3260 papers • 126 benchmarks • 313 datasets
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Incomplete multi-view clustering aims to exploit the information of multiple incomplete views to partition data into their clusters. Existing methods only utilize the pair-wise sample correlation and pair-wise view correlation to improve the clustering performance but neglect the high-order correlation of samples and that of views. To address this issue, we propose a high-order correlation preserved incomplete multi-view subspace clustering (HCP-IMSC) method which effectively recovers the missing views of samples and the subspace structure of incomplete multi-view data. Specifically, multiple affinity matrices constructed from the incomplete multi-view data are treated as a third-order low rank tensor with a tensor factorization regularization which preserves the high-order view correlation and sample correlation. Then, a unified affinity matrix can be obtained by fusing the view-specific affinity matrices in a self-weighted manner. A hypergraph is further constructed from the unified affinity matrix to preserve the high-order geometrical structure of the data with incomplete views. Then, the samples with missing views are restricted to be reconstructed by their neighbor samples under the hypergraph-induced hyper-Laplacian regularization. Furthermore, the learning of view-specific affinity matrices as well as the unified one, tensor factorization, and hyper-Laplacian regularization are integrated into a unified optimization framework. An iterative algorithm is designed to solve the resultant model. Experimental results on various benchmark datasets indicate the superiority of the proposed method. The code is implemented by using MATLAB R2018a and MindSpore library: https://github.com/ChangTang/HCP-IMSC
An approach to multi-view subspace clustering that learns a joint subspace representation by constructing affinity matrix shared among all views is presented, relying on the importance of both low-rank and sparsity constraints in the construction of the affinity matrix.
This work proposes a novel multi-view deep subspace clustering network (MvDSCN) by learning a multi-view self-representation matrix in an end-to-end manner and demonstrates the superiority of the proposed multi-view subspace clustering model on both multi-feature and multi-modality learning.
A large-scale MVSC (LMVSC) algorithm with linear order complexity Inspired by the idea of anchor graph, a novel approach is designed to integrate those graphs so that it can implement spectral clustering on a smaller graph.
An affinity fusion-based network is also proposed in which the self-expressive layer corresponding to different modalities is enforced to be the same, in addition to various spatial fusion- based methods.
This paper proposes a novel multi-view subspace clustering approach dubbed Feature Concatenation Multi-view Subspace Clustering (FCMSC), and introduces graph Laplacians of multiple views and an effective algorithm based on the Augmented Lagrangian Multiplier is designed to optimized the objective functions.
A novel Constrained Bilinear Factorization Multi-view Subspace Clustering (CBF-MSC) method is proposed, which employs the bilinear factorization with an orthonormality constraint and a low-rank constraint for all coefficient matrices to explore the consensus information of multi-view data more effectively.
This paper proposed the novel multi-view subspace clustering networks with local and global graph information, termed MSCNLG, which is an end-to-end trainable framework that fully investigates the valuable information of multiple views.
An Unbalanced Incomplete Multi-view Clustering method (UIMC), which is the first effective method based on view evolution for unbalanced incomplete multi-view clustering and improves the clustering performance by up to 40% on three evaluation metrics over other state-of-the-art methods.
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