Molecular Mechanisms
Protein structure, molecular interactions, proteostasis and cellular function.
Longevity knowledge map
Aging biology across molecular, cellular and systemic layers
The map is a conceptual research framework. It organises mechanisms and open questions without presenting clinical advice, intervention claims or project findings.
Conceptual mapNo therapeutic claimsEvidence architecture
Organising principle
No single mechanism explains aging
The programme examines how mechanisms interact across scales and how those interactions might be converted into precise, testable questions.
Genomic Regulation
Genomics, epigenomics, gene regulation and longitudinal molecular change.
Systems & Computational Biology
Multi-omics integration, biological networks, predictive models and precision medicine.
Knowledge architecture
Ten domains connected across three biological layers
Each node can later link to verified literature, candidate questions, methods and evidence records.
Layer 01
Molecular
Genomic Stability
DNA damage, repair capacity and genome-maintenance mechanisms.
Epigenetic Regulation
Chromatin state, DNA methylation and regulation of gene expression over time.
Proteostasis
Protein folding, quality control, degradation pathways and aggregation.
Layer 02
Cellular
Mitochondrial Function
Bioenergetics, mitochondrial quality control and metabolic output.
Cellular Senescence
Stable cell-cycle arrest and potential tissue-level consequences.
Stem Cell Exhaustion
Changes in the regenerative capacity of tissue-resident progenitors.
Layer 03
Systemic
Intercellular Communication
Signalling between cells and tissues, including systemic factors.
Metabolic Regulation
Nutrient sensing, metabolic flux and energy allocation.
Immune Aging
Age-related remodelling of innate and adaptive immune systems.
Systems-Level Aging
Emergent behaviour of interacting mechanisms across biological scales.
Research lenses
Three ways to turn the map into a programme
The lenses help distinguish a descriptive catalogue of aging from a mechanistic research strategy.
Lens 01
Perturbation
How does a biological system respond when challenged, and which variables determine recovery?
Lens 02
Resilience
Which network properties preserve function, and where does buffering capacity begin to fail?
Lens 03
Cross-scale causality
How can molecular observations be connected to cellular and systemic outcomes without overclaiming?