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Evaluation of Faculty Debriefing Post Simulation Events

Editor: Kimberly Schertzer Updated: 1/12/2026 1:32:25 AM

Introduction

Debriefing constitutes a core component of simulation-based learning. Analysis of experiences following a completed simulation comprises a critical step during which participants acquire knowledge and modify behavior.[1] This reflection is typically guided by a facilitator, often referred to as the "debriefer," whose objective is to identify and address knowledge gaps or cognitive framing errors. The debriefer's skill is the cornerstone of the educational experience in simulation.

The competencies required for effective debriefing differ from those used to lead traditional classroom discussions and necessitate dedicated training and ongoing faculty development.[2] Both novice and experienced debriefers may demonstrate persistent pitfalls following initial training, including excessive facilitator speech, inadequate emotional regulation, or failure to establish a psychologically safe learning environment. This observation underscores the necessity for continued refinement of debriefing skills among instructors.[3]

Commercially available courses provide initial instruction in debriefing, and workshops dedicated to skill enhancement are often incorporated into national and international simulation curricula. Additionally, many programs maintain internal debriefing training initiatives. Numerous debriefing models exist to facilitate structured debriefing within simulation activities.[4]

A recent review of faculty development courses available to simulation instructors identified substantial variability in session formats and educational foci. Most offerings consist of single-day, in-person workshops, with primary emphasis on debriefing techniques and curriculum design. Structured faculty development programs within simulation-based learning demonstrate positive effects on participant satisfaction and attitudes.

These programs also influence skill acquisition, knowledge development, and teaching modification. However, few models address the full range of competencies required for effective simulation facilitation. Many programs also lack robust evaluation or assessment mechanisms to determine the efficacy of their content. Single-day workshops further limit opportunities for longitudinal learning, which is better suited to assessing knowledge retention and sustained performance improvement over time.[5] A curriculum designed for medical simulation fellows may provide a valuable framework to support junior simulation debriefers.[6]

As of the date of this publication, the International Nursing Association for Clinical Simulation and Learning (INACSL) has established a best-practice curriculum in simulation, including session facilitation and debriefing. Several major national simulation organizations, including the Society for Simulation in Healthcare and the Global Network for Simulation in Healthcare, support these best practices. The INACSL Healthcare Simulation Standards of Best Practice, updated in 2021 and reaffirmed in 2024, endorse structured approaches such as prebriefing, facilitation, and psychological safety.

The Healthcare Simulation Standards of Best Practice also emphasize the pivotal role of continuous professional development for debriefers, who reflect on their current knowledge, skills, and abilities. Although the summary article highlights the maintenance of debriefing skills through observed practice and peer evaluation, it does not specify explicit evaluation instruments.[7] Consequently, the selection of evaluation tools for facilitator feedback and performance monitoring remains at the discretion of individual programs. (Source: Decker et al, 2021)

Issues of Concern

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Issues of Concern

Increasingly, simulation programs incorporate virtual, hybrid, and telesimulation formats. These modalities introduce additional challenges for faculty debriefing, including reduced recognition of nonverbal cues, altered group dynamics, and technological barriers. Evaluation of debriefing performance in these settings remains essential to ensure consistency and educational quality across delivery formats.[8][9]

Continuing Education

Several post-simulation evaluation instruments have been developed to address this need. These tools vary in focus. Some assess the simulation in its entirety. Others evaluate only the debriefing component, including participant engagement, quality of reflection, or clarity of feedback. A few focus specifically on the facilitator. These instruments may not demonstrate validity in unique contexts and are primarily geared toward high-resource settings. Use of these tools requires cultural humility to prevent producing damaging or unreliable assessments.[10]

Contemporary faculty development initiatives increasingly align debriefing evaluation with competency-based education frameworks. In this context, assessment tools are used longitudinally to document the progression of facilitator skills rather than isolated performance during a single session.

Objective Structured Assessment of Debriefing

An early tool developed to evaluate the faculty debriefer is the Objective Structured Assessment of Debriefing (OSAD). The OSAD was described in the surgical literature in 2012. This tool was initially developed through a review of existing literature and focused interviews of providers and receivers of debriefing. The results were synthesized into 8 features considered essential for effective debriefing. These features were adapted into the categories of the final OSAD, which are rated on a 5-point Likert scale by trained observers. The categories are approach, environment, engagement, reaction, reflection, analysis, diagnosis, and application. Descriptive anchors were incorporated into the 5-point scale to assist the assessor in scoring.

For the approach category, a score of 1 is defined as a confrontational, judgmental approach. A score of 3 reflects attempts to establish rapport with learners that remain overly critical or excessively informal. A score of 5 represents consistent rapport maintenance through a nonthreatening yet honest approach that promotes a psychologically safe learning environment. The benefits of OSAD include brevity, with an estimated completion time of approximately 5 minutes, along with established validity and interrater reliability.[11]

A similar development process was applied to create a pediatric-specific OSAD. This tool employed analogous categories and 5-point Likert benchmarks. Multiple committees and simulation centers subsequently validated and adopted the instrument for debriefing standardization and faculty development.[12] Pediatric OSAD provides a framework for psychologically safe, constructive feedback while supporting quality assurance. (Source: O'Loughlin et al, 2017)

Citing concerns regarding the traditional paper-based OSAD, researchers developed a modified electronic version, the eOSAD.[13] Reported benefits include maintained interrater reliability, ease of use with video-recorded debriefing sessions, and the capability to incorporate comments, which were absent in the traditional OSAD survey. Additional advantages include protection from data corruption, such as the risk of losing paper copies or introducing transcription errors. A primary limitation of eOSAD is the requirement for real-time computer and internet access. OSAD has also been successfully translated and applied in diverse languages and cultural contexts.[14]

Emerging artificial intelligence–driven natural language processing tools for automated OSAD scoring (piloted 2024-2025) show promise in reducing observer bias during video analysis.[15] However, large-scale validation is ongoing.

Debriefing Assessment for Simulation in Healthcare

An alternative to the OSAD for evaluating faculty debriefing and simulation sessions is the Debriefing Assessment for Simulation in Healthcare (DASH). This instrument, first described in 2012, evaluates 6 elements of debriefing.[16] The 6 elements include establishing an engaging learning environment, maintaining an engaging learning environment, structuring the debriefing in an organized manner, provoking engaging discussion, identifying and exploring performance gaps, and facilitating achievement or sustainment of future performance improvement. Participants are rated using a 7-point effectiveness scale. Each element includes behavioral anchors to support assessor scoring.

For the element “identifies and explores performance gaps,” behavioral anchors include provision of concrete feedback on individual or team performance based on an honest and accurate debriefer perspective, along with exploration of participant reasoning and decision-making at key moments. The instrument has been validated and tested, demonstrating reliability. Standardized training is required for use of this assessment and is typically delivered via webinar.

The DASH applies to simulations across multiple domains and disciplines. Since its development, this tool has been used to evaluate debriefing in various contexts, including faculty development, program quality assessment, and certification requirements.[17] In addition to faculty development, the DASH has measured outcomes in research studies incorporating simulation. A modified version, the DASH student version, has assessed outcomes in faculty-led versus resident-led debriefing sessions for medical students and residents.[18][19][20] The instrument has also been employed in the evaluation of interprofessional simulation debriefings.[21]

Programs commonly select DASH when standardized, summative assessment or cross-program benchmarking is required.[22] OSAD is often favored for rapid formative feedback and repeated observation within faculty development initiatives.[23]

Peer Assessment Debriefing Instrument

More recently, allied health literature introduced an alternative evaluation instrument. The Peer Assessment Debriefing Instrument (PADI) incorporates a self-evaluation component into the postdebriefing assessment. The instrument evaluates 8 aspects of planning and conducting a simulation debriefing. The 8 aspects include structure and organization, verbal and nonverbal communication, setting the stage and establishing ground rules, defusing emotions, recapping the experience, facilitating self-reflection, connecting to practice, and summarizing key takeaways.

The debriefer and evaluator rate performance on multiple elements within each domain using a 4-point Likert scale. Responses are compared to facilitate discussion and direct feedback toward specific areas identified by the debriefer.[24] PADI demonstrates reliability and validity across healthcare disciplines and experience levels for debriefing evaluation. The creators of PADI report that benefits include minimal time required to learn and implement the instrument. The tool may also serve as a valuable quantitative data source for evaluating teaching skills and effectiveness.[25]

Other Tools

Some authors have created debriefing evaluation instruments for individual studies. These instruments are not commonly applied outside those settings.[26][27] Others adapt existing scales to meet specific needs. For example, a self-reporting quality scale, based on the OSAD and DASH, was used to develop the TeamGAINS debriefing instrument.[28]

Other authors allocate portions of broader evaluation tools specifically to assess debriefing. Examples include the holistic evaluation of nursing simulation facilitators using the Facilitator Competency Rubric.[29]

Several instruments incorporate participant evaluations of the debriefer as part of a larger assessment of the simulated learning session. These evaluations include the Simulation Design Scale, created by the National League for Nursing, the Simulation Effectiveness Tool-Modified, and the Debriefing Experience Scale.[30][31] Each instrument represents a postevent evaluation in which students describe perceptions of a faculty member’s performance or the effectiveness of the simulation event.

The PEARLS (Promoting Excellence and Reflective Learning in Simulation) framework, validated in recent studies (2024–2025), integrates scripted phases such as reactions and analysis with learner-driven reflection. Recent evidence demonstrates strong adherence to this framework in faculty development programs and interprofessional simulation settings.[32]

Clinical Significance

Evaluations of faculty debriefing after simulation are inconsistent and may lack direct clinical significance. Tools such as OSAD, DASH, PADI, and related instruments provide structured assessment of debriefing performance during individual simulation events, supporting targeted skill development that can enhance learning outcomes and potentially influence clinical care. Evidence directly linking debriefing evaluation scores to patient-level outcomes remains limited. Current literature supports an indirect association through improved learner performance, team behaviors, and adherence to best practices. Recent reviews, particularly from 2023 to 2025, highlight cultural equity gaps and recommend adaptations for diverse learners to ensure the validity of tools such as the OSAD and DASH and to minimize bias.

Enhancing Healthcare Team Outcomes

Simulation-based medical education is an expanding component of medical and nursing curricula. Simulation is used to test systems, enhance communication, and improve teamwork. Postsimulation debriefing serves as the primary venue for identifying and addressing gaps in knowledge and behavior. Principles, including psychological safety and nonjudgmental attitudes, are essential for optimizing the learning environment. Faculty development for facilitators leading debriefing sessions may enhance debriefing quality and, by extension, team learning.

Contemporary debriefing evaluations increasingly emphasize facilitators' awareness of hierarchy, implicit bias, and power differentials, particularly in interprofessional simulation settings. Structured debriefing frameworks (eg, PEARLS or DASH) correlate with significant improvements in teamwork and reductions in errors when skills are transferred to clinical practice.

References


[1]

Fanning RM, Gaba DM. The role of debriefing in simulation-based learning. Simulation in healthcare : journal of the Society for Simulation in Healthcare. 2007 Summer:2(2):115-25. doi: 10.1097/SIH.0b013e3180315539. Epub     [PubMed PMID: 19088616]


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Dismukes RK, Gaba DM, Howard SK. So many roads: facilitated debriefing in healthcare. Simulation in healthcare : journal of the Society for Simulation in Healthcare. 2006 Spring:1(1):23-5     [PubMed PMID: 19088569]


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Ahmed RA, Cooper D, Mays CL, Weidman CM, Poore JA, Bona AM, Falvo LE, Moore MJ, Mitchell SA, Boyer TJ, Atkinson SS, Cartwright JF. Development of a simulation technical competence curriculum for medical simulation fellows. Advances in simulation (London, England). 2022 Aug 9:7(1):24. doi: 10.1186/s41077-022-00221-4. Epub 2022 Aug 9     [PubMed PMID: 35945638]

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Mosher CJ, Morton A, Tarbet A, Palaganas JC. Factors of Engagement in Synchronous Online Learning Conversations and Distance Debriefing: A Realist Synthesis Review. Simulation in healthcare : journal of the Society for Simulation in Healthcare. 2023 Apr 1:18(2):126-134. doi: 10.1097/SIH.0000000000000650. Epub 2022 Apr 25     [PubMed PMID: 35470345]


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Mossenson AI, Livingston PL, Tuyishime E, Brown JA. Assessing Healthcare Simulation Facilitation: A Scoping Review of Available Tools, Validity Evidence, and Context Suitability for Faculty Development in Low-Resource Settings. Simulation in healthcare : journal of the Society for Simulation in Healthcare. 2024 Dec 1:19(6):e135-e146. doi: 10.1097/SIH.0000000000000796. Epub 2024 Apr 10     [PubMed PMID: 38595205]

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Runnacles J, Thomas L, Sevdalis N, Kneebone R, Arora S. Development of a tool to improve performance debriefing and learning: the paediatric Objective Structured Assessment of Debriefing (OSAD) tool. Postgraduate medical journal. 2014 Nov:90(1069):613-21. doi: 10.1136/postgradmedj-2012-131676. Epub 2014 Sep 8     [PubMed PMID: 25201993]