Aug 2026· Journal of Chemical Information and Modeling· Vol 66 17, pp.
11420-11432
· 0 citations· 39 references
Medicine
TL;DR
UniPoseScore, a Graphormer3D-based framework for ligand pose scoring and refinement, simultaneously predicts pose RMSD and atomic displacement vectors to guide ligand pose refinement and suggests that the model captures structural features correlated with pose accuracy.
Abstract
Accurate prediction of protein-ligand binding poses is essential for structure-based drug discovery. In recent years, computational approaches, particularly molecular docking, have generated large numbers of candidate ligand poses. However, existing scoring functions remain limited in their ability to distinguish near-native poses from incorrect docking decoys. In this work, we propose UniPoseScore, a Graphormer3D-based framework for ligand pose scoring and refinement. The model simultaneously predicts pose RMSD and atomic displacement vectors to guide ligand pose refinement. Across four benchmark data sets, UniPoseScore showed consistently strong performance and better generalization, with a particularly clear advantage in RMSD correlation. Visualization of the learned embeddings further suggests that the model captures structural features correlated with pose accuracy. On the CASF-2016 benchmark, UniPoseScore achieves a refinement success rate of 74.3%, highlighting the effectiveness of UniPoseScore in improving ligand binding poses and its potential applications in drug discovery. The UniPoseScore is available at https://github.com/April-Zhangjq/UniPoseScore.
LGBind is introduced, a structure-guided deep learning framework for generalized, ligand-conditioned binding site identification and demonstrates profound robustness and generalization in predicting novel ligand-target interactions, and demonstrates remarkable versatility.
Yun-Feng Li, Xing-Yu Liu, Yi-Jia Liu et al.· European journal of medicina...· 0 citations
The computational results indicate that the proposed Persistent Sheaf Laplacian learning (PSLL) model achieves strong predictive performance across benchmark datasets, highlighting its potential as an interpretable and mathematically grounded framework with promising generalizability for molecular machine learning and...
Mushal Zia, Benjamin Jones, Guo-Wei Wei· 0 citations
KTransPose is presented, a GNN-based protein-ligand pose-refinement framework that combines a dual-branch architecture, a docking-oriented multi-component loss, and iterative refinement, and finds that a TransformerConv-based model provides the strongest overall performance.
Md. Khorshed Alam, Julia Rahman, M. A. Hakim Newton et al.· Applied intelligence (Boston...· 0 citations
Ligand-protein binding prediction remains a central challenge, yet the contribution of ligand-side information to performance is unclear and ligand-only models as interpretable screening tools are established and used as a baseline for assessing the added value of protein representations.
Ananthan Sadagopan, Anurag Sodhi, William J. Gibson· Journal of Medicinal Chemist...· 0 citations
Protein–ligand pose prediction is central to structure-based drug discovery, yet the relative performance of physics-based and AI-driven methods under realistic cross-docking conditions remains insufficiently characterized. Here, we compare physics-based docking methods (AutoDock4, AutoDock Vina, and DOCK 6) with data-...
Kapali Suri, Anshul Yadav, A. Tripathi et al.· RSC Advances· 0 citations
Modeling protein-protein interactions requires accurate scoring functions that can rank potential poses (conformations) of a protein-protein complex to differentiate near-native poses from incorrect ones. Here, we propose a general framework for improving protein-protein pose ranking and other biomolecular interaction...
Richard Zhu, Da Xu, Lee-Shin Chu et al.· 0 citations
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