Multiview Subspace Clustering via Low-Rank Symmetric Affinity Graph
Summary
This study introduces a new multiview subspace clustering (MVSC) method, LSGMC, to improve data analysis by considering consistent and angular information. LSGMC enhances clustering performance on diverse datasets.
Area of Science:
- Data Science
- Machine Learning
- Artificial Intelligence
Background:
- Multiview subspace clustering (MVSC) analyzes datasets with multiple views, but existing methods often overlook crucial consistent and angular information.
- This limitation hinders the comprehensive understanding of complex data structures.
Purpose of the Study:
- To propose a novel MVSC method, Low-Rank Symmetric Graph Clustering (LSGMC), that effectively utilizes both consistent and angular information from different data views.
- To enhance the accuracy and robustness of multiview clustering by addressing limitations in existing approaches.
Main Methods:
- LSGMC decomposes the coefficient matrix into three factors to capture consistent low-rank structures across views.
- It incorporates a symmetry constraint for weight consistency and a fusion mechanism for inherent data structure analysis.
- The Schatten p-norm is employed for low-rank approximation, and an adaptive information reduction strategy generates a high-quality similarity matrix.
Main Results:
- LSGMC demonstrated superior clustering performance across 11 diverse datasets.
- The proposed method outperformed ten state-of-the-art multiview clustering techniques in experimental evaluations.
- The integration of consistent and angular information proved effective in improving clustering outcomes.
Conclusions:
- LSGMC offers a significant advancement in multiview subspace clustering by effectively leveraging complementary information from multiple views.
- The method's ability to handle noise and redundancy, coupled with its superior performance, makes it a valuable tool for complex data analysis.
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