#23 · ML / AI methods
Structure-aware architectures couple molecular substructures with biological networks
The common thread is that structural information enters these models as architectural components, governing pairing, relational, or fusion operations rather than serving only as static input descriptors. GMJRL fuses network-level representations with atomic-geometry features for drug-target interaction prediction, while engGNN couples external biological networks with tree-ensemble-derived feature graphs for omics disease classification and feature selection. DiSPA applies differential cross-attention between chemical substructures and pathway gene expression to model bidirectional interactions for drug response, and GenRel-DDI recasts drug-drug interaction prediction as relation-centric learning that generalizes to unseen drugs on entity-disjoint benchmarks. What is new is the joint modeling of atomic, molecular, and interaction-network scales within a single architecture. The tasks and data modalities differ across studies, so the shared principle is architectural rather than uniform in implementation.
Published papers
Geometry-Enhanced Multiscale Joint Representation Learning for Drug-Target Interaction Prediction.
GMJRL is a geometry-enhanced multiscale joint representation learning method for drug-target interaction prediction, fusing network-level and atomic-geometry…
Preprints
DiSPA: Differential Substructure-Pathway Attention for Drug Response Prediction
DiSPA uses differential cross-attention to model bidirectional interactions between chemical substructures and pathway gene expression for drug response…
engGNN: A Dual-Graph Neural Network for Omics-Based Disease Classification and Feature Selection
engGNN, a dual-graph neural network combining external biological networks with tree-ensemble-derived feature graphs for omics disease classification and…
Rethinking Drug-Drug Interaction Modeling as Generalizable Relation Learning
GenRel-DDI reformulates drug-drug interaction prediction as relation-centric learning, improving generalization to unseen drugs on entity-disjoint benchmarks.
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