DNA change detected
Example event: a single-base substitution.
Sequence: A → G
Compartment: cell nucleus
Next step: compare lineage history.
Hypothetical event, not patient data or a disease prediction.
Explore how computational models could simulate possible changes inside the human body—your “sandbox”—from internal biological processes to changes in DNA, RNA, and disease-related cellular pathways.
The sandbox starts with a baseline biological state and explores alternative trajectories under explicit assumptions. Follow a cell through modeled time to examine a change in its DNA and the questions it raises. The animation illustrates synthetic cell events.
Example event: a single-base substitution.
Sequence: A → G
Compartment: cell nucleus
Next step: compare lineage history.
Hypothetical event, not patient data or a disease prediction.
Define the starting state, selected biological processes, parameters, and limits of a narrow model.
Run reproducible ensembles to explore different modeled events over a chosen time horizon.
Track a flagged cellular lineage backward through its simulated history to examine preceding transitions.
Compare counterfactual scenarios and identify hypotheses that deserve independent experimental research.
Your body is the sandbox. Each biological property has its own timeline, beginning with measurements recorded at your checkup and extending to age 70. Possible paths depend on your baseline values, age, tissue or compartment, and the processes and assumptions represented in the model.
Each card represents a different biological property. Explore alternative paths from the checkup baseline to age 70. These illustrative shapes explain the research concept; personalized trajectories require measured inputs and a validated model.
A checkup establishes the starting measurements for this property. Different people and different assumptions can produce different modeled paths. This preview uses synthetic shapes, without calculating personal health outcomes.
A complete human simulation is a long-term ambition. The next practical step is a small, reproducible synthetic demonstration with clear boundaries.
PHASE 01 CURRENT. Document the vision, architecture, uncertainty, and research questions. Establish the difference between proposed and demonstrated capabilities.
PHASE 02 / PROPOSED. Build ensemble execution, lineage events, and reports using a simplified synthetic cell population. Measure reproducibility and computing costs.
PHASE 03 / PROPOSED. Select a narrow subsystem with domain experts. Compare against independent experimental evidence before expanding the model's scope.
Read the project foundations, examine the assumptions, and explore what comes next.
AI-assisted analysis and centralized simulation tickets are proposed architecture components. This website does not run a biological simulation.
The GitHub research repository currently requires access.