Analysing the examination results to measure the effectiveness of online vs. physical teaching during the COVID-19 pandemic among undergraduates in Sri Lanka

Submitted: 5 March 2023
Accepted: 2 August 2023
Published online: 2 January, TAPS 2024, 9(1), 49-53
https://doi.org/10.29060/TAPS.2024-9-1/SC3016

Thamudi D Sundarapperuma1, Eranthi Weeratunga1, Prabhavi Wijesiriwardhana2, Eranga Silva2, Shanika Karunanayaka3, & Kithmini Yasarathne3

1Department of Nursing, Faculty of Allied Health Sciences, University of Ruhuna, Sri Lanka; 2Department of Medical Laboratory Science, Faculty of Allied Health Sciences, University of Ruhuna, Sri Lanka; 3Department of Pharmacy, Faculty of Allied Health Sciences, University of Ruhuna, Sri Lanka

Abstract

Introduction: Several nations around the world had to close schools, colleges, universities, and other educational institutions as they were badly affected by the spread of COVID-19. The purpose of this study was to measure the effectiveness of online vs physical teaching during the COVID-19 pandemic, at the Faculty of Allied Health Sciences (FAHS), University of Ruhuna (UoR) Sri Lanka.

Method: A cross-sectional study was conducted among 200 undergraduates. The data were collected through displayed/approved results sheets of the students of selected batches in the Department of Nursing, Department of Pharmacy, and Medical Laboratory Science (MLS). Paired sample T-test was used to compare the results of undergraduates.

Results: The examination results of 47-54 undergraduates in nursing, 28 in pharmacy, and 22 in MLS were analysed. Significant differences in Psychiatry in Nursing and Nursing Clinical Attachment were identified in the Department of Nursing (p=0.001). In the Department of Pharmacy, only Pharmaceutical Chemistry I (p=0.012) reported a significant difference. The undergraduates of MLS who underwent online theory sessions had scored more in Microbiology and Immunology (p=0.022) and Basic Genetics and Molecular Biology (p=0.000) whereas in Research Methodology and Epidemiology, the undergraduates who participated in physical lectures had scored more marks (p=0.001).

Conclusion: Practical/interactive session-based course units and clinical appointments had a higher impact on the mode of teaching than many theoretical course units. The results might serve as a primer for the creation of an action plan to support the academics and clinical/practical components of undergraduates.

Keywords:           Undergraduates, Online Teaching, Physical Teaching, Examination Results, COVID-19

I. INTRODUCTION

The provisional closure of educational institutions during the coronavirus disease-19 (COVID-19) pandemic has unexpectedly transformed the Sri Lankan education landscape in favour of distance learning or online learning. As a result of this, drastic changes in digital platforms and applications i.e., digital learning management systems became common among universities (Ariyananda et al., 2022). These universities used existing modular object-oriented dynamic learning environment-based learning management systems (Moodle) and the Lanka Education and Research Network (LEARN) was connected to university web servers and used for online education to mitigate the effects of disrupted learning (Hayashi et al., 2020).

Online teaching was a novel experience for university lecturers and undergraduates, and it was a huge challenge for both parties. In the beginning, both parties had to face several issues due to the unfamiliarity of these novel methods, the unavailability of basic facilities, and insufficient network coverage in Sri Lanka. Though it would be an effective alternative to conduct Zoom lectures again as physical lectures once the university reopened, we were unable to conduct lectures due to limited time during the semester. Therefore, the need emerged to identify a more effective mode to deliver lectures to undergraduates. This study aims to address the effectiveness of online vs. physical teaching during the COVID-19 pandemic, by analysing the examination results at the Faculty of Allied Health Sciences (FAHS), University of Ruhuna (UoR).

II. METHODS

A cross-sectional study was conducted to measure the effectiveness of online teaching vs. traditional/physical teaching and its impact on the performance of undergraduates. The data were collected through displayed/approved results sheets of the students of selected batches in the Department of Nursing, Pharmacy, MLS, FAHS, UoR. Nursing, though considered as a separate discipline from other para-medical disciplines in other countries, is considered under the Faculties of Allied Health Science in Sri Lanka.  The examination results of two batches of undergraduates in a similar semester but who had learned in a different mode (in this group one batch has completely learned online while another batch has learned physically) were purposefully selected from each department. All lectures done via Zoom were recorded and distributed among students. Both groups underwent the same types of examination, mainly multiple-choice questions (MCQs) and short structured questions (SEQ) for theoretical knowledge. Practical and clinical skills were assessed using practical-based examination and patient-based clinical examination respectively. These examinations had been conducted in 2021 and 2022 and results were released in 2022. The analysis of results was conducted in January and February 2023.

Data from approximately 208 proper undergraduates (who sat for the first time) were analysed. The population was composed of nursing (n=108), pharmacy (n=56), and MLS (n=44) students. However, the results of repeat undergraduates were excluded. Six subjects were considered under the Department of Nursing. The number of candidates for the subjects was not equal. To analyse the effectiveness, a comparative analysis of the results of the end-semester examinations was performed by three departments separately. Mainly, in the Department of Nursing and Pharmacy the end semester examination results (two examinations/academic year) were evaluated while in the Department of MLS, the final term results were evaluated (three examinations /academic year).

Statistical Package for Social Science (SPSS) 26 software was used to analyse data. The mean and standard deviation (SD) values of the results sheets were analysed using descriptive statistics. After considering the distribution of the data set, paired sample T-test was used to compare the means of two batches. All results were regarded as statically significant at p < 0.05.

Ethical approval was obtained to analyse the published data from the Ethics Review Committee, Faculty of Allied Health Sciences, University of Ruhuna, Sri Lanka (Ref. no. 200.01.2023). Consent was obtained from all relevant authorities before taking results from the notice board.

III. RESULTS

Two batches were selected in the nursing department and each batch consisted of 54 undergraduates.  An equal number of candidates had not participated in every subject and therefore results were analysed based on students’ attendance for the different subjects.  Under the nursing department, there were six subjects for students. Four subjects out of these six subjects consisted only of theory components. One subject had both theory and clinical components and the other subject had only clinical-based examination.

All the subjects had only a theory component in the selected semester in the pharmacy department. Under the department of MLS, all subjects consisted of theory and practical components.

Course units

Component (Theory/ practical/clinical)

Physical mode

Virtual mode

p-value

 

 

n

Mean value

+SD

n

Mean value

+SD

 

Nursing (2nd year 1st semester results)

2016/2017 batch

2017/2018 batch

Pharmacology in Nursing

T

50

55.9

15.9

50

60.16

19.14

0.24

Medical Nursing 1

T

50

54.9

7.8

50

68.09

15.6

0.053

Surgical Nursing 1

T

47

57.83

8.47

47

57.61

10.08

0.914

Psychiatry in Nursing

T+C

51

59.53

7.38

51

66.03

10.69

0.001*

Psychology in Nursing

T

54

67.41

12.88

54

62.51

14.5

0.071

Nursing Clinical Attachment III

C

47

71.85

9.79

47

66.03

10.69

0.001*

Pharmacy (1st year 1st semester results)

2017/2018 batch

 

The 2019/2020 batch

Pharmaceutical Chemistry I

T

28

66.14

10.49

28

69.62

12.11

0.012*

Pharmaceutics IA

T

28

76.96

9.43

28

76.56

14.50

0.412

Mathematics

T

28

66.25

19.09

28

62.10

16.10

0.230

MLS (2nd year-end examination results)

2016/2017 batch

2017/2018 batch

Microbiology and Immunology

T+P

22

68.11

4.86

22

72.69

7.94

0.022*

Statistics, Research Methodology & Epidemiology

T+P

22

62.01

5.28

22

57.09

5.14

0.001*

Haematology

T+P

22

57.22

3.58

22

60.42

4.98

0.058

Medical Parasitology

T+P

22

68.26

6.14

22

70.53

5.41

0.185

Basic Genetics, Molecular Genetics & Molecular Biology

T+P

22

61.32

5.98

22

70.31

5.68

0.000*

Transfusion Medicine

T+P

22

66.68

6.84

22

69.87

6.20

0.163

Table 1. Comparison of results among undergraduates

*Paired sample T-test p < 0.05; T-theory, P-practical, C-clinical

IV. DISCUSSION

Online teaching was a big challenge to Sri Lankan undergraduates and teachers due to inadequate internet and infrastructural facilities for online teaching at the beginning of the COVID-19 pandemic. There was no other substitution except to conduct lectures online to provide continuous education during the lockdown. Therefore, this study was carried out to analyse the effectiveness of online teaching and student performances in selected batches of the FAHS, University of Ruhuna, Sri Lanka.

The mean value of the students’ marks for the several theoretical subjects was comparable in both groups. These findings show that the undergraduates in all three courses have appropriately adhered to the online method, and it may probably show the adherence of the lecturers to the technology. Indeed, free access to the LEARN platform may provide a huge impact on the results and the high information literacy of the undergraduates and lecturers may be the reason for it (Sample survey division, 2021). Though poor internet facilities disturbed and demotivated the undergraduates, the opportunity to listen to video recordings repeatedly may have mitigated the effect of this barrier. The reasons for the higher marks scored by the students who learned via Zoom than physical mode might be the favourable environment that prevailed by listening to lectures at their homes; fewer travel costs and time; the opportunity to have a better conversation with lecturers; having more time for self-learning/studying; and minimum disturbances from colleagues.

However, the mean value for the practical and clinical subjects was significantly low among the online group compared to the physical group. The clinical component is an essential part of the nursing undergraduate since it is vital to have adequate clinical exposure to gain competence to work in a real patient situation. Mainly, students learn how to handle patients with various disease conditions during their clinical practices. Furthermore, undergraduates can apply their theoretical knowledge in a real patient environment (e.g. evidenced-based practice); understand real patient matters; get technical and caring skills through interaction with patients and healthcare workers; and develop empathetic attitudes. Undergraduates did not get an opportunity to continue their clinical attachments as done previously due to the COVID-19 outbreak in Sri Lanka. During their clinical placements, they had to face several internal (fear, anxiety, etc.) and external (maintaining distance, lockdowns, close contacts, PPEs, etc.) constraints. It may be the reason for the lower performance.

However, another study conducted with final-year medical students found that some part of clinical exposure can be gained by providing online interactive learning materials (Ariyananda et al., 2022). Simulations are the recommended method for students to develop their clinical skills (Koukourikos et al., 2021) but these methods are not very popular in Sri Lanka due to the high cost of such kind of manikin. Likewise, practical subjects are essential to have a factual environment to get adequate training and robust hands-on skills. Nursing procedures/practical was not conducted due to the closure of the university and the limitations of close contact. This may also reduce the practical skills of nursing undergraduates. Under the pharmacy department, a significant difference was observed for the subject of Pharmaceutical Chemistry 1, which contains a lot of physical interactive parts. In the Zoom platform, it was difficult to conduct that much of interactive sessions with limited resources. That might be the reason for the difference. However, MLS and pharmacy departments have provided recorded practical sessions which may be the reason for the different results among departments.

In the study conducted in one faculty of the University of Ruhuna, a low number of participants were limitations of the study. A mixed-method study approach with a larger sample was recommended and further recommendations were made to assess the experience of undergraduates and lecturers.

V. CONCLUSION

Mode of teaching had not impacted the theoretical course units of undergraduates whereas practical/interactive session-based course units and clinical appointments had a greater impact on the mode of teaching. The findings can act as a primer for the development of an action plan to support university undergraduates’ academic and clinical works during pandemics. Further, the findings of this study would be helpful in robust the quality of online teaching methods in future pandemics.

Note on Contributors

TDS and EW contributed to the data analysis, manuscript drafting, and final editing of the revised manuscript. PW and SK contributed to the data analysis and manuscript drafting. ES and KY contributed to the data analysis. All authors read and approved the final revised manuscript.

Ethical Approval

Ethical approval was obtained from the Ethics Review Committee, Faculty of Allied Health Sciences, University of Ruhuna, Galle, Sri Lanka (Ref. no. 200.01.2023). Permission was obtained from the Dean/Faculty of Allied Health Sciences, University of Ruhuna, Assistant registrar/Faculty of Allied Health Sciences, University of Ruhuna, and Heads of the Department of Nursing, Department of Medical Laboratory Science, and Department of Pharmacy/Faculty of Allied Health Sciences, University of Ruhuna.

Data Availability

Data sets analysed during the current study would be available from the corresponding author upon reasonable request.

Acknowledgement

The authors are grateful to the Dean, Assistant Registrar, and the three Heads of the departments mentioned above for granting permission. Further, Ms. Chithra Ranasinghe, a Former WHO consultant is acknowledged for her contribution to language editing.

Funding

The authors received no funding for this study.

Declaration of Interest

The authors declare that they have no competing interests.

References

Ariyananda, P. L., Chin, J. H., Raman, R. K., Athif, A. L., Tan, Y. Y., & Hafiz, M. (2022). Online learning during the COVID pandemic lockdown: A cross sectional study among medical students. The Asia Pacific Scholar7(3), 46-50. https://doi.org/10.29060/taps.2022-7-3/sc2715

Hayashi, R., Garcia, M., Maddawin, A., & Hewagamage, K. P. (2020). Online Learning in Sri Lanka’s Higher Education Institutions during the COVID-19 Pandemic. Asian Development Bankhttps://doi.org/10.22617/brf200260-2

Koukourikos, K., Tsaloglidou, A., Kourkouta, L., Papathanasiou, I. V., Iliadis, C., Fratzana, A., & Panagiotou, A. (2021). Simulation in clinical nursing education. Acta Informatica Medica29(1), 15-20. https://doi.org/10.5455/aim.2021.29.15-20

Sample Survey Division. (2021). Computer Literacy Statistics 2021 Annual Bulletin. Department of Census and Statistics. http://www.statistics.gov.lk/Resource/en/ComputerLiteracy/Bulletins/AnnualBuletinComputerLiteracy-2021.pdf

*Thamudi Sundarapperuma
Department of Nursing,
Faculty of Allied Health Sciences,
University of Ruhuna,
Galle, 80 000, Sri Lanka
+94 71 31 86 524
Email: chamudi2006@yahoo.com,
thamudids@ahs.ruh.ac.lk

Submitted: 24 January 2023
Accepted: 2 August 2023
Published online: 2 January, TAPS 2024, 9(1), 42-48
https://doi.org/10.29060/TAPS.2024-9-1/SC2997

Rahizan Zainuldin1 & Heidi Siew Khoon Tan1,2

1Health and Social Sciences Cluster, Singapore Institute of Technology, Singapore; 2Pre-Professional Education Office, Tan Tock Seng Hospital, Singapore

Abstract

Introduction: Singapore Institute of Technology’s undergraduate (UG) occupational therapy (OT) and physiotherapy (PT) programs are one of the first implementors of Entrustable Professional Activities (EPAs) in the respective allied health professions training. The aim of the paper is to report the outcomes of the first year of EPAs implementation in clinical practice education (CPE) and share next steps refining implementation.

Methods: A quality improvement (QI) study using the Plan-Do-Check-Act (PDCA) cycle was conducted. UG OT Year 2 and Year 3 students, UG PT Year 3 students and their clinical educators (CEs) who experienced the use of EPAs for the first time were surveyed at the end of the clinical block.

Results: There was generally high agreement (>70% agreed or strongly agreed) among all groups in using EPAs to better understand the learning objectives of CPE and practice expectations as future entry-level practitioners at conditional-registration. More than 70% of OT respondents but less than 50% PT respondents found the EPA assessment forms easy to use. Less than 60% of both program CEs did not include colleagues for EPA assessments. 55% of both OT and PT CEs found the EPA training and resources adequate. Overall, PT respondents showed lower agreement than OT respondents in five survey items.

Conclusion: The first implementation cycle of EPA in the undergraduate OT and PT CPE had mixed acceptability to the EPA assessment tools. Three strategic changes were made for the second implementation cycle., i.e., redesign of EPA-based assessment forms, training focus and ‘just-in-time’ training with streamlined resources.

Keywords:           Clinical Training, Entrustable Professional Activities, Occupational Therapy, Physiotherapy, Undergraduate, Workplace-based Assessment

I. INTRODUCTION

In 2021, the occupational therapy (OT) and physiotherapy (PT) undergraduate programs at Singapore Institute of Technology (SIT) added a novel assessment, Entrustable Professional Activities (EPAs), to the extant competency-based assessment tools in clinical practice education (CPE). EPAs are units of professional activities entrusted to a learner determined by five levels of supervision, once the learner has demonstrated the required competence (ten Cate & Taylor, 2020). OT EPAs and PT EPAs (Zainuldin & Tan, 2021) were developed and introduced to SIT CPE as part of the Ministry of Health’s review of healthcare professions’ training standards. EPA-based assessments are relevant in CPE where students perform professional activities at workplace, supervised by onsite clinical educators (CEs). Previous CPEs assessed only OT and PT student competencies using the validated Student Practice Evaluation Form-Revised Edition (SPEF-R) (Turpin et al., 2011) and the Clinical Competency and Reasoning Assessment (CCRA), respectively. Conceptually, the pairing of EPAs with SPEF-R or CCRA potentially offer CEs an opportunity to empower students through graduated levels of entrustment supported by appropriate proficiency levels. Operationally, EPA assessment does not add new activities. OT and PT CEs can utilise routine observations of students’ tasks, case discussions and case-notes documentation as sources to inform entrustment levels in EPAs.

No EPA implementation in any OT and PT curricula has been documented. At SIT, EPA implementation in CPE needs evaluation. Recognising that implementing process changes requires an iterative approach, SIT embarked on a quality improvement study using the Plan-Do-Check-Act (PDCA) cycle. This paper reports the results of operationalising EPAs for the first time in OT and PT CPE, including the use of EPA-based assessment forms. The Methods section describes the Plan and Do, followed by the Results section reporting outcomes of the Check and the Discussion section highlighting the Act to improve implementation.

II. METHODS

A. CPE Structure

OT CPE consists of four blocks of seven weeks each and interspersed between academic modules in Years 2, 3 and 4. PT CPE consists of five consequent blocks (four core and one elective) of six weeks each, begins only after all academic modules are completed in Year 3 and continues to Year 4. OT and PT students complete different clinical settings for each CPE block.

B. Participants and Study Design

OT Year 2 and Year 3 students, PT Year 3 students and their CEs who experienced EPA use for the first time were surveyed at the end of a clinical block. An online EPA survey is incorporated with routine post placement feedback for both students and CEs, therefore no consent was required. The QI study was exempt from ethics review (SIT Institutional Review Board, No. 2022122). Survey results were extracted from February to December 2021.

C. PDCA Cycle: Plan-Do

OT and PT have five core EPAs each. EPA-based assessment activities are short practice observations, entrustment-based discussions and case-notes evaluations. These activities serve as sources of information (SOIs), or workplace-based assessments (WBAs) in OT CPE, to inform entrustment decision-making. OT CE assesses EPAs by documenting in a single patient case form with all three WBAs per EPA. PT CE assesses EPAs for every patient case anchored by three different SOI forms with written justifications. OT and PT CEs and students were trained on nuts and bolts of EPAs and on using WBA/SOI forms in CE training workshops and student pre-CPE briefing, respectively.

Each OT EPA requires a total of six patient cases entrusted to students at Level 3 entrustment (indirect supervision) across four CPE blocks. Each PT EPA requires six cases at Level 3 entrustment at each core clinical block, which totals 24 cases by end of the program. Appendix 1 and 2 provides visualisation of EPA implementation across multiple CPE blocks.

The EPA survey has ten items. The first eight items are scored on a 4-point Likert-scale (strongly disagree-strongly agree). The final two questions seek qualitative feedback on benefits and challenges and suggestions for improvements. Unless indicated, items are phrased in the same manner in both student and CE surveys.

D. Data Collection and Analysis

Data were counted as proportions of respondents who agreed (pooled response from ‘agree’ and ‘strongly agree’) and proportions disagreed (pooled from ‘disagree’ and ‘strongly disagree’). The authors grouped the qualitative narrative into benefits and challenges.

III. RESULTS

A. PDCA Cycle: Check

There were 99.0% response rate from OT Year 2 students (105/106), 97.7% from Year 3 OT students (85/87), 93.2% from PT Year 3 students (137/147), 98.5% from OT CEs (199/202) and 92.5% from PT CEs (247/267). Proportion of respondents who agreed with each item statement is shown in Table 1. Data on item scores for each student and CE are available at online repository, http://doi.org/10.6084/m9.figshare.21941288

Survey Items

OT Year 3 students

OT Year 2 students

PT Year 3 students

OT CEs

 

PT CEs

 

(n = 85)

(n = 105)

(n = 137)

(n = 199)

(n = 247)

Q1 – Using EPAs in CPE helps me better understand and meet future conditional-registration requirements.

 

90.6

98.1

75.2

89.4

71.7

Q2 – The EPA documents help me to better understand the learning objectives in CPE.

 

84.7

98.1

72.3

75.9

71.7

Q3 – The WBA/SOI forms are easy to use.

 

76.5

85.7

38.7

73.4

47.8

Q4 – CE: The WBA/SOI forms are adequate for me to determine students’ competence and entrustment level. /

Student: The WBAs/SOIs help me to better gauge my progress and level of competence.

 

91.8

97.1

70.1

72.9

64.6

Q5 – I understand the connection between OT EPAs and SPEF-R2 competencies or PT EPAs and CCRA.  

 

84.7

97.1

72.3

69.8

83.0

Q6 – CE: I use the EPA documents explicitly with students during clinical teaching and assessment. / Student: I use the EPA documents to guide my learning goals during CPE.   

 

62.4

92.4

51.1

87.9

59.1

Q7 – CE: I involve other colleagues in doing WBAs/SOIs to calibrate students’ entrustment level. / Student: Besides my CE, I also received feedback from other OTs or other PTs who were involved in my WBAs/SOIs.

 

44.7

66.7

54.0

58.8

45.3

Q8 – I feel the current briefing/training/resources are adequate for me to incorporate the use of EPAs in CPE.   

70.6

89.5

56.2

55.3

55.9

Table 1. Proportion of OT and PT students and CEs who agree with the EPA survey items

PT CEs and students were almost unanimous that SOI forms were difficult to use (Q3). Common to OT and PT CEs, many did not involve colleagues in EPAs (Q7) and felt that training to understand EPAs was inadequate (Q8).

Qualitatively, both disciplines benefitted from the use of WBA/SOI forms to scaffold learning through structured feedback and action plans when addressing identified competency gaps. Feedback from OT and PT students below closely exemplified the appreciation:

“EPAs allow me to track my progress over the weeks and transfer my reflections into action when given the opportunity to receive objective and qualitative feedback from the EPA form.”

OT Student#45

The discussions with the CE on what to do if the situation was different made me realise the importance of planning even for the worst-case scenario…enabled me to identify the gaps in knowledge and skills that had to be worked on.

PT Student#67

However, PT groups cited complicated forms design and copious paperwork from numerous SOIs time-consuming and stressful. Ambivalence on its practicality was best summed by PT CE#31, “As a first-time user of the SOIs, I found it quite difficult to navigate the forms, took me some tries to understand how I can determine the students’ competence and entrustment level. As there were many forms, it was quite confusing, and hence stressful and time-consuming. Otherwise, they are useful tools.

The most common challenge among OT CEs was assessing certain EPAs, such as planning care transition, in some settings. “Some EPAs are harder to do in some settings, for example, in the hands therapy setting; it is harder to do the handover/discharge EPA as there are less of these patients.” (OT CE#32). Calling for more support, one CE suggested “SIT go through a round of training on the different EPAs and give relevant case examples to help us better understand them.” (OT CE#4).

IV. DISCUSSION

Response rates were excellent. The convergence of high agreement rates with narrative feedback on using EPAs and WBA/SOIs for teaching/learning, understanding the CPE learning objectives and meeting practice expectations as future entry-level practitioners suggest early indication that EPAs may facilitate SIT OT and PT students transit to new practitioners. The positive experience in this regard resonated with other EPA survey on final-year dietetics students and their clinical supervisors in Australia (Bramley et al., 2021). Practical challenges with the SOI forms, resulting in onerous and time-consuming evidence collection; low levels in involving colleagues in EPA assessments; and inadequate EPA training/resources for CEs were identified as key areas for change in both disciplines.

A. PDCA Cycle: Act

First, to reduce assessment burden, WBA and SOI forms were redesigned and harmonised in preparation towards a standardised EPA online assessment system currently developed in-house. Multiple WBA/SOI forms were combined into a single-page checklist form with a small open-ended section. A checklist was similarly suggested for nursing EPAs assessment, citing convenience as a reason (Lau et al., 2020). On the single-page form, CEs tick entrustment levels for each WBA/SOI associated to each EPA with all EPAs on the same page. The only narrative section is where CEs describe key justifications supporting their entrustment decisions, followed by students’ reflections. Second, to bridge assessment expectations among clinicians and increase propensity to share EPA assessments with colleagues, EPA training was refined to emphasise balance of supervision control with autonomy and clearer definitions between entrustment levels 2 (direct supervision) and 3 (indirect supervision) through case examples. Third, ‘just-in-time’ refresher training was added to activate volition in assessing EPAs. Toolkits containing briefing videos and streamlined resources in short bites, such as 3-minute videos, powtoons, form samplers and frequently-asked-questions, were released for OT and PT CEs closer to placement block. PT CEs also received a refresher at early weeks of every placement block.

V. CONCLUSION

The PDCA cycle is used to inform and make iterative adaptations to each cycle of EPA implementation. The Plan-Do stage completed the first implementation cycle of EPA in the undergraduate OT and PT CPE in 2021. The Check stage revealed mixed experiences to EPA use. The lowest agreement was the ease of using SOI forms among PT students and CEs. While EPAs were accepted as teaching and learning tools, CEs did not involve colleagues in EPA assessments. Training on EPA assessment for CEs was inadequate. Consequently, the Act stage yielded changes in form design, training focus and streamlined resources for the next implementation cycle.

Notes on Contributors

Rahizan Zainuldin (RZ) led the design of the quality improvement and implementation of EPAs, submitted the study to SIT IRB, analysed and interpreted both quantitative and qualitative data for the PT CPE, prepared the manuscript, wrote the initial draft and finalised for submission.

Heidi Siew Khoon Tan (HSKT) led the design of the EPA survey, analysed and interpreted both quantitative and qualitative data for the OT CPE, provided a critical review of the manuscript, and concurred on the final version.

Ethical Approval

The QI study was exempt from ethics review (SIT Institutional Review Board, No. 2022122).

Data Availability

Data on item scores for each student and CE are available at online repository, publicly accessed at http://doi.org/ 10.6084/m9.figshare.21941288. While the data is available for readers’ perusal and no permission from the authors is needed, please write an email of intention to use the data for any purposes to the corresponding author.

Acknowledgement

We would like to acknowledge the OT and PT CPE committee members who have contributed in the planning and implementation of the EPA. We would also like to thank Ms Annie Wang Haiyan, Manager, Academic Programmes Administration, SIT, for uploading the survey on and extracting the survey results from the online assessment portal of our Clinical Practice Education portal. 

Funding

No funding source is provided.

Declaration of Interest

Rahizan Zainuldin and Heidi Siew Khoon Tan disclose there is no conflict of interest of any form.

References

Bramley, A. L., Thomas, C. J., McKenna, L., & Itsiopoulos, C. (2021). E-portfolios and entrustable professional activities to support competency-based education in dietetics. Nursing and Health Sciences, 23(1), 148-156. https://doi.org/10.1111/nhs.12774

Lau, S. T., Ang, E., Samarasekera, D. D., & Shorey, S. (2020). Evaluation of an undergraduate nursing entrustable professional activities framework: An exploratory qualitative research. Nurse Education Today, 87, Article 104343. https://doi.org/10.1016/j.nedt.2020.104343

ten Cate, O., & Taylor, D. R. (2020). The recommended description of an entrustable professional activity: AMEE Guide No. 140. Medical Teacher 43(10), 1106-1114. https://doi.org/10.1080/0142159X.2020.1838465

Turpin, M., Fitzgerald, C., & Rodger, S. (2011). Development of the Student Practice Evaluation Form Revised Edition Package. Australian Occupational Therapy Journal, 58(2), 67-73. https://doi.org/10.1111/j.1440-1630.2010.00890.x

Zainuldin, R., & Tan, H. Y. (2021). Development of entrustable professional activities for a physiotherapy undergraduate programme in Singapore. Physiotherapy, 112, 64-71. https://doi.org/10.1016/j.physio.2021.03.017

*Rahizan Zainuldin
10 Dover Road,
Singapore 138683
+6596522418
Email: Rahizan.Zainuldin@singaporetech.edu.sg

Submitted: 5 April 2023
Accepted: 17 August 2023
Published online: 2 January, TAPS 2024, 9(1), 28-35
https://doi.org/10.29060/TAPS.2024-9-1/OA3035

Aminda Faizura Omar, Tun Yasmin Iffah Mohd Suria Affandi, Mohd Isyrafuddin Ismail, Mas Suryalis Ahmad & Ilham Wan Mokhtar

Comprehensive Care Centre of Studies, Faculty of Dentistry, Universiti Teknologi MARA, Malaysia

Abstract

Introduction: This study was undertaken to investigate students’ perceptions of innovation-integrated learning, adopted as an alternative approach for special care dentistry (SCD) training.

Methods: Ninety final-year dental students from the 2021 cohort were divided into eight groups to complete an innovation project dedicated to eight categories of patients with special health care needs. Discussion and final presentations, involving related experts were conducted remotely via an online platform. Then, students were invited to answer a validated online feedback survey on their perceptions of the learning approach.

Results: The response rate for the feedback survey was 91.1% (n=82). Most students agreed that the activity was interesting, improved their knowledge and understanding of SCD, allowed engagement between peers, supported sharing of ideas and experiences, encouraged student–lecturer interactions, and enhanced knowledge integration and application. Students also expressed that the activity enhanced creativity and innovation, instilled an interest and positive attitude toward learning SCD, and encouraged teamwork. However, a few students noted facing some limitations in completing their projects (i.e., technological challenges and reduced physical access to purchase materials). Around half felt neutral about having an increased workload from this activity. Moreover, perceptions differed regarding time and financial commitments, as well as supervisors’ and patients’ involvement during the project development process.

Conclusion: Students perceived that the innovation-oriented learning activity, was beneficial in multiple aspects of SCD training.

Keywords:           Innovation, Learning, Dental Students, Perception

Practice Highlights

  • We have developed a new integrated teaching method via the utilisation of innovation development for special needs groups.
  • Students’ perceptions of this learning method were explored using both quantitative and qualitative methods via an online feedback questionnaire.
  • Overall, students positively responded to the teaching method when it came to improving their knowledge and understanding of SCD, engagement between peers, sharing of ideas and experiences, student–lecturer interactions, and knowledge integration and application.
  • This novel teaching method achieves the highest level of Bloom’s Taxonomy which is to create something new.

I. INTRODUCTION

Special care dentistry (SCD) involves managing patients with special health care needs, such as those with physical, intellectual, psychological impairments as well as complex medical conditions (Royal Australasian College of Dental Surgeons, 2021). At the undergraduate level, many teaching and learning activities have been conducted to provide students with learning experience in this area of patient care. These activities include lectures, community-based learning, simulation exercises and clinical training (Ahmad, Mokhtar, et al., 2020; Mohamed Rohani & Mohd Nor, 2021). Students who received training in SCD were found to have demonstrated better comfort and attitudes in managing patients with special health care needs (Mohamed Rohani et al., 2021).

However, these learning activities may be compromised by situations that limit face-to-face interactions, either among students, between teacher and learners, as well as with the patients. Such situations may happen due to disease (such as the recent COVID-19 pandemic), geographical barriers and accessibility issues (Amir et al., 2020). It was found that limitations of dental training that requires physical contact may compromise students’ learning experience, thus affecting their competency, knowledge and confidence in patient care (Chang et al., 2021).

Meanwhile, it has become incumbent on dental education providers to prepare future graduates with essential skills that are deemed beneficial for practicing health care professionals. These skills include innovation, leadership, critical thinking and enterpreneurial abilities (Malaysian Dental Council, 2021). Acquisition of these abilities have been associated with many aspects of personal and professional development including emotional intelligence and practice management (Saleem et al., 2019; Wang et al., 2020).

In view of the various challenges and demands of the current (and future) educational environment and healthcare needs, an innovation-integrated educational approach was developed and adopted as an alternative teaching and learning method to teach SCD. This approach, undertaken mostly remotely using an online learning platform, involved the integration of students’ cognitive function, psychomotor ability, and affective skills through the development of innovative products to address oral health issues experienced by the different categories of patients with special health care needs. As a novel educational approach, assessment of its effectiveness is therefore essential. This study was undertaken to investigate students’ perceptions of the innovation-integrated learning, conducted remotely via an online platform, developed during the COVID-19 pandemic, as an alternative approach for SCD training.

II. METHODS

A. Study design

This was a descriptive, cross-sectional, quantitative and qualitative study, using a validated online feedback questionnaire involving the final-year undergraduate students of the Bachelor of Dental Surgery program of the Faculty of Dentistry, Universiti Teknologi MARA.

B. Study Population

Because this module is a compulsory component of the final-year undergraduate dental curriculum (Faculty of Dentistry, 2022), all students were required to be involved with the group innovation project. However, participation in the online feedback survey was voluntary. At the beginning of the semester, the students were made aware of the study and that their participation in the innovation program and the research were treated separately.

All students who agreed to participate in the online feedback survey provided informed consent, attached to the information sheet supplied to all potential participants via their official university email. To avoid coercion, students were provided with an explanation in the information sheet that their participation was entirely voluntary and anonymous. Those who wished not to participate in the online feedback survey would not be penalised, and they could withdraw their participation at any point without having to provide a justification.

C. Study Instrument

The questionnaire used for the online feedback survey was adopted from the study by Rowe and Wood (2008). It was content-validated by a panel of 2 experts in dental education before its use in the main survey. From the item-level content validatiy index (I-CVI) for each item as well as a summation of the I-CVI divided by the number of average (S-CVI/Ave), a  score of 1 was obtained for both indices as the  panelists rated all items with a score of 3 or 4. The questionnaire consisted of nine items about the perception of students towards this teaching method, measured using a 5-point Likert scale (strongly disagree, disagree, neutral, agree, and strongly agree). Open-ended questions were included at the end of the questionnaire to further explore students’ perceptions of the learning activities.

D. Study Conduct

For the group innovation project, all final-year students (n=90) were divided into eight groups, based on their assigned clinical groupings. Each group was assigned to an academic or clinical specialist in SCD, who acted as a supervisor. Eight categories of patients with special health care needs were identified and randomly allocated to the different groups. The categories of patients were 1) hearing disability, 2) speech disability, 3) visual disability, 4) geriatric, 5) Down syndrome, 6) autism, 7) cerebral palsy, and 8) dementia.

Students were given three months to develop innovative products. They were expected to engage with their supervisors during the whole development process, which involved 1) identification of health complications related to the condition and its impact on oral health, 2) understanding of issues related to patients’ oral health care; 3) creation of a prototype to address the related oral health–related complications. Because all students were at the time subjected to restrictions in having physical classes due to COVID-19 (Samat et al., 2020), large-group discussions and final presentations were undertaken remotely online.

At the end of this group activity, an online presentation, judged by experts in related fields, was conducted as a form of assessment, as well as constructive feedback on improvements and the marketability of the product. Students were then invited to participate in the online feedback questionnaire, which was distributed via their official university email. An English language questionnaire was used as the respondents were undergraduate dental students with a good command and understanding of the language. A reminder email was sent a week later, with another reminder sent the following week.

E. Data Analysis

To maximise the outcome, quantitative data were simplified into a 3-point Likert scale (agree, neutral, and disagree). Using SPSS version 27, the frequency of the data was analysed to compare students’ responses for each item. For analysis of the benefits, the nine items of the questionnaire were further categorised into different themes: Theme 1—Acceptance of the teaching method concept (Item 1), Theme 2—Effectiveness of teaching method (Items 2, 3, 6, and 7), Theme 3—Important role of supervisors (Items 4, 5, and 8), and Theme 4—Impact on students’ workload (Item 9).

For the qualitative component, data were analysed via thematic analysis involving open and closed coding. Emerging themes were then identified based on these codes, which were then validated through comparisons amongst researchers.

F. Ethical Approval

Ethics approval was obtained from the Research Ethics Committee (REC) Universiti Teknologi MARA, Malaysia, in accordance with the Declaration of Helsinki (REC12/2021 [MR 1004]).

III. RESULTS

A total of 82 out of 90 students returned the questionnaire, giving a response rate of 91.1%. The frequency of responses for each question or item, categorised into the different themes, is shown in Table 1.

Items

Questions

Themes

Negative (%)

Neutral (%)

Positive (%)

Item 1

The program is an interesting new teaching method to learn about Special Care Dentistry.

Acceptance of teaching methods/ concept

1.2

8.5

91.3

Item 2

The program has provided me a clear understanding of the Special Care Dentistry concept.

Effectiveness of teaching method

1.2

9.8

89.0

Item 3

The teaching method managed to integrate the knowledge and clinical implication in Special Care Dentistry.

1.2

4.9

93.9

Item 6

The method of teaching allows me to interact effectively with my fellow group mate and the rest of the batch.

2.4

7.3

91.3

Item 7

The teaching method supports ideas and experience sharing between students

0.0

2.4

97.6

Item 4

The supervisors encourage and accept different opinion.

Important role of supervisors

0.0

3.7

96.3

Item 5

The teaching method provide opportunities for discussion between students and supervisors.

2.4

2.4

95.2

Item 8

The supervisors explained the purpose of the program well and structured.

0.0

7.3

92.7

Item 9

The teaching method increase the workload of students compared to classroom learning.

Impact on students’ workload

7.3

53.7

39.1

Table 1. Frequency of responses for items, categorised into different themes.

Overall, most students provided positive responses regarding activity acceptance and effectiveness and the supporting role of supervisors. However, slightly more than half of the students felt neutral about the learning activity causing an increased workload compared to classroom learning. 

The thematic analysis of qualitative data yielded multiple themes that can be categorised into three main areas: 1) benefits of this education method, 2) limitations of this learning intervention, and 3) differing opinions on the integration of the group innovation project into the dental curriculum. 

A. Benefits of The Study

Within this area, the students expressed four main themes.

1) Enhances creativity and innovation: Most students felt that this teaching method had enhanced their creativity in finding methods to manage patients with special dental needs as well as in developing innovations for the group of interest. 

“This integrated learning helps me with my creativity and critical thinking so we could create an innovation that is appropriate with the current technology.”

Student 10

2) Improves knowledge and understanding of SCD: Using innovation in teaching made students delve into the subject matter, thus improving their knowledge of their patients and gaining a deeper understanding of SCD. 

“A good approach indeed. I have a chance to challenge my understanding and gain new information from my friends, supervisors, and postgraduate students. This helped me develop a new way of thinking and find good literature on SCD.”

Student 35

Subtheme 1: Encourages independent information-gathering about SCD

Some students noted that they had to rely on the resources they had and work by themselves due to the pandemic, which made them more independent when researching topics about SCD.

“In my opinion, this teaching method is helpful to help the students to understand the special needs module by asking the student to develop products according to the difficulties of the disabilities required.”

Student 25 

Subtheme 2: Development of critical thinking and problem-solving skills in SCD

By giving students the task of developing information, they were forced to solve problems the special interest group faced. Therefore, students believed this made them learn better critical thinking and problem-solving skills.

“Good to brainstorm ideas and put us in their shoes in order to address their different needs.”

Student 74

3) Instils interest and positive attitudes towards learning SCD: Due to their minimal patient experience, most students felt this task made them more interested in their special interest group, which improved their attitudes to learning SCD. 

“The integrated learning approach gives me ideas on how situations should be handled in real life on aspects like the expectation from special care patients and preparedness as a future dentist to have a special care patient.”

Student 12 

4) Encourages teamwork: Some students noted that, even with the isolation, they felt that this type of teaching method had encouraged them to work more closely with not only their teammates but supervisors as well.

“Innovative program. Good. Made students and supervisors unite as teammates.”

Student 62

B. Limitations of this Learning Intervention

Regarding limitations, two themes were noted.

1) Technological challenges: Several students experienced poor internet connection throughout the process, which hindered their efficiency. 

”Very helpful, but internet connection and environment are some of the barriers for me for not study effectively, I prefer face-to-face learning approach. ”

Student 72

2) Reduced physical access to purchasing of materials: The movement control order that was implemented throughout most of the pandemic left most students restricted from being able to access appropriate materials from local or distant suppliers.

“We faced problems buying materials due to the movement control order.”

Student 77

C. Differing Opinions on the Integration of the Group Innovation Project into the Dental Curriculum

Students had differing opinions on the following aspects.

1) Time commitment and workload: Despite the lack of face-to-face sessions, some students believed they were given adequate time to create and execute ideas comfortably.

“Since the project is given so much earlier than the deadline, we are able to create a better project without feeling any burden in completing the module.”

Student 36

However, a handful of students felt they needed more time to be able to have performed better for the task.

“It is an interesting method and helpful to learn special care dentistry, but it is quite time-consuming, and we have restrictions due to COVID-19.”

Student 65

2) Financial demands: Depending on the type of innovation they designed, some students felt that the funding provided was not sufficient for them to prepare a good product.

“Some innovations need to create prototype only because low budget, but it is understandable.”

Student 74

However, a few students believed the financial assistance was enough for them to complete their innovation. 

“The funding provided was sufficient.”

Student 43 

3) Guidance from supervisors: Many students noted that their supervisor provided ample guidance throughout the project. 

“Excellent. Students and supervisors can communicate and deliver knowledge well through this method.”

Student 19 

“Our supervisor introduced us to some deaf patients. So we were able to get the patient’s feedback on our product.”

Student 52

However, some students believed the transition from face-to-face to online consultations was not ideal for the guidance they needed. 

“However, there is lacking in communication and discussion between students and supervisors as this is still new to some students.”

Student 47 

4) Exposure to SCD practice: Because the students were supposed to have exposure to special care patients in their final year, they believed that this teaching module was sufficient to help them understand patients. 

“I think this method actually gives a realistic overview of how to work with patients.”

Student 43

On the other hand, a few felt that clinical sessions were more beneficial for them to apply the knowledge they have.

“In my opinion, direct exposure to SND patients would be better so we can apply the knowledge and innovation.”

Student 76 

IV. DISCUSSION

This study involved the undergraduate teaching of SCD for students in a Malaysian dental school. In Malaysia, SCD education has yet to become a compulsory component of the five-year undergraduate curriculum (Naimie et al., 2020). This may be related to various barriers to providing training in this area of dentistry, including a lack of clinical expertise and educational resources (Ahmad et al., 2014). Despite this, Universiti Teknlologi MARA, Malaysia has taken a proactive approach to provide training in SCD, at both undergraduate and postgraduate levels (https://dentistry. uitm.edu.my/index.php/en/). For undergraduate students, teaching and learning of SCD are provided in the final year, as part of the Comprehensive Care Dentistry course (Faculty of Dentistry, 2022). Students undergo a series of lectures, hands-on demonstrations, problem-based learning, tutorials, a clinical rotation in the SCD specialist clinic, and a community engagement activity project (Faculty of Dentistry, 2022).

Although various teaching and learning interventions have been successfully conducted in the undergraduate training of SCD in previous years (Naimie et al., 2020), the transition from face-to-face training to online distance learning imposed on higher learning institutions in this country during the COVID-19 pandemic (Halim et al., 2021) may lead to compromised learning experiences. This is especially pertinent for SCD training, which involves clinical exposure to various groups of patients (Dougall et al., 2014). As clinical training was limited at that point of time, alternative teaching and learning approaches were designed to ensure students were exposed to issues in managing patients with special health care needs, which in this case was achieved by developing an innovative product to address patients’ difficulty in maintaining satisfactory oral health.

This study found that students demonstrated favorable responses toward acceptance of such an education intervention. With dental students experiencing physical and mental health deterioration with online distance learning during the COVID-19 pandemic (Lestari et al., 2022), it was encouraging to observe that students in this study found the learning activities interesting. They also opined that the educational method enhanced creativity and innovative skills, which are the highest level of learning domains (Bloom et al., 1964; Miller, 1990). Therefore, acceptance of this training approach has positive implications for its future development and implementation in the undergraduate dental curriculum.

Various benefits of this learning activity, as reported by students in this study, also further supports the use of innovation-integrated learning for teaching SCD. Participants cited improved knowledge and understanding of SCD, which has been reported as lacking among members of the dental fraternity around the world (Ahmad et al., 2015; Borromeo et al., 2018; Mandasari et al., 2021). They also opined that this learning intervention allowed integration of SCD theory and clinical practice, supporting its effectiveness, which is comparable to a similar approach previously undertaken via face-to-face learning (Ahmad et al., 2020).

The enhanced student attitude and interest in learning SCD reported in this study suggest a positive impact of learning that could potentially be translated into practice. Those with educational experience in SCD have been found to feel more comfortable and positive in managing patients with special health care needs (Mohamed Rohani et al., 2021). Dental practitioners who received exposure to SCD during university education were also more likely to have provided care to these patients, in comparison with their colleagues without such training experience (Alumran et al., 2018).

To further enhance students’ attitudes and interest in learning, the role of academicians as supervisors is integral. Academicians who play an effective role could influence students’ active engagement in learning, guide students in achieving learning goals, and enhance their overall learning experience (Sølvik & Glenna, 2021). It was evident in the present study that despite being conducted virtually, this learning activity was successful in encouraging engagement between students and supervisors. Some students also reported receiving assistance from their supervisors in gaining access to patients, whose feedback was sought for improvement of their products. This is an encouraging finding, given previous studies reporting negative implications of virtual and remote learning on student–teacher relationships (Halim et al., 2021). To ensure that all students receive quality supervision, the faculty must monitor the roles and engagement of every academician, especially during learning activities that involve remote delivery.

Besides improving student–teacher engagement, this learning activity was also beneficial in enhancing peer interactions and teamwork, while allowing sharing of experiences and ideas between students. Although social interaction and group dynamics in learning have been reportedly compromised during the COVID-19 pandemic (Walker & Koralesky, 2021), this education activity was perceived to have overcome this issue. Enhanced teamwork and communication brought about by this activity could provide opportunities for students to develop professionalism, which is integral to the practice of dentistry. Teamwork and effective communication are especially important in the practice of SCD, where multidisciplinary collaboration is mandatory in addressing patients’ complex health care needs (Glassman et al., 2016). The development of skills (e.g., independent information-gathering, critical thinking, problem-solving skills) reported by the study participants is also beneficial in preparing them as competent practitioners who can function at a high level of professionalism.

Challenges reported by students while undergoing this learning activity (technological difficulties and reduced physical access to purchase materials) demand the attention of faculty and supervisors to be more proactive in addressing the related issues. Nevertheless, with allowance of physical classes recently, this issue would not compromised students’ learning experience should the faculty decide to continue such this approach. Differing opinions about time constraints, heavy workloads, and increased financial demands expressed by students in this study require further investigation and planning by the faculty to ensure that the students receive adequate assistance to support their learning process. Feedback from patients regarding the developed innovative products could be gained through the conduct of proper research that assesses the effectiveness and benefit of the intervention. Consequently, students’ innovative ideas could be further developed for commercialisation, thus equipping them with entreperneurial skills, which is highly recommended to be taught in the higher education curriculum (Tuononen et al., 2022).

This study also indicates that integrating innovation in the teaching and learning of SCD supports many aspects of student learning that targets the recommended core contents as recommended in the IADH guidelines. These contents include 1) Identifying and  addressing access and barriers to oral health faced by people with special needs (Domain 2), 2) Demonstrating appropriate communication skills when managing patients with special needs (Domain 4),  3) Understanding the impact of impairments, disabilities and systemic conditions on oral health and functions (Domain 5), as well as 4) Developing and applying effective methods when managing patient with special needs, including in planning oral health education program and designing interventions for clinical treatment (Domain 6) (Daly et al., 2014).

This study is limited by the non-participation of some students, whose responses were not included in the investigation. Nevertheless, the high response rate indicates the representativeness of the study population, hence supporting the validity of the study findings.

The results of this study provided important information for program developers, faculty, and the dental education fraternity at large. It identified the potential of innovation-integrated learning, for providing SCD training to undergraduate students, including in circumstances that may limit physical access to education.

V. CONCLUSION

Students’ acceptance of this teaching method proves it is sufficient and beneficial in improving their creativity and innovation, enhancing their knowledge and understanding of SCD, instilling interest and positive attitudes in learning SCD, and encouraging teamwork and effective communication between peers and supervisors. However, they provided differing opinions on the impact of the learning activity on their workload, time and financial demands, and exposure to SCD practice. Some faced technological challenges and reduced physical access to purchase materials.

Notes on Contributors

Aminda F. Omar was involved in literature search, data acquisitions and analysis and the manuscript preparation.

Tun Yasmin Iffah Mohd Suria Affandi was involved in data acquisitions and analysis.

Mohd Isyrafuddin Ismail was involved indata acquisition.

Mas S. Ahmad was involved in study conception and design, data analysis, manuscript editing and review.

Ilham W. Mokhtar was involved in the study conception and design and manuscript review.

All the authors approved the final version of the manuscript publication.

Ethical Approval

Ethics approval was obtained from the Research Ethics Committee (REC) Universiti Teknologi MARA, Malaysia in accordance with the Declaration of Helsinki (REC12/2021 [MR 1004]).

Data Availability

As per the requirement of the local ethics, data will be kept in an enclosed and dedicated facility in the faculty building.

Acknowledgement

The authors wish to thank the dental students from Universiti Teknologi MARA, Malaysia for participating in this study. The authors confirm that no financial support was received to fund this work. The authors also confirm they have no interests to declare.

Funding

No funding was provided for this study.

Declaration of Interest

There are no conflicts of interests.

References

Ahmad, M. S., Mokhtar, I. W., & Khan, N. L. A. (2020). Extramural oral health educational program involving individuals with disabilities: Impact on dental students’ professionalism. Journal of International Society of Preventive & Community Dentistry, 10(3), 323-328. https://doi.org/10.4103/jispcd.JISPCD_74_20

Ahmad, M. S., Radhi, D. S. M., Rusle, F. F., Zul, M. F., Jalaluddin, J., & Baharuddin, I. H. (2020). Photodentistry – An innovative approach to improving students’ empathy and learning experiences in comprehensive patient care. Journal of Dental Education, 84(11), 1219-1229. https://doi.org/10.1002/jdd.12295

Ahmad, M. S., Razak, I. A., & Borromeo, G. L. (2014). Undergraduate education in special needs dentistry in Malaysian and Australian dental schools. Journal of Dental Education, 78(8), 1154-1161.

Ahmad, M. S., Razak, I. A., & Borromeo, G. L. (2015). Special needs dentistry: Perception, attitudes and educational experience of Malaysian dental students. European Journal of Dental Education, 19(1), 44-52. https://doi.org/10.1111/eje.12101

Alumran, A., Almulhim, L., Almolhim, B., Bakodah, S., Aldossary, H., & Alakrawi, Z. (2018). Preparedness and willingness of dental care providers to treat patients with special needs. Clinical, Cosmetic and  Investigational Dentistry, 10, 231-236. https://doi.org/10.2147/CCIDE.S178114

Amir, L. R., Tanti, I., Maharani, D. A., Wimardhani, Y. S., Julia, V., Sulijaya, B., & Puspitawati, R. (2020). Student perspective of classroom and distance learning during COVID-19 pandemic in the undergraduate dental study program Universitas Indonesia. BMC Medical Education, 20(1), Article 392. https://doi.org/10.1186/s12909-020-02312-0

Bloom, B. S., College, C. O., & Examiners, U. (1964). Taxonomy of educational objectives (Vol. 2). Longmans.

Borromeo, G. L., Ahmad, M. S., Buckley, S., Bozanic, M., Cao, A., Al-Dabbagh, M., & Athale, A. (2018). Perception of Special Needs Dentistry education and practice amongst Australian dental auxiliary students. European Journal of Dental Education, 22(3), e321-e326. https://doi.org/10.1111/eje.12296

Chang, T.-Y., Hsu, M.-L., Kwon, J.-S., Kusdhany, M. F. L. S., & Hong, G. (2021). Effect of online learning for dental education in Asia during the pandemic of COVID-19. Journal of Dental Sciences, 16(4), 1095-1101. https://doi.org/10.1016/j.jds.2021.06. 006

Daly, B., Boyle, C., Mc Pherson, A., & Thompson, S. (2014). Core content for a curriculum in Special Care Dentistry at the undergraduate level mapped to the learning outcomes for “Preparing for practice” (GDC-UK, 2011). British Society for Disability and Oral Health, March, 1–23.

Dougall, A., Thompson, S. A., Faulks, D., Ting, G., & Nunn, J. (2014). Guidance for the core content of a curriculum in Special Care Dentistry at the undergraduate level. European Journal of Dental Education, 18(1), 39-43. https://doi.org/10.1111/eje.12054

Faculty of Dentistry. (2022). DS240- Bachelor of Dental Surgery Program Structure. Retrieved from https://dentistry.uitm.edu.my/index.php/en/programme/programme-offered/2-uncategorised/67-ds240-programme-structure

Glassman, P., Harrington, M., Namakian, M., & Subar, P. (2016). Interprofessional collaboration in improving oral health for special populations. Dental Clinics of  North America, 60(4), 843-855. https://doi.org/10.1016/j.cden.2016.05.004

Halim, M., Noorani, T., Karobari, M., & Kamaruddin, N. (2021). COVID-19 and dental education: A Malaysian perspective. Journal of International Oral Health, 13(3), 201-206. https://doi.org/10.4103/jioh.jioh_8_21

Lestari, W., Yazid, N. H., Azhar, Z. N., Ismail, A., & Sukotjo, C. (2022). Impact of COVID-19 on Malaysian dental students’ physical, mental, financial and academic concerns. BMC Oral Health, 22(1), Article 46. https://doi.org/10.1186/s12903-022-02081-w

Malaysian Dental Council. (2021). Code of Practice for Programme Accreditation – Undergraduate dental degree. (2019, effective, April 1, 2021). http://mdc.moh.gov.my/modules/mastop_publish/?tac=COPPA

Mandasari, M., Rahmayanti, F., Derbi, H., & Wimardhani, Y. S. (2021). Special care dentistry perception among dentists in Jakarta: An online survey study. PloS ONE, 16(4): e0249727. https://doi.org/10.1371/journal.pone.0249727

Miller, G. E. (1990). The assessment of clinical skills/competence /performance. Academic Medicine, 65(9), S63-S67. https://doi.org/10.1097/00001888-199009000-00045

Mohamed Rohani, M., Ahmad Fuad, N., Ahmad, M. S., & Esa, R. (2021). Impact of the special care dentistry education on Malaysian students’ attitudes, self-efficacy and intention to treat people with learning disability. European Journal of Dental Education, 26(4), 741-749. https://doi.org/10.1111/eje.12756

Mohamed Rohani, M., & Mohd Nor, N. A. (2021). Dental students’ perception on Disability Equality Training as part of the special care dentistry curriculum. Journal of Dental Education, 85(5), 690-698. https://doi.org/10.1002/jdd.12528

Naimie, Z., Ahmad, N., Shoaib, L., Safii, S., & Mohamed Rohani, M. (2020). Curriculum for Special Care Dentistry: Are we there yet? Journal of International Oral Health, 12(1), 1-7. https://doi.org/10.4103/jioh.jioh_146_19

Rowe, A. D., & Wood, L. N. (2008). Student perceptions and preferences for feedback. Asian Social Science, 4(3), 78-88. https://doi.org/10.5539/ass.v4n3p78

Royal Australasian College of Dental Surgeons. (2021). Specialist Dental Practice. https://racds.org/sdp/

Saleem, Z., Sethi, A., Hassan, M., & Wajahat, M. (2019). Assessments of dental students’ entrepreneurial self-efficacy to aid practice management. Health Professions Educator Journal, 2(2), 54-59.  https://doi.org/10.53708/hpej.v2i2.105

Samat, M. F., Awang, N. A., Hussin, S. N. A., & Mat Nawi, F. A. (2020). Online distance learning amidst Covid-19 pandemic among university students. Asian Journal of University Education 16(3), 220-233. https://doi.org/10.24191/ajue.v16i3.9787

Sølvik, R. M., & Glenna, A. E. H. (2021). Teachers’ potential to promote students’ deeper learning in whole-class teaching: An observation study in Norwegian classrooms. Journal of Educational Change, 23, 343-369. https://doi.org/10.1007/s10833-021-09420-8

Tuononen, T., Hyytinen, H., Kleemola, K., Hailikari, T., Männikkö, I., & Toom, A. (2022). Systematic review of learning generic skills in higher education—Enhancing and impeding factors. Frontiers in Education, 7, 1-13. https://doi.org/10.3389/feduc.2022.885917

Walker, K. A., & Koralesky, K. E. (2021). Student and instructor perceptions of engagement after the rapid online transition of teaching due to COVID‐19. Natural Sciences Education, 50(1), e20038. https://doi.org/10.1002/nse2.20038

Wang, J., Peng, B., Zhou, H., & Zhang, J. H. (2020). Dentists’ entrepreneurial intention and associated factors in public hospitals in major cities in Guangdong (South China): A cross-sectional study. BMC Oral Health, 20, 334 https://doi.org/10.1186/s12903-020-01331-z

*Ilham Wan Mokhtar
Faculty of Dentistry, Universiti Teknologi MARA,
47000, Jln Hospital, Sungai Buloh
Selangor, Malaysia
Email: ilham@uitm.edu.my

Submitted: 30 January 2023
Accepted: 2 August 2023
Published online: 2 January, TAPS 2024, 9(1), 20-27
https://doi.org/10.29060/TAPS.2024-9-1/OA2999

Mitsumi Masuda, Naomi Kimura & Akemi Nakagaki

Graduate School of Nursing, Nagoya City University, Japan

Abstract

Introduction: The level of BLS achievement at the end of basic education is not clear, so to develop a BLS training program using QCPR Learner and to verify its effectiveness.

Methods: A quantitative descriptive study design was used. The developed BLS program was implemented for 81 fourth-year students at the school of nursing. The program consisted of 2 minutes of training per student and real-time feedback by QCPR Learner as well as feedback among students and from faculty members and was conducted twice for each student. Evaluation was conducted from three aspects: learner response and program evaluation both using questionnaires, learning achievement of QCPR score.

Results: The mean values of learners’ responses before and after the program were: attention, 4.32 before and 4.59 after; relevance, 4.48 before and 4.75 after; confidence, 2.32 before and 3.78 after; and satisfaction, 2.12 before and 3.41 after, which increased significantly after the program. The QCPR Learner scores increased significantly from 74.08 for the first time to 86.76 for the second time. In the free response, some respondents stated that “visualisation of the procedure by the application improved my skills.”

Conclusion: The results of the evaluation from three aspects showed that this program was effective in improving students’ motivation to learn and skills.

Keywords:           Basic Life Support, Real-Time Feedback, Basic Nursing Education, Simulation Training, QCPR Learner

Practice Highlights

  • Real-time feedback application was effective in increasing motivation to learn and BLS skills.
  • QCPR Learner can be easily installed on the learner’s device, making it suitable for self-learning.

I. INTRODUCTION

A “chain of life support” is necessary to save the lives of individuals in life-threatening situations such as cardiac arrest or asphyxiation, or in imminent danger of such situations, and to lead them back to society (Japan Resuscitation Council, 2020). When a person is unresponsive, it is important to immediately report suspected cardiac arrest and provide basic life support (BLS), which involves a series of procedures to support breathing and circulation including cardiopulmonary resuscitation (CPR) with chest compressions and artificial respiration and the use of an automated external defibrillator (AED). Prompt initiation of CPR by bystanders is essential to improve the survival rate of individuals in cardiac arrest and prompt BLS plays a major role in their reintegration into society. The international consensus on CPR has recently been revised after five years (Nolan et al., 2015), with the updated Japan Resuscitation Council Resuscitation Guidelines published in 2020 (Japan Resuscitation Council, 2020). This guideline includes detailed guidance on compression depth and rhythm of cardiac massage, with improved quality of cardiac massage highlighted as particularly important in increasing survival following cardiac arrest. Effective education and training are important as quality CPR requires accurate compression depth, rhythm, and ventilation volume.

Studies of BLS simulations for nursing students have reported learning effects in students who had prior knowledge of BLS (Requena-Mullor et al, 2021). However, visual assessment is reported to be inaccurate in assessing quality of CPR (Brennan et al., 2016). Accordingly, the Resuscitation Guidelines 2020 include game-based learning, virtual reality, full mastery learning, iterative learning, and on-site simulation, which did not receive significant attention in the Resuscitation Guidelines 2015 (Japan Resuscitation Council, 2015). The new learning styles advocated by the revised Resuscitation Guidelines are expected to further promote the development and effectiveness of teaching materials. In educational settings, devices that can objectively evaluate CPR skills have been developed as a means of increasing educational effectiveness, with teaching materials that provide real-time feedback increasingly being used. In recent years, the use of feedback devices in BLS training for medical personnel has been shown to improve CPR skills (Abella et al., 2007; Lin et al., 2018; Otero-Agra et al., 2019; Semeraro et al., 2019); however, feedback devices for CPR have not previously been evaluated in prelicensure nursing students.

Accordingly, we focused on QCPR Little Anne, a cardiopulmonary resuscitation simulator that incorporates a feedback device into CPR training, and QCPR Learner, a dedicated application that allows learners to check their performance. QCPR Learner can be used in conjunction with QCPR Little Anne to obtain objective feedback on the quality of CPR from a smartphone or tablet PC. In the basic nursing curriculum, students are required to acquire BLS skills by the time they graduate from the program. The present study therefore aimed to develop a BLS training program with real-time feedback incorporating QCPR Little Anne and QCPR Learner to enhance emergency response skills in a basic nursing education program. The BLS training program was evaluated according to three aspects: learner response including satisfaction, learning achievement, and overall program evaluation. QCPR is not a skill that can be experienced routinely in clinical practice. In addition, for nursing students, it is a skill that they may not always be able to experience during clinical practice. Objective feedback on the quality of QCPR would help students to further improve their skills through repeated self-leaning.

II. METHODS

A. Program Overview

In the BLS training program, participants were required to study until they achieved a score of 100 on a test of items related to BLS in the online educational tool Nursing Skills as a prerequisite for program participation. This is because in simulation education, it is important to learn practically based on an understanding of knowledge. Those who fulfilled the conditions for participation participated in the program, and a pretest and simulation training assignments were conducted.

B. Study Participants

The present study comprised fourth-year undergraduate nursing students in the School of Nursing at Nagoya City University in Japan. All students consented to participation in the present study.

C. Training Program Development

The development process of the program used in the present study is described below. CPR is one of the essential skills for both nursing students and health care providers. In clinical settings, BLS training has been shown to be effective in allowing trainees to respond quickly in situations requiring BLS (Kuyt et al., 2021; Shin et al., 2015). However, the effectiveness of BLS education in basic nursing curricula has not been adequately examined despite BLS being a requirement for graduation. In recent years, teaching materials have been developed that allow real-time visualisation of performance using cardiopulmonary resuscitation simulators that incorporate feedback devices. As BLS education is required by nursing students before graduation, visualisation of skills through real-time feedback may represent a useful addition to BLS training.

The following learning objectives for the program were set with reference to the skills required of nursing students at graduation (Ministry of Health, Labor and Welfare, 2021) and the BLS provider course conducted by the ACLS Association of Japan (American Heart Association, 2016). Goal 1: Be able to perform an initial assessment of an injured or unwell individual following a witnessed collapse. Goal 2: Be able to request support from the emergency response system. Goal 3: Be able to immediately perform CPR. Goal 4: Be able to promptly use an automated external defibrillator (AED). The program focused on how to respond as a bystander following a witnessed collapse of a patient and included BLS training for in-hospital cardiac arrest as an algorithmic simulation that assumes an actual situation. During the program design, interviews were conducted with nurses with extensive BLS teaching experience and experts in simulation education to confirm the appropriateness and validity of the content. In addition, a pilot test was conducted by researchers and nursing faculty with experience in BLS education for nursing students.

The specific program flow was as follows. An orientation and pre-test were given to participants who met the prerequisites. The simulation used one QCPR Little Anne per group of three to four participants. Each facilitator was assigned one or two groups. After a 10-minute briefing, the participants were divided into groups. Group members took turns and each person performed two 5-minute simulations. Each simulation consisted of preparation, practical (two minutes), and feedback. QCPR Learner real-time feedback consisted of overall score, compression depth, and ventilation rate (Laerdal, 2022). Performers were also advised of the observations of the group members and facilitators. A 20-minute debriefing was held after all participants had completed the simulation. The evaluation was conducted from three aspects: learner response including satisfaction and program evaluation, as Level 1 response of Kirkpatrick’s four-level evaluation method (Gagne et al., 2005), and learning achievement, as Level 2 learning.

D. Data Collection

1) Survey Contents:

As a pre-test, a test consisting of five questions was evaluated the learners’ knowledge before the program. The pre-test was created based on a test of items related to BLS in the online educational tool Nursing Skills, with correct answer scoring one point. Learner responses were assessed before and after the program using a self-administered, anonymous learner response sheet. The response sheet consisted of questions regarding attention, relevance, confidence, and satisfaction on a 5-point Likert scale with reference to previous research (Hirakawa et al., 2018) on the Kirkpatrick’s Four-Level Training Evaluation Model (Alzahrani, 2016) was originally developed. Participants were also given the opportunity to provide free-response statements. As a measure of learning achievement, the overall score for each applicant was used in the study analysis. A Class Evaluation Scale for Nursing Skills Practice (Mochizuki & Nagano, 1999) was administered after the program to allow evaluation of the overall program. The class evaluation scale is a scale consisting of 39 questions on six subscales.

2) Survey Method:

Prior to the start of the exercise, the pre-tasks were reviewed, and a pre-test and response sheet were administered. After the program, response sheets and class evaluation scales were distributed to all participants. The response sheets and class evaluation scales were collected anonymously. Data collection was conducted in September 2020.

E. Data Analysis

For quantitative data, the correspondence t-test was used to compare test scores and an independent t-test was used to compare data from learner response sheets. Descriptive statistics were used for program evaluations. For qualitative data, free-response statements and class evaluation scores were categorised to maintain semantic content. Codes, subcategories, and categories were checked between researchers to enhance the veracity of the analysis. Quantitative data were analysed using SPSS ver. 28.0.

III. RESULTS

A. Overview of Study Participants

A total of 81 students participated in the present study after provided informed consent. Valid responses were obtained from 78 students (96.2%) for the first response sheet, from 80 students (98.8%) for the second response sheet, and from 78 students (96.2%) for the overall class evaluation form. The mean score on pre-test was 4.57 ± 0.67.

B. Learner Reactions

Comparisons of scores from the pre- and post-program response sheets are shown in Table 1 (Masuda, 2023). Significantly increases in all four assessed areas were observed after the program: interest (t= −2.74; P = 0.01), relevance (t= −2.926; P = 0.00), confidence (t= −10.45; P = 0.00), and satisfaction (t=−8.12; p = 0.00). The four items on the response sheets were strongly and positively correlated with interest and satisfaction (pre: r = 0.51; post: r = 0.58) and confidence and satisfaction (pre: r = 0.87; post: r = 0.74) before and after the program, respectively.

 

Pre-program group (n=78)

Post-Program group (n=80)

t

p

 

M

SD

M

SD

Attention to learning BLS

4.32

.69

4.59

.52

-2.73

.01

Are relevance to learning BLS

4.48

.66

4.75

.49

-2.92

.00

I am confident in my BLS skills

2.32

1.02

3.78

.71

-10.45

.00

I am satisfied with my current BLS skills

2.12

1.08

3.41

.92

-8.12

.00

Table 1. Learners’ responses to BLS in the pre- and post-program

Independent t-test: M = mean, SD = standard deviation

The free-response statements were summarised resulting in 116 codes, 17 subcategories, and four categories. Responses related to subcategories and “categories” are shown below (Table 2: Masuda, 2023). The most frequent positive responses were those related to the effectiveness of QCPR Learner. Examples of statements representative of categories and subcategories are provided below.

Visualisation of the appropriateness of the technique clarified my issues, I can improve by checking my current level with the application and “Visualisation of the technique with the application improved my skills”. Comments related to the effectiveness of QCPR Learner informed the “I improved my skills through repetitive practice training” category consisting of subcategory statements such as I improved my skills through repetitive training, and my skills improved through practical training. The category “Learned the elements of techniques necessary for QCPR” consisted of statements informing subcategories such as using the back mask was difficult and I was able to learn a series of BLS techniques. The category “I realised that the effectiveness of BLS is enhanced through group cooperation” included the subcategory “I was able to enhance my skills with my group members, including encouragement and feedback from members”. Statements informing the “Increased motivation to learn” category included I enjoyed improving my skills, I am glad I participated, I gained confidence, and if something happens, I will be able to implement BLS.

Subcategory

Category

Visualising the appropriateness of the technique helped clarify issues

Skills improved through visualisation of techniques by application

Enjoyed learning while improving the accuracy of skills

The use of the app increased my motivation

The application allowed me to see my current level of skill so that I can improve

Practical training improved my skills

Skills improved through repetitive practice training

The content was designed for practical use

I was able to acquire skills through repetitive training

Skills improved through repetitive training

Correct use of BM is difficult

Learned the elements of techniques required for QCPR

Learned how to use the back mask

I was able to learn a series of BLS techniques

Realised that BLS requires physical strength

I was able to perform high-quality CPR by working together as a group.

Realised that BLS is more effective when working in a group

I was able to enhance my skills with my group members

I learned that BLS is more effective when we work together as a group

I was able to improve my skills in a fun way

Increased motivation to learn

If something happened, I would be able to perform it.

If something happens, I will be confused, but I will be able to cooperate with others

I gained confidence

I am glad to have participated

Table 2. Categories related to learner response

C. Learning Achievement

The second test scores on QCPR Learner were significantly higher than the first test scores (t = −4.78; P = 0.00) (Table3).

D. Program Evaluation

Regarding the class evaluation scale administered after the program, the subscale “Time allocation and difficulty of content” scored 59.49 ± 6.12, “Delivery and guidance/advice” scored 33.77± 2.21, “Use and innovation of teaching materials” scored 9.27 ± 1.02, “Demonstration” scored 26.21 ± 4.71, “Interaction among students” scored 9.64 ± 0.84, and “Attitude and response to students and exercises” scored 43.29 ± 3.30 (Table 4).

 

 

 

 

n=78

 

1st QCPR

2nd QCPR

t

P

 

M

SD

M

SD

QCPR score

74.08

23.53

86.76

14.29

-4.78

0.00

Table 3. Pre- and post-QCPR score changes

Paired-samples t-test: M = mean, SD = standard deviation

n=79

 

M

SD

Time allocation and difficulty of the content

59.49

6.12

Delivery and guidance/advice

33.77

2.21

Use and innovation of teaching materials

9.27

1.02

Demonstration

26.21

4.71

Interaction among students

9.64

.84

Attitude and response to students and exercises

43.29

3.30

Table 4. Evaluation of a class evaluation scale for nursing skills practice

Subjects were asked to respond to an open-ended question regarding their evaluation of the program, resulting in 29 codes, 10 subcategories, and six categories. Responses related to subcategories and “categories” are shown below (Table 5). Statements related to evaluation of the program content and facilitators informed the category “The facilitator’s involvement was good” consisting of statements representative of the subcategories the entire program was clear and concise, and the facilitator created an easygoing atmosphere. The category “The program time and content were just right” consisted of subcategories informed by statements such as the time of the program was just right, and the amount of the program was just right. There were a few opinions regarding the content of the program and the instructors such as there were some problems with the application, more specific explanations would have been better, and there were too many hours spent on the exercise.

Subcategory

Category

The entire program was clear and concise

The facilitators involvement was good

The Facilitators created an easygoing atmosphere

The time of the program was just right

The program time and content were just right

The amount of program was just right

There were some problems with the application

There was a glitch in the application

More specific explanations would have been better

More specific explanations would have been better

There were too many hours spent on the exercise

The time commitment was too much

The time commitment was too much

Table 5. Categories related to evaluation of the program

IV. DISCUSSION

A. Evaluating Programs from the Perspective of Learner Responses

The results of the response sheets administered before and after the program demonstrated a significant increase in all items. BLS skills are technical items in the nursing education curriculum designated by the Ministry of Health, Labor and Welfare (Ministry of Health, Labor and Welfare, 2021) that may be required in clinical practice. The implementation of simulations of potential future scenarios promotes student motivation (Hae-Kyoung, 2021). and simulations are known to be an effective learning method for putting theoretical knowledge into practice and reducing fear before encountering real situations (Carrero- Planells et al, 2021). The students were highly satisfied with the simulation in the present study as they had completed their clinical training, had an image of the clinical situation, and recognised that it was a necessary skill for post-graduates.

In addition, a correlation was observed between interest in BLS and satisfaction with BLS, and between confidence and satisfaction with BLS. The findings indicate that it is necessary to select subjects that are already interested in BLS and likely to have greater satisfaction with BLS training and to structure BLS programs in a way that leads to confidence and satisfaction with BLS skills.

Many participants in the present study gave positive evaluations of the program, such as “Visualisation of the technique by the application helped me improve my skills.” The effectiveness of visual feedback has been shown to be effective in improving skills in previous studies in other fields (Unell et al., 2021; Yamamoto et al., 2019). The QCPR Learner used in this study also make it clear at a glance whether the current skill of the self is appropriate, due to is visualised the CPR situation in real time. For example, by following the application parameters while performing chest compressions, the learner was able to learn how to utilise his/her own body functions accurately while performing the CPR. Thus, we believe that the real-time visual feedback was a challenge for the learners and helped them to improve their skills.

The learners also realised that visualisation and repetitive training using the QCPR Learner helped them learn the elements of the technique necessary for high-quality CPR and that the effectiveness of BLS was enhanced through group cooperation. Furthermore, this may have led to increased motivation to learn. The ARCS model (Keller, 2010), a model for improving motivation to learn proposed by John Keller in 1983 (Keller, 1987), describes the following actions that educators should take to improve and maintain learner motivation: attention, relevance, confidence, and satisfaction. From the components of the “Increased motivation to learn” category identified in the present study, the following subcategories were developed: I enjoyed improving my skills, if something happens, I will be able to implement BLS, I gained confidence, and I am glad I participated.

Considering the four aspects of the ARCS model, “Enjoyed” corresponds to attention, “Will be able to implement” to relevance, “Gained confidence” to confidence, and “Glad to have participated” to satisfaction. A key finding of the present study was the importance of simulating all four aspects of the ARCS model, as evidenced by the increased motivation to learn among participating nursing students.

B. Learning Effectiveness in terms of Learning Attainment

Our program used QCPR Little Anne and QCPR Learner to improve BLS skills, with feedback given according to the application score after the first implementation. As a result, significantly higher scores were obtained in the second session. Previous studies have reported that visual feedback enables students to perform challenging procedures such as ensuring the correct depth of chest compressions (Baldi et al., 2017). In our program, students were able to visually perceive them own BLS skills as numerical values indicating weaknesses and areas for improvement, thereby leading to improved BLS skills.

C. Program Evaluation

Program feedback, time allocation and difficulty level of the content, communication of significance and objectives, guidance and advice, use and innovation of teaching materials, demonstration, interaction among students, and attitude and response to students and exercises were all highly evaluated in the present study. The program was conducted in small groups after the students watched a demonstration video with clearly stated objectives and goals. We believe this approach increased student motivation to learn BLS skills. The program also received positive feedback from the facilitators and group members during individual training and the facilitators provided timely advice, which led to skill improvement. These results indicate that the program provided appropriate conditions for the acquisition of BLS skills.

In the results of the free description, most of the participants were positive about the facilitator’s involvement and the duration and content of the program. On the other hand, some participants felt that the program was too time-consuming, albeit only slightly. This may be attributable to the extra time required to change clothes due to coronavirus precautions. In addition, some participants expressed a desire for more practice. The QCPR Learner used in this program can be easily installed on the learner’s own device. We therefore believe that methods that allow self-study at any time may satisfy the desire to learn and lead to skill improvement. Regarding the device, one participant stated “There was a problem with the application”; however, this was expected and could be avoided as a spare device had been prepared in advance. We were able to confirm once again that preparing in advance for anticipated problems and responses to them is an important factor for success when using such devices.

 V. CONCLUSION

The results of the present study demonstrate that visualisation of skill improvement using an application that provides real-time feedback was effective in increasing motivation to learn and improving BLS skills. This led some of the learners to request further training. Although it is possible to increase the training time per person by increasing the program duration or the number of simulations, this is limited by cost and manpower. Accordingly, it is necessary to establish a self-learning system that enables learning at any time.

Notes on Contributors

Mitsumi Masuda, Naomi Kimura, and Akemi Nakagaki contributed to all process of this research and read and approved the final manuscript.

Dr. Mitsumi Masuda, PhD, RN, is an associate professor at the Graduate School of Nursing, Nagoya City University. She reviewed the literature, designed the study, performed data collection, data analysis and wrote the manuscript. 

Dr. Naomi Kimura, PhD, RN, MW, is an assistant professor at the Graduate School of Nursing, Nagoya City University. She developed the methodological framework for the study, performed data collection, data analysis and gave critical feedback to the writing of the manuscript. 

Dr. Akemi Nakagaki, PhD, RN, MW, is an associate professor at the Graduate School of Nursing, Nagoya City University. She performed data collection and data analysis. All the authors have read and approved the final manuscript.

Ethical Approval

The present study was conducted with the approval of the Research Ethics Review Committee of Nagoya City University (approval number: 20011-3). The research subjects were informed orally and in writing of the purpose, methods, protection of personal information, respect for their free will, that the submitted assignments would be processed for research after class evaluation so that individuals would not be identified, and that they would not be involved in any individual class evaluation.

Data Availability

Datasets generated and/or analysed during the current study are available from the following URL:

https://doi.org/10.6084/m9.figshare.21918864.v1

Acknowledgement

We would like to thank all the nursing students who willingly cooperated in the present study.

Declaration of Interest

The authors declare that the research was conducted in the absence of any commercial or financial relationships that could be construed as a potential conflict of interests.

Funding Statement

This study was completed without the support of the funding.

References

Abella, B. S., Elizabeth, D. P., Myklebust, H., Barry, A. M., O’Hearn, N., Vanden Hoek, T. L., & Becker, L. B. (2007). CPR quality improvement during in-hospital cardiac arrest using a real-time audiovisual feedback system. Resuscitation, 73(1), 54-61. https://doi.org/10.1016/j.resuscitation.2006.10.027

Alzahrani, A. R. (2016). Kirkpatrick’s four-level training evaluation model. International Journal of Scientific and Engineer ing Research, 7(5), 66-69.

American Heart Association. (2016). Basic life support instructor manual for instructor-led training. American Heart Association.

Baldi, M. E., Cornara, S., Contri, E., Epis, F., Fina, D., Zelaschi, B., Dossena, C., Fichtner, F., Tonani, M., Di Maggio, M., Zambaiti, E., & Somaschini, A. (2017). Real-time visual feedback during training improves laypersons’ CPR quality: A randomized controlled manikin study. Canadian Journal of Emergency Medi- cine, 19(6), 480-487. https://doi.org/10.1017/cem.2016.410

Brennan, E. E., McGraw, R. C., & Brooks, S. C. (2016). Accuracy of instructor assessment of chest compression quality during simulated resuscitation. Canadian Journal of Emergency Medicine, 18(4), 276-282. https://doi.org/10.1017/cem.2015.104

Carrero-Planells, A., Pol-Castaneda, S., Candida, M., Alamillos-Guardiola, M. C., Prieto-Alomar, M., Tomas-Sanchez, M., & Moreno-Mulet, C. (2021). Students and teachers’ satisfaction and perspectives on high-fidelity simulation for learning fundamental nursing procedures: A mixed-method study. Nurse Education Today, 104, Article 104981. https://doi.org/10.1016/j.nedt.2021.104981

Gagne, R. M., Wager, W. W., Golas, K. C., Keller, J. M., & Russell, J. D. (2005). Principles of instructional design (5th ed.). Cengage Learning.

Hae-Kyoung, S., & Son, H. K. (2021). The effects of simulation problem-based learning on the empathy, attitudes toward caring for the elderly, and team efficacy of undergraduate health profession students. International Journal of Environmental Research and Public Health, 18(18), 1-13. https://doi.org/10.3390/ijerph18189658

Hirakawa, Y., Yahiro, Y., Fukano, K., Nakamura, M., Maruyama, T., Usui, Y., & Aoki, N. (2018). Student’s evaluation on simulation learning in perioperative nursing. Journal of Japan Association for Simulation-Based Education in Healthcare Professionals, 6, 36-40.

Japan Resuscitation Council. (2015). JRC resuscitation guideline 2015. IGAKU-SHOIN Ltd.

Japan Resuscitation Council. (2020). JRC Resuscitation Guideline 2020. IGAKU-SHOIN Ltd.

Keller, J. M. (2010). Motivational design for learning and performance: The ARCS model approach (1st ed.). Springer.

Keller, J. M. (1987). Development and use of the ARCS model of instructional design. Journal of Instructional Development, 10(3), 2-10.

Kuyt, K., Mullen, M., Fullwood, C., Chang, T. P., Fenwick, J., Withey, V., & MacKinnon, R. J. (2021). The assessment of a manikin-based low-dose, high-frequency cardiac resuscitation quality improvement program in early UK adopter hospitals. Advances in Simulation, 6(14), 1-12. https://doi.org/10.1186/s410 77-021-00168

Laerdal. (2022). Products & services. Laerdal. Retrieved November 1, 2022, from https://laerdal.force.com/HelpCenter/s/ article/QCPR-App-feedback-symbols-and-scoring

Lin, Y., Cheng, A., Grant, V. J., Currie, G. R., & Hecker, K. G. (2018). Improving CPR quality with distributed practice and real-time feedback in pediatric healthcare providers – A randomized controlled trial. Resuscitation, 130, 6-12. https://doi.org/10.1016/ j.resuscitation.2018.06.025

Masuda, M. (2023). Real-time feedback in basic nursing education: Evaluation of basic life support training programs [Data set]. Figshare. https://doi.org/10.6084/m9.figshare. 2191886 4.v1

Mochizuki, M., & Nagano, M. (2015). Classroom process evaluation scale for nursing skills exercises. IGAKU Ltd.

Ministry of Health, Labour and Welfare. (2021). Operational guidelines for the technical intern training program relating to specific occupations and operations regarding the standards for the occupation ‘care worker’. Retrieved November 30, 2022, from https://www.jspcun.or.jp/wp/wp-content/uploads/2021/03/guideli ne_2020.11.26.pdf

Nolan, J. P., Hazinski, M. F., Aickin, R., Bhanji, F., Billi, J. E., Callaway, C. W., Castren, M., de Caen, A. R., Ferrer, J. M., Finn, J. C., Gent, L. M., Griffin, R. E., Iverson, S., Lang, E., Lim, S. H., Maconochie, I. K., Montgomery, W. H., Morley, P. T., Nadkarni, V. M., & Zideman, D. A. (2015). Part 1: Executive summary: 2015 international consensus on cardiopulmonary resuscitation and emergency cardiovascular care science with treatment recommendations. Resuscitation, 95, e1-31. https://doi.org/10.10 16/j.resuscitation.2015.07.039

Otero-Agra, M., Barcala-Furelos, R., Besada-Saavedra, I., Peixoto-Pino, L., Martiínez-Isasi, S., & Rodriíguez-Nunúñez, A. (2019). Let the kids play: Gamification as a CPR training methodology in secondary school students. A quasi-experimental manikin simulation study. Emergency Medicine Journal, 36(11), 653-659. https://doi.org/10.1136/emermed-2018-208108 

Requena-Mullor, M. D. M., Alarcón-Rodríguez, R., Ventura-Miranda, M. I., & García-González, J. (2021). Effects of a clinical simulation course about basic life support on undergraduate nursing students’ learning. International Journal of Environmental Research and Public Health, 18(4), Article 1409. https://doi.org/10.3390/ijerph18041409

Semeraro, F., Frisoli, A., Loconsole, C., Mastronicola, N., Stroppa, F., Ristagno, G., Scapigliati, A., Marchetti, L., & Cerchaiari, E. (2019). Kids (learn how to) save lives in the school with the serious game Relive. Resuscitation, 36(11), 653-659. https://doi.org/10.1016/j.resuscitation.2017.04.038

Shin, N., Tonaka, K., Dosaka, A. (2015).  Study of educational effects of BLS training for each number of attempts – from the result of analysis of a participant questionnaire. The Bulletin of Keio University Health Center, 33, 115-121.

Unell, A., Eisenstat, Z. M., Braun, A., Gandhi, A., Gilad‑Gutnick, S., Ben‑Ami, S., & Sinha, P. (2021). Influence of visual feedback persistence on visuo‑motor skill improvement. Scientific Reports, 11, Article 17347. https://doi.org/10.1038/s41598-021-9

Yamamoto, R., Akizuki, K., Kanai, Y., Nakano, W., Kobayashi, Y., Ohashi, Y. (2019). Differences in skill level influence the effects of visual feedback on motor learning. Journal of Physical Therapy Science, 31(11), 939–945. https://doi.org/10.1589/jpts.31.939

*Mitsumi Masuda
Nagoya City University,
1, Kawasumi, Mizuho-cho,
Mizuho-ku, Nagoya, 467-8601, Japan
+81-52-853-8063
E-mail: m.masuda@med.nagoya-cu.ac.jp

Submitted: 10 April 2023
Accepted: 15 May 2023
Published online: 3 October, TAPS 2023, 8(4), 59-60
https://doi.org/10.29060/TAPS.2023-8-4/LE3036

Siti Suriani Abd Razak, Bhavani Veasuvalingam, Pathiyil Ravi Shankar & Norul Hidayah Mamat

IMU Centre for Education, International Medical University, Malaysia

Dear Editor,

We read the article titled ‘Involving stakeholders in re-imagining a medical curriculum’ (Foster, 2022) with great interest. We would like to share our experiences and extend the importance of stakeholder involvement in postgraduate health professions education programmes (PGHPE). These programmes are utilised by educators for skills development, career progressions and advancement of health professions education across various health professions. Our institution started accredited PGHPE programmes in 2018 to equip health professional educators within and outside our institution with competencies to deliver evidence-based education and impact graduate outcomes positively. Our curriculum review conducted in early 2023, began with a stakeholder engagement meeting involving students, facilitators, alumni, employers, and ‘institutional partners’ (national and international HPE experts). Focus group discussions were held on four areas: (1) HPE ‘Industry’ institutional Needs and Graduate Competencies, (2) Student Experience, (3) Scholarship in HPE, and (4) Inter-Institutional Partnership and Collaboration.

Four key outcomes emerged from the engagement. The four outcomes were increased educators’ competency, digitalisation in health profession education, supporting scholarly work and publication and widening the scope of learning with global engagement.

The first theme of increased educators’ competency is related to the value of our PGHPE programmes. Our alumni strongly felt their teaching and learning competencies were enhanced and they were more confident in accepting leadership roles. Greater emphasis on contextualisation was requested for example local and regional accreditation frameworks. Stakeholders jointly highlighted the increasing use of artificial intelligence (AI) in HPE and emphasised that both awareness of and being able to work with digital tools is important. The use of AI in curriculum design, review and assessment may need greater emphasis. Greater HPE student engagement with online learning tools and assessments to promote deep learning was firmly echoed by our stakeholders.

The need for greater support to facilitate educational research and the possible formation of research consortiums was widely agreed upon by participants. The team has identified and initiated Health Professional Educational Research Clusters to facilitate HPE students achieve this goal. The final theme focused on widening engagement and collaboration. The centre’s strong international collaboration provides opportunities for HPE students to share ideas and thoughts and enhances networking and collaboration.

As a postgraduate programme, the number of alumni is more limited, and are educators with work experience, hence stakeholder involvement becomes more valuable to programme developers. Importantly, postgraduate programmes provider can utilise stakeholder engagement and feedback during different stages in a developmental manner.

Notes on Contributors

Siti Suriani Abd Razak organised and conducted the stakeholders’ engagement meeting, conceptualised and wrote the manuscript and approved the final version.

Bhavani Veasuvalingam organised and conducted the stakeholders’ engagement meeting, conceptualised, revised the manuscript and approved the final version.

Pathiyil Ravi Shankar organised and conducted the stakeholders’ engagement meeting, conceptualised, revised the manuscript and approved the final version

Norul Hidayah Mamat organised and conducted the stakeholders’ engagement meeting, revised the manuscript and approved the final version.

Acknowledgement

We would like to thank Professor Vishna Devi Nadarajah and Professor Er Hui Meng for their support and feedback in the process of conducting the stakeholders engagement meeting and writing this letter.  

Funding

No funds, grants, or other support were received. 

Declaration of Interest

No conflicts of interest are associated with this paper.

References

Foster, K. (2023). Involving stakeholders in re-imagining a medical curriculum. The Asia Pacific Scholar, 8(1), 43-46. https://doi.org/10.29060/TAPS.2023-8-1/SC2807

*Siti Suriani binti Abd Razak
No 126, Jalan Jalil Perkasa 19
Bukit Jalil, 47000
Kuala Lumpur, Malaysia
+6019-4429985
Email: sitisuriani@imu.edu.my

Submitted: 14 March 2023
Accepted: 31 March 2023
Published online: 3 October, TAPS 2023, 8(4), 57-58
https://doi.org/10.29060/TAPS.2023-8-4/LE3021

Tomoko Miyoshi1, Mikiko Iwatani2 & Fumio Otsuka1

1Department of General Medicine, Faculty of Medicine, Dentistry and Pharmaceutical Sciences, Okayama University, Japan; 2Department of Nursing, Okayama University Hospital, Japan

It was found that the excess mortality rate for U.S. physicians was considerably lower during the COVID-19 pandemic than in the general population, but more physicians died than expected when compared to pre-pandemic levels. These results suggest that appropriate infection control measures can reduce mortality; however, additional measures are needed.

During the COVID-19 pandemic, there have been many reports of burnout among healthcare professionals (HCPs). Although no causal relationship has been established, it is acknowledged that it would be difficult to pay attention to mental health issues and the creation of a healthy work environment during a pandemic.

Globally, the COVID-19 pandemic has subsided, but what have we learned from this COVID-19 pandemic?

We conducted six online significant event analyses (SEAs) in collaboration with facilities providing administrative support, nursing care, and medical care for COVID-19-infected individuals in March 2022. The participants were limited to HCPs and healthcare students. The presentations were based on actual cases of COVID-19-infected patients, focusing on the struggles of their positions and efforts to overcome them. Seventy-three people participated, and 38 responded to the post-event survey (52.1% response rate). Twenty respondents (52.6%) were satisfied, and 16 (42.1%) were very satisfied with this initiative, with gratitude for having the reflection.

SEA, a method of reflection, is a learning process in which recognition of one’s feelings is important (Henderson et al., 2002). HCPs are always considered to be engaged in reflective practices. However, during the COVID-19 pandemic, there were issues that were insufficient to transfer previous experiences. However, in the case of the COVID-19 pandemic, “reflection in action” was not sufficient to overcome the challenges, and the SEA may have served as a place for “reflection on action” to prepare for the next stage of the COVID-19 pandemic.

Furthermore, this SEA provided an opportunity to recognise the existence of “common humanity,” which is one of the three elements of self-compassion (the ability to understand that people other than oneself are also suffering). It is believed that, through the SEA, the HCPs were able to become aware of the feelings of other HCPs. It has been reported that increased self-compassion increases compassion for others (Neff & Germer, 2013), and the increased self-compassion of HCPs may increase their compassion for other HCPs and patients.

In the COVID-19 pandemic, reflection among healthcare providers beyond the facility may enhance self-compassion and compassion for others in preparation for the next pandemic, which may lead to HCPs’ well-being.

Notes on Contributors

T Miyoshi conceptualised and wrote the manuscript and approved the final version.

M Iwatani conceptualised and approved the manuscript.

F Otsuka supervised and edited the manuscript.

Funding

There is no funding provided.

Declaration of Interest

There is no conflict of interest, including financial, consultant, institutional or otherwise for the author.

References

Henderson, E., Berlin, A., Freeman, G., & Fuller, J. (2002). Twelve tips for promoting significant event analysis to enhance reflection in undergraduate medical students. Medical Teacher, 24(2),121–124. https://doi.org/10.1080/01421590220125240 

Neff, K. D., & Germer, C. K. (2013). A pilot study and randomized controlled trial of the mindful self-compassion program. Journal of Clinical Psychology. 69(1), 28–44. https://doi.org/10.1002/jclp.21923

*Tomoko Miyoshi
2-5-1 Shikata-cho, Kita-ku
Okayama, 700-8558, Japan
+81-86-235-7342
Email: tmiyoshi@md.okayama-u.ac.jp

Submitted: 4 February 2023
Accepted: 19 April 2023
Published online: 3 October, TAPS 2023, 8(4), 53-56
https://doi.org/10.29060/TAPS.2023-8-4/CS3003

Maximilian Andreas Storz1 & Rintaro Imafuku2

1Department of Internal Medicine II, Center for Complementary Medicine, Faculty of Medicine, Freiburg University Hospital, University of Freiburg, Germany; 2Medical Education Development Center, Gifu University, Japan

I. INTRODUCTION

International medical electives are a central component of the academic curriculum in many medical schools and universities worldwide (Storz, 2022). As short-term clinical immersion experiences, abroad electives are essential in connecting medical faculties and academic hospitals around the globe. They foster cross-cultural exchange, medical skill training, as well as professional identity formation (Imafuku et al., 2021; Storz, 2022). From a global health perspective, abroad electives provide medical students with an opportunity to gain a better understanding of healthcare and medical education in an international context.

Historically, some countries cultivate close relationships in this regard. One example is the bilateral relation between Japan and Germany, which is characterised by a strong economic cooperation and close political dialogue (Hook et al., 2011). As pluralistic democracies, both share fundamental values and are closely tied in many socioeconomic aspects. Traditionally, there has also been a strong partnership in medical sciences between both countries (Horowski, 2018).

Japan is traditionally a popular destination for German-speaking medical students (Storz et al., 2021), and the most frequently reported elective destination in Asia. Nevertheless, little is known about student’s elective experiences in Japan. To address this gap, we reviewed four German open-access online-databases cataloguing elective testimonies and extrapolated key elective characteristics that may allow for a better understanding of abroad elective experience in Japan.

II. METHODS

The employed analysis method with its strengths and drawbacks has been described elsewhere (Storz et al., 2021). In brief, we analysed the 4 largest German open-access clinical elective reports databases called “Famulatur-Ranking” (www.famulaturranking.de), “PJ-Ranking” (www.pj-ranking.de), “ViaMedici” (https:// www.thieme. de/viamedici/medizin-im-ausland-ausland saufenthalt-allgemein-1627.htm), and “Medizinernach-wuchs” (www.medizinernachwuchs.de). Databases allow students to anonymously rate medical electives and to share their experience by uploading reports on a voluntary basis. Key information necessary to upload a report include the precise elective destination (e.g. country, city, hospital name), the elective year, the elective discipline and duration, a subjective elective rating (ranging from 1 to 6, whereby 1 is the best and 6 is the worst grade), and a short comment allowing a brief narrative summary of the elective experience. Generally, elective ratings refer exclusively to a subjective “overall elective experience”, and are not based on a clear rubric to guide students in their rating process. The databases’ search function was used to filter Japan-specific electives. For this particular analysis, all electives from 2005 onwards were considered. Databases were reviewed in September 2022 and data pertaining to any kind of clinical elective experience in Japan was then extrapolated to a Microsoft Excel-File.

III. RESULTS

We extrapolated n=36 Japan elective reports uploaded until 2020. Tokyo was the most frequently reported elective destination, accounting for 47% of reports (n=17), followed by Kyoto (11%, n=4). The remaining elective destinations are shown in Figure 1, which displays regions (coloured) and prefectures of Japan.

Figure 1. Elective destinations in Japan: An overview. Modified from TUBS (https://commons.wikimedia.org/wiki/File:Regions_and_Prefectures_of_Japan_no_labels.svg), based on a license under the Creative Commons Attribution-Share Alike 4.0 International license.

General surgery was the most frequently reported discipline (30.56%, n=11), followed by internal medicine (22.22%, n=8). Surgical disciplines accounted for 45% of reported electives (n=16), whereas internal medicine (including subspecialties) accounted for 1/3 of reports (n=12). The following disciplines accounted for n=3 reports each: Gastroenterology, Gynaecology, Neurology and Radiology.

Thirty-three students shared organisational details of their electives. More than 60% of electives were self-organised (n=20). Thirty-nine percent of electives (n=13) were organised through a bilateral international elective exchange program where a Japanese university partnered with a German university based on a signed memorandum of understanding.

Eight students possessed Japanese language skills to a varying degree (22.22%). Three students reported learning Japanese for one year, while one student learned Japanese for more than two years. The remaining four students did not share any information about their level of Japanese language skills. Despite the rather low percentage of students speaking Japanese, the vast majority of students rated their overall experience in Japan as excellent (grade: A, n=26). Of 28 students, two students rated their elective with the grade B.

Students reported a diverse set of gratifying elective experiences. The large majority of reports (n=33, 97.22%) highly appreciated the Japanese hospitality and the high level of social manners. More than half of students (n=19, 52.78%) reported the impression that students were generally highly respected in Japan. Frequent high-quality teaching and a thorough elective organisation were frequently mentioned (n=27 and n=29 mentions, respectively). Students also valued that they received clear instructions on the first elective day, often receiving in the form of a timetable or schedule, detailing their assignments, classes and teaching opportunities. Fourteen reports explicitly mentioned that a contact person at the international office was always available for questions, and reported their elective to be first-class in terms of organisation and structure.

Many students were surprised that students are denied hands-on experience in Japan by law prior to graduation, although this is usually explicitly mentioned on the elective program homepages. Almost 42% of students (n=15) valued that their hosting institution organised social and cultural events, including get-togethers and language courses. Eating-out after work with other hospital staff was considered an important and highly appreciated team-building strategy.

One third of students (n=12) stated that they received enough free time to explore the Japanese culture. Finally, n=5 students (13.89%) expressed their appreciation for the high technical standard in Japanese hospitals, particularly in terms of medical equipment and workflow.

IV. DISCUSSION

Our descriptive analysis allows for various helpful insights into German medical students’ destinations and experiences during their Japan elective. Students reported gratifying experiences and emphasised the very good organisation of electives in Japan.

Such information may be of paramount importance for host institutions because incoming students may be a double-edged sword. Hosting elective students is time-consuming and requires human resources. In some cases, international elective students may negatively impact the local community in terms of patient care and resource allocation (Storz et al., 2021), Then again, well-structured electives may also increase the reputation of hosting institutions and help foster bidirectional and transnational academic exchange.

As in most cases, benefits and downsides of electives are context-specific, and depend on local elective program structures. Here, students valued their electives and reported a substantial amount of gratifying experiences. Several students explicitly mentioned that their Japan elective was the “best elective during [their] entire time at medical school”. Understanding incoming students’ perspectives is vital for host institutions, and may benefit them in multiple dimensions, e.g. when tailoring elective programs. This may apply in particular to the post-COVID-19 era, where an increase in international student mobility is expected (Storz, 2022). In this context, it is worthy to mention that the majority of electives in our sample was self-organised. Host institutions should be prepared for receiving an increasing amount of elective applications in the post-pandemic years, where the elective landscape will likely be characterised by a more competitive seat-to-applicant ratio.

The reservation must be made that our analysis builds on a small convenience sample (n=36) that is not representative of German medical students in general (Storz et al., 2021). Additional interesting aspects, for example as to whether clinical experiences in Japan affected students’ career or future goals, were not ascertainable from our data. In addition, we were unable to measure whether Japan electives strengthened student’s clinical skills. Our data predominately suggested an increase in cultural competences but due to the cross-sectional nature of our data no reliable statementa can be made. For this, an interview-based approach utilising focused interviews with returnee students would have been more suitable. Regrettably, such an approach was hardly realisable during the past pandemic years.

V. CONCLUSION

Our results enable hosts to understand why foreign students seek electives at their institutions. Said information might be of paramount importance for elective organisers, since well-structured electives may increase the reputation of hosting institutions and help fostering transnational academic exchange.

Notes on Contributors

Maximilian Andreas Storz conceputalised the study, collected the data, performed the formal analysis, wrote the first draft of the manuscript, and approved the final version submitted.

Rintaro Imafuku contributed to the project administratition, supported the visualisation and criticially revised the manuscript for important intellectual content and approved the the final version submitted.

Funding

The authors received no financial support for the research, authorship, and/or publication of this article.

Declaration of Interest

The authors declare that they have no competing interests.

References

Hook, G. D., Gilson, J., Hughes, C. W., & Dobson, H. (2011). Japan’s International Relations: Politics, economics and security (3rd ed.). Routledge. https://doi.org/10.4324/9780203804056

Horowski, R. (2018). Japanese medicine and Berlin: A very special and successful relationship. Journal of Neural Transmission, 125(1), 3–7. https://doi.org/10.1007/s00702-017-1800-1

Imafuku, R., Saiki, T., Hayakawa, K., Sakashita, K., & Suzuki, Y. (2021). Rewarding journeys: Exploring medical students’ learning experiences in international electives. Medical Education Online, 26(1), Article 1913784. https://doi.org/10.1080/10872981.2021.1913784

Storz, M. A., Lederer, A.-K., & Heymann, E. P. (2021). German-speaking medical students on international electives: An analysis of popular elective destinations and disciplines. Globalization and Health, 17(1), Article 90. https://doi.org/10.1186/s12992-021-00742-z

Storz, M. A. (2022). International medical electives during and after the COVID-19 pandemic – current state and future scenarios: A narrative review. Globalization and Health, 18(1), Article 44. https://doi.org/10.1186/s12992-022-00838-0

*Maximilian Andreas Storz
Hugstetter Str. 55
79106 Freiburg im Breisgau, Germany
+49 15754543852
Email: maximilian.storz@uniklinik-freiburg.de

Submitted: 19 February 2023
Accepted: 10 July 2023
Published online: 3 October, TAPS 2023, 8(4), 50-52
https://doi.org/10.29060/TAPS.2023-8-4/PV3007

Nathasha Luke1, Reshma Taneja1, Kenneth Ban2, Dujeepa Samarasekera3 & Celestial T Yap1

1Department of Physiology, Yong Loo Lin School of Medicine, National University of Singapore, Singapore; 2Department of Biochemistry, Yong Loo Lin School of Medicine, National University of Singapore, Singapore; 3Centre for Medical Education, Yong Loo Lin School of Medicine, National University of Singapore, Singapore

Health Professional Education has considerably evolved over the years. Traditional classroom teaching has shifted to blended learning modalities, and clinical teaching has embraced virtual reality and simulation-based learning.

Education is poised for another major change with the development of artificial intelligence (AI) models that can emulate human-like intelligent behaviour, particularly in the field of large language models (LLM) that are capable of generating text in response to user input. There has been remarkable progress in the development of these models, with each iteration having an increasing ability to generate human-like responses to user input.

In November 2022, Open AI released ChatGPT. This marked a major milestone in the ability of LLMs. This leap in performance was driven in part by the training of the model on large text datasets from various sources such as books, articles, and websites. It was combined with supervised learning and reinforcement learning to fine-tune the model based on human feedback about the quality of the output. This was further augmented by the release of GPT-4, a further advanced version in early 2023.

A study demonstrated that ChatGPT was able to pass or preform at near parsing threshold in the United States Medical Licensing Examination (USMLE) (Kung et al., 2023). Also, ChatGPT passed a law entrance examination at a level equivalent to a C+ grade (Kelly, 2023). These studies highlight the potential of modern LLMs to impact education.

Despite its impressive performance, LLMs have limitations. These caveats notwithstanding, when educators and students are aware of the capabilities and limitations, LLM tools could provide opportunities to improve the way we teach and the way students learn. More evidence is needed to depict a specific model as if how this technology could be incorporated. This article particularly focuses on capabilities and limitations of LLMs in the context of medical education with suggestions on how this technology might be used. There is a huge scope for discussion on the impact of LLMs in various dimensions of medical education. However, we limit this discussion to commonest domains pertaining undergraduate medical education.

Being widely available and accessible to educators and students around the world including resource poor settings, LLMs promote equity in medical education.  Certain educational institutes have customised learning platforms to support student learning while such amenities are not accessible in resource poor settings.  On the contrary, the technology of LLMs could at least partially counterbalance such shortages promoting equity.

In addition, Universities in resource-poor settings often find inadequate number of educators as a barrier to implement new teaching strategies and curriculum reformation, particularly with the shifting paradigms to competency based medical education (Ramanathan et al., 2022). Effective incorporation of LLM tools could ease their workload to some extent, providing more time to explore new teaching pedagogies and scope for curricular reformations.  

LLM tools are being adopted in medical education, and assistive in both clinical and non-clinical settings, as discussed below. In non-clinical settings, the following are some areas where LLMs are helpful.

From an educator’s perspective, LLM tools are helpful in generating summaries, quizzes, and flashcards to make the learning interesting.

From learners’ perspective, LLM tools can generate customised information within a short span of time. For example, we may ask the LLM tool to answer a question ‘at a level of a medical student’ or ‘at the level of a resident’, to generate distinct responses. This will assist students in self-learning and understanding difficult concepts. LLM tools are also helpful in generating mnemonics, poems, and flashcards. Students who are not native English speakers will have the added advantage of AI tools being assistive in improving language skills. 

Additionally, LLMs are assistive tools in many stages of research including design and development, implementation, literature survey and data analysis.

There is emerging literature illustrating capabilities of LLMs as useful tools in medical practice (Lee et al., 2023). Though there aren’t many publications evaluating implications of current LLM technology in the domain of clinical education per -se, this technology is likely to be helpful in the development of skills such as history-taking and doctor-patient communication. Customized chatbots have been used by some medical schools to improve history-taking skills. Development of such tools are not affordable in resource-poor settings. LLM tools such as ChatGPT are not capable of ‘acting’ as a model patient to practice history taking. However, they can guide students to formulate relevant questions for effective history-taking in specific scenarios. Students should not be encouraged to use AI tools as the sole reference to guide the task, rather use it as an adjunct to ones’ thought process. For instance, if a student encounters a patient with palpitations, he or she should brainstorm based on theoretical knowledge to formulate relevant questions to be asked in history taking. An LLM tool can be an adjunct to ‘cross-check’ if all salient points were captured.

LLMs could potentially be assistive in improving patient communication skills among students and junior doctors.AI systems could aid in generating facts that are comprehensible to non-medical personnel. This ability is particularly helpful for students in generating content to practice patient communication skills. Accuracy and suitability of such information should be objectively assessed, before recommending LLM tool use for this purpose.

The LLM technology is a tool that can augment the process of multi- dimensional education, encompassing competency-based approaches to education, in addition to discipline-based education. This multidimensional approach comprises knowledge along with various other skills including professionalism, communication, practice-based learning, and patient care. This approach demands more commitment from students and educators and requires more learning resources. With the emergence of more sophisticated AI technologies, harnessing of LLM capabilities could be explored as future learning resources to be developed.

Unbundling and rebundling the curriculum is a concept that emphasizes revising the existing curricula by combining various educational resources including textbooks, lectures and web-based resources (Morris et al., 2018). This is pertinent to the multi-dimensional approach discussed above. The advances in current LLM tools have the potential to become an integral component of the curriculum bundle to meet the demands of reformations in modern medical education. 

Potential negative implications of LLM tools have caused anxiety among educators. Firstly, the content generated may not be accurate at all times. LLMs generate responses from language patterns learnt from the training data and not from a deeper understanding of a subject. This is also compounded by the inability of some LLMs to link to external resources to gauge the validity of the output. Another limitation of the current LLM technology is ‘hallucination’ to create non-existent or wrong information in a convincing manner. (Lee et al., 2023) Consequences of such information could cause huge impact particularly in patient safety in medical education.  

LLMs have potential negative implications on the evaluation of students’ learning. In modern-day multidimensional education, assessments have moved a long way from traditional examinations to include projects, assignments, and research. Certain assignments are designed to foster the development of critical thinking and analytical skills. AI tools may direct students to take an easier path in completing these tasks, impeding the accomplishment of intended learning outcomes.

There is no consensus on how this technology should be adopted in higher education. At the start, certain educational institutes banned the use of LLMs, and software was developed to detect work done by AI. These approaches are not sustainable in the long run.

Users should have a clear understanding on potentials and imitations of current LLM technology, in order to use LLMs effectively.

LLM technology is improving rapidly, and efficacious compared to many other sources of education. However they are not yet at a standpoint to be recommended as the primary source in education, rather, they could be adjuncts to standard resources like lectures, textbooks, peer-reviewed literature, and online materials. Students should know when and when not to use it, and the content should be critically and cautiously looked into.

Educators have a crucial role in guiding the students on using AI effectively. Navigating students to experience the limitations of LLMs through practical scenarios is a potential strategy. An example would be to assign students to critically analyse a draft answer generated through an LLM platform. This will allow both the students and tutors identify the capabilities and limitations of LLMs.

In the context of evolving LLMs educators have to re look into the existing assessment modalities and implement changes to ensure the potential objectives of the assessment are met. The policies regarding LLM use for the particular task should be clearly communicated to the students on contextual basis.

Impacts of LLMs on educational development is yet another area warranting discussion. This encompasses exploring the role of LLMS in instructor, instructional and organizational development. We didn’t include it within the scope of this write up.

In summary, generative AI could be harnessed to potentiate students’ learning, in knowledge acquisition as well as application. Even though LLM tools may pose challenges, we foresee a larger potential for the betterment of medical education, ultimately leading to the overall goal of better patient care. 

Notes on Contributors

WANVL, CTY, RT, DS and KB were involved in planning of the article.

WANVL drafted the initial version of the mauscript.

WANVL, CTY, RT, DS and KB revised and edited the initial draft manuscript and approved the final version of the manuscript for submission.

Funding

The authors received no financial support for the authorship or publication of this article.

Declaration of Interest

The authors do not have any conflicts of interest to disclose.

References

Kelly, S. M. (2023, January 26). ChatGPT passes exams from law and business schools. CNN Business. https://edition.cnn.com/2023/01/26/tech/chatgpt-passes-exams/index.html

Kung, T. H., Cheatham, M., Medenilla, A., Sillos, C., De Leon, L., Elepaño, C., Madriaga, M., Aggabao, R., Diaz-Candido, G., Maningo, J., & Tseng, V. (2023). Performance of ChatGPT on USMLE: Potential for AI-assisted medical education using large language models. PLOS Digital Health, 2(2), Article e0000198. https://doi.org/10.1371/journal.pdig.0000198

Lee, P., Bubeck, S., & Petro, J. (2023). Benefits, Limits, and Risks of GPT-4 as an AI Chatbot for Medicine. The New England Journal of Medicine, 388(13), 1233–1239. https://doi.org/10.1056/NEJMsr2214184

Morris, N., Ivancheva, M., Swinnerton, B., Coop, T., & Czerniewicz, L. (2018, September 11-13). Critical perspectives on unbundling and rebundling higher education provision online [Research session]. [18-97]. ALT Annual Conference, Manchester, UK. https://www.youtube.com/watch?v=F2FS0n3Dr0k

Ramanathan, R., Shanmugam, J., Gopalakrishnan, S. M., Palanisamy, K. T., & Narayanan, S. (2022). Challenges in the Implementation of Competency-Based Medical Curriculum: Perspectives of Prospective Academicians. Cureus. https://doi.org/10.7759/cureus.32838

*Celestial T Yap
Department of Physiology
Yong Loo Lin School of Medicine
National University of Singapore
+6590560468
Email: phsyapc@nus.edu.sg

Submitted: 21 December 2023
Accepted: 3 July 2023
Published online: 3 October, TAPS 2023, 8(4), 46-49
https://doi.org/10.29060/TAPS.2023-8-4/PV2934

Dhivya Subramanian

School of Medicine, University of Dundee, United Kingdom

Portfolio has been used since the early 15th century to showcase designs, and folders of work for architectural, artistic and financial purposes. Though the method of delivering a portfolio has shifted over the years from a “folder of loose papers” to “electronic portfolios” with the advent of technology; the crux of portfolios has remained the same. The purpose of portfolio to allow for a personalised approach for each individual to showcase their knowledge, professional values and skills has remained constant over the past hundreds of years. (Buckley et al., 2009) The usage of portfolio in medical education has been thought to give students more responsibilities for their own learning and development and aid in stimulating the reflective thought process (Driessen et al., 2003). Moreover, portfolio has been considered being a more holistic approach to assessing students in medicine, which allows a broader method in assessment rather than a ‘snap-shot’ examination (Van Tartwijk & Driessen, 2009).

Portfolio was first introduced in the University of Dundee in 1997 and the first portfolio assessment occurred in 1999. Portfolios are formatively assessed from 1st to 4th year and are a summative assessment in 5th, the final year (Davis et al., 2009). As a final year Singaporean student from the University of Dundee, I was introduced to the new concept of portfolio during my medical course (MBChB) and its importance was emphasised from the very beginning in Year 1. Appendix 1 underlines the portfolio requirements for the respective years. These requirements are regularly updated in our portfolio section on Medblogs (medical school website for students and staff), allowing us to check deadlines and ensure we are up to date with tasks required.

The portfolio in the University of Dundee and all universities in the United Kingdom is based on the 3 Outcomes of Graduates 2018 set by the General Medical Council (Outcome 1–Professional values and behaviours, Outcome 2–Professional skills, Outcome 3–Professional knowledge) (Monrouxe et al., 2018). All portfolios are uploaded on to the system known as “NHS e-portfolios” which provides a platform for all students throughout the nation to upload their works.

Four years ago, as a 1st year medical student, I found it hard to understand the importance of portfolio. The medical school organised lectures to inform us about the purpose of portfolio and its significance to aid our professional development. However, it appeared more of an abstract concept. Since the school gave information on what we needed to submit and when, it seemed more of a checklist of things we needed to finish. It was difficult to appreciate the holistic picture of portfolio and its purpose in our development as a medical professional.

Growing up in Singapore, practicing reflections was not part of our culture. A more difficult task-oriented environment is what most of us are used to during our schooling and work life in Singapore. The concept of reflections was new and seemed redundant, however as years went by and when I entered the clinical years of medicine (year 4 and year 5), I began to understand why the emphasis on reflection was so strong.

The reflective essays we add in our portfolio can be chosen from a list provided to us but also can be done on topics we choose ourselves to reflect on. This gives us freedom to decide what we felt was impactful during our placements and does not constrain us to write about certain issues, thus avoiding the ‘checklist-like’ feeling that can often be felt during the initial stages of developing a portfolio. The University of Dundee encourages the use of either Gibb’s cycle, Rolfe et al, or John’s model as reflective writing models to aid the reflection process.

Often my peers including myself would debate that reflections are things we do regularly, such as thinking about how the day went before we sleep or reflecting on action such as recognising a patients’ emotions while speaking to them and reacting appropriately. However, I recognised the importance of writing down reflections as we can look back at it in the future and learn from the past.

During my paediatric placement in 4th year, I had the opportunity to reflect on a case I found myself getting emotionally involved. A two-year old child was vigorously shaken by his parents which led to a hypoxic brain injury and consequently cerebral palsy. Seeing the patient every day on ward rounds was disheartening as I could witness the stark difference between the neglected, immobile child and another child playing happily in the next bed. Upon reflecting, I could appreciate that there will be circumstances in the future where I encounter similar situations, and the practice of reflecting and debriefing with colleagues can aid in alleviating the emotional weight we take back home. This served as a turning point in appreciating the value of reflections as a medical student.

Even though portfolio assessments are summative in final year, the process of developing the portfolio became more genuine nearing the end of the course. On reflection, I would think this is mainly due to the realisation that the reflective process required in building a portfolio helped me become a better medical professional; with not only arming myself with the right skills but also enabling the confidence to perform well once we set foot into the clinical world as a Foundation Doctor / House Officer.

It is important to emphasise that it is not only reflective questions that use the skill of reflection. Reflections for feedback given for case discussions and clerkings allow us to reflect on the process of writing the essays and how we could improve in the future. The reflection serves as a critical interrogation which creates meaning from an event and urges us to act. I realised that only if one identifies their limitations and develops an action plan, they can work towards a target in mind. Setting an action plan paves path to avidly look for opportunities in order to gain more practice in those areas. This made me realise that it is truly up to an individual’s initiative whether they want to gain something useful from building a portfolio.

If I had the opportunity to tell my year 1 self something, I would advise to regularly update her portfolio rather than leaving it to the very end and to approach it as something she does for herself rather than to impress a supervisor or faculty member. Even if one does not understand the purpose of portfolio at the initial stages, completing reflections and small pieces of work are valuable as the skill is slowly starting to develop. Ultimately “every expert was once a beginner”.

Looking back at my portfolio and seeing all my achievements collated in one area fills me with a sense of pride and fulfilment. After all, portfolio is something you develop throughout your life; from the first year you start working till the day you retire. So why not start early if you can!

Notes on Contributors

Dhivya Subramanian is a final year medical student at the University of Dundee, UK. The author based this personal view from past experiences in developing a portfolio during the period of undergratudate medical school.

Acknowledgement

Thanks to Dr. Shuh Shing Lee for her support and guidance.

Funding

No funding has been received for this article.

Declaration of Interest

No conflicts of interest, including financial, consultant, institutional, and other relationships that might lead to bias or a conflict of interest.

References

Buckley, S., Coleman, J., Davison, I., Khan, K. S., Zamora, J., Malick, S., Morley, D., Pollard, D., Ashcroft, T., Popovic, C., & Sayers, J. (2009). The educational effects of portfolios on undergraduate student learning: A Best Evidence Medical Education (BEME) systematic review. BEME Guide No. 11. Medical Teacher, 31(4), 282298. https://doi.org/10.1080/01421590902889897

Davis, M. H., Ponnamperuma, G. G., & Ker, J. S. (2009). Student perceptions of a portfolio assessment process. Medical Educa- tion, 43(1), 89–98. https://doi.org/10.1111/j.1365-2923.2008.03250.x

Driessen, E., Van Tartwijk, J., Vermunt, J., & van der Vleuten, C. (2003). Use of portfolios in early undergraduate medical training. Medical Teacher, 25(1), 18–23. https://doi.org/10.1080/0142159021000061378

Monrouxe, L. V., Bullock, A., Gormley, G., Kaufhold, K., Kelly, N., Roberts, C. C., Mattick, K., & Rees, C. E. (2018). New graduate doctors’ preparedness for practice: a multistakeholder, multicentre narrative study. BMJ Open, 8(8), 1–15. https://doi.org/10.1136/bmjopen-2018-023146

Van Tartwijk, J., & Driessen, E. W. (2009). Portfolios for assessment and learning: AMEE Guide no. 45. Medical Teacher, 31(9), 790801. https://doi.org/10.1080/01421590903139201

*Dhivya Subramanian
University of Dundee, Nethergate,
Dundee DD1 4HN, United Kingdom
Email: sdhivya1509@gmail.com

Submitted: 18 February 2023
Accepted: 28 March 2023
Published online: 3 October, TAPS 2023, 8(4), 40-45
https://doi.org/10.29060/TAPS.2023-8-4/SC3010

Kit Mun Tan1, Chan Choong Foong2, Donnie Adams3, Wei Han Hong2, Yew Kong Lee4 & Vinod Pallath2

1Department of Medicine, Faculty of Medicine, Universiti Malaya, Malaysia; 2Medical Education and Research Development Unit (MERDU), Faculty of Medicine, Universiti Malaya, Malaysia; 3Department of Educational Management, Planning and Policy, Faculty of Education, Universiti Malaya, Malaysia; 4Department of Primary Care, Faculty of Medicine, Universiti Malaya, Malaysia

Abstract

Introduction: The global COVID-19 pandemic had greatly affected the delivery of medical education, where institutions had to convert to remote learning almost immediately. This study aimed to measure undergraduate medical students’ readiness and factors associated with readiness for remote learning.

Methods: A cross-sectional quantitative study was conducted amongst undergraduate medical students using the Blended Learning Readiness Engagement Questionnaire, during the pandemic where lessons had to be delivered fully online in 2020. 

Results: 329 students participated in the study. Mean scores for remote learning readiness were 3.61/4.00 (technology availability), 3.60 (technology skills), 3.50 (technology usage), 3.35 (computer and internet efficacy), and 3.03 (self-directed learning). Male students appeared more ready for remote learning than females, in the dimensions of self-directed learning and computer and internet efficacy. Students in the pre-clinical years showed a lower level of readiness in the technology availability domain compared to clinical students. The lowest score however was in the self-directed learning dimension regardless of the students’ year of studies.

Conclusion: The pandemic had created a paradigm shift in the delivery of the medical program which is likely to remain despite resumption of daily activities post-pandemic. Support for student readiness in transition from instructor-driven learning models to self-directed learning models is crucial and requires attention by institutions of higher learning. Exploring methods to improve self-directed learning and increase availability of technology and conducting sessions to improve computer and internet efficacy can be considered in the early stages of pre-clinical years to ensure equitable access for all students.

Keywords:            Remote Learning, Student’s Readiness, Medical Education

I. INTRODUCTION

The COVID-19 pandemic and global emergency from the end of January 2020 had greatly affected the education sector, with many institutions including undergraduate medical schools converting to remote learning within a short timeframe.

Previous studies have shown that e-learning methods were effective and acceptable among medical undergraduate students (Chen et al., 2020). Studies have also suggested that students may struggle in adapting to a self-directed learning process (Vaughan, 2007), prefer traditional face-to-face lectures and possibly lacking the technological skills and infrastructure for a satisfactory remote learning experience.

It is important to determine the remote learning readiness of undergraduate medical students to facilitate the adaptation of these practices to maximise student competencies. Therefore, the primary objective of this study was to determine the readiness for remote learning in undergraduate medical students in a South-East Asian university and the secondary objective was to identify factors associated with their remote learning readiness.

II. METHODS

This was a cross-sectional quantitative study to measure medical students’ readiness towards remote learning using the BLREQ questionnaire. This study was approved by the Research Ethics Committee (Reference UM.TNC2/UMREC-889) of the university.

In the Covid-19 enforced scenario at that time, the physical face-to-face teaching in our institution was moved to online almost immediately, requiring the students to adapt their learning approaches rapidly to suit the needs of a virtual learning environment.

The duration of the study was one month, from the 19th of June to the 19th of July 2020. Our country implemented a national lockdown (and emergency remote learning) due to COVID-19 on the 18th of March 2020. Thus, data collection occurred in the first few months of the remote learning situation and represented students’ experiences and readiness during the early phase of the change.

The students were from all five years of study in the medical undergraduate program. They were contacted via their online educational platform and WhatsApp group chats with details of the study, participant’s consent form, link to the online self-administered questionnaire and weekly reminders to encourage participation. Participation was voluntary and consent was obtained from the students. Data were anonymised and not traceable to a particular individual.

This study utilised Section A and B of the BLREQ questionnaire which is a validated questionnaire on the readiness and engagement of students in blended learning (Adams et al., 2018). Although ‘Blended Learning’ is defined as a combination of e-learning (online) and traditional education (face-to-face) approaches, the BLREQ is appropriate for this study as it primarily measures students’ readiness for remote learning. Section A contained basic demographic questions (i.e., age, gender, year of study). Section B had 37 items in five dimensions which addressed various aspects of students’ readiness for remote learning. A 4-point Likert-type scale ranging from strongly disagree (1) to strongly agree (4) was provided with only one response allowed per item.

The data was analysed using IBM SPSS version 25.  The data was non-normally distributed; hence the Mann-Whitney U test was used to test for significant difference in scores between gender and stages of study.

III. RESULTS

There were 329 complete responses out of 734 invited participants (44.8% response rate). Most respondents were aged between 20 to 24 years old (Mean=21.9; SD=1.8). Approximately 59% were female and 59% were clinical students.

The total dimension and individual item mean scores are reported in Table I with the highest and lowest scores of each dimension annotated. The dimensions of remote learning readiness arranged in descending order of total mean score are Technology Availability (3.61+50), Technology Skills (3.60+.43), Technology Usage (3.50+.44), Computer and Internet Efficacy (3.35+.49), and Self-directed Learning (3.03+.51) (Table 1). Research data of this study are available at https://doi.org/10.6084/m9.figshare.21443100

Analysed by gender, the mean scores of male students were significantly higher than female students in the dimensions of Self-directed Learning; 3.13 vs 2.96 (U=10354.5, z=-3.18, p=.001), and Computer and Internet Efficacy; 3.39 vs 3.32 (U=11332.5, z=-2.02, p=.044). Individual items in which male students scored significantly higher in each dimension were [SDL1], [SDL4], [CIE2] and [CIE3].

When comparing between stages of study, the mean score of clinical students was significantly higher than pre-clinical students only in the Technology Availability dimension; 3.65 vs 3.55 (U=11376.0, z=-2.13, p=.034) An individual item which clinical students scored significantly higher in Technology Availability dimension was [TA3].

Dimensions and items

Mean

SD

[TS] Technology Skills dimension

3.60

.43

[TS1] I know the basic functions of a computer/laptop and its peripherals like the printer, speaker, keyboard, mouse etc.**

3.76

.45

[TS2] I know how to save and open documents from a hard disk or other removable storage device.

3.67

.52

[TS3] I know how to open and send email with file attachments.

3.72

.48

[TS4] I know how to log on to Wi-Fi

3.74

.46

[TS5] I know how to navigate web pages (go to next or previous page).

3.68

.50

[TS6] I know how to download files using browsers (e.g., Google Chrome, Internet Explorer, Firefox) and view them.

3.67

.51

[TS7] I know how to access an online library or database.*

3.19

.78

[TS8] I know how to use Word processing software (e.g., Microsoft (MS) Word).

3.62

.53

[TS9] I know how to use Presentation software (e.g., MS PowerPoint).

3.60

.53

[TS10] I know how to use Spreadsheet software (e.g., MS Excel).

3.30

.75

[TS11] I know how to open several applications at the same time and move easily between them.

3.60

.60

[TU] Technology Usage [TU] dimension

3.50

.44

[TU1] I often use the internet to find information.**

3.86

.37

[TU2] I often use e-mail to communicate.*

2.93

.93

[TU3] I often use office software (e.g., MS Word, PowerPoint, Excel).

3.62

.56

[TU4] I often use social networking sites to share information (e.g., Facebook, Twitter, Instagram, Snapchat).

3.39

.83

[TU5] I often use instant messaging (e.g., WhatsApp, Viber, WeChat, Line, Telegram).

3.72

.54

[TU6] I often use cloud-based file hosting services to store or share documents (e.g., Google Drive, Dropbox, One drive).

3.44

.69

[TU7] I often use learning management systems (e.g., Blackboard, Moodle).

3.28

.69

[TU8] I often use mobile technologies (e.g., Smartphone, Tablet) to communicate.

3.72

.51

[TA] Technology Availability dimension

3.61

.50

[TA1] I have a computer/laptop with an internet connection.**

3.74

.53

[TA2] I have a computer/laptop with adequate software for learning (e.g., Microsoft (MS) Office).

3.63

.57

[TA3] I have speakers for courses with video presentations.*

3.50

.72

[TA4] I have a computer/laptop and its peripherals like the printer, speaker, keyboard, mouse etc.

3.57

.66

[SDL] Self-directed Learning dimension

3.03

.51

[SDL1] I am a highly independent learner.

3.12

.69

[SDL2] I am able to learn new technologies.**

3.60

.55

[SDL3] I do not need direct lectures to understand materials.*

2.36

.92

[SDL4] I would describe myself as a self-starter in learning using technology.

3.18

.79

[SDL5] I am not distracted by other online activities when learning online (e.g., Facebook, Gaming, Internet surfing).

2.42

1.04

[SDL6] I can read the online instructional materials on the basis of my needs.

3.49

.58

[CIE] Computer and Internet Efficacy dimension

3.35

.49

[CIE1] I feel confident in using online tools (e.g., email, internet chat, instant messenger) to communicate effectively with others.

3.48

.65

[CIE2] I feel confident in expressing myself (e.g., emotions and humour) in my university’s learning management systems (e.g., Blackboard, Moodle)

2.89

.83

[CIE3] I feel confident in posting questions in online discussions.*

2.87

.82

[CIE4] I feel confident in performing the basic functions of Word processing software (e.g., MS Word).

3.59

.55

[CIE5] I feel confident in performing the basic functions of Presentation software (e.g., MS PowerPoint).

3.48

.62

[CIE6] I feel confident in performing the basic functions of Spread sheet (e.g., MS Excel).

3.26

.78

[CIE7] I feel confident in using web browsers (e.g., Google Chrome, Mozilla Firefox) to find or gather information for online learning.**

3.67

.53

[CIE8] I feel confident in using computer or tablet or mobile phone for online learning.

3.56

.63

Table 1. Dimension and individual item mean scores of student readiness to engage in remote learning

** highest score in the dimension

*lowest score in the dimension

IV. DISCUSSION

This study aimed to identify medical students’ readiness for remote learning across five dimensions and to identify factors associated with their readiness during the early months of the COVID-19 online learning transition period. Although there is significant resumption of usual activities post-COVID-19 pandemic, many of the online and self-directed components of learning are likely to remain as the way forward in the medical curriculum. Therefore, we feel that this study still has relevance currently.  

All mean scores of the subscales Technology Availability (TA), Technology Skills (TS), Technology Usage (TU), Computer and Internet Efficacy (CIE) and Self-directed Learning (SDL), were above 3 on a scale of 1 to 4. The mean scores in our study were much higher and have less deviation than Adams et al’s study conducted in a similar setting before the COVID-19 pandemic, in which the five dimensions scored lower than 3.00, with SDL scoring the lowest mean in the other study at 1.25+1.55 (Adams et al., 2018). Adams et al’s study also did not show much difference when comparing between medicine, social science, science and engineering students (Adams et al., 2018), indicating that readiness for online learning was much lower overall pre-COVID-19.

Despite the increase compared to Adams et al’s study, SDL still scored the lowest in our study out of the five dimensions. An implication of this is that universities need to help learners transition from facilitator/ instructor-driven learning models to self-directed learning models. This can be done by making training in ‘learning to learn’ (L2L) an essential component of student support. In our setting, this training should address items which scored lowest in SDL as these indicate areas of struggle for students; [SDL3] and [SDL5]. It is also possible that some facilitators are not aware of what SDL is, therefore facilitators can also benefit from training for SDL methods.  

Our study demonstrated significantly higher readiness for remote learning among male students in comparison to female students in the domains of SDL and CIE. While some studies indicate no gender differences in e-Learning readiness, other studies also report gender differences such as males having more positive attitudes toward online learning; males being more ready for online learning (Adams et al., 2018) and males using more learning strategies and having better technical skills than females (Alghamdi et al., 2020).  In the CIE domain, males scored higher in the items [CIE2] and [CIE3] which are both related to communication through a virtual platform. This resulted in males scoring higher in the CIE domain in general. The gender disparity in remote learning readiness needs to be addressed as female students are increasingly the majority (and therefore primary stakeholders) in medical schools worldwide. 

The mean score of clinical students was significantly higher than pre-clinical students only in the Technology Availability domain with clinical students reporting better hardware and infrastructure access compared to pre-clinical students. It is likely that as the learners progress through a course, they become more aware of the technological requirements of the course and invest in better devices and internet access. It is also possible that the students’ socioeconomic status at the beginning of their course may not have been good, for example if they were awaiting scholarships to be processed, which subsequently became available later in their course of study. This may have then enabled the students to purchase better hardware and infrastructure further on in their course, during the clinical years. However, this financial aspect was not included our study. It is still worth considering future programs early in the course, where there could be subsidies for students to purchase necessary technological equipment for their studies.  

A. Limitations and Recommendations

One limitation of this study was that it looked at remote learning in general and did not look at clinical elements such as using online simulated patients for history taking classes, or procedural skills videos. The study also only looked at student perspectives, and not faculty perspectives to get a complete picture of the online learning experiences. Future studies should explore student readiness for clinical online learning as this would be a struggle for students even if the transition was under normal circumstances (Vaughan, 2007).  The perspectives of faculty members on readiness to move towards online learning also need to be explored. The strength of this study was that it used a previously validated questionnaire which allowed some comparison on students’ remote learning readiness with pre-COVID-19 studies.  

V. CONCLUSION

In conclusion, the study explored medical undergraduates’ remote learning readiness in a public medical school in Malaysia during the COVID-19 pandemic. In general, students were found to be ready for remote learning. However, the lowest scores were for the domain of self-directed learning and computer and internet efficacy. Based on our findings, we feel that support for student readiness in transition from instructor-driven learning models to self-directed learning models is crucial and requires attention by institutions of higher learning. Exploring methods to improve self-directed learning and increase availability of technology and conducting sessions to improve computer and internet efficacy can be considered in the early stages of pre-clinical years to ensure equitable access for all students.  There should also be efforts to train the educators to develop online learning activities which incorporate the socio-relational aspects of learning into the remote learning experience. 

Notes on Contributors

Kit Mun, Tan is the first author and person who initiated the study, contributed to the design of the study, data collection and analysis, writing and approval of the final version of the manuscript.

Chan Choong, Foong contributed to the design of study, data collection and analysis, writing and approval of the final version of the manuscript.

Donnie, Adams is the creator of the original Blended Learning Readiness Questionnaire (BLREQ) and contributed to the design of the study, data collection and analysis, writing and approval of the final version of the manuscript.

Wei Han, Hong contributed to the design of the study, data collection and analysis, writing and approval of the final version of the manuscript.

Yew Kong, Lee contributed to the design of the study, data collection and analysis, writing and approval of the final version of the manuscript.

Vinod, Pallath is the corresponding author and contributed to the design of the study, data collection and analysis, writing and approval of the final version of the manuscript. 

Ethical Approval

This study received ethical approval from the Universiti Malaya Ethics Review Committee with the approval number of UM.TNC2/UMREC-889.

Data Availability

Research data of this study are available at https://doi.org/10.6084/m9.figshare.21443100.

Readers may access the anonymised data freely with the above URL. Kindly contact the authors for permission if you wish to use the data for a subsequent study or collaboration.  

Acknowledgement

We would like to acknowledge and express gratitude to the undergraduate medical students who took the time to participate in this study.  

Funding

There was no external funding for this study.

Declaration of Interest

All the authors do not have a conflict of interest to declare.  

References

Adams, D., Sumintono, B., Mohamed, A., & Mohamad Noor, N. S. (2018). E-learning readiness among students of diverse backgrounds in a leading Malaysian higher education institution. Malaysian Journal of Learning and Instruction, 15(2), 227-256. https://doi.org/10.32890/mjli2018.15.2.9

Alghamdi, A., Karpinski, A. C., Lepp, A., & Barkley, J. (2020). Online and face-to-face classroom multitasking and academic performance: Moderated mediation with self-efficacy for self-regulated learning and gender. Computers in Human Behavior, 102, 214-222. https://doi.org/10.1016/j.chb.2019.08.018

Chen, J., Zhou, J., Wang, Y., Qi, G., Xia, C., Mo, G., & Zhang, Z. (2020). Blended learning in basic medical laboratory courses improves medical students’ abilities in self-learning, understanding, and problem solving. Advances in Physiology Education, 44(1), 9-14.

Vaughan, N. (2007). Perspectives on blended learning in higher education. International Journal on E-Learning, 6(1), 81-94. https://www.learntechlib.org/primary/p/6310/

*Associate Professor Dr Vinod Pallath
Medical Education Research and Development Unit,
Faculty of Medicine, Universiti Malaya,
50603 Kuala Lumpur
Email: vinodpallath@um.edu.my

Announcements