Measuring Respiration Rate from Speech

The physical basis of speech production in humans requires the coordination of multiple anatomical systems, where inhalation and exhalation of air through lungs is at the core of the phenomenon. Vocalization happens during exhalation, while inhalation typically happens between speech pauses. We use deep learning models to predict respiratory signals during speech-breathing, from which the respiration rate is estimated. Bilingual data from a large clinical study (<i>N</i> = 1,005) are used to develop and evaluate a multivariate time series transformer model with speech encoder embeddings as input. The best model shows the predicted respiration rate from speech within ±3 BPM for 82% of test subjects. A <i>noise-aware</i> algorithm was also tested in a simulated hospital environment with varying noise levels to evaluate the impact on performance. This work proposes and validates speech as a virtual sensor for respiration rate, which can be an efficient and cost-effective enabler for remote patient monitoring and telehealth solutions.

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Publication Details

Journal
Digital Biomarkers
Published
2025-02-28
DOI
https://doi.org/10.1159/000544913
Primary Topic
Speech and Audio Processing
Type
article
Field-Weighted Citation Impact
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article

Measuring Respiration Rate from Speech

Ulf Großekathöfer, Okke Ouweltjes, Biswajit Das, Aki Härmä et al.
Digital Biomarkers
Speech and Audio Processing
article

Measuring Respiration Rate from Speech

Ulf Großekathöfer, Okke Ouweltjes, Biswajit Das, Aki Härmä, Sidharth Abrol, Srikanth Nallanthighal
article en

Abstract

The physical basis of speech production in humans requires the coordination of multiple anatomical systems, where inhalation and exhalation of air through lungs is at the core of the phenomenon. Vocalization happens during exhalation, while inhalation typically happens between speech pauses. We use deep learning models to predict respiratory signals during speech-breathing, from which the respiration rate is estimated. Bilingual data from a large clinical study (<i>N</i> = 1,005) are used to develop and evaluate a multivariate time series transformer model with speech encoder embeddings as input. The best model shows the predicted respiration rate from speech within ±3 BPM for 82% of test subjects. A <i>noise-aware</i> algorithm was also tested in a simulated hospital environment with varying noise levels to evaluate the impact on performance. This work proposes and validates speech as a virtual sensor for respiration rate, which can be an efficient and cost-effective enabler for remote patient monitoring and telehealth solutions.

Digital BiomarkersVol. 9(1)
Philips (Netherlands) (NL), Philips (India) (IN)
Openalex Percentile: Top 97%
Speech and Audio Processing
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