Classification of Breathing Phase and Path with In-Ear Microphones

In recent years, the use of smart in-ear devices (hearables) for health monitoring has gained popularity. Previous research on in-ear breath monitoring with hearables uses signal processing techniques based on peak detection. Such techniques are greatly affected by movement artifacts and other challenging real-world conditions. In this study, we use an existing database of various breathing types captured using an in-ear microphone to classify breathing path and phase. Having a small dataset, we use XGBoost, a simple and fast classifier, to address three different classification challenges. We achieve an accuracy of 86.8% for a binary path classifier, 74.1% for a binary phase classifier, and 67.2% for a four-class path and phase classifier. Our path classifier outperforms existing algorithms in recall and F1, highlighting the reliability of our approach. This work demonstrates the feasibility of the use of hearables in continuous breath monitoring tasks with machine learning.

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Publication Details

Journal
Sensors
Published
2024-10-17
DOI
https://doi.org/10.3390/s24206679
Citations
4
Primary Topic
Speech and Audio Processing
Type
article
Field-Weighted Citation Impact
1.40

Funders

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article

Classification of Breathing Phase and Path with In-Ear Microphones

Jérémie Voix, Rachel Bouserhal, Malahat H. K. Mehrban
4 citations
Sensors
Speech and Audio Processing
1.40
article

Classification of Breathing Phase and Path with In-Ear Microphones

Jérémie Voix, Rachel Bouserhal, Malahat H. K. Mehrban
article en
4 citations

Abstract

In recent years, the use of smart in-ear devices (hearables) for health monitoring has gained popularity. Previous research on in-ear breath monitoring with hearables uses signal processing techniques based on peak detection. Such techniques are greatly affected by movement artifacts and other challenging real-world conditions. In this study, we use an existing database of various breathing types captured using an in-ear microphone to classify breathing path and phase. Having a small dataset, we use XGBoost, a simple and fast classifier, to address three different classification challenges. We achieve an accuracy of 86.8% for a binary path classifier, 74.1% for a binary phase classifier, and 67.2% for a four-class path and phase classifier. Our path classifier outperforms existing algorithms in recall and F1, highlighting the reliability of our approach. This work demonstrates the feasibility of the use of hearables in continuous breath monitoring tasks with machine learning.

SensorsVol. 24(20)
Université du Québec à Montréal (CA), Centre for Interdisciplinary Research in Music Media and Technology (CA), École de Technologie Supérieure (CA)
Mitacs, Natural Sciences and Engineering Research Council of Canada
Openalex Percentile: Top 18%
Speech and Audio Processing
1.40
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Classification of Breathing Phase and Path with In-Ear Microphones — Jérémie Voix, Rachel Bouserhal, et al. · Sensors (2024) | TGRS Research Map | TGRS