DVFGCDR: a dual-view fusion graph neural network for cancer drug response prediction

The prediction of cancer drug responses (CDRs) holds considerable relevance for the guidance of patient-specific clinical treatments. However, the inherent cellular heterogeneity among cancers introduces substantial challenges to such predictions. This paper presents a novel molecular graph convolutional model, named DVFGCDR, developed for predicting CDRs. This innovative model amalgamates both 2D chemical and 3D geometric drug properties to derive a more representative drug embedding. It also includes the capacity to integrate gene expression data from single-cell and bulk RNA sequencing data associated with hundreds of cancer cell lines, thereby enhancing the accuracy of drug response predictions. Experimental comparisons highlight the superior performance of the DVFGCDR model in CDR classification and regression tasks, achieving a Pearson score of 0.959, surpassing current state-of-the-art models. This superiority underscores the model's powerful predictive capability.

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Publication Details

Journal
NAR Cancer
Published
2025-10-07
DOI
https://doi.org/10.1093/narcan/zcaf043
Primary Topic
Computational Drug Discovery Methods
Type
article
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article

DVFGCDR: a dual-view fusion graph neural network for cancer drug response prediction

Shengwei Qin, Hancan Zhu, Yuhua Yao, Zhong Li et al.
NAR Cancer
Computational Drug Discovery Methods
article

DVFGCDR: a dual-view fusion graph neural network for cancer drug response prediction

Shengwei Qin, Hancan Zhu, Yuhua Yao, Zhong Li, Weihong Huang, Haohao Li
article en

Abstract

The prediction of cancer drug responses (CDRs) holds considerable relevance for the guidance of patient-specific clinical treatments. However, the inherent cellular heterogeneity among cancers introduces substantial challenges to such predictions. This paper presents a novel molecular graph convolutional model, named DVFGCDR, developed for predicting CDRs. This innovative model amalgamates both 2D chemical and 3D geometric drug properties to derive a more representative drug embedding. It also includes the capacity to integrate gene expression data from single-cell and bulk RNA sequencing data associated with hundreds of cancer cell lines, thereby enhancing the accuracy of drug response predictions. Experimental comparisons highlight the superior performance of the DVFGCDR model in CDR classification and regression tasks, achieving a Pearson score of 0.959, surpassing current state-of-the-art models. This superiority underscores the model's powerful predictive capability.

NAR CancerVol. 7(4)
Zhejiang Sci-Tech University (CN), Hainan Normal University (CN), Shaoxing University (CN), Huzhou Normal University (CN)
Openalex Percentile: Top 64%
Computational Drug Discovery Methods
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