[Development of a Microstream End-Tidal Carbon Dioxide Monitoring System with Integrated Gas Circuit].

End-tidal carbon dioxide monitoring is an important means of evaluating human lung function and is widely used in fields such as clinical emergency treatment and cardiopulmonary resuscitation. This paper develops a microstream end-tidal carbon dioxide monitoring system. It adopts an integrated gas circuit design to further reduce the size of the equipment. The system uses the method of calculating the root mean square (RMS) of differential pressure signals to regulate the gas circuit flow, enabling the system to stably operate at a flow state of 30 mL/min. In addition, by simultaneously detecting multiple environmental parameters such as temperature and pressure, the system realizes system state monitoring and gas parameter compensation. The test results show that various indicators of the system meet the requirements of relevant standards, laying a good foundation for subsequent engineering applications.

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Publication Details

Journal
PubMed
Published
2025-03-30
DOI
https://doi.org/10.12455/j.issn.1671-7104.240382
Primary Topic
Advanced Chemical Sensor Technologies
Type
article
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[Development of a Microstream End-Tidal Carbon Dioxide Monitoring System with Integrated Gas Circuit].

Qi Yin, Fuhao Kang, Yanan Liu, Jilun Ye et al.
PubMed
Advanced Chemical Sensor Technologies
article

[Development of a Microstream End-Tidal Carbon Dioxide Monitoring System with Integrated Gas Circuit].

Qi Yin, Fuhao Kang, Yanan Liu, Jilun Ye, Xuedong Song, Yan Hang, Xu Zhang
article en

Abstract

End-tidal carbon dioxide monitoring is an important means of evaluating human lung function and is widely used in fields such as clinical emergency treatment and cardiopulmonary resuscitation. This paper develops a microstream end-tidal carbon dioxide monitoring system. It adopts an integrated gas circuit design to further reduce the size of the equipment. The system uses the method of calculating the root mean square (RMS) of differential pressure signals to regulate the gas circuit flow, enabling the system to stably operate at a flow state of 30 mL/min. In addition, by simultaneously detecting multiple environmental parameters such as temperature and pressure, the system realizes system state monitoring and gas parameter compensation. The test results show that various indicators of the system meet the requirements of relevant standards, laying a good foundation for subsequent engineering applications.

PubMedVol. 49(2)
Shenzhen Institute of Information Technology (CN), Shenzhen University (CN), Shenzhen University Health Science Center (CN)
Advanced Chemical Sensor Technologies
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