RMS: a ML-based system for ICU respiratory monitoring and resource planning.

Acute hypoxemic respiratory failure (RF) occurs frequently in critically ill patients and is associated with substantial morbidity, mortality and resource use. We developed a comprehensive machine-learning-based monitoring system to support ICU physicians in managing RF through early detection, continuous monitoring, assessment of extubation readiness, and prediction of extubation failure (EF). In study patients, the model predicted 80% of RF events with 45% precision, identifying 65% of events more than 10 hours before, significantly outperforming standard clinical monitoring based on oxygenation index. The model was successfully validated in an external ICU cohort. We also demonstrated how predicted EF risk could help prevent extubation failure and unnecessarily prolonged ventilation. Lastly, we illustrated how prediction of RF risk, along with ventilator need and extubation readiness, helped ICU resource planning for mechanical ventilation. Our model predicted ICU-level ventilator demand 8-16 hours ahead, with a mean absolute error of 0.4 ventilators per 10 patients.

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Publication Details

Journal
Open Access CRIS of the University of Bern
Published
2025-12-19
DOI
https://doi.org/10.48620/93797
Primary Topic
Respiratory Support and Mechanisms
Type
article
Field-Weighted Citation Impact
0.00
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article

RMS: a ML-based system for ICU respiratory monitoring and resource planning.

M. Burger, Matthias Huser, Tobias M. Merz, Hugo Yèche et al.
Open Access CRIS of the University of Bern
Respiratory Support and Mechanisms
article

RMS: a ML-based system for ICU respiratory monitoring and resource planning.

M. Burger, Matthias Huser, Tobias M. Merz, Hugo Yèche, Alizée Pace, Martin Faltys, Xinrui Lyu, Marine Hoche, Stephanie L. Hyland, David Berger, Gunnar Rätsch
article en

Abstract

Acute hypoxemic respiratory failure (RF) occurs frequently in critically ill patients and is associated with substantial morbidity, mortality and resource use. We developed a comprehensive machine-learning-based monitoring system to support ICU physicians in managing RF through early detection, continuous monitoring, assessment of extubation readiness, and prediction of extubation failure (EF). In study patients, the model predicted 80% of RF events with 45% precision, identifying 65% of events more than 10 hours before, significantly outperforming standard clinical monitoring based on oxygenation index. The model was successfully validated in an external ICU cohort. We also demonstrated how predicted EF risk could help prevent extubation failure and unnecessarily prolonged ventilation. Lastly, we illustrated how prediction of RF risk, along with ventilator need and extubation readiness, helped ICU resource planning for mechanical ventilation. Our model predicted ICU-level ventilator demand 8-16 hours ahead, with a mean absolute error of 0.4 ventilators per 10 patients.

Open Access CRIS of the University of Bern
Intensive Care Foundation (AU), Intensive Care Society (GB)
Decent work and economic growth
Openalex Percentile: Top 26%
Respiratory Support and Mechanisms
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