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Multiple interpretation ensemble distillation for graph neural networks
Kang Liu1, Yuqi Zhang1, Shunzhi Yang2
1School of Computer Science, South China Normal University, Guangzhou, 510000, China.
Multiple Interpretation Ensemble Distillation (MIED) enhances graph knowledge distillation by using a multi-interpreter student model and novel sampling strategies. This approach improves learning effectiveness and generalization, outperforming existing methods in node classification tasks.
Area of Science:
- Artificial Intelligence
- Machine Learning
- Graph Neural Networks
Background:
- Existing graph knowledge distillation methods struggle with limited "dark knowledge" absorption due to simple logit alignment, leading to overfitting and incomplete pattern capture.
- A single student perspective restricts learning effectiveness and generalization ability in graph-based tasks.
Purpose of the Study:
- To introduce a novel Multiple Interpretation Ensemble Distillation (MIED) method for improved graph knowledge distillation.
- To address limitations of existing methods by enabling diversified knowledge interpretation and enhancing student model robustness and generalization.
Main Methods:
- Developed the Student Interpretation (SI) component, a multi-interpreter using multiple single-layer MLPs, to interpret knowledge from diversified student outputs, mitigating representational bias.
- Introduced Hybrid Sampling with different strategies for teacher (percentage random) and student/SI component (positive-negative) outputs to coordinate sample selection.
- Implemented Hierarchical Update to enhance robustness and generalization by using exponential moving average for the student's last layer parameters based on SI component fusion.
Main Results:
- MIED significantly outperforms existing methods in node classification tasks on seven real-world datasets, showing average improvements of 5.56% over Graph Convolutional Networks (GCN) and 27.43% over Multi-Layer Perceptrons (MLP).
- Compared to using multiple individual students, MIED achieves comparable or better accuracy with significant improvements in efficiency (6.00% faster, 50.00% less space).
Conclusions:
- MIED offers a scalable, generalizable, and robust solution for graph knowledge distillation, particularly effective on complex samples.
- The proposed method successfully enhances the absorption of teacher "dark knowledge" and improves student model performance beyond traditional approaches.
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