Aug 2026· Journal of Medicinal Chemistry· Vol 69 17, pp.
20392-20402
· 0 citations· 38 references
Medicine
TL;DR
CoBind is presented, a multitask deep learning framework that jointly predicts RNA–compound interactions and nucleotide-level binding-site probabilities within a unified architecture and provides complementary nucleotide-level binding-site localization, supporting a site-aware view of RNA–ligand recognition under distribution shift.
Abstract
RNA-targeted small-molecule therapeutics are of growing clinical interest, but computational modeling of RNA-ligand recognition remains challenging because of limited curated data, conformational heterogeneity, and the close coupling between interaction prediction and binding-site localization. We present CoCoBind, a multitask deep learning framework that jointly predicts RNA-compound interactions and nucleotide-level binding-site probabilities within a unified architecture. CoCoBind integrates pretrained RNA and molecular representation models with cross-modal cross-attention, a Noisy-OR-based consistency constraint, and contrastive alignment. On the DeepRNA-DTI benchmark, CoCoBind shows its clearest interaction-prediction gain in the most stringent Unseen Both setting and provides complementary nucleotide-level binding-site localization, supporting a site-aware view of RNA-ligand recognition under distribution shift. Structure-level analyses further support the localization of ligand-proximal RNA pocket neighborhoods. CoCoBind thus provides a site-aware computational framework for RNA-ligand interaction modeling and AI-enabled hit prioritization in RNA-targeted small-molecule discovery.
The results demonstrate the effectiveness of integrating multi-scale and multi-modal representations with cross-scale alignment for protein–RNA affinity prediction, and suggest that M2-PRNet can highlight relevant RNA-binding regions and support preliminary discrimination between strong and weak binders when plausible...
Junkai Wang, G. Luo, Yun-Song Yang et al.· Bioinformatics· 0 citations
CABA-Bind improves the reliability and ligand-specific interpretability of RNA-ligand molecular recognition modeling, and provided computational evidence suggesting that model-highlighted RNA regions around G17 and A53/A54 may contribute to ligand-associated recognition.
Xiaoqin Wang, Xingyu Liu, Zhiwei Zhang et al.· Computational biology and ch...· 0 citations
iSCALE serves as an effective in silico tool for large-scale protein-RNA binding ΔΔG prediction, which pushes the border of understanding in mutation-induced pathological outcomes.
Ribo-LENS turns coarse base-pairing structure into a practical entry point for screening the vast, largely unexplored RNA target space, and depends far less on sequence homology than competing predictors.
David Nitchi, J. Waldispühl, C. Oliver· bioRxiv· 0 citations
By combining protein language model embeddings with topology-adaptive geometric reasoning, DiConSite offers a reusable framework for residue-level protein interaction analysis and achieves consistently strong and often best-performing results, while improving robustness to structural uncertainty and cross-modal variati...
Shou-Zhi Chen, Zhen-Chao Tang, Lin-Lin You et al.· IEEE Transactions on Pattern...· 1 citation
Abstract Motivation To enable real-world protein-ligand affinity prediction, not only out-of-distribution generalization but also robustness to variable structural availability and quality should be considered in model design. Results We present AlignNet, a hierarchical representation alignment framework that mitigates...
Xiaowen Hu, Hong-Yi Huang, Hao Sun et al.· Bioinform.· 0 citations
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