Prognosis and Health Management in electric drives applications implemented in existing systems with limited data rate

B. Klima, Ludek Buchta, M. Doseděl, Z. Havránek, P. Blaha
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引用次数: 5

Abstract

Importance of the condition monitoring and predictive maintenance in motion systems is growing up as motion systems quantum and their complexity (number of axes, performance parameters) increases with increasing the automation of huge range of human activities and manufacturing processes. Probability of failures increases with the system complexity.Many faults and indication of their propagation in the electric drives would require additional sensors or hardware, higher bandwidth and sampling frequencies of feedback sensors, high computing power etc. for development of sophisticated methods to detect specific faults with good sensitivity, robustness and reliability under any operating condition.This paper presents an approach to the condition monitoring and prognosis applicable into the existing systems. These methods use the information available in the traditional electric drives – especially the information from the individual sensors in a voltage source inverter (VSI) and/or an electric motor. Condition indicators for these methods are based on application specific operating states or actions, which generates typical patterns in the signals. The condition monitoring is based on observing the deviations of these patterns between the healthy system and the system with fault propagating. The implementation strategy is described in the paper and some demonstration examples are shown as well.
在现有数据速率有限的系统中实现的电力驱动应用的预测和健康管理
随着人类活动和制造过程自动化程度的提高,运动系统的量子化及其复杂性(轴数、性能参数)不断增加,状态监测和预测性维护在运动系统中的重要性也越来越大。故障的概率随着系统复杂性的增加而增加。许多故障及其在电力驱动中的传播指示将需要额外的传感器或硬件,更高的带宽和反馈传感器的采样频率,高计算能力等,以便开发复杂的方法来检测在任何操作条件下具有良好灵敏度,鲁棒性和可靠性的特定故障。本文提出了一种适用于现有系统的状态监测和预测方法。这些方法使用传统电驱动中可用的信息-特别是来自电压源逆变器(VSI)和/或电动机中的单个传感器的信息。这些方法的条件指示器基于应用程序特定的操作状态或操作,从而在信号中生成典型模式。状态监测的基础是观察这些模式在健康系统和故障传播系统之间的偏差。本文介绍了该方法的实现策略,并给出了一些实例。
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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