TLRLF4MVC: Tensor Low-Rank and Low-Frequency for Scalable Multi-View Clustering
Summary
This study introduces a novel tensor low-rank and low-frequency for scalable multi-view clustering (TLRLF4MVC) method. TLRLF4MVC efficiently handles large datasets by balancing intra-view similarity and inter-view correlations for improved clustering accuracy.
Area of Science:
- Machine Learning
- Data Science
- Computer Vision
Background:
- Anchor-based multi-view clustering is effective for large datasets.
- Existing methods struggle with intra-view similarity or computational complexity.
- Efficient large-scale multi-view clustering remains a challenge.
Purpose of the Study:
- To develop a scalable multi-view clustering method that efficiently handles large datasets.
- To address limitations in current methods regarding intra-view similarity and computational cost.
- To improve clustering accuracy and efficiency in massive multi-view data.
Main Methods:
- Introduced a novel tensor low-frequency component (TLFC) operator for smooth sample representation.
- Integrated TLFC for intra-view similarity with tensor nuclear norm (TNN) and consensus regularization for inter-view correlations.
- Developed the tensor low-rank and low-frequency for scalable multi-view clustering (TLRLF4MVC) algorithm.
- Employed iterative optimization to balance intra-view similarity and inter-view complementary information.
Main Results:
- TLRLF4MVC significantly outperforms state-of-the-art methods on six large-scale multi-view datasets.
- The method demonstrates remarkable computational efficiency, especially for massive data.
- Learned embedding features are mapped into a smooth and compact subspace, enhancing clustering performance.
Conclusions:
- TLRLF4MVC offers a computationally efficient and accurate solution for large-scale multi-view clustering.
- The proposed TLFC operator effectively captures intra-view similarity.
- The integration of TNN and consensus regularization successfully exploits inter-view correlations.
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