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Disentangling Heterogeneous Molecular Networks for Multi-Omics-Driven Cancer Driver Discovery.

Created on 28 Sep 2026

Authors

Xinjing Gong, Ji Li, Mu Su, Peishen Yu, Te Ma, Ruiyang Zhai, Chenye Zhang, Mengyan Zhang, Yan Zhang

Published in

Advanced science (Weinheim, Baden-Wurttemberg, Germany). Pages e77970. Sep 27, 2026. Epub Sep 27, 2026.

Abstract

Prioritizing cancer driver genes amid passenger alterations remains challenging because protein-protein interaction (PPI) networks are heterophilic, multi-omics evidence is heterogeneous and can conflict, and driver annotations are sparse. DRIVE is a semi-supervised graph framework integrating mutation frequency, copy-number aberration, DNA methylation, and gene expression with biological networks. It separates PPI neighborhoods into tight and loose semantic views based on learnable representation consistency, reducing cross-class signal mixing. Multi-omics evidence is decomposed into omics-common and omics-specific components through contrastive mutual-information learning and the soft orthogonality constraint. Joint training combines self-supervised learning with focal and max-margin objectives to improve prioritization under sparse, imbalanced annotations. Across six benchmark PPI networks, DRIVE outperforms ten methods, achieving mean areas under the precision-recall curve (AUPRC) and receiver operating characteristic curve (AUROC) of 0.9204 and 0.9704, respectively. Ablation, representation, and masked-driver recovery analyses show that DRIVE captures complementary network and molecular signals and remains robust to incomplete annotations. DRIVE identifies 186 high-confidence candidate driver genes enriched near known drivers, 80.1% of which receive DepMap CRISPR dependency support. These candidates reveal underappreciated connections to tumor regulatory programs, particularly NF-κB-associated inflammation, T-cell activation, and immune checkpoint regulation. Pharmacogenomic associations further suggest therapeutic vulnerabilities.

PMID:
42801638
Bibliographic data and abstract were imported from PubMed on 28 Sep 2026.

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