Literature DB >> 32485542

Healthcare simulation to prepare for the COVID-19 pandemic.

M H Andreae1, A Dudak2, V Cherian2, P Dhar2, P G Dalal2, W Po2, M Pilipovic2, B Shah2, W Hazard2, Rodgers Dl3, Sinz Eh4.   

Abstract

Entities:  

Keywords:  Acute respiratory syndrome coronavirus; Adult critical care; Crisis resource managment; Perioperative care; Personal protective equipment; Simulation; System integration

Mesh:

Year:  2020        PMID: 32485542      PMCID: PMC7250760          DOI: 10.1016/j.jclinane.2020.109928

Source DB:  PubMed          Journal:  J Clin Anesth        ISSN: 0952-8180            Impact factor:   9.452


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Dear Editor, Before the rapidly expanding COVID-19 pandemic [1] reached our institution, we leveraged a training simulation to (a) test algorithms/protocols, and (b) promote organizational integration to optimize management of patients suspected of COVID-19. During previous outbreaks of contagious airborne disease, in situ simulation was successfully used to train staff, improve competency with personal protective equipment (PPE), and test protocols. Concurrent with our work, others leveraged simulation in the setting of COVID-19. [[2], [3], [4]] Our report is targeted at other simulation professionals, especially in anesthesia. We hypothesized that in the absence of clinical experience, immersive simulation of anticipated scenarios can improve protocols developed in round table discussions. Restricted to internal participants by regulations, we converted a previously scheduled MOCA simulation course in our American Society of Anesthesiologists endorsed simulation program to train seven experienced anesthesiologists. The four scenarios related to COVID-19, designed by authors (MHA, EHS, DLR, VC and AD) included: cardiac arrest, emergency airway management, tele-instruction for remote guidance and supervision, and transporting an intubated patient. Table 1 sketches the scenarios and summarizes the key lesions learned. Detailed scenarios, simulation procedures, detailed results, and our methods are co-published in Data-in-Brief. Using a grounded theory approach, three authors (MHA, DRL, EHS) developed emergent themes and constructs from the debriefings as an informal qualitative thematic analysis. All participants and course instructors volunteered to participate in this educational program and contributed as co-authors to this letter.
Table 1

Case descriptions.

CaseTitleCentral themeKey lessons
1Cardiac Arrest for Patient with Possible Communicable Airborne DiseaseThe central theme is the concept of “Protected Code Blue” where team member safety is emphasized. Procedures are altered to protect the resuscitation team in the context of airborne transmission.Airborne disease may drive changes in the algorithm such as earlier advanced airway placement and stopping CPR for airway placement.
2Emergency Airway Management for Patient with Contagious Respiratory DiseaseThe central theme is provider safety and containment of airborne transmission during airway management of a COVID-19 patient.Dedicated airway kits can be optimized for COVID-19 patients and airborne disease may lead to different airway tools and management options.
3Transport of a Patient with Contagious Airborne DiseaseThe central theme is on team coordination, communication with hospital entities and adherence to protocol to contain viral spread.Interdisciplinary discussion to evaluate the need for transfer versus performing the procedure in patient room and coordination between “clean” and “contaminated” personnel is paramount.
4Tele-instruction for Remote Procedural Guidance and SupervisionThe central theme is communication and supervision via remote telecommunication to perform a life-saving procedure.A focus on communication and shared mental modeling improve success in remote tele-guidance for procedures.

The table tabulates the four simulation scenarios representing anticipated clinical encounters with COVID-19 patients, which we simulated at Penn State Milton S. Hershey Medical Center in March 2020, prior to admitting any COVID-19 patient, with a view to training our providers and testing our COVID-19 protocols in realistic simulation scenarios. Case number and Title are in the first and second column on the left, respectively. The Central Theme of the scenario presented to the participant is sketched in the next column and Key Lessons elicited during our debriefings in the column can be found in the column on the right. More Detail is co-published in Data-in-Brief.

Case descriptions. The table tabulates the four simulation scenarios representing anticipated clinical encounters with COVID-19 patients, which we simulated at Penn State Milton S. Hershey Medical Center in March 2020, prior to admitting any COVID-19 patient, with a view to training our providers and testing our COVID-19 protocols in realistic simulation scenarios. Case number and Title are in the first and second column on the left, respectively. The Central Theme of the scenario presented to the participant is sketched in the next column and Key Lessons elicited during our debriefings in the column can be found in the column on the right. More Detail is co-published in Data-in-Brief. During initial debriefing, we applied crisis resource management concepts including situation awareness, prioritization of tasks, and clear communication to COVID-19 scenarios. In subsequent debriefing, we re-evaluated formerly familiar processes, identifying and correcting shortcomings of new protocols, kits, and interdisciplinary cooperation. Examining plans for COVID-19 management in immersive simulated scenarios revealed shortcomings before such gaps threatened patient or clinician safety [2,4]. Crisis resource management simulation provided a safe approach to both prepare clinicians for changes in usual practice and integrate the organizational response across disciplines to confront an unprecedented pandemic. The time needed to safely orchestrate an emergency intubation for a contagious patient surprised our airway experts. Team members noted that PPE introduced additional barriers to communication and clinical activities and emphasized the need for daily and pre-engagement huddles. Teams were divided into “clean” and “dirty” members who had to adapt to specific, overtly-designated roles. Our simulations were particularly effective for practicing donning and doffing of PPE, adjusting difficult airway management and resuscitation algorithms, and adapting to likely resource constraints, echoing reports from other airborne epidemics and authors [2,4]. Debriefings also revealed the high stress levels invoked by general uncertainty about the COVID-19 pandemic, particularly clinicians' concerns about their own health and the health of close relations, juxtaposed against distress about delaying help for patients while donning personal protective equipment. This exceptional crisis demands not only technical instructions and suitable protocols, but also emotional intelligence and resonant leadership. [5] Testing our COVID-19 protocols in realistic simulated scenarios with a small expert team induced adaptations to make them more robust, simple, and fail proof [3,4]. Our simulations impacted organizational behavior, leading to changed scope of practice, altered resuscitation algorithms, and a raised awareness of an impending resource crisis [2]. We conclude that in the context of an emerging pandemic, simulation is a powerful tool to rapidly and safely test protocols to improve system-wide preparation for a pandemic [3,4].
  6 in total

1.  Impact of the COVID-19 pandemic on American College of Surgeons-Accredited Education Institutes & American Society of Anesthesiologists-Simulation Education Network: Opportunities for interdisciplinary collaboration.

Authors:  Gordon G Wisbach; Kathleen A Johnson; Catherine Sormalis; Amy Johnson; Jennifer Ham; Patrice G Blair; Steven Houg; Amanda R Burden; Elizabeth H Sinz; Sally A Fortner; Randolph H Steadman; Ajit K Sachdeva; Deborah M Rooney
Journal:  Surgery       Date:  2022-07-06       Impact factor: 4.348

2.  Simulathon 2020: Integrating Simulation Period Prevalence Methodology Into the COVID-19 Disaster Management Cycle in India.

Authors:  Sujatha Thyagarajan; Geethanjali Ramachandra; Vijayanand Jamalpuri; Aaron W Calhoun; Vinay Nadkarni; Ellen S Deutsch
Journal:  Simul Healthc       Date:  2021-08-16       Impact factor: 2.690

3.  Data and debriefing observations on healthcare simulation to prepare for the COVID-19 pandemic.

Authors:  M H Andreae; A Dudak; V Cherian; P Dhar; P G Dalal; W Po; M Pilipovic; B Shah; W Hazard; D L Rodgers; E H Sinz
Journal:  Data Brief       Date:  2020-07-15

4.  Airborne Isolation Cardiac Arrest: A Simulation Program for Interdisciplinary Code Blue Team Training.

Authors:  Alexandra C Collis; Andrew P Wescott; Sheryl Greco; Nicole Solvang; Joshua Lee; Amy E Morris
Journal:  MedEdPORTAL       Date:  2022-01-14

5.  Implementing COVID-19 Simulation Training for Anesthesiology Residents.

Authors:  Bryant E Hong; Christine C Myo Bui; Yue Ming Huang; Tristan Grogan; Victor F Duval; Maxime Cannesson
Journal:  MedEdPORTAL       Date:  2022-01-31

6.  Attitudes of the Third-Year Clinical Anesthesiology Residents Toward an Independent Clinical Practice Rotation in COVID-19 Pandemic in Iran.

Authors:  Ali Dabbagh; Seyyedeh Narjes Ahmadizadeh; Sogol Asgari; Kamal Fani; Nilofar Massoudi; Mohammadreza Moshari; Parissa Sezari; Sedigheh Shokrollahi; Soodeh Tabashi; Ardeshir Tajbakhsh; Maryam Vosoughian
Journal:  Anesth Pain Med       Date:  2020-12-19
  6 in total

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