Waveform Tracker Alarm for Automatic Patient-Ventilator Asynchrony (PVA) and Mechanical State Recognition for Mechanical Ventilators Using Embedded Deep Learning

The Ateneo Innovation Center designs and develops a modular approach to medical alarm and alert systems for mechanical ventilators that enable clinicians to remotely monitor patient conditions and ventilator circuit status in near real-time, providing decision support that allows for a better diagno...

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Main Authors: Santiago, Paul Ryan A., Cabacungan, Paul M., Oppus, Carlos M, Mamaradlo, John Paul A., Mercado, Neil Angelo M., Cao, Reymond P., Tangonan, Gregory L
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Published: Archīum Ateneo 2024
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Online Access:https://archium.ateneo.edu/ecce-faculty-pubs/160
https://doi.org/10.1007/978-981-99-6523-6_10
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Institution: Ateneo De Manila University
id ph-ateneo-arc.ecce-faculty-pubs-1154
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spelling ph-ateneo-arc.ecce-faculty-pubs-11542024-04-22T07:17:03Z Waveform Tracker Alarm for Automatic Patient-Ventilator Asynchrony (PVA) and Mechanical State Recognition for Mechanical Ventilators Using Embedded Deep Learning Santiago, Paul Ryan A. Cabacungan, Paul M. Oppus, Carlos M Mamaradlo, John Paul A. Mercado, Neil Angelo M. Cao, Reymond P. Tangonan, Gregory L The Ateneo Innovation Center designs and develops a modular approach to medical alarm and alert systems for mechanical ventilators that enable clinicians to remotely monitor patient conditions and ventilator circuit status in near real-time, providing decision support that allows for a better diagnosis. It monitors and tracks the alarm events related to the ventilator waveform consisting of pressure, flow, and volume curves by using automatic peak detection of the curves and real-time recognition of time-series waveforms. The developed system combines the threshold alarms with embedded Artificial Intelligence to automatically detect complex alarms that need medical expertise such as issue detection on asynchrony, anomalies, and mechanical. It also differentiates the critical types of alarms, assisting clinicians via alarm prioritization, and remote patient monitoring via a near cloud system. Storing data in the near cloud system as a medical database enables building a rich dataset for upgrading the predictive model of alarm recognition. 2024-01-01T08:00:00Z text https://archium.ateneo.edu/ecce-faculty-pubs/160 https://doi.org/10.1007/978-981-99-6523-6_10 Electronics, Computer, and Communications Engineering Faculty Publications Archīum Ateneo And circular electronics manufacturing Biomedical monitoring Emergency ventilator Near cloud TinyML Biomedical Computer Engineering Electrical and Computer Engineering Engineering
institution Ateneo De Manila University
building Ateneo De Manila University Library
continent Asia
country Philippines
Philippines
content_provider Ateneo De Manila University Library
collection archium.Ateneo Institutional Repository
topic And circular electronics manufacturing
Biomedical monitoring
Emergency ventilator
Near cloud
TinyML
Biomedical
Computer Engineering
Electrical and Computer Engineering
Engineering
spellingShingle And circular electronics manufacturing
Biomedical monitoring
Emergency ventilator
Near cloud
TinyML
Biomedical
Computer Engineering
Electrical and Computer Engineering
Engineering
Santiago, Paul Ryan A.
Cabacungan, Paul M.
Oppus, Carlos M
Mamaradlo, John Paul A.
Mercado, Neil Angelo M.
Cao, Reymond P.
Tangonan, Gregory L
Waveform Tracker Alarm for Automatic Patient-Ventilator Asynchrony (PVA) and Mechanical State Recognition for Mechanical Ventilators Using Embedded Deep Learning
description The Ateneo Innovation Center designs and develops a modular approach to medical alarm and alert systems for mechanical ventilators that enable clinicians to remotely monitor patient conditions and ventilator circuit status in near real-time, providing decision support that allows for a better diagnosis. It monitors and tracks the alarm events related to the ventilator waveform consisting of pressure, flow, and volume curves by using automatic peak detection of the curves and real-time recognition of time-series waveforms. The developed system combines the threshold alarms with embedded Artificial Intelligence to automatically detect complex alarms that need medical expertise such as issue detection on asynchrony, anomalies, and mechanical. It also differentiates the critical types of alarms, assisting clinicians via alarm prioritization, and remote patient monitoring via a near cloud system. Storing data in the near cloud system as a medical database enables building a rich dataset for upgrading the predictive model of alarm recognition.
format text
author Santiago, Paul Ryan A.
Cabacungan, Paul M.
Oppus, Carlos M
Mamaradlo, John Paul A.
Mercado, Neil Angelo M.
Cao, Reymond P.
Tangonan, Gregory L
author_facet Santiago, Paul Ryan A.
Cabacungan, Paul M.
Oppus, Carlos M
Mamaradlo, John Paul A.
Mercado, Neil Angelo M.
Cao, Reymond P.
Tangonan, Gregory L
author_sort Santiago, Paul Ryan A.
title Waveform Tracker Alarm for Automatic Patient-Ventilator Asynchrony (PVA) and Mechanical State Recognition for Mechanical Ventilators Using Embedded Deep Learning
title_short Waveform Tracker Alarm for Automatic Patient-Ventilator Asynchrony (PVA) and Mechanical State Recognition for Mechanical Ventilators Using Embedded Deep Learning
title_full Waveform Tracker Alarm for Automatic Patient-Ventilator Asynchrony (PVA) and Mechanical State Recognition for Mechanical Ventilators Using Embedded Deep Learning
title_fullStr Waveform Tracker Alarm for Automatic Patient-Ventilator Asynchrony (PVA) and Mechanical State Recognition for Mechanical Ventilators Using Embedded Deep Learning
title_full_unstemmed Waveform Tracker Alarm for Automatic Patient-Ventilator Asynchrony (PVA) and Mechanical State Recognition for Mechanical Ventilators Using Embedded Deep Learning
title_sort waveform tracker alarm for automatic patient-ventilator asynchrony (pva) and mechanical state recognition for mechanical ventilators using embedded deep learning
publisher Archīum Ateneo
publishDate 2024
url https://archium.ateneo.edu/ecce-faculty-pubs/160
https://doi.org/10.1007/978-981-99-6523-6_10
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