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Article

Maintaining Clinical Training Continuity during COVID-19 Pandemic: Nursing Students’ Perceptions about Simulation-Based Learning

1
College of Nursing, King Saud bin Abdulaziz University for Health Sciences, Riyadh 11481, Saudi Arabia
2
King Abdullah International Medical Research Center (KAIMRC), Riyadh 14611, Saudi Arabia
3
Medical Surgical Nursing Department, King Abdulaziz University, Jeddah 21589, Saudi Arabia
4
Critical Care Nursing Department, King Abdulaziz University, Jeddah 21589, Saudi Arabia
5
Maternity and Pediatric Nursing Department, King Abdulaziz University, Jeddah 21589, Saudi Arabia
6
Nursing Administration and Education Department, College of Nursing, King Saud University, Riyadh 12372, Saudi Arabia
7
Nursing Sciences and Research Department, College of Nursing, Umm Alqura University, Makkah 24232, Saudi Arabia
*
Author to whom correspondence should be addressed.
Int. J. Environ. Res. Public Health 2022, 19(4), 2180; https://doi.org/10.3390/ijerph19042180
Submission received: 3 January 2022 / Revised: 13 January 2022 / Accepted: 14 January 2022 / Published: 15 February 2022

Abstract

:
Background: Simulation-based learning (SBL) in nursing education is an innovative pedagogical approach that has significantly improved nursing education. Adopting SBL provides a controlled environment for meeting educational objectives without the risk of harm to real patients. Given that social distancing is required during the coronavirus disease (COVID-19) pandemic, SBL is a suitable alternative to clinical training for nursing students to learn and acquire the required clinical competencies. The study aimed to describe the effectiveness of SBL as a complete substitute for clinical experience from the perspective of students. This cross-sectional descriptive survey investigated students’ perceptions regarding the description of the effectiveness of SBL in four nursing colleges at four different universities across the Kingdom of Saudi Arabia. Settings: Four nursing colleges at four different universities across the Kingdom of Saudi Arabia. Participants included nursing students who attended simulation sessions. Data were collected by distributing a self-administrated online questionnaire, the Modified Simulation Effectiveness Tool (SET-M), which is a 19-item. Results: Approximately two-thirds of the participants were in their third (30.4%) and fourth (44.5%) academic year. The highest student presentation was for Site 1 (39.5%) and Site 2 (32.5%). Significant differences existed in all domains according to sex and university (p ≤ 0.001). There was a significant difference in relation to the level of agreement for pre-briefing, scenario, and debriefing domains (<0.001). Conclusions: SBL is a valuable teaching strategy that enhances nursing students’ self-awareness, self-confidence, clinical performance, and efficiency in performing procedures with considerable gender variation. Female students had more positive perceptions toward simulation effectiveness.

1. Introduction

Simulation-based learning (SBL) in nursing education is an innovative pedagogical approach that has significantly improved nursing education. Adopting SBL provides a controlled environment for meeting educational objectives without the risk of harm to real patients. Given that social distancing is required during the coronavirus disease (COVID-19) pandemic, SBL is a suitable alternative to clinical training for nursing students to learn and acquire the required clinical competencies. SBL in nursing education is an innovative pedagogical approach that has significantly improved nursing education. SBL is defined as “practicing realistic scenarios using a specialized manikin, computer software, or humans playing the role as the patient” [1]. Adopting SBL not only helps nursing students to mimic the real clinical experience, without exposing patients to any harm [2,3], but also helps students to develop knowledge, skills, and attitudes, with a sense of security for patients and for students [4] There is an increased reliance on the use of simulation due to limitations in clinical sites for student training, the lack of nursing instructors and faculty, and also due to the improved quality of nursing training provided through SBL [5]. Simulation helps in creating an environment that resembles the real environment in hospitals and supports students to gain nursing experiences, apply nursing skills, handle difficulties and concerns, and even make mistakes without causing any harm for patients, all in a safe environment [6,7].
SBL has become a trend in contemporary nursing education since it provides real clinical experience to students. The literature revealed different widespread implementation of simulation within the curriculum; in some programs simulation is used as part of clinical time using case scenarios, while other programs used simulation as a substitute for clinical training [8,9,10]. In Saudi Arabia, SBL is integrated in nursing programs at different levels, using low to high fidelity manikins, whether as a substitute or complementary to clinical training [10,11]. Numerous education programs apply SBL as a realistic and affordable teaching method to meet learning objectives [8,9,10,11,12,13]. Adopting SBL provides a controlled environment for meeting educational objectives without the risk of harm to real patients [14].

1.1. Objectives of the Study

In Saudi Arabia, there have only been a few single-center related studies. The majority of nursing simulation studies in Saudi Arabia focus on student satisfaction and self-confidence in simulation learning [15] and assessing simulation-based instructions to traditional teaching [16]. Therefore, this study aimed to describe the effectiveness of SBL as a complete substitute for clinical experience from the perspective of students. Moreover, this study aimed to explore the association between SBL effectiveness and students’ demographic characteristics.

1.2. Literature Review

Adopting SBL as a teaching modality has been recommended and supported by numerous nursing educational institutes, such as the National Council of State Boards of Nursing, which advocated for using simulation as a substitute for clinical training in all nursing courses [17]. Further, the gold standards for professional nursing education recommend using simulations in nursing education [18]. According to the NCSBN report, high-quality simulation practices will substitute for up to 50% of real clinical training in nursing programs [19,20].
Simulation allows nursing students to practice theory by connecting what they have learned in class to what they encounter in the hospital environment [21]. It has been shown that using simulation in nursing courses helps in achieving expected learning objectives [12], improving acquired knowledge [22] and enhancing learning satisfaction [23].
Many studies have evaluated the effectiveness of SBL in nursing education and found positive educational effects [24,25]. A meta-analysis study revealed that a medium-to-large effect size (0.70) suggested the effectiveness of adopting SBL in nursing education [25]. These findings were similar to the findings of a study conducted on health professional education that reported that simulation training had moderate to large effects [26]. Further, a longitudinal, randomized, and controlled study on the effectiveness of using SBL as a substitute for clinical training revealed that replacing clinical hours with simulation provided nursing students with relevant and rich clinical experiences [27]. A meta-analysis suggested that SBL has a strong educational impact, especially in terms of the technical skills and how students perform skills in simulation sessions [25]. SBL provides the opportunity to practice skills in a safe and nonthreatening environment that facilitates skills acquisition [28]. A quasi-experimental study on the clinical competence of nursing students in safe medication administration practices revealed that students who received simulation training on medication safety had significantly better performance than those who did not receive it [29]. Some studies evaluated the effectiveness of specific aspects of simulation, such as debriefing. As a core component of SBL, debriefing helps learners to meet the objectives and learning needs [30]. A systematic review reported that debriefing was the most significant effective factor achieved in simulation [31].
In addition to acquiring knowledge and skills, much research discusses the benefits of integrated SBL in nursing education [2,4,28,32,33]. Evans and coauthors reported a significant positive impact of SBL on students’ decision-making, teamwork, communication, confidence, and clinical experience [28,34]. Gore et al. (2011) showed that students with preclinical simulation experience before human patient contact had significantly lower anxiety scores than the controls [6]. Similarly, Karadag and coauthors reported that SBL reduced anxiety levels [35]. Other studies highlighted the role of SBL in promoting the critical thinking of students [32,33].
Worldwide, the COVID-19 pandemic has caused an educational sector crisis, with the health education program—where clinical training features prominently in teaching strategies—being among the most affected. Numerous health educational colleges and programs have replaced real clinical training with SBL to sustain and support the vital role of the profession in terms of both education and practice. [36,37]. The use of SBL in the nursing education program is not uncommon; moreover, it has been considered as an alternative for filling the gaps in skills teaching strategy. Given that social distancing is required during the coronavirus diseases (COVID-19) pandemic, SBL is a suitable alternative to the clinical training of nursing students to learn and acquire the required clinical competencies. Therefore, there is a need to maintain a positive perception of SBL among students to maximize advantages. Students’ positive perceptions are essential for successful SBL. Several studies have reported a high satisfaction level with SBL [38]. Contrastingly, another qualitative study reported that students were unsatisfied and had a negative perception of their experience with SBL [39]. Therefore, it is essential to develop research data about students’ perceptions of SBL.

2. Materials and Methods

2.1. Research Design

This cross-sectional descriptive survey investigated students’ perceptions regarding the effectiveness of SBL.

2.2. Setting

This study was conducted in four nursing colleges at four different universities across the Kingdom of Saudi Arabia. The first setting, the Faculty of Nursing at King Abdulaziz University, has one bachelor program for female students only. The second setting is the King Saud Bin Abdulaziz for Health Sciences, which has one bachelor program for male and female students with on average, 400 students graduating yearly. The third setting is the Faculty of Nursing at Um AlQura University, which has one bachelor program for male and female students and has an average of 150 graduates every year. The fourth setting is the College of Nursing at King Saud University, which has one bachelor program for male and female students, with an average of 300 graduates yearly.

2.3. Study Sampling and Sample Size

The study included nursing students involved in SBL who attended simulation sessions. We applied convenience sampling by sending invitation emails of electronic self-report questionnaires to 375 students who receiving SBL. The sample size was calculated through power analysis using a confidence interval of 95% and an alpha of 0.05. The estimated target sample size was 197 students.

2.4. Tools for Data Collection

We used the Modified Simulation Effectiveness Tool (SET-M), which is a 19-item tool developed in 2005, that includes the following three subscales with acceptable internal consistency: a 2-item pre-briefing subscale (α = 0.833), a 12-item scenario subscale (α = 0.913), and a 5-item debriefing subscale (α = 0.908). The SET-M was used for nursing students as a valid and reliable tool with overall internal consistency (α = 0.936) [40]. A higher score of the tool reflects students’ favorable perceptions of the simulation.

2.5. Ethical Considerations

Approvals from the Institutional Review Boards were obtained from the study sites (IRBC/0283/21) on 14 February 2021. Participation in this study was voluntary and informed consent was obtained from participants. All participates were informed that their participation will not affect their academic performance. No identification information was obtained from participants.

2.6. Data Analysis

Statistical analyses were performed using Statistical Package for Social Sciences software package (SPSS Inc., Chicago, IL, USA) version 27. Descriptive statistics were implemented for demographic characteristics and perceptions of nursing students on experience variables of SBL effectiveness. Categorical variables are expressed as a number and percentage. Continuous variables are expressed as the range, mean, and standard deviation. The chi-square test was used to determine significant differences regarding the agreement level between categories of demographic characteristics. Analysis of variance and a t-test were used to determine the association of the demographic characteristics and nursing students’ perceptions regarding the SBL experience. Statistical significance was set at p ≤ 0.05.

3. Results

This study included 375 nursing students, the majority of whom were female (82%). The participants’ ages ranged between 19 and 26 years old (22 ± 1.22), and the average mean of students’ GPA was 82.234 ± 11.159%. Approximately two-thirds of the participants were in their third (30.4%) and fourth (44.5%) academic years. The highest student participation was from Site 1 (39.5%) and Site 2 (32.5%) (Table 1).
Moreover, this study used the SET-M tool, which has three major subscales: the pre-briefing subscale (2-item), scenario subscale (12-item), and debriefing subscale (3-item). The analysis showed that there were significant differences in pre-briefing, scenario, and debriefing items among participants (Table 2). In the pre-briefing items, over half of the participants strongly agreed that the pre-briefing increased their confidence (p < 0.001, 55%) and benefited their learning experience (p < 0.001, 65%). In the scenario items, there were significant results in all 12 items of the subscale (p < 0.001). More than half of the students strongly agreed that the scenario prepared them to better respond to changes in patient condition (p < 0.001, 53%) and increased their confidence in their nursing assessment skills (p < 0.001, 52%), in prioritizing skills (p, 0.001, 55%), in communicating skills with patients (p, 0.001, 58%), in reporting information to the healthcare team (p, 0.001, 53%), and in providing interventions that foster patient safety (p < 0.001, 52%) (Table 2). Similarly, there were significant results in all debriefing subscale items among students (p < 0.001). Over half strongly agreed that the debriefing section of the simulation has contributed to their learning experience (p < 0.001, 52%) and allowed them to verbalize their feelings before focusing on the scenario (p < 0.001, 53%). Finally, the students strongly agreed that debriefing of the simulation helped them improve their clinical judgement (p < 0.001, 58%) and provided them opportunities to self-reflect on their performance during the simulation (p < 0.001, 56%) (Table 2).
Furthermore, the overall levels of agreement for the pre-briefing, scenario, and debriefing domains were 67.7%, 55.5%, and 53.3%, respectively (Table 3). There was a high overall level of agreement (52.5%). Also, there was a significant difference in relation to the level of agreement for the pre-briefing, scenario, and debriefing domains (Table 2, Table 3 and Table 4) (p < 0.001).
This study also tested the difference between the tool subdomain scores and demographic data, which were age, gender, GPA, academic years, and university site (Table 4). In the pre-briefing subdomain, it was found that there was a significant difference in response among students’ genders (p < 0.001) and university sites (p < 0.001). Female participants reported a higher mean (3.33 ± 0.907) than their male counterparts in the total subscore for pre-briefing. Similarly, there were significant differences between the scenarios’ total subscore and genders and university sites (p < 0.001). Female students reported a higher scenario subscore (19.24 ± 5.17) than male students (12.64 ± 4.74). University Site 1 showed the highest scenario subscore (19.85 ± 4.19) among other sites. Also, the study showed a significant difference between genders and university sites in the debriefing total subscore (p < 0.001). Female participants reported higher debriefing subscores than male students (7.85 ± 2.32, 6 ± 1.93, respectively). In addition, University Site 1 (8.52 ± 1.92) showed the highest debriefing subscore of all sites. Lastly, gender and university sites showed significant differences among participants in the total SET-M tool score. Female students (29.42 ± 7.74) showed a higher total score in the tool than their male counterparts (21.06 ± 6.78). Also, University Site 1 showed the highest total score of all sites participating in this study.
Finally, this study tested the relationship between subscores and the total score of the SET-M tool and two variables—age and GPA. There was a significant relationship between the debriefing subscore and student GPA (p = 0.022) (Table 5).

4. Discussion

Medical and nursing training in the modern era are multimodular; moreover, SBL could be crucially involved in refining training standards [41,42]. More than half of the students had a favorable perception regarding SBL, which indicated a bright prospect regarding its acceptance if implemented into the training module. In our study, there were higher agreement levels among women and Site 1 students. Additionally, we found a global positive and the greatest perception regarding SBL in all domains, which significantly differed according to sex and university. Specifically, there was a significantly higher favorable perception toward SBL among women and Site 1 students. Consistently, Albagawi and colleagues (2021) have found significantly more favorable outcomes—such as student satisfaction and self-confidence—of simulation-based learning among female students than male students [15]. In contrast, a previous study in Saudi Arabia by Mohamed and Fashafsheh (2019) found that male students have significantly more favorable perceptions of simulation-based training in terms of their clinical competencies. Thus, further research is needed to explore how perceptions of SBL may differ based on gender [43].
Most participants agreed that pre-briefing improved their learning and self-confidence. Furthermore, we found that students considered debriefing as beneficial to their learning, as it allows them to verbalize their feelings, improve clinical judgment, improve self-reflection, and build a constructive evaluation. Our findings are consistent with those of the study conducted by Saied, who reported that human simulation is an effective teaching and learning modality for pediatric nursing students. This study could facilitate the elucidation of how SBL may affect students’ knowledge, self-efficacy, and confidence [44].
Our findings are consistent with those of Presado and Alamrani [16,45] who reported that SBL with high fidelity is essential for nurse training, which reinforces the existing pedagogical practice in the studied context. Our participants considered that SBL could facilitate the development of competencies; moreover, our findings demonstrated that the different scenario subdomains contributed to the competencies in different domains. The scenario domain involves professional, ethical, and legal responsibility, as well as the provision and management of care. Haukedal and coauthors assessed the impact of new pedagogical interventions with respect to knowledge acquisition in SBL among nursing students and concluded that SBL improved knowledge levels regarding the disease and pathophysiology [46].
Our findings suggest that it may be easier to acquire knowledge regarding symptoms and actions through visualization, i.e., by managing the actual symptoms of deteriorating patients, watching themselves on videos, or experiencing specific scenarios. Sarfati and coauthors reported that properly regulated simulation could facilitate the training of staff for both exceptional and standard events [47]. By integrating human factors, a well-designed simulation program can effectively prevent iatrogenic risk related to medication errors. Lee and Park assessed SBL from a different perspective and investigated differences in the perception of SBL between nursing students and instructors [48]. Consistent with our findings, they reported that students prioritized learning outcomes and that SBL improved nursing skills. Additionally, consistent with our findings, El-Gebaly and coauthors focused on the effect of a reflective debriefing strategy on nursing education and reported that a reflective debriefing strategy had a positive influence on the clinical performance and efficacy, observation, evaluation, critical thinking skills, awareness, and thought processes of nursing students [49].
We found that the simulation effectiveness tool significantly varied according to demographic characteristics. Compared with male students, female students reported significantly higher simulation effectiveness tool scores. Furthermore, there were significant between-site differences in simulation effectiveness scores; moreover, there was a significant positive correlation of GPA with the debriefing domain. To our knowledge, there have been very limited previous studies on the differences in students’ perceptions of simulation effectiveness based on their demographic characteristics. However, there have been other studies on the relevant outcomes of simulation, including students’ performance, self-confidence, and managing deteriorating patients, with inconsistent previous findings. For example, students with more years of experience had better scores in managing deteriorating patients [50]; additionally, self-confidence negatively correlated with age [51]. Nevertheless, there was no significant relationship of students’ satisfaction of SBL with students’ demographic characteristics [51]. Therefore, our findings warrant further studies on the role of sex and university sites in students’ perceptions of simulation effectiveness, with comparable sample sizes of female and male participants and study sites.

5. Conclusions

SBL is a valuable teaching strategy that can enhances nursing students’ learning outcomes. Moreover, SBL can help students to develop their evaluation, critical thinking, observation, and communication skills. Additionally, it allowed students to independently master the procedure and identify their own learning needs. In this study, students provided positive feedback regarding all of the SBL domains (pre-briefing, scenario, and debriefing).
Several recommendations for research and practice emanated from this study. There is a need for further research on how students’ perceptions of simulation effectiveness vary; this can be analyzed using studies with comparable sample sizes. Future studies may include the characteristics of the study sites with respect to simulation preparedness (simulation fidelity, dose/integration into learning, scenario preparation toward course learning outcomes, and the number of faculties prepared to use simulation learning). Additionally, future studies may employ advanced statistical approaches with adjustment for differences and complexities of contributing factors—including universities, faculties, and student characteristics—as well as the possible interactions between these factors.
Nursing schools may consider evaluating the integration of SBL into their curriculums to foster students’ learning. This integration could involve ensuring that their faculty have adequate training in using equipment and manikins, designing learning scenarios, and evaluating the accomplishment of course outcomes through SBL. SBL integration should be aligned with training at clinical sites where it can help students provide safe and effective nursing care. Additionally, comprehensively evaluating the overall practical experience at simulation laboratories and clinical sites can facilitate alignment between these two training components and help students to excel in their learning journey in prelicensure programs.

Author Contributions

Conceptualization, F.A., M.M.A., M.A. and S.A.; methodology, F.A., F.S. and A.W.M.; software, F.S., F.A. and A.W.M.; validation, F.A., M.A. and S.A.; formal analysis, F.S., F.A. and A.W.M.; investigation., M.M.A., M.A. and S.A.; data curation F.A., A.W.M. and F.A.; writing—original draft preparation, F.A., M.M.A., F.S. and S.A.; writing—review and editing, F.A., M.M.A., M.A. and S.A.; supervision, F.A., M.M.A., M.A. and S.A.; project administration, F.A. All authors have read and agreed to the published version of the manuscript.

Funding

The study was funded by King Abdullah International Medical Research Center (KAIMRC), Riyadh 11481, Saudi Arabia.

Institutional Review Board Statement

The study was approved by King Abdullah International Medical Research Center (KAIMRC), Riyadh 11481, Saudi Arabia Institutional Review Boards were obtained (IRBC/0283/21) on 14 February 2021.

Informed Consent Statement

Informed consent was obtained from all subjects involved in the study.

Conflicts of Interest

The authors declare no conflict of interest.

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Table 1. The frequency and percentage regarding demographic data (Gender, Age, GPA, Academic year, University) in study group (n = 375).
Table 1. The frequency and percentage regarding demographic data (Gender, Age, GPA, Academic year, University) in study group (n = 375).
Demographic DataN%
GenderFemale30882.1
Male6717.9
AgeRange19–26
Mean ± SD21.697 ± 1.215
GPA%Range54.6–98.8
Mean ± SD82.234 ± 11.159
Academic yearSecond4812.8
Third year11430.4
Fourth year16744.5
Graduated4612.3
UniversitySite 114839.5
Site 212232.5
Site 36316.8
Site 44211.2
Table 2. The frequencies and percentages of agreement for the points of the domains (n = 375).
Table 2. The frequencies and percentages of agreement for the points of the domains (n = 375).
Do Not AgreeSomewhat AgreeStrongly AgreeChi-Square
N%N%N%X2p-Value
Pre-briefing1Pre-briefing increased my confidence71.916142.920755.2175.6<0.001 *
2Pre-briefing was beneficial to my learning51.312633.624465.1228.5<0.001 *
Scenario1I am better prepared to respond to changes in my patient’s condition379.913937.119953.1107.3<0.001 *
2I developed a better understanding of the pathophysiology297.716042.718649.6113.3<0.001 *
3I am more confident of my nursing assessment skills195.116042.719652.3140.0<0.001 *
4I felt empowered to make clinical decisions246.418248.516945.1123.1<0.001 *
5I developed a better understanding of medications. (Leave blank if no medications in scenario)5113.616945.115541.366.5<0.001 *
6I had the opportunity to practice my clinical decision making skills328.515842.118549.3106.7<0.001*
7I am more confident in my ability to prioritize care and interventions154.015441.120654.9156.0<0.001 *
8I am more confident in communicating with my patients277.212934.421958.4147.6<0.001 *
9I am more confident in my ability to teach patients about their illness and interventions246.413335.521858.1151.3<0.001 *
10I am more confident in my ability to report information to health care team297.714638.920053.3122.3<0.001 *
11I am more confident in providing interventions that foster patient safety154.016544.019552.0148.8<0.001 *
12I am more confident in using evidence-based practice to provide nursing care246.418950.416243.2125.3<0.001 *
Debriefing1Debriefing contributed to my learning102.717045.319552.0161.2<0.001 *
2Debriefing allowed me to verbalize my feelings before focusing on the scenario184.815541.320253.9146.2<0.001 *
3Debriefing was valuable in helping me improve my clinical judgment112.914839.521657.6174.4<0.001 *
4Debriefing provided opportunities to self-reflect on my performance during simulation102.715541.321056.0170.8<0.001 *
5Debriefing was a constructive evaluation of the simulation164.317346.118649.6143.3<0.001 *
* Significant result (two tailed, p-value < 0.05).
Table 3. Distribution of the level of all domains in study group (n = 375).
Table 3. Distribution of the level of all domains in study group (n = 375).
WeakAverageHighOverall Score
N%N%N%RangeMean ± SD
Pre-briefing102.711129.625467.70–43.171 ± 0.963
Scenario6417.110327.520855.51–24.17.237 ± 5.523
Debriefing205.315541.320053.30–10.7.517 ± 2.360
Total5414.412433.119752.51–38.27.925 ± 8.217
Table 4. The relation between domains and demographic data (Age, Gender, GPA, Academic year, University) study group (n = 375).
Table 4. The relation between domains and demographic data (Age, Gender, GPA, Academic year, University) study group (n = 375).
DomainDemographic DataNMean±SDF or TANOVA or T-Test
Test Valuep-Value
Pre-briefingGenderFemale3083.334±0.907t7.570<0.001 *
Male672.418±0.855
Academic yearSecond483.042±0.988f2.4940.060
Third year1143.009±0.917
Fourth year1673.269±0.978
Graduated463.348±0.948
UniversitySite 11483.500±0.787f30.296<0.001 *
Site 21223.352±0.899
Site 3632.540±0.981
Site 4422.429±0.859
ScenarioGenderFemale30818.237±5.169t8.145<0.001 *
Male6712.642±4.741
Academic yearSecond4816.375±5.782f0.9130.434
Third year11416.877±5.383
Fourth year16717.665±5.366
Graduated4617.478±6.145
UniversitySite 114819.581±4.188f38.418<0.001 *
Site 212217.943±5.197
Site 36313.651±5.737
Site 44212.310±4.464
DebriefingGenderFemale3087.847±2.317t6.079<0.001 *
Male676.000±1.938
Academic yearSecond487.417±2.181f0.8920.445
Third year1147.465±2.219
Fourth year1677.701±2.291
Graduated467.087±3.046
UniversitySite 11488.520±1.915f25.023<0.001 *
Site 21227.451±2.559
Site 3636.476±2.109
Site 4425.738±1.754
TotalGenderFemale30829.419±7.737t8.185<0.001 *
Male6721.060±6.778
Academic yearSecond4826.833±8.311f0.8820.450
Third year11427.351±8.044
Fourth year16728.635±7.935
Graduated4627.913±9.503
UniversitySite 114831.601±6.122f39.853<0.001 *
Site 212228.746±8.022
Site 36322.667±8.289
Site 44220.476±6.134
* Significant result (two tailed, p-value < 0.05)
Table 5. The correlation between Age, GPA% and all Domains (n = 375).
Table 5. The correlation between Age, GPA% and all Domains (n = 375).
AgeGPA%
Rp-ValueRp-Value
Pre-briefing0.0960.076−0.0450.437
Scenario0.0460.3950.0250.662
Debriefing−0.0480.3780.1330.022
Total0.0280.6010.0520.375
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Alshutwi, S.; Alsharif, F.; Shibily, F.; Wedad M., A.; Almotairy, M.M.; Algabbashi, M. Maintaining Clinical Training Continuity during COVID-19 Pandemic: Nursing Students’ Perceptions about Simulation-Based Learning. Int. J. Environ. Res. Public Health 2022, 19, 2180. https://doi.org/10.3390/ijerph19042180

AMA Style

Alshutwi S, Alsharif F, Shibily F, Wedad M. A, Almotairy MM, Algabbashi M. Maintaining Clinical Training Continuity during COVID-19 Pandemic: Nursing Students’ Perceptions about Simulation-Based Learning. International Journal of Environmental Research and Public Health. 2022; 19(4):2180. https://doi.org/10.3390/ijerph19042180

Chicago/Turabian Style

Alshutwi, Sitah, Fatmah Alsharif, Faygah Shibily, Almutairi Wedad M., Monir M. Almotairy, and Maram Algabbashi. 2022. "Maintaining Clinical Training Continuity during COVID-19 Pandemic: Nursing Students’ Perceptions about Simulation-Based Learning" International Journal of Environmental Research and Public Health 19, no. 4: 2180. https://doi.org/10.3390/ijerph19042180

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