GraphBAN: An inductive graph-based approach for enhanced prediction of compound-protein interactions

Understanding compound-protein interactions is crucial for early drug discovery, offering insights into molecular mechanisms and potential therapeutic effects of compounds. Here, we introduce GraphBAN, a graph-based framework that inductively predicts these interactions using compound and protein feature information. GraphBAN effectively handles inductive link predictions for unseen nodes, providing a robust solution for predicting interactions between entirely unseen compounds and proteins. This capability enables GraphBAN to transcend the constraints of traditional methods that are typically limited to known contexts. GraphBAN employs a knowledge distillation architecture through a teacher-student learning model. The teacher block leverages network structure information, while the student block focuses on node attributes, enhancing learning and prediction accuracy. Additionally, GraphBAN incorporates a domain adaptation module, increasing its effectiveness across different dataset domains. Empirical tests on five benchmark datasets demonstrate that GraphBAN outperforms ten baseline models, while a case study analysis with the Pin1 protein further supports the model's effectiveness in real world scenarios, making it as a promising tool for early drug discovery.

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Publication Details

Journal
Nature Communications
Published
2025-03-18
DOI
https://doi.org/10.1038/s41467-025-57536-9
Citations
25
Primary Topic
Computational Drug Discovery Methods
Type
article
Field-Weighted Citation Impact
37.61

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article

GraphBAN: An inductive graph-based approach for enhanced prediction of compound-protein interactions

Rebecca L. Davis, Hamid Hadipour, Pingzhao Hu, Leann Lac et al.
25 citations
Nature Communications
Computational Drug Discovery Methods
37.61
article

GraphBAN: An inductive graph-based approach for enhanced prediction of compound-protein interactions

Rebecca L. Davis, Hamid Hadipour, Pingzhao Hu, Leann Lac, Yan Yi Li, Silvia T. Cardona, C Deng, Yan Sun
article en
25 citations

Abstract

Understanding compound-protein interactions is crucial for early drug discovery, offering insights into molecular mechanisms and potential therapeutic effects of compounds. Here, we introduce GraphBAN, a graph-based framework that inductively predicts these interactions using compound and protein feature information. GraphBAN effectively handles inductive link predictions for unseen nodes, providing a robust solution for predicting interactions between entirely unseen compounds and proteins. This capability enables GraphBAN to transcend the constraints of traditional methods that are typically limited to known contexts. GraphBAN employs a knowledge distillation architecture through a teacher-student learning model. The teacher block leverages network structure information, while the student block focuses on node attributes, enhancing learning and prediction accuracy. Additionally, GraphBAN incorporates a domain adaptation module, increasing its effectiveness across different dataset domains. Empirical tests on five benchmark datasets demonstrate that GraphBAN outperforms ten baseline models, while a case study analysis with the Pin1 protein further supports the model's effectiveness in real world scenarios, making it as a promising tool for early drug discovery.

Nature CommunicationsVol. 16(1)
Western University (CA), University of Toronto (CA), Public Health Ontario (CA), University of Manitoba (CA)
Canada Foundation for Innovation, Canada Research Chairs, Canadian Institutes of Health Research, Natural Sciences and Engineering Research Council of Canada
Openalex Percentile: Top 0%
Computational Drug Discovery Methods
37.61
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