Weekly BioML Digest [August 10, 2026]

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Weekly BioML Digest [August 10, 2026]

Machine Learning × Computational Biology paper compilation

Hey! It's your weekly digest of machine learning papers in CompBio and Drug Discovery.

Feedback? Email me at biomldigest@gmail.com.

📚 Peer-Reviewed Journals (Top 20)

1288 matched filters -> 20 selected after LLM relevance + novelty ranking.

🧬 Preprints (arXiv + bioRxiv)

64 matched filters -> 20 selected after LLM relevance + novelty ranking.

  • 🧬 Dual-Specific Antibody Design Using Artificial Intelligence
    Peer, M.; Amit, I.; Diesendruck, Y.; Erlich, Z.; ...; Hadar, D.; Voropaev, A.; Fastman, Y.; Ofran, Y. — bioRxiv, 2026-08-05
    Presents an AI-assisted platform that designs dual-specific “multibody” antibodies by optimizing two paratopes within a single Fv, delivering therapeutic-grade candidates with high affinity, specificity, and functional superiority. Two designs have advanced to IND-enabling studies, showcasing translational impact for antibody therapeutics.
    Affiliations: Biolojic Design

  • 🧬 Seed-Guided De Novo Design Expands the Structural Diversity of Antitoxin Protein Binders
    Britton, D.; Ghose, D. A.; Halpin, J. C.; Birnbaum, F.; ...; Raval, S.; Papanastasiou, M.; Carr, S. A.; Keating, A. E. — bioRxiv, 2026-08-04
    Guides RFdiffusion binder generation with PDB-derived surface-complementary “seed” fragments to target extended, multi-site interfaces, greatly increasing structural diversity and target contacts. Experimental screens yield high-affinity RelE neutralizers with novel binding modes and reduced cross-reactivity, expanding de novo binder design capabilities.
    Affiliations: Massachusetts Institute of Technology

  • 🧬 Evolution-inspired multi-objective Bayesian optimization for protein engineering
    Wen, K.; Wang, S.; Sun, Y.; Li, S.; Wang, M.; Liu, H.; Li, Q.; Zhu, J. — bioRxiv, 2026-08-06
    Introduces EvoMOBO, an evolution-inspired multi-objective Bayesian optimization framework that couples path-dependent sequence generation with global competition for protein engineering. Validated on enzymes, it achieves large gains (e.g., 17.5%→95% conversion) and identifies aggregation-resistant variants using mechanism-derived labels.
    Affiliations: Jilin University

  • 🧬 Evolutionary Design of Membrane-Lytic Antimicrobial Peptides with Mixture of Experts
    Dong, R.; Song, C. — bioRxiv, 2026-08-04
    Develops AMPainterV2, a mixture-of-experts, imitation-learning framework that evolves membrane-lytic antimicrobial peptides via insertion/deletion/mutation operators. All top-ranked designs are active in vitro, with miniaturized peptides retaining or improving potency, advancing mechanism-driven AMP discovery.
    Affiliations: Peking University

  • 🧬 CryoLigATE: enhancing the resolvability of cryo-EM maps in protein-ligand complexes using deep learning
    Haloi, N.; Howard, R. J.; Lindahl, E. — bioRxiv, 2026-08-05
    Trains a hybrid conv–transformer model (CryoLigATE) to locally enhance ligand densities in cryo-EM maps around binding pockets. The method markedly improves ligand resolvability and preserves experimental features, enabling more confident structure-based drug design.
    Affiliations: Stockholm University

  • 🧬 Move BeTween modAlities (MBTA) employs flow matching to predict single cell data modalities
    Xu, B.; Zhang, Y.; Michor, F. — bioRxiv, 2026-08-09
    Introduces MBTA, a flow-matching framework that maintains modality-specific latent spaces and learns cross-modal flows for single-cell multi-omics translation. It outperforms shared-latent approaches, resolving structural mismatch and enabling robust cross-modal inference in cancer and developmental datasets.
    Affiliations: Dana-Farber Cancer Institute

  • 📄 LLM-Guided Retrieval for Prediction of Molecular Perturbation Responses
    Betty Xiong, Jan-Christian Huetter, Gabriele Scalia, Tommaso Biancalani, Sepideh Maleki — arXiv, 2026-08-03
    Proposes LLM-Guided Retrieval to predict drug-induced transcriptomic responses by ranking and aggregating biologically related compounds profiled in the same cell line. The retrieval-centric approach improves correlation and directional accuracy, especially for unseen-cell-line generalization on large single-cell perturbation atlases.

  • 🧬 RiboRep: Replicate-Aware Cross-Modal Transformers for Codon-Resolved Ribosome Density Prediction
    Kuo, A.; Yue, Z.; Ku, W.-S.; Chen, H. — bioRxiv, 2026-08-07
    RiboRep is a replicate-aware cross-modal transformer that integrates nucleotide sequences and reference ribosome occupancy via dual encoders and cross-attention to predict codon-level ribosome density. It improves translational-state modeling across species and lays groundwork for translation-aware molecular digital twins.
    Affiliations: Auburn University

  • 🧬 Boltz-Perturb: Improving Diversity and Accuracy in Protein-Ligand Co-Folding through Training-Free Conditioning Perturbation
    Jung, H.; Lee, B.; Cheng, A. C. — bioRxiv, 2026-08-05
    Introduces training-free conditioning perturbations (TBP/TCP) to co-folding models that unlock latent pose diversity and improve protein–ligand binding-mode prediction. The approach raises top-20 oracle success rates 2.6–7.8× with substantially less compute than high-temperature diffusion variants.
    Affiliations: Merck & Co., Inc.

  • 📄 Spatial proteomics guided by H&E-based AI reveals recurrence-risk niches in triple-negative breast cancer
    Yesung Cho, Ji Hwan Park, Chanil Kim, Hyewon Kim, ..., Eun-Young Kim, Dongmyung Shin, Jongbae Park, In-Gu Do — arXiv, 2026-08-04
    Combines outcome-trained H&E recurrence-risk heatmaps with mass-spectrometry spatial proteomics to pinpoint molecularly distinct niches in TNBC. A 13-protein composite derived from AI-guided regions enhances survival stratification and integrates with image-derived risk for improved prognostication.

  • 📄 MolBioKG: Grounding Out-of-Graph Molecules in Biomedical Knowledge Graphs via Multi-Resolution Structural Anchoring
    Yiming Zhang, Hikaru Shindo, Shuan Chen, Kaushalya Madhawa, Jun Jin Choong, Yuna Oikawa, Takashi Fujiwara, Keisuke Ozawa — arXiv, 2026-08-07
    MolBioKG grounds out-of-graph molecules into biomedical knowledge graphs via multi-resolution structural anchoring and an LLM policy for adaptive traversal. It boosts multi-hop reasoning and out-of-graph generalization while maintaining traceable structural anchors and evidence.

  • 📄 ED-DiT: Physics-Guided Diffusion Pretraining for Transferable Molecular Representations from Electron Density
    Liang Shuang, Haocheng Wang, Jiayi Song, Shuquan Ye, Ben Fei — arXiv, 2026-08-04
    ED-DiT pretrains a Diffusion Transformer on electron-density point clouds with electron-number constraints to learn transferable molecular representations. It substantially improves electronic-structure-related tasks under limited supervision, including orbital energies and density prediction.

  • 🧬 AI-guided discovery of antimicrobial peptides for urinary tract infections leveraging a new catalogue of the human urinary microbiome
    Ke, S.; Zingl, F. G.; Wang, X.-W.; Hale, V. L.; Weiss, S. T.; Waldor, M.; Liu, Y.-Y. — bioRxiv, 2026-08-05
    Builds a large urinary microbiome gene/MAG catalog and uses machine learning to mine antimicrobial peptides active against UTI-associated strains. Two predicted AMPs are experimentally validated against uropathogenic E. coli, demonstrating microbiome-guided therapeutic discovery.
    Affiliations: Harvard Medical School

  • 📄 Physics-Based Molecular Fingerprints from Spectral Graph Theory Provide Efficient Geometry-Aware Measures of Chemical Similarity
    Jacob W. Toney, Ayleen Y. Farnood, Samir Darouich, Heather J. Kulik — arXiv, 2026-08-05
    Introduces physics-inspired 3D spectral graph fingerprints derived from Laplacian eigenvalues of complete molecular graphs with interaction-weighted edges. The representation is efficient, interpretable, E(3)-invariant, and outperforms 2D descriptors in distinguishing stereoisomers/conformers for ML and similarity tasks.

  • 🧬 Graph Machine Learning for Physiological Role Prediction in Protein Contact Networks: A Large-Scale Comparative Study on the Human Proteome
    Cervellini, M.; Martino, A. — bioRxiv, 2026-08-05
    Performs a large-scale comparison of graph ML on protein contact networks to predict enzymatic function and EC classes across the human proteome. Deep GNNs excel in multiclass EC prediction, while classical kernels remain strong for binary enzymatic classification, highlighting complementary strengths.
    Affiliations: Department of AI, Data and Decision Sciences

  • 📄 CrystalGRPO: Target-Aligned and Coverage-Preserving Reinforcement Learning for Flow-Based Crystal Structure Prediction
    Kaixiang Su, Hongfei Xue, Qiang Zhu — arXiv, 2026-08-06
    Presents CrystalGRPO, a reinforcement-learning post-training framework for flow-based crystal structure prediction that balances target recovery and candidate coverage. It improves Top-1 and Top-20 recovery across datasets and backbones by jointly optimizing coordinates and lattice states.

  • 📄 ED-CSP: Crystal Structure Prediction from Electron Diffraction
    Germain Poloudenny, Yaël Frégier, Arnaud Demortière — arXiv, 2026-08-06
    ED-CSP predicts periodic crystal structures directly from multi-view electron diffraction spot patterns, composition, and atom count using a relational encoder and periodic flow generator. Trained on a large simulated ED dataset, it surpasses PXRDGen and demonstrates genuine generative capability beyond retrieval.

  • 📄 Geometry-Informed Parameter-Efficient Fine-Tuning of Pre-trained Molecular GNNs for Blood-Brain Barrier Permeability Prediction
    Marco Vieto Vega, Long D. Nguyen, Binh P. Nguyen — arXiv, 2026-08-04
    BBBP-GeoPEFT introduces geometry-informed, parameter-efficient fine-tuning for pretrained molecular GNNs using multi-cutoff distance graphs and line graphs. It injects 3D geometric cues with minimal tunable parameters to improve blood–brain barrier permeability prediction under scaffold and random splits.

  • 📄 Bi-semantic Chemical Embedder for Joint Representation Learning of SMILES and Natural Language
    David Ming Segura, Jeremy Goumaz, Joshua W. Sin, Bojana Ranković, Philippe Schwaller — arXiv, 2026-08-04
    CheMatE learns bi-semantic embeddings that jointly align SMILES and domain text via continued MLM followed by contrastive learning on synthetic SMILES–text pairs. The unified representation transfers well across molecular property prediction and scientific language tasks.

  • 📄 DASyR-LLM: Domain-Aware Symbolic Regression with LLMs for Kinetic Model Discovery
    Roberto Aliaga Medina, Paulina Quintanilla, Antonio del Rio Chanona — arXiv, 2026-08-05
    DASyR-LLM integrates an LLM into symbolic regression loops to critique and propose kinetic rate expressions, injecting domain knowledge into model discovery. It reduces iterations by 42–79% and often proposes the correct structure, accelerating interpretable kinetic modeling in chemical/bioprocess systems.

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