Digital Technologies are Transforming the Behavioral and Social Sciences into Data Rich Sciences

Similar documents
Priorities for medical research in the UK

Advances and Perspectives in Health Information Standards

The Health Information Future: Evolution and/or Intelligent Design?

The All of Us Research Program

Making Precision Medicine A Reality: Molecular Diagnostics, Remote Health Status Monitoring and the Big Data Challenge

Adopting Standards For a Changing Health Environment

Ethical issues raised by big data and real world evidence projects. Dr Andrew Turner

Advancing Health and Prosperity. A Brief to the Advisory Panel on Healthcare Innovation

Security and Risk Assessment in GDPR: from policy to implementation

Where the brightest scientific minds thrive. IMED Early Talent and Post Doc programmes

AGING IN PLACE WORKSHOP

'INNOVATIVE SOLUTIONS FOR RESEARCH IN HEALTHCARE' Developing a novel approach to deliver better precision medicine in Europe The EMA standpoint

THE BIOMEDICAL ENGINEERING TEACHING & INNOVATION CENTER. at Boston University s College of Engineering

HAPPY JUNE! QUOTES. Biostatistics and Bioinformatics Department. Biostatistics and Bioinformatics. Inside This Issue

Request for Information (RFI): Strategic Plan for the National Library of Medicine, National Institutes of Health

National Medical Device Evaluation System: CDRH s Vision, Challenges, and Needs

Ken Buetow, Ph.D. Director, Computation Science and Informatics, Complex Adaptive ASU Professor, School of Life Science

The EFPIA Perspective on the GDPR. Brendan Barnes, EFPIA 2 nd Nordic Real World Data Conference , Helsinki

Data-Driven Evaluation: The Key to Developing Successful Pharma Partnerships

A Focus on Health Data Infrastructure, Capacity and Application of Outcomes Data

FDA Centers of Excellence in Regulatory and Information Sciences

Communication in the Genomic Era: Virtual Reality versus Internet Approaches

USTGlobal. Internet of Medical Things (IoMT) Connecting Healthcare for a Better Tomorrow

The UK Prevention Research Partnership (UKPRP): Vision, objectives and rationale

Digital Health. Jiban Khuntia, PhD. Assistant Professor Business School University of Colorado Denver

CARRA PUBLICATION AND PRESENTATION GUIDELINES Version April 20, 2017

EU s Innovative Medical Technology and EMA s Measures

Clinical Natural Language Processing: Unlocking Patient Records for Research

Global Alliance for Genomics & Health Data Sharing Lexicon

TRANSLATION OF GENOMICS FOR PATIENT CARE AND RESEARCH PATIENT S PERSPECTIVE

4301 Connecticut Avenue, NW Suite 404 Washington, DC

President Barack Obama The White House Washington, DC June 19, Dear Mr. President,

WE ARE. Data-driven Social Determinants of Health for Life

MCGILL CENTRE FOR THE CONVERGENCE OF HEALTH AND ECONOMICS (MCCHE)

Big Data Analytics in Science and Research: New Drivers for Growth and Global Challenges

Digital Medical Device Innovation: A Prescription for Business and IT Success

Health Care Analytics: Driving Innovation

COM C. Rozwell

Promoting Patient and Researcher Engagement with Distributed Data Research Networks through Hurdle Free Tools

USTGlobal. 3D Printing. Changing the Face of Healthcare

Anatomic and Computational Pathology Diagnostic Artificial Intelligence at Scale

An Environment For Long-Term Engagement with Personal Genomic Data

Introduction to Computational Intelligence in Healthcare

Sparking a New Economy. Canada s Advanced Manufacturing Supercluster

Data Sciences for Humanity

The CenTer for The AdvAnCemenT of SCienCe in SpACe STRATEGIC PLAN

Research and Innovation in the Defense Health Agency

Human Rights Approach

Brief to the. Senate Standing Committee on Social Affairs, Science and Technology. Dr. Eliot A. Phillipson President and CEO

Global Alzheimer s Association Interactive Network. Imagine GAAIN

For Immediate Release. For More PR Information, Contact: Carlo Chatman, Power PR P (310) F (310)

Collaboration with Huawei towards research and educational excellence. Professor Archie Johnston Dean Engineering and Information Technologies

Executive Summary Industry s Responsibility in Promoting Responsible Development and Use:

The Evidence Base for Home Health Technologies. George Demiris PhD, FACMI University of Washington

Signature Initiatives Working Group Draft Report Appendix A5

Some comments on «socio-digital generativity»

Introduction. digitalsupercluster.ca

Medicines Manufacturing in the UK 2017

Ontario Best Practices Research Initiative (OBRI) University Health Network

e-science Acknowledgements

Why behavioural economics is essential for the success of the implementation of a wearable or health app. Behavioural Research Unit

Meta Scientific Discovery Beyond Search CHAN ZUCKERBERG INITIATIVE

Our Aspirations Ahead

The new deal of data in the data-driven person centric-care

Re-engineering Collaborative Mechanisms and Knowledge Networks to Accelerate Innovation for Alzheimer s

Unit One: Part One: The Science of Biology. 5/16/2013 Averett

The Learning Health System: Visions of the Present and Future. Charles P. Friedman, PhD University of Michigan NSF Workshop April 11-12, 2013

Corporate Mind 2015 Corporate Responsibility Report

FP7-INFRASTRUCTURES

The Biological and Medical Sciences Research Infrastructures on the ESFRI Roadmap

PROGRAM ANNOUNCEMENT. New Jersey Institute of Technology. MSPhM Systems Engineering. Newark. Fall 2008

THIS IS RESEARCH. THIS IS AUBURN RESEARCH.

Science Integration Fellowship: California Ocean Science Trust & Humboldt State University

Digital Health Startups A FirstWord ExpertViews Dossier Report

Publication Date Reporter Pharma Boardroom 24/05/2018 Staff Reporter

The Future of Patient Data The Global View Key Insights Berlin 18 April The world s leading open foresight program

Ethical, Epistemological, Methodological, Social and Other

Overview of USP s Research and Innovation Activities. Michael Ambrose Ph.D. Director, Research and Innovation

Introductory Presentation IBM

Health Innovation Manchester

Science 2.0. Dept. of Computer Science, Univ. of Maryland

TITLE OF PRESENTATION. Elsevier s Challenge. Dynamic Knowledge Stores and Machine Translation. Presented By Marius Doornenbal,, Anna Tordai

Michael R. McAlevey, Chief Corporate and Securities Counsel, General Electric Co.

ACADEMY PROGRAMMES 1 ACADEMY OF FINLAND 2016

Chapter 9. Producing Data: Experiments. BPS - 5th Ed. Chapter 9 1

PHARMACEUTICALS: WHEN AI ADOPTION HAS GATHERED MOST MOMENTUM.

AUTO INJECTORS & PEN INJECTORS: A USER-CENTRIC DESIGN APPROACH

Translational scientist competency profile

Jim Mangione June, 2017

The ERC: a contribution to society and the knowledge-based economy

PlaceLab. A House_n + TIAX Initiative

Doing, supporting and using public health research. The Public Health England strategy for research, development and innovation

SENIOR CITIZENS ARE RIDING THE DIGITAL HEALTH WAVE

Response to the Western Australian Government Sustainable Health Review

HDR UK & Digital Innovation Hubs Introduction. 22 nd November 2018

Pan-Canadian Trust Framework Overview

Thoughts on Reimagining The University. Rajiv Ramnath. Program Director, Software Cluster, NSF/OAC. Version: 03/09/17 00:15

KÜNSTLICHE INTELLIGENZ JOBKILLER VON MORGEN?

Measuring Individual Privacy

WFEO STANDING COMMITTEE ON ENGINEERING FOR INNOVATIVE TECHNOLOGY (WFEO-CEIT) STRATEGIC PLAN ( )

Transcription:

Digital Technologies are Transforming the Behavioral and Social Sciences into Data Rich Sciences William Riley, Ph.D. NIH Associate Director for Behavioral and Social Sciences Research Director, Office of Behavioral and Social Sciences Research

Research Methods in a Data Poor Environment Priority is on prospective design and data collection Limited data collection opportunities Predominately cross-sectional or minimally longitudinal designs Unable to assess or control myriad confounds Control confounds via randomization And once the study is completed..

Research Methods in a Data Rich Environment Temporally Dense Computational Predictive vs. Causal

A Brief History of a Data Rich Science: Meteorology Local, limited measurement Leverage communications technologies (telegraph) to connect data across sites Set standards for data integration Continued leveraging of technical advances in measurement and communication Result: Rich, integrated data that is computationally modeled to explain and predict phenomena Is it possible for health behavior research to become a data rich science? Riley, W.T. (2016). A new era of clinical research methods in a data-rich environment. (2016). In B.W Hesse, D.K. Ahern, & E. Beckjord, Eds. Oncology Informatics. Elsevier: Cambridge, MA, pgs. 343-355.

"Nearly all the grandest discoveries of science have been but the rewards of accurate measurement." Lord Kelvin, 1872

Previous State of Behavioral Measurement

Dawn of a Data Rich Behavioral Science Rapidly accelerating technology development Ecological Momentary Assessment (EMA) methods improved and delivered on cell phones Capture of digital traces from daily interactions with technology Social media Call data records Consumer sensors Sensors that can passively and continuously monitor health risk behaviors in context Physical activity sensors Smoking sensors Sun exposure sensors Environmental exposure sensors Dietary intake sensors (sort of) Applications of computational modeling and new statistical modeling approaches that provide the analytic capabilities for intensive longitudinal (temporally dense) data. 7

Ecological Momentary Assessment Ginexi EM et al. The Promise of Intensive Longitudinal Data Capture for Behavioral Health Research. Nicotine & Tobacco Research 2014 16 (4): S73-S75. Growth Mixture Models: Elkhart Group Ltd

Archival Big Data Sources in the Behavioral Sciences Digital Breadcrumbs (Pentland, MIT) Behavioral Data gleaned from consumerbased data sources Social Media (Twitter, Facebook) Internet Searches (Google) Cell phone Use (# calls and texts) Cable Box Data (hours of TV) Auto Black Box data (miles driven, seat belt use)

Sensor Technologies

Emerging Technologies and Assays for Adherence Monitoring Xhale SMART breathalyzer for GRAS drug taggants Drug (metabolite) concentrations via hair samples or dried blood spots Proteus pill microchips and sensor GlowCaps

But We Need More than Technology and Precise Assessment Data Access especially from proprietary systems Common Ontologies/Taxonomies and CDEs Data Infrastructures (Registries, Repositories, Distributed Networks, APIs) Broad Consent And a Culture of Data Sharing where the knowledge base, not the publication, is the currency of research

Computational Modeling WHAT WE COULD DO WITH A DATA RICH KNOWLEDGE BASE

Obesity Framingham Heart Study Social Network in 2000 Happiness Christakis & Fowler, Stat Med, 2013

Modeling of Tobacco Taxes on Smoking Prevalence Cobiac et al., Tobacco Control, 2015

Dynamic Model of Social Cognitive Theory Riley et al., Trans Beh Med, 2016.

A Step Toward a Data Rich Cohort THE U.S. PRECISION MEDICINE INITIATIVE

And that s why we re here today. Because something called precision medicine gives us one of the greatest opportunities for new medical breakthroughs that we have ever seen. President Barack Obama January 30, 2015

www.nih.gov/precisionmedicine

Precision Medicine Initiative The initiative will encourage and support the next generation of scientists to develop creative approaches for detecting, measuring, and analyzing a wide range of biomedical information including molecular, genomic, cellular, clinical, behavioral, physiological, and environmental parameters. Collins and Varmus, NEJM, 2015 Behavioral and environmental measurement tools to: better characterize disease processes and treatment outcomes assess not only disease states but also the physical, mental, and social functional status monitor behavioral (e.g. smoking/diet) and environmental (e.g., particulate matter, social isolation) exposures that contribute to disease and that interact with genetic influences on disease and treatment, and provide potential behavioral and environmental predictors of treatment response beyond that obtained from genetics alone.

PMI: National Research Cohort All of Us Will comprise: >1 million U.S. volunteers From HPOs From Direct-to-Volunteer efforts Participants will be: Centrally involved in design, implementation Able to share genomic data, lifestyle information, biological samples all linked to their electronic health records Will forge new model for scientific research that emphasizes: Engaged participants Open, responsible data sharing with privacy protections

PMI COHORT PROGRAM MAJOR COMPONENTS Data and Research Support Center (DRC) Biobank Participant Technologies Center (PTC) Healthcare Provider Organizations (HPOs) Regional Medical Centers Community Health Centers (Federally Qualified Health Centers) VA Medical Centers

PMI COHORT PROGRAM DATA The Program will start by collecting a limited set of standardized data from sources that will include: Participant provided information Electronic health records Physical evaluation Biospecimens (blood and urine samples) Mobile/wearable technologies Geospatial/environmental data Data types will grow and evolve with the science, technology, and participant trust. Tiered approach (not all data from all participants)

Precision Medicine Concept is not entirely new: Prescription Eyeglasses Blood Transfusions

Precision Behavioral Interventions History Project Match Alcohol Abuse Treatments Internet Tailored Interventions (Expert Systems) Beyond Tx A better than Tx B For whom (tailored, personalized, precision) In what context and at what time (JITAI, EMI) In what combination and sequence (MOST, SMART) To Achieve Precision Behavioral Medicine Identify more robust moderators and mediators Reliable and intensive longitudinal data Conceptual models that guide when, in what context, and for whom to deliver intervention strategies

Translational Behavioral Medicine, 2015; 5:243-6 More than Genes, Drugs, and Disease

Why Mobile Technologies? Better Characterize Phenotypes and Outcomes

Why Mobile Technologies? Better Characterize Treatments

Why Mobile Technologies? Assess Treatment Predictors beyond Genetics

Why Mobile Technologies? Intensively Measure Behavioral and Environmental Risk Factors

Why Mobile Technologies? Fully Engage Participants as Partners

OBSSR Strategic Plan Office of Behavioral and Social Sciences Research 3 2

33

Scientific Priority 1: Improve the Synergy of Basic and Applied Behavioral and Social Science Research Objective 1.1: Identify and encourage promising basic behavioral and social sciences research (bbssr) with strong potential for applied translation relevant to health. Objective 1.2: Facilitate greater bidirectional interaction between basic and applied BSSR researchers to facilitate the translation of basic and applied behavioral and social sciences research. 34

Scientific Priority 2: Enhance the Methods, Measures, and Data Infrastructures to Encourage a More Cumulative Behavioral and Social Sciences Objective 2.1: Encourage data integration and replication in the behavioral and social sciences Objective 2.2: Facilitate the development and testing of new measurement approaches Objective 2.3: Expand the repertoire of methods available to social and behavioral researchers 35

Scientific Priority 3: Facilitate the Adoption of Behavioral and Social Science Research Findings in Health Research and Practice Objective 3.1: Encourage research that studies mechanisms and interventions in context Objective 3.2: Enhance the relevance and scalability of social and behavioral interventions Objective 3.3: Foster collaborations with agencies and entities that utilize and/or deliver social and behavioral research findings, and evaluate 36 systemic and policy changes that facilitate or impede adoption of effective approaches

THANK YOU WILLIAM.RILEY@NIH.GOV