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A cross-graph tuning-free GNN prompting framework
Yaqi Chen1, Shixun Huang1, Lei Wang1
1School of Computing and Information Technology, University of Wollongong, Northfields Avenue, Gwynneville, 2500, NSW, Australia.
This study introduces a Cross-graph Tuning-free Prompting Framework (CTP) for Graph Neural Networks (GNNs). CTP enables direct deployment on new graphs, significantly improving few-shot prediction accuracy without retraining.
Area of Science:
- Artificial Intelligence
- Machine Learning
- Graph Neural Networks
Background:
- Graph Neural Network (GNN) prompting aims to adapt models across tasks and graphs efficiently.
- Current GNN prompting methods often require task-specific parameter updates and struggle with cross-graph generalization.
- This limits performance and the practical utility of GNN prompting.
Purpose of the Study:
- To develop a novel Cross-graph Tuning-free Prompting Framework (CTP) for GNNs.
- To enable GNN models to adapt to new graphs without parameter tuning, facilitating plug-and-play inference.
- To support both homogeneous and heterogeneous graph structures.
Main Methods:
- Introduced the Cross-graph Tuning-free Prompting Framework (CTP).
- Designed CTP for seamless deployment on unseen graphs, eliminating the need for further parameter tuning.
- Validated CTP's effectiveness on few-shot prediction tasks across various graph types.
Main Results:
- CTP demonstrated significant performance improvements on few-shot prediction tasks.
- Achieved an average accuracy gain of 30.8% and a maximum gain of 54% compared to state-of-the-art methods.
- Showcased the framework's ability to generalize across different graphs and tasks.
Conclusions:
- CTP offers a robust and efficient solution for GNN adaptation across tasks and graphs.
- The tuning-free nature of CTP enables a plug-and-play GNN inference engine.
- This work provides a new perspective on prompt learning for GNNs, enhancing their practical applicability.
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