Achieving safe hands-on defibrillation using electrical safety gloves – a clinical evaluation
Achieving safe hands-on defibrillation using electrical safety gloves – a clinical evaluation
Introduction
Safe hands-on defibrillation (HOD) will allow uninterrupted chest compression during defibrillation and may improve resuscitation success. We tested the ability of electrical insulating gloves to protect the rescuer during HOD using a ‘worst case’ electrical scenario.
Materials and method
Leakage current flowing from the patient to the ‘rescuer’ during antero-lateral defibrillation of patients undergoing elective cardioversion was measured. The ‘rescuer’ maintained firm (20 kgf) contact with the patient during defibrillation, wearing Class 1 electrical insulating gloves while simulating an inadvertent contact with the patient, through an additional wired contact between ‘rescuer’ and patient.
Results
Data from 61 shocks from 43 different patients were recorded. The median leakage current from all defibrillations was 20.0 ?A, (range: 2.0–38.5). In total, 18 of the shocks were delivered at 360 J and had a median leakage current of 27.0 ?A (range: 14.3–38.5).
Conclusion
When using Class 1 electrical insulating gloves for hands-on defibrillation, rescuer leakage current is significantly below the 1 mA safe threshold, allowing safe hands-on defibrillation if the rescuer makes only one other point of contact with the patient.
defibrillation, safety, outcome, resuscitation
163-167
Deakin, Charles D.
f308bd7c-4c95-4b55-8983-8237cde25967
Thomsen, Jakob E.
0b5aca93-3368-499a-9544-91b6342b369a
Løfgren, Bo
5b1b31d7-1523-47dc-a271-4823b0e7236e
Petley, Graham W.
4f2da40b-3c7b-4adc-b75c-e24e62bb1cf0
May 2015
Deakin, Charles D.
f308bd7c-4c95-4b55-8983-8237cde25967
Thomsen, Jakob E.
0b5aca93-3368-499a-9544-91b6342b369a
Løfgren, Bo
5b1b31d7-1523-47dc-a271-4823b0e7236e
Petley, Graham W.
4f2da40b-3c7b-4adc-b75c-e24e62bb1cf0
Abstract
Introduction
Safe hands-on defibrillation (HOD) will allow uninterrupted chest compression during defibrillation and may improve resuscitation success. We tested the ability of electrical insulating gloves to protect the rescuer during HOD using a ‘worst case’ electrical scenario.
Materials and method
Leakage current flowing from the patient to the ‘rescuer’ during antero-lateral defibrillation of patients undergoing elective cardioversion was measured. The ‘rescuer’ maintained firm (20 kgf) contact with the patient during defibrillation, wearing Class 1 electrical insulating gloves while simulating an inadvertent contact with the patient, through an additional wired contact between ‘rescuer’ and patient.
Results
Data from 61 shocks from 43 different patients were recorded. The median leakage current from all defibrillations was 20.0 ?A, (range: 2.0–38.5). In total, 18 of the shocks were delivered at 360 J and had a median leakage current of 27.0 ?A (range: 14.3–38.5).
Conclusion
When using Class 1 electrical insulating gloves for hands-on defibrillation, rescuer leakage current is significantly below the 1 mA safe threshold, allowing safe hands-on defibrillation if the rescuer makes only one other point of contact with the patient.
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More information
Accepted/In Press date: 21 December 2014
Published date: May 2015
Keywords:
defibrillation, safety, outcome, resuscitation
Organisations:
Faculty of Health Sciences
Identifiers
Local EPrints ID: 383358
URI: http://eprints.soton.ac.uk/id/eprint/383358
ISSN: 0300-9572
PURE UUID: 920f6dbe-2885-41c0-b4b1-984f6f354f5f
Catalogue record
Date deposited: 27 Oct 2015 14:32
Last modified: 15 Mar 2024 02:53
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Contributors
Author:
Charles D. Deakin
Author:
Jakob E. Thomsen
Author:
Bo Løfgren
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