基于自编码器的磨削系统故障诊断

Qu Xing-yu, Zeng Peng, Fu Dong-dong, Xu Chengcheng
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引用次数: 3

摘要

目前,磨削系统的故障诊断大多是基于人工判断,效率低、准确率低、成本高、易造成人员伤亡。传统的神经网络在高维数据集上的预测性能不理想,而且难以提取关键特征,导致分类结果很差。针对上述问题,本文提出了一种基于自编码器的深度学习方法来实现磨削系统的智能诊断。该算法利用自编码器从故障数据集中提取特征,并将非线性特征传递到Softmax分类中进行故障分类识别。通过实验比较了基于自编码器的深度学习网络和传统BP神经网络,得出了基于自编码器的深度学习网络在不平衡分类方面优于BP网络的结论。该方法的分类精度可达92.4%。
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Autoencoder-based fault diagnosis for grinding system
At present, most fault diagnosis for grinding system is based on artificial judgments, which is inefficient, low accurate, high cost and easy to cause casualties. The traditional neural network has an unsatisfying performance to predict on high dimensional dataset, and is hard to extract crucial features, which brings about terrible classification results. To solve the above problems, the paper present a deep learning based on autoencoder to realize the intelligent diagnosis for grinding system. The algorithm applies autoencoder to extract features from fault dataset, and transit the non-linearized features to Softmax classification to recognize the fault category. This paper compares autoencoder-based deep learning networks and the traditional BP neural networks in experiments, and it is concluded that the autoencoder-based deep learning outperforms BP networks in the unbalanced classification. The classification precision is up to 92.4% by using the proposed method.
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