Aug 2026· Protein Science· Vol 35· 0 citations· 42 references
Medicine
TL;DR
This work presents Antigen‐VHH Interface Database (AVIDbase), a highly curated dataset of nanobody‐antigen structures that provides a nonredundant set of structures with standardized chain identifiers, harmonized metadata, and cleaned atomic coordinates in a ready‐to‐use format for ML applications.
Abstract
Accurate structural data in a standardized format is one of the key factors behind the success of machine learning (ML)‐based methods for protein design and structure prediction. However, their application to nanobody‐antigen complexes has lower success rates compared to globular protein complexes, partly due to the limited amount of high‐quality structural data. While several dedicated databases already exist, automated assembly pipelines frequently overlook various artifacts, which act as additional noise and limit the effectiveness of ML applications. Common issues include incorrectly defined antigen assemblies, redundancy bias, inclusion of crystal contacts, strained geometry due to crystal packing, as well as missing density or post‐translational modifications near the interface. To address these issues, we present Antigen‐VHH Interface Database (AVIDbase), a highly curated dataset of nanobody‐antigen structures. In addition to correcting structural artifacts, the dataset provides a nonredundant set of structures with standardized chain identifiers, harmonized metadata, and cleaned atomic coordinates in a ready‐to‐use format for ML applications. AVIDbase is available on GitHub (github.com/Novartis/AVIDbase) and Zenodo (doi.org/10.5281/zenodo.20488703).
The Human Bindome is presented, a proteome-scale atlas of high-confidence in silico protein binder candidates that positions the Bindome as a resource of genetically encodable perturbagens for site-specific, modular control of protein function.
Julius Wenckstern, Anna M. Díaz-Rovira, Julia A. Kuhn et al.· bioRxiv· 0 citations
An unsupervised machine-learning framework that leverages hybrid high-dimensional peptide representations to discover high-performance AFPT families without requiring 3D structures or large labeled data sets is presented and demonstrates how unsupervised hybrid-feature learning can reveal actionable biophysical design...
Nazmul Shuzan, Jialun Wei, Jie Zheng· Journal of Chemical Informat...· 0 citations
P PepXPro is presented, a modular framework that transforms publicly available protein-peptide structure-affinity resources into curated datasets and reproducible benchmark collections generated under user-defined criteria that provides an extensible foundation for reproducible protein- peptide benchmark construction.
The DeltaFold Classifier (DFC) is introduced, a fast, alignment-free, protein structure classification pipeline based on topological data analysis that achieves performance comparable to that of structure-based comparison methods while substantially improving computational efficiency.
Joseph Nardin-Gennequin, Gabriela Ciuperca, Céline Brochier-Armanet et al.· Proteins: Structure, Functio...· 0 citations
This article systematically reviews the technical architecture and core algorithm modules of AlphaFold3, and looks forward to the application progress in the construction of protein-ligand complex structures, including the improvement in the confidence of pocket-type ligands paired with G protein-coupled receptors comp...
K. Tang· Theoretical and Natural Scie...· 0 citations
A Perspective on computational PROTAC methodologies published from 2019 to the present is presented, organizing the field into two complementary streams: constraint-driven, physics-based workflows that assemble and refine ternary complex models by enforcing geometric feasibility and evaluating pose stability using dock...
Joseph M. Schulz, R. Reynolds, S. Schürer· Journal of Chemical Informat...· 0 citations
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