🧬 Genomics
Study of the complete DNA sequence of organisms — including whole-genome sequencing, variant analysis, and population genetics.
Used to understand disease risk, inherited traits, and evolution.
Understanding life at its most fundamental level — genes, regulation, inheritance, disease risk, longevity, and the future of personalized medicine powered by biology and AI.
Structured knowledge — from fundamentals to cutting-edge research
Study of the complete DNA sequence of organisms — including whole-genome sequencing, variant analysis, and population genetics.
Used to understand disease risk, inherited traits, and evolution.
How genes are switched ON or OFF without changing DNA sequence — influenced by age, environment, stress, diet, and lifestyle.
Central to aging, cancer, mental health, and cell reprogramming.
Genetic variants linked to schizophrenia, cancer, diabetes, cardiovascular disease, neurodegeneration, and rare disorders.
Includes polygenic risk scores and inherited mutations.
How genetic differences affect drug response — dosage, side effects, effectiveness, and toxicity.
Reduces trial-and-error medicine.
Telomeres, DNA damage, epigenetic clocks, mitochondrial genetics, inflammation, and cellular stress pathways that control aging speed.
Foundation for anti-aging and regenerative medicine.
AI models applied to gene expression analysis, variant prediction, protein folding, drug discovery, and personalized treatment design.
Future medicine will be computational + biological.