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Proficiency, perceptions, and barriers to research participation among medical undergraduates: A cross-sectional questionnaire-based study
*Corresponding author: Boojalakshmi Sathiyamoorthy, Department of Pharmacology, Trichy SRM Medical College Hospital and Research Centre, Trichy, Tamil Nadu, India. lakshmipooja347@gmail.com
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Received: ,
Accepted: ,
How to cite this article: Sathiyamoorthy B, Sekar V, Esakkimuthu K. Proficiency, perceptions, and barriers to research participation among medical undergraduates: A cross-sectional questionnaire-based study. Indian J Med Sci. 2026;78:199-203. doi: 10.25259/IJMS_71_2026
Abstract
Objectives:
The objective of this study was to assess knowledge, attitudes, practices, and barriers toward research participation among medical undergraduates.
Materials and Methods:
After a pilot study with 20 participants, a cross-sectional study with 220 medical undergraduate students from all academic years was conducted using a validated digital questionnaire. The demographic characteristics, knowledge, attitude, research experience, barriers, and facilitators for conduct of research were assessed. Data were collected, analyzed and presented as descriptive statistics, and significance was checked using the Chi-square test.
Results:
Students scored highest on knowledge of regulatory approval (89.5%) and informed consent (87.3%), while observational study designs were weakest (72.7%). Attitudes were broadly positive, yet only 17.7% had ever taken part in a research project. Time constraints (74.1%), poor awareness of opportunities (70%), and low personal interest (67.7%) were the top barriers cited. Faculty mentorship was identified as the most valuable facilitator.
Conclusion:
There is a clear and troubling gap between what students know about research, how they look at it, and what they do. Addressing this disparity necessitates intentional and structured efforts at the institutional level, as mere awareness is insufficient to achieve meaningful progress.
Keywords
Barriers to research
Curriculum development
Medical education
Research attitudes
Undergraduate research
INTRODUCTION
Advancement in medical science depends on research and the evidence it generates. New approaches to prevention, diagnosis, and treatment all emerge from this systematic inquiry, and training students to participate in that process has become a recognized goal of modern medical education.[1] Building this capacity early is seen as a way to produce graduates who can evaluate evidence critically and adapt as clinical knowledge evolves.[2] Yet in practice, meaningful student engagement in research remains low across medical schools in India.
Several factors attribute to this, such as the medical curriculum being demanding enough on its own, and research rarely fits easily into what little time students have left over. Many institutions provide limited formal exposure to research methodology- especially in the early years, when that foundation matters the most. The picture is made worse by a shortage of accessible mentors and poor student awareness of what opportunities even exist. Various grant schemes and institutional programs have been introduced, but actual student research output remains disappointing given the number of students that are enrolled.
The benefits of getting involved in research extend well beyond academic credits. Students who participated in research tend to develop stronger critical thinking and analytical skills, and these translate directly into better clinical reasoning and competence due to improved scientific literacy. Research involvement during medical school has been associated with increased likelihood of pursuing academic careers and sustained research productivity throughout professional life.[3,4]
Designing interventions that work requires a clear picture of where students currently stand in terms of what they know, how they feel about research, what they have done, and what is being a hindrance. Data in this respect from the Indian subcontinent are limited, and the situation in private medical colleges in South India might differ considerably from government institutions when faculty, infrastructure, and student interests and exposure are considered. This study was conducted at one such institution in Tamil Nadu to assess these four dimensions among MBBS students across all years of training, and to identify where practical interventions would have the most impact.
MATERIALS AND METHODS
Study design and setting
This cross-sectional questionnaire-based study was conducted at a private medical college providing tertiary care in Tamil Nadu, India, between October 2024 and October 2025 after obtaining approval from the Institutional Ethics Committee.
Sample size calculation
Sample size estimation was based on a previous study by Pallamparthy and Basavareddy (2019) reporting 68% adequate research knowledge among medical undergraduates.[5] Using the formula n = Z2pq/d2 (where Z = 1.96 for 95% confidence interval, p = 0.68, q = 0.32, and d = 0.065), the calculated sample size was 195. Allowing for a 10% non-response rate, 220 students were recruited to ensure adequate statistical power.
Participant selection
Universal sampling with proportional allocation was employed. Fifty-five students were recruited from each of the four academic years (1st year, 2nd year, 3rd year, and internship) to ensure equal representation across the MBBS program curriculum stages.
Inclusion and exclusion criteria
The study included all consenting medical undergraduates in the institution from 1st year through internship who were present during the data collection period. Students who declined to participate or were unavailable during the survey period were excluded from the study.
Data collection instrument
A structured, validated digital questionnaire was developed based on previous literature and expert consultation.[5] The questionnaire was developed based on previously published studies and reviewed by five subject experts for content validity ratio (CVR) (CVR = 0.90). A pilot study was conducted among 20 students to assess clarity and reliability, and necessary modifications were made.
The instrument comprised five sections: (1) Demographic characteristics including age, gender, and academic year; (2) knowledge assessment covering six domains of research methodology – regulatory requirements, informed consent, study protocols, clinical trial design, hypothesis formulation, and observational study designs; (3) attitude assessment using five-point Likert scales addressing curriculum integration, educational value, clinical utility, and perceived burden; (4) research experience evaluation documenting participation in projects, presentations, and publications; and (5) barriers and facilitators assessment exploring time constraints, awareness, interest, funding, mentorship, and institutional support. The questionnaire was pilot tested among 20 students, excluded from the final sample, and then refined based on feedback.
Ethical considerations
After Institutional Ethics Committee approval (Ref. No: 691/ ME–1/2025), participants were enrolled on the study after written informed consent was obtained. Data were collected anonymously and were stored securely with restricted access only to the authors of this paper via encrypted cloud files.
Statistical analysis
Data were analyzed using the Statistical Package for the Social Sciences version 26.0 (IBM Corp., Armonk, NY, USA). Descriptive statistics including frequencies, percentages, means, and standard deviations were calculated for all variables. Knowledge scores were computed by assigning one point for each correct response across the six domains. Attitude scores were derived from Likert scale responses, with higher scores indicating more positive attitudes. Chi-square tests were employed to examine associations between categorical variables, including academic year and research participation status. Independent t-tests were used to compare knowledge and attitude scores across different subgroups. Statistical significance was set at p < 0.05 for all analyses.
RESULTS
Our study had a total of 220 students enrolled, with all of them completing the questionnaire, giving a response rate of 100%. Of the 220 students, 50% (n = 100) were 18–19 years of age, and 46.8% (n = 103) were of the age 20–21. Around 3.2% of students (n = 7) were older than 21 years of age. Around 65% of the participants (n = 143) identified as female, while 35% (n = 77) identified as male. A balanced representation was seen from all four academic years in the MBBS program, with each year contributing 25% (n = 55) of the participants.
The correct and incorrect response rates for the knowledge domain are enumerated in Table 1.
| Variable | Correct response (n%) | Incorrect response (n%) |
|---|---|---|
| Knowledge of hypothesis | 77.7 (171) | 22.3 (49) |
| Knowledge of study protocol | 81.8 (180) | 18.2 (40) |
| Knowledge of observational study | 72.7 (160) | 17.3 (60) |
| Knowledge of clinical trial design | 79.1 (174) | 20.9 (46) |
| Knowledge of regulatory body approval | 89.5 (197) | 10.5 (23) |
| Knowledge of informed consent process | 87.3 (192) | 12.7 (28) |
In the participants’ attitude toward research, 37.7% of participants (n = 82) strongly agreed, and 45% (n = 99) agreed that research should be part of the MBBS curriculum. Strong disagreement was seen in 2.7% (n = 6) of participants in the study. Parameters evaluated as part of the attitude domain and their scores are enumerated in Table 2.
| Statements | Strongly agree (n%) | Agree (n%) | Neutral (n%) | Disagree (n%) | Strongly disagree (n%) |
|---|---|---|---|---|---|
| Research should be part of the MBBS curriculum | 37.7 (83) | 45 (99) | 13.2 (29) | 0.9 (2) | 3.2 (7) |
| Research helps in a better understanding of the subjects | 39.1 (86) | 49.5 (109) | 9.5 (21) | 0 | 1.8 (4) |
| Research improves clinical practice | 37.7 (83) | 47.3 (104) | 12.3 (27) | 0 | 2.7 (6) |
| Research is an extra burden for students | 4.5 (10) | 17.3 (38) | 46.8 (103) | 22.7 (50) | 8.6 (19) |
| Research does not interfere with regular studies | 6.4 (14) | 13.2 (29) | 48.2 (106) | 28.2 (62) | 4.1 (9) |
Figure 1 shows participants’ overall score for attitude toward research out of five. Higher mean scores (>4) for the first three statements indicate a strong positive attitude toward the importance and usefulness of research. Lower mean scores (<3) for the last two statements suggest that students generally do not strongly perceive research as an excessive burden or as interfering with routine studies.

As far as the perception of workload of research was concerned, 21.8% of participants (n = 47) agreed or strongly agreed that research is an extra load on students. Nearly half of the participants, that is, 46.8% (n = 103), took a neutral stance, and 31.3% (n = 68) actively disagreed, suggesting that though workload concern was present, it is not as dominant as often assumed. Views on whether research interferes with regular studies were similarly divided, with 48.2% (n = 106) saying neutral, 19.6% (n = 43) agreeing, and 32.3% (n = 71) disagreeing or strongly disagreeing with it.
The various barriers to research as experienced by the participants are enumerated in Table 3.
| Statement | Strongly agree (n%) | Agree (n%) | Neutral (n%) | Disagree (n%) | Strongly disagree (n%) |
|---|---|---|---|---|---|
| Lack of awareness | 21.8 (48) | 48.2 (106) | 27.3 (60) | 1.4 (3) | 1.4 (3) |
| Lack of personal interest | 13.6 (30) | 54.1 (119) | 25.0 (55) | 5.0 (11) | 2.3 (5) |
| Lack of funding | 15.5 (34) | 48.6 (107) | 27.7 (61) | 6.8 (15) | 1.4 (3) |
| Faculty support – helpful | 29.5 (65) | 47.3 (104) | 21.4 (47) | 0.5 (1) | 1.4 (3) |
| Time management | 19.1 (42) | 55.0 (121) | 20.0 (44) | 3.2 (7) | 2.7 (6) |
| Difficulty in patient follow-up | 13.2 (29) | 53.2 (117) | 30.9 (68) | 0.5 (1) | 2.3 (5) |
In our study, 30.91% reported guidance from seniors or faculty as a facilitator factor for research, followed by personal motivation at 25.91%. Peer support, skill development, and financial support were less common facilitators in our study. The various facilitators for research are enumerated in Figure 2.

The commonly reported challenges for students were assessed and difficulty managing academic work with research was 43.6%, followed by difficulty in understanding research methodology at 38.6%. The other challenges are reported in Figure 3.

Participation varied significantly across academic years (p = 0.018), with 3rd-year students and interns reporting higher involvement than those in 1st and 2nd years. Knowledge scores did not differ significantly across years (p = 0.342), and attitude scores did not differ significantly across years (p = 0.286). Students who had previously participated in research were significantly more willing to do so again (p < 0.05).
DISCUSSION
The central finding of this study is a pronounced gap between knowledge, attitude, and practice, implying that students know what research is, they think it matters, and yet very few are doing it. Understanding why this gap exists, and what can be done about it, is the more important question. The knowledge levels observed, particularly in regulatory and ethical domains, were broadly in line with earlier Indian data[5] and consistent with findings from Qatar[1] and Oman.[2] What stands out, however, is the relatively weaker performance on observational study designs. This likely reflects a curriculum that has historically emphasized experimental methods over epidemiological ones. Given how prevalent cohort, case– control, and cross-sectional designs are in real-world clinical research, this is a gap that warrants attention.[6]
Attitudes were overwhelmingly positive, which, in some ways, makes the low participation even harder to explain. Fewer than a third of students saw research as a burden, challenging the assumption that workload concerns are the main reason students stay away. The more likely explanation is that students are willing but unable: Systemic barriers, not mindset, are the primary obstacle. The participation figures are stark. Fewer than one in five had joined a research project; fewer than one in 20 had presented; fewer than one in 40 had published. Yet, nearly two-thirds said they intended to participate in the future. That gap between intention and action cannot be explained away by lack of interest. Something structural is preventing students from converting their willingness into actual work.
Time was the most cited barrier, flagged by nearly three-quarters of students, a finding consistent with research from other settings.[1,7] In the Indian context, postgraduate competitive examinations and packed timetables leave genuinely little room for anything outside the core curriculum. Addressing this realistically probably means curricular reform and formally protected research time rather than individual-level advice for time management. Separately, poor awareness of available opportunities cited by 70% of students is arguably the more addressable problem. A central research coordination office, regular orientation sessions, and an easily accessible platform listing open projects could make a real difference here.
Faculty mentorship came through as the most valued resource, with nearly 77% rating it positively. This aligns with a well-established literature showing mentorship as the single most important driver of student research success.[2,8,9] The challenge is that mentor capacity is limited. Near-peer mentoring, where senior students guide juniors, offers a scalable alternative that has worked well elsewhere and deserves serious consideration.[10] The higher participation rates among 3rd-year students and interns suggest that research becomes more feasible as students gain clinical exposure and confidence. But since knowledge and attitude scores did not differ by year, it is not definitive that the gap resolves on its own as students progress. It persists throughout training, and interventions are needed at all stages, not just for senior students.
Several international models are worth considering. Mandatory research theses in Germany, intercalated degrees in the United Kingdom,[11] and funded summer research programs in the United States all show that formal structural commitments drive participation in a way that voluntary schemes simply do not. These models cannot be transplanted wholesale, but their core logic making research a requirement rather than an option is adaptable to Indian settings with some modification.
Limitations
This study has limitations worth acknowledging. It was carried out at a single private medical college in Tamil Nadu, so the findings may not generalize across the broader range of Indian medical institutions. The cross-sectional design means we could not track how individual students change over time, and the self-reported nature of barrier data introduces some risk of response bias. We also did not examine the quality or depth of research involvement among those who did participate, something future studies should address.
CONCLUSION
The students in this study are not opposed to research, nor do they lack foundational knowledge. What they lack is access to time, to mentors, to information, and to structured opportunities. Addressing this requires concrete action: protected curriculum time, a dedicated research coordination infrastructure, mentorship incentives for faculty, training in research methods, and funding support. Policymakers might also consider whether research involvement should carry formal accreditation weight, as that would give institutions a tangible reason to invest. The problem is not one of persuasion. Students already value research. The task is to remove the barriers that prevent them from acting on that.
Ethical approval:
The research/study was approved by the Institutional Review Board at Trichy SRM MCH &;RC, number Ref. No: 691/ME-1/2025, dated 8th May 2026.
Declaration of patient consent:
The authors certify that they have obtained all appropriate patient consent forms. In the form, the patient has given consent for clinical information to be reported in the journal. The patient understand that the patient’s names and initials will not be published and due efforts will be made to conceal their identity, but anonymity cannot be guaranteed.
Conflicts of interest:
There are no conflicts of interest.
Use of artificial intelligence (AI)-assisted technology for manuscript preparation:
The authors confirm that they have used artificial intelligence (AI)-assisted technology solely for language refinement and to improve the clarity of writing. No AI assistance was employed in the generation of scientific content, data analysis or interpretation.
Financial support and sponsorship: Nil.
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