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Automated external defibrillator delivery by a drone in a mountainous region to treat sudden cardiac arrest

FUNDING ACKNOWLEDGEMENTS: Type of funding sources: Private company. Main funding source(s): ZOLL INTRODUCTION: Out-of-hospital cardiac arrest (OHCA) poses a tough medical challenge with poor survival rates. Factors that may enable survival include resuscitation measures initiated by a bystander, ear...

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Autores principales: Fischer, P, Rohrer, U, Nuernberger, P, Manninger, M, Scherr, D, Von Lewinski, D, Zirlik, A, Wankmueller, C, Kolesnik, E
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Oxford University Press 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10207439/
http://dx.doi.org/10.1093/europace/euad122.299
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author Fischer, P
Rohrer, U
Nuernberger, P
Manninger, M
Scherr, D
Von Lewinski, D
Zirlik, A
Wankmueller, C
Kolesnik, E
author_facet Fischer, P
Rohrer, U
Nuernberger, P
Manninger, M
Scherr, D
Von Lewinski, D
Zirlik, A
Wankmueller, C
Kolesnik, E
author_sort Fischer, P
collection PubMed
description FUNDING ACKNOWLEDGEMENTS: Type of funding sources: Private company. Main funding source(s): ZOLL INTRODUCTION: Out-of-hospital cardiac arrest (OHCA) poses a tough medical challenge with poor survival rates. Factors that may enable survival include resuscitation measures initiated by a bystander, early use of an automated external defibrillator (AED), and further performance of advanced life support. The latter will arrive on scene with an inevitable time-delay due to logistics challenges and potential AED unavailability, especially in rural areas. Here, drones might deliver an AED in order to increase the probability of survival. METHODS: Ten paramedics and nineteen medical laypersons were confronted with a person suffering from OHCA within a field test scenario in a mountainous region (Bodental, Carinthia, Austria) without detailed information. The scenario included a mock-call to the emergency response center responsible for the Austrian State Carinthia that dispatched a semi-autonomously flying drone towards the caller’s GPS coordinates. During the emergency call, participants should perform cardiopulmonary resuscitation (CPR) measures and were informed that a drone delivers a training-AED. Various timepoints (time to (tt) emergency call, tt start CPR, tt drone start, tt first shock, hands-off times) as well as CPR quality were subject of analysis. RESULTS: The paramedics realized the cardiac arrest after 21 ± 11 seconds, the emergency call was performed after 40 ±43 seconds, the drone started after 5:15 ± 2:11 minutes and dropped off the AED after 10:52 ± 2:06 minutes, and the first shock was delivered after 12:15 ± 2:03 minutes. 70 % performed adequate chest compressions and 50 % provided sufficient mouth-to-mouth ventilation. Hands-off times were 50 ± 22 seconds. Only 37 % of the medical laypersons reported to know the algorithms for basic life support while 32 % performed adequate chest compressions and 68 % performed adequate mouth-to-mouth ventilation. In this group, the cardiac arrest was realized after 51 ±40 seconds, the emergency call was performed after 53 ±43 seconds, the drone started after 6:15 ± 1:33 minutes and dropped off the AED after 10:54 ± 1:56 minutes, and the first shock was delivered after 14:04 ± 2:10 minutes. Hands-off times were 2:11 ± 0:39 minutes. CONCLUSION: The delivery and usage of an AED via a semi-autonomously flying drone in a remote region is feasible and safe. The drone delivery of an AED in mountainous regions can lead to early application of shocks. CPR quality performed by medical laypersons is suboptimal and emphasises the need for regular trainings. [Figure: see text] [Figure: see text]
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spelling pubmed-102074392023-05-25 Automated external defibrillator delivery by a drone in a mountainous region to treat sudden cardiac arrest Fischer, P Rohrer, U Nuernberger, P Manninger, M Scherr, D Von Lewinski, D Zirlik, A Wankmueller, C Kolesnik, E Europace 13.4.1 - Management of Out-of-Hospital Cardiac Arrest FUNDING ACKNOWLEDGEMENTS: Type of funding sources: Private company. Main funding source(s): ZOLL INTRODUCTION: Out-of-hospital cardiac arrest (OHCA) poses a tough medical challenge with poor survival rates. Factors that may enable survival include resuscitation measures initiated by a bystander, early use of an automated external defibrillator (AED), and further performance of advanced life support. The latter will arrive on scene with an inevitable time-delay due to logistics challenges and potential AED unavailability, especially in rural areas. Here, drones might deliver an AED in order to increase the probability of survival. METHODS: Ten paramedics and nineteen medical laypersons were confronted with a person suffering from OHCA within a field test scenario in a mountainous region (Bodental, Carinthia, Austria) without detailed information. The scenario included a mock-call to the emergency response center responsible for the Austrian State Carinthia that dispatched a semi-autonomously flying drone towards the caller’s GPS coordinates. During the emergency call, participants should perform cardiopulmonary resuscitation (CPR) measures and were informed that a drone delivers a training-AED. Various timepoints (time to (tt) emergency call, tt start CPR, tt drone start, tt first shock, hands-off times) as well as CPR quality were subject of analysis. RESULTS: The paramedics realized the cardiac arrest after 21 ± 11 seconds, the emergency call was performed after 40 ±43 seconds, the drone started after 5:15 ± 2:11 minutes and dropped off the AED after 10:52 ± 2:06 minutes, and the first shock was delivered after 12:15 ± 2:03 minutes. 70 % performed adequate chest compressions and 50 % provided sufficient mouth-to-mouth ventilation. Hands-off times were 50 ± 22 seconds. Only 37 % of the medical laypersons reported to know the algorithms for basic life support while 32 % performed adequate chest compressions and 68 % performed adequate mouth-to-mouth ventilation. In this group, the cardiac arrest was realized after 51 ±40 seconds, the emergency call was performed after 53 ±43 seconds, the drone started after 6:15 ± 1:33 minutes and dropped off the AED after 10:54 ± 1:56 minutes, and the first shock was delivered after 14:04 ± 2:10 minutes. Hands-off times were 2:11 ± 0:39 minutes. CONCLUSION: The delivery and usage of an AED via a semi-autonomously flying drone in a remote region is feasible and safe. The drone delivery of an AED in mountainous regions can lead to early application of shocks. CPR quality performed by medical laypersons is suboptimal and emphasises the need for regular trainings. [Figure: see text] [Figure: see text] Oxford University Press 2023-05-24 /pmc/articles/PMC10207439/ http://dx.doi.org/10.1093/europace/euad122.299 Text en © The Author(s) 2023. Published by Oxford University Press on behalf of the European Society of Cardiology. https://creativecommons.org/licenses/by-nc-nd/4.0/This is an Open Access article distributed under the terms of the Creative Commons Attribution-NonCommercial-NoDerivs licence (https://creativecommons.org/licenses/by-nc-nd/4.0/), which permits non-commercial reproduction and distribution of the work, in any medium, provided the original work is not altered or transformed in any way, and that the work is properly cited. For commercial re-use, please contact journals.permissions@oup.com
spellingShingle 13.4.1 - Management of Out-of-Hospital Cardiac Arrest
Fischer, P
Rohrer, U
Nuernberger, P
Manninger, M
Scherr, D
Von Lewinski, D
Zirlik, A
Wankmueller, C
Kolesnik, E
Automated external defibrillator delivery by a drone in a mountainous region to treat sudden cardiac arrest
title Automated external defibrillator delivery by a drone in a mountainous region to treat sudden cardiac arrest
title_full Automated external defibrillator delivery by a drone in a mountainous region to treat sudden cardiac arrest
title_fullStr Automated external defibrillator delivery by a drone in a mountainous region to treat sudden cardiac arrest
title_full_unstemmed Automated external defibrillator delivery by a drone in a mountainous region to treat sudden cardiac arrest
title_short Automated external defibrillator delivery by a drone in a mountainous region to treat sudden cardiac arrest
title_sort automated external defibrillator delivery by a drone in a mountainous region to treat sudden cardiac arrest
topic 13.4.1 - Management of Out-of-Hospital Cardiac Arrest
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10207439/
http://dx.doi.org/10.1093/europace/euad122.299
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