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Confirmation of Thermal Images and Vibration Signals for Intelligent Machine Fault Diagnostics
Author(s) -
Achmad Widodo,
Djoeli Satrijo,
Toni Prahasto,
Gang-Min Lim,
Byeong-Keun Choi
Publication year - 2012
Publication title -
international journal of rotating machinery
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.265
H-Index - 33
eISSN - 1026-7115
pISSN - 1023-621X
DOI - 10.1155/2012/847203
Subject(s) - computer science , vibration , artificial intelligence , fault simulator , artificial neural network , thermography , fault (geology) , feature extraction , bearing (navigation) , condition monitoring , rolling element bearing , process (computing) , pattern recognition (psychology) , computer vision , fault detection and isolation , acoustics , infrared , engineering , physics , electrical engineering , seismology , optics , actuator , geology , operating system , stuck at fault
This paper deals with the maintenance technique for industrial machinery using the artificial neural network so-called self-organizing map (SOM). The aim of this work is to develop intelligent maintenance system for machinery based on an alternative way, namely, thermal images instead of vibration signals. SOM is selected due to its simplicity and is categorized as an unsupervised algorithm. Following the SOM training, machine fault diagnostics is performed by using the pattern recognition technique of machine conditions. The data used in this work are thermal images and vibration signals, which were acquired from machine fault simulator (MFS). It is a reliable tool and is able to simulate several conditions of faulty machine such as unbalance, misalignment, looseness, and rolling element bearing faults (outer race, inner race, ball, and cage defects). Data acquisition were conducted simultaneously by infrared thermography camera and vibration sensors installed in the MFS. The experimental data are presented as thermal image and vibration signal in the time domain. Feature extraction was carried out to obtain salient features sensitive to machine conditions from thermal images and vibration signals. These features are then used to train the SOM for intelligent machine diagnostics process. The results show that SOM can perform intelligent fault diagnostics with plausible accuracies

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