Tool chatter monitoring in turning operations using wavelet analysis of ultrasound waves

被引:31
作者
Lange J.H. [1 ]
Abu-Zahra N.H. [1 ]
机构
[1] Industrial and Manufacturing Engineering Department, University of Wisconsin-Milwaukee, Milwaukee, Cramer Street
关键词
ANN; Chatter; Turning; Ultrasound; Wavelet;
D O I
10.1007/s001700200149
中图分类号
学科分类号
摘要
This paper presents a new method for tool chatter monitoring using the wavelet analysis of ultrasound waves. Ultrasound waves are pulsed through the cutting tool towards the nose and are reflected back off the cutting edge. Fluctuating states of contact and non-contact between the tool insert and the workpiece, which are generated as a result of tool chatter, affect the amount of the transmitted ultrasound energy into the workpiece material and, in turn, the amount of the reflected energy. The change in the energy of the echo signals can be related directly to the severity and frequency of tool chatter. Wavelet packet analysis was used to filter the ultrasound signals. A three-layer multilayer perceptron (MLP) artificial neural network (ANN) was used to correlate the response of the ultrasound sensor to the accelerometer measurement of tool chatter. The main advantage of the ultrasound sensor is its ability to monitor other parameters such as the first contact of the tool and workpiece tool chipping and flank gradual tool wear. Experimental results show that the severity of tool chatter can be successfully monitored using the proposed ultrasound system. The system response to various frequency levels of tool chatter was investigated, however, the measurement of the chatter frequency is beyond the system capability at the current time.
引用
收藏
页码:248 / 254
页数:6
相关论文
共 30 条
[1]  
Tarng Y., Use of various signals for Milling Cutter Breakage Detection, (1988)
[2]  
Tlusty J., Andrews G., Critical review of sensors for unmanned machining, Annals CIRP, 32, 2, (1983)
[3]  
Takata S., Ahn J., Miki M., Miyao Y., Sata T., Sound monitoring system for fault detection of machine and machining states, Annals CIRP, 35, 1, (1986)
[4]  
Sata T., Takata S., Ahn J., Operation monitoring of untended manufacturing systems by means of sound recognition, Transactions ASME WAM, 23, (1986)
[5]  
Bischoff B., Hallan M., Moser T., Shi T., Frohrib D., Ramalingam S., Real time condition sensing: Part I - Modelling for a physically based approach and experimental results, ASME Sensors for Manufacturing, 26, (1987)
[6]  
Delio T., Tlusty J., Smith S., Use of audio signals for chatter detection and control, ASME Journal of Engineering for Industry, 114, 2, pp. 146-157, (1992)
[7]  
Lu W., Klamecki B., Prediction of chatter onset in turning with a modified chatter model, ASME Winter Meeting, 44, pp. 237-252, (1990)
[8]  
Bukkapatnam S., Lakhtakia A., Kumara S., Satapathy G., Characterization of nonlinearity of cutting tool vibrations and chatter, ASME Material Division, 69, 2, pp. 1207-1223, (1995)
[9]  
Hakansson L., Claesson I., Sturesson P., Lago T., Active control of chatter in turning - The origin of chatter, International Modal Analysis Conference, 2, pp. 1799-1805, (1999)
[10]  
Chung E.S., Chiou Y.S., Liang S.Y., Tool wear and chatter detection in turning via time series modeling and frequency band averaging, Transactions ASME PED, 64, pp. 351-358, (1993)