Overcoming The Impact of Different Materials on Optical Microphones For Speech Capture Using Deep Learning

This study analyzes changes in vibration characteristics produced by different materials for the same audio signal through acoustic analysis. A deep learning model combined with training data is employed to mitigate problems and reduce the impact of spectral differences in speech signals recorded using laser Doppler vibrometer on different materials and convert them into high-quality speech output. Results demonstrate that (1) different materials cause variability in the vibration signals produced by the same audio signal and (2) deep learning models can address the challenges posed by material variability through appropriate training data. Furthermore, integrating deep learning with suitable training data helps overcome these challenges. This study suggests that the speech signal variability caused by materials in optical microphones is analogous to the channeleffect problem in traditional microphone signal processing. Future studies should reference methods for addressing channel effects in microphones to enhance the efficiency of speech-capture technology in optical microphones.

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Publication Details

Published
2024-10-17
DOI
https://doi.org/10.1109/o-cocosda64382.2024.10800023
Primary Topic
Speech and Audio Processing
Type
article
Field-Weighted Citation Impact
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Overcoming The Impact of Different Materials on Optical Microphones For Speech Capture Using Deep Learning

Yi-Hao Jiang, Jiawei Chen, Jiahui Li, Yi-Chang Wu et al.
Speech and Audio Processing
article

Overcoming The Impact of Different Materials on Optical Microphones For Speech Capture Using Deep Learning

Yi-Hao Jiang, Jiawei Chen, Jiahui Li, Yi-Chang Wu, Ying Lai
article en

Abstract

This study analyzes changes in vibration characteristics produced by different materials for the same audio signal through acoustic analysis. A deep learning model combined with training data is employed to mitigate problems and reduce the impact of spectral differences in speech signals recorded using laser Doppler vibrometer on different materials and convert them into high-quality speech output. Results demonstrate that (1) different materials cause variability in the vibration signals produced by the same audio signal and (2) deep learning models can address the challenges posed by material variability through appropriate training data. Furthermore, integrating deep learning with suitable training data helps overcome these challenges. This study suggests that the speech signal variability caused by materials in optical microphones is analogous to the channeleffect problem in traditional microphone signal processing. Future studies should reference methods for addressing channel effects in microphones to enhance the efficiency of speech-capture technology in optical microphones.

National Yang Ming Chiao Tung University (TW), Ministry of Justice (TW)
Openalex Percentile: Top 74%
Speech and Audio Processing
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Overcoming The Impact of Different Materials on Optical Microphones For Speech Capture Using Deep Learning — Yi-Hao Jiang, Jiawei Chen, et al. · (2024) | TGRS Research Map | TGRS