@inproceedings{
wen2024dualoptimized,
title={Dual-Optimized Adaptive Graph Reconstruction for Multi-View Graph Clustering},
author={Zichen Wen and Tianyi Wu and Yazhou Ren and Yawen Ling and Chenhang Cui and Xiaorong Pu and Lifang He},
booktitle={ACM Multimedia 2024},
year={2024},
url={https://openreview.net/forum?id=kBfPB0i98K}
}
Multi-view clustering is an important machine learning task for multi-media data, encompassing various domains such as images, videos, and texts. Moreover, with the growing abundance of graph data, the significance of multi-view graph clustering (MVGC) has become evident. Most existing methods focus on graph neural networks (GNNs) to extract information from both graph structure and feature data to learn distinguishable node representations. However, traditional GNNs are designed with the assumption of homophilous graphs, making them unsuitable for widely prevalent heterophilous graphs. Several techniques have been introduced to enhance GNNs for heterophilous graphs. While these methods partially mitigate the heterophilous graph issue, they often neglect the advantages of traditional GNNs, such as their simplicity, interpretability, and efficiency. In this paper, we propose a novel multi-view graph clustering method based on dual-optimized adaptive graph reconstruction, named DOAGC. It mainly aims to reconstruct the graph structure adapted to traditional GNNs to deal with heterophilous graph issues while maintaining the advantages of traditional GNNs. Specifically, we first develop an adaptive graph reconstruction mechanism that accounts for node correlation and original structural information. To further optimize the reconstruction graph, we design a dual optimization strategy and demonstrate the feasibility of our optimization strategy through mutual information theory. Numerous experiments demonstrate that DOAGC effectively mitigates the heterophilous graph problem.
Dual-Optimized Adaptive Graph Reconstruction for Multi-View Graph Clustering
Zichen Wen Tianyi Wu Yazhou Ren Yawen Ling Chenhang Cui Xiaorong Pu Lifang He