All Competitors

Every biological foundation model, evaluated and ranked by the bio.rodeo team

Showing 115 of 15 filtered models

  • HoloCell

    Beijing Zhongguancun AcademyJune 11, 2026cross_modal_generationdiffusionepigenomics+7

    860M-parameter generative single-cell foundation model that jointly represents and generates epigenomic, transcriptomic, and proteomic modalities.

    Single-cellDNA & Gene
    21Openness
  • Columbia UniversityFebruary 17, 2026dna_methylationepigenomicsfoundation_model+4

    Transformer that infers whole-genome DNA methylation from gene expression, generalizing zero-shot to unmeasured CpG sites and unseen samples.

    DNA & Gene
    10Openness
  • GenoME

    1
    Changping Laboratory +1 otherDecember 28, 2025chromatinepigenomicsfoundation_model+8

    Mixture-of-Experts generative model turning DNA sequence plus cell-type ATAC-seq into unified epigenomic, transcriptomic, and 3D chromatin profiles.

    DNA & GeneSingle-cell
    8Openness
  • Melody

    Shandong University +2 othersNovember 23, 2025cnndna_methylationepigenomics+5

    Deep learning framework that predicts DNA methylation from genomic sequence across 39 human tissues, with an scRNA-seq variant for unseen cell types.

    DNA & Gene
    8Openness
  • University of TokyoJuly 25, 2024bertchromatinchromatin_state_modeling+7

    Chromatin-state language model pretrained on ROADMAP annotations from 127 human cell types to find chromatin-state motifs and predict gene expression.

    DNA & Gene
    86Openness
  • University of TübingenJuly 25, 2023dna_methylationepigenomic_predictionepigenomics+5

    Multi-language transformer framework using five pre-trained language models to predict DNA methylation (6mA, 4mC, 5hmC) across species.

    DNA & Gene
    89Openness
  • mEthAE

    34
    Wageningen University & ResearchJuly 18, 2023autoencoderdna_methylationepigenomic_prediction+3

    Chromosome-wise explainable autoencoder that compresses DNA methylation array data up to 400-fold while keeping CpG groupings interpretable.

    DNA & Gene
    47Openness
  • EpiGePT

    3311
    Tsinghua UniversityJuly 18, 2023chromatinepigenomicsfoundation_model+2

    Transformer model predicting context-specific epigenomic signals across cell types using DNA sequence and transcription factor activity profiles.

    DNA & Gene
    65Openness
  • Hunan Normal UniversityDecember 14, 2022chromatindeep_learningepigenomic_prediction+4

    Gene expression prediction from histone modifications, combining self-attention with dense convolutions and transfer learning across cell types.

    DNA & Gene
    22Openness
  • Seoul National UniversityNovember 4, 2022chromatindeep_learningepigenomic_prediction+4

    Transformer predicting gene expression from histone modifications, using promoter-enhancer Hi-C interactions to capture distal regulatory effects.

    DNA & Gene
    71Openness
  • iDNA-ABF

    15141
    Shandong UniversityOctober 17, 2022dna_methylationepigenomic_predictionepigenomics+4

    DNA language model for interpretable prediction of 4mC, 5hmC, and 6mA methylation sites across species, using multi-scale k-mer BERT encoders.

    DNA & Gene
    53Openness
  • INTERACT

    1125
    Lieber Institute for Brain DevelopmentAugust 16, 2022deep_learningdna_methylationepigenomic_prediction+4

    Deep learning model predicting DNA methylation regulatory variants at CpG sites in the human brain, fine-mapping psychiatric disorder risk loci.

    DNA & Gene
    9Openness
  • BERT6mA

    516
    Kyushu Institute of TechnologyMarch 10, 2022dna_methylationepigenomic_predictionepigenomics+4

    BERT-based predictor of DNA N6-methyladenine (6mA) modification sites, using word2vec encoding and cross-species transfer learning.

    DNA & Gene
    45Openness
  • Ghent UniversityJanuary 12, 2022dna_methylationdna_methylation_imputationepigenomic_prediction+4

    Transformer that imputes missing CpG methylation states from sparse single-cell bisulfite sequencing, modeling genomic and cell-level structure.

    DNA & Gene
    79Openness
  • University of VirginiaDecember 4, 2017chromatindeep_learningepigenomic_prediction+3

    Attention-based model predicting gene expression from histone modification signals across 56 cell types, with interpretable attention scores.

    DNA & Gene
    80Openness