Abstract
Background
Affected by various hurdles during COVID-19, preclinical medical students are at an elevated risk for mental health disturbances. However, the effects of modern mental health problems on preclinical medical students have not been adequately researched. Thus, this study was aimed to identify the proportions and implications of current mental health problems for depression, sleep quality and screen time among Indonesian medical preclinical students during the COVID-19 pandemic.
Methods
This cross-sectional study was conducted using crowdsourcing between October 2020 and June 2021. During the study period, 1,335 subjects were recruited, and 1,023 datasets were identified as valid. General Health Questionnaire-12 (GHQ-12) was used to measure current mental health disturbances (categorized as without current mental health disturbances, psychological distress, social dysfunction, or both). The Patient Health Questionnaire-9 (PHQ-9) was used to assess depression, the Pittsburgh Sleep Quality Index (PSQI) was employed to assess sleep quality, and a questionnaire devised for this study was used to assess screen time length per day. Multivariate data analysis was conducted using SPSS version 24 for Mac.
Results
According to the findings, 49.1% of the 1,023 participants had current mental health disturbances: 12.8% had psychological distress, 15.9% had social dysfunction, and the rest (20.4%) had both psychological distress and social dysfunction. The statistical analysis provided strong evidence of a difference (p < 0.001) between the medians of depression and sleep quality with at least one pair of current mental health disturbance groups, but the difference for screen time was not significant (p = 0.151). Dunn’s post-hoc analysis showed that groups without current mental health problems had significantly lower mean ranks of depression and sleep quality compared to groups that had current mental health problems (p < 0.001).
Conclusion
Current mental health disturbances during the COVID-19 pandemic were significantly associated with preclinical medical students’ depression and sleep quality in preclinical medical students. Thus, mental health programs for this specific population should be tailored to integrate mindfulness therapy, support groups, stress management, and skills training to promote mental wellbeing.
Keywords: COVID-19, Depression, Indonesia, Medical students, Mental health, Screen time, Sleep quality
Background
The World Health Organization (WHO) includes mental health within the definition of health as a whole, which is not only the absence of disorders but also a spectrum of mental well-being that allows a person to manage daily life stressors, interact with others, exercise productivity, and successfully contribute to the community [1]. Thus, the impact of mental health on many aspects of life is vast and significant, especially when disturbances occur.
COVID-19 wreaked havoc on the global population, causing more than 545 million cases and six million deaths as of July 2022 [2]. This raised awareness about mental health as COVID-19 could result in neuropsychological repercussions both due to the disease itself and via changes within the society [3]. Between 2020 and 2021, Indonesia experienced two waves of COVID-19, with total cases reaching six million and deaths amounting to more than 156 thousand [4]. Considering Indonesia’s strong culture of kinship and gatherings, the rising number of cases and large-scale social restrictions across the country also led to concerns over mental health, especially for the most vulnerable, such as the youth. These concerns were justified, considering that previous studies discovered high prevalence of mental health problems among youths, including depression [5] and anxiety disorders [6].
Among youths, medical students, who are required to earn more credits than other majors, were at an even higher risk of mental health disturbances due to multiple additional challenges, including restricted peer engagement, uncertainties regarding exams, struggles to understand their roles, and worry about themselves and their loved ones getting infected by COVID-19 [7]. Since the medical subject is particularly demanding, worry, depression, and mental health problems during COVID-19 could pose a greater impact [8]. Son et al. demonstrated that 71% of medical students experienced elevated stress during the COVID-19 pandemic, a significantly higher number compared to 27.2% before the pandemic [9]. Moreover, medical students who stayed at home, who were in a similar state to preclinical students in Indonesia, faced higher incidences of depression than those living in hostels [10]. In Bangladesh, during COVID-19, the prevalence of severe depression among university students was 26.7% [11]. In India, undergraduate medical interns and postgraduate medical residents showed high perceived stress levels (scoring 27–40), and 69% of the individuals reported moderate stress (scoring 14–26), owing to overwhelming responsibilities and inadequate resources [12]. Mental health disturbances among medical students during the COVID-19 pandemic could trigger negative socioeconomic consequences, such as limited part time job offers and increased access to mental healthcare facilities. Thus, it is appropriate for public health interventions to consider the need for better mental health among this cohort [13].
With increasing accessibility for all socioeconomic levels, the internet has now become very influential in daily lives. This triggered a new and worrisome issue: problematic internet usage, affecting adolescents and young adults, as objectively proven with increased screen time duration [14]. A total of 5.07 billion people currently utilize the internet globally, and the latest statistics indicate that the world’s connected population rose by more than 170 million between October 2021 and December 2022 [15]. During the pandemic, the majority of screen time among medical students (51.9%) was spent on social media, which could be the manifestation of an attempt to maintain connectivity [16]. While it could yield positive effects considering its multifunctionality in entertainment, shopping, and education, screen time might also cause problematic drawbacks, even among medical students [17]. In association with increased screen time, numerous psychological problems, including social isolation, stress, and reduced concentration might arise.
Along with the rise in mental health problems, worry about getting infected with COVID-19, as identified by Taylor et al. [18] as one of the indicators of COVID-19 stress syndrome, also escalated. This worry was described as more prominent during the first weeks of the lockdown measures [19], thus causing possibly significant impairment in productivity. Moreover, studies have also suggested that an increase in mental health disturbances may trigger depression, increase screen time, and aggravate sleep disturbances during the COVID-19 pandemic. A higher cumulative screen time– associated with self-harm and decreased self-esteem [20]– could be explained by the overlap of brain regions involved, particularly the subgenual cingulate cortex (sgCC) and orbitofrontal cortex (OFC) [21]. Furthermore, sleep and emotional states might be regulated through common pathways involving the imbalance of neurotransmitters, anomalies in brain activation, disruption of the hypothalamic‒pituitary‒adrenal (HPA) axis, and inflammation [22, 23].
For medical students, vulnerability to depression, problematic use of digital media, and lack of good sleep quality due to disrupted mental well-being demand effective intervention strategies both during COVID-19 and beyond. However, as of currently, there is a lack of understanding of how these factors could be associated with each other. Depression, poor sleep quality, and increased screen time were proven to significantly worsen in previous studies [24], but reciprocal relationships between mental health disturbances might also exist, and this converse aspect was less studied [25]. Thus, this study was aimed to further clarify the association between current mental health disturbances and depression, screen time, and sleep problems among preclinical medical students during the COVID-19 pandemic. This would provide a basis for specific areas of intervention for this cohort, especially if promoting mental health was associated with corresponding improvement in depression, worry, screen time, and sleep problems.
Methods
Study design and data collection
This cross-sectional study was conducted using crowdsourcing and snowballing methods to help gather more participants within a short period of time. The data were collected using an online questionnaire (http://surveymonkey.com), and the survey link was distributed via local medical organizational groups across Indonesia and personal chats on social media platforms such as WhatsApp groups, Line, Facebook, and Instagram. Prior to the study, ethical approval for the research protocol was obtained from the Health Research Ethical Committee of the Faculty of Medicine at Universitas Indonesia. The study participants included preclinical medical students who underwent online learning and provided their consent through an online informed consent form. The preclinical period of study in Indonesia lasts until four and a half years, during which the students are required to study the medical sciences theoretically without having to meet face-to-face with the patients. Those who did not complete the questionnaire were excluded. The collection period was from October 2020 to June 2021. During the study period, 1,335 participants filled in the online questionnaire through the survey link, but only 1,023 datasets were filled out completely (response rate 76.6%) and were finally eligible for statistical analysis after excluding 56 duplicates and 256 incomplete sets. The respondents were preclinical medical students studying at 64 medical faculties across Indonesia from 30 out of 34 provinces in the country.
Research instruments
The research questionnaire began with an informed consent form and consisted of several sections, the first of which aimed to determine the respondents’ sociodemographic characteristics. The instruments used in the following sections included the General Health Questionnaire (GHQ-12), Patient Health Questionnaire-9 (PHQ-9), Pittsburgh Sleep Quality Index (PSQI), and a screen time questionnaire.
GHQ-12
The GHQ-12 was used to assess psychological distress and social dysfunction as domains of current mental health disturbances using a 12-item self-report questionnaire. It was selected to analyze the current mental health disturbances of participants within a two-week time frame, yielding a total score between 0 and 18 for the psychological distress and social dysfunction domains. A higher total score on both domains indicates more current mental health disturbances. Because the GHQ-12 has no exact cutoff point for each domain, data-driven cutoffs were used. This study found that the psychological distress and social dysfunction total scores were not distributed normally; thus, the median was used for the data-driven cutoffs. Participants with a total score of psychological distress and social dysfunction under the median (medians of less than 13 for psychological distress and less than eight for social dysfunction) were determined as not having current mental health disturbances. Participants with a median score of 13 and above for psychological distress (total score) were determined to have psychological distress, those with a median score of eight and above for social dysfunction were determined to have social dysfunction, and those who scored in the indicated ranges for both domains were determined to have both psychological distress and social dysfunction. Based on the GHQ-12 results, the study identified four groups of participants: without current mental health disturbances, with psychological distress, with social dysfunction, and with both psychological distress and social dysfunction. The GHQ-12 was translated into Indonesian and validated by Idaiani et al., with a Cronbach’s α of 0.670–0.77. Sensitivity and specificity analyses yielded values of 67.89% and 74.75%, respectively [26].
PHQ-9
The PHQ-9 was used to evaluate depression, translated into Indonesian, and validated by van der Linden et al. with a Cronbach’s α of 0.724 [27]. The questionnaires were scored on a Likert-type scale, ranging from 0 to 3, with higher numbers indicating more severe depressive symptoms. A total score between 0 and 4 indicates no or minimal depression, 5–9 indicates mild depression, 10–14 indicates moderate depression, 15–19 indicates moderately severe depression, and 20–27 indicates severe depression [28].
PSQI
The influence of sleep was further measured using the Indonesian version of the PSQI questionnaire, validated with a Cronbach’s α of 0.83 [29]. Using this instrument, sleep was evaluated on seven dimensions: (1) subjective sleep quality (measured as a response to question 9 regarding how the respondent would rate overall sleep quality), (2) sleep latency (sum of questions 2 and 5a regarding the duration to fall asleep and how often the respondent could not fall asleep within 30 min within the past month, respectively), (3) sleep duration (the amount of actual sleep; >7 h = 0, 6–7 h = 1, 5–6 h = 2, and < 5 h = 3), (4) sleep habitual efficiency (calculated from questions 1, 3, and 4; 0 = > 85% efficiency, 1 = 75–84%, 2 = 65–74%, and 3 = < 65%), (5) sleep disturbances (estimated via how often the respondent experienced sleeping problems), (6) use of medications (0 = none, 1 = less than once a week, 2 = once or twice a week, and 3 = 3 or more times a week), and (7) daytime activity dysfunction (sum of answers to questions 7 and 8), each scored using a Likert scale ranging from 0 to 3, with greater scores indicating greater disturbances [29, 30]. The maximum total score was 21, and the global cutoff was set at 5 (29), above which the participant was interpreted as having poor sleep quality.
Screen-time questionnaire
Screen time was measured using a modified youth screen time questionnaire. Daily total screen time per day was calculated by summing the average weekday and weekend screen time for the four typical activities (Smart phones, laptops, television, and other screen time activities) and divided by seven. The method used to measure screen time followed standard methods applied in several peer-reviewed studies [31]. The questionnaire did not need any validation because it is asking the number of time (in minute) spent on each typical screen time activities per day on weekend and weekday.
Statistical analysis
Data analysis was performed using IBM SPSS version 24 for Mac (IBM, Armonk, New York, USA). Normally distributed numerical variables, as revealed by the Shapiro‒Wilk test, are reported as the mean (standard deviation), while nonnormally distributed variables are reported as the median (interquartile range). Meanwhile, categorical variables are reported as numbers (percentage). To identify the effect of current mental health disturbances (as grouped by the GHQ-12) on depression, sleep quality and screen time among preclinical students during the COVID-19 pandemic, one-way ANOVA on ranks test (the Kruskal‒Wallis H test) was conducted [32]. In addition, the Dunn’s post hoc tests were carried out to determine the mean rank differences in each group. The level of significance was set at less than 0.05 (p < 0.05).
Results
The participants’ study year ranged from the first to the fourth year of medical school, with most students coming from moderate- to high- income families (Table 1). The median age of all participants was 20 years (range: 17–27). The GHQ-12 results revealed that most of the participants did not have any current mental health disturbances (50.9%), while 49.1% experienced current mental health disturbances consisting of psychological distress (12.8%), social dysfunction (15.9%), or both (20.4%). Different degrees of depression were present, as follows: none to minimal (4.7%), mild (18%), moderate (35.3%), moderately severe (31.7%), and severe (10.4%). Moreover, based on the PSQI, more students experienced poor sleep quality (61%) than not (39%). Regarding daily screen time, the students spent a median of 930 min per day on all devices, with 430 min per day spent on laptops and 360 min on smartphones; however, screen times for video games and online games were less than one hour per day (Table 1).
Table 1.
Characteristics | Median (Interquartile Range) | Frequency (%) |
---|---|---|
Age (year) | 20 (19–20) | |
Gender | ||
Male Female |
313 (30.6) 710 (69.4) |
|
Education Year | ||
First year Second year Third year Fourth year (preclinical) |
162 (15.8) 419 (41.0) 327 (32.0) 112 (11.2) |
|
Family Financial Background | ||
High family income level Moderate family income level Low family income level Very low family income level |
427 (41.7) 362 (35.4) 195 (19.1) 39 (3.8) |
|
Current Mental Health Disturbances (GHQ-12) | 18 (15–21) | |
Without current mental health disturbances Psychological distress Social dysfunction Both psychological distress and social dysfunction |
521 (50.9) 131 (12.8) 163 (15.9) 208 (20.4) |
|
Depression (PHQ-9) | 13 (10–17) | |
None to minimal depression Mild depression Moderate depression Moderate to severe depression Severe depression |
48 (4.7) 184 (18.0) 361 (35.3) 324 (31.7) 106 (10.4) |
|
Sleep Quality (PSQI) | 6 (4–9) | |
Without sleep disturbance With sleep disturbance |
399 (39) 624 (61) |
|
Total Screen Time per day (minutes) Screen time for television Screen time for laptop Screen time for smartphones Screen time for video games Screen time for online games |
930 (660–1208) 10 (0–60) 430 (300–600) 360 (180–540) 0 (0–7.50) 0 (0–60) |
Statistical analysis demonstrated significant median differences in at least one group pair between depression (p < 0.001) and sleep quality (p < 0.001) among preclinical medical students without current mental health disturbances, with psychological distress, social dysfunction, or both psychological distress and social dysfunction (Figs. 1 and 2); however, the differences for screen time were not statistically significant (p = 0.151) (Fig. 3). The Dunn post-hoc analysis revealed that preclinical medical students without current mental health disturbances had the lowest mean rank of depression and sleep quality compared to the groups with psychological distress, social dysfunction, and having both psychological distress and social dysfunction (p < 0.001) (Tables 2 and 3). Meanwhile, preclinical medical students with both psychological distress and social dysfunction displayed the highest mean rank of depression and sleep quality compared to those with only psychological distress or social dysfunction (Figs. 4 and 5).
Table 2.
Current Mental Health | Mean Rank Difference | Std. Error | Std. Deviation of Mean Rank | Sig. | Adj. Sig. |
---|---|---|---|---|---|
WCMH-PD | -214.827 | 28.819 | -7.454 | 0.000 | 0.000 |
WCMH-SD | -310.432 | 26.462 | -11.731 | 0.000 | 0.000 |
WCMH-Both | -437.012 | 24.183 | -18.071 | 0.000 | 0.000 |
PD-SD | -95.604 | 34.598 | -2.763 | 0.006 | 0.034 |
PD-Both | -222.185 | 32.888 | -6.756 | 0.000 | 0.000 |
SD-Both | -126.581 | 30.844 | -4.104 | 0.000 | 0.000 |
WCMH = without current mental health disturbances, PD = psychological distress, SD = social dysfunction, Both = with psychological distress and social dysfunction. Each row tests the null hypothesis that the group distributions are equivalent. Asymptotic significance (2-sided tests) is displayed. The significance level is set at 0.05. Significance values were adjusted by Bonferroni correction for multiple tests
Table 3.
Current Mental Health | Mean Rank Difference | Std. Error | Std. Deviation of Mean Rank | Sig. | Adj. Sig. |
---|---|---|---|---|---|
WCMH-PD | -102.541 | 28.744 | -3.567 | 0.000 | 0.002 |
WCMH-SD | -180.188 | 26.394 | -6.827 | 0.000 | 0.000 |
WCMH-Both | -260.505 | 24.121 | -10.800 | 0.000 | 0.000 |
PD-SD | -77.648 | 34.509 | -2.250 | 0.024 | 0.147 |
PD-Both | -157.964 | 32.803 | -4.816 | 0.000 | 0.000 |
SD-Both | -80.317 | 30.764 | -2.611 | 0.009 | 0.054 |
WCMH = without current mental health disturbances, PD = psychological distress, SD = social dysfunction, Both = with psychological distress and social dysfunction. Each row tests the null hypothesis that the group distributions are equivalent. Asymptotic significance (2-sided tests) is displayed. The significance level is set at 0.05. Significance values were adjusted by Bonferroni correction for multiple tests
Discussion
Mental health is an indisputably important aspect of health and quality of life. For preclinical medical students, the impact of mental health disturbances might manifest more extensively, especially since they are less likely to access care due to worry about stigma and obstacles to career advancement [33]. More broadly, mental health problems could also result in poor outcomes for future patient care, as they disrupt productivity and knowledge attainment [34].
The proportion of current mental health disturbances found in this study, at 49.1%, was comparable to that in previous studies. In Jordanian medical schools, half of the participants had severe mental disorders, and only 13.2% were likely to be well (26); In Turkey, among 1375 medical students, 52.4% of them reported feeling mentally unwell (27); and a study in India showed that nearly half of 2,021 medical students reported some degree of mental health problems, such as depression (50.27%), anxiety (51.46%), and stress (41.61%) [35]. Meanwhile, most students in this study had a moderate degree of depression (35.3%), followed by moderately severe depression (31.7%). In contrast, mild depression was the most prevalent degree in studies conducted in the United States (32.5%) [36] and China (16.98%) [37] using the same research instrument. Females were also shown to be more prone to depression, and freshmen (preclinical students) were more prone than seniors (clinical students) [36]. The majority of respondents in this study were female, thereby possibly contributing to a higher proportion of depression. The influence of current mental health on depression found in this study was straightforward, owing to individual coping mechanisms and characteristics. Nishi et al. [38] previously identified shared factors, such as lack of employment, insufficient social support, and presence of diseases—all mirroring the COVID-19 situation—both in participants with psychological distress only and those with concurrent major depressive disorder. Overall, these findings strengthened the evidence that mental health and depression are inextricably linked and that disturbances in current mental health might explain differences in depression levels.
The current study showed that both psychological distress and social dysfunction were associated with more severe depression and poorer sleep quality. Psychological distress is assumed to be a specific uncomfortable feeling and emotional harm, especially in response to an exclusive stressor or condition, affecting a person temporarily or permanently. For example, a person might be unable to effectively manage stressors, triggering emotional chaos and affecting their physical and mental health [39]. For those diagnosed with psychological distress, a previous study corroborated that worry about being infected with COVID-19 was significantly higher [40]. The level of COVID-19 worry might also be associated with the extent of exposure to information, personal mental health awareness, and levels of depression [41, 42]. In addition, pairwise comparisons in the current study demonstrated higher depression scores and poorer sleep quality in preclinical students with social dysfunction than in those who experienced psychological distress. Social dysfunction refers to operational products that do not function appropriately toward an organized and healthy society within the context of local culture, morals, and values [39]. Given social dysfunction, a social order compatible with the expectations of others and the entire environment cannot be formed [43]. Porcelli et al. explained that social dysfunction is associated with more severe depression and worse sleep quality, in line with the findings in this study [44]. Overall, it could be said that social dysfunction has complex phenotypes that are clearly associated with impairments in social cognition (i.e. the collective mental operations that underlie social interactions, including perceiving, interpreting, and generating responses to the intentions, dispositions, and behaviors of others) [45]. The findings of this study revealed that social relationships were very important for preclinical medical students. During the study period, the COVID-19 pandemic was still in the active phase and the limitation of their social connectivity seemed to be a major problem associated with depression and sleep disturbances.
Overall sleep quality was significantly different between those with distinct states of current mental health disturbances (p < 0.05). The overlap between sleep and neurophysiological pathways was reinforced by findings from other studies, demonstrating the bidirectional involvement of sleep as a symptom of psychopathology, as well as the mechanism behind psychological disturbances and social dysfunction [46]. In particular, hyperactivity of the putamen and ventral tegmental areas of the brain in response to stimulation [47], elevated inflammatory markers (IL-6) in response to stressors [48], and disorganized regulation of the cortisol axis during psychological distress– even more so in people with social dysfunction [49]– could all lead to diminished sleep quality. A previous study by Wang et al. [50] found that poor sleep quality was associated with higher mental health disturbances during the COVID-19 pandemic. In this study, no significant difference was found in sleep duration. In previous studies, sleep domain outcomes in correlation with mental health disruptions as measured by the PSQI were not thoroughly consistent. Carbonell et al. [51] found that all domains of sleep quality– especially subjective sleep quality and sleep disturbance, but not sleep latency,– were associated with current mental health disturbances. These findings suggested that current mental health disturbances might be more likely to affect overall sleep quality than individual, variable sleep components.
The statistical analysis revealed that screen time was not different between those with and without current mental health disturbances (p = 0.137). Interestingly, other studies discordantly suggested that screen time may be a coping mechanism in times of distress, resulting in an elevated frequency of smartphone addiction in females and games addiction in males [52]. In contrast with previous analyses, the differing measurement and wide-ranging screen time in this study could explain the lack of significance.
Considering that the presence or absence of current mental health disturbances could have considerable implications for daily quality-of-life indicators during COVID-19– particularly for depression and poor sleep quality– greater attention should be given to improve the mental well-being of highly vulnerable preclinical medical students. Medical education institutions should consistently pursue engagement programs that integrate mindfulness therapy, support groups, stress management, and skills training for the mental well-being of students. Stigmas about struggles in the medical profession should be curtailed by promoting transparency in sharing [53]. These efforts are worth pursuing via remote methods, especially during a pandemic, such as COVID-19. Furthermore, during the current postpandemic period, these interventions could also be achieved in person, allowing better advocacy for the mental health of the students. In addition to the main goal of mental well-being itself, sleep and depression could be rectified, especially since these were found to be associated with each other. However, the effectiveness of these various interventions warrant further studies after the pandemic.
Several limitations exist within this study. As the questionnaire was spread online, medical students who did not have access to the Internet or social media groups were excluded. The data were collected over an eight-month period with two waves of COVID-19 peaks, which could result in collection bias due to various changes in the community contexts and government policies. Furthermore, due to the nature of self-reporting measures, social desirability bias could affect the outcomes. Further exploration of specific factors, as well as the effectiveness of mental health intervention strategies for preclinical medical students, would improve the significance of this research.
Conclusion
Findings from the current study augmented previous evidence by revealing the association between current mental health disturbances and depression, sleep quality, and screen time in Indonesian preclinical medical students. With depression and poor sleep quality, mental health groups yielded exceptionally significant values. In particular, the group with both psychological distress and social dysfunction had worse depression and sleep disturbance than those with either or neither. Thus, in order to increase quality-of-life and success in professional pursuits, medical education intervention strategies should be advocate mental well-being as well as its associated parameters.
Acknowledgements
The authors would like to extend their appreciation to Jasmine Wardhana, Indira Laksmi, Ilaisya Azis, and Humam Faras Arbangi, who aided in sharing the research questionnaires. We would also like to express our appreciation to the Asian Medical Students’ Association (AMSA-Indonesia), Indonesian Medical Students’ Association, and Executive Student Bodies across 80 universities in Indonesia for their assistance in distributing the questionnaire. We would like to express our sincere gratitude to the study participants.
Abbreviations
- COVID-19
Coronavirus disease 2019
- GHQ-12
General Health Questionnaire-12
- PHQ-9
Patient Health Questionnaire-9
- PSQI
Pittsburgh Sleep Quality Index
- SPSS
Statistical Package for Social Sciences
- WHO
World Health Organization
- sgCC
subgenual cingulate cortex
- HPA
hypothalamic‒pituitary‒adrenal
- WCMH
without current mental health disturbances
- PD
psychological distress
- SD
social dysfunction
- Both
with psychological distress and social dysfunction
Author contributions
TW conceptualized the research theme and depicted the methodology. ZSM, EGF, and VJD collected data from the study participants and contacted the relevant stakeholders. VJD, TW, and SDT drafted the manuscript. EK provided inputs for the data processing and methodology. TW supervised the overall research and edited the final manuscript for submission. All authors have reviewed and approved the final manuscript for publication.
Funding
The study was funded by the PUTI Grant Universitas Indonesia with contract number NKB-605/UN2.RST/HKP.05.00/2022. The funding body was not involved in the design, data collection, analysis, data interpretation, or writing of the manuscript.
Data availability
The datasets used and/or analyzed during the current study are available from the corresponding author upon reasonable request.
Declarations
Ethics approval and consent to participate
Ethics approval was obtained from the Ethics Committee of Faculty Medicine, University of Indonesia– Cipto Mangunkusumo Hospital on October 12th, 2020, with issue number: KET-1192/UN2.F1/ETIK/PPM.00.02/2020. Subsequently, this research was conducted by adhering to the WMA Declaration of Helsinki. All participants were given an informed consent form at the beginning of the questionnaires and agreed based on those to participate in this research.
Consent for publication
All participants filled in the attached informed consent form, which includes information for publication, on free will.
Competing interests
The authors declare that they have no competing interests.
Footnotes
Publisher’s Note
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
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Associated Data
This section collects any data citations, data availability statements, or supplementary materials included in this article.
Data Availability Statement
The datasets used and/or analyzed during the current study are available from the corresponding author upon reasonable request.