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Research programme

Building a mechanistic cross-scale research programme

Longevity and aging biology define the search space; the strategic focus is the bridge from genetic and omics signals to protein structure, molecular function, proteostasis and computational systems inference. The lead concept remains under selection.

Concept developmentNo results claimedScope under evaluation

Scientific architecture

From broad field to precise programme

Longevity is the thematic frame. The fundable scientific object must emerge from a narrower, defensible and person-specific research question.

Decision test 01

Is the question genuinely mechanistic?

A strong concept must identify a causal uncertainty, not merely another association with chronological age.

Decision test 02

Can the hypothesis fail clearly?

The experimental and computational design must expose the central proposition to meaningful falsification.

Decision test 03

Does each method earn its place?

Every measurement layer must answer a defined question and connect to the programme's causal logic.

Decision test 04

Is the ambition executable?

Novelty, expertise, access, timing, risk and validation must remain coherent at programme scale.

Research domains

Scientific territory across ten connected domains

These domains define the search space; they do not yet constitute a selected study or funded project.

01

Aging Biology

Mechanistic study of how biological function changes across molecular, cellular and systemic scales.

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02

Genomics

Sequence variation, genome architecture and regulatory landscapes.

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03

Multi-Omics

Joint analysis of genomic, epigenomic, transcriptomic and proteomic layers.

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04

Structural Biology

Three-dimensional biomolecular structure and its relation to function.

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05

Molecular Biophysics

Physical principles governing molecular stability, dynamics and interaction.

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06

Bioinformatics

Reproducible computational analysis of large-scale biological data.

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07

Systems Biology

Network-level models of interacting biological components and states.

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08

Precision Medicine

Inter-individual biological variation and heterogeneous trajectories.

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09

Translational Research

Connecting mechanistic questions with potential clinical relevance.

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10

Longevity Science

Determinants of healthspan, resilience and variation in biological aging.

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Development logic

From researcher track record to experimental programme

The programme is deliberately built in sequence: verified capability first, then horizon scanning, validated knowledge gaps, concept competition and only then a selected experimental programme.

  1. 01

    Scientific Track Record

    Verify publications, methods, independence and scientific trajectory for the candidate researchers.

  2. 02

    Horizon Scanning

    Map frontier aging biology, emerging technologies, contradictions and unresolved mechanisms.

  3. 03

    Unresolved Problems

    Identify questions whose scientific importance extends beyond descriptive biomarker discovery.

  4. 04

    Knowledge Gaps

    Validate where current mechanistic explanation genuinely ends using current primary evidence.

  5. 05

    Research Opportunities

    Generate a broad portfolio of serious, person-specific frontier-research directions.

  6. 06

    Concept Competition

    Score and red-team candidate concepts for novelty, PI fit, high-risk/high-gain and feasibility.

  7. 07

    Lead Concept

    Select one research question only after novelty, competition and scientific fit survive deep review.

  8. 08

    Experimental Programme

    Build hypotheses, aims, methods, validation, statistics, risks and alternative strategies around the selected concept.

Candidate directions

Mechanistic priorities under comparative evaluation

The current list is exploratory. Status labels describe concept maturity only.

01

Biological Resilience

Why some biological systems maintain function longer than others.

Exploratory
02

Molecular Aging Signatures

Separating potentially causal molecular changes from correlates of age.

Exploratory
03

Multi-Omics Integration

Connecting heterogeneous molecular layers into interpretable models.

Research Area
04

Structural Drivers of Aging

How molecular structure and protein dynamics may relate to loss of function.

Exploratory
05

Precision Longevity

Understanding heterogeneous biological trajectories between individuals.

Research Area

Programme development

Evidence-gated programme development

The grant narrative follows the science. A proposal architecture is developed only after a coherent scientific concept survives profile, novelty and feasibility review.

  1. 01

    Phase 01

    Scientific Profile Mapping

    Verify expertise, track record, methods and available research capability.

  2. 02

    Phase 02

    Horizon Scan

    Map the current field, emerging methods and competing research directions.

  3. 03

    Phase 03

    Knowledge Gap Analysis

    Identify open questions with genuine mechanistic and conceptual value.

  4. 04

    Phase 04

    Research Concepts

    Formulate candidate programmes with explicit assumptions and hypotheses.

  5. 05

    Phase 05

    Concept Selection

    Evaluate novelty, feasibility, fit and scientific significance.

  6. 06

    Phase 06

    Experimental Design

    Specify models, controls, power, analysis and validation strategy.

  7. 07

    Phase 07

    Pilot Evidence

    Plan the evidence needed to de-risk central scientific assumptions.

  8. 08

    Phase 08

    Grant Architecture

    Structure objectives, work packages, risks and resources.

  9. 09

    Phase 09

    Proposal Development

    Draft, challenge and revise the scientific case.

  10. 10

    Phase 10

    Submission Readiness

    Complete compliance, consistency and quality assurance.