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Open Access 01.12.2025 | Research

Effectiveness of room-of-error interventions for healthcare providers: a systematic review

verfasst von: Su Jin Jung, Jiwon Kang, Youngjin Lee

Erschienen in: BMC Nursing | Ausgabe 1/2025

Abstract

Background

Patient safety incidents are recognized as significant contributors to patient mortality, thus demanding immediate attention and strategic interventions in healthcare systems. The room-of-error education program serves as a solution, as it provides a case-based learning platform allowing nursing students to identify and resolve medical errors within a controlled environment systematically. This study aimed to identify the context, mechanisms, and outcomes of room-of-error training programs.

Methods

This study adopted a systematic review methodology aligning with the Preferred Reporting Items for Systematic Reviews and Meta-Analysis guidelines. Comprehensive searches were conducted across key databases, including OvidMEDLINE, Embase, Cochrane, and CINAHL, by utilizing specific terms related to healthcare providers, nursing students, room-of-error education, medical errors, simulation training, and virtual intervention. Included studies focused on healthcare providers or students, error recognition, RFE-related training, and randomized or quasi-experimental trials, while exclusion criteria were non-English/Korean studies, non-original articles, abstracts, and qualitative studies. Risk of bias in the selected studies was assessed using the Risk Of Bias In Non-randomized Studies version 2.0 tool.

Results

The search strategy yielded 2,447 articles, with eight studies meeting the inclusion criteria. Predominantly quasi-experimental in design, these eight studies primarily focused on nurses as the target population. Simulations were found to be widely integrated into room-of-error programs, emphasizing skill performance and critical thinking. Half of the studies provided preparation time, 37.5% included feedback, and 62.5% covered medication errors, with 87.5% using offline delivery, 62.5% offering individual education, and program durations ranging from 4 to 35 min, with 25% having no time limit for error inspection. Diverse content, including topics such as medication errors and infection control, was found to be delivered through offline or virtual formats and group-based or individual education.

Conclusions

The findings provide valuable insights into the characteristics and outcomes of room-of-error training programs for healthcare professionals and students. This study emphasizes the significance of practical, case-based approaches in nursing education to augment knowledge, confidence, and competencies, thereby enhancing patient safety in clinical practice.
Hinweise

Supplementary Information

The online version contains supplementary material available at https://​doi.​org/​10.​1186/​s12912-025-02751-4.

Publisher’s note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

Background

Patient safety incidents account for a significant percentage of patient deaths [1], and preventing such incidents is a matter of grave concern for the healthcare system [2]. To become healthcare professionals, nursing students must learn how to manage potential patient safety incidents in clinical settings to reduce medical malpractice cases. However, clinical rotations offer students limited opportunities for hands-on experience in making decisions and directly addressing problems through effective communication and collaboration within the healthcare team [3].
The room-of-error (RFE) education program is a case-based educational program grounded in scenarios that encompass various medical errors that commonly occur in nursing practice. It allows nursing students to practice identifying and resolving medication or procedural errors within the given timeframe [4]. Through this approach, nursing students are exposed to potential problems that can occur in real-life situations with their groups and learn teamwork and communication skills. They can apply nursing interventions without causing actual harm to patients and engage in repeated learning through trial and error [5]. Moreover, studies have reported that a double-check approach, in which two individuals are paired for cross-checking, is more effective at detecting errors in real-life situations than a single-check method, in which only one individual makes the judgments [6]. Therefore, applying the knowledge acquired through such a case-based college curriculum to actual clinical practice can enhance not only knowledge and self-confidence but also practical competencies, fostering students’ abilities to provide high-quality nursing care [6].
In recent years, nursing education has increasingly utilized various forms of case-based teaching, gaining attention as an innovative alternative to address the limitations of clinical practicums. Notably, research on the RFE program has been expanding. However, a wide range of teaching methods, including lectures, simulations, debriefings, and role-playing, has been employed, potentially leading to inconsistent educational outcomes. Most programs emphasize error detection by nurses while also considering factors such as academic goals, learner characteristics, and the learning environment [79]. Nevertheless, the impact of these varying teaching methods on learning outcomes remains unclear. This study aims to address this critical research gap by clarifying whether it seeks to resolve these differences or document them to provide a clearer understanding. To this end, we will conduct a comprehensive review of existing research and explore the context, mechanisms, and outcomes (CMOs) of RFE training programs designed for healthcare professionals and students. Furthermore, we plan to identify the facilitators and barriers to designing an error detection program based on real-life cases, using case-based learning (CBL) to help students apply theory to practice and develop critical thinking and problem-solving skills. The findings are expected to be useful for developing educational approaches for patient safety-related nursing education and as foundational data for practical education that assists nursing students and nursing professionals in adjusting to clinical practice.
This study is intended to (1) identify the CMOs of RFE training programs offered to healthcare practitioners (staff and students) and (2) apply these CMO configurations in explaining the successes and/or failures of these RFE training programs.

Methods

This systematic review study seeks to identify the CMOs of RFE education for healthcare providers. It was conducted in accordance with the Preferred Reporting Items for Systematic Reviews and Meta Analysis (PRISMA) guidelines [7]. Two researchers independently performed literature selection, exclusion, data extraction, and data analysis, and disagreements between the two were resolved through discussion to finalize the selections.

Search strategy

The key study question is “What is the content and effectiveness of RFE education for nurses (including healthcare professionals) and nursing students (including other health majors)?” The search equations have been created and reviewed by a librarian. We conducted a systematic literature search using four electronic databases on March 2, 2022, and did not set the year the research was published. We conducted literature searches on OvidMEDLINE, Embase, Cochrane, and CINAHL. The following search terms were chosen: “health personnel,” “health(care) personnel,” “health(care) provider,” “health(care) worker,” “health(care) profession,” “healthcare student,” “medical student,” “nursing student for population (P),” “RFE,” “medical errors,” “medical incident,” “professional education,” “simulation training,” and “virtual training for intervention” (I). Control group (C) and Outcome (O) were not specified, and study design (SD) was set to quasi-experimental or randomized controlled trial (RCT).

Inclusion and exclusion criteria

The following inclusion criteria were used: studies conducted on healthcare providers in clinical settings or on students majoring in health; studies concerning training for recognizing situations and detecting errors or any situation that may harm the patient or studies on any type of training that encompasses the concept of RFE; randomized controlled trial; studies without a control group or quasi-experimental studies that only analyzed the effects after intervention. Because there were not many papers on randomized controlled trial when reviewing the literature for research. Therefore, quasi-experimental studies were included. The exclusion criteria were as follows: studies published in languages other than English or Korean, non-original articles, studies with only abstracts published, and qualitative studies.

Study selection and data extraction

Data was extracted on EndNote program. To extract information about RFE training and evaluation, one researcher filled out the basic form, and two researchers conducted analyses independently. First, two researchers (SJJ and YJL) reviewed the titles and abstracts to select the articles that met the PICO of this study. Then, the two researchers (SJJ and YJL) reviewed the full texts for the same purpose. Any disagreements between the two researchers (SJJ and YL) were resolved through consensus, and the final decision was made after discussion among third-party adjudication of the research team (SJJ, JWK, and YL).

Assessment of risk of bias in the selected studies

We used the Risk Of Bias In Non-randomized Studies (ROBINS) version 2.0 tool for the quality appraisal of the included studies. Updated in 2013, ROBINS 2.0 was developed to evaluate risk of bias in non-randomized studies [10]. ROBINS 2.0 assesses the following domains: comparability of the study groups, selection of the study groups, confounding variables, measurement of exposure, blinding of assessors, outcome assessment, incomplete outcome data, and selective outcome reporting. Each of these domains is evaluated as low risk, high risk, or unclear risk of bias. In this study, two researchers (SJJ and JWK) independently assessed the risk of bias, and disagreements over the results were resolved through discussion. The results were presented using Revman (Cochrane Community, Oxford, UK) version 5.0.

Data analysis

We analyzed the authors (publication year), country, study design, study population, sample size, measurement, and simulation results of the selected articles. For the programs, we analyzed program components, content, type of education, and duration.

Results

Search flow

The search strategy generated a total of 2,447 articles. After removal of 382 duplicate search results, a further 2,053 articles were removed on grounds of inappropriate study population and intervention in the review of titles and abstracts. The full texts of 12 studies were reviewed, and four were removed because of the unavailability of the full text. As a result, eight studies were included in the analysis. The literature selection process was outlined according to the PRISMA 2020 flow diagram (Fig. 1).

Quality assessment/risk of bias-included studies

Based on a methodological qualitative evaluation, all eight articles involved prospective data collection and were conducted according to the study protocol and included all expected results (Fig. 2).

Study characteristics

Table 1 presents the descriptive summary of the selected studies. Five (62.5%) studies included in this study were published in North America. Five (62.5%) of them were conducted in 2015 or later, indicating the relative recency of the studies evaluating the effectiveness of RFE programs. Regarding study design, seven (87.5%) were quasi-experimental studies, and one (12.5%) was RCT. The study population consisted predominantly of nurses (five studies, 62.5%), followed by multidisciplinary healthcare providers (two studies, 25.0%) and medical students and interns (one study, 12.5%). The outcome measure was error detection in all studies (100%), and three studies (37.5%) also measured satisfaction. To measure error detection, various methods were used, such as measuring whether the participant detected the error using a checklist or measuring the time until error detection. Aside from the outcome measures, the most widely expected outcomes of simulation education were skill performance and critical thinking (eight studies, 100.0%), followed by satisfaction (three studies, 37.5%) and knowledge (one study, 12.5%).
Table 1
Descriptive summary of the selected studies
Author, year
(Country)
Study Design
Study
population
Sample size
Measurement
Simulation outcomes
Intervention
Control
Knowledge
Skill performance
Critical thinking
Satisfaction
[8] Bracq et al., 2021
(France)
Quasi-experimental
study
RNs, Nurse students
34
-
▪ Detection of errors
(Number, time, and nature)
▪ Situation awareness
▪ Subjective workload
▪ Anxiety
▪ Debriefing analysis
▪ Attitudes & satisfaction
 
V
V
V
[15] Coombes et al., 2005
(Australia)
Quasi-experimental
study
RNs
591
-
▪ Detection of errors
(Self-reported)
▪ Knowledge
V
V
V
 
[16] Daupin et al., 2016
(Canada)
Quasi-experimental
study
Healthcare providers
207
-
▪ Detection of errors
▪ Satisfaction
 
V
V
V
[6] Douglass et al., 2018
(USA)
RCT
RNs
(ER & ICU)
Double-check group
42 (21 pairs)
Single-check group
44 (22 pairs)
▪ Detection of errors
 
V
V
 
[17] Farnan et al., 2016
(USA)
Quasi-experimental
study
Medical students
and interns
Medical student
87
Intern 128
▪ Detection of hazards
▪ Satisfaction
 
V
V
V
[18] White et al., 2010
(Canada)
Quasi-experimental
study
RNs
10
-
▪ Detection of errors
 
V
V
 
[19] Wilkinson et al., 2011
(USA)
Quasi-experimental
study
RNs
31
-
▪ Error detection and recovery
 
V
V
 
[20] Zimmermann et al., 2021
(Switzerland)
Quasi-experimental
study
Healthcare
providers
959
-
▪ Detection of errors
 
V
V
 

RFE programs

Table 2 presents information about the RFE programs in the selected studies. All eight studies (100%) used simulations in a simulation room or a virtual scenario as the teaching method for the RFE program. Four of these studies (50.0%) provided students with time to prepare before beginning the simulation, and three studies (37.5%) provided feedback or debriefing following the simulation. The content of the program included medication errors (five studies, 62.5%) and infection control (two studies, 25.0%). The method of delivery was offline in the case of seven studies (87.5%) and virtual simulation in the case of one study (12.5%). Five studies (62.5%) used individual education, while three studies (37.5%) used group-based formats for the program. The duration of the programs ranged widely, from 4 to 35 min, and in the case of two studies, the duration of education for inspecting errors was not limited (25%).
Table 2
Information on RFE programs in the selected studies
Author
(year)
Components of the room-of-error program
Content
Education
type
Duration
Simulation
Facilitator
Prebriefing
(Description)
Debriefing
(Description)
Theme
Intervention group
Control group
  
[8]
Bracq et al.
(2021)
V
-
V
V
Operating room with errors
Error recognition in a virtual OR (n = 19)
[Type of error]
-Infection (12), Surgical procedure (4), Identity monitoring (1), Trophic lesions (1), Medical risk (1)
-
Online
(VR)/ Individual
14 min.
(Repeat after six months)
- Immediate
(Five-Ten min.)
- Collective
(90 min.)
[15] Coombes
et al.
(2005)
V
Nurse/
Pharmacist
 
V
Identification of Medical errors
Six scenarios related to medication errors
- Correct ①Patient, ②Medication, ③Dosage,
④Time, ⑤Route, ⑥Discharge medication
-
Offline/ Group
Four min.
- Feedback (Four min.)
[16] Daupin et al.
(2017)
V
Nurse/ Researcher
  
Medication error room; Medication-use system
Thirty situations related to medication (includes 24 errors)
- Prescription, preparation, and administration of medication
-
Offline/ Individual
30 min.
[6] Douglass
et al.
(2018)
V
-
  
Double check on the detection of medication errors
[double-check group]
High-risk medication (Insulin)-related error
(includes one-two errors)
[single-check]
Non-high-risk medication (Midazolam) related error
(includes one-two errors)
Offline/ Group
20 min.
[17] Farnan et al.
(2016)
V
-
V
 
Patient safety room of horrors
[Medical students]
Nine situations related to patient safety
- CAUTI, wrong patient, restrain, pressure ulcer, DVT prophylaxis, hand hygiene, fall down
[Intern]
Same as the other group
Offline/
Individual
Ten min.
- Chart
review
(Ten min.)
[18] White et al.
(2010)
V
Researcher
  
Medication error in chemotherapy
Infusion pump-related error
- pump-programming error, patient identification error, mismatch label and order, clinical decision error
-
Offline/ Individual
Non-limit
[19] Wilkinson
et al. (2011)
V
Dialysis nurse
V
 
Error in dialysis nursing
Two scenarios including knowledge, procedure-related errors (includes four-eight errors)
-
Offline/ Individual
Non-limit
[20] Zimmermann et al. (2021)
V
Nurse
V
V
Patient safety room of horrors
Six scenarios including nursing care, medication preparation–related errors (includes 20 ~ 25 errors)
-
Offline/ Group
35 min.

Discussion

This study conducted a systematic review to analyze the trends in RFE education programs that are aimed at promoting patient safety by analyzing the CMOs of RFE education programs for healthcare providers. A total of 2,447 studies were searched from the databases, and eight studies met the inclusion and exclusion criteria and were chosen for the analysis.
Most of the studies were published in or after 2015, indicating a growing interest in RFE education in recent years. It has also been shown that most RFE education programs were delivered to nurses. This can be attributed to the close involvement of nurses in continuously monitoring and predicting patient status as part of patient care [11]. In particular, RFE education for nurses predominantly addressed medication-related errors. This is understandable, as medication errors are the most common errors encountered by nurses, and nurses have the final opportunity to prevent errors throughout the entire process of prescription, preparation, and administration [12].
RFE programs were delivered in an environment with preset error scenarios. All eight studies (100%) used simulation-based education, with four studies (50.0%) incorporating prebriefing and three studies (37.5%) including debriefing. Simulation allows instructors to create desired scenarios without causing actual harm to patients and enables repeated learning [5]. Moreover, learners undergo situational awareness training during simulations, so simulations were most commonly chosen as the most appropriate approach for RFE education, where students detect and correct errors in a virtual error scenario.
As proposed by simulation theory [13], the outcomes of situation education include knowledge, skill performance, satisfaction, critical thinking, and self-confidence. Among the included studies, eight studies (100.0%) measured skills and critical thinking as the expected outcomes of RFE education, with three studies (37.5%) and one study (12.5%) also measuring satisfaction and knowledge, respectively. Given the nature of RFE education, trying to detect errors is expected to cultivate critical thinking, while efforts to correct and prevent the recognized error or risk are expected to enhance skill performance such as safe medication [15, 20], accurate application of medical devices [1920].
In terms of the content of RFE education, medication administration was the most common (five studies, 62.5%), followed by infection control (two studies, 25.0%), safe surgical procedure (one study, 12.5%), pressure injuries (one study, 12.5%), and falls (one study, 12.5%). These are pertinent to major patient safety incidents as proposed by the IPSG(International Patient Safety Goal) of JCI [14], and preventing risky situations is of utmost importance to enhancing the quality of patient care.
The findings of this study furnish foundational data for the pragmatic implementation of RFE education in clinical settings, thereby augmenting patient safety. It is anticipated that these findings will serve as the foundation for the broader application of RFE programs, catalyzing further investigative endeavors within practical healthcare domains. The CMOs delineated in this study offer a nuanced understanding conducive to the judicious integration of RFE education within authentic clinical scenarios. The proposition for standardized RFE education programs positions them as a structured and consistent approach applicable across diverse healthcare institutions.
This study advocates for the utilization of RFE programs beyond the educational realm, emphasizing their potential impact on tangible patient care practices. By highlighting the pivotal role of nurses in ensuring patient safety, this study propels the notion of interprofessional collaboration. It advocates for the integration of RFE programs to foster collaborative efforts among diverse healthcare providers, ultimately contributing to creating a comprehensive and integrated approach to patient care. Finally, it underscores the need for further research within practical fields, considering the dynamic nature of healthcare environments.
Overall, this study not only elucidates the efficacy of RFE education but also serves as a scholarly impetus for the practical implementation, ongoing investigation, and perpetual refinement of patient safety protocols within the healthcare milieu. In this study, most of the ‘detection of errors’ were the outcome variable of RFE. However, the studies included had different methods of ‘detection of errors’ (e.g., the number of errors, the time it takes to find errors). Because of the heterogeneity of these studies, the effectiveness of RFE could not be verified. Therefore, it is necessary to standardize RFE education methods and outcome variables. Future meta-analyses should utilize rigorous evaluation methodologies, considering that the effectiveness of RFE programs for elevating patient safety standards must be assessed continuously.
This study’s significance lies in its evaluation of the current level of research on RFE education programs, a promising educational approach for promoting the safety and quality of patient care in healthcare settings. Nevertheless, this study had a few limitations. First, we only analyzed articles derived from online databases. Second, we only included studies published in English and Korean, the main languages of the researchers. Thus, the findings of our study must be interpreted with caution.

Conclusion

Our review of RFE education highlights the key role of nurses in promoting patient safety within healthcare facilities and their suitability for RFE education. However, nurses alone cannot prevent medical errors. Therefore, it is important to develop RFE programs that involve various healthcare providers who share the common goal of patient safety through interprofessional education. Additionally, interprofessional RFE programs should extend beyond medication errors to encompass a variety of error prevention scenarios, and additional RFE education initiatives are needed to establish standardized RFE education programs. The standardized interprofessional RFE curriculum needs to be included in the nursing accreditation program as an essential curriculum for nursing education. If the curriculum accumulated, it would help develop guidelines for customizing interprofessional RFE content to institutional needs. Overall, this study not only sheds light on the effectiveness of RFE education but also catalyzes its practical application and the continuous improvement of patient safety practices in healthcare settings.

Acknowledgements

This study was supported by the Ajou University Medical Information and Media Center. We acknowledge our profound gratitude for her, Librarian Yujin Kwon, outstanding contributions, which significantly enriched the quality of our work.

Declarations

Not applicable.
Not applicable.

Competing interests

The authors declare no competing interests.
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Metadaten
Titel
Effectiveness of room-of-error interventions for healthcare providers: a systematic review
verfasst von
Su Jin Jung
Jiwon Kang
Youngjin Lee
Publikationsdatum
01.12.2025
Verlag
BioMed Central
Erschienen in
BMC Nursing / Ausgabe 1/2025
Elektronische ISSN: 1472-6955
DOI
https://doi.org/10.1186/s12912-025-02751-4