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引用次数: 0
摘要
故障检测是一种易于实现的策略。为了确保可接受的可靠性和安全性水平,有效的诊断方法(在故障发生的最早阶段)、故障监控和故障处理是强制性的,以避免任何生产停机或损失,并减少额外的维修成本。MCSA (Motor Current Signature Analysis,电机电流特征分析)和主成分分析(Principal Component Analysis, PCA)在故障检测中得到了广泛的探索和应用。这些方法的显著局限性促使研究人员提高它们的准确性并提高它们的复杂性。在这项工作中,我们建议研究将ANN-GA(人工神经网络-遗传算法)与ESPRIT方法变体相结合,用于实时有效的故障识别。在Matlab中进行的计算机仿真表明,即使在噪声信号下,ESPRIT方法变体也能很好地识别轴承故障。此外,该算法适用于数据集准备和人工神经网络训练中分类模型的建立。根据研究发现,遗传算法优化了人工神经网络结构,在时域和频域上都具有很好的识别准确率。
Signal Analysis Algorithms and Artificial Neural Network for Electromechanical Fault Detection
Fault detection is a strategy that can be easily implemented. To ensure acceptable levels of reliability and safety, effective diagnostic methods (at the earliest stage of fault occurrence), fault monitoring, and fault handling are mandatory to avoid any production downtime or loss and to reduce additional repair costs. The detection of these faults by MCSA (Motor Current Signature Analysis) and Principal Component Analysis (PCA) has been widely explored and applied. The remarkable limitations of these approaches have prompted researchers to improve their accuracy and to enhance their complexity. In this work, we propose to study the application of ANN-GA (Artificial Neural Networks-Genetic Algorithm) combined with ESPRIT method variants for efficient faults recognizing in real-time. Computer simulations in Matlab demonstrated that the ESPRIT method variant allows satisfactory precision in discriminating bearing fault even with a noisy signal. Moreover, this algorithm is suitable for application in dataset preparation and in ANN training for the development of a classification model. According to the study finding, the Genetic Algorithm optimizes ANN architecture for identifying each fault type with very good accuracy in time or frequency domains.