Every biological foundation model, evaluated and ranked by the bio.rodeo team
Showing 361–384 of 423 filtered models
RNA language model that switches between nucleotide and byte-pair tokenization by input length, so one 117M encoder handles sequences of any length.
Generative biological foundation model placing DNA, RNA, and protein in one shared vocabulary, spanning genomic, proteomic, and cross-molecule tasks.
Unified DNA, RNA, and protein foundation model with 1.8B parameters, pretrained across 169,861 species to learn the central dogma from sequence.
Fine-tuned DNA language model that predicts differentially methylated cytosines in TET and DNMT3 knockout stem cells from sequence alone.
Interpretable model of human transcription initiation that decomposes promoter activity into a minimal set of sequence rules at base-pair resolution.
Genomic language model trained on metagenomic scaffolds that learns protein co-regulation and function by modeling gene context and operon structure.
Bulk tumor transcriptome model ensembling hundreds of variational autoencoders into interpretable cancer-specific latent spaces for 18 cancers.
Convolutional ensemble that predicts where and how much transcription initiates from human DNA sequence at single-nucleotide resolution.
Bidirectional, reverse-complement equivariant DNA language models built on Mamba state space models for long-range variant effect prediction.
DNA embedding model built on DNABERT-2, using contrastive learning to cluster sequences by species for metagenomic binning without labeled data.
Latent diffusion model for de novo DNA sequence generation, sampling species-conditioned promoter and gene regions of 256 or 2,048 base pairs.
Causal discovery foundation model that aggregates classical FCI or GIES estimates over small variable subsets into a global gene regulatory graph.
Nucleotide language model for prokaryotic promoter design, fine-tuned from one pretrained base into 27 species-specific generative checkpoints.
Generative model of bacterial gene content that expands a handful of chosen KEGG modules into the full gene complement a viable cell would need.
DNA language model for variant effect prediction across coding and non-coding regions, using whole-genome alignments of 100 vertebrate species.
Codon-vocabulary protein language model that converts ProtBERT to 64 codon tokens via embedding seeding, masked pretraining, and distillation.
Multi-language transformer framework using five pre-trained language models to predict DNA methylation (6mA, 4mC, 5hmC) across species.
Transformer model predicting context-specific epigenomic signals across cell types using DNA sequence and transcription factor activity profiles.
Chromosome-wise explainable autoencoder that compresses DNA methylation array data up to 400-fold while keeping CpG groupings interpretable.