Characterization of Signal Variations During the Self-Sharpening Process of Ceramic Diamond Grinding Wheels

This study investigates the real-time detection of self-sharpening signals in diamond ceramic grinding wheels used for SiC wafer planarization processing. Key grinding signals were captured and analyzed using a hydrophone (acoustic emission), accelerometers, and current transducers. RMS calculation and Welch's Fast Fourier Transform (Wfft) revealed that AE signals are the most reliable and sensitive indicators of self-sharpening, outperforming vibration and motor current signals. Significant power changes were observed in three AE frequency bands, offering insights into self-sharpening cycles. These findings provide a basis for integrating self-sharpening detection into intelligent grinding systems, enhancing efficiency and precision.

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Publication Details

Published
2025-04-15
DOI
https://doi.org/10.23919/icep-iaac64884.2025.11002902
Primary Topic
Advanced machining processes and optimization
Type
article
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article

Characterization of Signal Variations During the Self-Sharpening Process of Ceramic Diamond Grinding Wheels

Yu-Kun Lin
Advanced machining processes and optimization
article

Characterization of Signal Variations During the Self-Sharpening Process of Ceramic Diamond Grinding Wheels

Yu-Kun Lin
article en

Abstract

This study investigates the real-time detection of self-sharpening signals in diamond ceramic grinding wheels used for SiC wafer planarization processing. Key grinding signals were captured and analyzed using a hydrophone (acoustic emission), accelerometers, and current transducers. RMS calculation and Welch's Fast Fourier Transform (Wfft) revealed that AE signals are the most reliable and sensitive indicators of self-sharpening, outperforming vibration and motor current signals. Significant power changes were observed in three AE frequency bands, offering insights into self-sharpening cycles. These findings provide a basis for integrating self-sharpening detection into intelligent grinding systems, enhancing efficiency and precision.

Feng Chia University (TW)
Openalex Percentile: Top 89%
Advanced machining processes and optimization
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