Presentation at the Artid workshop, U. Bristol, March 2024, on digital biomarkers for improved clinical trials and monitoring of complex diseases, including neurological & movement disorders.
This document discusses patient generated data (PGD) and how mobile health (mHealth) technologies can be used to capture it. PGD includes data recorded by patients about their health symptoms, medication adherence, biometric data from wearables, and patient reported outcomes. The document outlines how PGD can help with clinical trials and care by providing more comprehensive real-world data. Challenges with PGD like data quality, privacy and regulatory issues are discussed. The document provides examples of how the Aparito platform captures different types of PGD through mobile apps and connected devices to improve disease understanding and drug development.
From Diagnosis to Delivery: How AI is Revolutionizing the Patient ExperienceAggregage
油
In this webinar led by Simran Kaur, we will explore how AI-driven solutions are enhancing patient communication, improving care quality, and empowering preventive and predictive medicine. You'll also learn how AI is streamlining healthcare processes, helping providers offer more efficient, personalized care and enabling faster, data-driven decision-making!
Big data has the potential to improve healthcare in several ways:
1) It is currently being used for predictive modeling, intelligent staffing, real-time alerts, and telemedicine.
2) In the future, it could help with outcome research, local quality improvement, developing disease models, and improving treatment pathways.
3) If hospitals collaborate and share big data, it may help with tasks like image recognition, risk stratification, disease prognosis, clinical event prediction, and defining new diagnostic and treatment strategies.
Presented at the Expert Panel Discussion: The Future of Telehealth Technology at National Telehealth Conference, 10 Oct 2017, Cincinnati: http://www.nationaltelehealthconference.com
This is an abridged version of an invited talk: https://youtu.be/wDi1mLLyxuc
This document discusses the feasibility and challenges of deploying a remote patient monitoring and tele-healthcare system. It proposes developing a system using sensors connected to cloud servers to remotely collect patient health data in real-time. The document outlines plans to test the system by deploying it across multiple hospitals, clinics, urban and rural locations with volunteer patients and health workers. Data collected would then be analyzed to understand effectiveness across patient groups, locations, and diseases to improve the system for remote patient care. The conclusion is that with further testing and support, such a system has potential to improve healthcare access.
The post-pandemic clinical trial landscape has paved way for the integration of technology, data analytics, and digitization to facilitate all aspects of trial management from patient identification and recruitment to data collection and statistical analysis
Healthcare is undergoing a technological transformation, and it is imperative for the industry to leverage new technologies to generate, collect, and track novel data. Panel chaired by Ralf Reilmann of the George Huntington Institut, Muenster.
Enhancing Patient Safety in Digital Therapeutics: AI- Driven ApproachesClinosolIndia
油
Enhancing patient safety in digital therapeutics through AI-driven approaches involves leveraging artificial intelligence to ensure the effectiveness, accuracy, and security of digital health solutions. Here are some key strategies and benefits
Georgetown Innovation Center for Biomedical Informatics Symposium Precision ...Warren Kibbe
油
The document discusses opportunities and challenges with precision oncology and big data. It describes how big data from sources like mobile devices, social media, next generation sequencing, imaging, and electronic health records can be leveraged. Key challenges include needing synoptic and semantic EHR data to support precision medicine, and handling and analyzing large amounts of patient-derived data from various sources. Examples provided of current solutions include mobile apps to collect patient-reported outcomes and integrating natural language processing with EHRs. The document also describes several projects and tools developed at Northwestern University for mobile computing and context awareness in healthcare, such as Mobilyze for depression treatment and Purple Robot for sensor data collection.
This document discusses how integrated computing and data can lead to improved healthcare outcomes through precision medicine. It provides examples of how large healthcare data sets from various sources can be analyzed using machine learning to better predict and treat conditions like heart failure. Penn Medicine is highlighted as successfully using patients' electronic medical records, medications, and other data to improve predictive models for re-hospitalization risk. The document also introduces the Trusted Analytics Platform and Intel's Collaborative Cancer Cloud initiative for enabling genomic research through distributed analytics. Finally, it describes how natural language processing of clinical records could help identify cancer patients for clinical trials more quickly.
This document discusses how integrated computing and data can lead to improved healthcare outcomes through precision medicine. It provides examples of how large healthcare systems like Penn Medicine are using machine learning on patient data to better predict and treat conditions like heart failure. The document also introduces the Trusted Analytics Platform and Intel's Collaborative Cancer Cloud which aim to accelerate big data analytics for medical research. Finally, it discusses how natural language processing of clinical records through the ConSoRe project could help oncologists more quickly identify patient cohorts for clinical trials and research.
How digital technologies can improve diagnosticsKoen De Lombaert
油
A talk I gave at IDWeek 2014. I am making the case for the smartphone (mobile, connectivity, sensors, and computing) as the ultimate enabler of remote diagnostics. Use cases, examples of products, and the (possible) future of remote diagnosis.
Remote Patient Monitoring (RPM) holds immense significance in managing chronic diseases. By implementing tailored care strategies, enhancing treatment adherence, and enabling early interventions, RPM is revolutionizing how patients and healthcare providers address long-term health conditions.
Data Science Deep Roots in Healthcare IndustryDinesh V
油
Data Science transforms the healthcare industry with impeccable solutions that can improve patient care through EHRs, medical imaging, drug discovery, predictive medicines and genetics and genomics.
Digital transformation and application of iot to healthcaresandhibhide
油
Digital transformation and application of IoT can help address rising healthcare costs by building applications to meet real patient and provider needs. IoT can help optimize existing healthcare systems by remotely monitoring patients, assisting providers, and ensuring patients receive the best care. This creates opportunities to improve wellness, detect medical issues early, and monitor patients throughout the healthcare process more efficiently and economically.
To learn more visit:
https://insidescientific.com/webinar/cutting-edge-conversations-fighting-neurodegenerative-diseases/
Evelyn Pyper, MPH discusses how a patient-centered approach to real-world data collection and evidence generation can transform research in neurodegeneration. Neurodegenerative diseases often affect both motor and cognitive function, produce emotional and social changes, and require significant caregiver support, all while stretching across a fragmented healthcare ecosystem. Participatory research that directly obtains patient consent, empowers patients, and simplifies the task of linking multiple data sources, can lead to a more comprehensive capture of medical histories. This presentation briefly explores ways in which patient-centered research can improve understanding of disease diagnoses, symptomatology, and progression.
Automated Abstracting - NCRA San Antonio 2015Victor Brunka
油
Artificial intelligence can help automate the process of completing cancer registry abstracts. Recent successes in automating casefinding from pathology and imaging reports and extracting standardized data show promise. Continued progress in natural language processing, along with consolidation of diverse health records into a common data architecture, may allow auto-population of most abstract fields with high accuracy and completeness. This would enhance quality and timeliness of cancer reporting while reducing costs. The registry's role then focuses on complex tasks, maintaining standards and oversight.
Purna Prasad- Transformation of Healthcare Technology into the Commodity (Con...Levi Shapiro
油
Transformation of Healthcare Technology into the Commodity (Consumer) Space, by Dr. Purna Prasad, CTO, Northwell Health. Key themes:
- Health Care Is Moving from Hospital to Home
- Innovation
- Sensing
- The Sense of Caring
- Development of the Human Care Model
- Disease
- Input to Actionable Outcomes
- The Driving Factors of Commoditization
- Tethering Patients From Womb to The Tomb
- Health Information Technology Innovation. Commoditization Driving Innovation to Production. The Echo System
- The Innovation Cycle
- Innovation Opportunities
- BYOD (Bring Your Own Device)Currently Available In The Commodity Market
- WYOD Wear Your Own DeviceCurrently Available In The Commodity Market
- BioMedical Devices Currently Available In The Commodity Market
- Innovation in Health Care Technology Commoditization Opportunities
- Innovation in Security Risk Mitigation
- Northwell Value Added Partners in Commoditizing Health Care Technology
- Commoditization Driving Digital Health
- The Digital Front Door
- Northwell Cloud
- Telehealth
- Cutting Edge Technologies Under Evaluation/Testing
- Biosensor Technology
- Northwell Drone Ambulance
- Surgical Theater Virtual Reality
- 3D Printing Prototypes (Makerbot)
- The Fin was designed and printed by Northwell Healths 3D printing experts
- Imagine the Possibilities in Healthcare
Innovation Driving Commoditization
Big data and health sciences: Machine learning in chronic illness by Huiyu DengData Con LA
油
Abstract:- Big data has become the new hot topic in recent years. It promotes the understanding of the exploit of data and directs the decision guidance in many sectors. The health science field is also shaped by the innovative idea of big data application. Our study group from the department of preventive medicine of the Keck school of medicine of the University of Southern California aims to build a big data architecture that combines and analyzes data of people from difference sources and provide health related assessments back to them. Specifically, ecological momentary assessments (EMAs), electronic medical records (EMRs), and real-time air quality monitor data of children with pre-existing asthma diagnosis are collected and fed into the machine learning models. Asthma exacerbation alert is generated and delivered back to the children before it happens. The machine learning model was tested and built in a similar study. The study population consists of children from a cohort of the prospective, population-based Children's Health Study followed from 2003-2012 in 13 Southern California communities. Potential risk factors were grouped into five broad categories: sociodemographic factors, indoor/home exposures, traffic/air pollution exposures, symptoms/medication use, and asthma/allergy status. The outcome of interest, assessed via annual questionnaire, was the presence of bronchitic symptoms over the prior 12 months. A gradient boosting model (GBM) was trained on data consisting of one observation per participant in a random study year, for a randomly selected half of the study participants. The model was validated using hold-out test data obtained in two complementary approaches: (within-participant) a random (later) year in the same participants and (across-participant) a random year in participants not included in the training data. The predictive ability of risk factor groupings was evaluated using the area under receiver operating characteristic curve (AUC) and accuracy. The predictive ability of individual risk factors was evaluated using the relative variable importance. Graphical visualization of the predictor-outcome relationship was displayed using partial dependency plots. Interaction effects were identified using the H-statistic. Gradient boosting model offers a novel approach to better understand predictive factors for chronic upper respiratory illness such as bronchitic symptoms.
Digital biomarkers can help diagnose and monitor disease by measuring indicators through sensor technologies. They have the potential to identify undiagnosed patients, better understand disease progression, and provide more dynamic measures of therapeutic response. However, digital biomarkers must be validated for their intended use and level of evidence required depends on risk and benefit. Classification systems can characterize digital biomarkers along dimensions of concept of interest, measurement process, and clinical outcome to determine the validation process required for regulatory acceptance and clinical application.
At Volta diagnostics, we are committed to providing services that suit our patients best. Our purpose is to provide the best diagnostic services with supremely high standards and precise testings. Our world-class latest technology with full automation is helpful in providing actionable diagnostics insight that provides the medical value to healthcare professionals.
This document discusses how technology can help doctors provide care to more patients. It describes several technologies like health sensors, robotics, and intelligent systems that integrate data from different sources to help doctors monitor patients and make more informed decisions. One example is a hospital in France that uses Microsoft's Azure intelligent systems service to connect data from various devices to give doctors a unified view of each patient's care.
This document discusses quality improvement in healthcare. It begins by posing questions about defining quality, what quality improvement is, and how quality can be improved. It then discusses the safety paradox in healthcare - that despite highly trained staff and technology, errors are common and patients are frequently harmed. Several studies on adverse event rates in hospitals are summarized. The document discusses concepts for safety and quality improvement like reliability, variation, measurement, and change management. It provides examples of quality improvement tools and approaches like process mapping, care bundles, measurement, and the PDSA (Plan-Do-Study-Act) cycle. Overall, the document provides an overview of key issues and approaches related to quality and safety in healthcare.
A health system, also sometimes referred to as health care system or healthcare system, is the organization of people, institutions, and resources that deliver health care services to populations in need.
Cognitive Computing: Company presentation by Avner Halperin, Co-Founder & CEO of EarlySense at the NOAH Conference 2019 in Tel Aviv, Hangar 11, 10-11 April 2019.
Explore our latest blog post uncovering the digital revolution reshaping cardiovascular care! From wearable technology providing real-time heart monitoring to AI-driven diagnostics revolutionizing early detection, we delve into the significant impact technology has on heart health.
Enhancing Patient Safety in Digital Therapeutics: AI- Driven ApproachesClinosolIndia
油
Enhancing patient safety in digital therapeutics through AI-driven approaches involves leveraging artificial intelligence to ensure the effectiveness, accuracy, and security of digital health solutions. Here are some key strategies and benefits
Georgetown Innovation Center for Biomedical Informatics Symposium Precision ...Warren Kibbe
油
The document discusses opportunities and challenges with precision oncology and big data. It describes how big data from sources like mobile devices, social media, next generation sequencing, imaging, and electronic health records can be leveraged. Key challenges include needing synoptic and semantic EHR data to support precision medicine, and handling and analyzing large amounts of patient-derived data from various sources. Examples provided of current solutions include mobile apps to collect patient-reported outcomes and integrating natural language processing with EHRs. The document also describes several projects and tools developed at Northwestern University for mobile computing and context awareness in healthcare, such as Mobilyze for depression treatment and Purple Robot for sensor data collection.
This document discusses how integrated computing and data can lead to improved healthcare outcomes through precision medicine. It provides examples of how large healthcare data sets from various sources can be analyzed using machine learning to better predict and treat conditions like heart failure. Penn Medicine is highlighted as successfully using patients' electronic medical records, medications, and other data to improve predictive models for re-hospitalization risk. The document also introduces the Trusted Analytics Platform and Intel's Collaborative Cancer Cloud initiative for enabling genomic research through distributed analytics. Finally, it describes how natural language processing of clinical records could help identify cancer patients for clinical trials more quickly.
This document discusses how integrated computing and data can lead to improved healthcare outcomes through precision medicine. It provides examples of how large healthcare systems like Penn Medicine are using machine learning on patient data to better predict and treat conditions like heart failure. The document also introduces the Trusted Analytics Platform and Intel's Collaborative Cancer Cloud which aim to accelerate big data analytics for medical research. Finally, it discusses how natural language processing of clinical records through the ConSoRe project could help oncologists more quickly identify patient cohorts for clinical trials and research.
How digital technologies can improve diagnosticsKoen De Lombaert
油
A talk I gave at IDWeek 2014. I am making the case for the smartphone (mobile, connectivity, sensors, and computing) as the ultimate enabler of remote diagnostics. Use cases, examples of products, and the (possible) future of remote diagnosis.
Remote Patient Monitoring (RPM) holds immense significance in managing chronic diseases. By implementing tailored care strategies, enhancing treatment adherence, and enabling early interventions, RPM is revolutionizing how patients and healthcare providers address long-term health conditions.
Data Science Deep Roots in Healthcare IndustryDinesh V
油
Data Science transforms the healthcare industry with impeccable solutions that can improve patient care through EHRs, medical imaging, drug discovery, predictive medicines and genetics and genomics.
Digital transformation and application of iot to healthcaresandhibhide
油
Digital transformation and application of IoT can help address rising healthcare costs by building applications to meet real patient and provider needs. IoT can help optimize existing healthcare systems by remotely monitoring patients, assisting providers, and ensuring patients receive the best care. This creates opportunities to improve wellness, detect medical issues early, and monitor patients throughout the healthcare process more efficiently and economically.
To learn more visit:
https://insidescientific.com/webinar/cutting-edge-conversations-fighting-neurodegenerative-diseases/
Evelyn Pyper, MPH discusses how a patient-centered approach to real-world data collection and evidence generation can transform research in neurodegeneration. Neurodegenerative diseases often affect both motor and cognitive function, produce emotional and social changes, and require significant caregiver support, all while stretching across a fragmented healthcare ecosystem. Participatory research that directly obtains patient consent, empowers patients, and simplifies the task of linking multiple data sources, can lead to a more comprehensive capture of medical histories. This presentation briefly explores ways in which patient-centered research can improve understanding of disease diagnoses, symptomatology, and progression.
Automated Abstracting - NCRA San Antonio 2015Victor Brunka
油
Artificial intelligence can help automate the process of completing cancer registry abstracts. Recent successes in automating casefinding from pathology and imaging reports and extracting standardized data show promise. Continued progress in natural language processing, along with consolidation of diverse health records into a common data architecture, may allow auto-population of most abstract fields with high accuracy and completeness. This would enhance quality and timeliness of cancer reporting while reducing costs. The registry's role then focuses on complex tasks, maintaining standards and oversight.
Purna Prasad- Transformation of Healthcare Technology into the Commodity (Con...Levi Shapiro
油
Transformation of Healthcare Technology into the Commodity (Consumer) Space, by Dr. Purna Prasad, CTO, Northwell Health. Key themes:
- Health Care Is Moving from Hospital to Home
- Innovation
- Sensing
- The Sense of Caring
- Development of the Human Care Model
- Disease
- Input to Actionable Outcomes
- The Driving Factors of Commoditization
- Tethering Patients From Womb to The Tomb
- Health Information Technology Innovation. Commoditization Driving Innovation to Production. The Echo System
- The Innovation Cycle
- Innovation Opportunities
- BYOD (Bring Your Own Device)Currently Available In The Commodity Market
- WYOD Wear Your Own DeviceCurrently Available In The Commodity Market
- BioMedical Devices Currently Available In The Commodity Market
- Innovation in Health Care Technology Commoditization Opportunities
- Innovation in Security Risk Mitigation
- Northwell Value Added Partners in Commoditizing Health Care Technology
- Commoditization Driving Digital Health
- The Digital Front Door
- Northwell Cloud
- Telehealth
- Cutting Edge Technologies Under Evaluation/Testing
- Biosensor Technology
- Northwell Drone Ambulance
- Surgical Theater Virtual Reality
- 3D Printing Prototypes (Makerbot)
- The Fin was designed and printed by Northwell Healths 3D printing experts
- Imagine the Possibilities in Healthcare
Innovation Driving Commoditization
Big data and health sciences: Machine learning in chronic illness by Huiyu DengData Con LA
油
Abstract:- Big data has become the new hot topic in recent years. It promotes the understanding of the exploit of data and directs the decision guidance in many sectors. The health science field is also shaped by the innovative idea of big data application. Our study group from the department of preventive medicine of the Keck school of medicine of the University of Southern California aims to build a big data architecture that combines and analyzes data of people from difference sources and provide health related assessments back to them. Specifically, ecological momentary assessments (EMAs), electronic medical records (EMRs), and real-time air quality monitor data of children with pre-existing asthma diagnosis are collected and fed into the machine learning models. Asthma exacerbation alert is generated and delivered back to the children before it happens. The machine learning model was tested and built in a similar study. The study population consists of children from a cohort of the prospective, population-based Children's Health Study followed from 2003-2012 in 13 Southern California communities. Potential risk factors were grouped into five broad categories: sociodemographic factors, indoor/home exposures, traffic/air pollution exposures, symptoms/medication use, and asthma/allergy status. The outcome of interest, assessed via annual questionnaire, was the presence of bronchitic symptoms over the prior 12 months. A gradient boosting model (GBM) was trained on data consisting of one observation per participant in a random study year, for a randomly selected half of the study participants. The model was validated using hold-out test data obtained in two complementary approaches: (within-participant) a random (later) year in the same participants and (across-participant) a random year in participants not included in the training data. The predictive ability of risk factor groupings was evaluated using the area under receiver operating characteristic curve (AUC) and accuracy. The predictive ability of individual risk factors was evaluated using the relative variable importance. Graphical visualization of the predictor-outcome relationship was displayed using partial dependency plots. Interaction effects were identified using the H-statistic. Gradient boosting model offers a novel approach to better understand predictive factors for chronic upper respiratory illness such as bronchitic symptoms.
Digital biomarkers can help diagnose and monitor disease by measuring indicators through sensor technologies. They have the potential to identify undiagnosed patients, better understand disease progression, and provide more dynamic measures of therapeutic response. However, digital biomarkers must be validated for their intended use and level of evidence required depends on risk and benefit. Classification systems can characterize digital biomarkers along dimensions of concept of interest, measurement process, and clinical outcome to determine the validation process required for regulatory acceptance and clinical application.
At Volta diagnostics, we are committed to providing services that suit our patients best. Our purpose is to provide the best diagnostic services with supremely high standards and precise testings. Our world-class latest technology with full automation is helpful in providing actionable diagnostics insight that provides the medical value to healthcare professionals.
This document discusses how technology can help doctors provide care to more patients. It describes several technologies like health sensors, robotics, and intelligent systems that integrate data from different sources to help doctors monitor patients and make more informed decisions. One example is a hospital in France that uses Microsoft's Azure intelligent systems service to connect data from various devices to give doctors a unified view of each patient's care.
This document discusses quality improvement in healthcare. It begins by posing questions about defining quality, what quality improvement is, and how quality can be improved. It then discusses the safety paradox in healthcare - that despite highly trained staff and technology, errors are common and patients are frequently harmed. Several studies on adverse event rates in hospitals are summarized. The document discusses concepts for safety and quality improvement like reliability, variation, measurement, and change management. It provides examples of quality improvement tools and approaches like process mapping, care bundles, measurement, and the PDSA (Plan-Do-Study-Act) cycle. Overall, the document provides an overview of key issues and approaches related to quality and safety in healthcare.
A health system, also sometimes referred to as health care system or healthcare system, is the organization of people, institutions, and resources that deliver health care services to populations in need.
Cognitive Computing: Company presentation by Avner Halperin, Co-Founder & CEO of EarlySense at the NOAH Conference 2019 in Tel Aviv, Hangar 11, 10-11 April 2019.
Explore our latest blog post uncovering the digital revolution reshaping cardiovascular care! From wearable technology providing real-time heart monitoring to AI-driven diagnostics revolutionizing early detection, we delve into the significant impact technology has on heart health.
Can drug repurposing be saved with AI 202405.pdfPaul Agapow
油
Presented at DigiTechPharma, London May 2024.
What is drug repurposing. Why is it needed? What systematic approaches are there? Is AI a solution? Why not?
IA, la clave de la genomica (May 2024).pdfPaul Agapow
油
A.k.a. AI, the key to genomics. Presented at 1er Congreso Espa単ol de Medicina Gen坦mica. Spanish language.
On the failure of applied genomics. On the complexity of genomics, biology, medicine. The need for AI. Barriers.
Journal club and talk given to Health Data Analytics MSc, February 2023. Reflecting on how to do good machine learning over biomedical data, the pitfalls and good practices
Where AI will (and won't) revolutionize biomedicinePaul Agapow
油
The document discusses opportunities and challenges for using AI and machine learning in biomedicine and drug development. It notes that while biology and physiology are highly complex, images and other medical data are well-suited for computer analysis. However, collecting and standardizing appropriate data remains a challenge. Additionally, there is sometimes a disconnect between AI research and real-world medical needs. Overall, the document argues that AI could help with tasks like disease classification, drug target identification, and interpreting medical images, but developing effective applications requires addressing issues of data availability and model validation.
Beyond Proofs of Concept for Biomedical AIPaul Agapow
油
This document discusses challenges with applying machine learning and AI to healthcare and biomedicine. It summarizes that while AI promises improvements, many projects fail to deliver due to issues like focusing on the wrong problems, lack of data, and lack of collaboration between fields. It advocates for approaches like validating and reproducing results, ensuring interpretability, collaborating across expertise, and focusing on incremental improvements rather than novel methods alone.
Multi-omics for drug discovery: what we lose, what we gainPaul Agapow
油
This document discusses how multi-omics approaches could be used in drug development to address challenges arising from complex disease biology. It notes that drug development is becoming slower and more expensive as biological understanding lags behind, and that multi-omics allows integrated analysis across different biological data types and levels. Examples are given showing how multi-omics has been applied to cancer prediction and stratification using various data, asthma subtyping, drug repurposing using knowledge graphs, and predicting adverse drug events. The document emphasizes that careful methodology is still needed and highlights challenges including data integration and sample size.
ML & AI in Drug development: the hidden part of the icebergPaul Agapow
油
This document summarizes the challenges of applying machine learning and artificial intelligence to drug development. It discusses how drug development is a long and complex process involving identifying disease targets, developing drug candidates, and testing through clinical trials. It then explains that biology is complex, data is often incomplete or biased, and there is a lack of labeled examples, making application of AI difficult. However, areas that could benefit include using AI to subtype diseases, interpret medical images like tumors, and build knowledge graphs to discover new insights. More and better quality data, along with focus on interpretability and engineering practices, are needed to further progress in this area.
Machine learning, health data & the limits of knowledgePaul Agapow
油
Lecture for Imperial College London's MSc in Health Data Analytics, critiquing a recent paper on COVID diagnosis and moving out to talk about good practices (& limits) in ML and model building
The document discusses how AI and machine learning can help address challenges in healthcare by analyzing complex medical data. It provides examples of how AI can help with tasks like analyzing medical images to assist radiologists, predicting drug response from scans, and using electronic health records to better understand diseases and patient heterogeneity. The document also acknowledges challenges like the need for large labeled datasets and ensuring interpretability and avoidance of bias.
Get yourself a better bioinformatics jobPaul Agapow
油
This document provides career advice for bioinformaticians seeking better jobs or career advancement. It outlines several "rules" including being clear on one's career goals, actively pursuing opportunities rather than waiting passively, viewing one's career path as non-linear, emphasizing valuable skills over job titles, regularly pursuing new opportunities, networking to increase visibility, optimizing one's resume, and negotiating salary offers. The document encourages bioinformaticians to be proactive and flexible in managing their careers.
Interpreting Complex Real World Data for Pharmaceutical ResearchPaul Agapow
油
This document discusses using real world data (RWD) for pharmaceutical research and development. It notes that while RWD is attractive due to its scale and realism, it is also complex and difficult to interpret. The document proposes several approaches for analyzing RWD, including using machine learning on graphical representations of patient data, analyzing temporal trajectories, integrating multiple 'omics data sources, and generating hypotheses rather than attempting to definitively model patient populations. It concludes that more work is needed to build larger, more diverse real world datasets and address challenges around privacy, methods validation, and scaling analysis techniques.
Filling the gaps in translational researchPaul Agapow
油
- Translational research often focuses on early-stage problems that are interesting scientifically but do not address the most important problems in developing new therapies. This neglects later and more difficult stages of drug development where the largest costs and failures occur.
- More focus is needed on developing therapies for complex, systemic diseases and diverse patient populations using real-world data and approaches that incorporate biological complexity early in the process. Machine learning should be applied where it can have the most impact in reducing costs, such as predicting adverse events later in development.
- Efforts are also needed to build more diverse, representative datasets and use data science approaches like drug repurposing that have the potential to accelerate therapy development.
This document discusses various topics related to bioinformatics including data analysis tools, thresholds, gene expression analysis, precision medicine, code quality, and standards. It thanks several people for their contributions to the field of bioinformatics.
Big Data and machine learning are increasingly important in biomedical science and clinical practice. Big Data refers to large and complex datasets that are too large for traditional tools to handle. Machine learning involves algorithms that can recognize patterns in data without being explicitly programmed. Some challenges of working with big data and machine learning include issues with data volume, variety, and veracity. However, techniques like distributed analysis, standards, and validation can help address these challenges.
Machine Learning for Preclinical ResearchPaul Agapow
油
This document summarizes a presentation on machine learning for preclinical research. It discusses how biomedical data sets are often small and discusses challenges in applying deep learning and other machine learning techniques with limited data. It proposes combining multiple smaller datasets using standards to create larger datasets for analysis. The document also notes issues with noise and bias in biomedical data and proposes careful curation and appropriate analysis methods. In conclusion, it advocates for carefully curated combined datasets, integrating different data types and sources, and validated application of machine learning to support preclinical research.
PERSONALITY DEVELOPMENT & DEFENSE MECHANISMS.pptxPersonality and environment:...ABHAY INSTITUTION
油
Personality theory is a collection of ideas that explain how a person's personality develops and how it affects their behavior. It also seeks to understand how people react to situations, and how their personality impacts their relationships.
Key aspects of personality theory
Personality traits: The characteristics that make up a person's personality.
Personality development: How a person's personality develops over time.
Personality disorders: How personality theories can be used to study personality disorders.
Personality and environment: How a person's personality is influenced by their environment.
Creatines Untold Story and How 30-Year-Old Lessons Can Shape the FutureSteve Jennings
油
Creatine burst into the public consciousness in 1992 when an investigative reporter inside the Olympic Village in Barcelona caught wind of British athletes using a product called Ergomax C150. This led to an explosion of interest in and questions about the ingredient after high-profile British athletes won multiple gold medals.
I developed Ergomax C150, working closely with the late and great Dr. Roger Harris (1944 2024), and Prof. Erik Hultman (1925 2011), the pioneering scientists behind the landmark studies of creatine and athletic performance in the early 1990s.
Thirty years on, these are the slides I used at the Sports & Active Nutrition Summit 2025 to share the story, the lessons from that time, and how and why creatine will play a pivotal role in tomorrows high-growth active nutrition and healthspan categories.
Solubilization in Pharmaceutical Sciences: Concepts, Mechanisms & Enhancement...KHUSHAL CHAVAN
油
This presentation provides an in-depth understanding of solubilization and its critical role in pharmaceutical formulations. It covers:
Definition & Mechanisms of Solubilization
Role of surfactants, micelles, and bile salts in drug solubility
Factors affecting solubilization (pH, polarity, particle size, temperature, etc.)
Methods to enhance drug solubility (Buffers, Co-solvents, Surfactants, Complexation, Solid Dispersions)
Advanced approaches (Polymorphism, Salt Formation, Co-crystallization, Prodrugs)
This resource is valuable for pharmaceutical scientists, formulation experts, regulatory professionals, and students interested in improving drug solubility and bioavailability.
Acute & Chronic Inflammation, Chemical mediators in Inflammation and Wound he...Ganapathi Vankudoth
油
A complete information of Inflammation, it includes types of Inflammation, purpose of Inflammation, pathogenesis of acute inflammation, chemical mediators in inflammation, types of chronic inflammation, wound healing and Inflammation in skin repair, phases of wound healing, factors influencing wound healing and types of wound healing.
legal Rights of individual, children and women.pptxRishika Rawat
油
A legal right is a claim or entitlement that is recognized and protected by the law. It can also refer to the power or privilege that the law grants to a person. Human rights include the right to life and liberty, freedom from slavery and torture, freedom of opinion and expression, the right to work and education
Flag Screening in Physiotherapy Examination.pptxBALAJI SOMA
油
Flag screening is a crucial part of physiotherapy assessment that helps in identifying medical, psychological, occupational, and social barriers to recovery. Recognizing these flags ensures that physiotherapists make informed decisions, provide holistic care, and refer patients appropriately when necessary. By integrating flag screening into practice, physiotherapists can optimize patient outcomes and prevent chronicity of conditions.
1. Explain the physiological control of glomerular filtration and renal blood flow
2. Describe the humoral and autoregulatory feedback mechanisms that mediate the autoregulation of renal plasma flow and glomerular filtration rate
Cardiac Arrhythmia definition, classification, normal sinus rhythm, characteristics , types and management with medical ,surgical & nursing, health education and nursing diagnosis for paramedical students.
Best Sampling Practices Webinar USP <797> Compliance & Environmental Monito...NuAire
油
Best Sampling Practices Webinar USP <797> Compliance & Environmental Monitoring
Are your cleanroom sampling practices USP <797> compliant? This webinar, hosted by Pharmacy Purchasing & Products (PP&P Magazine) and sponsored by NuAire, features microbiology expert Abby Roth discussing best practices for surface & air sampling, data analysis, and compliance.
Key Topics Covered:
鏝 Viable air & surface sampling best practices
鏝 USP <797> requirements & compliance strategies
鏝 How to analyze & trend viable sample data
鏝 Improving environmental monitoring in cleanrooms
・ Watch Now: https://www.nuaire.com/resources/best-sampling-practices-cleanroom-usp-797
Stay informedfollow Abby Roth on LinkedIn for more cleanroom insights!
Optimization in Pharmaceutical Formulations: Concepts, Methods & ApplicationsKHUSHAL CHAVAN
油
This presentation provides a comprehensive overview of optimization in pharmaceutical formulations. It explains the concept of optimization, different types of optimization problems (constrained and unconstrained), and the mathematical principles behind formulation development. Key topics include:
Methods for optimization (Sequential Simplex Method, Classical Mathematical Methods)
Statistical analysis in optimization (Mean, Standard Deviation, Regression, Hypothesis Testing)
Factorial Design & Quality by Design (QbD) for process improvement
Applications of optimization in drug formulation
This resource is beneficial for pharmaceutical scientists, R&D professionals, regulatory experts, and students looking to understand pharmaceutical process optimization and quality by design approaches.
2. The obligatory background &
disclaimer
Who am I?
Once an immunologist
Then a molecular evolutionist, modeller, bioinformatician,
epi-informatician, analyst, data scientist, computer guy ...
Now solve clinical & trial problems for big pharma using data,
stats & AIML
Nothing in this presentation represents projects or policy at GSK
There are no con鍖icts of interest
3. What is a digital biomarker?
The broad (and oft ignored) de鍖nition
Anything measured and recorded
digitally, even:
Blood pressure
Height
Heart rate
Online survey
Phone apps ...
The narrow (and stereotypical) de鍖nition
Digital recording of complex patient
behaviour and physiology, followed by
processing to produce quanti鍖able
metrics or endpoints, perhaps via a
device or sensor carried by the patient:
Using a wearable to track a
patients heart rate over time
Videoing a patient walking and
modelling it to produce a quality
of locomotion
Sound analysis of voice or a
cough, to detect obstruction
4. Example: Parkinson's Disease 1
Deng, K., Li, Y., Zhang, H. et al.
Heterogeneous digital biomarker
integration out-performs patient
self-reports in predicting Parkinsons
disease. Commun Biol 5, 58 (2022).
https://doi.org/10.1038/s42003-022-03
002-x
5. Example: Parkinson's Disease 2
Interpretable Video-Based Tracking and
Quantification of Parkinsonism Clinical Motor
States
Daniel Deng, Jill L. Ostrem, Vy Nguyen, Daniel
D. Cummins, Julia Sun, Anupam Pathak, Simon
Little, Reza Abbasi-Asl
medRxiv 2023.11.04.23298083; doi:
https://doi.org/10.1101/2023.11.04.23298083
6. Why use digital biomarkers?
Fidelity: avoids transcription errors
Memory: not reliant upon patient recall
Consistency: across sites, investigators, geographies
Authenticity: measure in a real-world context, away from
clinical visits
Patient-centricity
Temporality: measures across time, perhaps to assess
average behaviour or look for rare events
Safety: monitoring patients for AEs
Simplicity: distil complex behaviour and physiology to
something simpler and measurable
7. Why not use digital biomarkers
Does it actually work for the patients
Some patients like going to the clinic
Also additional medical support
Hardware & infrastructure & support
Privacy
Standardization
Abstract, intangible measures
Machine learning magic
8. Validity
Analytical
Does it take good
measurements?
Does it measure something
robustly and reproducibly?
Can it cope with patchy or
imperfect data?
Do small changes in signal or
source only result in
Clinical
Does this measure mean
something?
Does a change in the digital
measure relate to a change in
disease state?
A form of experimenters
regress?
9. Summary
Digital biomarkers are any persistent digital
measurement of patients
Such biomarkers can be used reduce complex behaviours
(e.g. movement) to simpler and more quanti鍖able
endpoints
But to do this we need hardware solutions and good data
analytics