Wearable cardiorespiratory sensors for aerospace applications
Emerging Air Traffic Management (ATM) and avionics human-machine system concepts require the real-time monitoring of the human operator to support novel task assessment and system adaptation features. To realise these advanced concepts, it is essential to resort to a suite of sensors recording neuro...
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sg-ntu-dr.10356-1613122022-08-24T07:22:23Z Wearable cardiorespiratory sensors for aerospace applications Pongsakornsathien, Nichakorn Gardi, Alessandro Lim, Yixiang Sabatini, Roberto Kistan, Trevor School of Mechanical and Aerospace Engineering Saab-NTU Joint Lab Engineering::Aeronautical engineering Air Traffic Management Cognitive Ergonomics Emerging Air Traffic Management (ATM) and avionics human-machine system concepts require the real-time monitoring of the human operator to support novel task assessment and system adaptation features. To realise these advanced concepts, it is essential to resort to a suite of sensors recording neurophysiological data reliably and accurately. This article presents the experimental verification and performance characterisation of a cardiorespiratory sensor for ATM and avionics applications. In particular, the processed physiological measurements from the designated commercial device are verified against clinical-grade equipment. Compared to other studies which only addressed physical workload, this characterisation was performed also looking at cognitive workload, which poses certain additional challenges to cardiorespiratory monitors. The article also addresses the quantification of uncertainty in the cognitive state estimation process as a function of the uncertainty in the input cardiorespiratory measurements. The results of the sensor verification and of the uncertainty propagation corroborate the basic suitability of the commercial cardiorespiratory sensor for the intended aerospace application but highlight the relatively poor performance in respiratory measurements during a purely mental activity. Published version The authors wish to thank and acknowledge THALES Australia and Northrop Grumman Corporation for supporting different aspects of this work under the collaborative research projects RE-02544-0200315666 and RE-03163-0200317164 respectively. 2022-08-24T07:22:23Z 2022-08-24T07:22:23Z 2022 Journal Article Pongsakornsathien, N., Gardi, A., Lim, Y., Sabatini, R. & Kistan, T. (2022). Wearable cardiorespiratory sensors for aerospace applications. Sensors, 22(13), 4673-. https://dx.doi.org/10.3390/s22134673 1424-8220 https://hdl.handle.net/10356/161312 10.3390/s22134673 35808167 2-s2.0-85132267534 13 22 4673 en Sensors © 2022 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https:// creativecommons.org/licenses/by/ 4.0/). application/pdf |
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Engineering::Aeronautical engineering Air Traffic Management Cognitive Ergonomics Pongsakornsathien, Nichakorn Gardi, Alessandro Lim, Yixiang Sabatini, Roberto Kistan, Trevor Wearable cardiorespiratory sensors for aerospace applications |
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Emerging Air Traffic Management (ATM) and avionics human-machine system concepts require the real-time monitoring of the human operator to support novel task assessment and system adaptation features. To realise these advanced concepts, it is essential to resort to a suite of sensors recording neurophysiological data reliably and accurately. This article presents the experimental verification and performance characterisation of a cardiorespiratory sensor for ATM and avionics applications. In particular, the processed physiological measurements from the designated commercial device are verified against clinical-grade equipment. Compared to other studies which only addressed physical workload, this characterisation was performed also looking at cognitive workload, which poses certain additional challenges to cardiorespiratory monitors. The article also addresses the quantification of uncertainty in the cognitive state estimation process as a function of the uncertainty in the input cardiorespiratory measurements. The results of the sensor verification and of the uncertainty propagation corroborate the basic suitability of the commercial cardiorespiratory sensor for the intended aerospace application but highlight the relatively poor performance in respiratory measurements during a purely mental activity. |
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School of Mechanical and Aerospace Engineering |
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School of Mechanical and Aerospace Engineering Pongsakornsathien, Nichakorn Gardi, Alessandro Lim, Yixiang Sabatini, Roberto Kistan, Trevor |
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Article |
author |
Pongsakornsathien, Nichakorn Gardi, Alessandro Lim, Yixiang Sabatini, Roberto Kistan, Trevor |
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Pongsakornsathien, Nichakorn |
title |
Wearable cardiorespiratory sensors for aerospace applications |
title_short |
Wearable cardiorespiratory sensors for aerospace applications |
title_full |
Wearable cardiorespiratory sensors for aerospace applications |
title_fullStr |
Wearable cardiorespiratory sensors for aerospace applications |
title_full_unstemmed |
Wearable cardiorespiratory sensors for aerospace applications |
title_sort |
wearable cardiorespiratory sensors for aerospace applications |
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2022 |
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https://hdl.handle.net/10356/161312 |
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