4.6 Article

Multisource-Refined Transfer Network for Industrial Fault Diagnosis Under Domain and Category Inconsistencies

期刊

IEEE TRANSACTIONS ON CYBERNETICS
卷 52, 期 9, 页码 9784-9796

出版社

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TCYB.2021.3067786

关键词

Fault diagnosis; Feature extraction; Transfer learning; Task analysis; Training; Employee welfare; Measurement; Deep learning; domain and category inconsistencies; fault diagnosis; multisource transfer learning

资金

  1. NSFC-Zhejiang Joint Fund for the Integration of Industrialization and Informatization [U1709211]
  2. Zhejiang Key Research and Development Project [2019C01048]
  3. Open Research Project of the State Key Laboratory of Industrial Control Technology, Zhejiang University, China [ICT2021B53]

向作者/读者索取更多资源

This study proposes a multisource-refined transfer network to address domain and category inconsistencies in fault diagnosis. It first designs a refined adversarial adaptation strategy to reduce refined categorywise distribution inconsistency within each source-target domain pair. Then, it develops a multiple classifier complementation module to transfer different diagnostic knowledge by complementing source classifiers to the target domain.
Unsupervised cross-domain fault diagnosis has been actively researched in recent years. It learns transferable features that reduce distribution inconsistency between source and target domains without target supervision. Most of the existing cross-domain fault diagnosis approaches are developed based on the consistency assumption of the source and target fault category sets. This assumption, however, is generally challenged in practice, as different working conditions can have different fault category sets. To solve the fault diagnosis problem under both domain and category inconsistencies, a multisource-refined transfer network is proposed in this article. First, a multisource-domain-refined adversarial adaptation strategy is designed to reduce the refined categorywise distribution inconsistency within each source-target domain pair. It avoids the negative transfer trap caused by conventional global-domainwise-forced alignments. Then, a multiple classifier complementation module is developed by complementing and transferring the source classifiers to the target domain to leverage different diagnostic knowledge existing in various sources. Different classifiers are complemented by the similarity scores produced by the adaptation module, and the complemented smooth predictions are used to guide the refined adaptation. Thus, the refined adversarial adaptation and the classifier complementation can benefit from each other in the training stage, yielding target-faults-discriminative and domain-refined-indistinguishable feature representations. Extensive experiments on two cases demonstrate the superiority of the proposed method when domain and category inconsistencies coexist.

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