4.7 Article

A practical signal processing approach for condition monitoring of low speed machinery using Peak-Hold-Down-Sample algorithm

期刊

MECHANICAL SYSTEMS AND SIGNAL PROCESSING
卷 36, 期 2, 页码 256-270

出版社

ACADEMIC PRESS LTD- ELSEVIER SCIENCE LTD
DOI: 10.1016/j.ymssp.2012.11.003

关键词

Down-sample algorithm; Condition monitoring; Acoustic emission; Low speed machine; Bearing defect detection

资金

  1. Australian Government's Cooperative Research Centers Program
  2. CRC

向作者/读者索取更多资源

A simple and effective down-sample algorithm, Peak-Hold-Down-Sample (PHDS) algorithm is developed in this paper to enable a rapid and efficient data transfer in remote condition monitoring applications. The algorithm is particularly useful for high frequency Condition Monitoring (CM) techniques, and for low speed machine applications since the combination of the high sampling frequency and low rotating speed will generally lead to large unwieldy data size. The effectiveness of the algorithm was evaluated and tested on four sets of data in the study. One set of the data was extracted from the condition monitoring signal of a practical industry application. Another set of data was acquired from a low speed machine test rig in the laboratory. The other two sets of data were computer simulated bearing defect signals having either a single or multiple bearing defects. The results disclose that the PHDS algorithm can substantially reduce the size of data while preserving the critical bearing defect information for all the data sets used in this work even when a large down-sample ratio was used (i.e., 500 times down-sampled). In contrast, the down-sample process using the existing normal down-sample technique in signal processing eliminates the useful and critical information such as bearing defect frequencies in a signal when the same down-sample ratio was employed. Noise and artificial frequency components were also induced by the normal down-sample technique, thus limits its usefulness for machine condition monitoring applications. (C) 2012 Elsevier Ltd. All rights reserved.

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