Bioinformatics sits at the exciting intersection where biology meets data science, using powerful computer tools to decode the vast complexity of living systems. From mapping the human genome to tracking how viruses evolve, this field transforms raw biological information into actionable insights that drive modern medicine and research forward without requiring a supercomputer to understand the basics.

On Gist.Science, we ensure you never miss a breakthrough by processing every new preprint in this category directly from bioRxiv. Our team provides both plain-language explanations and detailed technical summaries for each paper, making cutting-edge discoveries accessible to everyone regardless of their background.

Below are the latest bioinformatics papers added from bioRxiv, ready for you to explore with clarity and depth.

💻 bioinformatics

SFUMATO: Bayesian probabilistic clustering for uncertainty-aware spatialtranscriptomics analysis and mapping

SFUMATO is a GPU-accelerated Bayesian probabilistic framework that overcomes the limitations of hard-label clustering in spatial transcriptomics by generating uncertainty-aware, color-blended visualizations and quantitative maps that capture gradual transcriptional transitions and tissue heterogeneity without requiring prior cell segmentation.

Giustolisi, A., Avenel, C., Wählby, C.2026-10-01
💻 bioinformatics

Quantifying the Provenance-to-Function Gap in Antidiabetic Peptide Prediction: Homology-Aware Evaluation and the ADP-Hybrid Baseline

This paper reveals that the predictive performance of antidiabetic peptide classifiers is often inflated by homology leakage in standard benchmarks, demonstrating that when homologous sequences are properly separated, accuracy drops significantly and simpler models can achieve comparable results with far greater efficiency.

Islam, A., Hosen, M. F., Basar, M. A., Mollah, M. S. H., Uddin, M. S.2026-10-01
💻 bioinformatics

Bridging the gap between omics and structural data: A framework for interpreting protein-RNA interaction specificity

This study presents a framework that integrates omics data with experimental protein-RNA structures to identify binding motif cores and benchmark AlphaFold3, revealing both its predictive promise and its current limitations, such as signs of memorization and challenges with alternative binding modes.

Fauconnet, Y., Deng, S., Koundri, R., Pagani, M., Quignot, C., Antonio, D., Andreani, J.2026-09-30
💻 bioinformatics

CHACAM: a cell-cell interaction-guided hierarchical attention model for high-precision cell identity annotation of scRNA-seq data in early C. elegans embryogenesis

CHACAM is a supervised machine learning framework that integrates gene expression, ligand-receptor interactions, and cell contact maps to resolve ambiguous cell identities in early *C. elegans* embryogenesis by leveraging cell-cell interaction signatures for high-precision annotation.

Chen, X., Ju, X., Murali, M., Li, H., Chen, M., Zhang, M. Q.2026-09-30
💻 bioinformatics

Repurposing PeTriBERT for Protein Protein Interaction Prediction with Sequence Structure Fusion

The paper introduces PeTriPPI2, a hybrid framework that fuses ESM-2 sequence embeddings with PeTriBERT structural representations to predict protein-protein interactions, achieving high accuracy and precision on the Pinder dataset while demonstrating the complementary value of both sequence and structural features through ablation studies.

Wavreille, A., Krouk, G., Dumortier, B.2026-09-30
💻 bioinformatics

MDM2 P1/P2 promoter usage separates autonomously proliferative and environment-adaptive, gastric-metaplastic programs in colorectal cancer

This study demonstrates that the usage of MDM2 P1 versus P2 promoters serves as a molecular switch distinguishing between chromosomal instability-driven and environment-adaptive, gastric-metaplastic colorectal cancer phenotypes, thereby enabling the stratification of patients by therapeutic responsiveness.

Tsukui, T., Shin, K., Tsuda, K., Yao, R.2026-09-29
💻 bioinformatics

An agentic AI environment to support biomedical research in collaborative academic environments

The paper introduces Murmurent, an open-source, shared software environment designed to support collaborative biomedical research by providing specialized agents, tiered memory, traceability, and enforced standard operating procedures that lower technical barriers for academic labs using agentic AI, demonstrated through its application in identifying inhibitors for the Pin1 protein.

Wu, T., Browne, T. S., Meawad, M., Emam, H. E., Simsam, N. H., Xia, Y., Jaafar, A., Ma, A., Kabbani, B., Gupta, V., Muca (…)2026-09-29