TY - GEN
T1 - A comparability study of a wireless electret accelerometer to a traditional piezoelectric accelerometer
AU - Jones, Joshua J.
AU - McNeal, Timothy A.
AU - Salandro, Wesley A.
AU - Roth, John T.
AU - Suprock, Christopher A.
AU - Fussell, Barry K.
PY - 2009
Y1 - 2009
N2 - Traditional piezoelectric accelerometers used for machine condition monitoring are expensive and represent a capital risk when placed in the harsh environment of a cutting process. Additionally, these components require signal conditioning hardware and are sampled on a PC via an independent data acquisition interface (DAQ card). The goal of the research discussed herein is to test an industrial-friendly electret-based accelerometer that can perform tasks similar to a traditional piezoelectric accelerometer. The sensor will be adapted to utilize Bluetooth wireless data capabilities, further enhancing the sensors industrial practicality. The output of this electret- based sensor will be compared to the output of a traditional piezoelectric accelerometer and accompanying DAQ. More specifically, the study will focus on the effects of elevated temperature on the sensor. To achieve this, a comparison of both the electret and piezoelectric accelerometer response spectra will be observed over a range of 21C° to 77C°. To further validate the sensor, turning data is collected wirelessly from the sensor and compared to the output of the traditional piezoelectric sensor. Finally, the performance of the sensor for monitoring a tool's condition during turning is evaluated and presented. The generated trend is contrasted to the comparable trend developed from the piezoelectric-based accelerometer.
AB - Traditional piezoelectric accelerometers used for machine condition monitoring are expensive and represent a capital risk when placed in the harsh environment of a cutting process. Additionally, these components require signal conditioning hardware and are sampled on a PC via an independent data acquisition interface (DAQ card). The goal of the research discussed herein is to test an industrial-friendly electret-based accelerometer that can perform tasks similar to a traditional piezoelectric accelerometer. The sensor will be adapted to utilize Bluetooth wireless data capabilities, further enhancing the sensors industrial practicality. The output of this electret- based sensor will be compared to the output of a traditional piezoelectric accelerometer and accompanying DAQ. More specifically, the study will focus on the effects of elevated temperature on the sensor. To achieve this, a comparison of both the electret and piezoelectric accelerometer response spectra will be observed over a range of 21C° to 77C°. To further validate the sensor, turning data is collected wirelessly from the sensor and compared to the output of the traditional piezoelectric sensor. Finally, the performance of the sensor for monitoring a tool's condition during turning is evaluated and presented. The generated trend is contrasted to the comparable trend developed from the piezoelectric-based accelerometer.
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U2 - 10.1115/MSEC_ICMP2008-72513
DO - 10.1115/MSEC_ICMP2008-72513
M3 - Conference contribution
AN - SCOPUS:77951280137
SN - 9780791848517
T3 - Proceedings of the ASME International Manufacturing Science and Engineering Conference, MSEC2008
SP - 475
EP - 484
BT - Proceedings of the ASME International Manufacturing Science and Engineering Conference, MSEC2008
T2 - ASME International Manufacturing Science and Engineering Conference, MSEC2008
Y2 - 7 October 2008 through 10 October 2008
ER -