Empowering LLMs with Structural Role Inference for Zero-Shot Graph Learning
Heng Zhang, Jing Liu, Jiajun Wu, Haochen You, Lubin Gan, Yuling Shi, Xiaodong Gu, Zijian Zhang, Shuai Chen, Wenjun Huang, and Jin Huang

TL;DR
This paper introduces DuoGLM, a novel framework that enhances large language models' ability to understand graph structures by explicitly reasoning about node roles, significantly improving zero-shot and transfer learning performance.
Contribution
DuoGLM is a training-free, dual-perspective approach that incorporates relation-aware templates and topology-to-role inference for better graph reasoning with LLMs.
Findings
14.3% accuracy gain in zero-shot node classification
7.6% AUC improvement in cross-domain transfer
Substantial performance improvements across eight benchmark datasets
Abstract
Large Language Models have emerged as a promising approach for graph learning due to their powerful reasoning capabilities. However, existing methods exhibit systematic performance degradation on structurally important nodes such as bridges and hubs. We identify the root cause of these limitations. Current approaches encode graph topology into static features but lack reasoning scaffolds to transform topological patterns into role-based interpretations. This limitation becomes critical in zero-shot scenarios where no training data establishes structure-semantics mappings. To address this gap, we propose DuoGLM, a training-free dual-perspective framework for structure-aware graph reasoning. The local perspective constructs relation-aware templates capturing semantic interactions between nodes and neighbors. The global perspective performs topology-to-role inference to generate functional…
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Taxonomy
TopicsAdvanced Graph Neural Networks · Topic Modeling · Domain Adaptation and Few-Shot Learning
