| Home | E-Submission | Sitemap | Contact us |  
top_img
Korean J Med Educ > Volume 37(1); 2025 > Article
Tjandra, Keane, Yumnanisha, Taher, Kristiandi, Pinasthika, and Greviana: Association between non-academic activities and professional identity formation of Indonesian medical students: a nationwide cross-sectional study

Abstract

Purpose

This study explores the association between student involvement in non-academic activities (NAA) and the stages of professional identity formation (PIF) among Indonesian medical students.

Methods

This cross-sectional survey was distributed to students in 50 medical schools, across both preclinical and clinical students in years 2-6. Respondents completed a Developmental Scale (DS) questionnaire to assess PIF and self-reported the number of hours spent on different NAA. Descriptive and bivariate analyses were performed; multiple linear regression was utilized to predict PIF.

Results

Indonesian medical students reported a median of 13 NAA hours and a median DS score of 5.07 on a scale of 7. NAA hours were significantly different across sex groups, years of study, university regions, and institution types. Female participants spent significantly more hours on NAA than male students and PIF was predicted by the number of hours spent on research and competition-related activities. Shifts between the types of NAA were also observed among year groups.

Conclusion

NAA are positively associated with the PIF process, with students’ active involvement in research and competitionrelated activities as predictors in this area. Supporting these activities becomes imperative for medical schools in order to optimize students’ potential, motivation, and PIF.

Introduction

Professional identity formation (PIF) and the development of professionalism among medical students constitute a continuous process, which is achieved gradually through the interaction between medical students and their learning environment. Research indicates that medical students who exhibit high commitment to professional values tend to experience less fatigue, ambiguity, and emotional stress, which can positively impact their performance [1-3]. Medical school is a long-term, continuous process with various internal and external challenges. This process will affect the PIF of medical students [4].
Non-academic activities (NAA) represent an external factor that influences the development of professionalism and PIF among medical students. However, studies have indicated that only 83.5% of medical students engage in such activities, notwithstanding that student organizations are recognized opportunities for medical students to interact with peers, thereby influencing the process of PIF. In their systematic review, Sarraf-Yazdi et al. [5] classified informal curriculum activities undertaken by medical schools as one of the strategies supporting PIF. This informal curriculum provides a platform for informal interaction within a community comprising fellow medical students, seniors, or role models, and opportunities to engage with patients in community service activities, thereby enhancing student learning and reinforcing values and behaviors requisite of medical students [6,7].
Previous studies have primarily examined the positive correlation between students’ NAA and their ability to overcome difficult situations (“adversity quotient”) [1]. However, there remains a scarcity of studies exploring the relationship between NAA and PIF among medical students. Hence, this study explores the association between involvement in NAA and the stages of PIF among medical students.

Methods

1. Ethics statement

This research has been approved by the Ethics Committee of the Faculty of Medicine, Universitas Indonesia, with registration number KET-665/UN2.F1/ETIK/PPM. 00.02/2023. All participants provided informed consent prior to their involvement in the study.

2. Study design

This was an observational, cross-sectional study reported in accordance with the STROBE (Strengthening the Reporting of Observational Studies in Epidemiology) statement [8].

3. Setting

A multicenter approach spanning 50 Indonesian medical schools was employed with assistants in each center to encourage survey distribution. Data collection occurred within the period of August 10th, 2023, to February 2nd, 2024. All data were self-reported through Google Forms (Google LLC, Mountain View, USA), which facilitated wide-reaching access and ease of response across the diverse geographic locations of the participating medical institutions.
Indonesia’s medical education system slightly differs from that of other countries. In Indonesia, medical students can go straight to university after graduating from high school and study medicine as undergraduate students for at least 3.5 years, earning the title of Bachelor of Medicine. Afterward, they must complete a 2-year clinical phase to obtain the title of doctor [9]. In contrast, in the United States, students must first complete a 4-year bachelor’s program before proceeding to medical school, which lasts another 4 years [10]. Consequently, Indonesian medical students mainly comprise of young adolescents aged 17–25, a period of young adulthood substantial to personal development [11].

4. Participants

The participation criteria include (1) medical students in pre-clinical years (Years 2–4), or clinical years (Years 5–6); and (2) willingness to participate in the study. Meanwhile, the exclusion criteria were (1) students having taken a leave of absence or repeated a year of study; and (2) unverifiable rationalization for total reported hours of NAA per week above 50.

5. Variables

Hours of NAA refers to self-reported hours spent participating in various types of NAA. PIF denotes the process of cultivating professional attitudes and essential components within a competency-based educational framework.

6. Data sources/measurement

We administered the validated 7-Likert-scale Indonesian version of the Developmental Scale (DS) questionnaire, which measures PIF stages; this scale has a reliable Cronbach α, both in literature (0.776) [2] and in our dataset (0.746). To measure NAA, respondents were prompted to categorize their NAA into nine domains: (1) leadership roles, (2) research endeavors, (3) community service engagements, (4) teaching assistant responsibilities, (5) personal hobbies, (6) extracurricular learning, (7) competition-related activities, (8) involvement in religious activities, and (9) paid part-time work. Such categorization facilitated a nuanced understanding of the diverse extracurricular engagements prevalent within various student organizations. Students were asked to provide an estimation of hours spent per week in each NAA domain during the past year. Survey questionnaires are available in Supplement 1.

7. Bias

Considering that our questionnaire is self-reported and demands subjects to recall their weekly average activities in the past year, recall bias is inevitable. As such, participants were encouraged to recheck their calendars and list their activities to rationalize the numbers, which were then checked in the data-cleaning process. Selection bias was also likely to occur, again because the data collection process was voluntary.

8. Study size

This study employed simple random sampling, with the minimum sample size determined using criteria for cross-sectional studies. As the focus was on proportions, the sample size was calculated for categorical variables [12,13]. With a margin error of 10% and a confidence interval of 95%, a minimum of 96 participants were required for this study. To anticipate a low response rate from randomization results, and assuming a response rate of 50%, a minimum of 192 respondents from all centers in Indonesia will be randomly selected and contacted.

9. Statistical methods

Responses from Google Forms were cleaned and coded in Google Sheets (Google LLC). The dataset was then analyzed using IBM SPSS ver. 23.0 (IBM Corp., Armonk, USA). Dichotomous and categorical data were presented in frequencies and percentages. Meanwhile, Kolmogorov-Smirnov normality tests were conducted on continuous data because they are presented in mean±standard deviation or median (minimum to maximum range). Total hours of NAA and PIF scores were stratified according to sex, year of study, university region, and institution type (public/private). The Mann-Whitney U test was used to determine differences between sex and institution type, while an analysis of variance (ANOVA) test was employed to identify differences between years of study and geographical regions, depending on the data normality distribution. Appropriate post hoc tests were conducted for significant ANOVA results. Similarly, Spearman’s rho was utilized to evaluate the correlation between NAA hours and DS. Lastly, multiple linear regression was conducted, with sociodemographic characteristics and hours for each NAA category as predictors of PIF. All analyses were conducted with a significance level of 0.05.

Results

1. Participants

Surveys were sent out to 2,029 Indonesian medical students. Of the 1,234 students who filled out the survey (60.82% response rate), 83 responses were excluded due to ineligibility, and 21 due to incomplete data. After excluding 192 responses through computer randomization to prevent data imbalance from one institution, 938 responses—encompassing 49 institutions—were included in the analysis. The respondents’ demographic characteristics are detailed in Table 1.

2. Main results

Overall, Indonesian medical students spend a median of 13 hours a week on NAA, with a median PIF score of 5.07, on a scale of 7. NAA hours were significantly different across sex groups, years of study, university regions, and institution types (Table 1). Female participants passed significantly more NAA hours (median, 13.5 hr/wk; range, 0–71 hr/wk) than male participants (median, 12 hr/wk; range, 0–89 hr/wk). Post hoc analysis using Mann-Whitney U tests revealed differences to be only significant between Years 2–4 and Year 6; the latter spending more hours on NAA (Table 2).
Over half of participants reported spending time on hobbies (82.8%), leadership activities (80%), or community service activities (62.6%) (Fig. 1A). Moreover, because a Kruskal-Wallis test was conducted per NAA category, we discovered significant differences between years of study for community service (p=0.041), teaching assistance (p=0.012), extracurricular learning (p=0.001), and paid part-time work (p<0.001). Between years of study, post hoc analysis found that lower-year students spend significantly more time on community service activities; Year 2 spends more hours compared to Years 4 and 5, as well as Year 3 over Years 4 and 5. Teaching assistance activities also displayed significant differences, with Years 2 and 3 spending more time than Year 4. However, Year 4 exhibited a lower amount of time compared to Years 5 and 6. Time spent on extracurricular learning activities was markedly higher in Year 4 than in Year 2; Year 5 than in Years 2, 3, and 4; and in Year 6 than in Years 2, 3, and 4 (Table 2). Complete post hoc results are presented in Table 2.
Because we identified significant (p<0.001) variability in NAA hours between Indonesian Medical Education Association (IMEA) regions (Fig. 1B), we discovered that Regions 5 and 6 both spent significantly more hours on NAA as compared to Regions 1, 2, and 3. Furthermore, we found NAA hours between IMEA regions to be significantly different for all categories (p<0.001) except for paid part-time work. Post hoc analysis revealed significant variations among specific regions and activity categories. Region 6 is the most active in NAA, which surpasses all other regions in total hours, with significant results in several categories. These results reveal varied activity patterns among IMEA regions (Table 3).

3. Correlation and predictors of PIF scores

We found a very low correlation (Spearman’s rho=0.138, p<0.001) between total NAA hours and PIF scores. Nevertheless, from our multiple regression analysis, we yielded a model with a multiple correlation coefficient (R) of 0.196 (F [13, 924]=2.824, p=0.001, R2=0.038) (Table 4). We discovered that for each hour spent on research and competition-related activities, PIF scores were significantly predicted to increase by 0.021 and 0.015, respectively.

Discussion

This study explores the association between students’ engagement in NAA and the stages of PIF. Overall findings of this study showed that students spent a substantial number of hours on various NAA and displayed differences between medical students’ PIF scores. Research and competition-related activities were found to be predictors of PIF scores.
There were significant differences in NAA hours across sex, year of study, university regions, and public and private institutions. A shift in categories of activities students engaged with NAA was found across study years: earlier pre-clinical year students favored community service and teaching assistance activities, while later clinical year students preferred extracurricular learning and paid part-time work. A significant difference was also found in activity categories between IMEA regions.
The results of this study showed that students’ PIF stages are not significantly different across years and regions, which was contradictory to the results from a previous study in one institution in Indonesia, which showed that more advanced groups exhibited higher PIF scores [2]. The discrepancy could be due to the different periods of study. The previous study was conducted during the coronavirus disease 2019 pandemic, while this study was conducted after it, which caused significant disruptions to student interactions, socialization, and the opportunity to engage in activities that are central to their PIF [14].
Our multicenter study addressed these contextual changes by examining PIF stages across different years and regions, which provided insight into shifts in interaction patterns during and after the pandemic. Despite these observations, it is important to recognize that PIF is a dynamic process [2]. The cross-sectional nature of our study and the median PIF score of 5 should be viewed as indicative of current attributes, rather than definitive stages. The original questionnaire by Tagawa [15] does not offer specific benchmarks for interpreting these scores but serves as a framework for evaluating professional identity attributes.
To understand the observed variations in NAA hours and PIF scores, Self-Determination Theory (SDT) might serve as a valuable framework. According to SDT, intrinsic motivation—which is driven by a sense of autonomy, competence, and relatedness—is crucial for effective learning and development. The significant differences in NAA hours across various years of study may reflect a growing need for challenges and autonomy as students progress through their education, which can be seen in the shift from community service and teaching assistance as the dominant NAA in earlier years, to paid part-time work in later years. This could be seen as a response to increased motivation and a desire for more meaningful and challenging experiences, which leads to enhanced PIF because early-years medical students might favor activities that provide initial clinical experience and community care [16]. It is also consistent with how adult learners are motivated by goals and objectives relevant to their personal and professional lives [17]. As students advance in their medical education, their focus shifts toward activities that align more closely with their career aspirations and professional development [16,18]. The increased involvement in research and competitionrelated activities in later years is indicative of this shift, which highlights the students’ growing focus on activities that directly contribute to their PIF [18].
The common PIF and NAA findings across regions, may be explained by the different regions of which medical schools were located, which affect the resources of the medical schools. Nevertheless, the standardized outcomebased education approach was implemented in all Indonesian medical schools through application of the 2012 Indonesian Standard for Doctor Competency [19]. Nonetheless, all medical schools are encouraged to adapt their curricula accommodating the specific contexts, the health problems within their regions, as well as the resources of the medical schools. These adaptations also influence the design and execution of NAA programs undertaken by medical students in each school [20].
Furthermore, the profile of “Generation Z” medical students, characterized by high competitiveness and a strong drive for personal and professional achievement, aligns with the findings of Zhuhra et al. [21]. This generation’s preference for competitive and researchoriented activities reflects their desire for recognition and career advancement [21]. Supporting this, Vaa Stelling et al. [22] found that early-career faculty physicians experience similar tensions, in that they strive to both fit in and stand out, which often leads to imposter syndrome and burnout. This highlights the importance of engaging students in reflective dialogues and finding purposes to mitigate these challenges and support PIF, while still leveraging this trait by encouraging engagement in research and competition-related activities. Tailoring support through coaching and mentoring to align with the motivations and career goals of Generation Z students can enhance their overall development and better prepare them for their future medical careers [21,22].
Results also showed that public medical schools have higher rates of hours spent on NAA activities compared to private schools. Such a phenomenon was in line with the study by Lazarus et al. [23] discovering more prior health volunteering experience in state-university students, although findings in Brazil found the opposite trend [24]. In this study, the differences may be attributed to public and private institutions being unevenly distributed across regions in Indonesia. The phenomenon could also be explained by the disparity in opportunities to be engaged in different types of NAA. Therefore, collaborations and integration efforts (e.g., resource sharing and co-creation activities, and so forth) among medical students across different regions could enhance their engagement in NAA, which could be facilitated through engagement in national student organizations.
The results of our study are consistent with the study by Achar Fujii et al. [25], which assessed the participation of medical students in community-based NAA (CBNAA). According to this experience, CBNAA contributed to students’ PIF by positively impacting students’ acquisition of new knowledge, sharpening their clinical reasoning, and helping them to develop the professional attributes of medical doctors (e.g., time management skills, teamwork, responsibility, and empathy). However, the findings also showed that there is a lack of support for these activities, which led to students being reluctant to participate in them. It highlights the importance of institutional support from medical schools for students engaging in NAA [25].
Owing to its self-reported nature, our survey on NAA hours was prone to recall bias, in terms of both underestimation and overestimation. In addition, because participation in the study was voluntary, there were also significantly more males, more private medical students, and fewer participants from particular regions in the participants’ demographics. This study is especially generalizable in the Indonesian context because nationwide institutions were represented. NAA in different countries may vary, but as medical students adopt similar routines, their role in PIF might be similar. However, the results of this study, which involves students from different centers across Indonesia, with different resources and learning environments, may provide a snapshot of dynamic participation in NAA across various contexts, and its impact on students’ PIF.
Further exploration of how NAA promotes PIF should be conducted, particularly in contexts like Indonesia, where collectivist cultures and heavy student involvement in NAA are prominent. Previous studies explored professionalism but were limited to extracurricular activities exposing medical students to certain fields [26]. Furthermore, as this cross-sectional study could not determine causation, future longitudinal studies tracking medical school alumni could provide insights into how the intensity and type of NAA engagement influence career trajectories and professional growth. Although several NAA activities do not directly predict PIF scores, others— such as sports, hobbies, and religion—should also be involved in further studies because they may serve as healthy coping mechanisms, facilitating students’ wellbeing [27]. Comparative studies in collectivist contexts could identify universal and cultural-specific elements of NAA that support PIF, enabling medical schools to optimize NAA’s potential in medical education.
In conclusion, NAA are positively associated with students’ PIF process, with research and competitionrelated activities serving as predictors. Supporting these NAA becomes imperative for medical schools in order to optimize student potential, motivation, and PIF.

Supplementary materials

Supplementary files are available from https://doi.org/10.3946/kjme.2025.318
Supplement 1.
Professional Identity Formation and Nonacademic Activities Survey Questionnaire.
kjme-2025-318-Supplement-1.pdf

Notes

Acknowledgements
The authors would like to extend their appreciation to Indonesian Medical Education Association (IMEA) members from various centers who assisted with the data collection of the research. We would like to also thank our research assistants, especially Novea Indratmo, who have collected respondents from their respective institutions and ensured the quality of responses. Prof. Ardi Findyartini has also given meaningful inputs in discussing conceptualization the study.
Funding
The Universitas Indonesia Publication Grant supported this work: NKB-669/UN.2.RST/HKP.05.00/2023. The funders had no role in study design, data collection and analysis, decision to publish, or manuscript preparation.
Conflicts of interest
No potential conflict of interest relevant to this article was reported.
Author contributions
ST, AK, DAY, and MAT conceptualized the study, managed project administration, and collected the data. ST refined the methodology and conducted data analysis. NG contributed in study conceptualization, funding acquisition, and assisted in data analysis and interpretation. ST, AK, DAY, MAT, and HAK drafted the initial version of the manuscript. AP and NG reviewed, edited, and supervised the manuscript writing. All authors discussed and approved the final manuscript.

Fig. 1.

Student Participation in Non-academic Activities and IMEA Regional Distribution

(A) Percentage of students participating in each non-academic activity category and hours spent per week. (B) Indonesian Medical Education Association (IMEA) region distribution. Region 1 includes Sumatera; Region 2 includes Greater Jakarta area and Banten; Region 3 includes Western Java; Region 4 includes Central Java and Kalimantan; Region 5 includes Eastern Java, Bali, and Nusa Tenggara; while Region 6 includes Sulawesi, Maluku, and Papua. Data are presented as median (minimum–maximum).
kjme-2025-318f1.jpg
Table 1.
Characteristics of Participants Stratified with Hours Spent for Non-academic Activities per Week and Professional Identity Formation Scores
Characteristic No. (%) Hours spent per week
PIF Scorea)
Median (min–max) p-value Median (min–max) p-value
All 938 (100.0) 13 (0–89) 5.07 (3.47–6.93)
Sex <0.001b) 0.178b)
 Male 579 (61.7) 12 (0–89) 5.07 (3.47–6.93)
 Female 359 (38.3) 13.5 (0–71) 5.00 (3.53–6.87)
Year of study 0.009c) 0.312d)
 2nd year 319 (34.0) 12.5 (0–89) 5.00 (3.73–6.60)
 3rd year 384 (40.9) 12 (0–89) 5.07 (3.47–6.87)
 4th year 114 (12.2) 12 (0–70) 5.13 (3.93–6.93)
 5th year 61 (6.5) 14 (0–54.5) 5.13 (4.00–6.60)
 6th year 60 (6.4) 20 (0–72) 5.17 (3.47–6.40)
University regione) <0.001c) 0.431c)
 1 117 (12.5) 11 (0–45) 4.97±0.68f)
 2 369 (39.3) 11.5 (0–83) 5.07±0.60f)
 3 138 (14.7) 12.25 (0–89) 5.10±0.55f)
 4 52 (5.5) 14.35 (0–59) 5.00±0.75f)
 5 151 (16.1) 14 (0.5–65.5) 5.11±0.64f)
 6 111 (11.8) 15 (0–89) 5.14±0.65f)
Institution type <0.001b) 0.039b)
 Public 327 (34.9) 13.5 (0–89) 5.07 (3.47–6.93)
 Private 611 (65.1) 10 (0–63) 5.00 (3.47–6.67)

Notable findings: Region 5 shows high activity, surpassing Region 1 in total hours and having notable results in teaching assistance, hobbies, and extracurricular learning. Region 1 leads in extracurricular learning and religious activities but is surpassed in community service, teaching assistance, and total hours. Region 2 is surpassed by Region 6 in total hours and falls behind in teaching assistance. Region 3 is outperformed by Regions 4, 5, and 6 in total hours.

PIF: Professional identity formation.

a) PIF score (Indonesian version of Developing Score questionnaire [2]).

b) Statistical significance derived from Mann-Whitney U test.

c) Statistical significance derived from Kruskal-Wallis test.

d) Statistical significance derived from analysis of variance.

e) Based on the Indonesian Medical Education Association region distribution.

f) Data presented in mean±standard deviation.

Table 2.
Mann-Whitney Post-Hoc Analysis p-values for Differences in Hours of Non-academic Activities per Category between Years
Year 3 Year 4 Year 5 Year 6
Year 2
 Total 0.614 0.645 0.156 0.001b)
 Community service activities 0.875 0.025a) 0.023a) 0.436
 Teaching assistance activities 0.083 0.033a) 0.250 0.199
 Extracurricular learning activities 0.192 0.047a) 0.044b) 0.021b)
 Paid part-time work 0.232 0.220 0.022 0.000b)
Year 3
 Total 0.911 0.251 0.001b)
 Community service activities 0.032a) 0.028a) 0.498
 Teaching assistance activities 0.001a) 0.859 0.770
 Extracurricular learning activities 0.239 0.006b) 0.002b)
 Paid part-time work 0.575 0.002b) 0.000b)
Year 4
 Total 0.376 0.010b)
 Community service activities 0.731 0.417
 Teaching assistance activities 0.009b) 0.005b)
 Extracurricular learning activities 0.002b) 0.001b)
 Paid part-time work 0.006b) 0.000b)
Year 5
 Total 0.139
 Community service activities 0.255
 Teaching assistance activities 0.913
 Extracurricular learning activities 0.885
 Paid part-time work 0.200

a) Lower year (row category) has a significantly higher Mann-Whitney mean rank than the higher year (column category).

b) Higher year (column category) has a significantly higher Mann-Whitney mean rank than the lower year (row category).

Table 3.
Mann-Whitney Post-Hoc Analysis p-values for Differences in Hours of Non-academic Activities per Category between IMEA Regions
Region 2 Region 3 Region 4 Region 5 Region 6
Region 1
 Total 0.541 0.590 0.148 0.002b) <0.001b)
 Leadership 0.022b) 0.002a) 0.001b) 0.000b) 0.073
 Research 0.025a) 0.011a) 0.137 0.230 0.084
 Community service activities 0.029a) 0.287 0.057 0.038b) 0.046b)
 Teaching assistance activities <0.001a) 0.292 0.138 0.000a) 0.204
 Personal hobbies 0.008b) 0.539 0.091b) 0.000b) 0.084
 Extracurricular learning 0.023a) 0.011a) 0.032a) 0.001a) 0.197
 Competition-related activities 0.004a) 0.23 0.349 0.762 0.071
 Religious activities 0.005a) 0.001a) 0.136 0.000a) 0.093
Region 2
 Total 0.960 0.273 0.005b) <0.001b)
 Leadership 0.089 0.125 0.000b) 0.916
 Research 0.378 0.857 0.575 0.000b)
 Community service activities 0.407 0.517 0.000b) 0.000b)
 Teaching assistance activities 0.002b) 0.000b) 0.143 0.000b)
 Personal hobbies 0.001a) 0.989 0.030b) 0.462
 Extracurricular learning 0.098 0.391 0.100 0.001b)
 Competition-related activities 0.963 0.004b) 0.002b) 0.505
 Religious activities 0.156 0.826 0.015a) 0.000b)
Region 3
 Total 0.269 0.014b) 0.001b)
 Leadership 0.899 0.209 0.279
 Research 0.694 0.230 0.000b)
 Community service activities 0.298 0.003b) 0.004b)
 Teaching assistance activities 0.032b) 0.000a) 0.031b)
 Personal hobbies 0.043b) 0.000b) 0.023b)
 Extracurricular learning 0.830 0.934 0.000b)
 Competition-related activities 0.010b) 0.011b) 0.675
 Religious activities 0.290 0.427 0.000b)
Region 4
 Total 0.472 0.139
 Leadership 0.267 0.259
 Research 0.723 0.013b)
 Community service activities 0.001b) 0.003b)
 Teaching assistance activities 0.000a) 0.645
 Personal hobbies 0.250 0.569
 Extracurricular learning 0.849 0.004b)
 Competition-related activities 0.575 0.023a)
 Religious activities 0.085 0.005b)
Region 5
 Total 0.199
 Leadership 0.011a)
 Research 0.006b)
 Community service activities 0.649
 Teaching assistance activities 0.000b)
 Personal hobbies 0.006a)
 Extracurricular learning 0.000b)
 Competition-related activities 0.37
 Religious activities 0.000b)

a) Region of smaller number (row category) has a significantly higher Mann-Whitney mean rank than the region of higher number (column category).

b) Region of higher number (column category) has a significantly higher Mann-Whitney mean rank than the region of lower number (row category).

Table 4.
Multiple Linear Regression for Predicting PIF Scores
Predictors Unstandardized coefficients
Standardized coefficients
p-value
B SE Beta
Leadership hours 0.002 0.003 0.023 0.501
Research hours 0.021 0.007 0.098 0.004
Community service hours 0.008 0.007 0.037 0.287
Teaching assistance hours 0.002 0.007 0.011 0.744
Hobby hours 0.001 0.005 0.005 0.872
Extracurricular learning hours 0.007 0.008 0.027 0.435
Competition-related hours 0.015 0.006 0.079 0.018
Religion-related hours 0.006 0.009 0.024 0.483
Paid part-time work hours –0.010 0.007 –0.047 0.161
IMEA region 0.014 0.013 0.036 0.295
Institution type 0.069 0.044 0.053 0.116
Sex –0.072 0.042 –0.056 0.089
Year of study 0.022 0.018 0.039 0.242

Multiple regression analysis: R2=0.038.

PIF: Professional identity formation, SE: Standard error, IMEA: Indonesian Medical Education Association.

References

1. Dwika DY. Association between organizational experience and adversity quotient (AQ) level in batch 2012 students of the Faculty of Medicine, Universitas Riau. JOM FK [Internet]. 2024;[cited 2024 Oct 20];2(1):1-15. Available from: https://jom.unri.ac.id/index.php/JOMFDOK/article/view/4190.

2. Findyartini A, Greviana N, Felaza E, Faruqi M, Zahratul Afifah T, Auliya Firdausy M. Professional identity formation of medical students: a mixed-methods study in a hierarchical and collectivist culture. BMC Med Educ. 2022;22(1):443.
crossref pmid pmc pdf
3. Munoz L, Miller R, Poole SM. Professional student organizations and experiential learning activities: what drives student intentions to participate? J Educ Bus. 2016;91(1):45-51.
crossref
4. Ludmerer KM. The internal challenges to medical education. Trans Am Clin Climatol Assoc. 2003;114:241-253.
pmid pmc
5. Sarraf-Yazdi S, Teo YN, How AE, et al. A scoping review of professional identity formation in undergraduate medical education. J Gen Intern Med. 2021;36(11):3511-3521.
crossref pmid pmc pdf
6. Kirk LM. Professionalism in medicine: definitions and considerations for teaching. Proc (Bayl Univ Med Cent). 2007;20(1):13-16.
crossref pmid pmc
7. West CP, Shanafelt TD. The influence of personal and environmental factors on professionalism in medical education. BMC Med Educ. 2007;7:29.
crossref pmid pmc pdf
8. Cuschieri S. The STROBE guidelines. Saudi J Anaesth. 2019;13(Suppl 1):S31-S34.
crossref pmid pmc
9. Mustika R, Nishigori H, Ronokusumo S, Scherpbier A. The odyssey of medical education in Indonesia. Asia Pac Sch. 2019;4(1):4-8.
crossref
10. Hoque F. US medical education landscape: now and beyond. Med Rep. 2024;8:100127.
crossref
11. Scales PC, Benson PL, Oesterle S, Hill KG, Hawkins JD, Pashak TJ. The dimensions of successful young adult development: a conceptual and measurement framework. Appl Dev Sci. 2015;20(3):150-174.
crossref pmid pmc
12. Pourhoseingholi MA, Vahedi M, Rahimzadeh M. Sample size calculation in medical studies. Gastroenterol Hepatol Bed Bench. 2013;6(1):14-17.
pmid pmc
13. Charan J, Biswas T. How to calculate sample size for different study designs in medical research? Indian J Psychol Med. 2013;35(2):121-126.
crossref pmid pmc pdf
14. Soemantri D, Findyartini A, Mustika R, et al. Looking beyond the COVID-19 pandemic: the recalibration of student-teacher relationships in teaching and learning process. Med Educ Online. 2023;28(1):2259162.
crossref pmid pmc
15. Tagawa M. Scales to evaluate developmental stage and professional identity formation in medical students, residents, and experienced doctors. BMC Med Educ. 2020;20(1):40.
crossref pmid pmc pdf
16. Susani YP, Rahayu GR, Sanusi R, Prabandari YS, Mardiwiyoto H. Developing a model of professional identity in medical students: the role of motivation and participation. J Pendidik Kedokt Indones. 2018;7(3):159-169.
crossref pdf
17. Knapke JM, Hildreth L, Molano JR, et al. Andragogy in practice: applying a theoretical framework to team science training in biomedical research. Br J Biomed Sci. 2024;81:12651.
crossref pmid pmc
18. Park GM, Hong AJ. “Not yet a doctor”: medical student learning experiences and development of professional identity. BMC Med Educ. 2022;22(1):146.
crossref pmid pmc pdf
19. Kadir NA, Schütze H, Weston KM. Educating medical students for practice in a changing landscape: an analysis of public health topics within current Indonesian medical programs. Int J Environ Res Public Health. 2021;18(21):11236.
crossref pmid pmc
20. Noya F, Carr S, Thompson S. Social accountability in a medical school: is it sufficient?: a regional medical school curriculum and approaches to equip graduates for rural and remote medical services. BMC Med Educ. 2024;24(1):526.
crossref pmid pmc pdf
21. Zhuhra RT, Wahid MH, Mustika R. Exploring college adjustment in first-year Gen Z medical students and its contributing factors. Malays J Med Sci. 2022;29(1):126-137.
crossref
22. Vaa Stelling BE, Andersen CA, Suarez DA, et al. Fitting in while standing out: professional identity formation, imposter syndrome, and burnout in early-career faculty physicians. Acad Med. 2023;98(4):514-520.
crossref pmid
23. Lazarus G, Findyartini A, Putera AM, et al. Willingness to volunteer and readiness to practice of undergraduate medical students during the COVID-19 pandemic: a cross-sectional survey in Indonesia. BMC Med Educ. 2021;21(1):138.
crossref pmid pmc pdf
24. Zanolli MB, Streit DS, Maciel DT, Muraguchi EM, Martins MA, Fátima Lopes Calvo Tibério I. Differences in clerkship development between public and private Brazilian medical schools: an overview. BMC Med Educ. 2020;20(1):316.
crossref pmid pmc pdf
25. Achar Fujii RN, Kobayasi R, Claassen Enns S, Zen Tempski P. Medical students’ participation in extracurricular activities: motivations, contributions, and barriers. a qualitative study. Adv Med Educ Pract. 2022;13:1133-1141.
pmid pmc
26. Kim S, Jeong H, Cho H, Yu J. Extracurricular activities in medical education: an integrative literature review. BMC Med Educ. 2023;23(1):278.
crossref pmid pmc pdf
27. Pinasthika A, Findyartini A. Association between sex, regional origin, and coping mechanism of first-year medical students in the Faculty of Medicine Universitas Indonesia batch 2015/2016. J Perhimpunan Pengkaji Ilmu Pend Kedokt Indones [Internet]. 2018 [cited 2024 Oct 20];6(1):45-50. Available from: https://scholar.ui.ac.id/en/publications/hubungan-antara-jenis-kelamin-dan-asal-daerah-dengan-mekanisme-ko.

TOOLS
PDF Links  PDF Links
PubReader  PubReader
ePub Link  ePub Link
XML Download  XML Download
Full text via DOI  Full text via DOI
Download Citation  Download Citation
  Print
Share:      
METRICS
0
Crossref
0
Scopus
685
View
75
Download
Editorial Office
The Korean Society of Medical Education
(204 Yenji-Dreamvile) 10 Daehak-ro, 1-gil, Jongno-gu, Seoul 03129, Korea
Tel: +82-32-458-2636   Fax: +82-32-458-2529
E-mail : kjme@ksmed.or.kr
About |  Browse Articles |  Current Issue |  For Authors and Reviewers
Copyright © 2025 by Korean Society of Medical Education.                 Developed in M2PI