Unraveling sleep apnea dynamics: quantifying loop gain using dynamical modeling of ventilatory control

The automated LG estimation method developed in this study provides a scalable, non-invasive tool for endotyping in sleep apnea. By accurately modeling patient-specific ventilatory control, this approach supports personalized management strategies in apnea and broader clinical contexts. Statement of Significance This study presents an innovative method for estimating ventilatory control stability using respiratory inductance plethysmography signals, offering a practical, scalable solution for routine clinical use. By enabling detailed characterization of ventilatory control dynamics, the method can differentiate sleep apnea phenotypes and identify patients at elevated risk of ventilatory instability. This has direct clinical implications, such as guiding personalized treatment strategies, predicting continuous positive airway pressure tolerance, and flagging patients for possible adjunctive therapies like oxygen supplementation or carbonic anhydrase inhibitors. Furthermore, the fully automated nature of our approach enables repeated assessments over time, facilitating longitudinal monitoring of treatment efficacy and disease progression. By advancing diagnostic precision and treatment tailoring, this innovation has the potential to improve the management of sleep-disordered breathing and related conditions.

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Publication Details

Journal
SLEEP
Published
2025-07-24
DOI
https://doi.org/10.1093/sleep/zsaf213
Primary Topic
Obstructive Sleep Apnea Research
Type
article
Field-Weighted Citation Impact
0.00
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article

Unraveling sleep apnea dynamics: quantifying loop gain using dynamical modeling of ventilatory control

Thijs E. Nassi, Yalda Amidi, Nancy S. Redeker, Michael Brandon Westover et al.
SLEEP
Obstructive Sleep Apnea Research
article

Unraveling sleep apnea dynamics: quantifying loop gain using dynamical modeling of ventilatory control

Thijs E. Nassi, Yalda Amidi, Nancy S. Redeker, Michael Brandon Westover, ROBERT JOSEPH THOMAS, Dirk Wilhelm Donker, Eline Oppersma
article en

Abstract

The automated LG estimation method developed in this study provides a scalable, non-invasive tool for endotyping in sleep apnea. By accurately modeling patient-specific ventilatory control, this approach supports personalized management strategies in apnea and broader clinical contexts. Statement of Significance This study presents an innovative method for estimating ventilatory control stability using respiratory inductance plethysmography signals, offering a practical, scalable solution for routine clinical use. By enabling detailed characterization of ventilatory control dynamics, the method can differentiate sleep apnea phenotypes and identify patients at elevated risk of ventilatory instability. This has direct clinical implications, such as guiding personalized treatment strategies, predicting continuous positive airway pressure tolerance, and flagging patients for possible adjunctive therapies like oxygen supplementation or carbonic anhydrase inhibitors. Furthermore, the fully automated nature of our approach enables repeated assessments over time, facilitating longitudinal monitoring of treatment efficacy and disease progression. By advancing diagnostic precision and treatment tailoring, this innovation has the potential to improve the management of sleep-disordered breathing and related conditions.

SLEEPVol. 49(2)
Beth Israel Deaconess Medical Center (US), Harvard University (US), University Medical Center Utrecht (NL), Yale University (US), University of New Haven (US), University of Twente (NL)
Good health and well-being
Openalex Percentile: Top 76%
Obstructive Sleep Apnea Research
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