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Multi-Omics · Epigenomics

Precision Begins at
the Epigenome

DNA Methylation · Histone Modification · Chromatin Remodeling · Clinical Translation · Gene Regulation · Disease Risk

28M+

CpG Sites

400+

Histone Marks

100%

Patient-Centered

Board

Certified Standard

Department Overview

Ep·i·ge·nom·ics

/ ˌepəjəˈnōmiks /  ·  noun

noun  ·  precision science

The study of heritable changes in gene expression that do not involve alterations to the underlying DNA sequence including DNA methylation, histone modification, and chromatin remodeling - and their role in health and disease.

Origin

From Greek epi- (upon, above) + genesis (origin) + -ome (complete set). The concept was introduced by Conrad Waddington in 1942 to describe how genes interact with their environment to produce a phenotype.

The Epigenomics Department at the American Board of Precision Medicine explores the layer of biological regulation that sits above the genome itself - training clinicians to understand how environmental exposures, lifestyle factors, and aging rewrite the chemical marks that govern gene expression without changing a single base pair.

From DNA methylation profiling and histone modification mapping to chromatin accessibility assays and non-coding RNA analysis, this department equips physicians to interpret epigenetic signatures that drive cancer, cardiovascular disease, neurological conditions, and aging, and to apply that knowledge at the point of care.

Unlike the fixed sequence of the genome, the epigenome is dynamic and potentially reversible making it one of the most promising frontiers for therapeutic intervention and at ABOPM, a cornerstone of precision medicine training.

28M+

CpG Sites

400+

Histone Marks

Clinical Possibilities

Epigenomics Department · ABOPM

Where the Epigenome Meets
Clinical Purpose

The Epigenomics Department at ABOPM exists at the intersection of gene regulation science and patient care - training physicians to decode the epigenome, apply its insights, and transform outcomes across every clinical specialty.

Epigenomic Discovery

Advancing research in DNA methylation, histone modification, chromatin remodeling, and non-coding RNA regulation expanding our understanding of how gene expression shapes human health and disease without altering the underlying sequence.

Clinical Translation

Bridging epigenetic laboratory science and bedside medicine - developing board-certified frameworks for epigenetic biomarker interpretation, reversible disease modification, and precision therapeutic targeting across oncology, aging, and metabolic medicine.

Physician Education

Building the next generation of epigenomics-fluent clinicians through rigorous board standards, interdisciplinary training, and collaboration across molecular biology, oncology, neurology, and environmental medicine.

"The epigenome is not written in stone - it is written in experience. The Epigenomics Department at ABOPM trains physicians to read those marks, interpret their clinical signals, and intervene with precision and purpose."

American Board of Precision Medicine · Epigenomics Department
Epigenomics Department · ABOPM

Translating the Epigenome
Into Clinical Impact

The epigenome is the most clinically actionable layer of human biology - written not in sequence, but in experience. Learning to read it is not optional for the future of medicine - it is foundational.

Epigenomics equips clinicians to move beyond static genetic risk and into the dynamic, reversible mechanisms that regulate gene expression - enabling earlier detection, targeted intervention, and care that responds to environment, behavior, and disease at the molecular level.

H3/H4 H2A/H2B H3K27me3 H3K4me3 H2A/H2B CpG CpG 5mC 5mC CpG DNA Methylation Histone Marks Chromatin Remodeling ncRNA Regulation

By mastering epigenomics, clinicians gain the power to:

01
Detect Disease Earlier
Identify aberrant methylation patterns and histone modification signatures before clinical symptoms emerge - enabling intervention at the earliest epigenetically detectable stage of disease.
02
Target Reversible Mechanisms
Unlike fixed genetic mutations, epigenetic marks are dynamic and reversible - giving clinicians the ability to intervene directly in gene regulation with epigenetic therapies and lifestyle-based modifications.
03
Interpret Epigenetic Biomarkers
Apply methylation clocks, chromatin accessibility assays, and histone mark profiles as clinical biomarkers - translating epigenomic data into actionable patient decisions with confidence.
04
Understand Environmental Impact
Connect exposures - diet, stress, toxins, and aging - to their epigenetic consequences, enabling preventive strategies that account for the full biological cost of a patient's environment.
05
Lead Precision Care
Become the epigenomics-fluent clinician your institution needs - positioned at the frontier of medicine where gene regulation science meets transformative patient impact.

Why Epigenomics Fluency Is Non-Negotiable

The regulatory layer is here. The clinical tools are ready. The question is, are you?

Patient Outcomes

Epigenomics-guided care opens therapeutic windows unavailable to genomics alone - targeting reversible marks to restore normal gene expression and halt disease progression.

Future-Ready Practice

Epigenetic drugs are already FDA-approved across oncology, and methylation-based diagnostics are entering routine clinical use - clinicians who can't interpret them will be left behind.

Clinical Authority

Board certification in epigenomics positions you as a recognized leader at the intersection of molecular biology and clinical medicine where few physicians currently hold expertise.

Interdisciplinary Impact

Epigenomics spans every specialty: oncology, neurology, immunology, aging medicine, and reproductive health giving you tools that connect biology, environment, and disease across all of medicine.

Active research areas driving epigenomic medicine forward:

01
DNA Methylation Profiling
Mapping CpG methylation patterns across the genome using whole-genome bisulfite sequencing and methylation arrays - identifying aberrant marks that silence tumor suppressors, drive aging, and stratify disease risk.
02
Histone Modification Analysis
Characterizing the histone code - acetylation, methylation, phosphorylation, and ubiquitination marks to understand how chromatin state controls gene activation, silencing, and therapeutic vulnerability.
03
Chromatin Accessibility & 3D Genome
Using ATAC-seq and Hi-C technologies to map open chromatin regions, enhancer-promoter loops, and topologically associating domains revealing the regulatory architecture that governs gene expression programs.
04
Epigenetic Clocks & Biological Aging
Applying methylation-based biological age calculators - Horvath, Hannum, GrimAge to quantify accelerated aging, predict disease onset, and evaluate the epigenetic impact of lifestyle and therapeutic interventions.
05
Epigenetic Therapy & Drug Targets
Investigating DNMT inhibitors, HDAC inhibitors, BET bromodomain inhibitors, and emerging epi-drug combinations - translating epigenetic mechanisms into reversible, clinically actionable therapeutic strategies.
Epigenomics Research · ABOPM
Pushing the Frontier of Epigenomic Science

The epigenomics revolution is not a future event - it is happening now. DNA methylation clocks, histone-targeting therapies, and chromatin-level biomarkers are actively reshaping how disease is understood, detected, and treated at the gene regulation level.

The ABOPM Epigenomics Department positions clinicians at the center of this transformation - equipping them with the scientific literacy, clinical frameworks, and board-certified credentials to lead epigenomic medicine in any specialty.

$4.5B
Global epigenomics market by 2028
20+
FDA-approved epigenetic drugs in use
97%
of cancers show epigenetic dysregulation
Explore Blog Topics Read clinical insights, case studies & epigenomics updates on our blog
Epigenomics Department · ABOPM

Meet Our Leadership

Director of Epigenomics —

Varun Dwaraka, PhD — Director of Epigenomics
Director
Epigenomics
Director of Epigenomics

Varun Dwaraka, PhD

Computational Bioinformatician · Epigenetics, Ageing & Biomarker Identification · Precision Medicine
Computational and bioinformatics scientist specializing in ageing, epigenetics, and biomarker identification uncovering the molecular marks that define biological age and disease risk.

Dr. Dwaraka is Head of Bioinformatics at TruDiagnostic, where he leads machine-learning efforts to uncover epigenetic biomarkers associated with molecular ageing, disease, and mortality risk. His work integrates metabolic, proteomic, phenotypic, and DNA methylation data to develop novel age-predictive algorithms.

He holds a PhD in Biology from the University of Kentucky, where he studied the genetic and epigenetic foundations of tissue regeneration in salamanders. His undergraduate training in Molecular, Cellular, and Developmental Biology at UC Santa Cruz focused on bioinformatics.

He has contributed to major research initiatives at institutions including UCSF and the Carnegie Institute of Science, with work featured in Nature Aging and Genome Medicine. He is also a 2023 Foresight Fellow in Biotechnology and Health Expansion and has been featured in Forbes, BBC, Men's Health, Netflix, and HBO.

PhD
Univ. of Kentucky
Head
Bioinformatics · TruDx
2023
Foresight Fellow
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Faculty Members

Our faculty roster is growing - announcements coming soon.

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Genomics Department · ABOPM

Shaping the Future
of Precision Medicine

As precision medicine continues to evolve, genomics will play an increasingly central role in redefining how disease is understood, predicted, and treated at the molecular level.

The Genomics Department at ABOPM remains committed to advancing this field through scientific leadership, clinical innovation, and collaborative discovery. Together with our global community of physicians and researchers, we are helping shape the future of next-generation healthcare.

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