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MambaMVC: Learning state space model enhanced representation for contrastive multi-view clustering
1School of Computer and Control Engineering, Yantai University, Yantai, 264005, China.
Summary
MambaMVC enhances multi-view clustering by using dual-layer feature fusion and Mamba modules to capture global and local information. This approach improves representation learning and clustering performance on complex datasets.
Area of Science:
- Artificial Intelligence
- Machine Learning
- Data Science
Background:
- Deep multi-view clustering methods excel at feature extraction and high-dimensional data handling.
- Existing approaches often use single-layer fusion and overlook inter-view dependencies, limiting feature representation.
- These limitations hinder comprehensive information capture and the expressiveness of local features.
Purpose of the Study:
- To propose MambaMVC, a novel state space model-enhanced representation for multi-view clustering.
- To address limitations in feature fusion and inter-view dependency modeling in existing methods.
- To improve the comprehensive capture of global and local information for enhanced clustering.
Main Methods:
- Introduced dual-layer feature fusion: Global Structure-guided Feature Fusion Learning (GSFL) and Global Bi-directional Mamba (GB-Mamba).
- Employed Cross-view Bi-directional Mamba (CB-Mamba) for enhanced inter-view information exchange and local feature refinement.
- Integrated contrastive learning for label consistency and self-supervised learning guided by global target distribution.
Main Results:
- MambaMVC demonstrated superior performance across eight diverse multi-view datasets.
- The dual-layer fusion effectively captured comprehensive global information.
- Enhanced inter-view communication and local feature learning improved clustering accuracy.
Conclusions:
- MambaMVC effectively addresses limitations of single-layer fusion and ignored inter-view dependencies in deep multi-view clustering.
- The proposed model achieves state-of-the-art results by leveraging Mamba modules for advanced feature representation.
- The integration of contrastive and self-supervised learning further boosts clustering effectiveness and robustness.
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