Abstract
Biomedical graduate students and postdoctoral researchers contribute to scientific innovation, driving discovery and advancing health solutions. However, their success depends on more than research skills; they require strong mentorship, mental health support, and inclusive training environments. Despite the critical importance of research learners, the current structures at many medical schools prioritize clinical learners, often leaving research learners without adequate institutional support. Unique challenges, including prolonged training, reliance on a single mentor, and dual roles as learners and researchers, are compounded by high stress, ineffective mentorship, and underaddressed mistreatment, particularly for underrepresented groups. This commentary highlights the urgent need for medical schools to address these issues through targeted interventions. Institutions must implement proactive mental health strategies, strengthen culturally aware and effective mentorship, and foster inclusive research environments that promote equity and psychological safety. By prioritizing these efforts, medical schools can support research learners’ success, reduce attrition, and cultivate a diverse and innovative biomedical research workforce. This approach is an investment in the future of biomedical research and its long-term sustainability.
Biomedical research is the foundation of academic health centers, driving innovation, advancing medical knowledge, and sustaining National Institutes of Health (NIH) funding.1 However, this foundation is beginning to crack: the scientific workforce faces unprecedented instability due to funding fluctuations and a shrinking pipeline of future scientists.2,3 To ensure its long-term sustainability, institutions must take an active role in shoring up the future of the research workforce by safeguarding research training.
Medical schools and academic research institutions are critical in stabilizing the biomedical workforce by investing in research learners—graduate students and postdoctoral scholars—at the forefront of discovery. Unlike clinical training, which follows structured competency-based pathways, research training is prolonged, mentor dependent, and highly sensitive to funding and policy changes. Without strong institutional support, the future of biomedical research may be compromised as fewer trainees see a clear and viable career path in science.
These challenges coincide with a shift in the research landscape. According to the National Science Foundation, only 27% of life science PhD graduates in 2022 planned for an academic career—a 55% decrease since 1992.4-8 Similarly, postdoctoral training in biological and biomedical sciences decreased from 75% to 60% between 2002 and 2022.9 Institutions can help reverse these trends by addressing the unique aspects of research training that can drive promising scientists away from this career path. This report outlines key strategies institutions can implement to strengthen the biomedical research workforce and provide research learners with the stability, support, and mentorship they need to thrive.
Supporting Research Learners: Recognizing and Addressing Key Challenges
It is necessary to understand the distinct academic and professional challenges research learners face compared with their clinical counterparts (Table 1). Both groups experience high-pressure and high-stakes training. However, whereas clinical learners follow a structured, competency-based training model with multiple mentors, intentional institutional oversight, and defined durations, research learners navigate prolonged, mentor-dependent training with uncertain milestones, unpredictable research outcomes, and unclear career paths. We outline key areas requiring institutional attention and propose actionable solutions to enhance research learner well-being and professional development.
Table 1.
Clinical Versus Research Learner Stressors
| Stressor | Clinical learners | Research learners |
|---|---|---|
| Nature of training |
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| Mentorship and oversight |
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| Performance metrics |
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| Training-specific stressors |
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| Work-life balance and personal well-being |
|
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| Team dynamics and collaboration |
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| Financial pressures |
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| Factors in career advancement |
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| Job market prospects |
|
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| Institutional oversight |
|
|
Abbreviations: AAMC, Association of American Medical Colleges; LCME, Liaison Committee on Medical Education.
Addressing Mental Health in Research Training
Research trainees face significant challenges that can profoundly impact their mental health and well-being.10-12 Research learners operate in prolonged uncertainty, where success is contingent on unpredictable experimental outcomes, publication acceptance, and securing funding. Evans et al11 reported that 41% of graduate students experienced moderate to severe anxiety and 39% experienced moderate to severe depression. Biomedical PhD students also exhibit significantly higher levels of anxiety and depression than their medical student peers.13 The high failure rate inherent to research, with limited institutional oversight and heavy dependence on a single mentor for research expertise, skill building, and career guidance, can lead to isolation, self-doubt, and career instability.14,15 These challenges are further compounded for trainees from marginalized backgrounds,16-18 who often face additional barriers to support and inclusion. These pressures, combined with the stigma surrounding mental health in academic research, may make it particularly difficult for trainees to seek help without fear of professional repercussions.19
Improving access to mental health services tailored to the unique pressures of research learners is essential.20 Institutions should adopt a proactive approach by embedding mental health literacy and stress management education early in research training to equip trainees with coping strategies before encountering significant challenges. The NIH Office of Intramural Training and Education developed a wellness-focused resiliency training series designed for research learners and their advisors. Leveraging the NIH Office of Intramural Training and Education’s Becoming a Resilient Scientist and Raising a Resilient Scientist trainings during orientation or shortly after research learners arrive on campus can help normalize discussions around well-being through structured mentorship, peer networks, and professional development.10
Institutions can redesign research training infrastructures to prevent or mitigate avoidable stressors.21 Such training includes promoting clear expectations about research timelines and setbacks, which can help trainees reframe failure as an inherent part of the scientific process rather than a personal shortcoming. Providing structured mentorship networks rather than sole reliance on a single mentor can mitigate isolation and ensure consistent support throughout training. Competency-based training frameworks offer a structured approach to integrating resilience-building and professional development into the training of research learners.22 These models emphasize skills beyond technical expertise, including adaptability, self-efficacy, and career planning, which can help trainees navigate inherent research challenges.
Institutions should offer confidential counseling, peer support, and stress management workshops to encourage help-seeking behaviors and reduce stigma. Resilience training programs are associated with reduced stress, anxiety, and presenteeism while improving self-efficacy and adaptability.10,23 Institutional support for outreach events can also enhance research learners’ mental health and well-being by fostering community engagement and a sense of purpose. These activities provide opportunities for connection, help reduce stress, and promote a sense of accomplishment.24 By embedding proactive mental health education, strengthening structured support systems, and normalizing discussions around stress management, institutions can better prepare research learners to navigate the challenges of a research career.
Enhancing Mentorship for Research Learners
Research learners navigate an individualized path, making mentorship the cornerstone of successful training.25-30 Although all learners need mentorship to enhance productivity or secure recommendation letters, research learners rely on mentors for much more, including visa sponsorship, financial support, research directions, professional development, and guidance in securing postdoctoral and faculty positions.31-33 Because mentorship is central to research training, its quality directly affects a trainee’s productivity, career trajectory, and overall experience.
However, mentorship quality varies widely due to limited oversight and accountability.30 Effective mentorship embraces accessibility, clear expectations, constructive feedback, sponsorship, and commitment to trainee development. Ineffective mentorship—whether due to neglect, misaligned expectations, poor communication, or lack of advocacy—can hinder progress, funding, and career transitions. Reliance on a single mentor amplifies these risks, leading to prolonged training, lower research output, career stagnation, and attrition.28,34
Institutional barriers further compound these challenges. Although clinical training includes structured evaluations, competency assessments, and multiple supervisors, research training mentorship is often informal, with little standardization in training or evaluation. Few institutions have consistent policies on mentorship expectations, training, or accountability, allowing disparities to persist.
Mentorship challenges are heightened for trainees from marginalized backgrounds35-38 due to systemic barriers, including limited access to well-connected mentors, structural inequities,39,40 institutional bias,38,41 and microaggressions.42-44 These factors impact research productivity, career advancement, and retention in biomedical science.45 Without intentional improvements at individual and institutional levels, disparities in research training will drive attrition and hinder workforce diversity.
Institutions must implement comprehensive strategies to improve mentorship effectiveness, including structured mentor training and systemic support. Evidence-based programs, such as those from the Center for the Improvement of Mentored Experiences in Research, enhance communication, set expectations, and promote best practices.46,47 Culturally aware mentoring further helps mentors understand how identity, generational differences, and lived experiences shape mentorship dynamics.48,49 These trainings should be reinforced through annual reviews and assessments, allowing research learners to provide feedback and ensuring continuous improvement.
Beyond individual mentorship, the traditional one-on-one model should be reevaluated to research learners’ evolving needs. Mentoring committees or team-based mentorship structures provide interdisciplinary perspectives, grant-writing guidance, career development support, and access to broader professional networks, fostering a more supportive and resilient training environment.50
Institutions should actively incentivize and recognize strong mentorship.51-53 Faculty evaluations, tenure and promotion decisions, annual reviews, and mentorship awards should incorporate structured assessments of mentoring effectiveness beyond selective letters of support.54-58 The NIH underscores the importance of structured mentorship through mandated mentorship plans for many training grants, setting a precedent for institutional accountability.59,60 Given the challenges of ensuring anonymity and safety in mentee feedback, institutions should develop systematic approaches to evaluating mentoring quality to ensure it is meaningfully recognized and rewarded. By integrating mentorship training, structured feedback mechanisms, mentorship networks, and faculty incentives, institutions can foster a culture where mentorship is prioritized and reinforced, ultimately ensuring that research learners receive the guidance they deserve to thrive in biomedical research.61
Creating a Safe and Inclusive Research Environment
A supportive and inclusive research training environment is essential for research learners’ well-being, professional development, and retention. Although medical schools have made strides in addressing mistreatment among clinical learners,62-65 research learners experience unique challenges in laboratory settings that often lack clear oversight.66 A laboratory’s culture—shaped by mentorship dynamics, implicit biases, work expectations, and power imbalances—can significantly impact trainees’ success, mental health, and career progression.67
Research learners often work in small, hierarchical laboratory environments, relying heavily on a single mentor for funding, guidance, and career advancement. This structure can create significant power imbalances that discourage trainees from reporting mistreatment or advocating for themselves out of fear of retaliation, loss of authorship, or harm to their career prospects.68 Learners may also experience isolation, especially if their mentor lacks strong mentorship skills or the laboratory culture prioritizes competition over collaboration.
Beyond overt mistreatment, subtle but pervasive laboratory cultural norms can undermine inclusivity and psychological safety. Unspoken expectations of overwork, including pressure to work nights and weekends without clear boundaries, can lead to burnout and disproportionately disadvantage trainees with caregiving responsibilities or those navigating systemic barriers in academia.69 Unlike medical residency programs, which implemented structured work-hour limits after the Bell Commission’s recommendations to mitigate fatigue and ensure oversight,70,71 PhD training often lacks clear regulations on workload expectations. This absence of defined boundaries can prolong stress and uncertainty, making it essential for institutions to establish and enforce sustainable work expectations that support research trainees’ well-being.
A lack of standardized expectations for laboratory duties, authorship, and mentoring relationships can create confusion and disparities in research environments. Without formal structures outlining roles and responsibilities and clear avenues for conflict resolution, research learners may struggle to advocate for fair treatment, equitable access to opportunities, and a work culture that supports their growth. This reality is evidenced by increased unionization efforts among research learners, who collectively express dissatisfaction with the currently acceptable standards for training environments.
Creating a safe and inclusive research environment requires clear policies, structured accountability, and cultural shifts that actively promote equity and psychological safety. Institutions must go beyond addressing mistreatment to proactively foster inclusivity by standardizing expectations, strengthening reporting mechanisms, and ensuring that mentorship structures support all research learners equitably. A critical step is implementing transparent frameworks for conflict resolution, authorship policies, and workload distribution through structured mechanisms, such as laboratory handbooks and mentor-mentee compacts.72 These documents provide clear expectations for roles, responsibilities, and professional conduct, reducing ambiguity and ensuring all trainees have equitable access to research opportunities. Institutions should require an annual review of these expectations to ensure continued alignment with best practices.
These efforts align with the Association of American Medical Colleges’ Group on Research, Education, and Training Appropriate Treatment of Research Trainees Working Group recommendations,55 emphasizing leadership, professionalism, and equity as essential principles in graduate and postdoctoral training. By implementing these structured interventions—clear policies, multiple mentorship touchpoints, accessible reporting systems, and institutional oversight—medical schools can create research environments that support career growth, prioritize trainee well-being, and cultivate an inclusive, sustainable biomedical workforce.
Medical School Leadership in Supporting Research Learners
Research learners face a distinct set of challenges that demand targeted interventions from medical school leadership to sustain a robust biomedical workforce. At a time when research careers are becoming increasingly uncertain due to funding constraints, shifting research priorities, and workforce instability, medical schools must take a proactive role in stabilizing and strengthening research training programs. By addressing the issues plaguing many research environments (Table 2), institutions can better equip research learners to succeed.64,65,73 Stakeholders, including leadership, faculty mentors, learners, and institutional support staff, must collaboratively build an environment that explicitly supports research learners. This environment requires accessible mental health resources, clear accountability for mentorship quality, and well-defined standards for overseeing and evaluating the research environment.
Table 2.
Challenges and Opportunities for Support of Research Learners
| Challenges | Opportunities for support |
|---|---|
| Addressing mental health in research training | |
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| Enhancing mentorship for research learners | |
|
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| Creating a safe and inclusive research environment |
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Institutional commitment must extend beyond ad hoc initiatives to a structured framework comparable to those guiding undergraduate medical education and graduate medical education. Such a framework should establish clear mentor expectations, routine progress assessments, and mechanisms to address mistreatment and burnout. By embedding these principles into the institutional culture, medical schools can ensure that research learners receive the guidance, protection, and resources they need to thrive. The current landscape underscores the urgency of these efforts. Ultimately, by prioritizing the unique needs of research learners, medical schools can advance biomedical discovery, foster innovation, and secure the future of scientific research. The time to act is now!
Acknowledgments:
The authors would like to thank the Association of American Medical Colleges’ (AAMC’s) Group on Research, Education, and Training (GREAT) and Group on Research Advancement and Development (GRAND) Steering Committees for their insights and Anthony L. DePass, PhD, for his feedback. The authors are especially grateful to Sumaira Hussain and Jodi Yellin, PhD, from the AAMC for their support and insights, which greatly enriched this work. Their dedication and expertise have been instrumental in advancing discussions on enhancing the research learner experience.
Funding/Support:
Dr. Swartz reported receiving research funds from the National Institute on Drug Abuse (grants R01DA059876 and R01DA052255), the National Institute of Mental Health (grant R01MH134319), and the National Institute of General Medical Sciences (grant T32GM146636). Dr. Mandt reported receiving funds from the National Institutes of Health/National Center for Advancing Translational Sciences Colorado Clinical Translational Science Award Program (grants T32 TR004367, T32 TR004366, and UM1 TR004399).
Footnotes
Other disclosures: Dr. Mandt served as chair of the AAMC GREAT Postdoctoral Section. Dr. Blake serves as chair of the AAMC GREAT Graduate Section and as a member of the AAMC GREAT PhD Outreach Committee. Dr. Swartz serves as chair of the AAMC GREAT MD-PhD Section and as a member of the Executive Committee of the National Association of MD-PhD Programs and the AAMC GREAT MD-PhD Section Communications Committee.
Disclaimers: The contents are the authors’ sole responsibility and do not necessarily represent official organizational views. ChatGPT 4.0 (OpenAI, San Francisco, California) was used to edit text sections for conciseness and clarity. All ideas are original to the authors. The authors provided final review and edits of all text to ensure accuracy and proper language intent.
Contributor Information
Bruce H. Mandt, Graduate School; Postdoctoral Office and Career Development Office; Department of Pharmacology, University of Colorado Anschutz Medical Campus, Aurora, Colorado.
Nicquet M.J. Blake, Division of Graduate Education and Postdoctoral Affairs; Department of General Internal Medicine, University of California San Francisco, San Francisco, California.
Talia H. Swartz, Medical Scientist Training Program; Icahn School of Medicine at Mount Sinai, New York, New York.
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