Literature DB >> 30194902

Adherence to Pediatric Cardiac Arrest Guidelines Across a Spectrum of Fifty Emergency Departments: A Prospective, In Situ, Simulation-based Study.

Marc Auerbach1, Linda Brown2, Travis Whitfill1, Janette Baird2, Kamal Abulebda3, Ambika Bhatnagar1, Riad Lutfi3, Marcie Gawel1, Barbara Walsh4, Khoon-Yen Tay5, Megan Lavoie5, Vinay Nadkarni6, Robert Dudas7, David Kessler8, Jessica Katznelson9, Sandeep Ganghadaran10, Melinda Fiedor Hamilton11.   

Abstract

BACKGROUND AND OBJECTIVES: Pediatric out-of-hospital cardiac arrest survival outcomes are dismal (<10%). Care that is provided in adherence to established guidelines has been associated with improved survival. Lower mortality rates have been reported in higher-volume hospitals, teaching hospitals, and trauma centers. The primary objective of this article was to explore the relationship of hospital characteristics, such as annual pediatric patient volume, to adherence to pediatric cardiac arrest guidelines during an in situ simulation. Secondary objectives included comparing adherence to other team, provider, and system factors.
METHODS: This prospective, multicenter, observational study evaluated interprofessional teams in their native emergency department (ED) resuscitation bays caring for a simulated 5-year-old child presenting in cardiac arrest. The primary outcome, adherence to the American Heart Association pediatric guidelines, was assessed using a 14-item tool including three component domains: basic life support (BLS), pulseless electrical activity (PEA), and ventricular fibrillation (VF). Provider, team, and hospital-level data were collected as independent data. EDs were evaluated in four pediatric volume groups (low < 1,800/year; medium 1,800-4,999; medium-high 5,000-9,999; high > 10,000). Cardiac arrest adherence and domains were evaluated by pediatric patient volume and other team and hospital-level characteristics, and path analyses were performed to evaluate the contribution of patient volume, systems readiness, and teamwork on BLS, PEA, and VF adherence.
RESULTS: A total of 101 teams from a spectrum of 50 EDs participated including nine low pediatric volume (<1,800/year), 36 medium volume (1,800-4,999/year), 24 medium-high (5,000-9,999/year), and 32 high volume (≥10000/year). The median total adherence score was 57.1 (interquartile range = 50.0-78.6). This was not significantly different across the four volume groups. The highest level of adherence for BLS and PEA domains was noted in the medium-high-volume sites, while no difference was noted for the VF domain. The lowest level of BLS adherence was noted in the lowest-volume EDs. Improved adherence was not directly associated with higher pediatric readiness survey (PRS) score provider experience, simulation teamwork performance, or more providers with Pediatric Advanced Life Support (PALS) training. EDs in teaching hospitals with a trauma center designation that served only children demonstrated higher adherence compared to nonteaching hospitals (64.3 vs 57.1), nontrauma centers (64.3 vs. 57.1), and mixed pediatric and adult departments (67.9 vs. 57.1), respectively. The overall effect sizes for total cardiac adherence score are ED type γ = 0.47 and pediatric volume (low and medium vs. medium-high and high) γ = 0.41. A series of path analyses models was conducted that indicated that overall pediatric ED volume predicted significantly better guideline adherence, but the effect of volume on performance was only mediated by the PRS for the VF domain.
CONCLUSIONS: This study demonstrated variable adherence to pediatric cardiac arrest guidelines across a spectrum of EDs. Overall adherence was not associated with ED pediatric volume. Medium-high-volume EDs demonstrated the highest levels of adherence for BLS and PEA. Lower-volume EDs were noted to have lower adherence to BLS guidelines. Improved adherence was not directly associated with higher PRS score provider experience, simulation teamwork performance, or more providers with PALS training. This study demonstrates that current approaches optimizing the care of children in cardiac arrest in the ED (provider training, teamwork training, environmental preparation) are insufficient.
© 2018 by the Society for Academic Emergency Medicine.

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Mesh:

Year:  2018        PMID: 30194902     DOI: 10.1111/acem.13564

Source DB:  PubMed          Journal:  Acad Emerg Med        ISSN: 1069-6563            Impact factor:   3.451


  9 in total

1.  A Modified Delphi Study to Prioritize Content for a Simulation-based Pediatric Curriculum for Emergency Medicine Residency Training Programs.

Authors:  Jennifer Mitzman; Ilana Bank; Rebekah A Burns; Michael C Nguyen; Pavan Zaveri; Michael J Falk; Manu Madhok; Ann Dietrich; Jessica Wall; Muhammad Waseem; Teresa Wu; Alisa McQueen; Cynthia R Peng; Brian Phillips; Francesca M Bullaro; Cindy D Chang; Sam Shahid; David P Way; Marc Auerbach
Journal:  AEM Educ Train       Date:  2019-12-12

2.  GENESISS 2-Generating Standards for In-Situ Simulation project: a systematic mapping review.

Authors:  Kerry Evans; Jenny Woodruff; Alison Cowley; Louise Bramley; Giulia Miles; Alastair Ross; Joanne Cooper; Bryn Baxendale
Journal:  BMC Med Educ       Date:  2022-07-11       Impact factor: 3.263

3.  Creation of a standardized pediatric emergency medicine simulation curriculum for emergency medicine residents.

Authors:  Rebekah Burns; Manu Madhok; Ilana Bank; Michael Nguyen; Michael Falk; Muhammad Waseem; Marc Auerbach
Journal:  AEM Educ Train       Date:  2021-08-01

4.  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

5.  Impact of a shared decision-making mHealth tool on caregivers' team situational awareness, communication effectiveness, and performance during pediatric cardiopulmonary resuscitation: study protocol of a cluster randomized controlled trial.

Authors:  Frédéric Ehrler; Cyril Sahyoun; Sergio Manzano; Oliver Sanchez; Alain Gervaix; Christian Lovis; Delphine S Courvoisier; Laurence Lacroix; Johan N Siebert
Journal:  Trials       Date:  2021-04-13       Impact factor: 2.279

6.  Projected Saudi Arabian pediatric emergency consultant physician staffing needs for 2021-2030.

Authors:  Areej Abudan; Olesya Baker; Amal Yousif; Roland C Merchant
Journal:  J Am Coll Emerg Physicians Open       Date:  2022-01-19

Review 7.  Is in situ simulation in emergency medicine safe? A scoping review.

Authors:  Jennifer Truchot; Valérie Boucher; Winny Li; Guillaume Martel; Eva Jouhair; Éliane Raymond-Dufresne; Andrew Petrosoniak; Marcel Emond
Journal:  BMJ Open       Date:  2022-07-19       Impact factor: 3.006

8.  The Implementation of a Collaborative Pediatric Telesimulation Intervention in Rural Critical Access Hospitals.

Authors:  Marc Auerbach; Mary Patterson; William A Mills; Jessica Katznelson
Journal:  AEM Educ Train       Date:  2021-01-31

9.  Community-based in situ simulation: bringing simulation to the masses.

Authors:  Barbara M Walsh; Marc A Auerbach; Marcie N Gawel; Linda L Brown; Bobbi J Byrne; Aaron Calhoun
Journal:  Adv Simul (Lond)       Date:  2019-12-21
  9 in total

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