The Virtual Cell, Honestly: What Actually Works
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The Virtual Cell, Honestly: What Actually Works

The "virtual cell" is one of biology's most exciting goals — a model that predicts how a cell responds to a perturbation without running the experiment. Our Virtual Cell Modeling survey maps the field. But the most important recent development isn't a new model; it's an honesty correction — and it's worth being clear-eyed about where the technology really stands.

The correction the field needed

Two 2025 benchmarks landed hard: Ahlmann-Eltze et al. showed deep perturbation predictors do not yet beat a simple additive model (combinatorial) or the training mean (unseen genes), and Kedzierska et al. showed single-cell foundation models often lose to plain baselines zero-shot. Even the AI-Virtual-Cell roadmap concedes no system today is a true virtual cell. The strongest results came from hybrids — curated data + explicit statistical priors — not brute-force neural nets.

What BioMate does

  • Mechanistic virtual-cell workflows, today. Four workflows run on AWS Batch — CiPA cardiac-safety ODE, ODE signaling, metabolic-flux FBA, and LINCS-L1000 transcriptomic mechanism-of-action — the regulatorily-accepted end of the virtual-cell spectrum, wired to existing ADMET/PBPK/RNA-seq pipelines.
  • Baseline-anchored evaluation. BioMate measures any model against simple baselines (cell-mean, additive) and an oracle ceiling on Perturb-seq-style data — trusting mechanistic and statistically-grounded methods over headline claims that don't replicate.
Compound / pathway inputMechanistic sim: CiPA ODE · FBA · L1000Baseline-anchored evaluationMechanism-of-action readout
Figure. How BioMate runs mechanistic virtual-cell workflows — the regulatorily-grounded end of the spectrum, on AWS Batch.
The bottom line. BioMate runs the mechanistic virtual-cell workflows that hold up today — cardiac-safety ODEs, metabolic flux, transcriptomic mechanism-of-action — paired with the baseline-anchored evaluation the field's own benchmarks demand.

References

  1. Bunne C, et al. How to build the virtual cell with artificial intelligence. Cell 2024;187:7045. doi:10.1016/j.cell.2024.11.015
  2. Ahlmann-Eltze C, Huber W, Anders S. Deep-learning perturbation prediction does not yet outperform linear baselines. Nat Methods 2025;22:1657. doi:10.1038/s41592-025-02772-6
  3. Replogle JM, et al. Genome-scale Perturb-seq. Cell 2022;185:2559. doi:10.1016/j.cell.2022.05.013

Go deeper: the full survey

This showcase is one half of a pair. For the complete, citation-backed map of the field — every method, its strengths and limits, and what is actually winning — read the Virtual Cell Modeling survey.

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Read the survey: Virtual Cell Modeling → · All surveys: Research Surveys → · More: Newsroom