4.8 Article

A Multisource Dense Adaptation Adversarial Network for Fault Diagnosis of Machinery

Journal

IEEE TRANSACTIONS ON INDUSTRIAL ELECTRONICS
Volume 69, Issue 6, Pages 6298-6307

Publisher

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TIE.2021.3086707

Keywords

Convolution; Feature extraction; Kernel; Fault diagnosis; Data models; Employee welfare; Training; Dense convolutional network; domain adaptation (DA); intelligent fault diagnosis; multisource fusion; transfer learning (TL)

Funding

  1. National Key Research and Development Program of China [2020YFB1710002]
  2. National Natural Science Foundation of China [51775409]
  3. Equipment Pre-research Fund of China [61420030301]

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In this study, a novel fault diagnosis method is proposed that utilizes multisource information fusion and classification label information. By extracting features and fusing them, along with a joint loss function, the method effectively addresses fault diagnosis under polytropic working conditions. Experimental results demonstrate the method's great potential.
Deep learning theory has made great progress in the field of intelligent fault diagnosis, and the development of domain adaptation has greatly promoted fault diagnosis under polytropic working conditions (PWC). Extensive studies have been conducted to solve the problem of fault diagnosis under PWC. However, the existing fault diagnosis methods based on domain adaptation have the following shortcomings. First, multisource information fusion is rarely considered. Second, the utilization of inherent labels is also insufficient in classification problems. To deal with the above problem, a novel multisource dense adaptation adversarial network is proposed, which leverages multisensor vibration information and classification label information. Specifically, the frequency spectrum of multisensor data is first employed to make full use of fault information. Afterwards, the dense convolution and fusion convolution blocks are used for deep feature extraction and fusion. Finally, a joint loss function is reconstructed under the framework of unsupervised learning, which considers the distribution differences of the features and the label information simultaneously. The experimental results from various working conditions, including still distant working conditions, all demonstrate that the proposed method can achieve state-of-the-art performances, which has shown great promise as an intelligent fault diagnosis method.

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