about that. As we grew the visualization platform, we got feedback from the users. So we put more and more things in there, such that now it has a little visualization module that you can go to. And if you ever want to know something, I can just, I don't have to email my data scientist at 1:00 am in the morning saying, hey, can you send me that Excel sheet that has that that particular thing on it that I want to know from two weeks ago? I can just go to Auransa's Polo, right? As long as I have wi-fi. Right. And be able to be self-sufficient and look at things and then ask them questions if things look weird or, you know, talk to my CEO and say, hey, look at this. This is actually pretty interesting. And this one gets accessed by anybody in Auransa as long as you have Wi-Fi.</p><p><strong>Harry Glorikian: </strong>So so it's software development and drug development at the same time. Right. It's interesting because I always think to myself, if we ever, like, went back and thought about how to redo pharma, you'd probably tear apart the existing big pharma. Other than maybe the marketing group, right, marketing and sales group, you tear apart the rest of it and build it completely differently from the ground up? It was funny, I was talking to someone yesterday at a financial firm, a good friend of mine, and it's her new job and she's like, my job is to fully automate the back to the back end and the middle and go from 200 people down to 30 people because we're fully automating it. I'm like, well, that sounds really cool. I'm not really thrilled about losing the other 170 people. But with today's technology, you can make some of these processes much more automated and efficient. So where do you get your data sets that you feed your programs?</p><p><strong>Pek Lum: </strong>Yeah, let me tell you this. We are asked this a lot of times. And just kind of coming back again for my background as an RNA person. Right. One thing that I think NIH and CBI did really well over 20 years ago is to say, guys, now we no longer doing a one gene thing. We have microarrays and we're going to have sequencing. There's going to be a ton of data. We need to start a national database. Right. And it will enable, for anybody that publishes, to put the data into a coherent place. And even with big projects like TCGA, they need things that could be accessed. Right. So I think it is really cool that we have this kind of, I would say, repository. That unfortunately is not used by a lot of people because, you know, everything goes in. That's a ton of heterogeneity. So when we first started the company, before we even started the company, we thought about, OK, where is it that we can get data? We could spend billions of dollars generating data on cells, pristine data, but then it would never represent what's in the clinical trials without what's out there in the human the human world, which is the wild, wild west. Right. Heterogeneity is abundant. So we thought, aha, a repository like, you know, like GEO, the Gene Expression Omnibus, right, and ANBO or TCGA allows this kind of heterogeneity to come in and allows us the opportunity to actually use the algorithms which actually have algorithms that we look for. We actually use to look for heterogeneity and put them into homogeneity. These kind of data sets. So we love the public data sets. So because it's free, is generated by a ton of money. It is just sitting there and it's got heterogeneity like nobody's business. Like you could find a cohort of patients that came from India, a cohort of patients that came from North Carolina, and group of patients that came from Singapore and from different places in the US and different platforms. So because the algorithms at first that studied heterogeneity is actually, I would say, platform independent, platform agnostic, we don't use things that are done 20 years ago. They were done yesterday. And what we do is we look at each one of them individually and then we look for recurrent biological signals. So that's the idea behind looking for true signals, because people always say, you go fishing, you may be getting junk out. Right?</p><p><strong>Pek Lum: </strong>So let's say, for example, we go to, the engine points to a spot in the sea, in the ocean, and five people go, then you're always fishing out the same thing, the Blue Marlin, then you know that there is something there. So what we do is we take each data set, runs it through an engine and say these are the subtypes that I find. It does the same thing again in another data set and say these are the things that I find. And then it looks for recurrence signals, which is if you are a artifact that came from this one lab over here, or some kind of something that is unique to this other code over there, you can never find it to be recurrent. And that's a very weird, systematic bias, you know, so so because of that, we are able to then very quickly, I would say, get the wheat and throw away the chaff. Right. And basically by just looking by the engine, looking at looking for recurring signals. So public data sets is like a a treasure trove for Auransa because we can use it.</p><p><strong>Harry Glorikian: </strong>So you guys use your engine to I think you identified something unexpected, a correlation between plant-derived flavonoid compound and the heart. I think it was, you found that it helps mitigate toxic effects in a chemotherapy drug, you know. Can you say more about how the system figured that out, because that sounds not necessarily like a brand-new opportunity, but identifying something that works in a different way than what we thought originally.</p><p><strong>Pek Lum: </strong>Right, exactly. So in our digital library, let me explain a little bit about that. We have collected probably close to half a million gene expression profiles. So it's all RNA gene expression based, representing about 22,000 unique compounds. And these are things that we might generate ourselves or they are in the public domain. So any compound that has seen a live cell is fair game to our algorithms. So basically you put a compound, could be Merck's compound, could be a tool compound, could be a natural compound, could be a compound from somewhere. And it's put on a cell and gene expression was captured. And those are the profiles or the signatures that we gather. And then the idea is that, because remember, we have this part of the engine where we say we're going to take the biology and study it and then we're going to match it or we're going to look for compounds or targets. When you knock it down, who's gene expression actually goes the opposite way of the the disease. Now, this is a concept that is not new, right. In the sense that over 20 years ago, I think Rosetta probably was one of the first companies that say, look, if you have a compound that affects the living cell and it affects biology in a way that is the opposite of your disease, it's a good thing. Right thing. So that's the concept. But, you know, the idea then is to do this in such a way that you don't have to test thousands of compounds.</p><p><strong>Harry Glorikian: </strong>Right.</p><p><strong>Pek Lum: </strong>That is accurate enough for you to test a handful. And that's what we do. And by putting the heterogeneity concept together with this is something extremely novel and extremely important for the engine. And so with this kind of toxicity is actually an interesting story. We have a bunch of friends who are spun off a company from Stanford and they were building cardiomyocytes from IPS cells to print stem cells. And they wanted to do work with us, saying that why do we work together on a cool project? We were just starting out together and we thought about this project where it is a highly unmet medical need, even though chemotherapy works extremely well. Anthracyclines, it actually takes heart, takes a toll. There is toxicity and is it's a known fact. And there's only one drug in the market and a very old drug in the market today. And there is not much attention paid to this very critical aspect. So we thought we can marry the engine. At that time were starting up with oncology. We still we still are in oncology, and they were in cardiomyocytes. So we decided to tackle this extremely difficult biology where we say, what is a how does chemotherapy affect heart cells and what does the toxicity look like? So the engine took all kinds of data sets, heart failure data sets, its key stroke and cells that's been treated with anthracyclines. So a ton of data and look for homogeneity and signals of the of the toxicity.</p><p><strong>Pek Lum: </strong>So this is a little bit different from the disease biology, but it is studying toxicity. And we then ask the engine to find compounds that we have in our digital library, that says that what is the, I would say the biology of these compounds when they hit a living cell that goes the opposite way of the toxicity. And that's how we found, actually we gave the company probably about seven, I forget, maybe seven to 10 compounds to test. The one thing that's really great about our engine is that you don't have to test thousands of compounds and it's not a screen because you screened it in silico. And then it would choose a small number of compounds, usually not usually fewer than 30. And then we able to test and get at least a handful of those that are worth looking into and have what they call development legs. So this I would say this IPSC cardiomyocyte system is actually quite complex. You can imagine that to screen a drug that protects against, say, doxorubicin is going to be a pretty complicated screen that can probably very, very hard to do in a high throughput screen because you have to hit it with docs and then you have to hit it with the compounds you want to test and see whether it protects against a readout that is quite complex, like the beating heart.</p><p><strong>Pek Lum: </strong>And so we give them about, I think, seven to 10 and actually four of them came out to be positive. Pretty amazing. Out of the four, one of them, the engine, noticed that it belonged to a family of other compounds that looked like it. So so that was really another hint for the the developers to say, oh, the developers I mean, drug developers to say, this is interesting. So we tested then a whole bunch of compounds that look like it. And then one of them became the lead compound that we actually licensed to a a pharma company in China to develop it for the Chinese market first. We still have the worldwide rights to that. So that's how we tackled toxicity. And I think you might have read about another project with Genentech, actually, Roche. We have a poster together. And that is also the same idea, that if you can do that for cardio tox, perhaps you can do it for other kinds of toxicity. And one of them is actually GI tox, which is a very common toxicity. Some of them are rate limiting, you might have to pull a drug from clinical trials because there's too much GI tox or it could be rate limiting to that. So we are tackling the idea that you can use to use machine, our engine, to create drugs for an adjuvant for a disease, a life-saving drug that otherwise could not be used properly, for example. So that's kind of one way that we have to use the engine just starting from this little project that we did with the spin out, basically.</p><p><strong>Pek Lum: </strong>So basically, you're sort of, the engine is going in two directions. One is to identify new things, but one is to, I dare say, repurpose something for something that wasn't expected or wasn't known.</p><p><strong>Pek Lum: </strong>That is right. Because it doesn't really know. It doesn't read papers and know is it's a repurposed drug or something. You just put in it basically, you know, the gene expression profiles or patterns of all kinds of drugs. And then from there, as a company, we decided on two things. We want to be practical, right. And then we want to find novel things, things that, and it doesn't matter where that comes from, as long as the drug could be used to do something novel or something that nobody has ever thought of or it could help save lives, we go for it. However, you know, we could find something. We were lucky to find something like this flavanol that has never been in humans before. So it still qualifies as an NCE, actually, and because it's just a natural compound. So so in that sense, I would say maybe is not repurposing, but it's repositioning. I don't know from it being a natural compound to being something maybe useful for heart protection. </p><p><strong>Pek Lum: </strong>Now for our liver cancer compound, it is a total, totally brand-new compound. The initial compound that the engine found is actually a very, very old drug. But it was just a completely different thing and definitely not suitable for cancer patients the way it is delivered.</p><p><strong>Harry Glorikian: </strong>This is the AU 409?</p><p><strong>Pek Lum: </strong>Correct? Entirely new entity. New composition of matter. But the engine gave us the first lead, the first hit, and told us that we analyzed over a thousand liver tumors and probably over a thousand normal controls, found actually three subtypes, two of them the main subtypes and very interesting biology. And the engine predicted this compound that it thinks will work on both big subtypes. We thought this is interesting. But we look at the compound. You know, it's been in humans. It's been used. It's an old drug. But it could never be given to a cancer patient. And so and so our team, our preclinical development team basically took that and say, can we actually make this into a cancer drug? So we evaluated that and thought, yes, we can. So we can basically, we analogged it. It becomes a new chemical. Now it's water-soluble. We want to be given as a pill once a day for liver cancer patients. So so that's how we kind of, as each of the drug programs move forward, we make a decision, the humans make a decision, after the leadds us to that and say can we make it into a drug that can be given to patients?</p><p><strong>Harry Glorikian: </strong>So where does that program stand now? I mean, where is it in its process or its in its lifecycle?</p><p><strong>Pek Lum: </strong>Yeah, it's actually we are GMP manufacturing right now. It's already gone through a pre-IND meeting, so it's very exciting for us and it's got a superior toxicity profile. We think it's very well tolerated, let's put it that way. It could be very well tolerated. And it's it's at the the stage where we are in the GMP manufacturing phase, thinking about how to make that product and so on.</p><p><strong>Harry Glorikian: </strong>So that that begs the question of do you see the company as a standalone pharma company? Do you see it as a drug discovery partner that that works with somebody else? I'm you know, it's interesting because I've talked to other groups and they start out one place and then they they migrate someplace else. Right. Because they want the bigger opportunities. And so I'm wondering where you guys are.</p><p><strong>Pek Lum: </strong>Yeah, we've always wanted to be, I say we describe ourselves as a technology company, deep tech company with the killer app. And the killer app is drug discovery and development especially. And we've always thought about our company as a platform company, and we were never shy about partnering with others from the get go. So with our O18 our team, which is a cardioprotection drug, we out-licensed that really early, and it's found a home and now is being developed. And then we moved on to our liver cancer product, which we brought a little bit further. Now it's in GMP manufacturing. And we're actually looking for partners for that. And we have a prostate cancer compound in lead optimization that will probably pan out as well. So we see ourselves as being partners. Either we co-develop, or we out-license it and maybe one day, hopefully not too far in the future, we might bring one or two of our favorite ones into later stage clinical trials. But we are not shy about partnering at different stages. So we are going to be opportunistic because we really have a lot to offer. And also one thing that we've been talking to other partners, entrepreneurs, is that using our engine to form actually other companies, to really make sure the engine gets used and properly leveraged for other things that Auransa may not do because we just can't do everything.</p><p><strong>Harry Glorikian: </strong>No, that's impossible. And the conversation I have with entrepreneurs all the time, yes, I know you can do it all, but can we just pick one thing and get it across the finish line? And it also dramatically changes valuation, being able to get what I have people that tell me, you know, one of these days I have to see one of these A.I. systems get something out. And I always tell them, like, if you wait that long, you'll be too late.</p><p><strong>Harry Glorikian: </strong>So here's an interesting question, though. And jumping back to almost the beginning. The company was named Capella. And you change the name to Auransa.</p><p><strong>Pek Lum: </strong>That's right.</p><p><strong>Harry Glorikian: </strong>And so what's the story behind that? Gosh, you know.</p><p><strong>Harry Glorikian: </strong>When somebody woke up one morning and said, I don't like that name.</p><p><strong>Pek Lum: </strong>It's actually pretty funny. So we so we like to go to the Palo Alto foothills and watch the stars with the kids. And then one day we saw Capella. From afar, you look at it, it's actually one star. You look at closer, it's two stars. Then closer, it's four stars. It's pretty remarkable. And I thought, OK, we should name it Capella Biosciences. Thinking we are the only ones on the planet that are named. So we got Capella Biosciences and then probably, we never actually had a website yet. So we were just kind of chugging along early days and then we realized that there was a Capella Bioscience across the pond in the U.K. We said what? How can somebody be named Capella Bioscience without an S? So I actually called up the company and said, “Hey, we are like your twin across the pond. We're doing something a little different, actually completely different. But you are Capella Bioscience and I am Capella Biosciences. What should we do?” And they're like, “Well, we like the name.” We're like, “Well, we like it too.” So we kind of waited for a while. And but in the meantime, I started to think about a new name in case we need to change it. And then we realized that one day we were trying to buy a table, one of those cool tables that you can use as a ping pong table that also doubles as a as a conference room table. So we called up this New York City company and they said, oh, yeah, when are you going to launch the rockets into space. We're like what? So apparently, there's a Capella Space.</p><p><strong>Harry Glorikian: </strong>Yeah, OK.</p><p><strong>Pek Lum: </strong>Well, that's the last straw, because we get people tweeting about using our Twitter handle for something else. And so it's just a mess. So we've been thinking about this other name, and I thought this is a good name. <i>Au</i> means gold. And <i>ansa</i> is actually Latin for opportunity, which we found out. So we're like oh, golden opportunity. Golden answer. That kind of fits into the platform idea. Auransa sounds feminine. I like it. I'm female CEO. And I can get auransa.com. Nobody has Auransa. So that is how Auransa came to be.</p><p><strong>Harry Glorikian: </strong>Well, you got to love the…I love the Latin dictionary when I'm going through there and when I'm looking for names for a company, I've done that a number of times, so. Well, I can only wish you incredible success in your journey and what you're doing, it's such a fascinating area. I mean, I always have this dream that one day everybody is going to share all this data and we're going to move even faster. But I'm not holding my breath on that one when it comes to private companies. But it was great to talk to you. And I hope that we can continue the conversation in the future and watch the watch the progression of the company.</p><p><strong>Pek Lum: </strong>Thank you, Harry. This has been really fun.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p><p> </p><p> </p>
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      <itunes:title>Auransa&apos;s Pek Lum on Using Machine Learning to Match New Drugs with the Right Patients</itunes:title>
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      <itunes:summary>Pek Lum, co-founder, and CEO of Auransa believes that a lot fewer drugs would fail in Phase 2 clinical trials if they were tested on the patients most predisposed to respond. The problem is finding the sub-populations of likely high-responders in advance and matching them up with promising drug compounds. That’s Auransa&apos;s specialty.</itunes:summary>
      <itunes:subtitle>Pek Lum, co-founder, and CEO of Auransa believes that a lot fewer drugs would fail in Phase 2 clinical trials if they were tested on the patients most predisposed to respond. The problem is finding the sub-populations of likely high-responders in advance and matching them up with promising drug compounds. That’s Auransa&apos;s specialty.</itunes:subtitle>
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      <title>Eight Sleep Matteo Franceschetti Says it&apos;s time for a Smarter Mattress to improve your health</title>
      <description><![CDATA[<p>This week Harry talks with Matteo Franceschetti, founder and CEO of the Khosla Ventures-backed startup Eight Sleep. The company' smart mattress, called the Pod, is one of the latest (and largest) entries in the burgeoning market for home digital-health devices.</p><p>The Pod is designed to counteract body heat and provide a surface that stays cool all night, on the theory that people sleep better when it’s cool or cold. It includes four layers of foam topped by an “Active Tech Grid Cover” that includes sensors to detect body temperature, breathing patterns, heartbeat, and tossing and turning, as well as a network of tubes that silently carry water through the cover, regulating temperature for each side of the mattress. </p><p>The New York, NY-based company  has raised more than $70 million from big Silicon Valley firms including Khosla Ventures, Founders Fund, and Y Combinator and has roughly 60 employees around the world. Franceschetti, a former competitive ski racer, tennis player, race car driver, and attorney, has said that he thinks of Eight Sleep not as a mattress company but as an “end-to-end platform for sleep."</p><p>The Pod comes with a free smartphone app that controls the grid cover and aggregates data it collects—such as resting heart rate, respiratory rate, sleep stages, sleep time, and heart rate variability—into a daily sleep fitness score, which gets charted over time. The company aims to use the data to coach mattress owners toward healthier habits that maximize their quality sleep time. A smart mattress can do this better than a smart ring or smart watch, Franceschetti says, because it's got more space for sensors, and "there's nothing to wear and nothing to charge."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p>There’s a saying among startup entrepreneurs that sleep is just a symptom of caffeine deprivation.</p><p>But seriously, even software coders need a solid seven or eight hours of sleep every night, or else they’re at higher risk for a whole range of health problems, like diabetes, cardiovascular disease, obesity, and depression. If you have chronic insomnia or sleep apnea, like me, you know how rotten the next day feels when you haven’t slept well. </p><p>And the bad news is that thanks to the coronavirus pandemic, it’s even harder for a lot of us to get a good night’s sleep. In a survey from late last year, 44 percent of people said they were sleeping worse since the pandemic started, and only 10 percent said they were sleeping better.</p><p>But the good news is that innovators are thinking about how to use technology to help us sleep better. In a show last August I talked with the CEO of Oura, which makes a ring that tracks your heart rate, breathing rate, body temperature, and movement while you sleep and reports back with a daily sleep score. And this week we’re going to hear from a company called Eight Sleep that wants to turn your <i>whole mattress</i> into a giant sleep monitor.</p><p>The CEO of Eight Sleep is an Italian entrepreneur named Matteo Franceschetti. And he says his fascination with sleep goes back to his days as an athlete, when he was focused on how to optimize his resting time to recover from workouts as fast as possible. If Elon Musk can go to Mars, Matteo says, why should we settle for spending a third of our lives on a dumb piece of foam?</p><p>Eight’s mattress is literally blanketed with sensors that track your heart rate, your body temperature, and your night-time tossing and turning and send all the data to a smartphone app. It also has a layer that acts a little like the coils in your refrigerator or the radiator in your car. It uses circulating water to keep the top of the mattress at the best temperature for sleeping. </p><p>Matteo says a smart mattress could not only help you sleep better, but could also become a preventative health aid, analyzing patterns in your sleep to catch conditions like arrhythmia, sleep apnea, and even covid-19. And his big Silicon Valley investors must be equally optimistic—because they’ve put more than $70 million into the company. Here’s my interview with Matteo.</p><p><strong>Harry Glorikian: </strong>Matteo, welcome to the show.</p><p><strong>Matteo Franceschetti: </strong>Thank you for having me.</p><p><strong>Harry Glorikian: </strong>No, it's great to have you on. I'm. Really curious and hoping that the listeners of the show really sort of enjoy this segment because sleep is actually something important to me. Somehow I don't seem to get enough of it or get quality time of it, But let me start by your background, because I was sort of trying to keep up with all the all the moves that you've made. I think it was like I was seeing a racecar driver skier, investment banking lawyer, I mean, it was a whole bunch of different moves that I want to make sure that I got right. But give us a quick version of your your biography as an entrepreneur.</p><p><strong>Matteo Franceschetti: </strong>Yes, so when I was a teenager, I was an athlete, so I was doing tennis tournaments, the ski races, and I also race with cars, I did the European Hill climbing races with Audi and some other stuff. So that was my passion at the time. Then I became a business lawyer, a boring business lawyer, working. I was working at two of the largest law firms [in Europe], both of them in the UK. So between Milan and London. And then there was finally an opportunity to become an entrepreneur in Italy. And I say finally, because it's really, really hard to raise money in Italy. So unless you find an opportunity that it's substantially profitable since day one, you couldn't become unless, yes, you have other opportunities, which I didn't have. So I was able to start a company there. It was in solar and we were developing large utility scale solar plants. It did reasonably well. It was profitable. Then we sold it. I Came to the US and I did the same thing again, which then got acquired. And then I finally started Eight.</p><p><strong>Harry Glorikian: </strong>So, the smart mattress business - why? Like, did it just came to you, all of a sudden? Bad sleep? What drove you to this business?</p><p><strong>Matteo Franceschetti: </strong>Yeah, so and probably we'll talk about that. But our long term vision is the mattress is really a commodity for us as a form factor. We are really a digital health company and we are improving performance, which if you think really goes back to my background as an athlete, really focused on recovering as fast as possible. And so a certain point I started looking at my bed and I sat there wondering why I was spending a third of my life on a piece of foam. And Elon Musk is taking me to Mars. It's technology everywhere. But then I'm still now waiting every night and there on this piece of foam hoping to recover. And I say why there is no technology? How can we build the technology that will help me recover as fast as possible? And that is how everything started.</p><p><strong>Harry Glorikian: </strong>So tell me then, you know, what's wrong with the mattress technology today? I mean, you know, when you go to some of these stores, there's like all sorts of, quote, fancy technologies or materials that are being put together. And they're, you know, you lay on the bed and they give you a thermal image, which is maybe useful. But, you know, in general, I think it's it's a lot of I can't say it on the air, but not a positive dynamic when it comes to the mattress industry. So what is it about the industry? Is it you know, it's overcrowded. It's got names like Casper. What's the opportunity you see?</p><p><strong>Matteo Franceschetti: </strong>So I think there are a couple of problems. And I talk about sleep. I don't I, I don't even talk much about the mattress market itself, but, so for 2,000 years, the way wesleep didn't change. If you read the history of people in 2,000 years ago, they were going somewhere and expect them to wake up seven to nine hours later. So there was no improvement. So there is no technology in sleep. That is the first point. The last innovation in sleep was memory foam, invented in 1960, which is just another piece of foam just with different properties. And so we let's say we live 100 hundred years. We are going to spend 33 years of our life on this form. And what we believe it is to instead is that through software and hardware, we can leverage the power of technology to improve our sleep. And actually we want to achieve two things. First, what if we could sleep, what if we could compress sleep? What if you could sleep only six hours and get more rest than when you were sleeping eight hours? First. And second is during those six hours, can we scan your body? Can your bed become a medical device that scans your body every single night in order to let you know if there is anything wrong? What if we could detect early signs of cancer while you are asleep and provide this data to your doctor? That's what we are building.</p><p><strong>Harry Glorikian: </strong>Ok, I'm curious to get there at some point, and if I could only sleep for six hours, I could get a lot more things done during the day, that's for sure. Maybe even write a whole other book. Your first product, though, was a top layer of sensors that sort of fit over the mattress. And then you eventually migrated to putting the sensors into the mattress and then you added thermoregulation. So what was what was that evolution over time and. What drove you to sort of add the next feature?</p><p><strong>Matteo Franceschetti: </strong>Yeah, we knew from the beginning, so we analyze things from the beginning how we can compress your sleep. So how can we help you sleep faster? And we knew since from the beginning that the big elephant in the room is temperature. At the time, we were a small startup and we understood that first, that we have to start tracking your data and become really good at data. And then based on the data, we could develop a dynamic modulation system that could adjust the temperature based on your sleep stages and biometrics. So it was just connecting the dots. We already knew at the time where we wanted to go. We just now decided to focus our priorities first on data, then dynamic thermoregulation, and now new products will come and they will manage other environmental factors and but associated with the bed.</p><p><strong>Harry Glorikian: </strong>You also have an app, right? And I assume that that's the brains. The bed is sort of more of the lower level thinking, whereas most of the thinking happens on the app and then there's got to be a cloud connection that sort of pulling it all together. So was this part of the vision from the beginning, was, that app as an integral part of it?</p><p><strong>Matteo Franceschetti: </strong>Yeah. So the the bed does two things. It collects the data and obviously it changes the temperature. Everything, the whole intelligence, the computing power is on the cloud where we are running a lot of different servers with a lot of computational power. And the app is the tool for you to see your data and to control your device and to be coached, because there is also the whole part of sleep coaching that we provide to the app.</p><p><strong>Harry Glorikian: </strong>So, OK, I mean, I have an Apple Watch. I think you're wearing an Apple Watch, right? I mean, I've talked to the CEO of Harpreet at Oura. And there's all these different devices. What makes the sensor-filled mattress better than any one of these? Or maybe is a combination of the two that get you to a better data analytic score.</p><p><strong>Matteo Franceschetti: </strong>Yes, a couple of differences. The first one in our case, you don't have to wear or charge anything, you go to bed as you did last night, and tomorrow you wake up and you have all your heart rate data, respiration rate and sleep. So nothing to wear and nothing to charge. Second, because of the form factor of our device, which is a bed, we have a lot of space. And so over time we can start adding many more sensors than a wearable could not add, even Apple, just because of space. But the most important difference is for us, data is not the end point like most other wearables. The wearable, all they can do, is they collect data numbers and based on the data they will use our recommendations. For us the data, again, is not the end point, it is the starting point, because based on the data, we can change the temperature for you to help you fall asleep faster, get 20 percent more deep sleep, get more rest, less tosses and turns and less wake ups. In the future, we will control more environmental factors that will adjust in real time based on your data. So we are going to do the work for you, not just us telling you what you should do. We are going to do it for you and you will see the benefits.</p><p><strong>Harry Glorikian: </strong>[Well, that's what I was thinking. I was thinking like the latest Apple Watch also has blood oxygen on it. Right. And so I'm not sure you could incorporate a blood pulseox into the mattress, but that may be another data point that lets you know what's happening with the person that sleeping and then it's connected to the thermostat on the wall. And not only do you control the bed, but you can control the entire environment in the room. So regarding the app, what do you think are the most important functions you have on that, that that interacts with somebody and sort of influences what they do or maybe what's happening in the background that they can't see?</p><p><strong>Matteo Franceschetti: </strong>Yeah, so there are three critical or three key dimensions in the app. First, the thermal regulation part, right, Where we got your feedback and we keep adjusting temperature to maximize your sleep. Secondly is the whole sleep data and health data and the connected coaching. So you will be able to see all your data. I will provide you with recommendations and we will show you correlations when you do. This is what happens. The third part is content. So we provide the breathing exercises, the relaxation, stretching. So a variety of content that you can use it to unwind before going to bed or to help relax in the evening.</p><p><strong>Harry Glorikian: </strong>I was trying to think about this because I actually I don't have one of these beds, although I think I should probably have one of these beds. Is it, does it go through a testing session? Because I'm almost thinking like one night you want to sleep with it warmer. One night you want to sleep with it colder and basically train the model on you in particular.</p><p><strong>Matteo Franceschetti: </strong>Yeah, the models train based on two dimensions, one, your own personal needs, your environment, right. We know your zip code and so we know there is a storm. We know the temperature of the bedroom. So we keep adjusting based on your biometrics, the temperature of the bedroom and the temperature in your zip code. And secondly, the adjustments also happen based on similar themes. So because we have several thousand people sleeping on our devices and we are able to see that for people of your gender and age, there are certain type of temperatures that maximize the sleep more. And so we keep learning and then we will provide you a recommendation to make those changes.</p><p><strong>Harry Glorikian: </strong>So is it me that makes the recommendation? I mean, the change or is it. The app itself? I'm trying to now get to the machine learning part of it, or how you're incorporating your analytics on the background that then changes that, right, because I'm asleep. And so hopefully there's some automation in the background that's running for me.</p><p><strong>Matteo Franceschetti: </strong>Yeah. So I'm already testing in my bed a fully automated system and that dynamically adjusts temperature based on my biometrics. So the end goal is that the device will do everything for you. You just get the benefit of falling asleep faster and getting better sleep.</p><p><strong>Harry Glorikian: </strong>Have you been able to compress your sleep because of it?</p><p><strong>Matteo Franceschetti: </strong>I mean, all our customers are already to two different degrees, right? They are already saving 12 hours a year and just falling asleep faster. They are getting more restless sleep because they got 40 percent less wake-ups, 30 percent less toss and turns. And so by helping you to fall asleep faster and getting more efficient sleep, we are already compressing your sleep.</p><p><strong>Harry Glorikian: </strong>So, now, I have, unfortunately, sleep apnea. Do you, have you seen any effects with people that have a condition like mine? I mean, I know that you haven't run a study as far as I know on this, but just asking.</p><p><strong>Matteo Franceschetti: </strong>Yeah. So we are actually trying to start this with a major hospital in New York where we compare our device to a polysomnograph and we have seen already multiple episodes of sleep apnea. We've done this play in the app. So it's just something that is happening for us in the backend, in the training part of our models. So the first thing you will see in the future is that we will be able to monitor your sleep apnea without you getting a CPAP machine. And obviously we don't have a CPAP machine. But if you have a light or mild sleep apnea, even just monitoring it without doing anything is some sort of help. And then we didn't develop a model yet to play with temperature to see if we can help you. But another function that we have in the bag is also vibration. So our bbed can vibrate, and we use that to wake you up. And so one of the tests that we might run is to see if we can vibrate you to sort of waking you up when you're having very heavy episodes of sleep apnea.</p><p><strong>Harry Glorikian: </strong>[Interesting. Interesting. So is there a connected health angle to the Eight Pod? Does the mattress interconnect with Apple HomeKit or wearables like the Apple Watch or the Nest thermostat or your sound system?</p><p><strong>Matteo Franceschetti: </strong>So it connects obviously with Apple Health and the same platform for Google and so that it does it in two ways. So we see we can see your fitness data and provide you with the recommendation and correlation between fitness and sleep. But you also will see your sleep data in your Apple Health. We are also connected, you can set it up with Amazon Alexa, to control it through voice. And more integrations will come.</p><p><strong>Harry Glorikian: </strong>Interesting have you guys, because I haven't looked is, have you published any data on this or done a sort of a study to show that people sleep better on a cooler mattress or maybe somebody else has done that to show that that's the case?</p><p><strong>Matteo Franceschetti: </strong>Yeah, there is already plenty of medical evidence. There is also the book of Matthew Walker. He's a professor at Berkeley, "Why We Sleep." There is a whole section about the importance of thermoregulation in your body. And the reason is pretty simple. Your body is already changing temperature during the night and actually during the whole day. So when you hear people saying, oh, you should sleep at 68 degrees, that is just wrong. And the reason the 68 degrees could be right for a couple of minutes, 30 minutes an hour, but not the whole night because your body temperature is changing. And so what we do is we are not reinventing the wheel, we are just facilitating your body to make those temperature changes faster. At the same time, there is plenty of medical evidence that proves that you should sleep in a colder environment during deep sleep and you tend to get more sleep in the first part of the night, but then you should be in a more neutral environment in the second part of the night when you get the more REM. And the reason is, while you are in REM, your brain deactivates temperature control in the body. And so if it's too hot or too cold, the brain would would not let you get the REM because you could die. Imagine you were in a store. Yeah. And so being in a thermally neutral environment will facilitate the switch for your brain from deep and light into REM. So there are all these tricks that have been proven and there are a bunch of medical studies that already show it. There was just no one who was able to develop a technology and make it mass consumer.</p><p><strong>Harry Glorikian: </strong>So why did you guys settle on the circulating water as opposed to some other form of the process, right?</p><p><strong>Matteo Franceschetti: </strong>Yeah, so I mean, the water is a great material, if you want to call it material for more conductivity. We are able to provide any temperature between 55 degrees and 110 degrees so we can make your bed and your body really cold or really warm. Obviously, almost no one sleeps of these extremities. But in the future, we are exploring other technologies that they do not require the liquid, but it is always a thin balance between cost and benefit.</p><p><strong>Harry Glorikian: </strong>You know, obviously, this is not the sort of mattress that I might get from my son who's constantly changing. So it's it's a higher end product. And you know what sort of customers are looking at this product? I'm assuming it's those people that want to optimize for, like you said, better recovery, maybe athletes would be more in tune with it. But I'm just making a wild guess at this point. Who's the optimal customer for this?</p><p><strong>Matteo Franceschetti: </strong>We call them everyday athletes, and honestly, it's really anyone who wants to feel great in the morning, it could be a mom, it could be a doctor, it could be you know, they are health conscious. So they don't need to be educated about the fact that sleep is one of the three pillars of health. They are already going to the gym. They're already taking care of what they eat and they want to take care of sleep, which is, again, the third pillar of health. Specifically for us right now, the core is between 30 and 45 years old in terms of age. But again, anyone who wants to feel great in the morning and I think there are billions of people out there that need that are our audience.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting because I think people are because of these wearables becoming much more in tune with sleep. Like, I know that if I have one extra glass of wine now, it's I know that that night is is is over. Like, deep sleep is almost going to be nothing. And just because I've seen it over and over and over again now, I'm not sure why I don't learn my lesson and not have that next glass of wine, but I'm probably having too much fun with anybody that I'm with and and having that extra glass of wine. But, you know, looking at the digital health aspects of this, what's the vision other than just getting better sleep? There's all this data being accumulated. You're talking about adding more things as time goes on. What's your vision for the company? I know you said that we're going to be able to eventually detect cancer. I'm I'm always a little skeptical of that without taking a blood sample. But how do you see the digital health aspects of this and, you know, feeding into the the more, you know, medical side of the equation?</p><p><strong>Matteo Franceschetti: </strong>If that's your vision, the sense we are exploring, there is already plenty of medical evidence that we can detect cancer. So it is a matter of the sensor that you use. Again, we are not reinventing the wheel. We are bringing a lot of things that have been tested and used to mass consumer, and that is what we're working on. But the digital health, we call it preventative health, that is what is really the long term vision for our company. Again, we are not a mattress company. We don't have one single foam expert. We just work with the greatest and largest foam manufacturer in the world. Everyone else is just into sensors and technology and machine learning. And preventative health is what we really know. </p><p><strong>Matteo Franceschetti: </strong>What I think will be my legacy, hopefully, one day and how can we save lives? There are a couple of different things we can do. First, through your heart rate, we will be able to predict if you are getting sick. Usually your heart rate at rest changes a couple of days before you get sick. Second, we will be able to monitor arrythmia. Third we will be able to monitor sleep apnea. And fourth, through some of the sensors we are exploring, we want to get into full body scanning and have a scan of your body every single night. This will be reflected in two things. First, obviously, this [inaudible] to see if there is anything that that should be disclosed. But second, even more important, we will see how you're aging right. The beauty of our product compared to a wearable, we don't have a 60 percent churn in six months. Our customers, they keep using our product every single day for 10 years. And so biometrics today are different from your biometrics in three years and they are different from the one in six years. Based on that, we will have a trajectory of how we are aging and we will be able to coach you to work on what needs to be adjusted.</p><p><strong>Harry Glorikian: </strong>Interesting, because I was just I had a very long conversation with one of the founders of a company called Humanity, which is actually doing, you know, they have an app, they'll connect to your wearables, but they do a quarterly blood test specifically to start to look at markers, to make a determination on aging and be able to recommend something. So I always you know, I always wonder, like it's the aggregation of this data, because different devices are better at different things. Like, you know, like I said, a pulseox needs to have some level of contact with me. And so I'm wondering about the integration of this. But how are you managing the more the advanced analytics on the back end? How is that, you know, is that being done here? Is it being done abroad? And how are you thinking about the next level analytics that you need to do to make this more predictive or pulling in historical data sets from someplace else to give you an idea of how to train your models?</p><p><strong>Matteo Franceschetti: </strong>Yeah, so everything is made in the US. Everything is made by engineers here in the US. They work on machine learning models and they are models the best way for us to train our models. There are two ways. One, through clinical trials, which we are doing clinical studies where we compare our device to medical grade devices and we can elevate the accuracy of our data. And second is a large volume, a large volume of data. And so from from a practical standpoint, as soon as you have the gold standard and you know your accuracy and you have a large volume of data, we already have internally the capabilities to be regressions and to develop all these plans. Obviously, like any startup for what we want to achieve, we are still small and we will need to keep growing. So we need to have more engineers, just increase bandwidth. But we are really develop internally the skill.</p><p><strong>Harry Glorikian: </strong>Can you tell something like if somebody takes a therapy, you can see that something is happening? Or if they have a cup of coffee too late, can you indicate something is happening? Or like me knowing I'm having an extra glass of wine, like something is happening and provide a feedback mechanism, is that built into the way that we are building it?</p><p><strong>Matteo Franceschetti: </strong>Yeah, we are building it today as we speak. So it is going to happen this quarter or beginning of next quarter and is connected to this vision of coaching overall, right. And so you will be able to, we will make you questions. Potentially in the future of certain things they could be detected on our own or maybe there are other devices that are detecting and you have that data in Apple Health and we pull the data from Apple Health. So it could happen both ways and based on that we will coach you and we will be able you will be able to know, as a matter of fact, that all the times that you have a glass of wine that your sleep drops 15.3 percent and your REM drops 12.5 percent.</p><p><strong>Harry Glorikian:</strong>, my deep sleep just falls. It doesn't drop. It just goes away. I mean, last night last night was my wife's birthday, so we were definitely having some wine. And now last night was, forget it.</p><p><strong>Matteo Franceschetti: </strong>It happens to everyone.</p><p><strong>Harry Glorikian:</strong>Well, I you know, it's funny because I don't remember. Well, maybe I didn't feel it when I was younger, but I feel it now for some reason it's much more pronounced. So, I come from the world of clinical trials and clinical studies. But, you know, do you plan on publishing? Like, I actually think your bed has been used in trials. If I remember reading correctly, there was one University of Pennsylvania, I thought it was, that was using the bed for a trial.</p><p><strong>Matteo Franceschetti: </strong>So we did a couple of things. There are three studies where that range from two top universities or hospitals here in the US. And then we gave our devices to a bunch of different labs or universities or other hospitals. And so they use that and they compare us even to other wearables. But yeah, we want to double down in general in clinical trials because becoming extremely accurate is important for us. It's important for our users if we want to achieve this long term vision that I was sharing.</p><p><strong>Harry Glorikian: </strong>Yeah, it's interesting. I mean, I also I interviewed Christine Lemke from Evidation Health. Right. So it's real-world evidence on wearables and so forth. And some of the things that we find is like, it's the long-term data, as opposed to that single moment of accuracy that really gives you a better vision of what's happening with that patient. It's interesting when you're gathering, you know, such a volume of data and then being able to do the analytics on it, that you can see certain things happening. As you said, somebody getting sick four or five days before they actually realize that they're getting sick. Does does the bed actually do temperature measurements?</p><p><strong>Matteo Franceschetti: </strong>We can infer it, but, yeah, we don't measure up specifically to your body temperature for now.</p><p><strong>Harry Glorikian: </strong>Ok. I think there's a wearable that's going to have to go with this at some point, right?</p><p><strong>Matteo Franceschetti: </strong>Yeah, there are different ways, again, I think where we can leverage our superpower. Our superpower is the space. And so we can use sensors that can track your body and body temperature in a couple of different ways with high accuracy.</p><p><strong>Harry Glorikian: </strong>Well, this sounds wonderful. This sounds like I should it was funny because I said to my to my wife, I said, you know, "I'm going to be talking to Matteo. We're going to be talking about this system. Maybe it can help me sleep better. We should think about getting this." She said, "I love my mattress." So I may have to wait for this to get old first.</p><p><strong>Matteo Franceschetti: </strong>But now we sell also the cover only under the mattress so you can retrofit your mattress and install the technology on any mattress. We launched it a few months ago and it's actually becoming a stronger part of our revenue. And so, because what we notice is although there is a big piece of our customers who just want the whole matter as the best in class and they buy it, but there are others that maybe they cannot convince their partner, or maybe they just bought recently a bed, and they don't want to change it, but they still want our technology. And so we created a cover, that can retrofit any bed with our same technology and so will track everything about your health. Plus, it will then automatically adjust the temperature.</p><p><strong>Harry Glorikian: </strong>Interesting, because when I was looking at the photos there look like there was a unit with water in it for the thing. Does this cover that goes on it also have a water reservoir?</p><p><strong>Matteo Franceschetti: </strong>Yeah, we call it the Hub, which sits next to the bed. And then there is the cover that goes over the bed.</p><p><strong>Harry Glorikian: </strong>Ahh. Okay Interesting. Well, that may be something I have to convince her of.</p><p><strong>Matteo Franceschetti: </strong>50 percent of couples, they fight around temperature because they have different temperature preferences. And the reason is temperature, again, is very personal. It changes every night and is different based on age, gender, metabolism, what you ate or what you drank. And so every night is different.</p><p><strong>Harry Glorikian: </strong>Yeah, yeah. I think if it was up to my wife, she'd sleep with the windows open, but that's not me. Well, this was great. I can only wish you the best of luck. And hopefully these technologies will help people like me sleep better and be healthier because we want to live a long and healthy life. Was there anything that I didn't ask you that I should have asked you that you wanted to talk about regarding the technology?</p><p><strong>Matteo Franceschetti: </strong>No, I think we've covered everything. Just check it out on 8sleep.com. And I'm pretty active on Twitter so you don't have any question. You can follow me there and and I'll be responsive.</p><p><strong>Harry Glorikian: </strong>Ok, excellent. Thank you. Grazie.</p><p><strong>Matteo Franceschetti: </strong>Grazie. Thank you so much.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Mon, 1 Mar 2021 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Matteo Franceschetti, Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week Harry talks with Matteo Franceschetti, founder and CEO of the Khosla Ventures-backed startup Eight Sleep. The company' smart mattress, called the Pod, is one of the latest (and largest) entries in the burgeoning market for home digital-health devices.</p><p>The Pod is designed to counteract body heat and provide a surface that stays cool all night, on the theory that people sleep better when it’s cool or cold. It includes four layers of foam topped by an “Active Tech Grid Cover” that includes sensors to detect body temperature, breathing patterns, heartbeat, and tossing and turning, as well as a network of tubes that silently carry water through the cover, regulating temperature for each side of the mattress. </p><p>The New York, NY-based company  has raised more than $70 million from big Silicon Valley firms including Khosla Ventures, Founders Fund, and Y Combinator and has roughly 60 employees around the world. Franceschetti, a former competitive ski racer, tennis player, race car driver, and attorney, has said that he thinks of Eight Sleep not as a mattress company but as an “end-to-end platform for sleep."</p><p>The Pod comes with a free smartphone app that controls the grid cover and aggregates data it collects—such as resting heart rate, respiratory rate, sleep stages, sleep time, and heart rate variability—into a daily sleep fitness score, which gets charted over time. The company aims to use the data to coach mattress owners toward healthier habits that maximize their quality sleep time. A smart mattress can do this better than a smart ring or smart watch, Franceschetti says, because it's got more space for sensors, and "there's nothing to wear and nothing to charge."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian: </strong>I’m Harry Glorikian, and this is MoneyBall Medicine, the interview podcast where we meet researchers, entrepreneurs, and physicians who are using the power of data to improve patient health and make healthcare delivery more efficient. You can think of each episode as a new chapter in the never-ending audio version of my 2017 book, “MoneyBall Medicine: Thriving in the New Data-Driven Healthcare Market.” If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.</p><p>There’s a saying among startup entrepreneurs that sleep is just a symptom of caffeine deprivation.</p><p>But seriously, even software coders need a solid seven or eight hours of sleep every night, or else they’re at higher risk for a whole range of health problems, like diabetes, cardiovascular disease, obesity, and depression. If you have chronic insomnia or sleep apnea, like me, you know how rotten the next day feels when you haven’t slept well. </p><p>And the bad news is that thanks to the coronavirus pandemic, it’s even harder for a lot of us to get a good night’s sleep. In a survey from late last year, 44 percent of people said they were sleeping worse since the pandemic started, and only 10 percent said they were sleeping better.</p><p>But the good news is that innovators are thinking about how to use technology to help us sleep better. In a show last August I talked with the CEO of Oura, which makes a ring that tracks your heart rate, breathing rate, body temperature, and movement while you sleep and reports back with a daily sleep score. And this week we’re going to hear from a company called Eight Sleep that wants to turn your <i>whole mattress</i> into a giant sleep monitor.</p><p>The CEO of Eight Sleep is an Italian entrepreneur named Matteo Franceschetti. And he says his fascination with sleep goes back to his days as an athlete, when he was focused on how to optimize his resting time to recover from workouts as fast as possible. If Elon Musk can go to Mars, Matteo says, why should we settle for spending a third of our lives on a dumb piece of foam?</p><p>Eight’s mattress is literally blanketed with sensors that track your heart rate, your body temperature, and your night-time tossing and turning and send all the data to a smartphone app. It also has a layer that acts a little like the coils in your refrigerator or the radiator in your car. It uses circulating water to keep the top of the mattress at the best temperature for sleeping. </p><p>Matteo says a smart mattress could not only help you sleep better, but could also become a preventative health aid, analyzing patterns in your sleep to catch conditions like arrhythmia, sleep apnea, and even covid-19. And his big Silicon Valley investors must be equally optimistic—because they’ve put more than $70 million into the company. Here’s my interview with Matteo.</p><p><strong>Harry Glorikian: </strong>Matteo, welcome to the show.</p><p><strong>Matteo Franceschetti: </strong>Thank you for having me.</p><p><strong>Harry Glorikian: </strong>No, it's great to have you on. I'm. Really curious and hoping that the listeners of the show really sort of enjoy this segment because sleep is actually something important to me. Somehow I don't seem to get enough of it or get quality time of it, But let me start by your background, because I was sort of trying to keep up with all the all the moves that you've made. I think it was like I was seeing a racecar driver skier, investment banking lawyer, I mean, it was a whole bunch of different moves that I want to make sure that I got right. But give us a quick version of your your biography as an entrepreneur.</p><p><strong>Matteo Franceschetti: </strong>Yes, so when I was a teenager, I was an athlete, so I was doing tennis tournaments, the ski races, and I also race with cars, I did the European Hill climbing races with Audi and some other stuff. So that was my passion at the time. Then I became a business lawyer, a boring business lawyer, working. I was working at two of the largest law firms [in Europe], both of them in the UK. So between Milan and London. And then there was finally an opportunity to become an entrepreneur in Italy. And I say finally, because it's really, really hard to raise money in Italy. So unless you find an opportunity that it's substantially profitable since day one, you couldn't become unless, yes, you have other opportunities, which I didn't have. So I was able to start a company there. It was in solar and we were developing large utility scale solar plants. It did reasonably well. It was profitable. Then we sold it. I Came to the US and I did the same thing again, which then got acquired. And then I finally started Eight.</p><p><strong>Harry Glorikian: </strong>So, the smart mattress business - why? Like, did it just came to you, all of a sudden? Bad sleep? What drove you to this business?</p><p><strong>Matteo Franceschetti: </strong>Yeah, so and probably we'll talk about that. But our long term vision is the mattress is really a commodity for us as a form factor. We are really a digital health company and we are improving performance, which if you think really goes back to my background as an athlete, really focused on recovering as fast as possible. And so a certain point I started looking at my bed and I sat there wondering why I was spending a third of my life on a piece of foam. And Elon Musk is taking me to Mars. It's technology everywhere. But then I'm still now waiting every night and there on this piece of foam hoping to recover. And I say why there is no technology? How can we build the technology that will help me recover as fast as possible? And that is how everything started.</p><p><strong>Harry Glorikian: </strong>So tell me then, you know, what's wrong with the mattress technology today? I mean, you know, when you go to some of these stores, there's like all sorts of, quote, fancy technologies or materials that are being put together. And they're, you know, you lay on the bed and they give you a thermal image, which is maybe useful. But, you know, in general, I think it's it's a lot of I can't say it on the air, but not a positive dynamic when it comes to the mattress industry. So what is it about the industry? Is it you know, it's overcrowded. It's got names like Casper. What's the opportunity you see?</p><p><strong>Matteo Franceschetti: </strong>So I think there are a couple of problems. And I talk about sleep. I don't I, I don't even talk much about the mattress market itself, but, so for 2,000 years, the way wesleep didn't change. If you read the history of people in 2,000 years ago, they were going somewhere and expect them to wake up seven to nine hours later. So there was no improvement. So there is no technology in sleep. That is the first point. The last innovation in sleep was memory foam, invented in 1960, which is just another piece of foam just with different properties. And so we let's say we live 100 hundred years. We are going to spend 33 years of our life on this form. And what we believe it is to instead is that through software and hardware, we can leverage the power of technology to improve our sleep. And actually we want to achieve two things. First, what if we could sleep, what if we could compress sleep? What if you could sleep only six hours and get more rest than when you were sleeping eight hours? First. And second is during those six hours, can we scan your body? Can your bed become a medical device that scans your body every single night in order to let you know if there is anything wrong? What if we could detect early signs of cancer while you are asleep and provide this data to your doctor? That's what we are building.</p><p><strong>Harry Glorikian: </strong>Ok, I'm curious to get there at some point, and if I could only sleep for six hours, I could get a lot more things done during the day, that's for sure. Maybe even write a whole other book. Your first product, though, was a top layer of sensors that sort of fit over the mattress. And then you eventually migrated to putting the sensors into the mattress and then you added thermoregulation. So what was what was that evolution over time and. What drove you to sort of add the next feature?</p><p><strong>Matteo Franceschetti: </strong>Yeah, we knew from the beginning, so we analyze things from the beginning how we can compress your sleep. So how can we help you sleep faster? And we knew since from the beginning that the big elephant in the room is temperature. At the time, we were a small startup and we understood that first, that we have to start tracking your data and become really good at data. And then based on the data, we could develop a dynamic modulation system that could adjust the temperature based on your sleep stages and biometrics. So it was just connecting the dots. We already knew at the time where we wanted to go. We just now decided to focus our priorities first on data, then dynamic thermoregulation, and now new products will come and they will manage other environmental factors and but associated with the bed.</p><p><strong>Harry Glorikian: </strong>You also have an app, right? And I assume that that's the brains. The bed is sort of more of the lower level thinking, whereas most of the thinking happens on the app and then there's got to be a cloud connection that sort of pulling it all together. So was this part of the vision from the beginning, was, that app as an integral part of it?</p><p><strong>Matteo Franceschetti: </strong>Yeah. So the the bed does two things. It collects the data and obviously it changes the temperature. Everything, the whole intelligence, the computing power is on the cloud where we are running a lot of different servers with a lot of computational power. And the app is the tool for you to see your data and to control your device and to be coached, because there is also the whole part of sleep coaching that we provide to the app.</p><p><strong>Harry Glorikian: </strong>So, OK, I mean, I have an Apple Watch. I think you're wearing an Apple Watch, right? I mean, I've talked to the CEO of Harpreet at Oura. And there's all these different devices. What makes the sensor-filled mattress better than any one of these? Or maybe is a combination of the two that get you to a better data analytic score.</p><p><strong>Matteo Franceschetti: </strong>Yes, a couple of differences. The first one in our case, you don't have to wear or charge anything, you go to bed as you did last night, and tomorrow you wake up and you have all your heart rate data, respiration rate and sleep. So nothing to wear and nothing to charge. Second, because of the form factor of our device, which is a bed, we have a lot of space. And so over time we can start adding many more sensors than a wearable could not add, even Apple, just because of space. But the most important difference is for us, data is not the end point like most other wearables. The wearable, all they can do, is they collect data numbers and based on the data they will use our recommendations. For us the data, again, is not the end point, it is the starting point, because based on the data, we can change the temperature for you to help you fall asleep faster, get 20 percent more deep sleep, get more rest, less tosses and turns and less wake ups. In the future, we will control more environmental factors that will adjust in real time based on your data. So we are going to do the work for you, not just us telling you what you should do. We are going to do it for you and you will see the benefits.</p><p><strong>Harry Glorikian: </strong>[Well, that's what I was thinking. I was thinking like the latest Apple Watch also has blood oxygen on it. Right. And so I'm not sure you could incorporate a blood pulseox into the mattress, but that may be another data point that lets you know what's happening with the person that sleeping and then it's connected to the thermostat on the wall. And not only do you control the bed, but you can control the entire environment in the room. So regarding the app, what do you think are the most important functions you have on that, that that interacts with somebody and sort of influences what they do or maybe what's happening in the background that they can't see?</p><p><strong>Matteo Franceschetti: </strong>Yeah, so there are three critical or three key dimensions in the app. First, the thermal regulation part, right, Where we got your feedback and we keep adjusting temperature to maximize your sleep. Secondly is the whole sleep data and health data and the connected coaching. So you will be able to see all your data. I will provide you with recommendations and we will show you correlations when you do. This is what happens. The third part is content. So we provide the breathing exercises, the relaxation, stretching. So a variety of content that you can use it to unwind before going to bed or to help relax in the evening.</p><p><strong>Harry Glorikian: </strong>I was trying to think about this because I actually I don't have one of these beds, although I think I should probably have one of these beds. Is it, does it go through a testing session? Because I'm almost thinking like one night you want to sleep with it warmer. One night you want to sleep with it colder and basically train the model on you in particular.</p><p><strong>Matteo Franceschetti: </strong>Yeah, the models train based on two dimensions, one, your own personal needs, your environment, right. We know your zip code and so we know there is a storm. We know the temperature of the bedroom. So we keep adjusting based on your biometrics, the temperature of the bedroom and the temperature in your zip code. And secondly, the adjustments also happen based on similar themes. So because we have several thousand people sleeping on our devices and we are able to see that for people of your gender and age, there are certain type of temperatures that maximize the sleep more. And so we keep learning and then we will provide you a recommendation to make those changes.</p><p><strong>Harry Glorikian: </strong>So is it me that makes the recommendation? I mean, the change or is it. The app itself? I'm trying to now get to the machine learning part of it, or how you're incorporating your analytics on the background that then changes that, right, because I'm asleep. And so hopefully there's some automation in the background that's running for me.</p><p><strong>Matteo Franceschetti: </strong>Yeah. So I'm already testing in my bed a fully automated system and that dynamically adjusts temperature based on my biometrics. So the end goal is that the device will do everything for you. You just get the benefit of falling asleep faster and getting better sleep.</p><p><strong>Harry Glorikian: </strong>Have you been able to compress your sleep because of it?</p><p><strong>Matteo Franceschetti: </strong>I mean, all our customers are already to two different degrees, right? They are already saving 12 hours a year and just falling asleep faster. They are getting more restless sleep because they got 40 percent less wake-ups, 30 percent less toss and turns. And so by helping you to fall asleep faster and getting more efficient sleep, we are already compressing your sleep.</p><p><strong>Harry Glorikian: </strong>So, now, I have, unfortunately, sleep apnea. Do you, have you seen any effects with people that have a condition like mine? I mean, I know that you haven't run a study as far as I know on this, but just asking.</p><p><strong>Matteo Franceschetti: </strong>Yeah. So we are actually trying to start this with a major hospital in New York where we compare our device to a polysomnograph and we have seen already multiple episodes of sleep apnea. We've done this play in the app. So it's just something that is happening for us in the backend, in the training part of our models. So the first thing you will see in the future is that we will be able to monitor your sleep apnea without you getting a CPAP machine. And obviously we don't have a CPAP machine. But if you have a light or mild sleep apnea, even just monitoring it without doing anything is some sort of help. And then we didn't develop a model yet to play with temperature to see if we can help you. But another function that we have in the bag is also vibration. So our bbed can vibrate, and we use that to wake you up. And so one of the tests that we might run is to see if we can vibrate you to sort of waking you up when you're having very heavy episodes of sleep apnea.</p><p><strong>Harry Glorikian: </strong>[Interesting. Interesting. So is there a connected health angle to the Eight Pod? Does the mattress interconnect with Apple HomeKit or wearables like the Apple Watch or the Nest thermostat or your sound system?</p><p><strong>Matteo Franceschetti: </strong>So it connects obviously with Apple Health and the same platform for Google and so that it does it in two ways. So we see we can see your fitness data and provide you with the recommendation and correlation between fitness and sleep. But you also will see your sleep data in your Apple Health. We are also connected, you can set it up with Amazon Alexa, to control it through voice. And more integrations will come.</p><p><strong>Harry Glorikian: </strong>Interesting have you guys, because I haven't looked is, have you published any data on this or done a sort of a study to show that people sleep better on a cooler mattress or maybe somebody else has done that to show that that's the case?</p><p><strong>Matteo Franceschetti: </strong>Yeah, there is already plenty of medical evidence. There is also the book of Matthew Walker. He's a professor at Berkeley, "Why We Sleep." There is a whole section about the importance of thermoregulation in your body. And the reason is pretty simple. Your body is already changing temperature during the night and actually during the whole day. So when you hear people saying, oh, you should sleep at 68 degrees, that is just wrong. And the reason the 68 degrees could be right for a couple of minutes, 30 minutes an hour, but not the whole night because your body temperature is changing. And so what we do is we are not reinventing the wheel, we are just facilitating your body to make those temperature changes faster. At the same time, there is plenty of medical evidence that proves that you should sleep in a colder environment during deep sleep and you tend to get more sleep in the first part of the night, but then you should be in a more neutral environment in the second part of the night when you get the more REM. And the reason is, while you are in REM, your brain deactivates temperature control in the body. And so if it's too hot or too cold, the brain would would not let you get the REM because you could die. Imagine you were in a store. Yeah. And so being in a thermally neutral environment will facilitate the switch for your brain from deep and light into REM. So there are all these tricks that have been proven and there are a bunch of medical studies that already show it. There was just no one who was able to develop a technology and make it mass consumer.</p><p><strong>Harry Glorikian: </strong>So why did you guys settle on the circulating water as opposed to some other form of the process, right?</p><p><strong>Matteo Franceschetti: </strong>Yeah, so I mean, the water is a great material, if you want to call it material for more conductivity. We are able to provide any temperature between 55 degrees and 110 degrees so we can make your bed and your body really cold or really warm. Obviously, almost no one sleeps of these extremities. But in the future, we are exploring other technologies that they do not require the liquid, but it is always a thin balance between cost and benefit.</p><p><strong>Harry Glorikian: </strong>You know, obviously, this is not the sort of mattress that I might get from my son who's constantly changing. So it's it's a higher end product. And you know what sort of customers are looking at this product? I'm assuming it's those people that want to optimize for, like you said, better recovery, maybe athletes would be more in tune with it. But I'm just making a wild guess at this point. Who's the optimal customer for this?</p><p><strong>Matteo Franceschetti: </strong>We call them everyday athletes, and honestly, it's really anyone who wants to feel great in the morning, it could be a mom, it could be a doctor, it could be you know, they are health conscious. So they don't need to be educated about the fact that sleep is one of the three pillars of health. They are already going to the gym. They're already taking care of what they eat and they want to take care of sleep, which is, again, the third pillar of health. Specifically for us right now, the core is between 30 and 45 years old in terms of age. But again, anyone who wants to feel great in the morning and I think there are billions of people out there that need that are our audience.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting because I think people are because of these wearables becoming much more in tune with sleep. Like, I know that if I have one extra glass of wine now, it's I know that that night is is is over. Like, deep sleep is almost going to be nothing. And just because I've seen it over and over and over again now, I'm not sure why I don't learn my lesson and not have that next glass of wine, but I'm probably having too much fun with anybody that I'm with and and having that extra glass of wine. But, you know, looking at the digital health aspects of this, what's the vision other than just getting better sleep? There's all this data being accumulated. You're talking about adding more things as time goes on. What's your vision for the company? I know you said that we're going to be able to eventually detect cancer. I'm I'm always a little skeptical of that without taking a blood sample. But how do you see the digital health aspects of this and, you know, feeding into the the more, you know, medical side of the equation?</p><p><strong>Matteo Franceschetti: </strong>If that's your vision, the sense we are exploring, there is already plenty of medical evidence that we can detect cancer. So it is a matter of the sensor that you use. Again, we are not reinventing the wheel. We are bringing a lot of things that have been tested and used to mass consumer, and that is what we're working on. But the digital health, we call it preventative health, that is what is really the long term vision for our company. Again, we are not a mattress company. We don't have one single foam expert. We just work with the greatest and largest foam manufacturer in the world. Everyone else is just into sensors and technology and machine learning. And preventative health is what we really know. </p><p><strong>Matteo Franceschetti: </strong>What I think will be my legacy, hopefully, one day and how can we save lives? There are a couple of different things we can do. First, through your heart rate, we will be able to predict if you are getting sick. Usually your heart rate at rest changes a couple of days before you get sick. Second, we will be able to monitor arrythmia. Third we will be able to monitor sleep apnea. And fourth, through some of the sensors we are exploring, we want to get into full body scanning and have a scan of your body every single night. This will be reflected in two things. First, obviously, this [inaudible] to see if there is anything that that should be disclosed. But second, even more important, we will see how you're aging right. The beauty of our product compared to a wearable, we don't have a 60 percent churn in six months. Our customers, they keep using our product every single day for 10 years. And so biometrics today are different from your biometrics in three years and they are different from the one in six years. Based on that, we will have a trajectory of how we are aging and we will be able to coach you to work on what needs to be adjusted.</p><p><strong>Harry Glorikian: </strong>Interesting, because I was just I had a very long conversation with one of the founders of a company called Humanity, which is actually doing, you know, they have an app, they'll connect to your wearables, but they do a quarterly blood test specifically to start to look at markers, to make a determination on aging and be able to recommend something. So I always you know, I always wonder, like it's the aggregation of this data, because different devices are better at different things. Like, you know, like I said, a pulseox needs to have some level of contact with me. And so I'm wondering about the integration of this. But how are you managing the more the advanced analytics on the back end? How is that, you know, is that being done here? Is it being done abroad? And how are you thinking about the next level analytics that you need to do to make this more predictive or pulling in historical data sets from someplace else to give you an idea of how to train your models?</p><p><strong>Matteo Franceschetti: </strong>Yeah, so everything is made in the US. Everything is made by engineers here in the US. They work on machine learning models and they are models the best way for us to train our models. There are two ways. One, through clinical trials, which we are doing clinical studies where we compare our device to medical grade devices and we can elevate the accuracy of our data. And second is a large volume, a large volume of data. And so from from a practical standpoint, as soon as you have the gold standard and you know your accuracy and you have a large volume of data, we already have internally the capabilities to be regressions and to develop all these plans. Obviously, like any startup for what we want to achieve, we are still small and we will need to keep growing. So we need to have more engineers, just increase bandwidth. But we are really develop internally the skill.</p><p><strong>Harry Glorikian: </strong>Can you tell something like if somebody takes a therapy, you can see that something is happening? Or if they have a cup of coffee too late, can you indicate something is happening? Or like me knowing I'm having an extra glass of wine, like something is happening and provide a feedback mechanism, is that built into the way that we are building it?</p><p><strong>Matteo Franceschetti: </strong>Yeah, we are building it today as we speak. So it is going to happen this quarter or beginning of next quarter and is connected to this vision of coaching overall, right. And so you will be able to, we will make you questions. Potentially in the future of certain things they could be detected on our own or maybe there are other devices that are detecting and you have that data in Apple Health and we pull the data from Apple Health. So it could happen both ways and based on that we will coach you and we will be able you will be able to know, as a matter of fact, that all the times that you have a glass of wine that your sleep drops 15.3 percent and your REM drops 12.5 percent.</p><p><strong>Harry Glorikian:</strong>, my deep sleep just falls. It doesn't drop. It just goes away. I mean, last night last night was my wife's birthday, so we were definitely having some wine. And now last night was, forget it.</p><p><strong>Matteo Franceschetti: </strong>It happens to everyone.</p><p><strong>Harry Glorikian:</strong>Well, I you know, it's funny because I don't remember. Well, maybe I didn't feel it when I was younger, but I feel it now for some reason it's much more pronounced. So, I come from the world of clinical trials and clinical studies. But, you know, do you plan on publishing? Like, I actually think your bed has been used in trials. If I remember reading correctly, there was one University of Pennsylvania, I thought it was, that was using the bed for a trial.</p><p><strong>Matteo Franceschetti: </strong>So we did a couple of things. There are three studies where that range from two top universities or hospitals here in the US. And then we gave our devices to a bunch of different labs or universities or other hospitals. And so they use that and they compare us even to other wearables. But yeah, we want to double down in general in clinical trials because becoming extremely accurate is important for us. It's important for our users if we want to achieve this long term vision that I was sharing.</p><p><strong>Harry Glorikian: </strong>Yeah, it's interesting. I mean, I also I interviewed Christine Lemke from Evidation Health. Right. So it's real-world evidence on wearables and so forth. And some of the things that we find is like, it's the long-term data, as opposed to that single moment of accuracy that really gives you a better vision of what's happening with that patient. It's interesting when you're gathering, you know, such a volume of data and then being able to do the analytics on it, that you can see certain things happening. As you said, somebody getting sick four or five days before they actually realize that they're getting sick. Does does the bed actually do temperature measurements?</p><p><strong>Matteo Franceschetti: </strong>We can infer it, but, yeah, we don't measure up specifically to your body temperature for now.</p><p><strong>Harry Glorikian: </strong>Ok. I think there's a wearable that's going to have to go with this at some point, right?</p><p><strong>Matteo Franceschetti: </strong>Yeah, there are different ways, again, I think where we can leverage our superpower. Our superpower is the space. And so we can use sensors that can track your body and body temperature in a couple of different ways with high accuracy.</p><p><strong>Harry Glorikian: </strong>Well, this sounds wonderful. This sounds like I should it was funny because I said to my to my wife, I said, you know, "I'm going to be talking to Matteo. We're going to be talking about this system. Maybe it can help me sleep better. We should think about getting this." She said, "I love my mattress." So I may have to wait for this to get old first.</p><p><strong>Matteo Franceschetti: </strong>But now we sell also the cover only under the mattress so you can retrofit your mattress and install the technology on any mattress. We launched it a few months ago and it's actually becoming a stronger part of our revenue. And so, because what we notice is although there is a big piece of our customers who just want the whole matter as the best in class and they buy it, but there are others that maybe they cannot convince their partner, or maybe they just bought recently a bed, and they don't want to change it, but they still want our technology. And so we created a cover, that can retrofit any bed with our same technology and so will track everything about your health. Plus, it will then automatically adjust the temperature.</p><p><strong>Harry Glorikian: </strong>Interesting, because when I was looking at the photos there look like there was a unit with water in it for the thing. Does this cover that goes on it also have a water reservoir?</p><p><strong>Matteo Franceschetti: </strong>Yeah, we call it the Hub, which sits next to the bed. And then there is the cover that goes over the bed.</p><p><strong>Harry Glorikian: </strong>Ahh. Okay Interesting. Well, that may be something I have to convince her of.</p><p><strong>Matteo Franceschetti: </strong>50 percent of couples, they fight around temperature because they have different temperature preferences. And the reason is temperature, again, is very personal. It changes every night and is different based on age, gender, metabolism, what you ate or what you drank. And so every night is different.</p><p><strong>Harry Glorikian: </strong>Yeah, yeah. I think if it was up to my wife, she'd sleep with the windows open, but that's not me. Well, this was great. I can only wish you the best of luck. And hopefully these technologies will help people like me sleep better and be healthier because we want to live a long and healthy life. Was there anything that I didn't ask you that I should have asked you that you wanted to talk about regarding the technology?</p><p><strong>Matteo Franceschetti: </strong>No, I think we've covered everything. Just check it out on 8sleep.com. And I'm pretty active on Twitter so you don't have any question. You can follow me there and and I'll be responsive.</p><p><strong>Harry Glorikian: </strong>Ok, excellent. Thank you. Grazie.</p><p><strong>Matteo Franceschetti: </strong>Grazie. Thank you so much.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian.com under the tab “Podcast.” You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
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      <itunes:title>Eight Sleep Matteo Franceschetti Says it&apos;s time for a Smarter Mattress to improve your health</itunes:title>
      <itunes:author>Matteo Franceschetti, Harry Glorikian</itunes:author>
      <itunes:duration>00:33:43</itunes:duration>
      <itunes:summary>This week Harry talks with Matteo Franceschetti, founder and CEO of the Khosla Ventures-backed startup Eight Sleep. The company&apos; smart mattress, called the Pod, is one of the latest (and largest) entries in the burgeoning market for home digital-health devices.</itunes:summary>
      <itunes:subtitle>This week Harry talks with Matteo Franceschetti, founder and CEO of the Khosla Ventures-backed startup Eight Sleep. The company&apos; smart mattress, called the Pod, is one of the latest (and largest) entries in the burgeoning market for home digital-health devices.</itunes:subtitle>
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      <itunes:episode>56</itunes:episode>
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      <title>What&apos;s more important? Lifespan or Health Span? -  Michael Geer</title>
      <description><![CDATA[<p>Michael Geer is co-founder and CSO (Chief Strategy Officer) of Humanity Health, a London-based startup that's building an iPhone app and subscription service designed to help users slow or reverse their rate of aging. Geer's co-founder Pete Ward has described the app as like “Waze for maximizing health span," or years of healthy functioning. </p><p>The Humanity iPhone app, which is currently being beta-tested by users in the UK, is designed to track various types of health-related data for free, such as exercise levels. At various premium subscription levels users will be able to track biomarkers in their blood samples and even track the levels of methylation in their DNA. The app’s machine learning algorithms pull together all of this data to produce what the company calls an “H Score.” The big idea is to show well users are doing at slowing their aging—compared to others who have similar profiles or have taken similar actions—and to advise users on what else they could be doing to increase their H Score and their health span.</p><p>Harry interviews Geer about the startup's origin story, the app's features, Humanity Health's business model, and the argument for better integration of clinical and digital data into consumers' everyday health decisions.</p><p>You can find more details about this episode, as well as the entire run of MoneyBall Medicine's 50+ episodes, at <a href="https://glorikian.com/moneyball-medicine-podcast/">https://glorikian.com/moneyball-medicine-podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p>Harry Glorikian: On <i>Star Trek</i> the Vulcans have a saying: Live long and prosper. The “AND prosper” part is important, because nobody wants to live a long life, if it comes at the expense of their health and prosperity.</p><p>In fact, there’s a growing notion in the healthcare industry what you should really be trying to optimize isn’t your lifespan but your “healthspan,” meaning, the number of years of healthy functioning you can look forward to. </p><p>And that’s the main idea behind a new smartphone app and subscription service being developed by startup based in London called Humanity Health. The company came out of stealth mode in the UK last fall.  It’s testing its iPhone app on beta users in the UK now and will soon open up to users in the US.</p><p>The way Humanity’s CEO and co-founder Michael Geer explains it, we can’t affect our chronological age, but we <i>can</i> affect our biological age, if we take the right steps to stay fit and prevent disease. The Humanity app is designed to track various types of health-related data for free, such as exercise levels. At various premium subscription levels users will be able to track biomarkers in their blood samples and even track the levels of methylation in their DNA.</p><p>The app’s machine learning algorithms pull together all of this data to produce what the company calls an “H Score.” The big idea is to show how well users are doing at slowing their aging, compared to others who have similar profiles or have taken similar actions, and to advise users on what else they could be doing to increase their H Score and their healthspan.</p><p>It’s intriguing stuff. But the jury is still out on whether Geer and his colleagues can scale up a premium health-tech service to millions of customers. That’s one of the questions I covered in my interview with Geer, which we’ll go to right into now.</p><p>Harry Glorikian: Michael, welcome to the show.</p><p>Michael Geer: Thanks, Harry. Yeah, excited to be on here.</p><p>Harry Glorikian: So. Let's start off like I mean, before we get into the details on the company or what you're doing there at Humanity, your background is more tech than it is health. So what did you do in the past and what sort of prepared you for starting a health tech company?</p><p>Michael Geer: Yeah, for sure. Yeah, so I guess I started off as a failed astronaut, I did aerospace and space. I'll get there eventually, pay my way in as many of us will end up doing. But yes, then because of that obsession, ended up over in Moscow and ended up starting one of the, you know, being on the founding team of one of the biggest dating sites in the world, Badoo. When I left Badoo, which is around 2010, Those two years right after that, that I had a couple of people close to me got late stage cancer.</p><p>And so sitting there in my late 20s feeling invincible, as you do in your late 20s, and you had this success but couldn't do anything for these two people, felt completely helpless. And so what I guess started searching for at that point was, it started with a specific journey, which was, OK, why are people finding out, you know, late stage about cancer like these? These were two people that were living in cities, they're middle class. There was no reason why they didn't have access to medicine or health care. And they were still, you know, finding out stage four in both cases. And so I started going down that rabbit hole. And I guess my engineering background is probably what has led me through my life, whatever, you know, job or business I started. And so just like, OK, why aren't we screening everybody for cancer? Then the next step was, you know, the main answer was too many false positives in the tests that we screened everybody. Will send people towards a bunch of procedures. They don't need to kill more people than we save kind of thing.</p><p>Michael Geer: And so I had reached out to, being a founder, you start just you know, if you want to learn about something, you just reach out to the top person in that space. I reached out to George Church, he was actually the first person that I asked about genetics. Yeah, he was kind enough to meet with me, answer all my stupid questions. And so it went. I wasn't planning to start a health tech company. This was more personal, like I need to learn more about this because I don't want to feel so helpless, because unfortunately, I think this will probably happen, continue to happen. And just on a personal note, my uncle just passed away from cancer a couple of days ago. So it continues to happen.</p><p>Harry Glorikian: Sorry.</p><p>Michael Geer: Thank you. But I think there is a difference between then and now, as I do have a lot more optimism, because, you know, there's things like, you know, Grail and companies like that that are really kind of pushing the envelope on early detection. But anyway, getting back to your question, so when I started to believe that we could actually start a company in the space and get into health tech was when I was in so many rooms with all these great scientists, these stem cell researchers, immunologists, people out in the Valley when I moved out there, and they ... you know, there's so many breakthroughs that happen in science and so much known knowns that you're sitting around in these rooms with the scientists and they're like, yeah, of course, that's the way it is. And you're like, OK, tell me more. And you can see that they've done the experiments. They have the data. It shows that that's the way it is. It's just these aren't the same people that know how to get to a million people. You know, the distribution path is quite simple on that side, is you need to get it to a pharma company or something like that, then they have the way to get it to all the doctors and then the doctors can distribute it to people.</p><p>Michael Geer: And so what I started to see in the preventive space, and that's when I dragged in Pete, my co-founder, which we can talk more about, was that there was just a ton of stuff that we already knew in science that we could actually bring out to people on the preventive side, both monitoring their health and also, you know, help directing them and, you know, guiding them and what they can do, that there needed to be more people on the consumer tech side actually bringing that out to the millions of people through that distribution path, because really the pharma-doctor path doesn't actually work as well or really at all right now for preventive measures.</p><p>Harry Glorikian: Well, it's that, you know, that whole system is not necessarily designed for paying for prevention, it's paying for, you know, fixing something that's wrong.</p><p>Michael Geer: Yeah, I mean, it's that I mean, that's definitely that probably the top one. It's also, it's just the system of indications. And then when you have an indication, then you can market to it, like the whole distribution pattern is based on, you need to have a very finite target. And preventive stuff isn't as finite.</p><p>Harry Glorikian: Yeah, yeah. I mean, there are some things that we can clearly, you know, we know what the marker is and we can see the disease that it causes. So you try to get ahead of it. But some of the areas that you guys are looking at, you know, is still, I want to say a work in progress, you know, there's no, say, defined marker for aging, per se, right, that I know of. What convinced Peter to join, because I think he was someone he was somewhere else, right?</p><p>Michael Geer: Yeah, so and then we should go back to the markers for aging because this is a fun conversation I always have with folks. Yeah. Yeah. So with Peter, he was similar. He didn't want to be an astronaut. He wanted to be an entrepreneur his whole life. So he succeeded and in his very first love. But he was at the beginning of the social networking boom, had an amazing website that called WAYN. It basically allowed you to connect with people around the world, which we kind of take for granted now. And so he had gone on that path and was just, you know, we had met each other in London, had really respected each other. I had actually jumped on and worked with him at WAYN for a couple of years, for a few months. And so we figured out we could, you know, work well together. And so really, he was I would like to say that he was the top of my list. I think he was my list when I wanted to found something new. It was it was like, no, I need I need Pete to come in on this with me. And, you know, we have the same consumer tech side, but he has just a lot of skills with team building and, you know, investment and stuff. That's just that's not my usual daily focus. So it makes for a good team. And but it was also important that he believed me and believed in the science. And so that was that was kind of that first process. We actually went on a bunch of what we called at the time, like science fantasy camps. One of them was, Illumina has a program called, or they did, I'm not sure if they still do, "Understand Your Genome."</p><p>Harry Glorikian: Yep. I've done it.</p><p>Michael Geer: And so we went to this one was in Boston. And so it was like we went there. We actually I think we generally picked up a couple of our future science advisors and that one trip alone. And so, yeah. So after, and again, it's this kind of process and that's what we hope humanity will be able to do in a faster process, is get that message out that there is a difference in the rates that we age and that our bodies lose function and we can do something about it. And I think those kind of two years of traveling around on and off with Pete was kind of the very hands on version of what we hope to do at a bigger scale with Humanity. And so once he came around and became a believer like me completely, then then we started looking at what we could actually build.</p><p>Harry Glorikian: So tell me, what is Humanity, the company offering to people? What is the, call it the product, or the subscription? Right. Walk me through what it is. And maybe at some point you can sort of also go through what the app is, that sort of pulls all this together so that the person can see their information.</p><p>Michael Geer: Yep. Yeah. So our main focus with Humanity is to extend people's health span, which basically means, you know, increase your, as much as possible, healthy years. So wherever you're starting from, just keep you either at that level or make you healthier and make sure that that continues as long as possible. Health span, probably a quick way for people to think of it, and biological age, we can get deeper into that, is the idea that, you know, you can have a very unhealthy, you know, 75-year-old or you can have a really healthy, you know, fairly fully functional 75-year-old. And so you want to be that fully functional 75-year-old. And the same thing for the 40-year-old and the 50-year-old. And so our focus is basically to allow people to start to see what actions they can take on a daily basis to basically extend their health span. So basically, we put it in the app as you know, reducing your biological age, which is just a measure of your kind of probability of disease and a measure of your current function of your body. And so the idea is to have all that working in the background, the collection of all that data, the running it through the predictive models, but really to the user just nudges and kind of information that guides them towards doing more the actions on a daily basis that they need to do to, you know, increase their health span.</p><p>Harry Glorikian: So how does that differ from, say, I mean, you know, there are all these other, there's obviously the Apple Watch, right, get up, walk around, breathe, all that good stuff. Then there's things like the WHOOP band, which, you know, sort of gives you things like stress scores. And, you know, supposedly you could be able to tell whether you had alcohol the night before or not because it, you know, disrupts sleep patterns. And so how does what you guys are putting together, you know, make a difference? I mean, I remember seeing something about taking blood regularly. What are the components that you guys have put together to sort of build a full package?</p><p>Michael Geer: Yeah, I think, and what we saw in the space, the questions that Pete and I started asking when we were kind of submerging ourselves in the science, was, OK once we fully believed in this idea that people age at different rates, there's a thing called a biological age, which is just kind of a coined term of describing that loss of function. Then we started asking very product kind of consumer tech questions like, OK, first of all, can we measure it? And second, very importantly, can we measure it for a low enough price that we could actually bring this to direct to consumer? Because, I mean, we talk about this kind of off camera. But one of the reasons we know each other here is because through Christine, who runs Evidation Health and I for years would always be tagging along to different conferences when I was running the tech companies.</p><p>Harry Glorikian: Right</p><p>Michael Geer:And seeing people go through this trouble in those first years. And what me and Christine saw kind of falling by the wayside is all these very motivated people who come into the space. And the next thing you know, all they could talk about is we're trying to get this deal with this insurance company. That was kind of like the never-ending kind of cycle of optimism and then kind of loss of optimism.</p><p>Michael Geer: And so we basically started with, OK, can we measure it and can we do it cheaply enough? And so then we basically, I guess and the reason, the fact that we started at that basic kind of science level, I think, is different than a lot of people started. So like Fitbit would start with, can we measure this particular action, right. Or WHOOP would start with, you know, can we can we help athletes know how much they've recovered and how much with exercise the next day. We started much more on the side of, can we just measure people's function and loss of function in their body and then evolve from once we figured that we could do that and cheaply enough, the idea evolved to, OK, once we do that really well, we just give this feedback loop of are you know, are you becoming younger or are you becoming older in the loss of function since then, we could also monitor all the actions that we're taking and start to basically change the weightings of the points that they're getting from those actions and start to actually guide people towards changing this first main thing, which is, you know, is their biological age going up or down?</p><p>Harry Glorikian: So when you're doing one of these blood tests, what are you measuring in a blood test? Right. I could show you the laundry list of stuff that my doctor orders for me. Right. Which, you know, if you don't know what they are, it's basically gobbledygook. But just curious.</p><p>Michael Geer: Yeah. And I think that's, I mean, we try to stay out of the weeds presenting this to the user base, but I think talking to investors and talking to other people in the space, the inside baseball on this is, this overconcentration on like moving one marker? It's kind of also based on what we started with, talking about clinical trials. Clinical trials and those kind of research studies are based on trying to see if one thing affects this other thing. And so you end up with this kind of conglomeration of, you know, cholesterol is bad for you. So whenever we see cholesterol outside of the norm, then we just need to concentrate on getting that one marker down. But I think most people have kind of, most doctors, and I think definitely all scientists now, have come to the understanding that all these things are kind of homeostasis of, and representative of, homeostasis in the body. And so you can't just concentrate on one marker moved one way or the other. That's one thing. So, OK, great. Mike, you know, don't look at one marker. So you look at all the markers. Yeah.</p><p>Michael Geer: So what you end up doing is you need to have a longitudinal data set which has future health outcomes. So, basically that you can see the future. Right. And so, you know, and so the examples of this is like UK Biobank, Estonian Biobank, Framingham in Massachusetts, you got Jackson Heart Study. And so, you know, the future health outcomes. And then luckily, in many cases, you have past markers that have biomarkers that have been taken. And this, you know, example, the clinical markers, the analytes in the blood. And so really what ends up happening at this point, although one of our SABs has kind of taken this to the next level, is a lot of times you end up with the common panels. So your lipid panel, your full blood count, that sort of stuff, you end up with, those are the markers that you want to grab, because those are markers you can compare to that longitudinal data that has the health outcomes. So you can do your models. Kristen Fortney, just give a shout out to one of our SABs, has a company BioAge. She took it to the next level because a lot of these bio banks actually have stored samples. And so she would take the samples off the shelf and measure a lot more analytes. The reason why the first part is actually very useful is those analytes end up being very cheap and the same thing.</p><p>Harry Glorikian: Right.</p><p>Michael Geer: So you kind of actually want to keep on that level. You want to you want to say, hey, I want that $5 panel, that $8 panel and put them together. And then that's going to give me a predictive model. And so if I can get to that point, which we can, then that's better than, you know, the $1,000.</p><p>Harry Glorikian: No, no. I mean, but, you know, like I was talking to Joel Dudley from Tempus and they're trying to basically off of one sample, do every, you know, thing you can do on it and storing that because they know that over time like that, data set is going to have more and more value that that will be created. Right. So it's sort of what do I do today versus what should I be doing to get ready for tomorrow?</p><p>Michael Geer: So there's two things there. And, you know, there's great people like Mike Snyder out at Stanford in the precision medicine kind of personalized medicine space. Right. And the stuff that they're doing is super valuable. They're basically, yeah, they're getting every marker on everything and they're like highly phenotyping, as they say, kind of people. The thing is, when you do then go to bring that to the masses, you do need to go through a process of basically whittling it down to what are the markers we can actually collect at any time, because that that kind of limits your ability to actually bring the service to a user. Right.</p><p>Harry Glorikian: So there's a basic subscription and then I think a premium subscription. I mean, there's, trying to figure it out from reading a bunch of stuff which isn't clear, necessarily clear on the website.</p><p>Michael Geer: Coming out of stealth, we're still in closed beta. So, yeah, we're still a little bit stealthy.</p><p>Harry Glorikian: So what's going to be the offering and what is somebody's get for what? I guess.</p><p>Michael Geer: Yeah. So I mean, like anything, these things will iterate. But right now, so we brought in 70 alpha users, fully paid alpha users in the UK, which is not actually traditional. Usually you bring in people for free. But we wanted to see if people were willing to pay different prices to get the service. </p><p>Harry Glorikian: I want to pause the interview right here because just as Michael was explaining the company’s pricing model, out Internet connection dropped. I followed up with him later and got the details by email.</p><p>Michael explained that the company is currently testing different price points for its different subscription levels with its test customers in the UK.  Some of the tracking features will be available for free. For an entry-level subscription fee, customers will get insight into their biological age and what actions are working for people like them. The company is currently testing a price of around $30 per year. And one level up from that, customers will be able to send in blood samples for clinical tests of common biomarkers like lipid levels, for a fee of around $100 per quarter. And for an even higher fee of around $300 per quarter, the company will analyze customers’ DNA methylation, which is thought to be one indicator of aging.</p><p>Michael wrote to me, quote, “Pete and I have built freemium applications with millions of subscribers in multiple past projects and really love its ability to deliver more good to more people globally,” unquote. Okay, back to the interview.</p><p>Michael Geer: And then all data comes into different predictive models that we have and then we have a composite, kinda master model and the accuracy, you know, as you combine those models becomes higher and higher. Our goal, though, is definitely to make the digital side as predictive as possible, which I think I mean, we can either get into it or not. But the frequency of measurements, you know, all this kind of stuff plays into how predictive a model can be and obviously your data set with the future outcomes. And so we think there's no kind of mathematical or science reason why the digital biomarkers can't be highly predictive.</p><p>Harry Glorikian: Well, I mean, there's always stuff you can't see that's inside. Right. That's happening at a different level. I mean, if you look at all the work that's happening with, you know, the Oura ring or now that, you know, there was something on the Apple Watch. Seeing certain physiological changes ahead of time, you can sort of predict what's going to happen. If you could actually, like you said, Grail and you know, some of the other companies out there like Garden, they're looking at blood where you can see, you know, very small changes that might predict some future state. But, so look....</p><p>Michael Geer: On that point, I think the future is definitely, ... From consumer tech, it's all funnels. And so my mind is always thinking funnels, you know, but in the medical space, you would call it triaging or, you know. So I think the future is definitely that you start off with a digital, you detect something. It might not be clear exactly what it is. You then you then get bumped up to your GP or your you know, your family doctor or, you know, you go through kind of a telemedicine, go through PWN into your Grail test, if they think that that's like the next step. All that's built out. And honestly, I think you're 2021 is going to be quite a year for, like, all that stuff to finally come to fruition at least in its first kind of prototype form of that that whole funnel of health that make sure that we're much more protected than we are.</p><p>Harry Glorikian: Yeah. I mean look, so, you know, we can both agree that the medical establishment, which, you know, I have a, I'm trying to have my feet in both spaces because they're colliding, as you know, definitely would say, look, if you're more active, it's you know, you're going to be healthier than when you're less active. Right. Couch potato versus somebody that at least goes for a walk eating unprocessed foods, right, is healthier than eating a lot of, like, snacks. Funny, because my son said to me, oh, my, I hate so many Cheetos last night. I feel like I have a rock in my... So clearly not a good thing to do. Right. Meditation can reduce stress. I keep trying to impress on them that they should pick this up as a habit. Not when you're older, like I am. Right. And that decent sleep every day makes a huge difference, because of recovery and so forth. I'm sure the medical establishment would say, like, look, if you can track these things and make yourself better, that's probably good. And then, OK, if you can look at bloodwork and DNA genotyping and methylation, even better. Right. Which is Ventner's old company, Longevity, is a company that's trying to do a lot of that stuff. What is Humanity adding to this equation? What is the argument that distills all this data down to what you're calling, I believe it's an H Score.</p><p>Michael Geer: Yep, yep. So the. So there's kind of two things missing at the moment, and they exist in different pieces, in different places. The first is on the holistic actual connecting your biomarkers with these longitudinal data sets that have the future health outcomes. Like the real predictive. So it's it sounds a little inside baseball, but a lot of these systems are actually built on a different paradigm. And a lot of the systems are actually built on a bunch of cobbled together meta-studies of clinical trials. Which, as people that kind of focus on the on the space, you know, everything goes to zero. It's like a statics course. It's like everything kind of just evens out. And so a lot of the stuff is based on kind of picking and choosing which kind of meta studies you believe in, which then dictates what means you're being healthier and what means you're not. And so the thing that me and Pete wanted to make sure is that this thing is really built on real data because you could just as easily, you know, just say, OK, what do you what are you doing? OK, here is the US (or) WHO or some organization says that this is healthy. So this is what this is what your score is going to be. But we have the data. So why don't we actually be sure about it and actually build it on these models? So that's one piece. </p><p>Michael Geer: The Humanity Score is the ability for giving points based on we're seeing those actions actually play out in that biological age. And so, again, it's not this is not this based on what people recommend generally, because as you well know, like as we grew up over the years, you know, recommendations have changed wildly. So and that's not to say that they weren't based on the best kind of knowledge at the time. You know, maybe, sometimes not. But so the recommendations shouldn't be the basis of knowing what actions I should take. But the last piece of that is, like all of us are different. And I think everybody, all doctors and definitely scientists can agree on that. And so being able to actually say this action and these combination of actions, that's the important part. The combination of actions. The Humanity Score allows us to dynamically, you know, change the score based on what we see in your biological age result. And so I'll give you one example. This is an example. So if you didn't sleep very well last night and you ate badly the day before 2:00 and then you got up early and you went for a 5K run, what you over time, what you see and a lot of these kind of longitudinal data is that you're actually being less healthy going out for that 5K run. You're actually, you're stressing your body too far. And I mean, this is the you know, this is what it seems the data saying. And so you can't just single out actions and just say, hey, you should run more. Hey, you should do this more, because the combination of those actions is very vital to whether it's healthy or not, so that the Humanity Score allows us to kind of put all those together to help them know if they're heading in the right direction. And so a single score that pulls together all these things to give you. One anecdote also is a lot of the people that we see now coming into the app or a bunch of them, if they're very healthy, a lot of times for some of them, that means the high intensity training like, you know, five mornings a week. But these same people then go to their desk and they sit there without moving for the next the next eight hours. Right.</p><p>Harry Glorikian: That would be me. That would definitely be me.</p><p>Michael Geer: Some people, maybe my co-founders as well. And so what's and but we know this constant touchstone where you can basically see what is the next action I can do to increase my score. And then you have this one score. It just is much better from a user motivation side than if you go into, I won't name any particular company, but if you go into their app and you need to go to your HRV chart and you need to go to your steps chart and you need to go to that, it's like great, a lot of data, but it's not really guiding me in the direction I need to go.</p><p>Harry Glorikian: Yeah, I mean, there's a couple of companies, right, that have tried to come up with this sort of aggregated score. It's funny because I know some of these and I know like couples, literally husband and wife will be almost competing on which score was better. Right. So let's you know, we're talking about an awful lot of data coming from a lot of different sources. And so what do you guys, how does machine learning play a role here? You know, what are you guys doing in a sense? And, you know, when I talk about A.I., I think it's just like, OK, here's my toolbox and I've got all these tools. And depending on what I'm trying to fix or what I'm trying to work on, I'm going to pull out this wrench or a hammer, I think. But it's part of the same toolbox. So how are you guys approaching this? Of course, without giving away the secret sauce of what are you guys doing? What patterns do you hope to detect and what predictions are you hoping to provide for users?</p><p>Michael Geer: Yeah, I mean, our aim is really on the one side that biological age, make it as predictive as possible. But as we go forward, I think the thing that we can do that that hasn't been done before is we are actually trying to score the actions in combination of actions that you are taking, not the user base, but you are taking. And so then, of course, across the database of all users, we can match you with people like you. So on all the attributes, not just not just your blood biomarkers or digital markers, but also your activity rates and other things. And we can start to actually learn across that, you know, bio twin or whatever you want to call it, of Harry, we can start to feed back to you, OK, you might want to try this action. You might want to do more of this action because it seems to be working on all your bio twins within the user base.</p><p>Harry Glorikian: This is Harry again. Our Internet connection cut out one more time while Michael was explaining how the app will track users’ eating habits and nutrition. The basic idea is just that the app won’t be counting every meal or every calorie.</p><p>Michael Geer: The focus will not be on trying to make sure that you tell us every single kind of vegetable portion that you that you give us. We're trying to be as agnostic as possible to the data we're taking in. And so if you are tracking that in quite detail in another app, you know, we're looking to hook in through APIs and through Apple Health with as many of those kind of apps so that your data doesn't replace. The biggest things that we'll be capturing is kind of the type of your diet, the frequency of your diet and kind of the time window. And those will be the main things that we come up in in the beginning. That's..</p><p>Harry Glorikian:How do you make that less burdensome to the you know, because I think to myself I'm like, crap, I'm spending so much time, like trying to track everything that </p><p>Michael Geer: I mean, that's the thing. Right. And that's where Pete and I, my background is in. The good news is that a lot of this stuff is already quite well connected to most of the stuff we're collecting on you is automated. So you just go about your day and, you know, the data comes in. And so it's coming through your wearable right now, most of it. So we're building on iOS first, so all of that stuff's coming into your Apple Health. We pull it out of HealthKit and then you don't have to do anything as a user. You basically just see your points racking up and you can get guidance on what you can do to increase your score more. And we'll look to do that on everything that we're tracking, not just nutrition, but, you know, not just activity, but each thing that we start to expand and kind of we want to collect as much of your lifestyle actions as possible so that the model can learn from it and become more accurate.</p><p>Harry Glorikian: So let's jump back for a second. Right. So. You're using all these older, you know, the Framingham heart study, et cetera, to build some sort of model that shows that with certain marker changes, biological age changes versus chronological age. But then is the assumption that you have to actually change some of those -- that you might be able to change that biological age?</p><p>Michael Geer: Yeah, I mean, that's a that's exactly it. You basically have a, and this isn't new its just been built on I would say better data. </p><p>Harry Glorikian: Oh, no, it's not, it's definitely not new.</p><p>Michael Geer: Certainly, you know, what I touch on is kind of the example of like the old ways. It's probably just more like the version one or two. And this is like the version three with cholesterol. You know that the reason why that became such a focus is because so many people that came in with heart attacks and when they started doing, you know, you know, bigger research studies as they saw that they had high cholesterol, it was like, you know, the person that was always in the room when the money got stolen kind of thing. Right. And so this is this is just expanding upon, that is you're looking at as many markers as you have in these longitudinal data sets and you're able to come up with a weighted probability of all the all the future diseases that ended up happening in that dataset, whether it be Framingham or NHANES or UK Biobank.</p><p>Harry Glorikian: So is there, is there any data that, you know that that and maybe you guys are starting to generate it, but you know where this health monitoring service can change morbidity and mortality across killers like, you know, cardiovascular, metabolic, et cetera?</p><p>Michael Geer: Yeah, the there's a lot of examples of it. There's I think the what we try to always do is keep it like the most highly accepted ones when we talk to talk to people about it. I think there's a lot of newer work that that's been very specific, but there's just a ton of work that actually led to all those recommendations that we ended up with anyway. Right. They would do kind of these is more controlled studies where, you know, this group would do this amount of exercise in this group wouldn't. And they tried to control for all the factors within those two groups. And so there's a there's a ton of kind of peer reviewed research studies that basically show that these different interventions actually did change the future health outcomes, whether, you know, reduce the occurrence of cancer or reduce the occurrence of heart attack. And so all these things have very much been proven. I think that thing, the new thing or the other thing that we're trying to really bring is not changing any of that. What we're trying to do is bring to consumers the ability to track it very closely, very accurately, and get that combinatorial, you know, of those actions. And so you could actually see like the like the example I was giving earlier, like better sleep plus the diet. Plus this amount of exercise is the perfect kind of optimal for you to really increase your health span. And that's the difference. I wouldn't say it's a difference in the accepted .... we never actually go into a room and kind of even like more traditional kind of, you know, on the on the medicine side, and no one really, as you said at all, these concepts are accepted already fully. It's more how do we actually deliver that to consumers at scale? And I think that's what we're that's what we're trying to tackle.</p><p>Harry Glorikian: Yeah, that's what I was going to go to next, which is, you know, you and Peter have like a lot of experience on digital products and services used by hundreds of millions of people. Right. Do you feel like Humanity is scalable in the same way?</p><p>Michael Geer: Yeah, and I think I think part of that is, is you start with the, I think I have a slide in one of my old presentations. I'll give it at conferences. The you know, you've got to, if you want a mainstream application that reaches hundreds of millions of people, you need to focus on a kind of a mainstream need for lack of a better word. You might say that Badoo, I would say Badoo kind of allowed you, the dating site that I that I started and the founding team, the you know, it allows you to meet new people. That was a tag line. But some would say, OK, it's sex. And so the sex sells, sex sells. So if you build something, you're probably going to get people to use it. And I think health is another one of those. Right. And I think that's. That makes us very optimistic that we can we can do it as long as we have the right team around us.</p><p>Harry Glorikian: And that was going to be my next question. So. Right. So what evidence do you have the consumers are, you know, really motivated and of course, there's, look, you know, helping Evidation and, you know, talking to Christine, there's always a group of people, right, that that are incredibly motivated to do these things. But now are you're talking about a large mass of people. You're saying you've got to collect this data. It'll get better if you have a wearable. You know, you've got to take this blood work every three months. And how do you keep them going over time? Like, how do we know that they're motivated?</p><p>Michael Geer: I think the thing that captures a lot of people's attention and captured me and Pete’s attention and captures users' attention, and it sounds too simple to be true, but the actual focus on aging is very motivating. Just to give you a couple of anecdotes from our alpha users, you know, one of them, one of them saw her rate of aging and very soon after moved to another country where she could live in a place where she could go hiking a lot. We you know, we saw another person. We actually heard this a couple of times from users where they basically when they got their first rate of aging, they basically went for a run right afterward. Actually, this is the thing that's realistically going to make them younger. But the fact is that seeing your rate of aging as it kind of cuts through all the more nebulous stuff, when people say be healthier, you can say be healthier to a room of 10 people and they probably have, you know, 10 or eight different ideas of what that means. Right.</p><p>Harry Glorikian: There was a video, I think that somebody created that, you know, you could put your picture in there and it would actually age you. And I think for a lot of younger people, it freaked them out, right, because they never think about it. And then to see yourself, maybe you guys need to add that as a part of the service. If you continue down this route, you could look like this.</p><p>Michael Geer: And we will, because I think I think the other thing the other thing that you realize when you, there's things that need to be very strict and serious. Right. And there's but in that slide, the data that you present to the user, you know, the anything you present to the user that's about their health needs to be dead on. Right. But the way that you capture their attention and the way that you motivate them to do things outside of that first rule, you know, we need to use all the all the tricks that people all the kind of methods that people, you know, say are bad with Facebook or some other service. Like I think we all kind of agree, like it would be so much better if those methods were used to actually make us healthier and happier, right</p><p>Harry Glorikian: No, no. I mean, you know, we always found that gamification and reward systems and all those things that sort of motivate people to do things that they're critical to call it, changing a bad habit, right, and trying to motivate, you know, people to be healthier, I mean, I'm sure that there are physicians that are listening to this going, I can't get my patient to do what I need them to do. What are you guys talking about? But I think that some of these technologies and some of these interactivity of just nudging someone. You know, it does get them to think about things.</p><p>Michael Geer: I think the, so the example that I always give is so when you come from the outside, let's say Pete and I are coming from the outside here. We're consumer tech folks. We there's never been a popular or, you know, mass scale product that didn't have feedback loops. And so when you go to and this isn't a criticism of the of the doctors, but it's just kind of a, you shouldn't expect something unless you have that feedback loop. So if you if you put a photo up on Facebook and no one likes it or comments on it, like how many more photos do you think that person is going to post on Facebook? None, right? It's you've got to have that feedback loop of, I did something and now I see the reaction. Right. And so when you go to a doctor like once a year and your doctor kind of looks at your chart and you're kind of like, you're ranging a little bit out of norm, but you're not doing anything critical. And they're like, you need to be healthier, you need to exercise more. And you're like and you probably leave that meeting with the doctor like semi-motivated or at least thinking about it. And then but what happens the next day? Like what happens if you go for a run and then what do you look at getting another blood test? You're not getting any kind of real feedback. And so getting the feedback loops really tight is you can't expect the motivation without it. And so that's kind of table stakes. And I think a lot of times people start to espouse that people are never going to be motivated. But it's the system needs to just be you know, it needs to be a better kind of loop created.</p><p>Harry Glorikian: So how does how does a patient take this and then interact with their physician or the medical establishment or so forth?</p><p>Michael Geer: Yeah, I mean, that's one of the one of the things we thought really deeply about is so when you're making something like this and anybody that is making any app or any kind of service that collects any biomarkers knows that you will come across things that, you know, need more attention or they seem like they need more attention. Right. And so one of the things that we already do is we do a kind of physician oversight on top of the blood markers before they come back into the system. And we basically triage people out to their GP and make sure that they can, you know, hand those results to the GP. We do that whole system to make sure that anything that looks like it might be further out of the norm is actually brought to the user's attention and they know the next step they should take. I think that can be done at an even more seamless level telemedicine and different things, you see this with, you know, genetic testing already in the consumer spaces, some of the better companies will set you up. So Color. This was even years ago when I did Color for the first time, which does, you know, cancer genetic markers. You know, that part of their service is you got a genetic counseling session. And I think that's what we touched on earlier about the kind of like funnel of preventative. And then when something might be detected, even, you know, that handoff.</p><p>Harry Glorikian: Yeah. I mean, this thing here, it'll take my measurement for free. Yeah, exactly. But, you know, then it has the subscription service where there's a machine learning algorithm which will say something is wrong and then it'll elevated to a physician if, you know, if it's completely out of line. So I totally understand the process. But, so, what's the long-term vision? Is it a consumer product? Is it something where you're you know, you've got industry partnerships with either health care providers or insurers or drug developers? What's the plan?</p><p>Michael Geer: Yeah, I think when we, when people that kind of did services that got to a larger level, the method that's in we'll use this on Humanity because it's worked for us so far is you start direct to consumer. You get that. Products. You want that that direct interchange with the consumer. Right. You then the next step is, it's a very easy step is to be to see or then other people that have connection with a lot of people then distribute your products directly to those other people. I think the bigger, bigger vision is where we got to kind of with AnchorFree, which is the consumer VPN that I that I help run out in the valley, which had 700 million people. As you start to actually try to lift and kind of effect the market as a as a whole set with the consumer vendors, we basically started refusing to allow any government agencies or anything to see our servers and we started to affect policy on a kind of a larger level and different countries in the sense of humanity. We want to be super open and collaborative. And so, you know, our model is, is consumer subscription model. We don't want to be, we don't we don't have a need to lock down IP. We don't have a need to you know, we're just doing a consumer. Then we're going to get IP, then we're going to have a license, licensing kind of model. Our mission is to have that kind of that subscription model bring as much value into the free portion so that it's as radically inclusive as possible and then preserving the privacy of that data, allow modeling on that data that can help raise all ships. And in the research space, it and that's yeah, that's kind of the five-year plan and probably that's the 15-year plan. But, you know, you see what happens as you go.</p><p>Harry Glorikian: Awesome. Well, it was great to catch up with you and talk to you. Appreciate the time. I'm super curious to see how this evolution comes out and. You know, maybe one of these days we can hop on and, you know, if there's anonymized data, I'd love to see what you guys are seeing, always super interesting. So uh excellent I actually look forward to it.</p><p>Michael Geer: Thanks, Harry.</p><p>Harry Glorikian: That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian dot com forward-slash podcast. You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Mon, 15 Feb 2021 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (harry glorikian, michael geer)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Michael Geer is co-founder and CSO (Chief Strategy Officer) of Humanity Health, a London-based startup that's building an iPhone app and subscription service designed to help users slow or reverse their rate of aging. Geer's co-founder Pete Ward has described the app as like “Waze for maximizing health span," or years of healthy functioning. </p><p>The Humanity iPhone app, which is currently being beta-tested by users in the UK, is designed to track various types of health-related data for free, such as exercise levels. At various premium subscription levels users will be able to track biomarkers in their blood samples and even track the levels of methylation in their DNA. The app’s machine learning algorithms pull together all of this data to produce what the company calls an “H Score.” The big idea is to show well users are doing at slowing their aging—compared to others who have similar profiles or have taken similar actions—and to advise users on what else they could be doing to increase their H Score and their health span.</p><p>Harry interviews Geer about the startup's origin story, the app's features, Humanity Health's business model, and the argument for better integration of clinical and digital data into consumers' everyday health decisions.</p><p>You can find more details about this episode, as well as the entire run of MoneyBall Medicine's 50+ episodes, at <a href="https://glorikian.com/moneyball-medicine-podcast/">https://glorikian.com/moneyball-medicine-podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p>Harry Glorikian: On <i>Star Trek</i> the Vulcans have a saying: Live long and prosper. The “AND prosper” part is important, because nobody wants to live a long life, if it comes at the expense of their health and prosperity.</p><p>In fact, there’s a growing notion in the healthcare industry what you should really be trying to optimize isn’t your lifespan but your “healthspan,” meaning, the number of years of healthy functioning you can look forward to. </p><p>And that’s the main idea behind a new smartphone app and subscription service being developed by startup based in London called Humanity Health. The company came out of stealth mode in the UK last fall.  It’s testing its iPhone app on beta users in the UK now and will soon open up to users in the US.</p><p>The way Humanity’s CEO and co-founder Michael Geer explains it, we can’t affect our chronological age, but we <i>can</i> affect our biological age, if we take the right steps to stay fit and prevent disease. The Humanity app is designed to track various types of health-related data for free, such as exercise levels. At various premium subscription levels users will be able to track biomarkers in their blood samples and even track the levels of methylation in their DNA.</p><p>The app’s machine learning algorithms pull together all of this data to produce what the company calls an “H Score.” The big idea is to show how well users are doing at slowing their aging, compared to others who have similar profiles or have taken similar actions, and to advise users on what else they could be doing to increase their H Score and their healthspan.</p><p>It’s intriguing stuff. But the jury is still out on whether Geer and his colleagues can scale up a premium health-tech service to millions of customers. That’s one of the questions I covered in my interview with Geer, which we’ll go to right into now.</p><p>Harry Glorikian: Michael, welcome to the show.</p><p>Michael Geer: Thanks, Harry. Yeah, excited to be on here.</p><p>Harry Glorikian: So. Let's start off like I mean, before we get into the details on the company or what you're doing there at Humanity, your background is more tech than it is health. So what did you do in the past and what sort of prepared you for starting a health tech company?</p><p>Michael Geer: Yeah, for sure. Yeah, so I guess I started off as a failed astronaut, I did aerospace and space. I'll get there eventually, pay my way in as many of us will end up doing. But yes, then because of that obsession, ended up over in Moscow and ended up starting one of the, you know, being on the founding team of one of the biggest dating sites in the world, Badoo. When I left Badoo, which is around 2010, Those two years right after that, that I had a couple of people close to me got late stage cancer.</p><p>And so sitting there in my late 20s feeling invincible, as you do in your late 20s, and you had this success but couldn't do anything for these two people, felt completely helpless. And so what I guess started searching for at that point was, it started with a specific journey, which was, OK, why are people finding out, you know, late stage about cancer like these? These were two people that were living in cities, they're middle class. There was no reason why they didn't have access to medicine or health care. And they were still, you know, finding out stage four in both cases. And so I started going down that rabbit hole. And I guess my engineering background is probably what has led me through my life, whatever, you know, job or business I started. And so just like, OK, why aren't we screening everybody for cancer? Then the next step was, you know, the main answer was too many false positives in the tests that we screened everybody. Will send people towards a bunch of procedures. They don't need to kill more people than we save kind of thing.</p><p>Michael Geer: And so I had reached out to, being a founder, you start just you know, if you want to learn about something, you just reach out to the top person in that space. I reached out to George Church, he was actually the first person that I asked about genetics. Yeah, he was kind enough to meet with me, answer all my stupid questions. And so it went. I wasn't planning to start a health tech company. This was more personal, like I need to learn more about this because I don't want to feel so helpless, because unfortunately, I think this will probably happen, continue to happen. And just on a personal note, my uncle just passed away from cancer a couple of days ago. So it continues to happen.</p><p>Harry Glorikian: Sorry.</p><p>Michael Geer: Thank you. But I think there is a difference between then and now, as I do have a lot more optimism, because, you know, there's things like, you know, Grail and companies like that that are really kind of pushing the envelope on early detection. But anyway, getting back to your question, so when I started to believe that we could actually start a company in the space and get into health tech was when I was in so many rooms with all these great scientists, these stem cell researchers, immunologists, people out in the Valley when I moved out there, and they ... you know, there's so many breakthroughs that happen in science and so much known knowns that you're sitting around in these rooms with the scientists and they're like, yeah, of course, that's the way it is. And you're like, OK, tell me more. And you can see that they've done the experiments. They have the data. It shows that that's the way it is. It's just these aren't the same people that know how to get to a million people. You know, the distribution path is quite simple on that side, is you need to get it to a pharma company or something like that, then they have the way to get it to all the doctors and then the doctors can distribute it to people.</p><p>Michael Geer: And so what I started to see in the preventive space, and that's when I dragged in Pete, my co-founder, which we can talk more about, was that there was just a ton of stuff that we already knew in science that we could actually bring out to people on the preventive side, both monitoring their health and also, you know, help directing them and, you know, guiding them and what they can do, that there needed to be more people on the consumer tech side actually bringing that out to the millions of people through that distribution path, because really the pharma-doctor path doesn't actually work as well or really at all right now for preventive measures.</p><p>Harry Glorikian: Well, it's that, you know, that whole system is not necessarily designed for paying for prevention, it's paying for, you know, fixing something that's wrong.</p><p>Michael Geer: Yeah, I mean, it's that I mean, that's definitely that probably the top one. It's also, it's just the system of indications. And then when you have an indication, then you can market to it, like the whole distribution pattern is based on, you need to have a very finite target. And preventive stuff isn't as finite.</p><p>Harry Glorikian: Yeah, yeah. I mean, there are some things that we can clearly, you know, we know what the marker is and we can see the disease that it causes. So you try to get ahead of it. But some of the areas that you guys are looking at, you know, is still, I want to say a work in progress, you know, there's no, say, defined marker for aging, per se, right, that I know of. What convinced Peter to join, because I think he was someone he was somewhere else, right?</p><p>Michael Geer: Yeah, so and then we should go back to the markers for aging because this is a fun conversation I always have with folks. Yeah. Yeah. So with Peter, he was similar. He didn't want to be an astronaut. He wanted to be an entrepreneur his whole life. So he succeeded and in his very first love. But he was at the beginning of the social networking boom, had an amazing website that called WAYN. It basically allowed you to connect with people around the world, which we kind of take for granted now. And so he had gone on that path and was just, you know, we had met each other in London, had really respected each other. I had actually jumped on and worked with him at WAYN for a couple of years, for a few months. And so we figured out we could, you know, work well together. And so really, he was I would like to say that he was the top of my list. I think he was my list when I wanted to found something new. It was it was like, no, I need I need Pete to come in on this with me. And, you know, we have the same consumer tech side, but he has just a lot of skills with team building and, you know, investment and stuff. That's just that's not my usual daily focus. So it makes for a good team. And but it was also important that he believed me and believed in the science. And so that was that was kind of that first process. We actually went on a bunch of what we called at the time, like science fantasy camps. One of them was, Illumina has a program called, or they did, I'm not sure if they still do, "Understand Your Genome."</p><p>Harry Glorikian: Yep. I've done it.</p><p>Michael Geer: And so we went to this one was in Boston. And so it was like we went there. We actually I think we generally picked up a couple of our future science advisors and that one trip alone. And so, yeah. So after, and again, it's this kind of process and that's what we hope humanity will be able to do in a faster process, is get that message out that there is a difference in the rates that we age and that our bodies lose function and we can do something about it. And I think those kind of two years of traveling around on and off with Pete was kind of the very hands on version of what we hope to do at a bigger scale with Humanity. And so once he came around and became a believer like me completely, then then we started looking at what we could actually build.</p><p>Harry Glorikian: So tell me, what is Humanity, the company offering to people? What is the, call it the product, or the subscription? Right. Walk me through what it is. And maybe at some point you can sort of also go through what the app is, that sort of pulls all this together so that the person can see their information.</p><p>Michael Geer: Yep. Yeah. So our main focus with Humanity is to extend people's health span, which basically means, you know, increase your, as much as possible, healthy years. So wherever you're starting from, just keep you either at that level or make you healthier and make sure that that continues as long as possible. Health span, probably a quick way for people to think of it, and biological age, we can get deeper into that, is the idea that, you know, you can have a very unhealthy, you know, 75-year-old or you can have a really healthy, you know, fairly fully functional 75-year-old. And so you want to be that fully functional 75-year-old. And the same thing for the 40-year-old and the 50-year-old. And so our focus is basically to allow people to start to see what actions they can take on a daily basis to basically extend their health span. So basically, we put it in the app as you know, reducing your biological age, which is just a measure of your kind of probability of disease and a measure of your current function of your body. And so the idea is to have all that working in the background, the collection of all that data, the running it through the predictive models, but really to the user just nudges and kind of information that guides them towards doing more the actions on a daily basis that they need to do to, you know, increase their health span.</p><p>Harry Glorikian: So how does that differ from, say, I mean, you know, there are all these other, there's obviously the Apple Watch, right, get up, walk around, breathe, all that good stuff. Then there's things like the WHOOP band, which, you know, sort of gives you things like stress scores. And, you know, supposedly you could be able to tell whether you had alcohol the night before or not because it, you know, disrupts sleep patterns. And so how does what you guys are putting together, you know, make a difference? I mean, I remember seeing something about taking blood regularly. What are the components that you guys have put together to sort of build a full package?</p><p>Michael Geer: Yeah, I think, and what we saw in the space, the questions that Pete and I started asking when we were kind of submerging ourselves in the science, was, OK once we fully believed in this idea that people age at different rates, there's a thing called a biological age, which is just kind of a coined term of describing that loss of function. Then we started asking very product kind of consumer tech questions like, OK, first of all, can we measure it? And second, very importantly, can we measure it for a low enough price that we could actually bring this to direct to consumer? Because, I mean, we talk about this kind of off camera. But one of the reasons we know each other here is because through Christine, who runs Evidation Health and I for years would always be tagging along to different conferences when I was running the tech companies.</p><p>Harry Glorikian: Right</p><p>Michael Geer:And seeing people go through this trouble in those first years. And what me and Christine saw kind of falling by the wayside is all these very motivated people who come into the space. And the next thing you know, all they could talk about is we're trying to get this deal with this insurance company. That was kind of like the never-ending kind of cycle of optimism and then kind of loss of optimism.</p><p>Michael Geer: And so we basically started with, OK, can we measure it and can we do it cheaply enough? And so then we basically, I guess and the reason, the fact that we started at that basic kind of science level, I think, is different than a lot of people started. So like Fitbit would start with, can we measure this particular action, right. Or WHOOP would start with, you know, can we can we help athletes know how much they've recovered and how much with exercise the next day. We started much more on the side of, can we just measure people's function and loss of function in their body and then evolve from once we figured that we could do that and cheaply enough, the idea evolved to, OK, once we do that really well, we just give this feedback loop of are you know, are you becoming younger or are you becoming older in the loss of function since then, we could also monitor all the actions that we're taking and start to basically change the weightings of the points that they're getting from those actions and start to actually guide people towards changing this first main thing, which is, you know, is their biological age going up or down?</p><p>Harry Glorikian: So when you're doing one of these blood tests, what are you measuring in a blood test? Right. I could show you the laundry list of stuff that my doctor orders for me. Right. Which, you know, if you don't know what they are, it's basically gobbledygook. But just curious.</p><p>Michael Geer: Yeah. And I think that's, I mean, we try to stay out of the weeds presenting this to the user base, but I think talking to investors and talking to other people in the space, the inside baseball on this is, this overconcentration on like moving one marker? It's kind of also based on what we started with, talking about clinical trials. Clinical trials and those kind of research studies are based on trying to see if one thing affects this other thing. And so you end up with this kind of conglomeration of, you know, cholesterol is bad for you. So whenever we see cholesterol outside of the norm, then we just need to concentrate on getting that one marker down. But I think most people have kind of, most doctors, and I think definitely all scientists now, have come to the understanding that all these things are kind of homeostasis of, and representative of, homeostasis in the body. And so you can't just concentrate on one marker moved one way or the other. That's one thing. So, OK, great. Mike, you know, don't look at one marker. So you look at all the markers. Yeah.</p><p>Michael Geer: So what you end up doing is you need to have a longitudinal data set which has future health outcomes. So, basically that you can see the future. Right. And so, you know, and so the examples of this is like UK Biobank, Estonian Biobank, Framingham in Massachusetts, you got Jackson Heart Study. And so, you know, the future health outcomes. And then luckily, in many cases, you have past markers that have biomarkers that have been taken. And this, you know, example, the clinical markers, the analytes in the blood. And so really what ends up happening at this point, although one of our SABs has kind of taken this to the next level, is a lot of times you end up with the common panels. So your lipid panel, your full blood count, that sort of stuff, you end up with, those are the markers that you want to grab, because those are markers you can compare to that longitudinal data that has the health outcomes. So you can do your models. Kristen Fortney, just give a shout out to one of our SABs, has a company BioAge. She took it to the next level because a lot of these bio banks actually have stored samples. And so she would take the samples off the shelf and measure a lot more analytes. The reason why the first part is actually very useful is those analytes end up being very cheap and the same thing.</p><p>Harry Glorikian: Right.</p><p>Michael Geer: So you kind of actually want to keep on that level. You want to you want to say, hey, I want that $5 panel, that $8 panel and put them together. And then that's going to give me a predictive model. And so if I can get to that point, which we can, then that's better than, you know, the $1,000.</p><p>Harry Glorikian: No, no. I mean, but, you know, like I was talking to Joel Dudley from Tempus and they're trying to basically off of one sample, do every, you know, thing you can do on it and storing that because they know that over time like that, data set is going to have more and more value that that will be created. Right. So it's sort of what do I do today versus what should I be doing to get ready for tomorrow?</p><p>Michael Geer: So there's two things there. And, you know, there's great people like Mike Snyder out at Stanford in the precision medicine kind of personalized medicine space. Right. And the stuff that they're doing is super valuable. They're basically, yeah, they're getting every marker on everything and they're like highly phenotyping, as they say, kind of people. The thing is, when you do then go to bring that to the masses, you do need to go through a process of basically whittling it down to what are the markers we can actually collect at any time, because that that kind of limits your ability to actually bring the service to a user. Right.</p><p>Harry Glorikian: So there's a basic subscription and then I think a premium subscription. I mean, there's, trying to figure it out from reading a bunch of stuff which isn't clear, necessarily clear on the website.</p><p>Michael Geer: Coming out of stealth, we're still in closed beta. So, yeah, we're still a little bit stealthy.</p><p>Harry Glorikian: So what's going to be the offering and what is somebody's get for what? I guess.</p><p>Michael Geer: Yeah. So I mean, like anything, these things will iterate. But right now, so we brought in 70 alpha users, fully paid alpha users in the UK, which is not actually traditional. Usually you bring in people for free. But we wanted to see if people were willing to pay different prices to get the service. </p><p>Harry Glorikian: I want to pause the interview right here because just as Michael was explaining the company’s pricing model, out Internet connection dropped. I followed up with him later and got the details by email.</p><p>Michael explained that the company is currently testing different price points for its different subscription levels with its test customers in the UK.  Some of the tracking features will be available for free. For an entry-level subscription fee, customers will get insight into their biological age and what actions are working for people like them. The company is currently testing a price of around $30 per year. And one level up from that, customers will be able to send in blood samples for clinical tests of common biomarkers like lipid levels, for a fee of around $100 per quarter. And for an even higher fee of around $300 per quarter, the company will analyze customers’ DNA methylation, which is thought to be one indicator of aging.</p><p>Michael wrote to me, quote, “Pete and I have built freemium applications with millions of subscribers in multiple past projects and really love its ability to deliver more good to more people globally,” unquote. Okay, back to the interview.</p><p>Michael Geer: And then all data comes into different predictive models that we have and then we have a composite, kinda master model and the accuracy, you know, as you combine those models becomes higher and higher. Our goal, though, is definitely to make the digital side as predictive as possible, which I think I mean, we can either get into it or not. But the frequency of measurements, you know, all this kind of stuff plays into how predictive a model can be and obviously your data set with the future outcomes. And so we think there's no kind of mathematical or science reason why the digital biomarkers can't be highly predictive.</p><p>Harry Glorikian: Well, I mean, there's always stuff you can't see that's inside. Right. That's happening at a different level. I mean, if you look at all the work that's happening with, you know, the Oura ring or now that, you know, there was something on the Apple Watch. Seeing certain physiological changes ahead of time, you can sort of predict what's going to happen. If you could actually, like you said, Grail and you know, some of the other companies out there like Garden, they're looking at blood where you can see, you know, very small changes that might predict some future state. But, so look....</p><p>Michael Geer: On that point, I think the future is definitely, ... From consumer tech, it's all funnels. And so my mind is always thinking funnels, you know, but in the medical space, you would call it triaging or, you know. So I think the future is definitely that you start off with a digital, you detect something. It might not be clear exactly what it is. You then you then get bumped up to your GP or your you know, your family doctor or, you know, you go through kind of a telemedicine, go through PWN into your Grail test, if they think that that's like the next step. All that's built out. And honestly, I think you're 2021 is going to be quite a year for, like, all that stuff to finally come to fruition at least in its first kind of prototype form of that that whole funnel of health that make sure that we're much more protected than we are.</p><p>Harry Glorikian: Yeah. I mean look, so, you know, we can both agree that the medical establishment, which, you know, I have a, I'm trying to have my feet in both spaces because they're colliding, as you know, definitely would say, look, if you're more active, it's you know, you're going to be healthier than when you're less active. Right. Couch potato versus somebody that at least goes for a walk eating unprocessed foods, right, is healthier than eating a lot of, like, snacks. Funny, because my son said to me, oh, my, I hate so many Cheetos last night. I feel like I have a rock in my... So clearly not a good thing to do. Right. Meditation can reduce stress. I keep trying to impress on them that they should pick this up as a habit. Not when you're older, like I am. Right. And that decent sleep every day makes a huge difference, because of recovery and so forth. I'm sure the medical establishment would say, like, look, if you can track these things and make yourself better, that's probably good. And then, OK, if you can look at bloodwork and DNA genotyping and methylation, even better. Right. Which is Ventner's old company, Longevity, is a company that's trying to do a lot of that stuff. What is Humanity adding to this equation? What is the argument that distills all this data down to what you're calling, I believe it's an H Score.</p><p>Michael Geer: Yep, yep. So the. So there's kind of two things missing at the moment, and they exist in different pieces, in different places. The first is on the holistic actual connecting your biomarkers with these longitudinal data sets that have the future health outcomes. Like the real predictive. So it's it sounds a little inside baseball, but a lot of these systems are actually built on a different paradigm. And a lot of the systems are actually built on a bunch of cobbled together meta-studies of clinical trials. Which, as people that kind of focus on the on the space, you know, everything goes to zero. It's like a statics course. It's like everything kind of just evens out. And so a lot of the stuff is based on kind of picking and choosing which kind of meta studies you believe in, which then dictates what means you're being healthier and what means you're not. And so the thing that me and Pete wanted to make sure is that this thing is really built on real data because you could just as easily, you know, just say, OK, what do you what are you doing? OK, here is the US (or) WHO or some organization says that this is healthy. So this is what this is what your score is going to be. But we have the data. So why don't we actually be sure about it and actually build it on these models? So that's one piece. </p><p>Michael Geer: The Humanity Score is the ability for giving points based on we're seeing those actions actually play out in that biological age. And so, again, it's not this is not this based on what people recommend generally, because as you well know, like as we grew up over the years, you know, recommendations have changed wildly. So and that's not to say that they weren't based on the best kind of knowledge at the time. You know, maybe, sometimes not. But so the recommendations shouldn't be the basis of knowing what actions I should take. But the last piece of that is, like all of us are different. And I think everybody, all doctors and definitely scientists can agree on that. And so being able to actually say this action and these combination of actions, that's the important part. The combination of actions. The Humanity Score allows us to dynamically, you know, change the score based on what we see in your biological age result. And so I'll give you one example. This is an example. So if you didn't sleep very well last night and you ate badly the day before 2:00 and then you got up early and you went for a 5K run, what you over time, what you see and a lot of these kind of longitudinal data is that you're actually being less healthy going out for that 5K run. You're actually, you're stressing your body too far. And I mean, this is the you know, this is what it seems the data saying. And so you can't just single out actions and just say, hey, you should run more. Hey, you should do this more, because the combination of those actions is very vital to whether it's healthy or not, so that the Humanity Score allows us to kind of put all those together to help them know if they're heading in the right direction. And so a single score that pulls together all these things to give you. One anecdote also is a lot of the people that we see now coming into the app or a bunch of them, if they're very healthy, a lot of times for some of them, that means the high intensity training like, you know, five mornings a week. But these same people then go to their desk and they sit there without moving for the next the next eight hours. Right.</p><p>Harry Glorikian: That would be me. That would definitely be me.</p><p>Michael Geer: Some people, maybe my co-founders as well. And so what's and but we know this constant touchstone where you can basically see what is the next action I can do to increase my score. And then you have this one score. It just is much better from a user motivation side than if you go into, I won't name any particular company, but if you go into their app and you need to go to your HRV chart and you need to go to your steps chart and you need to go to that, it's like great, a lot of data, but it's not really guiding me in the direction I need to go.</p><p>Harry Glorikian: Yeah, I mean, there's a couple of companies, right, that have tried to come up with this sort of aggregated score. It's funny because I know some of these and I know like couples, literally husband and wife will be almost competing on which score was better. Right. So let's you know, we're talking about an awful lot of data coming from a lot of different sources. And so what do you guys, how does machine learning play a role here? You know, what are you guys doing in a sense? And, you know, when I talk about A.I., I think it's just like, OK, here's my toolbox and I've got all these tools. And depending on what I'm trying to fix or what I'm trying to work on, I'm going to pull out this wrench or a hammer, I think. But it's part of the same toolbox. So how are you guys approaching this? Of course, without giving away the secret sauce of what are you guys doing? What patterns do you hope to detect and what predictions are you hoping to provide for users?</p><p>Michael Geer: Yeah, I mean, our aim is really on the one side that biological age, make it as predictive as possible. But as we go forward, I think the thing that we can do that that hasn't been done before is we are actually trying to score the actions in combination of actions that you are taking, not the user base, but you are taking. And so then, of course, across the database of all users, we can match you with people like you. So on all the attributes, not just not just your blood biomarkers or digital markers, but also your activity rates and other things. And we can start to actually learn across that, you know, bio twin or whatever you want to call it, of Harry, we can start to feed back to you, OK, you might want to try this action. You might want to do more of this action because it seems to be working on all your bio twins within the user base.</p><p>Harry Glorikian: This is Harry again. Our Internet connection cut out one more time while Michael was explaining how the app will track users’ eating habits and nutrition. The basic idea is just that the app won’t be counting every meal or every calorie.</p><p>Michael Geer: The focus will not be on trying to make sure that you tell us every single kind of vegetable portion that you that you give us. We're trying to be as agnostic as possible to the data we're taking in. And so if you are tracking that in quite detail in another app, you know, we're looking to hook in through APIs and through Apple Health with as many of those kind of apps so that your data doesn't replace. The biggest things that we'll be capturing is kind of the type of your diet, the frequency of your diet and kind of the time window. And those will be the main things that we come up in in the beginning. That's..</p><p>Harry Glorikian:How do you make that less burdensome to the you know, because I think to myself I'm like, crap, I'm spending so much time, like trying to track everything that </p><p>Michael Geer: I mean, that's the thing. Right. And that's where Pete and I, my background is in. The good news is that a lot of this stuff is already quite well connected to most of the stuff we're collecting on you is automated. So you just go about your day and, you know, the data comes in. And so it's coming through your wearable right now, most of it. So we're building on iOS first, so all of that stuff's coming into your Apple Health. We pull it out of HealthKit and then you don't have to do anything as a user. You basically just see your points racking up and you can get guidance on what you can do to increase your score more. And we'll look to do that on everything that we're tracking, not just nutrition, but, you know, not just activity, but each thing that we start to expand and kind of we want to collect as much of your lifestyle actions as possible so that the model can learn from it and become more accurate.</p><p>Harry Glorikian: So let's jump back for a second. Right. So. You're using all these older, you know, the Framingham heart study, et cetera, to build some sort of model that shows that with certain marker changes, biological age changes versus chronological age. But then is the assumption that you have to actually change some of those -- that you might be able to change that biological age?</p><p>Michael Geer: Yeah, I mean, that's a that's exactly it. You basically have a, and this isn't new its just been built on I would say better data. </p><p>Harry Glorikian: Oh, no, it's not, it's definitely not new.</p><p>Michael Geer: Certainly, you know, what I touch on is kind of the example of like the old ways. It's probably just more like the version one or two. And this is like the version three with cholesterol. You know that the reason why that became such a focus is because so many people that came in with heart attacks and when they started doing, you know, you know, bigger research studies as they saw that they had high cholesterol, it was like, you know, the person that was always in the room when the money got stolen kind of thing. Right. And so this is this is just expanding upon, that is you're looking at as many markers as you have in these longitudinal data sets and you're able to come up with a weighted probability of all the all the future diseases that ended up happening in that dataset, whether it be Framingham or NHANES or UK Biobank.</p><p>Harry Glorikian: So is there, is there any data that, you know that that and maybe you guys are starting to generate it, but you know where this health monitoring service can change morbidity and mortality across killers like, you know, cardiovascular, metabolic, et cetera?</p><p>Michael Geer: Yeah, the there's a lot of examples of it. There's I think the what we try to always do is keep it like the most highly accepted ones when we talk to talk to people about it. I think there's a lot of newer work that that's been very specific, but there's just a ton of work that actually led to all those recommendations that we ended up with anyway. Right. They would do kind of these is more controlled studies where, you know, this group would do this amount of exercise in this group wouldn't. And they tried to control for all the factors within those two groups. And so there's a there's a ton of kind of peer reviewed research studies that basically show that these different interventions actually did change the future health outcomes, whether, you know, reduce the occurrence of cancer or reduce the occurrence of heart attack. And so all these things have very much been proven. I think that thing, the new thing or the other thing that we're trying to really bring is not changing any of that. What we're trying to do is bring to consumers the ability to track it very closely, very accurately, and get that combinatorial, you know, of those actions. And so you could actually see like the like the example I was giving earlier, like better sleep plus the diet. Plus this amount of exercise is the perfect kind of optimal for you to really increase your health span. And that's the difference. I wouldn't say it's a difference in the accepted .... we never actually go into a room and kind of even like more traditional kind of, you know, on the on the medicine side, and no one really, as you said at all, these concepts are accepted already fully. It's more how do we actually deliver that to consumers at scale? And I think that's what we're that's what we're trying to tackle.</p><p>Harry Glorikian: Yeah, that's what I was going to go to next, which is, you know, you and Peter have like a lot of experience on digital products and services used by hundreds of millions of people. Right. Do you feel like Humanity is scalable in the same way?</p><p>Michael Geer: Yeah, and I think I think part of that is, is you start with the, I think I have a slide in one of my old presentations. I'll give it at conferences. The you know, you've got to, if you want a mainstream application that reaches hundreds of millions of people, you need to focus on a kind of a mainstream need for lack of a better word. You might say that Badoo, I would say Badoo kind of allowed you, the dating site that I that I started and the founding team, the you know, it allows you to meet new people. That was a tag line. But some would say, OK, it's sex. And so the sex sells, sex sells. So if you build something, you're probably going to get people to use it. And I think health is another one of those. Right. And I think that's. That makes us very optimistic that we can we can do it as long as we have the right team around us.</p><p>Harry Glorikian: And that was going to be my next question. So. Right. So what evidence do you have the consumers are, you know, really motivated and of course, there's, look, you know, helping Evidation and, you know, talking to Christine, there's always a group of people, right, that that are incredibly motivated to do these things. But now are you're talking about a large mass of people. You're saying you've got to collect this data. It'll get better if you have a wearable. You know, you've got to take this blood work every three months. And how do you keep them going over time? Like, how do we know that they're motivated?</p><p>Michael Geer: I think the thing that captures a lot of people's attention and captured me and Pete’s attention and captures users' attention, and it sounds too simple to be true, but the actual focus on aging is very motivating. Just to give you a couple of anecdotes from our alpha users, you know, one of them, one of them saw her rate of aging and very soon after moved to another country where she could live in a place where she could go hiking a lot. We you know, we saw another person. We actually heard this a couple of times from users where they basically when they got their first rate of aging, they basically went for a run right afterward. Actually, this is the thing that's realistically going to make them younger. But the fact is that seeing your rate of aging as it kind of cuts through all the more nebulous stuff, when people say be healthier, you can say be healthier to a room of 10 people and they probably have, you know, 10 or eight different ideas of what that means. Right.</p><p>Harry Glorikian: There was a video, I think that somebody created that, you know, you could put your picture in there and it would actually age you. And I think for a lot of younger people, it freaked them out, right, because they never think about it. And then to see yourself, maybe you guys need to add that as a part of the service. If you continue down this route, you could look like this.</p><p>Michael Geer: And we will, because I think I think the other thing the other thing that you realize when you, there's things that need to be very strict and serious. Right. And there's but in that slide, the data that you present to the user, you know, the anything you present to the user that's about their health needs to be dead on. Right. But the way that you capture their attention and the way that you motivate them to do things outside of that first rule, you know, we need to use all the all the tricks that people all the kind of methods that people, you know, say are bad with Facebook or some other service. Like I think we all kind of agree, like it would be so much better if those methods were used to actually make us healthier and happier, right</p><p>Harry Glorikian: No, no. I mean, you know, we always found that gamification and reward systems and all those things that sort of motivate people to do things that they're critical to call it, changing a bad habit, right, and trying to motivate, you know, people to be healthier, I mean, I'm sure that there are physicians that are listening to this going, I can't get my patient to do what I need them to do. What are you guys talking about? But I think that some of these technologies and some of these interactivity of just nudging someone. You know, it does get them to think about things.</p><p>Michael Geer: I think the, so the example that I always give is so when you come from the outside, let's say Pete and I are coming from the outside here. We're consumer tech folks. We there's never been a popular or, you know, mass scale product that didn't have feedback loops. And so when you go to and this isn't a criticism of the of the doctors, but it's just kind of a, you shouldn't expect something unless you have that feedback loop. So if you if you put a photo up on Facebook and no one likes it or comments on it, like how many more photos do you think that person is going to post on Facebook? None, right? It's you've got to have that feedback loop of, I did something and now I see the reaction. Right. And so when you go to a doctor like once a year and your doctor kind of looks at your chart and you're kind of like, you're ranging a little bit out of norm, but you're not doing anything critical. And they're like, you need to be healthier, you need to exercise more. And you're like and you probably leave that meeting with the doctor like semi-motivated or at least thinking about it. And then but what happens the next day? Like what happens if you go for a run and then what do you look at getting another blood test? You're not getting any kind of real feedback. And so getting the feedback loops really tight is you can't expect the motivation without it. And so that's kind of table stakes. And I think a lot of times people start to espouse that people are never going to be motivated. But it's the system needs to just be you know, it needs to be a better kind of loop created.</p><p>Harry Glorikian: So how does how does a patient take this and then interact with their physician or the medical establishment or so forth?</p><p>Michael Geer: Yeah, I mean, that's one of the one of the things we thought really deeply about is so when you're making something like this and anybody that is making any app or any kind of service that collects any biomarkers knows that you will come across things that, you know, need more attention or they seem like they need more attention. Right. And so one of the things that we already do is we do a kind of physician oversight on top of the blood markers before they come back into the system. And we basically triage people out to their GP and make sure that they can, you know, hand those results to the GP. We do that whole system to make sure that anything that looks like it might be further out of the norm is actually brought to the user's attention and they know the next step they should take. I think that can be done at an even more seamless level telemedicine and different things, you see this with, you know, genetic testing already in the consumer spaces, some of the better companies will set you up. So Color. This was even years ago when I did Color for the first time, which does, you know, cancer genetic markers. You know, that part of their service is you got a genetic counseling session. And I think that's what we touched on earlier about the kind of like funnel of preventative. And then when something might be detected, even, you know, that handoff.</p><p>Harry Glorikian: Yeah. I mean, this thing here, it'll take my measurement for free. Yeah, exactly. But, you know, then it has the subscription service where there's a machine learning algorithm which will say something is wrong and then it'll elevated to a physician if, you know, if it's completely out of line. So I totally understand the process. But, so, what's the long-term vision? Is it a consumer product? Is it something where you're you know, you've got industry partnerships with either health care providers or insurers or drug developers? What's the plan?</p><p>Michael Geer: Yeah, I think when we, when people that kind of did services that got to a larger level, the method that's in we'll use this on Humanity because it's worked for us so far is you start direct to consumer. You get that. Products. You want that that direct interchange with the consumer. Right. You then the next step is, it's a very easy step is to be to see or then other people that have connection with a lot of people then distribute your products directly to those other people. I think the bigger, bigger vision is where we got to kind of with AnchorFree, which is the consumer VPN that I that I help run out in the valley, which had 700 million people. As you start to actually try to lift and kind of effect the market as a as a whole set with the consumer vendors, we basically started refusing to allow any government agencies or anything to see our servers and we started to affect policy on a kind of a larger level and different countries in the sense of humanity. We want to be super open and collaborative. And so, you know, our model is, is consumer subscription model. We don't want to be, we don't we don't have a need to lock down IP. We don't have a need to you know, we're just doing a consumer. Then we're going to get IP, then we're going to have a license, licensing kind of model. Our mission is to have that kind of that subscription model bring as much value into the free portion so that it's as radically inclusive as possible and then preserving the privacy of that data, allow modeling on that data that can help raise all ships. And in the research space, it and that's yeah, that's kind of the five-year plan and probably that's the 15-year plan. But, you know, you see what happens as you go.</p><p>Harry Glorikian: Awesome. Well, it was great to catch up with you and talk to you. Appreciate the time. I'm super curious to see how this evolution comes out and. You know, maybe one of these days we can hop on and, you know, if there's anonymized data, I'd love to see what you guys are seeing, always super interesting. So uh excellent I actually look forward to it.</p><p>Michael Geer: Thanks, Harry.</p><p>Harry Glorikian: That’s it for this week’s show. We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at glorikian dot com forward-slash podcast. You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts. Thanks, and we’ll be back soon with our next interview.</p>
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      <itunes:title>What&apos;s more important? Lifespan or Health Span? -  Michael Geer</itunes:title>
      <itunes:author>harry glorikian, michael geer</itunes:author>
      <itunes:duration>00:49:17</itunes:duration>
      <itunes:summary>Michael Geer is co-founder and CSO (Chief Strategy Officer) of Humanity Health, a London-based startup that&apos;s building an iPhone app and subscription service designed to help users slow or reverse their rate of aging. Geer&apos;s co-founder Pete Ward has described the app as like “Waze for maximizing health span,&quot; that is, their predicted years of healthy functioning. This week Harry grills Geer on the app&apos;s features, the startup&apos;s business model, and the argument for better integration of clinical and digital data into consumers&apos; everyday health decisions.</itunes:summary>
      <itunes:subtitle>Michael Geer is co-founder and CSO (Chief Strategy Officer) of Humanity Health, a London-based startup that&apos;s building an iPhone app and subscription service designed to help users slow or reverse their rate of aging. Geer&apos;s co-founder Pete Ward has described the app as like “Waze for maximizing health span,&quot; that is, their predicted years of healthy functioning. This week Harry grills Geer on the app&apos;s features, the startup&apos;s business model, and the argument for better integration of clinical and digital data into consumers&apos; everyday health decisions.</itunes:subtitle>
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      <title>IntelinAir&apos;s AI-Driven Image Analysis is Saving Crops - Down on the Farm today but tomorrow.....</title>
      <description><![CDATA[<p>This week on MoneyBall Medicine, Harry takes a field trip (literally!) into farming and agriculture. His guests are Al Eisaian co-founder and CEO of crop intelligence IntelinAir, and the company’s director of machine learning, Jennifer Hobbs. Intelinair’s AGMRI platform uses customized computer vision and deep learning algorithms to sift through terabytes of aerial image data, to help farmers identify problems like weeds or pests that can go undetected from the ground. The parallels to the digital transformation in healthcare aren't hard to spot.</p><p>Harry has talked with scores of guests about advanced computer science techniques like neural networks, computer vision, and machine learning and how they’re changing the way healthcare providers can find patterns in genomic data or radiology images. But the fact is, these same techniques are being used to generate new kinds of actionable insights in many other areas, including agriculture. In fact, today’s farmers are almost overwhelmed by the volume of imaging available to them from drones, airborne cameras, and satellites. IntelinAir uses AI techniques to spot patterns and trends in these images, in a bid to help farmers address problems before they get out of hand, while making smarter use of fertilizers and pesticides.</p><p>Which sounds a lot like using digital health data to keep patients healthier while making smarter use of pharmaceuticals. So don’t be surprised if ag tech companies end up having a thing or two to teach the digital health industry.</p><p>You can find more details about this episode, as well as the entire run of MoneyBall Medicine's 50+ episodes, at <a href="https://glorikian.com/moneyball-medicine-podcast/">https://glorikian.com/moneyball-medicine-podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian: </strong>We talk a lot on the show about advanced computer science techniques like neural networks, computer vision, and machine learning and how they’re changing the way healthcare providers can find patterns in genomic data or radiology images. But the fact is, these same techniques are being used to generate new kinds of actionable insights in many other areas. And today I thought it would be a fun exercise to take a field trip…literally!... into farming and agriculture. Just like doctors, today’s farmers are almost overwhelmed by the volume of imaging that’s now available to them. In the clinic, these images come from MRI machines and other types of scanners. On the farm, they come from drones, airborne cameras, and satellites. And in both cases, if you can use AI techniques to spot patterns and trends in the images, you’re then in a position to address problems before they get out of hand.</p><p>We’re about to meet two executives from IntelinAir, an ag-tech startup that offers a so-called “crop intelligence platform” called AGMRI. It consists of customized computer vision and deep learning algorithms that sift through terabytes of aerial imaging to help farmers identify problems that can be hard to spot from the ground. We’re talking about things like weed infestations, nutrient or water deficiencies, weather damage, insect damage, fungal damage, and poor tillage or drainage patterns. The company flies over client’s fields up to 13 times per season, which means they can provide a picture of the evolving health of the crops in those fields. Ultimately the goal is to help farmers increase yields while making smarter use of fertilizers and pesticides. Which sounds a lot like keeping patients healthier while making smarter use of pharmaceuticals. But as we’ll hear, the flood of new data that’s available to farmers is even bigger in some ways than that available to doctors. So it won’t be surprising to me if ag tech companies end up having a thing or two to teach the digital health industry. So without further ado, let’s meet IntelinAir’s co-founder and CEO Al Eisaian, and its director of machine learning, Jennifer Hobbs.</p><p><strong>Harry Glorikian: </strong>Al, Jennifer, welcome to the show.</p><p><strong>Al Eisaian: </strong>Hey, thanks for having us.</p><p><strong>Harry Glorikian: </strong>No, it's great to have you guys on the show. And I know that I'm sort of slightly stepping out of the bounds of what is, what would be looked at is as traditional health care. But I thought this episode would be really interesting to go into from from two sides. One is, obviously, you guys are in the agricultural space and agriculture is, as far as I'm concerned, paramount to health. As a matter of fact, it's probably a better way to keep people healthy, if they just eat better. And the other side of it is the image analytics I've always looked at, the technology doesn't necessarily care what it ingests. It has the ability to see all sorts of features, whether that's a crop or an insect or an image on a radiology scan or, you know, a pathology slide. There's all the... I think the technology can blur where it is and how it's applied. But before we get started with that is, Al, tell us the origin story. How did this how did IntelinAir get started. How did you end up doing this?</p><p><strong>Al Eisaian: </strong>Sure. It's an interesting story because I was invited to talk to a lot of PhDs and graduate students about entrepreneurship back in 2014. So I was invited to go to UIUC and give a talk. And so I did. And as you know... I landed in Chicago and then you drive through three hours of corn and soybean fields. And it was interesting. And I was like, I didn't think much of it. But during the few days that I was at UIUC, they took me through all the very impressive buildings and very impressive labs that they had. So I had no idea that, you know, Ray Ozzie went there. I had no idea that Marc Andreessen, graduated from there. And so there were all these buildings that I was looking at. And then they took me to the to the Ag Department. So I found out very quickly that there's, that UIUC was one of the epicenters of data science. Fei-fei Li went there. So that this whole stuff with deep, deep learning and imagenet and all that stuff actually had its origin there. And then it went to Princeton and then Stanford.</p><p><strong>Al Eisaian: </strong>So I knew I knew nothing about agriculture. But I had just recently sold my company and I was thinking like, where do I spend the next decade of my life or more? And I wanted to do something that had global impact. And I've been a little bit of a sustainability nerd for a long time. And and I sort of put two and two together. After about a year of doing research, I said, yeah, this is an area that I can bring my passion for big data and data analytics and agriculture and try to make something that would be more than just about making money. And then so that's how IntelinAir was born. My co-founder is a professor at UIUC, is a very storied professor, Professor Hovakimyan, and and so we kind of put our heads together and we said this is what we can do. And so when you look at even the name, IntelinAir, stands for intelligence in air. So it's really around observation, it's really about, if you want to improve anything you have to measure it, you have to measure it frequently, and you have to validate that measurement, and then actually put science to work. So that's the origin story of of IntelinAir. </p><p><strong>Harry Glorikian: </strong>So at the highest level, what's the value proposition here? Are we trying to make farming more efficient, more sustainable, more productive? All of the above? I mean, how are you guys thinking about this?</p><p><strong>Al Eisaian: </strong>Yeah, so and I'm big on names that kind of actually describe what we do. So the name of the product and the service is called AGMRI. So a lot of analogs from health care. So AG stands for agriculture and MRI, the way we describe it is Measurable, Reliable Intelligence. So if you can agree to the thesis that if you want to improve something, you have to frequently measure and see what the behavior of that thing that you're trying to improve is observed properly, accurately, and then you put the types of, you make the types of decisions that allows you to introduce and make those improvements. So at the highest level, it's a comprehensive crop performance intelligence platform. And when I say comprehensive, I mean full scope and I mean full season. So when I say full scope, it's everything, it's not just imagery, it's soil information, it's weather information, it's everything that is absolutely essential for growing crops. It's the farmer practices. It's getting the IoT information off the equipment. It's all of those things combined. It's sort of what we call there is our gigantic data ingestion challenge. Right? We're talking about petabytes of data. The value proposition really is around timely, actionable insights that allows not only the farmer, but the whole ecosystem of farming to benefit and make better decisions. So it's something that provides value to the entire value chain.</p><p><strong>Harry Glorikian: </strong>So what is the special sauce of this? What can you do with high resolution field images that that no one else can do, or what is the computer vision...and I feel like Jennifer's about to jump in here any second now and tell me like...but what is that special sauce that you guys have brought to the table? Because I have a feeling here there's multiple layers of information that are getting stacked on top of each other to sort of, I want to say, tell a story of what's happening. Tell me how you guys would describe this. And remember, there are probably no farmers that are listening to this podcast. So if you could sort of put it into context, because at some point I can almost see that these, this approach has a superimposition onto different parts of health care when we look at it.</p><p><strong>Al Eisaian: </strong>Sure. Jennifer, do you want to take the lead and I'll chime in as necessary?</p><p><strong>Jennifer Hobbs: </strong>Absolutely. So much like health care, our data is truly huge. A lot of people talk about big data, but our data really is big and it's big in a lot of different ways. So, as Al mentioned, we have lots of different channels, right? We have RGB, we have near-infrared. We also have things like thermal. We have the soil information. We have the topo maps. We have all of this information that we can incorporate into the models. Then additionally, we have it at high res. So there's a lot of things and a lot of work, and computer vision in agriculture in the past has been limited to publicly available, low-resolution satellite data. And it's great that it's out there and it's free and it covers lots of different areas. But there's only so much you can see at that resolution. Where at the resolution we're at, we're able to see the crops emerge weeks before you can see it in satellite, you can see the different stressors within the field. You can see individual weeds and weed clusters. And that really, that level of size makes the data richer, allows us to do earlier and better prediction across all of the different tasks that we're interested in. And then because we fly around 13 times a season, we have a continually evolving view of the field. So from a single snapshot, at any point in time, you can do prediction decently well. It's pretty hard to do prediction, but with this temporal element, now all of a sudden you have that story, you have that evolving health of the field. And we can do, by using multiple flights, we can do both better detection as well as better prediction. And that's very exciting. So it's big data on a lot of different fronts. And because we have so much of it, we can then turn around and use a lot of the deep learning methods out there that help us deliver these models across a variety of tasks, a variety of different lighting conditions, domains, and really scale up quickly and and address the issues that are most pressing to the farmers.</p><p><strong>Al Eisaian: </strong>So, and just to give you an indication on scale, when we talk about resolution, the free satellite is like 10-meter by 10-meter squares. We're talking about 8- to 10-centimeter squares.</p><p><strong>Harry Glorikian: </strong>Yeah, like you can actually see the bug on the leaf.</p><p><strong>Al Eisaian: </strong>Not quite, not quite. We need to get down to like maybe a couple of centimeters to see the bug on the leaf. But we can see a lot at 8 to 10 centimeters. And that's not far away, right? I mean, a couple of centimeters at scale. You can do it with drones today. The big question is, again, the volume of data. Because every time you come down, you know, it just explodes.</p><p><strong>Harry Glorikian: </strong>So every one of these companies out there is obviously trying to convince... It was funny because I was reading, I haven't gotten through it, but a Technology Review piece that was just written about ag tech. But everybody's trying to convince, "You need our technology because it improves yield," or some other aspect. And so how do you... What's the pitch? And how do you win a farmer's trust, right, to be part of this process that they're doing</p><p><strong>Al Eisaian: </strong>You know, I think, again, back to how the company was built. I mean, way before we decided to really focus on just the ag sector, I personally had, I visited like a hundred farmers. And then my team has probably visited hundreds of farmers. A lot of those visits were actually in their farms. And then a lot more was done at these shows, Farm Progress and other shows. We would just engage people in conversation and ask them, What are the issues that they're having? How do they do their days work? And we had a lot of a ride along. Literally we lived with farmers, just to try to understand what are the...it's not just technology for technology's sake. In our case, was the question was, is it going to be used? Is it going to be used? And farmers basically were not interested in just getting bunch of images. They were like, "Just tell me what my problems are. Tell me Soon enough that I can go address it. And if you do that, then we'll engage." So initially, the first couple of years we were just iterating with the farmers, directly with the farmers. The last couple of years, what we've done is, obviously we think that we're kind of getting closer and closer, and I think we are there now, where this technology can be distributed by through our partners. So large companies that have tens of thousands of farmers that they can serve with our technology. So the go-to-market with farming is quite a challenge. And that's thing that I completely, completely underestimated. I thought farming was simple. Farming is really, really complex. And I was like, this is my fifth company I've started in two decades. And I can say by probably an order of magnitude, this has been the hardest because there's so many elements, especially outdoor farming. I think indoor farming, vertical farming, there's a lot of the elements that you can control. So indoor farming is a lot simpler. And if I were to... Maybe I shouldn't say this, but if I were to start it all over again, I would go after indoor farming. I wouldn't do outdoor farming. But my love of sustainability and the planet and stuff like that would still pull me to the outdoor broad acre.</p><p><strong>Harry Glorikian: </strong>So I'll be honest with you, the first time I, and this was a long time ago, the first time I went to EPCOT Center, and I went through their hydroponic area and sustainable farming and then the aquaponics area, I was like, "I really want to start a business like that." And I swear to you, every time I see an article, I get sucked into it because I think this is going to be the next big opportunity, although making money there is really hard.</p><p><strong>Al Eisaian: </strong>Exactly. That's because you don't know all the details. That's the curse of entrepreneurship. It looks really good. We're like, oh, my God, you see dollar signs. And you see your name in the headlines. But then you get engaged and oh, my god, it's like a can of worms after can of worms after can of worms.</p><p><strong>Harry Glorikian: </strong>I know it, Al. I mean, it's funny because every time I get involved in something I don't know every detail and then, but once you're in it you've got to get out of it. And so you've got to dig your way out of the hole, no matter what. Right? Otherwise it fails and that's not acceptable.</p><p><strong>Harry Glorikian: </strong>So, Jennifer, when you guys are doing this stuff, how much of this are you having to, you know, I keep thinking about my world where we have images, we have classification of those images or diagnosis of those, and then we train the system over and over and over again. And the bigger the data sets, the better. You guys are working not just with one image, but multispectral levels of imagery. And so how are you approaching this from, I guess, the machine learning perspective. I don't even know all the techniques that you guys are using, but are you taking stuff that's off the shelf? Are you having to design it from scratch? Is there some combination? But what walk us through how you look at that area and where you see that technology going next.</p><p><strong>Jennifer Hobbs: </strong>Sure. Well, we do a little bit of both and, interestingly, the medical imaging space is probably the space that is most similar to what we're doing as far as like techniques used, because of the size of each individual image, the number of images. So we do steal a lot from the cutting edge work that's being done in the medical imaging space. But one of the things I've always, when doing R&D in an academic setting, in an industrial setting, so I did my PhD in physics. So I have an academic background, but when we're doing R&D in an industrial setting, I still believe, I sort of believe you can do the research in sort of an iterative, agile-like fashion. So a lot of times we will take essentially a baseline model or whatever is sort of standard in the field. What's the what's the simplest thing that we think can work that's going to get us some initial results? And we'll try it and we'll see how it works and then we can decide how to go from there. So if we're talking about a detection or segmentation task, if I take one image and I do the simplest thing possible, which is just maybe stack all of the channels together, how well do I do? And then when I start to look at the failure cases, I can sort of start to see, well, are the mistakes that it's missing...would it do better if if I could give it more historical information? Ok, well, if I want to fuse the temporal element, how do I, how might I construct the network so that I can bring in this additional temporal time element? Sometimes you can do it as simply as just stacking more images. Sometimes you need something temporal in nature, RNN, LSTM type approach. In this work that we did that was just accepted at AAAI, we used a convolutional, we use a U-net to sort of get the features and then a convolutional LSTM to incorporate the temporal elements. Other times, maybe it's not so much the temporal element, it's I need to get more context. I need to see more of the field with a single glance so we can use some of the dilated convolution techniques out there. So a lot of it is sort of starting simple, seeing what works, seeing where things are still lacking, and then identifying the different routes, different ways where we can fuse more information into the system, more and more and more, until we kind of get to a level that we're happy with.</p><p><strong>Harry Glorikian: </strong>So I'm trying to get again to the secret sauce. Is the image-gathering part of the process becoming sort of commoditized over time, by the drone technology or different methodologies of capturing that? Or is there uniqueness in the capture part? Or is the uniqueness in the data analytics side of it?</p><p><strong>Jennifer Hobbs: </strong>I think it's both. I mean, the imagery itself, I think we're currently, like one of our strengths is the temporal element. But assuming you have the data a lot of times with data science and machine learning, a lot of the times the secret sauce is actually asking the right question, is knowing what it is you're looking for or what problem you're actually trying to solve. Sometimes we can get, it's easy to get kind of caught up and say, well, "I want to do everything all at once" or "I want to detect this." And maybe you actually don't care about detecting this. What you really want is to solve a downstream process. And so a lot of times it's still understanding what the farmer needs, what they want, what his end acceptance criteria might be. And then and then going after that. Because in truth, for somebody, let's say in an academic lab, you never want to say, "Well, I actually don't care if my model is not 100 percent, I want the best outcome possible." And certainly we do, but we also have to look at it in terms of what's performance versus cost, performance versus time. If I can make a model that runs three times faster and is only two percent lower in performance, well, now the cost is is a lot less. And so there's that business criteria kind of on top of the actual machine learning. And so I think a lot of that understanding how this is going to be used, how this is going to deliver value to the customer, is also one of the things that we do really well.</p><p><strong>Al Eisaian: </strong>So as far as far as the capture side, yeah, we've been the main culprit of commoditizing it over the last five years. I was on a panel, I think, five years ago, and I said, "You know what, I should be paying a penny per acre per capture." And this is when people were charging $4 an acre for one capture, and that was at 28-centimeter resolution and I wanted it at 5-centimeter resolution. We didn't quite get to 5-centimeter resolution. And we didn't quite get to a penny per acre per capture. But we're pretty damn close. And I think we're going to get closer over the next three, four or five years. So the more we can automate the capture... So right now, the vast majority of our capture is through manned airplane with very, very high powered, expensive sensors in the belly of the airplane. These are not your Canon cameras hanging out the window. These are these are like a quarter-million-dollar sensors that you can fly 120 knots, cover 150,000 acres a day and capture that at 8- to 10-centimeter resolution, pretty accurately. It's almost like, I think it was probably five years ago it was military technology. Now it's commercial. And we're hoping that more military technology will become more commercial. So I think that's commoditizing. And then I think two years ago, October, the US government relaxed satellite imagery for commercial applications from 50 centimeters per pixel to 25 centimeters per pixel. So you can see that from a standpoint of purely ground spatial resolution, that is happening. Right. I mean, our government probably has technology at 5 centimeters, 10 centimeter resolution today, but not open for commercial. That's going to change over the next three to five years. I'm willing to bet good money on that, that it will. So now, you still have the thermal problem, especially for the agriculture sector. But imagine that you have satellite imagery at 5-centimeter ground resolution. That becomes pretty powerful. Right. And then as far as commoditization, that data should be, I hope, should continue to come down in pricing so that it's available and it's ubiquitous.</p><p><strong>Al Eisaian: </strong>And then so then back to your question of what is the real differentiator and secret sauce? It's the analysis. It's the A.I. That's one area that is going to continue to be a bottleneck and continue to be more of a bottleneck in agriculture, because the vast majority of data scientists and machine learning PhDs are not smart enough yet, as Jennifer is, to actually go to agriculture. Everybody is doing this. We have an overabundance of people that are doing self-driving cars, overabundance of people that want to go into the health care field. But we have the really smart people that come to agriculture, like Jennifer.</p><p><strong>Harry Glorikian: </strong>So well, I could tell you, like, we definitely don't have enough people that go to health care. I can I can attest to that. I mean, I keep trying to lure people and say, forget this whole Facebook junk. What are you going to do there? Come to health care so that you can change people's lives</p><p><strong>Jennifer Hobbs: </strong>The one thing I'll say, the difference with, there are a lot of things that we have in common with health care, but one of the differences is just the scope of the data. So the data itself is large, but we collect all of this raw data. But what really gives it value is when we can extract information out of it through these different models. And certainly to get started, at least you need annotations and you need good ground truthing and annotations. And that's another thing where we have people skilled in that area who can generate these annotations for us. But I think one of the exciting areas in this field, and really an area that's sort of hamstringing the CV and ag community out there, is if we have petabytes of unlabeled data and only gigabytes of annotations, how do we narrow that gap? How do we use all of the unannotated data out there? Because in truth, we're never going to get all of it. You can't annotate the entire world every single day. So we need to use what we have to also further maximize the unlabeled data that's out there. And I think that's a really exciting area that that we're excited to go after. And I think will be a real game changer on this front as well.</p><p><strong>Harry Glorikian: </strong>I'm obviously thinking on my feet here, but I'm trying to figure out like, OK, but in our world, like I can for the most part, my predictive power, I mean, it's getting better and better over time, but I don't have as many elements per se affecting, like the weather, the water, the tractor that came, there's a lot of things that you guys are trying to adapt for, so it's sort of exciting, like if you guys actually figure out how to take all these inputs and really predict better, I almost want to say, like I want that prediction model and start to think about superimposing it into my world, because I don't think we have as many variables. I know somebody somebody is going to make a comment that listens to this, "Harry, you don't know what you're talking about." But I do believe that you guys are dealing with things with many more unknowns than maybe we are in the health care world. So how well is the predictive nature of what you're doing to let someone know something before it happens. To say "You may want to go and look over here" or "By the way, historically, we've noticed that if you do this, you got a better outcome." Are you guys at that level of being able to make those recommendations to farmers?</p><p><strong>Jennifer Hobbs: </strong>That was the really exciting kind of result that came out of Safa, she was a PhD intern with us last summer, this work that that was accepted at AAAI that she did. So we were doing nutrient deficiency detection from the air. Can we find areas that are under stress? And this is really important because once stress sets in, you can't fix that. You can just sort of stop it. So you want to know as soon as possible that this area is lacking nutrients, you can go out and spray. At the same time, it has an environmental element to it because the more targeted and precise you can apply the chemicals, the less excess chemicals ends up in the water table, for example. So if we can, One, we want to detect it. But let's say detection for this task with our data, you can try a bunch of different things. And it hovers around an IOU score of, let's say, 0.4, depending on kind of where and what time of the season. And we did a lot of things from a single image and it was hard to kind of get it above that. When we started, including the temporal element -- what if we include the previous two flights? All of a sudden that IOU for detection shot up to, I believe, close to 0.6. And so then our next immediate question was, well, if I can now detect really well, can I anticipate this one, two flights out? And we saw that again, using this flight over flight information, we were able to predict these regions of stress two flights into the future better than we were able to detect from a single image initially. So sort of seeing how the field is changing week over week gives the model enough information to say not only is it here, but this is where it's going. And that's extremely powerful and has a lot of value to to the farmers.</p><p><strong>Harry Glorikian: </strong>So it's similar to, now I forgot her name, but she's over here at MIT where she's taken historical MR images in and been able to find features that predict a tumor advancing into the future before a human being can actually really see those features. And so that I guess that's my next question, is, what does the system see that a human can't see? I'm sure it's a lot, but work with me here.</p><p><strong>Jennifer Hobbs: </strong>The answer right now, today, is we don't know. Right. The sort of the trust of these deep learning models, unlike the past machine learning models, where they were based on handcrafted features and you could say, oh, it made this decision because of these features. There's a lot of things we can do to try to understand what the model is looking at. But it's not it's not as straightforward in the past. So interpretability is obviously a huge area of the machine learning community right now and one I think will continue to to grow, because people want to know, what is it, what is it looking at, what is it seeing? And there are some additional things we can do in our field, kind like medical as well, where you say, well, in addition to knowing what the model is looking at, I want to know I actually want to know causal effects. And then that's a whole 'nother area as well that's, I think, really kind of catching catching steam. So, yeah, the answer is we don't know. We can hypothesize and say, well, you know, it's doing things like, by the way it's constructing its features it's a little bit more robust to lighting changes. So it's able to control for this and that and actually see this sort of evolution. But we don't know that. That's sort of our best hunch at this point. But that that's really sort of all it is, is a hunch.</p><p><strong>Harry Glorikian: </strong>I can see how over time like this is, you know, it's going to provide more accurate, actionable information about crops. But let's say you sign somebody up and they start their first passes. When do they start seeing the benefit of the service?</p><p><strong>Al Eisaian: </strong>It's almost immediate, right? Because, so, A), they don't have to go through a bunch of different point solutions to kind of try to keep an eye on things, I mean, we're talking about vast areas, right? I mean, these are like multi-thousand-acre farms. And, you know, in the US, it's not really contiguous farms. You might have a couple of plots over here, a couple of fields over here and then several fields 10 miles away because of how inheritance has worked out and because of subsidies and whatever. And so the fact that you can, in the winter or if you have inclement weather outside, you can actually sit in front of your computer or on your iPhone and keep an eye on your domain, if you will, and just sort of like flipping through the stuff, that's immediate value and you don't necessarily need to have every flight to happen.</p><p><strong>Al Eisaian: </strong>I mean, again, those flights are again... It's a continuous system. And then you've got 13 high resolution captures. Because there's stuff in the in the system already. So there's a bunch of stuff like, you can look at from your last season, that allows you to make decisions for this season that you're in. And so the value is almost immediate.</p><p><strong>Al Eisaian: </strong>And then I also want to emphasize a couple more things. One, it's a decision support system for the farmer as far as which fields do I go to? So we do the prioritization. We say here's the severe areas by field, by percentage, so that you know exactly. And then also we pinpoint where the problem is. So they don't just go to the field, they actually go to the, they're staring at the problem. </p><p><strong>Harry Glorikian: </strong>That's interesting. It's exactly like what I was thinking about, guys, because, you know, they've developed a system that can show a cranial bleed and it'll move it up on what a radiologist should look at. So there's so many similarities of these technologies. It's just looking at different spaces.</p><p><strong>Al Eisaian: </strong>Wee flipped 80-20 or maybe 90-10, which is, instead of 80 percent of time guessing or trying to figure out where your problems are and 20 percent of time you're addressing your problems, we flip it, which is we take care of that. So you spend, I mean we actually alert you, you don't even, I would say 5-95 right now. We tell you where the exact problems are. So 95 percent of th time you are addressing issues. And then the second thing with regards to the collaboration that happens between farmer and all of the people that are around the farmer, the retailer, the sprayer company, the irrigation company, the seed company, if they give access to their fields, then they can actually do it remotely. So we're talking now tele-agronomy.</p><p><strong>Harry Glorikian: </strong>That was going to be one of my next things is how do you, how does this dovetail with all this what, what is it, precision ag technology that's out there? And how do you, are you working with those companies to integrate this information?</p><p><strong>Al Eisaian: </strong>Yeah, the way that we have built the product and the insights it can we can populate, we have like API systems with John Deere and FieldView Climate and a bunch, a whole host of others. We believe that that insights and data should be democratized and free. Not free necessarily that we don't want to make money, but from a standpoint of where you need to consume it. So it could be mobile and you can consume it on our app. On AGMRI. It could be a widget inside of a John Deere operations center. It could be a widget inside of Climate FieldView. The main issue is what is the preference of the farmer? Wherever that they are consuming their stuff and they want to get these insights, we're happy to kind of pipe it over there. So these collaborations, as I sort of think about the future, it's better data. I mean, I think Jennifer hit it right on the on the nail, which is you got you got to increase the trust in that, that trust translates to lower costs, higher yield, less headache, better lifestyle. Because farmers in planting phase all the way to harvest, planning for next year, it's a pretty anxious time, right? So imagine that actually this is also a lifestyle improvement, because now you feel a lot more in control, versus guessing, versus somebody else coming and telling you stuff, versus, there's always some sort of disease that's a runaway versus it's surprising you. Wouldn't you want to know, like, if it's in the next county and if you can take some preventive measures, you can be in a better situation. So the old saying is an ounce of prevention is worth a pound of cure. Unfortunately, people don't pay for prevention. They pay for a cure. And I think that's where that's where I think that whole mindset is shifting.</p><p><strong>Harry Glorikian: </strong>It's interesting because we are trying to shift health care away from only treating somebody when they're sick and actually managing them when to keep them healthy is more valuable. So. I mean, I have two sorts of questions. How do you look at yourselves versus other people in the field that are making these, making a lot of claims, because I have seen things around carbon sequestration and so forth. And then sort of a dovetailing question is, I feel like there's so much more that you could do with this rather than, I know the application that you're looking at, but the possibilities around commodities and all those sorts of. I'm a capitalist, I can't help myself. I'm thinking about, you know, but there are so many other areas. What could or those other areas be that this is applicable to? And again, how how do you compare to other people in the field. Not trying to pull anybody down or raise anybody up, but just as a sort of a thought process.</p><p><strong>Al Eisaian: </strong>We're the best and everybody else is just so-so. </p><p><strong>Harry Glorikian: </strong>[Laughs] I should have asked Jennifer that question, Al.</p><p><strong>Al Eisaian: </strong>Not from not from the boastful entrepreneur. Very fair question. So I think so. I mean, it's really a question of approach. From day one, we've invested in data science and and cutting edge science. And literally we're starting to come to market this year, five years after starting the company. This is the year that we're going to actually spend money on marketing and sales. Why? Because it's damn hard, I mean, Jennifer, just explained. It's really, really hard to get to a level that you can with a straight face tell people that this is not vaporware, that this actually works.</p><p><strong>Al Eisaian: </strong>In comparison to others. You know, look, carbon sequestration, at the core of it, what does it entail? You have to measure so you have to trust the measurements that you're making pretty certain practices. You have to verify. And you have to certify. And then you have to pay people. The certification process, the verification process is the hardest and who has the most granular information in the world? Nobody has invested as much money as we have in really, really granular, really, really high cadence, like 13 times a season. But then there's a bunch of other things that is like every five minutes. Weather. Precipitation. And so when you look at it that way, you say, OK, if you're thinking about carbon sequestration, if you're thinking about actually helping the climate situation. Agriculture and forestry, agriculture is 25 percent of problem and also 25 percent of the solution. And forestry is 17 percent, 17, 18 percent, depending on whose numbers you're talking about. If you take those two together, then everybody should be talking to IntelinAir about our technology. Everybody is interested. And then, as I said, we're just starting to kind of talk about and start boasting about our stuff. But do you think about FedEx spending $200 million buying carbon offsets in the future? And then who's going to measure it? Who is going to verify it? Who is going to certify it? Who is going to make sure that that farmer gets paid? These are challenging things that have to be solved. But at the core of it, we've got a solution. Now, somebody else can take that solution, or maybe we will do it, and then monetize it, but ultimately it's not through handwaving and PowerPoint presentations, it's really about science. You have to measure it, right. You have to say "I actually sequestered x many gigatons of carbon. And here's the measurement before. Here's the measurement after." Right. And here's what the farmer did. And he deserves this check, OK? And and so I think on that front, we like our chances.</p><p><strong>Al Eisaian: </strong>With regards to some other people. I mean, look, some people look at this thing primarily as imagery business. We've never looked at it as an imagery business. We've always looked at it as a crop intelligence business, what you're trying to do is you're trying to use science and whatever and the highest fidelity data that you can get your hands on to provide real solutions, to provide real, take it to the bank ROIs to the farmer, but not only to the farmer, but also everybody else that's involved. You mentioned commodity trading. Would it behoove the people that provide working capital to farmers to say, hey, you know, it would be good -- it's sort of like the Progressive Insurance thing. If you say yes to this gadget inside of your car where I can measure how you're driving, I'm willing to give you a 20 percent discount. We're going towards that. So the most advanced, we are talking to Wells Fargo and other companies. They're starting to think that, because, that a big asset. I mean, if you're giving working capital to people that are not data driven, that might cost them more. </p><p><strong>Al Eisaian: </strong>Insurance. You know, one of the one of the things that I learned in year two was there was a massive weather problem in Iowa and I went to this farmer's shop and there was like five to five drones, different types of drones. And I said, what are these drones for? He goes, oh, yeah, when when weather hits, my brother takes that one, I take that one. My cousin takes that one or two field hands take these two. And we all jump into our trucks and we we drive out to the fields. And for the whole day we survey, we fly the drone, take imagery, bring it back, take it out, put it into the system. And think about that level of detail that they have to go through just to negotiate with the insurance adjuster what they need to get paid on the crop insurance front. That's one way of doing it. Now imagine the way that we can do it, which is both the insurance provider and the farmer are subscribers to our system, we actually have algorithms that tell you exactly by percentage what the damage was. So there is no pissing contest between, oh, look at my thing, look at my video, look at my this.</p><p><strong>Harry Glorikian: </strong>So what I find is interesting is I actually I was talking to somebody at another venture fund earlier today, and I was I was saying to them, I'm like, know, once you deify something, the potential business model shifts are phenomenal. You just have to imagine them. And now you've got to bring other people along with you, which is half the problem.</p><p><strong>Al Eisaian: </strong>I want to do it for the farmers, right. I mean, some farmers say, what are you gonna do with my data? I go, you know what? I want to pay you for your data. And they're like, what? I go, Yeah, you know, if you and I get into business where your data now matters because you're running your farm better, you should get a better rate. You should get a better insurance rate. You should get better yield. You should get better. Everything, right. That data has value and I want to pay you.</p><p><strong>Jennifer Hobbs: </strong>You can turn it around, you can use it to create better seeds, better products, because you could do a lot of, there's obviously a ton of research that's done in the labs, around the farms, that are being used to develop these other products. But then they have to go out and live in the real world. And the question is, well, how well is this product going to work on my field? Given all of things? You know, what if they didn't have my type of soil or my type of weather. What if it rains more or less the season? And now you have, you know, acres and acres and acres. You have entire states of data that you can actually look to see how well did these different combinations perform. More than just you know, "Here is a really confined experiment that was run," how did it actually fare out in the real world? Because maybe it's also very effective, but it has to be used a certain way. You find that people aren't using in a certain way. Well, if I make these changes, can I get better yield? And I think that's where having the data coming in just opens up so many different possibilities.</p><p><strong>Al Eisaian: </strong>There's one more thing to add just relevant to this thing. Imagine that USDA has thousands of people that call and get survey data. They call a farmer that has let's say... This is a case in point, like a real, real live thing. The farmer has 43 fields. He reports on one field and extrapolates. And that's how USDA, for the most part, gets their estimations. They use some satellite stuff as well, but you can imagine? It's $8 billion a year of of guarantees. And I don't know how much, but there's I'm sure there's hundreds of millions of dollars of fraud that happens where the farmer reports something that didn't really happen. And then now they have to get the federal farm insurance. So what I'm saying is that, you know, the US government should scan and get all the data, and just give it to people like us to do the data crunching. Right. It would save tens of billions of dollars of taxpayer money, literally. Because right now we're doing the, paying for the capture. We're doing all the analysis. We're doing the productization. Can you imagine? That's, I think, where we need to get to.</p><p><strong>Harry Glorikian: </strong>So let's jump back to the to the technology for a second. Where do you see this going? Because I just you know, every time I try to keep up with this, I'm barely able to. It's moving almost too fast in a certain sense. Right. So where do you see this going from a technological perspective? Is it resolution? Is it analytics? Is it predictive power? Or is it all of the above? I mean, I'm trying to if you were giving a visionary talk about where this is going in the future, where how would you frame it?</p><p><strong>Al Eisaian: </strong>I'll start, and then Jennifer can probably be much more articulate about this. Look, we've made our bets. 80 cents on the dollar for us in R&D and engineering goes to AI. We're making huge, huge bets on that. We keep hiring more people. And then maybe as an entrepreneur, I should stop that, but maybe not. But that's the bet we're making. On the capture side, I think there's two very promising developments that we're betting on. One is the ultra high resolution imagery below the atmosphere will continue going to these high flying drones that don't need bathroom breaks, that can fly 24 hours or maybe 48 hours a day and they can capture a 10, maybe 12 times more of the data that we need. And so obviously the cost will come down. I think the sensor tech, there's many, many great companies, both defense-related and nondefense-related companies that are working on sensor technologies that will blow your mind. And we can go to hyperspectral imaging, which now for disease detection and stuff like that becomes really valuable. So that's on the sort of like the physics side of things. Like flying sensors, hyperspectral. But I think the most exciting part is post data capture. That's everything that Jennifer and Jennifer's team does. And I'll pass it to Jennifer.</p><p><strong>Jennifer Hobbs: </strong>Whatever I try to give academic talks, I try to capture the minds of the other, the people in the computer vision and machine learning fields who might be doing stuff like self-driving cars or what have you, because there's so many opportunities to both make computer vision for agriculture better in the future. But I think, to benefit both the agriculture and the computer vision side, there are challenges because we're getting so much data, more data, more sensors, just more types of data. Right now, you're going to run into this point where, what if what if the information on a single field is a terabyte? What do I do with that? How do I how do I process it? How do I extract all of the information? What kind of methods do I use? If I have hyperspectral imagery coming in all the time and then I have all this equipment data and all this weather data, how do I make sense of all of that? And there are so many different avenues there to to explore. I think, I hope people in in the machine learning community get really excited about this and say.... It has huge implications for the agricultural industry, but it's a great domain for us to understand, to improve our understanding of computer vision. So I think as more and more data comes in, it just puts the burden on us to come up with methods that can handle this amount of data. How can I handle an image that's maybe 100,000 by 100,000 pixels fifty times during the season, where I have hyperspectral data, with all of this weather coming in. And I think that's a really exciting, exciting piece. And then I think that also prompts, on the hardware side, you see a lot of a lot of interest around the different chips, the different edge devices that are used to process these. I think it just encourages more and more of that in the future. And so it's, I hope I am optimistic that I think a lot of these challenges, ag will start to be a preeminent domain in computer vision that people, it's an area just like autonomous vehicles that people are really interested in because it improves our understanding of these methodologies in addition to changing the world.</p><p><strong>Al Eisaian: </strong>And you can't eat an electric car. You can eat an ear of corn.</p><p><strong>Harry Glorikian: </strong>No. Yeah, but I was always thinking about there are techniques and approaches that you're learning and taking that we can learn from. I just don't know if anybody's cross referencing the work or the papers that are being written. I'm sort of the geekoid, who's trying to read, you know, obviously the title captures my attention, but, you know, reading all sorts of stuff because I know that it's a tool. It doesn't matter what you're throwing it at, the tool will with a few tweaks might work well. So I'm trying to keep absorb all this stuff and hence the the conversation. Besides the fact that I think editing of crops or making changes in crops and then applying all the stuff that you guys are talking about, I mean, it is a combination. We're going to change the way the world is fed, over time.</p><p><strong>Al Eisaian: </strong>Absolutely.</p><p><strong>Harry Glorikian: </strong>Well, this was great. I look forward to staying in touch and hearing how the company evolves and again, how the technology evolves, I though I, I will probably always be struggling to keep up with everything that you're saying. But that's OK. That's that's part of my job, trying to understand what's happening and where it's going. So thanks very much for the time and look forward to hearing how this thing evolves in the future.</p><p><strong>Al Eisaian: </strong>Thank you so much for the opportunity, Harry.</p><p><strong>Jennifer Hobbs: </strong>Thank you so much.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s show.  We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at <a href="http://www.glorikian.com/podcast">glorikian.com/podcast</a>. You can follow me on Twitter at <a href="http://www.twitter.com/hglorikian">@hglorikian</a>. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.  Thanks, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Mon, 1 Feb 2021 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Jennifer Hobbs, Harry Glorikian, Al Eisain)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week on MoneyBall Medicine, Harry takes a field trip (literally!) into farming and agriculture. His guests are Al Eisaian co-founder and CEO of crop intelligence IntelinAir, and the company’s director of machine learning, Jennifer Hobbs. Intelinair’s AGMRI platform uses customized computer vision and deep learning algorithms to sift through terabytes of aerial image data, to help farmers identify problems like weeds or pests that can go undetected from the ground. The parallels to the digital transformation in healthcare aren't hard to spot.</p><p>Harry has talked with scores of guests about advanced computer science techniques like neural networks, computer vision, and machine learning and how they’re changing the way healthcare providers can find patterns in genomic data or radiology images. But the fact is, these same techniques are being used to generate new kinds of actionable insights in many other areas, including agriculture. In fact, today’s farmers are almost overwhelmed by the volume of imaging available to them from drones, airborne cameras, and satellites. IntelinAir uses AI techniques to spot patterns and trends in these images, in a bid to help farmers address problems before they get out of hand, while making smarter use of fertilizers and pesticides.</p><p>Which sounds a lot like using digital health data to keep patients healthier while making smarter use of pharmaceuticals. So don’t be surprised if ag tech companies end up having a thing or two to teach the digital health industry.</p><p>You can find more details about this episode, as well as the entire run of MoneyBall Medicine's 50+ episodes, at <a href="https://glorikian.com/moneyball-medicine-podcast/">https://glorikian.com/moneyball-medicine-podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian: </strong>We talk a lot on the show about advanced computer science techniques like neural networks, computer vision, and machine learning and how they’re changing the way healthcare providers can find patterns in genomic data or radiology images. But the fact is, these same techniques are being used to generate new kinds of actionable insights in many other areas. And today I thought it would be a fun exercise to take a field trip…literally!... into farming and agriculture. Just like doctors, today’s farmers are almost overwhelmed by the volume of imaging that’s now available to them. In the clinic, these images come from MRI machines and other types of scanners. On the farm, they come from drones, airborne cameras, and satellites. And in both cases, if you can use AI techniques to spot patterns and trends in the images, you’re then in a position to address problems before they get out of hand.</p><p>We’re about to meet two executives from IntelinAir, an ag-tech startup that offers a so-called “crop intelligence platform” called AGMRI. It consists of customized computer vision and deep learning algorithms that sift through terabytes of aerial imaging to help farmers identify problems that can be hard to spot from the ground. We’re talking about things like weed infestations, nutrient or water deficiencies, weather damage, insect damage, fungal damage, and poor tillage or drainage patterns. The company flies over client’s fields up to 13 times per season, which means they can provide a picture of the evolving health of the crops in those fields. Ultimately the goal is to help farmers increase yields while making smarter use of fertilizers and pesticides. Which sounds a lot like keeping patients healthier while making smarter use of pharmaceuticals. But as we’ll hear, the flood of new data that’s available to farmers is even bigger in some ways than that available to doctors. So it won’t be surprising to me if ag tech companies end up having a thing or two to teach the digital health industry. So without further ado, let’s meet IntelinAir’s co-founder and CEO Al Eisaian, and its director of machine learning, Jennifer Hobbs.</p><p><strong>Harry Glorikian: </strong>Al, Jennifer, welcome to the show.</p><p><strong>Al Eisaian: </strong>Hey, thanks for having us.</p><p><strong>Harry Glorikian: </strong>No, it's great to have you guys on the show. And I know that I'm sort of slightly stepping out of the bounds of what is, what would be looked at is as traditional health care. But I thought this episode would be really interesting to go into from from two sides. One is, obviously, you guys are in the agricultural space and agriculture is, as far as I'm concerned, paramount to health. As a matter of fact, it's probably a better way to keep people healthy, if they just eat better. And the other side of it is the image analytics I've always looked at, the technology doesn't necessarily care what it ingests. It has the ability to see all sorts of features, whether that's a crop or an insect or an image on a radiology scan or, you know, a pathology slide. There's all the... I think the technology can blur where it is and how it's applied. But before we get started with that is, Al, tell us the origin story. How did this how did IntelinAir get started. How did you end up doing this?</p><p><strong>Al Eisaian: </strong>Sure. It's an interesting story because I was invited to talk to a lot of PhDs and graduate students about entrepreneurship back in 2014. So I was invited to go to UIUC and give a talk. And so I did. And as you know... I landed in Chicago and then you drive through three hours of corn and soybean fields. And it was interesting. And I was like, I didn't think much of it. But during the few days that I was at UIUC, they took me through all the very impressive buildings and very impressive labs that they had. So I had no idea that, you know, Ray Ozzie went there. I had no idea that Marc Andreessen, graduated from there. And so there were all these buildings that I was looking at. And then they took me to the to the Ag Department. So I found out very quickly that there's, that UIUC was one of the epicenters of data science. Fei-fei Li went there. So that this whole stuff with deep, deep learning and imagenet and all that stuff actually had its origin there. And then it went to Princeton and then Stanford.</p><p><strong>Al Eisaian: </strong>So I knew I knew nothing about agriculture. But I had just recently sold my company and I was thinking like, where do I spend the next decade of my life or more? And I wanted to do something that had global impact. And I've been a little bit of a sustainability nerd for a long time. And and I sort of put two and two together. After about a year of doing research, I said, yeah, this is an area that I can bring my passion for big data and data analytics and agriculture and try to make something that would be more than just about making money. And then so that's how IntelinAir was born. My co-founder is a professor at UIUC, is a very storied professor, Professor Hovakimyan, and and so we kind of put our heads together and we said this is what we can do. And so when you look at even the name, IntelinAir, stands for intelligence in air. So it's really around observation, it's really about, if you want to improve anything you have to measure it, you have to measure it frequently, and you have to validate that measurement, and then actually put science to work. So that's the origin story of of IntelinAir. </p><p><strong>Harry Glorikian: </strong>So at the highest level, what's the value proposition here? Are we trying to make farming more efficient, more sustainable, more productive? All of the above? I mean, how are you guys thinking about this?</p><p><strong>Al Eisaian: </strong>Yeah, so and I'm big on names that kind of actually describe what we do. So the name of the product and the service is called AGMRI. So a lot of analogs from health care. So AG stands for agriculture and MRI, the way we describe it is Measurable, Reliable Intelligence. So if you can agree to the thesis that if you want to improve something, you have to frequently measure and see what the behavior of that thing that you're trying to improve is observed properly, accurately, and then you put the types of, you make the types of decisions that allows you to introduce and make those improvements. So at the highest level, it's a comprehensive crop performance intelligence platform. And when I say comprehensive, I mean full scope and I mean full season. So when I say full scope, it's everything, it's not just imagery, it's soil information, it's weather information, it's everything that is absolutely essential for growing crops. It's the farmer practices. It's getting the IoT information off the equipment. It's all of those things combined. It's sort of what we call there is our gigantic data ingestion challenge. Right? We're talking about petabytes of data. The value proposition really is around timely, actionable insights that allows not only the farmer, but the whole ecosystem of farming to benefit and make better decisions. So it's something that provides value to the entire value chain.</p><p><strong>Harry Glorikian: </strong>So what is the special sauce of this? What can you do with high resolution field images that that no one else can do, or what is the computer vision...and I feel like Jennifer's about to jump in here any second now and tell me like...but what is that special sauce that you guys have brought to the table? Because I have a feeling here there's multiple layers of information that are getting stacked on top of each other to sort of, I want to say, tell a story of what's happening. Tell me how you guys would describe this. And remember, there are probably no farmers that are listening to this podcast. So if you could sort of put it into context, because at some point I can almost see that these, this approach has a superimposition onto different parts of health care when we look at it.</p><p><strong>Al Eisaian: </strong>Sure. Jennifer, do you want to take the lead and I'll chime in as necessary?</p><p><strong>Jennifer Hobbs: </strong>Absolutely. So much like health care, our data is truly huge. A lot of people talk about big data, but our data really is big and it's big in a lot of different ways. So, as Al mentioned, we have lots of different channels, right? We have RGB, we have near-infrared. We also have things like thermal. We have the soil information. We have the topo maps. We have all of this information that we can incorporate into the models. Then additionally, we have it at high res. So there's a lot of things and a lot of work, and computer vision in agriculture in the past has been limited to publicly available, low-resolution satellite data. And it's great that it's out there and it's free and it covers lots of different areas. But there's only so much you can see at that resolution. Where at the resolution we're at, we're able to see the crops emerge weeks before you can see it in satellite, you can see the different stressors within the field. You can see individual weeds and weed clusters. And that really, that level of size makes the data richer, allows us to do earlier and better prediction across all of the different tasks that we're interested in. And then because we fly around 13 times a season, we have a continually evolving view of the field. So from a single snapshot, at any point in time, you can do prediction decently well. It's pretty hard to do prediction, but with this temporal element, now all of a sudden you have that story, you have that evolving health of the field. And we can do, by using multiple flights, we can do both better detection as well as better prediction. And that's very exciting. So it's big data on a lot of different fronts. And because we have so much of it, we can then turn around and use a lot of the deep learning methods out there that help us deliver these models across a variety of tasks, a variety of different lighting conditions, domains, and really scale up quickly and and address the issues that are most pressing to the farmers.</p><p><strong>Al Eisaian: </strong>So, and just to give you an indication on scale, when we talk about resolution, the free satellite is like 10-meter by 10-meter squares. We're talking about 8- to 10-centimeter squares.</p><p><strong>Harry Glorikian: </strong>Yeah, like you can actually see the bug on the leaf.</p><p><strong>Al Eisaian: </strong>Not quite, not quite. We need to get down to like maybe a couple of centimeters to see the bug on the leaf. But we can see a lot at 8 to 10 centimeters. And that's not far away, right? I mean, a couple of centimeters at scale. You can do it with drones today. The big question is, again, the volume of data. Because every time you come down, you know, it just explodes.</p><p><strong>Harry Glorikian: </strong>So every one of these companies out there is obviously trying to convince... It was funny because I was reading, I haven't gotten through it, but a Technology Review piece that was just written about ag tech. But everybody's trying to convince, "You need our technology because it improves yield," or some other aspect. And so how do you... What's the pitch? And how do you win a farmer's trust, right, to be part of this process that they're doing</p><p><strong>Al Eisaian: </strong>You know, I think, again, back to how the company was built. I mean, way before we decided to really focus on just the ag sector, I personally had, I visited like a hundred farmers. And then my team has probably visited hundreds of farmers. A lot of those visits were actually in their farms. And then a lot more was done at these shows, Farm Progress and other shows. We would just engage people in conversation and ask them, What are the issues that they're having? How do they do their days work? And we had a lot of a ride along. Literally we lived with farmers, just to try to understand what are the...it's not just technology for technology's sake. In our case, was the question was, is it going to be used? Is it going to be used? And farmers basically were not interested in just getting bunch of images. They were like, "Just tell me what my problems are. Tell me Soon enough that I can go address it. And if you do that, then we'll engage." So initially, the first couple of years we were just iterating with the farmers, directly with the farmers. The last couple of years, what we've done is, obviously we think that we're kind of getting closer and closer, and I think we are there now, where this technology can be distributed by through our partners. So large companies that have tens of thousands of farmers that they can serve with our technology. So the go-to-market with farming is quite a challenge. And that's thing that I completely, completely underestimated. I thought farming was simple. Farming is really, really complex. And I was like, this is my fifth company I've started in two decades. And I can say by probably an order of magnitude, this has been the hardest because there's so many elements, especially outdoor farming. I think indoor farming, vertical farming, there's a lot of the elements that you can control. So indoor farming is a lot simpler. And if I were to... Maybe I shouldn't say this, but if I were to start it all over again, I would go after indoor farming. I wouldn't do outdoor farming. But my love of sustainability and the planet and stuff like that would still pull me to the outdoor broad acre.</p><p><strong>Harry Glorikian: </strong>So I'll be honest with you, the first time I, and this was a long time ago, the first time I went to EPCOT Center, and I went through their hydroponic area and sustainable farming and then the aquaponics area, I was like, "I really want to start a business like that." And I swear to you, every time I see an article, I get sucked into it because I think this is going to be the next big opportunity, although making money there is really hard.</p><p><strong>Al Eisaian: </strong>Exactly. That's because you don't know all the details. That's the curse of entrepreneurship. It looks really good. We're like, oh, my God, you see dollar signs. And you see your name in the headlines. But then you get engaged and oh, my god, it's like a can of worms after can of worms after can of worms.</p><p><strong>Harry Glorikian: </strong>I know it, Al. I mean, it's funny because every time I get involved in something I don't know every detail and then, but once you're in it you've got to get out of it. And so you've got to dig your way out of the hole, no matter what. Right? Otherwise it fails and that's not acceptable.</p><p><strong>Harry Glorikian: </strong>So, Jennifer, when you guys are doing this stuff, how much of this are you having to, you know, I keep thinking about my world where we have images, we have classification of those images or diagnosis of those, and then we train the system over and over and over again. And the bigger the data sets, the better. You guys are working not just with one image, but multispectral levels of imagery. And so how are you approaching this from, I guess, the machine learning perspective. I don't even know all the techniques that you guys are using, but are you taking stuff that's off the shelf? Are you having to design it from scratch? Is there some combination? But what walk us through how you look at that area and where you see that technology going next.</p><p><strong>Jennifer Hobbs: </strong>Sure. Well, we do a little bit of both and, interestingly, the medical imaging space is probably the space that is most similar to what we're doing as far as like techniques used, because of the size of each individual image, the number of images. So we do steal a lot from the cutting edge work that's being done in the medical imaging space. But one of the things I've always, when doing R&D in an academic setting, in an industrial setting, so I did my PhD in physics. So I have an academic background, but when we're doing R&D in an industrial setting, I still believe, I sort of believe you can do the research in sort of an iterative, agile-like fashion. So a lot of times we will take essentially a baseline model or whatever is sort of standard in the field. What's the what's the simplest thing that we think can work that's going to get us some initial results? And we'll try it and we'll see how it works and then we can decide how to go from there. So if we're talking about a detection or segmentation task, if I take one image and I do the simplest thing possible, which is just maybe stack all of the channels together, how well do I do? And then when I start to look at the failure cases, I can sort of start to see, well, are the mistakes that it's missing...would it do better if if I could give it more historical information? Ok, well, if I want to fuse the temporal element, how do I, how might I construct the network so that I can bring in this additional temporal time element? Sometimes you can do it as simply as just stacking more images. Sometimes you need something temporal in nature, RNN, LSTM type approach. In this work that we did that was just accepted at AAAI, we used a convolutional, we use a U-net to sort of get the features and then a convolutional LSTM to incorporate the temporal elements. Other times, maybe it's not so much the temporal element, it's I need to get more context. I need to see more of the field with a single glance so we can use some of the dilated convolution techniques out there. So a lot of it is sort of starting simple, seeing what works, seeing where things are still lacking, and then identifying the different routes, different ways where we can fuse more information into the system, more and more and more, until we kind of get to a level that we're happy with.</p><p><strong>Harry Glorikian: </strong>So I'm trying to get again to the secret sauce. Is the image-gathering part of the process becoming sort of commoditized over time, by the drone technology or different methodologies of capturing that? Or is there uniqueness in the capture part? Or is the uniqueness in the data analytics side of it?</p><p><strong>Jennifer Hobbs: </strong>I think it's both. I mean, the imagery itself, I think we're currently, like one of our strengths is the temporal element. But assuming you have the data a lot of times with data science and machine learning, a lot of the times the secret sauce is actually asking the right question, is knowing what it is you're looking for or what problem you're actually trying to solve. Sometimes we can get, it's easy to get kind of caught up and say, well, "I want to do everything all at once" or "I want to detect this." And maybe you actually don't care about detecting this. What you really want is to solve a downstream process. And so a lot of times it's still understanding what the farmer needs, what they want, what his end acceptance criteria might be. And then and then going after that. Because in truth, for somebody, let's say in an academic lab, you never want to say, "Well, I actually don't care if my model is not 100 percent, I want the best outcome possible." And certainly we do, but we also have to look at it in terms of what's performance versus cost, performance versus time. If I can make a model that runs three times faster and is only two percent lower in performance, well, now the cost is is a lot less. And so there's that business criteria kind of on top of the actual machine learning. And so I think a lot of that understanding how this is going to be used, how this is going to deliver value to the customer, is also one of the things that we do really well.</p><p><strong>Al Eisaian: </strong>So as far as far as the capture side, yeah, we've been the main culprit of commoditizing it over the last five years. I was on a panel, I think, five years ago, and I said, "You know what, I should be paying a penny per acre per capture." And this is when people were charging $4 an acre for one capture, and that was at 28-centimeter resolution and I wanted it at 5-centimeter resolution. We didn't quite get to 5-centimeter resolution. And we didn't quite get to a penny per acre per capture. But we're pretty damn close. And I think we're going to get closer over the next three, four or five years. So the more we can automate the capture... So right now, the vast majority of our capture is through manned airplane with very, very high powered, expensive sensors in the belly of the airplane. These are not your Canon cameras hanging out the window. These are these are like a quarter-million-dollar sensors that you can fly 120 knots, cover 150,000 acres a day and capture that at 8- to 10-centimeter resolution, pretty accurately. It's almost like, I think it was probably five years ago it was military technology. Now it's commercial. And we're hoping that more military technology will become more commercial. So I think that's commoditizing. And then I think two years ago, October, the US government relaxed satellite imagery for commercial applications from 50 centimeters per pixel to 25 centimeters per pixel. So you can see that from a standpoint of purely ground spatial resolution, that is happening. Right. I mean, our government probably has technology at 5 centimeters, 10 centimeter resolution today, but not open for commercial. That's going to change over the next three to five years. I'm willing to bet good money on that, that it will. So now, you still have the thermal problem, especially for the agriculture sector. But imagine that you have satellite imagery at 5-centimeter ground resolution. That becomes pretty powerful. Right. And then as far as commoditization, that data should be, I hope, should continue to come down in pricing so that it's available and it's ubiquitous.</p><p><strong>Al Eisaian: </strong>And then so then back to your question of what is the real differentiator and secret sauce? It's the analysis. It's the A.I. That's one area that is going to continue to be a bottleneck and continue to be more of a bottleneck in agriculture, because the vast majority of data scientists and machine learning PhDs are not smart enough yet, as Jennifer is, to actually go to agriculture. Everybody is doing this. We have an overabundance of people that are doing self-driving cars, overabundance of people that want to go into the health care field. But we have the really smart people that come to agriculture, like Jennifer.</p><p><strong>Harry Glorikian: </strong>So well, I could tell you, like, we definitely don't have enough people that go to health care. I can I can attest to that. I mean, I keep trying to lure people and say, forget this whole Facebook junk. What are you going to do there? Come to health care so that you can change people's lives</p><p><strong>Jennifer Hobbs: </strong>The one thing I'll say, the difference with, there are a lot of things that we have in common with health care, but one of the differences is just the scope of the data. So the data itself is large, but we collect all of this raw data. But what really gives it value is when we can extract information out of it through these different models. And certainly to get started, at least you need annotations and you need good ground truthing and annotations. And that's another thing where we have people skilled in that area who can generate these annotations for us. But I think one of the exciting areas in this field, and really an area that's sort of hamstringing the CV and ag community out there, is if we have petabytes of unlabeled data and only gigabytes of annotations, how do we narrow that gap? How do we use all of the unannotated data out there? Because in truth, we're never going to get all of it. You can't annotate the entire world every single day. So we need to use what we have to also further maximize the unlabeled data that's out there. And I think that's a really exciting area that that we're excited to go after. And I think will be a real game changer on this front as well.</p><p><strong>Harry Glorikian: </strong>I'm obviously thinking on my feet here, but I'm trying to figure out like, OK, but in our world, like I can for the most part, my predictive power, I mean, it's getting better and better over time, but I don't have as many elements per se affecting, like the weather, the water, the tractor that came, there's a lot of things that you guys are trying to adapt for, so it's sort of exciting, like if you guys actually figure out how to take all these inputs and really predict better, I almost want to say, like I want that prediction model and start to think about superimposing it into my world, because I don't think we have as many variables. I know somebody somebody is going to make a comment that listens to this, "Harry, you don't know what you're talking about." But I do believe that you guys are dealing with things with many more unknowns than maybe we are in the health care world. So how well is the predictive nature of what you're doing to let someone know something before it happens. To say "You may want to go and look over here" or "By the way, historically, we've noticed that if you do this, you got a better outcome." Are you guys at that level of being able to make those recommendations to farmers?</p><p><strong>Jennifer Hobbs: </strong>That was the really exciting kind of result that came out of Safa, she was a PhD intern with us last summer, this work that that was accepted at AAAI that she did. So we were doing nutrient deficiency detection from the air. Can we find areas that are under stress? And this is really important because once stress sets in, you can't fix that. You can just sort of stop it. So you want to know as soon as possible that this area is lacking nutrients, you can go out and spray. At the same time, it has an environmental element to it because the more targeted and precise you can apply the chemicals, the less excess chemicals ends up in the water table, for example. So if we can, One, we want to detect it. But let's say detection for this task with our data, you can try a bunch of different things. And it hovers around an IOU score of, let's say, 0.4, depending on kind of where and what time of the season. And we did a lot of things from a single image and it was hard to kind of get it above that. When we started, including the temporal element -- what if we include the previous two flights? All of a sudden that IOU for detection shot up to, I believe, close to 0.6. And so then our next immediate question was, well, if I can now detect really well, can I anticipate this one, two flights out? And we saw that again, using this flight over flight information, we were able to predict these regions of stress two flights into the future better than we were able to detect from a single image initially. So sort of seeing how the field is changing week over week gives the model enough information to say not only is it here, but this is where it's going. And that's extremely powerful and has a lot of value to to the farmers.</p><p><strong>Harry Glorikian: </strong>So it's similar to, now I forgot her name, but she's over here at MIT where she's taken historical MR images in and been able to find features that predict a tumor advancing into the future before a human being can actually really see those features. And so that I guess that's my next question, is, what does the system see that a human can't see? I'm sure it's a lot, but work with me here.</p><p><strong>Jennifer Hobbs: </strong>The answer right now, today, is we don't know. Right. The sort of the trust of these deep learning models, unlike the past machine learning models, where they were based on handcrafted features and you could say, oh, it made this decision because of these features. There's a lot of things we can do to try to understand what the model is looking at. But it's not it's not as straightforward in the past. So interpretability is obviously a huge area of the machine learning community right now and one I think will continue to to grow, because people want to know, what is it, what is it looking at, what is it seeing? And there are some additional things we can do in our field, kind like medical as well, where you say, well, in addition to knowing what the model is looking at, I want to know I actually want to know causal effects. And then that's a whole 'nother area as well that's, I think, really kind of catching catching steam. So, yeah, the answer is we don't know. We can hypothesize and say, well, you know, it's doing things like, by the way it's constructing its features it's a little bit more robust to lighting changes. So it's able to control for this and that and actually see this sort of evolution. But we don't know that. That's sort of our best hunch at this point. But that that's really sort of all it is, is a hunch.</p><p><strong>Harry Glorikian: </strong>I can see how over time like this is, you know, it's going to provide more accurate, actionable information about crops. But let's say you sign somebody up and they start their first passes. When do they start seeing the benefit of the service?</p><p><strong>Al Eisaian: </strong>It's almost immediate, right? Because, so, A), they don't have to go through a bunch of different point solutions to kind of try to keep an eye on things, I mean, we're talking about vast areas, right? I mean, these are like multi-thousand-acre farms. And, you know, in the US, it's not really contiguous farms. You might have a couple of plots over here, a couple of fields over here and then several fields 10 miles away because of how inheritance has worked out and because of subsidies and whatever. And so the fact that you can, in the winter or if you have inclement weather outside, you can actually sit in front of your computer or on your iPhone and keep an eye on your domain, if you will, and just sort of like flipping through the stuff, that's immediate value and you don't necessarily need to have every flight to happen.</p><p><strong>Al Eisaian: </strong>I mean, again, those flights are again... It's a continuous system. And then you've got 13 high resolution captures. Because there's stuff in the in the system already. So there's a bunch of stuff like, you can look at from your last season, that allows you to make decisions for this season that you're in. And so the value is almost immediate.</p><p><strong>Al Eisaian: </strong>And then I also want to emphasize a couple more things. One, it's a decision support system for the farmer as far as which fields do I go to? So we do the prioritization. We say here's the severe areas by field, by percentage, so that you know exactly. And then also we pinpoint where the problem is. So they don't just go to the field, they actually go to the, they're staring at the problem. </p><p><strong>Harry Glorikian: </strong>That's interesting. It's exactly like what I was thinking about, guys, because, you know, they've developed a system that can show a cranial bleed and it'll move it up on what a radiologist should look at. So there's so many similarities of these technologies. It's just looking at different spaces.</p><p><strong>Al Eisaian: </strong>Wee flipped 80-20 or maybe 90-10, which is, instead of 80 percent of time guessing or trying to figure out where your problems are and 20 percent of time you're addressing your problems, we flip it, which is we take care of that. So you spend, I mean we actually alert you, you don't even, I would say 5-95 right now. We tell you where the exact problems are. So 95 percent of th time you are addressing issues. And then the second thing with regards to the collaboration that happens between farmer and all of the people that are around the farmer, the retailer, the sprayer company, the irrigation company, the seed company, if they give access to their fields, then they can actually do it remotely. So we're talking now tele-agronomy.</p><p><strong>Harry Glorikian: </strong>That was going to be one of my next things is how do you, how does this dovetail with all this what, what is it, precision ag technology that's out there? And how do you, are you working with those companies to integrate this information?</p><p><strong>Al Eisaian: </strong>Yeah, the way that we have built the product and the insights it can we can populate, we have like API systems with John Deere and FieldView Climate and a bunch, a whole host of others. We believe that that insights and data should be democratized and free. Not free necessarily that we don't want to make money, but from a standpoint of where you need to consume it. So it could be mobile and you can consume it on our app. On AGMRI. It could be a widget inside of a John Deere operations center. It could be a widget inside of Climate FieldView. The main issue is what is the preference of the farmer? Wherever that they are consuming their stuff and they want to get these insights, we're happy to kind of pipe it over there. So these collaborations, as I sort of think about the future, it's better data. I mean, I think Jennifer hit it right on the on the nail, which is you got you got to increase the trust in that, that trust translates to lower costs, higher yield, less headache, better lifestyle. Because farmers in planting phase all the way to harvest, planning for next year, it's a pretty anxious time, right? So imagine that actually this is also a lifestyle improvement, because now you feel a lot more in control, versus guessing, versus somebody else coming and telling you stuff, versus, there's always some sort of disease that's a runaway versus it's surprising you. Wouldn't you want to know, like, if it's in the next county and if you can take some preventive measures, you can be in a better situation. So the old saying is an ounce of prevention is worth a pound of cure. Unfortunately, people don't pay for prevention. They pay for a cure. And I think that's where that's where I think that whole mindset is shifting.</p><p><strong>Harry Glorikian: </strong>It's interesting because we are trying to shift health care away from only treating somebody when they're sick and actually managing them when to keep them healthy is more valuable. So. I mean, I have two sorts of questions. How do you look at yourselves versus other people in the field that are making these, making a lot of claims, because I have seen things around carbon sequestration and so forth. And then sort of a dovetailing question is, I feel like there's so much more that you could do with this rather than, I know the application that you're looking at, but the possibilities around commodities and all those sorts of. I'm a capitalist, I can't help myself. I'm thinking about, you know, but there are so many other areas. What could or those other areas be that this is applicable to? And again, how how do you compare to other people in the field. Not trying to pull anybody down or raise anybody up, but just as a sort of a thought process.</p><p><strong>Al Eisaian: </strong>We're the best and everybody else is just so-so. </p><p><strong>Harry Glorikian: </strong>[Laughs] I should have asked Jennifer that question, Al.</p><p><strong>Al Eisaian: </strong>Not from not from the boastful entrepreneur. Very fair question. So I think so. I mean, it's really a question of approach. From day one, we've invested in data science and and cutting edge science. And literally we're starting to come to market this year, five years after starting the company. This is the year that we're going to actually spend money on marketing and sales. Why? Because it's damn hard, I mean, Jennifer, just explained. It's really, really hard to get to a level that you can with a straight face tell people that this is not vaporware, that this actually works.</p><p><strong>Al Eisaian: </strong>In comparison to others. You know, look, carbon sequestration, at the core of it, what does it entail? You have to measure so you have to trust the measurements that you're making pretty certain practices. You have to verify. And you have to certify. And then you have to pay people. The certification process, the verification process is the hardest and who has the most granular information in the world? Nobody has invested as much money as we have in really, really granular, really, really high cadence, like 13 times a season. But then there's a bunch of other things that is like every five minutes. Weather. Precipitation. And so when you look at it that way, you say, OK, if you're thinking about carbon sequestration, if you're thinking about actually helping the climate situation. Agriculture and forestry, agriculture is 25 percent of problem and also 25 percent of the solution. And forestry is 17 percent, 17, 18 percent, depending on whose numbers you're talking about. If you take those two together, then everybody should be talking to IntelinAir about our technology. Everybody is interested. And then, as I said, we're just starting to kind of talk about and start boasting about our stuff. But do you think about FedEx spending $200 million buying carbon offsets in the future? And then who's going to measure it? Who is going to verify it? Who is going to certify it? Who is going to make sure that that farmer gets paid? These are challenging things that have to be solved. But at the core of it, we've got a solution. Now, somebody else can take that solution, or maybe we will do it, and then monetize it, but ultimately it's not through handwaving and PowerPoint presentations, it's really about science. You have to measure it, right. You have to say "I actually sequestered x many gigatons of carbon. And here's the measurement before. Here's the measurement after." Right. And here's what the farmer did. And he deserves this check, OK? And and so I think on that front, we like our chances.</p><p><strong>Al Eisaian: </strong>With regards to some other people. I mean, look, some people look at this thing primarily as imagery business. We've never looked at it as an imagery business. We've always looked at it as a crop intelligence business, what you're trying to do is you're trying to use science and whatever and the highest fidelity data that you can get your hands on to provide real solutions, to provide real, take it to the bank ROIs to the farmer, but not only to the farmer, but also everybody else that's involved. You mentioned commodity trading. Would it behoove the people that provide working capital to farmers to say, hey, you know, it would be good -- it's sort of like the Progressive Insurance thing. If you say yes to this gadget inside of your car where I can measure how you're driving, I'm willing to give you a 20 percent discount. We're going towards that. So the most advanced, we are talking to Wells Fargo and other companies. They're starting to think that, because, that a big asset. I mean, if you're giving working capital to people that are not data driven, that might cost them more. </p><p><strong>Al Eisaian: </strong>Insurance. You know, one of the one of the things that I learned in year two was there was a massive weather problem in Iowa and I went to this farmer's shop and there was like five to five drones, different types of drones. And I said, what are these drones for? He goes, oh, yeah, when when weather hits, my brother takes that one, I take that one. My cousin takes that one or two field hands take these two. And we all jump into our trucks and we we drive out to the fields. And for the whole day we survey, we fly the drone, take imagery, bring it back, take it out, put it into the system. And think about that level of detail that they have to go through just to negotiate with the insurance adjuster what they need to get paid on the crop insurance front. That's one way of doing it. Now imagine the way that we can do it, which is both the insurance provider and the farmer are subscribers to our system, we actually have algorithms that tell you exactly by percentage what the damage was. So there is no pissing contest between, oh, look at my thing, look at my video, look at my this.</p><p><strong>Harry Glorikian: </strong>So what I find is interesting is I actually I was talking to somebody at another venture fund earlier today, and I was I was saying to them, I'm like, know, once you deify something, the potential business model shifts are phenomenal. You just have to imagine them. And now you've got to bring other people along with you, which is half the problem.</p><p><strong>Al Eisaian: </strong>I want to do it for the farmers, right. I mean, some farmers say, what are you gonna do with my data? I go, you know what? I want to pay you for your data. And they're like, what? I go, Yeah, you know, if you and I get into business where your data now matters because you're running your farm better, you should get a better rate. You should get a better insurance rate. You should get better yield. You should get better. Everything, right. That data has value and I want to pay you.</p><p><strong>Jennifer Hobbs: </strong>You can turn it around, you can use it to create better seeds, better products, because you could do a lot of, there's obviously a ton of research that's done in the labs, around the farms, that are being used to develop these other products. But then they have to go out and live in the real world. And the question is, well, how well is this product going to work on my field? Given all of things? You know, what if they didn't have my type of soil or my type of weather. What if it rains more or less the season? And now you have, you know, acres and acres and acres. You have entire states of data that you can actually look to see how well did these different combinations perform. More than just you know, "Here is a really confined experiment that was run," how did it actually fare out in the real world? Because maybe it's also very effective, but it has to be used a certain way. You find that people aren't using in a certain way. Well, if I make these changes, can I get better yield? And I think that's where having the data coming in just opens up so many different possibilities.</p><p><strong>Al Eisaian: </strong>There's one more thing to add just relevant to this thing. Imagine that USDA has thousands of people that call and get survey data. They call a farmer that has let's say... This is a case in point, like a real, real live thing. The farmer has 43 fields. He reports on one field and extrapolates. And that's how USDA, for the most part, gets their estimations. They use some satellite stuff as well, but you can imagine? It's $8 billion a year of of guarantees. And I don't know how much, but there's I'm sure there's hundreds of millions of dollars of fraud that happens where the farmer reports something that didn't really happen. And then now they have to get the federal farm insurance. So what I'm saying is that, you know, the US government should scan and get all the data, and just give it to people like us to do the data crunching. Right. It would save tens of billions of dollars of taxpayer money, literally. Because right now we're doing the, paying for the capture. We're doing all the analysis. We're doing the productization. Can you imagine? That's, I think, where we need to get to.</p><p><strong>Harry Glorikian: </strong>So let's jump back to the to the technology for a second. Where do you see this going? Because I just you know, every time I try to keep up with this, I'm barely able to. It's moving almost too fast in a certain sense. Right. So where do you see this going from a technological perspective? Is it resolution? Is it analytics? Is it predictive power? Or is it all of the above? I mean, I'm trying to if you were giving a visionary talk about where this is going in the future, where how would you frame it?</p><p><strong>Al Eisaian: </strong>I'll start, and then Jennifer can probably be much more articulate about this. Look, we've made our bets. 80 cents on the dollar for us in R&D and engineering goes to AI. We're making huge, huge bets on that. We keep hiring more people. And then maybe as an entrepreneur, I should stop that, but maybe not. But that's the bet we're making. On the capture side, I think there's two very promising developments that we're betting on. One is the ultra high resolution imagery below the atmosphere will continue going to these high flying drones that don't need bathroom breaks, that can fly 24 hours or maybe 48 hours a day and they can capture a 10, maybe 12 times more of the data that we need. And so obviously the cost will come down. I think the sensor tech, there's many, many great companies, both defense-related and nondefense-related companies that are working on sensor technologies that will blow your mind. And we can go to hyperspectral imaging, which now for disease detection and stuff like that becomes really valuable. So that's on the sort of like the physics side of things. Like flying sensors, hyperspectral. But I think the most exciting part is post data capture. That's everything that Jennifer and Jennifer's team does. And I'll pass it to Jennifer.</p><p><strong>Jennifer Hobbs: </strong>Whatever I try to give academic talks, I try to capture the minds of the other, the people in the computer vision and machine learning fields who might be doing stuff like self-driving cars or what have you, because there's so many opportunities to both make computer vision for agriculture better in the future. But I think, to benefit both the agriculture and the computer vision side, there are challenges because we're getting so much data, more data, more sensors, just more types of data. Right now, you're going to run into this point where, what if what if the information on a single field is a terabyte? What do I do with that? How do I how do I process it? How do I extract all of the information? What kind of methods do I use? If I have hyperspectral imagery coming in all the time and then I have all this equipment data and all this weather data, how do I make sense of all of that? And there are so many different avenues there to to explore. I think, I hope people in in the machine learning community get really excited about this and say.... It has huge implications for the agricultural industry, but it's a great domain for us to understand, to improve our understanding of computer vision. So I think as more and more data comes in, it just puts the burden on us to come up with methods that can handle this amount of data. How can I handle an image that's maybe 100,000 by 100,000 pixels fifty times during the season, where I have hyperspectral data, with all of this weather coming in. And I think that's a really exciting, exciting piece. And then I think that also prompts, on the hardware side, you see a lot of a lot of interest around the different chips, the different edge devices that are used to process these. I think it just encourages more and more of that in the future. And so it's, I hope I am optimistic that I think a lot of these challenges, ag will start to be a preeminent domain in computer vision that people, it's an area just like autonomous vehicles that people are really interested in because it improves our understanding of these methodologies in addition to changing the world.</p><p><strong>Al Eisaian: </strong>And you can't eat an electric car. You can eat an ear of corn.</p><p><strong>Harry Glorikian: </strong>No. Yeah, but I was always thinking about there are techniques and approaches that you're learning and taking that we can learn from. I just don't know if anybody's cross referencing the work or the papers that are being written. I'm sort of the geekoid, who's trying to read, you know, obviously the title captures my attention, but, you know, reading all sorts of stuff because I know that it's a tool. It doesn't matter what you're throwing it at, the tool will with a few tweaks might work well. So I'm trying to keep absorb all this stuff and hence the the conversation. Besides the fact that I think editing of crops or making changes in crops and then applying all the stuff that you guys are talking about, I mean, it is a combination. We're going to change the way the world is fed, over time.</p><p><strong>Al Eisaian: </strong>Absolutely.</p><p><strong>Harry Glorikian: </strong>Well, this was great. I look forward to staying in touch and hearing how the company evolves and again, how the technology evolves, I though I, I will probably always be struggling to keep up with everything that you're saying. But that's OK. That's that's part of my job, trying to understand what's happening and where it's going. So thanks very much for the time and look forward to hearing how this thing evolves in the future.</p><p><strong>Al Eisaian: </strong>Thank you so much for the opportunity, Harry.</p><p><strong>Jennifer Hobbs: </strong>Thank you so much.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s show.  We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at <a href="http://www.glorikian.com/podcast">glorikian.com/podcast</a>. You can follow me on Twitter at <a href="http://www.twitter.com/hglorikian">@hglorikian</a>. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.  Thanks, and we’ll be back soon with our next interview.</p>
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      <itunes:title>IntelinAir&apos;s AI-Driven Image Analysis is Saving Crops - Down on the Farm today but tomorrow.....</itunes:title>
      <itunes:author>Jennifer Hobbs, Harry Glorikian, Al Eisain</itunes:author>
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      <itunes:summary>This week on MoneyBall Medicine, Harry takes a field trip (literally!) into farming and agriculture. His guests are Al Eisaian co-founder and CEO of crop intelligence IntelinAir, and the company’s director of machine learning, Jennifer Hobbs. Intelinair’s AGMRI platform uses customized computer vision and deep learning algorithms to sift through terabytes of aerial image data, to help farmers identify problems like weeds or pests that can go undetected from the ground. The parallels to the digital transformation in healthcare aren&apos;t hard to spot.</itunes:summary>
      <itunes:subtitle>This week on MoneyBall Medicine, Harry takes a field trip (literally!) into farming and agriculture. His guests are Al Eisaian co-founder and CEO of crop intelligence IntelinAir, and the company’s director of machine learning, Jennifer Hobbs. Intelinair’s AGMRI platform uses customized computer vision and deep learning algorithms to sift through terabytes of aerial image data, to help farmers identify problems like weeds or pests that can go undetected from the ground. The parallels to the digital transformation in healthcare aren&apos;t hard to spot.</itunes:subtitle>
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      <title>Tempus&apos;s Joel Dudley on Building a New Infrastructure for Precision Medicine</title>
      <description><![CDATA[<p>What if there were a single company that could connect hospital electronic health record systems to a massive genomic testing and analytics platform? It would be a little like Amazon Web Services (AWS) for healthcare—an enabling platform for anyone who wants to deploy precision medicine at scale. That's exactly what Joel Dudley says he's now helping to build at Tempus.</p><p>When Harry last spoke with Dudley in January 2019, he was a tenured professor of genetics and genomics at the Icahn School of Medicine at Mount Sinai Medical Center and director of the Institute for Next Generation Healthcare. But later that same year, Dudley was lured away to Tempus, founded in 2015 by Eric Lefkofsky, the billionaire co-founder of Groupon. </p><p>Tempus is building an advanced genomic testing platform to document the specific gene variants present in patients with cancer (and soon other diseases) in order to match them up with the right drugs or clinical trials and help physicians make faster, better treatment decisions. In this week's show, Harry gets Dudley to say more about Tempus's business—and explain why it was an opportunity he couldn’t turn down.</p><p>You can find more details about this episode, as well as the entire run of MoneyBall Medicine's 50+ episodes, at <a href="https://glorikian.com/moneyball-medicine-podcast/">https://glorikian.com/moneyball-medicine-podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian:</strong> The last time I had Joel Dudley on the show in January 2019, he didn’t sound like a guy who was looking for a new job. At the time, he was a professor of genetics and genomics at the Icahn School of Medicine at Mount Sinai, and the director of the Institute for Next Generation Healthcare. He was publishing breakthrough papers on the use of advanced statistics to find unexpected biomarkers for diseases like Alzheimer’s.  And he had a long to-do list of ways he wanted to push his fellow physicians to become more data-driven.</p><p>But lo and behold, later in 2019 Dudley was lured away from Mount Sinai by Eric Lefkofsky, the billionaire co-founder of Groupon. Lefkosky had started a new company called Tempus, with the goal of creating an advanced genomic testing platform to help oncologists and other physicians make faster, better treatment decisions for their patients. </p><p>Lefkofsky showed Dudley what the company was doing to document the specific gene variants present in each cancer patient, in order to match them up with the right drugs or clinical trials. And it didn’t take him long to talk Dudley into joining as chief scientific officer.  In our interview, I got Joel to say more about why joining Tempus was an opportunity he couldn’t resist.</p><p>One cool piece of news that came out right after we talked is that Tempus isn’t just a provider of testing and genomic analysis—it’s now a hardware company too. This year the company plans to release a portable, voice-driven gadget called Tempus One that will allow doctors to interact with Tempus’s genomic reports through natural language inquiries. It’s like Siri or Alexa, but specialized for oncology. I’ll have to get Joel to come back to tell us more about that. But for now, here’s our conversation from early January.</p><p><strong>Harry Glorikian: </strong>Joel, welcome back to the show.</p><p><strong>Joel Dudley: </strong>Thanks for having me back.</p><p><strong>Harry Glorikian: </strong>So, you know, as we were just talking before I hit the record button. It feels like when we last did this, it was almost a lifetime ago. Especially the last few years, it  feels like, every day feels like a month, almost, trying to keep track of everything. But, you know, you were doing something very different the last time we talked to you. You were at Mount Sinai and and now you're, you know, at Tempus. And so let's start there. Like, why the switch and. What are you doing?</p><p><strong>Joel Dudley: </strong>Yeah, I think, like many people, I didn't expect to be at Tempus. I've been here about a little over a year and a half now at Tempus, and I was approached by Eric Lefkofsky, the founder of Tempus, when I was at Mount Sinai. And things were going great at Mount Sinai. I was fully tenured. I had tons of grant funding, cool projects, even startups spinning out of the lab. So I definitely wasn't looking for a job at all. And and I hadn't really heard of Tempus at the time. And I just knew they were kind of out there. And I somewhat heard of him and he approached me about a job. And I'm like, yeah, I'm not looking, you know, and I know Guardent. I know people at all the sort of big precision, Freenome, and precision medicine companies. I mean, I thought, well, if I was going to go, why would go to Tempus. You know, and like, I just, I know everybody else in these other companies. So he's like, just come to Chicago, you know, talk to me and see what's going on.</p><p><strong>Joel Dudley: </strong>And then I looked at the website and I'm like, how the heck is this company worth three billion dollars, you know. $8 billion valuation now. And I'm like, I was being, to be honest, a bit arrogant because I'm thinking I know everybody in this field and I don't know what these guys are doing. Which is a little arrogant, to say that. But it's like sort of like, how could a precision medicine company get to $3 billion without me knowing about it. So at that point, it was almost curiosity at that point that brought me into their headquarters, obviously back when we could fly and travel. And I went I went in there. I'm like, well, I've got some collaborators at Northwestern anyway I've got to meet with. And yeah, I'll just go I'll go see what this tech dude wants. And I was even telling my wife before I left, I'm like, all these tech guys, they, always have the worst health care ideas, like, they have the worst health care ideas. </p><p><strong>Joel Dudley: </strong>So so I'm like I'm like, you know, but that being said, I went and visited Eric at headquarters, Tempus headquarters. I was completely blown away, completely blown away. It was a company like nothing I had ever seen before. And I can get into some specifics on why Tempus was different. But at a high level, it was really the first time. So my background, I'm very much a systems guy. Right. I like to understand everything from multiple systems perspective. Right. And in the molecular world, that means I'm a systems biology guy. I want proteomics. I want genomics. I want the whole thing. So when I look at other companies that were doing targeted DNA panels, I'm like, well, what fun is that? You know? And I know there's a good reason why people do that because of reimbursement and and all that kind of stuff. But it's like, what am I going to learn from DNA? You know, nothing. So that was my bias. And Tempus was the first precision medicine company operating at scale I saw that was totally committed to a multi-scale multimodal data philosophy, which I had never seen before, and was totally committed to this concept that I think you and I get excited about, which is a diagnostics company that was first and foremost a data company, first and foremost. Now, there's a lot of diagnostic companies that paid lip service to being data companies. But when it came down to it, there were all about volumes and margins of their tests. Right. Tempus was the first one that was authentically and seriously and in a big way committed to being a data company first.</p><p><strong>Joel Dudley: </strong>So I was totally blown away and and at first, you know, said there's no way I'm leaving my great job here in Mount Sinai. And I kept thinking about it and I kept thinking about it and I thought, holy cow, these guys are successful. This is going to be massive. I mean, this is going to be bigger than anything I could do at any single academic institution. This is going to be world changing. So anyway, that was a lengthy explanation of why I joined Tempus. It just wouldn't get out of my brain.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting because I remember when you told me, I was like, what? Huh? Like, I was adding up what you were adding up, like all the different things you're doing. And I'm like, he went there? I'm like, I almost was thinking, can I buy stock? If he's going there, I should buy stock. So you know, Eric, before he did, you know, Tempus, obviously, did Groupon and, you know, he's financially successful, I could probably say. But what was his motivation?</p><p><strong>Joel Dudley: </strong>Yeah, he the origin story of Tempus is that Eric's wife had gotten breast cancer and someone of great means, of course, was able to get, have her seen by all the best, literally all the top the top 10 cancer, breast cancer doctors in the country. And what he noticed, being, if you get to know him, he's a very rational, logical guy know, very data driven guy. He noticed very quickly that, you know, first of all, none of the doctors agreed. That data wasn't informing her care, you know, and got a real personal look at sort of the dysfunction, I guess, or let's say missed opportunities to use data in health care that we see we, you and I see. And he decided to do something about it. There's a lot of really admirable things about his personal involvement in Tempus that drew me there. One is he's all in. I mean, he's all in, all in. A thousand percent of his attention is focused on the company. He's got a venture capital firm. He's got Groupon still is in existence and is in, and he is in in a huge way. He's you know, I think every time I've been to that office, I think he's the first one there in the morning. You know, it's just like, in some ways he's sort of like the general that rides the first horse in the battle on this thing. And not only did he not only was in a big way financially, he put a huge amount of his own money into into the endeavor, but his personal investment is, he's fanatical about Tempus.</p><p><strong>Harry Glorikian: </strong>Well, I'm convinced that when you want to change the world, if you're not fanatical, then it's not going to happen. You have to believe it more than anybody else believes it to make it come true.</p><p><strong>Harry Glorikian: </strong>Yeah. One of my favorite stories. I'll just share a quick note and I'll switch was I remember one time we were having a discussion. I can't remember what it was about. A flow cell, after I joined. A flow cell failing or something like that on the sequencer, and Eric I think had asked for which flow cells failed and I had walked by his office attempts and the bitmap images of the flow cells were up on his computer and he was staring at them intently. I have no idea if he even knew what he was looking at. I mean, he does now for sure. But the point was, the point was it was just shocking to me because I'm like, here's the CEO, billionaire CEO of this company, and he's looking at the pixel by pixel at these flow cell images, trying to figure out why they failed. And I thought that was unbelievable. You know, no, no detail is too small.</p><p><strong>Harry Glorikian: </strong>No, you know, I think, you know, you have to be passionate, get involved and want them, you know, I mean, at some point you're at scale and you have to sort of start trusting the people around you. But in the beginning, you know, I think you have to fully be committed. And everybody has to be going with you. Yeah. So and I totally agree on the whole data driven part. I mean, I have given so many talks, especially with a good friend of mine, Jennifer Carter, who was the former CEO of N of 1, where, you know, there's a bunch of doctors where the genomic data is saying one thing and they decide to do another, which boggles my mind why you would do that, because most of the time it doesn't work. But so you guys are at the forefront of genomic data. And I'm sort of imparting words of saying, you're trying to get faster, real time patient care decisions and help physicians make better decisions. Is that, am I summarizing the business?</p><p><strong>Joel Dudley: </strong>Yeah, yeah, that's it. In at a high level, it's obviously to deploy precision medicine at scale. So one of the things we say we're doing a Tempus is building all the boring, boring plumbing that nobody wants to build to actually deliver precision medicine at scale, which includes....So we ingest clinical records for the patients, because we contextualize the reports of the clinical data that we get from the individual patient. So but we work with everything from community, rural community hospitals to sophisticated academic medical centers. So we have this, part of our machine is, we have this interface that can take everything from a direct pull from a Cerner cloud instance all the way to literally people shipping paper to Tempus. But but, you know, basically we've built we built that data abstraction API, if you will, that can take eithr paper or cloud. And it was expensive. It required a lot of people and it cleans up the data. But somebody had to do that, like someone had to build that, the boring plumbing to do that. And and we did it.</p><p><strong>Harry Glorikian: </strong>Well, Flatiron I think, you know, what I've heard is Flatiron has a bunch of people in the back end, like putting things in context right, yesterday versus tomorrow versus, you know, trying to get context, which NLP not very good at. And I got to imagine that Foundation might be doing some of the same sort of stuff. No, not as much?</p><p><strong>Joel Dudley: </strong>Not as much on the clinical data. They're very much focused on the molecular data. The difference, though, between Flatiron and Tempus, though, is that Flatiron bought the EHR which the data was being collected. And so they own that. We take everything, like I said from manila folders to Cerner, to Epic to... Like that was the challenge, that's what makes TEmpus totally different in that we didn't own that that EHR. So it was a bigger challenge. But we also have humans that check all the data because as you mentioned, NLP is imperfect. But the real business, though, if I could make a point, though, is is developing smart diagnostics. Because, the principle being, you know, we all want to bring AI, let's say, to health care. One way to do that is to bring AI into the EHR, which doesn't seem like it's going to happen anytime soon. Like we have a hard time. You know, we barely can get logistic regression to run inside Epic. I don't know. I don't think we're going to, I shouldn't pick on Epic alone. But, you know, it doesn't seem like very sophisticated AI is coming to the EHR anytime soon. Plus, there's sort of a small number of players you have to deal with, you know, to have control over that environment. So that's challenging. You could try to bring the doctors to AI, which doesn't work very well. A lot of companies have failed because they say, oh, we have this beautiful AI machine, this beautiful interface that the doctors would just leave their, you know, standard workflows and just come over to our obviously better system. That feels like 99 percent of the time, right, because doctors don't want to change, physicians don't want to change their workflows. So the idea behind Tempus was more, physicians interact with lab tests all day long. So one step at bringing AI or a Trojan Horse, if you will, is to make the lab test themselves smarter. So a real simple example is, our cancer testing is, e because we pull the clinical data on that patient and the sequencing data, here's a real simple example of something that Tempus can do with a smart test that other people can't, which is if they have a DNA mutation that suggests the patient should go on a certain drug, but we know from their actual clinical records that they tried that drug and failed it, we will dynamically change the report to not put them, not suggest that drug or gray it out or whatever, depending on the version of the report. That's like a brain dead simple example, but most companies can't do that because they're not able to rapidly pull in and structure the patient's clinical data and contextualize the molecular data or the test result with that specific patient's information. So that's the Tempus approach there.</p><p><strong>Harry Glorikian: </strong>Well, not not to not to digress, but I've always said in my talks, I believe that if anything breaks or will break health care, it's the EMR systems being completely, you know, I mean, they're just they're just not where they need to be considering how fast where we want to go to the next level of health care. Right. If we were a tech company, it would have been rewritten, you know, 15 times by now to get us to where we need to go.</p><p><strong>Joel Dudley: </strong>Totally, totally.</p><p><strong>Harry Glorikian: </strong>But you're looking at DNA, you're looking at RNA, you're looking and you're looking at a whole host of 'omics to help drive a positive outcome. I mean, are there concrete examples that you might give in how this is being used and why, you know, why Tempus is compared to everybody else where it is, I would say?</p><p><strong>Joel Dudley: </strong>Yeah, absolutely. So you know what? One of the things that we think about when we get a sample in the door is how much sort of multi-scale data can we generate on the sample without going completely, without being totally insane. Right. So it's like I mean I mean, still being sustainable, let's say. So I'll give you. So what happens today when let's say, by the way, we're expanding outside of cancer, but focusing on cancer for the meantime, when a tumor section comes in to our current lab. So not only do we get sort of the the deep targeted DNA sequencing, we also get normal blood as part of that so we can do tumor normal. A lot of companies don't even do tumor normal. But then, and this is one of the things that really caught my attention, was, we generate full transcriptome on every patient that comes in the door. I mean, that's nuts. I mean, that was nuts that they just decided to as a default on every patient. That's like that's like $800 in extra cost that's not going to be reimbursed. And and even clinicians can barely wrap their heads around RNA today. I mean, it's a super hard time with RNA. I mean, do they like DNA because like the variant's there, or it's not, and the drug gets prescribed or not. But RNA is this analog probabilistic sort of dynamic measure. It gives you all kinds of different types of interpretation that's difficult. But the fact that they committed to that from day one was nuts.</p><p><strong>Joel Dudley: </strong>So then we also have our own pathology lab. So we actually digitize the section and stain and digitize all the tumor sections. We have high quality imaging. And then we pull in the structured clinical data, of course. And then we have an organoid lab actually inside Tempus. So we try to build a patient specific organoid from every every patient we can and bank that for future screen. So we have a huge number of organoids where we have not only the organoid stored and the ability to really expand that but then the patient's actual, you know, in vivo clinical data, molecular data. And you could start to do things like, hey, where you know, if we if we see this pathway in the organoid, it means we're going to see this pathway in the real patient and all that kind of stuff.</p><p><strong>Joel Dudley: </strong>So another interesting thing about Tempus is, we have this new business unit called Algos. And this is something that sounds really obvious when you pointed out and you wonder why nobody else did it. But we go to market with the broadest possible assay. So in a traditional, like, biomarker discovery, you would say, I want to try to find a biomarker of people who respond well to radiotherapy or something like that, prostate radiotherapy or something like that. So I'm going to start with the, people would start with their full transcriptome and then maybe, let's say you find a 10 gene signature that predicts who's going to respond well to radiation therapy. Then the the typical diagnostic company would say, OK, now let's shrink, let's take this 10 signature, let's implement it at Nanostring or PCR or some kind of care platform and and then go to market with that. And Tempus says, well, screw it. Let's go to market with the full transcriptome as our default assay, because then that allows us to digitally layer signatures on top of it. And by default, everybody. So we measure transcriptome now. And maybe five years from now, we find a new signature for drug response. We don't have to remeasure everybody. We just run it digitally, you know, on top of the signature.</p><p><strong>Harry Glorikian: </strong>You know, that was one of the I remember when we were talking about this years ago, I was like, that's what you would want to do. That's why you'd want the data. Right. So you want all of this data so that as time goes on, you don't have to go back and get it again. You've got it. And you just look at it. It's almost like I think about it like topology. I mean, at some point you take the first scan and you start layering things on top to get a better idea of what what is there over time, because, hell, the technology, you know, your insight becomes better over time. Some new piece of information comes in, and you go, oh, let me go back and look at this again. So you guys do that. And then the recommendation is a targeted therapy. I mean, I haven't seen any of the reports, so I'm sort of guessing along here.</p><p><strong>Joel Dudley: </strong>Yeah, we've got we've got a great report that summarizes the patient's clinical history and all the stuff you sort of expect. And then it offers various recommendations also about, of course, clinical trials. So the other thing we have is a huge clinical trial network, which I haven't mentioned yet. A national clinical trial network where we can spin up trials and match patients to trials. That's owned and operated by Tempus. But we can, so it takes the DNA information and RNA information and synthesizes recommendations. And it's going to be up to the doctor. Of course, you know, some doctors like to look at the DNA. Some people like to see where does the DNA and the RNA corroborate each other? You know, is there a PI3 kinase mutation plus activation or deactivations of a PI3 kinase pathway or something like that, and so we present all that information and a pretty, pretty digestible way.</p><p><strong>Harry Glorikian: </strong>So, two questions. A, does the patient ever get something to look at? And B, have you done any stats on success, right, of recommendations and so forth?</p><p><strong>Joel Dudley: </strong>Yeah, we've publishd some papers. We had a paper in Nature Biotech and a couple of, a couple of others that sort of show the value of this additional information and continue to publish, you know, papers. But we've been primarily on the cancer side, primarily physician facing. And, you know, physicians can, of course, give their reports to the patient's physician facing in other disease areas like neuropsych, which we've gotten into. We do have a patient facing digital app that is being tested right now to go more directly to patients, but not yet, and COVID as well. We have a patient facing up. So but that actually will be a bigger part of all the disease areas.</p><p><strong>Harry Glorikian: </strong>You have agreements with tons of institutions coming in. I mean, you and I were at one point sort of throwing this idea of having enough data where you're at that escape velocity of, it sort of stops making sense to go someplace else because the Encyclopedia Britannica is in one place. So where are you guys on that journey?</p><p><strong>Joel Dudley: </strong>Yeah, I think we're, you know, it depends. You could argue it, but I think we're basically approaching escape velocity at this point, where if you look at the trajectory of our data and I don't have the exact numbers handy, but it's a, it's a steep it's a steep line in terms of the number of samples we sequence. I think it's close to 200,000 samples last year or something like that. But but but our RNA, for example, our RNA database alone, I mean, the Cancer Genome Atlas looks like a little baby toy dataset compared to the Tempus's internal dataset. And that's, of course, a massive, I don't know if it's a multibillion dollar, but it's a massive Internet effort among academics. It's a great effort by the way, I'm not knocking the Cancer Genome Atlas, but but by comparison Tempus is able to eclipse that, you know, like you wouldn't believe. And then also have very much richer clinical data associated with those samples and have continuous updates of that data where something like the Cancer Genome Atlas is like this frozen thing that gets updated by an academic consortia every year. So even when we look at the cancer Genome Atlas, which again, I think was a worthwhile investment, and remains a worthwhile investment. But if you just compare those, the growth trajectories and the density and quality of that data side by side, Tempus is just a rocket ship compared to that data sets like that, which used to be like, you know, even Big Pharma would rely on the Cancer Genome Atlas is their sort of discovery data set. But now you'd be kind of insane not to use Tempus, it's just so much bigger.</p><p><strong>Harry Glorikian: </strong>So so that brings me to that next question. Right. So we've got we've got these patient samples. We've got clinical data. You make a recommendation, you can actually recommend a clinical trial. But now the next step comes to me and says, well, but if I have all all those pieces of information, shouldn't I be also looking at drug discovery?</p><p><strong>Joel Dudley: </strong>Yeah. So quick on the trial site. It's worth it. I'd like to point out 'cause we're really proud of this. So we have this thing called the Time Trial Network. It's a national network of I think it's 2,000 oncologists around the country on a common rate sheet, a common IRB. And the whole idea was when we match a patient, instead of a drug company going to, say, an AMC like Dana Farber or something, which, of course is a great institution, and saying, hey, we want to run our X, Y, Z drug trial with you, and all the patients will have to either fly here or drive here every couple of months, if you don't have all the patients here locally, we created this national network. And the idea was rapid site activation of trials. So if a pharma is looking for a certain type of pancreatic cancer patient subset and we match that patient in Tulsa, Oklahoma, or nearby or something like that, just picking a random city, that instead of that person driving into the AMC, an academic medical center that has the trial, or CRO, we spent a trial as close as possible to where that patient lives at one of our partners, whether it's a community hospital or something like that. At the end of the year, don't quote me on this, I think we had, we went from like a patient match to first dose in patient and something like less than 10 days or something like that, because we rapidly activate a single patient trial site.</p><p><strong>Harry Glorikian: </strong>Wow, that's cool.</p><p><strong>Joel Dudley: </strong>It's pretty cool. So it's sort of like a whole ecosystem. Right. So it's not only are we sequencing the patient and finding who are eligible, we can we also have the trial site integrated into our platform.</p><p><strong>Harry Glorikian: </strong>So it it's interesting, you always wonder, like how much how aware our patients that some of these things are. Out there when they need it, right, as opposed to the way that you and I both know the way the system runs, which is, oh, come here so that we can make the dollars as opposed to what what's really going to be the best for the patient?</p><p><strong>Joel Dudley: </strong>Yeah, yeah, absolutely. And you had asked me a second question that I totally forgot now because I distracted.</p><p><strong>Harry Glorikian: </strong>The drug discovery side of it, making that connection at some point of...</p><p><strong>Joel Dudley: </strong>Yes, it's super valuable data for drug discovery. And that is part of the value proposition of Tempus, of course, to our pharma partners who want to develop therapeutics. So part of Tempus's business is to partner with pharmaceutical companies and assist them in their discovery or biomarker efforts through Tempus's data and platforms. And we have some backend platform technologies for investment targeting our data. We have a platform called Lens for interrogating our data that is produced. Pretty interesting. And then, you know, we have a business called Alpha, which is about spinning out joint ventures around therapeutic discovery from from Tempus's data.</p><p><strong>Harry Glorikian: </strong>Ok, so that's how you if you identify something, you're willing to sort of spin it out at that point and see it come to life.</p><p><strong>Joel Dudley: </strong>Yeah. Yeah. So it's partnering with pharma or partnering with, you know, a joint venture that we're involved in around the data, but per se we don't do the drug discovery internally on the data.</p><p><strong>Harry Glorikian: </strong>You and I love the data and love the AI and machine learning. What gets you super excited? Where do you see the biggest applications of the A.I. and machine learning? Where do you see the biggest opportunities?</p><p><strong>Joel Dudley: </strong>And in no particular order, so a lot of interesting things can be done with machine learning when you have not necessarily orthogonal but multiskale data on the same samples. Right. So I'll give you a concrete example is, we have we have a large histo genomics, we call it program that our AI data science team is working on, where, of course, if we have rich RNA sequencing and rich DNA sequencing plus digital pathology on slides and samples, we can start doing things like calling PDL1 status directly from an H&E stain via deep learning instead of actually sequencing a patient. Because sequencing is great. But but imagine if you could call it the critical markers for a trial via an H&D stain and deep learning, you know, in rural Louisiana, or something like that, where people don't want to pay for sequencing or you just want to be much more capital efficient. So once we once we start collecting all these different dimensions of data, we can start predicting, you know, across all these different dimensions. Right. So what in the rich sequencing data can we predict from images, for example, which is really interesting, because then that cost, you know, nothing practically. But the key up front, you have to collect those those cohesive, coherent data sets of multiple dimensions to train. Once you've trained, it's super valuable.</p><p><strong>Harry Glorikian: </strong>It's interesting because I was having a conversation earlier today about spatial resolution of single cell, but but actually looking at the genomics inside the cell, the expression patterns and looking at that based on geography, let's call it that, for so everybody understands it, but very cool how you could see individual cells lighting up versus, you know, the other cells around them, which would give you an indication of what's being activated, how it's influencing the cells around it, et cetera.</p><p><strong>Joel Dudley: </strong>Yeah, absolutely. And that's an area we're exploring within Tempus, of course, is related to the histo-genomics I mentioned is if we start with a single cell and spatial transcriptomics on tumor cells plus rich imaging, at some point we're going to build up a data set that will give us deep molecular insights from the images alone, once we've built up the single cell and spatial transcriptomics that accompany those those images. So that's one, it's a really useful practical application of AI. Another one that's interesting for us is just getting additional insights out of existing data, which is something I've always enjoyed. But a concrete examples is, we have a big partnership with Geisinger where we've developed a deep learning model that runs on ECG traces. ECG traces are collected for elective surgeries, for physicals. And we're not the only ones necessarily exploring this, but a lot of people are using deep learning models to see if the, because an ECG trace, you could consider an image, basically. Right. And so people are using it episodically to see, like, is there something, that subtle pattern that's not being detected in the episode of care, but we're actually trying to predict things that will happen in the future. And we published some papers on this. But so we're taking a single ECG trace and we're saying, are there hidden signals basically in this ECG trace that will predict if someone is going to get future a-fib, future stroke future, you know, coronary syndrome? And we have a very large data set with Geisinger that we've done in partnership. And we've it's just amazing, like the one year, three year future events you can predict from a single snapshot of an ECG. There you go. Myocardia.</p><p><strong>Harry Glorikian: </strong>Yeah, I like I have my little monitor here, and I, I, I tend to do it every day just just to get some longitudinal data.</p><p><strong>Joel Dudley: </strong>Yeah. Yeah. Alivecor is a great is a great device. Yeah. So a couple of really interesting applications of that. One is, you know, from a population health standpoint, just going through all of the ECGs that have been collected and you can triage people into high risk low risk groups and manage them. But it's also interesting for clinical trials, because if you can predict things in the future from an ECG trace, say, for, like an anticoagulation trial, you can enrich that trial population for events and things like that from a fairly cheap standard device. So I'm interested in, you know, the ability of ML and AI to get additional, squeeze, additional information and utility out of these sort of everyday things that are measured routinely.</p><p><strong>Harry Glorikian: </strong>Yeah, and I think that, I mean, you know, whenever I've seen it, we've always gone from a complicated measurement to figuring out easier modalities to sort of identify that information from. We just didn't have the, maybe the power per se to get it in the first place. So, okay, you guys are in oncology now, you're moving out to cardiology and I think infectious disease and do I dare say neurology, depression and things like that. So why? Like, why wouldn't you just go deep and, you know, crush the space in that one area? Why?</p><p><strong>Joel Dudley: </strong>Yeah, it's interesting. I feel like we are doing fairly well in oncology. But this goes back to why I joined Tempus, which is, I always joke that this is like four different companies. And, you know, it's like it's like Flatiron plus Foundation plus, you know, we don't like to compare ourselves these companies, but like this is early on when I was, because we're actually not like those companies, which I'll explain in a second, but I was like, on the outside, it sounds sort of crazy to say, well, we're like six companies in one. But the difference was, it was built that way from the ground up in an integrated platform, a vertically integrated platform. And that's what makes it powerful. It requires a lot of capital to do that up front. But the vision was pretty interesting. So they built this sort of vertically integrated, very powerful machine to tackle cancer in this like multi-modal, comprehensive way. But they were smart in that they built it in a fairly abstract way so that it could be repurposed for for other diseases. And from day one, that was always the intention. And to me, that was amazing because I'm thinking, well, geez, a company that just tackles cancer alone with this approach is a massive company, you know,, putting on my venture adviser hat. You know, it's like, well, jeez, this is huge because this is like this company plus that company, plus that company all wrapped into one nice, seamless package. That's huge. And then I thought, well, if they replicate this success they're having clearly going to have in cancer in just one other major disease area that is an unprecedented precision medicine company in history. You know, no company would have done what Tempus has done in cancer and a whole other disease area in terms of ushering in this like very large scale multimodal approach, with clinical tests in the market and things like that. So I was like this, I got to join this. This is nuts.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting that you say that, right? I keep trying to explain to people and I guess one of the examples that I've been using lately is something like Ant Financial, right. Where how they started in one area and were able to broaden, based on some very simple capabilities. And now it's 10,000 people managing 1.2 Billion customers. Yeah, you don't do that because of a personal touch. You have to have automation to tackle that. And and I know that you guys have like your robotic systems for sequencing. And I have to believe that that thing doesn't, I always tell people it doesn't care what it ingests. Right. Analytics on the back end may need to be adjusted accordingly. But, you know, that's the power of this data approach as opposed to the way we've done it historically.</p><p><strong>Joel Dudley: </strong>Absolutely. And the way I would describe it, I'm not sure everybody loves this analogy, but I think it's a very accurate analogy, which is, what I saw, and we're doing this, so we built this very sophisticated, vertically integrated infrastructure that connects sequencers to clinical and back, plus data abstraction and clinical data structuring. And so we built that machine and sort of dogfooded it ourselves on cancer and and other things that we continue to sort of dogfood it and use it our use ourselves. But eventually the goal of Tempus is to open this platform up to other people, so the way I what I saw early on was that while Tempus has the chance to become the AWS of precision medicine, basically. We're building all this boring plumbing or connecting hospitals. We're building this, like I mentioned, this API of data abstraction that can connect everything from cloud based EHRs to paper, you know, and everything in between. So at some point we want to open, and we are actually beginning some partnerships where we're opening up Tempus's platform, because if we've invested a billion dollars in that plumbing, then the beauty is, you know, you should is a startup. You don't have to do that now, just like AWS. You know, it's like now three guys in a in a garage to get out their credit card and start Stripe or Shopify or whatever the next big company is. And that was always been the aspiration of Tempus, not only to build this for ourselves, but to build it as an enabling platform for other people who would want to deploy precision medicine at scale, which is, we're actually executing on that vision in a serious way. It was more of an aspiration, I think, when I joined. But now we're full on executing.</p><p><strong>Harry Glorikian: </strong>It's interesting. I mean, I remember you saying that to me, I want to say, last JPMorgan, when we were actually able to travel and sit down with each other. I mean, I talk to other people and I mention Tempus and some people go, who? And other people are who are very knowledgeable are like, well, I don't see what the big deal is. And so it almost seems like. Do you think people know what's there that they can take advantage of?</p><p><strong>Joel Dudley: </strong>I don't think people fully appreciate it. And of course, there's a bunch of things I can't even talk about that are even more exciting that are being cooked up. But you'll be hearing about them soon. I think we'll make a few JP Morgan announcements, but it's sort of the M.O. Actually, one of the things that attracted me to Tempus was our CEO is very much a show don't tell kind of guy, to the point where even some people get frustrated because.. Nobody gets frustrated. But it's like, hey, we're doing all these amazing things and nobody knows about them yet. But but he's 100 percent right in that people will know when we're actually doing, once we're doing the stuff, right. You know, and and that was impressive to me because we're obviously in an area that's overhyped, you know, precision medicine, AI in medicine. And there's a gazillion companies out there doing proof by press release, you know, on all their vaporware. And Tempus is doing real, real stuff that's saving patients lives. And, you know, and they're being very disciplined about it and not overhyping it and just putting in the work. And then in the long run, people will know. I think it's going to be all one of those things, like who's Temples? To, like, Oh, my God, I had no idea, where did this come from.</p><p><strong>Harry Glorikian: </strong>Yeah, and I think your biggest challenge is going to be the last mile, right? I mean, it's like Internet connectivity, right? Well, it's on the street, but how do you get it into the house? And the biggest complaint I always hear from everybody is getting this implemented at an institution is not trivial.</p><p><strong>Harry Glorikian: </strong>I would argue that's what Tempus is mainly solving is that last mile problem. In fact, you know, I don't know how many institutions are connected inti Tempus, but it's well over 100 for sure. And that's a KPI that we're tracking. How much how many institutions we have last mile connectivity into. And that's been just growing up. That was a huge KPI for us the last last year. And it continues to be. But I would argue that's the problem solving, is that last mile, because we are in clinic, in EHRs, have bidirectional data feeds and decision support and a large number of institutions, it's just people don't realize it.</p><p><strong>Harry Glorikian: </strong>Let me ask you to I don't even know if you're still doing this. You were part of the Institute for Next Generation Health Care. I don't know if you're still.</p><p><strong>Joel Dudley: </strong>No, no, no. Not anymore. </p><p><strong>Harry Glorikian: </strong>OK, well, so I'm trying to get you to put your next generation hat on here for a second. And if you're looking at everything that's going on and where this is going, like where do you see the next big leaps coming? Where do you see the next changes coming in how we're going to make a difference for patients and hopefully bring down cost? And how is the technology that you guys are working on where you see it going sort of driving that next level of outcome for patients?</p><p><strong>Joel Dudley: </strong>What I always like we always like to say at Tempus is we don't know, because it's actually it's a very Tempus-y thing, to be humble that way, because we don't know. Like. Well, we all we know is that, you know, we have to build this data set and we need to build these pipes and we need to, like because that will enable whatever the thing is that hits is the next big thing, I mean, clearly, like in cancer and other areas, we've got some clear value propositions and starting in cardio and neuropsych. But I'm convinced if Eric was on this podcast, the first thing he would say is, I don't know. We don't know. We do know that it's going to require huge amounts of data and we're going to, so we're going to collect that data and then hope we figure it out or someone we work with figures out what the next big thing is. But if I put on my my personal hat, I guess I've always been interested in prevention. It's not an area we work in at Tempus a lot, we work with a lot of late stage disease, obviously when you start in cancer, you're starting in some pretty heavy disease area, right. And life and death. But we are getting into cardiology and we're looking at endocrinology, diabetes. We have a big diabetes effort that will be announced soon. And so I think when the stuff we're doing in cancer or when the approaches we're building at Tempus can start to be applied to prevention, I think will be really interesting in terms of moving the needle. And then, you know, in post COVID, we'll see what happens with telemedicine. But right now, we primarily interface with the, and again, I'm speaking personally. I'm not divulging any any strategic roadmap or anything here. But I would imagine at some point if telemedicine continues to go the way it's going, there's no reason a purely virtual telemedicine company could plug into temper's in the same way an academic medical center does. Right. So which I think would would be enabling.</p><p><strong>Harry Glorikian: </strong>Well, I would I would hope that that would be, I mean, if you think about the CVS-Aetna deal, I know that CVS, last year, you guys announced a deal with CVS, if I remember correctly.</p><p><strong>Joel Dudley: </strong>Correct.</p><p><strong>Joel Dudley: </strong>And so I think now that telemedicine has become much more. You know the way to do things, wy would you want somebody going to the ivory tower when you could plug them in through the system and interact with them there? And I mean, there's a huge cost savings. And and from a I mean, time standpoint, it's just more efficient.</p><p><strong>Joel Dudley: </strong>Yeah, yeah, and we spoke with a institution which I don't think I can name at this point, but they had mentioned that during covid they had even spun up a tele-oncology practice, which was surprising to me because oncology is just one of the things where you think what's so complicated, you know, you can't spin up a tele-oncology service. But in fact, they had and and they did extremely well over COVD. And then when you start to think about oncology, well, it's like, OK, I mean, you've got to see your doctor. But then they're saying, well, go get your labs at Quest. Go get your infusion at the infusion clinic, you know. You know, it's not it's not like you have to stay in the doctor's office. And I started thinking about it. I'm like, OK, tele-oncology can work. So, you know, whether we'll see broad, you know, expansion of tele-oncology probably after people see the profits AMC made, or AMC but another health system. But so so yeah. So it could be even in oncology, we see totally virtual services, you know, plugging into something like Tempus.</p><p><strong>Harry Glorikian: </strong>That would be interesting. I always think, like, I'm getting older. So the faster that we move into this new world, the happier that will be. I'll have a better experience, right?</p><p><strong>Joel Dudley: </strong>Absolutely.</p><p><strong>Harry Glorikian: </strong>So knowing the two of us, we could probably talk about this for hours. Right? Especially on the data side. You know, I think I think you're right. There's an under appreciation for where, once you have the data, what the different things you can do with it over time. It's more looked at from the science as opposed to the data side of things.</p><p><strong>Joel Dudley: </strong>Yeah, yeah. And I think a lot of people who practice data science and machine learning know this, that it's just, huge amounts of data of high quality data just trump any, you know, sophisticated machine learning methods. What I mean is like choosing between like the latest greatest deep learning or whatever method, versus just having a simpler method with huge amounts of high quality, the high quality part being important, data -- I would take huge amounts of high quality data any day because that's way more enabling than whatever sexy machine learning method is. And it's usually the case that once you have vast amounts of high quality dfairly straightforward statistical modeling methods will yield just amazing insights that come as a virtue of the scale and the quality of that data. And I think that's the lesson I learned at Tempus is that data just trumps all from that perspective. Then I think it's important to point out, because there's a lot of tool-only companies in the field like, "oh, I got, trust me, this deep learning methd is better than that deep learning method. Or It's got this little extra thing. Or this topological method is better than deep learning." I's like, who cares when once you have the volume of data that we have?</p><p><strong>Harry Glorikian: </strong>Yeah. The only place where I would not differ, but say, I think when you've got multiple high quality data sets, then you need a little bit of help making sense of it all, because the human brain was not designed to look at multiple pieces of data coming together and see patterns that it might not normally be able to sort of visualize.</p><p><strong>Joel Dudley: </strong>No, that's absolutely true. And that's the and probably being oversimplifying that, because that's my career, has been multi scale data. It's like machine learning and stuff like that. So I feel like I should, yeah, that's a good point. But huge amounts of high quality data and this multimodal, you know, we always say multimodal, the multimodal aspect is really important because we want different high dimensional measures on the same sample or same individual, if you will. And obviously, longitudinal as a dimension is a very powerful dimension as well.</p><p><strong>Harry Glorikian: </strong>Yep. Yep. No, well, this is something like, you know, I, I talk to people about and Joel, not to sort of build you up, but I mean, there's not many people that have the biological and the data background in one. We haven't I don't I don't believe we've graduated enough of them yet. We're moving in that direction, but not not enough of them yet. So it was great to have you on the show. I'm hoping that we'll actually get together sooner physically rather than later. But I have a feeling we're in this for another four or five more months. Before this thing starts dying down.</p><p><strong>Joel Dudley: </strong>Yeah, probably, when we'll travel back, but it's wild. I was thinking, like I said, I maybe mentioned this last time. I've been at Tempus only like a year and a half and we've added five dollars billion of valuation in that time. But what's really cool about that is not that we're worth $8 billion in valuation because valuations are, you know, whatever, but is that there's a sense within Tempus that we are still a small, scrappy startup just getting started. So like that that's my favorite part about that number, is not that, because I think a lot of companies, if they had an $8 billion valuation they'd be like, "We made we made it. This is great." But Tempus is like, "just completely ignore that. We are just getting started." It doesn't matter to anything we do day to day.</p><p><strong>Harry Glorikian: </strong>Well, I remember when when I was at Applied Biosystems, you know, the valuation was going off the chart because we were doing the genome. Couldn't install machines fast enough. And I remember talking to some of the senior people and saying, okay, well, what are we going to do next? And I remember the gentleman who was taller, way taller than me looking down at me and said, have you seen our stock price like we are? We're killing it. We're performing admirably. And I remember going home and telling my wife, like, I think it's time to sell some stock. Because that is not the right mindset for success.</p><p><strong>Joel Dudley: </strong>Not the right mindset, no. Yeah, it's it's it's very refreshing, you know, that it's that attitude is just, you know, across the board at Tempus, everybody is like, we're just getting started. We're just getting started, heads down, keep cranking. And we really, you know, obviously comes from leadership, but we really block out any distraction that would come from from that type of valuation or whatever, you know. So it's really fantastic leadership on the part of Tempus.</p><p><strong>Harry Glorikian: </strong>Well, one of these days, I hope to to meet Eric, he sounds like an interesting character. But you know, stay stay safe, stay healthy, and, you know, obviously, you and I will constantly continue the conversation in the background, but is great to have you back on the show. And you know what, honestly, huge change from Mount Sinai, I never thought you would leave that place, considering.</p><p><strong>Joel Dudley: </strong>I never thought either. But I enjoy it. It's been, like I said, as I've been recruiting people, I said, you've got to, like I don't care how good your job is now. You've got to get out now. There's like there's this wave where, everybody's going to be riding in the next decade, when I talk to someone like me. You're so well positioned to do it. And you're going to, if you don't get out and just try, you're going to kick yourself in five to 10 years and say, I saw this coming. I saw this big thing coming and I didn't get out.</p><p><strong>Harry Glorikian: </strong>Well, I've been saying, you know, since we since we were doing the genome. I remember telling all my friends, I'm like, "Biology, man biology and where the data is going is where it's going to be." And people were like, "Well, tell me specifically where to put my money." I'm like, look, I'm not, I can't tell you right now specifically. I'm just telling you that that whole area is going to explode. And I think it's just going to, I mean, now we're at a point where it's, the curve is ridiculous. Gene editing stocks. What's happening in the space. I mean. COVID has pulled stuff forward in a way that I could never have imagined.</p><p><strong>Joel Dudley: </strong>Yeah, me either. Yeah. Yeah, it's a huge catalyst. I agree, though. It's amazing. Good good time to to be in the field for sure.</p><p><strong>Harry Glorikian: </strong>Oh, best job in the world. I always tell people.</p><p><strong>Joel Dudley: </strong>Yeah, yeah. Science fiction is a cool business.</p><p><strong>Harry Glorikian: </strong>Oh yeah, yeah, yeah, yeah. You got to have a little bit of both. Otherwise it gets boring.</p><p><strong>Joel Dudley: </strong>Yeah, exactly. Awesome man.</p><p><strong>Harry Glorikian: </strong>All right. Good to talk and we'll stay in touch.</p><p><strong>Joel Dudley: </strong>All right. Sounds good. Take care man. Good to see you.</p><p><strong>Harry Glorikian: </strong>All right.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s show.  We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at www.glorikian.com forward-slash podcast. You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.  Thanks, and we’ll be back soon with our next interview.</p>
]]></description>
      <pubDate>Mon, 18 Jan 2021 13:00:00 +0000</pubDate>
      <author>glorikian@me.com (joel dudley, harry glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>What if there were a single company that could connect hospital electronic health record systems to a massive genomic testing and analytics platform? It would be a little like Amazon Web Services (AWS) for healthcare—an enabling platform for anyone who wants to deploy precision medicine at scale. That's exactly what Joel Dudley says he's now helping to build at Tempus.</p><p>When Harry last spoke with Dudley in January 2019, he was a tenured professor of genetics and genomics at the Icahn School of Medicine at Mount Sinai Medical Center and director of the Institute for Next Generation Healthcare. But later that same year, Dudley was lured away to Tempus, founded in 2015 by Eric Lefkofsky, the billionaire co-founder of Groupon. </p><p>Tempus is building an advanced genomic testing platform to document the specific gene variants present in patients with cancer (and soon other diseases) in order to match them up with the right drugs or clinical trials and help physicians make faster, better treatment decisions. In this week's show, Harry gets Dudley to say more about Tempus's business—and explain why it was an opportunity he couldn’t turn down.</p><p>You can find more details about this episode, as well as the entire run of MoneyBall Medicine's 50+ episodes, at <a href="https://glorikian.com/moneyball-medicine-podcast/">https://glorikian.com/moneyball-medicine-podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>TRANSCRIPT</strong></p><p><strong>Harry Glorikian:</strong> The last time I had Joel Dudley on the show in January 2019, he didn’t sound like a guy who was looking for a new job. At the time, he was a professor of genetics and genomics at the Icahn School of Medicine at Mount Sinai, and the director of the Institute for Next Generation Healthcare. He was publishing breakthrough papers on the use of advanced statistics to find unexpected biomarkers for diseases like Alzheimer’s.  And he had a long to-do list of ways he wanted to push his fellow physicians to become more data-driven.</p><p>But lo and behold, later in 2019 Dudley was lured away from Mount Sinai by Eric Lefkofsky, the billionaire co-founder of Groupon. Lefkosky had started a new company called Tempus, with the goal of creating an advanced genomic testing platform to help oncologists and other physicians make faster, better treatment decisions for their patients. </p><p>Lefkofsky showed Dudley what the company was doing to document the specific gene variants present in each cancer patient, in order to match them up with the right drugs or clinical trials. And it didn’t take him long to talk Dudley into joining as chief scientific officer.  In our interview, I got Joel to say more about why joining Tempus was an opportunity he couldn’t resist.</p><p>One cool piece of news that came out right after we talked is that Tempus isn’t just a provider of testing and genomic analysis—it’s now a hardware company too. This year the company plans to release a portable, voice-driven gadget called Tempus One that will allow doctors to interact with Tempus’s genomic reports through natural language inquiries. It’s like Siri or Alexa, but specialized for oncology. I’ll have to get Joel to come back to tell us more about that. But for now, here’s our conversation from early January.</p><p><strong>Harry Glorikian: </strong>Joel, welcome back to the show.</p><p><strong>Joel Dudley: </strong>Thanks for having me back.</p><p><strong>Harry Glorikian: </strong>So, you know, as we were just talking before I hit the record button. It feels like when we last did this, it was almost a lifetime ago. Especially the last few years, it  feels like, every day feels like a month, almost, trying to keep track of everything. But, you know, you were doing something very different the last time we talked to you. You were at Mount Sinai and and now you're, you know, at Tempus. And so let's start there. Like, why the switch and. What are you doing?</p><p><strong>Joel Dudley: </strong>Yeah, I think, like many people, I didn't expect to be at Tempus. I've been here about a little over a year and a half now at Tempus, and I was approached by Eric Lefkofsky, the founder of Tempus, when I was at Mount Sinai. And things were going great at Mount Sinai. I was fully tenured. I had tons of grant funding, cool projects, even startups spinning out of the lab. So I definitely wasn't looking for a job at all. And and I hadn't really heard of Tempus at the time. And I just knew they were kind of out there. And I somewhat heard of him and he approached me about a job. And I'm like, yeah, I'm not looking, you know, and I know Guardent. I know people at all the sort of big precision, Freenome, and precision medicine companies. I mean, I thought, well, if I was going to go, why would go to Tempus. You know, and like, I just, I know everybody else in these other companies. So he's like, just come to Chicago, you know, talk to me and see what's going on.</p><p><strong>Joel Dudley: </strong>And then I looked at the website and I'm like, how the heck is this company worth three billion dollars, you know. $8 billion valuation now. And I'm like, I was being, to be honest, a bit arrogant because I'm thinking I know everybody in this field and I don't know what these guys are doing. Which is a little arrogant, to say that. But it's like sort of like, how could a precision medicine company get to $3 billion without me knowing about it. So at that point, it was almost curiosity at that point that brought me into their headquarters, obviously back when we could fly and travel. And I went I went in there. I'm like, well, I've got some collaborators at Northwestern anyway I've got to meet with. And yeah, I'll just go I'll go see what this tech dude wants. And I was even telling my wife before I left, I'm like, all these tech guys, they, always have the worst health care ideas, like, they have the worst health care ideas. </p><p><strong>Joel Dudley: </strong>So so I'm like I'm like, you know, but that being said, I went and visited Eric at headquarters, Tempus headquarters. I was completely blown away, completely blown away. It was a company like nothing I had ever seen before. And I can get into some specifics on why Tempus was different. But at a high level, it was really the first time. So my background, I'm very much a systems guy. Right. I like to understand everything from multiple systems perspective. Right. And in the molecular world, that means I'm a systems biology guy. I want proteomics. I want genomics. I want the whole thing. So when I look at other companies that were doing targeted DNA panels, I'm like, well, what fun is that? You know? And I know there's a good reason why people do that because of reimbursement and and all that kind of stuff. But it's like, what am I going to learn from DNA? You know, nothing. So that was my bias. And Tempus was the first precision medicine company operating at scale I saw that was totally committed to a multi-scale multimodal data philosophy, which I had never seen before, and was totally committed to this concept that I think you and I get excited about, which is a diagnostics company that was first and foremost a data company, first and foremost. Now, there's a lot of diagnostic companies that paid lip service to being data companies. But when it came down to it, there were all about volumes and margins of their tests. Right. Tempus was the first one that was authentically and seriously and in a big way committed to being a data company first.</p><p><strong>Joel Dudley: </strong>So I was totally blown away and and at first, you know, said there's no way I'm leaving my great job here in Mount Sinai. And I kept thinking about it and I kept thinking about it and I thought, holy cow, these guys are successful. This is going to be massive. I mean, this is going to be bigger than anything I could do at any single academic institution. This is going to be world changing. So anyway, that was a lengthy explanation of why I joined Tempus. It just wouldn't get out of my brain.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting because I remember when you told me, I was like, what? Huh? Like, I was adding up what you were adding up, like all the different things you're doing. And I'm like, he went there? I'm like, I almost was thinking, can I buy stock? If he's going there, I should buy stock. So you know, Eric, before he did, you know, Tempus, obviously, did Groupon and, you know, he's financially successful, I could probably say. But what was his motivation?</p><p><strong>Joel Dudley: </strong>Yeah, he the origin story of Tempus is that Eric's wife had gotten breast cancer and someone of great means, of course, was able to get, have her seen by all the best, literally all the top the top 10 cancer, breast cancer doctors in the country. And what he noticed, being, if you get to know him, he's a very rational, logical guy know, very data driven guy. He noticed very quickly that, you know, first of all, none of the doctors agreed. That data wasn't informing her care, you know, and got a real personal look at sort of the dysfunction, I guess, or let's say missed opportunities to use data in health care that we see we, you and I see. And he decided to do something about it. There's a lot of really admirable things about his personal involvement in Tempus that drew me there. One is he's all in. I mean, he's all in, all in. A thousand percent of his attention is focused on the company. He's got a venture capital firm. He's got Groupon still is in existence and is in, and he is in in a huge way. He's you know, I think every time I've been to that office, I think he's the first one there in the morning. You know, it's just like, in some ways he's sort of like the general that rides the first horse in the battle on this thing. And not only did he not only was in a big way financially, he put a huge amount of his own money into into the endeavor, but his personal investment is, he's fanatical about Tempus.</p><p><strong>Harry Glorikian: </strong>Well, I'm convinced that when you want to change the world, if you're not fanatical, then it's not going to happen. You have to believe it more than anybody else believes it to make it come true.</p><p><strong>Harry Glorikian: </strong>Yeah. One of my favorite stories. I'll just share a quick note and I'll switch was I remember one time we were having a discussion. I can't remember what it was about. A flow cell, after I joined. A flow cell failing or something like that on the sequencer, and Eric I think had asked for which flow cells failed and I had walked by his office attempts and the bitmap images of the flow cells were up on his computer and he was staring at them intently. I have no idea if he even knew what he was looking at. I mean, he does now for sure. But the point was, the point was it was just shocking to me because I'm like, here's the CEO, billionaire CEO of this company, and he's looking at the pixel by pixel at these flow cell images, trying to figure out why they failed. And I thought that was unbelievable. You know, no, no detail is too small.</p><p><strong>Harry Glorikian: </strong>No, you know, I think, you know, you have to be passionate, get involved and want them, you know, I mean, at some point you're at scale and you have to sort of start trusting the people around you. But in the beginning, you know, I think you have to fully be committed. And everybody has to be going with you. Yeah. So and I totally agree on the whole data driven part. I mean, I have given so many talks, especially with a good friend of mine, Jennifer Carter, who was the former CEO of N of 1, where, you know, there's a bunch of doctors where the genomic data is saying one thing and they decide to do another, which boggles my mind why you would do that, because most of the time it doesn't work. But so you guys are at the forefront of genomic data. And I'm sort of imparting words of saying, you're trying to get faster, real time patient care decisions and help physicians make better decisions. Is that, am I summarizing the business?</p><p><strong>Joel Dudley: </strong>Yeah, yeah, that's it. In at a high level, it's obviously to deploy precision medicine at scale. So one of the things we say we're doing a Tempus is building all the boring, boring plumbing that nobody wants to build to actually deliver precision medicine at scale, which includes....So we ingest clinical records for the patients, because we contextualize the reports of the clinical data that we get from the individual patient. So but we work with everything from community, rural community hospitals to sophisticated academic medical centers. So we have this, part of our machine is, we have this interface that can take everything from a direct pull from a Cerner cloud instance all the way to literally people shipping paper to Tempus. But but, you know, basically we've built we built that data abstraction API, if you will, that can take eithr paper or cloud. And it was expensive. It required a lot of people and it cleans up the data. But somebody had to do that, like someone had to build that, the boring plumbing to do that. And and we did it.</p><p><strong>Harry Glorikian: </strong>Well, Flatiron I think, you know, what I've heard is Flatiron has a bunch of people in the back end, like putting things in context right, yesterday versus tomorrow versus, you know, trying to get context, which NLP not very good at. And I got to imagine that Foundation might be doing some of the same sort of stuff. No, not as much?</p><p><strong>Joel Dudley: </strong>Not as much on the clinical data. They're very much focused on the molecular data. The difference, though, between Flatiron and Tempus, though, is that Flatiron bought the EHR which the data was being collected. And so they own that. We take everything, like I said from manila folders to Cerner, to Epic to... Like that was the challenge, that's what makes TEmpus totally different in that we didn't own that that EHR. So it was a bigger challenge. But we also have humans that check all the data because as you mentioned, NLP is imperfect. But the real business, though, if I could make a point, though, is is developing smart diagnostics. Because, the principle being, you know, we all want to bring AI, let's say, to health care. One way to do that is to bring AI into the EHR, which doesn't seem like it's going to happen anytime soon. Like we have a hard time. You know, we barely can get logistic regression to run inside Epic. I don't know. I don't think we're going to, I shouldn't pick on Epic alone. But, you know, it doesn't seem like very sophisticated AI is coming to the EHR anytime soon. Plus, there's sort of a small number of players you have to deal with, you know, to have control over that environment. So that's challenging. You could try to bring the doctors to AI, which doesn't work very well. A lot of companies have failed because they say, oh, we have this beautiful AI machine, this beautiful interface that the doctors would just leave their, you know, standard workflows and just come over to our obviously better system. That feels like 99 percent of the time, right, because doctors don't want to change, physicians don't want to change their workflows. So the idea behind Tempus was more, physicians interact with lab tests all day long. So one step at bringing AI or a Trojan Horse, if you will, is to make the lab test themselves smarter. So a real simple example is, our cancer testing is, e because we pull the clinical data on that patient and the sequencing data, here's a real simple example of something that Tempus can do with a smart test that other people can't, which is if they have a DNA mutation that suggests the patient should go on a certain drug, but we know from their actual clinical records that they tried that drug and failed it, we will dynamically change the report to not put them, not suggest that drug or gray it out or whatever, depending on the version of the report. That's like a brain dead simple example, but most companies can't do that because they're not able to rapidly pull in and structure the patient's clinical data and contextualize the molecular data or the test result with that specific patient's information. So that's the Tempus approach there.</p><p><strong>Harry Glorikian: </strong>Well, not not to not to digress, but I've always said in my talks, I believe that if anything breaks or will break health care, it's the EMR systems being completely, you know, I mean, they're just they're just not where they need to be considering how fast where we want to go to the next level of health care. Right. If we were a tech company, it would have been rewritten, you know, 15 times by now to get us to where we need to go.</p><p><strong>Joel Dudley: </strong>Totally, totally.</p><p><strong>Harry Glorikian: </strong>But you're looking at DNA, you're looking at RNA, you're looking and you're looking at a whole host of 'omics to help drive a positive outcome. I mean, are there concrete examples that you might give in how this is being used and why, you know, why Tempus is compared to everybody else where it is, I would say?</p><p><strong>Joel Dudley: </strong>Yeah, absolutely. So you know what? One of the things that we think about when we get a sample in the door is how much sort of multi-scale data can we generate on the sample without going completely, without being totally insane. Right. So it's like I mean I mean, still being sustainable, let's say. So I'll give you. So what happens today when let's say, by the way, we're expanding outside of cancer, but focusing on cancer for the meantime, when a tumor section comes in to our current lab. So not only do we get sort of the the deep targeted DNA sequencing, we also get normal blood as part of that so we can do tumor normal. A lot of companies don't even do tumor normal. But then, and this is one of the things that really caught my attention, was, we generate full transcriptome on every patient that comes in the door. I mean, that's nuts. I mean, that was nuts that they just decided to as a default on every patient. That's like that's like $800 in extra cost that's not going to be reimbursed. And and even clinicians can barely wrap their heads around RNA today. I mean, it's a super hard time with RNA. I mean, do they like DNA because like the variant's there, or it's not, and the drug gets prescribed or not. But RNA is this analog probabilistic sort of dynamic measure. It gives you all kinds of different types of interpretation that's difficult. But the fact that they committed to that from day one was nuts.</p><p><strong>Joel Dudley: </strong>So then we also have our own pathology lab. So we actually digitize the section and stain and digitize all the tumor sections. We have high quality imaging. And then we pull in the structured clinical data, of course. And then we have an organoid lab actually inside Tempus. So we try to build a patient specific organoid from every every patient we can and bank that for future screen. So we have a huge number of organoids where we have not only the organoid stored and the ability to really expand that but then the patient's actual, you know, in vivo clinical data, molecular data. And you could start to do things like, hey, where you know, if we if we see this pathway in the organoid, it means we're going to see this pathway in the real patient and all that kind of stuff.</p><p><strong>Joel Dudley: </strong>So another interesting thing about Tempus is, we have this new business unit called Algos. And this is something that sounds really obvious when you pointed out and you wonder why nobody else did it. But we go to market with the broadest possible assay. So in a traditional, like, biomarker discovery, you would say, I want to try to find a biomarker of people who respond well to radiotherapy or something like that, prostate radiotherapy or something like that. So I'm going to start with the, people would start with their full transcriptome and then maybe, let's say you find a 10 gene signature that predicts who's going to respond well to radiation therapy. Then the the typical diagnostic company would say, OK, now let's shrink, let's take this 10 signature, let's implement it at Nanostring or PCR or some kind of care platform and and then go to market with that. And Tempus says, well, screw it. Let's go to market with the full transcriptome as our default assay, because then that allows us to digitally layer signatures on top of it. And by default, everybody. So we measure transcriptome now. And maybe five years from now, we find a new signature for drug response. We don't have to remeasure everybody. We just run it digitally, you know, on top of the signature.</p><p><strong>Harry Glorikian: </strong>You know, that was one of the I remember when we were talking about this years ago, I was like, that's what you would want to do. That's why you'd want the data. Right. So you want all of this data so that as time goes on, you don't have to go back and get it again. You've got it. And you just look at it. It's almost like I think about it like topology. I mean, at some point you take the first scan and you start layering things on top to get a better idea of what what is there over time, because, hell, the technology, you know, your insight becomes better over time. Some new piece of information comes in, and you go, oh, let me go back and look at this again. So you guys do that. And then the recommendation is a targeted therapy. I mean, I haven't seen any of the reports, so I'm sort of guessing along here.</p><p><strong>Joel Dudley: </strong>Yeah, we've got we've got a great report that summarizes the patient's clinical history and all the stuff you sort of expect. And then it offers various recommendations also about, of course, clinical trials. So the other thing we have is a huge clinical trial network, which I haven't mentioned yet. A national clinical trial network where we can spin up trials and match patients to trials. That's owned and operated by Tempus. But we can, so it takes the DNA information and RNA information and synthesizes recommendations. And it's going to be up to the doctor. Of course, you know, some doctors like to look at the DNA. Some people like to see where does the DNA and the RNA corroborate each other? You know, is there a PI3 kinase mutation plus activation or deactivations of a PI3 kinase pathway or something like that, and so we present all that information and a pretty, pretty digestible way.</p><p><strong>Harry Glorikian: </strong>So, two questions. A, does the patient ever get something to look at? And B, have you done any stats on success, right, of recommendations and so forth?</p><p><strong>Joel Dudley: </strong>Yeah, we've publishd some papers. We had a paper in Nature Biotech and a couple of, a couple of others that sort of show the value of this additional information and continue to publish, you know, papers. But we've been primarily on the cancer side, primarily physician facing. And, you know, physicians can, of course, give their reports to the patient's physician facing in other disease areas like neuropsych, which we've gotten into. We do have a patient facing digital app that is being tested right now to go more directly to patients, but not yet, and COVID as well. We have a patient facing up. So but that actually will be a bigger part of all the disease areas.</p><p><strong>Harry Glorikian: </strong>You have agreements with tons of institutions coming in. I mean, you and I were at one point sort of throwing this idea of having enough data where you're at that escape velocity of, it sort of stops making sense to go someplace else because the Encyclopedia Britannica is in one place. So where are you guys on that journey?</p><p><strong>Joel Dudley: </strong>Yeah, I think we're, you know, it depends. You could argue it, but I think we're basically approaching escape velocity at this point, where if you look at the trajectory of our data and I don't have the exact numbers handy, but it's a, it's a steep it's a steep line in terms of the number of samples we sequence. I think it's close to 200,000 samples last year or something like that. But but but our RNA, for example, our RNA database alone, I mean, the Cancer Genome Atlas looks like a little baby toy dataset compared to the Tempus's internal dataset. And that's, of course, a massive, I don't know if it's a multibillion dollar, but it's a massive Internet effort among academics. It's a great effort by the way, I'm not knocking the Cancer Genome Atlas, but but by comparison Tempus is able to eclipse that, you know, like you wouldn't believe. And then also have very much richer clinical data associated with those samples and have continuous updates of that data where something like the Cancer Genome Atlas is like this frozen thing that gets updated by an academic consortia every year. So even when we look at the cancer Genome Atlas, which again, I think was a worthwhile investment, and remains a worthwhile investment. But if you just compare those, the growth trajectories and the density and quality of that data side by side, Tempus is just a rocket ship compared to that data sets like that, which used to be like, you know, even Big Pharma would rely on the Cancer Genome Atlas is their sort of discovery data set. But now you'd be kind of insane not to use Tempus, it's just so much bigger.</p><p><strong>Harry Glorikian: </strong>So so that brings me to that next question. Right. So we've got we've got these patient samples. We've got clinical data. You make a recommendation, you can actually recommend a clinical trial. But now the next step comes to me and says, well, but if I have all all those pieces of information, shouldn't I be also looking at drug discovery?</p><p><strong>Joel Dudley: </strong>Yeah. So quick on the trial site. It's worth it. I'd like to point out 'cause we're really proud of this. So we have this thing called the Time Trial Network. It's a national network of I think it's 2,000 oncologists around the country on a common rate sheet, a common IRB. And the whole idea was when we match a patient, instead of a drug company going to, say, an AMC like Dana Farber or something, which, of course is a great institution, and saying, hey, we want to run our X, Y, Z drug trial with you, and all the patients will have to either fly here or drive here every couple of months, if you don't have all the patients here locally, we created this national network. And the idea was rapid site activation of trials. So if a pharma is looking for a certain type of pancreatic cancer patient subset and we match that patient in Tulsa, Oklahoma, or nearby or something like that, just picking a random city, that instead of that person driving into the AMC, an academic medical center that has the trial, or CRO, we spent a trial as close as possible to where that patient lives at one of our partners, whether it's a community hospital or something like that. At the end of the year, don't quote me on this, I think we had, we went from like a patient match to first dose in patient and something like less than 10 days or something like that, because we rapidly activate a single patient trial site.</p><p><strong>Harry Glorikian: </strong>Wow, that's cool.</p><p><strong>Joel Dudley: </strong>It's pretty cool. So it's sort of like a whole ecosystem. Right. So it's not only are we sequencing the patient and finding who are eligible, we can we also have the trial site integrated into our platform.</p><p><strong>Harry Glorikian: </strong>So it it's interesting, you always wonder, like how much how aware our patients that some of these things are. Out there when they need it, right, as opposed to the way that you and I both know the way the system runs, which is, oh, come here so that we can make the dollars as opposed to what what's really going to be the best for the patient?</p><p><strong>Joel Dudley: </strong>Yeah, yeah, absolutely. And you had asked me a second question that I totally forgot now because I distracted.</p><p><strong>Harry Glorikian: </strong>The drug discovery side of it, making that connection at some point of...</p><p><strong>Joel Dudley: </strong>Yes, it's super valuable data for drug discovery. And that is part of the value proposition of Tempus, of course, to our pharma partners who want to develop therapeutics. So part of Tempus's business is to partner with pharmaceutical companies and assist them in their discovery or biomarker efforts through Tempus's data and platforms. And we have some backend platform technologies for investment targeting our data. We have a platform called Lens for interrogating our data that is produced. Pretty interesting. And then, you know, we have a business called Alpha, which is about spinning out joint ventures around therapeutic discovery from from Tempus's data.</p><p><strong>Harry Glorikian: </strong>Ok, so that's how you if you identify something, you're willing to sort of spin it out at that point and see it come to life.</p><p><strong>Joel Dudley: </strong>Yeah. Yeah. So it's partnering with pharma or partnering with, you know, a joint venture that we're involved in around the data, but per se we don't do the drug discovery internally on the data.</p><p><strong>Harry Glorikian: </strong>You and I love the data and love the AI and machine learning. What gets you super excited? Where do you see the biggest applications of the A.I. and machine learning? Where do you see the biggest opportunities?</p><p><strong>Joel Dudley: </strong>And in no particular order, so a lot of interesting things can be done with machine learning when you have not necessarily orthogonal but multiskale data on the same samples. Right. So I'll give you a concrete example is, we have we have a large histo genomics, we call it program that our AI data science team is working on, where, of course, if we have rich RNA sequencing and rich DNA sequencing plus digital pathology on slides and samples, we can start doing things like calling PDL1 status directly from an H&E stain via deep learning instead of actually sequencing a patient. Because sequencing is great. But but imagine if you could call it the critical markers for a trial via an H&D stain and deep learning, you know, in rural Louisiana, or something like that, where people don't want to pay for sequencing or you just want to be much more capital efficient. So once we once we start collecting all these different dimensions of data, we can start predicting, you know, across all these different dimensions. Right. So what in the rich sequencing data can we predict from images, for example, which is really interesting, because then that cost, you know, nothing practically. But the key up front, you have to collect those those cohesive, coherent data sets of multiple dimensions to train. Once you've trained, it's super valuable.</p><p><strong>Harry Glorikian: </strong>It's interesting because I was having a conversation earlier today about spatial resolution of single cell, but but actually looking at the genomics inside the cell, the expression patterns and looking at that based on geography, let's call it that, for so everybody understands it, but very cool how you could see individual cells lighting up versus, you know, the other cells around them, which would give you an indication of what's being activated, how it's influencing the cells around it, et cetera.</p><p><strong>Joel Dudley: </strong>Yeah, absolutely. And that's an area we're exploring within Tempus, of course, is related to the histo-genomics I mentioned is if we start with a single cell and spatial transcriptomics on tumor cells plus rich imaging, at some point we're going to build up a data set that will give us deep molecular insights from the images alone, once we've built up the single cell and spatial transcriptomics that accompany those those images. So that's one, it's a really useful practical application of AI. Another one that's interesting for us is just getting additional insights out of existing data, which is something I've always enjoyed. But a concrete examples is, we have a big partnership with Geisinger where we've developed a deep learning model that runs on ECG traces. ECG traces are collected for elective surgeries, for physicals. And we're not the only ones necessarily exploring this, but a lot of people are using deep learning models to see if the, because an ECG trace, you could consider an image, basically. Right. And so people are using it episodically to see, like, is there something, that subtle pattern that's not being detected in the episode of care, but we're actually trying to predict things that will happen in the future. And we published some papers on this. But so we're taking a single ECG trace and we're saying, are there hidden signals basically in this ECG trace that will predict if someone is going to get future a-fib, future stroke future, you know, coronary syndrome? And we have a very large data set with Geisinger that we've done in partnership. And we've it's just amazing, like the one year, three year future events you can predict from a single snapshot of an ECG. There you go. Myocardia.</p><p><strong>Harry Glorikian: </strong>Yeah, I like I have my little monitor here, and I, I, I tend to do it every day just just to get some longitudinal data.</p><p><strong>Joel Dudley: </strong>Yeah. Yeah. Alivecor is a great is a great device. Yeah. So a couple of really interesting applications of that. One is, you know, from a population health standpoint, just going through all of the ECGs that have been collected and you can triage people into high risk low risk groups and manage them. But it's also interesting for clinical trials, because if you can predict things in the future from an ECG trace, say, for, like an anticoagulation trial, you can enrich that trial population for events and things like that from a fairly cheap standard device. So I'm interested in, you know, the ability of ML and AI to get additional, squeeze, additional information and utility out of these sort of everyday things that are measured routinely.</p><p><strong>Harry Glorikian: </strong>Yeah, and I think that, I mean, you know, whenever I've seen it, we've always gone from a complicated measurement to figuring out easier modalities to sort of identify that information from. We just didn't have the, maybe the power per se to get it in the first place. So, okay, you guys are in oncology now, you're moving out to cardiology and I think infectious disease and do I dare say neurology, depression and things like that. So why? Like, why wouldn't you just go deep and, you know, crush the space in that one area? Why?</p><p><strong>Joel Dudley: </strong>Yeah, it's interesting. I feel like we are doing fairly well in oncology. But this goes back to why I joined Tempus, which is, I always joke that this is like four different companies. And, you know, it's like it's like Flatiron plus Foundation plus, you know, we don't like to compare ourselves these companies, but like this is early on when I was, because we're actually not like those companies, which I'll explain in a second, but I was like, on the outside, it sounds sort of crazy to say, well, we're like six companies in one. But the difference was, it was built that way from the ground up in an integrated platform, a vertically integrated platform. And that's what makes it powerful. It requires a lot of capital to do that up front. But the vision was pretty interesting. So they built this sort of vertically integrated, very powerful machine to tackle cancer in this like multi-modal, comprehensive way. But they were smart in that they built it in a fairly abstract way so that it could be repurposed for for other diseases. And from day one, that was always the intention. And to me, that was amazing because I'm thinking, well, geez, a company that just tackles cancer alone with this approach is a massive company, you know,, putting on my venture adviser hat. You know, it's like, well, jeez, this is huge because this is like this company plus that company, plus that company all wrapped into one nice, seamless package. That's huge. And then I thought, well, if they replicate this success they're having clearly going to have in cancer in just one other major disease area that is an unprecedented precision medicine company in history. You know, no company would have done what Tempus has done in cancer and a whole other disease area in terms of ushering in this like very large scale multimodal approach, with clinical tests in the market and things like that. So I was like this, I got to join this. This is nuts.</p><p><strong>Harry Glorikian: </strong>Well, it's interesting that you say that, right? I keep trying to explain to people and I guess one of the examples that I've been using lately is something like Ant Financial, right. Where how they started in one area and were able to broaden, based on some very simple capabilities. And now it's 10,000 people managing 1.2 Billion customers. Yeah, you don't do that because of a personal touch. You have to have automation to tackle that. And and I know that you guys have like your robotic systems for sequencing. And I have to believe that that thing doesn't, I always tell people it doesn't care what it ingests. Right. Analytics on the back end may need to be adjusted accordingly. But, you know, that's the power of this data approach as opposed to the way we've done it historically.</p><p><strong>Joel Dudley: </strong>Absolutely. And the way I would describe it, I'm not sure everybody loves this analogy, but I think it's a very accurate analogy, which is, what I saw, and we're doing this, so we built this very sophisticated, vertically integrated infrastructure that connects sequencers to clinical and back, plus data abstraction and clinical data structuring. And so we built that machine and sort of dogfooded it ourselves on cancer and and other things that we continue to sort of dogfood it and use it our use ourselves. But eventually the goal of Tempus is to open this platform up to other people, so the way I what I saw early on was that while Tempus has the chance to become the AWS of precision medicine, basically. We're building all this boring plumbing or connecting hospitals. We're building this, like I mentioned, this API of data abstraction that can connect everything from cloud based EHRs to paper, you know, and everything in between. So at some point we want to open, and we are actually beginning some partnerships where we're opening up Tempus's platform, because if we've invested a billion dollars in that plumbing, then the beauty is, you know, you should is a startup. You don't have to do that now, just like AWS. You know, it's like now three guys in a in a garage to get out their credit card and start Stripe or Shopify or whatever the next big company is. And that was always been the aspiration of Tempus, not only to build this for ourselves, but to build it as an enabling platform for other people who would want to deploy precision medicine at scale, which is, we're actually executing on that vision in a serious way. It was more of an aspiration, I think, when I joined. But now we're full on executing.</p><p><strong>Harry Glorikian: </strong>It's interesting. I mean, I remember you saying that to me, I want to say, last JPMorgan, when we were actually able to travel and sit down with each other. I mean, I talk to other people and I mention Tempus and some people go, who? And other people are who are very knowledgeable are like, well, I don't see what the big deal is. And so it almost seems like. Do you think people know what's there that they can take advantage of?</p><p><strong>Joel Dudley: </strong>I don't think people fully appreciate it. And of course, there's a bunch of things I can't even talk about that are even more exciting that are being cooked up. But you'll be hearing about them soon. I think we'll make a few JP Morgan announcements, but it's sort of the M.O. Actually, one of the things that attracted me to Tempus was our CEO is very much a show don't tell kind of guy, to the point where even some people get frustrated because.. Nobody gets frustrated. But it's like, hey, we're doing all these amazing things and nobody knows about them yet. But but he's 100 percent right in that people will know when we're actually doing, once we're doing the stuff, right. You know, and and that was impressive to me because we're obviously in an area that's overhyped, you know, precision medicine, AI in medicine. And there's a gazillion companies out there doing proof by press release, you know, on all their vaporware. And Tempus is doing real, real stuff that's saving patients lives. And, you know, and they're being very disciplined about it and not overhyping it and just putting in the work. And then in the long run, people will know. I think it's going to be all one of those things, like who's Temples? To, like, Oh, my God, I had no idea, where did this come from.</p><p><strong>Harry Glorikian: </strong>Yeah, and I think your biggest challenge is going to be the last mile, right? I mean, it's like Internet connectivity, right? Well, it's on the street, but how do you get it into the house? And the biggest complaint I always hear from everybody is getting this implemented at an institution is not trivial.</p><p><strong>Harry Glorikian: </strong>I would argue that's what Tempus is mainly solving is that last mile problem. In fact, you know, I don't know how many institutions are connected inti Tempus, but it's well over 100 for sure. And that's a KPI that we're tracking. How much how many institutions we have last mile connectivity into. And that's been just growing up. That was a huge KPI for us the last last year. And it continues to be. But I would argue that's the problem solving, is that last mile, because we are in clinic, in EHRs, have bidirectional data feeds and decision support and a large number of institutions, it's just people don't realize it.</p><p><strong>Harry Glorikian: </strong>Let me ask you to I don't even know if you're still doing this. You were part of the Institute for Next Generation Health Care. I don't know if you're still.</p><p><strong>Joel Dudley: </strong>No, no, no. Not anymore. </p><p><strong>Harry Glorikian: </strong>OK, well, so I'm trying to get you to put your next generation hat on here for a second. And if you're looking at everything that's going on and where this is going, like where do you see the next big leaps coming? Where do you see the next changes coming in how we're going to make a difference for patients and hopefully bring down cost? And how is the technology that you guys are working on where you see it going sort of driving that next level of outcome for patients?</p><p><strong>Joel Dudley: </strong>What I always like we always like to say at Tempus is we don't know, because it's actually it's a very Tempus-y thing, to be humble that way, because we don't know. Like. Well, we all we know is that, you know, we have to build this data set and we need to build these pipes and we need to, like because that will enable whatever the thing is that hits is the next big thing, I mean, clearly, like in cancer and other areas, we've got some clear value propositions and starting in cardio and neuropsych. But I'm convinced if Eric was on this podcast, the first thing he would say is, I don't know. We don't know. We do know that it's going to require huge amounts of data and we're going to, so we're going to collect that data and then hope we figure it out or someone we work with figures out what the next big thing is. But if I put on my my personal hat, I guess I've always been interested in prevention. It's not an area we work in at Tempus a lot, we work with a lot of late stage disease, obviously when you start in cancer, you're starting in some pretty heavy disease area, right. And life and death. But we are getting into cardiology and we're looking at endocrinology, diabetes. We have a big diabetes effort that will be announced soon. And so I think when the stuff we're doing in cancer or when the approaches we're building at Tempus can start to be applied to prevention, I think will be really interesting in terms of moving the needle. And then, you know, in post COVID, we'll see what happens with telemedicine. But right now, we primarily interface with the, and again, I'm speaking personally. I'm not divulging any any strategic roadmap or anything here. But I would imagine at some point if telemedicine continues to go the way it's going, there's no reason a purely virtual telemedicine company could plug into temper's in the same way an academic medical center does. Right. So which I think would would be enabling.</p><p><strong>Harry Glorikian: </strong>Well, I would I would hope that that would be, I mean, if you think about the CVS-Aetna deal, I know that CVS, last year, you guys announced a deal with CVS, if I remember correctly.</p><p><strong>Joel Dudley: </strong>Correct.</p><p><strong>Joel Dudley: </strong>And so I think now that telemedicine has become much more. You know the way to do things, wy would you want somebody going to the ivory tower when you could plug them in through the system and interact with them there? And I mean, there's a huge cost savings. And and from a I mean, time standpoint, it's just more efficient.</p><p><strong>Joel Dudley: </strong>Yeah, yeah, and we spoke with a institution which I don't think I can name at this point, but they had mentioned that during covid they had even spun up a tele-oncology practice, which was surprising to me because oncology is just one of the things where you think what's so complicated, you know, you can't spin up a tele-oncology service. But in fact, they had and and they did extremely well over COVD. And then when you start to think about oncology, well, it's like, OK, I mean, you've got to see your doctor. But then they're saying, well, go get your labs at Quest. Go get your infusion at the infusion clinic, you know. You know, it's not it's not like you have to stay in the doctor's office. And I started thinking about it. I'm like, OK, tele-oncology can work. So, you know, whether we'll see broad, you know, expansion of tele-oncology probably after people see the profits AMC made, or AMC but another health system. But so so yeah. So it could be even in oncology, we see totally virtual services, you know, plugging into something like Tempus.</p><p><strong>Harry Glorikian: </strong>That would be interesting. I always think, like, I'm getting older. So the faster that we move into this new world, the happier that will be. I'll have a better experience, right?</p><p><strong>Joel Dudley: </strong>Absolutely.</p><p><strong>Harry Glorikian: </strong>So knowing the two of us, we could probably talk about this for hours. Right? Especially on the data side. You know, I think I think you're right. There's an under appreciation for where, once you have the data, what the different things you can do with it over time. It's more looked at from the science as opposed to the data side of things.</p><p><strong>Joel Dudley: </strong>Yeah, yeah. And I think a lot of people who practice data science and machine learning know this, that it's just, huge amounts of data of high quality data just trump any, you know, sophisticated machine learning methods. What I mean is like choosing between like the latest greatest deep learning or whatever method, versus just having a simpler method with huge amounts of high quality, the high quality part being important, data -- I would take huge amounts of high quality data any day because that's way more enabling than whatever sexy machine learning method is. And it's usually the case that once you have vast amounts of high quality dfairly straightforward statistical modeling methods will yield just amazing insights that come as a virtue of the scale and the quality of that data. And I think that's the lesson I learned at Tempus is that data just trumps all from that perspective. Then I think it's important to point out, because there's a lot of tool-only companies in the field like, "oh, I got, trust me, this deep learning methd is better than that deep learning method. Or It's got this little extra thing. Or this topological method is better than deep learning." I's like, who cares when once you have the volume of data that we have?</p><p><strong>Harry Glorikian: </strong>Yeah. The only place where I would not differ, but say, I think when you've got multiple high quality data sets, then you need a little bit of help making sense of it all, because the human brain was not designed to look at multiple pieces of data coming together and see patterns that it might not normally be able to sort of visualize.</p><p><strong>Joel Dudley: </strong>No, that's absolutely true. And that's the and probably being oversimplifying that, because that's my career, has been multi scale data. It's like machine learning and stuff like that. So I feel like I should, yeah, that's a good point. But huge amounts of high quality data and this multimodal, you know, we always say multimodal, the multimodal aspect is really important because we want different high dimensional measures on the same sample or same individual, if you will. And obviously, longitudinal as a dimension is a very powerful dimension as well.</p><p><strong>Harry Glorikian: </strong>Yep. Yep. No, well, this is something like, you know, I, I talk to people about and Joel, not to sort of build you up, but I mean, there's not many people that have the biological and the data background in one. We haven't I don't I don't believe we've graduated enough of them yet. We're moving in that direction, but not not enough of them yet. So it was great to have you on the show. I'm hoping that we'll actually get together sooner physically rather than later. But I have a feeling we're in this for another four or five more months. Before this thing starts dying down.</p><p><strong>Joel Dudley: </strong>Yeah, probably, when we'll travel back, but it's wild. I was thinking, like I said, I maybe mentioned this last time. I've been at Tempus only like a year and a half and we've added five dollars billion of valuation in that time. But what's really cool about that is not that we're worth $8 billion in valuation because valuations are, you know, whatever, but is that there's a sense within Tempus that we are still a small, scrappy startup just getting started. So like that that's my favorite part about that number, is not that, because I think a lot of companies, if they had an $8 billion valuation they'd be like, "We made we made it. This is great." But Tempus is like, "just completely ignore that. We are just getting started." It doesn't matter to anything we do day to day.</p><p><strong>Harry Glorikian: </strong>Well, I remember when when I was at Applied Biosystems, you know, the valuation was going off the chart because we were doing the genome. Couldn't install machines fast enough. And I remember talking to some of the senior people and saying, okay, well, what are we going to do next? And I remember the gentleman who was taller, way taller than me looking down at me and said, have you seen our stock price like we are? We're killing it. We're performing admirably. And I remember going home and telling my wife, like, I think it's time to sell some stock. Because that is not the right mindset for success.</p><p><strong>Joel Dudley: </strong>Not the right mindset, no. Yeah, it's it's it's very refreshing, you know, that it's that attitude is just, you know, across the board at Tempus, everybody is like, we're just getting started. We're just getting started, heads down, keep cranking. And we really, you know, obviously comes from leadership, but we really block out any distraction that would come from from that type of valuation or whatever, you know. So it's really fantastic leadership on the part of Tempus.</p><p><strong>Harry Glorikian: </strong>Well, one of these days, I hope to to meet Eric, he sounds like an interesting character. But you know, stay stay safe, stay healthy, and, you know, obviously, you and I will constantly continue the conversation in the background, but is great to have you back on the show. And you know what, honestly, huge change from Mount Sinai, I never thought you would leave that place, considering.</p><p><strong>Joel Dudley: </strong>I never thought either. But I enjoy it. It's been, like I said, as I've been recruiting people, I said, you've got to, like I don't care how good your job is now. You've got to get out now. There's like there's this wave where, everybody's going to be riding in the next decade, when I talk to someone like me. You're so well positioned to do it. And you're going to, if you don't get out and just try, you're going to kick yourself in five to 10 years and say, I saw this coming. I saw this big thing coming and I didn't get out.</p><p><strong>Harry Glorikian: </strong>Well, I've been saying, you know, since we since we were doing the genome. I remember telling all my friends, I'm like, "Biology, man biology and where the data is going is where it's going to be." And people were like, "Well, tell me specifically where to put my money." I'm like, look, I'm not, I can't tell you right now specifically. I'm just telling you that that whole area is going to explode. And I think it's just going to, I mean, now we're at a point where it's, the curve is ridiculous. Gene editing stocks. What's happening in the space. I mean. COVID has pulled stuff forward in a way that I could never have imagined.</p><p><strong>Joel Dudley: </strong>Yeah, me either. Yeah. Yeah, it's a huge catalyst. I agree, though. It's amazing. Good good time to to be in the field for sure.</p><p><strong>Harry Glorikian: </strong>Oh, best job in the world. I always tell people.</p><p><strong>Joel Dudley: </strong>Yeah, yeah. Science fiction is a cool business.</p><p><strong>Harry Glorikian: </strong>Oh yeah, yeah, yeah, yeah. You got to have a little bit of both. Otherwise it gets boring.</p><p><strong>Joel Dudley: </strong>Yeah, exactly. Awesome man.</p><p><strong>Harry Glorikian: </strong>All right. Good to talk and we'll stay in touch.</p><p><strong>Joel Dudley: </strong>All right. Sounds good. Take care man. Good to see you.</p><p><strong>Harry Glorikian: </strong>All right.</p><p><strong>Harry Glorikian:</strong> That’s it for this week’s show.  We’ve made more than 50 episodes of MoneyBall Medicine, and you can find all of them at www.glorikian.com forward-slash podcast. You can follow me on Twitter at hglorikian. If you like the show, please do us a favor and leave a rating and review at Apple Podcasts.  Thanks, and we’ll be back soon with our next interview.</p>
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      <itunes:title>Tempus&apos;s Joel Dudley on Building a New Infrastructure for Precision Medicine</itunes:title>
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      <itunes:summary>What if there were a single company that could connect hospital electronic health record systems to a massive genomic testing and analytics platform? It would be a little like Amazon Web Services (AWS) for healthcare—an enabling platform for anyone who wants to deploy precision medicine at scale. That&apos;s exactly what Joel Dudley says he&apos;s now helping to build at Tempus.</itunes:summary>
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      <title>Christine Lemke on Evidation&apos;s Push to Use Wearables in Healthcare</title>
      <description><![CDATA[<p>This week Harry catches up with Christine Lemke from Evidation Health, a startup in San Mateo, CA, that helps drug developers and other organizations analyze the effectiveness of smart devices and wearables in new types of therapies. Lemke is Evidation's co-CEO.</p><p>Our Fitbits and Apple Watches are with us so much of the time that the data they collect can go way beyond telling us whether we’ve completed our 10,000 steps for the day. They can also help doctors diagnose cardiovascular problems, and even provide early signs of cognitive changes like the onset of dementia. But the data comes in so many forms from so many sources that it’s a real chore to set up population-wide studies and keep the incoming data organized and anonymized. That’s Evidation's specialty.</p><p>The company came together in its current form when a company Lemke helped to start, The Activity Exchange, merged with another company called Evidation. (Harry helped to incubate Evidation at GE Ventures with colleagues Rowan Chapman and Deborah Kilpatrick.) In its early years, Evidation focused simply on helping other companies prove that real-life data from consumer wearables was reliable enough to be useful in health decisions. But nowadays Evidation works mostly with Big Tech and Big Pharma companies like Eli Lilly, Johnson & Johnson, and Apple  to test specific ideas, like whether data from people’s smart watches and smart phones can help predict cardiovascular disease or cognitive decline early enough to help slow or reverse the conditions with new drugs.</p><p>In July 2020 Evidation raised $45 million in Series D funding to expand its so-called Achievement platform, which includes a network of nearly 4 million people who’ve agreed to share at-home sensor data and other health records. In September Lemke became co-CEO alongside Deb Kilpatrick. Before joining Evidation, she was co-founder and COO of Sense Networks, a machine learning platform for mobile activity data. And before that she worked at Microsoft, helping to manage the Xbox hardware engineering group.</p><p>You can find more details about this episode, as well as the entire run of MoneyBall Medicine's 50+ episodes, at <a href="https://glorikian.com/moneyball-medicine-podcast/">https://glorikian.com/moneyball-medicine-podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p> </p>
]]></description>
      <pubDate>Mon, 4 Jan 2021 13:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Christine Lemke)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week Harry catches up with Christine Lemke from Evidation Health, a startup in San Mateo, CA, that helps drug developers and other organizations analyze the effectiveness of smart devices and wearables in new types of therapies. Lemke is Evidation's co-CEO.</p><p>Our Fitbits and Apple Watches are with us so much of the time that the data they collect can go way beyond telling us whether we’ve completed our 10,000 steps for the day. They can also help doctors diagnose cardiovascular problems, and even provide early signs of cognitive changes like the onset of dementia. But the data comes in so many forms from so many sources that it’s a real chore to set up population-wide studies and keep the incoming data organized and anonymized. That’s Evidation's specialty.</p><p>The company came together in its current form when a company Lemke helped to start, The Activity Exchange, merged with another company called Evidation. (Harry helped to incubate Evidation at GE Ventures with colleagues Rowan Chapman and Deborah Kilpatrick.) In its early years, Evidation focused simply on helping other companies prove that real-life data from consumer wearables was reliable enough to be useful in health decisions. But nowadays Evidation works mostly with Big Tech and Big Pharma companies like Eli Lilly, Johnson & Johnson, and Apple  to test specific ideas, like whether data from people’s smart watches and smart phones can help predict cardiovascular disease or cognitive decline early enough to help slow or reverse the conditions with new drugs.</p><p>In July 2020 Evidation raised $45 million in Series D funding to expand its so-called Achievement platform, which includes a network of nearly 4 million people who’ve agreed to share at-home sensor data and other health records. In September Lemke became co-CEO alongside Deb Kilpatrick. Before joining Evidation, she was co-founder and COO of Sense Networks, a machine learning platform for mobile activity data. And before that she worked at Microsoft, helping to manage the Xbox hardware engineering group.</p><p>You can find more details about this episode, as well as the entire run of MoneyBall Medicine's 50+ episodes, at <a href="https://glorikian.com/moneyball-medicine-podcast/">https://glorikian.com/moneyball-medicine-podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p> </p>
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      <itunes:title>Christine Lemke on Evidation&apos;s Push to Use Wearables in Healthcare</itunes:title>
      <itunes:author>Harry Glorikian, Christine Lemke</itunes:author>
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      <itunes:summary>This week Harry catches up with Christine Lemke from Evidation Health, a startup in San Mateo, CA, that helps drug developers and other organizations analyze the effectiveness of smart devices and wearables in new types of therapies. </itunes:summary>
      <itunes:subtitle>This week Harry catches up with Christine Lemke from Evidation Health, a startup in San Mateo, CA, that helps drug developers and other organizations analyze the effectiveness of smart devices and wearables in new types of therapies. </itunes:subtitle>
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      <title>Genuity&apos;s Thomas Chittenden on Using Genomics and Statistics to Eradicate Disease</title>
      <description><![CDATA[<p>Thomas Chittenden, chief data science officer at Genuity Science, says what's keeping the genomics revolution from turning into an equivalent revolution in drug discovery is that most of our domain knowledge about the molecular biology of disease has come from a hunt-and-peck approach, focused on one gene at a time. Find some gene relevant to a disease, knock it out, and you see what happens. Such experiments are always revealing, but the reality is that human biology is the product of the interactions of huge networks of thousands of genes—which means most diseases are the product of dysregulation across these networks. Which means, in turn, that to figure out where to intervene with a drug, you really need to identify the patterns that cascade through the whole network. </p><p>That’s where AI and machine learning come in, and that’s why Genuity has tasked Chittenden to lead R&D at its Advanced Artificial Intelligence Research Laboratory. Chittenden's team is pioneering new applications of old ideas from the world of probability and statistics, including some that go all the way back to the work of the English statistician Thomas Bayes in the eighteenth century, to look at gene expression data from individual cells and predict which genes are at the beginning of the cascade and are the causal drivers of diseases like atherosclerosis or high blood pressure. The hope is that Genuity can help its clients in the drug discovery business make smarter bets about which drug candidates will be most effective. And that could help shave years of development and billions of dollars in costs off the drug development process.</p><p>Chittenden is one of those rare professionals who has more degrees than you can shake a stick at—he has a PhD in Molecular Cell Biology and Biotechnology from Virginia Tech and a DPhil in Computational Statistics from the University of Oxford, and completed postdoctoral training at Dartmouth Medical School, the Dana-Farber Cancer Institute, and the Harvard School of Public Health—but can also explain the actual science in a way that makes sense for a non-expert. On top of that he’s been thinking hard about how to rein in some of the hype around the power of AI and machine learning in drug development and how to set expectations about what computing can and can’t do for the industry.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Mon, 23 Nov 2020 15:28:35 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian, Thomas Chittenden)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Thomas Chittenden, chief data science officer at Genuity Science, says what's keeping the genomics revolution from turning into an equivalent revolution in drug discovery is that most of our domain knowledge about the molecular biology of disease has come from a hunt-and-peck approach, focused on one gene at a time. Find some gene relevant to a disease, knock it out, and you see what happens. Such experiments are always revealing, but the reality is that human biology is the product of the interactions of huge networks of thousands of genes—which means most diseases are the product of dysregulation across these networks. Which means, in turn, that to figure out where to intervene with a drug, you really need to identify the patterns that cascade through the whole network. </p><p>That’s where AI and machine learning come in, and that’s why Genuity has tasked Chittenden to lead R&D at its Advanced Artificial Intelligence Research Laboratory. Chittenden's team is pioneering new applications of old ideas from the world of probability and statistics, including some that go all the way back to the work of the English statistician Thomas Bayes in the eighteenth century, to look at gene expression data from individual cells and predict which genes are at the beginning of the cascade and are the causal drivers of diseases like atherosclerosis or high blood pressure. The hope is that Genuity can help its clients in the drug discovery business make smarter bets about which drug candidates will be most effective. And that could help shave years of development and billions of dollars in costs off the drug development process.</p><p>Chittenden is one of those rare professionals who has more degrees than you can shake a stick at—he has a PhD in Molecular Cell Biology and Biotechnology from Virginia Tech and a DPhil in Computational Statistics from the University of Oxford, and completed postdoctoral training at Dartmouth Medical School, the Dana-Farber Cancer Institute, and the Harvard School of Public Health—but can also explain the actual science in a way that makes sense for a non-expert. On top of that he’s been thinking hard about how to rein in some of the hype around the power of AI and machine learning in drug development and how to set expectations about what computing can and can’t do for the industry.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Genuity&apos;s Thomas Chittenden on Using Genomics and Statistics to Eradicate Disease</itunes:title>
      <itunes:author>Harry Glorikian, Thomas Chittenden</itunes:author>
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      <itunes:duration>00:54:08</itunes:duration>
      <itunes:summary>This week Thomas Chittenden of Genuity Science tells Harry about the company&apos;s work to use the power of causal statistical learning, Bayesian belief networks, and other advanced math techniques to understand that cascading gene interactions that account for health and disease—and translate them into insights that can provide drug makers with new targets.</itunes:summary>
      <itunes:subtitle>This week Thomas Chittenden of Genuity Science tells Harry about the company&apos;s work to use the power of causal statistical learning, Bayesian belief networks, and other advanced math techniques to understand that cascading gene interactions that account for health and disease—and translate them into insights that can provide drug makers with new targets.</itunes:subtitle>
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      <title>Shane Cooke Explains Why Intensive Care Unit Docs Need a Dashboard</title>
      <description><![CDATA[<p>This week Harry interviews the head of Etiometry, a Boston-based startup building visualization systems and decision support software for hospital intensive care units. Shane Cooke says critical care "is an incredibly complex environment where speed matters and information matters." By aggregating real-time data, lab results, and historical patient records on a single screen, Cooke says, Etiometry hopes to show caregivers that they can glean more value from the data that's already collected by intensive care units but seldom unified.</p><p>Etiometry's visualizations run on any hospital-approved web browser, and can therefore be used to monitor patients remotely. Not only does this unified visual presentation of input from monitoring devices and medical records can increase the effectiveness and efficiency of ICU care, Cooke says—it also enables real-time, risk-based analytics that help medical staff anticipate a patient's course.</p><p>Cooke joined Etiometry in 2019 as the president and CEO, bringing over 20 years of experience in the medical device and pharmaceutical marketplaces in a variety of sales, marketing, strategy, and portfolio management roles. Before joining Etiometry, Shane spent five years as chief strategy officer at Cheetah Medical, and prior to that role, Shane spent 11 years with Covidien in the patient care, vascular therapies and corporate sectors, with positions such as corporate strategy, market and competitive intelligence, leading the market development center of excellence, and leading strategy efforts for Japan, Europe, Australia and Canada.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 13 Nov 2020 15:46:50 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week Harry interviews the head of Etiometry, a Boston-based startup building visualization systems and decision support software for hospital intensive care units. Shane Cooke says critical care "is an incredibly complex environment where speed matters and information matters." By aggregating real-time data, lab results, and historical patient records on a single screen, Cooke says, Etiometry hopes to show caregivers that they can glean more value from the data that's already collected by intensive care units but seldom unified.</p><p>Etiometry's visualizations run on any hospital-approved web browser, and can therefore be used to monitor patients remotely. Not only does this unified visual presentation of input from monitoring devices and medical records can increase the effectiveness and efficiency of ICU care, Cooke says—it also enables real-time, risk-based analytics that help medical staff anticipate a patient's course.</p><p>Cooke joined Etiometry in 2019 as the president and CEO, bringing over 20 years of experience in the medical device and pharmaceutical marketplaces in a variety of sales, marketing, strategy, and portfolio management roles. Before joining Etiometry, Shane spent five years as chief strategy officer at Cheetah Medical, and prior to that role, Shane spent 11 years with Covidien in the patient care, vascular therapies and corporate sectors, with positions such as corporate strategy, market and competitive intelligence, leading the market development center of excellence, and leading strategy efforts for Japan, Europe, Australia and Canada.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Shane Cooke Explains Why Intensive Care Unit Docs Need a Dashboard</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:30:55</itunes:duration>
      <itunes:summary>This week Harry interviews the head of Etiometry, a Boston-based startup building visualization systems and decision support software for hospital intensive care units. Shane Cooke says critical care &quot;is an incredibly complex environment where speed matters and information matters.&quot; By aggregating real-time data, lab results, and historical patient records on a single screen, Cooke says, Etiometry hopes to show caregivers that they can glean more value from the data that&apos;s already collected by intensive care units but seldom unified.</itunes:summary>
      <itunes:subtitle>This week Harry interviews the head of Etiometry, a Boston-based startup building visualization systems and decision support software for hospital intensive care units. Shane Cooke says critical care &quot;is an incredibly complex environment where speed matters and information matters.&quot; By aggregating real-time data, lab results, and historical patient records on a single screen, Cooke says, Etiometry hopes to show caregivers that they can glean more value from the data that&apos;s already collected by intensive care units but seldom unified.</itunes:subtitle>
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      <title>Charles Fisher on Using Digital Twins to Speed Clinical Trials</title>
      <description><![CDATA[<p>Charles Fisher is the founder and CEO at Unlearn, a San Francisco company using purpose-built machine learning algorithms that use historical clinical trial data to create "digital twins" of actual participants in controlled drug trials to help predict how each participant would have fared if they'd been given a placebo. By comparing a patient's actual record to their digital twin, Fisher says, the company can pinpoint the treatment effect at the patient level and conduct trials with fewer placebo patients. Fisher tells Harry that Unlearn's software can help drug companies run clinical trials "twice as fast, using half as many people." </p><p>Fisher's own history is somewhat unconventional for someone in the pharmaceutical business. He holds a  B.S. in biophysics from the University of Michigan and a Ph.D. in biophysics from Harvard University. He was a postdoctoral scientist in biophysics at Boston University and a Philippe Meyer Fellow in theoretical physics at École Normale Supérieure in Paris, France, then went on to work as a computational biologist at Pfizer and a machine learning engineer at Leap Motion, a startup building virtual reality interfaces. </p><p>Unlearn built a custom machine-learning software stack because it wasn't convinced existing ML packages from other companies to help in the simulation of clinical data. Fisher says the company focuses on the quality rather than the quantity of its training data, with a preference for the rich, detailed, longitudinal kind of data that comes from past clinical trials. The outcome is a simulated medical record for each treated patient in a trial,  in the same data format used for the trial itself, that predicts how that patient would have responded if they had received a placebo instead of the treatment. These simulated records can be used to augment existing randomized controlled trials or provide an AI-based "control arm" for trials that don't have a placebo group.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p> </p>
]]></description>
      <pubDate>Thu, 29 Oct 2020 21:10:38 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Charles Fisher is the founder and CEO at Unlearn, a San Francisco company using purpose-built machine learning algorithms that use historical clinical trial data to create "digital twins" of actual participants in controlled drug trials to help predict how each participant would have fared if they'd been given a placebo. By comparing a patient's actual record to their digital twin, Fisher says, the company can pinpoint the treatment effect at the patient level and conduct trials with fewer placebo patients. Fisher tells Harry that Unlearn's software can help drug companies run clinical trials "twice as fast, using half as many people." </p><p>Fisher's own history is somewhat unconventional for someone in the pharmaceutical business. He holds a  B.S. in biophysics from the University of Michigan and a Ph.D. in biophysics from Harvard University. He was a postdoctoral scientist in biophysics at Boston University and a Philippe Meyer Fellow in theoretical physics at École Normale Supérieure in Paris, France, then went on to work as a computational biologist at Pfizer and a machine learning engineer at Leap Motion, a startup building virtual reality interfaces. </p><p>Unlearn built a custom machine-learning software stack because it wasn't convinced existing ML packages from other companies to help in the simulation of clinical data. Fisher says the company focuses on the quality rather than the quantity of its training data, with a preference for the rich, detailed, longitudinal kind of data that comes from past clinical trials. The outcome is a simulated medical record for each treated patient in a trial,  in the same data format used for the trial itself, that predicts how that patient would have responded if they had received a placebo instead of the treatment. These simulated records can be used to augment existing randomized controlled trials or provide an AI-based "control arm" for trials that don't have a placebo group.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p> </p>
]]></content:encoded>
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      <itunes:title>Charles Fisher on Using Digital Twins to Speed Clinical Trials</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:summary>Charles Fisher is the founder and CEO at Unlearn, a San Francisco company using purpose-built machine learning algorithms that use historical clinical trial data to create &quot;digital twins&quot; of actual participants in randomized controlled drug trials to help predict how each participant would have fared if they&apos;d been given a placebo. By comparing a patient&apos;s actual record to their digital twin, Fisher says, the company can estimate the treatment effect at the patient level and conduct trials with fewer placebo patients.</itunes:summary>
      <itunes:subtitle>Charles Fisher is the founder and CEO at Unlearn, a San Francisco company using purpose-built machine learning algorithms that use historical clinical trial data to create &quot;digital twins&quot; of actual participants in randomized controlled drug trials to help predict how each participant would have fared if they&apos;d been given a placebo. By comparing a patient&apos;s actual record to their digital twin, Fisher says, the company can estimate the treatment effect at the patient level and conduct trials with fewer placebo patients.</itunes:subtitle>
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      <title>Jeff Booth on the Power of Falling Prices in Technology and Healthcare</title>
      <description><![CDATA[<p>What if all our everyday assumptions about economics are wrong? This week Harry speaks with author and entrepreneur Jeff Booth, who says the most powerful force for change in the future will be deflation: getting more for less. Even the healthcare industry will feel the effects, he says. Listen to find out how.</p><p>Booth is the author of <i>The Price of Tomorrow: Why Deflation is the Key to an Abundant Future. </i>The book argues that the most powerful force for innovation and change is not endless investment and growth, based on an inflationary idea that everything always gets more expensive, but technology-driven abundance, powered by exponential, deflationary trends in computing and storage that drive the price of everything down. </p><p>Booth says governments should stop striving to ward off deflation and recognize that economic systems built around credit, debt, and eternal inflation only reinforce radical inequality and class resentment. As the deflationary force of technology spreads to even more industries—including healthcare—it will become necessary to rewrite all the rules of business and investing, he argues. Even healthcare organizations and drug developers will be forced to adapt to exponential technology change, such as the exploding amount of data on individual patients, Booth says.</p><p>Booth co-founded Vancouver, BC-based BuildDirect, an online marketplace for building and home-improvement products, and is now a co-founder and advisor to numerous technology startups.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Wed, 30 Sep 2020 14:16:12 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>What if all our everyday assumptions about economics are wrong? This week Harry speaks with author and entrepreneur Jeff Booth, who says the most powerful force for change in the future will be deflation: getting more for less. Even the healthcare industry will feel the effects, he says. Listen to find out how.</p><p>Booth is the author of <i>The Price of Tomorrow: Why Deflation is the Key to an Abundant Future. </i>The book argues that the most powerful force for innovation and change is not endless investment and growth, based on an inflationary idea that everything always gets more expensive, but technology-driven abundance, powered by exponential, deflationary trends in computing and storage that drive the price of everything down. </p><p>Booth says governments should stop striving to ward off deflation and recognize that economic systems built around credit, debt, and eternal inflation only reinforce radical inequality and class resentment. As the deflationary force of technology spreads to even more industries—including healthcare—it will become necessary to rewrite all the rules of business and investing, he argues. Even healthcare organizations and drug developers will be forced to adapt to exponential technology change, such as the exploding amount of data on individual patients, Booth says.</p><p>Booth co-founded Vancouver, BC-based BuildDirect, an online marketplace for building and home-improvement products, and is now a co-founder and advisor to numerous technology startups.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Jeff Booth on the Power of Falling Prices in Technology and Healthcare</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:57:16</itunes:duration>
      <itunes:summary>What if all our everyday assumptions about economics are wrong? This week Harry speaks with author and entrepreneur Jeff Booth, who says the most powerful force for change in the future will be deflation: the ability to get more for less. Even the healthcare industry will feel the effects, he says. Listen to find out how.</itunes:summary>
      <itunes:subtitle>What if all our everyday assumptions about economics are wrong? This week Harry speaks with author and entrepreneur Jeff Booth, who says the most powerful force for change in the future will be deflation: the ability to get more for less. Even the healthcare industry will feel the effects, he says. Listen to find out how.</itunes:subtitle>
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      <title>How Drug Development Guru Mark Eller Went from AI Skeptic to AI Supporter</title>
      <description><![CDATA[<p>How does an expert in pharmacokinetics, whose only exposure to computers was taking one semester of programming in college to meet a language requirement, become an advocate for the new AI-driven style of drug discovery? This week Harry finds out from Mark Eller, who helped to invent Allegra at Hoechst Marion Roussel (now Sanofi), spent 12 years at Jazz Pharmaceuticals, and is now senior vice president of research and development at twoXAR, an AI-driven drug discovery startup.</p><p>In our <a href="https://moneyball-medicine.simplecast.com/episodes/andrew-a-radin-returns-with-a-progress-report-on-twoxar">previous episode</a> from August 31, 2020, Harry spoke with twoXAR founder and CEO Andrew A. Radin, who confessed to being a computer nerd and lamented that it's been hard finding colleagues who are willing and able to help him bridge the gap between software and biology. He told the story of Mark Eller, who started out as a consultant at twoXAR but ended up telling Radin "I want you to offer me a job." </p><p>Eller told Radin that the twoXAR project had finally convinced him that AI is good for more than just winning games of chess or Go, and that it can also be used to help drug developers predict which new molecules will be effective against specific diseases, even if their mechanisms of action are unfamiliar.  "He's gone from highly skeptical to highly supportive," says Radin. "I think that transformation is happening throughout the industry." This week, Harry gets the whole story of Eller's transformation, from Eller himself.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Harry: </strong>All right, Mark. Welcome to the show.</p><p><strong>Mark: </strong>Thank you very much for asking me, huh? </p><p><strong>Harry: </strong>Yeah, no, it's great to have you here. Um, and I, and I honestly, I'm really excited about this conversation after Andrew mentioned, like, you know, he sort of gave me a sneak peek of, of, uh, The story. And I was like, we gotta do the show.</p><p><strong>Mark: </strong>Like we gotta have this conversation. </p><p><strong>Harry: </strong>And so Mark, just, just for, you know, everybody that's listening, sort of, can you give us a little bit about, of your background because you're, you're not the, you know, computer science, uh, born and bred person, right? That a lot of the people that I will have on the show you're. You're hardcore drug discovery</p><p><strong>Mark: </strong>I mean, I had one programming course in college that I actually took to fulfill a foreign language requirement because, you know, programming languages were the neat new thing and they wanted to encourage that. So yeah, I have no sort of. Technical knowledge in programming and my background, my training is in clinical pharmacology and, uh, basically spent the last 30 years in the drug industry in big pharma and CRO, uh, on.</p><p>Nonclinical preclinical development and clinical pharmacology PKPD. And, um, you know, before I started twos, I was consulting for a while. And before that I was at Jazz were 15 year or not 15 feels like, like 12 years, uh, starting out as VP of research and then had various titles along the way. And along the way I became inventor on something like that 30 patents, uh, including the ones, uh, the original ones for the anti-histamine, uh, Lycra, and then at, uh, uh, Jazz on some of their, uh, Xyrem patents and, um, just, uh, you know, the spent my time in developing drugs. That was my passion. And what I'd like to do, especially the early stages of drug development.</p><p>And then started, uh, consulting after I left Jazz and twoXar was one of my first clients. So that's how, sort of, how I got to, uh, got to them., </p><p><strong>Harry: </strong>So so essentially, you know what I would consider, you know, a traditional drug development, uh, background. Well, I mean, Obviously distinguished, like you've done some incredible stuff cause my son takes Allegro. So I'm sure he's very happy that you developed it. Um, but you know, I guess your first exposure to this was dealing with twoXar as a client. If I understand correctly.</p><p><strong>Mark: </strong>Yeah, that's fine. So, you know, they were, um, mostly. Uh, computer and bioinformatics people. They had a few people with drug development background, but they needed, they realized they needed more in that area.</p><p>And through a friend of a friend, they reached out to me and I was, uh, consulting. And so I said, sure, I'll be happy to help them. And you know what I knew about. AI at that time was like from documentaries. I had seen doc, you know, computers beating chess, and then there was a one you a more recent one about alpha go and about the masters and the team from the, you know, Google bought them and they've got the. They're playing the master and the, uh, computer program wins and they're oohing and nine about this and they can't figure out why the computer, you know, made this winning move or why it came up from there. Yeah. And you know, that was my understanding of AI and I couldn't understand how AI could possibly help with drug development, because I could see, okay, for a game, I can see how like a computer could play against itself over and over again, and figure out what, you know, what are the winning moves and learn to think ahead and things like that.</p><p>But for drug development, you know, if you use that game analogy and if you use like, um, Success as an FDA approval, then there's only a few thousand games that have ever been played. And so how is the computer supposed to iterate on that? And if you define an approval and approved drug as a win as the target that you're going after, then how are you ever going to come up with a better drug or a drug for a disease where there, you know, there aren't drugs approved, which is the really.</p><p>The goal. So I, I didn't understand how AI could help with that. But as I became consulting with them, you knowthey obviously, they didn't bring me in for the AI part. They brought me in to say, okay, we find, you know, we found this interesting molecule and we have these, how should we test it? Or we've tested it.</p><p>And now we have these results, help us help us with that or help us with the next step. And, you know, I would do that and I would say, Oh, No, these, this looks pretty good. This is neat. I went to off the bat night happened, but obviously it did. And then sort of retrospect, they can figure it out. Okay. So now we should do this, you know, and I would see that.</p><p>You know, that that pattern would repeat itself where they would, you know, they would run their computer platform and come up with like nine or 10 molecules and put them in a nonclinical model of efficacy and two or three of them would pop out positive and the, the hook for me was they all had new mechanisms of action.</p><p>So these were mechanisms of action that hadn't been tested in the patient population for that disease. And so, you know, that was an immediate challenge to my understanding of AI. So how did the computer come up with. That. And I didn't know the answer to that question, but you know, the more and more I saw results like this, the more I'm more, I thought, however, it's doing it.</p><p>It's, he's producing results. Centering interesting, you know, at a, sort of a higher success rate than a lot of, uh, Uh, traditional methods of, of drug discovery. And that was something that was very appealing to me and I wanted to be a part of, so I started, uh, talking to Andrew then and, uh, sort of ended up as senior vice president of R &D here.</p><p><strong>Harry: </strong>So what, you know, walk me through. Sort of ha you know that from skepticism to, you know, I want to be part of this it's, you know what you did, you said, look at you. We showing you. </p><p><strong>Mark: </strong>It was the highways. It was the results from the past, but, but also my understanding of, of AI sort of changed. So, you know, I joined in, uh, November of last year, 2019, and in September of 2019, I was reading this article by Bob temple, who is, uh, this senior person at the FDA. And he's been around for a long time. He was involved with, uh, the approval of Allegra and he was talking about how there was this new age in drug development can call it the age of individualization or like personalized medicine.</p><p>Right? So recognizing that individual differences in patients, uh, contribute to individual variations in response. And they're there, you know, the, he called the previous ages, the ages of safety and efficacy, and he was citing regulation and he said, but for this age there was, it wasn't really kicked off by regulation.</p><p>It was kicked off by the discovery of drug interactions with Seldin and I was involved in doing those. Drug interaction studies. And it was actually those studies that led to the invention of Allegra, which didn't have the, you know, the problems that led selling to be with withdrawn from the market. But it, it struck me that what was happening then was like the very beginning of the introduction of signal detection into the pharmaceutical industry. You know, cell being on average was very safe, uh, so safe that the company wanted to go OTC. And that's what I was hired in to do, to help them repeat some studies and get it ready for OTC. But then we got started getting these reports of drug interactions and, uh, arrhythmias.</p><p>And it was the first sort of application of signal detection in the pharmaceutical industry signal detection signals from individual patients. So looking at individual patients for four signals, and at first, you know, the, the signal detection system was so crude that the only signal that broke through were arrhythmias. And then we learned how to. Parse a peat, a piece of the ECG, the QT interval as a signal detection system. And, you know, as a result of those, uh, drug interactions, FDA also introduced MedWatch. Which is a signal detection system to get adverse event data from marketed drugs. And then, you know, that's one of the things, FDA monitors, how the drugs are actually working in the marketplace and are there any unexpected reactions and things like that.</p><p>And yeah, it's sort of hit me then that what twoXar was doing and what, how they were using AI was actually as a signal detection system, sifting through genomics data and phenotypic data and all these different datasets and examining it with an AI system to look for efficacy signals. And with that sort of reframing of.</p><p>You know, drug discovery as a problem in signal detection, it makes it a problem that's amenable to a computational solution and allows you to apply, you know, methods of signal detection that have been used in other places, other industries. Uh, to pharmacology and. You know, the results that I, then it sort of clicked and it fit with the results that I was saying, Oh yeah, you know, the computer wasn't playing a game to come up with this compound.</p><p>It was sifting through this data looking for signals. And then, um, you know, we tested it and lo and behold, the signal was, was validated at least in the, the first, uh, animal model or in vitro test. And so with that sort of reframing of my understanding of AI along with sort of. Re sort of defining the drug discovery problem.</p><p>It started to all fit together. And that's when I thought, you know, wow. You know, if signal detection 20 years ago, 25 years ago, according to Bob Temple was the thing that ushered in this new. Era in, you know, development or pharmaceutical development. Well, if we apply signal detection to the beginning part to efficacy, you know, I think it just, it, it has tremendous potential and I'm just, uh, it's a price that hasn't been done before because it's really kind of, uh, the results are better than let's say just a much better than I would have anticipated going into this.</p><p><strong>Harry: </strong>Now, so it wasn't just necessarily the results, but I think if I heard you correctly, it's also this factor of, time being shorter</p><p><strong>Mark:</strong>. Yes. It was. It's much more efficient. I mean, you know, Tuesday was a very small company and yet, you know, they've got 18 programs lunch and I think on 10 of them, uh, we have in vitro or, uh, animal pharmacology data with positive results and, you know, It would have taken years and years, especially for a little company, like, like this, to generate that data with traditional methods.</p><p>So it's like, Much more efficient. It gets you out of the triangle that manager's always talking about, you know, cost and time and quality. And you can get any two of those, but you have to sacrifice on, on that third one. Well, this just sort of, you know, breaks that all open and you can get really.</p><p>Good results, uh, are very fast and you know, much more efficiently than the, than the traditional approach. So it was, it was just a big jump, um, all the way around from the traditional way of doing things. </p><p><strong>Harry: </strong>Now, the other thing though, that you said is, and so I'm trying to use these two axes, right? One is time. One isyou are seeing patterns or pathways that. You were like, ah, not seen that before and opening up sort of a unique area to look at that you might be able to develop a new molecule again, which of course is a. </p><p><strong>Mark: </strong>Yeah, exactly. So that was, that was the really the exciting part. So, you know, there's a lot of, a lot of drug development and a lot of drugs are like there, you know, me too, drugs, they're second generation or third generation of something that does this and maybe there's incremental improvements, you know?</p><p>And the third statin that it's approved as better than the first one or whatever, but they're working by the same mechanism. What was interesting to me is that, you know, twoXar’s approach and their platform would identify molecules that were potentially effective in a given disease. And the approved ones would show up to or stuff that might be in development by the companies would show up to, uh, which, you know, it gives you some comfort that you're on the right track.</p><p>But what also show up is. Stuff that not only that hadn't been tested, but, but that have mechanisms where there's no drug that's approved or even been tested in patients with that disease that have that mechanism. So it's a whole new way of sort of treating the disease. So it's like the computers come up with a new or the actions of the computer, the whole system, yes.</p><p>Equal included have come up with a, like a new, a new hypothesis for what might work to treat a given disease that, that hasn't been tried before. And then we test those in animal models and it would. You know, test 10 of them in three of them pop up, uh, effective. That was very, very exciting. </p><p><strong>Harry: </strong>Yeah. I've, you know, I've talked to a lot of people where they have it, you know, they have a well understood process of making a molecule and then they, you know, to their system and say, well, you know, is there a faster way, more efficient way? And the system can sometimes tell you how to get to the same end result in a different way than anybody was classically trained.</p><p>Uh, that might bring down cost and decrease time and so forth. And so this doesn't sound, you know, I do can see similarities between all these approaches. Um, now the other thing though, that when I talk to Andrew, he's like, you know, his hypothesis was, you could shave off three to four years of time. In the whole process. Like, do you agree with that sort of, yeah.</p><p><strong>Mark:</strong> I mean, from, uh, what we've done so far from, you know, the, the, uh, things that we've taken furthest along in and have results back from, uh, nonclinical pharmacology models. Uh, yeah. You know, it was like something like four months. From, you know, saying we want to investigate this disease to having results in a laboratory animals.</p><p>And, you know, doing them at CRO is the same. CRO is at big pharma uses in sort of standard classical models. And most of that time, frankly, was, uh, for the actual conduct of the study, not the, all the, um, stuff that. Brought us to that prediction and the stuff that, you know, You know, traditional process that I would bring you to, that prediction might take, might years.</p><p>And here, you know, we had collapsed all those initial steps down into one that just generates efficacy predictions that can be, you know, immediately tested. So, so yeah, there's that sort of time and efficiency aspect of it. And then, you know, when there are new molecules or new mechanisms of action that made it really, really exciting.</p><p><strong>Harry: </strong>So now, I mean, but at some point the system generates what it is. It suggests. And then the human being though has got to look at it and be like,</p><p><strong>Mark: </strong>Yes of course. Yeah. Okay. So, you know, I can give you like a flow step and the first step is like all the computers. And then the last step is basically, you know, humans deciding what animal models should we use to test this.</p><p>Hypothesis. And then the intermediate steps, you know, span the range of more computer and less human to more and more human. So, yeah, uh, after the initial, you know, generation of possibilities, which might be, you know, A thousand come out or something like that. Then there is this winnowing process, uh, and ranking process.</p><p>And the first few steps of that are also computer assisted or AI assisted to rank them or, uh, eliminate molecules that might be too toxic or for a given indication, things like that. And there there's human intervention along the way until finally the decision as to which of the molecules to put into a non-clinical model is, uh, dependent on human insight and, uh, not, not AI.</p><p><strong>Harry: </strong>So, but at some point that information now you are working with the people actually building the models, right? So there's yes. I assume that, that, you know, I think of this as a figure eight, right. It just, at some point there's feedback, there's correction or there's modification of the, and then it just keeps going back and forth then just makes it better.</p><p><strong>Mark: </strong>Yes, exactly. </p><p><strong>Harry: </strong>I mean, it was interesting cause I was talking to someone earlier. Today from a big pharma and saying, you know, one of the companies I was talking to has said, they're constantly improving their, their algorithm. And he says, now we don't do that at big pharma because, you know, our model is pretty well set. And, and, you know, we're, unless we think that there's going to be some huge breakthrough. </p><p><strong>Mark: </strong>I know, I think we're on, I don't know. This is a question for Andrew, but version. I don't know, but I I'm sure. Pretty sure it's in, you know, hundreds of iterations of the, um, stop where, yeah. So there's this constant learning process.</p><p><strong>Harry: </strong>So do you, do you see this actually also affecting cost in development? </p><p><strong>Mark: </strong>Well, I think, you know, cost and timing sort of go hand in hand. It really, the way you achieve the tiny is because you're eliminating all these, you know, wet lab rate, limiting experiments, and those wet lab rate-limiting experiments also cost money. So yeah, there's, there's a big, um, cost savings as well as, as well as a time saver. </p><p><strong>Harry: </strong>But yeah, I think about it from a, uh, uh, uh, rate limiting, but also. I think the number of parameters, these algorithms can look at it as much more than, you know, definitely, definitely more than me. Right. </p><p><strong>Mark: </strong>I mean, that is how it comes up with new stuff that you and I haven't or other people haven't thought of.</p><p>It's, you know, I think, um, for one of the, uh, programs, um, lupus, I think, uh, they were like, Uh, Tom was talking to Erin who already, who heads up there, runs the platform. And it was something like 2.5 billion pieces of data that, uh, were going into this, that it was sifting through. So yeah, it's, it's more than more than humans can handle.</p><p><strong>Harry: </strong>So, but, and then I always think about like, the papers that have to be coming out of this. I mean, at some point, you know, you got to start to. Let the world know that there's this other potential pathway that you could use this, you know, or, or, you know, just to publish this stuff and say, here's a different way to come at these problems and make it more of a widespread now I know, you know, you know, as a startup, you want to be first and own it all. But I think about that just from a science perspective.</p><p><strong>Mark: </strong>Oh yeah. Yeah. I agree. I mean, there is, you know, there's that tension between proprietary and getting the information out. And so in terms of results, That's certainly something, uh, that we are publishing, for example, the lupus one on, I know that the abstracts have been presented or, you know, all the meetings are virtual now.</p><p>Uh, yeah. Uh, yeah, that where we've presented the, the data, uh, from those studies and also a couple of others, like, uh, cellular caution, Noma. And so the data is starting to come out and people can, you know, Judge for themselves and take a look at it's very positive. </p><p><strong>Harry: </strong>So now, uh, for, if you were talking to other people like with that, that have your background, so what, you know, how, how do you, and I'm sure it's come up in, in you've I'm sure you have this conversation with, with, uh, colleagues.</p><p>Yeah. It's what do you say to them and how do you frame it in a way that they sort of can get there? Their head around it, um, quickly, if right. And, and, and what are the skeptical comments that you get? Cause I'm sure that you and I get probably the exact same comments. </p><p><strong>Mark: </strong>Yeah, I think it depends upon, you know, it depends, it depends upon what they're looking at. So if you're, if they're looking at the results of a particular program, if they're looking at our SLD data, I just say, you know, just, just look at the data and decide for yourself and then ask yourself, does it really matter? You know, if I came up with the idea at work and Peter came up with it, so there was this, this game that I used to.</p><p>Um, play at Jazz. We were doing like, uh, opportunity assessment and we called it doing a pre-mortem. So we pretend, okay. We, we bought this asset and we did everything and executed according to plan and it failed. Why did it, why did it fail? And if you write down all the reasons it could potentially fail.</p><p>And you know, the last reason is because the computer came up with the idea. Yeah. That wouldn't stop us from moving forward with that program because in the end, you know, the FDA doesn't care. If a computer came up with the idea or, you know, whoever it, they care about a development plan about, um, development, rationale and your data.</p><p>So I, it's very easy to convince people on individual products. I think on. You know, the AI side, it's, it is more people are more skeptical and they're more like in my position and I have to say, look it, you know, put away your preconceptions about what AI is and you know, if you're like me and you thought it was about computers, playing games against humans and they, you know, it's a little bit, you know, maybe that's part of it, but it's a little bit more than that.</p><p>And if you view it as signal detection, Um, that might help you understand what the, what the potential is. And, you know, for me, that helped and also seeing the results, you know, repeat over and over, you know, convinced me that that was, uh, that was in fact the case. But yeah, we do run into people who are skeptical and say, Oh yeah, you know, this data looks really nice. And that piece of data looks really nice and this program looks good, but you know, they're not. I guess convinced that there's a block there and they can't see that, uh, you know, if it works three times or five times or 10 times that it's likely to, you know, keep working and, you know, we think that there are, you know, a thousand diseases that it might be applicable for.</p><p>There's some probably that it's not, you know, like infectious diseases, it's the platform. It's not set up to do something like that because you've got a third thing, the organism itself. But, uh, for other things, it's yeah, it's very broadly applicable. </p><p><strong>Harry: </strong>Yeah. I mean, uh, you know, we've always talked about it. Identifying new targets. Completely different pathways that, you know, have a major effect on the disease that nobody ever considered. Right. Um, and then, uh, the third is, is repurposing something that's already out there that might actually have a meaningful effect on this particular disease, but nobody is nobody's really using it in that way.</p><p>Mark: Right. Yeah. Yeah. You know, sometimes we come up with stuff like that too, you know, we'll be in our list of things that are predicted to be potentially effective. There might be, you know, a drug that's, um, on the market for something else. So that does happen occasionally. </p><p><strong>Harry: </strong>So, so, if you were coaching somebody and say, and that was working their way through the system. Would you tell them to study something? Would you tell them to. I don't know, read a particular book. Would you, how would you sort of coach someone along that was the you're younger? You? </p><p><strong>Mark: </strong>Um, I would say, always be guided by science and, you know, look at the results and look at the hypothesis and connect the dots. And if, you know, if you connect the dots and it says signal the texting AI works, you know, trust that and believe it and put away your preconceptions. You don't have to understand the details of the programming to see the results. And if you can just understand the inputs, and if you can understand that the idea that the computer can take two and a half billion pieces of data and process it, and you can't do that, um, And comes up with predictions.</p><p>Well, test the predictions. It's sort of empirical it's, shouldn't involve, you know, I'm a scientist, it doesn't involve belief or trust or whatever. It's like, here's the, here's the output. Did the output work? Yes, here's the input and this experiment here's out, but did it work? Yes. How many times do you need to, to see that to, to be convinced and, you know, you can just sort of be agnostic in your, uh, beliefs about AI or computers or traditional approaches and, and just, you know, just because you're used to doing something one way, And it's worked, although maybe, you know, slow and inefficient, you know, don't be closed to the idea that there might be other ways to do things that, uh, get you out of that triangle of cost and time and quality.</p><p><strong>Harry: </strong>Yeah. Another thing that I think about is the systems are it's, it's not like they're standing still either. They're in a constant state of improvement and evolution, which is just making them better over time. And we are collecting more data sets that the system can ingest and build into the model. So I think it's just, it's moving forward at a, at a pretty, at a very fast pace. I mean, you know, I try, I try to explain the, the speed at which things are happening to people. And it's very difficult for the human mind to understand. Doubling doubling, like has a ha I don't know why we have a hard time getting around.</p><p><strong>Mark: </strong>I mean, it's like, you know, science, sometimes things in science moves sort of in a linear, predictable pattern. And sometimes it's just, it jumps like, you know, the, cell vein drug interactions leading to the MedWatch system and signal detection for safety. What that, that didn't come up out through a linear process.</p><p>That was a jump and a response to a problem. And the solution sort of developed Denovo. And this is sort of, I think, a similar situation, it represents sort of a break from the traditional way of doing things. And you, you know, if you're open to an objective to looking at results, you should be sort of.</p><p>Okay with that. Um, you know, but there, you know, we get comments from, you know, you know, where's your, you know, five KOL’s in this disease area who came up with this thing, you know, the whole purpose of this, you know, we're a small company and we've got, we've got stuff in. That we're developing for SLE. We've got it for oncology indications. We've got some, you know, you can partnered with, uh, people in, in various therapeutic areas. We don't have, you know, we have, we hire a KOL as consultants and we need them, but we don't have this, you know, staff of therapeutic disease experts who have. You know, working for 20 years to come up with this molecule, but you know, there there's, you know, to give people credit.</p><p>There's a lot of companies in the Bay area that that's how they are start to some professor from Stanford and working on this problem for 20 years. And then they spin it off into a little startup company. And people can, you know, wrap their head around that, whereas, okay. Uh, Andrew and Aaron were working on this computer system and now we're going to apply it to pharmacology and we can apply it to oncology.</p><p>We can imply it, uh, inflammatory diseases and we can apply it in other areas and, you know, we've got results and that just, just it's different. </p><p><strong>Harry: </strong>Yeah, yeah, yeah. Yeah. I mean, I think in the other part is, is. If some new pathway comes up, that the system came up with. I mean, I'm, I'm hard pressed to find a KOL that really like, you know, would have gone. Oh, Oh yeah. That was, we absolutely knew about that. Right. It's what I find is they're like, Oh, I mean, I didn't even think about that one. And yeah, now that you're showing me the data that's short of, I can see how that might make sense. It just wasn't. Right in front of them. </p><p><strong>Mark: </strong>Yeah. It's what I would call retrospective predictability.</p><p>Now I can't think of it, but now, now that now that the computer did and all that, you've got positive results. I can see how that might work. </p><p><strong>Harry: </strong>I called that Monday morning quarterbacking. He should have done that. Yeah. It would have been a better play, right. So here here's, here's one of my, one of my final questions is, uh, you know, what do you tell those people that say, tell me, tell me the first drug that ever got approved by AI.</p><p>Like, you know, how do you, how do you manage that? Because I get that all the time and I'm like, well, he wait for that. Like, it it'll be over.</p><p><strong>Mark: </strong>Yeah. Yeah. I right. That's the thing. Their product development cycles are so long. If you. Wait for, if you, if your standard for, you know, accepting a new way of doing something as final FDA approval, um, you know, you're gonna be caught way behind the curve.</p><p>I think you have to evaluate the compounds as they've progressed every step of the way and say, You know, what are the results at this step? What are the results that that's done and are they moving forward? Uh, are they moving forward with better success or worst success or the same as the traditional process?</p><p>Um, I think that's, that's where we're at. I mean, that's one answer. The, you know, the other answer would be, you know, define what AI is. So, you know, there's. AI is sort of catch all thing. You know, some people would define AI as anything that's more complicated than you could do on an Abacus or something, you know, something like that.</p><p><strong>Harry:</strong> So I, whenever I'm talking about AI, it's, it's a toolkit, right. And depending on what I'm trying to do, I may pull out a different screwdriver or a wrench or whatever, but it's a toolkit of, of. Capabilities, processes approaches that you can take to solve a particular problem.</p><p><strong>Mark: </strong>Right. And people are applying in another areas of the, you know, drug industry looking, you know, um, using AI to develop biomarkers or are using AI, like patient recruitment things, you know, we're just applying it to, um, the first step and drug discovery.</p><p><strong>Harry: </strong>So how do you think. You know, if you were a betting man, since you were a jazz working sort of on this stuff, you are somewhat of a betting man, because you're betting on something, finding something new is, is, you know, big pharma startups, where do, where do you, you know, I'm sort of betting on, on startups because I think they're much more nimble and quick, but, but you know, there are, there are, there are good papers in the space coming up from big pharma. It's just. No, I was trying to figure out where, where do you think the world is?</p><p><strong>Mark: </strong>Yeah, I mean, there are certainly, you can fine exceptional to the robot. I think in general, most of the innovation is at small companies. Um, whether it's, you know, the small companies with the sort of the traditional ones that I mentioned, you know, some professors someplace had an idea that's being commercialized and then, you know, If it's successful, maybe they take it or maybe big pharma buys it.</p><p>That's why there's all these deals. And if you're looking at it, who's buying what, it's big companies buying the assets of little companies that did the, did the original innovation. </p><p><strong>Harry:</strong> But it's interesting though, because I think the buyer set has gotten has broadened. Right. Whereas normally I would think like it would be okay, Pfizer Merck, you know, like you go down the list right now.</p><p>I think there's, you know, potentially there's Amazon. Microsoft Google. I mean, I was just talking to someone and they were saying, yeah, we keep talking to Amazon about partnering, but you know, they're just missing data. And if they had data, like all of a sudden they become a competitor as opposed to a partner. So it's, it's a, it's an interesting, uh, dynamic of new names that are coming into the, onto the forefront.</p><p><strong>Mark: </strong>Yeah, I think, um, you know, um, my experience, you know, was more with the pharmacy, but I don't, I don't doubt that at all, that, um, more and more people are getting interested and maybe, you know, maybe the AI.</p><p>Component of that is more accessible to people at Amazon and Google than it is to, you know, people in the top five pharma companies. Maybe they're just more, you know, familiar with, um, how to manipulate large, large amounts of data. </p><p><strong>Harry: </strong>I, yeah, but I, I, it's interesting because I think you have to have both, I mean, at some point it's producing all this data, but then someone needs to look at it.</p><p>And, and think about ok a yeah. Okay. That makes sense, right. Or, okay. I can believe that B how the hell are we going to test that? Right. What's the model and how are we going to, and then what's the rest of the process going forward. And that requires some, you know, I wouldn't want to novice. </p><p><strong>Mark:</strong>. That's fine. Well, I did try to help them with that, to put that piece, you know, the, the, the program or the platform came up with this and it was always what was helpful and what sort of distinguishes it is aside from producing, you know, I answer or quote unquote answer in terms of a prediction. You could trace back why you know, why the computer like this one or why the computer liked that one.</p><p>And so that was very helpful to me. And that helps you design the, the appropriate, um, test model to put the molecules in. But, but a lot of AI, they don't, it, you know, it doesn't give you the rationale. It's sort of a black box type of product, and that's much more difficult to deal with. </p><p><strong>Harry: </strong>So this must also spur a lot of IP generation. </p><p><strong>Mark: </strong>I mean, yeah, I, yeah, absolutely. I think it has the potential to do that. Like obviously I can't tell you. </p><p><strong>Harry: </strong>Yeah, no, no, no, no, no. I'm just saying in general, right. Uh, as you're moving down this road and you're identifying things at a, at a, a speed much faster than others, right. And the IP attorneys must be quite busy or you hope they would be, you would get that.</p><p>Mark: That would be a. Predicted outcome. Yes</p><p><strong>Harry: </strong>Well, Mark, you know, any other thoughts along these lines that you can share with, you know, the people that are listening to this? I mean, there's, I asked physicians, listen to this. I have people in the pharmaceutical industry. I have my wife listens to it, right. As a lay person. It's, you know, anything you can share with that group from, uh, you know, Your experience that you, that you would want them to know?</p><p><strong>Mark: </strong>I would just, you know, have an open mind and make your decisions like a scientist based on results. Uh, and if you do that, you know, you're, you're on a good path. </p><p><strong>Harry: </strong>Excellent. Excellent. Well, I really appreciate the time. It was great to talk to you and hear this, uh, this story. Um, you know, as these products go forward, um, you know, we may come back to you and ask you to be back on the show.</p><p><strong>Mark: </strong>I'd love to come back. Excellent. Thank you. Thank you.</p><p> </p>
]]></description>
      <pubDate>Mon, 14 Sep 2020 17:04:46 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>How does an expert in pharmacokinetics, whose only exposure to computers was taking one semester of programming in college to meet a language requirement, become an advocate for the new AI-driven style of drug discovery? This week Harry finds out from Mark Eller, who helped to invent Allegra at Hoechst Marion Roussel (now Sanofi), spent 12 years at Jazz Pharmaceuticals, and is now senior vice president of research and development at twoXAR, an AI-driven drug discovery startup.</p><p>In our <a href="https://moneyball-medicine.simplecast.com/episodes/andrew-a-radin-returns-with-a-progress-report-on-twoxar">previous episode</a> from August 31, 2020, Harry spoke with twoXAR founder and CEO Andrew A. Radin, who confessed to being a computer nerd and lamented that it's been hard finding colleagues who are willing and able to help him bridge the gap between software and biology. He told the story of Mark Eller, who started out as a consultant at twoXAR but ended up telling Radin "I want you to offer me a job." </p><p>Eller told Radin that the twoXAR project had finally convinced him that AI is good for more than just winning games of chess or Go, and that it can also be used to help drug developers predict which new molecules will be effective against specific diseases, even if their mechanisms of action are unfamiliar.  "He's gone from highly skeptical to highly supportive," says Radin. "I think that transformation is happening throughout the industry." This week, Harry gets the whole story of Eller's transformation, from Eller himself.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Harry: </strong>All right, Mark. Welcome to the show.</p><p><strong>Mark: </strong>Thank you very much for asking me, huh? </p><p><strong>Harry: </strong>Yeah, no, it's great to have you here. Um, and I, and I honestly, I'm really excited about this conversation after Andrew mentioned, like, you know, he sort of gave me a sneak peek of, of, uh, The story. And I was like, we gotta do the show.</p><p><strong>Mark: </strong>Like we gotta have this conversation. </p><p><strong>Harry: </strong>And so Mark, just, just for, you know, everybody that's listening, sort of, can you give us a little bit about, of your background because you're, you're not the, you know, computer science, uh, born and bred person, right? That a lot of the people that I will have on the show you're. You're hardcore drug discovery</p><p><strong>Mark: </strong>I mean, I had one programming course in college that I actually took to fulfill a foreign language requirement because, you know, programming languages were the neat new thing and they wanted to encourage that. So yeah, I have no sort of. Technical knowledge in programming and my background, my training is in clinical pharmacology and, uh, basically spent the last 30 years in the drug industry in big pharma and CRO, uh, on.</p><p>Nonclinical preclinical development and clinical pharmacology PKPD. And, um, you know, before I started twos, I was consulting for a while. And before that I was at Jazz were 15 year or not 15 feels like, like 12 years, uh, starting out as VP of research and then had various titles along the way. And along the way I became inventor on something like that 30 patents, uh, including the ones, uh, the original ones for the anti-histamine, uh, Lycra, and then at, uh, uh, Jazz on some of their, uh, Xyrem patents and, um, just, uh, you know, the spent my time in developing drugs. That was my passion. And what I'd like to do, especially the early stages of drug development.</p><p>And then started, uh, consulting after I left Jazz and twoXar was one of my first clients. So that's how, sort of, how I got to, uh, got to them., </p><p><strong>Harry: </strong>So so essentially, you know what I would consider, you know, a traditional drug development, uh, background. Well, I mean, Obviously distinguished, like you've done some incredible stuff cause my son takes Allegro. So I'm sure he's very happy that you developed it. Um, but you know, I guess your first exposure to this was dealing with twoXar as a client. If I understand correctly.</p><p><strong>Mark: </strong>Yeah, that's fine. So, you know, they were, um, mostly. Uh, computer and bioinformatics people. They had a few people with drug development background, but they needed, they realized they needed more in that area.</p><p>And through a friend of a friend, they reached out to me and I was, uh, consulting. And so I said, sure, I'll be happy to help them. And you know what I knew about. AI at that time was like from documentaries. I had seen doc, you know, computers beating chess, and then there was a one you a more recent one about alpha go and about the masters and the team from the, you know, Google bought them and they've got the. They're playing the master and the, uh, computer program wins and they're oohing and nine about this and they can't figure out why the computer, you know, made this winning move or why it came up from there. Yeah. And you know, that was my understanding of AI and I couldn't understand how AI could possibly help with drug development, because I could see, okay, for a game, I can see how like a computer could play against itself over and over again, and figure out what, you know, what are the winning moves and learn to think ahead and things like that.</p><p>But for drug development, you know, if you use that game analogy and if you use like, um, Success as an FDA approval, then there's only a few thousand games that have ever been played. And so how is the computer supposed to iterate on that? And if you define an approval and approved drug as a win as the target that you're going after, then how are you ever going to come up with a better drug or a drug for a disease where there, you know, there aren't drugs approved, which is the really.</p><p>The goal. So I, I didn't understand how AI could help with that. But as I became consulting with them, you knowthey obviously, they didn't bring me in for the AI part. They brought me in to say, okay, we find, you know, we found this interesting molecule and we have these, how should we test it? Or we've tested it.</p><p>And now we have these results, help us help us with that or help us with the next step. And, you know, I would do that and I would say, Oh, No, these, this looks pretty good. This is neat. I went to off the bat night happened, but obviously it did. And then sort of retrospect, they can figure it out. Okay. So now we should do this, you know, and I would see that.</p><p>You know, that that pattern would repeat itself where they would, you know, they would run their computer platform and come up with like nine or 10 molecules and put them in a nonclinical model of efficacy and two or three of them would pop out positive and the, the hook for me was they all had new mechanisms of action.</p><p>So these were mechanisms of action that hadn't been tested in the patient population for that disease. And so, you know, that was an immediate challenge to my understanding of AI. So how did the computer come up with. That. And I didn't know the answer to that question, but you know, the more and more I saw results like this, the more I'm more, I thought, however, it's doing it.</p><p>It's, he's producing results. Centering interesting, you know, at a, sort of a higher success rate than a lot of, uh, Uh, traditional methods of, of drug discovery. And that was something that was very appealing to me and I wanted to be a part of, so I started, uh, talking to Andrew then and, uh, sort of ended up as senior vice president of R &D here.</p><p><strong>Harry: </strong>So what, you know, walk me through. Sort of ha you know that from skepticism to, you know, I want to be part of this it's, you know what you did, you said, look at you. We showing you. </p><p><strong>Mark: </strong>It was the highways. It was the results from the past, but, but also my understanding of, of AI sort of changed. So, you know, I joined in, uh, November of last year, 2019, and in September of 2019, I was reading this article by Bob temple, who is, uh, this senior person at the FDA. And he's been around for a long time. He was involved with, uh, the approval of Allegra and he was talking about how there was this new age in drug development can call it the age of individualization or like personalized medicine.</p><p>Right? So recognizing that individual differences in patients, uh, contribute to individual variations in response. And they're there, you know, the, he called the previous ages, the ages of safety and efficacy, and he was citing regulation and he said, but for this age there was, it wasn't really kicked off by regulation.</p><p>It was kicked off by the discovery of drug interactions with Seldin and I was involved in doing those. Drug interaction studies. And it was actually those studies that led to the invention of Allegra, which didn't have the, you know, the problems that led selling to be with withdrawn from the market. But it, it struck me that what was happening then was like the very beginning of the introduction of signal detection into the pharmaceutical industry. You know, cell being on average was very safe, uh, so safe that the company wanted to go OTC. And that's what I was hired in to do, to help them repeat some studies and get it ready for OTC. But then we got started getting these reports of drug interactions and, uh, arrhythmias.</p><p>And it was the first sort of application of signal detection in the pharmaceutical industry signal detection signals from individual patients. So looking at individual patients for four signals, and at first, you know, the, the signal detection system was so crude that the only signal that broke through were arrhythmias. And then we learned how to. Parse a peat, a piece of the ECG, the QT interval as a signal detection system. And, you know, as a result of those, uh, drug interactions, FDA also introduced MedWatch. Which is a signal detection system to get adverse event data from marketed drugs. And then, you know, that's one of the things, FDA monitors, how the drugs are actually working in the marketplace and are there any unexpected reactions and things like that.</p><p>And yeah, it's sort of hit me then that what twoXar was doing and what, how they were using AI was actually as a signal detection system, sifting through genomics data and phenotypic data and all these different datasets and examining it with an AI system to look for efficacy signals. And with that sort of reframing of.</p><p>You know, drug discovery as a problem in signal detection, it makes it a problem that's amenable to a computational solution and allows you to apply, you know, methods of signal detection that have been used in other places, other industries. Uh, to pharmacology and. You know, the results that I, then it sort of clicked and it fit with the results that I was saying, Oh yeah, you know, the computer wasn't playing a game to come up with this compound.</p><p>It was sifting through this data looking for signals. And then, um, you know, we tested it and lo and behold, the signal was, was validated at least in the, the first, uh, animal model or in vitro test. And so with that sort of reframing of my understanding of AI along with sort of. Re sort of defining the drug discovery problem.</p><p>It started to all fit together. And that's when I thought, you know, wow. You know, if signal detection 20 years ago, 25 years ago, according to Bob Temple was the thing that ushered in this new. Era in, you know, development or pharmaceutical development. Well, if we apply signal detection to the beginning part to efficacy, you know, I think it just, it, it has tremendous potential and I'm just, uh, it's a price that hasn't been done before because it's really kind of, uh, the results are better than let's say just a much better than I would have anticipated going into this.</p><p><strong>Harry: </strong>Now, so it wasn't just necessarily the results, but I think if I heard you correctly, it's also this factor of, time being shorter</p><p><strong>Mark:</strong>. Yes. It was. It's much more efficient. I mean, you know, Tuesday was a very small company and yet, you know, they've got 18 programs lunch and I think on 10 of them, uh, we have in vitro or, uh, animal pharmacology data with positive results and, you know, It would have taken years and years, especially for a little company, like, like this, to generate that data with traditional methods.</p><p>So it's like, Much more efficient. It gets you out of the triangle that manager's always talking about, you know, cost and time and quality. And you can get any two of those, but you have to sacrifice on, on that third one. Well, this just sort of, you know, breaks that all open and you can get really.</p><p>Good results, uh, are very fast and you know, much more efficiently than the, than the traditional approach. So it was, it was just a big jump, um, all the way around from the traditional way of doing things. </p><p><strong>Harry: </strong>Now, the other thing though, that you said is, and so I'm trying to use these two axes, right? One is time. One isyou are seeing patterns or pathways that. You were like, ah, not seen that before and opening up sort of a unique area to look at that you might be able to develop a new molecule again, which of course is a. </p><p><strong>Mark: </strong>Yeah, exactly. So that was, that was the really the exciting part. So, you know, there's a lot of, a lot of drug development and a lot of drugs are like there, you know, me too, drugs, they're second generation or third generation of something that does this and maybe there's incremental improvements, you know?</p><p>And the third statin that it's approved as better than the first one or whatever, but they're working by the same mechanism. What was interesting to me is that, you know, twoXar’s approach and their platform would identify molecules that were potentially effective in a given disease. And the approved ones would show up to or stuff that might be in development by the companies would show up to, uh, which, you know, it gives you some comfort that you're on the right track.</p><p>But what also show up is. Stuff that not only that hadn't been tested, but, but that have mechanisms where there's no drug that's approved or even been tested in patients with that disease that have that mechanism. So it's a whole new way of sort of treating the disease. So it's like the computers come up with a new or the actions of the computer, the whole system, yes.</p><p>Equal included have come up with a, like a new, a new hypothesis for what might work to treat a given disease that, that hasn't been tried before. And then we test those in animal models and it would. You know, test 10 of them in three of them pop up, uh, effective. That was very, very exciting. </p><p><strong>Harry: </strong>Yeah. I've, you know, I've talked to a lot of people where they have it, you know, they have a well understood process of making a molecule and then they, you know, to their system and say, well, you know, is there a faster way, more efficient way? And the system can sometimes tell you how to get to the same end result in a different way than anybody was classically trained.</p><p>Uh, that might bring down cost and decrease time and so forth. And so this doesn't sound, you know, I do can see similarities between all these approaches. Um, now the other thing though, that when I talk to Andrew, he's like, you know, his hypothesis was, you could shave off three to four years of time. In the whole process. Like, do you agree with that sort of, yeah.</p><p><strong>Mark:</strong> I mean, from, uh, what we've done so far from, you know, the, the, uh, things that we've taken furthest along in and have results back from, uh, nonclinical pharmacology models. Uh, yeah. You know, it was like something like four months. From, you know, saying we want to investigate this disease to having results in a laboratory animals.</p><p>And, you know, doing them at CRO is the same. CRO is at big pharma uses in sort of standard classical models. And most of that time, frankly, was, uh, for the actual conduct of the study, not the, all the, um, stuff that. Brought us to that prediction and the stuff that, you know, You know, traditional process that I would bring you to, that prediction might take, might years.</p><p>And here, you know, we had collapsed all those initial steps down into one that just generates efficacy predictions that can be, you know, immediately tested. So, so yeah, there's that sort of time and efficiency aspect of it. And then, you know, when there are new molecules or new mechanisms of action that made it really, really exciting.</p><p><strong>Harry: </strong>So now, I mean, but at some point the system generates what it is. It suggests. And then the human being though has got to look at it and be like,</p><p><strong>Mark: </strong>Yes of course. Yeah. Okay. So, you know, I can give you like a flow step and the first step is like all the computers. And then the last step is basically, you know, humans deciding what animal models should we use to test this.</p><p>Hypothesis. And then the intermediate steps, you know, span the range of more computer and less human to more and more human. So, yeah, uh, after the initial, you know, generation of possibilities, which might be, you know, A thousand come out or something like that. Then there is this winnowing process, uh, and ranking process.</p><p>And the first few steps of that are also computer assisted or AI assisted to rank them or, uh, eliminate molecules that might be too toxic or for a given indication, things like that. And there there's human intervention along the way until finally the decision as to which of the molecules to put into a non-clinical model is, uh, dependent on human insight and, uh, not, not AI.</p><p><strong>Harry: </strong>So, but at some point that information now you are working with the people actually building the models, right? So there's yes. I assume that, that, you know, I think of this as a figure eight, right. It just, at some point there's feedback, there's correction or there's modification of the, and then it just keeps going back and forth then just makes it better.</p><p><strong>Mark: </strong>Yes, exactly. </p><p><strong>Harry: </strong>I mean, it was interesting cause I was talking to someone earlier. Today from a big pharma and saying, you know, one of the companies I was talking to has said, they're constantly improving their, their algorithm. And he says, now we don't do that at big pharma because, you know, our model is pretty well set. And, and, you know, we're, unless we think that there's going to be some huge breakthrough. </p><p><strong>Mark: </strong>I know, I think we're on, I don't know. This is a question for Andrew, but version. I don't know, but I I'm sure. Pretty sure it's in, you know, hundreds of iterations of the, um, stop where, yeah. So there's this constant learning process.</p><p><strong>Harry: </strong>So do you, do you see this actually also affecting cost in development? </p><p><strong>Mark: </strong>Well, I think, you know, cost and timing sort of go hand in hand. It really, the way you achieve the tiny is because you're eliminating all these, you know, wet lab rate, limiting experiments, and those wet lab rate-limiting experiments also cost money. So yeah, there's, there's a big, um, cost savings as well as, as well as a time saver. </p><p><strong>Harry: </strong>But yeah, I think about it from a, uh, uh, uh, rate limiting, but also. I think the number of parameters, these algorithms can look at it as much more than, you know, definitely, definitely more than me. Right. </p><p><strong>Mark: </strong>I mean, that is how it comes up with new stuff that you and I haven't or other people haven't thought of.</p><p>It's, you know, I think, um, for one of the, uh, programs, um, lupus, I think, uh, they were like, Uh, Tom was talking to Erin who already, who heads up there, runs the platform. And it was something like 2.5 billion pieces of data that, uh, were going into this, that it was sifting through. So yeah, it's, it's more than more than humans can handle.</p><p><strong>Harry: </strong>So, but, and then I always think about like, the papers that have to be coming out of this. I mean, at some point, you know, you got to start to. Let the world know that there's this other potential pathway that you could use this, you know, or, or, you know, just to publish this stuff and say, here's a different way to come at these problems and make it more of a widespread now I know, you know, you know, as a startup, you want to be first and own it all. But I think about that just from a science perspective.</p><p><strong>Mark: </strong>Oh yeah. Yeah. I agree. I mean, there is, you know, there's that tension between proprietary and getting the information out. And so in terms of results, That's certainly something, uh, that we are publishing, for example, the lupus one on, I know that the abstracts have been presented or, you know, all the meetings are virtual now.</p><p>Uh, yeah. Uh, yeah, that where we've presented the, the data, uh, from those studies and also a couple of others, like, uh, cellular caution, Noma. And so the data is starting to come out and people can, you know, Judge for themselves and take a look at it's very positive. </p><p><strong>Harry: </strong>So now, uh, for, if you were talking to other people like with that, that have your background, so what, you know, how, how do you, and I'm sure it's come up in, in you've I'm sure you have this conversation with, with, uh, colleagues.</p><p>Yeah. It's what do you say to them and how do you frame it in a way that they sort of can get there? Their head around it, um, quickly, if right. And, and, and what are the skeptical comments that you get? Cause I'm sure that you and I get probably the exact same comments. </p><p><strong>Mark: </strong>Yeah, I think it depends upon, you know, it depends, it depends upon what they're looking at. So if you're, if they're looking at the results of a particular program, if they're looking at our SLD data, I just say, you know, just, just look at the data and decide for yourself and then ask yourself, does it really matter? You know, if I came up with the idea at work and Peter came up with it, so there was this, this game that I used to.</p><p>Um, play at Jazz. We were doing like, uh, opportunity assessment and we called it doing a pre-mortem. So we pretend, okay. We, we bought this asset and we did everything and executed according to plan and it failed. Why did it, why did it fail? And if you write down all the reasons it could potentially fail.</p><p>And you know, the last reason is because the computer came up with the idea. Yeah. That wouldn't stop us from moving forward with that program because in the end, you know, the FDA doesn't care. If a computer came up with the idea or, you know, whoever it, they care about a development plan about, um, development, rationale and your data.</p><p>So I, it's very easy to convince people on individual products. I think on. You know, the AI side, it's, it is more people are more skeptical and they're more like in my position and I have to say, look it, you know, put away your preconceptions about what AI is and you know, if you're like me and you thought it was about computers, playing games against humans and they, you know, it's a little bit, you know, maybe that's part of it, but it's a little bit more than that.</p><p>And if you view it as signal detection, Um, that might help you understand what the, what the potential is. And, you know, for me, that helped and also seeing the results, you know, repeat over and over, you know, convinced me that that was, uh, that was in fact the case. But yeah, we do run into people who are skeptical and say, Oh yeah, you know, this data looks really nice. And that piece of data looks really nice and this program looks good, but you know, they're not. I guess convinced that there's a block there and they can't see that, uh, you know, if it works three times or five times or 10 times that it's likely to, you know, keep working and, you know, we think that there are, you know, a thousand diseases that it might be applicable for.</p><p>There's some probably that it's not, you know, like infectious diseases, it's the platform. It's not set up to do something like that because you've got a third thing, the organism itself. But, uh, for other things, it's yeah, it's very broadly applicable. </p><p><strong>Harry: </strong>Yeah. I mean, uh, you know, we've always talked about it. Identifying new targets. Completely different pathways that, you know, have a major effect on the disease that nobody ever considered. Right. Um, and then, uh, the third is, is repurposing something that's already out there that might actually have a meaningful effect on this particular disease, but nobody is nobody's really using it in that way.</p><p>Mark: Right. Yeah. Yeah. You know, sometimes we come up with stuff like that too, you know, we'll be in our list of things that are predicted to be potentially effective. There might be, you know, a drug that's, um, on the market for something else. So that does happen occasionally. </p><p><strong>Harry: </strong>So, so, if you were coaching somebody and say, and that was working their way through the system. Would you tell them to study something? Would you tell them to. I don't know, read a particular book. Would you, how would you sort of coach someone along that was the you're younger? You? </p><p><strong>Mark: </strong>Um, I would say, always be guided by science and, you know, look at the results and look at the hypothesis and connect the dots. And if, you know, if you connect the dots and it says signal the texting AI works, you know, trust that and believe it and put away your preconceptions. You don't have to understand the details of the programming to see the results. And if you can just understand the inputs, and if you can understand that the idea that the computer can take two and a half billion pieces of data and process it, and you can't do that, um, And comes up with predictions.</p><p>Well, test the predictions. It's sort of empirical it's, shouldn't involve, you know, I'm a scientist, it doesn't involve belief or trust or whatever. It's like, here's the, here's the output. Did the output work? Yes, here's the input and this experiment here's out, but did it work? Yes. How many times do you need to, to see that to, to be convinced and, you know, you can just sort of be agnostic in your, uh, beliefs about AI or computers or traditional approaches and, and just, you know, just because you're used to doing something one way, And it's worked, although maybe, you know, slow and inefficient, you know, don't be closed to the idea that there might be other ways to do things that, uh, get you out of that triangle of cost and time and quality.</p><p><strong>Harry: </strong>Yeah. Another thing that I think about is the systems are it's, it's not like they're standing still either. They're in a constant state of improvement and evolution, which is just making them better over time. And we are collecting more data sets that the system can ingest and build into the model. So I think it's just, it's moving forward at a, at a pretty, at a very fast pace. I mean, you know, I try, I try to explain the, the speed at which things are happening to people. And it's very difficult for the human mind to understand. Doubling doubling, like has a ha I don't know why we have a hard time getting around.</p><p><strong>Mark: </strong>I mean, it's like, you know, science, sometimes things in science moves sort of in a linear, predictable pattern. And sometimes it's just, it jumps like, you know, the, cell vein drug interactions leading to the MedWatch system and signal detection for safety. What that, that didn't come up out through a linear process.</p><p>That was a jump and a response to a problem. And the solution sort of developed Denovo. And this is sort of, I think, a similar situation, it represents sort of a break from the traditional way of doing things. And you, you know, if you're open to an objective to looking at results, you should be sort of.</p><p>Okay with that. Um, you know, but there, you know, we get comments from, you know, you know, where's your, you know, five KOL’s in this disease area who came up with this thing, you know, the whole purpose of this, you know, we're a small company and we've got, we've got stuff in. That we're developing for SLE. We've got it for oncology indications. We've got some, you know, you can partnered with, uh, people in, in various therapeutic areas. We don't have, you know, we have, we hire a KOL as consultants and we need them, but we don't have this, you know, staff of therapeutic disease experts who have. You know, working for 20 years to come up with this molecule, but you know, there there's, you know, to give people credit.</p><p>There's a lot of companies in the Bay area that that's how they are start to some professor from Stanford and working on this problem for 20 years. And then they spin it off into a little startup company. And people can, you know, wrap their head around that, whereas, okay. Uh, Andrew and Aaron were working on this computer system and now we're going to apply it to pharmacology and we can apply it to oncology.</p><p>We can imply it, uh, inflammatory diseases and we can apply it in other areas and, you know, we've got results and that just, just it's different. </p><p><strong>Harry: </strong>Yeah, yeah, yeah. Yeah. I mean, I think in the other part is, is. If some new pathway comes up, that the system came up with. I mean, I'm, I'm hard pressed to find a KOL that really like, you know, would have gone. Oh, Oh yeah. That was, we absolutely knew about that. Right. It's what I find is they're like, Oh, I mean, I didn't even think about that one. And yeah, now that you're showing me the data that's short of, I can see how that might make sense. It just wasn't. Right in front of them. </p><p><strong>Mark: </strong>Yeah. It's what I would call retrospective predictability.</p><p>Now I can't think of it, but now, now that now that the computer did and all that, you've got positive results. I can see how that might work. </p><p><strong>Harry: </strong>I called that Monday morning quarterbacking. He should have done that. Yeah. It would have been a better play, right. So here here's, here's one of my, one of my final questions is, uh, you know, what do you tell those people that say, tell me, tell me the first drug that ever got approved by AI.</p><p>Like, you know, how do you, how do you manage that? Because I get that all the time and I'm like, well, he wait for that. Like, it it'll be over.</p><p><strong>Mark: </strong>Yeah. Yeah. I right. That's the thing. Their product development cycles are so long. If you. Wait for, if you, if your standard for, you know, accepting a new way of doing something as final FDA approval, um, you know, you're gonna be caught way behind the curve.</p><p>I think you have to evaluate the compounds as they've progressed every step of the way and say, You know, what are the results at this step? What are the results that that's done and are they moving forward? Uh, are they moving forward with better success or worst success or the same as the traditional process?</p><p>Um, I think that's, that's where we're at. I mean, that's one answer. The, you know, the other answer would be, you know, define what AI is. So, you know, there's. AI is sort of catch all thing. You know, some people would define AI as anything that's more complicated than you could do on an Abacus or something, you know, something like that.</p><p><strong>Harry:</strong> So I, whenever I'm talking about AI, it's, it's a toolkit, right. And depending on what I'm trying to do, I may pull out a different screwdriver or a wrench or whatever, but it's a toolkit of, of. Capabilities, processes approaches that you can take to solve a particular problem.</p><p><strong>Mark: </strong>Right. And people are applying in another areas of the, you know, drug industry looking, you know, um, using AI to develop biomarkers or are using AI, like patient recruitment things, you know, we're just applying it to, um, the first step and drug discovery.</p><p><strong>Harry: </strong>So how do you think. You know, if you were a betting man, since you were a jazz working sort of on this stuff, you are somewhat of a betting man, because you're betting on something, finding something new is, is, you know, big pharma startups, where do, where do you, you know, I'm sort of betting on, on startups because I think they're much more nimble and quick, but, but you know, there are, there are, there are good papers in the space coming up from big pharma. It's just. No, I was trying to figure out where, where do you think the world is?</p><p><strong>Mark: </strong>Yeah, I mean, there are certainly, you can fine exceptional to the robot. I think in general, most of the innovation is at small companies. Um, whether it's, you know, the small companies with the sort of the traditional ones that I mentioned, you know, some professors someplace had an idea that's being commercialized and then, you know, If it's successful, maybe they take it or maybe big pharma buys it.</p><p>That's why there's all these deals. And if you're looking at it, who's buying what, it's big companies buying the assets of little companies that did the, did the original innovation. </p><p><strong>Harry:</strong> But it's interesting though, because I think the buyer set has gotten has broadened. Right. Whereas normally I would think like it would be okay, Pfizer Merck, you know, like you go down the list right now.</p><p>I think there's, you know, potentially there's Amazon. Microsoft Google. I mean, I was just talking to someone and they were saying, yeah, we keep talking to Amazon about partnering, but you know, they're just missing data. And if they had data, like all of a sudden they become a competitor as opposed to a partner. So it's, it's a, it's an interesting, uh, dynamic of new names that are coming into the, onto the forefront.</p><p><strong>Mark: </strong>Yeah, I think, um, you know, um, my experience, you know, was more with the pharmacy, but I don't, I don't doubt that at all, that, um, more and more people are getting interested and maybe, you know, maybe the AI.</p><p>Component of that is more accessible to people at Amazon and Google than it is to, you know, people in the top five pharma companies. Maybe they're just more, you know, familiar with, um, how to manipulate large, large amounts of data. </p><p><strong>Harry: </strong>I, yeah, but I, I, it's interesting because I think you have to have both, I mean, at some point it's producing all this data, but then someone needs to look at it.</p><p>And, and think about ok a yeah. Okay. That makes sense, right. Or, okay. I can believe that B how the hell are we going to test that? Right. What's the model and how are we going to, and then what's the rest of the process going forward. And that requires some, you know, I wouldn't want to novice. </p><p><strong>Mark:</strong>. That's fine. Well, I did try to help them with that, to put that piece, you know, the, the, the program or the platform came up with this and it was always what was helpful and what sort of distinguishes it is aside from producing, you know, I answer or quote unquote answer in terms of a prediction. You could trace back why you know, why the computer like this one or why the computer liked that one.</p><p>And so that was very helpful to me. And that helps you design the, the appropriate, um, test model to put the molecules in. But, but a lot of AI, they don't, it, you know, it doesn't give you the rationale. It's sort of a black box type of product, and that's much more difficult to deal with. </p><p><strong>Harry: </strong>So this must also spur a lot of IP generation. </p><p><strong>Mark: </strong>I mean, yeah, I, yeah, absolutely. I think it has the potential to do that. Like obviously I can't tell you. </p><p><strong>Harry: </strong>Yeah, no, no, no, no, no. I'm just saying in general, right. Uh, as you're moving down this road and you're identifying things at a, at a, a speed much faster than others, right. And the IP attorneys must be quite busy or you hope they would be, you would get that.</p><p>Mark: That would be a. Predicted outcome. Yes</p><p><strong>Harry: </strong>Well, Mark, you know, any other thoughts along these lines that you can share with, you know, the people that are listening to this? I mean, there's, I asked physicians, listen to this. I have people in the pharmaceutical industry. I have my wife listens to it, right. As a lay person. It's, you know, anything you can share with that group from, uh, you know, Your experience that you, that you would want them to know?</p><p><strong>Mark: </strong>I would just, you know, have an open mind and make your decisions like a scientist based on results. Uh, and if you do that, you know, you're, you're on a good path. </p><p><strong>Harry: </strong>Excellent. Excellent. Well, I really appreciate the time. It was great to talk to you and hear this, uh, this story. Um, you know, as these products go forward, um, you know, we may come back to you and ask you to be back on the show.</p><p><strong>Mark: </strong>I'd love to come back. Excellent. Thank you. Thank you.</p><p> </p>
]]></content:encoded>
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      <itunes:title>How Drug Development Guru Mark Eller Went from AI Skeptic to AI Supporter</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:41:59</itunes:duration>
      <itunes:summary>How does an expert in pharmacokinetics, whose only exposure to computers was taking one semester of programming in college to meet a language requirement, become an advocate for the new AI-driven style of drug discovery? This week Harry finds out from Mark Eller, who helped to invent Allegra at Hoechst Marion Roussel (now Sanofi), spent 12 years at Jazz Pharmaceuticals; and is now senior vice president of research and development at twoXAR, an AI-driven drug discovery startup.</itunes:summary>
      <itunes:subtitle>How does an expert in pharmacokinetics, whose only exposure to computers was taking one semester of programming in college to meet a language requirement, become an advocate for the new AI-driven style of drug discovery? This week Harry finds out from Mark Eller, who helped to invent Allegra at Hoechst Marion Roussel (now Sanofi), spent 12 years at Jazz Pharmaceuticals; and is now senior vice president of research and development at twoXAR, an AI-driven drug discovery startup.</itunes:subtitle>
      <itunes:keywords>drug design, moneyball medicine, drug discovery, twoxar, andrew a. radin, drug, harry glorikian, mark eller</itunes:keywords>
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      <itunes:episode>47</itunes:episode>
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      <title>Andrew A. Radin Returns with a Progress Report on twoXAR</title>
      <description><![CDATA[<p>Harry welcomes back Andrew A. Radin, CEO of the drug discovery startup twoXAR, where scientists model pathogenesis computationally to identify potential drug molecules, ideally shaving years off the drug development process.</p><p>Harry first spoke with Radin two years ago at the AI Applications Summit—Biopharma. (Listen back to <a href="https://moneyball-medicine.simplecast.com/episodes/andrew-a-radin-from-validation-to-pharma" target="_blank">MoneyBall Medicine Episode 9</a> from November 2018 for more details about the company's innovations.) Since then, the company has begun to use what Radin calls twoXAR's "discovery engine" to test hypotheses about new drug leads in 18 different treatment areas, counting a dozen internal programs.</p><p>"We go after complex disease where we think there is not only an unmet medical need, but where we believe discovery of new biology can  unlock some opportunity for new therapy," Radin tells Harry. He says the company's approach compresses the time-consuming early steps of basic science, literature search,  hypothesis formulation, and high-throughput screening into a single computational step. "We're going to take all the existing knowledge about the disease and set it aside and see if we can't make some new discoveries about the biology as the starting point."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry: </strong>Andrew welcome back to the show. </p><p><strong>Andrew: </strong>It's great to be here. I think it's, it's been about two years since we, yeah, I was, </p><p><strong>Harry: </strong>I went back. I was looking at, I was like, when, when did we record the last show? I'm like, Oh my, two years. And two years in the world of data is like, </p><p><strong>Andrew: </strong>I don't know from the technology perspective, we've actually, let's see, in those two years, we've probably made about a hundred new releases, new iterations of our software over that time.</p><p>And so imagine, imagine like, you know, getting a hundred new versions of your car and of course technology just moves that fast. </p><p><strong>Harry: </strong>Yeah, no, I, it's funny because I have this conversation with people regularly of like, you know, Well, you know, is this software done? I'm like, listen, it's software. It's never done. Right? </p><p><strong>Andrew: </strong>Yeah. And so while it, it, it certainly depends. I think on how the software is deployed. I mean, there's, um, you know, as a guys built a lot of software systems, I've worked on, for example, early in my career in large scale, uh, telephony systems, the software systems that power, the nation's telephone calls.</p><p>And that's an example where you do a bunch of work, you do a bunch of testing, you deploy it and you don't touch it. Uh, in some cases for years, Uh, aircraft are very similar, right? Like cause changes. Um, you know, you would, for example, the software that powers your x-ray machine, you probably, you probably don't want that to change that often.</p><p>Um, but there are places where, of course you can dynamically change software know even multiple times a day. Right. Um, and uh, historically that's been more in web based applications, right? If you, if you go back to a website and you reopen your web browser, that software can change. And it's a very little, little risk.</p><p>And because of that, Um, you can actually increase the velocity of, of trying new things and trying new products and seeing what works and, uh, that sort of philosophy that, that rapid iteration is something we've brought to the drug discovery landscape, where our, our software stack, which is what we use in the discovery process.</p><p>Internally,we are changing that thing daily. Um, and then we ultimately get it to a, to a release that we, um, we use with our, with our discovery team. Um, but we are rapidly iterating that product. It's, it's been over hundreds of iterations, hundreds of software releases. And every time it's a small experiment, right.</p><p>We're going to make this change to our algorithms or data sources or that sort of thing, and see whether or not like, do the predictions improve, right. Are we actually making a new discovery or are we coming up with something that is more likely, uh, to be efficacious and safe? And we have some digital test to discover those things.</p><p>And that allows us to just move so fast, right? From the, from the computational perspective, as opposed to iterating, you know, in the physical world, right. We have an idea and you run a wet lab experiments and that can take months. And you just, you learn that one negative information of the course of a very long time, as opposed to the course of an afternoon.</p><p><strong>Harry: </strong>Yeah. Yeah. Well, I'm, I, it's interesting. Cause I'm sure that anybody from Pharma now is like a zillion questions are going through their head of like, how do you check this? How do you know that? How do you. You know, uh, but, but let's step back for a second. So two years ago, if my memory serves me correctly, you were sort of doing more services oriented, work, right.</p><p>Testing, what, you know, you had built out and now you've made this what looks like a much stronger pivot that we talked about two years ago to your own products. And how has that, how has that pivot and why. Why did you need to make that pivot in a sense? </p><p><strong>Andrew: </strong>Yeah, no, it's, it's interesting that that's, um, how people is seeing an externally, because internally, like from my point of view, our, our vision, our plans really actually, nothing has, has changed.</p><p>Um, but what has changed over the years is as we have more success, uh, we have the permission, if you will, to just gather more resources. And so in the, in the early days of the company, You know, we used our discovery engine, uh, to come up with, uh, new ideas. And what I mean by new ideas is, is our output from the technology, uh, is a new hypothesis, new understanding of biology.</p><p>We typically go after complex disease where pathogenesis is not very well understood. Um, and so as a result, we're, we're coming up with, with first in class solutions, right? These are these, this is biology. That's not been, um, not been tested in that disease before. And of course it comes coupled with a, with a molecule, with some chemistry to, to test out those ideas.</p><p>And so our, our initial, uh, programs were taking the output of the software, uh, with very little, uh, in some cases, no wet lab experimentation whatsoever. Um, and then licensing that knowledge, not, not necessarily a service deal, but you know, upfronts, milestones, royalties, the typical pharma deal, uh, to a pharmaceutical company who has the development team to then screen those molecules down, uh, identify lead, do the medicinal chemistry, all the, all the traditional work that comes post discovery, uh, to turn something from, you know, early chemistry and into a product.</p><p>And so we've been doing those deals, uh, for many years. Um, but part of. Uh, what we're very interested in, right? Which is actually meeting unmet medical need. Excuse me. And getting products to patients is, is all about the time. Right? And so it's very, time-consuming, uh, the sign up pharmas to, you know, go through a diligence process and in some cases, The time it took to negotiate the deal.</p><p>We could have actually gotten something to I and D at somebody's time. And so we sort of recognized, you know, how, like what, what are our Pharma partners doing that we, uh, that we can't do. Right. And that's about it. Um, preclinical execution, which to be clear, I think when, when we were speaking two years ago, I know we, we, uh, we were running back clinical studies on our own.</p><p>We had, we had that, but some of the other pieces around development, um, we didn't have as a team. So these days, couple of years later, we have, uh, new people in the company. So now our, our head of R & D is Mark Eller, uh, who wasn't with us back then. And so Mark, for those who don't recognize his name, Uh, he formally was, uh, the head of R &D at Jazz Pharmaceuticals.</p><p>Um, he was there, uh, for about a dozen years and saw it from its early days through multiple FDA approvals. Uh, and he's got a number of products, probably Allegra's the one he's, he's personally most famous for, uh, that he's brought, you know, to the approval process that, that make billions per year. And so now, now that expertise, um, is, is driving our R & D process.</p><p>Right. And so we're going beyond. Just the discovery and into the development. Um, and we've also brought on people like Anjuli Pandey, who formerly was, uh, the head of chemistry at Portola, uh, therapeutics. Uh, most recently was CSO at bridge bio. This, this guy has had a, had a very nice IPO recently. And so she's got, geez, Louise, I think over 60 patents to her name in the chemistry space, multiple products she's brought to approval as well.</p><p>And so she's leading the effort, you know, to take these, these, um, uh, early molecules, perform the med chemistry on them and get them into, you know, sort of the, the pharmaceutical product you would expect to go into the clinic. So we've been pulling those resources into the company. And now, you know, relying a little less on our pharmaceutical partners to do the development for us.</p><p>And we certainly, we continue to do those deals. We have, we have the ability to go after more diseases and we have the resources to pursue ourselves. So we, we continue to do deals like that, where we hand off the discoveries to others. Um, but nonetheless, we've got about a dozen programs now, internally that we're developing on our own, um, using our resources and using, using CRS.</p><p><strong>Harry: </strong>Now, how quickly do you, you know, because of the engine and the capabilities, right? How, how. When you're trying to explain timeframe to someone, how do you frame it? Of how much faster the system can get you to something that looks like you should go after and then actually helping, you know, design a molecule and so on?</p><p><strong>Andrew: </strong>Yeah, well, we, um, these days we say it saves years. We, we used to be a little more, more granular on that. Um, but the reason is it really depends on the disease area. Yeah. And sort of what the starting point is. Um, and so for us, as I was mentioning earlier, we go after complexity where we think there is not only an unmet medical need, but we believe where discovery of new biology can really unlock, you know, some, opportunity for new therapy.</p><p>And so if you look at the traditional approach of, you know, coming up, essentially with a new target, and I want to be clear, like we don't go to the literature and find a target and then, you know, start developing rather we collect a bunch of data and we, we discover those targets ourselves. I mean, if you look back like the heyday of big pharma, right?</p><p>In like the seventies, eighties, this is what they did. Right? Like they discovered new biology. They came up with new targets. They. Uh, you know, uh, came up with some BioEssays and that sort of thing to try out, you know, a bunch of chemistry hypothesis screen, right. And eventually little that down to some hits that they'd moved forward.</p><p>Like all that work. From the traditional sense. And by the way, like not many people do that anymore. Certainly not under one roof. Like we like we do. And the reason is as you just identified is it's just so time consuming. So time consuming to go through each of those processes, because the traditional approach is to do a lot of basic science and literature search and, you know, forming hypotheses and, and it's, it's a, it's a long road, right?</p><p>To get to the point where you've completed that first high throughput screen and have some hits. And so we do all of that in computation. Right. And so that saves you years. Um, and I would say some of the people that go well, does it really save yours? You know, there's, there's certainly companies that will in license, a molecule or they'll take something that other people have started in there they're, you know, being it's, it's being handed off to them, or they're pulling something in, from an academic lab or whatever. They've read about a target in a, in a, in a paper recently. So they've got a head start, right?</p><p>So that's maybe where there's a debate on the year saving, but I'm, I'm talking about like the old school approach. Uh, we're gonna, we're gonna just. You know, take all the existing knowledge about the disease and sort of set aside and see if we can't make some new discoveries about the biology and that's the starting point.</p><p>Right. And if you think of it from that, that perspective where I think the real opportunity is, um, in terms of making a big difference in, in going after something new, um, that is something for sure. We're saving years in the processing. Yeah. </p><p><strong>Harry: </strong>I mean, I've had discussions with Joel Dudley about like, okay, you know, let's put all the data in and let's look at what the data is showing us in the direction.</p><p>And, and hypotheses that we can then go chase down that we in our, you know, even the human brain is an amazing instrument, but it's, there's way too many data points to look at simultaneously.</p><p><strong>Andrew: </strong>Yeah. Like I meet for me to keep three things in my head is, is a good day. I mean, I look at billions of points of information and not only that, but to figure out like, what's, what's a false positive, right?</p><p>Like what's, what's a coincidence versus what's signal. Um, you're right. That's, that's not something that human brain does very well, certainly at that, at that scale. And so, you know, we're looking for, uh, uh, the patterns that represent signal versus the patterns that represent coincidence, if you will. Um, and that's not something that humans can easily view where they can look at, you know, massive.</p><p>You know, troves of information and, and try to try to draw those parallels, especially when a lot of the information we're actually processing doesn't really lend itself to like giving you an answer. A part of, part of it is going through it and figuring out what's relevant and not. And, and most of that of course is, is not relevant.</p><p>Right. It's it's um, uh, as Mark often says, you know, it's like looking for a needle in a haystack, right. And so that's. That's something that human brains can't do very well. Um, and I would say that one of the interesting things that comes out of this, we might even talk about this a couple of years ago.</p><p>But, uh, when we, when we go through this, this process and we come up with these ideas, all of our disease programs, every disease we work on, um, we have, we have okay well, we, we often connect, you know, with a luminary in that disease area. Um, and we, we bring them into the, into the projects and. You know, we show them the output of, of what we have or like, look let's, these are, you know, we say our ideas reality is the machine, the machine came up, the ideas, what do you think?</p><p>Right. And so part of it is we're going after novel stuff. Right? So they tend to say like one or two things, like one thing is like, Huh? I like this. This is an interesting idea. I hadn't thought of this before. You know, it kind of reminds me of something like, you know, okay. Like, you know, like, like seems crucible, let's try it out.</p><p>Um, but the other thing they say is I'll look at stuff and they'll be like, no way, like, yeah, like this is just stupid. Like you are wasting your time. Right. And, and those are my favorites. Um, we don't do this anymore, but we use, we used to ask people to write down, okay, we've got these 10, you know, these 10, the theories, if you will, at least 10 different targets, we're going in these 10 different molecules.</p><p>We're going to go screen. You know, you, disease expert, you tell us which ones are going to work and which are not. And, uh, and we found out that the disease experts were no better than random and in picking the winners, um, which I think is very, uh, sort of telling about. Uh, how little we know as, as humans, you know, inspecting literature and sort of the capacity of the human brain to sort of understand against, you know, again, these, these, these massive sources of information what's relevant and what's not.</p><p>Um, and so, you know, we've, we've had a number of, uh, very exciting and very pleasant surprises, you know, where we see through the screening process, we see signal and ultimately, you know, we get down into in vivo studies, you know, these, these gold standard models. Where we compare against standard of care.</p><p>Right. And then we see, uh, in many cases, you know, our molecules are showing stronger signals of either efficacy or maybe similar efficacy signals, but stronger signals of safety. And that tells us we've got something that's really compelling and worth moving forward. </p><p><strong>Harry: </strong>Yeah. I always find it. It's a fascinating discussion, you know, and when like, again, you know, going back to Joel and Alzheimer's and him pointing out to people at NIH that, you know, look herpes, simplex two might be.</p><p>Right. And everybody was like that. You crazy, right? Yeah. Hey, listen, here's all my data. You'll run it. And you see what you find. Right. And, and so I, I think NIH now is sort of thinking about how to come at this a different way, but I always find that fascinating is like, you've got this incredibly complicated system and you're looking at this narrow little window that you are an expert at.</p><p>And how could it not be that anything outside that window influences what's happening in that it's, it's sort of mind-boggling. And now that we have computational capabilities to sort of, I don't want to say brute force, but I feel like 10 years from now, we're going to look back and go, damn, that was brute force.</p><p>We have much something much more elegant now, but a way of looking at these and looking at the complexity and seeing that a pathway that we never even thought of. Has an influence on this disease, um, is fascinating to me. I, how the whole industry isn't moving in this direction much faster is sort of always mind boggling to me, but I understand that.</p><p>You know, your expertise is not wasn't necessarily drug discovery from day one. </p><p><strong>Andrew: </strong>Yeah. Look it's it's um, I think computer scientists, as we've gotten, I think more involved in this industry, um, we represent disruption. It's a very different way of thinking. And, and disruption takes time and industries, you know, resist disruption, you know, quite frankly, um, you know, I, one of my startups I did, uh, Nolan Bushnell was, was the chairman of the, of the company.</p><p>If that name doesn't ring a bell, not only did Nolan start Chuck E cheese, which he's very famous, but, but before, before Chuckie cheese, he founded a little company called Atari. And before Atari video games, the video game industry didn't exist. Okay. And so when I, when I first met Nolan, we went out to dinner and like any person who's just, you know, in awe of such an amazing technologist in a, in a pioneer, you know, for that industry, uh, we went out to dinner.</p><p>I'm like, so Nolan, you know? Right. Yeah. I'm just like, like this eager, eager young man. Tell me the stories of the, the days of Atari and, and at the time, uh, at our, at our, uh, startup, we were, um, uh, working on some fundraising. And so he, he told me this story. So you have to understand, like, let me set the scene, right?</p><p>This is like maybe late sixties, early seventies. And, uh, and I'm sure maybe Nolans going to listen to this podcast. I'll send it to him and he can get the story, right. Because this is a long time we had this conversation. So I'm, I'm sure I'm going to get the details wrong, but the, but the core of the core of the messages is there anyway.</p><p>So it's, you know, it's around that time period. Um, and video games don't exist. Humans have never seen them. They don't know what they are. Okay. And so he's, he's working on this he's she's building pong or whatever he's building over, over here in Sunnyvale and next town over. And, uh, and he's chatting with people in, you know, the, the game industry, but with that in air quotes, the game industry, I don't recall who it is specifically, but let's just say it's Parker brothers, right?</p><p>So he's, he's sitting down with the fine folks at Parker brothers. He's like, man, I've got this new, exciting innovation. It's going to change, uh, the gaming industry as a whole and just being a personal entertainment and I've combined computers and games and have made this thing that's called the video game.</p><p>That's going to be the next. Huge thing. Okay. And so he's telling me, you know, the guys from Parker, brothers, whoever it is, they're like Nolan, Nolan, right? Sit him down, hand on the shoulder. Uh, so first of all, games are made out of paper and card. Okay. But, but more importantly games, you sit around the kitchen table with your family and friends, and it's a social experience where you interact in the point of the game, you know, is this, is this social gathering.</p><p>And you're telling me, you're going to make a thing where people are going to stare at a television. And that's going to replace, you know, this, this whole sort of social ritual that is games like Nolan, you're an idiot get out of here. Right. Uh, and of course, you know, we know what he did. He, he built pong, he put it in a bar over in Sunnyvale and people lined out the door, pumping quarters into it, and the rest is history.</p><p>Um, but that, that story, I think really resonates for me because does your point, like looking forward to the future? Like the video game industry is today. It's like an obvious thing. If I'm not mistaken, it pulls in more revenue than, than Hollywood does, you know, from movies. Like it is just part of our culture.</p><p>It's just part of our experience. It's, it's part of, you know, growing up kids playing, you know, video games, uh, and, and before, you know, Nolan came around, like, people couldn't understand this, this what's now obvious, this thing that was coming. And I think in a very similar way, you know, as a computer scientist, who's worked on a variety of industries and Marc Andreessen.</p><p>Right, right. One of our investors, Andreessen Horowitz, like talks about this talks about all the things you used to buy at radio shack that are now just in software, right? Like all this, this stuff has been replaced. Um, and I think in a very similar way in this industry, it's, it's tough to imagine what it is until you already have it.</p><p>Right. And so for someone who, you know, started this company many years ago, and I've been very consistent in like my belief systems and what we do, and like our output and I've, I've gone from, in the very early days, everyone said like, this will never work. You know, you're a fool. Right. Very similar to the Nolan thing.</p><p>There were these days, maybe like half the people say that maybe a little more than half. Right. But like all the tapping, just the passage of time. And what's happened in that passage of time is people are starting to get a hint of what's possible, you know? And I also have an a conversation actually the night before last, or as I was chatting with an investor who was talking about, um, sort of his belief system and what's happening.</p><p>And so you, you look at, you know, recent IPO's like, like relay and Schrodinger. Uh, of course the guys at Roy van are doing extremely well. Um, and, and he was sort of saying, you know, because of the acceleration of technology. Uh, people are coming out of nowhere and they're challenging, you know, these large established pharmaceutical companies.</p><p>Now they have the advantage of products on patent for many, many years, and it's going to take a while to disrupt. Um, but this investor who, who I think was very thoughtful, it was sort of saying like this, this disruption. Is coming with, with so much momentum behind it. Um, and we believe, you know, some of these, these what look today, like small sort of innocuous players, um, are really going to disrupt the, the field and, and make huge changes in the pharmaceutical industry as a whole.</p><p>So that was an interesting perspective. Just kind of tying all those pieces together, where. You know, innovation and disruption, it comes from the outside, right? I am, I'm definitely an outsider, right? Like I, I built mapping systems and systems and advertising networks. And here I am making drugs. It's, it's kind of a weird transition from that standpoint, but it's, it's highly connected to this idea of, um, bringing disruptive ideas into a rather entrenched industry.</p><p><strong>Harry: </strong>No. And I, I mean, look, I I'm, I try to read everything. I could get my hands on from the tech side. I'm scanning constantly. Um, I was listening to the, the, the guy who has the title futurist for paramount pictures. Nope. How about what they're working on, right? Yeah. I was thinking about that too. Maybe I can transition my next life into the future is that's a really cool title. </p><p><strong>Andrew: </strong>Yeah. </p><p><strong>Harry: </strong>But, but hearing about, you know, all these different sort of plays moving forward, you know, using. You know, uh, augmented reality and things of, of nature, of how you collaborate and so on and so forth. And you superimpose that.</p><p>I take all of these things and they try to superimpose that on our world and you can see the ball moving forward in ways that to someone who's only looking in the field cannot see. It's like looking through one hollow lens and you can't see the rest of the picture. That's developing around you. And, you know, I find fascinating that the status quo can't see that there, the world is changing at a rapid pace.</p><p>Now I do believe that COVID, we're going to look back at COVID and yeah, I know it's a, it's a negative for, for all intensive purposes, but I think from a moving things forward from a technological perspective, I think it's been a huge shot in the arm for remote monitoring of patients, for telemedicine, for all these other areas.</p><p>I think it's moved it forward five to 10 years, and I have to believe things that you're working on are now, or even should be even of more interest to a therapeutic company. Because if you can't get everybody in the same room to do the experiment, how do you do the experiment to move it forward faster?</p><p><strong>Andrew: </strong>Yeah, no, look, I think those are, um, excellent observations. I think, um, uh, COVID is definitely an interesting time. Just sort of see how technology helps influence, um, society and you're right. Like, so here we are. I mean, the last time we did a podcast, we did it together. Right. We were standing together, where were we were, we were at the Harvard medical center.</p><p>We were, you know, in a hallway together and, and, you know, around the table recording and, and, uh, you know, we're thousands of miles away together. I've got to. You know, a fancy fiber optic cable, you know, coming into my house. I know what you have on your end, but like, I, I see you clear as day and here we are recording a podcast.</p><p>Right. And so, first of all, how cool is that? Now I recognize like that's something we've probably had for five or 10 years, but none the less like that, the point is, um, we're, we're still able to put this material together without physically being together. And I think, you know, even in our own company, As, um, as a, so Santa Clara County, which is, which is where we live and where our offices are, you know, we were one of the first places in the nation to have, uh, detected cases.</p><p>Uh, and so, uh, the health commissioner here, um, was one of them was one of the first places to put shelter in place and we knew it was coming cause we were, we were connected to some people. And so at our company, we, we trained everyone on how to use Zoom and Slack. And, uh, we had, uh, we had a goodbye party on a Friday, you know, we'll see, I'm sure we'll see each other again soon.</p><p>We're not. And we prepped everyone off and off we go. And the next Monday we started operating our business, um, completely through, you know, technology completely used for video. And, um, we have not gathered, uh, as a group in our office since this was months and months ago. And throughout this time, uh, in the early days you had some little adjusting you know, figuring out how to do this, but like, you know, by and large, like we're, we're operating, uh, just as efficiently and moving forward just as we were before.</p><p>We're in that physical space together. Now I will, I will certainly say there is, um, value to being together with people and sort of the, you know, there's, there's more than what just happens during the meeting time and, and building personal relationships. But, um, you know, it's a big question. Like, are we going to be able to function as a company without seeing one another?</p><p>And the answer is yes. Right. And, and I think one of the things that COVID has done for that type of question is like, okay, just this whole, you know, remote work stuff. No function. I think it was Melissa Meyer many, many years ago, like said very famous decree. Everyone at Yahoo shall come into the office, a Yahoo.</p><p>It will be no more remote work. And here we are now with all these big tech companies and small ones like ours, everyone's working remotely and it's. Kind of working out. Right. </p><p><strong>Harry: </strong>So it's interesting. Right. I mean, Google just announced right. Then nobody's coming back to the office until July. </p><p><strong>Andrew: </strong>So next summer. No problem. Yeah, yeah. Next year, next year. Yeah. So like, I, I think what that means is, so now, you know, people are, um, you know, in many industries, not, not all of them, um, you know, able to work from home. You know, we have people in our company, you know, my, my chief of staff. Uh, she was, uh, she was born in Mexico.</p><p>She's been living in San Francisco, you know, she just said to me the other week she was like, look, she's like, I'm in this, um, rather expensive apartment in San Francisco and you leave, uh, you know, they, they got the internet in Mexico and it was odd. She asked me, is that cool if I, if I, you know, go to Mexico and I'm like, why not?</p><p>Like, you know, like, I'll let you know when, when there's a chance we'll be getting back together in the office, but like go for it. And she's like, awesome. I'm going to go live like a queen. Right? Like it's. And so. That recognition that, you know, even, uh, physical places, you know, like, like why do you need to be in a high rent area, if you can just, you know, do your job effectively some, somewhere else.</p><p>So anyway, so all these, all these things are kind of unraveling. And I think to some of your points on medicine and healthcare, I think the other thing that's happened is, is people are very nervous to go in and see their clinician because they think there's other people around who might have covered. I don't want to get that.</p><p>And so, yeah, like the whole telemedicine. Piece of it is taken off, but, but the whole point is like, um, using technology, using the internet using, you know, like the technologies we're using right now to interact with folks, uh, on all sorts of levels, whether that's professional, whether that's, you know, that's patient care, um, all of that, the barrier has just dropped.</p><p>Right. And so I think it's, it will be interesting to see post COVID world what it does. Um, like are people are going to like get back into the office or not, right. Or are people going to think every time they're not feeling well, they need to go see their doctor or they're going go, Hey, you know, I think I'll do that mobile app thing that I did before, you know, last year, because it kind of worked and I realized I don't have to drive anywhere.</p><p>And yeah, I think those, those, um, events helped push innovation forward for, for sure. </p><p><strong>Harry: </strong>So stepping back to where you are, do you think your, your. From a timeframe perspective, you're moving the ball forward faster by compared to say, you know, a traditional process, six months a year, two years. What's, what's a wild guess.</p><p><strong>Andrew: </strong>I would say on average, if, if you're going to do a completely Denovo process from scratch, you know, we're saving about three to four years. Um, there's a point at which, you know, our processes don't speed things up and that's, as soon as we get the mouse involved, right? Like, I, I can't speed up the tumor growth than the mouse.</p><p>I can't say the activity of the, uh, of the potential medication to, you know, inhibit that tumor growth. I can't speed up the, you know, the histology and all the work that happens post that and all the activity that you need to do. And rightly so right. To, to carefully prepare for 90 filing. Cause, you know, when you get to the point where you're gonna test something in humans, you, you want to be absolutely sure.</p><p>Um, you're, you're being safe about it. Um, and you're, you're, you're doing something that's, that's worth the risk that you put onto your, um, your clinical trials efficient. So all of those processes, uh, they don't necessarily speed up. I, I think really where we're about speed in the discovery process. I think the real opportunity.</p><p>Post discovery is efficiency, not necessarily speed. Um, but you know, with patient trial selection, for example, um, finding the right population, finding the responders, you know, being able to do things where you maybe don't have to have as large a group, uh, you know, in your, in your clinical trials and example, those are things where now efficiency and cost efficiency. Uh, become, I think some of the values of what you can do with computational methodologies B can't really speed up, you know, a preclinical study or a clinical trial just to the nature of the biology and the time. And so that's how I see it. The first half is about speed and the second half is, is maybe it's more than half, but the rest of it is about just, just efficient use of, of capital, uh, to get the results that you're looking for.</p><p><strong>Harry: </strong>Although I do see, you know, trying to look at the entire value chain. There are companies using computational methods to sort of find patients faster, make sure they, you know, they fit the trial better. Um, you know, remote patient, uh, remote clinical trials are becoming more of a thing. So I think we're seeing computations sort of failing gaps that can be filled in by that by technology advancement.</p><p>So I do see the process shortening over time from end to end, which I'm hoping also translate to. A lower cost at some point from end </p><p><strong>Andrew: </strong>I think there's definitely the efficiencies to be gained throughout the whole thing. I think, um, again, if you're looking for, you know, we take some things that normally would take years, this is something we used to say early in the company, and we got critiqued.</p><p>So we stopped saying it, but it's still true. Right? Like we take, um, that very early portion of just understanding the biology, which, which can take many, many years. And like, you know, the computation does that in a couple of minutes. And so. That sort of stuff. That's a dramatic, you know, multi-fold, you know, increase in speed.</p><p>Um, and I'm not saying that some of the things you've talked about, uh, won't increase. I think the efficiency from that, from the speed perspective, but it's not going to take a process that takes, you know, four or five years and turn it in three minutes. That's for sure. </p><p><strong>Harry: </strong>No, no, no, no, no, absolutely. And you know, it, it, it begs the question of, you know, like we need to rethink how we teach biology.</p><p>Right and understanding these things. Right. And it's, uh, I remember doing a lot of reading, a lot of textbooks, a lot of experiments. I feel like most of that now would be, I'd be sitting in front of a terminal and combining pieces of data and, and, and coming at the whole learning process differently than I than when I was learning.</p><p>Yeah. </p><p><strong>Andrew: </strong>You know, that's, that's an interesting thing to poke at. Um, Well, let me, let me share some thoughts here. And I don't know if there'll be interesting if they, if they're concurrent with some of the things you're thinking. I think, um, so, so, uh, let me, let me gather my thoughts. Okay. So when I, when I'm, um, when I'm screening, when I'm, when I'm interviewing a software engineer, Um, to work on my team.</p><p>Uh, of course, now that people are gonna listen to this podcast, they're going to know what the answer is when I prefer one of the things I asked them, as I say, man, like, imagine it's, you know, whatever, the 17 hundreds, the 18 hundreds computers don't exist. Technology doesn't exist. You're still you, right?</p><p>You're you've been magically teleported back in time. What do you think you'd be doing? And it's very interesting. And I get these answers like, Oh, you know, I'd, I'd be a school teacher. I think that would be an awesome thing or whatever. I would be a musician, all this stuff. And, and then I, and then, you know, this is like the hook.</p><p>And then I go, well, why aren't you a school teacher now? And then the answer is, well, because software pays better. Right. Which, which is a reasonable, a reasonable thing. But what it says to me is that, um, there's a lot of people in the field. That don't do it because it's their passion or their interest, or it's, it's something that really excites them.</p><p>It's like, I can make some money at this. And I think the best computer scientists and the best engineers, I know. They are tinkerers there, there are people who, and they're also creatives, right? Cause because software has gotten this, um, uh, this artistry to it where it's it's the tool set is so wide and you can do so many things with it that, you know, like the people that are really into software, like, and you know, another great question is like, so what do you do in your free time to see if they actually write software for fun?</p><p>Which by the way, while I'm chatting with you over here on this window, I'm writing some software, um, to do something personal on unrelated to work, but like there's a, there's a, I think a, um, a connection between, um, really becoming an expert in your domain and also just like truly enjoying it, truly enjoying the, skill and the trade and that sort of thing.</p><p>And I, I think that. There's a personality that, that, um, science attracts, you know, people like me, computer nerds, right. Who really enjoy software. And there's, there's different personalities that, attract different things. And I think it's, it's really hard to find someone. Who really enjoys, you know, like the biology and the sciences and software together.</p><p>I mean, when I, when I was studying this in school, most of my classmates were medical doctors. They, they had a medical degree, probably like 75% of them. Um, and so they're, they're trying to, they're trying to learn software, right. And if you have them like really connect with it and they really enjoy it and it's their passion.</p><p>And I think those are also the people that just produce, like the coolest stuff. Like you, you did the podcast with Jake, I think maybe a few months ago. So Jake, I met him at Stanford. He was one of my classes, but like, he's one of those guys, right? It's like this biologists software tinker dude. And like, you know, we, we would get together and left philosophize on stuff and like, yeah.</p><p>Like, that's the kind of person you want to see, like just making big changes in the industry and like he's doing that. Um, but, but my point in that is there was a bunch of other people in those. Classes and there's, there's some other people like Tim Sweeney is another one who, um, uh, I think actually was a surgeon originally, and now he's doing inflammation, just doing super cool stuff. Combinations. There's a bunch of other people in his classes are kind of like medical doctors are like, you know, I should learn software because it would be good, you know, kind of thing. And I don't want to call anyone out, but I remember like one person who was, um, A project due or something like that and see what it was before class.</p><p>And she was complaining. She was like, Hmm, I can't do this. I spent my whole day yesterday working on the software and I couldn't get it to work. And it's like, it's using up all my time. She hated it. And I also spent that amount of time and I'm like, this is cool. Like, this is fun. Like this is putting this thing together.</p><p>And so I think. Taking people and saying, look, you know, as a biologist, now you have to learn software and we're going to pound you over the head over it. Like, I don't know if that actually will transform and look, and maybe it'll, it'll light something in someone who didn't know that that would be of interest to them.</p><p>But I think it's really gotta be connected with, um, the personality and sort of like the enjoyment of the person. And I, don't know if that happens. That late. I think it can start much earlier. Um, look, I first touched a computer when I was, um, jeez Louise and it's like when the Apple two came out, I mean, Apple had a headache, everyone, every, you know, school got a free Apple, two computer.</p><p>And, um, I was fortunate enough that my parents were able to purchase one, but I was a little kid, you know? And so that's sort of where the passion started for me. And I think that's. Uh, for whatever it is, whether it's biologists or whether you're working in engineering or whether you're working in financial services, it doesn't matter.</p><p>I think that, um, exposing really children to software and programming and that sort of stuff, like some are gonna. Connect with it and enjoy it. And I think those are the people that eventually, as they get into different sciences and different disciplines will use that enjoyment and that skill to do something interesting with computer science.</p><p>But it's just, it's just my belief. I don't, I don't think you can take someone at like the college level. Who's getting into biology and be like, Hey, let's</p><p><strong>Harry: </strong>no, but I, I think, and what I meant by, you know, teaching it in different ways, you know, my fundamental belief is that, you know, everybody should be Ssteeped in software, not necessarily to do it, but to understand it as a process, as a language, as you, cause at some point you're going to interact with it. So you might as well understand it, even at the basic level. And then as you're going, you know, going forward, you know, if you want to take on different careers, you, there, there needs to be a combination of this.</p><p>You still are. You ended up like when we were in applied Biosystems, you're like, okay, Get the computer science guy and get the IT guy together and get the, uh, biologist together, put them in a room and, you know, having to make something and nobody could understand what anybody was saying right. For the first like third year.</p><p>Um, but, uh, but on the other side, you're absolutely right. I mean, my, my family is always saying like, you're working all the time. You're working all the time. I'm like, look, let's get something straight. Every once in a while there's a pain in the backside. I need to deal with it. I don't want to do, but for the most part.</p><p>I mean, I'm in a kid, in a candy store every day. There's something new every moment. And I'm like, this is the coolest thing ever. And I get to be involved. Well, that's, that's not work. That's just fun.</p><p><strong>Andrew: </strong>No, and that's, that's an awesome place to be, you know? And, um, I think part of what drives innovation and change and industries are, are people who are really just connected with that passion.</p><p>Um, and they have the drive as well. Like there's, there's something behind them that, um, you know, really inspires them to go and do something and, and, and, um, try to do something new. I think innovation is. It's a hard game. I mean, I, as I often say, I've done these startups, you know, I wish I could say everyone would, this was an astounding success, you know, was bought by Apple, which, you know, I always liked to talk about, uh, I don't always talk about the one that, you know, we raised geez, 23, $24 million building exploded it.</p><p>I guess every, every startup is spectacular. This one was spectacular in the negative, in the negative sense. But, um, you know, I think you also, uh, for people that, um, want to change the world and change industries. It's, it's tough to describe, but like, uh, it's not necessarily the grit, but it's like, it's, it's the enjoyment of like the challenge.</p><p>And, you know, I think Michael Jordan has some great quotes about, you know, all the times I missed, you know, as opposed to all the times I was successful. And I think part of changing industries is like, You know, you just hear no, all the time. As I was saying earlier in the, in the podcast, you know, in the beginning of this company, you know, with a few exceptions, it was certainly nice to have VJ at Andreessen and be like, Oh yeah, this is it.</p><p>Or I'm giving you some money. Let's see what happens. Um, but like everyone else I've talked to is just like, no, no, no. And there's a, um, I think there's a, a type of person as well, who just sort of listens to that. And I don't hear, no, I hear. Not yet or not now I can just sort of, by my reality, right.</p><p>Distortion field kind of puts, puts words in people's mouths that they're not saying. And I think all those things kind of combined together, right. We've been talking about these different things. I think there's the, there's the passion for the technology and just sort of having like the, the, um, uh, personal interest in sort of those things.</p><p>There's the, um, You know, again, the feeling like it's not work, it's just, it's something that brings you, brings you joy and it's really engaging that sort of thing. And then I think that final piece is just, you know, people who enjoy, uh, a challenge and doing something, uh, very difficult and, you know, the no’s don't discourage them.</p><p>The no’s only encouraged them. And in some cases, I think it's kind of the combination of all those things that make industries change. And I think, you know, kind of the theme we've been talking about is just sort of changes in, um, In life sciences and healthcare in general, I think finding people like that and really tapping into them and giving them resources to go, uh, go try some things and to sometimes fail and to sometimes succeed.</p><p>I think that's what really is gonna make the biggest movements, uh, in our industry, right? Because those are the, those are the risk takers. Those are the pioneers. Those are the visionaries who want to do something new. And I think the more we do to help support and encourage. Uh, people have that mindset and that way of thinking and that, that sort of endless energy, uh, to go out and do something is, um, is something that's only gonna make the world better.</p><p>And, and, um, uh, and therefore we should, we should embrace it as much as we can. </p><p><strong>Harry: </strong>No, I totally agree. And it, don't tough. The tough part is finding those people, right. And they're not falling off trees. Uh, I can tell you, at least with all them, you know, after all these years of all the people that I've interacted with there, most people are just too nervous to take that path, but, uh, I try to encourage them to do it.</p><p><strong>Andrew: </strong>That's where, you know, startup incubators and places where people who don't know, or maybe a little timid can come. I mean, I'm, I'm deeply involved with, uh, with Stardex. I'm a judge there. Um, I, I sometimes lead the neighborhoods and, you know, it's, it's often, um, you know, students that are, that are coming out of Stanford who have got an idea for a company and they just don't know where to begin.</p><p>Um, and what Stardex does is it is it's a community, right? It's a support system. It's, it's a whole set of other people in similar circumstances. Uh, whether they've, you know, had some success through their very early themselves, um, to work together as a, as a group and as a community to help people get there.</p><p>Right. And so I think that, um, type of thing, uh, whether it's a startup incubator, that sort of thing, you know. I wish we did more on the governmental level, uh, to encourage innovation, um, and put, you know, pieces in place where, you know, young, bright people come out of school and, and they've got a choice, man.</p><p>This is, I think I've said this before in your podcast, but if I did, I'll repeat it again. But like one thing that's man, is it annoyed me is, you know, people will, will graduate with a degree in biomedical informatics. They literally learn how to use computers to solve medical problems and save people's lives.</p><p>Okay. And then the likes of Google or Twitter, or Facebook will show up with a wheelbarrow full of cash and say, Hey, you know, you know how to write software, you know, these, that, that skills in short supply, why don't you come with us? And, you know, we'll, we'll, you know, deliver movies to people. And not that there's anything unethical about delivering movies to people, but you've literally just learned how to save lives.</p><p>And as. You know, a student who's coming out of school and they're just sort of like, geez, what do I do next? And there's this big, impressive paycheck. And they've probably got some debt and we're thinking about, geez, I want to, whatever, buy a house, start a family, all those things that young people think about, it's really hard to go.</p><p>Yeah. You know, instead I think I'm going to just eat, you know, tuna fish sandwiches and sleep on my friend's couch. Cause I have this idea for a start up like practical. That's not an easy thing to do. And so I think if we did more to help encourage and by encourage, I mean, supply. Young entrepreneurs and people who want to experiment with the resources, not only the financial resources to operate a company, but so they can, they can have a reasonable existence while they're trying to these things out.</p><p>Um, I think the better off we are, we'll be as a society. If we put more, uh, sort of, sort of leverage behind again, governmental resources to help people like that. I think we can do a lot more innovation as, as a, as a country and as a nation. Um, to improve, you know, not only obviously talking about the medical space, but like all sorts of other things, you know, whether it's materials or aerospace or transportation.</p><p>I mean, there's, there's so many interesting problems to be solved, um, that helping entrepreneurs are creating environments where entrepreneurs can, can grow. Uh, I think would be a wonderful thing to do if we could, if we could get there, uh, as a country. </p><p><strong>Harry: </strong>But, uh, I wrote a letter to tech and it got published.</p><p>I don't know where in AI med or something like that about, you know, begging tech people. Like you need to look at this space cause you can actually make money and make a difference as opposed to, if you go to, you know, Facebook or something like that, like you really, you know, it's not no offense to Facebook, but you're really not making a difference in any way it's life.</p><p>But, but in the last few minutes here, let's pivot back for a second. To the company, what you guys are doing, what do you guys see the next milestone and, you know, taking the technology forward and the impact that it's going to have, or is there a particular program that really you're excited about that it's really moving the needle.</p><p><strong>Andrew: </strong>Yeah, that's a good one. So yeah, we've we, um, so we act a bit like a mid-size farmer, right? So if we've got a whole portfolio, we've got 18 diseases, uh, currently under active development. Uh, now a number of those are through, um, uh, these licensing deals with, with pharma. But like I said, there's, there's a dozen or so that we're moving forward internally.</p><p>Um, and of course, you know, what, what seems to be the most promising, uh, programs are always the one where the uncertainty is the lowest. So the ones that have been around the longest, which we know the most information about seeing the most promising, but there very well could be an earlier program.</p><p>That's actually way more promising, but we just don't know yet. Right. Because we haven't gotten that far. Um, but we've got, uh, these days, uh, five programs. Um, in, uh, medicinal chemistry, right? So this is we've screened things down. We've got a lead that lead has been tested in multiple preclinical studies.</p><p>We, uh, see us performance is better than standard of care. If it exists or maybe against, uh, annual positive and control, might've been a, like a phase three clinical, uh, candidate, if there is no FDA approved molecule in that disease area. So we've got about five programs like that. Uh, we're, we're moving forward from the Med Chem perspective.</p><p>We've got five more programs right behind those where we have screen things down and we see early signals of a potentially, you know, more appealing therapeutic than, than what's available or what's about to be available. Um, but we have some more work to do to either finalize the selection of the lead molecule or maybe run another.</p><p>Preclinical study to, to, you know, get a second confirmation that what we have is, is truly interesting. So out of those, those 10, um, I, you know, I think in the next few years, it's not clear. Which one of those is going to pan out and be the most, uh, appealing for the company. Um, to ultimately answer your question.</p><p>I think for us, you know, our next milestone, there's sort of like these credibility milestones as you reach them as a Pharma company, like people get more and more serious about you. Uh, and for us, the next big milestone is an I andD filing. Um, it's not clear when that will happen. I would say the soonest, it could happen.</p><p>Uh, it would be, uh, the beginning of, of next calendar year. Uh, we do have something that, um, has the potential to be there. Um, but again, as we move forward, we are constantly killing programs too. We have a lot of optionality. And so we're always trying to figure out which one is the most lucrative to move forward with.</p><p>Um, but I think certainly within the next year or two at the latest, um, we will get to that. I need milestones. And I think that's going to be a huge inflection point for the company where now we've gone from being a discovery stage company to being a clinical stage company. And then really all sorts of things change for.</p><p>Uh, how you're perceived and you know, what people think about for your future and a whole bunch of things. So that's, that's what we're focused on as a company is getting to the IMD milestone, uh, not only as quickly as possible, but also to do with something that the most compelling thing that we can, we can put forward.</p><p>And so we've got lots of choices to do that with. Um, and we're optimistic that we'll have at least one, if not two or those, um, uh, in the next few years.</p><p><strong>Harry: </strong>Yeah, I was going to say, well, you know, at the beginning of the year is not that far away. Um, No, we've got an election and a few things to get done before then, but, uh, it's it's feels like it's it's right around the corner.</p><p><strong>Andrew:</strong>, time does time does seem to fly, but yeah, it's still summer. It's still summer, but, uh, indeed. Right. It's uh, I think, well, and certainly in the, uh, in the warp speed, uh, that we're going out for the life science industry. Yeah. Like, you know, six to nine months is insanely fast where other industries that seems like a, you know, winter.</p><p>Geez, Louise. Why does it take that long? But, uh, but obviously very quick for, uh, for this industry. </p><p><strong>Harry: </strong>Oh, yeah. I mean, I always, I keep telling people, I mean, the difference between evolution and revolution is just a measure of time. Now. </p><p><strong>Andrew: </strong>I love it. I might have to steal that and use it later. No, no. Feel</p><p><strong>Harry: </strong>free. I mean, it's actually, it's a quote in the book because it's, it's, it's true.</p><p>Right? If things take a long time, people call it evolution. If it happens overnight, it's a revolution, right? It's so, um, Look, it was great to catch up. I'm I'm um, I'm really excited for you guys. I mean, cause you know, having these periodic, uh, discussions to understand the, the arc of the change is, is, is always fascinating to me.</p><p>And I just don't understand how everybody can't wrap their head around the impact that this technology is happening. And whenever I hear somebody, you know, naysaying or poo-pooing, I'm like. What am I missing and why am I looking at it the wrong way? I, sometimes I have to go back and look at a few things to make sure, like, I'm, I'm not, you know, drinking my own Kool-Aid sort of thing,</p><p><strong>Andrew: </strong>but let me, let me close with this.</p><p>So Mark, who I'd mentioned earlier, who's our head of R & D. Um, you know, he didn't just show up one day and say, I want to work here. Um, he actually was a, it was a KOL, uh, with a company. Uh, for many years, we'd brought him in to, to consult on some of the things that we're doing. And so you sort of got like the slow drip of the activity over time.</p><p>And, uh, you know, finally, you know, he came in one day and we were talking about, I think we were talking about results on the bus. I can't remember what, but you know, we're talking about that. And some other programs, you know, any, any recognizes, he sort of knows, like if people said they know this, but they, you know, they kind of come in the office and they see, they're like, man, there's like 18 programs here.</p><p>You know, it's like less than 20 people, you know, like it's, it's just this tiny little crew. And so, you know, he's kinda like looking around the office. He's like, this is it, isn't it. I mean, this is, this is the team, you know? And, and he knows, right. Cause he's been, he's been looking at the preclinical evidence and he says to me, man, he's like, you know, I had been waiting to do something special for quite some time.</p><p>It's like, this is it. I want you to offer me a job. I was, I was just like, it's like, like, uh, like a guru to me right now. He wants to now he wants to work for me. I'm thinking like, you know, what's going on here? Um, And so, and of course, like, are you kidding? Do you want to work here? Yes, we can. We can do that.</p><p>Um, the kind of, um, part of that discussion was him telling me sort of his evolution of his complete skepticism in computer science and artificial intelligence and, you know, the way he described it was, um, you know, he saw computers, winning games, like chess and go, but they have, they have defined rules and they have to find outcomes.</p><p>And he's like in drug discovery, there are no defined rules. Like every, every drug that's made to market is its own own little story. Um, but not only that, but that the moves that people made to get there are not known unlike a chess game where you can, you know, whether or not you're paying. Right. And, and, and his view was like, there's, there's just no way computers can solve this problem.</p><p>It's completely unbounded. It's not like playing a game. Therefore it will never work. Um, And so he's had a, uh, an evolution in his old, in his mind isn't as an old school, you know, drug developer, who's, who's had lots of success. Um, and he's gone from like highly skeptical, uh, to highly supportive. And in fact, um, we've been working on, um, a video that, that, uh, he's, he's, uh, sort of describing this transformation that we're going to get out, uh, hopefully in the next few months, um, To kind of share his story about that transformation.</p><p>And so I think Mark represents, you know, one of many, you know, sort of leading scientists in the field. Who in his case, he's obviously made the transformation from skeptic to full supporter to like, this is, this is now my next career move is I want to be involved with this. Um, and I think that story and hearing from Mark as, as we get the video out there about his own skepticism and what convinced him and how's things changed and how he came to understand what's possible.</p><p>Um, I think that transformation is happening all throughout the industry with a bunch of people. And, and I think that Mark's story will help. Um, kind of people understand how he's, you know, sort of perceive these changes and therefore, you know, we'll give them some, some fuel or some ideas to think about how the transformation will affect them.</p><p>So we, we look forward to getting that video out there and sharing with people and then, um, and people can sort of see it from, from Mark's eyes and Mark's point of view. </p><p><strong>Harry: </strong>Yeah, please don't send it to me. I'd love to take a look at it, but you know, like I said, I, I read all this stuff in tech and I look at how.</p><p>People are trying to solve problems in completely different areas. And you look at the creativity as you said, right? Cause it is a creative job in a sense. And then I look at how that could pivot into our world. And I think it's just, you know, an opens up a whole opportunity, set that the current way that, that scientists look at the world in our world may not see the opportunity.</p><p><strong>Andrew: </strong>Yeah, well, we'll get there. We'll we'll get there </p><p><strong>Harry: </strong>so, well, it was great to talk to you. Um, I look forward to staying in touch and maybe one of these days we had talked about getting together for a beer, but I think we're going to have to wait until this whole thing is over </p><p><strong>Andrew: </strong>next year. No problem.</p><p>It's all good, man. Take care. </p><p><strong>Harry: </strong>Bye bye.</p><p> </p><p> </p>
]]></description>
      <pubDate>Mon, 31 Aug 2020 12:58:23 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry welcomes back Andrew A. Radin, CEO of the drug discovery startup twoXAR, where scientists model pathogenesis computationally to identify potential drug molecules, ideally shaving years off the drug development process.</p><p>Harry first spoke with Radin two years ago at the AI Applications Summit—Biopharma. (Listen back to <a href="https://moneyball-medicine.simplecast.com/episodes/andrew-a-radin-from-validation-to-pharma" target="_blank">MoneyBall Medicine Episode 9</a> from November 2018 for more details about the company's innovations.) Since then, the company has begun to use what Radin calls twoXAR's "discovery engine" to test hypotheses about new drug leads in 18 different treatment areas, counting a dozen internal programs.</p><p>"We go after complex disease where we think there is not only an unmet medical need, but where we believe discovery of new biology can  unlock some opportunity for new therapy," Radin tells Harry. He says the company's approach compresses the time-consuming early steps of basic science, literature search,  hypothesis formulation, and high-throughput screening into a single computational step. "We're going to take all the existing knowledge about the disease and set it aside and see if we can't make some new discoveries about the biology as the starting point."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry: </strong>Andrew welcome back to the show. </p><p><strong>Andrew: </strong>It's great to be here. I think it's, it's been about two years since we, yeah, I was, </p><p><strong>Harry: </strong>I went back. I was looking at, I was like, when, when did we record the last show? I'm like, Oh my, two years. And two years in the world of data is like, </p><p><strong>Andrew: </strong>I don't know from the technology perspective, we've actually, let's see, in those two years, we've probably made about a hundred new releases, new iterations of our software over that time.</p><p>And so imagine, imagine like, you know, getting a hundred new versions of your car and of course technology just moves that fast. </p><p><strong>Harry: </strong>Yeah, no, I, it's funny because I have this conversation with people regularly of like, you know, Well, you know, is this software done? I'm like, listen, it's software. It's never done. Right? </p><p><strong>Andrew: </strong>Yeah. And so while it, it, it certainly depends. I think on how the software is deployed. I mean, there's, um, you know, as a guys built a lot of software systems, I've worked on, for example, early in my career in large scale, uh, telephony systems, the software systems that power, the nation's telephone calls.</p><p>And that's an example where you do a bunch of work, you do a bunch of testing, you deploy it and you don't touch it. Uh, in some cases for years, Uh, aircraft are very similar, right? Like cause changes. Um, you know, you would, for example, the software that powers your x-ray machine, you probably, you probably don't want that to change that often.</p><p>Um, but there are places where, of course you can dynamically change software know even multiple times a day. Right. Um, and uh, historically that's been more in web based applications, right? If you, if you go back to a website and you reopen your web browser, that software can change. And it's a very little, little risk.</p><p>And because of that, Um, you can actually increase the velocity of, of trying new things and trying new products and seeing what works and, uh, that sort of philosophy that, that rapid iteration is something we've brought to the drug discovery landscape, where our, our software stack, which is what we use in the discovery process.</p><p>Internally,we are changing that thing daily. Um, and then we ultimately get it to a, to a release that we, um, we use with our, with our discovery team. Um, but we are rapidly iterating that product. It's, it's been over hundreds of iterations, hundreds of software releases. And every time it's a small experiment, right.</p><p>We're going to make this change to our algorithms or data sources or that sort of thing, and see whether or not like, do the predictions improve, right. Are we actually making a new discovery or are we coming up with something that is more likely, uh, to be efficacious and safe? And we have some digital test to discover those things.</p><p>And that allows us to just move so fast, right? From the, from the computational perspective, as opposed to iterating, you know, in the physical world, right. We have an idea and you run a wet lab experiments and that can take months. And you just, you learn that one negative information of the course of a very long time, as opposed to the course of an afternoon.</p><p><strong>Harry: </strong>Yeah. Yeah. Well, I'm, I, it's interesting. Cause I'm sure that anybody from Pharma now is like a zillion questions are going through their head of like, how do you check this? How do you know that? How do you. You know, uh, but, but let's step back for a second. So two years ago, if my memory serves me correctly, you were sort of doing more services oriented, work, right.</p><p>Testing, what, you know, you had built out and now you've made this what looks like a much stronger pivot that we talked about two years ago to your own products. And how has that, how has that pivot and why. Why did you need to make that pivot in a sense? </p><p><strong>Andrew: </strong>Yeah, no, it's, it's interesting that that's, um, how people is seeing an externally, because internally, like from my point of view, our, our vision, our plans really actually, nothing has, has changed.</p><p>Um, but what has changed over the years is as we have more success, uh, we have the permission, if you will, to just gather more resources. And so in the, in the early days of the company, You know, we used our discovery engine, uh, to come up with, uh, new ideas. And what I mean by new ideas is, is our output from the technology, uh, is a new hypothesis, new understanding of biology.</p><p>We typically go after complex disease where pathogenesis is not very well understood. Um, and so as a result, we're, we're coming up with, with first in class solutions, right? These are these, this is biology. That's not been, um, not been tested in that disease before. And of course it comes coupled with a, with a molecule, with some chemistry to, to test out those ideas.</p><p>And so our, our initial, uh, programs were taking the output of the software, uh, with very little, uh, in some cases, no wet lab experimentation whatsoever. Um, and then licensing that knowledge, not, not necessarily a service deal, but you know, upfronts, milestones, royalties, the typical pharma deal, uh, to a pharmaceutical company who has the development team to then screen those molecules down, uh, identify lead, do the medicinal chemistry, all the, all the traditional work that comes post discovery, uh, to turn something from, you know, early chemistry and into a product.</p><p>And so we've been doing those deals, uh, for many years. Um, but part of. Uh, what we're very interested in, right? Which is actually meeting unmet medical need. Excuse me. And getting products to patients is, is all about the time. Right? And so it's very, time-consuming, uh, the sign up pharmas to, you know, go through a diligence process and in some cases, The time it took to negotiate the deal.</p><p>We could have actually gotten something to I and D at somebody's time. And so we sort of recognized, you know, how, like what, what are our Pharma partners doing that we, uh, that we can't do. Right. And that's about it. Um, preclinical execution, which to be clear, I think when, when we were speaking two years ago, I know we, we, uh, we were running back clinical studies on our own.</p><p>We had, we had that, but some of the other pieces around development, um, we didn't have as a team. So these days, couple of years later, we have, uh, new people in the company. So now our, our head of R & D is Mark Eller, uh, who wasn't with us back then. And so Mark, for those who don't recognize his name, Uh, he formally was, uh, the head of R &D at Jazz Pharmaceuticals.</p><p>Um, he was there, uh, for about a dozen years and saw it from its early days through multiple FDA approvals. Uh, and he's got a number of products, probably Allegra's the one he's, he's personally most famous for, uh, that he's brought, you know, to the approval process that, that make billions per year. And so now, now that expertise, um, is, is driving our R & D process.</p><p>Right. And so we're going beyond. Just the discovery and into the development. Um, and we've also brought on people like Anjuli Pandey, who formerly was, uh, the head of chemistry at Portola, uh, therapeutics. Uh, most recently was CSO at bridge bio. This, this guy has had a, had a very nice IPO recently. And so she's got, geez, Louise, I think over 60 patents to her name in the chemistry space, multiple products she's brought to approval as well.</p><p>And so she's leading the effort, you know, to take these, these, um, uh, early molecules, perform the med chemistry on them and get them into, you know, sort of the, the pharmaceutical product you would expect to go into the clinic. So we've been pulling those resources into the company. And now, you know, relying a little less on our pharmaceutical partners to do the development for us.</p><p>And we certainly, we continue to do those deals. We have, we have the ability to go after more diseases and we have the resources to pursue ourselves. So we, we continue to do deals like that, where we hand off the discoveries to others. Um, but nonetheless, we've got about a dozen programs now, internally that we're developing on our own, um, using our resources and using, using CRS.</p><p><strong>Harry: </strong>Now, how quickly do you, you know, because of the engine and the capabilities, right? How, how. When you're trying to explain timeframe to someone, how do you frame it? Of how much faster the system can get you to something that looks like you should go after and then actually helping, you know, design a molecule and so on?</p><p><strong>Andrew: </strong>Yeah, well, we, um, these days we say it saves years. We, we used to be a little more, more granular on that. Um, but the reason is it really depends on the disease area. Yeah. And sort of what the starting point is. Um, and so for us, as I was mentioning earlier, we go after complexity where we think there is not only an unmet medical need, but we believe where discovery of new biology can really unlock, you know, some, opportunity for new therapy.</p><p>And so if you look at the traditional approach of, you know, coming up, essentially with a new target, and I want to be clear, like we don't go to the literature and find a target and then, you know, start developing rather we collect a bunch of data and we, we discover those targets ourselves. I mean, if you look back like the heyday of big pharma, right?</p><p>In like the seventies, eighties, this is what they did. Right? Like they discovered new biology. They came up with new targets. They. Uh, you know, uh, came up with some BioEssays and that sort of thing to try out, you know, a bunch of chemistry hypothesis screen, right. And eventually little that down to some hits that they'd moved forward.</p><p>Like all that work. From the traditional sense. And by the way, like not many people do that anymore. Certainly not under one roof. Like we like we do. And the reason is as you just identified is it's just so time consuming. So time consuming to go through each of those processes, because the traditional approach is to do a lot of basic science and literature search and, you know, forming hypotheses and, and it's, it's a, it's a long road, right?</p><p>To get to the point where you've completed that first high throughput screen and have some hits. And so we do all of that in computation. Right. And so that saves you years. Um, and I would say some of the people that go well, does it really save yours? You know, there's, there's certainly companies that will in license, a molecule or they'll take something that other people have started in there they're, you know, being it's, it's being handed off to them, or they're pulling something in, from an academic lab or whatever. They've read about a target in a, in a, in a paper recently. So they've got a head start, right?</p><p>So that's maybe where there's a debate on the year saving, but I'm, I'm talking about like the old school approach. Uh, we're gonna, we're gonna just. You know, take all the existing knowledge about the disease and sort of set aside and see if we can't make some new discoveries about the biology and that's the starting point.</p><p>Right. And if you think of it from that, that perspective where I think the real opportunity is, um, in terms of making a big difference in, in going after something new, um, that is something for sure. We're saving years in the processing. Yeah. </p><p><strong>Harry: </strong>I mean, I've had discussions with Joel Dudley about like, okay, you know, let's put all the data in and let's look at what the data is showing us in the direction.</p><p>And, and hypotheses that we can then go chase down that we in our, you know, even the human brain is an amazing instrument, but it's, there's way too many data points to look at simultaneously.</p><p><strong>Andrew: </strong>Yeah. Like I meet for me to keep three things in my head is, is a good day. I mean, I look at billions of points of information and not only that, but to figure out like, what's, what's a false positive, right?</p><p>Like what's, what's a coincidence versus what's signal. Um, you're right. That's, that's not something that human brain does very well, certainly at that, at that scale. And so, you know, we're looking for, uh, uh, the patterns that represent signal versus the patterns that represent coincidence, if you will. Um, and that's not something that humans can easily view where they can look at, you know, massive.</p><p>You know, troves of information and, and try to try to draw those parallels, especially when a lot of the information we're actually processing doesn't really lend itself to like giving you an answer. A part of, part of it is going through it and figuring out what's relevant and not. And, and most of that of course is, is not relevant.</p><p>Right. It's it's um, uh, as Mark often says, you know, it's like looking for a needle in a haystack, right. And so that's. That's something that human brains can't do very well. Um, and I would say that one of the interesting things that comes out of this, we might even talk about this a couple of years ago.</p><p>But, uh, when we, when we go through this, this process and we come up with these ideas, all of our disease programs, every disease we work on, um, we have, we have okay well, we, we often connect, you know, with a luminary in that disease area. Um, and we, we bring them into the, into the projects and. You know, we show them the output of, of what we have or like, look let's, these are, you know, we say our ideas reality is the machine, the machine came up, the ideas, what do you think?</p><p>Right. And so part of it is we're going after novel stuff. Right? So they tend to say like one or two things, like one thing is like, Huh? I like this. This is an interesting idea. I hadn't thought of this before. You know, it kind of reminds me of something like, you know, okay. Like, you know, like, like seems crucible, let's try it out.</p><p>Um, but the other thing they say is I'll look at stuff and they'll be like, no way, like, yeah, like this is just stupid. Like you are wasting your time. Right. And, and those are my favorites. Um, we don't do this anymore, but we use, we used to ask people to write down, okay, we've got these 10, you know, these 10, the theories, if you will, at least 10 different targets, we're going in these 10 different molecules.</p><p>We're going to go screen. You know, you, disease expert, you tell us which ones are going to work and which are not. And, uh, and we found out that the disease experts were no better than random and in picking the winners, um, which I think is very, uh, sort of telling about. Uh, how little we know as, as humans, you know, inspecting literature and sort of the capacity of the human brain to sort of understand against, you know, again, these, these, these massive sources of information what's relevant and what's not.</p><p>Um, and so, you know, we've, we've had a number of, uh, very exciting and very pleasant surprises, you know, where we see through the screening process, we see signal and ultimately, you know, we get down into in vivo studies, you know, these, these gold standard models. Where we compare against standard of care.</p><p>Right. And then we see, uh, in many cases, you know, our molecules are showing stronger signals of either efficacy or maybe similar efficacy signals, but stronger signals of safety. And that tells us we've got something that's really compelling and worth moving forward. </p><p><strong>Harry: </strong>Yeah. I always find it. It's a fascinating discussion, you know, and when like, again, you know, going back to Joel and Alzheimer's and him pointing out to people at NIH that, you know, look herpes, simplex two might be.</p><p>Right. And everybody was like that. You crazy, right? Yeah. Hey, listen, here's all my data. You'll run it. And you see what you find. Right. And, and so I, I think NIH now is sort of thinking about how to come at this a different way, but I always find that fascinating is like, you've got this incredibly complicated system and you're looking at this narrow little window that you are an expert at.</p><p>And how could it not be that anything outside that window influences what's happening in that it's, it's sort of mind-boggling. And now that we have computational capabilities to sort of, I don't want to say brute force, but I feel like 10 years from now, we're going to look back and go, damn, that was brute force.</p><p>We have much something much more elegant now, but a way of looking at these and looking at the complexity and seeing that a pathway that we never even thought of. Has an influence on this disease, um, is fascinating to me. I, how the whole industry isn't moving in this direction much faster is sort of always mind boggling to me, but I understand that.</p><p>You know, your expertise is not wasn't necessarily drug discovery from day one. </p><p><strong>Andrew: </strong>Yeah. Look it's it's um, I think computer scientists, as we've gotten, I think more involved in this industry, um, we represent disruption. It's a very different way of thinking. And, and disruption takes time and industries, you know, resist disruption, you know, quite frankly, um, you know, I, one of my startups I did, uh, Nolan Bushnell was, was the chairman of the, of the company.</p><p>If that name doesn't ring a bell, not only did Nolan start Chuck E cheese, which he's very famous, but, but before, before Chuckie cheese, he founded a little company called Atari. And before Atari video games, the video game industry didn't exist. Okay. And so when I, when I first met Nolan, we went out to dinner and like any person who's just, you know, in awe of such an amazing technologist in a, in a pioneer, you know, for that industry, uh, we went out to dinner.</p><p>I'm like, so Nolan, you know? Right. Yeah. I'm just like, like this eager, eager young man. Tell me the stories of the, the days of Atari and, and at the time, uh, at our, at our, uh, startup, we were, um, uh, working on some fundraising. And so he, he told me this story. So you have to understand, like, let me set the scene, right?</p><p>This is like maybe late sixties, early seventies. And, uh, and I'm sure maybe Nolans going to listen to this podcast. I'll send it to him and he can get the story, right. Because this is a long time we had this conversation. So I'm, I'm sure I'm going to get the details wrong, but the, but the core of the core of the messages is there anyway.</p><p>So it's, you know, it's around that time period. Um, and video games don't exist. Humans have never seen them. They don't know what they are. Okay. And so he's, he's working on this he's she's building pong or whatever he's building over, over here in Sunnyvale and next town over. And, uh, and he's chatting with people in, you know, the, the game industry, but with that in air quotes, the game industry, I don't recall who it is specifically, but let's just say it's Parker brothers, right?</p><p>So he's, he's sitting down with the fine folks at Parker brothers. He's like, man, I've got this new, exciting innovation. It's going to change, uh, the gaming industry as a whole and just being a personal entertainment and I've combined computers and games and have made this thing that's called the video game.</p><p>That's going to be the next. Huge thing. Okay. And so he's telling me, you know, the guys from Parker, brothers, whoever it is, they're like Nolan, Nolan, right? Sit him down, hand on the shoulder. Uh, so first of all, games are made out of paper and card. Okay. But, but more importantly games, you sit around the kitchen table with your family and friends, and it's a social experience where you interact in the point of the game, you know, is this, is this social gathering.</p><p>And you're telling me, you're going to make a thing where people are going to stare at a television. And that's going to replace, you know, this, this whole sort of social ritual that is games like Nolan, you're an idiot get out of here. Right. Uh, and of course, you know, we know what he did. He, he built pong, he put it in a bar over in Sunnyvale and people lined out the door, pumping quarters into it, and the rest is history.</p><p>Um, but that, that story, I think really resonates for me because does your point, like looking forward to the future? Like the video game industry is today. It's like an obvious thing. If I'm not mistaken, it pulls in more revenue than, than Hollywood does, you know, from movies. Like it is just part of our culture.</p><p>It's just part of our experience. It's, it's part of, you know, growing up kids playing, you know, video games, uh, and, and before, you know, Nolan came around, like, people couldn't understand this, this what's now obvious, this thing that was coming. And I think in a very similar way, you know, as a computer scientist, who's worked on a variety of industries and Marc Andreessen.</p><p>Right, right. One of our investors, Andreessen Horowitz, like talks about this talks about all the things you used to buy at radio shack that are now just in software, right? Like all this, this stuff has been replaced. Um, and I think in a very similar way in this industry, it's, it's tough to imagine what it is until you already have it.</p><p>Right. And so for someone who, you know, started this company many years ago, and I've been very consistent in like my belief systems and what we do, and like our output and I've, I've gone from, in the very early days, everyone said like, this will never work. You know, you're a fool. Right. Very similar to the Nolan thing.</p><p>There were these days, maybe like half the people say that maybe a little more than half. Right. But like all the tapping, just the passage of time. And what's happened in that passage of time is people are starting to get a hint of what's possible, you know? And I also have an a conversation actually the night before last, or as I was chatting with an investor who was talking about, um, sort of his belief system and what's happening.</p><p>And so you, you look at, you know, recent IPO's like, like relay and Schrodinger. Uh, of course the guys at Roy van are doing extremely well. Um, and, and he was sort of saying, you know, because of the acceleration of technology. Uh, people are coming out of nowhere and they're challenging, you know, these large established pharmaceutical companies.</p><p>Now they have the advantage of products on patent for many, many years, and it's going to take a while to disrupt. Um, but this investor who, who I think was very thoughtful, it was sort of saying like this, this disruption. Is coming with, with so much momentum behind it. Um, and we believe, you know, some of these, these what look today, like small sort of innocuous players, um, are really going to disrupt the, the field and, and make huge changes in the pharmaceutical industry as a whole.</p><p>So that was an interesting perspective. Just kind of tying all those pieces together, where. You know, innovation and disruption, it comes from the outside, right? I am, I'm definitely an outsider, right? Like I, I built mapping systems and systems and advertising networks. And here I am making drugs. It's, it's kind of a weird transition from that standpoint, but it's, it's highly connected to this idea of, um, bringing disruptive ideas into a rather entrenched industry.</p><p><strong>Harry: </strong>No. And I, I mean, look, I I'm, I try to read everything. I could get my hands on from the tech side. I'm scanning constantly. Um, I was listening to the, the, the guy who has the title futurist for paramount pictures. Nope. How about what they're working on, right? Yeah. I was thinking about that too. Maybe I can transition my next life into the future is that's a really cool title. </p><p><strong>Andrew: </strong>Yeah. </p><p><strong>Harry: </strong>But, but hearing about, you know, all these different sort of plays moving forward, you know, using. You know, uh, augmented reality and things of, of nature, of how you collaborate and so on and so forth. And you superimpose that.</p><p>I take all of these things and they try to superimpose that on our world and you can see the ball moving forward in ways that to someone who's only looking in the field cannot see. It's like looking through one hollow lens and you can't see the rest of the picture. That's developing around you. And, you know, I find fascinating that the status quo can't see that there, the world is changing at a rapid pace.</p><p>Now I do believe that COVID, we're going to look back at COVID and yeah, I know it's a, it's a negative for, for all intensive purposes, but I think from a moving things forward from a technological perspective, I think it's been a huge shot in the arm for remote monitoring of patients, for telemedicine, for all these other areas.</p><p>I think it's moved it forward five to 10 years, and I have to believe things that you're working on are now, or even should be even of more interest to a therapeutic company. Because if you can't get everybody in the same room to do the experiment, how do you do the experiment to move it forward faster?</p><p><strong>Andrew: </strong>Yeah, no, look, I think those are, um, excellent observations. I think, um, uh, COVID is definitely an interesting time. Just sort of see how technology helps influence, um, society and you're right. Like, so here we are. I mean, the last time we did a podcast, we did it together. Right. We were standing together, where were we were, we were at the Harvard medical center.</p><p>We were, you know, in a hallway together and, and, you know, around the table recording and, and, uh, you know, we're thousands of miles away together. I've got to. You know, a fancy fiber optic cable, you know, coming into my house. I know what you have on your end, but like, I, I see you clear as day and here we are recording a podcast.</p><p>Right. And so, first of all, how cool is that? Now I recognize like that's something we've probably had for five or 10 years, but none the less like that, the point is, um, we're, we're still able to put this material together without physically being together. And I think, you know, even in our own company, As, um, as a, so Santa Clara County, which is, which is where we live and where our offices are, you know, we were one of the first places in the nation to have, uh, detected cases.</p><p>Uh, and so, uh, the health commissioner here, um, was one of them was one of the first places to put shelter in place and we knew it was coming cause we were, we were connected to some people. And so at our company, we, we trained everyone on how to use Zoom and Slack. And, uh, we had, uh, we had a goodbye party on a Friday, you know, we'll see, I'm sure we'll see each other again soon.</p><p>We're not. And we prepped everyone off and off we go. And the next Monday we started operating our business, um, completely through, you know, technology completely used for video. And, um, we have not gathered, uh, as a group in our office since this was months and months ago. And throughout this time, uh, in the early days you had some little adjusting you know, figuring out how to do this, but like, you know, by and large, like we're, we're operating, uh, just as efficiently and moving forward just as we were before.</p><p>We're in that physical space together. Now I will, I will certainly say there is, um, value to being together with people and sort of the, you know, there's, there's more than what just happens during the meeting time and, and building personal relationships. But, um, you know, it's a big question. Like, are we going to be able to function as a company without seeing one another?</p><p>And the answer is yes. Right. And, and I think one of the things that COVID has done for that type of question is like, okay, just this whole, you know, remote work stuff. No function. I think it was Melissa Meyer many, many years ago, like said very famous decree. Everyone at Yahoo shall come into the office, a Yahoo.</p><p>It will be no more remote work. And here we are now with all these big tech companies and small ones like ours, everyone's working remotely and it's. Kind of working out. Right. </p><p><strong>Harry: </strong>So it's interesting. Right. I mean, Google just announced right. Then nobody's coming back to the office until July. </p><p><strong>Andrew: </strong>So next summer. No problem. Yeah, yeah. Next year, next year. Yeah. So like, I, I think what that means is, so now, you know, people are, um, you know, in many industries, not, not all of them, um, you know, able to work from home. You know, we have people in our company, you know, my, my chief of staff. Uh, she was, uh, she was born in Mexico.</p><p>She's been living in San Francisco, you know, she just said to me the other week she was like, look, she's like, I'm in this, um, rather expensive apartment in San Francisco and you leave, uh, you know, they, they got the internet in Mexico and it was odd. She asked me, is that cool if I, if I, you know, go to Mexico and I'm like, why not?</p><p>Like, you know, like, I'll let you know when, when there's a chance we'll be getting back together in the office, but like go for it. And she's like, awesome. I'm going to go live like a queen. Right? Like it's. And so. That recognition that, you know, even, uh, physical places, you know, like, like why do you need to be in a high rent area, if you can just, you know, do your job effectively some, somewhere else.</p><p>So anyway, so all these, all these things are kind of unraveling. And I think to some of your points on medicine and healthcare, I think the other thing that's happened is, is people are very nervous to go in and see their clinician because they think there's other people around who might have covered. I don't want to get that.</p><p>And so, yeah, like the whole telemedicine. Piece of it is taken off, but, but the whole point is like, um, using technology, using the internet using, you know, like the technologies we're using right now to interact with folks, uh, on all sorts of levels, whether that's professional, whether that's, you know, that's patient care, um, all of that, the barrier has just dropped.</p><p>Right. And so I think it's, it will be interesting to see post COVID world what it does. Um, like are people are going to like get back into the office or not, right. Or are people going to think every time they're not feeling well, they need to go see their doctor or they're going go, Hey, you know, I think I'll do that mobile app thing that I did before, you know, last year, because it kind of worked and I realized I don't have to drive anywhere.</p><p>And yeah, I think those, those, um, events helped push innovation forward for, for sure. </p><p><strong>Harry: </strong>So stepping back to where you are, do you think your, your. From a timeframe perspective, you're moving the ball forward faster by compared to say, you know, a traditional process, six months a year, two years. What's, what's a wild guess.</p><p><strong>Andrew: </strong>I would say on average, if, if you're going to do a completely Denovo process from scratch, you know, we're saving about three to four years. Um, there's a point at which, you know, our processes don't speed things up and that's, as soon as we get the mouse involved, right? Like, I, I can't speed up the tumor growth than the mouse.</p><p>I can't say the activity of the, uh, of the potential medication to, you know, inhibit that tumor growth. I can't speed up the, you know, the histology and all the work that happens post that and all the activity that you need to do. And rightly so right. To, to carefully prepare for 90 filing. Cause, you know, when you get to the point where you're gonna test something in humans, you, you want to be absolutely sure.</p><p>Um, you're, you're being safe about it. Um, and you're, you're, you're doing something that's, that's worth the risk that you put onto your, um, your clinical trials efficient. So all of those processes, uh, they don't necessarily speed up. I, I think really where we're about speed in the discovery process. I think the real opportunity.</p><p>Post discovery is efficiency, not necessarily speed. Um, but you know, with patient trial selection, for example, um, finding the right population, finding the responders, you know, being able to do things where you maybe don't have to have as large a group, uh, you know, in your, in your clinical trials and example, those are things where now efficiency and cost efficiency. Uh, become, I think some of the values of what you can do with computational methodologies B can't really speed up, you know, a preclinical study or a clinical trial just to the nature of the biology and the time. And so that's how I see it. The first half is about speed and the second half is, is maybe it's more than half, but the rest of it is about just, just efficient use of, of capital, uh, to get the results that you're looking for.</p><p><strong>Harry: </strong>Although I do see, you know, trying to look at the entire value chain. There are companies using computational methods to sort of find patients faster, make sure they, you know, they fit the trial better. Um, you know, remote patient, uh, remote clinical trials are becoming more of a thing. So I think we're seeing computations sort of failing gaps that can be filled in by that by technology advancement.</p><p>So I do see the process shortening over time from end to end, which I'm hoping also translate to. A lower cost at some point from end </p><p><strong>Andrew: </strong>I think there's definitely the efficiencies to be gained throughout the whole thing. I think, um, again, if you're looking for, you know, we take some things that normally would take years, this is something we used to say early in the company, and we got critiqued.</p><p>So we stopped saying it, but it's still true. Right? Like we take, um, that very early portion of just understanding the biology, which, which can take many, many years. And like, you know, the computation does that in a couple of minutes. And so. That sort of stuff. That's a dramatic, you know, multi-fold, you know, increase in speed.</p><p>Um, and I'm not saying that some of the things you've talked about, uh, won't increase. I think the efficiency from that, from the speed perspective, but it's not going to take a process that takes, you know, four or five years and turn it in three minutes. That's for sure. </p><p><strong>Harry: </strong>No, no, no, no, no, absolutely. And you know, it, it, it begs the question of, you know, like we need to rethink how we teach biology.</p><p>Right and understanding these things. Right. And it's, uh, I remember doing a lot of reading, a lot of textbooks, a lot of experiments. I feel like most of that now would be, I'd be sitting in front of a terminal and combining pieces of data and, and, and coming at the whole learning process differently than I than when I was learning.</p><p>Yeah. </p><p><strong>Andrew: </strong>You know, that's, that's an interesting thing to poke at. Um, Well, let me, let me share some thoughts here. And I don't know if there'll be interesting if they, if they're concurrent with some of the things you're thinking. I think, um, so, so, uh, let me, let me gather my thoughts. Okay. So when I, when I'm, um, when I'm screening, when I'm, when I'm interviewing a software engineer, Um, to work on my team.</p><p>Uh, of course, now that people are gonna listen to this podcast, they're going to know what the answer is when I prefer one of the things I asked them, as I say, man, like, imagine it's, you know, whatever, the 17 hundreds, the 18 hundreds computers don't exist. Technology doesn't exist. You're still you, right?</p><p>You're you've been magically teleported back in time. What do you think you'd be doing? And it's very interesting. And I get these answers like, Oh, you know, I'd, I'd be a school teacher. I think that would be an awesome thing or whatever. I would be a musician, all this stuff. And, and then I, and then, you know, this is like the hook.</p><p>And then I go, well, why aren't you a school teacher now? And then the answer is, well, because software pays better. Right. Which, which is a reasonable, a reasonable thing. But what it says to me is that, um, there's a lot of people in the field. That don't do it because it's their passion or their interest, or it's, it's something that really excites them.</p><p>It's like, I can make some money at this. And I think the best computer scientists and the best engineers, I know. They are tinkerers there, there are people who, and they're also creatives, right? Cause because software has gotten this, um, uh, this artistry to it where it's it's the tool set is so wide and you can do so many things with it that, you know, like the people that are really into software, like, and you know, another great question is like, so what do you do in your free time to see if they actually write software for fun?</p><p>Which by the way, while I'm chatting with you over here on this window, I'm writing some software, um, to do something personal on unrelated to work, but like there's a, there's a, I think a, um, a connection between, um, really becoming an expert in your domain and also just like truly enjoying it, truly enjoying the, skill and the trade and that sort of thing.</p><p>And I, I think that. There's a personality that, that, um, science attracts, you know, people like me, computer nerds, right. Who really enjoy software. And there's, there's different personalities that, attract different things. And I think it's, it's really hard to find someone. Who really enjoys, you know, like the biology and the sciences and software together.</p><p>I mean, when I, when I was studying this in school, most of my classmates were medical doctors. They, they had a medical degree, probably like 75% of them. Um, and so they're, they're trying to, they're trying to learn software, right. And if you have them like really connect with it and they really enjoy it and it's their passion.</p><p>And I think those are also the people that just produce, like the coolest stuff. Like you, you did the podcast with Jake, I think maybe a few months ago. So Jake, I met him at Stanford. He was one of my classes, but like, he's one of those guys, right? It's like this biologists software tinker dude. And like, you know, we, we would get together and left philosophize on stuff and like, yeah.</p><p>Like, that's the kind of person you want to see, like just making big changes in the industry and like he's doing that. Um, but, but my point in that is there was a bunch of other people in those. Classes and there's, there's some other people like Tim Sweeney is another one who, um, uh, I think actually was a surgeon originally, and now he's doing inflammation, just doing super cool stuff. Combinations. There's a bunch of other people in his classes are kind of like medical doctors are like, you know, I should learn software because it would be good, you know, kind of thing. And I don't want to call anyone out, but I remember like one person who was, um, A project due or something like that and see what it was before class.</p><p>And she was complaining. She was like, Hmm, I can't do this. I spent my whole day yesterday working on the software and I couldn't get it to work. And it's like, it's using up all my time. She hated it. And I also spent that amount of time and I'm like, this is cool. Like, this is fun. Like this is putting this thing together.</p><p>And so I think. Taking people and saying, look, you know, as a biologist, now you have to learn software and we're going to pound you over the head over it. Like, I don't know if that actually will transform and look, and maybe it'll, it'll light something in someone who didn't know that that would be of interest to them.</p><p>But I think it's really gotta be connected with, um, the personality and sort of like the enjoyment of the person. And I, don't know if that happens. That late. I think it can start much earlier. Um, look, I first touched a computer when I was, um, jeez Louise and it's like when the Apple two came out, I mean, Apple had a headache, everyone, every, you know, school got a free Apple, two computer.</p><p>And, um, I was fortunate enough that my parents were able to purchase one, but I was a little kid, you know? And so that's sort of where the passion started for me. And I think that's. Uh, for whatever it is, whether it's biologists or whether you're working in engineering or whether you're working in financial services, it doesn't matter.</p><p>I think that, um, exposing really children to software and programming and that sort of stuff, like some are gonna. Connect with it and enjoy it. And I think those are the people that eventually, as they get into different sciences and different disciplines will use that enjoyment and that skill to do something interesting with computer science.</p><p>But it's just, it's just my belief. I don't, I don't think you can take someone at like the college level. Who's getting into biology and be like, Hey, let's</p><p><strong>Harry: </strong>no, but I, I think, and what I meant by, you know, teaching it in different ways, you know, my fundamental belief is that, you know, everybody should be Ssteeped in software, not necessarily to do it, but to understand it as a process, as a language, as you, cause at some point you're going to interact with it. So you might as well understand it, even at the basic level. And then as you're going, you know, going forward, you know, if you want to take on different careers, you, there, there needs to be a combination of this.</p><p>You still are. You ended up like when we were in applied Biosystems, you're like, okay, Get the computer science guy and get the IT guy together and get the, uh, biologist together, put them in a room and, you know, having to make something and nobody could understand what anybody was saying right. For the first like third year.</p><p>Um, but, uh, but on the other side, you're absolutely right. I mean, my, my family is always saying like, you're working all the time. You're working all the time. I'm like, look, let's get something straight. Every once in a while there's a pain in the backside. I need to deal with it. I don't want to do, but for the most part.</p><p>I mean, I'm in a kid, in a candy store every day. There's something new every moment. And I'm like, this is the coolest thing ever. And I get to be involved. Well, that's, that's not work. That's just fun.</p><p><strong>Andrew: </strong>No, and that's, that's an awesome place to be, you know? And, um, I think part of what drives innovation and change and industries are, are people who are really just connected with that passion.</p><p>Um, and they have the drive as well. Like there's, there's something behind them that, um, you know, really inspires them to go and do something and, and, and, um, try to do something new. I think innovation is. It's a hard game. I mean, I, as I often say, I've done these startups, you know, I wish I could say everyone would, this was an astounding success, you know, was bought by Apple, which, you know, I always liked to talk about, uh, I don't always talk about the one that, you know, we raised geez, 23, $24 million building exploded it.</p><p>I guess every, every startup is spectacular. This one was spectacular in the negative, in the negative sense. But, um, you know, I think you also, uh, for people that, um, want to change the world and change industries. It's, it's tough to describe, but like, uh, it's not necessarily the grit, but it's like, it's, it's the enjoyment of like the challenge.</p><p>And, you know, I think Michael Jordan has some great quotes about, you know, all the times I missed, you know, as opposed to all the times I was successful. And I think part of changing industries is like, You know, you just hear no, all the time. As I was saying earlier in the, in the podcast, you know, in the beginning of this company, you know, with a few exceptions, it was certainly nice to have VJ at Andreessen and be like, Oh yeah, this is it.</p><p>Or I'm giving you some money. Let's see what happens. Um, but like everyone else I've talked to is just like, no, no, no. And there's a, um, I think there's a, a type of person as well, who just sort of listens to that. And I don't hear, no, I hear. Not yet or not now I can just sort of, by my reality, right.</p><p>Distortion field kind of puts, puts words in people's mouths that they're not saying. And I think all those things kind of combined together, right. We've been talking about these different things. I think there's the, there's the passion for the technology and just sort of having like the, the, um, uh, personal interest in sort of those things.</p><p>There's the, um, You know, again, the feeling like it's not work, it's just, it's something that brings you, brings you joy and it's really engaging that sort of thing. And then I think that final piece is just, you know, people who enjoy, uh, a challenge and doing something, uh, very difficult and, you know, the no’s don't discourage them.</p><p>The no’s only encouraged them. And in some cases, I think it's kind of the combination of all those things that make industries change. And I think, you know, kind of the theme we've been talking about is just sort of changes in, um, In life sciences and healthcare in general, I think finding people like that and really tapping into them and giving them resources to go, uh, go try some things and to sometimes fail and to sometimes succeed.</p><p>I think that's what really is gonna make the biggest movements, uh, in our industry, right? Because those are the, those are the risk takers. Those are the pioneers. Those are the visionaries who want to do something new. And I think the more we do to help support and encourage. Uh, people have that mindset and that way of thinking and that, that sort of endless energy, uh, to go out and do something is, um, is something that's only gonna make the world better.</p><p>And, and, um, uh, and therefore we should, we should embrace it as much as we can. </p><p><strong>Harry: </strong>No, I totally agree. And it, don't tough. The tough part is finding those people, right. And they're not falling off trees. Uh, I can tell you, at least with all them, you know, after all these years of all the people that I've interacted with there, most people are just too nervous to take that path, but, uh, I try to encourage them to do it.</p><p><strong>Andrew: </strong>That's where, you know, startup incubators and places where people who don't know, or maybe a little timid can come. I mean, I'm, I'm deeply involved with, uh, with Stardex. I'm a judge there. Um, I, I sometimes lead the neighborhoods and, you know, it's, it's often, um, you know, students that are, that are coming out of Stanford who have got an idea for a company and they just don't know where to begin.</p><p>Um, and what Stardex does is it is it's a community, right? It's a support system. It's, it's a whole set of other people in similar circumstances. Uh, whether they've, you know, had some success through their very early themselves, um, to work together as a, as a group and as a community to help people get there.</p><p>Right. And so I think that, um, type of thing, uh, whether it's a startup incubator, that sort of thing, you know. I wish we did more on the governmental level, uh, to encourage innovation, um, and put, you know, pieces in place where, you know, young, bright people come out of school and, and they've got a choice, man.</p><p>This is, I think I've said this before in your podcast, but if I did, I'll repeat it again. But like one thing that's man, is it annoyed me is, you know, people will, will graduate with a degree in biomedical informatics. They literally learn how to use computers to solve medical problems and save people's lives.</p><p>Okay. And then the likes of Google or Twitter, or Facebook will show up with a wheelbarrow full of cash and say, Hey, you know, you know how to write software, you know, these, that, that skills in short supply, why don't you come with us? And, you know, we'll, we'll, you know, deliver movies to people. And not that there's anything unethical about delivering movies to people, but you've literally just learned how to save lives.</p><p>And as. You know, a student who's coming out of school and they're just sort of like, geez, what do I do next? And there's this big, impressive paycheck. And they've probably got some debt and we're thinking about, geez, I want to, whatever, buy a house, start a family, all those things that young people think about, it's really hard to go.</p><p>Yeah. You know, instead I think I'm going to just eat, you know, tuna fish sandwiches and sleep on my friend's couch. Cause I have this idea for a start up like practical. That's not an easy thing to do. And so I think if we did more to help encourage and by encourage, I mean, supply. Young entrepreneurs and people who want to experiment with the resources, not only the financial resources to operate a company, but so they can, they can have a reasonable existence while they're trying to these things out.</p><p>Um, I think the better off we are, we'll be as a society. If we put more, uh, sort of, sort of leverage behind again, governmental resources to help people like that. I think we can do a lot more innovation as, as a, as a country and as a nation. Um, to improve, you know, not only obviously talking about the medical space, but like all sorts of other things, you know, whether it's materials or aerospace or transportation.</p><p>I mean, there's, there's so many interesting problems to be solved, um, that helping entrepreneurs are creating environments where entrepreneurs can, can grow. Uh, I think would be a wonderful thing to do if we could, if we could get there, uh, as a country. </p><p><strong>Harry: </strong>But, uh, I wrote a letter to tech and it got published.</p><p>I don't know where in AI med or something like that about, you know, begging tech people. Like you need to look at this space cause you can actually make money and make a difference as opposed to, if you go to, you know, Facebook or something like that, like you really, you know, it's not no offense to Facebook, but you're really not making a difference in any way it's life.</p><p>But, but in the last few minutes here, let's pivot back for a second. To the company, what you guys are doing, what do you guys see the next milestone and, you know, taking the technology forward and the impact that it's going to have, or is there a particular program that really you're excited about that it's really moving the needle.</p><p><strong>Andrew: </strong>Yeah, that's a good one. So yeah, we've we, um, so we act a bit like a mid-size farmer, right? So if we've got a whole portfolio, we've got 18 diseases, uh, currently under active development. Uh, now a number of those are through, um, uh, these licensing deals with, with pharma. But like I said, there's, there's a dozen or so that we're moving forward internally.</p><p>Um, and of course, you know, what, what seems to be the most promising, uh, programs are always the one where the uncertainty is the lowest. So the ones that have been around the longest, which we know the most information about seeing the most promising, but there very well could be an earlier program.</p><p>That's actually way more promising, but we just don't know yet. Right. Because we haven't gotten that far. Um, but we've got, uh, these days, uh, five programs. Um, in, uh, medicinal chemistry, right? So this is we've screened things down. We've got a lead that lead has been tested in multiple preclinical studies.</p><p>We, uh, see us performance is better than standard of care. If it exists or maybe against, uh, annual positive and control, might've been a, like a phase three clinical, uh, candidate, if there is no FDA approved molecule in that disease area. So we've got about five programs like that. Uh, we're, we're moving forward from the Med Chem perspective.</p><p>We've got five more programs right behind those where we have screen things down and we see early signals of a potentially, you know, more appealing therapeutic than, than what's available or what's about to be available. Um, but we have some more work to do to either finalize the selection of the lead molecule or maybe run another.</p><p>Preclinical study to, to, you know, get a second confirmation that what we have is, is truly interesting. So out of those, those 10, um, I, you know, I think in the next few years, it's not clear. Which one of those is going to pan out and be the most, uh, appealing for the company. Um, to ultimately answer your question.</p><p>I think for us, you know, our next milestone, there's sort of like these credibility milestones as you reach them as a Pharma company, like people get more and more serious about you. Uh, and for us, the next big milestone is an I andD filing. Um, it's not clear when that will happen. I would say the soonest, it could happen.</p><p>Uh, it would be, uh, the beginning of, of next calendar year. Uh, we do have something that, um, has the potential to be there. Um, but again, as we move forward, we are constantly killing programs too. We have a lot of optionality. And so we're always trying to figure out which one is the most lucrative to move forward with.</p><p>Um, but I think certainly within the next year or two at the latest, um, we will get to that. I need milestones. And I think that's going to be a huge inflection point for the company where now we've gone from being a discovery stage company to being a clinical stage company. And then really all sorts of things change for.</p><p>Uh, how you're perceived and you know, what people think about for your future and a whole bunch of things. So that's, that's what we're focused on as a company is getting to the IMD milestone, uh, not only as quickly as possible, but also to do with something that the most compelling thing that we can, we can put forward.</p><p>And so we've got lots of choices to do that with. Um, and we're optimistic that we'll have at least one, if not two or those, um, uh, in the next few years.</p><p><strong>Harry: </strong>Yeah, I was going to say, well, you know, at the beginning of the year is not that far away. Um, No, we've got an election and a few things to get done before then, but, uh, it's it's feels like it's it's right around the corner.</p><p><strong>Andrew:</strong>, time does time does seem to fly, but yeah, it's still summer. It's still summer, but, uh, indeed. Right. It's uh, I think, well, and certainly in the, uh, in the warp speed, uh, that we're going out for the life science industry. Yeah. Like, you know, six to nine months is insanely fast where other industries that seems like a, you know, winter.</p><p>Geez, Louise. Why does it take that long? But, uh, but obviously very quick for, uh, for this industry. </p><p><strong>Harry: </strong>Oh, yeah. I mean, I always, I keep telling people, I mean, the difference between evolution and revolution is just a measure of time. Now. </p><p><strong>Andrew: </strong>I love it. I might have to steal that and use it later. No, no. Feel</p><p><strong>Harry: </strong>free. I mean, it's actually, it's a quote in the book because it's, it's, it's true.</p><p>Right? If things take a long time, people call it evolution. If it happens overnight, it's a revolution, right? It's so, um, Look, it was great to catch up. I'm I'm um, I'm really excited for you guys. I mean, cause you know, having these periodic, uh, discussions to understand the, the arc of the change is, is, is always fascinating to me.</p><p>And I just don't understand how everybody can't wrap their head around the impact that this technology is happening. And whenever I hear somebody, you know, naysaying or poo-pooing, I'm like. What am I missing and why am I looking at it the wrong way? I, sometimes I have to go back and look at a few things to make sure, like, I'm, I'm not, you know, drinking my own Kool-Aid sort of thing,</p><p><strong>Andrew: </strong>but let me, let me close with this.</p><p>So Mark, who I'd mentioned earlier, who's our head of R & D. Um, you know, he didn't just show up one day and say, I want to work here. Um, he actually was a, it was a KOL, uh, with a company. Uh, for many years, we'd brought him in to, to consult on some of the things that we're doing. And so you sort of got like the slow drip of the activity over time.</p><p>And, uh, you know, finally, you know, he came in one day and we were talking about, I think we were talking about results on the bus. I can't remember what, but you know, we're talking about that. And some other programs, you know, any, any recognizes, he sort of knows, like if people said they know this, but they, you know, they kind of come in the office and they see, they're like, man, there's like 18 programs here.</p><p>You know, it's like less than 20 people, you know, like it's, it's just this tiny little crew. And so, you know, he's kinda like looking around the office. He's like, this is it, isn't it. I mean, this is, this is the team, you know? And, and he knows, right. Cause he's been, he's been looking at the preclinical evidence and he says to me, man, he's like, you know, I had been waiting to do something special for quite some time.</p><p>It's like, this is it. I want you to offer me a job. I was, I was just like, it's like, like, uh, like a guru to me right now. He wants to now he wants to work for me. I'm thinking like, you know, what's going on here? Um, And so, and of course, like, are you kidding? Do you want to work here? Yes, we can. We can do that.</p><p>Um, the kind of, um, part of that discussion was him telling me sort of his evolution of his complete skepticism in computer science and artificial intelligence and, you know, the way he described it was, um, you know, he saw computers, winning games, like chess and go, but they have, they have defined rules and they have to find outcomes.</p><p>And he's like in drug discovery, there are no defined rules. Like every, every drug that's made to market is its own own little story. Um, but not only that, but that the moves that people made to get there are not known unlike a chess game where you can, you know, whether or not you're paying. Right. And, and, and his view was like, there's, there's just no way computers can solve this problem.</p><p>It's completely unbounded. It's not like playing a game. Therefore it will never work. Um, And so he's had a, uh, an evolution in his old, in his mind isn't as an old school, you know, drug developer, who's, who's had lots of success. Um, and he's gone from like highly skeptical, uh, to highly supportive. And in fact, um, we've been working on, um, a video that, that, uh, he's, he's, uh, sort of describing this transformation that we're going to get out, uh, hopefully in the next few months, um, To kind of share his story about that transformation.</p><p>And so I think Mark represents, you know, one of many, you know, sort of leading scientists in the field. Who in his case, he's obviously made the transformation from skeptic to full supporter to like, this is, this is now my next career move is I want to be involved with this. Um, and I think that story and hearing from Mark as, as we get the video out there about his own skepticism and what convinced him and how's things changed and how he came to understand what's possible.</p><p>Um, I think that transformation is happening all throughout the industry with a bunch of people. And, and I think that Mark's story will help. Um, kind of people understand how he's, you know, sort of perceive these changes and therefore, you know, we'll give them some, some fuel or some ideas to think about how the transformation will affect them.</p><p>So we, we look forward to getting that video out there and sharing with people and then, um, and people can sort of see it from, from Mark's eyes and Mark's point of view. </p><p><strong>Harry: </strong>Yeah, please don't send it to me. I'd love to take a look at it, but you know, like I said, I, I read all this stuff in tech and I look at how.</p><p>People are trying to solve problems in completely different areas. And you look at the creativity as you said, right? Cause it is a creative job in a sense. And then I look at how that could pivot into our world. And I think it's just, you know, an opens up a whole opportunity, set that the current way that, that scientists look at the world in our world may not see the opportunity.</p><p><strong>Andrew: </strong>Yeah, well, we'll get there. We'll we'll get there </p><p><strong>Harry: </strong>so, well, it was great to talk to you. Um, I look forward to staying in touch and maybe one of these days we had talked about getting together for a beer, but I think we're going to have to wait until this whole thing is over </p><p><strong>Andrew: </strong>next year. No problem.</p><p>It's all good, man. Take care. </p><p><strong>Harry: </strong>Bye bye.</p><p> </p><p> </p>
]]></content:encoded>
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      <itunes:title>Andrew A. Radin Returns with a Progress Report on twoXAR</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:56:59</itunes:duration>
      <itunes:summary>Harry welcomes back Andrew A. Radin, CEO of the drug discovery startup twoXAR, where scientists model pathogenesis computationally to identify potential drug molecules and, ideally shaving years off the drug development process.</itunes:summary>
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      <title>Rayid Ghani Explains How AI Can Both Predict and Shape Patient Behavior</title>
      <description><![CDATA[<p>In this week's show Harry interviews Rayid Ghani, a computer scientist at Carnegie Mellon University who studies how to use AI and data science to model and influence people's behavior in realms like politics, healthcare, education, and criminal justice.</p><p>Ghani tell Harry he grew up hating coding, since the very need for it showed that "computers are really stupid and dumb." But Ghani says he eventually realized that machine learning can change that by allowing programmers to teach computers <i>the rules of the game</i>, at which point they can improve on their own and learn to solve real problems.</p><p>Ghani went on to become chief data scientist for the 2012 Obama campaign, and he has since used what he learned  about data analytics to study applications of AI to large-scale social problems in many areas, including healthcare. He's currently Distinguished Career Professor in the Machine Learning Department at Carnegie Mellon University's School of Computer Science.</p><p>In political campaigns, Ghani says, machine learning and other forms of AI are used not just to predict voter behavior but, in combination with behavioral psychology insights, to change it. "Why not do the same thing for issues with effects that are much, much broader?" he asks. "In health, we do fairly macro policies around 'everybody should get this vaccine.' But often you don't have enough resources to make sure that happens." AI and machine learning may be able to help by predicting who needs help the most, and then persuading them to make the necessary changes—for example, changing their diet and lifestyle to avoid Type 2 diabetes. But it's all a tricky area to study, he says. "Those are the two things we need to couple together—prediction combined with behavior change—and that requires both the data about these individuals and, more importantly, creates ethical issues about how we test these ideas."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Thu, 20 Aug 2020 15:15:15 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>In this week's show Harry interviews Rayid Ghani, a computer scientist at Carnegie Mellon University who studies how to use AI and data science to model and influence people's behavior in realms like politics, healthcare, education, and criminal justice.</p><p>Ghani tell Harry he grew up hating coding, since the very need for it showed that "computers are really stupid and dumb." But Ghani says he eventually realized that machine learning can change that by allowing programmers to teach computers <i>the rules of the game</i>, at which point they can improve on their own and learn to solve real problems.</p><p>Ghani went on to become chief data scientist for the 2012 Obama campaign, and he has since used what he learned  about data analytics to study applications of AI to large-scale social problems in many areas, including healthcare. He's currently Distinguished Career Professor in the Machine Learning Department at Carnegie Mellon University's School of Computer Science.</p><p>In political campaigns, Ghani says, machine learning and other forms of AI are used not just to predict voter behavior but, in combination with behavioral psychology insights, to change it. "Why not do the same thing for issues with effects that are much, much broader?" he asks. "In health, we do fairly macro policies around 'everybody should get this vaccine.' But often you don't have enough resources to make sure that happens." AI and machine learning may be able to help by predicting who needs help the most, and then persuading them to make the necessary changes—for example, changing their diet and lifestyle to avoid Type 2 diabetes. But it's all a tricky area to study, he says. "Those are the two things we need to couple together—prediction combined with behavior change—and that requires both the data about these individuals and, more importantly, creates ethical issues about how we test these ideas."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Rayid Ghani Explains How AI Can Both Predict and Shape Patient Behavior</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:44:20</itunes:duration>
      <itunes:summary>In this week&apos;s show Harry interviews Rayid Ghani, a computer scientist at Carnegie Mellon University who studies how to use AI and data science to model and influence people&apos;s behavior in realms like politics, healthcare, education, and criminal justice.</itunes:summary>
      <itunes:subtitle>In this week&apos;s show Harry interviews Rayid Ghani, a computer scientist at Carnegie Mellon University who studies how to use AI and data science to model and influence people&apos;s behavior in realms like politics, healthcare, education, and criminal justice.</itunes:subtitle>
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      <title>Oura&apos;s Harpreet Rai on a Ring That May Change Covid-19 Detection</title>
      <description><![CDATA[<p>This week Harry speaks with Oura Health CEO Harpreet Rai, who's leading an effort to explore how a wearable sleep-monitoring device—the Oura Ring—can pick up patterns that may help diagnose covid-19 infections and other problems.</p><p>The ring is equipped with sensors that measure heart rate and body temperature, as well as a tiny Bluetooth radio that syncs the data it collects with a smartphone app. The Finland-based company designed the ring primarily to measure sleep quality, but it also contains an accelerometer and a gyroscope that can measure daytime movement and activity.  Together, the data is used to calculate a "readiness score" indicating whether the wearer is fully rested and prepared for the day.</p><p>Now Oura is collaborating with the West Virginia University Rockefeller Neuroscience Institute to study whether data from the ring can also be used to detect the early symptoms of covid-19 and predict whether wearers will be officially diagnosed with the virus.  The hypothesis is that systematic changes in a wearer's readiness score can presage illness. Rai tells Harry: "Their body temperature is starting to change. Their respiratory rate is starting to change. Their HRV [heart rate variability] is starting to change. We've seen people send us messages that 'Oh, my readiness score changed, and my ring gave me a notification that I might be coming down with a fever, or my body temperature was elevated, and I should take it easy,' and a day or two later they'll feel symptoms, unfortunately, of being sick."</p><p>If such patterns hold true, the National Basketball Association may be one of the first organizations to benefit. The league bought 2,000 Oura rings this summer in a bid to help protect players sequestered at Disney World for the season.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Mon, 3 Aug 2020 18:38:44 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week Harry speaks with Oura Health CEO Harpreet Rai, who's leading an effort to explore how a wearable sleep-monitoring device—the Oura Ring—can pick up patterns that may help diagnose covid-19 infections and other problems.</p><p>The ring is equipped with sensors that measure heart rate and body temperature, as well as a tiny Bluetooth radio that syncs the data it collects with a smartphone app. The Finland-based company designed the ring primarily to measure sleep quality, but it also contains an accelerometer and a gyroscope that can measure daytime movement and activity.  Together, the data is used to calculate a "readiness score" indicating whether the wearer is fully rested and prepared for the day.</p><p>Now Oura is collaborating with the West Virginia University Rockefeller Neuroscience Institute to study whether data from the ring can also be used to detect the early symptoms of covid-19 and predict whether wearers will be officially diagnosed with the virus.  The hypothesis is that systematic changes in a wearer's readiness score can presage illness. Rai tells Harry: "Their body temperature is starting to change. Their respiratory rate is starting to change. Their HRV [heart rate variability] is starting to change. We've seen people send us messages that 'Oh, my readiness score changed, and my ring gave me a notification that I might be coming down with a fever, or my body temperature was elevated, and I should take it easy,' and a day or two later they'll feel symptoms, unfortunately, of being sick."</p><p>If such patterns hold true, the National Basketball Association may be one of the first organizations to benefit. The league bought 2,000 Oura rings this summer in a bid to help protect players sequestered at Disney World for the season.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Oura&apos;s Harpreet Rai on a Ring That May Change Covid-19 Detection</itunes:title>
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      <itunes:summary>This week Harry speaks with Oura Health CEO Harpreet Rai, who&apos;s leading an effort to explore how a wearable sleep-monitoring device—the Oura Ring—can pick up patterns that may help diagnose covid-19 infections and other problems.</itunes:summary>
      <itunes:subtitle>This week Harry speaks with Oura Health CEO Harpreet Rai, who&apos;s leading an effort to explore how a wearable sleep-monitoring device—the Oura Ring—can pick up patterns that may help diagnose covid-19 infections and other problems.</itunes:subtitle>
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      <title>David Sable on the Genetic Revolution in Fertility Treatment</title>
      <description><![CDATA[<p>David Sable got his start in reproductive medicine in the late 1980s, a time when he says fertility treatments were "very primitive." But by the mid-2000s, he says, new procedures and new insights into the genetics of development had changed everything. His subsequent time observing (and investing in) the field has convinced him that reproductive medicine is "the most interesting area of medicine this century."</p><p>Sable is a medical and entrepreneurial chameleon who trained in obstetrics and gynecology, worked as a reproductive endocrinologist, co-founded the Institute for Reproductive Medicine and Science fertility clinic, co-founded the embryo genetic testing firm Reprogenetics, and now works as portfolio manager of the Special Situations Life Sciences Fund and the Life Sciences Innovation Fund while also writing for <i>Forbes</i> and teaching biotech entrepreneurship at Columbia University. </p><p>Intriguingly, Sable says his earliest inspiration to become a medical entrepreneur came from the brief scene at the end of <i>The Empire Strikes Back</i> in which a robot clinician gives Luke Skywalker a prosthetic hand. To Sable, the seeming everydayness of the operation spoke to the possibility of "taking the miraculous and turning it into the mundane—taking the medicine and the science and along the way adding a lot of engineering to it."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Mon, 20 Jul 2020 11:00:04 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>David Sable got his start in reproductive medicine in the late 1980s, a time when he says fertility treatments were "very primitive." But by the mid-2000s, he says, new procedures and new insights into the genetics of development had changed everything. His subsequent time observing (and investing in) the field has convinced him that reproductive medicine is "the most interesting area of medicine this century."</p><p>Sable is a medical and entrepreneurial chameleon who trained in obstetrics and gynecology, worked as a reproductive endocrinologist, co-founded the Institute for Reproductive Medicine and Science fertility clinic, co-founded the embryo genetic testing firm Reprogenetics, and now works as portfolio manager of the Special Situations Life Sciences Fund and the Life Sciences Innovation Fund while also writing for <i>Forbes</i> and teaching biotech entrepreneurship at Columbia University. </p><p>Intriguingly, Sable says his earliest inspiration to become a medical entrepreneur came from the brief scene at the end of <i>The Empire Strikes Back</i> in which a robot clinician gives Luke Skywalker a prosthetic hand. To Sable, the seeming everydayness of the operation spoke to the possibility of "taking the miraculous and turning it into the mundane—taking the medicine and the science and along the way adding a lot of engineering to it."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>David Sable on the Genetic Revolution in Fertility Treatment</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:summary>David Sable got his start in reproductive medicine in the late 1980s, a time when he says fertility treatments were &quot;very primitive.&quot; But by the mid-2000s, he says, new procedures and new insights into the genetics of development had changed everything. His subsequent time observing (and investing in) the field has convinced him that reproductive medicine is &quot;the most interesting area of medicine this century.&quot;</itunes:summary>
      <itunes:subtitle>David Sable got his start in reproductive medicine in the late 1980s, a time when he says fertility treatments were &quot;very primitive.&quot; But by the mid-2000s, he says, new procedures and new insights into the genetics of development had changed everything. His subsequent time observing (and investing in) the field has convinced him that reproductive medicine is &quot;the most interesting area of medicine this century.&quot;</itunes:subtitle>
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      <title>Elli Papaemmanuil Explains How Genomics Will Transform Cancer Care</title>
      <description><![CDATA[<p>This week Harry speaks with molecular geneticist Elli Papaemmanuil about how newly available genomic data could lead to major improvements in the standard of care for cancer patients, leading to an age of true precision medicine.</p><p>Papaemmanuil is an assistant professor of computational oncology at Memorial Sloan Kettering Cancer Center in New York. Her lab's research is built around the idea that the genetic sequences of tumor cells reveal distinctive acquired mutations that can allow doctors to predict the course of the disease in specific patients and help them to design individualized treatments. That idea isn't new—but it isn't yet standard practice in oncology, a situation Emmanuil is working to change, in part by using AI and data-driven approaches to analyze the vast number of genetic variations in diseases like leukemia and reduce them to a manageable number of classes amenable to customized treatment approaches.</p><p>Papaemmanuil says she decided to become a cancer geneticist from the moment she learned about the Human Genome Project as a young person growing up in Greece. She obtained her PhD at the University of London, and now she's working to understand "how we can use genomic technology and genomic data to inform patient care." She was an early adopter of microarrays to conduct genome-wide linkage studies and identify common genetic variations that predispose people to colorectal cancer, leukemia, and other cancers. More recently she's used rapid genome sequencing technology to help complete the first catalog of genes that are commonly mutated in cancer.  She says this kind of information could help identify which patients are at risk for cancer; carry out screening to find patients with early-stage cancer, when treatment outcomes are much better; and most fundamentally, to create data-driven treatment models that account for a patient's age, gender, lifestyle, radiographic data, and genomic parameters.</p><p>"At the moment our standard of care represents brute force," Papaemmanuil says. "Now we understand that there's a lot of complexity [in cancer], and that if we study large enough patient cohorts, and we have genetic information with very good clinical annotation and outcomes, we can bring the AI component into the process and use classification and prediction tools" to, in effect, put a powerful computational advisor in every oncology exam room.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Mon, 29 Jun 2020 12:00:04 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week Harry speaks with molecular geneticist Elli Papaemmanuil about how newly available genomic data could lead to major improvements in the standard of care for cancer patients, leading to an age of true precision medicine.</p><p>Papaemmanuil is an assistant professor of computational oncology at Memorial Sloan Kettering Cancer Center in New York. Her lab's research is built around the idea that the genetic sequences of tumor cells reveal distinctive acquired mutations that can allow doctors to predict the course of the disease in specific patients and help them to design individualized treatments. That idea isn't new—but it isn't yet standard practice in oncology, a situation Emmanuil is working to change, in part by using AI and data-driven approaches to analyze the vast number of genetic variations in diseases like leukemia and reduce them to a manageable number of classes amenable to customized treatment approaches.</p><p>Papaemmanuil says she decided to become a cancer geneticist from the moment she learned about the Human Genome Project as a young person growing up in Greece. She obtained her PhD at the University of London, and now she's working to understand "how we can use genomic technology and genomic data to inform patient care." She was an early adopter of microarrays to conduct genome-wide linkage studies and identify common genetic variations that predispose people to colorectal cancer, leukemia, and other cancers. More recently she's used rapid genome sequencing technology to help complete the first catalog of genes that are commonly mutated in cancer.  She says this kind of information could help identify which patients are at risk for cancer; carry out screening to find patients with early-stage cancer, when treatment outcomes are much better; and most fundamentally, to create data-driven treatment models that account for a patient's age, gender, lifestyle, radiographic data, and genomic parameters.</p><p>"At the moment our standard of care represents brute force," Papaemmanuil says. "Now we understand that there's a lot of complexity [in cancer], and that if we study large enough patient cohorts, and we have genetic information with very good clinical annotation and outcomes, we can bring the AI component into the process and use classification and prediction tools" to, in effect, put a powerful computational advisor in every oncology exam room.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:summary>This week Harry speaks with molecular geneticist Elli Papaemmanuil about how newly available genomic data could lead to major improvements in the standard of care for cancer patients, leading to an age of true precision medicine.</itunes:summary>
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      <title>Gregory Bowman Explains How You Can Help Cure the Coronavirus from Home</title>
      <description><![CDATA[<p>This week Harry interviews Gregory Bowman, an associate professor in the department of biochemistry and molecular biophysics in the School of Medicine at Washington University in St. Louis. Bowman is the current director of Folding@home, a distributed computing project currently focused on analyzing the structures of coronavirus proteins to find targets for new drug therapies that could help end the pandemic.</p><p>Understanding and modeling the 3D structures of tiny, ever-shifting protein molecules is a notoriously complex problem. Folding@home cuts through it by sending crystallography data and other information to thousands of home computers and using it to model possible protein configurations—effectively creating a large, networked supercomputer. The project has been underway in various forms since 2000, but has recently concentrated fully on the SARS-CoV-2 virus that causes covid-19. The hope is that the work will reveal locations on viral proteins where small-molecule drugs could bind, disrupting the virus's ability to enter human cells and replicate itself. </p><p>By patching together so many distributed machines, "We are the first computer to reach the exascale," Bowman says. "Our peak performance is about 10-fold that of the world's fastest traditional supercomputer. Even before the 100-fold growth we have experienced since starting our work on covid-19, we were running calculations that would have cost millions of dollars to run on the cloud." Now that number is in the hundreds of millions of dollars. </p><p>Anyone can contribute to the effort by going to <a href="https://foldingathome.org/">foldingathome.org</a> and downloading the Folding@home software to their Windows, Mac, or Linux machine.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Wed, 17 Jun 2020 20:25:20 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>This week Harry interviews Gregory Bowman, an associate professor in the department of biochemistry and molecular biophysics in the School of Medicine at Washington University in St. Louis. Bowman is the current director of Folding@home, a distributed computing project currently focused on analyzing the structures of coronavirus proteins to find targets for new drug therapies that could help end the pandemic.</p><p>Understanding and modeling the 3D structures of tiny, ever-shifting protein molecules is a notoriously complex problem. Folding@home cuts through it by sending crystallography data and other information to thousands of home computers and using it to model possible protein configurations—effectively creating a large, networked supercomputer. The project has been underway in various forms since 2000, but has recently concentrated fully on the SARS-CoV-2 virus that causes covid-19. The hope is that the work will reveal locations on viral proteins where small-molecule drugs could bind, disrupting the virus's ability to enter human cells and replicate itself. </p><p>By patching together so many distributed machines, "We are the first computer to reach the exascale," Bowman says. "Our peak performance is about 10-fold that of the world's fastest traditional supercomputer. Even before the 100-fold growth we have experienced since starting our work on covid-19, we were running calculations that would have cost millions of dollars to run on the cloud." Now that number is in the hundreds of millions of dollars. </p><p>Anyone can contribute to the effort by going to <a href="https://foldingathome.org/">foldingathome.org</a> and downloading the Folding@home software to their Windows, Mac, or Linux machine.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Gregory Bowman Explains How You Can Help Cure the Coronavirus from Home</itunes:title>
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      <itunes:summary>This week Harry interviews Gregory Bowman, an associate professor in the department of biochemistry and molecular biophysics in the School of Medicine at Washington University in St. Louis. Bowman is the director of Folding@home, a distributed computing project currently focused on analyzing the structures of coronavirus proteins to find targets for new drug therapies that could help end the pandemic.</itunes:summary>
      <itunes:subtitle>This week Harry interviews Gregory Bowman, an associate professor in the department of biochemistry and molecular biophysics in the School of Medicine at Washington University in St. Louis. Bowman is the director of Folding@home, a distributed computing project currently focused on analyzing the structures of coronavirus proteins to find targets for new drug therapies that could help end the pandemic.</itunes:subtitle>
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      <title>Covid-19 Tracing Inside Companies, with SaferMe&apos;s Clint Van Marrewijk</title>
      <description><![CDATA[<p>Harry's guest this week is the founder and CEO of a New Zealand firm, SaferMe, that had developed proximity-based smartphone apps for worker safety. When the coronavirus came along, their apps turned out to be a great way to help companies build their own "contact tables" to identify, test, and isolate SARS-CoV-2 carriers.</p><p>In epidemiology, contact tracing is the art of determining who has crossed paths with an infected individual, so that those exposed can be alerted and can take appropriate action, such as self-isolating. Health agencies around the world are building public smartphone apps to assist with contact tracing, but they're being deployed at a national scale, whereas many businesses need more detailed information to protect their workers. </p><p>Van Marrewijk says SaferMe had already built technology that creates a "virtual safety bubble" around each worker—issuing an alert, for example, if lightning is approaching or if they come too close to a hazard such as a mine shaft. "We already had this technology going and we had already done GDPR [data privacy] compliance," he says. When the company noticed early in the pandemic that some of its clients were using the app as the foundation for in-house COVID-19 contact tracing efforts, it quickly built a dedicated app.  </p><p>"Someone reports sick, your contact tracer can hit a button and quickly see 'These are the eight people out of a group of 40 that perhaps should stay home or be tested until we sure,'" Van Marrewijk explains. "That gives some assurance there's a proper process in place."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Mon, 1 Jun 2020 16:39:04 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest this week is the founder and CEO of a New Zealand firm, SaferMe, that had developed proximity-based smartphone apps for worker safety. When the coronavirus came along, their apps turned out to be a great way to help companies build their own "contact tables" to identify, test, and isolate SARS-CoV-2 carriers.</p><p>In epidemiology, contact tracing is the art of determining who has crossed paths with an infected individual, so that those exposed can be alerted and can take appropriate action, such as self-isolating. Health agencies around the world are building public smartphone apps to assist with contact tracing, but they're being deployed at a national scale, whereas many businesses need more detailed information to protect their workers. </p><p>Van Marrewijk says SaferMe had already built technology that creates a "virtual safety bubble" around each worker—issuing an alert, for example, if lightning is approaching or if they come too close to a hazard such as a mine shaft. "We already had this technology going and we had already done GDPR [data privacy] compliance," he says. When the company noticed early in the pandemic that some of its clients were using the app as the foundation for in-house COVID-19 contact tracing efforts, it quickly built a dedicated app.  </p><p>"Someone reports sick, your contact tracer can hit a button and quickly see 'These are the eight people out of a group of 40 that perhaps should stay home or be tested until we sure,'" Van Marrewijk explains. "That gives some assurance there's a proper process in place."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="28700130" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/cad60205-f49c-4750-8ded-08bbf5385384/moneyball-medicine-clint-van-marrewijk_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Covid-19 Tracing Inside Companies, with SaferMe&apos;s Clint Van Marrewijk</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:29:50</itunes:duration>
      <itunes:summary>Harry&apos;s guest this week is the founder and CEO of a New Zealand firm, SaferMe, that had developed proximity-based smartphone apps for worker safety. When the coronavirus came along, their apps turned out to be a great way to help companies build their own &quot;contact tables&quot; to identify, test, and isolate SARS-CoV-2 carriers.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week is the founder and CEO of a New Zealand firm, SaferMe, that had developed proximity-based smartphone apps for worker safety. When the coronavirus came along, their apps turned out to be a great way to help companies build their own &quot;contact tables&quot; to identify, test, and isolate SARS-CoV-2 carriers.</itunes:subtitle>
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      <title>Ulo Palm on P-Values: What They Are and Why They&apos;re Past Their Prime</title>
      <description><![CDATA[<p>Though the p-value "determines everything we do in  drug development or medical research," says Dr. Ulo Palm , it may be one of the most misunderstood and misused quantities in experimental science—drug discovery included. At its core, the p-value shows the probability that an observed effect was due to random chance. In other words, if a drug seems to outperforms a placebo with an associated p-value of 0.05, there's only a 5 percent chance that the study was wrong and that the drug is, in fact, no better than the placebo. A p-value of 0.05 is the accepted threshold for validity in most scientific research, even though it's an arbitrary standard set nearly a century ago by statistician Sir Ronald Fisher. "People don't often realize that this p-value of 5 percent was pulled out of thin air," Dr. Palm says. "If Sir Ronald Fisher had had six fingers, we would all be using a p-value of 6 percent."</p><p>The issue, Palm says, is that an arbitrary dividing line of 0.05 leads journal publishers (and paper authors themselves) to reject or ignore real effects that don't happen to meet the threshold. If a drug trial yields a p-value of more than 0.05, "You should never ever say it is not working," he tells Harry. "You can only say we were not able to make a determination. That's it." By examining the spread of a data set, confidence intervals, data from individuals, and other measures, Palm says, today's researchers can get a more realistic picture of the promise of a new compounds as medicines.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Wed, 20 May 2020 19:06:09 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Though the p-value "determines everything we do in  drug development or medical research," says Dr. Ulo Palm , it may be one of the most misunderstood and misused quantities in experimental science—drug discovery included. At its core, the p-value shows the probability that an observed effect was due to random chance. In other words, if a drug seems to outperforms a placebo with an associated p-value of 0.05, there's only a 5 percent chance that the study was wrong and that the drug is, in fact, no better than the placebo. A p-value of 0.05 is the accepted threshold for validity in most scientific research, even though it's an arbitrary standard set nearly a century ago by statistician Sir Ronald Fisher. "People don't often realize that this p-value of 5 percent was pulled out of thin air," Dr. Palm says. "If Sir Ronald Fisher had had six fingers, we would all be using a p-value of 6 percent."</p><p>The issue, Palm says, is that an arbitrary dividing line of 0.05 leads journal publishers (and paper authors themselves) to reject or ignore real effects that don't happen to meet the threshold. If a drug trial yields a p-value of more than 0.05, "You should never ever say it is not working," he tells Harry. "You can only say we were not able to make a determination. That's it." By examining the spread of a data set, confidence intervals, data from individuals, and other measures, Palm says, today's researchers can get a more realistic picture of the promise of a new compounds as medicines.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="41077447" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/58f31981-bbc6-425b-863a-eaf30fe0b79a/moneyball-medicine-ulo-palm_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Ulo Palm on P-Values: What They Are and Why They&apos;re Past Their Prime</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:42:43</itunes:duration>
      <itunes:summary>This week Harry quizzes Ulo Palm, the senior vice president of digital sciences at Allergan, about the long and problematic reign of the p-value in statistical analysis, and why it may be time for the biopharma industry to look to more nuanced measures of whether a drug trial succeeded. </itunes:summary>
      <itunes:subtitle>This week Harry quizzes Ulo Palm, the senior vice president of digital sciences at Allergan, about the long and problematic reign of the p-value in statistical analysis, and why it may be time for the biopharma industry to look to more nuanced measures of whether a drug trial succeeded. </itunes:subtitle>
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      <itunes:episode>39</itunes:episode>
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      <title>How Data Is Critical to Engineering Antibodies to Block COVID-19</title>
      <description><![CDATA[<p>Building on his March 2020 interview with Jake Glanville, the founding partner and CEO of South San Francisco-based computational antibody engineering startup Distributed Bio, Harry speaks with three company scientists in the trenches: JP Buerckert, director of computational immunology, and Shahrad Daraekia and Jack Wang, both senior scientists. Together they're working on projects such as engineering existing human antibodies to the SARS virus so that they'll also work against the novel coronavirus, SARS-CoV2.</p><p>The company's special sauce lies in its computational algorithms for analyzing antibody gene sequences and generating billions of new candidate antibodies against different pathogens. "We have a very strong wet lab team that is generating data for us and then we have a very strong data team that is sorting through these data" to help scientists decide which antibody leads to move forward with, Buerckert explains.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Thu, 16 Apr 2020 14:21:13 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Building on his March 2020 interview with Jake Glanville, the founding partner and CEO of South San Francisco-based computational antibody engineering startup Distributed Bio, Harry speaks with three company scientists in the trenches: JP Buerckert, director of computational immunology, and Shahrad Daraekia and Jack Wang, both senior scientists. Together they're working on projects such as engineering existing human antibodies to the SARS virus so that they'll also work against the novel coronavirus, SARS-CoV2.</p><p>The company's special sauce lies in its computational algorithms for analyzing antibody gene sequences and generating billions of new candidate antibodies against different pathogens. "We have a very strong wet lab team that is generating data for us and then we have a very strong data team that is sorting through these data" to help scientists decide which antibody leads to move forward with, Buerckert explains.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="33228648" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/c1f61081-5080-4ba7-b831-b1fb899791ce/moneyball-medicine-distributed-bio_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>How Data Is Critical to Engineering Antibodies to Block COVID-19</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:34:36</itunes:duration>
      <itunes:summary>Distributed Bio aims to use its computational antibody engineering platform to identify antibodies that protect against SARS and optimize them to block the SARS-CoV2 coronavirus. This week Harry gets an progress update from three key Distributed Bio scientists.</itunes:summary>
      <itunes:subtitle>Distributed Bio aims to use its computational antibody engineering platform to identify antibodies that protect against SARS and optimize them to block the SARS-CoV2 coronavirus. This week Harry gets an progress update from three key Distributed Bio scientists.</itunes:subtitle>
      <itunes:keywords>distributed bio, antibodies, pandemic, moneyball medicine, coronavirus, jacob glanville, sars-cov2, harry glorikian, covid-19</itunes:keywords>
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      <title>Jacob Glanville Confronts Coronavirus Through Immuno-engineering</title>
      <description><![CDATA[<p>If you've seen the recent Netflix docu-series "Pandemic," about efforts to check previous viral outbreaks, you've seen former Pfizer scientist Jacob Glanville in action. The inventor, entrepreneur, and Ph.D. immunologist capitalized on the advent of cloud computing to provide vaccine and drug developers with high-throughput genomic sequencing of antibodies in humans and other species. He calls it "using the ability to look deep into these maelstroms of antibodies to try to understand why vaccines fail to hit conserved epitopes [where antibodies attach to antigens] on influenza or HIV, or how to better produce an antibody medicine." Revenue from the service allowed the startup to grow without outside capital. Today the company is developing a universal flu vaccine for pigs and humans. </p><p>Glanville says we'll know by April whether existing anti-malarial, anti-HIV or anti-Ebola antivirals work against the COVID-19 coronavirus. A vaccine will take far longer to develop, he says. Meanwhile, Distributed Bio is using its search platform to find new antibodies—derived from antibodies that neutralize the SARS virus—that could recognize the new coronavirus and provide instant (but relatively short-lived) protection. Glanville compares the search to "taking five billion spaghetti noodles and throwing them against the wall and seeing what sticks."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Mon, 9 Mar 2020 21:13:50 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>If you've seen the recent Netflix docu-series "Pandemic," about efforts to check previous viral outbreaks, you've seen former Pfizer scientist Jacob Glanville in action. The inventor, entrepreneur, and Ph.D. immunologist capitalized on the advent of cloud computing to provide vaccine and drug developers with high-throughput genomic sequencing of antibodies in humans and other species. He calls it "using the ability to look deep into these maelstroms of antibodies to try to understand why vaccines fail to hit conserved epitopes [where antibodies attach to antigens] on influenza or HIV, or how to better produce an antibody medicine." Revenue from the service allowed the startup to grow without outside capital. Today the company is developing a universal flu vaccine for pigs and humans. </p><p>Glanville says we'll know by April whether existing anti-malarial, anti-HIV or anti-Ebola antivirals work against the COVID-19 coronavirus. A vaccine will take far longer to develop, he says. Meanwhile, Distributed Bio is using its search platform to find new antibodies—derived from antibodies that neutralize the SARS virus—that could recognize the new coronavirus and provide instant (but relatively short-lived) protection. Glanville compares the search to "taking five billion spaghetti noodles and throwing them against the wall and seeing what sticks."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="52120711" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/37d97a32-646c-4abe-8f09-10b1adabba16/moneyball-medicine-jacob-glanville_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Jacob Glanville Confronts Coronavirus Through Immuno-engineering</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:54:12</itunes:duration>
      <itunes:summary>Harry&apos;s guest for this unusually frank and urgent episode is Jacob Glanville, the founding partner, CEO, and president of Distributed Bio. The company is using its skills in computational antibody analysis and optimization to help the drug industry develop new vaccines and antibody-based treatments for a range of diseases, potentially including the coronavirus that causes COVID-19.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest for this unusually frank and urgent episode is Jacob Glanville, the founding partner, CEO, and president of Distributed Bio. The company is using its skills in computational antibody analysis and optimization to help the drug industry develop new vaccines and antibody-based treatments for a range of diseases, potentially including the coronavirus that causes COVID-19.</itunes:subtitle>
      <itunes:keywords>distributed bio, antibodies, pandemic, drug discovery, coronavirus, jacob glanville, vaccines, harry glorikian, netflix, immunology</itunes:keywords>
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      <itunes:episode>37</itunes:episode>
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      <title>Ramy Farid on the Power of Computation in Drug Discovery</title>
      <description><![CDATA[<p>Schrödinger makes software that models the physics of atomic-scale interactions to predict the chemical properties of candidate drug molecules, helping its customers speed up drug discovery. A decade ago, Farid tells Harry, the company faced the chicken-and-egg challenge of convincing customers that its computational platform works, so that they would scale up their commitment, so that they could gather evidence it was working. Close collaborations with customers like Nimbus Therapeutics helped it improve the software and surmount that challenge. </p><p>"In order to really take it to the next level and make a difference, it was necessary to use the software as customers ourselves," Farid says. "You get real-time feedback, honest feedback. You can imagine how much we learned from that."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 3 Mar 2020 13:13:54 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Schrödinger makes software that models the physics of atomic-scale interactions to predict the chemical properties of candidate drug molecules, helping its customers speed up drug discovery. A decade ago, Farid tells Harry, the company faced the chicken-and-egg challenge of convincing customers that its computational platform works, so that they would scale up their commitment, so that they could gather evidence it was working. Close collaborations with customers like Nimbus Therapeutics helped it improve the software and surmount that challenge. </p><p>"In order to really take it to the next level and make a difference, it was necessary to use the software as customers ourselves," Farid says. "You get real-time feedback, honest feedback. You can imagine how much we learned from that."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Ramy Farid on the Power of Computation in Drug Discovery</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:28:24</itunes:duration>
      <itunes:summary>Harry interviews Ramy Farid, president and CEO of Schrödinger Pharmaceuticals, about the company&apos;s success using chemical simulation software to help drug makers zero in on promising drug candidates—and about its recent IPO, which brought in more than twice as much cash as the company expected. </itunes:summary>
      <itunes:subtitle>Harry interviews Ramy Farid, president and CEO of Schrödinger Pharmaceuticals, about the company&apos;s success using chemical simulation software to help drug makers zero in on promising drug candidates—and about its recent IPO, which brought in more than twice as much cash as the company expected. </itunes:subtitle>
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      <title>Illumina&apos;s Phil Febbo on Sequencing, Coronavirus and Viral Outbreaks</title>
      <description><![CDATA[<p>Rapid sequencing of viral genomes is giving physicians and epidemiologists new ways to identify, track, and potentially slow outbreaks of viral infections such as the novel Wuhan coronavirus. That means high-throughput genome sequencing—which had predominantly been a research tool—is taking its place as a front-line weapon in the fight to prevent pandemics, says Febbo, a medical oncologist. "Last year, 40 percent of our consumables in sequencing were for clinical testing, and we see the clinical testing increasing at a pace that's faster than research testing," he says.</p><p>Whole-genome viral sequencing, as a supplement to more traditional PCR-based testing for RNA sequences, can not only reveal exactly which virus is afflicting a given patient, but can reveal where a virus originated and how it is evolving to evade vaccines or other interventions.  </p><p>"The fact that the WHO heard of the first cases [of the Wuhan coronavirus] at the end of December, and the New England Journal published the full genome on January 24, within a month, because of the availability of sequencing, already, places like the CDC are using that information to design the probes for the RT-PCR to develop front line tests—never before has anything like that happened," Febbo notes. </p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Wed, 5 Feb 2020 12:00:01 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Rapid sequencing of viral genomes is giving physicians and epidemiologists new ways to identify, track, and potentially slow outbreaks of viral infections such as the novel Wuhan coronavirus. That means high-throughput genome sequencing—which had predominantly been a research tool—is taking its place as a front-line weapon in the fight to prevent pandemics, says Febbo, a medical oncologist. "Last year, 40 percent of our consumables in sequencing were for clinical testing, and we see the clinical testing increasing at a pace that's faster than research testing," he says.</p><p>Whole-genome viral sequencing, as a supplement to more traditional PCR-based testing for RNA sequences, can not only reveal exactly which virus is afflicting a given patient, but can reveal where a virus originated and how it is evolving to evade vaccines or other interventions.  </p><p>"The fact that the WHO heard of the first cases [of the Wuhan coronavirus] at the end of December, and the New England Journal published the full genome on January 24, within a month, because of the availability of sequencing, already, places like the CDC are using that information to design the probes for the RT-PCR to develop front line tests—never before has anything like that happened," Febbo notes. </p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Illumina&apos;s Phil Febbo on Sequencing, Coronavirus and Viral Outbreaks</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:28:09</itunes:duration>
      <itunes:summary>As the Wuhan coronavirus outbreak spreads in Asia, Harry speaks with Phil Febbo, the chief medical officer of Illumina, one of the world&apos;s largest makers of equipment for high-throughput DNA sequencing. Febbo highlights sequencing&apos;s emerging contribution to the understanding and treatment of infectious disease.</itunes:summary>
      <itunes:subtitle>As the Wuhan coronavirus outbreak spreads in Asia, Harry speaks with Phil Febbo, the chief medical officer of Illumina, one of the world&apos;s largest makers of equipment for high-throughput DNA sequencing. Febbo highlights sequencing&apos;s emerging contribution to the understanding and treatment of infectious disease.</itunes:subtitle>
      <itunes:keywords>whole genome sequencing, phil febbo, wuhan, moneyball medicine, coronavirus, wuhan coronavirus, epidemiology, illumina, harry glorikian, infections disease, genome sequencing</itunes:keywords>
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      <title>Daniella Gilboa on How Deep Learning Can Revolutionize IVF</title>
      <description><![CDATA[<p>Doctors helping couples conceive through in-vitro fertilization typically must screen multiple fertilized embryos to select one embryo for implantation—but the process is fraught with risk and subjectivity. from In 2018 <a href="https://www.linkedin.com/in/daniella-gilboa-20295713/">Gilboa</a> and her colleagues Daniel Seidman and Eyal Schiff co-founded <a href="https://aivf.co">AIVF</a>, an Israel-based startup developing decision support tools that use deep learning and computer vision to lower the risk by identifying the most promising embryos for intrauterine implantation.</p><p>The company's technology takes the place of old-fashioned visual evaluation of embryos by humans, instead of capturing time-lapse video of embryos from the moment of conception to the fifth day after conception, at multiple focal planes. "It's an obscene amount of data," Gilboa says. "Instead of looking at the embryo once a day under the microscope, we have tons of images to annotate and look for the biological features that we know are correlated with success."</p><p>Proprietary machine learning algorithms use the video data, together with patients' health history and genomic data, to predict which embryos have the highest chance of developing into a healthy newborn. In theory, the technology will lower failure rates, decreasing the number of fertility cycles required for conception and therefore lowering the overall cost of IVF treatment.</p><p>"Many people don't get to fulfill their dream of having a child, and this is really heartbreaking for me," Gilboa tells Harry. "This is what really drives me as an embryologist to be able to provide a new, next-generation IVF treatment that would be accessible, that wouldn't be so expensive."</p><p>Check out the full show notes for this episode and other MoneyBall Medicine episodes on our website. For more on how data is transforming reproductive medicine, listen to <a href="https://glorikian.com/alan-copperman-on-how-data-is-transforming-reproductive-medicine/">Harry's interview with Alan Copperman</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Mon, 27 Jan 2020 13:30:37 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Doctors helping couples conceive through in-vitro fertilization typically must screen multiple fertilized embryos to select one embryo for implantation—but the process is fraught with risk and subjectivity. from In 2018 <a href="https://www.linkedin.com/in/daniella-gilboa-20295713/">Gilboa</a> and her colleagues Daniel Seidman and Eyal Schiff co-founded <a href="https://aivf.co">AIVF</a>, an Israel-based startup developing decision support tools that use deep learning and computer vision to lower the risk by identifying the most promising embryos for intrauterine implantation.</p><p>The company's technology takes the place of old-fashioned visual evaluation of embryos by humans, instead of capturing time-lapse video of embryos from the moment of conception to the fifth day after conception, at multiple focal planes. "It's an obscene amount of data," Gilboa says. "Instead of looking at the embryo once a day under the microscope, we have tons of images to annotate and look for the biological features that we know are correlated with success."</p><p>Proprietary machine learning algorithms use the video data, together with patients' health history and genomic data, to predict which embryos have the highest chance of developing into a healthy newborn. In theory, the technology will lower failure rates, decreasing the number of fertility cycles required for conception and therefore lowering the overall cost of IVF treatment.</p><p>"Many people don't get to fulfill their dream of having a child, and this is really heartbreaking for me," Gilboa tells Harry. "This is what really drives me as an embryologist to be able to provide a new, next-generation IVF treatment that would be accessible, that wouldn't be so expensive."</p><p>Check out the full show notes for this episode and other MoneyBall Medicine episodes on our website. For more on how data is transforming reproductive medicine, listen to <a href="https://glorikian.com/alan-copperman-on-how-data-is-transforming-reproductive-medicine/">Harry's interview with Alan Copperman</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Daniella Gilboa on How Deep Learning Can Revolutionize IVF</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:30:29</itunes:duration>
      <itunes:summary>Daniella Gilboa is an embryologist in Israel working to bring the power of AI and machine learning to the embryo selection phase of IVF treatment. She explains how her new startup aims to automate this error-ridden process, raising efficiency and lowering the overall cost of IVF.</itunes:summary>
      <itunes:subtitle>Daniella Gilboa is an embryologist in Israel working to bring the power of AI and machine learning to the embryo selection phase of IVF treatment. She explains how her new startup aims to automate this error-ridden process, raising efficiency and lowering the overall cost of IVF.</itunes:subtitle>
      <itunes:keywords>embryo selection, moneyball medicine, deep learning, machine learning, embryos, aivf, ivf, daniella gilboa, fertility, harry glorikian, reproductive medicine</itunes:keywords>
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      <title>Tom Davenport on the Analytics Gap in Healthcare</title>
      <description><![CDATA[<p>Tom Davenport knows analytics, big data, and AI—he teaches executive courses on the subject at Babson College, Harvard Business School, the Harvard School of Public Health, and the MIT Sloan School of Management, and is widely known for his books on analytics and AI in business, <i>Competing on Analytics</i> (2007), <i>Only Humans Need Apply</i> (2016), and <i>The AI Advantage</i> (2018).</p><p>Davenport notes that a number of life science startups are attempting to use machine learning, big data, and AI to reinvent drug discovery (a subject thoroughly covered in previous episodes of MoneyBall Medicine). But in other areas, progress has barely begun. A few startups are trying to bring machine learning into the world of providers and payers, to offer insight-based recommendations about care gaps and treatment. And a few researchers are studying the use of deep learning for pattern recognition in radiology and pathology imaging. But substantive advances are years away.</p><p>On the clinical side, Davenport says, "The biggest changes are in the institutions that have more data—combined provider/payer organizations like Geisinger and Kaiser—who absorb the risk of care and need to make informed decisions about it, and are more focused on treating the entire patient and keeping the patient as well as possible. But even there it's still early days."</p><p>Healthcare organizations that haven't already started to implement analytics may never catch up, Davenport warns. "This is not an area where it's going to be successful to take a fast-follower strategy, because it requires so much data, so much learning, and so much trial and error over time."</p><p>This episode is part of a special series of interviews with speakers at the AI Applications Summit produced by Corey Lane Partners. Check out the full show notes and other MoneyBall Medicine episodes at <a href="http://www.glorikian.com/podcast">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 3 Jan 2020 12:00:01 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Tom Davenport knows analytics, big data, and AI—he teaches executive courses on the subject at Babson College, Harvard Business School, the Harvard School of Public Health, and the MIT Sloan School of Management, and is widely known for his books on analytics and AI in business, <i>Competing on Analytics</i> (2007), <i>Only Humans Need Apply</i> (2016), and <i>The AI Advantage</i> (2018).</p><p>Davenport notes that a number of life science startups are attempting to use machine learning, big data, and AI to reinvent drug discovery (a subject thoroughly covered in previous episodes of MoneyBall Medicine). But in other areas, progress has barely begun. A few startups are trying to bring machine learning into the world of providers and payers, to offer insight-based recommendations about care gaps and treatment. And a few researchers are studying the use of deep learning for pattern recognition in radiology and pathology imaging. But substantive advances are years away.</p><p>On the clinical side, Davenport says, "The biggest changes are in the institutions that have more data—combined provider/payer organizations like Geisinger and Kaiser—who absorb the risk of care and need to make informed decisions about it, and are more focused on treating the entire patient and keeping the patient as well as possible. But even there it's still early days."</p><p>Healthcare organizations that haven't already started to implement analytics may never catch up, Davenport warns. "This is not an area where it's going to be successful to take a fast-follower strategy, because it requires so much data, so much learning, and so much trial and error over time."</p><p>This episode is part of a special series of interviews with speakers at the AI Applications Summit produced by Corey Lane Partners. Check out the full show notes and other MoneyBall Medicine episodes at <a href="http://www.glorikian.com/podcast">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="30201344" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/2f27e90c-d1e4-4b5e-9ab6-66dc6042708b/moneyball-medicine-tom-davenport_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Tom Davenport on the Analytics Gap in Healthcare</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/90f7ec8c-6d3f-4456-beb8-4be4276fe9d7/70ffd013-e03e-4e02-a4f8-da36e965a94c/3000x3000/mm-logo-aib-registered.jpg?aid=rss_feed"/>
      <itunes:duration>00:31:27</itunes:duration>
      <itunes:summary>Harry&apos;s guest this week is Tom Davenport, who argues that the healthcare industry is way behind in its use of big-data analytics software to make smarter decisions about business and patient care. &quot;This is a period of lots of opportunity to use new technologies to change healthcare, and God knows we need it, from a value-for-expense standpoint,&quot; Davenport tells Harry. &quot;But we&apos;re not really at the point, at least on the clinical side yet, where we see a lot of direct applications. We&apos;re still in the age of compiling transaction data. We haven&apos;t used it much yet to make decisions and take actions.&quot;</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week is Tom Davenport, who argues that the healthcare industry is way behind in its use of big-data analytics software to make smarter decisions about business and patient care. &quot;This is a period of lots of opportunity to use new technologies to change healthcare, and God knows we need it, from a value-for-expense standpoint,&quot; Davenport tells Harry. &quot;But we&apos;re not really at the point, at least on the clinical side yet, where we see a lot of direct applications. We&apos;re still in the age of compiling transaction data. We haven&apos;t used it much yet to make decisions and take actions.&quot;</itunes:subtitle>
      <itunes:keywords>drug discovery, machine learning, big data, babson college, tom davenport, ai, healthcare, harry glorikian, pharma, analytics</itunes:keywords>
      <itunes:explicit>false</itunes:explicit>
      <itunes:episodeType>full</itunes:episodeType>
      <itunes:episode>33</itunes:episode>
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      <title>Milind Kamkolkar on Seeing the Forest and the Trees at Cellarity</title>
      <description><![CDATA[<p>Milind Kamkolkar joined Cellarity in January 2019 to help the company to prove that it is now possible to "encode a cell" digitally—to use big data, deep learning, and other methods to model many different interconnected networks of molecular interactions.  "The whole idea...is really only feasible now," he says. "What changed over the last number of years is the ability to compute at scale."</p><p>The promise of Cellarity's computational models, Kamkolkar says, is that they look broadly at cell behavior, rather than taking a reductionist approach. "If you could see the forest <i>and</i> the trees, what does that look like?" he says. "Really taking into account all of these networks that exist not only at the molecular level, not only at the cellular level, but also at the tissue level, and being able to look at all of it at once. You could argue it sound quite preposterous, but I love the ambition."</p><p>Kamkolkar joined Cellarity from Sanofi, where he was the industry's first enterprise chief data officer, driving the transformation of Sanofi into a data-driven organization. Previously he was the global head of data science and AI and digital medicine at Novartis.</p><p>This episode is part of a special series of interviews with speakers at the AI Applications Summit produced by Corey Lane Partners. Check out the full show notes and other MoneyBall Medicine episodes at <a href="http://www.glorikian.com/podcast">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Mon, 16 Dec 2019 19:28:31 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Milind Kamkolkar joined Cellarity in January 2019 to help the company to prove that it is now possible to "encode a cell" digitally—to use big data, deep learning, and other methods to model many different interconnected networks of molecular interactions.  "The whole idea...is really only feasible now," he says. "What changed over the last number of years is the ability to compute at scale."</p><p>The promise of Cellarity's computational models, Kamkolkar says, is that they look broadly at cell behavior, rather than taking a reductionist approach. "If you could see the forest <i>and</i> the trees, what does that look like?" he says. "Really taking into account all of these networks that exist not only at the molecular level, not only at the cellular level, but also at the tissue level, and being able to look at all of it at once. You could argue it sound quite preposterous, but I love the ambition."</p><p>Kamkolkar joined Cellarity from Sanofi, where he was the industry's first enterprise chief data officer, driving the transformation of Sanofi into a data-driven organization. Previously he was the global head of data science and AI and digital medicine at Novartis.</p><p>This episode is part of a special series of interviews with speakers at the AI Applications Summit produced by Corey Lane Partners. Check out the full show notes and other MoneyBall Medicine episodes at <a href="http://www.glorikian.com/podcast">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="36395775" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/48672ee8-6655-46e9-935f-bfdefc16f22e/moneyball-medicine-milind-kamolkar-dec-2019_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Milind Kamkolkar on Seeing the Forest and the Trees at Cellarity</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/90f7ec8c-6d3f-4456-beb8-4be4276fe9d7/cf7924dc-7018-442e-8f54-ed5299bb3691/3000x3000/mm-logo-aib-registered.jpg?aid=rss_feed"/>
      <itunes:duration>00:37:54</itunes:duration>
      <itunes:summary>Harry welcomes Milind Kamkolkar back to the program. The former Sanofi exec is now  the chief data and digital officer at Cellarity, a Flagship Pioneering-backed therapeutics startup working to model cell behavior computationally in order to identify new drug targets and therapies.</itunes:summary>
      <itunes:subtitle>Harry welcomes Milind Kamkolkar back to the program. The former Sanofi exec is now  the chief data and digital officer at Cellarity, a Flagship Pioneering-backed therapeutics startup working to model cell behavior computationally in order to identify new drug targets and therapies.</itunes:subtitle>
      <itunes:keywords>therapeutics, drug discovery, big data, flagship pioneering, ai, cellarity, pharmaceuticals, harry glorikian, biotech, milind kamkolkar</itunes:keywords>
      <itunes:explicit>false</itunes:explicit>
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      <itunes:episode>31</itunes:episode>
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      <title>Alan Copperman on How Data is Transforming Reproductive Medicine</title>
      <description><![CDATA[<p>Dr. Alan Copperman is director of the Division of Reproductive Endocrinology and Infertility and Vice Chairman of the Department of Obstetrics, Gynecology, and Reproductive Science at the Mount Sinai Health System. He's also a clinical professor of Obstetrics, Gynecology, and Reproductive Science at the Icahn School of Medicine at Mount Sinai; medical director of Reproductive Medicine Associates of New York, one of the world's leading IVF centers; chief medical officer at Semaphore Genomics, a health intelligence company; and medical director at Progyny, a benefits management company.</p><p>Copperman tells Harry that data first came into his practice in a major way at RMA, which needed to "learn about what the best way is to take care of patients to optimize their success rates. We fell back on that term that you use, 'MoneyBall Medicine,' because we want to have the best embryologists, the best egg-retrieving doctors, the best embryo-transferring doctors. We want to put a team on the field that optimizes the success rate for every couple who walks into our doors...I just got excited about using information to drive better decisions."</p><p>Copperman notes that in his career he's moved from operating on organ systems—the uterus and the Fallopian tubes—to operating at the cellular level, biopsying individual eggs, sperm, and embryoes. "Running next-gen sequencing, we get close to a million data points on every embryo we biopsy to figure out if they're healthy or not," Copperman says. "We need mathematicians to interpret genetic code, then we have to translate it back to a human level and develop decision support tools so that doctors can talk to patients. So it starts off with patients and ends in patients, but the pathway is just so completely different than it was three years ago, no less 30 years ago."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 26 Nov 2019 12:00:15 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Dr. Alan Copperman is director of the Division of Reproductive Endocrinology and Infertility and Vice Chairman of the Department of Obstetrics, Gynecology, and Reproductive Science at the Mount Sinai Health System. He's also a clinical professor of Obstetrics, Gynecology, and Reproductive Science at the Icahn School of Medicine at Mount Sinai; medical director of Reproductive Medicine Associates of New York, one of the world's leading IVF centers; chief medical officer at Semaphore Genomics, a health intelligence company; and medical director at Progyny, a benefits management company.</p><p>Copperman tells Harry that data first came into his practice in a major way at RMA, which needed to "learn about what the best way is to take care of patients to optimize their success rates. We fell back on that term that you use, 'MoneyBall Medicine,' because we want to have the best embryologists, the best egg-retrieving doctors, the best embryo-transferring doctors. We want to put a team on the field that optimizes the success rate for every couple who walks into our doors...I just got excited about using information to drive better decisions."</p><p>Copperman notes that in his career he's moved from operating on organ systems—the uterus and the Fallopian tubes—to operating at the cellular level, biopsying individual eggs, sperm, and embryoes. "Running next-gen sequencing, we get close to a million data points on every embryo we biopsy to figure out if they're healthy or not," Copperman says. "We need mathematicians to interpret genetic code, then we have to translate it back to a human level and develop decision support tools so that doctors can talk to patients. So it starts off with patients and ends in patients, but the pathway is just so completely different than it was three years ago, no less 30 years ago."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="25736613" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/e084e3aa-e165-4c7a-a6c9-67b112b1be62/moneyball-medicine-alan-copperman_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Alan Copperman on How Data is Transforming Reproductive Medicine</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:26:48</itunes:duration>
      <itunes:summary>This week Harry welcomes a guest who could be considered a &quot;poster child&quot; for the movement to incorporate more data into clinical practice: Dr. Alan Copperman, a New York-based specialist in reproductive medicine. He says the data generated by genetic screening of fertilized embryos is rapidly and dramatically improving outcomes for couples who want children.</itunes:summary>
      <itunes:subtitle>This week Harry welcomes a guest who could be considered a &quot;poster child&quot; for the movement to incorporate more data into clinical practice: Dr. Alan Copperman, a New York-based specialist in reproductive medicine. He says the data generated by genetic screening of fertilized embryos is rapidly and dramatically improving outcomes for couples who want children.</itunes:subtitle>
      <itunes:keywords>icahn school of medicine, genetic screening, moneyball medicine, mount sinai health system, embryos, ivf, alan copperman, fertility, harry glorikian, reproductive medicine, rma of new york</itunes:keywords>
      <itunes:explicit>false</itunes:explicit>
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      <itunes:episode>32</itunes:episode>
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      <title>Gini Deshpande of NuMedii on Augmented Intelligence for Drug Discovery</title>
      <description><![CDATA[<p>Gini Desphande says she likes to think of "AI" as <i>augmented</i> intelligence rather than <i>artificial </i>intelligence: a system of human plus machine intelligence that can speed up drug development and cut R&D costs and failure rates in clinical trials. AI "really isn't at the point where it's automatable," she says. "We still need a lot of human intelligence to be coupled with this technology, to determine what are the questions you want to ask and to evaluate all the targets that come out, to say 'Do these make sense?'"</p><p>NuMedii's specialty is analyzing bulk tissue to isolate gene sequences in single cells that can point to new drug targets and drug candidates for diseases such as idiopathic pulmonary fibrosis. "The AI component helps us look at new targets that are not obvious to the human eye," she says. "It enables us to find network-level connections between diseases of interest and targets that are relevant for that disease. We can look at which nodes are coming into play and which ones should be manipulated for a particular disease."</p><p>This episode is part of a special series of interviews with speakers at the AI Applications Summit produced by Corey Lane Partners. Check out the full show notes and other MoneyBall Medicine episodes at <a href="http://www.glorikian.com/podcast">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 5 Nov 2019 12:00:02 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Gini Desphande says she likes to think of "AI" as <i>augmented</i> intelligence rather than <i>artificial </i>intelligence: a system of human plus machine intelligence that can speed up drug development and cut R&D costs and failure rates in clinical trials. AI "really isn't at the point where it's automatable," she says. "We still need a lot of human intelligence to be coupled with this technology, to determine what are the questions you want to ask and to evaluate all the targets that come out, to say 'Do these make sense?'"</p><p>NuMedii's specialty is analyzing bulk tissue to isolate gene sequences in single cells that can point to new drug targets and drug candidates for diseases such as idiopathic pulmonary fibrosis. "The AI component helps us look at new targets that are not obvious to the human eye," she says. "It enables us to find network-level connections between diseases of interest and targets that are relevant for that disease. We can look at which nodes are coming into play and which ones should be manipulated for a particular disease."</p><p>This episode is part of a special series of interviews with speakers at the AI Applications Summit produced by Corey Lane Partners. Check out the full show notes and other MoneyBall Medicine episodes at <a href="http://www.glorikian.com/podcast">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="27010613" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/60308ae9-08af-448e-a9db-0ef66d486da6/moneyball-medicine-gini-deshpande_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Gini Deshpande of NuMedii on Augmented Intelligence for Drug Discovery</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:28:07</itunes:duration>
      <itunes:summary>This week Harry talks with Gini Deshpande, the co-founder and CEO of San Mateo, CA-based NuMedii, a company making judicious use of big data and AI to speed up drug discovery.  </itunes:summary>
      <itunes:subtitle>This week Harry talks with Gini Deshpande, the co-founder and CEO of San Mateo, CA-based NuMedii, a company making judicious use of big data and AI to speed up drug discovery.  </itunes:subtitle>
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      <title>Chris Boone of Pfizer on Being a Data Hippie</title>
      <description><![CDATA[<p>Dr. Chris Boone, vice president and lead for global medical epidemiology and big data analysis at Pfizer, is a health futurist, social entrepreneurs, executive, professor, patient advocate, and self-proclaimed "data hippie." He says he long aimed to be CEO of a health system, but eventually embraced his "true self" as a student of informatics, business intelligence, and big data analytics. </p><p>"I come into the world of pharma not as a conventional or traditional pharma guy but as someone who cut his teeth in the provider world," he says. "It's just something that came naturally to me. There was always an intellectual curiosity about how we can do things better, and how we could ultimately disrupt the way that we currently treat patients, and ultimately transform the system for the betterment of patients."</p><p>In the pharma business, he believes that big data analytics can disrupt clinical research and development and ultimately the commercialization of therapies for patients. He's an advocate for the use of real-world data and evidence, AI, and machine learning to accelerate the process of proving a drug's effectiveness, ultimately curbing the rising costs of drug development. </p><p>That real-world data can include clinical data, EHR data, lab test results, claims data, molecular profiling, data from wearable health-monitoring devices, environmental factors, and patient diaries. "We're trying to create alternative ways to generate evidence that are acceptable to regulators," Boone says.</p><p>This episode is part of a special series featuring speakers from the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a>, produced in Boston by Corey Lane Partners. Check out the full show notes and other MoneyBall Medicine episodes at <a href="http://www.glorikian.com/podcast">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 25 Oct 2019 11:00:04 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Dr. Chris Boone, vice president and lead for global medical epidemiology and big data analysis at Pfizer, is a health futurist, social entrepreneurs, executive, professor, patient advocate, and self-proclaimed "data hippie." He says he long aimed to be CEO of a health system, but eventually embraced his "true self" as a student of informatics, business intelligence, and big data analytics. </p><p>"I come into the world of pharma not as a conventional or traditional pharma guy but as someone who cut his teeth in the provider world," he says. "It's just something that came naturally to me. There was always an intellectual curiosity about how we can do things better, and how we could ultimately disrupt the way that we currently treat patients, and ultimately transform the system for the betterment of patients."</p><p>In the pharma business, he believes that big data analytics can disrupt clinical research and development and ultimately the commercialization of therapies for patients. He's an advocate for the use of real-world data and evidence, AI, and machine learning to accelerate the process of proving a drug's effectiveness, ultimately curbing the rising costs of drug development. </p><p>That real-world data can include clinical data, EHR data, lab test results, claims data, molecular profiling, data from wearable health-monitoring devices, environmental factors, and patient diaries. "We're trying to create alternative ways to generate evidence that are acceptable to regulators," Boone says.</p><p>This episode is part of a special series featuring speakers from the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a>, produced in Boston by Corey Lane Partners. Check out the full show notes and other MoneyBall Medicine episodes at <a href="http://www.glorikian.com/podcast">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Chris Boone of Pfizer on Being a Data Hippie</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:summary>This week Harry talks with Chris Boone, a leader of Pfizer&apos;s effort to use new types of real-world data on patients—from insurance claims to lab tests to molecular profiles to data from wearable health sensor—to speed up drug discovery, development, and testing.</itunes:summary>
      <itunes:subtitle>This week Harry talks with Chris Boone, a leader of Pfizer&apos;s effort to use new types of real-world data on patients—from insurance claims to lab tests to molecular profiles to data from wearable health sensor—to speed up drug discovery, development, and testing.</itunes:subtitle>
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      <title>Kevin Tabb of Beth Israel Lahey Health on How to Get Ahead of Change in Healthcare</title>
      <description><![CDATA[<p>Harry talks with Kevin Tabb, MD, the CEO and president of Beth Israel Lahey Health, the product of Lahey Health's merger this spring with Beth Israel Deaconess Medical Center (BIDMC) and several other hospitals in the Boston region. How does Dr. Tabb manage change inside a growing organization that—by his own admission—has to build and implement new tools, processes and the actionable data it needs to evolve beyond the fee-for-service era.</p><p>Dr. Tabb was CEO of BIDMC before the merger, and previously served as chief medical officer at Stanford Hospital & Clinics in Stanford, CA, as well as head of the clinical data service division at GE Healthcare IT. Raised in Berkeley, CA, he emigrated to Israel at the age of 18, served in the Israel Defense Forces, studied medicine at Hebrew University's Hadassah Medical School, and served as a resident in internal medicine at Hadassah Hospital.</p><p>Tabb says the most significant challenge for healthcare leaders is "figuring out how to calibrate the pace of change," in particular the gradual but accelerating change in business models from fee-for-service to outcomes-based global payments, and the shift toward "treating patients as people" and focusing on health rather than sickness. The big question, he says, is "How far ahead of the curve should we get, so that we’re ready for the significant changes to come, but not so far haead that we’ve shot ourselves in the foot and can't survive the interim period."</p><p>The task requires "constant calibration" and "is more of an art than a science," Tabb says. But three key tools can help healthcare organizations manage the transition, he says: good, actionable information; incentives (monetary or otherwise) that are aligned among parties; and defined toolkits for change (which could include, but should never be limited to, new technologies).</p><p>Check out the full show notes and other MoneyBall Medicine episodes at <a href="http://www.glorikian.com/podcast">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 9 Aug 2019 11:00:04 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry talks with Kevin Tabb, MD, the CEO and president of Beth Israel Lahey Health, the product of Lahey Health's merger this spring with Beth Israel Deaconess Medical Center (BIDMC) and several other hospitals in the Boston region. How does Dr. Tabb manage change inside a growing organization that—by his own admission—has to build and implement new tools, processes and the actionable data it needs to evolve beyond the fee-for-service era.</p><p>Dr. Tabb was CEO of BIDMC before the merger, and previously served as chief medical officer at Stanford Hospital & Clinics in Stanford, CA, as well as head of the clinical data service division at GE Healthcare IT. Raised in Berkeley, CA, he emigrated to Israel at the age of 18, served in the Israel Defense Forces, studied medicine at Hebrew University's Hadassah Medical School, and served as a resident in internal medicine at Hadassah Hospital.</p><p>Tabb says the most significant challenge for healthcare leaders is "figuring out how to calibrate the pace of change," in particular the gradual but accelerating change in business models from fee-for-service to outcomes-based global payments, and the shift toward "treating patients as people" and focusing on health rather than sickness. The big question, he says, is "How far ahead of the curve should we get, so that we’re ready for the significant changes to come, but not so far haead that we’ve shot ourselves in the foot and can't survive the interim period."</p><p>The task requires "constant calibration" and "is more of an art than a science," Tabb says. But three key tools can help healthcare organizations manage the transition, he says: good, actionable information; incentives (monetary or otherwise) that are aligned among parties; and defined toolkits for change (which could include, but should never be limited to, new technologies).</p><p>Check out the full show notes and other MoneyBall Medicine episodes at <a href="http://www.glorikian.com/podcast">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Kevin Tabb of Beth Israel Lahey Health on How to Get Ahead of Change in Healthcare</itunes:title>
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      <itunes:summary>Harry talks with the CEO and president of Beth Israel Lahey Health, the product of Lahey Health&apos;s merger this spring with Beth Israel Deaconess Medical Center and several other hospitals in the Boston region. How does Dr. Tabb manage change inside a growing organization that—by his own admission—has to build and implement new tools, processes and the actionable data it needs to evolve beyond the fee-for-service era.</itunes:summary>
      <itunes:subtitle>Harry talks with the CEO and president of Beth Israel Lahey Health, the product of Lahey Health&apos;s merger this spring with Beth Israel Deaconess Medical Center and several other hospitals in the Boston region. How does Dr. Tabb manage change inside a growing organization that—by his own admission—has to build and implement new tools, processes and the actionable data it needs to evolve beyond the fee-for-service era.</itunes:subtitle>
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      <title>Peter Coffee and Salesforce&apos;s Vision for the Platformization of Healthcare</title>
      <description><![CDATA[<p>Harry talks this week with Salesforce's vice president of strategic research, Peter Coffee. The computer-industry veteran and former tech columist says that in the era of 1) outcomes-based payments for medical care, 2) an aging patient base, and 3) ubiquitous sensors and continuous data collection, there's a huge opportunity—and financial incentive—for healthcare providers to employ technology platforms that improve the client experience.</p><p>Might Salesforce end up marketing such a platform? Coffee says it's logical for the company, best known for its cloud-based customer relationship management software, to think about offering hospitals or medical service providers a configurable, CRM-style system for managing patient intake, consultations, recurring exam schedules, transportation to clinics, and the like.</p><p>Coffee says Traditional healthcare organizations didn't have the insights or incentives to think about improving long-term wellness or keeping their customers (patients) happy—just the opposite, in fact. "If you didn't diet and you didn't exercise, you ended up consuming more procedures, for which they would get paid," he says. "So what you have to do is shift the point of rotation to where the patients' health and the providers' incentives are aligned with each other."</p><p>That means pivoting to a data-driven model for managing service to patients—but not necessarily using centralized or concentrated systems. Coffee points out that Salesforce's architecture allows participation by thousands of third-party developers, potentially helping patientst themselves take ownership and control of their data.</p><p>If insurers also bought into this larger shift, they could transform themselves from "a necessary evil of payment management" into "the primary custodian of your wellness" and a force for efficiency and savings, Coffee also tells Harry. "The people who are the payers today know a lot about where the unnecessary friction and areas of process cost are arising in the system," he notes.</p><p>"You put all of these things together," Coffee says, "and you have the necessity, the opportunity, and the capacity to deliver the kind of transformational change that I think we all agree healthcare is ready to enjoy for the first time in centuries."</p><p>Find Salesforce's 2017 Connected Patient Report <a href="https://www.salesforce.com/blog/2017/06/2017-connected-patient-report.html">here</a>.</p><p>Check out the full show notes and other MoneyBall Medicine episodes at <a href="https://glorikian.com/podcast/">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 17 May 2019 11:00:05 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry talks this week with Salesforce's vice president of strategic research, Peter Coffee. The computer-industry veteran and former tech columist says that in the era of 1) outcomes-based payments for medical care, 2) an aging patient base, and 3) ubiquitous sensors and continuous data collection, there's a huge opportunity—and financial incentive—for healthcare providers to employ technology platforms that improve the client experience.</p><p>Might Salesforce end up marketing such a platform? Coffee says it's logical for the company, best known for its cloud-based customer relationship management software, to think about offering hospitals or medical service providers a configurable, CRM-style system for managing patient intake, consultations, recurring exam schedules, transportation to clinics, and the like.</p><p>Coffee says Traditional healthcare organizations didn't have the insights or incentives to think about improving long-term wellness or keeping their customers (patients) happy—just the opposite, in fact. "If you didn't diet and you didn't exercise, you ended up consuming more procedures, for which they would get paid," he says. "So what you have to do is shift the point of rotation to where the patients' health and the providers' incentives are aligned with each other."</p><p>That means pivoting to a data-driven model for managing service to patients—but not necessarily using centralized or concentrated systems. Coffee points out that Salesforce's architecture allows participation by thousands of third-party developers, potentially helping patientst themselves take ownership and control of their data.</p><p>If insurers also bought into this larger shift, they could transform themselves from "a necessary evil of payment management" into "the primary custodian of your wellness" and a force for efficiency and savings, Coffee also tells Harry. "The people who are the payers today know a lot about where the unnecessary friction and areas of process cost are arising in the system," he notes.</p><p>"You put all of these things together," Coffee says, "and you have the necessity, the opportunity, and the capacity to deliver the kind of transformational change that I think we all agree healthcare is ready to enjoy for the first time in centuries."</p><p>Find Salesforce's 2017 Connected Patient Report <a href="https://www.salesforce.com/blog/2017/06/2017-connected-patient-report.html">here</a>.</p><p>Check out the full show notes and other MoneyBall Medicine episodes at <a href="https://glorikian.com/podcast/">our website</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Peter Coffee and Salesforce&apos;s Vision for the Platformization of Healthcare</itunes:title>
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      <itunes:summary>Harry talks this week with Salesforce&apos;s vice president of strategic research, Peter Coffee. The computer-industry veteran and former tech columist says that in the era of 1) outcomes-based payments for medical care, 2) an aging patient base, and 3) ubiquitous sensors and continuous data collection, there&apos;s a huge opportunity—and financial incentive—for healthcare providers to employ technology platforms that improve the client experience.</itunes:summary>
      <itunes:subtitle>Harry talks this week with Salesforce&apos;s vice president of strategic research, Peter Coffee. The computer-industry veteran and former tech columist says that in the era of 1) outcomes-based payments for medical care, 2) an aging patient base, and 3) ubiquitous sensors and continuous data collection, there&apos;s a huge opportunity—and financial incentive—for healthcare providers to employ technology platforms that improve the client experience.</itunes:subtitle>
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      <title>Rhoda Au on Digital Biomarkers and Precision Brain Health</title>
      <description><![CDATA[<p>As one of the researchers involved in the 70-year-long Framingham Heart Study, Rhoda Au is in a unique position to investigate whether changes in speech patterns in middle-aged people could prefigure the onset of Alzheimer’s disease later in life, and whether early detection might give patients more time to take preventative measures. She’s been part of the Framingham study since 1990, and she’s applying voice analysis software to 9,000 digital audio recordings of neuropsychological exams of Framingham patients to see whether there were telltale biomarkers in the speech of patients who went on to develop dementia.</p><p>Au is a professor of anatomy and neurobiology at Boston University, a professor of epidemiology at Boston University School of Public Health, a senior fellow at the Institute for Health Systems Innovation and Policy at BU’s Questrom School of Business, and the Framingham study’s director of neuropsychology.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 26 Apr 2019 11:00:04 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>As one of the researchers involved in the 70-year-long Framingham Heart Study, Rhoda Au is in a unique position to investigate whether changes in speech patterns in middle-aged people could prefigure the onset of Alzheimer’s disease later in life, and whether early detection might give patients more time to take preventative measures. She’s been part of the Framingham study since 1990, and she’s applying voice analysis software to 9,000 digital audio recordings of neuropsychological exams of Framingham patients to see whether there were telltale biomarkers in the speech of patients who went on to develop dementia.</p><p>Au is a professor of anatomy and neurobiology at Boston University, a professor of epidemiology at Boston University School of Public Health, a senior fellow at the Institute for Health Systems Innovation and Policy at BU’s Questrom School of Business, and the Framingham study’s director of neuropsychology.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/a-new-era-of-participatory-medicine-talking-with/id1435939790?i=1000538326858"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Rhoda Au on Digital Biomarkers and Precision Brain Health</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:summary>Harry speaks with Boston University’s Rhoda Au, who believes that algorithms parsing new kinds of digital data about individual patients could find warning signs of diseases like dementia while they’re still preventable—leading to a new era in which precision medicine is gradually replaced by “precision health.” </itunes:summary>
      <itunes:subtitle>Harry speaks with Boston University’s Rhoda Au, who believes that algorithms parsing new kinds of digital data about individual patients could find warning signs of diseases like dementia while they’re still preventable—leading to a new era in which precision medicine is gradually replaced by “precision health.” </itunes:subtitle>
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      <title>Kathryn Teng on Unlocking the Puzzle of Population Health</title>
      <description><![CDATA[<p>Kathryn Teng, MD, is division chief of internal medicine and community medicine at MetroHealth, one of three major healthcare systems serving Cleveland and the rest of Cuyahoga County in Ohio. She believes that healthcare costs are out of control in part because too many patients go directly to specialists about issues that their primary care physician or nurses could and should handle. But figuring out how many primary care doctors a big healthcare system like MetroHealth needs, and where they should be placed, is a data, analytics, and management problem.</p><p>When she arrived at MetroHealth in 2015, Teng set out to collect data points to help with decisions across what she calls the “four quadrants” of population health: access to care, patient experience, provider and caregiver experience, and lower costs. “The real joy in this job,” Teng says, “is really around…trying to achieve the vision of population health, which is how do we provide the right care for the right patients by the right team members, and in the right modality.”</p><p>For more information this episode and access to all of our past episodes, go to <a href="https://glorikian.com/podcast/">https://glorikian.com/podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 12 Apr 2019 11:00:13 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Kathryn Teng, MD, is division chief of internal medicine and community medicine at MetroHealth, one of three major healthcare systems serving Cleveland and the rest of Cuyahoga County in Ohio. She believes that healthcare costs are out of control in part because too many patients go directly to specialists about issues that their primary care physician or nurses could and should handle. But figuring out how many primary care doctors a big healthcare system like MetroHealth needs, and where they should be placed, is a data, analytics, and management problem.</p><p>When she arrived at MetroHealth in 2015, Teng set out to collect data points to help with decisions across what she calls the “four quadrants” of population health: access to care, patient experience, provider and caregiver experience, and lower costs. “The real joy in this job,” Teng says, “is really around…trying to achieve the vision of population health, which is how do we provide the right care for the right patients by the right team members, and in the right modality.”</p><p>For more information this episode and access to all of our past episodes, go to <a href="https://glorikian.com/podcast/">https://glorikian.com/podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Kathryn Teng on Unlocking the Puzzle of Population Health</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:39:23</itunes:duration>
      <itunes:summary>Harry has a heart-to-heart conversation with Dr. Kathryn Teng, who’s working to use data to implement an access- and experience-based population health model at MetroHealth, the public health system for Cuyahoga County, Ohio.</itunes:summary>
      <itunes:subtitle>Harry has a heart-to-heart conversation with Dr. Kathryn Teng, who’s working to use data to implement an access- and experience-based population health model at MetroHealth, the public health system for Cuyahoga County, Ohio.</itunes:subtitle>
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      <title>Alán Aspuru-Guzik and the Revolution in Molecular Design</title>
      <description><![CDATA[<p>Many of the processes carried out in traditional chemistry labs searching for new drugs or drug targets can be sped up through factory-style automation—and in fact, “combinatorial chemistry” was a big boost for the field. But Alán Aspuru-Guzik, a theoretical chemist in the departments of chemistry and computer science at the University of Toronto, says “the transition to autonomy is what we really want.” Think of a “self-driving chemical lab” that uses big data, AI, and robotics to explore chemical space through a cycle of synthesis, characterization, and testing: that’s what happening both at Aspuru-Guzik’s Cambridge, MA-based startup Kebotix, in cooperation with commercial partners, and at his lab in Toronto, where he holds the Canada 150 Research Chair in Theoretical Chemistry. “We’re trying to put together the molecular Lego pieces, with a finite set of reactions and fragments,” Aspuru-Guzik says. “The art of being successful is not getting lost in an infinite forest of possibilities.”</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 29 Mar 2019 11:00:13 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Many of the processes carried out in traditional chemistry labs searching for new drugs or drug targets can be sped up through factory-style automation—and in fact, “combinatorial chemistry” was a big boost for the field. But Alán Aspuru-Guzik, a theoretical chemist in the departments of chemistry and computer science at the University of Toronto, says “the transition to autonomy is what we really want.” Think of a “self-driving chemical lab” that uses big data, AI, and robotics to explore chemical space through a cycle of synthesis, characterization, and testing: that’s what happening both at Aspuru-Guzik’s Cambridge, MA-based startup Kebotix, in cooperation with commercial partners, and at his lab in Toronto, where he holds the Canada 150 Research Chair in Theoretical Chemistry. “We’re trying to put together the molecular Lego pieces, with a finite set of reactions and fragments,” Aspuru-Guzik says. “The art of being successful is not getting lost in an infinite forest of possibilities.”</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Alán Aspuru-Guzik and the Revolution in Molecular Design</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:30:53</itunes:duration>
      <itunes:summary>Harry gets an update on the merger of AI, robotics, and high-throughput chemistry in the new &quot;self-driving laboratory&quot; from University of Toronto theoretical chemist Alán Aspuru-Guzik.</itunes:summary>
      <itunes:subtitle>Harry gets an update on the merger of AI, robotics, and high-throughput chemistry in the new &quot;self-driving laboratory&quot; from University of Toronto theoretical chemist Alán Aspuru-Guzik.</itunes:subtitle>
      <itunes:keywords>kebotix, molecular design, moneyball medicine, machine learning, alan aspuru-guzik, quantum computing, drug development, ai, combinatorial chemistry, pharmaceuticals, quantum chemistry, drugs</itunes:keywords>
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      <title>Jennifer Carter and the Power of Individualized Cancer Care</title>
      <description><![CDATA[<p>Dr. Jennifer Carter says it was watching friends and family members stricken with cancer struggle navigate the complexities of the healthcare system in the early 2000s that inspired her to start a company in the area of precision medicine. At that time, the development of targeted therapies for cancers with specific genetic markers was already offering new hope to patients, but it was also creating new challenges for doctors and patients, who had to digest, manage, and interpret unprecedented amounts of data. The vision of her company N-of-One, she says, was around "how do you create something that could cut across all the different stakeholders and create the knowledge necessary that connected physicians and patients with cutting edge diagnosic and treatment strategies in a way that made it understandable and accessible." That ended up being "a very good strategy for physicians, patients, and the company," Carter says—an observation confirmed by QIAGEN's acquisition of N-of-One in January 2019.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 15 Mar 2019 11:00:11 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Dr. Jennifer Carter says it was watching friends and family members stricken with cancer struggle navigate the complexities of the healthcare system in the early 2000s that inspired her to start a company in the area of precision medicine. At that time, the development of targeted therapies for cancers with specific genetic markers was already offering new hope to patients, but it was also creating new challenges for doctors and patients, who had to digest, manage, and interpret unprecedented amounts of data. The vision of her company N-of-One, she says, was around "how do you create something that could cut across all the different stakeholders and create the knowledge necessary that connected physicians and patients with cutting edge diagnosic and treatment strategies in a way that made it understandable and accessible." That ended up being "a very good strategy for physicians, patients, and the company," Carter says—an observation confirmed by QIAGEN's acquisition of N-of-One in January 2019.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Jennifer Carter and the Power of Individualized Cancer Care</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:duration>00:42:21</itunes:duration>
      <itunes:summary>This week Harry learns about the power of individualized molecular diagnostics for cancer patients from N-of-One founder Jennifer Levin Carter.</itunes:summary>
      <itunes:subtitle>This week Harry learns about the power of individualized molecular diagnostics for cancer patients from N-of-One founder Jennifer Levin Carter.</itunes:subtitle>
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      <title>Mark Boguski on Antidotes to Overspecialization in Medicine</title>
      <description><![CDATA[<p>Adjusting to a more collaborative style may take doctors some time, says Dr. Mark Boguski, but if they stop confining themselves to disciplinary boundaries, they'll be able to see connections between different areas of medicine that aren't taught in medical schools. Boguski draws on examples from oncology, where he says doctors are gradually being retrained to think in terms of disease pathways instead of discreet organ systems.</p><p>Dr. Boguski is the chief medical officer of Liberty Biosecurity and founder of the Precision Medicine Network. He's a member of the U.S. National Academy of Medicine and a fellow of the College of American Pathologists and the American College of Medical Informatics. He's served on the faculties of the U.S. National Institutes of Health, the Johns Hopkins University School of Medicine, and Harvard Medical School, and as an executive in the biotech and pharmaceutical industries. He is the former vice president and global head of genome and protein sciences at Novartis, and a graduate of the medical scientist training program at the University of Washington in St. Louis. He has written a series of books on cancer for the general public, under the series title "Reimagining Cancer."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Harry Glorikian: </strong>Welcome to the <a href="https://glorikian.com/moneyball-medicine-thriving-in-the-new-data-driven-healthcare-market/">Moneyball medicine</a> podcast,</p><p><strong>Dr. Boguski: </strong>It's a pleasure to be here Harry.</p><p><strong>Harry Glorikian: </strong>So, Mark I was reading that statement and when I hear a statement like that that I read at the top of the show I step back and I think systems biology, not necessarily disparate pieces. And so, it seems like over time if I go back to doctors, you know they'd look at the patient as a whole and now it looks like we're looking at them in pieces.</p><p><strong>Dr. Boguski: </strong>It's actually worse than that you know when I was in medical school we actually did physical rounds on the patient - on the patients on our floor, you know we'd go around to the bedside and examine every one of them. Today people do rounds in a conference room sitting in front of their laptops and there's actually less patient interaction, than there used to be.</p><p><strong>Harry Glorikian</strong>: You also say like it doesn't stop there, by looking at the bigger picture and not confining ourselves to disciplinary boundaries. We'll be able to make connections between different fields of medicine and glean information, that isn't taught yet in medical schools.</p><p>Gaining insights that have the potential to transform medicine and when I hear that, I think again systems biology but how data is going to help us reassemble the parts because there's so much detail in each part.</p><p><strong>Dr. Boguski: </strong>So, let's start with oncology because considering revolutionizing all of healthcare is just too big a bite to take. The example that of interdisciplinary interaction that you mentioned plays out in something called a tumor board or the multidisciplinary tumor board. Where all of the sub specialties are our representative the medical oncologist, the surgical oncologist, the radiation oncologist, cancer genetic counselors, advanced practice nurses, radiologists they all come together to discuss a case and that's where the multidisciplinary input occurs.</p><p>The problem is they only happen once a week or maybe twice a month and that's not helping individual patients in real time. So, there's something we've been working on in conjunction with Dr. Mike La Posada at the University of Texas Galveston called the diagnostic management team, and I see this team as an integrator of the various data inputs from different specialties. Where a group comes together and reaches a consensus interpretation of all these data streams coming into effect, one patient at a time.</p><p><strong>Harry Glorikian: </strong>Well that was going to be one of my comments and I had put together a piece on this on my blog but it is it time to just - when I think about corporate worlds we used to always joke that when there was a reorg, the CEO had read some book or something and now we're reorg-ing around it, but I don't know if I've ever seen a reorg in medicine based on where technology is going and are we at the point where let's take oncology. Do we need to reorganize oncology do we need to forget about the organ per se I mean I don't want to take it away from the surgical oncologist, because they need to understand that organ and actually work on it. But the treating oncologist I mean we're doing basket studies, we're looking at pathways we're understanding how drugs perturb a pathway.</p><p>You know that has nothing to do with the where the it is in the body and I feel like if we look at AIDS and we're playing - we played whack-a-mole and now we understand how to beat it back. Oncology is sort of following in the same footsteps of once you perturbed two maybe three pathways, you've sort of cut off the lifeblood of whatever this you know mistake that's happening in the body is going on.</p><p>Are we at the point of organizations or institutions need to really rethink how they do this for the benefit of patients?</p><p><strong>Dr. Boguski: </strong>Absolutely we are, as an aside before I come back to describing the situation more in detail. I'll tell you the biggest problem is change management it's getting people to behave in in ways that they weren't trained to they're not comfortable with and may take some extra time initially for them to learn and this diagnostic management team concept is one of those things that people will have to be motivated to adopt.</p><p>So, with respect to the – to oncology but when I was at Novartis back in 2009, 2007. I'm sorry 2005, 2007 there were only a handful less than five targeted therapies. The first one dates back to the late 1990s it was Herceptin the second one was Gleevec which is approved around 2001 2002 but even then we foresaw a day when the FDA would approve drugs, not based on the Oregon system in which the tumor originated but the underlying molecular pathway.</p><p>So, let's say that was back in 2006 that we thought that would eventually happen. It's actually taken until 2017 for that actually to happen there was a drug Pember ilysm app that had previously been indicated from melanoma, but was finally indicated for any tumor of any tissue origin that had DNA mismatch repair as its molecular genotype and phenotype.</p><p>So, the biggest challenge in oncology and is really educating the up-and-coming oncologists and pathologists to think in a systems way, to think in terms of pathways in that organ systems.</p><p><strong>Harry Glorikian: </strong>But it I look at it two ways, one is do we need to rethink med school from that perspective because there's data streams coming from everywhere now. The other thing is let's face it if the institution you go into like the corporation is structured a certain way, you file into the structure in it.</p><p>So, if you had a computer science group or a data analytics group that was associated with the treating oncologist and you know a tool booth said, you know if you're not using genomics in oncology today it's like driving at night without headlights. Wouldn't that force the specialty to go down a certain road and we I'm assuming we would see a benefit towards patients?</p><p><strong>Dr. Boguski: </strong>So, here's the deal when I listen to Barrett Rollins podcast which was excellent. I think he kind of left out one thing. And that is when you talk to the head of an NCI Cancer Center they only treat about 10% or 15% of cancer patients in the U.S. so if you really want to have an impact you want to get to that what I call the 80% market. Which is private practice or group practice on college in community hospitals and regional health systems and the reason I bring that up is because I - not long ago I was talking to the president of a major Oncology Group with 1,500 oncologists in you know in a wide group of practices all over the country.</p><p> And according to him about 2/3 of his oncologists never heard of DNA you know don't really want to learn about it and they're thinking of retiring early because they can't understand you know this the subject matter.</p><p><strong>Harry Glorikian: </strong>But that's crazy - I mean but that's insane I mean - I think about that - I hear that all the time and it absolutely just floors me, because I think to myself the patient is getting the incredible short end of the stick right? We always talk about health care cost going up, well if you're not treating them the right way of you know I would think that of course you're not you know health care costs will go up because you're not getting the best outcome. What do we need to do to turn the ship faster?</p><p><strong>Dr. Boguski: </strong>So, what you have to realize is that these Doc's who don't really know about DNA we're never trained in it. I mean you know a generation ago or half a generation ago genomics didn't really exist in the typical training of an oncology fellow or even going back to medical school, not everyone was a specialist in genomics or over immunology now the dominant science in oncology is genomics and immune-oncology and the practitioners particularly those outside academic medical centers just simply don't have the background to understand what these tests can provide.</p><p>And so, we identified, you know the major gap is really an educational one they need tools and hopefully on a mobile platform that they can consult in real time and not have to take extra time out of their day to go and read you know 25 papers in the literature. They have fingertip access to the latest knowledge about biomarkers and pathways cetera and overtime is they use these essential tools over and over again. You know that will help educate them to take advantage of some of these modern diagnostics.</p><p><strong>Harry Glorikian: </strong>Well I always think to myself like if we think about the super consolidation that's been happening in medicine over the past say since the Affordable Care Act has come into play we're not talking about the one to little hospitals that are sitting out there, now there - they're big conglomerates for lack of a better term.</p><p> I would think they would be able to create an internal group that would then assist or read out to everybody out there think of it like a central HR group in a sense but I want to step back and so we've known each other for a long time. What are you doing these days? What are you focused on at Liberty and just give us a little bit of background there?</p><p><strong>Dr. Boguski: </strong>Sure, well Liberty biosecurity is a company that views the biggest threats to human health in the 21st century as biological threats and these can be man-made biological threats or simply the result of shifting ecosystems as a consequence of climate change or they can just be really hard medical problems, that no one else is cracked yet. So, we brought together a multidisciplinary group of people. Who are connected in a way that we're only sort of one node away from anyone that we can live that we need to help solve a problem.</p><p>So, we're working on two major things now I'll describe oncology first because one of the reasons that it's hard to innovate in oncology is people try to do it in the United States. Where there's a lot of legacy institutions - you know legacy standard of care. It's very difficult to innovate in a system that's already running a certain way.</p><p>So, we're actually happening helping the government of Thailand and one of the largest companies in Thailand kind of reinvent medicine. We call it skipping the lane line and it's pretty obvious what that metaphor means, but we're trying to in conjunction with the government which has this concept of tylium 4.0. That concept involves changing the economy from an industrial economy to a smart economy and skipping the land line in the process.</p><p>So, we're helping set up several advanced cancer research centers and existing hospitals and these will be dry runs or trials or pilot projects that will eventually be incorporated into a new physical institution called CP Medical Center, which is due to opening in about four and a half years.</p><p><strong>Harry Glorikian: </strong>If I gave you a whiteboard right now and you were to redraw oncology, how would you redraw it? How would you incorporate genomics, digital ecology, image analysis? How would you just walk through that quickly?</p><p><strong>Dr. Boguski: </strong>Well it's interesting because in the design of this new hospital they really have to think about how to juxtapose different departments and divisions and so we have a Greenfield situation here, where we can help them put together things that were separate that belong together and then sort of the transformation of oncology.</p><p>So, you want radiology to be right next to pathology because these are the two diagnostic specialties and 60 days 70% of clinical decisions are made on data that comes out of the pathology lab. So, I think Eric Topol is the first person who really called this out explicitly but I would combine radiology and pathology into a new specialty called rad path in which their primary job is to synthesize data streams into a report that can be used by the clinicians. So, that that's one of the things I would do. I would also transform tumor boards into more frequent real-time diagnostic management team meetings that meet more frequently, that meet in time to make a therapeutic decision at the time when one is being made. And those are two of the things that we will be experimenting with in this time and at CP Medical Center.</p><p><strong>Harry Glorikian: </strong> I'm always thinking that when you analyze an image and utilize the machine learning or artificial intelligence or all the different methodologies necessarily that are out there today, I think the systems do an amazing job of seeing things that a person might not be able to see. When I was interviewing Massimo blue Cemil, in one of the podcasts. He was saying they've come up with a way of having the pixel sort of look at each neighboring pixel and you can see a blockage in an artery when it's not visible to the naked eye. And the machine can actually look at images that aren't necessarily easily visible to a human eye, so we get a processed image whereas the machine can look at raw data.</p><p>Where do you see that sort of capability going and is it going to advance what we're doing in the medical area?</p><p><strong>Dr. Boguski: </strong>So, I'm a pathologist by training so I'll signal that bias upfront but as you've said in the introduction and I do take a more systems view of Medicine because I've not only been a pathologist in my career but I've been in genomics, bioinformatics I've been in the biotech sector, I've been in the pharma sector and I'm seeing the problem from many different angles. So, getting back to pathology, pathology has been criticised for not adopting digital technologies sooner and they're often compared with radiology who adopted them you know almost overnight.</p><p>You know the problem between the two fields is that with pathology you still have to remove something from the body and process it in a laboratory before you can digitize it. So, the savings that you realize from not having in in radiology not having film libraries and chemical tanks to develop x-ray film, that that changed the economy of radiology. It's harder to do in pathology and so as I'll just have been slower to adopt it and also because pathology departments, all those 60 70 % of clinical decisions are made on their output.</p><p>They tend to be viewed as cost centers in their health system not nonprofit centers and so everything, you know if you look at the c-suite. They want every test to be as cheap as a complete blood count or urinalysis and with genomics and digital pathology, whole slide imaging you know that's not what it costs. So, people have to retool and recapitalize their equipment in order to fully realize the value of digital pathology.</p><p>But as you said once that's done, we can use it to augment humans by pre-processing the slides and pointing out suspicious areas that pathologists need to put their human eye on, we can also use it to spot things that you a pathologist might not spot. Actually, let me let me express that a different way, so one of the diagnostic modalities for predicting the efficacy of immune oncology drugs is of the body's immune response to the tumor.</p><p>Now that's done right now with anti PDO antibodies, it's just a brown stain on a regular microscope slide in a DNA setting, it's done with tumor mutational burden. But both of these things are really surrogate markers for lymphocytic infiltrate in the tumor and pathologists don't normally have the time to manually count all the lymphocytes associated with a tumor. A computer can do that in two seconds and but you know just imagine being able to replace expensive time-consuming the long term around time tests with just an AI or machine learning application on a $2.00 HNE microscope slide. So, that's where part of the potential really makes sense.</p><p><strong>Harry Glorikian: </strong>Yep and I think in some ways it would help standardize the process, right? You and I both know you go from institution to institution you will get a different answer depending on who's looking down the barrel of that scope. So, you know interestingly enough I was also reading sort of you know there was a paper presented at the 2018 machine learning for healthcare conference at Stanford University. Where you know - MIT Media Lab researchers so we're not even talking about you know a university hospital or something like that but MIT Media Lab researchers detailed a model that could change the dosing regimes, to be less toxic specifically in glioblastoma with a self-learning technique where the model sort of literally of just dosages, eventually finding an optimal treatment path with the lowest possible potency and frequency of doses that should still reduce the tumor size to a you know degree comparable with traditional regimes. And you know they showed that this seems to be working quite well. How do you see something like that being incorporated in this practice of oncology? Because it seems that technology when applied across a number of areas, should have a probability of increasing outcomes, yet decreasing cost over time. I understand that there's going to be an initial bite to take all this on but it's just like anything else we do in corporate America. You got to spend it upfront and then you realize the savings on the back end.</p><p><strong>Dr. Boguski: </strong>Right that's why you have to take a systems view of the healthcare system or you know or an individual - a hospital system. Again, each department is either a profit center or cost center and that's not a holistic view of the value that the diagnostic laboratory supplies. Getting back to more directly answer your question I think one thing that's never mentioned you know people talk about the DNA driven data transformation of oncology but one of the nuances, that is seldom is the common networks of therapy. So, let me give you an example for they're both targeted therapies and immunotherapies for melanoma and lung cancer and many of the solid tumors.</p><p>In fact, for melanoma there are there are six different targeted drugs you can try and there are two immunotherapies you can try or you can try some combination. So, where computers are really necessary and figuring out the best common it's a real possibility given an individual patient or a patient avatar that looks like that patient. So, back in the day when there were only six targeted drugs you could figure that out on your head. Right you know today there's about a hundred and fifteen targeted drugs or immunotherapies we're going tissue agnostic.</p><p>What the heck do you do with the combinatoric of that kind of pharmaceutical armamentarium you have in front of you now?</p><p><strong>Harry Glorikian: </strong>Oh, I remember I you know I could almost when it when all this first started you could keep up with the papers.  I can't possibly even try - so if you didn't have a system to help you in some way, I don't know how you would manage between the gene, the drug, all the other details around a patient and how do you keep that straight, I don't know how you would practice what you practice. It would be like you know flying a plane without all the other instrumentation around you.</p><p><strong>Dr. Boguski: </strong>Yeah so this is the the missing link in oncology and pathology training now, it's training our future oncologists and pathologists to think in systems biology ways to teach them enough about combinatorics. So, they apply those principles to what's coming out of a eyes and machine learning algorithms and have the ability to synthesize them based on at least some understanding of the underlying technologies that lead to these data streams.</p><p><strong>Harry Glorikian: </strong>So, what do you think the changes are that we need to make and institutions today to get the I don't want to say the biggest bang for the buck but before lack of a better term, it is a business. But at the same time we're need to be looking at patients right? and I always try and tell people that talk to me about oncology issues that they have is always remember that the person on the other end of this yes they want your best interest but it is still a business, so there there's sort of interesting ways to look at that. Where do you believe that this is going?</p><p><strong>Dr. Boguski: </strong>Well I'll answer that - my first thing that I'm not a businessman but I know enough about business that when young people, who are thinking about are developing new technologies come to me for advice or small companies ask me what they can do to get their methodology or their technology incorporated into the workflow physicians. I said you're aiming at the wrong target, you've got to develop a value proposition for the c-suite and not just think that that Oncologists are going to adopt this because again there's two challenges, it's how to how to support it from a revenue point of view and in the change management it's getting them things to do differently so it's really dual targets for introducing new technologies and new operating systems and new standard of care. It has to make sense to the c-suite it has to make sense to the practitioners and it's that combination, I think that you have to convince to adopt a new way of doing things.</p><p><strong>Harry Glorikian: </strong>So, just shifting gears for one I'm not actually shifting gears and we're moving it up the pathway in a sense is how do you feel about liquid biopsies? As the next generation of where we're going with this, as opposed to actually looking at the tumor. You know, I know right now it's approved for treatment monitoring, right because we can actually, we knew there was a tumor we right?</p><p>But I'm thinking about how do you think about it from a treatment monitoring perspective but then ultimately there's no reason why we couldn't see something before it actually happens.</p><p><strong>Dr.Boguski: </strong>So, I'm very excited about liquid biopsies. I think there's a lot of work to do yet before they become routine for cancer care, but I think about them this way. The standard of care now in terms of clinical practice and a sort of FDA approval is imaging.</p><p>You treat a patient with a drug, you're doing you know some sort of Radiologic study to show that the drug is working and you often monitor response to therapy that shows visually that the tumor is shrinking. You know what if you could replace all of that expensive technology and logistics with a simple blood draw and get the answer in in a couple of days, rather than have you know your radiology exam scheduled you know a month or three weeks in advance? So, that's one thing there - there's a cost-benefit ratio to the conceiving of replacing radiologic imaging with liquid biopsy.</p><p>The other thing it could be it could be much cheaper it's not yet but cost turnaround time and the ability to detect the presence of a tumor before it's even visible by radiology is another big potential advantage. In fact, I know one little company that can actually has technology that you can tell from the DNA sample collected from the blood, which tissue the mutations are likely to be coming from that's exciting technology too because it can direct your attention to where you might want to concentrate the imaging resources.</p><p><strong>Harry Glorikian: </strong>Well I keep thinking about you know these technologies will also - can also cause a complete shift in the business model in other words I could go to CVS, and you know with one of these non-phlebotomist oriented technologies, draw blood ship it off, have it done and now instead of the patient driving fifty to a hundred miles in some cases to an institution. Everybody could be sort of monitored on a regular basis.</p><p><strong>Dr. Boguski: </strong>That's particularly intriguing you know given the work that we're doing in Thailand because the CP group owns the 7-eleven brand for Asia, and you know they're thinking holistically about this monitoring patients in the community without having them coming to the hospital, you know and have an expensive time-consuming radiology scan. When they might be able to just drop into their local retail pharmacy and have the test done there.</p><p><strong>Harry Glorikian: </strong>Well that's when I think about CVS and Aetna I mean if if you go into the hospital, they sort of lose right because now they have to pay. Whereas if they're able to sort of monitor you or keep you healthier at their local CVS. They change the economics of this and so you know telemedicine is the other area, where something happens as they see something in the CVS. Well the doc can technically be right there. They don't need to be at an institution, so it's interesting how this whole shift is happening from technology enabled medicine. And I know that's heresy and the worlds were used to without where we come from but you see it how technology has affected everything else and so I think you know we're at the cusp of a revolutionary shift, now whether the institutions can shift as quickly is the part that worries me the most.</p><p><strong>Dr. Boguski: </strong>Well again it gets back to innovating in in the U.S. so many things are ingrained in our healthcare system that it's very difficult to innovate in any one step of the process when it affects upstream and downstream activities as well as the economics of it. and again that's why this opportunity to work with the government and major a major company and Thailand gives us a better shot at changing things over the next four to five years, because they're motivated to become a smart economy, skip the landline and go right into some of these new clinical and business models that you're describing.</p><p><strong>Harry Glorikian: </strong>It's interesting I wish we could do that here but I don't think that's gonna happen anytime soon except from external forces like Aetna CVS, Walgreens and you know maybe Humana or any of these other groups that are coming together or maybe Apple, Amazon or these other different groups that are out there. I know you had listened to a couple of the earlier podcasts on precision medicine and you had said to me a few things were missing or what's burning, what did we what did we leave out that we should have put in there?</p><p><strong>Dr. Boguski: </strong>Well there there's a lack of organized training the neck for the next generation of oncologists and pathologists into this new way of thinking. Now eventually by generational turnover and things like that the you know oncologists will begin thinking in more of a systems biology, tissue, agnostic manner. Again, Anatomy will always be important for surgical oncologist and radiation oncologists, so we don't want to we don't want to ignore them because their therapies are anatomically directed but more and more of medical oncology is going to be tissue agnostic and we're simply not training our residents and fellows in this way of thinking.</p><p>They're still being trained in a in a fairly traditional manner.</p><p><strong>Harry Glorikian: </strong>It's interesting well I mean I always think when Kaiser announced they were going to open their own medical system, now this was post Affordable Care Act because they could see that things were moving to a value-based as opposed to fee-for-service. Do you think we need more medical schools along those lines to really get us to where we're going?</p><p><strong>Dr. Boguski: </strong>Yes, I do and the reason is, is that again even in medical schools that want to do this there was a lot of tradition. You know it's the professor of teaching you know his or her subspecialty and there's not as much opportunity to integrate in a systems biology mindset in those traditional teaching models. I know Harvard Medical School teaches their curriculum based on system biology now, but not up not every Medical School has adopted that yet.</p><p>So, I think it will take some new medical schools that train and in some rudiments of computer science and in statistics in order for the practitioners not to become you know the AI specialists but simply to understand where those data come from. So, they can they they're they can trust the data coming from human augmented machines.</p><p><strong>Harry Glorikian: </strong>Well it's interesting right if you think that physicians will also be measured based on performance and outcome, just like regular corporate America, right? That they're gonna want to go to institutions that give them the tools to be the best not just go to school per se but become even more choosy then maybe then they already are about where they attend school to be able to be the best at what they do.</p><p><strong>Dr. Boguski: </strong>So. how do you how do you do that marketing and communication you know that that's another challenge you know it's change management and marketing and communication. These two things are often ignored or downplayed when you're trying to change your system people tend to focus on the technology and the bleeding edge science but they don't consider the mundane aspects of how do you get the message out and how do you how do you manage change among established practitioners.</p><p><strong>Harry Glorikian: </strong>Well it's interesting, right when I look at a company and think about strategy the first thing I look at is the age of the management team and I don't mean to generalize, but it as a as a rule of thumb you know I think are they over 55 or under 55. And if they're over 55 it's generally what you see is a mentality of TTR, time to retirement alright and do I shift or do I just make sure that nothing screws up along the way.</p><p>And if it's under 50 right then I actually almost have to do something because I'm gonna be around for a while. So, I have to actually make some fundamental shift or put my mark on it and so again not to generalize because I know you know people like you and others that are on the bleeding edge of change, but I think that those you guys might be the exception as opposed to the norm.</p><p><strong>Dr. Boguski: </strong>Well I'm a big believer in neuroplasticity and I think anyone at any stage and age in their career can learn this stuff but they haven't had the tools to teach themselves, and I think that's been one of the missing links or big gaps in the way people think about this. They never think about how you're gonna market communicate and provide tools in order for the people who better learn to be able to readily learn.</p><p><strong>Harry Glorikian: </strong>Well some people are very comfortable with change right and some people are not comfortable to change at all, as we all know. So is there anything else that you thought was a missing portion in in some of the areas that we talked about?</p><p><strong>Dr. Boguski: </strong>No, I think we've pretty well covered it. I mean again the missing link is education and training both at the early career level but also in terms of continuing medical education and I think the other big challenge is focusing on convincing the c-suite that this is going to either reduce costs or improve patient outcomes or both, and it's convincing the physicians and in the c-suite executives as both groups in order to get changed really enacted.</p><p><strong>Harry Glorikian: </strong>Mark, thanks so much it was great having you on the show and look forward to hearing how the Thailand experiment works out.</p><p><strong>Dr. Boguski: </strong>Well let's get together again in six months to a year and I'll let you know.</p><p><strong>Harry Glorikian: </strong>Okay, excellent thank you.</p><p>That's it for this episode hope you enjoyed the insights and discussion for more information, please feel free to go to<a href="http://www.glorycamp.com/"> www.glorycamp.com</a>. Hope you join us next time, until then farewell.</p>
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      <pubDate>Fri, 1 Mar 2019 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Adjusting to a more collaborative style may take doctors some time, says Dr. Mark Boguski, but if they stop confining themselves to disciplinary boundaries, they'll be able to see connections between different areas of medicine that aren't taught in medical schools. Boguski draws on examples from oncology, where he says doctors are gradually being retrained to think in terms of disease pathways instead of discreet organ systems.</p><p>Dr. Boguski is the chief medical officer of Liberty Biosecurity and founder of the Precision Medicine Network. He's a member of the U.S. National Academy of Medicine and a fellow of the College of American Pathologists and the American College of Medical Informatics. He's served on the faculties of the U.S. National Institutes of Health, the Johns Hopkins University School of Medicine, and Harvard Medical School, and as an executive in the biotech and pharmaceutical industries. He is the former vice president and global head of genome and protein sciences at Novartis, and a graduate of the medical scientist training program at the University of Washington in St. Louis. He has written a series of books on cancer for the general public, under the series title "Reimagining Cancer."</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Harry Glorikian: </strong>Welcome to the <a href="https://glorikian.com/moneyball-medicine-thriving-in-the-new-data-driven-healthcare-market/">Moneyball medicine</a> podcast,</p><p><strong>Dr. Boguski: </strong>It's a pleasure to be here Harry.</p><p><strong>Harry Glorikian: </strong>So, Mark I was reading that statement and when I hear a statement like that that I read at the top of the show I step back and I think systems biology, not necessarily disparate pieces. And so, it seems like over time if I go back to doctors, you know they'd look at the patient as a whole and now it looks like we're looking at them in pieces.</p><p><strong>Dr. Boguski: </strong>It's actually worse than that you know when I was in medical school we actually did physical rounds on the patient - on the patients on our floor, you know we'd go around to the bedside and examine every one of them. Today people do rounds in a conference room sitting in front of their laptops and there's actually less patient interaction, than there used to be.</p><p><strong>Harry Glorikian</strong>: You also say like it doesn't stop there, by looking at the bigger picture and not confining ourselves to disciplinary boundaries. We'll be able to make connections between different fields of medicine and glean information, that isn't taught yet in medical schools.</p><p>Gaining insights that have the potential to transform medicine and when I hear that, I think again systems biology but how data is going to help us reassemble the parts because there's so much detail in each part.</p><p><strong>Dr. Boguski: </strong>So, let's start with oncology because considering revolutionizing all of healthcare is just too big a bite to take. The example that of interdisciplinary interaction that you mentioned plays out in something called a tumor board or the multidisciplinary tumor board. Where all of the sub specialties are our representative the medical oncologist, the surgical oncologist, the radiation oncologist, cancer genetic counselors, advanced practice nurses, radiologists they all come together to discuss a case and that's where the multidisciplinary input occurs.</p><p>The problem is they only happen once a week or maybe twice a month and that's not helping individual patients in real time. So, there's something we've been working on in conjunction with Dr. Mike La Posada at the University of Texas Galveston called the diagnostic management team, and I see this team as an integrator of the various data inputs from different specialties. Where a group comes together and reaches a consensus interpretation of all these data streams coming into effect, one patient at a time.</p><p><strong>Harry Glorikian: </strong>Well that was going to be one of my comments and I had put together a piece on this on my blog but it is it time to just - when I think about corporate worlds we used to always joke that when there was a reorg, the CEO had read some book or something and now we're reorg-ing around it, but I don't know if I've ever seen a reorg in medicine based on where technology is going and are we at the point where let's take oncology. Do we need to reorganize oncology do we need to forget about the organ per se I mean I don't want to take it away from the surgical oncologist, because they need to understand that organ and actually work on it. But the treating oncologist I mean we're doing basket studies, we're looking at pathways we're understanding how drugs perturb a pathway.</p><p>You know that has nothing to do with the where the it is in the body and I feel like if we look at AIDS and we're playing - we played whack-a-mole and now we understand how to beat it back. Oncology is sort of following in the same footsteps of once you perturbed two maybe three pathways, you've sort of cut off the lifeblood of whatever this you know mistake that's happening in the body is going on.</p><p>Are we at the point of organizations or institutions need to really rethink how they do this for the benefit of patients?</p><p><strong>Dr. Boguski: </strong>Absolutely we are, as an aside before I come back to describing the situation more in detail. I'll tell you the biggest problem is change management it's getting people to behave in in ways that they weren't trained to they're not comfortable with and may take some extra time initially for them to learn and this diagnostic management team concept is one of those things that people will have to be motivated to adopt.</p><p>So, with respect to the – to oncology but when I was at Novartis back in 2009, 2007. I'm sorry 2005, 2007 there were only a handful less than five targeted therapies. The first one dates back to the late 1990s it was Herceptin the second one was Gleevec which is approved around 2001 2002 but even then we foresaw a day when the FDA would approve drugs, not based on the Oregon system in which the tumor originated but the underlying molecular pathway.</p><p>So, let's say that was back in 2006 that we thought that would eventually happen. It's actually taken until 2017 for that actually to happen there was a drug Pember ilysm app that had previously been indicated from melanoma, but was finally indicated for any tumor of any tissue origin that had DNA mismatch repair as its molecular genotype and phenotype.</p><p>So, the biggest challenge in oncology and is really educating the up-and-coming oncologists and pathologists to think in a systems way, to think in terms of pathways in that organ systems.</p><p><strong>Harry Glorikian: </strong>But it I look at it two ways, one is do we need to rethink med school from that perspective because there's data streams coming from everywhere now. The other thing is let's face it if the institution you go into like the corporation is structured a certain way, you file into the structure in it.</p><p>So, if you had a computer science group or a data analytics group that was associated with the treating oncologist and you know a tool booth said, you know if you're not using genomics in oncology today it's like driving at night without headlights. Wouldn't that force the specialty to go down a certain road and we I'm assuming we would see a benefit towards patients?</p><p><strong>Dr. Boguski: </strong>So, here's the deal when I listen to Barrett Rollins podcast which was excellent. I think he kind of left out one thing. And that is when you talk to the head of an NCI Cancer Center they only treat about 10% or 15% of cancer patients in the U.S. so if you really want to have an impact you want to get to that what I call the 80% market. Which is private practice or group practice on college in community hospitals and regional health systems and the reason I bring that up is because I - not long ago I was talking to the president of a major Oncology Group with 1,500 oncologists in you know in a wide group of practices all over the country.</p><p> And according to him about 2/3 of his oncologists never heard of DNA you know don't really want to learn about it and they're thinking of retiring early because they can't understand you know this the subject matter.</p><p><strong>Harry Glorikian: </strong>But that's crazy - I mean but that's insane I mean - I think about that - I hear that all the time and it absolutely just floors me, because I think to myself the patient is getting the incredible short end of the stick right? We always talk about health care cost going up, well if you're not treating them the right way of you know I would think that of course you're not you know health care costs will go up because you're not getting the best outcome. What do we need to do to turn the ship faster?</p><p><strong>Dr. Boguski: </strong>So, what you have to realize is that these Doc's who don't really know about DNA we're never trained in it. I mean you know a generation ago or half a generation ago genomics didn't really exist in the typical training of an oncology fellow or even going back to medical school, not everyone was a specialist in genomics or over immunology now the dominant science in oncology is genomics and immune-oncology and the practitioners particularly those outside academic medical centers just simply don't have the background to understand what these tests can provide.</p><p>And so, we identified, you know the major gap is really an educational one they need tools and hopefully on a mobile platform that they can consult in real time and not have to take extra time out of their day to go and read you know 25 papers in the literature. They have fingertip access to the latest knowledge about biomarkers and pathways cetera and overtime is they use these essential tools over and over again. You know that will help educate them to take advantage of some of these modern diagnostics.</p><p><strong>Harry Glorikian: </strong>Well I always think to myself like if we think about the super consolidation that's been happening in medicine over the past say since the Affordable Care Act has come into play we're not talking about the one to little hospitals that are sitting out there, now there - they're big conglomerates for lack of a better term.</p><p> I would think they would be able to create an internal group that would then assist or read out to everybody out there think of it like a central HR group in a sense but I want to step back and so we've known each other for a long time. What are you doing these days? What are you focused on at Liberty and just give us a little bit of background there?</p><p><strong>Dr. Boguski: </strong>Sure, well Liberty biosecurity is a company that views the biggest threats to human health in the 21st century as biological threats and these can be man-made biological threats or simply the result of shifting ecosystems as a consequence of climate change or they can just be really hard medical problems, that no one else is cracked yet. So, we brought together a multidisciplinary group of people. Who are connected in a way that we're only sort of one node away from anyone that we can live that we need to help solve a problem.</p><p>So, we're working on two major things now I'll describe oncology first because one of the reasons that it's hard to innovate in oncology is people try to do it in the United States. Where there's a lot of legacy institutions - you know legacy standard of care. It's very difficult to innovate in a system that's already running a certain way.</p><p>So, we're actually happening helping the government of Thailand and one of the largest companies in Thailand kind of reinvent medicine. We call it skipping the lane line and it's pretty obvious what that metaphor means, but we're trying to in conjunction with the government which has this concept of tylium 4.0. That concept involves changing the economy from an industrial economy to a smart economy and skipping the land line in the process.</p><p>So, we're helping set up several advanced cancer research centers and existing hospitals and these will be dry runs or trials or pilot projects that will eventually be incorporated into a new physical institution called CP Medical Center, which is due to opening in about four and a half years.</p><p><strong>Harry Glorikian: </strong>If I gave you a whiteboard right now and you were to redraw oncology, how would you redraw it? How would you incorporate genomics, digital ecology, image analysis? How would you just walk through that quickly?</p><p><strong>Dr. Boguski: </strong>Well it's interesting because in the design of this new hospital they really have to think about how to juxtapose different departments and divisions and so we have a Greenfield situation here, where we can help them put together things that were separate that belong together and then sort of the transformation of oncology.</p><p>So, you want radiology to be right next to pathology because these are the two diagnostic specialties and 60 days 70% of clinical decisions are made on data that comes out of the pathology lab. So, I think Eric Topol is the first person who really called this out explicitly but I would combine radiology and pathology into a new specialty called rad path in which their primary job is to synthesize data streams into a report that can be used by the clinicians. So, that that's one of the things I would do. I would also transform tumor boards into more frequent real-time diagnostic management team meetings that meet more frequently, that meet in time to make a therapeutic decision at the time when one is being made. And those are two of the things that we will be experimenting with in this time and at CP Medical Center.</p><p><strong>Harry Glorikian: </strong> I'm always thinking that when you analyze an image and utilize the machine learning or artificial intelligence or all the different methodologies necessarily that are out there today, I think the systems do an amazing job of seeing things that a person might not be able to see. When I was interviewing Massimo blue Cemil, in one of the podcasts. He was saying they've come up with a way of having the pixel sort of look at each neighboring pixel and you can see a blockage in an artery when it's not visible to the naked eye. And the machine can actually look at images that aren't necessarily easily visible to a human eye, so we get a processed image whereas the machine can look at raw data.</p><p>Where do you see that sort of capability going and is it going to advance what we're doing in the medical area?</p><p><strong>Dr. Boguski: </strong>So, I'm a pathologist by training so I'll signal that bias upfront but as you've said in the introduction and I do take a more systems view of Medicine because I've not only been a pathologist in my career but I've been in genomics, bioinformatics I've been in the biotech sector, I've been in the pharma sector and I'm seeing the problem from many different angles. So, getting back to pathology, pathology has been criticised for not adopting digital technologies sooner and they're often compared with radiology who adopted them you know almost overnight.</p><p>You know the problem between the two fields is that with pathology you still have to remove something from the body and process it in a laboratory before you can digitize it. So, the savings that you realize from not having in in radiology not having film libraries and chemical tanks to develop x-ray film, that that changed the economy of radiology. It's harder to do in pathology and so as I'll just have been slower to adopt it and also because pathology departments, all those 60 70 % of clinical decisions are made on their output.</p><p>They tend to be viewed as cost centers in their health system not nonprofit centers and so everything, you know if you look at the c-suite. They want every test to be as cheap as a complete blood count or urinalysis and with genomics and digital pathology, whole slide imaging you know that's not what it costs. So, people have to retool and recapitalize their equipment in order to fully realize the value of digital pathology.</p><p>But as you said once that's done, we can use it to augment humans by pre-processing the slides and pointing out suspicious areas that pathologists need to put their human eye on, we can also use it to spot things that you a pathologist might not spot. Actually, let me let me express that a different way, so one of the diagnostic modalities for predicting the efficacy of immune oncology drugs is of the body's immune response to the tumor.</p><p>Now that's done right now with anti PDO antibodies, it's just a brown stain on a regular microscope slide in a DNA setting, it's done with tumor mutational burden. But both of these things are really surrogate markers for lymphocytic infiltrate in the tumor and pathologists don't normally have the time to manually count all the lymphocytes associated with a tumor. A computer can do that in two seconds and but you know just imagine being able to replace expensive time-consuming the long term around time tests with just an AI or machine learning application on a $2.00 HNE microscope slide. So, that's where part of the potential really makes sense.</p><p><strong>Harry Glorikian: </strong>Yep and I think in some ways it would help standardize the process, right? You and I both know you go from institution to institution you will get a different answer depending on who's looking down the barrel of that scope. So, you know interestingly enough I was also reading sort of you know there was a paper presented at the 2018 machine learning for healthcare conference at Stanford University. Where you know - MIT Media Lab researchers so we're not even talking about you know a university hospital or something like that but MIT Media Lab researchers detailed a model that could change the dosing regimes, to be less toxic specifically in glioblastoma with a self-learning technique where the model sort of literally of just dosages, eventually finding an optimal treatment path with the lowest possible potency and frequency of doses that should still reduce the tumor size to a you know degree comparable with traditional regimes. And you know they showed that this seems to be working quite well. How do you see something like that being incorporated in this practice of oncology? Because it seems that technology when applied across a number of areas, should have a probability of increasing outcomes, yet decreasing cost over time. I understand that there's going to be an initial bite to take all this on but it's just like anything else we do in corporate America. You got to spend it upfront and then you realize the savings on the back end.</p><p><strong>Dr. Boguski: </strong>Right that's why you have to take a systems view of the healthcare system or you know or an individual - a hospital system. Again, each department is either a profit center or cost center and that's not a holistic view of the value that the diagnostic laboratory supplies. Getting back to more directly answer your question I think one thing that's never mentioned you know people talk about the DNA driven data transformation of oncology but one of the nuances, that is seldom is the common networks of therapy. So, let me give you an example for they're both targeted therapies and immunotherapies for melanoma and lung cancer and many of the solid tumors.</p><p>In fact, for melanoma there are there are six different targeted drugs you can try and there are two immunotherapies you can try or you can try some combination. So, where computers are really necessary and figuring out the best common it's a real possibility given an individual patient or a patient avatar that looks like that patient. So, back in the day when there were only six targeted drugs you could figure that out on your head. Right you know today there's about a hundred and fifteen targeted drugs or immunotherapies we're going tissue agnostic.</p><p>What the heck do you do with the combinatoric of that kind of pharmaceutical armamentarium you have in front of you now?</p><p><strong>Harry Glorikian: </strong>Oh, I remember I you know I could almost when it when all this first started you could keep up with the papers.  I can't possibly even try - so if you didn't have a system to help you in some way, I don't know how you would manage between the gene, the drug, all the other details around a patient and how do you keep that straight, I don't know how you would practice what you practice. It would be like you know flying a plane without all the other instrumentation around you.</p><p><strong>Dr. Boguski: </strong>Yeah so this is the the missing link in oncology and pathology training now, it's training our future oncologists and pathologists to think in systems biology ways to teach them enough about combinatorics. So, they apply those principles to what's coming out of a eyes and machine learning algorithms and have the ability to synthesize them based on at least some understanding of the underlying technologies that lead to these data streams.</p><p><strong>Harry Glorikian: </strong>So, what do you think the changes are that we need to make and institutions today to get the I don't want to say the biggest bang for the buck but before lack of a better term, it is a business. But at the same time we're need to be looking at patients right? and I always try and tell people that talk to me about oncology issues that they have is always remember that the person on the other end of this yes they want your best interest but it is still a business, so there there's sort of interesting ways to look at that. Where do you believe that this is going?</p><p><strong>Dr. Boguski: </strong>Well I'll answer that - my first thing that I'm not a businessman but I know enough about business that when young people, who are thinking about are developing new technologies come to me for advice or small companies ask me what they can do to get their methodology or their technology incorporated into the workflow physicians. I said you're aiming at the wrong target, you've got to develop a value proposition for the c-suite and not just think that that Oncologists are going to adopt this because again there's two challenges, it's how to how to support it from a revenue point of view and in the change management it's getting them things to do differently so it's really dual targets for introducing new technologies and new operating systems and new standard of care. It has to make sense to the c-suite it has to make sense to the practitioners and it's that combination, I think that you have to convince to adopt a new way of doing things.</p><p><strong>Harry Glorikian: </strong>So, just shifting gears for one I'm not actually shifting gears and we're moving it up the pathway in a sense is how do you feel about liquid biopsies? As the next generation of where we're going with this, as opposed to actually looking at the tumor. You know, I know right now it's approved for treatment monitoring, right because we can actually, we knew there was a tumor we right?</p><p>But I'm thinking about how do you think about it from a treatment monitoring perspective but then ultimately there's no reason why we couldn't see something before it actually happens.</p><p><strong>Dr.Boguski: </strong>So, I'm very excited about liquid biopsies. I think there's a lot of work to do yet before they become routine for cancer care, but I think about them this way. The standard of care now in terms of clinical practice and a sort of FDA approval is imaging.</p><p>You treat a patient with a drug, you're doing you know some sort of Radiologic study to show that the drug is working and you often monitor response to therapy that shows visually that the tumor is shrinking. You know what if you could replace all of that expensive technology and logistics with a simple blood draw and get the answer in in a couple of days, rather than have you know your radiology exam scheduled you know a month or three weeks in advance? So, that's one thing there - there's a cost-benefit ratio to the conceiving of replacing radiologic imaging with liquid biopsy.</p><p>The other thing it could be it could be much cheaper it's not yet but cost turnaround time and the ability to detect the presence of a tumor before it's even visible by radiology is another big potential advantage. In fact, I know one little company that can actually has technology that you can tell from the DNA sample collected from the blood, which tissue the mutations are likely to be coming from that's exciting technology too because it can direct your attention to where you might want to concentrate the imaging resources.</p><p><strong>Harry Glorikian: </strong>Well I keep thinking about you know these technologies will also - can also cause a complete shift in the business model in other words I could go to CVS, and you know with one of these non-phlebotomist oriented technologies, draw blood ship it off, have it done and now instead of the patient driving fifty to a hundred miles in some cases to an institution. Everybody could be sort of monitored on a regular basis.</p><p><strong>Dr. Boguski: </strong>That's particularly intriguing you know given the work that we're doing in Thailand because the CP group owns the 7-eleven brand for Asia, and you know they're thinking holistically about this monitoring patients in the community without having them coming to the hospital, you know and have an expensive time-consuming radiology scan. When they might be able to just drop into their local retail pharmacy and have the test done there.</p><p><strong>Harry Glorikian: </strong>Well that's when I think about CVS and Aetna I mean if if you go into the hospital, they sort of lose right because now they have to pay. Whereas if they're able to sort of monitor you or keep you healthier at their local CVS. They change the economics of this and so you know telemedicine is the other area, where something happens as they see something in the CVS. Well the doc can technically be right there. They don't need to be at an institution, so it's interesting how this whole shift is happening from technology enabled medicine. And I know that's heresy and the worlds were used to without where we come from but you see it how technology has affected everything else and so I think you know we're at the cusp of a revolutionary shift, now whether the institutions can shift as quickly is the part that worries me the most.</p><p><strong>Dr. Boguski: </strong>Well again it gets back to innovating in in the U.S. so many things are ingrained in our healthcare system that it's very difficult to innovate in any one step of the process when it affects upstream and downstream activities as well as the economics of it. and again that's why this opportunity to work with the government and major a major company and Thailand gives us a better shot at changing things over the next four to five years, because they're motivated to become a smart economy, skip the landline and go right into some of these new clinical and business models that you're describing.</p><p><strong>Harry Glorikian: </strong>It's interesting I wish we could do that here but I don't think that's gonna happen anytime soon except from external forces like Aetna CVS, Walgreens and you know maybe Humana or any of these other groups that are coming together or maybe Apple, Amazon or these other different groups that are out there. I know you had listened to a couple of the earlier podcasts on precision medicine and you had said to me a few things were missing or what's burning, what did we what did we leave out that we should have put in there?</p><p><strong>Dr. Boguski: </strong>Well there there's a lack of organized training the neck for the next generation of oncologists and pathologists into this new way of thinking. Now eventually by generational turnover and things like that the you know oncologists will begin thinking in more of a systems biology, tissue, agnostic manner. Again, Anatomy will always be important for surgical oncologist and radiation oncologists, so we don't want to we don't want to ignore them because their therapies are anatomically directed but more and more of medical oncology is going to be tissue agnostic and we're simply not training our residents and fellows in this way of thinking.</p><p>They're still being trained in a in a fairly traditional manner.</p><p><strong>Harry Glorikian: </strong>It's interesting well I mean I always think when Kaiser announced they were going to open their own medical system, now this was post Affordable Care Act because they could see that things were moving to a value-based as opposed to fee-for-service. Do you think we need more medical schools along those lines to really get us to where we're going?</p><p><strong>Dr. Boguski: </strong>Yes, I do and the reason is, is that again even in medical schools that want to do this there was a lot of tradition. You know it's the professor of teaching you know his or her subspecialty and there's not as much opportunity to integrate in a systems biology mindset in those traditional teaching models. I know Harvard Medical School teaches their curriculum based on system biology now, but not up not every Medical School has adopted that yet.</p><p>So, I think it will take some new medical schools that train and in some rudiments of computer science and in statistics in order for the practitioners not to become you know the AI specialists but simply to understand where those data come from. So, they can they they're they can trust the data coming from human augmented machines.</p><p><strong>Harry Glorikian: </strong>Well it's interesting right if you think that physicians will also be measured based on performance and outcome, just like regular corporate America, right? That they're gonna want to go to institutions that give them the tools to be the best not just go to school per se but become even more choosy then maybe then they already are about where they attend school to be able to be the best at what they do.</p><p><strong>Dr. Boguski: </strong>So. how do you how do you do that marketing and communication you know that that's another challenge you know it's change management and marketing and communication. These two things are often ignored or downplayed when you're trying to change your system people tend to focus on the technology and the bleeding edge science but they don't consider the mundane aspects of how do you get the message out and how do you how do you manage change among established practitioners.</p><p><strong>Harry Glorikian: </strong>Well it's interesting, right when I look at a company and think about strategy the first thing I look at is the age of the management team and I don't mean to generalize, but it as a as a rule of thumb you know I think are they over 55 or under 55. And if they're over 55 it's generally what you see is a mentality of TTR, time to retirement alright and do I shift or do I just make sure that nothing screws up along the way.</p><p>And if it's under 50 right then I actually almost have to do something because I'm gonna be around for a while. So, I have to actually make some fundamental shift or put my mark on it and so again not to generalize because I know you know people like you and others that are on the bleeding edge of change, but I think that those you guys might be the exception as opposed to the norm.</p><p><strong>Dr. Boguski: </strong>Well I'm a big believer in neuroplasticity and I think anyone at any stage and age in their career can learn this stuff but they haven't had the tools to teach themselves, and I think that's been one of the missing links or big gaps in the way people think about this. They never think about how you're gonna market communicate and provide tools in order for the people who better learn to be able to readily learn.</p><p><strong>Harry Glorikian: </strong>Well some people are very comfortable with change right and some people are not comfortable to change at all, as we all know. So is there anything else that you thought was a missing portion in in some of the areas that we talked about?</p><p><strong>Dr. Boguski: </strong>No, I think we've pretty well covered it. I mean again the missing link is education and training both at the early career level but also in terms of continuing medical education and I think the other big challenge is focusing on convincing the c-suite that this is going to either reduce costs or improve patient outcomes or both, and it's convincing the physicians and in the c-suite executives as both groups in order to get changed really enacted.</p><p><strong>Harry Glorikian: </strong>Mark, thanks so much it was great having you on the show and look forward to hearing how the Thailand experiment works out.</p><p><strong>Dr. Boguski: </strong>Well let's get together again in six months to a year and I'll let you know.</p><p><strong>Harry Glorikian: </strong>Okay, excellent thank you.</p><p>That's it for this episode hope you enjoyed the insights and discussion for more information, please feel free to go to<a href="http://www.glorycamp.com/"> www.glorycamp.com</a>. Hope you join us next time, until then farewell.</p>
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      <itunes:title>Mark Boguski on Antidotes to Overspecialization in Medicine</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:37:48</itunes:duration>
      <itunes:summary>Dr. Mark Boguski argues in this week&apos;s episode that diagnostic management teams consisting of physicians from diverse specialties, including genetics and genomics, can integrate data from different specialties and improve patient care.</itunes:summary>
      <itunes:subtitle>Dr. Mark Boguski argues in this week&apos;s episode that diagnostic management teams consisting of physicians from diverse specialties, including genetics and genomics, can integrate data from different specialties and improve patient care.</itunes:subtitle>
      <itunes:keywords>harry glorikian, digital health, moneyball medicine, mark boguski, change management, medicine, oncology, liberty biosecurity, novartis, healthcare, pharmaceuticals, biotech, health, pharma, precision medicine</itunes:keywords>
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      <itunes:episode>22</itunes:episode>
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      <title>Sandy Aronson on AI and Gene-based Personalized Medicine (AI World Special Series Part 2)</title>
      <description><![CDATA[<p>Harry's guest Sandy Aronson argues that AI and apps are not the solution for better healthcare; more effective care workflows <i>enabled</i> by AI and apps are the solution. Aronson is the executive director of information technology at Partners HealthCare Personalized Medicine. His team develops the IT infrastructure needed to support genetic-based personalized medicine in both patient-based and laboratory settings. This episode is the second in a two-part series on getting AI, machine learning, and analytics working in the healthcare provider setting, recorded as part of the AI World conference produced by Cambridge Innovation Institute in Boston in December 2018.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 15 Feb 2019 12:01:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest Sandy Aronson argues that AI and apps are not the solution for better healthcare; more effective care workflows <i>enabled</i> by AI and apps are the solution. Aronson is the executive director of information technology at Partners HealthCare Personalized Medicine. His team develops the IT infrastructure needed to support genetic-based personalized medicine in both patient-based and laboratory settings. This episode is the second in a two-part series on getting AI, machine learning, and analytics working in the healthcare provider setting, recorded as part of the AI World conference produced by Cambridge Innovation Institute in Boston in December 2018.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="40274464" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/a408bf46-6072-4a26-afb8-ba1489706bc3/e9f84f62_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Sandy Aronson on AI and Gene-based Personalized Medicine (AI World Special Series Part 2)</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/90f7ec8c-6d3f-4456-beb8-4be4276fe9d7/8592a36f-6c9b-40b9-aa36-ac49e61d186c/3000x3000/mmlogo-aiworld-registered.jpg?aid=rss_feed"/>
      <itunes:duration>00:41:49</itunes:duration>
      <itunes:summary>Sandy Aronson from Partners HealthCare Personalized Medicine argues that &quot;algorithm-enhanced care&quot; is helping physicians make better decisions.</itunes:summary>
      <itunes:subtitle>Sandy Aronson from Partners HealthCare Personalized Medicine argues that &quot;algorithm-enhanced care&quot; is helping physicians make better decisions.</itunes:subtitle>
      <itunes:keywords>sandy aronson, partners healthcare personalized medicine, ai world, cambridge innovation institute, ai world conference, partners healthcare, ai, samuel aronson, machine learning, harry glorikian, moneyball medicine, personalized medicine</itunes:keywords>
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      <itunes:episode>21</itunes:episode>
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      <title>Aalpen Patel and Using AI to Reduce Time-to-Diagnosis (AI World Special Series Part 1)</title>
      <description><![CDATA[<p>What if we could use machine learning to train software to read CT scans of patients with intracranial hemorrhaging? Time to diagnosis could be doubled, potentially saving lives. This week Harry discusses such questions with Dr. Aalpen Patel, a physician-engineer who chairs Geisinger's department of radiology and directs is 3D imaging and printing laboratory.</p><p>This episode is the first in a two-part series on getting AI, machine learning, and analytics working in the healthcare provider setting, recorded as part of the AI World conference produced by Cambridge Innovation Institute in Boston in December 2018.</p><p>You can read a <a href="https://glorikian.com/ai-world-series-aalpen-patel-from-geisinger-and-sandy-aronson-from-partners-healthcare-talk-implementation-of-ai-tools-for-providers/">full transcript of this episode</a> and browse all of our other episodes at <a href="https://glorikian.com/podcast/">glorikian.com/podcast</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 15 Feb 2019 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>What if we could use machine learning to train software to read CT scans of patients with intracranial hemorrhaging? Time to diagnosis could be doubled, potentially saving lives. This week Harry discusses such questions with Dr. Aalpen Patel, a physician-engineer who chairs Geisinger's department of radiology and directs is 3D imaging and printing laboratory.</p><p>This episode is the first in a two-part series on getting AI, machine learning, and analytics working in the healthcare provider setting, recorded as part of the AI World conference produced by Cambridge Innovation Institute in Boston in December 2018.</p><p>You can read a <a href="https://glorikian.com/ai-world-series-aalpen-patel-from-geisinger-and-sandy-aronson-from-partners-healthcare-talk-implementation-of-ai-tools-for-providers/">full transcript of this episode</a> and browse all of our other episodes at <a href="https://glorikian.com/podcast/">glorikian.com/podcast</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="33355455" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/214fa584-8d62-497e-8364-be906999e35c/a55d3950_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Aalpen Patel and Using AI to Reduce Time-to-Diagnosis (AI World Special Series Part 1)</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/90f7ec8c-6d3f-4456-beb8-4be4276fe9d7/a5ef3f81-0342-4394-99e7-717436d781d8/3000x3000/mmlogo-aiworld-registered.jpg?aid=rss_feed"/>
      <itunes:duration>00:34:36</itunes:duration>
      <itunes:summary>Harry talks wth Geisinger&apos;s Dr. Aalpen Patel about machine-learning algorithms that can help radiologists read CT scans and speed up diagnosis  of urgent conditions. </itunes:summary>
      <itunes:subtitle>Harry talks wth Geisinger&apos;s Dr. Aalpen Patel about machine-learning algorithms that can help radiologists read CT scans and speed up diagnosis  of urgent conditions. </itunes:subtitle>
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      <title>Massimo Buscema on AI and What We Can and Can&apos;t See in the Human Body</title>
      <description><![CDATA[<p>Harry's guest in this episode is Massimo Buscema, director of the Semieon Research Center in Rome, Italy, and a full professor at the University of Colorado at Denver. Buscema researches and consults internationally on the theory and applications of AI, artificial neural networks, and evolutionary algorithms. The conversation focuses on AI and its applications in healthcare, and how it can enhance what we can see and uncover what we cannot.</p><p>You can read a <a href="https://glorikian.com/massimo-buscema-on-ai-and-what-we-can-and-cant-see-in-the-human-body/">full transcript of this episode</a> and browse all of our other episodes at <a href="https://glorikian.com/podcast/">glorikian.com/podcast/</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 1 Feb 2019 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest in this episode is Massimo Buscema, director of the Semieon Research Center in Rome, Italy, and a full professor at the University of Colorado at Denver. Buscema researches and consults internationally on the theory and applications of AI, artificial neural networks, and evolutionary algorithms. The conversation focuses on AI and its applications in healthcare, and how it can enhance what we can see and uncover what we cannot.</p><p>You can read a <a href="https://glorikian.com/massimo-buscema-on-ai-and-what-we-can-and-cant-see-in-the-human-body/">full transcript of this episode</a> and browse all of our other episodes at <a href="https://glorikian.com/podcast/">glorikian.com/podcast/</a>.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="35663910" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/df354945-6b13-4f0e-ab0c-dbab52542774/c2969528_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Massimo Buscema on AI and What We Can and Can&apos;t See in the Human Body</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/df354945-6b13-4f0e-ab0c-dbab52542774/3000x3000/1548969810-artwork.jpg?aid=rss_feed"/>
      <itunes:duration>00:37:00</itunes:duration>
      <itunes:summary>Harry&apos;s guest in this episode is Massimo Buscema, director of the Semeion Research Center in Rome, Italy, and a full professor at the University of Colorado at Denver. Buscema researches and consults internationally on the theory and applications of AI, artificial neural networks, and evolutionary algorithms. The conversation focuses on AI and its applications in healthcare, and how it can enhance what we can see and uncover what we cannot.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest in this episode is Massimo Buscema, director of the Semeion Research Center in Rome, Italy, and a full professor at the University of Colorado at Denver. Buscema researches and consults internationally on the theory and applications of AI, artificial neural networks, and evolutionary algorithms. The conversation focuses on AI and its applications in healthcare, and how it can enhance what we can see and uncover what we cannot.</itunes:subtitle>
      <itunes:keywords>massimo buscema, university of colorado, italy, semeion research center, moneyball medicine, evolutionary algorithms, harry glorikian, artificial neural networks, ai</itunes:keywords>
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      <itunes:episode>19</itunes:episode>
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      <title>Barrett Rollins and the DNA-driven Transformation of Oncology</title>
      <description><![CDATA[<p>Harry's guest for this episode is Dr. Barrett Rollins, the chief scientific officer and faculty dean for academic affairs at Boston's Dana Farber Cancer Institute and the Linde Family Professor of Medicine at Harvard Medical School. Harry and Dr. Rollins dig into how large-scale DNA analysis can one day put much more usable information into the hands of oncologists, and how that data affects individual patients, the practice of medicine, and new therapies under development.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 18 Jan 2019 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest for this episode is Dr. Barrett Rollins, the chief scientific officer and faculty dean for academic affairs at Boston's Dana Farber Cancer Institute and the Linde Family Professor of Medicine at Harvard Medical School. Harry and Dr. Rollins dig into how large-scale DNA analysis can one day put much more usable information into the hands of oncologists, and how that data affects individual patients, the practice of medicine, and new therapies under development.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="29370134" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/b5981223-6e4d-4177-a955-75fbebf2c656/daafe3e6_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Barrett Rollins and the DNA-driven Transformation of Oncology</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/b5981223-6e4d-4177-a955-75fbebf2c656/3000x3000/1547577717-artwork.jpg?aid=rss_feed"/>
      <itunes:duration>00:30:27</itunes:duration>
      <itunes:summary>Harry&apos;s guest for this episode is Dr. Barrett Rollins, the chief scientific officer and faculty dean for academic affairs at Boston&apos;s Dana Farber Cancer Institute and the Linde Family Professor of Medicine at Harvard Medical School. Harry and Dr. Rollins dig into how large-scale DNA analysis can one day put much more usable information into the hands of oncologists, and how that data affects individual patients, the practice of medicine, and new therapies under development. </itunes:summary>
      <itunes:subtitle>Harry&apos;s guest for this episode is Dr. Barrett Rollins, the chief scientific officer and faculty dean for academic affairs at Boston&apos;s Dana Farber Cancer Institute and the Linde Family Professor of Medicine at Harvard Medical School. Harry and Dr. Rollins dig into how large-scale DNA analysis can one day put much more usable information into the hands of oncologists, and how that data affects individual patients, the practice of medicine, and new therapies under development. </itunes:subtitle>
      <itunes:keywords>harry glorikian, oncology, dna, harvard medical school, barrett rollins, medicine, large-scale dna analysis, moneyball medicine, dana farber cancer institute</itunes:keywords>
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      <itunes:episode>18</itunes:episode>
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      <title>Joel Dudley and What Happens When You Let Data—Not Hypotheses—Drive Discovery</title>
      <description><![CDATA[<p>Harry's guest this week is Dr. Joel Dudley from the Icahn School of Medicine at Mount Sinai, where he serves as executive vice president of precision health, associate professor of genetics and genomic sciences, and founding director of the Institute for Next Generation Healthcare. Dr. Dudley explains how his group is utilizing data to uncover health problems that can't be detected through normal methods, as well as his groundbreaking paper on the link between Alzheimer's disease and herpes.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 4 Jan 2019 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest this week is Dr. Joel Dudley from the Icahn School of Medicine at Mount Sinai, where he serves as executive vice president of precision health, associate professor of genetics and genomic sciences, and founding director of the Institute for Next Generation Healthcare. Dr. Dudley explains how his group is utilizing data to uncover health problems that can't be detected through normal methods, as well as his groundbreaking paper on the link between Alzheimer's disease and herpes.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Joel Dudley and What Happens When You Let Data—Not Hypotheses—Drive Discovery</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:29:00</itunes:duration>
      <itunes:summary>Harry&apos;s guest this week is Dr. Joel Dudley from the Icahn School of Medicine at Mount Sinai, where he serves as executive vice president of precision health, associate professor of genetics and genomic sciences, and founding director of the Institute for Next Generation Healthcare. Dr. Dudley explains how his group is utilizing data to uncover health problems that can&apos;t be detected through normal methods, as well as his groundbreaking paper on the link between Alzheimer&apos;s disease and herpes.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week is Dr. Joel Dudley from the Icahn School of Medicine at Mount Sinai, where he serves as executive vice president of precision health, associate professor of genetics and genomic sciences, and founding director of the Institute for Next Generation Healthcare. Dr. Dudley explains how his group is utilizing data to uncover health problems that can&apos;t be detected through normal methods, as well as his groundbreaking paper on the link between Alzheimer&apos;s disease and herpes.</itunes:subtitle>
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      <title>Wim Van Hecke on Using AI to Quantify Changes in the Brain</title>
      <description><![CDATA[<p>Harry talks with Wim Van Hecke, the founder and CEO of Icometrix—builder of a cloud-based AI platform for analyzing brain MRI and CT scans—to find out how the startup's FDA-cleared technology is changing the way radiologists and other physicians interpret neuroimaging data.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Tue, 18 Dec 2018 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry talks with Wim Van Hecke, the founder and CEO of Icometrix—builder of a cloud-based AI platform for analyzing brain MRI and CT scans—to find out how the startup's FDA-cleared technology is changing the way radiologists and other physicians interpret neuroimaging data.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Wim Van Hecke on Using AI to Quantify Changes in the Brain</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:32:42</itunes:duration>
      <itunes:summary>Harry talks with Wim Van Hecke, the founder and CEO of Icometrix—builder of a cloud-based AI platform for analyzing brain MRI and CT scans—to find out how the startup&apos;s FDA-cleared technology is changing the way radiologists and other physicians interpret neuroimaging data.</itunes:summary>
      <itunes:subtitle>Harry talks with Wim Van Hecke, the founder and CEO of Icometrix—builder of a cloud-based AI platform for analyzing brain MRI and CT scans—to find out how the startup&apos;s FDA-cleared technology is changing the way radiologists and other physicians interpret neuroimaging data.</itunes:subtitle>
      <itunes:keywords>moneyball medicine, wim van hecke, ai, mri, harry glorikian, neuroimaging, icometrix, neurology, ct, brain scans, radiology</itunes:keywords>
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      <itunes:episode>16</itunes:episode>
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      <title>Robert Green on the Impact of Individual Genomic Data</title>
      <description><![CDATA[<p>Harry's guest this week, Dr. Robert Green, is a professor of medicine and genetics at Harvard Medical School and director of the Genomes To People research program at Brigham & Women's Hospital and the Broad Institute of Harvard and MIT. They dig into the individual genome, how genomic data is being used, and the impact of genomics on various stakeholders in the healthcare system.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 7 Dec 2018 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest this week, Dr. Robert Green, is a professor of medicine and genetics at Harvard Medical School and director of the Genomes To People research program at Brigham & Women's Hospital and the Broad Institute of Harvard and MIT. They dig into the individual genome, how genomic data is being used, and the impact of genomics on various stakeholders in the healthcare system.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Robert Green on the Impact of Individual Genomic Data</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:37:07</itunes:duration>
      <itunes:summary>Harry&apos;s guest this week, Dr. Robert Green, is a professor of medicine and genetics at Harvard Medical School and director of the Genomes To People research program at Brigham &amp; Women&apos;s Hospital and the Broad Institute of Harvard and MIT. They dig into the individual genome, how genomic data is being used, and the impact of genomics on various stakeholders in the healthcare system. </itunes:summary>
      <itunes:subtitle>Harry&apos;s guest this week, Dr. Robert Green, is a professor of medicine and genetics at Harvard Medical School and director of the Genomes To People research program at Brigham &amp; Women&apos;s Hospital and the Broad Institute of Harvard and MIT. They dig into the individual genome, how genomic data is being used, and the impact of genomics on various stakeholders in the healthcare system. </itunes:subtitle>
      <itunes:keywords>robert green, harvard medical school, moneyball medicine, harry glorikian, genome, brigham &amp; women&apos;s hospital, broad institute, genomics, healthcare</itunes:keywords>
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      <itunes:episode>8</itunes:episode>
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      <title>Sharon Terry on Changes in Drug Discovery, Diagnostics, and the Treatment of Patients</title>
      <description><![CDATA[<p>Harry talks with Sharon Terry, president and CEO of Genetic Alliance, about the way drug discovery, diagnostics , and the treatment of patience are changing.</p>
<p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p>
<ul>
<li>Launch the &quot;Podcasts&quot; app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at th top and type in &quot;Podcasts.&quot; Apple's Podcasts app should show up in the search results.</li>
<li>Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</li>
<li>Type MoneyBall Medicine into the search field and press the Search button.</li>
<li>In the search results, click on the MoneyBall Medicine logo.</li>
<li>On the next page, scroll down until you see the Ratings &amp; Reviews section. Below that you'll see five purple stars.</li>
<li>Tap the stars to rate the show.</li>
<li>Scroll down a little farther. You'll see a purple link saying &quot;Write a Review.&quot;</li>
<li>On the next screen, you'll see the stars again. You can tap them to leave a rating, if you haven't already.</li>
<li>In the Title field, type a summary for your review.</li>
<li>In the Review field, type your review.</li>
<li>When you're finished, click Send.</li>
<li>That's it, you're done. Thanks!</li>
</ul>
]]></description>
      <pubDate>Fri, 23 Nov 2018 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry talks with Sharon Terry, president and CEO of Genetic Alliance, about the way drug discovery, diagnostics , and the treatment of patience are changing.</p>
<p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p>
<ul>
<li>Launch the &quot;Podcasts&quot; app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at th top and type in &quot;Podcasts.&quot; Apple's Podcasts app should show up in the search results.</li>
<li>Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</li>
<li>Type MoneyBall Medicine into the search field and press the Search button.</li>
<li>In the search results, click on the MoneyBall Medicine logo.</li>
<li>On the next page, scroll down until you see the Ratings &amp; Reviews section. Below that you'll see five purple stars.</li>
<li>Tap the stars to rate the show.</li>
<li>Scroll down a little farther. You'll see a purple link saying &quot;Write a Review.&quot;</li>
<li>On the next screen, you'll see the stars again. You can tap them to leave a rating, if you haven't already.</li>
<li>In the Title field, type a summary for your review.</li>
<li>In the Review field, type your review.</li>
<li>When you're finished, click Send.</li>
<li>That's it, you're done. Thanks!</li>
</ul>
]]></content:encoded>
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      <itunes:title>Sharon Terry on Changes in Drug Discovery, Diagnostics, and the Treatment of Patients</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/8bd28ecc-c429-425b-afde-42943784624d/3000x3000/1540662348-artwork.jpg?aid=rss_feed"/>
      <itunes:duration>00:33:48</itunes:duration>
      <itunes:summary>Harry talks with Sharon Terry, president and CEO of Genetic Alliance, about the way drug discovery, diagnostics , and the treatment of patience are changing.</itunes:summary>
      <itunes:subtitle>Harry talks with Sharon Terry, president and CEO of Genetic Alliance, about the way drug discovery, diagnostics , and the treatment of patience are changing.</itunes:subtitle>
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      <itunes:episode>7</itunes:episode>
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      <title>Fabien Beckers on AI and the Future of Medical Imaging</title>
      <description><![CDATA[<p>Today's radiologists face a deluge of data, and their work can be tedious and error-prone. But should humans even act as radiologists? It's becoming clear that computers and humans working together are better than either alone. Harry's guest this week is Fabien Beckers, CEO of <a href="https://www.arterys.com/">Arterys</a>, a startup creating products at the intersection of AI, the cloud, and medical imaging. Beckers has led the growth of Arterys from four co-founders to a team of 100 today, as the company brings the first FDA-cleared cloud-based end-to-end platform for medical imaging and analytics to market. Beckers, who holds a PhD in quantum physics from the University of Cambridge and an MBA from Stanford, says his vision for the company is to accelerate data-driven medicine by combining consistent quantification of medical imaging, in combination with molecular, genomic, and patient history data.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Fri, 16 Nov 2018 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Today's radiologists face a deluge of data, and their work can be tedious and error-prone. But should humans even act as radiologists? It's becoming clear that computers and humans working together are better than either alone. Harry's guest this week is Fabien Beckers, CEO of <a href="https://www.arterys.com/">Arterys</a>, a startup creating products at the intersection of AI, the cloud, and medical imaging. Beckers has led the growth of Arterys from four co-founders to a team of 100 today, as the company brings the first FDA-cleared cloud-based end-to-end platform for medical imaging and analytics to market. Beckers, who holds a PhD in quantum physics from the University of Cambridge and an MBA from Stanford, says his vision for the company is to accelerate data-driven medicine by combining consistent quantification of medical imaging, in combination with molecular, genomic, and patient history data.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Fabien Beckers on AI and the Future of Medical Imaging</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/c7896911-d554-444c-83fd-cdab99f172a2/3000x3000/1542313571-artwork.jpg?aid=rss_feed"/>
      <itunes:duration>00:28:35</itunes:duration>
      <itunes:summary>Today&apos;s radiologists face a deluge of data, and their work can be tedious and error-prone. But should humans even act as radiologists? It&apos;s becoming clear that computers and humans working together are better than either alone. Harry&apos;s guest this week is Fabien Beckers, CEO of Arterys, a startup creating products at the intersection of AI, the cloud, and medical imaging.   </itunes:summary>
      <itunes:subtitle>Today&apos;s radiologists face a deluge of data, and their work can be tedious and error-prone. But should humans even act as radiologists? It&apos;s becoming clear that computers and humans working together are better than either alone. Harry&apos;s guest this week is Fabien Beckers, CEO of Arterys, a startup creating products at the intersection of AI, the cloud, and medical imaging.   </itunes:subtitle>
      <itunes:keywords>fabien beckers, harry glorikian, arterys, cloud, radiology, moneyball medicine, medical imaging</itunes:keywords>
      <itunes:explicit>false</itunes:explicit>
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      <itunes:episode>15</itunes:episode>
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      <title>Wout Brusselaers: Every Patient in a Clinical Trial: How AI Can Solve One of Healthcare&apos;s Biggest (and Most Expensive) Problems (AI Biopharma Special Series Part 6)</title>
      <description><![CDATA[<p>Harry speaks with Wout Brusselaers, CEO and founder of <a href="https://deep6.ai/">Deep6.AI</a>, about new technology that could help find patients for clinical trials in minutes rather than months. This is Part 6 of a six-part special series recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a>, produced in Boston by Corey Lane Partners in October 2018.</p>
<p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p>
<ul>
<li>Launch the &quot;Podcasts&quot; app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at th top and type in &quot;Podcasts.&quot; Apple's Podcasts app should show up in the search results.</li>
<li>Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</li>
<li>Type MoneyBall Medicine into the search field and press the Search button.</li>
<li>In the search results, click on the MoneyBall Medicine logo.</li>
<li>On the next page, scroll down until you see the Ratings &amp; Reviews section. Below that you'll see five purple stars.</li>
<li>Tap the stars to rate the show.</li>
<li>Scroll down a little farther. You'll see a purple link saying &quot;Write a Review.&quot;</li>
<li>On the next screen, you'll see the stars again. You can tap them to leave a rating, if you haven't already.</li>
<li>In the Title field, type a summary for your review.</li>
<li>In the Review field, type your review.</li>
<li>When you're finished, click Send.</li>
<li>That's it, you're done. Thanks!</li>
</ul>
]]></description>
      <pubDate>Wed, 14 Nov 2018 12:05:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry speaks with Wout Brusselaers, CEO and founder of <a href="https://deep6.ai/">Deep6.AI</a>, about new technology that could help find patients for clinical trials in minutes rather than months. This is Part 6 of a six-part special series recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a>, produced in Boston by Corey Lane Partners in October 2018.</p>
<p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p>
<ul>
<li>Launch the &quot;Podcasts&quot; app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at th top and type in &quot;Podcasts.&quot; Apple's Podcasts app should show up in the search results.</li>
<li>Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</li>
<li>Type MoneyBall Medicine into the search field and press the Search button.</li>
<li>In the search results, click on the MoneyBall Medicine logo.</li>
<li>On the next page, scroll down until you see the Ratings &amp; Reviews section. Below that you'll see five purple stars.</li>
<li>Tap the stars to rate the show.</li>
<li>Scroll down a little farther. You'll see a purple link saying &quot;Write a Review.&quot;</li>
<li>On the next screen, you'll see the stars again. You can tap them to leave a rating, if you haven't already.</li>
<li>In the Title field, type a summary for your review.</li>
<li>In the Review field, type your review.</li>
<li>When you're finished, click Send.</li>
<li>That's it, you're done. Thanks!</li>
</ul>
]]></content:encoded>
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      <itunes:title>Wout Brusselaers: Every Patient in a Clinical Trial: How AI Can Solve One of Healthcare&apos;s Biggest (and Most Expensive) Problems (AI Biopharma Special Series Part 6)</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/90f7ec8c-6d3f-4456-beb8-4be4276fe9d7/232a76e6-6c65-488b-82a8-66e95be07331/3000x3000/mm-logo-aib-registered.jpg?aid=rss_feed"/>
      <itunes:duration>00:32:46</itunes:duration>
      <itunes:summary>Harry speaks with Wout Brusselaers, CEO and founder of Deep6.AI, about new technology that could help find patients for clinical trials in minutes rather than months. This is Part 6 of a six-part special series recorded at the AI Applications Summit, produced in Boston by Corey Lane Partners in October 2018.</itunes:summary>
      <itunes:subtitle>Harry speaks with Wout Brusselaers, CEO and founder of Deep6.AI, about new technology that could help find patients for clinical trials in minutes rather than months. This is Part 6 of a six-part special series recorded at the AI Applications Summit, produced in Boston by Corey Lane Partners in October 2018.</itunes:subtitle>
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      <itunes:episode>14</itunes:episode>
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      <title>Guido Lanza: Can AI Prevent Failure in Drug Discovery Pipelines? (AI Biopharma Special Series Episode 5)</title>
      <description><![CDATA[<p>Harry's guest is Guido Lanza, president and CEO of <a href="http://www.numerate.com/">Numerate.</a> Together they tackle the question: What if the introduction of AI into drug discovery allowed us to create a true learning loop? This is Part 5 of a special six-part series recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a>, produced in Boston by Corey Lane Partners in October 2018.</p>
<p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p>
<ul>
<li>Launch the &quot;Podcasts&quot; app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at th top and type in &quot;Podcasts.&quot; Apple's Podcasts app should show up in the search results.</li>
<li>Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</li>
<li>Type MoneyBall Medicine into the search field and press the Search button.</li>
<li>In the search results, click on the MoneyBall Medicine logo.</li>
<li>On the next page, scroll down until you see the Ratings &amp; Reviews section. Below that you'll see five purple stars.</li>
<li>Tap the stars to rate the show.</li>
<li>Scroll down a little farther. You'll see a purple link saying &quot;Write a Review.&quot;</li>
<li>On the next screen, you'll see the stars again. You can tap them to leave a rating, if you haven't already.</li>
<li>In the Title field, type a summary for your review.</li>
<li>In the Review field, type your review.</li>
<li>When you're finished, click Send.</li>
<li>That's it, you're done. Thanks!</li>
</ul>
]]></description>
      <pubDate>Wed, 14 Nov 2018 12:04:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest is Guido Lanza, president and CEO of <a href="http://www.numerate.com/">Numerate.</a> Together they tackle the question: What if the introduction of AI into drug discovery allowed us to create a true learning loop? This is Part 5 of a special six-part series recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a>, produced in Boston by Corey Lane Partners in October 2018.</p>
<p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p>
<ul>
<li>Launch the &quot;Podcasts&quot; app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at th top and type in &quot;Podcasts.&quot; Apple's Podcasts app should show up in the search results.</li>
<li>Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</li>
<li>Type MoneyBall Medicine into the search field and press the Search button.</li>
<li>In the search results, click on the MoneyBall Medicine logo.</li>
<li>On the next page, scroll down until you see the Ratings &amp; Reviews section. Below that you'll see five purple stars.</li>
<li>Tap the stars to rate the show.</li>
<li>Scroll down a little farther. You'll see a purple link saying &quot;Write a Review.&quot;</li>
<li>On the next screen, you'll see the stars again. You can tap them to leave a rating, if you haven't already.</li>
<li>In the Title field, type a summary for your review.</li>
<li>In the Review field, type your review.</li>
<li>When you're finished, click Send.</li>
<li>That's it, you're done. Thanks!</li>
</ul>
]]></content:encoded>
      <enclosure length="37763909" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/98d66ad2-f2d9-4dc2-b746-e72e2075e1d0/189aa4bb_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Guido Lanza: Can AI Prevent Failure in Drug Discovery Pipelines? (AI Biopharma Special Series Episode 5)</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/90f7ec8c-6d3f-4456-beb8-4be4276fe9d7/ff88fe3a-8cce-4148-b209-1385644ddec0/3000x3000/mm-logo-aib-registered.jpg?aid=rss_feed"/>
      <itunes:duration>00:39:12</itunes:duration>
      <itunes:summary>Harry&apos;s guest is Guido Lanza, president and CEO of Numerate. They tackle the question: What if the introduction of AI into drug discovery allowed us to create a true learning loop? This is Part 5 of a special six-part series recorded at the AI Applications Summit, produced in Boston by Corey Lane Partners in October 2018.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest is Guido Lanza, president and CEO of Numerate. They tackle the question: What if the introduction of AI into drug discovery allowed us to create a true learning loop? This is Part 5 of a special six-part series recorded at the AI Applications Summit, produced in Boston by Corey Lane Partners in October 2018.</itunes:subtitle>
      <itunes:keywords>moneyball medicine, bioppharma, corey lane, machine learning, guido lanza, ai applications summit, drug discovery, harry glorikian, numerate, ai</itunes:keywords>
      <itunes:explicit>false</itunes:explicit>
      <itunes:episodeType>full</itunes:episodeType>
      <itunes:episode>13</itunes:episode>
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    <item>
      <guid isPermaLink="false">126e17f1-6579-4968-bf7a-e6f2f7cce2c0</guid>
      <title>Ron Alfa: To Reimagine Drug Discovery &amp; Development, Let the Data Drive the Process (AI Biopharma Special Series Part 4)</title>
      <description><![CDATA[<p>Harry asks Dr. Ron Alfa, vice president of discovery and product at <a href="https://www.recursionpharma.com/">Recursion Pharmaceuticals</a>, what efficiencies could be achieved and what problems could be solved if data science were applied to drug discovery. This is Part 4 of a special six-part series recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a>, produced in Boston by Corey Lane Partners in October 2018.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Wed, 14 Nov 2018 12:03:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry asks Dr. Ron Alfa, vice president of discovery and product at <a href="https://www.recursionpharma.com/">Recursion Pharmaceuticals</a>, what efficiencies could be achieved and what problems could be solved if data science were applied to drug discovery. This is Part 4 of a special six-part series recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a>, produced in Boston by Corey Lane Partners in October 2018.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Ron Alfa: To Reimagine Drug Discovery &amp; Development, Let the Data Drive the Process (AI Biopharma Special Series Part 4)</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/6a49e657-fcc0-4aaf-88e9-b35715d7dbd1/a20d6f4b-43bc-465b-803d-a2b2d6501751/3000x3000/mm-logo-aib-registered.jpg?aid=rss_feed"/>
      <itunes:duration>00:16:51</itunes:duration>
      <itunes:summary>Harry asks Dr. Ron Alfa, vice president of discovery and product at Recursion Pharmaceuticals, what efficiencies could be achieved and what problems could be solved if data science were applied to drug discovery. This is Part 4 of a special six-part series recorded at the AI Applications Summit, produced in Boston by Corey Lane Partners in October 2018.</itunes:summary>
      <itunes:subtitle>Harry asks Dr. Ron Alfa, vice president of discovery and product at Recursion Pharmaceuticals, what efficiencies could be achieved and what problems could be solved if data science were applied to drug discovery. This is Part 4 of a special six-part series recorded at the AI Applications Summit, produced in Boston by Corey Lane Partners in October 2018.</itunes:subtitle>
      <itunes:keywords>corey lane, machine learning, recursion pharmaceuticals, ron alfa, drug discovery, harry glorikian, ai applications summit, moneyball medicine, bioppharma, ai</itunes:keywords>
      <itunes:explicit>false</itunes:explicit>
      <itunes:episodeType>full</itunes:episodeType>
      <itunes:episode>12</itunes:episode>
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      <title>Shrujal Baxi: Is AI Ready to Solve Healthcare&apos;s Real-World Evidence Problem? (AI Biopharma Special Series Part 3)</title>
      <description><![CDATA[<p>Harry's guest is Dr. Shrujal Baxi, medical director of Flatiron Health. On the agenda: how technology can help create the real-world evidence needed to achieve better patient outcomes and accelerate research into new areas. This is Part 3 of a 6-part special series recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a>, produced in Boston by Corey Lane Partners in October 2018.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Wed, 14 Nov 2018 12:02:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest is Dr. Shrujal Baxi, medical director of Flatiron Health. On the agenda: how technology can help create the real-world evidence needed to achieve better patient outcomes and accelerate research into new areas. This is Part 3 of a 6-part special series recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a>, produced in Boston by Corey Lane Partners in October 2018.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
      <enclosure length="22490536" type="audio/mpeg" url="https://cdn.simplecast.com/audio/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/b508de58-9312-442d-b5f2-2939d47a31a9/01682d9f_tc.mp3?aid=rss_feed&amp;feed=urPR9v8b"/>
      <itunes:title>Shrujal Baxi: Is AI Ready to Solve Healthcare&apos;s Real-World Evidence Problem? (AI Biopharma Special Series Part 3)</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/90f7ec8c-6d3f-4456-beb8-4be4276fe9d7/71940124-ce17-4e33-8b6f-15b011f33228/3000x3000/mm-logo-aib-registered.jpg?aid=rss_feed"/>
      <itunes:duration>00:23:17</itunes:duration>
      <itunes:summary>Harry&apos;s guest is Dr. Shrujal Baxi, medical director of Flatiron Health. On the agenda: how technology can help create the real-world evidence needed to achieve better patient outcomes and accelerate research into new areas. This is Part 3 of a 6-part special series recorded at the AI Applications Summit, produced in Boston by Corey Lane Partners in October 2018.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest is Dr. Shrujal Baxi, medical director of Flatiron Health. On the agenda: how technology can help create the real-world evidence needed to achieve better patient outcomes and accelerate research into new areas. This is Part 3 of a 6-part special series recorded at the AI Applications Summit, produced in Boston by Corey Lane Partners in October 2018.</itunes:subtitle>
      <itunes:keywords>shrujal baxi, bioppharma, harry glorikian, moneyball medicine, ai, flatiron health, ai applications summit, corey lane, drug discovery, machine learning</itunes:keywords>
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      <title>Milind Kamkolkar: Big Pharma is Paying Attention, But Can They Adapt to the AI-Driven Landscape? (AI Biopharma Special Series Part 2)</title>
      <description><![CDATA[<p>In this episode Harry talks with Milind Kamkolkar, chief data officer at Sanofi, about how big pharma can start using new data sources to uncover new insights about disease. This is Part 2 of a special 6-part series of episodes recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a> produced in Boston by Corey Lane Partners in October 2018.</p>
<p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p>
<ul>
<li>Launch the &quot;Podcasts&quot; app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at th top and type in &quot;Podcasts.&quot; Apple's Podcasts app should show up in the search results.</li>
<li>Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</li>
<li>Type MoneyBall Medicine into the search field and press the Search button.</li>
<li>In the search results, click on the MoneyBall Medicine logo.</li>
<li>On the next page, scroll down until you see the Ratings &amp; Reviews section. Below that you'll see five purple stars.</li>
<li>Tap the stars to rate the show.</li>
<li>Scroll down a little farther. You'll see a purple link saying &quot;Write a Review.&quot;</li>
<li>On the next screen, you'll see the stars again. You can tap them to leave a rating, if you haven't already.</li>
<li>In the Title field, type a summary for your review.</li>
<li>In the Review field, type your review.</li>
<li>When you're finished, click Send.</li>
<li>That's it, you're done. Thanks!</li>
</ul>
]]></description>
      <pubDate>Wed, 14 Nov 2018 12:01:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>In this episode Harry talks with Milind Kamkolkar, chief data officer at Sanofi, about how big pharma can start using new data sources to uncover new insights about disease. This is Part 2 of a special 6-part series of episodes recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a> produced in Boston by Corey Lane Partners in October 2018.</p>
<p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p>
<ul>
<li>Launch the &quot;Podcasts&quot; app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at th top and type in &quot;Podcasts.&quot; Apple's Podcasts app should show up in the search results.</li>
<li>Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</li>
<li>Type MoneyBall Medicine into the search field and press the Search button.</li>
<li>In the search results, click on the MoneyBall Medicine logo.</li>
<li>On the next page, scroll down until you see the Ratings &amp; Reviews section. Below that you'll see five purple stars.</li>
<li>Tap the stars to rate the show.</li>
<li>Scroll down a little farther. You'll see a purple link saying &quot;Write a Review.&quot;</li>
<li>On the next screen, you'll see the stars again. You can tap them to leave a rating, if you haven't already.</li>
<li>In the Title field, type a summary for your review.</li>
<li>In the Review field, type your review.</li>
<li>When you're finished, click Send.</li>
<li>That's it, you're done. Thanks!</li>
</ul>
]]></content:encoded>
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      <itunes:title>Milind Kamkolkar: Big Pharma is Paying Attention, But Can They Adapt to the AI-Driven Landscape? (AI Biopharma Special Series Part 2)</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:31:12</itunes:duration>
      <itunes:summary>In this episode Harry talks with Milind Kamkolkar, chief data officer at Sanofi, about how big pharma can start using new data sources to uncover new insights about disease. This is Part 2 of a special 6-part series recorded at the AI Applications Summit produced in Boston by Corey Lane Partners in October 2018.</itunes:summary>
      <itunes:subtitle>In this episode Harry talks with Milind Kamkolkar, chief data officer at Sanofi, about how big pharma can start using new data sources to uncover new insights about disease. This is Part 2 of a special 6-part series recorded at the AI Applications Summit produced in Boston by Corey Lane Partners in October 2018.</itunes:subtitle>
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      <title>Andrew A. Radin: From Validation to Pharma Pipeline—How AI is Finding the Patterns in Data (AI Biopharma Special Series Part 1)</title>
      <description><![CDATA[<p>Harry interviews Andrew A. Radin, co-founder and CEO of <a href="http://www.twoxar.com/">twoXAR</a>, a Mountain View, CA-based AI-driven drug discovery startup that unifies disparate data to identify potential disease treatments. This episode is Part 1 of a 6-part special series recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a> produced in Boston by Corey Lane partners in October 2018.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></description>
      <pubDate>Wed, 14 Nov 2018 12:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry interviews Andrew A. Radin, co-founder and CEO of <a href="http://www.twoxar.com/">twoXAR</a>, a Mountain View, CA-based AI-driven drug discovery startup that unifies disparate data to identify potential disease treatments. This episode is Part 1 of a 6-part special series recorded at the <a href="https://www.aiapplicationssummit.com/biopharma/">AI Applications Summit</a> produced in Boston by Corey Lane partners in October 2018.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
]]></content:encoded>
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      <itunes:title>Andrew A. Radin: From Validation to Pharma Pipeline—How AI is Finding the Patterns in Data (AI Biopharma Special Series Part 1)</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/90f7ec8c-6d3f-4456-beb8-4be4276fe9d7/ea4500eb-6d2b-4751-a8e2-12f1b8459655/3000x3000/mm-logo-aib-registered.jpg?aid=rss_feed"/>
      <itunes:duration>00:23:58</itunes:duration>
      <itunes:summary>Harry interviews Andrew A. Radin, co-founder and CEO of twoXAR, an AI-driven drug discovery startup that unifies disparate data to identify potential disease treatments. This episode is Part 1 of a 6-part special series recorded at the AI Applications Summit produced in Boston by Corey Lane partners in October 2018.</itunes:summary>
      <itunes:subtitle>Harry interviews Andrew A. Radin, co-founder and CEO of twoXAR, an AI-driven drug discovery startup that unifies disparate data to identify potential disease treatments. This episode is Part 1 of a 6-part special series recorded at the AI Applications Summit produced in Boston by Corey Lane partners in October 2018.</itunes:subtitle>
      <itunes:keywords>harry glorikian, twoxar, andrew radin, ai, ai applications summit, andrew a. radin, machine learning, drug discovery, bioppharma, corey lane, moneyball medicine</itunes:keywords>
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      <title>Leah Binder on How Price and Quality Transparency Helps Patients and Employers</title>
      <description><![CDATA[<p>Leapfrog Group president and CEO Leah Binder talks with Harry about data transparency and how it helps inform healthcare decisions by putting the right information in the hands of patients and employers.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Welcome to the Money ball medicine podcast, I'm your host Harry glory camp. This series is all about the data-driven transformation of the healthcare and life sciences landscape. Each episode we dive deep through one-on-one interviews with leaders in the new cost-conscious, value-based healthcare economy. We look at the challenges and opportunities they're facing and their predictions for the years to come.</p><p>So, my guest today is Leah Binder, Leah is the president and CEO of the <a href="https://www.leapfroggroup.org/">Leapfrog Group</a>. The Leapfrog Group represents employers and other purchasers of health care who call for improved safety and quality and hospitals. She is a regular contributor to forbes.com, The Huffington Post and The Wall Street Journal expert forum. She was named on Becker's list of the 50 most powerful people in healthcare in 2014, and consistently cited by modern health care among the 100 most influential people and top 25 women in healthcare.</p><p>She has served on numerous national boards and councils including the Institute of Medicine collaboration on patient engagement, the Health Care Financial Management Association Leadership Advisory Committee, but Corey healthcare systems advisory panel, AARP champions for Nursing strategic advisory council and the national priorities partnership board. Prior to her current position, she spent eight years as vice president at Franklin Community Health Network an award-winning rural hospital network in Farmington Maine.</p><p>he previously worked as a senior policy adviser for the office of mayor Rudolph Giuliani in New York City and started her career at the National League for nursing, where she handled policy and communications for more than six years. Thank you very much for joining me today, good to have you here.</p><p><strong>Leah Binder:</strong> Well, thank you for having me, it's a privilege.</p><p><strong>Harry Glorikian:</strong> So, we had spoken quite a bit back when I was putting together the book Money ball medicine but for those people who are not familiar with the Leapfrog Group, can you tell us a little bit about the group its mission and what you feel the biggest impacts are it's made to date?</p><p><strong>Leah Binder:</strong> Sure and I want to congratulate you by the way on your book, I really thought it was fantastic. I've been giving it out to a lot of my colleagues I strongly recommend it. So, congratulations on an excellent book, I think it really captured some very important issues about where we are in healthcare right now. So, it's a great contribution.</p><p><strong>Harry Glorikian:</strong> Thank you so much.</p><p><strong>Leah Binder:</strong> The Leapfrog Group is a non-profit, we were national. We were founded in the year 2000 by a group of senior executives in large companies, who were concerned about healthcare quality and costs. They were particularly concerned about a report that came out from the Institute of Medicine, right around that time that was called to air is human. Which said that, upwards of a hundred thousand people were dying of preventable medical errors in hospitals every year.</p><p>And they were astounded by that number not only because that's a lot of people dying and when they did the numbers on their own covered lives, for many of them that meant one of their people were dying you know every day or every other day, because many of these executives such as companies like GE covered a lot of people. And they were not only were they just devastated to think that, their people were experiencing this kind of loss but also that they didn't know anything about it, that in spite of all of their efforts to try to improve healthcare and get their cost down and manage their health benefits well.</p><p>They had no idea that this was going on and this had such an impact, and so they wanted to change that, so they decided that it was time to have a more transparent marketplace in health care. They would through leapfrog this nonprofit, they would start to publicly report on the relative safety of every hospital in the country. And they would encourage their employees in the American public to shop for their hospital care to think about safety, before they walk in the door of a hospital. And in so doing not only would they protect their employees, but hopefully drive a market for improvements in safety and throughout the country and improve the quality of care nationally.</p><p>So, that's the goal, we publicly report on hospitals and now we're moving into other settings as well. But our goal is to collect information using the leverage of large purchasers, large companies typically a purchasers of health benefits, using their leverage to suggest to hospitals and other health systems that they give us information, that's otherwise not available. And then we publicly reported in the interest of giving consumers what information they deserve to have about how the health care system is doing.</p><p><strong>Harry Glorikian:</strong> So, when I was writing the book, I found that even when patients were armed with data and information tools designed to help them decide between you know different healthcare providers. They don't seem to be using the tools you know to the degree that they can. Are patients ready to fully you know activate their emerging role take advantage of it or can we make technology easier to use for them in some way?</p><p><strong>Leah Binder:</strong> Well, yes to both. Yes, consumers are increasingly using information but not anywhere near the level that they should, but that will change. We are in a very fast changing environment not only in healthcare but in general. I think consumers even five years ago shopped very differently for almost everything, and now that's changing as well in healthcare and it's been changing. And so, I think we're seeing those changes in the way consumers are using technology to make decisions about their own healthcare and when the Millennials get a little bit older just a little bit and they start to recognize their own mortality and need health care more. I think that's when we're going to see the real explosion in the change in healthcare.</p><p>Because they just aren't, there to intolerant of the idea that they cannot use a smartphone for instance to access pretty much any information they could possibly need to make it an important decision like a healthcare decision. So, I think that we're going to see a major shift in consumer use of technology. But I think that one of the big changes we've seen with this newly transparent environment and the is not as much on consumer behavior yet, but on how the healthcare industry itself functions, in anticipation of consumers increasingly using information to make those kinds of decision. And that's where we've seen I think some very significant shifts in the healthcare industry already.</p><p><strong>Harry Glorikian:</strong> So, can you give me an example of where you're seeing that? I've seen a lot from CMS seems to be really pushing, you know wanting information to be transparent or putting information out there. But you know, what do you see happening really on the ground and can you give me a couple of examples?</p><p><strong>Leah Binder:</strong> Sure one thing we're seeing with hospitals is an unbelievable focus on their own metrics. I've been out visiting a number of hospitals and I'm struck by how many of them have on their walls, information about how they're doing on a whole variety of patient safety metrics like, how many Falls and how many you know infections and etc. And many of them are putting this on walls that are accessible by patients but they're all over the place. I see metrics everywhere; this is a very different. I never saw that five years ago or very rarely saw that five years ago.</p><p>So, they're within health systems, they are communicating to clinician to clinician, how they're doing and they're looking at real card data to do that. And so there's just that level of internal transparent see that we're seeing, that does have a big impact I think on performance. And I think also there's a whole new job title in healthcare, and if you've seen this, I think this came about really it started about five years ago we started to see this, but now it's become much more ubiquitous this new brand new job title. Chief, usually called the chief engagement officer and so it's usually a c-suite title.</p><p>So, chief engagement officer reporting to the CEO of a health system, this person is usually responsible for patient engagement, how patients are experiencing the health care system. So, you think, well health care should have been doing that from the very beginning of course that should have been all about patient engagement, right. That's what everybody should be doing but you know for whatever reason and there's lots of reasons we could go into her an hour, they have not put the patients at the center of absolutely everything that goes on in healthcare, that's not the tradition in health care.</p><p>So, the fact that they're now seeing these new chief engagement officers emerge is another sign that health systems are truly changing their orientation to their work and recognizing that they have to pivot around new priorities, and the new priority is the patient. So, we're seeing a real shift.</p><p><strong>Harry Glorikian:</strong> So, now do you believe that's driven by how the system is being compensated or is it competition or technology? What do you think is the driver?</p><p><strong>Leah Binder:</strong> I wish, I could say it's driven by how they're paying, because how they're being paid because that would mean that where we're seeing what I would say is the most sustainable kind of change. If we were really paying healthcare and we had a different kind of economic infrastructure of our healthcare system, I would say that's a very long-term change that will benefit all of us. And I think many of, both within the healthcare system and outside of it, would like to see that happen and are pushing for that to happen and we're seeing certainly some inroads around that in. For example, in the notion of value-based payment etc., and we're seeing that happen, however I would not say that that right now is the driver.</p><p>I still think right now probably the majority of health care is paid fee-for-service with some significant inroads and other models, but still fee-for-service really does dominate the landscape in terms of the payment of health care, where I see it's driven though is that those who are paying is shifting and shifting in significant ways. Right now most large employers and many smaller employers have shifted toward high deductible health plans which are typically three-thousand-dollar deductible, for example for families or more for families and about 1,500 or more for individual plans and in that, underneath that deductible.</p><p>So, before you hit that deductible every dime has to be spent by the employee or the covered person, including drugs and other kinds of services that in more traditional health plans were already covered, even if you hadn't already spent it ductile. So, I'm not trying to give a boring lecture on insurance policy or anything, but the point is that for many people who are covered by health insurance they're actually paying most of their health care if not all of their health care in a given year out of their own pocket. And that is about one in three American workers now covered by one of these plans, that's a gigantic shifts happened over the past ten years.</p><p>It's gone from zero, covered by one of these to a third of all workers that's a major transformation of our health care system. It's been cited in lots of reports and research studies as a change in our thinking about health care. So, the people paying the bills and health care now is changing, and when consumers are paying out of their own pocket it does change the way they behave in the marketplace. As opposed to, for example paying just the standard copay, they're actually wanting to know what is that doctor going to bill me for this visit, and that changes how they think about their choice of that doctor and that service.</p><p>Now there's lots of debate about whether it's good or bad or whatever, but beyond that is just simply the fact that, that's changed the economics of health care. Which in turn has gotten the attention of health care providers at least, who recognized that they had better become more responsive to consumers because it's the consumers directly paying a lot of their bills.</p><p><strong>Harry Glorikian:</strong> So based on that, what should have done senior healthcare IT leaders, you know startup companies you know we're hearing about Google and Amazon delivery. What can they do to sort of help the providers that are on the ground, you know clinicians, operational people you know improve healthcare delivery, you know on the ground you know. How to get them to think about it differently and how to get them to implement it?</p><p><strong>Leah Binder:</strong> I think that for startups, one of the first pieces of advice I would have for any startup is, not to approach the healthcare market without someone on your team and in a very significant position on your team, who is from the healthcare system and very familiar with it and how your product or service integrates. I say that because, I see some startups that come into the market and they don't necessarily have a person who's that integrated who has that knowledge of the healthcare system. And they come in and they say, well I have this product and it will for example improve patient safety.</p><p>I can look at all the numbers and say that patient safety is nowhere near where it needs to be, and this product solves all problems in patient safety or many problems in patient safety. So, obviously it's going to be very popular, and we're going to do extremely well in the marketplace. They don't necessarily understand some of the barriers that have existed in the market and why great ideas around patient safety have not always sold the way they should in theory sell. And it takes really someone from within the healthcare system to understand some of the frankly insane nuances of the health care system.</p><p>There are things about the health care system there just don't make any sense in a normal market, so you have to have someone in the inside who understands that else. You can easily go down a road that sounds logical but doesn't make just don't work in healthcare. So, that's my first piece of advice for startups, but in terms of technology I think that technology that is easily accessible by consumers, is always going to be a good start for anyone. But it isn’t necessarily going to be immediately impactful and usable in healthcare.</p><p>It's a longer-term play, as I mentioned I think Millennials as they come more into the market as consumers are increasingly demanding that level of accessibility in the healthcare system. The new enterprises, we're seeing like CVS and Caremark and the work that we're seeing certainly with Warren Buffett etc. Amazon the entries in the marketplace of traditionally consumer focused, extremely innovative organizations into the health care system suggests that it's coming but it's not immediate. So, don't expect immediate overnight results, but it is something that will definitely be a tipping point soon. So, it would be great to be positioned in that marketplace.</p><p><strong>Harry Glorikian:</strong> So, speaking of those of that trend is you know, what do you see is the top healthcare technology trends that are around the areas that you're really working in sort of transparency information. I keep thinking of like you know your smartphone knows exactly where you are and can give you pricing nearby or something like that. and then you know of course the big hot button right, AI machine learning and where is that playing a role. And what do you see happening in those areas, and who might be some of the companies that are driving in that area?</p><p><strong>Leah Binder:</strong> I see a lot of work around AI for administration of claims data for purchasers and attempts to, I think one of the first efforts around AI with regard to purchasers was to try to see if you could predict who is going to need the most health services in the future. So, to try and look at claims and patterns of use of healthcare benefits to see if you can, you know identify those people who were most likely to for example have a heart attack in the next five years or something, and so to be able to intervene with them earlier.</p><p>I think that that has largely not yielded quite the results. I think everyone hoped for and I think now there the effort is really around at least that I'm seeing for purchasers is to really look at how can we identify the best practices, the best possible providers and help guide employees toward, or steer them toward those higher performing, more efficient providers. I'm seeing increasing efforts by purchasers for instance to give their employees services like second opinion services or other kinds of support, so they can navigate the health care system. And I think they're using AI a little bit to try and form the right kinds of networks and develop the right kinds of expertise that they need. Because even though leapfrog provides a lot, I mean for example my organization leapfrog provides a lot of quality and safety information, we don't pretend to provide enough of it.</p><p>And I think that employee and really the market, our information on quality safety transparency cost is really still at an early stage. And I think that employers are starting to use their claims data in more sophisticated ways to get at information that they can use right away as opposed to waiting for the rest of the country to catch up on quality and safety. So, I'm seeing a lot more aggressive efforts to help people navigate the health care system by employers.</p><p><strong>Harry Glorikian:</strong> Obviously you are talking to the leaders of these employer led health plans and so forth -. What should they be doing more of or what could they be doing more off to drive this?</p><p><strong>Leah Binder:</strong> Well, the first thing that they should really be doing is accessing or expecting their plans to access all of the data that's available. So, as I mentioned I don't think, we ever can say we have quite enough we're still in the early stages in some respects of getting as much data as we need, but there is good data that's out there. So, asking and insisting that their employees can access the best possible data, so they can make good decisions about where they're going to seek care and then use that data in innovative ways, and put money on the table for that.</p><p>There's companies like Ingersoll Rand for instance, who are actually providing incentives, financial incentives for employees to use their services that they provide to help employees navigate the system, so to give them information on you know which are doing a better job of and where they can get second opinions etc. So, when their employees use it, they actually get money in their health savings account. That's a really good and innovative way and I think that it's a simple way too. It's not all that complicated for employers to just say, we want you to just talk to them try to get a second opinion make sure you know what you should know about the performance of the providers, you're considering and then use it.</p><p>I think where we're going to see more technology come into play and I'm hopeful, but I haven't seen it happen yet but I would suggest it's a good idea. So, I'm hopeful that somebody's going to do it is, where we see employers able to connect their claims from their health benefits with other kinds of health care that they invest in, but they tend to think of as separate. So, like worker’s compensation or disability, short-term or long-term disability benefits they're all connected to the health of the same people. But they often see them as totally separate enterprises and in fact they're connected and the company's paying for both.</p><p>So, the more we can see longer-term and more integrated assessment of the overall spending around individual patients, and how individual people are impacted by a whole variety of things that happen to them in the healthcare system, that's when we're going to start to see more nuance in purchasing behavior. So, an example would be, we've had employers start to try to really understand how errors and accidents, infections in hospitals are affecting their own employee population. These things don't appear on standard claims, typically sometimes they do but not typically.</p><p>Typically, if there's let's say and medication error made, there's no particular bill, there's no line on your claim that says you know you paid for this error. It's kind of buried inside the claim, if it's even noted in the claim and it's hard for employers to detect it, and yet these are very common. All the literature on errors and accidents is that they are extremely common, that as many as one in four patients admitted to a hospital or experiencing some kind of harm. So, it's very common and employers are paying for that, so they really do want to understand where it's happening and most often and in so doing be able to try and prevent it.</p><p>And there are ways to use AI as well in exploring claims and to look for things like excess length of stays, that don't match a diagnosis or things like that help them to be able to at least trigger a closer review of a claim and to begin to observe patterns that are troublesome. So, I think that what we're seeing with for technology at least from the employer perspective is an ability to be much more nuanced and much more sophisticated in really looking at the experience of their employees. And then using that in more effective ways to help their employees get the right kind of care.</p><p><strong>Harry Glorikian:</strong> Jumping back to Leapfrog. So, what will be happening at leapfrog in the next couple of years where is the, where are you taking the organization and what would you like to see the organism and develop and/or produced to help this, in this long goal?</p><p><strong>Leah Binder:</strong> Our goal is to save people's lives and on a fundamental level, so that you are protected when you go to a hospital or any kind of health system. But that your well-being is a primary consideration which will protect your life. It is a, you know five hundred people a day, upwards of 500 people a day die preventable errors in hospital. So, it is a major issue for people to be protected from that. So, we want to change the market, so that that's not happening anymore and so that people can better protect themselves by making the right choices.</p><p>And so we continue to focus on patient safety and using all of the technology that is available to us and to our members, our purchasers to try and do that. Whether it's find the errors and publicly report them, which is what we do at leapfrog for employers as a group nationally, or find them in your own claims for one in particular purchaser which we simply, we advocate that they do and we help connect them with the resources to do it.</p><p>And then what we're focusing on right now is hospitals, but we are also in 2019 moving toward ambulatory surgery centers, as well as outpatient surgery. 60% of all surgeries are now done on outpatient basis or in ambulatory surgery centers. So, we're going to be looking at safety and quality there as well. And in addition to what we do in reporting this data ourselves, we also advocate with CMS to make sure they report it, and we've been strong advocates since our inception and in many respects why CMS currently reports so much data is, a lot of the work of people at leapfrog and are continuing very strong efforts to make sure, not only that we can get the information but also that it's made publicly available to everyone.</p><p>So, we continue to be needed believe me to get that information available to people, and to get it used to make it easy for purchasers to use it and in sophisticated ways and to get, to drive that market for better care.</p><p><strong>Harry Glorikian:</strong> Are there any, I guess stories that you could share where this information really made a difference with either an individual or a group, whether it's the cost impact or anything of that nature that you could share? You know just going back to Moneyball medicine, which is all about you know how data is changing practice of medicine or how patients look at their care and how they manage themselves and how that affects. Obviously what we all look at is is price or cost or you know combination of those two things.</p><p><strong>Leah Binder:</strong> Right and we definitely have had a number of successes that we do think are important, and that you mentioned price and cost and I just want to make a little comment about that, they're different. The cost of care to the purchaser is one thing, the cost to the provider is another thing. Those are two different things, but for purchasers they're very interested in price transparency. They want to know how much each provider is charging their employees and then that's the price and then they want people to be able to compare among prices.</p><p>That's really important, but it's not the only thing and the example that I give around that is that, you can know the price that a particular, say Hospital is charging for childbirth. Let's say for a normal vaginal delivery and for a C-section etc., you could find out the pricing. But what you also want to know is what is the rate of C-section, because that varies tremendously. We see variations in our data you know some hospitals will have upwards of 40 or more percent of all births via C-section, others will have you know below 20 percent C-section.</p><p>So, a C-section is roughly twice the cost to an employer and to consumer, it's twice the cost of a vaginal delivery. So, if you're going to a hospital that has a much higher propensity for C-section births you're going to pay more and that's not a price issue they may charge a slightly lower price for their C-sections that is a cost issue and that's a quality issue. So, quality and cost and price are all integrated and it's not enough just to pull out one. You have to look at all of them together and so our examples of what we've seen with leapfrog have to do with that integration.</p><p>An example would be, there's a hospital, we publicly report as I just mentioned C-section rates by hospital where the only source that information we ask hospitals through the Leapfrog Hospital survey to voluntarily report to us on that. It is a standardized rate, so it's adjusted for all of the factors that can go into differences among hospitals in their C-section rates. We try to adjust for those things and it's a rate, that's used by Joint Commission for example which is accrediting body for most hospitals and other, it's endorsed by the NQF it. So, it's a good measure of C-sections that you can use to compare among hospitals, and again we do find major variation.</p><p>So, one Hospital which we wrote up in a case study which is on our website leapfroggroupe.org and available anyone if you want to take a look at it is, they recognized through doing a leapfrog survey that their rate was higher than others and it did not meet the Leapfrog standard. And they as a result launched a campaign and they lowered that rate, significantly another meeting to standard. Simple example maybe, but that is saving a significant amount of dollars to the people, the women who are using that hospital as well as their employers who are paying for much of their care.</p><p>So, that is an example when we've seen reductions, and we've seen improvements in maternity care for everything that we've been reporting. And in some cases dramatic, we were reporting on early elective deliveries. These are deliveries, they're done without a medical reason early it too early in the pregnancy of 37 to 39 weeks as opposed to 40 weeks, which is when mother nature typically decides time to give birth. And so they're scheduled anyway and to try and actually get a jump on mother nature, so that I guess you can get the right doctor or there's various reasons it's just more convenient to schedule it.</p><p>But it's not safe, it's not a good thing to do. It's not safe for the baby, it's not safe for the mother and often results in a NICU stay which are very expensive as well as just not safe and not healthy. So, those went from a rate when we first started reporting them publicly, again we are the only source of that information. Back in 2010, we were reporting a rate of about 17% and now the rates down to about 2% nationally. So, that's a massive decline a major change in the delivery of maternity care and it has definitely saved, probably hundreds of thousands of babies from a stay in the NICU and saved a lot of costs as well.</p><p>So, in maternity care we can definitely see the impact of the transparency movement. And we are not doing the work by the way, we're not a critic for the enormous amount of work it takes to reduce you know your rate of early elective deliveries or your rate of C-sections. That's some pretty substantial leadership and hard work by providers, but transparency and markets work and that's what we see when we start publicly reporting on a measure like that.</p><p><strong>Harry Glorikian:</strong> Yeah, know I mean, we all know that you know transparency changes a lot of markets. It's when things are not transparent and opaque that strange things happen, either people comparing themselves to others because they have no idea what the other person is doing or just the patient being informed. And you know I always thought to myself you know once this information is available, and you can make some pretty interesting apps and analytics to identify different things either to the providers themselves or to the patients.</p><p><strong>Leah Binder:</strong> Right and the providers when see their own performance in comparison with others, it does help them to understand what they can do better. And and it usually motivates and galvanizes changing, that's a key aspect of everything.</p><p><strong>Harry Glorikian:</strong> So, is there anything that I haven't asked you that, you would love for the listeners of today to hear about, either changes in the marketplace technology or you know things that leapfrog is working on itself?</p><p><strong>Leah Binder:</strong> Well, one of the areas of technology that we put a lot of emphasis on is the safety of technology used by hospitals, and specifically how safe it is, how well it protects patients from common errors. So, an example of what we have classically looked at is computerized physician order entry or provider order entry, depending on who you talk to, but it's CPOE, computerized order entry. It's used for medications and the prescriber enters an order in to the system the CPOE system.</p><p>They enter the medication order in for a specific patient, it connects to the patient record and if that order would cause an allergy problem with the patient or it's a drug interaction with something else that the patient is taking, then the CPOE system fires an alert at the physician. Typically, it says you know this the patient's allergic, do you want to change the order etc. And that has really reduced errors in the hospitals the most common error made in hospitals by far our medication errors. And so the CPOE systems have had an impact on that.</p><p>So, what leapfrog has done is, we actually give a test to hospitals. They can, it's a web-based time test where they can assess whether their system is alerting the way it should and not alerting too much. You want to avoid frivolous alerts so that physicians start ignoring all the alerts. So, it's actually kind of a balancing act, but we look for systems note that alert when there's a really terrible medication error that's being made. So, if doctor enters or prescriber enters something that would definitely cause the patient significant harm or even kill the patient, we want to make sure that system alerts to them and we test for that.</p><p>So, we've found that about a third of the orders we've tested do not alert properly, and so there's definitely work that needs to be done. So, what I think is the take home message that we've learned from this work with CPOE and I think a lot of hospitals have shared with us is that, technology in hospitals is not plug-and-play. You don't just buy it off the shelf and plug it in now they all sort of know that. But in theory but in reality technology is something you have to monitor constantly.</p><p>You have to be vigilant about it, you have to make sure it's constantly working to the benefit of the patient, and you can't assume that technology replaces all of the other kinds of efforts you make to keep your patients safe. It augments what you do to keep your patients safe, but it doesn't replace it. And I say that too because I think when CPOE especially when it first came around, a lot of hospitals thought well. We've got this technology now so we can skip a step, we cannot have the nurse check the order at the bedside or something like that. They would skip a step and that's not safe either, we have found as I said a lot of orders are not alerted properly so that step shouldn't be skipped.</p><p>And also it actually just doesn't protect the patient enough, but when it's combined with the systems that are already in place and checks and balances around order entry or any other kind of safety issue, you do find that technology can vastly improve the safety for patients. So, we've looked at that, we've looked at barcode medication administration and we're very interested in continuing to monitor. Not just whether hospitals have good technology in place but whether they monitor it and they use it most you know as effectively as possible. And both of those things have to be combined for technology to be effective.</p><p><strong>Harry Glorikian:</strong> Well, I want to thank you for your time today. This was wonderful and it's great you know continuing our conversation over time. I'm sure they've all talked many times in the future on many different things and I can only wish you guys extreme success, because I'm also getting a little bit older. So, you want the system to work as well as it can.</p><p><strong>Leah Binder:</strong> Right, we all have a role to play and making sure that happens, and I really do appreciate your book. So, thank you for writing it and for making it available. It's been a great resource.</p><p><strong>Harry Glorikian:</strong> Thank you very much for your time, really appreciate it.</p><p><strong>Leah Binder:</strong> Thank you.</p><p><strong>Harry Glorikian:</strong> And that's it for this episode hope you enjoyed the insights and discussion. For more information, please feel free to go to<a href="http://www.glorycamp.com/"> www.glorycamp.com</a>. Hope you join us next time, until then farewell.</p><p> </p>
]]></description>
      <pubDate>Fri, 9 Nov 2018 16:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Leapfrog Group president and CEO Leah Binder talks with Harry about data transparency and how it helps inform healthcare decisions by putting the right information in the hands of patients and employers.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Welcome to the Money ball medicine podcast, I'm your host Harry glory camp. This series is all about the data-driven transformation of the healthcare and life sciences landscape. Each episode we dive deep through one-on-one interviews with leaders in the new cost-conscious, value-based healthcare economy. We look at the challenges and opportunities they're facing and their predictions for the years to come.</p><p>So, my guest today is Leah Binder, Leah is the president and CEO of the <a href="https://www.leapfroggroup.org/">Leapfrog Group</a>. The Leapfrog Group represents employers and other purchasers of health care who call for improved safety and quality and hospitals. She is a regular contributor to forbes.com, The Huffington Post and The Wall Street Journal expert forum. She was named on Becker's list of the 50 most powerful people in healthcare in 2014, and consistently cited by modern health care among the 100 most influential people and top 25 women in healthcare.</p><p>She has served on numerous national boards and councils including the Institute of Medicine collaboration on patient engagement, the Health Care Financial Management Association Leadership Advisory Committee, but Corey healthcare systems advisory panel, AARP champions for Nursing strategic advisory council and the national priorities partnership board. Prior to her current position, she spent eight years as vice president at Franklin Community Health Network an award-winning rural hospital network in Farmington Maine.</p><p>he previously worked as a senior policy adviser for the office of mayor Rudolph Giuliani in New York City and started her career at the National League for nursing, where she handled policy and communications for more than six years. Thank you very much for joining me today, good to have you here.</p><p><strong>Leah Binder:</strong> Well, thank you for having me, it's a privilege.</p><p><strong>Harry Glorikian:</strong> So, we had spoken quite a bit back when I was putting together the book Money ball medicine but for those people who are not familiar with the Leapfrog Group, can you tell us a little bit about the group its mission and what you feel the biggest impacts are it's made to date?</p><p><strong>Leah Binder:</strong> Sure and I want to congratulate you by the way on your book, I really thought it was fantastic. I've been giving it out to a lot of my colleagues I strongly recommend it. So, congratulations on an excellent book, I think it really captured some very important issues about where we are in healthcare right now. So, it's a great contribution.</p><p><strong>Harry Glorikian:</strong> Thank you so much.</p><p><strong>Leah Binder:</strong> The Leapfrog Group is a non-profit, we were national. We were founded in the year 2000 by a group of senior executives in large companies, who were concerned about healthcare quality and costs. They were particularly concerned about a report that came out from the Institute of Medicine, right around that time that was called to air is human. Which said that, upwards of a hundred thousand people were dying of preventable medical errors in hospitals every year.</p><p>And they were astounded by that number not only because that's a lot of people dying and when they did the numbers on their own covered lives, for many of them that meant one of their people were dying you know every day or every other day, because many of these executives such as companies like GE covered a lot of people. And they were not only were they just devastated to think that, their people were experiencing this kind of loss but also that they didn't know anything about it, that in spite of all of their efforts to try to improve healthcare and get their cost down and manage their health benefits well.</p><p>They had no idea that this was going on and this had such an impact, and so they wanted to change that, so they decided that it was time to have a more transparent marketplace in health care. They would through leapfrog this nonprofit, they would start to publicly report on the relative safety of every hospital in the country. And they would encourage their employees in the American public to shop for their hospital care to think about safety, before they walk in the door of a hospital. And in so doing not only would they protect their employees, but hopefully drive a market for improvements in safety and throughout the country and improve the quality of care nationally.</p><p>So, that's the goal, we publicly report on hospitals and now we're moving into other settings as well. But our goal is to collect information using the leverage of large purchasers, large companies typically a purchasers of health benefits, using their leverage to suggest to hospitals and other health systems that they give us information, that's otherwise not available. And then we publicly reported in the interest of giving consumers what information they deserve to have about how the health care system is doing.</p><p><strong>Harry Glorikian:</strong> So, when I was writing the book, I found that even when patients were armed with data and information tools designed to help them decide between you know different healthcare providers. They don't seem to be using the tools you know to the degree that they can. Are patients ready to fully you know activate their emerging role take advantage of it or can we make technology easier to use for them in some way?</p><p><strong>Leah Binder:</strong> Well, yes to both. Yes, consumers are increasingly using information but not anywhere near the level that they should, but that will change. We are in a very fast changing environment not only in healthcare but in general. I think consumers even five years ago shopped very differently for almost everything, and now that's changing as well in healthcare and it's been changing. And so, I think we're seeing those changes in the way consumers are using technology to make decisions about their own healthcare and when the Millennials get a little bit older just a little bit and they start to recognize their own mortality and need health care more. I think that's when we're going to see the real explosion in the change in healthcare.</p><p>Because they just aren't, there to intolerant of the idea that they cannot use a smartphone for instance to access pretty much any information they could possibly need to make it an important decision like a healthcare decision. So, I think that we're going to see a major shift in consumer use of technology. But I think that one of the big changes we've seen with this newly transparent environment and the is not as much on consumer behavior yet, but on how the healthcare industry itself functions, in anticipation of consumers increasingly using information to make those kinds of decision. And that's where we've seen I think some very significant shifts in the healthcare industry already.</p><p><strong>Harry Glorikian:</strong> So, can you give me an example of where you're seeing that? I've seen a lot from CMS seems to be really pushing, you know wanting information to be transparent or putting information out there. But you know, what do you see happening really on the ground and can you give me a couple of examples?</p><p><strong>Leah Binder:</strong> Sure one thing we're seeing with hospitals is an unbelievable focus on their own metrics. I've been out visiting a number of hospitals and I'm struck by how many of them have on their walls, information about how they're doing on a whole variety of patient safety metrics like, how many Falls and how many you know infections and etc. And many of them are putting this on walls that are accessible by patients but they're all over the place. I see metrics everywhere; this is a very different. I never saw that five years ago or very rarely saw that five years ago.</p><p>So, they're within health systems, they are communicating to clinician to clinician, how they're doing and they're looking at real card data to do that. And so there's just that level of internal transparent see that we're seeing, that does have a big impact I think on performance. And I think also there's a whole new job title in healthcare, and if you've seen this, I think this came about really it started about five years ago we started to see this, but now it's become much more ubiquitous this new brand new job title. Chief, usually called the chief engagement officer and so it's usually a c-suite title.</p><p>So, chief engagement officer reporting to the CEO of a health system, this person is usually responsible for patient engagement, how patients are experiencing the health care system. So, you think, well health care should have been doing that from the very beginning of course that should have been all about patient engagement, right. That's what everybody should be doing but you know for whatever reason and there's lots of reasons we could go into her an hour, they have not put the patients at the center of absolutely everything that goes on in healthcare, that's not the tradition in health care.</p><p>So, the fact that they're now seeing these new chief engagement officers emerge is another sign that health systems are truly changing their orientation to their work and recognizing that they have to pivot around new priorities, and the new priority is the patient. So, we're seeing a real shift.</p><p><strong>Harry Glorikian:</strong> So, now do you believe that's driven by how the system is being compensated or is it competition or technology? What do you think is the driver?</p><p><strong>Leah Binder:</strong> I wish, I could say it's driven by how they're paying, because how they're being paid because that would mean that where we're seeing what I would say is the most sustainable kind of change. If we were really paying healthcare and we had a different kind of economic infrastructure of our healthcare system, I would say that's a very long-term change that will benefit all of us. And I think many of, both within the healthcare system and outside of it, would like to see that happen and are pushing for that to happen and we're seeing certainly some inroads around that in. For example, in the notion of value-based payment etc., and we're seeing that happen, however I would not say that that right now is the driver.</p><p>I still think right now probably the majority of health care is paid fee-for-service with some significant inroads and other models, but still fee-for-service really does dominate the landscape in terms of the payment of health care, where I see it's driven though is that those who are paying is shifting and shifting in significant ways. Right now most large employers and many smaller employers have shifted toward high deductible health plans which are typically three-thousand-dollar deductible, for example for families or more for families and about 1,500 or more for individual plans and in that, underneath that deductible.</p><p>So, before you hit that deductible every dime has to be spent by the employee or the covered person, including drugs and other kinds of services that in more traditional health plans were already covered, even if you hadn't already spent it ductile. So, I'm not trying to give a boring lecture on insurance policy or anything, but the point is that for many people who are covered by health insurance they're actually paying most of their health care if not all of their health care in a given year out of their own pocket. And that is about one in three American workers now covered by one of these plans, that's a gigantic shifts happened over the past ten years.</p><p>It's gone from zero, covered by one of these to a third of all workers that's a major transformation of our health care system. It's been cited in lots of reports and research studies as a change in our thinking about health care. So, the people paying the bills and health care now is changing, and when consumers are paying out of their own pocket it does change the way they behave in the marketplace. As opposed to, for example paying just the standard copay, they're actually wanting to know what is that doctor going to bill me for this visit, and that changes how they think about their choice of that doctor and that service.</p><p>Now there's lots of debate about whether it's good or bad or whatever, but beyond that is just simply the fact that, that's changed the economics of health care. Which in turn has gotten the attention of health care providers at least, who recognized that they had better become more responsive to consumers because it's the consumers directly paying a lot of their bills.</p><p><strong>Harry Glorikian:</strong> So based on that, what should have done senior healthcare IT leaders, you know startup companies you know we're hearing about Google and Amazon delivery. What can they do to sort of help the providers that are on the ground, you know clinicians, operational people you know improve healthcare delivery, you know on the ground you know. How to get them to think about it differently and how to get them to implement it?</p><p><strong>Leah Binder:</strong> I think that for startups, one of the first pieces of advice I would have for any startup is, not to approach the healthcare market without someone on your team and in a very significant position on your team, who is from the healthcare system and very familiar with it and how your product or service integrates. I say that because, I see some startups that come into the market and they don't necessarily have a person who's that integrated who has that knowledge of the healthcare system. And they come in and they say, well I have this product and it will for example improve patient safety.</p><p>I can look at all the numbers and say that patient safety is nowhere near where it needs to be, and this product solves all problems in patient safety or many problems in patient safety. So, obviously it's going to be very popular, and we're going to do extremely well in the marketplace. They don't necessarily understand some of the barriers that have existed in the market and why great ideas around patient safety have not always sold the way they should in theory sell. And it takes really someone from within the healthcare system to understand some of the frankly insane nuances of the health care system.</p><p>There are things about the health care system there just don't make any sense in a normal market, so you have to have someone in the inside who understands that else. You can easily go down a road that sounds logical but doesn't make just don't work in healthcare. So, that's my first piece of advice for startups, but in terms of technology I think that technology that is easily accessible by consumers, is always going to be a good start for anyone. But it isn’t necessarily going to be immediately impactful and usable in healthcare.</p><p>It's a longer-term play, as I mentioned I think Millennials as they come more into the market as consumers are increasingly demanding that level of accessibility in the healthcare system. The new enterprises, we're seeing like CVS and Caremark and the work that we're seeing certainly with Warren Buffett etc. Amazon the entries in the marketplace of traditionally consumer focused, extremely innovative organizations into the health care system suggests that it's coming but it's not immediate. So, don't expect immediate overnight results, but it is something that will definitely be a tipping point soon. So, it would be great to be positioned in that marketplace.</p><p><strong>Harry Glorikian:</strong> So, speaking of those of that trend is you know, what do you see is the top healthcare technology trends that are around the areas that you're really working in sort of transparency information. I keep thinking of like you know your smartphone knows exactly where you are and can give you pricing nearby or something like that. and then you know of course the big hot button right, AI machine learning and where is that playing a role. And what do you see happening in those areas, and who might be some of the companies that are driving in that area?</p><p><strong>Leah Binder:</strong> I see a lot of work around AI for administration of claims data for purchasers and attempts to, I think one of the first efforts around AI with regard to purchasers was to try to see if you could predict who is going to need the most health services in the future. So, to try and look at claims and patterns of use of healthcare benefits to see if you can, you know identify those people who were most likely to for example have a heart attack in the next five years or something, and so to be able to intervene with them earlier.</p><p>I think that that has largely not yielded quite the results. I think everyone hoped for and I think now there the effort is really around at least that I'm seeing for purchasers is to really look at how can we identify the best practices, the best possible providers and help guide employees toward, or steer them toward those higher performing, more efficient providers. I'm seeing increasing efforts by purchasers for instance to give their employees services like second opinion services or other kinds of support, so they can navigate the health care system. And I think they're using AI a little bit to try and form the right kinds of networks and develop the right kinds of expertise that they need. Because even though leapfrog provides a lot, I mean for example my organization leapfrog provides a lot of quality and safety information, we don't pretend to provide enough of it.</p><p>And I think that employee and really the market, our information on quality safety transparency cost is really still at an early stage. And I think that employers are starting to use their claims data in more sophisticated ways to get at information that they can use right away as opposed to waiting for the rest of the country to catch up on quality and safety. So, I'm seeing a lot more aggressive efforts to help people navigate the health care system by employers.</p><p><strong>Harry Glorikian:</strong> Obviously you are talking to the leaders of these employer led health plans and so forth -. What should they be doing more of or what could they be doing more off to drive this?</p><p><strong>Leah Binder:</strong> Well, the first thing that they should really be doing is accessing or expecting their plans to access all of the data that's available. So, as I mentioned I don't think, we ever can say we have quite enough we're still in the early stages in some respects of getting as much data as we need, but there is good data that's out there. So, asking and insisting that their employees can access the best possible data, so they can make good decisions about where they're going to seek care and then use that data in innovative ways, and put money on the table for that.</p><p>There's companies like Ingersoll Rand for instance, who are actually providing incentives, financial incentives for employees to use their services that they provide to help employees navigate the system, so to give them information on you know which are doing a better job of and where they can get second opinions etc. So, when their employees use it, they actually get money in their health savings account. That's a really good and innovative way and I think that it's a simple way too. It's not all that complicated for employers to just say, we want you to just talk to them try to get a second opinion make sure you know what you should know about the performance of the providers, you're considering and then use it.</p><p>I think where we're going to see more technology come into play and I'm hopeful, but I haven't seen it happen yet but I would suggest it's a good idea. So, I'm hopeful that somebody's going to do it is, where we see employers able to connect their claims from their health benefits with other kinds of health care that they invest in, but they tend to think of as separate. So, like worker’s compensation or disability, short-term or long-term disability benefits they're all connected to the health of the same people. But they often see them as totally separate enterprises and in fact they're connected and the company's paying for both.</p><p>So, the more we can see longer-term and more integrated assessment of the overall spending around individual patients, and how individual people are impacted by a whole variety of things that happen to them in the healthcare system, that's when we're going to start to see more nuance in purchasing behavior. So, an example would be, we've had employers start to try to really understand how errors and accidents, infections in hospitals are affecting their own employee population. These things don't appear on standard claims, typically sometimes they do but not typically.</p><p>Typically, if there's let's say and medication error made, there's no particular bill, there's no line on your claim that says you know you paid for this error. It's kind of buried inside the claim, if it's even noted in the claim and it's hard for employers to detect it, and yet these are very common. All the literature on errors and accidents is that they are extremely common, that as many as one in four patients admitted to a hospital or experiencing some kind of harm. So, it's very common and employers are paying for that, so they really do want to understand where it's happening and most often and in so doing be able to try and prevent it.</p><p>And there are ways to use AI as well in exploring claims and to look for things like excess length of stays, that don't match a diagnosis or things like that help them to be able to at least trigger a closer review of a claim and to begin to observe patterns that are troublesome. So, I think that what we're seeing with for technology at least from the employer perspective is an ability to be much more nuanced and much more sophisticated in really looking at the experience of their employees. And then using that in more effective ways to help their employees get the right kind of care.</p><p><strong>Harry Glorikian:</strong> Jumping back to Leapfrog. So, what will be happening at leapfrog in the next couple of years where is the, where are you taking the organization and what would you like to see the organism and develop and/or produced to help this, in this long goal?</p><p><strong>Leah Binder:</strong> Our goal is to save people's lives and on a fundamental level, so that you are protected when you go to a hospital or any kind of health system. But that your well-being is a primary consideration which will protect your life. It is a, you know five hundred people a day, upwards of 500 people a day die preventable errors in hospital. So, it is a major issue for people to be protected from that. So, we want to change the market, so that that's not happening anymore and so that people can better protect themselves by making the right choices.</p><p>And so we continue to focus on patient safety and using all of the technology that is available to us and to our members, our purchasers to try and do that. Whether it's find the errors and publicly report them, which is what we do at leapfrog for employers as a group nationally, or find them in your own claims for one in particular purchaser which we simply, we advocate that they do and we help connect them with the resources to do it.</p><p>And then what we're focusing on right now is hospitals, but we are also in 2019 moving toward ambulatory surgery centers, as well as outpatient surgery. 60% of all surgeries are now done on outpatient basis or in ambulatory surgery centers. So, we're going to be looking at safety and quality there as well. And in addition to what we do in reporting this data ourselves, we also advocate with CMS to make sure they report it, and we've been strong advocates since our inception and in many respects why CMS currently reports so much data is, a lot of the work of people at leapfrog and are continuing very strong efforts to make sure, not only that we can get the information but also that it's made publicly available to everyone.</p><p>So, we continue to be needed believe me to get that information available to people, and to get it used to make it easy for purchasers to use it and in sophisticated ways and to get, to drive that market for better care.</p><p><strong>Harry Glorikian:</strong> Are there any, I guess stories that you could share where this information really made a difference with either an individual or a group, whether it's the cost impact or anything of that nature that you could share? You know just going back to Moneyball medicine, which is all about you know how data is changing practice of medicine or how patients look at their care and how they manage themselves and how that affects. Obviously what we all look at is is price or cost or you know combination of those two things.</p><p><strong>Leah Binder:</strong> Right and we definitely have had a number of successes that we do think are important, and that you mentioned price and cost and I just want to make a little comment about that, they're different. The cost of care to the purchaser is one thing, the cost to the provider is another thing. Those are two different things, but for purchasers they're very interested in price transparency. They want to know how much each provider is charging their employees and then that's the price and then they want people to be able to compare among prices.</p><p>That's really important, but it's not the only thing and the example that I give around that is that, you can know the price that a particular, say Hospital is charging for childbirth. Let's say for a normal vaginal delivery and for a C-section etc., you could find out the pricing. But what you also want to know is what is the rate of C-section, because that varies tremendously. We see variations in our data you know some hospitals will have upwards of 40 or more percent of all births via C-section, others will have you know below 20 percent C-section.</p><p>So, a C-section is roughly twice the cost to an employer and to consumer, it's twice the cost of a vaginal delivery. So, if you're going to a hospital that has a much higher propensity for C-section births you're going to pay more and that's not a price issue they may charge a slightly lower price for their C-sections that is a cost issue and that's a quality issue. So, quality and cost and price are all integrated and it's not enough just to pull out one. You have to look at all of them together and so our examples of what we've seen with leapfrog have to do with that integration.</p><p>An example would be, there's a hospital, we publicly report as I just mentioned C-section rates by hospital where the only source that information we ask hospitals through the Leapfrog Hospital survey to voluntarily report to us on that. It is a standardized rate, so it's adjusted for all of the factors that can go into differences among hospitals in their C-section rates. We try to adjust for those things and it's a rate, that's used by Joint Commission for example which is accrediting body for most hospitals and other, it's endorsed by the NQF it. So, it's a good measure of C-sections that you can use to compare among hospitals, and again we do find major variation.</p><p>So, one Hospital which we wrote up in a case study which is on our website leapfroggroupe.org and available anyone if you want to take a look at it is, they recognized through doing a leapfrog survey that their rate was higher than others and it did not meet the Leapfrog standard. And they as a result launched a campaign and they lowered that rate, significantly another meeting to standard. Simple example maybe, but that is saving a significant amount of dollars to the people, the women who are using that hospital as well as their employers who are paying for much of their care.</p><p>So, that is an example when we've seen reductions, and we've seen improvements in maternity care for everything that we've been reporting. And in some cases dramatic, we were reporting on early elective deliveries. These are deliveries, they're done without a medical reason early it too early in the pregnancy of 37 to 39 weeks as opposed to 40 weeks, which is when mother nature typically decides time to give birth. And so they're scheduled anyway and to try and actually get a jump on mother nature, so that I guess you can get the right doctor or there's various reasons it's just more convenient to schedule it.</p><p>But it's not safe, it's not a good thing to do. It's not safe for the baby, it's not safe for the mother and often results in a NICU stay which are very expensive as well as just not safe and not healthy. So, those went from a rate when we first started reporting them publicly, again we are the only source of that information. Back in 2010, we were reporting a rate of about 17% and now the rates down to about 2% nationally. So, that's a massive decline a major change in the delivery of maternity care and it has definitely saved, probably hundreds of thousands of babies from a stay in the NICU and saved a lot of costs as well.</p><p>So, in maternity care we can definitely see the impact of the transparency movement. And we are not doing the work by the way, we're not a critic for the enormous amount of work it takes to reduce you know your rate of early elective deliveries or your rate of C-sections. That's some pretty substantial leadership and hard work by providers, but transparency and markets work and that's what we see when we start publicly reporting on a measure like that.</p><p><strong>Harry Glorikian:</strong> Yeah, know I mean, we all know that you know transparency changes a lot of markets. It's when things are not transparent and opaque that strange things happen, either people comparing themselves to others because they have no idea what the other person is doing or just the patient being informed. And you know I always thought to myself you know once this information is available, and you can make some pretty interesting apps and analytics to identify different things either to the providers themselves or to the patients.</p><p><strong>Leah Binder:</strong> Right and the providers when see their own performance in comparison with others, it does help them to understand what they can do better. And and it usually motivates and galvanizes changing, that's a key aspect of everything.</p><p><strong>Harry Glorikian:</strong> So, is there anything that I haven't asked you that, you would love for the listeners of today to hear about, either changes in the marketplace technology or you know things that leapfrog is working on itself?</p><p><strong>Leah Binder:</strong> Well, one of the areas of technology that we put a lot of emphasis on is the safety of technology used by hospitals, and specifically how safe it is, how well it protects patients from common errors. So, an example of what we have classically looked at is computerized physician order entry or provider order entry, depending on who you talk to, but it's CPOE, computerized order entry. It's used for medications and the prescriber enters an order in to the system the CPOE system.</p><p>They enter the medication order in for a specific patient, it connects to the patient record and if that order would cause an allergy problem with the patient or it's a drug interaction with something else that the patient is taking, then the CPOE system fires an alert at the physician. Typically, it says you know this the patient's allergic, do you want to change the order etc. And that has really reduced errors in the hospitals the most common error made in hospitals by far our medication errors. And so the CPOE systems have had an impact on that.</p><p>So, what leapfrog has done is, we actually give a test to hospitals. They can, it's a web-based time test where they can assess whether their system is alerting the way it should and not alerting too much. You want to avoid frivolous alerts so that physicians start ignoring all the alerts. So, it's actually kind of a balancing act, but we look for systems note that alert when there's a really terrible medication error that's being made. So, if doctor enters or prescriber enters something that would definitely cause the patient significant harm or even kill the patient, we want to make sure that system alerts to them and we test for that.</p><p>So, we've found that about a third of the orders we've tested do not alert properly, and so there's definitely work that needs to be done. So, what I think is the take home message that we've learned from this work with CPOE and I think a lot of hospitals have shared with us is that, technology in hospitals is not plug-and-play. You don't just buy it off the shelf and plug it in now they all sort of know that. But in theory but in reality technology is something you have to monitor constantly.</p><p>You have to be vigilant about it, you have to make sure it's constantly working to the benefit of the patient, and you can't assume that technology replaces all of the other kinds of efforts you make to keep your patients safe. It augments what you do to keep your patients safe, but it doesn't replace it. And I say that too because I think when CPOE especially when it first came around, a lot of hospitals thought well. We've got this technology now so we can skip a step, we cannot have the nurse check the order at the bedside or something like that. They would skip a step and that's not safe either, we have found as I said a lot of orders are not alerted properly so that step shouldn't be skipped.</p><p>And also it actually just doesn't protect the patient enough, but when it's combined with the systems that are already in place and checks and balances around order entry or any other kind of safety issue, you do find that technology can vastly improve the safety for patients. So, we've looked at that, we've looked at barcode medication administration and we're very interested in continuing to monitor. Not just whether hospitals have good technology in place but whether they monitor it and they use it most you know as effectively as possible. And both of those things have to be combined for technology to be effective.</p><p><strong>Harry Glorikian:</strong> Well, I want to thank you for your time today. This was wonderful and it's great you know continuing our conversation over time. I'm sure they've all talked many times in the future on many different things and I can only wish you guys extreme success, because I'm also getting a little bit older. So, you want the system to work as well as it can.</p><p><strong>Leah Binder:</strong> Right, we all have a role to play and making sure that happens, and I really do appreciate your book. So, thank you for writing it and for making it available. It's been a great resource.</p><p><strong>Harry Glorikian:</strong> Thank you very much for your time, really appreciate it.</p><p><strong>Leah Binder:</strong> Thank you.</p><p><strong>Harry Glorikian:</strong> And that's it for this episode hope you enjoyed the insights and discussion. For more information, please feel free to go to<a href="http://www.glorycamp.com/"> www.glorycamp.com</a>. Hope you join us next time, until then farewell.</p><p> </p>
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      <itunes:title>Leah Binder on How Price and Quality Transparency Helps Patients and Employers</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:summary>Leapfrog Group president and CEO Leah Binder talks with Harry about data transparency and how it helps inform healthcare decisions by putting the right information in the hands of patients and employers.</itunes:summary>
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      <title>John Glaser and How AI is Affecting Electronic Medical Records Systems</title>
      <description><![CDATA[<p>Harry's guest John Glaser, senior vice president of Population Health at Cerner, speculates on how business models in healthcare are changing and how artificial intelligence and EMR systems will work together in the future.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Welcome to the <a href="https://glorikian.com/the-moneyball-solution-to-the-healthcare-crisis/">Money ball medicine podcast</a>. I'm your host Harry Glorikian, this series is all about the data-driven transformation of the healthcare and life sciences landscape. Each episode we dive deep through one-on-one interviews with leaders in the new cost-conscious, value-based healthcare economy. We look at the challenges and opportunities they're facing and their predictions for the years to come.</p><p>My guest today is John Glaser, who is the senior vice president of Population Health at Cerner. Cerner is a health IT company that is one of the largest suppliers of electronic health record systems in the United States. John joined Cerner in 2015 as part of the Siemens health services acquisition, where he was the chief executive officer. Prior to Siemens, John was vice president and chief information officer at Partners HealthCare. He also previously served as vice president of information systems at Brigham and Women's Hospital.</p><p>John received his PhD from the University of Minnesota, he has written over 200 articles and three books on the strategic application of IT and health care. Including the most widely used textbook on the topic, “Healthcare information systems a practical approach for health care”. John is on the faculty of the Wharton School at the University of Pennsylvania, the medical university of Southern Carolina, the School of biomedical informatics at the Texas Health Science Center and the Harvard School of Public Health.</p><p>John focuses on strategic relationships with Cerner clients and advancing Cerner's population health solutions and services. John, welcome to Moneyball medicine, it's great to have you here.</p><p><strong>John Glaser:</strong> Harry, it's a pleasure.</p><p><strong>Harry Glorikian:</strong> John, tell me what does it mean to be vice president of Population Health. What is Population Health?</p><p><strong>John Glaser:</strong> Well, it's a fuzzy term in some ways but basically the idea is that there are organizations. They'd say I'm accountable for the health care and the health of a group of people, it might be an employer who says I'm responsible for my employees or the state Department or a health care provider, who has a series of lives attributed to the - health plan, but the point is they're accountable. And so they need a series of tools and technologies that help them manage health and manage health care this is analytics to see you know who's receiving what care, how costly is it.</p><p>This is a series of care management to the degree they need someone to help them navigate the care process or social determinants. So anyway, at the end of the day accountable organizations need technology to help them fulfill their obligations to those who they are to serve, and that's what population health IT staff intends to do.</p><p><strong>Harry Glorikian:</strong> You know medicine has been historically based on a fee-for-service model, where you're paid on what you do. And now that we've seen sort of a shift not as much as I'd like to see, but a shift towards value-based medicine, in other words paying providers based on outcomes. Do you see what you're doing or and/or the business model sort of shifting towards how we do, what we do?</p><p><strong>John Glaser: </strong>Yeah, I think Harry we're in the early stages of an extraordinary change in the business model of delivering health care, and it runs along a couple of different dimensions so to speak. One is we're moving from reactive sick care to proactive management of health, so you know you show up. We'll fix you so we got to make sure that you remain healthy. So, that's one dimension, the second dimension is fragmented, where you go here for this type of care there for that type of character this integrated continuum of care that occurs across.</p><p>So, we manage you throughout all the steps that need to be taken to you know replace your hip for example. The third is moving from volume or rewarded for volume to where you're rewarded for quality and efficiency. And then last but not least is a shift from where we're centered on the clinician to where we're centered on the patient's. So, these four dimensions represent an extraordinary shift in business model. I think frankly you could argue that the business model shift that healthcare is undergoing, now is the most profound business model shift of any industry in the last 100 years.</p><p>Where you look across transportation, telecommunications and all kind of financial services etc. Now business model shifts are hard and they take time to play through. So, I suspect that we will be spending decades frankly to make this particular shift occur and to occur well. So, population health and other technologies are being brought to the table as organizations prepare for this future that awaits all of them.</p><p><strong>Harry Glorikian:</strong> Well, I think it's interesting right, I mean every once in a while it sorts of strikes me. I think it's because I've been in the business for such a long period of time is, every other industry has been digitizing or measuring for forever, it seems like. And it seems like for us, it really hasn't been that long. I mean if you think before the Reinvestment and Recovery Act and you walked into a doctor's office, the entire wall would be paper. And so in, I think digitization has only been eight years maybe on a grand scale.</p><p><strong>John Glaser:</strong> Yeah, I think that's fair Harry, we're less we're not as far along as other industries, now you have to be a little careful because the degree to which digitization will occur or to which it will be impactful varies. So, organized religion has not been digitized and unlikely to be to any material degree, similarly the legal profession has to degree. But at the end of the day when you have a sort of cohort of people who are experts and whose knowledge is really the asset here. It's hard to digitize it, you can digitize a lot of stuff surrounding them but to digitize a smart financial planner or the smart lawyer or smart doctors, just challenging.</p><p>So, but that being said we are late, you know I think in a way sometimes health care gets accused of being behind. You know as if it's full of a bunch of button heads who didn't know any better while their colleagues, and retail or leapfrogging them. So, well you know there are button heads in health care, but by and large they're pretty darn smart. They are thinking, they have made perfectly rational economic decisions based on the business model at the time. So, if I'm rewarded for volume I don't need all this other IT stuff, I just need to keep the beds filled in the clinic schedule fill.</p><p>So, I'm investing like a perfectly rational person would do. Now we'll see that shift as that occurs but nonetheless there's been decades of non-investment, because the economics didn't warn it.</p><p><strong>Harry Glorikian:</strong> That begs the question of, what have been the challenges that the healthcare industry is faced with respect to this digitization of data?</p><p><strong>John Glaser:</strong> Well, I think there's a number of challenges Harry, one is the range and complexity of the data is just off the charts. So, if you say well how would I describe a person in their phenotype and all the different types of data that were brought here. It's a much more complex record than your financial record, and now we're going to add to it by saying, golly we really understand the social determinants that influence you and we really need to understand how to motivate you, and we really need to understand your genome, you know. So, we have this incredibly complex set of data that comes to be.</p><p>The second thing that is a knowledge base, it probably has few knowledge bases which are challenging to master. One of the ways you can see that is if you go back 40 years ago and see how many specialties were recognized by the American Board of Medical Specialties roughly a dozen. You say well how many are recognized, today roughly a hundred. Well, why does that happen because the knowledge base expands and becomes so challenging, you get to increasingly narrow what we expect a human being to master.</p><p>The third is you have these very complex processes that occur. This is not manufacturing the hospital people show up they have complications they go south all this kind of stuff; you have to be able to sort of manage the workflow on an ad-hoc basis. So, I think it is, this complicated data world complicated, knowledge world complicated work process role and then last but not least, so now when I was in graduate school Harry I was an organization theorist. And one of things you notice is that for sociologists hospitals of the most studied organizational form of all time, because sociologists can't figure out how they work.</p><p>They're too complicated, parallel power structures doctors and administration, lots of committees etc. Anyway the whole thing is one of the reasons, I think healthcare is behind in IT partly because the economics didn't warrant it, but partly you say it's arguably the most complex arena to apply IT that we've ever had. And so that's hard, she was very challenging to get apps at work effectively in this complexity.</p><p><strong>Harry Glorikian:</strong> Interesting, it's funny because I think to myself sometimes it's a product of the way the system paid itself that caused some of these shifts to happen, where in other sciences we come up with a way of organizing the information about, what we need to work with. Because we're looking for a certain outcome, that we're trying to measure, and where you're being sort of remunerated based on what you do, not what the outcome is. That rubric of organizing sort of becomes looser -.</p><p><strong>John Glaser:</strong> Yeah.</p><p><strong>Harry Glorikian:</strong> In a sense. So, helping this along I mean I you know we hear so much about artificial intelligence, the analytics machine learning. I mean the definitions that worlds are keep expanding it seems like it. Where do you see whichever term the AI, the machine learning, the analytics and the electronic health record system sort of intersecting and what does that look like? Do you have some examples?</p><p><strong>John Glaser:</strong> Yeah, here I think I mean it's something back a little, but one of things I find interesting about IT is about every decade a class of technology arrives it changes the world. So, you go to the 60s is the mainframe, 70s is the minicomputer, the 80s is a networked personal computer, the 90s was the web. Year 2000 was the mobile device, you know the iPhone debuted in 2007, see well what is it this decade. I say well frankly, I think it's this broad umbrella called AI, that will change the world just as the others have changed the world. And just like the others to have time to change the world, so all this.</p><p>Now it's, this broad term in a way you get all hung up about what AI really means and all that stuff. But I think frankly  listen it's the whole field of advanced analytics applied. Now in a way they're sort of the, we see sort of four broad arenas in which you would apply this one, is determination of structure. So, you say the machine is reading an image and saying, we got a you know this is what's going on here. You know whether it's an eye disease with your eyes or a tumor or whatever or the machine is looking at a pattern arising, listen this drugs these drugs are hurting people. You can see this in the pattern you know or treatment A is better than treatment B.</p><p>So, there's a creation of structure artists but this mess, frankly that we have so that's one category. The second is increasing contextual awareness. So it's okay, John Glass was taking care of Mrs. Smith, the Machine says I know what's going on with Mrs. Smith, I got a record, I know they're presenting conditions, I know what preferences. I know John's preferences etc. I know what the evidence says I know what the payment is. And so I'm going to present data to John in that context. Here's what you should pay attention to, here's likely your next series of actions etc., I'm going to shape myself to this particular interaction. Sometimes we see this on retail sites with a sort of attempt to shape.</p><p>The third is I'm going to do operational flow; an example of  this remember my days at Siemens with the smart city. So, the city Siemens we got a traffic jam on the Main Street, so I'm going to alter the light sequence to sort of move it along a little bit here. And so in a process sense you say the Machine says I got to take Mr. Smith down to get his radiology exam, I can tell that there's a 30-minute wait in radiology. I can see he needs his blood drawn, the phlebotomist is one floor below, I'm gonna let the phlebotomist play through, draws blood and then I'm gonna send it on a writ, it's sort of choreographing a process.</p><p>And then last but not least, it is the sort of clinical decision aids. You know it's the readmission algorithm, it is the thing that says you know this person is likely to be better off in this type of skill facility versus that's, a lot of the predictive stuff you know comes in there. So, you look at all that and say wow there's some real power here, and a lot of that role leverage EHR data and particularly golly, if we can bring it all together and if we can deal with some of the, you know the mess that is in there and if we get better at social context etc. So, I think we're learning Harry and it's an exciting time and there's you know the gazillion start-ups, there's some big gorillas.</p><p>You know the Google’s of the world and Amazon's of the world, Microsoft's etc., we're all playing in this thing. So, anyway we're in the early stages of this decade of this very profound change, which will in a way preserve the EHR as the core. I mean you still got to collect the data Docs and nurses stuff to work with something. I mean they're interacting with something that goes on, but the nature of that interaction will be quite different in the years ahead.</p><p><strong>Harry Glorikian:</strong> Do you see the EHR, do you see this integrating with the EHR? Do you see the EHR becoming the data like that something reaches into and then does an analysis for a specialization? How do you see this melding?</p><p><strong>John Glaser:</strong> All the above, I think in some cases the intelligence will be part and parcel of the EHR, because of nothing else speed you know. So, when you enter an order and the thing comes back what are you serious, there's got to be a better way to do this. You know that will be part and parcel in that by this. On the other hand, which you see for example in Population Health is to extract data from lots of different EHRs. Because - regions have the plus you bring the claims and the devices and all those other stuff. And what I think that increasingly the population health will be is and I got to keep Harry healthy.</p><p>So, and I need to pull together enough that can characterize him, you know clinically characterized them, socially characterized and how do I motivate in etc. Now I haven't characterized Harry what's the plan to keep Harry healthy so I got to come up with a plan and then I got to monitor the plan -. You know all sudden he stopped taking his drugs or all of a sudden his blood Sugar's wobbly etc. So, the plan has to alter itself so I think we need to do some that's all intelligence. You know the intelligence of rationalizing the date of the intelligence I'm going to infer a plan and the intelligence is enough to monitor.</p><p>So, there'll be this layer that sits on top of EHRs and I think frankly, you know is people begin to say I want to bring my data into my mobile device and integrate it there. There will be intelligence applied there, you know there's quite local or a cloud-based, but specific to the device guiding you or me and decisions we might make.</p><p><strong>Harry Glorikian:</strong> What have you seen from either the start-up companies or are new things that are going on, but what do you see that's really exciting like what sort of application area do you see where it's improved an outcome for a patient and lowered the cost, so in that sense?</p><p><strong>John Glaser:</strong> You know we see, I mean there's lots of spot examples and what I think that's kind of interesting about this whole arena is, at times the we talk about the sort of general purpose intelligence. That's kind of a Watson thing or how you know in the 2001 Space Odyssey, but in fact the real powerful stuff is really quite targeted. You know it's the intelligence and a Siemens MRI, this is part 62 is feeling you know get over here and fix it before it really fails. Which is different from a part that says in your glucometer your blood sugars are bounced around through something, which is different from, If we don't do something, now you're gonna be readmitted with it for the, anyway very targeted intelligence here. So, you see lots of neat examples, you see neat examples of sepsis algorithms that say, we've got to do something now before this because you can go south in a hurry. We see neat examples on readmissions where they really do drop readmission rates. We can see examples where we say rather than send this person to this skilled level facility upon discharge send them to a lower or higher. And we see actually a third of the time decisions get changed you know be to the right place to go up and do this though.</p><p>So, and we see examples of more effective ordering, we see examples where you can do post Marcus, you can really pick up signals in the data. This is a drugs hurting people or treatment is better than for treating to be. So, you go through this range of things that are, wow it's pretty darn nice alright add off all those stuff. I think Harry one of these sort of you know, there's some broad big challenges that are out there. I'll give you an example of a broad big one here. So, when you look at an EHR see, how many instances of medical knowledge are there and of typical EHR say, well what's an instance of medical knowledge or an order set you know a health maintenance reminder.</p><p>You know all are sort of instances of medical knowledge, in general there's in excess of a hundred thousand. So, wow you know how, who's maintaining this. I don't know and what day was a recent update, I don’t know about either. So, one of the challenges we have is we introduced all this intelligence to these systems, and it just grows this sort of body of knowledge. It becomes brittle you know, because nobody's watching the store so to speak there. So, you say wait a minute how about if we have the machine watch and the Machine point out that this thing is updated and then actually look at the data machine learning and make the updates itself etc.</p><p>So, you know, no way you have machine healing and management of its content. I said wow that's pretty neat frankly, we'll have to do something if this stuff is going to get brittle break and hurt somebody. But anyway how we figure that out beats me, and I think that's becomes one of those great challenges that confronts industry in addition to continue to find and leverage. Lots of very specific point examples of where the intelligence has really made a, to much more gain although quite focused game.</p><p><strong>Harry Glorikian:</strong> So, that begs the question of, I mean there's got to be either new capabilities people need to learn or new people we need to hire, that are going to get involved. But this, it seems like healthcare is going to be a booming area for jobs and new types of jobs that, or new skills that they're gonna have to teach doctors in medical school just to be keep up with all of this. So, what do you see as the opportunities?</p><p><strong>John Glaser:</strong> Well, I think there's lots of opportunities and those young people aren't even mid-career people looking to shift here healthcare and healthcare IT and informatics is data science all this stuff is gonna be a rich and fertile area for quite some time. So, I think Harry, they range from what I call the methods of guys, you know men and women who really understand how to apply different analytical techniques to make this stuff, and really quite you know a lot of you know machine learning techniques and other types. So, there's the methods people that got it one here.</p><p>The second is a series of people who actually understand the clinical context, because sometimes the massive people come up in the person of clinical context, says no I mean I'll give you an example this goes way back when. We were looking at data on how you do have the Machine determined smoking status you know. So, can the machine go through and say, Harry's a smoker or non smoker and it gets complicated maybe stop five years ago or whatever what happened to be. And we were looking at one particular note and it said smoking status unclear, and so what does that mean.</p><p>And the physician who is working with us miss said, that means the resident is tired and just didn't want to go down this rabbit hole, and just wrote smoking status and clear. Well, you got to know the context to know that are these kinds of things. So, we'll always have to have people who understand the move of where that's going on. The third is understand, people who understand workflow so where and how do I introduce this you know. Do I do this we're in the middle of the exam, do I do it after the fact, I do it to the doctor, do I do it to some staff in there. I mean where do I fit this and if I fit this what do I want them to do.</p><p>So, you might have logic that says the social determinants indicate this person is in a nutritional wasteland. We, got to deal with it okay, who does what when that is informed. So, there's a series of what is the process and their choreography that goes with it. And then last but not least it is people who design stuff. You know my wife recently bought a Volvo xc90, you know. I know Harry if you said which has more lines of code, a high-end SUV a 787 or the space station. The answer is a high-end SUV by factor two, sheer lines of code you know to park correctly avoid crashing somebody to dim one other light. You know it's amazing here on these kinds you couldn't crash that thing if you wanted to.</p><p>So, the point is how do I help my wife or anybody with that bring the knowledge in and sort of you know what to do, a guide the interaction that is going on and these kinds of things. So, I think there's between the methods people, the context people, the workflow and the computer human design people. There's lots of opportunities to do this, and then the last one at least obviously people who evaluate, say is it doing any good.</p><p><strong>Harry Glorikian:</strong> So, that begs a question of I'm looking at all the other industries is, when they've tried to apply these advanced machine learning applications AI etc. And their first go, they tried to obviously do what we always do, take it and melt it into my existing workflow. And they never seem to get the return that they were expecting. And then when you see them shift their workflow based on the power that the system provides, they seem to get much more. So, how's that gonna work in healthcare? Because we're pretty rigid in our workflows. So, how do, do you see that influencing the workflow and what we learn?</p><p><strong>John Glaser:</strong> And I think you know we will iterate, because we know a lot of smart people in this industry, and they'll say, I don't really know, but let's try it here and they say well you know we're off 15 degrees and so you'll have to iterate. You know I think one of the ways that organizations of all this what I always root for short cycle learning try this too, try that too, they just sort of short cycle their way into you know better to do this. In some ways we do have rigid workflows but on the other hand, I think I find over my forever time in this industry is that, if you help a caregiver save time or do a better job of delivering care, they'll adapt quite readily. Where they're not happy is if you cost some time you know or they set notice.</p><p>So, you know subject to regulation and reimbursement because there's certain things you've got to do here. So, I think what will iterate and you know define novel ways of doing this kind of stuff, and frankly one of the great things that you know the is learning from your colleagues, you know about what did you try in your organizations. The chief medical officer is talking to chief medical officers and vendors learning from their clientele etc. We'll get better at all this.</p><p><strong>Harry Glorikian:</strong> There's a lot of new entrants into the field, right. You've got the Google’s and you've got the Apple’s and there's and the list is incredibly long of wellness company sort of budding, right up against the line there of regulated versus non regulated care. Where do you see or Amazon's for ran into this? Where do you see their impact of the system and I don't want to say good or bad, but how do you see that changing things?</p><p><strong>John Glaser:</strong> I think that's unclear to me is how that will evolve, and you see multiple threats. You know you see a thread of you know health plans and providers fusing and merging, you know you see the Walmart’s making moves. You see the CVS is making moves, all you know a pharmacy and retail and health organizations, they're all making moves in ways that are quite striking. And you see them trying to take out the middleman of the PBM by mu, you know worry.</p><p>So, this is restructuring that is occurring and it's not just in the sort of non-provider’s side of this thing. You know a couple years ago at CERN or you know maybe decade ago, we would have said well what's a large Health System we said well, about five billion in revenue annual revenue. And so today what would you say, about twenty billion in revenue. So, there did the bigger getting bigger in lots of ways here. So, even the provider side of restructuring these very large health systems with a whole lot of regional systems that are going on. So, you have all that and that's on the non IT side. Let alone the tech giants you know coming in, let alone the consumer guys coming in some of which are tech giants.</p><p>Let alone the traditional EHR vendors Cerner being one epic being and other all scripts etc. Let alone to your point a gazillion starts of a remarkable talent, some in the consumer side, some on the analytic side you know all over the place. You see well how will it all send a lot, good question how will that all settle out. So, I don't know that we know in a way, what that will look, I think some things are clear. You know one of which is you could who poo poo the tech giant say, well they tried that before and it turned poorly for them, it'll turn poorly for them again. Don't count on it, the world is a different place, the technology is better, there's got smarter etc.</p><p>The other is if you said the traditional boundaries, you know providers on one side, health plans on another, reach pharmacies that are those boundaries are blurring fast. And so you see that and providers getting into medic right or other stuff. So, I think a lot of it if I were a health system sir what do I do about all this stuff, well I'd start forming relationships with a lot of people who may have been traditional antagonists in the past, you know the health one, the retail guys. And it's they're learning just as you're learning and starting to go through all of that kind of stuff here.</p><p>And I think you know you it becomes harder you turn to a core vendor, you say well jeez you know certain or at they're going what do you think of all these guys you know help me navigate this technology stuff or consulting firms, you can go off and do all this. All right very complicated, very confusing time, and I think the other sometimes you know you know Harry  healthcare straddling two business models is, a fee for service and the value-based care, you know what a pain in the butt, it is a pain in the butt, how long will it last decades. It's not one of these two years and it's over and done, so settle in for a multi-year period of forming. That will go on across the board.</p><p><strong>Harry Glorikian:</strong> That, I'm sure that doesn't make physicians or anybody listening to that -, but so I you know as I look forward in the next, I hate even saying like you know three, five, ten years there's a lot of digital disruption coming. Yeah, I try to stay up on all the bleeding edge which moves in to tech very quickly. Whether it's AI, dare I say block chain, virtual and augmented reality things like that. Do you see, what do you see having impact on the healthcare arena?</p><p><strong>John Glaser:</strong> You know, I think it's hard to do that I mean and at the end of the day for me, you know what I think is you step back and say for any particular class of technologies at a very fundamental level, tell me what it does. And then I will tell you whether, I think that's important. So, I'll give you an example, what is flight do. So, as well enables you to get from point A to point B a lot shorter period of time without the infrastructure, you don't need railroads you need a landing strip at either end, well that's pretty remarkable. I could see where that's valuable to me. What does refrigeration do? It allows perishable things to last longer, they say well jeez would I do that. Well, I'm you know I'm moving in pharmaceuticals across the globe that matters a lot. So, you step back at a very fundamental level and say, why is this, what is it and why is it profound. So, I for example look at block chain and you say what is it it's a new way of doing accounting that has the ability at perhaps to remove the middleman, like the bank or the Law Offices Center. Do I think that will fundamentally alter health care? No, I don't do, I think we'll see it sure you know we'll see it as people do credentials for doctors etc.</p><p>So, now on the other hand you say what about this intelligence, say well  really could help a series of decisions contextual where structure of data is that a big deal. Absolutely, it's a big deal. Do I see the fact that you and I might have technology on us? You know our mobile device that can communicate with us knows, where we are etc. Is that going to be a big deal? Absolutely a big deal. So, I think it's hard but the trick is to step back and say at a very fundamental level what does it do. And the answer, you'll get an answer and the salience of that answer will vary by industry. Block chain may be more important for financial services than it is for healthcare, than it is for you know other religions there.</p><p>But I, but even when you do that, they say ok. So, I think consumer stuff is really important but there's a zillion companies, how do I sort through we through chat. That's still an issue you know even if you believe the area's really critical.</p><p><strong>Harry Glorikian:</strong> So, what other topics or subject areas, I don't want to say keep you up at neither, but are very salient to what's happening in this whole digitization or movement of healthcare in this direction.</p><p><strong>John Glaser:</strong> Well, I think it's be careful here, because I do believe it's a profound business model change, and I do believe it takes time for those occur. You know if you look for example here last year, what percent of retail in the US was done over the web versus in a store. And the answer is 12%, you say wow you know how long we've been at this. Well you know Amazon incorporated in 1994, Google in 1998. So, 20 years later it's 12%, and so that's not fair because gasoline isn't sold over the Internet.</p><p>So, okay well it factored out some of that stuff and you say, but still and some industries has been devastating you know consumer electronics, but other industries it hasn't groceries are still largely untouched by the internet, you know jewellery large the untouched etc. So, it takes long periods of time and differential impact. It's not a universal impact that comes across the border. So, I think we're gonna big business model change is going to take time. We have some extraordinary technology coming, so what is critical. When there's no inherent reason to believe it's all going to work out well. You know you sometimes what golly is gonna try, that's not a given here at all.</p><p>You know there's and you can see it in the EHR burnout issue of the doc, we could very well drive a whole bunch of people out of the business at a time one certainly I, and beginning to need them as I decay slowly but surely in the years ahead here. So, we could break it in some ways are ever, so what matters a lot is that the industry with all the competitive juices that flow around here is that, it learns from each other and guides us. Yes, there's businesses here but there's also you know a moral and a civic responsibility, we collectively have that it turns out well, as we go through this.</p><p>So, the thing that I get really pretty well at night but the thing I worry about is that we don't learn and learn together to make this thing as effective and efficient and as highly tuned as possible, and for sakes we don't break it along the way.</p><p><strong>Harry Glorikian:</strong> So, where do you see, I mean I always think to myself some of the big shifts have happened because of the way that government has influenced those shifts. In other words, if we kept paying everybody based on everything they did, they'd be perfectly happy. But you know we came up with this thing called the Affordable Care Act. We said, well you know maybe we should pay based on outcomes. How much do you believe the government is playing a role in this shift versus competitive dynamics which I don't believe necessarily exists in healthcare?</p><p><strong>John Glaser:</strong> Well, I think the government's, the single most potent actor in all of this. You know it accounts for half the payment you know between Medicare and Medicaid, it accounts. So, how it decides to pay is enormous consequent. It is also because it is government has the ability to absorb being the first mover disadvantage. You know the free rider effect and so government can make those moves bear the free rider effect. Because it's government, whereas any individual player first of all isn't big enough to do that, but you know it suffers that consequence.</p><p>So, it is the big gorilla and it can deal with the first-mover dissident. Now it has challenges in that, it is a political animal. It is surrounded by Congress, it is surrounded by elected officials who come and go. So, you know it's gonna get buffeted by those particular wins and all the stuff that makes politics complicated, you know that we go through. And it's got a big task who's trying to figure out how in the world you take a country or 330 million, people are very diverse and sort of satisfied them all. And I remember it spending time at ONC and I thought golly meaningful use. You know what does meaningful use me you get 3,000 ideas and you can only take 12.</p><p>So, this is a they have a tough job to go off and to do this whatever they do the industry will follow, the payers will follow, the plans will follow etc. So, that's on the top of the regulatory though for example the FDA see we’re gonna loosen up you know the process by which you get new stuff approved. It has an enormous influence on whether that goes on or not or you know advances occur within biomedical discovery. Last but not least for example, on HIPAA where it's kind of striking to me as hip as 20 years old. It covers provider’s health plans and intermediaries but it doesn't cover Amazon and it doesn't cover Apple.</p><p>So, if government has decisions to make about the privacy context, you know what it does or doesn't do. Anyway I think it is the most significant actor that exists in the landscape today and as it moves, so well the industry.</p><p><strong>Harry Glorikian:</strong> Any closing thoughts or anything that you think, you know the listeners would want to hear about in these in these shifts, before we sign off here.</p><p><strong>John Glaser:</strong> No, I think first of all it's been a pleasure. I appreciate the opportunity spend a little time with you Harry and also with those who are listening in to this stuff. I think for all of you the, we are being, you've probably gathered from my comments and perhaps comments rather. It's a remarkable time to get through it we'll take our collective intelligence hard work and thoughtfulness. And so I look forward to working with everybody, who's listening to this stuff to let's go make this thing happen.</p><p>Because at the end of the day the consequences are real, I mean I think about this every now and then area, you know you if you go to pick a hospital that's near us. There are people, the people who are in there are some, there's somebody's spouse, there's somebody's parents, there's somebody's siblings. So, this is real people who are loved by others going through a bad time unless they're giving birth to a kid, which is usually a pretty good time.</p><p>And so it's very real it's very personal little level and we ought to recognize the magnitude of that and the importance of that as we collectively work our Fannie's off to make this thing as good as we can be, and learn as we go through this. Anyway I feel like a sermon, but nonetheless go forth and make this world a better place. We all need it and look forward to it.</p><p><strong>Harry Glorikian:</strong> Thank you very much for the time John.</p><p><strong>John Glaser:</strong> Thank You Harry.</p><p><strong>Harry Glorikian:</strong> And that's it for this episode. Hope you enjoyed the insights and discussion. For more information, please feel free to go to<a href="http://www.glorycamp.com/"> www.glorycamp.com</a>. Hope you join us next time, until then farewell.</p><p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p><ul><li>Launch the "Podcasts" app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at the top and type in "Podcasts." Apple's Podcasts app should show up in the search results.</li><li>Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</li><li>Type MoneyBall Medicine into the search field and press the Search button.</li><li>In the search results, click on the MoneyBall Medicine logo.</li><li>On the next page, scroll down until you see the Ratings & Reviews section. Below that you'll see five purple stars.</li><li>Tap the stars to rate the show.</li><li>Scroll down a little farther. You'll see a purple link saying "Write a Review."</li><li>On the next screen, you'll see the stars again. You can tap them to leave a rating, if you haven't already.</li><li>In the Title field, type a summary for your review.</li><li>In the Review field, type your review.</li><li>When you're finished, click Send.</li><li>That's it, you're done. Thanks!</li></ul>
]]></description>
      <pubDate>Fri, 26 Oct 2018 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest John Glaser, senior vice president of Population Health at Cerner, speculates on how business models in healthcare are changing and how artificial intelligence and EMR systems will work together in the future.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Welcome to the <a href="https://glorikian.com/the-moneyball-solution-to-the-healthcare-crisis/">Money ball medicine podcast</a>. I'm your host Harry Glorikian, this series is all about the data-driven transformation of the healthcare and life sciences landscape. Each episode we dive deep through one-on-one interviews with leaders in the new cost-conscious, value-based healthcare economy. We look at the challenges and opportunities they're facing and their predictions for the years to come.</p><p>My guest today is John Glaser, who is the senior vice president of Population Health at Cerner. Cerner is a health IT company that is one of the largest suppliers of electronic health record systems in the United States. John joined Cerner in 2015 as part of the Siemens health services acquisition, where he was the chief executive officer. Prior to Siemens, John was vice president and chief information officer at Partners HealthCare. He also previously served as vice president of information systems at Brigham and Women's Hospital.</p><p>John received his PhD from the University of Minnesota, he has written over 200 articles and three books on the strategic application of IT and health care. Including the most widely used textbook on the topic, “Healthcare information systems a practical approach for health care”. John is on the faculty of the Wharton School at the University of Pennsylvania, the medical university of Southern Carolina, the School of biomedical informatics at the Texas Health Science Center and the Harvard School of Public Health.</p><p>John focuses on strategic relationships with Cerner clients and advancing Cerner's population health solutions and services. John, welcome to Moneyball medicine, it's great to have you here.</p><p><strong>John Glaser:</strong> Harry, it's a pleasure.</p><p><strong>Harry Glorikian:</strong> John, tell me what does it mean to be vice president of Population Health. What is Population Health?</p><p><strong>John Glaser:</strong> Well, it's a fuzzy term in some ways but basically the idea is that there are organizations. They'd say I'm accountable for the health care and the health of a group of people, it might be an employer who says I'm responsible for my employees or the state Department or a health care provider, who has a series of lives attributed to the - health plan, but the point is they're accountable. And so they need a series of tools and technologies that help them manage health and manage health care this is analytics to see you know who's receiving what care, how costly is it.</p><p>This is a series of care management to the degree they need someone to help them navigate the care process or social determinants. So anyway, at the end of the day accountable organizations need technology to help them fulfill their obligations to those who they are to serve, and that's what population health IT staff intends to do.</p><p><strong>Harry Glorikian:</strong> You know medicine has been historically based on a fee-for-service model, where you're paid on what you do. And now that we've seen sort of a shift not as much as I'd like to see, but a shift towards value-based medicine, in other words paying providers based on outcomes. Do you see what you're doing or and/or the business model sort of shifting towards how we do, what we do?</p><p><strong>John Glaser: </strong>Yeah, I think Harry we're in the early stages of an extraordinary change in the business model of delivering health care, and it runs along a couple of different dimensions so to speak. One is we're moving from reactive sick care to proactive management of health, so you know you show up. We'll fix you so we got to make sure that you remain healthy. So, that's one dimension, the second dimension is fragmented, where you go here for this type of care there for that type of character this integrated continuum of care that occurs across.</p><p>So, we manage you throughout all the steps that need to be taken to you know replace your hip for example. The third is moving from volume or rewarded for volume to where you're rewarded for quality and efficiency. And then last but not least is a shift from where we're centered on the clinician to where we're centered on the patient's. So, these four dimensions represent an extraordinary shift in business model. I think frankly you could argue that the business model shift that healthcare is undergoing, now is the most profound business model shift of any industry in the last 100 years.</p><p>Where you look across transportation, telecommunications and all kind of financial services etc. Now business model shifts are hard and they take time to play through. So, I suspect that we will be spending decades frankly to make this particular shift occur and to occur well. So, population health and other technologies are being brought to the table as organizations prepare for this future that awaits all of them.</p><p><strong>Harry Glorikian:</strong> Well, I think it's interesting right, I mean every once in a while it sorts of strikes me. I think it's because I've been in the business for such a long period of time is, every other industry has been digitizing or measuring for forever, it seems like. And it seems like for us, it really hasn't been that long. I mean if you think before the Reinvestment and Recovery Act and you walked into a doctor's office, the entire wall would be paper. And so in, I think digitization has only been eight years maybe on a grand scale.</p><p><strong>John Glaser:</strong> Yeah, I think that's fair Harry, we're less we're not as far along as other industries, now you have to be a little careful because the degree to which digitization will occur or to which it will be impactful varies. So, organized religion has not been digitized and unlikely to be to any material degree, similarly the legal profession has to degree. But at the end of the day when you have a sort of cohort of people who are experts and whose knowledge is really the asset here. It's hard to digitize it, you can digitize a lot of stuff surrounding them but to digitize a smart financial planner or the smart lawyer or smart doctors, just challenging.</p><p>So, but that being said we are late, you know I think in a way sometimes health care gets accused of being behind. You know as if it's full of a bunch of button heads who didn't know any better while their colleagues, and retail or leapfrogging them. So, well you know there are button heads in health care, but by and large they're pretty darn smart. They are thinking, they have made perfectly rational economic decisions based on the business model at the time. So, if I'm rewarded for volume I don't need all this other IT stuff, I just need to keep the beds filled in the clinic schedule fill.</p><p>So, I'm investing like a perfectly rational person would do. Now we'll see that shift as that occurs but nonetheless there's been decades of non-investment, because the economics didn't warn it.</p><p><strong>Harry Glorikian:</strong> That begs the question of, what have been the challenges that the healthcare industry is faced with respect to this digitization of data?</p><p><strong>John Glaser:</strong> Well, I think there's a number of challenges Harry, one is the range and complexity of the data is just off the charts. So, if you say well how would I describe a person in their phenotype and all the different types of data that were brought here. It's a much more complex record than your financial record, and now we're going to add to it by saying, golly we really understand the social determinants that influence you and we really need to understand how to motivate you, and we really need to understand your genome, you know. So, we have this incredibly complex set of data that comes to be.</p><p>The second thing that is a knowledge base, it probably has few knowledge bases which are challenging to master. One of the ways you can see that is if you go back 40 years ago and see how many specialties were recognized by the American Board of Medical Specialties roughly a dozen. You say well how many are recognized, today roughly a hundred. Well, why does that happen because the knowledge base expands and becomes so challenging, you get to increasingly narrow what we expect a human being to master.</p><p>The third is you have these very complex processes that occur. This is not manufacturing the hospital people show up they have complications they go south all this kind of stuff; you have to be able to sort of manage the workflow on an ad-hoc basis. So, I think it is, this complicated data world complicated, knowledge world complicated work process role and then last but not least, so now when I was in graduate school Harry I was an organization theorist. And one of things you notice is that for sociologists hospitals of the most studied organizational form of all time, because sociologists can't figure out how they work.</p><p>They're too complicated, parallel power structures doctors and administration, lots of committees etc. Anyway the whole thing is one of the reasons, I think healthcare is behind in IT partly because the economics didn't warrant it, but partly you say it's arguably the most complex arena to apply IT that we've ever had. And so that's hard, she was very challenging to get apps at work effectively in this complexity.</p><p><strong>Harry Glorikian:</strong> Interesting, it's funny because I think to myself sometimes it's a product of the way the system paid itself that caused some of these shifts to happen, where in other sciences we come up with a way of organizing the information about, what we need to work with. Because we're looking for a certain outcome, that we're trying to measure, and where you're being sort of remunerated based on what you do, not what the outcome is. That rubric of organizing sort of becomes looser -.</p><p><strong>John Glaser:</strong> Yeah.</p><p><strong>Harry Glorikian:</strong> In a sense. So, helping this along I mean I you know we hear so much about artificial intelligence, the analytics machine learning. I mean the definitions that worlds are keep expanding it seems like it. Where do you see whichever term the AI, the machine learning, the analytics and the electronic health record system sort of intersecting and what does that look like? Do you have some examples?</p><p><strong>John Glaser:</strong> Yeah, here I think I mean it's something back a little, but one of things I find interesting about IT is about every decade a class of technology arrives it changes the world. So, you go to the 60s is the mainframe, 70s is the minicomputer, the 80s is a networked personal computer, the 90s was the web. Year 2000 was the mobile device, you know the iPhone debuted in 2007, see well what is it this decade. I say well frankly, I think it's this broad umbrella called AI, that will change the world just as the others have changed the world. And just like the others to have time to change the world, so all this.</p><p>Now it's, this broad term in a way you get all hung up about what AI really means and all that stuff. But I think frankly  listen it's the whole field of advanced analytics applied. Now in a way they're sort of the, we see sort of four broad arenas in which you would apply this one, is determination of structure. So, you say the machine is reading an image and saying, we got a you know this is what's going on here. You know whether it's an eye disease with your eyes or a tumor or whatever or the machine is looking at a pattern arising, listen this drugs these drugs are hurting people. You can see this in the pattern you know or treatment A is better than treatment B.</p><p>So, there's a creation of structure artists but this mess, frankly that we have so that's one category. The second is increasing contextual awareness. So it's okay, John Glass was taking care of Mrs. Smith, the Machine says I know what's going on with Mrs. Smith, I got a record, I know they're presenting conditions, I know what preferences. I know John's preferences etc. I know what the evidence says I know what the payment is. And so I'm going to present data to John in that context. Here's what you should pay attention to, here's likely your next series of actions etc., I'm going to shape myself to this particular interaction. Sometimes we see this on retail sites with a sort of attempt to shape.</p><p>The third is I'm going to do operational flow; an example of  this remember my days at Siemens with the smart city. So, the city Siemens we got a traffic jam on the Main Street, so I'm going to alter the light sequence to sort of move it along a little bit here. And so in a process sense you say the Machine says I got to take Mr. Smith down to get his radiology exam, I can tell that there's a 30-minute wait in radiology. I can see he needs his blood drawn, the phlebotomist is one floor below, I'm gonna let the phlebotomist play through, draws blood and then I'm gonna send it on a writ, it's sort of choreographing a process.</p><p>And then last but not least, it is the sort of clinical decision aids. You know it's the readmission algorithm, it is the thing that says you know this person is likely to be better off in this type of skill facility versus that's, a lot of the predictive stuff you know comes in there. So, you look at all that and say wow there's some real power here, and a lot of that role leverage EHR data and particularly golly, if we can bring it all together and if we can deal with some of the, you know the mess that is in there and if we get better at social context etc. So, I think we're learning Harry and it's an exciting time and there's you know the gazillion start-ups, there's some big gorillas.</p><p>You know the Google’s of the world and Amazon's of the world, Microsoft's etc., we're all playing in this thing. So, anyway we're in the early stages of this decade of this very profound change, which will in a way preserve the EHR as the core. I mean you still got to collect the data Docs and nurses stuff to work with something. I mean they're interacting with something that goes on, but the nature of that interaction will be quite different in the years ahead.</p><p><strong>Harry Glorikian:</strong> Do you see the EHR, do you see this integrating with the EHR? Do you see the EHR becoming the data like that something reaches into and then does an analysis for a specialization? How do you see this melding?</p><p><strong>John Glaser:</strong> All the above, I think in some cases the intelligence will be part and parcel of the EHR, because of nothing else speed you know. So, when you enter an order and the thing comes back what are you serious, there's got to be a better way to do this. You know that will be part and parcel in that by this. On the other hand, which you see for example in Population Health is to extract data from lots of different EHRs. Because - regions have the plus you bring the claims and the devices and all those other stuff. And what I think that increasingly the population health will be is and I got to keep Harry healthy.</p><p>So, and I need to pull together enough that can characterize him, you know clinically characterized them, socially characterized and how do I motivate in etc. Now I haven't characterized Harry what's the plan to keep Harry healthy so I got to come up with a plan and then I got to monitor the plan -. You know all sudden he stopped taking his drugs or all of a sudden his blood Sugar's wobbly etc. So, the plan has to alter itself so I think we need to do some that's all intelligence. You know the intelligence of rationalizing the date of the intelligence I'm going to infer a plan and the intelligence is enough to monitor.</p><p>So, there'll be this layer that sits on top of EHRs and I think frankly, you know is people begin to say I want to bring my data into my mobile device and integrate it there. There will be intelligence applied there, you know there's quite local or a cloud-based, but specific to the device guiding you or me and decisions we might make.</p><p><strong>Harry Glorikian:</strong> What have you seen from either the start-up companies or are new things that are going on, but what do you see that's really exciting like what sort of application area do you see where it's improved an outcome for a patient and lowered the cost, so in that sense?</p><p><strong>John Glaser:</strong> You know we see, I mean there's lots of spot examples and what I think that's kind of interesting about this whole arena is, at times the we talk about the sort of general purpose intelligence. That's kind of a Watson thing or how you know in the 2001 Space Odyssey, but in fact the real powerful stuff is really quite targeted. You know it's the intelligence and a Siemens MRI, this is part 62 is feeling you know get over here and fix it before it really fails. Which is different from a part that says in your glucometer your blood sugars are bounced around through something, which is different from, If we don't do something, now you're gonna be readmitted with it for the, anyway very targeted intelligence here. So, you see lots of neat examples, you see neat examples of sepsis algorithms that say, we've got to do something now before this because you can go south in a hurry. We see neat examples on readmissions where they really do drop readmission rates. We can see examples where we say rather than send this person to this skilled level facility upon discharge send them to a lower or higher. And we see actually a third of the time decisions get changed you know be to the right place to go up and do this though.</p><p>So, and we see examples of more effective ordering, we see examples where you can do post Marcus, you can really pick up signals in the data. This is a drugs hurting people or treatment is better than for treating to be. So, you go through this range of things that are, wow it's pretty darn nice alright add off all those stuff. I think Harry one of these sort of you know, there's some broad big challenges that are out there. I'll give you an example of a broad big one here. So, when you look at an EHR see, how many instances of medical knowledge are there and of typical EHR say, well what's an instance of medical knowledge or an order set you know a health maintenance reminder.</p><p>You know all are sort of instances of medical knowledge, in general there's in excess of a hundred thousand. So, wow you know how, who's maintaining this. I don't know and what day was a recent update, I don’t know about either. So, one of the challenges we have is we introduced all this intelligence to these systems, and it just grows this sort of body of knowledge. It becomes brittle you know, because nobody's watching the store so to speak there. So, you say wait a minute how about if we have the machine watch and the Machine point out that this thing is updated and then actually look at the data machine learning and make the updates itself etc.</p><p>So, you know, no way you have machine healing and management of its content. I said wow that's pretty neat frankly, we'll have to do something if this stuff is going to get brittle break and hurt somebody. But anyway how we figure that out beats me, and I think that's becomes one of those great challenges that confronts industry in addition to continue to find and leverage. Lots of very specific point examples of where the intelligence has really made a, to much more gain although quite focused game.</p><p><strong>Harry Glorikian:</strong> So, that begs the question of, I mean there's got to be either new capabilities people need to learn or new people we need to hire, that are going to get involved. But this, it seems like healthcare is going to be a booming area for jobs and new types of jobs that, or new skills that they're gonna have to teach doctors in medical school just to be keep up with all of this. So, what do you see as the opportunities?</p><p><strong>John Glaser:</strong> Well, I think there's lots of opportunities and those young people aren't even mid-career people looking to shift here healthcare and healthcare IT and informatics is data science all this stuff is gonna be a rich and fertile area for quite some time. So, I think Harry, they range from what I call the methods of guys, you know men and women who really understand how to apply different analytical techniques to make this stuff, and really quite you know a lot of you know machine learning techniques and other types. So, there's the methods people that got it one here.</p><p>The second is a series of people who actually understand the clinical context, because sometimes the massive people come up in the person of clinical context, says no I mean I'll give you an example this goes way back when. We were looking at data on how you do have the Machine determined smoking status you know. So, can the machine go through and say, Harry's a smoker or non smoker and it gets complicated maybe stop five years ago or whatever what happened to be. And we were looking at one particular note and it said smoking status unclear, and so what does that mean.</p><p>And the physician who is working with us miss said, that means the resident is tired and just didn't want to go down this rabbit hole, and just wrote smoking status and clear. Well, you got to know the context to know that are these kinds of things. So, we'll always have to have people who understand the move of where that's going on. The third is understand, people who understand workflow so where and how do I introduce this you know. Do I do this we're in the middle of the exam, do I do it after the fact, I do it to the doctor, do I do it to some staff in there. I mean where do I fit this and if I fit this what do I want them to do.</p><p>So, you might have logic that says the social determinants indicate this person is in a nutritional wasteland. We, got to deal with it okay, who does what when that is informed. So, there's a series of what is the process and their choreography that goes with it. And then last but not least it is people who design stuff. You know my wife recently bought a Volvo xc90, you know. I know Harry if you said which has more lines of code, a high-end SUV a 787 or the space station. The answer is a high-end SUV by factor two, sheer lines of code you know to park correctly avoid crashing somebody to dim one other light. You know it's amazing here on these kinds you couldn't crash that thing if you wanted to.</p><p>So, the point is how do I help my wife or anybody with that bring the knowledge in and sort of you know what to do, a guide the interaction that is going on and these kinds of things. So, I think there's between the methods people, the context people, the workflow and the computer human design people. There's lots of opportunities to do this, and then the last one at least obviously people who evaluate, say is it doing any good.</p><p><strong>Harry Glorikian:</strong> So, that begs a question of I'm looking at all the other industries is, when they've tried to apply these advanced machine learning applications AI etc. And their first go, they tried to obviously do what we always do, take it and melt it into my existing workflow. And they never seem to get the return that they were expecting. And then when you see them shift their workflow based on the power that the system provides, they seem to get much more. So, how's that gonna work in healthcare? Because we're pretty rigid in our workflows. So, how do, do you see that influencing the workflow and what we learn?</p><p><strong>John Glaser:</strong> And I think you know we will iterate, because we know a lot of smart people in this industry, and they'll say, I don't really know, but let's try it here and they say well you know we're off 15 degrees and so you'll have to iterate. You know I think one of the ways that organizations of all this what I always root for short cycle learning try this too, try that too, they just sort of short cycle their way into you know better to do this. In some ways we do have rigid workflows but on the other hand, I think I find over my forever time in this industry is that, if you help a caregiver save time or do a better job of delivering care, they'll adapt quite readily. Where they're not happy is if you cost some time you know or they set notice.</p><p>So, you know subject to regulation and reimbursement because there's certain things you've got to do here. So, I think what will iterate and you know define novel ways of doing this kind of stuff, and frankly one of the great things that you know the is learning from your colleagues, you know about what did you try in your organizations. The chief medical officer is talking to chief medical officers and vendors learning from their clientele etc. We'll get better at all this.</p><p><strong>Harry Glorikian:</strong> There's a lot of new entrants into the field, right. You've got the Google’s and you've got the Apple’s and there's and the list is incredibly long of wellness company sort of budding, right up against the line there of regulated versus non regulated care. Where do you see or Amazon's for ran into this? Where do you see their impact of the system and I don't want to say good or bad, but how do you see that changing things?</p><p><strong>John Glaser:</strong> I think that's unclear to me is how that will evolve, and you see multiple threats. You know you see a thread of you know health plans and providers fusing and merging, you know you see the Walmart’s making moves. You see the CVS is making moves, all you know a pharmacy and retail and health organizations, they're all making moves in ways that are quite striking. And you see them trying to take out the middleman of the PBM by mu, you know worry.</p><p>So, this is restructuring that is occurring and it's not just in the sort of non-provider’s side of this thing. You know a couple years ago at CERN or you know maybe decade ago, we would have said well what's a large Health System we said well, about five billion in revenue annual revenue. And so today what would you say, about twenty billion in revenue. So, there did the bigger getting bigger in lots of ways here. So, even the provider side of restructuring these very large health systems with a whole lot of regional systems that are going on. So, you have all that and that's on the non IT side. Let alone the tech giants you know coming in, let alone the consumer guys coming in some of which are tech giants.</p><p>Let alone the traditional EHR vendors Cerner being one epic being and other all scripts etc. Let alone to your point a gazillion starts of a remarkable talent, some in the consumer side, some on the analytic side you know all over the place. You see well how will it all send a lot, good question how will that all settle out. So, I don't know that we know in a way, what that will look, I think some things are clear. You know one of which is you could who poo poo the tech giant say, well they tried that before and it turned poorly for them, it'll turn poorly for them again. Don't count on it, the world is a different place, the technology is better, there's got smarter etc.</p><p>The other is if you said the traditional boundaries, you know providers on one side, health plans on another, reach pharmacies that are those boundaries are blurring fast. And so you see that and providers getting into medic right or other stuff. So, I think a lot of it if I were a health system sir what do I do about all this stuff, well I'd start forming relationships with a lot of people who may have been traditional antagonists in the past, you know the health one, the retail guys. And it's they're learning just as you're learning and starting to go through all of that kind of stuff here.</p><p>And I think you know you it becomes harder you turn to a core vendor, you say well jeez you know certain or at they're going what do you think of all these guys you know help me navigate this technology stuff or consulting firms, you can go off and do all this. All right very complicated, very confusing time, and I think the other sometimes you know you know Harry  healthcare straddling two business models is, a fee for service and the value-based care, you know what a pain in the butt, it is a pain in the butt, how long will it last decades. It's not one of these two years and it's over and done, so settle in for a multi-year period of forming. That will go on across the board.</p><p><strong>Harry Glorikian:</strong> That, I'm sure that doesn't make physicians or anybody listening to that -, but so I you know as I look forward in the next, I hate even saying like you know three, five, ten years there's a lot of digital disruption coming. Yeah, I try to stay up on all the bleeding edge which moves in to tech very quickly. Whether it's AI, dare I say block chain, virtual and augmented reality things like that. Do you see, what do you see having impact on the healthcare arena?</p><p><strong>John Glaser:</strong> You know, I think it's hard to do that I mean and at the end of the day for me, you know what I think is you step back and say for any particular class of technologies at a very fundamental level, tell me what it does. And then I will tell you whether, I think that's important. So, I'll give you an example, what is flight do. So, as well enables you to get from point A to point B a lot shorter period of time without the infrastructure, you don't need railroads you need a landing strip at either end, well that's pretty remarkable. I could see where that's valuable to me. What does refrigeration do? It allows perishable things to last longer, they say well jeez would I do that. Well, I'm you know I'm moving in pharmaceuticals across the globe that matters a lot. So, you step back at a very fundamental level and say, why is this, what is it and why is it profound. So, I for example look at block chain and you say what is it it's a new way of doing accounting that has the ability at perhaps to remove the middleman, like the bank or the Law Offices Center. Do I think that will fundamentally alter health care? No, I don't do, I think we'll see it sure you know we'll see it as people do credentials for doctors etc.</p><p>So, now on the other hand you say what about this intelligence, say well  really could help a series of decisions contextual where structure of data is that a big deal. Absolutely, it's a big deal. Do I see the fact that you and I might have technology on us? You know our mobile device that can communicate with us knows, where we are etc. Is that going to be a big deal? Absolutely a big deal. So, I think it's hard but the trick is to step back and say at a very fundamental level what does it do. And the answer, you'll get an answer and the salience of that answer will vary by industry. Block chain may be more important for financial services than it is for healthcare, than it is for you know other religions there.</p><p>But I, but even when you do that, they say ok. So, I think consumer stuff is really important but there's a zillion companies, how do I sort through we through chat. That's still an issue you know even if you believe the area's really critical.</p><p><strong>Harry Glorikian:</strong> So, what other topics or subject areas, I don't want to say keep you up at neither, but are very salient to what's happening in this whole digitization or movement of healthcare in this direction.</p><p><strong>John Glaser:</strong> Well, I think it's be careful here, because I do believe it's a profound business model change, and I do believe it takes time for those occur. You know if you look for example here last year, what percent of retail in the US was done over the web versus in a store. And the answer is 12%, you say wow you know how long we've been at this. Well you know Amazon incorporated in 1994, Google in 1998. So, 20 years later it's 12%, and so that's not fair because gasoline isn't sold over the Internet.</p><p>So, okay well it factored out some of that stuff and you say, but still and some industries has been devastating you know consumer electronics, but other industries it hasn't groceries are still largely untouched by the internet, you know jewellery large the untouched etc. So, it takes long periods of time and differential impact. It's not a universal impact that comes across the border. So, I think we're gonna big business model change is going to take time. We have some extraordinary technology coming, so what is critical. When there's no inherent reason to believe it's all going to work out well. You know you sometimes what golly is gonna try, that's not a given here at all.</p><p>You know there's and you can see it in the EHR burnout issue of the doc, we could very well drive a whole bunch of people out of the business at a time one certainly I, and beginning to need them as I decay slowly but surely in the years ahead here. So, we could break it in some ways are ever, so what matters a lot is that the industry with all the competitive juices that flow around here is that, it learns from each other and guides us. Yes, there's businesses here but there's also you know a moral and a civic responsibility, we collectively have that it turns out well, as we go through this.</p><p>So, the thing that I get really pretty well at night but the thing I worry about is that we don't learn and learn together to make this thing as effective and efficient and as highly tuned as possible, and for sakes we don't break it along the way.</p><p><strong>Harry Glorikian:</strong> So, where do you see, I mean I always think to myself some of the big shifts have happened because of the way that government has influenced those shifts. In other words, if we kept paying everybody based on everything they did, they'd be perfectly happy. But you know we came up with this thing called the Affordable Care Act. We said, well you know maybe we should pay based on outcomes. How much do you believe the government is playing a role in this shift versus competitive dynamics which I don't believe necessarily exists in healthcare?</p><p><strong>John Glaser:</strong> Well, I think the government's, the single most potent actor in all of this. You know it accounts for half the payment you know between Medicare and Medicaid, it accounts. So, how it decides to pay is enormous consequent. It is also because it is government has the ability to absorb being the first mover disadvantage. You know the free rider effect and so government can make those moves bear the free rider effect. Because it's government, whereas any individual player first of all isn't big enough to do that, but you know it suffers that consequence.</p><p>So, it is the big gorilla and it can deal with the first-mover dissident. Now it has challenges in that, it is a political animal. It is surrounded by Congress, it is surrounded by elected officials who come and go. So, you know it's gonna get buffeted by those particular wins and all the stuff that makes politics complicated, you know that we go through. And it's got a big task who's trying to figure out how in the world you take a country or 330 million, people are very diverse and sort of satisfied them all. And I remember it spending time at ONC and I thought golly meaningful use. You know what does meaningful use me you get 3,000 ideas and you can only take 12.</p><p>So, this is a they have a tough job to go off and to do this whatever they do the industry will follow, the payers will follow, the plans will follow etc. So, that's on the top of the regulatory though for example the FDA see we’re gonna loosen up you know the process by which you get new stuff approved. It has an enormous influence on whether that goes on or not or you know advances occur within biomedical discovery. Last but not least for example, on HIPAA where it's kind of striking to me as hip as 20 years old. It covers provider’s health plans and intermediaries but it doesn't cover Amazon and it doesn't cover Apple.</p><p>So, if government has decisions to make about the privacy context, you know what it does or doesn't do. Anyway I think it is the most significant actor that exists in the landscape today and as it moves, so well the industry.</p><p><strong>Harry Glorikian:</strong> Any closing thoughts or anything that you think, you know the listeners would want to hear about in these in these shifts, before we sign off here.</p><p><strong>John Glaser:</strong> No, I think first of all it's been a pleasure. I appreciate the opportunity spend a little time with you Harry and also with those who are listening in to this stuff. I think for all of you the, we are being, you've probably gathered from my comments and perhaps comments rather. It's a remarkable time to get through it we'll take our collective intelligence hard work and thoughtfulness. And so I look forward to working with everybody, who's listening to this stuff to let's go make this thing happen.</p><p>Because at the end of the day the consequences are real, I mean I think about this every now and then area, you know you if you go to pick a hospital that's near us. There are people, the people who are in there are some, there's somebody's spouse, there's somebody's parents, there's somebody's siblings. So, this is real people who are loved by others going through a bad time unless they're giving birth to a kid, which is usually a pretty good time.</p><p>And so it's very real it's very personal little level and we ought to recognize the magnitude of that and the importance of that as we collectively work our Fannie's off to make this thing as good as we can be, and learn as we go through this. Anyway I feel like a sermon, but nonetheless go forth and make this world a better place. We all need it and look forward to it.</p><p><strong>Harry Glorikian:</strong> Thank you very much for the time John.</p><p><strong>John Glaser:</strong> Thank You Harry.</p><p><strong>Harry Glorikian:</strong> And that's it for this episode. Hope you enjoyed the insights and discussion. For more information, please feel free to go to<a href="http://www.glorycamp.com/"> www.glorycamp.com</a>. Hope you join us next time, until then farewell.</p><p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p><ul><li>Launch the "Podcasts" app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at the top and type in "Podcasts." Apple's Podcasts app should show up in the search results.</li><li>Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</li><li>Type MoneyBall Medicine into the search field and press the Search button.</li><li>In the search results, click on the MoneyBall Medicine logo.</li><li>On the next page, scroll down until you see the Ratings & Reviews section. Below that you'll see five purple stars.</li><li>Tap the stars to rate the show.</li><li>Scroll down a little farther. You'll see a purple link saying "Write a Review."</li><li>On the next screen, you'll see the stars again. You can tap them to leave a rating, if you haven't already.</li><li>In the Title field, type a summary for your review.</li><li>In the Review field, type your review.</li><li>When you're finished, click Send.</li><li>That's it, you're done. Thanks!</li></ul>
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      <itunes:title>John Glaser and How AI is Affecting Electronic Medical Records Systems</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:34:15</itunes:duration>
      <itunes:summary>Harry&apos;s guest John Glaser, senior vice president of population health at Cerner, speculates on how business models in healthcare are changing and how artificial intelligence and EMR systems will work together in the future.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest John Glaser, senior vice president of population health at Cerner, speculates on how business models in healthcare are changing and how artificial intelligence and EMR systems will work together in the future.</itunes:subtitle>
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      <title>Dekel Gelbman and How Machine Learning Is Changing Rare Disease Diagnosis</title>
      <description><![CDATA[<p>Harry's guest is Dekel Gelbman, founding CEO of FDNA. The company uses a combination of computer vision, deep learning, and other artificial intelligence techniques to improve and accelerate diagnostics and therapeutics for children with rare diseases.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.!</p><p><i>Note: MoneyBall Medicine is produced for the ear and designed to be heard. If you are able, we strongly encourage you to listen to the audio, which includes emotion and emphasis that's not on the page. Transcripts are generated using a combination of speech recognition software and human transcribers and may contain errors. Please check the corresponding audio before quoting in print.</i></p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Welcome to the Moneyball medicine podcast…</p><p>I'm your host Harry Glorikian. This series is all about the data-driven transformation of the healthcare and life sciences landscape. Each episode we dive deep through one-on-one interviews with leaders in the new cost-conscious value-based healthcare economy. We look at the challenges and opportunities they're facing and their predictions for the years to come.</p><p>My guest for today is Dekel Gelbman, who is the founding CEO of FDNA. He leads the corporate and business strategy of an innovative digital health company that develops technologies and SAS platforms used by thousands of clinician’s researchers and lab sites locally in the clinical genomic space. The main mission of the company is to give hope to children with rare diseases and their families.</p><p>FDNA which was founded in 2011, uses a combination of computer vision, deep learning, and artificial intelligence to analyze patient symptoms, physical features and genomic data in combination with a network of thousands of genetics professionals worldwide. Then they drive scientific insights to improve and accelerate diagnostics and therapeutics impacting the lives of children with rare diseases.</p><p><strong>Harry Glorikian:</strong> Dekel, welcome to the show, good to have you.</p><p><strong>Dekel Gelbman: </strong>Thank you very much, it's a pleasure being here.</p><p><strong>Harry Glorikian: </strong>Dekel, we've known each other almost since the day you showed up here in Boston deciding whether you would place yourselves here as a company. Tell me how this whole thing got started, because it's not exactly what you would consider a normal route into the world of diagnostics or using AI and machine learning, and it was quite a while back. I mean it will you were guys were at the forefront of this before I think a lot of other people got involved.</p><p><strong>Dekel Gelbman: </strong>Absolutely you know, when we started we knew almost nothing about healthcare. We were techies, the background of this company was actually two founders that were very successful in developing facial recognition software that was sold to Facebook in early 2010s. And the drive, I think for this company was how do we make an impact, real social impact with this technology or with our know-how around facial recognition. And so by exploring a lot of fields, Healthcare was really very compelling because of the impact that you can, you can make and we started to meet with various specialists and different practices in health care. And then almost by accident, we stumbled across genetics and we were amazed to learn that back then and for decades’ geneticists would look at faces of patients and make a lot of the diagnostic choices based on facial patterns that they could identify. And it was just a lightbulb moment right, then there we understood that we can really drive change, we can disrupt this entire field, we can really drive with a strong computational basis diagnostics. And that was really the genesis of FDNA how we started.</p><p><strong>Harry Glorikian: </strong>Yeah, I remember when you guys we were sitting at what was it Henrietta’s Table at the Charles Hotel and I said you guys told me this and I was like, oh my god that's just brilliant. I was like, and I always thought it would be direct to the patient. But you guys decided to go to the clinician and come about it from a sort of group learning, group educational perspective on how you teach the system. Tell me a little bit about how it's designed or and how its deployed and how it keeps learning?</p><p><strong>Dekel Gelbman: </strong>So with AI, I think today even more than ever it is very obvious that it's a data plane. The more data you have the better the data is the better the technology can become. Learning algorithms and especially today with deep learning models, if you have enough data and the data is good, you can train a very accurate and advanced technology. But the problem in the challenges in this world, especially with rare diseases and genetic disorders is access to that data, how do you get data. When we started, we started with a lot of collaborations with different researchers around the world and everyone was very enthusiastic, but every single research site had only very limited quantities of data.</p><p>And so it got us thinking you know what's the best way to start gathering all the data - collecting, curating it. And I remember, it was one of our developers who said you know everyone uses iPhones right now, let's develop an app and ask all the geneticists around the world to help us annotate data and collect data. And we said you know, let's give it a try and that's how Face2gene our current platform was born, and in hindsight you know several years after launching Face2gene, this was a very successful strategy.</p><p>We were able to deliver an application that produces real-time value clinical value to clinicians and in return and we distributed it for free by the way. In return, we got a lot of data, and we were able to really advance our development of the technology significantly, because of this strategy.</p><p><strong>Harry Glorikian: </strong>Well, and interestingly enough if I remember our conversations correctly, it wasn't just the acquisition of data but it was having experts in the field constantly teaching the system how to be more accurate by their experience.</p><p><strong>Dekel Gelbman: </strong>That's the old AI. So, when we started really supervised learning or having experts teach the system, how to think was how we started, how people thought about AI at the time. In 2014, there was a different trend towards deep learning, where you really don't teach the system anything the computer identifies patterns on its own. It's sort of a black box and that's some of the criticism towards AI today is that being a black box. And that made curating quality data even more important more significant to that process because we no longer influence the system's method of learning.</p><p>So, everything that we influence is, how we collect the data, how we ensure the quality of the data and how we feed the system with data to avoid biases, overfitting, and a lot of the different problems that AI presents today with deep learning.</p><p><strong>Harry Glorikian: </strong>Can you give me some examples of where this has really changed a timeline, improved that diagnostic Odyssey? How that's affected you know a patient or a family, and where do you see this, you know where do you see going from a cost perspective and so forth?</p><p><strong>Dekel Gelbman: </strong>Absolutely, so you know it's very hard to give macro examples or macro data about time to diagnosis, but on a case-by-case basis we hear all the time from our physicians, from physicians using Face2gene, how this integrated into their workflow? How it simplified the workflow? How it helped them choose the right diagnostic tests? How it helped identify specific diagnoses for patients that were looking for a diagnosis for years? So, there are multiple examples and they've been published elsewhere both in scientific publications and the media.</p><p>But I want to tell you is what we've learned in our journey, because when we, you know as you articulated that in the beginning, the mandate that we had going into this journey was how can we help physicians identify or diagnose rare diseases in pediatric settings earlier. And as we started to gain traction as more and more hospitals started to use this as part of their workflow, as more and more researchers started to use this technology to make discoveries. We started hearing back from the laboratories, and this coincides with more accelerated adoption of next-generation sequencing.</p><p>The labs are starting to offer exome sequencing and whole genome sequencing to physicians as the primary genetic test. But they came back to us and said, listen we get too much information we generate too much information when we do an exome sequencing. And so we want clinicians to really adopt this as a test because of the broad coverage, we need to make sure that when we analyze the results we present to them results that are relevant, clinically relevant. And so it's not reasonable to present to a clinician, a thousand different variants that may or may not be pathogenic meaning that they may cause a disease or not.</p><p>We need to be able to present with that to them a short list of variants that may be causing a disease. In order to do that, we need to integrate what we call our jargon, calls phenotypic information, phenotypic being the information that captures the clinical observation of a patient. Is the patient tall, does the patient have certain clinical symptoms and does the face present certain patterns that are linked or associated with these diseases? And guess what Face2gene captured a lot of this phenotypic information as part of the clinical visit, the clinical evaluation. And then it dawned on us that you know we really hit something.</p><p>We started to investigate this further and we've participated in the study called PEDIA, that aimed to prioritize exome sequencing results based on facial analysis. The results were staggering we showed that for this cohort of patients, for this group of patients that had monogenic disorders that manifest in facial analysis. We can improve the diagnostic rate from about 40 percent to almost a hundred percent, and at that point, the term next-generation phenotyping was born and adopted by us as where we're going with this company.</p><p>We realized that if we offer a computer-based way, an AI best method to look at a patient and correlate that with the patient's genome, we would be able to pinpoint with very high accuracy, the disease-causing variants. And you're talking about cost, you can imagine what this does to this entire industry or the potential of what this can to the entire industry. This can facilitate genome sequencing for the entire population, and it now makes sense because we have a scalable approach into how to analyze and interpret genome sequencing data for the entire population.</p><p>And this could have a lot of impact on the future of precision health or precision medicine and that is obviously going to have a huge impact on cost. It's very hard to predict right now what that impact is going to be, and obviously, if we are to pursue this path, we need to go well beyond just a facial analysis, we need to look at the holistic phenotype of a patient. So, that's where we are right now and that's the journey ahead of us.</p><p><strong>Harry Glorikian: </strong>So, when you were building this, tell me some of the experiences or lessons that you learned. You know you originally said, you know we were working on algorithms then we went to a black box machine learning system and you've worked it into the physician’s workflow. Give me some of your experiences on what it really took to get this to where it is today.</p><p><strong>Dekel Gelbman: </strong>I think you touched on that, the last point I think is the most important one and the most difficult one in healthcare today is integrating with workflow. It is almost unimaginable to change the workflow of a caregiver. They're just too darn busy and trying to, re-educate them is never going to work. A lot of startups are trying to circumvent the healthcare provider. We don't believe in that future; we don't think that providers would disappear. We just think that their role is gonna change and so our strategy was how do we empower the caregivers; how do we empower physicians. And we do that by giving them pertinent data and giving them the ability to make educated decisions.</p><p>So, we're helping physicians and they're grateful and the community of clinical geneticist or medical geneticists really embraced us. Because we were giving them something that they were missing for years and years, and so we actually saved him a lot of time. The traction and the responses and the endorsement that we received from the physician was where we were focused, I would say in the last four years, really how do we give, how do we provide tools that are useful. And you know a lot of this is exploration, we develop something, we test it, we get feedback from the clinicians sometimes they love what we do, sometimes they don't. But they're very open and they're very responsive.</p><p>So, for us, that is probably one of the biggest assets that we have as a company is our relationships with our user base. And that really was important in our approach of, how we develop this technology. Everything is driven by what can be useful for our target audience. We learned along the way a lot of things and there are a lot of challenges. Workflow was one, right so how do we give the physicians the flexibility to use these tools and technologies without changing their workflow. Privacy is a huge issue and physicians are probably the gatekeepers for a lot of the privacy regulation around the world.</p><p>I'm talking about HIPAA and today GDPR are. The patient privacy is very important and it looks as though the last gatekeeper is the physician and they're doing a tremendous job. But we had to step up and improve our entire process. And go through compliance processes and ISO certification. Today we're ranked one of the highest ranking scores on AWS as in terms of our security and privacy infrastructure, but it took a lot of effort. Another thing that we've learned I think is how to be ethical in AI. And this is a I think a hot button today specifically in genetics, along the years most of the data that was curated was curated for Caucasian populations, and this created a huge gap in our knowledge our medical knowledge as a society on other ethnicities.</p><p>And so we made it a point to diversify our database so that we can be used not only for the Caucasian population but for ethnicities in Africa and Latin America and the Asia Pacific. And this made a huge difference by the way, not only did it made us grow our presence and today were being used in over a hundred and thirty countries around the world but it actually improved our AI. And this is a very interesting thing that I've learned along the years. When you train the system to look at different ethnicities, the morphology the way the face looks can be influenced by a variety of influencers. The ethnicity obviously environment can change how your face looks, not as much with the pediatric population but still and your genetics influence how your face looks like.</p><p>So, you have to discount some of these factors and by training the system on a very diverse ethnic population, you're basically taking off the table the differences that relate to ethnic origin, and you focus on the pathogenic morphology, only the morphology, only these patterns that are caused by those genetic disorders. So, just account a few things that we've learned along the way.</p><p><strong>Harry Glorikian: </strong>How big of a data set do you need to or where are you guys now, compared to where you know it was just a few years ago? I imagine that acquiring this data because of the app is much easier, the amount of data that you're able to get in is significantly higher than going out there and trying to do this yourself or coming up with a specific piece of instrumentation necessarily to do this. And then it was just recently that you guys started incorporating the genomics part of it, and the announcement was not that long ago. But, how do you see that working into the success of the company?</p><p>We what we always try to come up with some special piece of technology whereas I feel like the tech world is moving so fast forward, and what it's bringing is pretty damn good quality and it keeps improving thinking of you know the iWatch and the detail you can get off of an iPhone camera and so forth. So, how do you see that playing a role in what you guys are doing?</p><p><strong>Dekel Gelbman: </strong>So, you know again one of the challenges at the outset of the company was dealing with very small amounts of data. Our target number of diseases just with the facial analysis technology is somewhere between 2,500 and 4,000. And for each of these diseases sometimes there are only five reported cases in the history of publications. So, we're working with extremely small sets of data, for us that was a technology challenge that we've addressed through some methods like translational learning, where we learn from bigger data sets. And then we take that back to a smaller data set and apply what we've learned but generally speaking we work with very small data sets across or for each specific indication.</p><p>Face2gene was very successful in gathering more and more information to date, we have more than 120,000 patients that were processed and analyzed through face2gene obviously that enriches our database. The pace of uploading more and more patients into the system is increasing every month, and so I wouldn't be surprised if in two to three years we will actually reach around a million patients processed through this system. So, that really enhances our ability not only to improve the AI around identification of specific phenotypes but also broadens the coverage, so we can see more and more diseases.</p><p>And you were talking a little bit about other sensors like the iWatch. Part of our next-generation phenotype in approach is indeed to enhance our collection from beyond just a facial data into other phenotypic data. So, vital signs that are collected through wearables are part of that,  video processing even voice processing. So, the voice can be a very strong indication for certain diseases. Obviously, medical device information that is collected through existing medical devices and medical imaging, all this information should be funneled into a central location that will be able to improve our insights.</p><p>Now there are a lot of companies out there that are doing similar or have similar efforts. Our unique approach is that we take all this information and the sole purpose of that is to then look at the genome and try to identify the disease-causing variants. We're not developing radiology decision support tools or not developing agent diagnostic devices. Our sole purpose is to look at this information say, how can from this information we would be able to infer insights from the person's genome.</p><p><strong>Harry Glorikian: </strong>So, you had started this with you know we're a bunch of technology guys that sort of stumbled into the world of healthcare. What are the experiences you can share as, you know what type of people do you need on the back end doing the coding, doing the work but then integrating that would say people who might be knowledgeable in the disease state and sort of making that whole thing happen? And you're not all in one place, you have different sites and so that whole process is there of lessons you can share or the magic you can share to help bridge that gap.</p><p>Because I always feel that technologists can code, but you need somebody that understands that health dynamic, that disease state, that workflow and then to have to somehow almost meld into one person to be able to produce something that is usable.</p><p><strong>Dekel Gelbman: </strong>I wish I had a formula, it's not very easy to quantify what you need in order to succeed. I would say that generally and this is something that I truly believe in, disruption never comes from within an industry. It takes an outsider to look at something and try to solve a problem that exists for many years. At the same time, without the relationships that we've created over the years and without the involvement of medical geneticists in our company, we would have never understood the breadth and the depth of the problems that we're trying to solve. So, for us the AI approach was very straightforward, but going into diving into the details. it started to become extremely complex in terms of how the syndromes are categorized, how genetics works and that's information that we simply didn't have.</p><p>But as we dove deeper and deeper with the support of many experts in the genetics field and we have an extremely broad and involved scientific advisory board. If you take a look at our website, it's probably about 30 to 40 people that are involved, we don't pay them. They're there volunteering because they really believe in the future of this technology holds. Without their involvement we would have never succeeded to put technology to solve a problem. And without naming names, you know there are other companies out there that are very sophisticated and considered very prominent in the machine learning world.</p><p>I think their approach to involving the industry is wrong, taking just one or two sites to train a system or two to be the domain expert is not the right approach. You have to broaden the scope as much as possible, that's what we've done. We've been working with almost everyone in this field.</p><p><strong>Harry Glorikian: </strong>Well yeah I mean, I think technology lends itself to or the technologies these days lend themselves to. I don't want to say crowdsourcing but you can get a much larger set of input if you're managing this correctly. When you're hiring people or when you're looking at certain skill sets that weren't on board, how do you think about that. Where might be some of the places that you'd look to find these individuals aren't falling off trees and if you were in the Bay Area, you'd be fighting tooth and nail for you know the person that hasn't even graduated yet. So, how are you taking on the right people and finding the right skill sets?</p><p><strong>Dekel Gelbman: </strong>So, you know especially in the algorithmic development world, talent is extremely expensive, whether it's in the Bay Area, whether it's in New England or whether it's in Israel. These people are extremely expensive, the competition over recruitment is fierce and we're competing with some you know 800-pound gorillas in the market Amazon, Facebook, Google etc. The one thing that we have in our company that I've rarely seen in other companies is a purpose. And so this is a highly marketable trait for a company when you're recruiting, getting people on board that believe in the purpose of the company, believe that they can make an impact.</p><p>I think is such a powerful thing to have as a company, and coincidentally that's the kind of trait that I'm looking for when I hire people. So, the experience is important and dedication, diligence, intelligence all these traits are very important. The number one trait for me though is passion because I truly believe that if you're passionate about what you do and if you enjoy what you do and if you believe in what you do, then you're gonna put you know more from yourself into the company. You're gonna be more productive, you're gonna care.</p><p>And so that is probably the number one trait that I'm looking for when I'm hiring people, and that doesn't have to do with geography or with where you went to school. It's just you know it's what you care about, and so it's not that rare to find employees and talent that connect to the mandate of the company that believed in our vision, and recruitment has never been a huge issue for us.</p><p><strong>Harry Glorikian: </strong>So, where do you see the company going next, from a technology evolution perspective, from clinical impact perspective and then you know sort of your vision beyond that. But sort of those two things I think the incorporation of technology these days is almost like a race, where you're constantly trying to keep up with the next chipset that's incorporated, the next software improvement that's coming faster than I've ever seen it in any other time. And then clinically, where do you see that going?</p><p><strong>Dekel Gelbman: </strong>So, I think we have to be modest in our perspective on the impact that we can make and we need to be cognizant of macro-economic changes in healthcare that we have very little influence on. So, we need to look from the sidelines and try to evaluate where this field is going. We are strong believers that, we are entering into an era of precision health, we're strong believers that the main driver for that is genomics. We obviously believe that AI is a driver for these huge data sets and what we can do with them. And so within or from that insight, we believe that if we focus but really focus very hard on developing the best technology that regardless of time. I know that's a huge issue for startups right, but regardless of time whatever, it takes one year two years or five years. We need to focus on making this technology a standard of care alongside genomics and doing that for us means, focusing on value, showing value demonstrating value, showing how we can improve the benefits for all the stakeholders involved in our little space, which are physicians, researchers, labs obviously patients and then life science companies.</p><p><strong>Harry Glorikian: </strong>If I read that correctly you're looking beyond the rare disease space.</p><p><strong>Dekel Gelbman: </strong>I think the immediate value of what we're doing right now applies to the rare disease space. But the future implies that genomics is gonna play a key role in risk assessment for more complex and also more common diseases. As we start rooting ourselves into the genomics field, yes we see ourselves tagging along to that journey and going beyond rare diseases in the future into almost all diseases. But there's a huge gap that genomics needs to catch up to apply to other diseases.</p><p>Today I think you know mostly genomics is applied to rare diseases, oncology and that's pretty much where most of the genomics is focused right now.</p><p><strong>Harry Glorikian: </strong>Yeah, I've always thought about some of the stuff that you guys are doing and saying well what if we just started applying that to a broader population. You know we call it a rare disease it seems to manifest itself in, what might be categorized as an issue or a problem or how it hinders someone from you know the life that they want to lead etc. But I want to say that there's, the deviation of that is you know, there's probably people that you call normal that probably have some of these traits that we're just they're subtle. So, you don't pick up on them.</p><p>So, I always wondered at the application of technology to the broader population.</p><p><strong>Dekel Gelbman: </strong>I would argue that naming rare diseases is a huge disservice to these type of diseases. If you think about this if you think about the future of precision healthcare every disease is rare, because every disease is gonna be categorized as a unique subset of interactions between different biological systems and mechanisms. And so I think that in 20 years the term rare disease is gonna be obsolete because we will look at every single disease as a unique set of genotype-phenotype and other biological input or feeds into a computerized system, that's gonna analyze everything.</p><p>So, yes today we focus on rare diseases, we focus on the genomic side and, but that's I think that's gonna change along the years. We definitely look at FDNA on a very long term scale, we've always been able to do that with the support of our investors and the founders and even our employees. And I think that this is the right way to look at a startup.</p><p><strong>Harry Glorikian: </strong>Anything I haven't asked you, words of wisdom you know experiences that you want to share before we sign off?</p><p><strong>Dekel Gelbman: </strong>I think you've done a great job, thank you. It's always a pleasure to talk to you Harry and hear your insights on the world of health care and how that's developing. I think, we have the privilege to be operating in a very unique era. And hopefully we're gonna benefit from good timing and we're gonna seize the opportunity as a company. But even more important than that I really hope that the effort that we're doing with developing this technology is going to create a huge impact on patients.</p><p><strong>Harry Glorikian: </strong>Yeah, I do believe in it's interesting, yeah I'm not sure that the algorithms are the secret sauce or the machine learning back-end or so forth. I feel like some of that is always going to be able to be reproduced by someone else. But the data set I believe is gonna have tremendous value and the impact that it has going forward. So, on that note I want to thank you very much for joining today, and look forward to continued dialogue and updates in the future.</p><p><strong>Dekel Gelbman: </strong>Thank you very much very, Harry.</p><p><strong>Harry Glorikian: </strong>Take care, and that's it for this episode.</p><p> </p>
]]></description>
      <pubDate>Fri, 12 Oct 2018 11:00:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry's guest is Dekel Gelbman, founding CEO of FDNA. The company uses a combination of computer vision, deep learning, and other artificial intelligence techniques to improve and accelerate diagnostics and therapeutics for children with rare diseases.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.!</p><p><i>Note: MoneyBall Medicine is produced for the ear and designed to be heard. If you are able, we strongly encourage you to listen to the audio, which includes emotion and emphasis that's not on the page. Transcripts are generated using a combination of speech recognition software and human transcribers and may contain errors. Please check the corresponding audio before quoting in print.</i></p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian: </strong>Welcome to the Moneyball medicine podcast…</p><p>I'm your host Harry Glorikian. This series is all about the data-driven transformation of the healthcare and life sciences landscape. Each episode we dive deep through one-on-one interviews with leaders in the new cost-conscious value-based healthcare economy. We look at the challenges and opportunities they're facing and their predictions for the years to come.</p><p>My guest for today is Dekel Gelbman, who is the founding CEO of FDNA. He leads the corporate and business strategy of an innovative digital health company that develops technologies and SAS platforms used by thousands of clinician’s researchers and lab sites locally in the clinical genomic space. The main mission of the company is to give hope to children with rare diseases and their families.</p><p>FDNA which was founded in 2011, uses a combination of computer vision, deep learning, and artificial intelligence to analyze patient symptoms, physical features and genomic data in combination with a network of thousands of genetics professionals worldwide. Then they drive scientific insights to improve and accelerate diagnostics and therapeutics impacting the lives of children with rare diseases.</p><p><strong>Harry Glorikian:</strong> Dekel, welcome to the show, good to have you.</p><p><strong>Dekel Gelbman: </strong>Thank you very much, it's a pleasure being here.</p><p><strong>Harry Glorikian: </strong>Dekel, we've known each other almost since the day you showed up here in Boston deciding whether you would place yourselves here as a company. Tell me how this whole thing got started, because it's not exactly what you would consider a normal route into the world of diagnostics or using AI and machine learning, and it was quite a while back. I mean it will you were guys were at the forefront of this before I think a lot of other people got involved.</p><p><strong>Dekel Gelbman: </strong>Absolutely you know, when we started we knew almost nothing about healthcare. We were techies, the background of this company was actually two founders that were very successful in developing facial recognition software that was sold to Facebook in early 2010s. And the drive, I think for this company was how do we make an impact, real social impact with this technology or with our know-how around facial recognition. And so by exploring a lot of fields, Healthcare was really very compelling because of the impact that you can, you can make and we started to meet with various specialists and different practices in health care. And then almost by accident, we stumbled across genetics and we were amazed to learn that back then and for decades’ geneticists would look at faces of patients and make a lot of the diagnostic choices based on facial patterns that they could identify. And it was just a lightbulb moment right, then there we understood that we can really drive change, we can disrupt this entire field, we can really drive with a strong computational basis diagnostics. And that was really the genesis of FDNA how we started.</p><p><strong>Harry Glorikian: </strong>Yeah, I remember when you guys we were sitting at what was it Henrietta’s Table at the Charles Hotel and I said you guys told me this and I was like, oh my god that's just brilliant. I was like, and I always thought it would be direct to the patient. But you guys decided to go to the clinician and come about it from a sort of group learning, group educational perspective on how you teach the system. Tell me a little bit about how it's designed or and how its deployed and how it keeps learning?</p><p><strong>Dekel Gelbman: </strong>So with AI, I think today even more than ever it is very obvious that it's a data plane. The more data you have the better the data is the better the technology can become. Learning algorithms and especially today with deep learning models, if you have enough data and the data is good, you can train a very accurate and advanced technology. But the problem in the challenges in this world, especially with rare diseases and genetic disorders is access to that data, how do you get data. When we started, we started with a lot of collaborations with different researchers around the world and everyone was very enthusiastic, but every single research site had only very limited quantities of data.</p><p>And so it got us thinking you know what's the best way to start gathering all the data - collecting, curating it. And I remember, it was one of our developers who said you know everyone uses iPhones right now, let's develop an app and ask all the geneticists around the world to help us annotate data and collect data. And we said you know, let's give it a try and that's how Face2gene our current platform was born, and in hindsight you know several years after launching Face2gene, this was a very successful strategy.</p><p>We were able to deliver an application that produces real-time value clinical value to clinicians and in return and we distributed it for free by the way. In return, we got a lot of data, and we were able to really advance our development of the technology significantly, because of this strategy.</p><p><strong>Harry Glorikian: </strong>Well, and interestingly enough if I remember our conversations correctly, it wasn't just the acquisition of data but it was having experts in the field constantly teaching the system how to be more accurate by their experience.</p><p><strong>Dekel Gelbman: </strong>That's the old AI. So, when we started really supervised learning or having experts teach the system, how to think was how we started, how people thought about AI at the time. In 2014, there was a different trend towards deep learning, where you really don't teach the system anything the computer identifies patterns on its own. It's sort of a black box and that's some of the criticism towards AI today is that being a black box. And that made curating quality data even more important more significant to that process because we no longer influence the system's method of learning.</p><p>So, everything that we influence is, how we collect the data, how we ensure the quality of the data and how we feed the system with data to avoid biases, overfitting, and a lot of the different problems that AI presents today with deep learning.</p><p><strong>Harry Glorikian: </strong>Can you give me some examples of where this has really changed a timeline, improved that diagnostic Odyssey? How that's affected you know a patient or a family, and where do you see this, you know where do you see going from a cost perspective and so forth?</p><p><strong>Dekel Gelbman: </strong>Absolutely, so you know it's very hard to give macro examples or macro data about time to diagnosis, but on a case-by-case basis we hear all the time from our physicians, from physicians using Face2gene, how this integrated into their workflow? How it simplified the workflow? How it helped them choose the right diagnostic tests? How it helped identify specific diagnoses for patients that were looking for a diagnosis for years? So, there are multiple examples and they've been published elsewhere both in scientific publications and the media.</p><p>But I want to tell you is what we've learned in our journey, because when we, you know as you articulated that in the beginning, the mandate that we had going into this journey was how can we help physicians identify or diagnose rare diseases in pediatric settings earlier. And as we started to gain traction as more and more hospitals started to use this as part of their workflow, as more and more researchers started to use this technology to make discoveries. We started hearing back from the laboratories, and this coincides with more accelerated adoption of next-generation sequencing.</p><p>The labs are starting to offer exome sequencing and whole genome sequencing to physicians as the primary genetic test. But they came back to us and said, listen we get too much information we generate too much information when we do an exome sequencing. And so we want clinicians to really adopt this as a test because of the broad coverage, we need to make sure that when we analyze the results we present to them results that are relevant, clinically relevant. And so it's not reasonable to present to a clinician, a thousand different variants that may or may not be pathogenic meaning that they may cause a disease or not.</p><p>We need to be able to present with that to them a short list of variants that may be causing a disease. In order to do that, we need to integrate what we call our jargon, calls phenotypic information, phenotypic being the information that captures the clinical observation of a patient. Is the patient tall, does the patient have certain clinical symptoms and does the face present certain patterns that are linked or associated with these diseases? And guess what Face2gene captured a lot of this phenotypic information as part of the clinical visit, the clinical evaluation. And then it dawned on us that you know we really hit something.</p><p>We started to investigate this further and we've participated in the study called PEDIA, that aimed to prioritize exome sequencing results based on facial analysis. The results were staggering we showed that for this cohort of patients, for this group of patients that had monogenic disorders that manifest in facial analysis. We can improve the diagnostic rate from about 40 percent to almost a hundred percent, and at that point, the term next-generation phenotyping was born and adopted by us as where we're going with this company.</p><p>We realized that if we offer a computer-based way, an AI best method to look at a patient and correlate that with the patient's genome, we would be able to pinpoint with very high accuracy, the disease-causing variants. And you're talking about cost, you can imagine what this does to this entire industry or the potential of what this can to the entire industry. This can facilitate genome sequencing for the entire population, and it now makes sense because we have a scalable approach into how to analyze and interpret genome sequencing data for the entire population.</p><p>And this could have a lot of impact on the future of precision health or precision medicine and that is obviously going to have a huge impact on cost. It's very hard to predict right now what that impact is going to be, and obviously, if we are to pursue this path, we need to go well beyond just a facial analysis, we need to look at the holistic phenotype of a patient. So, that's where we are right now and that's the journey ahead of us.</p><p><strong>Harry Glorikian: </strong>So, when you were building this, tell me some of the experiences or lessons that you learned. You know you originally said, you know we were working on algorithms then we went to a black box machine learning system and you've worked it into the physician’s workflow. Give me some of your experiences on what it really took to get this to where it is today.</p><p><strong>Dekel Gelbman: </strong>I think you touched on that, the last point I think is the most important one and the most difficult one in healthcare today is integrating with workflow. It is almost unimaginable to change the workflow of a caregiver. They're just too darn busy and trying to, re-educate them is never going to work. A lot of startups are trying to circumvent the healthcare provider. We don't believe in that future; we don't think that providers would disappear. We just think that their role is gonna change and so our strategy was how do we empower the caregivers; how do we empower physicians. And we do that by giving them pertinent data and giving them the ability to make educated decisions.</p><p>So, we're helping physicians and they're grateful and the community of clinical geneticist or medical geneticists really embraced us. Because we were giving them something that they were missing for years and years, and so we actually saved him a lot of time. The traction and the responses and the endorsement that we received from the physician was where we were focused, I would say in the last four years, really how do we give, how do we provide tools that are useful. And you know a lot of this is exploration, we develop something, we test it, we get feedback from the clinicians sometimes they love what we do, sometimes they don't. But they're very open and they're very responsive.</p><p>So, for us, that is probably one of the biggest assets that we have as a company is our relationships with our user base. And that really was important in our approach of, how we develop this technology. Everything is driven by what can be useful for our target audience. We learned along the way a lot of things and there are a lot of challenges. Workflow was one, right so how do we give the physicians the flexibility to use these tools and technologies without changing their workflow. Privacy is a huge issue and physicians are probably the gatekeepers for a lot of the privacy regulation around the world.</p><p>I'm talking about HIPAA and today GDPR are. The patient privacy is very important and it looks as though the last gatekeeper is the physician and they're doing a tremendous job. But we had to step up and improve our entire process. And go through compliance processes and ISO certification. Today we're ranked one of the highest ranking scores on AWS as in terms of our security and privacy infrastructure, but it took a lot of effort. Another thing that we've learned I think is how to be ethical in AI. And this is a I think a hot button today specifically in genetics, along the years most of the data that was curated was curated for Caucasian populations, and this created a huge gap in our knowledge our medical knowledge as a society on other ethnicities.</p><p>And so we made it a point to diversify our database so that we can be used not only for the Caucasian population but for ethnicities in Africa and Latin America and the Asia Pacific. And this made a huge difference by the way, not only did it made us grow our presence and today were being used in over a hundred and thirty countries around the world but it actually improved our AI. And this is a very interesting thing that I've learned along the years. When you train the system to look at different ethnicities, the morphology the way the face looks can be influenced by a variety of influencers. The ethnicity obviously environment can change how your face looks, not as much with the pediatric population but still and your genetics influence how your face looks like.</p><p>So, you have to discount some of these factors and by training the system on a very diverse ethnic population, you're basically taking off the table the differences that relate to ethnic origin, and you focus on the pathogenic morphology, only the morphology, only these patterns that are caused by those genetic disorders. So, just account a few things that we've learned along the way.</p><p><strong>Harry Glorikian: </strong>How big of a data set do you need to or where are you guys now, compared to where you know it was just a few years ago? I imagine that acquiring this data because of the app is much easier, the amount of data that you're able to get in is significantly higher than going out there and trying to do this yourself or coming up with a specific piece of instrumentation necessarily to do this. And then it was just recently that you guys started incorporating the genomics part of it, and the announcement was not that long ago. But, how do you see that working into the success of the company?</p><p>We what we always try to come up with some special piece of technology whereas I feel like the tech world is moving so fast forward, and what it's bringing is pretty damn good quality and it keeps improving thinking of you know the iWatch and the detail you can get off of an iPhone camera and so forth. So, how do you see that playing a role in what you guys are doing?</p><p><strong>Dekel Gelbman: </strong>So, you know again one of the challenges at the outset of the company was dealing with very small amounts of data. Our target number of diseases just with the facial analysis technology is somewhere between 2,500 and 4,000. And for each of these diseases sometimes there are only five reported cases in the history of publications. So, we're working with extremely small sets of data, for us that was a technology challenge that we've addressed through some methods like translational learning, where we learn from bigger data sets. And then we take that back to a smaller data set and apply what we've learned but generally speaking we work with very small data sets across or for each specific indication.</p><p>Face2gene was very successful in gathering more and more information to date, we have more than 120,000 patients that were processed and analyzed through face2gene obviously that enriches our database. The pace of uploading more and more patients into the system is increasing every month, and so I wouldn't be surprised if in two to three years we will actually reach around a million patients processed through this system. So, that really enhances our ability not only to improve the AI around identification of specific phenotypes but also broadens the coverage, so we can see more and more diseases.</p><p>And you were talking a little bit about other sensors like the iWatch. Part of our next-generation phenotype in approach is indeed to enhance our collection from beyond just a facial data into other phenotypic data. So, vital signs that are collected through wearables are part of that,  video processing even voice processing. So, the voice can be a very strong indication for certain diseases. Obviously, medical device information that is collected through existing medical devices and medical imaging, all this information should be funneled into a central location that will be able to improve our insights.</p><p>Now there are a lot of companies out there that are doing similar or have similar efforts. Our unique approach is that we take all this information and the sole purpose of that is to then look at the genome and try to identify the disease-causing variants. We're not developing radiology decision support tools or not developing agent diagnostic devices. Our sole purpose is to look at this information say, how can from this information we would be able to infer insights from the person's genome.</p><p><strong>Harry Glorikian: </strong>So, you had started this with you know we're a bunch of technology guys that sort of stumbled into the world of healthcare. What are the experiences you can share as, you know what type of people do you need on the back end doing the coding, doing the work but then integrating that would say people who might be knowledgeable in the disease state and sort of making that whole thing happen? And you're not all in one place, you have different sites and so that whole process is there of lessons you can share or the magic you can share to help bridge that gap.</p><p>Because I always feel that technologists can code, but you need somebody that understands that health dynamic, that disease state, that workflow and then to have to somehow almost meld into one person to be able to produce something that is usable.</p><p><strong>Dekel Gelbman: </strong>I wish I had a formula, it's not very easy to quantify what you need in order to succeed. I would say that generally and this is something that I truly believe in, disruption never comes from within an industry. It takes an outsider to look at something and try to solve a problem that exists for many years. At the same time, without the relationships that we've created over the years and without the involvement of medical geneticists in our company, we would have never understood the breadth and the depth of the problems that we're trying to solve. So, for us the AI approach was very straightforward, but going into diving into the details. it started to become extremely complex in terms of how the syndromes are categorized, how genetics works and that's information that we simply didn't have.</p><p>But as we dove deeper and deeper with the support of many experts in the genetics field and we have an extremely broad and involved scientific advisory board. If you take a look at our website, it's probably about 30 to 40 people that are involved, we don't pay them. They're there volunteering because they really believe in the future of this technology holds. Without their involvement we would have never succeeded to put technology to solve a problem. And without naming names, you know there are other companies out there that are very sophisticated and considered very prominent in the machine learning world.</p><p>I think their approach to involving the industry is wrong, taking just one or two sites to train a system or two to be the domain expert is not the right approach. You have to broaden the scope as much as possible, that's what we've done. We've been working with almost everyone in this field.</p><p><strong>Harry Glorikian: </strong>Well yeah I mean, I think technology lends itself to or the technologies these days lend themselves to. I don't want to say crowdsourcing but you can get a much larger set of input if you're managing this correctly. When you're hiring people or when you're looking at certain skill sets that weren't on board, how do you think about that. Where might be some of the places that you'd look to find these individuals aren't falling off trees and if you were in the Bay Area, you'd be fighting tooth and nail for you know the person that hasn't even graduated yet. So, how are you taking on the right people and finding the right skill sets?</p><p><strong>Dekel Gelbman: </strong>So, you know especially in the algorithmic development world, talent is extremely expensive, whether it's in the Bay Area, whether it's in New England or whether it's in Israel. These people are extremely expensive, the competition over recruitment is fierce and we're competing with some you know 800-pound gorillas in the market Amazon, Facebook, Google etc. The one thing that we have in our company that I've rarely seen in other companies is a purpose. And so this is a highly marketable trait for a company when you're recruiting, getting people on board that believe in the purpose of the company, believe that they can make an impact.</p><p>I think is such a powerful thing to have as a company, and coincidentally that's the kind of trait that I'm looking for when I hire people. So, the experience is important and dedication, diligence, intelligence all these traits are very important. The number one trait for me though is passion because I truly believe that if you're passionate about what you do and if you enjoy what you do and if you believe in what you do, then you're gonna put you know more from yourself into the company. You're gonna be more productive, you're gonna care.</p><p>And so that is probably the number one trait that I'm looking for when I'm hiring people, and that doesn't have to do with geography or with where you went to school. It's just you know it's what you care about, and so it's not that rare to find employees and talent that connect to the mandate of the company that believed in our vision, and recruitment has never been a huge issue for us.</p><p><strong>Harry Glorikian: </strong>So, where do you see the company going next, from a technology evolution perspective, from clinical impact perspective and then you know sort of your vision beyond that. But sort of those two things I think the incorporation of technology these days is almost like a race, where you're constantly trying to keep up with the next chipset that's incorporated, the next software improvement that's coming faster than I've ever seen it in any other time. And then clinically, where do you see that going?</p><p><strong>Dekel Gelbman: </strong>So, I think we have to be modest in our perspective on the impact that we can make and we need to be cognizant of macro-economic changes in healthcare that we have very little influence on. So, we need to look from the sidelines and try to evaluate where this field is going. We are strong believers that, we are entering into an era of precision health, we're strong believers that the main driver for that is genomics. We obviously believe that AI is a driver for these huge data sets and what we can do with them. And so within or from that insight, we believe that if we focus but really focus very hard on developing the best technology that regardless of time. I know that's a huge issue for startups right, but regardless of time whatever, it takes one year two years or five years. We need to focus on making this technology a standard of care alongside genomics and doing that for us means, focusing on value, showing value demonstrating value, showing how we can improve the benefits for all the stakeholders involved in our little space, which are physicians, researchers, labs obviously patients and then life science companies.</p><p><strong>Harry Glorikian: </strong>If I read that correctly you're looking beyond the rare disease space.</p><p><strong>Dekel Gelbman: </strong>I think the immediate value of what we're doing right now applies to the rare disease space. But the future implies that genomics is gonna play a key role in risk assessment for more complex and also more common diseases. As we start rooting ourselves into the genomics field, yes we see ourselves tagging along to that journey and going beyond rare diseases in the future into almost all diseases. But there's a huge gap that genomics needs to catch up to apply to other diseases.</p><p>Today I think you know mostly genomics is applied to rare diseases, oncology and that's pretty much where most of the genomics is focused right now.</p><p><strong>Harry Glorikian: </strong>Yeah, I've always thought about some of the stuff that you guys are doing and saying well what if we just started applying that to a broader population. You know we call it a rare disease it seems to manifest itself in, what might be categorized as an issue or a problem or how it hinders someone from you know the life that they want to lead etc. But I want to say that there's, the deviation of that is you know, there's probably people that you call normal that probably have some of these traits that we're just they're subtle. So, you don't pick up on them.</p><p>So, I always wondered at the application of technology to the broader population.</p><p><strong>Dekel Gelbman: </strong>I would argue that naming rare diseases is a huge disservice to these type of diseases. If you think about this if you think about the future of precision healthcare every disease is rare, because every disease is gonna be categorized as a unique subset of interactions between different biological systems and mechanisms. And so I think that in 20 years the term rare disease is gonna be obsolete because we will look at every single disease as a unique set of genotype-phenotype and other biological input or feeds into a computerized system, that's gonna analyze everything.</p><p>So, yes today we focus on rare diseases, we focus on the genomic side and, but that's I think that's gonna change along the years. We definitely look at FDNA on a very long term scale, we've always been able to do that with the support of our investors and the founders and even our employees. And I think that this is the right way to look at a startup.</p><p><strong>Harry Glorikian: </strong>Anything I haven't asked you, words of wisdom you know experiences that you want to share before we sign off?</p><p><strong>Dekel Gelbman: </strong>I think you've done a great job, thank you. It's always a pleasure to talk to you Harry and hear your insights on the world of health care and how that's developing. I think, we have the privilege to be operating in a very unique era. And hopefully we're gonna benefit from good timing and we're gonna seize the opportunity as a company. But even more important than that I really hope that the effort that we're doing with developing this technology is going to create a huge impact on patients.</p><p><strong>Harry Glorikian: </strong>Yeah, I do believe in it's interesting, yeah I'm not sure that the algorithms are the secret sauce or the machine learning back-end or so forth. I feel like some of that is always going to be able to be reproduced by someone else. But the data set I believe is gonna have tremendous value and the impact that it has going forward. So, on that note I want to thank you very much for joining today, and look forward to continued dialogue and updates in the future.</p><p><strong>Dekel Gelbman: </strong>Thank you very much very, Harry.</p><p><strong>Harry Glorikian: </strong>Take care, and that's it for this episode.</p><p> </p>
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      <itunes:title>Dekel Gelbman and How Machine Learning Is Changing Rare Disease Diagnosis</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:38:09</itunes:duration>
      <itunes:summary>Harry&apos;s guest is Dekel Gelbman, founding CEO of FDNA. The company uses a combination of computer vision, deep learning, and other artificial intelligence techniques to improve and accelerate diagnostics and therapeutics for children with rare diseases.</itunes:summary>
      <itunes:subtitle>Harry&apos;s guest is Dekel Gelbman, founding CEO of FDNA. The company uses a combination of computer vision, deep learning, and other artificial intelligence techniques to improve and accelerate diagnostics and therapeutics for children with rare diseases.</itunes:subtitle>
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      <title>Jason Bhan and How AI and Machine Learning Are Enabling Early Disease Detection</title>
      <description><![CDATA[<p>Jason Bhan, co-founder and chief medical officer of Prognos, joins Harry to talk about how machine learning is being used to dig into multi-sourced clinical diagnostic data to improve health by predicting disease early.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Welcome to the Moneyball Medicine podcast, I'm your host Harry Glorikian. This series is all about the data-driven transformation of the healthcare and life sciences landscape. Each episode we dive deep through one-on-one interviews with leaders in the new cost-conscious value-based healthcare economy. We look at the challenges and opportunities they're facing and their predictions for the years to come.</p><p>I'd like to welcome our next guest Dr. Jason Bhan, who's the co-founder and chief medical officer of Prognos. He's a family physician and serves as chief medical officer of Prognos. He's regarded as a national expert in the applications of technology and medicine, a topic on which he speaks regularly at institutions and conferences, such as health 2.0, M-health, E-health collaborative and health data palooza.</p><p>He's also done extensive strategy consulting with different companies including pharmaceutical companies and others. Welcome to the show Jason a pleasure to have you here.</p><p><strong>Dr. Jason Bhan:</strong> Thank you.</p><p><strong>Harry Glorikian:</strong> So, tell me a little bit about Prognos, maybe a little bit about its history and what you guys are really doing.</p><p><strong>Dr, Jason Bhan:</strong> Sure, so we have an incredibly ambitious vision which is to eradicate disease. And you might look at that and say, alright well that seems pretty incredible how are you gonna get there. And that is you know it's sort of like our 20-year vision out and we've got a mission which is to you know find and predict disease even earlier than it is today. So, when we started the company, probably seven or eight years ago you know it was -, we were trying to figure out how we could take data that was available in the system and use it for improving the lives of patients.</p><p>So, we looked at different data sets that were out there, we looked at you know claims data and prescription data. And what we really knew, I would really know from my years of practice was that sitting there in my office seeing you know 30 patients a day and ordering lots of blood tests on them and lab tests on them, and then going back and seeing. You know going back to my bat back to my desk and sitting there and looking at all of the test results that had been ordered from the prior days. I would sit there and I would make more relevant clinical decisions based on the lab test results that I was seeing that I did during the whole day of seeing patients.</p><p>So, we knew that you know this concept of lab data was really important. And in fact there's some studies out there, they show that more than 70% of all clinical decisions are based on lab test results. It's even more in areas like oncology and rare disease or it can be up to a hundred percent. So, we figured that we would start to work with lab data, and that was not easy because the lab system is fragmented. There's something like five or six thousand labs in the United States alone but many of them, but there's a you know that the top probably thousand handle most of the lab testing in the US, aside from acute care settings.</p><p>And so we started partnering with labs like LabCorp and Quest and working with them and helping them with their data, which was sort of the second problem is once you can start to aggregate all of that data, you have to clean and standardize all of that data. Clinical data is not easy to work with; it typically has a lot of unstructured aspects to it. So, we spend a lot of time just figuring out how to collect it and organize it, more than anything else. Once we were able to do that, we saw that there's a tremendous amount of value in it, both in the pharmaceutical space and in the payer space where we offer products today.</p><p>So, while we aggregate and collect all of this data and standardize and clean it, we actually turn it into products. And those products are what services are for clients and the idea was that you know early on, we were able to find patients that had particular diseases and we were pretty good at doing that. And then you know the sort of the next phase that we moved into was to predict which patients were going to develop X Y or Z.</p><p>It could be which patients were going to fail a particular therapy, predict which patients were going to go on to a particular therapy, which patients were needed to be tested more regularly or didn't need to be tested or we're missing tests in order to clinch a diagnosis. So, as we move into the prediction phase which has been over the last couple years, where we've really beefed up our computational expertise and AI and engineering. We've kind of understood more about how to predict these events. And then the idea is once you can predict something, you have to figure out what are the bright points to intervene.</p><p>And once you can intervene before something happens, then you've potentially moved towards the potential of eradicating that disease. So, that's sort of how we have our vision and how we've been moving towards it for the last couple of years.</p><p><strong>Harry Glorikian:</strong> What have been some of the challenges that you've faced along the way to implement or make this a reality?</p><p><strong>Dr. Jason Bhan:</strong> Yeah, there's a lot of challenges paired in this space. One I talked about was the fragmentation of the data, the data set itself. Two was obviously organizing and making that data fit for purpose, but there are a lot of other things that were challenges, right. So, in the sort of the standard healthcare data world, there are claims data and prescription data. And both of those are fairly commoditized there are a couple of you know players who have organized and brought all of that data together.</p><p>So, it was pretty well known but you know clinical data is different. And you know one of the things that we faced was it was new and just working with labs was new and labs were you know, it wasn't their business to be in data, their businesses running tests. And so anything new is you know foreign and guilty until proven innocent. So, we had a lot of work to do with just the labs in order to get them comfortable with the fact that we had all the safeguards in place for managing data.</p><p> All you know that we were compliant with HIPAA and that you know that they weren't going to risk by providing all this, and that we were providing them something of value with what we were doing. So, that was a big hurdle, just in accessing this data and that took a long time just to get there. And then the other side of it is proving the value, right. So, everybody's used to using something on the far end of things right, as pharmaceutical companies are used to using claims and prescriptions, and so are payers.</p><p>So, convincing them that lab data and this clinical data was good enough or better than what they were currently using either to augment what they were currently using or replace it altogether. So, that was another challenge and anytime you're new to the market with something it's always a challenge. So, that's probably the biggest.</p><p><strong>Harry Glorikian:</strong> So, where have you seen something that you weren't expecting, and where do you see this having the biggest impacts?</p><p><strong>Dr. Jason Bhan:</strong> Sure, so one of the one of the things that we didn't expect was in the diversity of care that the patients receive. You know there are clinical guidelines that are published and doctors are supposed to follow clinical guidelines and patients are supposed to present themselves all the time and they're supposed to do. So, that they can, the doctors can follow the clinical guidelines. But you know the real world is different and doctors practice differently and patients aren't always as accessible as you would hope them to be, and even when they have major illnesses they don't present themselves as often as they should for care.</p><p>So, one of the things that we looked at, one of the diseases that we looked at was CML or chronic myelogenous leukaemia, which is a type of blood cancer. And what we found was that this is actually a great disease for lab testing. Because there's been a sort of a new, you know a test that's been around for a little while that looks at a molecular marker and you're able to track the course of the disease over time in the blood, which is you know that's like the holy grail for cancer.</p><p>And so basically there's this blood test and once you use it to diagnose the disease and then you use it to track the course of the disease. And so you're supposed to continue to test you know once a quarter until the person is in remission.</p><p>So, that's four tests a year and therapy has changed based on the results of the tests. If you are driving the tests you know they're driving the presence of the mutation down, then you know you can stay on your therapy if it's changing then it changes. And so what we found was that number one, patients on average we're being tested like 1.5 times per year instead of four times per year.</p><p>And those patients who were tested more frequently were having better outcomes, and so what we were able to, we actually did the work with the professor who came up with helped write the guidelines.</p><p>And he was just as shocked as we were that this testing frequency was so low. And what we kind of found was that look, you test people more then there are better outcomes and you drive them more towards remission. And I think that was sort of a shocking thing to find, not that it occurs but that it occurred at such a high rate and was such a discrepancy from the clinical guidelines. And you could certainly make many arguments on that, you could say that you should be educating providers about the importance of testing and not under testing, but making sure you're doing the appropriate amounts of testing.</p><p>You could educate patients with the disease on the importance of going to your providers and getting tested regularly. You can give heads up to payers on patients who aren't getting tested as frequently, as they should and getting them higher and more engaged with the patient's, so that the outcomes are better and the costs are lower. And you can work with pharmacy companies on educating providers, educating patients and figuring out how to even figure out how to pay for some of this testing, which you know I didn't occur.</p><p>You'd almost want it all to happen, you do want it all to happen it's you know ideally that's what would happen. But all we did was find all the correlations and then pass out the information to folks and hope that they can power some of their resources towards.</p><p><strong>Harry Glorikian:</strong> So, when you guys are looking at the data Sciences side, you know sure that in the beginning it was much more simple analytics. You know actually probably the majority of your time was cleaning and organizing just to get it useful, but now it's now that it's sort of in a better State let's say or in a much more usable State. What are the challenges around you knowing hiring the right people, you know when you decide what sort of data analytics do you use? How complicated is it you know? Do you settle on a platform where you're constantly evolving to keep up with this constant set of change?</p><p><strong>Dr. Jason Bhan:</strong> Yeah, so you know there are a number of different questions in there. One is just finding the right talent, that is not easy. It does make it easier that we have a very large unique and interesting data set. And it makes it very interesting that we are in the healthcare space. So, the people that we tend to find are those who want a new challenge with lots of data and want to make a meaningful contribution to the world. So, we know, we have recruited people out of the medical space and usually those data scientists are the ones who were recruited by a hospital system or by a company that had great science, but no data.</p><p>And so they were kind of tired of not really doing anything and just you know kind of theorizing all the time. And then we recruited folks out of industries like Ad Tech where their mantra was you know the right Ad to the right person at the right time, where we were saying things like the right drug to the right person at the right time, and that's very enticing to people. So, you know we made a hire a couple years ago and found our chief data scientist who came out of the Ad Tech space. And he's been great, he's a mathematician, peer scientist and loves the theory and you know and it keeps us all on our toes and pushes us to great new things.</p><p>He's also recruited an amazing top-tier group of AI data scientists that help us do what we do. And you know they are, the way they work is it's almost like they're playing with toys, and there's a new shiny one and they go and grab it. And that's great because that's the way you want to approach this space. You know something changes every week, there's a new platform that comes out every week or month. And it may actually be better than the one you used before.</p><p>You know I think actually this week, we're presenting alongside Amazon at the Jupiter con for being one of the biggest utilizers in the healthcare space of sage makers, which is their new platform that's AI base that's kind of going up against Google and Microsoft and others. So, you know we're experimenting with new technologies all the time, and you know AI technology is really a commodity at this point. You can, as long as you have the data and you have it formatted in a way that it can be absorbed into a system, then you can use just about any application out there. And oftentimes multiple applications in order to get the right answer.</p><p><strong>Harry Glorikian:</strong> So, you know we were chatting on the way up here and you mentioned one of the people that's benefiting from the data that you're giving them and how they are shifting from sort of looking at the world from an actuarial perspective to actually predicting. Can you walk the people you know someone through that, how that evolved over time?</p><p><strong>Dr. Jason Bhan:</strong> Sure, so we know that with clinical data, especially lab data you can infer a tremendous amount of information about an individual. How sick are they? What comorbid conditions they have, whether they have a disease or not but also where they are in their disease state? So, from a payer’s perspective someone with diabetes is interesting, but someone with diabetes that's poorly controlled who also has high blood pressure, high cholesterol is much more interesting from a number of different perspectives. One, because they're more likely to get sicker and two because in the world of insurance especially government you know either Medicare Advantage or the ACA population or Medicaid, the payer actually gets reimbursed more to care for that individual.</p><p>So, one of the products that we have out there is, both a sort of an identification and predictive product for payers. And what we do is we help them identify in a population of patients either that is existing for them or a new population that's coming in for them, where their risk is. And which patients are going to get sicker over the next 12 months and which ones are going to cost them more money or have more disease burden. And they're using that for two things, one is to direct resources towards those patients. So, that they can either impact their cost before it gets out of control and improve their health.</p><p>And second in the reimbursement from the government, because the more complex a patient is and the sooner you know about that complexity, the more money you can recover in order to take care of that patient. So, that's one and then the other is really around where you know predicting costs and traditional methods are in actuarial tables, right. Looking at demographics, slopes of an individual, where they live, what their age range is, what their occupation is sometimes, zip codes and other things. And then using that and sort of the law of large numbers and predicting what sort of bucket of cost that they'll fall into over the coming 12 months.</p><p>And what we've discovered is that, if you take lab tests and cost and look at that retrospectively and build, and let the Machine sort of go at that, that matrix of data you can then, based on lab data alone you can predict the future 12 months of cost or disease burden that's coming down from that patient population. And then what would you do with that, well you could do anything from directing resources towards it to correctly predicting your cost for that group of that population of patients and pleasing your investors as well as your bottom-line.</p><p><strong>Harry Glorikian:</strong> So, where do you see this capability going in the future? Do you add other data sources to it that really changed the paradigm, like instead of just looking at lab tests you take on wearable data, so you monitor people in between. Where do you see the future going and what you guys have built and where would you like to see it be?</p><p><strong>Dr Jason Bhan:</strong> Yeah, that's a great question. I mean, I think the Holy Grail is as much data on as many people as you can get. Health is so multifactorial, there are so many permutations of why a person goes down a particular path. That I think unless you have millions and millions of patients with millions of data points, we're really not going to understand what and why. Even the predictions that we're making now are inaccurate, because of that. We're more accurate than the old ways, but we're still inaccurate because of all the different things that can go into a person's health.</p><p>And to your point, I think adding more data sets is a great way of improving that, right. There is wearable data, there's that sort of whole healthcare data layer of information that's collected on patients either through passive or active sensors. The challenge with that is they're not mainstream yet, I mean the people who are using fit bits are the ones who probably don't eat it as much they're generally healthy and walking and other things. So, it'll be great when you know you know Apple kind of gets a critical mass of users using their systems, more people are using fit bit’s and so on and so forth.</p><p>But that's a layer, I think, so seeing like the spending behaviors of people is really impressive. I mean you know location information at any given time, you know if you could imagine you see someone hop from McDonald's to McDonald's on a day-to-day basis. And then correlate that with the amount of money they're spending there and then with their lab test results and their claims history, I mean that's incredibly powerful. And then I think adding in genetics data to that once we sort of know what to do with full genome sequencing, is a really powerful addition to the set.</p><p>So, you know, continuing to add data and add data, and ideally the cost of computing all of that and continues to drop, so that it doesn't become prohibitive. Because that is right now even so sort of an issue, it is sort of the cost of crunching all this data. And then where does it go, I think ultimately it goes to the individual. I believe that you know strongly that health care reform in the last ten years has been about empowering individuals, educating them, driving cost down and improving care and improving access. But I do believe that empowering people with the information will help drive change.</p><p>And we do that now through Pharma and payers, but ultimately I think you know you drive it to providers and give them the information that they need and ultimately down to patients. And give them the information in a format they can consume and with recommendations that make sense. And I think that's when you really start to drive like the disease curve and the cost curve down.</p><p><strong>Harry Glorikian:</strong> So, what do you see is the next set of hurdles, either for you guys or for companies like you to sort of move the needle on the, what you guys are trying to do?</p><p><strong>Dr. Jason Bhan:</strong> Yeah, I think you know the sort of the four-letter word and in the industry is interoperability. There is a lot of data available on a lot of people out there from a healthcare standpoint. Unfortunately, it's in a lot of silos and those silos are, they're not just from a technical standpoint but they're from a process standpoint and just a business standpoint. If you can imagine if you're an electronic health record company, who makes your money on you knowing your subscriptions to your EHR, and the server that sits in the doctor's office. And the doctor says you know, hey I want to port my data out of this to somewhere else. What's my incentive to do that as an EHR?</p><p>I'm just gonna lose that doctor as a client, because they're gonna go to the next EHR that's just as easy. So, you know and it's certainly not like a judgment on these folks, these are all businesses, but there's no incentive to share data. So, the government's been working on that for years and has really yet been able to, as have yet been able to incentivize all this or create a standard that the industry can use. So, while the Holy Grail is collecting all of the data on all of the people. I still see we're a long way off from that, so we're just kind of attacking it in a piecemeal way.</p><p><strong>Harry Glorikian:</strong> So, that begs the  question of like, Apple making EHR portable on its platform. It's not everything in the record, but is that a bridge are they disrupting the interoperability of these systems and sort of almost usurping, the players not wanting to play.</p><p><strong>Dr. Jason Bhan:</strong> Yeah I hope so, now they're still using the standard which is called fire and so all the EHRs need to play nicely with fire, which they may or may not. And in all honesty the most valuable piece of information, the most immediately valuable piece of information coming out of the EHR as biometrics. It's like blood pressure, height, weight and some basic social information. So, that I think the Apple software will be able to pull relatively straightforward, and you'll still have some issues with it. But it's a lot easier than saying trying to pull out a note and deciding, whether I met Michigan or myocardial infarction.</p><p>So, there's a lot of work that has to go into that, but I think there's some immediate wins that can come out of apples play here and make some data available to the system which has not really been at scale available.</p><p><strong>Harry Glorikian:</strong> Yeah, and I mean that I think the next version is that the user will be able to share that data with an app that they could want to share with.</p><p><strong>Dr. Jason Bhan:</strong> Yeah.</p><p><strong>Harry Glorikian:</strong> So, if Prognos had an app available that could interact, that would be another way to have a data ingestion engine with a standardized set of data.</p><p><strong>Dr. Jason Bhan:</strong> Yeah and I presume that Apple will probably allow anonymized versions of that data so that consumers will be able to consent and non-anonymize versions of their data to go out without someone having an app that'll be available. And I think that's actually, that's how we function. Our registry which you know has 18 billion records on 180 million patients, is actually all de-identified. But that's our training set, that's where we build all of our algorithms from. And then once you have an algorithm built you know, it's all these little fragments and pieces of patient journeys.</p><p>Once you have a person come in as an individual, you then map them to whatever point along the journey that they are and then you can give them their individualized ideas, so that is, right. So, if Apple would make or if anyone makes de-identified data available more broadly, then you can use that to create those algorithms and then create the app that an individual would then get mapped against and it would tell them what their health is or what they're you know predicting what their future looks like.</p><p><strong>Harry Glorikian:</strong> So, it sounds like a very promising future. I know the majority of your clients are you know insurers and pharmaceutical companies, but it sounds like you guys are slowly moving towards you know eventually getting to the patient.</p><p><strong>Dr. Jason Bhan:</strong> Yeah, I mean ultimately that's I do believe that that's where the biggest impact will be made. And interacting with patients is very different than interacting with Pharma or healthcare systems. You have to have a very tailored approach to that. And you know as a physician I definitely know how to work with patients and how to get them to do what you're trying to get them to do in order to improve their health. But it's tough, I mean there are entire companies out there that are focused solely on how do you get a patient to engage with their own health. And that's not an area of expertise for us, but we will certainly piggyback on that and power whatever we can to help them figure out how to get those patients engaged.</p><p><strong>Harry Glorikian:</strong> So, it sounds like you know maybe a partnership within Amazon or a Google, that has a tremendous level of data on the consumer and what drives different behaviors might make sense for an organization like yours.</p><p><strong>Dr. Jason Bhan:</strong> Yeah absolutely, I think that does make a lot of sense and looking and you know those guys do have great understanding of consumer behavior. So, what if you were to add in a layer of medical information or clinical data on top of that, what could you understand or predict or influence. I think what you want to do at the end of the day is, how do you get that person to not walk into McDonald's?</p><p><strong>Harry Glorikian:</strong> Great. Is there anything else that I didn't ask that you think would be critical for people to hear about you, the company or where you think the space is going?</p><p><strong>Dr. Jason Bhan:</strong> Look these are exciting times and it is the AI and healthcare space is evolving, so quickly. I do get a little concerned when I see you know these small startups with no real business models. Because we do need businesses  that are able to sustain themselves and you know have models that allow them to you know companies accompany them, generate revenue and that will last. I've been in the health 2, 0 and health tech space for a long time now, and I just see too many companies start and fail.</p><p>So, you know spending time on a really good business model, figuring out how to take incremental steps towards solving problems instead of like trying to just leapfrog, now if you're, you know if you've just sold your startup and you've got money to burn. And that's great, go solve the biggest problems but not everybody has that opportunity. So, it's really about you know we would all love for the healthcare system to free all its data and for everything to flow and work perfectly together.</p><p>But it doesn't work that way, and I think you know the more companies that are taking bite-sized chunks out of it, towards moving us all towards that solution and then cooperating and collaborating between them. I think that's sort of the way that the thing the industry will go, will succeed.</p><p><strong>Harry Glorikian:</strong> Yeah, I think of it like when I know one person makes a scale the other one makes the blood pressure cuff in it. But they have API's that allow, so one app to sort of aggregate that data into one place. And so there seems to be a free flow of data if you're on the, keep yourself healthy side. It's once you cross over into the well you are sort of sick or in the healthcare system that everything gets locked down.</p><p><strong>Dr. Jason Bhan:</strong> Locked down and also, unfortunately the people who are sick and unhealthy are not the ones who are big consumers of the wearables and the scales and all of this. And that's really the challenge, when we get good at passive data collection, I think we will have a kind of a breakthrough on data on the on the sick population, not just the well population.</p><p><strong>Harry Glorikian:</strong> Well on that note, I want to thank you very much for joining today. Hope everybody listening enjoyed it and look forward to continuing the conversation in the future.</p><p><strong>Dr. Jason Bhan:</strong> Yeah great, thanks for the opportunity.</p><p><strong>Harry Glorikian:</strong> And that's it for this episode. I hope you enjoyed the insights and discussion. For more information, please feel free to go to<a href="http://www.gloryccamp.com/"> www.glorikian.com</a>. Hope you join us next time, until then farewell.</p><p>:</p><p>.</p><p> </p>
]]></description>
      <pubDate>Mon, 1 Oct 2018 22:54:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Jason Bhan, co-founder and chief medical officer of Prognos, joins Harry to talk about how machine learning is being used to dig into multi-sourced clinical diagnostic data to improve health by predicting disease early.</p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript</strong></p><p><strong>Harry Glorikian:</strong> Welcome to the Moneyball Medicine podcast, I'm your host Harry Glorikian. This series is all about the data-driven transformation of the healthcare and life sciences landscape. Each episode we dive deep through one-on-one interviews with leaders in the new cost-conscious value-based healthcare economy. We look at the challenges and opportunities they're facing and their predictions for the years to come.</p><p>I'd like to welcome our next guest Dr. Jason Bhan, who's the co-founder and chief medical officer of Prognos. He's a family physician and serves as chief medical officer of Prognos. He's regarded as a national expert in the applications of technology and medicine, a topic on which he speaks regularly at institutions and conferences, such as health 2.0, M-health, E-health collaborative and health data palooza.</p><p>He's also done extensive strategy consulting with different companies including pharmaceutical companies and others. Welcome to the show Jason a pleasure to have you here.</p><p><strong>Dr. Jason Bhan:</strong> Thank you.</p><p><strong>Harry Glorikian:</strong> So, tell me a little bit about Prognos, maybe a little bit about its history and what you guys are really doing.</p><p><strong>Dr, Jason Bhan:</strong> Sure, so we have an incredibly ambitious vision which is to eradicate disease. And you might look at that and say, alright well that seems pretty incredible how are you gonna get there. And that is you know it's sort of like our 20-year vision out and we've got a mission which is to you know find and predict disease even earlier than it is today. So, when we started the company, probably seven or eight years ago you know it was -, we were trying to figure out how we could take data that was available in the system and use it for improving the lives of patients.</p><p>So, we looked at different data sets that were out there, we looked at you know claims data and prescription data. And what we really knew, I would really know from my years of practice was that sitting there in my office seeing you know 30 patients a day and ordering lots of blood tests on them and lab tests on them, and then going back and seeing. You know going back to my bat back to my desk and sitting there and looking at all of the test results that had been ordered from the prior days. I would sit there and I would make more relevant clinical decisions based on the lab test results that I was seeing that I did during the whole day of seeing patients.</p><p>So, we knew that you know this concept of lab data was really important. And in fact there's some studies out there, they show that more than 70% of all clinical decisions are based on lab test results. It's even more in areas like oncology and rare disease or it can be up to a hundred percent. So, we figured that we would start to work with lab data, and that was not easy because the lab system is fragmented. There's something like five or six thousand labs in the United States alone but many of them, but there's a you know that the top probably thousand handle most of the lab testing in the US, aside from acute care settings.</p><p>And so we started partnering with labs like LabCorp and Quest and working with them and helping them with their data, which was sort of the second problem is once you can start to aggregate all of that data, you have to clean and standardize all of that data. Clinical data is not easy to work with; it typically has a lot of unstructured aspects to it. So, we spend a lot of time just figuring out how to collect it and organize it, more than anything else. Once we were able to do that, we saw that there's a tremendous amount of value in it, both in the pharmaceutical space and in the payer space where we offer products today.</p><p>So, while we aggregate and collect all of this data and standardize and clean it, we actually turn it into products. And those products are what services are for clients and the idea was that you know early on, we were able to find patients that had particular diseases and we were pretty good at doing that. And then you know the sort of the next phase that we moved into was to predict which patients were going to develop X Y or Z.</p><p>It could be which patients were going to fail a particular therapy, predict which patients were going to go on to a particular therapy, which patients were needed to be tested more regularly or didn't need to be tested or we're missing tests in order to clinch a diagnosis. So, as we move into the prediction phase which has been over the last couple years, where we've really beefed up our computational expertise and AI and engineering. We've kind of understood more about how to predict these events. And then the idea is once you can predict something, you have to figure out what are the bright points to intervene.</p><p>And once you can intervene before something happens, then you've potentially moved towards the potential of eradicating that disease. So, that's sort of how we have our vision and how we've been moving towards it for the last couple of years.</p><p><strong>Harry Glorikian:</strong> What have been some of the challenges that you've faced along the way to implement or make this a reality?</p><p><strong>Dr. Jason Bhan:</strong> Yeah, there's a lot of challenges paired in this space. One I talked about was the fragmentation of the data, the data set itself. Two was obviously organizing and making that data fit for purpose, but there are a lot of other things that were challenges, right. So, in the sort of the standard healthcare data world, there are claims data and prescription data. And both of those are fairly commoditized there are a couple of you know players who have organized and brought all of that data together.</p><p>So, it was pretty well known but you know clinical data is different. And you know one of the things that we faced was it was new and just working with labs was new and labs were you know, it wasn't their business to be in data, their businesses running tests. And so anything new is you know foreign and guilty until proven innocent. So, we had a lot of work to do with just the labs in order to get them comfortable with the fact that we had all the safeguards in place for managing data.</p><p> All you know that we were compliant with HIPAA and that you know that they weren't going to risk by providing all this, and that we were providing them something of value with what we were doing. So, that was a big hurdle, just in accessing this data and that took a long time just to get there. And then the other side of it is proving the value, right. So, everybody's used to using something on the far end of things right, as pharmaceutical companies are used to using claims and prescriptions, and so are payers.</p><p>So, convincing them that lab data and this clinical data was good enough or better than what they were currently using either to augment what they were currently using or replace it altogether. So, that was another challenge and anytime you're new to the market with something it's always a challenge. So, that's probably the biggest.</p><p><strong>Harry Glorikian:</strong> So, where have you seen something that you weren't expecting, and where do you see this having the biggest impacts?</p><p><strong>Dr. Jason Bhan:</strong> Sure, so one of the one of the things that we didn't expect was in the diversity of care that the patients receive. You know there are clinical guidelines that are published and doctors are supposed to follow clinical guidelines and patients are supposed to present themselves all the time and they're supposed to do. So, that they can, the doctors can follow the clinical guidelines. But you know the real world is different and doctors practice differently and patients aren't always as accessible as you would hope them to be, and even when they have major illnesses they don't present themselves as often as they should for care.</p><p>So, one of the things that we looked at, one of the diseases that we looked at was CML or chronic myelogenous leukaemia, which is a type of blood cancer. And what we found was that this is actually a great disease for lab testing. Because there's been a sort of a new, you know a test that's been around for a little while that looks at a molecular marker and you're able to track the course of the disease over time in the blood, which is you know that's like the holy grail for cancer.</p><p>And so basically there's this blood test and once you use it to diagnose the disease and then you use it to track the course of the disease. And so you're supposed to continue to test you know once a quarter until the person is in remission.</p><p>So, that's four tests a year and therapy has changed based on the results of the tests. If you are driving the tests you know they're driving the presence of the mutation down, then you know you can stay on your therapy if it's changing then it changes. And so what we found was that number one, patients on average we're being tested like 1.5 times per year instead of four times per year.</p><p>And those patients who were tested more frequently were having better outcomes, and so what we were able to, we actually did the work with the professor who came up with helped write the guidelines.</p><p>And he was just as shocked as we were that this testing frequency was so low. And what we kind of found was that look, you test people more then there are better outcomes and you drive them more towards remission. And I think that was sort of a shocking thing to find, not that it occurs but that it occurred at such a high rate and was such a discrepancy from the clinical guidelines. And you could certainly make many arguments on that, you could say that you should be educating providers about the importance of testing and not under testing, but making sure you're doing the appropriate amounts of testing.</p><p>You could educate patients with the disease on the importance of going to your providers and getting tested regularly. You can give heads up to payers on patients who aren't getting tested as frequently, as they should and getting them higher and more engaged with the patient's, so that the outcomes are better and the costs are lower. And you can work with pharmacy companies on educating providers, educating patients and figuring out how to even figure out how to pay for some of this testing, which you know I didn't occur.</p><p>You'd almost want it all to happen, you do want it all to happen it's you know ideally that's what would happen. But all we did was find all the correlations and then pass out the information to folks and hope that they can power some of their resources towards.</p><p><strong>Harry Glorikian:</strong> So, when you guys are looking at the data Sciences side, you know sure that in the beginning it was much more simple analytics. You know actually probably the majority of your time was cleaning and organizing just to get it useful, but now it's now that it's sort of in a better State let's say or in a much more usable State. What are the challenges around you knowing hiring the right people, you know when you decide what sort of data analytics do you use? How complicated is it you know? Do you settle on a platform where you're constantly evolving to keep up with this constant set of change?</p><p><strong>Dr. Jason Bhan:</strong> Yeah, so you know there are a number of different questions in there. One is just finding the right talent, that is not easy. It does make it easier that we have a very large unique and interesting data set. And it makes it very interesting that we are in the healthcare space. So, the people that we tend to find are those who want a new challenge with lots of data and want to make a meaningful contribution to the world. So, we know, we have recruited people out of the medical space and usually those data scientists are the ones who were recruited by a hospital system or by a company that had great science, but no data.</p><p>And so they were kind of tired of not really doing anything and just you know kind of theorizing all the time. And then we recruited folks out of industries like Ad Tech where their mantra was you know the right Ad to the right person at the right time, where we were saying things like the right drug to the right person at the right time, and that's very enticing to people. So, you know we made a hire a couple years ago and found our chief data scientist who came out of the Ad Tech space. And he's been great, he's a mathematician, peer scientist and loves the theory and you know and it keeps us all on our toes and pushes us to great new things.</p><p>He's also recruited an amazing top-tier group of AI data scientists that help us do what we do. And you know they are, the way they work is it's almost like they're playing with toys, and there's a new shiny one and they go and grab it. And that's great because that's the way you want to approach this space. You know something changes every week, there's a new platform that comes out every week or month. And it may actually be better than the one you used before.</p><p>You know I think actually this week, we're presenting alongside Amazon at the Jupiter con for being one of the biggest utilizers in the healthcare space of sage makers, which is their new platform that's AI base that's kind of going up against Google and Microsoft and others. So, you know we're experimenting with new technologies all the time, and you know AI technology is really a commodity at this point. You can, as long as you have the data and you have it formatted in a way that it can be absorbed into a system, then you can use just about any application out there. And oftentimes multiple applications in order to get the right answer.</p><p><strong>Harry Glorikian:</strong> So, you know we were chatting on the way up here and you mentioned one of the people that's benefiting from the data that you're giving them and how they are shifting from sort of looking at the world from an actuarial perspective to actually predicting. Can you walk the people you know someone through that, how that evolved over time?</p><p><strong>Dr. Jason Bhan:</strong> Sure, so we know that with clinical data, especially lab data you can infer a tremendous amount of information about an individual. How sick are they? What comorbid conditions they have, whether they have a disease or not but also where they are in their disease state? So, from a payer’s perspective someone with diabetes is interesting, but someone with diabetes that's poorly controlled who also has high blood pressure, high cholesterol is much more interesting from a number of different perspectives. One, because they're more likely to get sicker and two because in the world of insurance especially government you know either Medicare Advantage or the ACA population or Medicaid, the payer actually gets reimbursed more to care for that individual.</p><p>So, one of the products that we have out there is, both a sort of an identification and predictive product for payers. And what we do is we help them identify in a population of patients either that is existing for them or a new population that's coming in for them, where their risk is. And which patients are going to get sicker over the next 12 months and which ones are going to cost them more money or have more disease burden. And they're using that for two things, one is to direct resources towards those patients. So, that they can either impact their cost before it gets out of control and improve their health.</p><p>And second in the reimbursement from the government, because the more complex a patient is and the sooner you know about that complexity, the more money you can recover in order to take care of that patient. So, that's one and then the other is really around where you know predicting costs and traditional methods are in actuarial tables, right. Looking at demographics, slopes of an individual, where they live, what their age range is, what their occupation is sometimes, zip codes and other things. And then using that and sort of the law of large numbers and predicting what sort of bucket of cost that they'll fall into over the coming 12 months.</p><p>And what we've discovered is that, if you take lab tests and cost and look at that retrospectively and build, and let the Machine sort of go at that, that matrix of data you can then, based on lab data alone you can predict the future 12 months of cost or disease burden that's coming down from that patient population. And then what would you do with that, well you could do anything from directing resources towards it to correctly predicting your cost for that group of that population of patients and pleasing your investors as well as your bottom-line.</p><p><strong>Harry Glorikian:</strong> So, where do you see this capability going in the future? Do you add other data sources to it that really changed the paradigm, like instead of just looking at lab tests you take on wearable data, so you monitor people in between. Where do you see the future going and what you guys have built and where would you like to see it be?</p><p><strong>Dr Jason Bhan:</strong> Yeah, that's a great question. I mean, I think the Holy Grail is as much data on as many people as you can get. Health is so multifactorial, there are so many permutations of why a person goes down a particular path. That I think unless you have millions and millions of patients with millions of data points, we're really not going to understand what and why. Even the predictions that we're making now are inaccurate, because of that. We're more accurate than the old ways, but we're still inaccurate because of all the different things that can go into a person's health.</p><p>And to your point, I think adding more data sets is a great way of improving that, right. There is wearable data, there's that sort of whole healthcare data layer of information that's collected on patients either through passive or active sensors. The challenge with that is they're not mainstream yet, I mean the people who are using fit bits are the ones who probably don't eat it as much they're generally healthy and walking and other things. So, it'll be great when you know you know Apple kind of gets a critical mass of users using their systems, more people are using fit bit’s and so on and so forth.</p><p>But that's a layer, I think, so seeing like the spending behaviors of people is really impressive. I mean you know location information at any given time, you know if you could imagine you see someone hop from McDonald's to McDonald's on a day-to-day basis. And then correlate that with the amount of money they're spending there and then with their lab test results and their claims history, I mean that's incredibly powerful. And then I think adding in genetics data to that once we sort of know what to do with full genome sequencing, is a really powerful addition to the set.</p><p>So, you know, continuing to add data and add data, and ideally the cost of computing all of that and continues to drop, so that it doesn't become prohibitive. Because that is right now even so sort of an issue, it is sort of the cost of crunching all this data. And then where does it go, I think ultimately it goes to the individual. I believe that you know strongly that health care reform in the last ten years has been about empowering individuals, educating them, driving cost down and improving care and improving access. But I do believe that empowering people with the information will help drive change.</p><p>And we do that now through Pharma and payers, but ultimately I think you know you drive it to providers and give them the information that they need and ultimately down to patients. And give them the information in a format they can consume and with recommendations that make sense. And I think that's when you really start to drive like the disease curve and the cost curve down.</p><p><strong>Harry Glorikian:</strong> So, what do you see is the next set of hurdles, either for you guys or for companies like you to sort of move the needle on the, what you guys are trying to do?</p><p><strong>Dr. Jason Bhan:</strong> Yeah, I think you know the sort of the four-letter word and in the industry is interoperability. There is a lot of data available on a lot of people out there from a healthcare standpoint. Unfortunately, it's in a lot of silos and those silos are, they're not just from a technical standpoint but they're from a process standpoint and just a business standpoint. If you can imagine if you're an electronic health record company, who makes your money on you knowing your subscriptions to your EHR, and the server that sits in the doctor's office. And the doctor says you know, hey I want to port my data out of this to somewhere else. What's my incentive to do that as an EHR?</p><p>I'm just gonna lose that doctor as a client, because they're gonna go to the next EHR that's just as easy. So, you know and it's certainly not like a judgment on these folks, these are all businesses, but there's no incentive to share data. So, the government's been working on that for years and has really yet been able to, as have yet been able to incentivize all this or create a standard that the industry can use. So, while the Holy Grail is collecting all of the data on all of the people. I still see we're a long way off from that, so we're just kind of attacking it in a piecemeal way.</p><p><strong>Harry Glorikian:</strong> So, that begs the  question of like, Apple making EHR portable on its platform. It's not everything in the record, but is that a bridge are they disrupting the interoperability of these systems and sort of almost usurping, the players not wanting to play.</p><p><strong>Dr. Jason Bhan:</strong> Yeah I hope so, now they're still using the standard which is called fire and so all the EHRs need to play nicely with fire, which they may or may not. And in all honesty the most valuable piece of information, the most immediately valuable piece of information coming out of the EHR as biometrics. It's like blood pressure, height, weight and some basic social information. So, that I think the Apple software will be able to pull relatively straightforward, and you'll still have some issues with it. But it's a lot easier than saying trying to pull out a note and deciding, whether I met Michigan or myocardial infarction.</p><p>So, there's a lot of work that has to go into that, but I think there's some immediate wins that can come out of apples play here and make some data available to the system which has not really been at scale available.</p><p><strong>Harry Glorikian:</strong> Yeah, and I mean that I think the next version is that the user will be able to share that data with an app that they could want to share with.</p><p><strong>Dr. Jason Bhan:</strong> Yeah.</p><p><strong>Harry Glorikian:</strong> So, if Prognos had an app available that could interact, that would be another way to have a data ingestion engine with a standardized set of data.</p><p><strong>Dr. Jason Bhan:</strong> Yeah and I presume that Apple will probably allow anonymized versions of that data so that consumers will be able to consent and non-anonymize versions of their data to go out without someone having an app that'll be available. And I think that's actually, that's how we function. Our registry which you know has 18 billion records on 180 million patients, is actually all de-identified. But that's our training set, that's where we build all of our algorithms from. And then once you have an algorithm built you know, it's all these little fragments and pieces of patient journeys.</p><p>Once you have a person come in as an individual, you then map them to whatever point along the journey that they are and then you can give them their individualized ideas, so that is, right. So, if Apple would make or if anyone makes de-identified data available more broadly, then you can use that to create those algorithms and then create the app that an individual would then get mapped against and it would tell them what their health is or what they're you know predicting what their future looks like.</p><p><strong>Harry Glorikian:</strong> So, it sounds like a very promising future. I know the majority of your clients are you know insurers and pharmaceutical companies, but it sounds like you guys are slowly moving towards you know eventually getting to the patient.</p><p><strong>Dr. Jason Bhan:</strong> Yeah, I mean ultimately that's I do believe that that's where the biggest impact will be made. And interacting with patients is very different than interacting with Pharma or healthcare systems. You have to have a very tailored approach to that. And you know as a physician I definitely know how to work with patients and how to get them to do what you're trying to get them to do in order to improve their health. But it's tough, I mean there are entire companies out there that are focused solely on how do you get a patient to engage with their own health. And that's not an area of expertise for us, but we will certainly piggyback on that and power whatever we can to help them figure out how to get those patients engaged.</p><p><strong>Harry Glorikian:</strong> So, it sounds like you know maybe a partnership within Amazon or a Google, that has a tremendous level of data on the consumer and what drives different behaviors might make sense for an organization like yours.</p><p><strong>Dr. Jason Bhan:</strong> Yeah absolutely, I think that does make a lot of sense and looking and you know those guys do have great understanding of consumer behavior. So, what if you were to add in a layer of medical information or clinical data on top of that, what could you understand or predict or influence. I think what you want to do at the end of the day is, how do you get that person to not walk into McDonald's?</p><p><strong>Harry Glorikian:</strong> Great. Is there anything else that I didn't ask that you think would be critical for people to hear about you, the company or where you think the space is going?</p><p><strong>Dr. Jason Bhan:</strong> Look these are exciting times and it is the AI and healthcare space is evolving, so quickly. I do get a little concerned when I see you know these small startups with no real business models. Because we do need businesses  that are able to sustain themselves and you know have models that allow them to you know companies accompany them, generate revenue and that will last. I've been in the health 2, 0 and health tech space for a long time now, and I just see too many companies start and fail.</p><p>So, you know spending time on a really good business model, figuring out how to take incremental steps towards solving problems instead of like trying to just leapfrog, now if you're, you know if you've just sold your startup and you've got money to burn. And that's great, go solve the biggest problems but not everybody has that opportunity. So, it's really about you know we would all love for the healthcare system to free all its data and for everything to flow and work perfectly together.</p><p>But it doesn't work that way, and I think you know the more companies that are taking bite-sized chunks out of it, towards moving us all towards that solution and then cooperating and collaborating between them. I think that's sort of the way that the thing the industry will go, will succeed.</p><p><strong>Harry Glorikian:</strong> Yeah, I think of it like when I know one person makes a scale the other one makes the blood pressure cuff in it. But they have API's that allow, so one app to sort of aggregate that data into one place. And so there seems to be a free flow of data if you're on the, keep yourself healthy side. It's once you cross over into the well you are sort of sick or in the healthcare system that everything gets locked down.</p><p><strong>Dr. Jason Bhan:</strong> Locked down and also, unfortunately the people who are sick and unhealthy are not the ones who are big consumers of the wearables and the scales and all of this. And that's really the challenge, when we get good at passive data collection, I think we will have a kind of a breakthrough on data on the on the sick population, not just the well population.</p><p><strong>Harry Glorikian:</strong> Well on that note, I want to thank you very much for joining today. Hope everybody listening enjoyed it and look forward to continuing the conversation in the future.</p><p><strong>Dr. Jason Bhan:</strong> Yeah great, thanks for the opportunity.</p><p><strong>Harry Glorikian:</strong> And that's it for this episode. I hope you enjoyed the insights and discussion. For more information, please feel free to go to<a href="http://www.gloryccamp.com/"> www.glorikian.com</a>. Hope you join us next time, until then farewell.</p><p>:</p><p>.</p><p> </p>
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      <itunes:title>Jason Bhan and How AI and Machine Learning Are Enabling Early Disease Detection</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
      <itunes:image href="https://image.simplecastcdn.com/images/860be4/860be4f0-f71b-4f07-a16c-af37f911285c/2ae6bfc6-f7ea-4da3-8438-74552401e8ae/3000x3000/1538434974-artwork.jpg?aid=rss_feed"/>
      <itunes:duration>00:31:23</itunes:duration>
      <itunes:summary>Jason Bhan, co-founder and chief medical officer of Prognos, joins Harry to talk about how machine learning is being used to dig into multi-sourced clinical diagnostic data to improve health by predicting disease early.</itunes:summary>
      <itunes:subtitle>Jason Bhan, co-founder and chief medical officer of Prognos, joins Harry to talk about how machine learning is being used to dig into multi-sourced clinical diagnostic data to improve health by predicting disease early.</itunes:subtitle>
      <itunes:keywords>ai, prognos, harry glorikian, jason bahn, machine learning, healthcare, health</itunes:keywords>
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      <title>Niven Narain and How AI and Machine Learning Are Changing Drug Discovery</title>
      <description><![CDATA[<p>Harry interviews Niven Narain, the co-founder, president and CEO of Berg, a Boston-based biopharma company driving the next generation of drugs and diagnostics by combining patient-driven biology and AI to unravel actionable disease insight. Narain has overseen development of Berg’s clinical stage assets and pipeline and forged strategic partnerships with industry academic and US and UK governments. He says Berg's philosophy is to combine a systems biology architecture with patients' demographic data and clinical outcome data, and then apply Bayesian artificial intelligence algorithms to drive better understanding of diseases.</p><p>To learn more visit <a href="https://glorikian.com/podcast/">glorikian.com/podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript </strong></p><p><strong>Harry Glorikian:</strong> Welcome to the Moneyball medicine podcast I'm your host Harry Glorikian. This series is all about the data-driven transformation of the healthcare and life sciences landscape. Each episode we dive deep through one-on-one interviews with leaders in the new cost-conscious value-based healthcare economy. We look at the challenges and opportunities they're facing and their predictions for the years to come.</p><p>Okay welcome to another edition of <a href="https://glorikian.com/moneyball-medicine-thriving-in-the-new-data-driven-healthcare-market/">Moneyball Medicine</a>. Today I have Niven Narayan who is co-founder president and CEO of Berg, a Boston-based biopharma company driving the next generation of drugs and Diagnostics by combining patient driven biology and artificial intelligence to unravel actionable disease insight. He has overseen development of Berg's clinical stage assets and pipeline and forged strategic partners with industry academia and US and UK government's.</p><p>Niven is most passionate about improving patient care and enabling increased access to innovative medicines to improve healthcare outcomes.</p><p>Niven welcome to Moneyball Medicine podcast, it's great to spend time together again.</p><p><strong>Niven Narain:</strong> It’s great to be on again, Harry, it's always good to catch up and I think it's such an important continuous dialogue you know given how quickly technology is moving in healthcare. So, again happy to be on.</p><p><strong>Harry Glorikian:</strong> I had the pleasure of learning about Berg and coming in and taking a look at your systems and being brought up to speed, on what you guys are doing during the writing of Moneyball Medicine. But since then you know and maybe for the people listening for the first time and who don't know the company. Can you tell me a little bit about you know this whole concept that you have of a artificial-intelligence, drug discovery model engine and where we were back what two plus years ago and where you are now?</p><p><strong>Niven Narain:</strong> Yes, sure you know, so the company was really founded on this the philosophy that we should at this point in developed and this is about ten years back. We took a good hard look of how could we use biology in a more fundamental sense to drive a greater understanding of diseases. But importantly how our disease is different than a healthy, an otherwise healthy individual or a healthy cell or a healthy tissue. And the approach that we took at that time was really to combine a systems biology architecture with a combination of a patient's demographic data, their clinical outcome data.</p><p>And then we wanted to look at a novel way of how do we analyze this data, because obviously this is in the late 2000s, you know early 2010's. And our decision at that point was to take an agnostic approach to not bias ourselves by what was known already, so looking for example that you know Jiwa studies and the to known or traditional pathways. And our approach is really to bring a new data topology and new data ecosystem together, where one could look at genes and proteins and demographics and a patient's, clinical story overall and then feed this data architecture into a Bayesian artificial intelligence system.</p><p>And this Bayesian AI system is really well positioned to analyze this type of data, because what we're trying to get at is not just a correlation. So, a lot of analytical methods look at how A is correlated to B, and how that correlation may you know may predict a greater depth of understanding. But what we're really after is, how do we understand the elements within a patient's biology to link a causal inference between a mutation of a certain gene or a dysregulated expression profile of a protein in a given pathway.</p><p>And then using that as a pivot to correlate that you know, wow this is what is it could be responsible for the onset of prostate cancer or Parkinson's disease or why certain individuals don't respond to a certain drug. So, this entire, you know this whole approach was really it was really novel at that time in the sense that, we were allowing the data to guide us to the hypotheses instead of you know the traditional sense of taking hypotheses and going through a lot of data generation processes.</p><p>So, since we've last had you know such a forum, two years ago. We've advanced significantly on our pancreatic cancer drug, which was then, we were still wrapping up our phase one solid tumor approach. And you know since then we've now embarked into a face to pancreatic trial, that trial is really a precision oncology trial. So, we were collecting tissues and samples and you know blood your own etc. on these patients, were able to build a biological profile on these patients. We're able then to map that profile against whether or not the patient has a response or not.</p><p>And that's really important because that then allows us to truly engage with patient stratification modules or so, as we go into late stage registration on pivotal trials, we would then be able to create you know protocols. Where we can engage companion diagnostics or engage the molecular profile analysis, before allowing a patient to come into the trial. So, it allows us to be more precise, allows for more predictive you know modeling in the drug development process. But you know something I care about it also allows us for patients who are at the end stage of their lives to for us to conduct more ethical clinical trials.</p><p>Because if we know that our drugs probably not going to work for that patient, it's in the best interest of both parties to not offer that patient that drug. So, in pancreatic cancer we've made significant strides both on the drug development and a diagnostic component. We've advanced a really exciting technology and epidermolysis bullosa where in the end stages of wrapping up of phase 1, trial down at the University of Miami and we're now in the planning stages of a phase 3 registration trial, in that indication which is a rare a childhood disease of the skin. It really creates a lot of blistering and postures and impaired wound healing.</p><p>So, an extremely deleterious disease to the skin and otherwise the psychosocial effects and kids, on that realm also for the psychosocial component we have a drug that's now in the phase 3 planning phases for chemotherapy induced alopecia. We've just wrapped up the trial, it early in a year at Cedars-Sinai and Memorial Sloan-Kettering that asset is, it really is gonna seek to fill an unmet need in cancer, we're for most almost 60% of chemo therapies induced alopecia which is hair loss. And that really gives a patient of stark awareness a stark, acute reminder that they have cancer.</p><p>They can feel it, they can see it and that's psychosocial component I think is so important. So, advancing this clinical asset into an enabling trial we're extremely excited about that. So, really you know late-stage plans for these three assets in pancreatic cancer, chemotherapy induced alopecia and EB. And then on the heels of the clinical development we then also have made, you know pretty significant progress on a pipeline. So, we have two more second-generation cancer drugs and development that are now marching towards IND-enabling trials.</p><p>We have a really exciting a novel drug target for lark to meet mutated Parkinson's disease, and we've now seen from a recent publication that came out of about a month ago that, some of these mutations may behave like the idiopathic kind in other parts of Parkinson's. So, the company has made strides you know clinically but also developmentally in the cancer and neurological diseases. And so really this platform which is interrogative biology has really helped to fuel and guide late stage developments in our clinical assets, reposition, I'm sorry reposition some of the known assets and then really fuel a de-novo pipeline of drugs.</p><p><strong>Harry Glorikian:</strong> Tell me with the platform and this approach of using artificial intelligence, and your Bayesian AI system basically, does it shorten the timeline? Does it identify new pathways; can you do it with a lower you know with that with lower number of people for lower cost? What are all the, why do it this way? What are the benefits of this?</p><p><strong>Niven Narain:</strong> Yeah, so if I I'll answer your question in a three-prong sense, Harry. One philosophically and scientifically, I think doing it this way allows us to not throw away the data that doesn't you know necessarily satisfy a statistical significance or alpha. I don't think disease you know cares about what satisfies statistical significance or traditional ways of looking at data. We only you know, we for the most part include the data that that satisfies this point of five significances. But there are lots of data and I think the point I'm trying to make is that disease is not very neat, it's very complex it's very messy.</p><p>And when you look at it from a mathematical in a statistical perspective we have to allow all of the correlations and all of the implications of that data to have a voice. And so this approach allows but you know by taking a Bayesian AI approach, which there are really no cut offs. There's no preconceived hypotheses to say well we're gonna just have a cut-off of 80% of the data or 60% of data, we feed all of the data into the system. Clinically it's important, because we're putting literally when you know big hot button term is patient-centric. What does that really mean you know how do you really define that?</p><p>And I think for Berg it's being a patient-centric by starting the process of drug development with human tissue samples. Learning as much as we can about the clinical records, learning as much as we can about the components of the biology within those samples, and allowing the math to give power give rise to that biology. So, he can teach us more about what's going on in the medicine. So, dynamically we learn about the disease much more fundamentally. Scientifically we take a much broader unbiased approach. Clinically we're allowing for more fundamental insight into what's going on into disease.</p><p>And then when you add on the business perspective of it you know because you're learning more about the disease and the patient profile that you're studying, you're probably gonna you know produce drugs that are much more predictive towards a given population. Which really is defining and exemplifying what precision medicine is from a pure business operational excellence perspective, we don't need a thousand people to discover a drug. We don't need five to seven years and the average 150 million according to the Demasi, you know the recent Demasi numbers.</p><p>We're able to really drive lean operationally efficient discovery programs, because it's very data heavy it's very technologically heavy and you know our scientist or our operators that are on every disease or every target. They're able to really dynamically interact with this data in a sense where, they can you know concede and touch it and feel it in a way that it allows that data to really come to life. So, we're able to of course spend a lot less money on a traditional discovery program. We are reducing the trial and error.</p><p>We're allowing the data to guide us to where we need to focus in on, and then very quickly the discovery teams you know work with development teams to determine what is the best platform, a development platform to put this and should it be, you know a protein base drugs, is it a biologic. Should we look at you know RNAI or CRISPR based technologies should we you know look at a small molecule screen very quickly. So, all of this is done in a modular sense very quickly and I think that's just been a huge advantage to how efficient predictive and cost-effective we can get from a pure concept to a validated drug target or a validated diagnostic.</p><p><strong>Harry Glorikian:</strong> So, if you were to put some sort of rough percentage increases or time savings or people savings. Like, what would you sort of give it a rough estimate of compared to the traditional model?</p><p><strong>Niven Narain:</strong> Yes, so I'm just gonna use really generic you know numbers and I'm gonna just use the VC model. So, the average series A, in the VC is you know from a VC back company from concept to proof a principle, you know let's say proof of principle to the IND, average is about 22 to 25 million, and that takes about two to three years. Berg is able to cut that in more than half and build a model from concept to a validated disease target or a validated you know diagnostic in about six to nine months. So, that's even more than 50% and that's just using a VC model as you know as a denominator or predicate.</p><p>Some may say that's an unfair model to use, if I can use an academic model which of course numbers are lower, but the time is longer. So, the two levers are time and cost if we use a Big Pharma model the infrastructure is bigger, the cost is being a because of a measure of that infrastructure that the cost is higher, but the time doesn't change that much. So, you know when you look at the lean and the rapidity of the lean nature of what we're doing in the rapidity to the validation. It's a stark contrast from what's or traditional senses and even with the advent of technologies over the past three to five years.</p><p>Because to our listeners you know some may say, well gee is hey you know biology has come a long way and it has the emerging technologies have enabled like CRISPR Cas9 and sort of enabled more rapidity and innovation. That's true but we still have to then validate all those models as a measure of what these validated phenotypes are, because at the end of the day these discoveries have to then go into a funnel and either creating an IND to do first in man trials, reposition an asset. Whether that's a phase two or phase three or a diagnostic asset, where we now have to go back into retrospective or clinical prospective trials to validate this this biomarker in a patient population.</p><p>So, the way that we're going to validate this is not changed, it's still the clinical trials. How do we either make the clinical trial more predictive more lean and effective, or how do we get as much information upfront? So, we know we're triaging the biology against the disease phenotype, the population against the outcome the proposed and desired disease outcome, and then the market size relative to my up for an investment in cost. So, it's you know I think these methodologies allow also, I think Harry you know one of the points I've appreciated over the past couple of years. It allows companies like Berg to go into diseases that are ultra-weir or rear with a higher degree of confidence you know knowing that, these methodologies allow us to get to a go or no-go decision much quicker.</p><p>So, in diseases like EB or other rare diseases that triage process allows us to study these types of diseases, where in other cases it's a you know the investment is a risk.</p><p><strong>Harry Glorikian:</strong> From what I'm hearing from you, do you believe that this sort of technology trend and I have seen many come and go over time this fundamental approach of utilizing machine learning and AI for drug discovery is going to be, how things are done in the future?</p><p><strong>Niven Narain:</strong> I think absolutely, I think what's gonna calibrate and position how AI machine learning is going to be used most effectively is outcome. Until we don't develop the first drug to be guided or the first drug to be developed with AI, either is a repositioned drug which is you know like our BPM three, one, five, one, zero or a de novo development that's just flat-out protein or a small molecule that has come out of a machine learning or an AI system. That then is the world's first pivot to development. Berg is if I'm not mistaken has validated the world's first clinical Diagnostics and in prostate cancer.</p><p>So, we worked with the Department of Defense to just you know literally from Ground Zero to take the health records and the biological records you know predicted. We have found some markers that show the separation between benign prostate hypertrophy and prostate cancer, you know less aggressive versus more aggressive prostate cancers. We validate this is now in retrospective prospective trials and over 1500 patients. So, this really shows that this process can work. I think that if we take a step back and think about the journey of the drug, the drug developer, the physician and the patient. How is this technology going to help each stakeholder, and what is the pathway to commercialization governed by? And it's governed by payers and regulators.</p><p>So, I have seen firsthand, I think all of us should be able to widely accept that the FDA are the regulatory agencies have made leaps and bounds of trying their best to try to understand these technologies keep up with them, engage workshops, engage these conversations to say, okay how did it really work. What changes do we have to make? What do we need to teach within the agency, there's new awareness of how we review a review process works? Scott got leave has just, he's amazed me, because he's a physician but he's I think he's demonstrated in a really short time that he's not gonna allow yesterday's biases to carry over into tomorrow's approval process. And the payers, payers are paying in making investments in technological companies to really try to figure out, okay if this is really true how do you help me make my process more efficient. Because right now approximately I'm spending about sixty to eighty percent of my reimbursement monies on approximately twenty percent of those who recovered. So, when you look at the pressure points within the system which the two pressure points and the levers are, how do we engage the regulators to help us get these products approved. Because if the products are not approved this is just a bunch of fancy science.</p><p>It sounds harsh, but it's true and if the payers are not gonna pay for it, then you can still get a drug or technology approved what's gonna be adoption and implementation. So, those two big levers have made such tremendous leaps and bounds in the past three years, that it allows folks like me folks like you know, companies like Berg's to really have a lens of hope that the investment in the technology and the investment in a time, the investment in these types of approaches. If you can create the right products that show that you're safe, it's safe, it's validated you have a process of showing that these diagnostics or these drugs really gonna create a step change.</p><p>Unlike five years ago Harry, if you remember the conversations at the conference's, there were whole sections of conferences that dealt with, well how is the FDA gonna look at it, how are regulators gonna look at it or payers gonna understand it. You don't see those tracks at conferences anymore, you see FDA representatives or representatives from pairs speak on panels, right next to CEOs, right next to leading scientists or clinicians. The conversation is here; I think the future is really exciting. I think we need to continuously educate each other. We need to, I don't think we're all speaking different languages anymore I think we've actually found a language of machine learning in AI.</p><p>I think what we really need to do is now you know bring together a lens in a concentration around how do, we all together advance these technologies as safely, as quickly as responsibly and ethically as possible. Because the next generation of healthcare is absolutely gonna be based on using mathematics, using machine learning analytical methods, artificial intelligence, virtual reality, augmented reality to you know to allow the patient story to be told in a way, that allows drug developers to create drugs that we can't even imagine today.</p><p><strong>Harry Glorikian:</strong> So, there I would say let me challenge you on that, so I'm not challenging the payer the regulator there's always struggling to keep up with everything that we're doing. But you know we're gonna create a new company using machine learning AI and so forth. The hardware is advancing at unprecedented rates, right. The software is improving every time you turn around. So, what do what do we need to do to? I mean totally different set of employees in my mind right and a hybrid, I need somebody who understands the biology.</p><p>And then I need somebody that can actually write the code, and then I need that upgradable on a regular basis. Because otherwise if NVIDIA is new chip is ten times more powerful than the last chipset, well the guy who comes after me leave me in the dust, because his processing capability is that much better that much faster. Now I know the fundamental data is what drives these systems, but you know I'm just where do we need to be what do we need to be doing from an implementation hiring perspective, capabilities perspective in your mind.</p><p>I remember when I interviewed you the last time, you said you know at one point we needed to go back and rewrite some of the stuff we were working on, because we got some new blood that came in and showed us a new way to look at it. So, how do you balance those things for companies that are coming up that want to be the next Berg?</p><p><strong>Niven Narain:</strong> I think you have to say, look we've made our very healthy share of mistakes along the way. It's not as you can imagine not been an easy road, in anything it's never an easy road but it's never an easy road when it's uncharted and innovative you know territory. So, if you just take I think the only analogy I can think of in my mind to, when you think of the future is you take a piece of paper and a pencil. And a piece of paper and a pencil, makes a note. Now you upgrade that and there's a typewriter, you upgrade a typewriter you got Microsoft Word.</p><p>You upgrade Microsoft Word, you have these technologies and machine learning that has a speech recognition capabilities. We've just gone through four platforms of simply writing and that's just simply writing, just putting a word down to a recording, a recorded piece of instrument. That instrument went from a paper to a typewriter, to a software to now an Augmented software, and but it empirically has changed and has been altered over time. Because it started out with the hands and the eyes and the brain. But then we added in the mouth at the end now and now with speech recognition is, it's using you know language in a different way.</p><p>It's combining more empirical components, that's exactly what we're doing in biology. Because we started out you know looking at you know an individual genes as we looked at gels, we looked at you know animal models, now there's AI and machine learning and how is it all gonna keep up is, I would submit to you in your challenge that it's not gonna be easy. But what I would also you know balance that recognition of that challenge is that, unlike where there were only a few companies you know who would create word processors, you know whether it was word or other processors.</p><p>There's so many companies did the critical mass of individuals and entities there to dealing with the issue is whether it's software hardware or education. And I should really emphasize the educational component because I think it was a nature commentary a few months back, where I said the PhD programs of the future they can't be just you know, I think the days of just getting a PhD in computer science or a PhD and molecular biology. The individuals we're gonna make the biggest change in the future, those individuals who really know math and biology or know CS and biology or know CS and medicine, but it's gonna be a hybrid system.</p><p>I agree it's gonna be biology plus or it's gonna be math plus, and that's really what the employee of the future is gonna be most successful. And I think that is gonna take, I mean I think we're aware of because we're having a conversation. So, that's people check the box on that.</p><p><strong>Harry Glorikian:</strong> I'm not sure it's everybody <strong>.</strong></p><p><strong>Niven Narain:</strong> That's fair, but the educational process has to change. I think you're seeing, I mean unfortunately right now it's you know I named kind of the same names, and they're really the leading institutions you know Stanford, Columbia, Oxford, Harvard you know Carnegie Mellon etc. There many others, but we still have not met that mass, you know critical educational sea change that is bringing together this hybrid, this fusion of Technology if you will. So, I think that's one extremely important component.</p><p>But having said that I don't think, it's we're out doing Moore's Law in so many ways we've outdone it in software, we're all doing it in hardware for sure. And I think on the educational component since the forums and platforms and the access entry points to education have been completely revolutionized. Because of things like the Khan Academy, because of it you know things like AI, you know some of the platforms that the Gates Foundation and others. And there are many others those are just you know some of the ones that come to mind very quickly, but you need not go to a classroom anymore to learn. You need not be a part of a formal community anymore to learn, you literally can learn off of a computer-based interchange.</p><p>Now the practical components of that have to be played out you know obviously within the community. But I think since that's changed so much Harry, uh the point of bringing this together the enhancements, the Corrections, the course changes or the course Corrections that are gonna be inevitable. I think it gonna happen much quicker in the next few years and they would have happened ten years ago. So I think, I'm a bit more hopeful that folks being able to learn from the mistakes, the mistakes you know frankly that the company is like Berg's made and others, which I think we need to be very transparent open and frank about things that we've done well, things we haven't done well.</p><p>You know I think one of the big mistakes we performed early on is we were so tunnel vision into the technology, that we didn't bring in some of the endpoint stakeholders. I think we brought him in a bit too late, if we had brought them in earlier like some senior members of the pharmacist societies, some you know you know doing a partnership with Pharma earlier. You know speaking to payers earlier, engaging folks like you know like Medicare or you know the NHS or you know providers help us really understand what really matters, how do we develop technology is in a much broader sense.</p><p>I think we would have potentially you know gotten there faster or had more robust data. But having said that it was a first you know we were doing things for the first time. And you know looking back on the ten years I think what's gonna help the next ten years, be more effective for our company and for many other companies and groups is that, we have to have these conversations and share -. It's so important to share what we all think is the right thing to do. It is gonna be even more important to share what we think is not the right thing to do or frankly just a wrong thing to do. And I think we have a moral responsibility to speak up more about that.</p><p>It's like you know people don't like to publish bad data. Well, we need to start to talk about bad processes or wrong processes, because it's just gonna help the community get there faster. And of course there's competitive intelligence and you know companies are competing against each other, but if you think that longview you're only helping yourself.  Because of you if the payers and the providers and the regulators, they get it more effectively and they get it in a less you know timeframe, it helps everyone that's charging for it in that same direction. It helps the entire community. So, I think that's the way we need to look at it.</p><p><strong>Harry Glorikian:</strong> Well, if you look at technology companies right, they come up with standards. All the AI research is being published by all the players and they're competing more on the data that they have that's proprietary to them, but not the algorithm not the code, that's really reducible. So, that's not the necessarily the protectable asset.</p><p><strong>Niven Narain:</strong> No, I think the algorithms are, I mean they're there many companies and groups who are just frankly using you know open source software, sharing their software you have great academic groups like Atul Butte, group at UCSF Eric Schadt at Mount Sinai, Andrea Califano, Chaz Boudreaux Oxford. They, I mean these guys literally share all their data and they're very open about how they do processes. And I think those are four names that I admire, because it's showing that, you know intellectual property is really important you know you know patents help to preserve your right for a defined period of time to sell a product.</p><p>And that's really important for commerce, but in order to move the needle significantly and create a sea change in innovation, I think there's a key difference between the innovations that's necessary to make big steps and big changes towards the scientific discoveries. Because that alone if everyone can share and get that part of it right, then now it’s incumbent on a company or a group to then innovate how do they create novel products that are protectable around that. And those are two really different layers of innovation, they oftentimes get lumped together and that's where a lot of issues and problems come out.</p><p>But if we can understand that you know this is really a multi-layered process of innovation, where it's like a pyramid and at the bottom, everyone's got to play well together and be open and be transparent. And that allows us all to be better and then out of that funnel of that initial baseline of innovation, now it's incumbent on individual groups to productized when you productize and of course you can have IP and patents around that. That's really important because otherwise where's the incentive and then the top layer above that is then the commercial and the reimbursement and the proliferation of the business models that actually have a repetitive and a sustainable model of revenue to fuel the ongoing second, third, fourth generation products of that initial innovation. And if we could think about it in those layers I think you know we can make a hell of a lot more progress.</p><p><strong>Harry</strong> <strong>Glorikian:</strong> So on that note, I want to thank you for joining me today on the podcast. And look forward to future interactions and hear more updates on Berg and where it's going and how you're changing outcomes for patients and driving technology forward. So, thank you very much for spending the time today.</p><p><strong>Niven Narain:</strong> Well, thank you Harry and I know in closing I just like to say, I think you've done a fantastic job of allowing the voices, you know multiple voices to be heard. Because I think that's really important, I know every time we talk or every time you make an introduction to someone else. I always get a different lens and that's really important for me as a scientist, as a CEO, as a human being. So, really I think your podcast and you know obviously your books that you put out and the narrative that you were helping to create within this industry for all of us.</p><p>I think is really unique, because you're touching CEOs, you're touching the senior academicians, you know pairs you know folks from government and you're bringing that conversation together. So, I think this is a really cool outlet to make us really think about what we're doing, so we can be better at it. So, thank you Harry.</p><p><strong>Harry Glorikian:</strong> Thank you very much. And that's it for this episode, hope you enjoyed the insights and discussion. For more information, please feel free to go to<a href="http://www.glorycamp.com/"> www.glorycamp.com</a>. Hope you join us next time, until then farewell.</p><p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p><ul><li>Launch the "Podcasts" app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at the top and type in "Podcasts." 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      <pubDate>Sat, 15 Sep 2018 20:06:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Harry interviews Niven Narain, the co-founder, president and CEO of Berg, a Boston-based biopharma company driving the next generation of drugs and diagnostics by combining patient-driven biology and AI to unravel actionable disease insight. Narain has overseen development of Berg’s clinical stage assets and pipeline and forged strategic partnerships with industry academic and US and UK governments. He says Berg's philosophy is to combine a systems biology architecture with patients' demographic data and clinical outcome data, and then apply Bayesian artificial intelligence algorithms to drive better understanding of diseases.</p><p>To learn more visit <a href="https://glorikian.com/podcast/">glorikian.com/podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p><p><strong>Transcript </strong></p><p><strong>Harry Glorikian:</strong> Welcome to the Moneyball medicine podcast I'm your host Harry Glorikian. This series is all about the data-driven transformation of the healthcare and life sciences landscape. Each episode we dive deep through one-on-one interviews with leaders in the new cost-conscious value-based healthcare economy. We look at the challenges and opportunities they're facing and their predictions for the years to come.</p><p>Okay welcome to another edition of <a href="https://glorikian.com/moneyball-medicine-thriving-in-the-new-data-driven-healthcare-market/">Moneyball Medicine</a>. Today I have Niven Narayan who is co-founder president and CEO of Berg, a Boston-based biopharma company driving the next generation of drugs and Diagnostics by combining patient driven biology and artificial intelligence to unravel actionable disease insight. He has overseen development of Berg's clinical stage assets and pipeline and forged strategic partners with industry academia and US and UK government's.</p><p>Niven is most passionate about improving patient care and enabling increased access to innovative medicines to improve healthcare outcomes.</p><p>Niven welcome to Moneyball Medicine podcast, it's great to spend time together again.</p><p><strong>Niven Narain:</strong> It’s great to be on again, Harry, it's always good to catch up and I think it's such an important continuous dialogue you know given how quickly technology is moving in healthcare. So, again happy to be on.</p><p><strong>Harry Glorikian:</strong> I had the pleasure of learning about Berg and coming in and taking a look at your systems and being brought up to speed, on what you guys are doing during the writing of Moneyball Medicine. But since then you know and maybe for the people listening for the first time and who don't know the company. Can you tell me a little bit about you know this whole concept that you have of a artificial-intelligence, drug discovery model engine and where we were back what two plus years ago and where you are now?</p><p><strong>Niven Narain:</strong> Yes, sure you know, so the company was really founded on this the philosophy that we should at this point in developed and this is about ten years back. We took a good hard look of how could we use biology in a more fundamental sense to drive a greater understanding of diseases. But importantly how our disease is different than a healthy, an otherwise healthy individual or a healthy cell or a healthy tissue. And the approach that we took at that time was really to combine a systems biology architecture with a combination of a patient's demographic data, their clinical outcome data.</p><p>And then we wanted to look at a novel way of how do we analyze this data, because obviously this is in the late 2000s, you know early 2010's. And our decision at that point was to take an agnostic approach to not bias ourselves by what was known already, so looking for example that you know Jiwa studies and the to known or traditional pathways. And our approach is really to bring a new data topology and new data ecosystem together, where one could look at genes and proteins and demographics and a patient's, clinical story overall and then feed this data architecture into a Bayesian artificial intelligence system.</p><p>And this Bayesian AI system is really well positioned to analyze this type of data, because what we're trying to get at is not just a correlation. So, a lot of analytical methods look at how A is correlated to B, and how that correlation may you know may predict a greater depth of understanding. But what we're really after is, how do we understand the elements within a patient's biology to link a causal inference between a mutation of a certain gene or a dysregulated expression profile of a protein in a given pathway.</p><p>And then using that as a pivot to correlate that you know, wow this is what is it could be responsible for the onset of prostate cancer or Parkinson's disease or why certain individuals don't respond to a certain drug. So, this entire, you know this whole approach was really it was really novel at that time in the sense that, we were allowing the data to guide us to the hypotheses instead of you know the traditional sense of taking hypotheses and going through a lot of data generation processes.</p><p>So, since we've last had you know such a forum, two years ago. We've advanced significantly on our pancreatic cancer drug, which was then, we were still wrapping up our phase one solid tumor approach. And you know since then we've now embarked into a face to pancreatic trial, that trial is really a precision oncology trial. So, we were collecting tissues and samples and you know blood your own etc. on these patients, were able to build a biological profile on these patients. We're able then to map that profile against whether or not the patient has a response or not.</p><p>And that's really important because that then allows us to truly engage with patient stratification modules or so, as we go into late stage registration on pivotal trials, we would then be able to create you know protocols. Where we can engage companion diagnostics or engage the molecular profile analysis, before allowing a patient to come into the trial. So, it allows us to be more precise, allows for more predictive you know modeling in the drug development process. But you know something I care about it also allows us for patients who are at the end stage of their lives to for us to conduct more ethical clinical trials.</p><p>Because if we know that our drugs probably not going to work for that patient, it's in the best interest of both parties to not offer that patient that drug. So, in pancreatic cancer we've made significant strides both on the drug development and a diagnostic component. We've advanced a really exciting technology and epidermolysis bullosa where in the end stages of wrapping up of phase 1, trial down at the University of Miami and we're now in the planning stages of a phase 3 registration trial, in that indication which is a rare a childhood disease of the skin. It really creates a lot of blistering and postures and impaired wound healing.</p><p>So, an extremely deleterious disease to the skin and otherwise the psychosocial effects and kids, on that realm also for the psychosocial component we have a drug that's now in the phase 3 planning phases for chemotherapy induced alopecia. We've just wrapped up the trial, it early in a year at Cedars-Sinai and Memorial Sloan-Kettering that asset is, it really is gonna seek to fill an unmet need in cancer, we're for most almost 60% of chemo therapies induced alopecia which is hair loss. And that really gives a patient of stark awareness a stark, acute reminder that they have cancer.</p><p>They can feel it, they can see it and that's psychosocial component I think is so important. So, advancing this clinical asset into an enabling trial we're extremely excited about that. So, really you know late-stage plans for these three assets in pancreatic cancer, chemotherapy induced alopecia and EB. And then on the heels of the clinical development we then also have made, you know pretty significant progress on a pipeline. So, we have two more second-generation cancer drugs and development that are now marching towards IND-enabling trials.</p><p>We have a really exciting a novel drug target for lark to meet mutated Parkinson's disease, and we've now seen from a recent publication that came out of about a month ago that, some of these mutations may behave like the idiopathic kind in other parts of Parkinson's. So, the company has made strides you know clinically but also developmentally in the cancer and neurological diseases. And so really this platform which is interrogative biology has really helped to fuel and guide late stage developments in our clinical assets, reposition, I'm sorry reposition some of the known assets and then really fuel a de-novo pipeline of drugs.</p><p><strong>Harry Glorikian:</strong> Tell me with the platform and this approach of using artificial intelligence, and your Bayesian AI system basically, does it shorten the timeline? Does it identify new pathways; can you do it with a lower you know with that with lower number of people for lower cost? What are all the, why do it this way? What are the benefits of this?</p><p><strong>Niven Narain:</strong> Yeah, so if I I'll answer your question in a three-prong sense, Harry. One philosophically and scientifically, I think doing it this way allows us to not throw away the data that doesn't you know necessarily satisfy a statistical significance or alpha. I don't think disease you know cares about what satisfies statistical significance or traditional ways of looking at data. We only you know, we for the most part include the data that that satisfies this point of five significances. But there are lots of data and I think the point I'm trying to make is that disease is not very neat, it's very complex it's very messy.</p><p>And when you look at it from a mathematical in a statistical perspective we have to allow all of the correlations and all of the implications of that data to have a voice. And so this approach allows but you know by taking a Bayesian AI approach, which there are really no cut offs. There's no preconceived hypotheses to say well we're gonna just have a cut-off of 80% of the data or 60% of data, we feed all of the data into the system. Clinically it's important, because we're putting literally when you know big hot button term is patient-centric. What does that really mean you know how do you really define that?</p><p>And I think for Berg it's being a patient-centric by starting the process of drug development with human tissue samples. Learning as much as we can about the clinical records, learning as much as we can about the components of the biology within those samples, and allowing the math to give power give rise to that biology. So, he can teach us more about what's going on in the medicine. So, dynamically we learn about the disease much more fundamentally. Scientifically we take a much broader unbiased approach. Clinically we're allowing for more fundamental insight into what's going on into disease.</p><p>And then when you add on the business perspective of it you know because you're learning more about the disease and the patient profile that you're studying, you're probably gonna you know produce drugs that are much more predictive towards a given population. Which really is defining and exemplifying what precision medicine is from a pure business operational excellence perspective, we don't need a thousand people to discover a drug. We don't need five to seven years and the average 150 million according to the Demasi, you know the recent Demasi numbers.</p><p>We're able to really drive lean operationally efficient discovery programs, because it's very data heavy it's very technologically heavy and you know our scientist or our operators that are on every disease or every target. They're able to really dynamically interact with this data in a sense where, they can you know concede and touch it and feel it in a way that it allows that data to really come to life. So, we're able to of course spend a lot less money on a traditional discovery program. We are reducing the trial and error.</p><p>We're allowing the data to guide us to where we need to focus in on, and then very quickly the discovery teams you know work with development teams to determine what is the best platform, a development platform to put this and should it be, you know a protein base drugs, is it a biologic. Should we look at you know RNAI or CRISPR based technologies should we you know look at a small molecule screen very quickly. So, all of this is done in a modular sense very quickly and I think that's just been a huge advantage to how efficient predictive and cost-effective we can get from a pure concept to a validated drug target or a validated diagnostic.</p><p><strong>Harry Glorikian:</strong> So, if you were to put some sort of rough percentage increases or time savings or people savings. Like, what would you sort of give it a rough estimate of compared to the traditional model?</p><p><strong>Niven Narain:</strong> Yes, so I'm just gonna use really generic you know numbers and I'm gonna just use the VC model. So, the average series A, in the VC is you know from a VC back company from concept to proof a principle, you know let's say proof of principle to the IND, average is about 22 to 25 million, and that takes about two to three years. Berg is able to cut that in more than half and build a model from concept to a validated disease target or a validated you know diagnostic in about six to nine months. So, that's even more than 50% and that's just using a VC model as you know as a denominator or predicate.</p><p>Some may say that's an unfair model to use, if I can use an academic model which of course numbers are lower, but the time is longer. So, the two levers are time and cost if we use a Big Pharma model the infrastructure is bigger, the cost is being a because of a measure of that infrastructure that the cost is higher, but the time doesn't change that much. So, you know when you look at the lean and the rapidity of the lean nature of what we're doing in the rapidity to the validation. It's a stark contrast from what's or traditional senses and even with the advent of technologies over the past three to five years.</p><p>Because to our listeners you know some may say, well gee is hey you know biology has come a long way and it has the emerging technologies have enabled like CRISPR Cas9 and sort of enabled more rapidity and innovation. That's true but we still have to then validate all those models as a measure of what these validated phenotypes are, because at the end of the day these discoveries have to then go into a funnel and either creating an IND to do first in man trials, reposition an asset. Whether that's a phase two or phase three or a diagnostic asset, where we now have to go back into retrospective or clinical prospective trials to validate this this biomarker in a patient population.</p><p>So, the way that we're going to validate this is not changed, it's still the clinical trials. How do we either make the clinical trial more predictive more lean and effective, or how do we get as much information upfront? So, we know we're triaging the biology against the disease phenotype, the population against the outcome the proposed and desired disease outcome, and then the market size relative to my up for an investment in cost. So, it's you know I think these methodologies allow also, I think Harry you know one of the points I've appreciated over the past couple of years. It allows companies like Berg to go into diseases that are ultra-weir or rear with a higher degree of confidence you know knowing that, these methodologies allow us to get to a go or no-go decision much quicker.</p><p>So, in diseases like EB or other rare diseases that triage process allows us to study these types of diseases, where in other cases it's a you know the investment is a risk.</p><p><strong>Harry Glorikian:</strong> From what I'm hearing from you, do you believe that this sort of technology trend and I have seen many come and go over time this fundamental approach of utilizing machine learning and AI for drug discovery is going to be, how things are done in the future?</p><p><strong>Niven Narain:</strong> I think absolutely, I think what's gonna calibrate and position how AI machine learning is going to be used most effectively is outcome. Until we don't develop the first drug to be guided or the first drug to be developed with AI, either is a repositioned drug which is you know like our BPM three, one, five, one, zero or a de novo development that's just flat-out protein or a small molecule that has come out of a machine learning or an AI system. That then is the world's first pivot to development. Berg is if I'm not mistaken has validated the world's first clinical Diagnostics and in prostate cancer.</p><p>So, we worked with the Department of Defense to just you know literally from Ground Zero to take the health records and the biological records you know predicted. We have found some markers that show the separation between benign prostate hypertrophy and prostate cancer, you know less aggressive versus more aggressive prostate cancers. We validate this is now in retrospective prospective trials and over 1500 patients. So, this really shows that this process can work. I think that if we take a step back and think about the journey of the drug, the drug developer, the physician and the patient. How is this technology going to help each stakeholder, and what is the pathway to commercialization governed by? And it's governed by payers and regulators.</p><p>So, I have seen firsthand, I think all of us should be able to widely accept that the FDA are the regulatory agencies have made leaps and bounds of trying their best to try to understand these technologies keep up with them, engage workshops, engage these conversations to say, okay how did it really work. What changes do we have to make? What do we need to teach within the agency, there's new awareness of how we review a review process works? Scott got leave has just, he's amazed me, because he's a physician but he's I think he's demonstrated in a really short time that he's not gonna allow yesterday's biases to carry over into tomorrow's approval process. And the payers, payers are paying in making investments in technological companies to really try to figure out, okay if this is really true how do you help me make my process more efficient. Because right now approximately I'm spending about sixty to eighty percent of my reimbursement monies on approximately twenty percent of those who recovered. So, when you look at the pressure points within the system which the two pressure points and the levers are, how do we engage the regulators to help us get these products approved. Because if the products are not approved this is just a bunch of fancy science.</p><p>It sounds harsh, but it's true and if the payers are not gonna pay for it, then you can still get a drug or technology approved what's gonna be adoption and implementation. So, those two big levers have made such tremendous leaps and bounds in the past three years, that it allows folks like me folks like you know, companies like Berg's to really have a lens of hope that the investment in the technology and the investment in a time, the investment in these types of approaches. If you can create the right products that show that you're safe, it's safe, it's validated you have a process of showing that these diagnostics or these drugs really gonna create a step change.</p><p>Unlike five years ago Harry, if you remember the conversations at the conference's, there were whole sections of conferences that dealt with, well how is the FDA gonna look at it, how are regulators gonna look at it or payers gonna understand it. You don't see those tracks at conferences anymore, you see FDA representatives or representatives from pairs speak on panels, right next to CEOs, right next to leading scientists or clinicians. The conversation is here; I think the future is really exciting. I think we need to continuously educate each other. We need to, I don't think we're all speaking different languages anymore I think we've actually found a language of machine learning in AI.</p><p>I think what we really need to do is now you know bring together a lens in a concentration around how do, we all together advance these technologies as safely, as quickly as responsibly and ethically as possible. Because the next generation of healthcare is absolutely gonna be based on using mathematics, using machine learning analytical methods, artificial intelligence, virtual reality, augmented reality to you know to allow the patient story to be told in a way, that allows drug developers to create drugs that we can't even imagine today.</p><p><strong>Harry Glorikian:</strong> So, there I would say let me challenge you on that, so I'm not challenging the payer the regulator there's always struggling to keep up with everything that we're doing. But you know we're gonna create a new company using machine learning AI and so forth. The hardware is advancing at unprecedented rates, right. The software is improving every time you turn around. So, what do what do we need to do to? I mean totally different set of employees in my mind right and a hybrid, I need somebody who understands the biology.</p><p>And then I need somebody that can actually write the code, and then I need that upgradable on a regular basis. Because otherwise if NVIDIA is new chip is ten times more powerful than the last chipset, well the guy who comes after me leave me in the dust, because his processing capability is that much better that much faster. Now I know the fundamental data is what drives these systems, but you know I'm just where do we need to be what do we need to be doing from an implementation hiring perspective, capabilities perspective in your mind.</p><p>I remember when I interviewed you the last time, you said you know at one point we needed to go back and rewrite some of the stuff we were working on, because we got some new blood that came in and showed us a new way to look at it. So, how do you balance those things for companies that are coming up that want to be the next Berg?</p><p><strong>Niven Narain:</strong> I think you have to say, look we've made our very healthy share of mistakes along the way. It's not as you can imagine not been an easy road, in anything it's never an easy road but it's never an easy road when it's uncharted and innovative you know territory. So, if you just take I think the only analogy I can think of in my mind to, when you think of the future is you take a piece of paper and a pencil. And a piece of paper and a pencil, makes a note. Now you upgrade that and there's a typewriter, you upgrade a typewriter you got Microsoft Word.</p><p>You upgrade Microsoft Word, you have these technologies and machine learning that has a speech recognition capabilities. We've just gone through four platforms of simply writing and that's just simply writing, just putting a word down to a recording, a recorded piece of instrument. That instrument went from a paper to a typewriter, to a software to now an Augmented software, and but it empirically has changed and has been altered over time. Because it started out with the hands and the eyes and the brain. But then we added in the mouth at the end now and now with speech recognition is, it's using you know language in a different way.</p><p>It's combining more empirical components, that's exactly what we're doing in biology. Because we started out you know looking at you know an individual genes as we looked at gels, we looked at you know animal models, now there's AI and machine learning and how is it all gonna keep up is, I would submit to you in your challenge that it's not gonna be easy. But what I would also you know balance that recognition of that challenge is that, unlike where there were only a few companies you know who would create word processors, you know whether it was word or other processors.</p><p>There's so many companies did the critical mass of individuals and entities there to dealing with the issue is whether it's software hardware or education. And I should really emphasize the educational component because I think it was a nature commentary a few months back, where I said the PhD programs of the future they can't be just you know, I think the days of just getting a PhD in computer science or a PhD and molecular biology. The individuals we're gonna make the biggest change in the future, those individuals who really know math and biology or know CS and biology or know CS and medicine, but it's gonna be a hybrid system.</p><p>I agree it's gonna be biology plus or it's gonna be math plus, and that's really what the employee of the future is gonna be most successful. And I think that is gonna take, I mean I think we're aware of because we're having a conversation. So, that's people check the box on that.</p><p><strong>Harry Glorikian:</strong> I'm not sure it's everybody <strong>.</strong></p><p><strong>Niven Narain:</strong> That's fair, but the educational process has to change. I think you're seeing, I mean unfortunately right now it's you know I named kind of the same names, and they're really the leading institutions you know Stanford, Columbia, Oxford, Harvard you know Carnegie Mellon etc. There many others, but we still have not met that mass, you know critical educational sea change that is bringing together this hybrid, this fusion of Technology if you will. So, I think that's one extremely important component.</p><p>But having said that I don't think, it's we're out doing Moore's Law in so many ways we've outdone it in software, we're all doing it in hardware for sure. And I think on the educational component since the forums and platforms and the access entry points to education have been completely revolutionized. Because of things like the Khan Academy, because of it you know things like AI, you know some of the platforms that the Gates Foundation and others. And there are many others those are just you know some of the ones that come to mind very quickly, but you need not go to a classroom anymore to learn. You need not be a part of a formal community anymore to learn, you literally can learn off of a computer-based interchange.</p><p>Now the practical components of that have to be played out you know obviously within the community. But I think since that's changed so much Harry, uh the point of bringing this together the enhancements, the Corrections, the course changes or the course Corrections that are gonna be inevitable. I think it gonna happen much quicker in the next few years and they would have happened ten years ago. So I think, I'm a bit more hopeful that folks being able to learn from the mistakes, the mistakes you know frankly that the company is like Berg's made and others, which I think we need to be very transparent open and frank about things that we've done well, things we haven't done well.</p><p>You know I think one of the big mistakes we performed early on is we were so tunnel vision into the technology, that we didn't bring in some of the endpoint stakeholders. I think we brought him in a bit too late, if we had brought them in earlier like some senior members of the pharmacist societies, some you know you know doing a partnership with Pharma earlier. You know speaking to payers earlier, engaging folks like you know like Medicare or you know the NHS or you know providers help us really understand what really matters, how do we develop technology is in a much broader sense.</p><p>I think we would have potentially you know gotten there faster or had more robust data. But having said that it was a first you know we were doing things for the first time. And you know looking back on the ten years I think what's gonna help the next ten years, be more effective for our company and for many other companies and groups is that, we have to have these conversations and share -. It's so important to share what we all think is the right thing to do. It is gonna be even more important to share what we think is not the right thing to do or frankly just a wrong thing to do. And I think we have a moral responsibility to speak up more about that.</p><p>It's like you know people don't like to publish bad data. Well, we need to start to talk about bad processes or wrong processes, because it's just gonna help the community get there faster. And of course there's competitive intelligence and you know companies are competing against each other, but if you think that longview you're only helping yourself.  Because of you if the payers and the providers and the regulators, they get it more effectively and they get it in a less you know timeframe, it helps everyone that's charging for it in that same direction. It helps the entire community. So, I think that's the way we need to look at it.</p><p><strong>Harry Glorikian:</strong> Well, if you look at technology companies right, they come up with standards. All the AI research is being published by all the players and they're competing more on the data that they have that's proprietary to them, but not the algorithm not the code, that's really reducible. So, that's not the necessarily the protectable asset.</p><p><strong>Niven Narain:</strong> No, I think the algorithms are, I mean they're there many companies and groups who are just frankly using you know open source software, sharing their software you have great academic groups like Atul Butte, group at UCSF Eric Schadt at Mount Sinai, Andrea Califano, Chaz Boudreaux Oxford. They, I mean these guys literally share all their data and they're very open about how they do processes. And I think those are four names that I admire, because it's showing that, you know intellectual property is really important you know you know patents help to preserve your right for a defined period of time to sell a product.</p><p>And that's really important for commerce, but in order to move the needle significantly and create a sea change in innovation, I think there's a key difference between the innovations that's necessary to make big steps and big changes towards the scientific discoveries. Because that alone if everyone can share and get that part of it right, then now it’s incumbent on a company or a group to then innovate how do they create novel products that are protectable around that. And those are two really different layers of innovation, they oftentimes get lumped together and that's where a lot of issues and problems come out.</p><p>But if we can understand that you know this is really a multi-layered process of innovation, where it's like a pyramid and at the bottom, everyone's got to play well together and be open and be transparent. And that allows us all to be better and then out of that funnel of that initial baseline of innovation, now it's incumbent on individual groups to productized when you productize and of course you can have IP and patents around that. That's really important because otherwise where's the incentive and then the top layer above that is then the commercial and the reimbursement and the proliferation of the business models that actually have a repetitive and a sustainable model of revenue to fuel the ongoing second, third, fourth generation products of that initial innovation. And if we could think about it in those layers I think you know we can make a hell of a lot more progress.</p><p><strong>Harry</strong> <strong>Glorikian:</strong> So on that note, I want to thank you for joining me today on the podcast. And look forward to future interactions and hear more updates on Berg and where it's going and how you're changing outcomes for patients and driving technology forward. So, thank you very much for spending the time today.</p><p><strong>Niven Narain:</strong> Well, thank you Harry and I know in closing I just like to say, I think you've done a fantastic job of allowing the voices, you know multiple voices to be heard. Because I think that's really important, I know every time we talk or every time you make an introduction to someone else. I always get a different lens and that's really important for me as a scientist, as a CEO, as a human being. So, really I think your podcast and you know obviously your books that you put out and the narrative that you were helping to create within this industry for all of us.</p><p>I think is really unique, because you're touching CEOs, you're touching the senior academicians, you know pairs you know folks from government and you're bringing that conversation together. So, I think this is a really cool outlet to make us really think about what we're doing, so we can be better at it. So, thank you Harry.</p><p><strong>Harry Glorikian:</strong> Thank you very much. And that's it for this episode, hope you enjoyed the insights and discussion. For more information, please feel free to go to<a href="http://www.glorycamp.com/"> www.glorycamp.com</a>. Hope you join us next time, until then farewell.</p><p>How to rate MoneyBall Medicine on iTunes with an iPhone, iPad, or iPod touch:</p><ul><li>Launch the "Podcasts" app on your device. If you can't find this app, swipe all the way to the left on your home screen until you're on the Search page. Tap the search field at the top and type in "Podcasts." Apple's Podcasts app should show up in the search results.</li><li>Tap the Podcasts app icon, and after it opens, tap the Search field at the top, or the little magnifying glass icon in the lower right corner.</li><li>Type MoneyBall Medicine into the search field and press the Search button.</li><li>In the search results, click on the MoneyBall Medicine logo.</li><li>On the next page, scroll down until you see the Ratings & Reviews section. Below that you'll see five purple stars.</li><li>Tap the stars to rate the show.</li><li>Scroll down a little farther. You'll see a purple link saying "Write a Review."</li><li>On the next screen, you'll see the stars again. You can tap them to leave a rating, if you haven't already.</li><li>In the Title field, type a summary for your review.</li><li>In the Review field, type your review.</li><li>When you're finished, click Send.</li><li>That's it, you're don</li></ul>
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      <itunes:title>Niven Narain and How AI and Machine Learning Are Changing Drug Discovery</itunes:title>
      <itunes:author>Harry Glorikian</itunes:author>
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      <itunes:duration>00:39:27</itunes:duration>
      <itunes:summary>Harry interviews Niven Narain, the co-founder, president and CEO of Berg, a Boston-based biopharma company driving the next generation of drugs and diagnostics by combining patient-driven biology and AI to unravel actionable disease insight. Narain has overseen development of Berg’s clinical stage assets and pipeline and forged strategic partnerships with industry academic and US and UK governments. He says Berg&apos;s philosophy is to combine a systems biology architecture with patients&apos; demographic data and clinical outcome data, and then apply Bayesian artificial intelligence algorithms to drive better understanding of diseases.</itunes:summary>
      <itunes:subtitle>Harry interviews Niven Narain, the co-founder, president and CEO of Berg, a Boston-based biopharma company driving the next generation of drugs and diagnostics by combining patient-driven biology and AI to unravel actionable disease insight. Narain has overseen development of Berg’s clinical stage assets and pipeline and forged strategic partnerships with industry academic and US and UK governments. He says Berg&apos;s philosophy is to combine a systems biology architecture with patients&apos; demographic data and clinical outcome data, and then apply Bayesian artificial intelligence algorithms to drive better understanding of diseases.</itunes:subtitle>
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      <title>Glenn Steele and How Analytics are Changing Healthcare</title>
      <description><![CDATA[<p>Host Harry Glorikian talks with Dr. Glenn Steele, chairman of G. Steele Health Solutions, which helps healthcare organizations improve quality, and vice chairman of the Health Transformation Alliance, a cooperative of self-insured employers. Dr. Steele is the former chairman of XG Health Solutions and former president and CEO of Geisinger Health Systems, and he shares his views on how data and analytics are changing every aspect of healthcare.</p><p>To learn more visit <a href="https://glorikian.com/podcast/">glorikian.com/podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
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      <pubDate>Tue, 11 Sep 2018 15:30:00 +0000</pubDate>
      <author>glorikian@me.com (Harry Glorikian)</author>
      <link>http://www.glorikian.com</link>
      <content:encoded><![CDATA[<p>Host Harry Glorikian talks with Dr. Glenn Steele, chairman of G. Steele Health Solutions, which helps healthcare organizations improve quality, and vice chairman of the Health Transformation Alliance, a cooperative of self-insured employers. Dr. Steele is the former chairman of XG Health Solutions and former president and CEO of Geisinger Health Systems, and he shares his views on how data and analytics are changing every aspect of healthcare.</p><p>To learn more visit <a href="https://glorikian.com/podcast/">glorikian.com/podcast/</a></p><p><strong>Please rate and review </strong><a href="https://podcasts.apple.com/us/podcast/the-harry-glorikian-show/id1435939790"><strong>The Harry Glorikian Show on Apple Podcasts</strong></a><strong>! </strong>Here's how to do that from an iPhone, iPad, or iPod touch:</p><p><strong>1. </strong>Open the Podcasts app on your iPhone, iPad, or Mac.</p><p><strong>2. </strong>Navigate to The Harry Glorikian Show podcast. You can find it by searching for it or selecting it from your library. Just note that you'll have to go to the series page which shows all the episodes, not just the page for a single episode.</p><p><strong>3. </strong>Scroll down to find the subhead titled "Ratings & Reviews."</p><p><strong>4. </strong>Under one of the highlighted reviews, select "Write a Review."</p><p><strong>5. </strong>Next, select a star rating at the top — you have the option of choosing between one and five stars.</p><p><strong>6. </strong>Using the text box at the top, write a title for your review. Then, in the lower text box, write your review. Your review can be up to 300 words long.</p><p><strong>7. </strong>Once you've finished, select "Send" or "Save" in the top-right corner.</p><p><strong>8. </strong>If you've never left a podcast review before, enter a nickname. Your nickname will be displayed next to any reviews you leave from here on out.</p><p><strong>9. </strong>After selecting a nickname, tap OK. Your review may not be immediately visible.</p><p>That's it! Thanks so much.</p>
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      <itunes:duration>00:39:41</itunes:duration>
      <itunes:summary>Host Harry Glorikian talks with Dr. Glenn Steele, chairman of G. Steele Health Solutions, which helps healthcare organizations improve quality, and vice chairman of the Health Transformation Alliance, a cooperative of self-insured employers. Dr. Steele is the former chairman of XG Health Solutions and former president and CEO of Geisinger Health Systems, and he shares his views on how data and analytics are changing every aspect of healthcare.</itunes:summary>
      <itunes:subtitle>Host Harry Glorikian talks with Dr. Glenn Steele, chairman of G. Steele Health Solutions, which helps healthcare organizations improve quality, and vice chairman of the Health Transformation Alliance, a cooperative of self-insured employers. Dr. Steele is the former chairman of XG Health Solutions and former president and CEO of Geisinger Health Systems, and he shares his views on how data and analytics are changing every aspect of healthcare.</itunes:subtitle>
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