Joint Embedding Learning and Low-Rank Approximation: A Framework for Incomplete Multi-view Learning
December 25, 2018 ยท Declared Dead ยท ๐ IEEE Transactions on Cybernetics
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Authors
Hong Tao, Chenping Hou, Dongyun Yi, Jubo Zhu, Dewen Hu
arXiv ID
1812.10012
Category
cs.LG: Machine Learning
Cross-listed
stat.ML
Citations
53
Venue
IEEE Transactions on Cybernetics
Last Checked
5 months ago
Abstract
In real-world applications, not all instances in multi-view data are fully represented. To deal with incomplete data, Incomplete Multi-view Learning (IML) rises. In this paper, we propose the Joint Embedding Learning and Low-Rank Approximation (JELLA) framework for IML. The JELLA framework approximates the incomplete data by a set of low-rank matrices and learns a full and common embedding by linear transformation. Several existing IML methods can be unified as special cases of the framework. More interestingly, some linear transformation based complete multi-view methods can be adapted to IML directly with the guidance of the framework. Thus, the JELLA framework improves the efficiency of processing incomplete multi-view data, and bridges the gap between complete multi-view learning and IML. Moreover, the JELLA framework can provide guidance for developing new algorithms. For illustration, within the framework, we propose the Incomplete Multi-view Learning with Block Diagonal Representation (IML-BDR) method. Assuming that the sampled examples have approximate linear subspace structure, IML-BDR uses the block diagonal structure prior to learn the full embedding, which would lead to more correct clustering. A convergent alternating iterative algorithm with the Successive Over-Relaxation optimization technique is devised for optimization. Experimental results on various datasets demonstrate the effectiveness of IML-BDR.
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