低保真,现场,可访问的儿科大规模伤亡事件模拟评估和提高儿科准备。

Q3 Medicine
Sydney E Jeffs, Cathlyn K Medina, Parker Frankiewicz, Steven W Thornton, Elizabeth Horne, Smith Ngeve, Tara Thomason, Delaney Anani-Wolf, Catherine B Beckhorn, Delaney James, Rachel Hobbs, Remi Hueckel, Corrie E Chumpitazi, Erin R Hanlin, Rachel O'Brian, Elisabeth T Tracy, Emily Greenwald
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引用次数: 0

摘要

现有的大规模伤亡事件(MCI)模拟依赖于高保真病人模拟器,这是成本过高,往往排除儿科患者。为了满足可部署的低保真儿科MCI模拟的需求,我们开发并评估了一个具有成本意识的模型来教授JumpSTART的原理,这是简单分诊和快速治疗(START)算法的儿科版本。方法:在这个低保真儿科MCI模拟中,儿童创伤患者用2D真人大小的图纸表示,包括使用JumpSTART进行分诊的所有相关信息。学习者为具有多学科背景的院前和医院工作人员。学习者被分成两组,并根据分类和视力水平分配了五名独特的患者。主要结果是分诊分类和Broselow长度的准确性,以及分诊完成的时间。模拟后的调查旨在评估学习者对练习的态度。结果:进行了两次儿童MCI模拟(分别为18和16名参与者)。在队列1中,使用JumpSTART对10名患者中的9名进行了正确的分类。一名患者被过度分类。队列2的所有患者都被正确分配了分诊分类。所有患者的Broselow长度都被正确分配。在第一组中,为每位患者分配分诊类别的中位时间为67秒(范围30-135),在第二组中为64秒(范围30-116)。参与者的反馈普遍是积极的。讨论:我们为儿童MCI提供了一个可访问的、低保真度的培训模型,该模型为参与者围绕JumpSTART儿科分诊算法创建了一个简单但动态的实践体验,并可在各种环境中复制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Low-Fidelity, In Situ, Accessible Pediatric Mass Casualty Incident Simulation to Evaluate and Improve Pediatric Readiness.

Introduction: Existing mass casualty incident (MCI) simulations rely on high-fidelity patient simulators, which are cost-prohibitive and often exclude pediatric patients. To address the need for deployable, low-fidelity pediatric MCI simulations, we developed and evaluated a cost-conscious model to teach the principles of JumpSTART, the pediatric variation of the Simple Triage and Rapid Treatment (START) algorithm.

Methods: In this low-fidelity pediatric MCI simulation, pediatric trauma patients were represented by 2D, life-sized drawings including all pertinent information for triage using JumpSTART. Learners were prehospital and hospital staff with multidisciplinary backgrounds. Learners were divided into two groups and assigned five unique patients across triage and acuity levels. Primary outcomes were the accuracy of assigned triage categories and Broselow lengths, and time to triage completion. Postsimulation surveys were designed to assess learner attitudes about the exercise.

Results: Two sessions of the pediatric MCI simulation were conducted (18 and 16 participants, respectively). Triage categories were correctly assigned using JumpSTART for 9 of 10 patients in cohort 1. One patient was over-triaged. All patients in cohort 2 were correctly assigned triage categories. Broselow lengths were correctly assigned to all patients. Median time to assign a triage category per patient was 67 seconds (range 30-135) for the first cohort and 64 seconds (range 30-116) for the second. Participant feedback was universally positive.

Discussion: We present an accessible, low-fidelity training model for pediatric MCI, which creates a simple but dynamic hands-on experience for participants around the JumpSTART pediatric triage algorithm and is replicable across environments.

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来源期刊
CiteScore
2.70
自引率
0.00%
发文量
83
审稿时长
35 weeks
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