Development and evaluation of a reinforcement learning-based decision support system for mechanical ventilation in acute respiratory failure

Contributing person
datacite.contributor.ProjectLeader

Jakob Wittenstein

Contributing person
datacite.contributor.ProjectMember

Raphael Theilen

Contributing person
datacite.contributor.ProjectMember

Franziska Fischer

Contributing person
datacite.contributor.ProjectMember

Muhammut Hamza Yousuf

Contributing person
datacite.contributor.ProjectMember

Jason Li

Contributing person
datacite.contributor.ProjectMember

Sahar Vahdati

Contributing person
datacite.contributor.ProjectMember

Robert Huhle

Countries to which the data refer
datacite.geolocation.iso3166

GERMANY

Countries to which the data refer
datacite.geolocation.iso3166

UNITED STATES OF AMERICA

References to related material
datacite.relatedItem.Cites

https://github.com/NIMI-research/rl-acute-respiratory-failure-dss

Description of the data
datacite.resourceType

further information may be found in dataset_description.md

Type of the data
datacite.resourceTypeGeneral

Dataset

Total size of the dataset
datacite.size

44793886

Author
dc.contributor.author

Huhle, Robert

Upload date
dc.date.accessioned

2026-09-12T14:52:35Z

Publication date
dc.date.available

2026-09-12T14:52:35Z

Data of data creation
dc.date.created

2024-10-14

Publication date
dc.date.issued

2026-09-12

Abstract of the dataset
dc.description.abstract

This data publication contains development (Department of Anesthesiology and Intensive Care Medicine, Faculty of Medicine and University Hospital Carl Gustav Carus, TUD Dresden University of Technology, Local Ethical Committee Approval: BO-EK-423082021) and external validation data set (extracted and preprocessed from MIMIC-IV) for the developed first version of the IntelliLung-AI algorithm based on Reinforcement Learning. Data holds the input/output of the training, testing (development), as well as external validation pipeline as published in the GitLab repository (https://github.com/NIMI-research/rl-acute-respiratory-failure-dss).

Public reference to this page
dc.identifier.uri

https://opara.zih.tu-dresden.de/handle/123456789/1906

Public reference to this page
dc.identifier.uri

https://doi.org/10.25532/OPARA-1045

Publisher
dc.publisher

Technische Universität Dresden

Licence
dc.rights

Attribution-NonCommercial-NoDerivatives 4.0 Internationalen

URI of the licence text
dc.rights.uri

http://creativecommons.org/licenses/by-nc-nd/4.0/

Specification of the discipline(s)
dc.subject.classification

2::22::205::205-11

Title of the dataset
dc.title

Development and evaluation of a reinforcement learning-based decision support system for mechanical ventilation in acute respiratory failure

Project abstract
opara.project.description

Rationale: It is unknown whether artificial intelligence might be useful to guide mechanical ventilation in acute respiratory failure. Objectives: To develop and compare the performance of an artificial intelligence-based decision support system (IntelliLung) with clinical practice and current recommendations. Methods, Measurements and Main Results: Data from 751 adult patients with acute respiratory failure and treated with invasive mechanical ventilation at the University Hospital Dresden between 2010 and 2020 were used to develop IntelliLung. An offline reinforcement learning algorithm (batch-constrained deep Q-learning) was used to identify settings of positive end-expiratory pressure (PEEP), inspiratory fraction of oxygen (FIO2), and respiratory rate that were able to optimize a reward function consisting of short-term physiological variables and ICU mortality. IntelliLung recommendations were compared with ventilation settings chosen by clinicians in another 191 patients treated in the same period. Additionally, using a cross-over design, IntelliLung was compared to ARDSnet protocol recommendations in four pigs undergoing sequential lung injury with lung saline washout (LAV), ventilator-induced lung injury (VILI), and lipopolysaccharide infusion (LPS). In patients, IntelliLung more frequently suggested lower PEEP (<10cmH2O), lower FIO2 (≤40%) and a respiratory rate <18min-1 and 25-29min-1 compared to clinicians. In animals, IntelliLung proposed higher FIO2 during LAV, (43±22% vs 37±21%, p=0.038), higher PEEP during VILI (7.4±1.3cmH2O vs 5.2±0.7cmH2O, p<0.001), and similar settings during LPS compared to the ARDSnet protocol. Mechanical power and hemodynamics did not differ between ventilation strategies. Conclusions: The recommendations of an artificial intelligence-based algorithm for mechanical ventilation in acute respiratory failure differed from clinical practice and current recommendations.

Funding Acknowledgement
opara.project.fundingAcknowledgement

Funded by EKFZ for Digital Health, TU Dresden and the European Union Horizon 2021 (Grant agreement ID: 101057434 DOI:[10.3030/101057434](https://doi.org/10.3030/101057434))

Public project website(s)
opara.project.publicReference

https://intellilung-project.eu/

Project title
opara.project.title

Development and evaluation of a reinforcement learning-based decision support system for mechanical ventilation in acute respiratory failure

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