Knowledge-enhanced Relation Graph and Task Sampling for Few-shot Molecular Property Prediction
Zeyu Wang, Tianyi Jiang, Yao Lu, Xiaoze Bao, Shanqing Yu, Bin Wei, Qi, Xuan

TL;DR
This paper introduces KRGTS, a meta-learning framework for few-shot molecular property prediction that leverages a relation graph and task sampling to better model molecule-property relationships and improve prediction accuracy.
Contribution
It proposes a novel relation graph and task sampling modules within a meta-learning framework to effectively capture complex molecule-property relationships in few-shot scenarios.
Findings
KRGTS outperforms state-of-the-art methods on five datasets.
The relation graph captures many-to-many molecule-property relationships.
Task sampling reduces noise and improves meta-learning efficiency.
Abstract
Recently, few-shot molecular property prediction (FSMPP) has garnered increasing attention. Despite impressive breakthroughs achieved by existing methods, they often overlook the inherent many-to-many relationships between molecules and properties, which limits their performance. For instance, similar substructures of molecules can inspire the exploration of new compounds. Additionally, the relationships between properties can be quantified, with high-related properties providing more information in exploring the target property than those low-related. To this end, this paper proposes a novel meta-learning FSMPP framework (KRGTS), which comprises the Knowledge-enhanced Relation Graph module and the Task Sampling module. The knowledge-enhanced relation graph module constructs the molecule-property multi-relation graph (MPMRG) to capture the many-to-many relationships between molecules…
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Taxonomy
TopicsComputational Drug Discovery Methods · Machine Learning in Materials Science · Protein Structure and Dynamics
