A review of recent advances in fault diagnosis based on deep neural networks

Rongyu Li
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Abstract

Bearings are essential components in mechanical systems, supporting the rotation of various machine parts in motors, wind turbines, vehicles, and industrial robots, making their health critical for system performance and reliability. Traditional diagnosis methods, such as vibration and acoustic analysis, along with temperature monitoring, often demand expertise and may struggle to detect early faults. However, the introduction of deep learning technology has created new opportunities for more effective bearing fault diagnosis. The application of deep learning-based bearing fault diagnosis in the industrial sector has gained significant attention and multiple types of deep learning networks have already been successfully implemented. This paper aims to provide a clear review of bearing fault diagnosis based on deep learning algorithms. This essay focuses on two of the most popular deep learning networks, Autoencoder and Convolutional Neural Networks. Their mechanism and applications are analyzed based on essays and research paper related to the field of bearing fault diagnosis. Finally, conclusions are presented to summarize the current development and point out faced challenges and future trends of these deep learning networks. It is also expected that this narrative not only serves as a cogent overview of the contemporary fault diagnosis technologies but also provides convenience and inspiration for further study in this field.
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基于深度神经网络的故障诊断最新进展综述
轴承是机械系统中的重要部件,支撑着电机、风力涡轮机、车辆和工业机器人中各种机器部件的旋转,因此轴承的健康状况对系统性能和可靠性至关重要。传统的诊断方法,如振动和声学分析以及温度监测,往往需要专业知识,而且可能难以检测到早期故障。然而,深度学习技术的引入为更有效的轴承故障诊断创造了新机遇。基于深度学习的轴承故障诊断在工业领域的应用已获得极大关注,多种类型的深度学习网络已成功应用。本文旨在对基于深度学习算法的轴承故障诊断进行清晰评述。本文重点关注两种最流行的深度学习网络:自动编码器和卷积神经网络。根据与轴承故障诊断领域相关的论文和研究报告,分析了它们的机制和应用。最后得出结论,总结了这些深度学习网络的当前发展情况,并指出了面临的挑战和未来趋势。希望本报告不仅是对当代故障诊断技术的有力概述,还能为该领域的进一步研究提供便利和启发。
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