
Implementation of Personalized Precision Medicine
Expanding the Clinical Vision towards Prevention, Early Detection and Precision Treatment of Disease to Drive Extended Healthspan
- 1st Edition - November 22, 2024
- Imprint: Academic Press
- Editors: William P. Stanford, Laura Kelly
- Language: English
- Paperback ISBN:9 7 8 - 0 - 3 2 3 - 9 8 8 0 8 - 7
- eBook ISBN:9 7 8 - 0 - 3 2 3 - 9 7 2 7 6 - 5
At the heart of precision medicine lies one concept missing from modern medicine – the unique genetic and biochemical make-up of each individual patient. Implementation of Perso… Read more

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Request a sales quoteAt the heart of precision medicine lies one concept missing from modern medicine – the unique genetic and biochemical make-up of each individual patient. Implementation of Personalized Precision Medicine: Expanding the Clinical Vision towards Prevention, Early Detection, and Precision Treatment of Disease to Drive Extended Healthspan establishes a landscape of precision medicine geared towards implementation of fully personalized approaches within precision medicine to facilitate prevention and early detection of age-related disease in each individual. This reference details how these lofty goals are now achievable with the science of today and tomorrow and provides the context, thought process and beginning blueprint to guide researchers and clinicians in more effectively considering the prevention and treatment of complex chronic disease.
Uniquely organized, this reference provides insight into creating fully personalized precision medical treatments. Chapters include conventionally considered data such as genetic inherited risk, current epigenetic modifications, and current biochemical markers but also include less conventional food for thought such as microbiome, mitochondrial function, and dna repair. This provocative landscape makes this reference a valuable addition to the literature expanding precision medicine towards personalized chronic disease prevention and treatment.
Uniquely organized, this reference provides insight into creating fully personalized precision medical treatments. Chapters include conventionally considered data such as genetic inherited risk, current epigenetic modifications, and current biochemical markers but also include less conventional food for thought such as microbiome, mitochondrial function, and dna repair. This provocative landscape makes this reference a valuable addition to the literature expanding precision medicine towards personalized chronic disease prevention and treatment.
- Explores the expanding paradigm of Precision Medicine application highlighting full personalization in precision medicine.
- Explores the gap between precision medicine implementation and medical policy, showing the integration and implementation of technologies in primary care for chronic disease.
- Provides fresh viewpoints and perspectives for researchers and science-minded providers on the forefront of implementation, to be informed of the best available tools and approaches for each individual patient.
Physician-Scientists in biomedical and translational medicine areas
- Implementation of Personalized Precision Medicine
- Cover image
- Title page
- Table of Contents
- Copyright
- Contributors
- Editor’s statement
- Chapter 1 Epigenetics and methylation risk scores
- Abstract
- Keywords
- Acknowledgments
- The evolution of epigenetics in biomedical research
- DNA methylation
- Epigenetic technology and its application in health and disease
- The emerging field of methylation risk scoring
- The power of machine learning to develop predictors of disease
- ML-based development of disease classifiers in clinical medicine
- Applications in nononcological disease
- Applications in aging: The biological clock
- The clinical application of MRS in the health care setting
- Limitations, challenges, and the future of clinical adoption of MRS at the point of care
- References
- Chapter 2 Polygenic risk scores: A conceptual overview to add PRS to your clinical toolbox
- Abstract
- Keywords
- Introduction
- Association, not causation
- Polygenic risk scores come in all sizes
- Garbage in, garbage out
- Ready for clinical use
- Better when we’re together
- The promise of PRS
- References
- Chapter 3 The proteomics revolution: Forging a new path to personalized health care
- Abstract
- Keywords
- Introduction: Proteomics as “the one ring to rule them all”
- Why protein networks? And if they are so good, why didn’t it happen earlier?
- Proving a breakthrough
- Interpreting the results: Expertise in proteomics not required
- Traditional diagnostic test development vs the new discipline; what's the difference?
- Physiology and utility, the chicken made the egg…
- Or is it that the egg made the chicken?
- Getting comfortable with the unknown
- The few vs the many; reductive vs expansive tensions
- Eliminate the immutable
- From the vein to the lab: Abuse of blood as a living tissue
- Why the cardio-metabolic portfolio bias? Why not cancer?
- Where can proteomics win in cancer?
- Integrated programmatic planning
- Where does it go from here? Bumps on the road to widespread adoption
- Overcoming the bias against predicting risk: Prognostic vs diagnostic
- Countering the religion about “concentration as truth”
- How to redefine analytic validation
- Translation into clinical utility and reimbursement by insurers
- Leading to a challenge to the diagnostics business model
- Winds in our favor—What might accelerate the impact of proteomics in personalized medicine?
- Invisible personalized medicine: Proteomics in drug development
- The future: Unsupervised learning and AI
- Conclusions
- References
- Chapter 4 Pharmacogenetic clinical implementation
- Abstract
- Keywords
- Introduction
- Clinical use and considerations
- Psychiatric
- Gastrointestinal
- Cardiovascular
- Respiratory
- Multimorbidity
- Rheumatology
- Infectious disease
- The implementation of pharmacogenomics into point of care
- Challenges to implementation
- Cost savings with implementation of PGx
- Conclusion
- References
- Chapter 5 Seeing clearly to treat precisely: Advances in molecular imaging and theranostics in precision health
- Abstract
- Keywords
- Overview
- Imaging across a range of scales
- The tools of molecular imaging
- Imaging anatomy
- Imaging cellular and molecular signatures
- Imaging metabolic markers
- Imaging cell surface markers
- Imaging immune cells for diagnosis and monitoring cellular therapeutics
- AI in molecular imaging
- Reporter genes
- Nanomedicine
- Imaging earlier in the disease course
- Conclusions
- References
- Chapter 6 Early quantum computing applications on the path towards precision medicine
- Abstract
- Keywords
- A quantum state of mind
- Applying quantum computing in medicine
- Genomics and clinical research
- Diagnostics
- Treatments and interventions
- Making it practical and useful
- References
- Chapter 7 Gene therapy: State of the art precision medicine
- Abstract
- Keywords
- Introduction
- Current gene therapy studies in rare diseases
- Risk factors and challenges of gene therapy
- Immune responses
- Targeting the wrong cells
- Tumor formation
- Ethical concern
- High cost of gene therapy
- Long-term impact of gene therapy
- Multifactorial diseases
- The future of gene therapy in rare disease
- Antisense oligonucleotides, small molecule drugs, and enzyme replacement therapy
- Embryo screening and prenatal gene therapy for rare diseases
- Conclusions
- References
- Chapter 8 Precision mitochondrial medicine: Uncovering pathways across diverse diseases
- Abstract
- Keywords
- Introduction
- The landscape of mitochondrial dysfunction
- Mitochondrial structure and function
- Implications of mitochondrial health in chronic diseases
- Precision medicine
- Addressing current challenges in progressing precision mitochondrial medicine
- State-of-the-art technologies facilitating diagnosis of mitochondrial diseases
- Conclusions
- References
- Chapter 9 Antigen-specific immunotherapy: The ultimate precision medicine for the treatment of autoimmune diseases
- Abstract
- Keywords
- Overview
- Introduction
- Self/nonself-discrimination
- Autoimmune diseases
- Current treatments for autoimmune diseases
- Antigen-specific immune regulation for the treatment of allergy
- Lessons learned on delivery of antigens for autoimmune diseases
- Therapeutic approaches suitable for the delivery of intact antigens
- Therapeutic approaches based on T cell epitopes
- Clinical trials of immunotherapy with apitopes
- Precision medicine and antigen-specific immunotherapy
- Conclusions
- References
- Chapter 10 The future of precision diabetes: Digital twin
- Abstract
- Keywords
- Overview of diabetes: Prevalence and global impact
- Biomarkers in diabetes: Current landscape
- Digital twin technology in diabetes management
- Digital twin technology overview
- Artificial intelligence in diabetes management
- Machine learning and healthcare sensor data
- Whole body digital twin technology
- Predictor implementation
- Sensors and data collection
- Twin app for personalized recommendations
- Operation and support
- Patent and operationalization
- Data correlation and recommendations
- Glycemic improvements
- MAFLD improvement
- Cardiovascular improvements
- Improvements in complications
- Additional improvements
- Measures of success and future consolidation
- Consolidating gains in future diabetes management
- Continuous monitoring and feedback
- Dynamic adjustments and early interventions
- Patient education and engagement
- Integration of advanced technologies
- Research and development
- Future directions in diabetes prevention and reversal
- References
- Chapter 11 Precision oncology: Indications and challenges in the implementation of high-throughput sequencing in clinical practice
- Abstract
- Keywords
- Introduction
- Precision medicine studies in pan-cancer indications
- Molecular tumor board: Definition and objectives
- Levels of actionability of molecular alterations
- High-throughput sequencing: Clinical applications
- Challenges in interpreting NGS
- Challenges in implementing NGS on a large-scale basis
- Integration of big data in clinical practice_ future perspectives
- Conclusion
- Annex 1: Case studies
- References
- Chapter 12 Bringing “precision” to psychiatry: Challenges and promises
- Abstract
- Keywords
- Identification of etiological risk factors
- Identification of biological mechanisms underlying etiological risk factors using model systems
- Human brain imaging and integration with genetic information
- Drug discovery efforts and integration of genetic information
- Artificial intelligence (AI) in the implementation of precision psychiatry
- Conclusion
- References
- Chapter 13 Precision medicine in cardiovascular disease
- Abstract
- Keywords
- Precision in cholesterol/atherosclerosis/coronary artery disease
- Hypertensive heart disease
- Cardiomyopathy/arrhythmias
- The return to precision and personalization
- Precision medicine in cardiovascular disease
- Coronary artery disease (CAD)
- Myocardial infarction (MI)
- Hypertension
- Heart failure
- Advancements in technology provide the road to prevention
- The specific case for type 2 diabetes
- References
- Chapter 14 Precision bone health: Genetic testing for low bone density
- Abstract
- Keywords
- Acknowledgments
- Overview
- Osteoporosis is a major health concern
- Bone growth is dynamic
- How osteoporosis is diagnosed
- Most cases of osteoporosis are undiagnosed
- Genetic studies on bone mineral density and osteoporosis
- Polygenic risk scores for BMD and osteoporosis
- DNA testing to diagnose and treat osteoporosis
- The future: P4 medicine for osteoporosis
- References
- Chapter 15 Functional nutrigenomics: A personalized shift in treating inflammation
- Abstract
- Keywords
- Introduction
- The role of nutrition in medicine
- MTHFR and HNMT
- Clinical considerations
- COMT
- GSH and Gpx
- Clinical considerations
- NRF2, KEAP1
- Clinical considerations
- HO-1
- Clinical considerations
- Histamine
- Histamine intolerance
- Clinical considerations
- Tools for analysis—Where we’re at
- Conclusion
- References
- Chapter 16 Regulating ferroptosis: Toward precision treatment of dysregulated cell death
- Abstract
- Keywords
- Introduction
- Short history of ferroptosis
- Iron accumulation
- Lipid peroxidation
- The process of ferroptosis
- Ferroptosis and cancer
- Initiation of ferroptosis
- Repair mechanism
- Natural products to regulate ferroptosis
- Andrographis (+)
- Apigenin (±)
- Artemisinin (+)
- Astaxanthin (−)
- Baicalein (−)
- Brusatol (+)
- Curcumin (±)
- Epigallocatechin-3-gallate (EGCCG) (−)
- Erianin (+)
- Kaempferol (−)
- Melatonin (−)
- N-Acetylcysteine (−)
- Piperlongumine (+)
- Quercetin (±)
- Selenium (−)
- Sulforaphane (±)
- Vitamin D (±)
- Vitamin E (−)
- Vitamin K (−)
- Patient assessment and treatment options
- References
- Chapter 17 Precision medicine for brain health and prevention of neurodegenerative/neurocognitive decline
- Abstract
- Keywords
- Acknowledgments
- Introduction
- Blood work and precision medicine: History and limitations
- Neuroimaging as part of precision medicine
- Genomics as the ultimate “n” of 1 precision tool
- Genetic diseases vs genomic contributing factors
- A closer look at “what we are calling Alzheimer’s”
- A focus on the role of genomics for improving outcomes in cognitive decline
- Digging into cognitive decline and neurodegenerative disease
- Contributing factors to cognitive decline
- Brain ischemia
- Oxidative stress
- Inflammation
- Nutrient deficiencies
- Glutathione and detoxification
- Infectious contributing factors
- APOE4 and Alzheimer’s
- Pharmacogenomics vs genomics for clinical decision support
- Utilizing genomics for reversal of cognitive decline
- Conclusion
- References
- Chapter 18 The gut microbiome in personalized precision medicine
- Abstract
- Keywords
- Introduction
- Human biome in health and disease
- Dietary choices and the microbiome
- Current clinical knowledge and interventions
- Microbiome analysis tools for precision medicine
- Community interconnections in the microbiome
- Current advances and future challenges for microbiome-mediated precision medicine
- References
- Chapter 19 Exposome and detoxification
- Abstract
- Keywords
- Introduction
- What is exposure?
- The age of plastics
- BPA
- Air pollution
- Genetic susceptibility to air pollution
- DNA damage from exposure
- CYP/PON1 and organophosphate pesticides
- Strategies
- Xenobiotic detoxification in humans
- Phase 1
- Phase 2
- Glutathione S-transferases Mu 1 (GSTM1) and theta 1 (GSTT1)
- Catechol-O-methyltransferase (COMT)
- UGT
- Current available strategies
- Nutritional pharmacology/toxicology
- Toward individualized exposome medicine
- Large-scale efforts
- Exposomics—Lifecyle medicine
- References
- Chapter 20 Unraveling the threads of time: Longevity and DNA repair mechanisms
- Abstract
- Keywords
- Introduction
- DNA damage and aging
- Hallmarks of aging
- Genomic instability
- Telomere attrition
- Epigenetic alterations
- Impaired proteostasis
- Cellular senescence
- Longevity pathways
- mTOR
- AMPK
- Sirtuins and NAD+
- IIS (insulin/IGF-1)
- DNA repair mechanisms
- Base excision repair (BER)
- Nucleotide excision repair (NER)
- Mismatch repair (MMR)
- Double-strand break repair (DSBR)
- Telomere maintenance
- Interplay of longevity pathways with DNA repair mechanisms
- Genetic variants in other key DNA repair tumor suppressor genes
- TP53 (p53)
- ATM (ataxia telangiectasia mutated)
- CHEK2 (checkpoint kinase 2)
- RAD51
- PARP1 (poly(ADP-ribose) polymerase 1)
- Modulation of DNA repair mechanisms
- Antioxidants in DNA repair
- Longevity pathway nutrients and DNA repair
- Nicotinamide adenine dinucleotide (NAD+)
- Nicotinamide (NAM)
- Quercetin
- Omega-3 fatty acids
- Emerging technologies in longevity medicine
- Clinical practice of longevity medicine
- Personalized interventions
- Comprehensive health assessments
- Precision diagnostics
- Therapeutic targeting of aging pathways
- Regenerative medicine
- Clinical translation challenges
- Demographic shifts
- Economic considerations
- Ethical and cultural perspectives
- Technological disruption
- Policy and governance
- Public perception and education
- Longevity resources for research
- Conclusion
- References
- Chapter 21 Considering ethics in precision medicine
- Abstract
- Keywords
- Introduction
- Equity in precision health research
- Equity in precision health clinical medicine
- Autonomy and informed consent
- Privacy and confidentiality
- Conclusion
- References
- Chapter 22 Personomics: The personalization of precision medicine
- Abstract
- Keywords
- A patient with heart failure: The traditional approach
- A patient with heart failure: The personomics approach
- How does personomics differ from patient-centered care?
- Personomics: The personalization of precision medicine
- References
- Index
- Edition: 1
- Published: November 22, 2024
- Imprint: Academic Press
- No. of pages: 448
- Language: English
- Paperback ISBN: 9780323988087
- eBook ISBN: 9780323972765
WS
William P. Stanford
Dr Stanford MD, PhD is a physician-scientist and Fellow of the American College of Physicians. He is one of the pioneers in the field of hospital medicine. In 2002, he founded and led a 25-physician group of private practice hospitalists at Cedars-Sinai Medical Center. From 2001-2018, he was the physician of record for over 150,000 patient encounters. He was elected by his peers to be Clinical Chief of General Internal Medicine, serving in this capacity from 2017 to 2018. Advances in genomics and precision medicine inspired him to pivot again, this time to precision medicine. He completed Professional Certification in Genetics and Genomics through Stanford University in 2018. In 2018, he founded the Beverly Hills Institute for Precision Medicine and continues to present as the Chief Medical and Scientific Officer. He regularly attends and frequently speaks at precision medicine conferences, most recently at the Precision Medicine World Conference in January of 2020
Affiliations and expertise
Chief Medical Officer, Beverly Hills Institute for Precision Medicine, , Beverly Hills, CA, USALK
Laura Kelly
Laura Kelly DAOM, MATCM, L. Ac, Dipl. OM is a nationally licensed Doctor of Oriental Medicine. She is in general practice in Los Angeles with a focus on resolving chronic disease through personalized precision medicine. This practice has expanded to include telemedicine consults with patients throughout the US as well as consults for practicing physicians on the use of genomics and nutrition in chronic disease resolution. In 2019 she founded Opal Health where she is currently CEO and CSO, creating precision prevention tools for corporate implementation as well as for the general public.
Affiliations and expertise
Chief Science Officer, Opal Health Los Angeles, California, USARead Implementation of Personalized Precision Medicine on ScienceDirect