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VITAL INITIATIVE

ABOUT VITAL

Uniting the world's leading scientific forces
to build a multi-scale digital life system spanning from molecules and cells to the human body and ecosystems, propelling life sciences from “observation and description” toward “computation and prediction.”

After the Human Genome Project

From Mapping Life
to Understanding Life

Life is inherently dynamic, yet our understanding of it remains largely built upon static representations. The next frontier of life science is to move beyond mapping life's components toward understanding how living systems function across space and time.

Digital Life

The VITAL Initiative aims to integrate biological information across molecules, cells, tissues, organs, and organisms into a unified Digital Life framework. Through an iterative cycle of Observe – Model – Predict – Perturb – Validate, the Initiative seeks to establish digital models that are computable, emulable, verifiable, iterative, deducible, and manipulable—bringing us closer to the fundamental principles that govern living systems.

  • Cells
  • Tissues
  • Organs
  • Organisms

Building a Global
Scientific Foundation

This vision extends beyond the capabilities of any single discipline, institution, or nation. Achieving Digital Life requires the global scientific community to jointly develop new theories, shared standards, interoperable datasets, experimental platforms, computational models, and open scientific infrastructures, enabling digital models and living systems to evolve through continuous mutual validation.

Our Vision

Our ambition is not only to create digital twins of living systems,
but also to establish a new scientific paradigm for understanding life itself. By uncovering the fundamental principles of life's dynamic organization, the VITAL Initiative will provide a shared foundation for future advances in human health, biotechnology, precision medicine, artificial intelligence, and the life sciences.

Road Map

  1. 1.

    Data

    Data production

    • Multimodal imaging
    • Multiomics
    • Dynamic monitoring
  2. 2.

    Integration

    Alignment and integration

    • Unified coordinates
    • Metadata and standards
    • Cross modal fusion
  3. 3.

    Model

    Multiscale model

    • Molecule cell tissue organ individual
    • state variable
    • Level interface / translation rules
  4. 4.

    Validation

    Verify closed loop

    • forecast
    • Disturbance
    • Real time observation
    • Model update
  5. 5.

    Applications

    Application and Standard

    • Development / Disease / Aging
    • Drug evaluation
    • Precision medicine
    • Biological manufacturing
    • Validation criteria
  1. Phase I

    Build the base

    data base / standard / first sample

  2. Phase II

    Build the loop

    cross scale model / validation closed loop / benchmark

  3. Phase III

    Build the twin ecosystem

    application model / international standard / clinical and industrial transformation