A Resource Efficient System for On-Smartwatch Audio Processing

While audio data shows promise in addressing various health challenges, there is a lack of research on on-device audio processing for smartwatches. Privacy concerns make storing raw audio and performing post-hoc analysis undesirable for many users. Additionally, current on-device audio processing systems for smartwatches are limited in their feature extraction capabilities, restricting their potential for understanding user behavior and health. We developed a real-time system for on-device audio processing on smartwatches, which takes an average of 1.78 minutes (SD = 0.07 min) to extract 22 spectral and rhythmic features from a 1-minute audio sample, using a small window size of 25 milliseconds. Using these extracted audio features on a public dataset, we developed and incorporated models into a watch to classify foreground and background speech in real-time. Our Random Forest-based model classifies speech with a balanced accuracy of 80.3%.

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Publication Details

Published
2024-12-04
DOI
https://doi.org/10.1145/3636534.3698866
Citations
1
Primary Topic
Music and Audio Processing
Type
article
Field-Weighted Citation Impact
0.35

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article

A Resource Efficient System for On-Smartwatch Audio Processing

Laura E. Barnes, Mark Rucker, Md. Sabbir Ahmed, Arafat Rahman et al.
1 citations
Music and Audio Processing
0.35
article

A Resource Efficient System for On-Smartwatch Audio Processing

Laura E. Barnes, Mark Rucker, Md. Sabbir Ahmed, Arafat Rahman, Zhiyuan Wang
article en
1 citations

Abstract

While audio data shows promise in addressing various health challenges, there is a lack of research on on-device audio processing for smartwatches. Privacy concerns make storing raw audio and performing post-hoc analysis undesirable for many users. Additionally, current on-device audio processing systems for smartwatches are limited in their feature extraction capabilities, restricting their potential for understanding user behavior and health. We developed a real-time system for on-device audio processing on smartwatches, which takes an average of 1.78 minutes (SD = 0.07 min) to extract 22 spectral and rhythmic features from a 1-minute audio sample, using a small window size of 25 milliseconds. Using these extracted audio features on a public dataset, we developed and incorporated models into a watch to classify foreground and background speech in real-time. Our Random Forest-based model classifies speech with a balanced accuracy of 80.3%.

Vol. 2024
University of Virginia (US)
National Institutes of Health, National Institute of Mental Health
Openalex Percentile: Top 41%
Music and Audio Processing
0.35
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