MetaFill: Text Infilling for Meta-Path Generation on Heterogeneous Information Networks
Zequn Liu, Kefei Duan, Junwei Yang, Hanwen Xu, Ming Zhang, Sheng Wang

TL;DR
MetaFill leverages pretrained language models to automate meta-path generation in heterogeneous information networks, improving link prediction, node classification, and zero-shot edge classification by effectively utilizing textual node and edge information.
Contribution
It introduces a novel text-infilling approach for meta-path generation using PLMs, addressing limitations of manual curation and existing methods.
Findings
MetaFill outperforms existing meta-path generation methods in experiments.
MetaFill achieves high accuracy in zero-shot edge classification.
The approach effectively leverages textual information in HINs for graph analysis.
Abstract
Heterogeneous Information Network (HIN) is essential to study complicated networks containing multiple edge types and node types. Meta-path, a sequence of node types and edge types, is the core technique to embed HINs. Since manually curating meta-paths is time-consuming, there is a pressing need to develop automated meta-path generation approaches. Existing meta-path generation approaches cannot fully exploit the rich textual information in HINs, such as node names and edge type names. To address this problem, we propose MetaFill, a text-infilling-based approach for meta-path generation. The key idea of MetaFill is to formulate meta-path identification problem as a word sequence infilling problem, which can be advanced by Pretrained Language Models (PLMs). We observed the superior performance of MetaFill against existing meta-path generation methods and graph embedding methods that do…
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Taxonomy
TopicsTopic Modeling · Advanced Graph Neural Networks · Software Engineering Research
