Using simulation modeling to inform intervention and implementation selection in a rapid stakeholder-engaged hybrid effectiveness-implementation randomized trial.

Jessica E Becker, Fatma M Shebl, Elena Losina, Anna Wilson, Julie H Levison, Karen Donelan, Vicki Fung, Hao Trieu, Christopher Panella, Yiqi Qian, Pooyan Kazemian, Bruce Bird, Brian G Skotko, Stephen Bartels, Kenneth A Freedberg
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引用次数: 0

Abstract

Background: Implementation research generally assumes established evidence-based practices and prior piloting of implementation strategies, which may not be feasible during a public health emergency. We describe the use of a simulation model of the effectiveness of COVID-19 mitigation strategies to inform a stakeholder-engaged process of rapidly designing a tailored intervention and implementation strategy for individuals with serious mental illness (SMI) and intellectual/developmental disabilities (ID/DD) in group homes in a hybrid effectiveness-implementation randomized trial.

Methods: We used a validated dynamic microsimulation model of COVID-19 transmission and disease in late 2020/early 2021 to determine the most effective strategies to mitigate infections among Massachusetts group home staff and residents. Model inputs were informed by data from stakeholders, public records, and published literature. We assessed different prevention strategies, iterated over time with input from multidisciplinary stakeholders and pandemic evolution, including varying symptom screening, testing frequency, isolation, contact-time, use of personal protective equipment, and vaccination. Model outcomes included new infections in group home residents, new infections in group home staff, and resident hospital days. Sensitivity analyses were performed to account for parameter uncertainty. Results of the simulations informed a stakeholder-engaged process to select components of a tailored best practice intervention and implementation strategy.

Results: The largest projected decrease in infections was with initial vaccination, with minimal benefit for additional routine testing. The initial level of actual vaccination in the group homes was estimated to reduce resident infections by 72.4% and staff infections by 55.9% over the 90-day time horizon. Increasing resident and staff vaccination uptake to a target goal of 90% further decreased resident infections by 45.2% and staff infections by 51.3%. Subsequent simulated removal of masking led to a 6.5% increase in infections among residents and 3.2% among staff. The simulation model results were presented to multidisciplinary stakeholders and policymakers to inform the "Tailored Best Practice" package for the hybrid effectiveness-implementation trial.

Conclusions: Vaccination and decreasing vaccine hesitancy among staff were predicted to have the greatest impact in mitigating COVID-19 risk in vulnerable populations of group home residents and staff. Simulation modeling was effective in rapidly informing the selection of the prevention and implementation strategy in a hybrid effectiveness-implementation trial. Future implementation may benefit from this approach when rapid deployment is necessary in the absence of data on tailored interventions.

Trial registration: ClinicalTrials.gov NCT04726371.

在利益相关者参与的快速效果-实施混合随机试验中,利用模拟建模为干预和实施选择提供信息。
背景:实施研究通常假定有既定的循证实践并事先对实施策略进行试点,而这在公共卫生突发事件中可能并不可行。我们介绍了 COVID-19 缓解策略有效性模拟模型的使用情况,该模型为利益相关者参与的快速设计干预措施和实施策略的过程提供了参考,干预措施和实施策略针对的是集体之家中患有严重精神疾病(SMI)和智力/发育障碍(ID/DD)的个人:我们使用了一个经过验证的 COVID-19 传播和疾病动态微观模拟模型,以确定在 2020 年底/2021 年初减少马萨诸塞州集体之家员工和居民感染的最有效策略。模型输入参考了利益相关者提供的数据、公共记录和已发表的文献。我们评估了不同的预防策略,并根据多学科利益相关者的意见和大流行病的演变情况进行了反复调整,包括不同的症状筛查、检测频率、隔离、接触时间、个人防护设备的使用和疫苗接种。模型结果包括集体之家居民的新感染病例、集体之家工作人员的新感染病例以及居民的住院天数。对参数的不确定性进行了敏感性分析。模拟结果为利益相关者参与选择量身定制的最佳实践干预措施和实施策略的组成部分提供了信息:结果:最初接种疫苗预计可最大程度地降低感染率,而额外的常规检测带来的益处则微乎其微。据估计,在 90 天的时间跨度内,集体之家的初始实际疫苗接种水平可将居民感染率降低 72.4%,将员工感染率降低 55.9%。将居民和员工的疫苗接种率提高到 90% 的目标后,居民感染率进一步降低了 45.2%,员工感染率进一步降低了 51.3%。随后模拟去除掩蔽后,住院患者感染率增加了 6.5%,员工感染率增加了 3.2%。模拟模型结果已提交给多学科利益相关者和政策制定者,为混合有效性实施试验的 "量身定制最佳实践 "包提供参考:据预测,接种疫苗和减少员工对疫苗的犹豫不决将对降低集体之家居民和员工等弱势群体的 COVID-19 风险产生最大影响。模拟建模能有效快速地为有效性-实施性混合试验中预防和实施策略的选择提供信息。在缺乏量身定制的干预措施数据的情况下,如果需要快速部署,未来的实施可能会受益于这种方法:试验注册:ClinicalTrials.gov NCT04726371。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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