A bearing fault diagnosis and monitoring software system based on lightweight neural networks to resist coloured noise

In actual industrial sites, the application of bearings is becoming increasingly widespread. In order to better monitor the faults of bearings, this article combines the concept of deep learning and designs a bearing fault diagnosis and monitoring software system based on lightweight neural networks to resist coloured noise. This system is developed based on MATLAB App Designer. When testing the system, five different bearing datasets, namely MFPT, Paderborn, IMS, Ottawa, and CWRU, are applied. Considering that the data in actual scenarios contains complex noise, coloured noise signals are added. Compared to traditional fault diagnosis software that requires pre writing data into the program, this software can perform real-time processing on any single column vibration data file. By using lightweight neural network methods to preprocess the data collected by sensors, the SqueezeNet network has a faster speed to extract significant features of vibration. This software system can achieve time-frequency domain image output of signals, with multiple noise reduction methods. It can also calculate the frequency of faults based on bearing model data. Through envelope spectrum images, the location of faults can be monitored and email reminders can be sent to engineers.

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Publication Details

Journal
International Journal of Industrial and Systems Engineering
Published
2025-01-01
DOI
https://doi.org/10.1504/ijise.2025.145065
Primary Topic
Advanced Sensor and Control Systems
Type
article
Field-Weighted Citation Impact
0.00
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article

A bearing fault diagnosis and monitoring software system based on lightweight neural networks to resist coloured noise

Yinghao Sun, Wujiu Pan, Junyi Wang, Peng Nie et al.
International Journal of Industrial and Systems Engineering
Advanced Sensor and Control Systems
article

A bearing fault diagnosis and monitoring software system based on lightweight neural networks to resist coloured noise

Yinghao Sun, Wujiu Pan, Junyi Wang, Peng Nie, Kuishan Kong, Shuming Cao
article en

Abstract

In actual industrial sites, the application of bearings is becoming increasingly widespread. In order to better monitor the faults of bearings, this article combines the concept of deep learning and designs a bearing fault diagnosis and monitoring software system based on lightweight neural networks to resist coloured noise. This system is developed based on MATLAB App Designer. When testing the system, five different bearing datasets, namely MFPT, Paderborn, IMS, Ottawa, and CWRU, are applied. Considering that the data in actual scenarios contains complex noise, coloured noise signals are added. Compared to traditional fault diagnosis software that requires pre writing data into the program, this software can perform real-time processing on any single column vibration data file. By using lightweight neural network methods to preprocess the data collected by sensors, the SqueezeNet network has a faster speed to extract significant features of vibration. This software system can achieve time-frequency domain image output of signals, with multiple noise reduction methods. It can also calculate the frequency of faults based on bearing model data. Through envelope spectrum images, the location of faults can be monitored and email reminders can be sent to engineers.

International Journal of Industrial and Systems EngineeringVol. 49(3)
Shenyang Aerospace University (CN), Shenyang Institute of Automation (CN)
Climate action
Openalex Percentile: Top 95%
Advanced Sensor and Control Systems
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