A fused deep learning approach to transform drug repositioning

Drug repositioning holds promise for discovering new therapeutic applications for existing drugs, accelerating drug development and reducing associated costs. However, current methodologies encounter difficulties in managing diverse network representations, tackling cold start issues, and handling intrinsic attribute representations. Here we introduce a Unified Knowledge-Enhanced deep learning framework for Drug Repositioning (UKEDR), which integrates knowledge graph embedding, pre-training strategies, and recommendation systems to address these challenges. To overcome the cold start issue, UKEDR utilizes a semantic similarity-driven embedding approach. Our evaluations show that UKEDR performs better than various baselines, including classical machine learning, network-based, and deep learning approaches. In cold start scenarios, it demonstrates an improved capability in handling unseen nodes and generalizing to new compounds. The model also demonstrates strong robustness on imbalanced datasets and shows excellent generalization capabilities in specific drug-centric and disease-centric cold-start scenarios, validating its potential for real-world applications.

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Publication Details

Journal
Communications Chemistry
Published
2025-11-06
DOI
https://doi.org/10.1038/s42004-025-01712-x
Primary Topic
Computational Drug Discovery Methods
Type
article
Field-Weighted Citation Impact
0.00

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article

A fused deep learning approach to transform drug repositioning

Tingjun Hou, Dejun Jiang, Chengkun Wu, Yu Long et al.
Communications Chemistry
Computational Drug Discovery Methods
article

A fused deep learning approach to transform drug repositioning

Tingjun Hou, Dejun Jiang, Chengkun Wu, Yu Long, Jiacai Yi, Youchao Deng, Dongsheng Cao, Qing Ye, Xixi Yang, Kun Li
article en

Abstract

Drug repositioning holds promise for discovering new therapeutic applications for existing drugs, accelerating drug development and reducing associated costs. However, current methodologies encounter difficulties in managing diverse network representations, tackling cold start issues, and handling intrinsic attribute representations. Here we introduce a Unified Knowledge-Enhanced deep learning framework for Drug Repositioning (UKEDR), which integrates knowledge graph embedding, pre-training strategies, and recommendation systems to address these challenges. To overcome the cold start issue, UKEDR utilizes a semantic similarity-driven embedding approach. Our evaluations show that UKEDR performs better than various baselines, including classical machine learning, network-based, and deep learning approaches. In cold start scenarios, it demonstrates an improved capability in handling unseen nodes and generalizing to new compounds. The model also demonstrates strong robustness on imbalanced datasets and shows excellent generalization capabilities in specific drug-centric and disease-centric cold-start scenarios, validating its potential for real-world applications.

Communications ChemistryVol. 8(1)
Central South University (CN), Hunan University (CN), National University of Defense Technology (CN), Zhejiang University (CN)
Hong Kong Baptist University, National Natural Science Foundation of China, Central South University, National Science and Technology Major Project, Xiangya Hospital, Central South University
Openalex Percentile: Top 66%
Computational Drug Discovery Methods
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