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Virtual cells · Recent preprint · 2026-04-30

Virtual cells that predict perturbation response

Can models forecast how cell populations respond to unseen drugs, gene edits, cytokines and environmental changes across biological contexts?

What researchers are trying

STATE and successors model transitions between cellular states, while newer conditional-transport and in-context systems target larger perturbation atlases and unseen conditions.

Why it matters

Reliable virtual cells could prioritize experiments, reveal mechanisms and reduce the search space before high-dimensional wet-lab screens.

Evidence boundary

Recent strict evaluations show marked performance drops under unseen contexts and metric-dependent rankings; simple baselines remain competitive on some global trends.

Organizations represented

Arc Institute · Virtual Cell research community

Demonstrated evidence

What has actually been shown.

  • Large-scale benchmark and challenge ecosystems now compare perturbation models across Tahoe-100M and other datasets.

Unresolved questions

  • Can models recover perturbation-specific mechanisms rather than average expression shifts?
  • How should cell distributions, dose and time be represented?
  • Which metrics predict prospective experimental usefulness?

Signals to watch next

  • Virtual Cell Challenge results
  • Cross-dataset OOD tests
  • Mechanistic explanations
  • Prospective experimental validation
Connected evidence graph

Related BioAtlas model passports.

State / Stack

The first virtual-cell model predicting how cells react to drugs.

4/7 evidence fields documented

scGPT

A GPT for the language of single cells.

4/7 evidence fields documented

Geneformer

A transfer-learning foundation model of gene networks.

2/7 evidence fields documented
Primary and evaluation sources

Inspect the evidence directly.