Keywords
Mass casualty event, Medical education, Medical students, public health emergency preparedness, Simulation Education
Disaster and emergency preparedness aims to increase capacity for the management of, response to, and recovery from events, both natural and anthropogenic, that disrupt human environments. Education efforts are a key component of disaster preparedness, especially in terms of educating and training the disaster healthcare workforce (DHCW). However, despite this critical role, DHCW education in general and in the medical workforce in particular is a noted gap. Simulation is an education tool marked by immersive and/or interactive activities that provide a controlled, safe environment for skills-building. Simulation-based exercises have been observed as a common educational modality for disaster preparedness and response education. A key gap, therefore, is the intersection of simulation-based exercises for disaster response education in medical education. This scoping review is being undertaken, in part, to inform the development and utilisation of disaster/emergency preparedness simulation exercises among medical students globally. The objectives are to collate and describe the methods that employ simulation as a teaching strategy for medical students and to identify models of success, challenges, and opportunities for educating medical students on this area. Undergraduate and graduate medical students will be included. Interprofessional education involving students from multiple health professions will be included if medical student-specific information can be extracted. We will include any study design (e.g., quantitative, qualitative, and mixed methods studies) describing simulation methodologies for teaching medical students concepts relevant to disaster preparedness or emergency response. Studies must be published between 2001–2025. A systematic search of PubMed, Embase, SCOPUS, ERIC, Google Scholar, and Open Access Thesis and Dissertations will be conducted. Two independent reviewers will screen titles, abstracts, and full texts; data will be extracted using a piloted charting form and analysed descriptively. Findings will be disseminated through peer-reviewed publications, presentations at conferences, and engagements with community interest-holders.
Mass casualty event, Medical education, Medical students, public health emergency preparedness, Simulation Education
Disaster and emergency preparedness aims to increase capacity for the management of, response to, and recovery from events, both natural and anthropogenic, that disrupt human environments. These events can lead to larger than normal levels of morbidity and mortality. This includes short-term or localised events such as flooding, heat events, or mass-casualty events to longer-term or more regional/global events like a hurricane or a disease outbreak. Education efforts are a key component of disaster preparedness, especially in terms of educating and training the disaster healthcare workforce (DHCW). However, despite this critical role, DHCW education in general and in the medical workforce in particular, is a noted gap (Ragazzoni et al., 2020). Healthcare education in disaster preparedness has been extensively explored in the literature regarding nursing students and post-graduate medical education (Franc et al., 2012; Loke et al., 2021; Summerhill et al., 2008). While some initiatives including curriculum development have been explored for undergraduate or graduate medical programmes (Schilly et al., 2024; Zheng et al., 2022), medical students have specifically been identified as a key target group for these educational efforts (Barrimah et al., 2016; Ragazzoni et al., 2020). Both active and collaborative learning have been shown to have positive impacts, both on individual student performance (Freeman et al., 2014; Prince, 2013) but also on student satisfaction and engagement across various fields (Chinonso Okolie et al., 2021; Hyun et al., 2017).
Simulation is an education tool marked by immersive and/or interactive activities that provide a controlled, safe environment for skills-building (Elendu et al., 2024; Lateef, 2010). Simulation-based exercises have been observed as a common educational modality for disaster/emergency preparedness and response education (Schilly et al., 2024; Tomisawa et al., 2023). This can include very diverse methodologies ranging from lower-input/low-fidelity (e.g. tabletop exercises, board games) (Chew et al., 2023) to higher-input/high-fidelity exercises (e.g. real-world simulations, virtual reality simulations) (Andreatta et al., 2010). Simulation exercises can be one-off exercises or part of a larger curriculum (Pfenninger et al., 2010). As numerous disciplines and organisations can be represented in simulations, one key targeted benefit of simulation exercises alongside patient care is to introduce the complexity and interaction among various interest holders in disaster settings, including but not limited to healthcare systems, public health departments, and government entities (Pfenninger et al., 2010). A key gap, therefore, is the intersection of simulation-based exercises for disaster response in medical education. A recent review of disaster preparedness in medical education (Rashid et al., 2024) noted that simulation was both a common method of disaster education as well as a future development need, however this review did not delve into simulation methods, challenges, or promising practices. Furthermore, this review was limited to English-language papers and to papers published before 2021, ergo global and post-COVID-19 findings may be omitted.
This scoping review is being undertaken, in part, to inform the development and utilisation of disaster/emergency preparedness simulation exercises among medical students globally. Disaster preparedness among healthcare providers has been noted to vary within the Irish healthcare workforce, including among medical doctors (MDs) (Veenema et al., 2019). When a study was conducted assessing postgraduate, healthcare-oriented disaster education across Europe, half of the 34 identified programmes utilised simulation training (Perpiñá-Galvañ et al., 2021). However, this is not universally a gap, as a study of United States Emergency Medicine Residency programs noted a high utilisation of simulation exercises for disaster education (Sarin et al., 2017). Ultimately, when considering the development and implementation of disaster education, it bears noting that “building resilience lowers the costs of response and recovery. (James, 2014)” Describing methodologies and utilising that to inform the education of the future healthcare workforce can prevent loss of life and health in future disasters.
What teaching methodologies have been used for disaster or emergency preparedness simulations for medical students, and what indicators of success, facilitators, and challenges are there concerning these methodological approaches?
To address this research question, this review has the following aims:
Justification for the scoping review: As this research is broadly mapping concepts around medical education for disaster preparedness and not assessing effectiveness, this study aligns with guidance regarding scoping review utilisation (Aromataris et al., 2024; Munn et al., 2018).
The review protocol follows the JBI guidance for scoping reviews (Peters et al., 2022) and is reported in line with the Preferred Reporting Items for Systematic Reviews and Meta- Analyses extensions for Scoping Reviews (PRISMA-ScR) and Protocols (Shamseer et al., 2015; Tricco et al., 2018). The protocol is registered on Open Science Framework (OSF; osf.io/wra5g. ; https://doi.org/10.17605/OSF.IO/WRA5G).
We will include any study design (e.g., observational studies, quantitative studies, qualitative studies, mixed methods studies) describing simulation methodologies for teaching medical students concepts relevant to disaster or emergency response (concept). Studies will be included which focus on instruction of medical students (participants) in a medical training environment (e.g. university or medical school, nationally or internationally recognised disaster response or public health entities) (context). Studies must be published between 2001–2025. This timeframe will ensure that current practice and methodologies are reflected and furthermore considers the significant paradigm shift in disaster preparedness after the 2001 terrorist attacks in the United States (Gowing et al., 2017) as well as lessons learned from COVID-19 response. Given advanced translational capacity via online platforms like Google translate, language will not be restricted. Inclusion and exclusion criteria are detailed in Table 1.
| Inclusion Criteria | Exclusion Criteria | |
|---|---|---|
| Participants | Medical students only (undergraduate or graduate) - students currently studying for a medical degree (MD or MBBS-type degree). Interprofessional education involving students from multiple health professions will be included if medical student-specific information can be extracted. | Studies wholly including non- medical students (e.g. nursing students, medical continuing education). Interprofessional education involving students from multiple health professions learning together will be excluded if medical student-specific information cannot be extracted. |
| Concept | Simulation exercises or training defined as – immersive and/or interactive exercises providing a safe, contained environment for practicing hard and/or soft real-world skills. (Elendu et al., 2024; Lateef, 2010). The simulation exercise must wholly focus on disaster or emergency preparedness skills – skills intended for natural or anthropogenic disasters or events resulting in system disruption and higher-than-normal burden on healthcare systems. Any study where simulation is included as part of a multi-component training exercise will be included if simulation-specific data can be extracted. | Study does not present, wholly or partially, the use of simulation exercises. Any study where simulation is included as part of a multi-component training exercise and simulation-specific data cannot be extracted will be excluded. Training or teaching exercises not focusing on disasters or emergencies, either wholly or partially. Exercises involving the daily running/operations of an emergency room will be excluded. |
| Context | Medical education environments (university, medical school, national or international public health/disaster response entities) | Education outside of university, medical school, or national/internationally-recognised public health/disaster response entities |
| Study Design | Observational studies, reviews, interventional studies, case studies/reports, qualitative and mixed-methods studies focusing on disaster education | Opinion pieces, editorials, commentaries, conference abstracts |
| Date | January 2001 – August 2025 | Papers published before January 2001 |
The search strategy, developed with an information specialist, will be applied to PubMed, Embase, SCOPUS, and ERIC. Grey literature will be reviewed via Google Scholar, utilising the first 400 hits (Haddaway et al., 2015), and the Open Access Thesis and Dissertations (OATD) (available at: https://oatd.org/, accessed 15 April 2025). The reference list of all included documents will be screened for additional studies using citationchaser, supplemented by hand-searching reference lists where necessary (Haddaway et al., 2021). The full search strategy for each database is detailed in Appendix A and are available on OSF.
Study records will be imported into EndNote and uploaded to Covidence. Duplicates will be removed within Covidence. Titles and abstracts will be screened independently by pairs of reviewers (each record is screened by at least two people) for assessment against the inclusion criteria for the review. Disagreements will be resolved by a third reviewer. Prior to title and abstract screening, a pilot screening of 10% of documents will be carried out between the 2–3 reviewers who will review each title and abstract independently to ensure consistency of the application of the inclusion/exclusion criteria. A PRISMA flow diagram will map the number of records identified, included, and excluded. Full texts will also be screened independently by pairs of reviewers (each record is screened by at least two people) and reasons for exclusion at full text stage will be recorded and reported in the final review.
The data extraction table will be piloted by two independent reviewers using a subset of included studies (e.g., 10% of eligible studies, selected to represent all study designs and data types). This will ensure that fields capture the review objectives correctly and consistently (Garritty et al., 2024). Data extraction will be treated as an iterative process as suggested in literature (Pollock et al., 2023), and, as such, a wider team discussion will be conducted following the pilot to discuss the quality and applicability of the data extraction process. Based on feedback, the data extraction tool will be amended as needed before proceeding with the full data extraction. Data extraction, using the tool (Table 2), will be carried out in pairs (one person to extract and one to check). Extracted data will include basic demographic data (e.g. country, year) data on context and participants (e.g. what kind of educational institution, what level of medical student), and concept (e.g. what kind of simulation exercise, fidelity level, what kind of disaster was simulated). Data on researcher-reported challenges, facilitators, and future suggestions will also be extracted. All reviewers will pilot the data extraction tool to ensure consistency of application and will operate under the supervision of the two primary reviewers.
Given the nature of scoping review data extraction, we will target information presented in the methods, results, and discussion/findings sections and/or the abstract sections of included resources. However, as needed, we will extract data from supplementary materials, appendices, and communication with authors. (Pollock et al., 2023; Thomas & Harden, 2008).
Risk of bias: Given the stated aim of this research as well as the methodological recommendation that risk of bias assessment is not undertaken for scoping reviews, a risk of bias assessment will not be conducted (Peters et al., 2022)
Descriptive statistics, tables, and figures will be used as appropriate to describe the articles included. This description will include the methodologies used for simulation exercises to instruct medical students in disaster/emergency preparedness and response, facilitators/challenges for these education methods, and any information about perceived success. Basic qualitative content analysis will be conducted to identify and describe information about disaster education simulation methodologies and barriers/facilitators therein (Pollock et al., 2023). The analysis will highlight the reported key features, strengths, and limitations of the identified methodologies, as described by the study authors. Within the purview of a scoping review, this analysis will include the quantification of text and frequency counts of discrete extraction items (e.g. number of studies using a specific method, where this method falls on predetermined scales of simulation complexity (low-fidelity vs high-fidelity) (Cowling et al., 2021), frequency of stated challenges/facilitators, and, if appropriate, geographic distribution of said frequencies.
As this is a scoping review, analysis and presentation will not cover effectiveness, meaningfulness, or accuracy of the described methodologies and associated challenges/facilitators (Pollock et al., 2023).
Numerous methods will be employed for dissemination. Peer-reviewed publications, presentation at national and international conferences, and presentations to community groups and stakeholders engaging in or planning disaster/emergency education will be the primary methods to disseminate the results to both scholarly and practice-oriented audiences.
The aim of this scoping review is to describe the simulation-based educational methodologies previously utilised to instruct medical students in disaster/emergency preparedness and response. Incorporating disaster and emergency preparedness into healthcare education can contribute to a workforce that is prepared for diverse hazards and emergencies. Describing methodologies used to incorporate simulation exercises into medical education will be helpful for designing and implementing educational efforts in the future.
No data are associated with this article. Appendix A is available on the project Open Science Framework (OSF) page (Title: Disaster and emergency response simulation education for medical students: A Scoping Review Protocol, DOI: https://doi.org/10.17605/OSF.IO/WRA5G, Link: osf.io/wra5g.).
Data are available under the terms of the Creative Commons Attribution 4.0 International license (CC-BY 4.0).
The authors would like to thank Information Specialist Killian Walsh (RCSI University of Medicine and Health Sciences) for their assistance with the development of the search strategy.
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