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RESEARCH ON ROLLING BEARING FAULT DIAGNOSIS BASED ON PARALLEL 1DCNN

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Volume 1, Issue 1, pp 1-7

Author(s)

Jianguang Yuan1, Hongmin Liu2, Yinghua Wang1,2,*

Affiliation(s)

1 College of Mechanical Engineering, Yanshan University, Qinhuangdao 066004, Shandong, China;

2 TBEA Hengyang Transformer Co., Ltd, Hengyang 421007, Hunan, China.

Corresponding Author

Yinghua Wang

ABSTRACT

Rolling bearings are commonly used parts in rotating machinery. Due to their harsh working environment, they are prone to failure. Therefore, a fault diagnosis method for rolling bearings based on parallel 1DCNN (one-dimensional convolutional neural network) is proposed. First, the vibration signal of the rolling bearing was processed and divided into training set and test set; then, a parallel 1DCNN model composed of two channels was constructed, which can obtain the time domain information and frequency domain information of the vibration signal respectively. A relatively small convolution kernel is used when extracting time domain information, and a relatively large convolution kernel is used when extracting frequency domain information, and the traditional fully connected layer is replaced by a global maximum pooling layer; finally, the trained The parallel 1DCNN model processed the rolling bearing test set data of Case Western Reserve University; at the same time, in order to verify the fault diagnosis effect of the parallel 1DCNN model, the model was compared with the traditional CNN model. The research results show that the fault diagnosis accuracy of the parallel 1DCNN model is higher than 0.996. Compared with the traditional single-channel CNN model, the parallel 1DCNN model can make full use of the extracted time domain and frequency domain feature information, and has better fault diagnosis ability.

KEYWORDS

Rolling bearing; Fault diagnosis; Convolutional neural network; 1DCNN; Deep learning; Feature extraction.

CITE THIS PAPER

Jianguang Yuan, Hongmin Liu, Yinghua Wang. Research on rolling bearing fault diagnosis based on parallel 1DCNN. World Journal of Engineering Research. 2023, 1(1): 1-7.

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