Gear Fault Diagnosis and Classification Using Machine Learning Classifier

S. Sahoo, R. A. Laskar, J. K. Das, S. Laskar
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引用次数: 2

Abstract

In industry the condition monitoring of rotating machinery gear is very important. The defect in gear mesh may cause the failure in machinery and that causes a severe loss in industry. The failure in gear mesh reduces the efficiency and hence decreases the productivity in industrial operation. Therefore the health monitoring of gear mesh is very important. Proper health monitoring of gears can avoid the failure in machinery and can save money in industrial applications. The acoustic emission and vibration are the two widely used measuring parameters which is used for the condition monitoring of gear mesh. In this work the gear fault detection by using the acoustic emission monitoring technique is used. This experimentation is done by using an efficient instrumentation system. The experimental set-up is designed which consists of a gear mesh driving system and a hand-held sound analyzer. To carry out the experiment the measuring signals from the defective and healthy gears are captured and compared. In this work the measuring signal is the acoustic emission from the tested gears. Then for the fault detection, two signal processing techniques are followed. These are statistical analysis and adaptive wavelet transform (AWT) analysis. The comparison in statistical as well as in AWT analysis used to detect the fault present in gears. In AWT analysis the adaptive noise cancellation is used to enhance the signal to noise ratio (SNR). Finally faults in gears are classified using the machine learning classifier. The statistical parameter data are used as the input data for the classifiers to train the system to classify the fault.
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基于机器学习分类器的齿轮故障诊断与分类
在工业中,旋转机械齿轮的状态监测是非常重要的。齿轮啮合的缺陷会引起机械的故障,给工业造成严重的损失。在工业运行中,齿轮啮合的失效降低了效率,从而降低了生产率。因此,齿轮啮合的健康监测是非常重要的。对齿轮进行适当的健康监测可以避免机械故障,并在工业应用中节省资金。声发射和振动是齿轮啮合状态监测中广泛使用的两个测量参数。本文采用声发射监测技术对齿轮进行故障检测。本实验是利用高效的仪器系统完成的。设计了由齿轮啮合传动系统和手持式声音分析仪组成的实验装置。为了进行实验,捕获了故障齿轮和健康齿轮的测量信号并进行了比较。在这项工作中,测量信号是被测齿轮的声发射。然后采用两种信号处理技术进行故障检测。分别是统计分析和自适应小波变换分析。在统计和AWT分析中的比较,用于检测故障存在于齿轮。在AWT分析中,采用自适应消噪来提高信噪比。最后利用机器学习分类器对齿轮故障进行分类。将统计参数数据作为分类器的输入数据,训练系统对故障进行分类。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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