Maintained by: BioJazz Lab, Department of Biology, Baylor University
Last updated: 2026-10-27
Purpose: Track AI/ML models relevant to BioJazz Lab research — phage-host interactions, genome-scale metabolic modeling, PTM-driven biomolecular assembly, and multi-scale eco-evolutionary dynamics.
- Protein Modeling & Design
- Molecular Dynamics & Conformational Sampling
- Molecular Docking & Binding Affinity
- Genomics & Metagenomics
- Metabolic Modeling & Systems Biology
- Phage Biology & Viromics
- Multi-omics & Proteomics
- Virtual Cell & Cell Simulation
- Computational Tools & Algorithms
| Model | Description | Access | Notes |
|---|---|---|---|
| AlphaFold3 | Structure prediction for proteins, DNA, RNA, ligands, ions | AlphaFold Server / GitHub | Best for single-chain and complex structures; supports PTMs |
| OpenFold3 | Open-source community reimplementation of AlphaFold3 (permissive license) | GitHub | Enables training and fine-tuning; basis for AQAffinity |
| RomeroLab/lightning-boltz | PyTorch Lightning training framework for Boltz-1/2; biomolecular structure prediction | GitHub | MIT-licensed; strong AlphaFold3 alternative for proteins, DNA, RNA, small molecules |
| ESMC (ESM Cambrian) | Protein language model (300M & 600M params); sequence representation, function prediction, embeddings | GitHub / HuggingFace | Successor to ESM-2; Dec 2024; no MSA needed; strong zero-shot function annotation |
| ESMFold2 | Fast single-sequence protein structure prediction; successor to ESMFold | GitHub / Biohub | EvolutionaryScale / CZ Biohub; no MSA; suitable for large-scale metagenomic screening |
| ESM-3 | Multimodal protein model (sequence, structure, function) | GitHub | Supports conditional generation; useful for design |
| ProtTrans (ProtBERT, ProtT5) | Protein sequence embeddings via transformer | GitHub / HuggingFace | Good for representation learning; classification tasks |
| RoseTTAFold2 / RoseTTAFold-All-Atom | Structure prediction; supports small molecules | GitHub | Handles non-protein atoms well |
| ProteinMPNN | Inverse folding / sequence design from backbone | GitHub | Useful for engineering phage tail fibers or enzymes |
| SaProt | Structure-aware protein language model | GitHub | Combines sequence + structure tokens |
| RFD4-Proteina | Generative diffusion model for de novo protein design (NVIDIA + UW Institute for Protein Design; successor to RFDiffusion) | GitHub / HuggingFace / NVIDIA NIM | 2026; open-weight; state-of-the-art backbone design |
| se3_diffusion (FrameDiff) | SE(3) diffusion model for de novo protein backbone generation | GitHub | Generates diverse backbone scaffolds; ICML 2023 |
| RigidSSL | Rigidity-aware geometric pretraining for protein design and conformational ensembles | GitHub / ICLR 2026 | SSL using rigid body augmentation; improves design and ensemble prediction |
| FoldDisco | Ultra-fast discontinuous structural motif search across the protein universe | GitHub | From Steinegger lab; indexes and queries billions of structures |
| PhosphoSitePlus ML tools | PTM site prediction | PhosphoSitePlus | Relevant for PTM-driven assembly project |
| DeepPhos / NetPhos | Phosphorylation site prediction | NetPhos | Classical PTM prediction |
| Model | Description | Access | Notes |
|---|---|---|---|
| ConforNets | Latent-based conformational control built on OpenFold3; generates and steers protein conformational ensembles | GitHub / arXiv | From aqlaboratory (OpenFold3 team); 2026 |
| BioEmu2 | Microsoft generative model for protein equilibrium conformational ensemble emulation | GitHub / HuggingFace | Replaces costly MD simulations for ensemble generation; thermodynamically grounded |
| yesint/molar | Rust + Python library for high-performance reading and analysis of MD trajectories | GitHub / Docs | Supports GROMACS, AMBER formats; fast alternative to MDAnalysis for large trajectories |
| David-OConnor/dynamics | Rust-based molecular dynamics simulation engine | GitHub / Docs | Lightweight MD library; useful for custom simulation workflows |
| Model | Description | Access | Notes |
|---|---|---|---|
| DiffDock | Diffusion-based protein–ligand docking | GitHub | State-of-the-art blind docking; relevant for enzyme–metabolite interactions |
| DiffDock-Glide | DiffDock pose sampling combined with Schrödinger Glide scoring for improved accuracy | GitHub | Hybrid approach; Glide rescoring improves pose selection |
| SurfDock | Surface-informed diffusion model for protein–ligand complex prediction; uses molecular surface geometry to guide pose sampling | GitHub / Nature Methods | Published Nature Methods 2024; strong blind docking benchmark performance |
| AQAffinity | Structure-free binding affinity prediction built on OpenFold3 (SandboxAQ) | SandboxAQ / Docs | High-speed drug potency prediction without requiring a solved structure; 2026 |
| Model | Description | Access | Notes |
|---|---|---|---|
| Nucleotide Transformer (NT) | DNA language models (500M–2.5B) for genomic sequences | GitHub / HuggingFace | Broad genomic tasks: variant effect, regulatory elements |
| DNABERT-2 | Multi-species DNA foundation model | GitHub | Better than DNABERT-1; tokenization improvements |
| Evo2 | DNA language model (7B & 40B params) trained on 9.3 trillion nucleotides across all domains of life; prokaryote, phage, and eukaryote genomes | GitHub | Arc Institute + NVIDIA; particularly relevant for phage-host research |
| HyenaDNA | Long-range DNA model (up to 1M context) | GitHub | Long genomic context; efficient architecture |
| Caduceus | Bidirectional, long-range DNA model | GitHub | State-space model; strong on genomic benchmarks |
| MMseqs2 | Ultra-fast many-against-many protein/nucleotide sequence search and clustering | GitHub | Essential for large-scale homology search and metagenomic annotation; orders of magnitude faster than BLAST |
| MMseqs2-GPU | GPU-accelerated MMseqs2 for massive-scale sequence search and clustering | GitHub | Same interface as MMseqs2; dramatically faster on GPU nodes; ideal for HPC metagenomics workflows |
| GenoME | Metagenomic classification and embedding | — | Useful for microbiome studies |
| DeepMicro | Deep learning for microbiome phenotype prediction | GitHub | Relevant for eco-evolutionary microbiome work |
| Model | Description | Access | Notes |
|---|---|---|---|
| MICOM | Community metabolic modeling (flux balance) | GitHub | Multi-species FBA; relevant for microbial community metabolism |
| DLKcat | Deep learning–based kcat (enzyme turnover) prediction | GitHub | Useful for parameterizing GEMs |
| UniKP | Unified enzyme kinetics prediction (kcat, Km, Ki) | GitHub | Broader than DLKcat |
| TurNuP / NNKD | kcat/Km prediction from sequence + substrate | — | Alternative kinetics tools |
| FluxML / COBRA.py | Constraint-based metabolic modeling frameworks | GitHub | Core tools for genome-scale metabolic models |
| gpuGEM | GPU-accelerated linear optimization for genome-scale metabolic models via NVIDIA cuOpt | arXiv | 1.1–94× faster than HiGHS; MIT-licensed; pip install gpugem; requires Volta+ GPU, CUDA 12, cuOpt 26.6+ |
| GEM-PRO | Structure-aware GEM construction | GitHub | Links protein structure to metabolic models |
| AutoML-GEM | ML-guided GEM refinement | — | Gap-filling and curation |
| DeepEC | EC number prediction from sequence | GitHub | Useful for annotating metabolic genes |
| ECRECer | Enzyme commission number prediction | GitHub | Alternative to DeepEC |
| Model | Description | Access | Notes |
|---|---|---|---|
| PhaTYP | Phage lifestyle (lytic/lysogenic) prediction | GitHub | Relevant for phage-host interaction studies |
| CHERRY | Phage-host interaction prediction | GitHub | Direct phage-host linkage from sequence |
| iPHoP | Integrated phage-host prediction | GitHub | Ensemble approach; recommended for metagenomics |
| DeepHost | Deep learning phage host range prediction | GitHub | Sequence-based host prediction |
| VirSorter2 | Virus identification in metagenomic data | GitHub | Standard virome discovery tool |
| VIBRANT | Virus identification and annotation | GitHub | Good for viral metabolic annotation |
| CheckV | Quality assessment of viral genomes | GitHub | Essential QC before downstream analysis |
| PhageAI | Phage lifecycle AI platform | PhageAI | Commercial; useful for classification |
| Evo2 (phage-tuned) | Generative model for phage and viral sequence design; zero-shot functional sequence generation | GitHub | Arc Institute + NVIDIA; strong zero-shot generalization to phage proteins |
| Model | Description | Access | Notes |
|---|---|---|---|
| Prosit | Peptide fragmentation and retention time prediction | GitHub / Prosit Server | Enhances MS/MS database search |
| AlphaPeptStats | Statistical analysis of proteomics data | GitHub | From Mann lab; PTM-aware |
| MSBooster | Deep learning–rescoring for proteomics | GitHub | Integrates with FragPipe pipeline |
| DeepMass:Prism | Deep learning for proteomics data analysis | — | Spectral library generation |
| MOFA+ | Multi-omics factor analysis | GitHub | Integrates transcriptomics, proteomics, metabolomics |
| scVI / scANVI | Single-cell multi-omics integration | GitHub | Latent variable models for sc data |
| totalVI | Protein + RNA joint modeling (CITE-seq) | scvi-tools | Part of scvi-tools ecosystem |
| UnitedNet | Multi-modal single-cell data integration | GitHub | Transfer between modalities |
| Model | Description | Access | Notes |
|---|---|---|---|
| scGPT | Single-cell foundation model (33M cells pre-trained); cell type annotation, perturbation prediction, GRN inference | GitHub | Strong zero-shot generalization across tissues |
| Geneformer | Transformer pre-trained on 30M single-cell profiles; in silico gene perturbations | HuggingFace | Predicts knockout effects without experiments |
| scFoundation | Large-scale single-cell foundation model (100M+ cells) | GitHub | Strong cross-tissue and cross-condition generalization |
| UCE (Universal Cell Embeddings) | Zero-shot single-cell embeddings; works across species without fine-tuning | GitHub | Useful for cross-organism eco-evolutionary comparisons |
| GEARS | Graph-based model for predicting single and combinatorial genetic perturbations | GitHub | Predicts unseen perturbation outcomes from sc data |
| CellOracle | GRN inference + TF perturbation simulation from scRNA/scATAC | GitHub | Simulates cell fate changes; links GRN to cell identity |
| SCENIC / SCENIC+ | Gene regulatory network inference from scRNA-seq and scATAC-seq | GitHub | SCENIC+ integrates chromatin accessibility for GRN |
| NicheNet | Cell–cell communication via ligand–target inference | GitHub | Predicts intercellular signaling; relevant for phage-host and host–microbe contexts |
| CellChat | Quantitative inference of cell–cell signaling networks at pathway level | GitHub | Complements NicheNet; good for microbial community signaling |
| scBERT | BERT-based model for single-cell cell type annotation | GitHub | Pre-trained on PanglaoDB |
| CellTypist | Automated cell type classification with curated model zoo | GitHub | Fast inference; many pre-built tissue models |
| AIDO.Cell | AI-driven cell foundation model for multi-modal sequence-to-cell prediction | GitHub | Emerging; multi-task model spanning sequence to phenotype |
| Cell2Sentence | Translates single-cell expression data to/from natural language via LLMs | GitHub | Bridges LLM reasoning with single-cell biology |
| Cellpose | Deep learning segmentation of cells in 2D/3D images | GitHub | Core tool for imaging-based phenomics and spatial omics |
| PhysiCell | Agent-based multicellular simulation (mechanistic, not ML) | GitHub | Integrates with ML outputs for whole-tissue spatial modeling |
| LatticeMicrobe | GPU-accelerated stochastic whole-cell simulation via RDME; spatial reaction-diffusion in realistic cell geometries | luthey-schulten.chemistry.illinois.edu | From Luthey-Schulten lab (UIUC); designed for bacterial/microbial cell modeling |
| Smoldyn | Spatial stochastic simulator for cell biology; models molecular diffusion, reactions, and membrane interactions in 3D | GitHub / smoldyn.org | Rule-based spatial simulation; integrates with SBML/BioNetGen |
| Virtual Cell (VCell) | ODE/PDE/stochastic simulation of intracellular dynamics with spatial support | vcell.org | NRBSC platform; useful for mechanistic signaling models |
| BioNetGen / PyBNG | Rule-based modeling of biochemical reaction networks | GitHub | Signaling network simulation; pairs well with parameter estimation tools (cf. pyModEst) |
| Tool | Description | Access | Notes |
|---|---|---|---|
| bigraph-rs | Rust implementation of bigraph data structures (bigraphical reactive systems) | GitHub / Docs | Formal graph model for concurrent biological systems; useful for network topology analysis |
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For questions or suggestions, contact Song Feng (song.zhimu.feng@gmail.com).