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Practical data analytics for innovation in medicine : building real predictive and prescriptive models in personalized healthcare and medical research using AI, ML, and related technologies / Gary D. Miner, Linda A. Miner, Scott Burk, Mitchell Goldstein, Robert Nisbet, Nephi Walton, Thomas Hill.
- Format:
- Book
- Author/Creator:
- Miner, Gary D., author.
- Language:
- English
- Subjects (All):
- Integrated delivery of health care.
- Machine learning.
- Medical care--Data processing.
- Medical care.
- Artificial intelligence--Medical applications.
- Artificial intelligence.
- Medical Informatics Computing.
- Big Data.
- Data Science.
- Data Analysis.
- Artificial Intelligence.
- Forecasting.
- Medical Subjects:
- Medical Informatics Computing.
- Big Data.
- Data Science.
- Data Analysis.
- Artificial Intelligence.
- Forecasting.
- Physical Description:
- 1 online resource (578 pages)
- Edition:
- Second edition.
- Place of Publication:
- London, England : Academic Press, 2023.
- Summary:
- Practical Data Analytics for Innovation in Medicine: Building Real Predictive and Prescriptive Models in Personalized Healthcare and Medical Research Using AI, ML, and Related Technologies, Second Edition discusses the needs of healthcare and medicine in the 21st century, explaining how data analytics play an important and revolutionary role.
- Contents:
- Front Cover
- Practical Data Analytics for Innovation in Medicine
- Copyright Page
- Dedication
- Contents
- About the authors
- Foreword for the 2nd edition-John Halamka
- Foreword for the 1st edition by Thomas H. Davenport
- Foreword for the 1st edition by James Taylor
- Foreword for the 1st edition by John Halamka
- Preface and overview for the 2nd edition
- Preface to the 1st edition
- Modern medicine: an exercise in prediction and preparation
- Wasted costs in US healthcare systems
- References
- Acknowledgment
- Guest Chapter Author's Listing
- Guest - Authors
- Endorsements and reviewer Blurbs-from the 1st edition
- Instructions for using software for the tutorials-how to download from web pages-for the 2nd edition
- Prologue to Part I
- I. Historical perspective and the issues of concern for health care delivery in the 21st century
- 1 What we want to accomplish with this second edition of our first "Big Green Book"
- Prelude
- Purpose/summary
- First reasons for our writing this book
- Highlighted new material
- Descriptive statistics, data organization, and example
- Randomized controlled trials
- From observation to randomized controlled trials-eliminating bias
- Basic predictive analytics and example
- Example
- Research standards common to both traditional and predictive analytics
- Pandemic as related to research standards and accurate data
- Especially for the second edition
- Chapter conclusion
- Postscript
- 2 History of predictive analytics in medicine and healthcare
- Outline
- Introduction
- Part I. Development of bodies of medical knowledge
- Earliest medical records in ancient cultures
- The oldest official medical documents
- Classification of medical practice among ancient and modern cultures.
- Medical practice documents in major world cultures of Europe and the Middle East
- Egypt
- Mesopotamia
- Greece
- Medicine in Preclassical Greece
- Hippocrates and classical Greece
- Ancient Rome
- Galen
- Arabia
- Summary of royal medical documentation in ancient cultures
- Effects of the middle ages on medical documentation
- Rebirth of Interest in medical documentation during the renaissance
- The printing press
- The Protestant Reformation
- Erasmus
- Human anatomy
- Andreas Vesalius (1514-1564)
- William Harvey (1578-1657)
- Medical documentation after the enlightenment
- Medical case documentation
- The development of the National Library of Medicine
- Part II. Analytical decision systems in medicine and healthcare
- Computers and medical databases
- Early medical databases
- Medical literature databases
- National Library of Medicine list of online medical databases
- Other medical research databases
- Bills of Mortality in London, United Kingdom
- Best practice guidelines
- Guidelines of the American Academy of Neurology
- Medical records move into the digital world
- Healthcare data systems
- 3 Bioinformatics*
- The rise of predictive analytics in healthcare
- Moving from reactive to proactive response in healthcare
- Medicine and big data
- An approach to predictive analytics projects
- The predictive analytics process in healthcare
- Process steps in Fig. 3.1
- Step 1. Problem definition
- Step 2. Identify available data sources
- Step 3. Formulate a hypothesis
- Step 4. Data preprocessing
- Step 5. Data set design
- Step 6. Feature selection
- Step 7. Model building
- Step 8. Model evaluation
- Step 9. Model implementation
- Step 10. Validation of clinical utility
- Translational bioinformatics
- Clinical decision support systems.
- Hybrid clinical decision support systems
- Consumer health informatics
- Patient-focused informatics
- Health literacy
- Consumer education
- Direct-to-consumer genetic testing
- Use of predictive analytics to avoid an undesirable future
- Consumer health kiosks
- Who uses the Internet? Nearly everybody
- Patient monitoring systems
- Applications for predictive analytics in intensive care unit patient monitoring systems
- Challenges of medical devices in the intensive care unit
- Public health informatics
- The major problem: lack of resources
- Social networks and the "Pulse" of public health
- Predictive analytics and prevention and disease and injury
- Biosurveillance
- Food-borne illness
- Medical imaging
- Clinical research informatics
- Intelligent search engines
- Personalized medicine
- Hospital optimization
- Challenges
- Data storage volumes
- Data privacy and security
- Standards and consistency of data
- Interpretability of models
- Evidence-based guidelines and adoption of PA models
- Portability of PA models
- Regulation of PA models
- Summary
- Further reading
- 4 Data and process models in medical informatics
- Chapter purpose
- Systems for classification of diseases and mortality
- Bills of mortality
- The ICD system
- The OMOP common data model
- Reasons for OMOP
- The OMOP CDM provides a common data format
- OMOP CDM architecture is patient-centric
- Additional data processing operations necessary to serve the analysis of OMOP data
- The CRISP-DM processing model
- CRISP-DM phases
- How this chapter facilitates patient-centric healthcare
- 5 Access to data for analytics-the "Biggest Issue" in medical and healthcare predictive analytics
- Prelude.
- Size of data in our world: estimated digital universe now and in the future
- Convergence of healthcare and modern technologies
- Reasons why healthcare data is difficult to get and difficult to measure
- Multiple places where medical data are found
- Many different formats of medical data: structured and unstructured
- Another problem is inconsistent definitions
- Changing government regulatory requirements keep changing what data is taken and kept
- What are some of the benefits of using good data analytics in medical research and healthcare delivery?
- Conclusion of Chapter 5: the importance of health care data analytics
- 6 Precision (personalized) medicine
- Preamble
- What is personalized/precision medicine?
- Personalized medicine versus precision medicine
- P4 medicine
- P5 to P10 medicine
- Precision medicine, genomics, and pharmacogenomics
- Differences among us
- Differences go beyond our body and into our environment
- Changes from birth to death
- Ancestry and disease
- Gene therapies
- It is not about just our genome
- Changing the definition of diseases
- Systems biology
- Efficacy of current methods-why we need personalized medicine
- Predictive analytics in personalized medicine
- The future: predictive and prescriptive medicine
- Application of predictive analytics and decisioning in predictive and prescriptive medicine
- The diversity of available healthcare data
- Diversity of data types available
- Phenotypic data
- Clinical information
- Real-time physiological data
- Imaging data
- Genomic data
- DNA-the center piece of heredity and bodily differences
- DNA replication and mutation
- Somatic mutations
- Germline mutations
- The personal genome project
- The Electronic Medical Records and Genomics network.
- The Patient-Centered Outcomes Research Institute
- Transcriptomics data
- Epigenomics data
- Proteomic data
- Glycomic data
- Metabolomic data
- Metagenomic data
- Nutrigenomics data
- Behavioral measures data
- Socioeconomic status data
- Personal activity monitoring data
- Climatological data
- Environmental data
- All the other OMICs
- The future
- Challenge #1
- Challenge #2
- Challenge #3
- Challenge #4
- Challenge #5
- Challenge #6
- Challenge #7
- Challenge #8
- Challenge #9
- Challenge #10
- Challenge #11
- Challenge #12
- Challenge #13
- 7 Patient-directed healthcare
- Empowerment in patient-directed medicine
- Self-monitoring, N of 1 study
- Research questions
- The responsible patient
- Patients changing how medicine is practiced
- Patient empowerment versus compliance
- Collaboration between patients and the medical community
- Patient involvement
- Patient involvement in medical education
- Limitations of patient involvement
- Evidence supporting patient involvement
- Family-wise statistical errors
- Communication and trust
- Communication and trust during the pandemic
- Collaboration and limitations
- How patient-directed medicine works using predictive analytics
- Privacy concerns can hinder research
- Predictive analytics for patient-directed research
- Cultures and decisions
- Coordination of care and communication for patient-directed healthcare
- Communication skills in the medical setting
- Communication studies
- Barriers to productive communication
- Patients selecting their best models of care
- Medical homes
- The integrated healthcare delivery system model
- Comparison with accountable care organization
- Direct pay/direct care model
- Consumerism and advertising in patient-directed healthcare.
- Advertising to patients.
- Notes:
- Includes bibliographical references and index.
- Description based on print version record.
- Description based on publisher supplied metadata and other sources.
- Other Format:
- Print version: Miner, Gary D. Practical Data Analytics for Innovation in Medicine
- ISBN:
- 0-323-95275-5
- OCLC:
- 1370493372
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