Every biological foundation model, evaluated and ranked by the bio.rodeo team
Single-cell foundation model that compresses each expression profile into 64 cross-attention patch tokens for annotation and spatial transfer.
Single-cell foundation model fusing scRNA-seq with protein structure embeddings and subcellular localization priors through cross-attention.
Single-cell foundation model with 800M parameters trained on ~100 million human cells, for annotation, perturbation prediction, and gene analysis.
Generative language model for single-cell transcriptomics with 368M parameters, unifying cell type annotation, batch integration, and cell generation.
Single-cell foundation model trained on 30 million transcriptomes, binning genes by expression rank to give context-aware gene and cell embeddings.
Single-cell foundation model with rank and expression-aware input streams, pairing masked gene modeling with cell-level contrastive learning.
Single-cell foundation model adding a gated cell-level contrastive objective to masked expression pretraining for transferable frozen cell embeddings.
World model that simulates a human cell as one persistent state, propagating drug and gene perturbations from DNA through to whole-cell morphology.
860M-parameter generative single-cell foundation model that jointly represents and generates epigenomic, transcriptomic, and proteomic modalities.
Single-cell language model that prepends biomedical knowledge-graph tokens to cell sentences, grounding cell type annotation in pathway structure.
Transcriptomic foundation model pretrained on 67M single-cell and spatial profiles, modeling gene expression and inter-cellular dependencies.
Single-cell foundation model for yeast that injects regulatory network priors into transformer attention for zero-shot and fine-tuned analysis.
Single-cell foundation model built on masked discrete diffusion, jointly generating gene identities and expression values from 59 million cells.
Virtual-cell model that compresses a transcriptome into eight discrete tokens in a reasoning LLM's vocabulary, predicting module-level drug response.
Single-cell foundation model domain-adapting Llama-3.1-8B on 1.3M gastric cancer cells with gene-family cell sentences instead of ranked-gene order.
Single-cell foundation model tokenizing expression profiles with a residual-VQ autoencoder to generate new cells of a type from held-out examples.
Single-cell foundation model that learns cell and gene embeddings by latent-space self-distillation rather than reconstructing masked expression.
Single-cell foundation model trained by metric learning to embed scRNA-seq profiles for cell type annotation and similarity search in cell atlases.