Abstract
In a World of Uncertainty for Young Adults, Is Self-Compassion the Antidote We Need?
Director of Clinical Research
Osher Center for Integrative Health
Harvard Medical School and Brigham and Women’s Hospital
Director, Research Fellowship in Integrative Medicine
Division of General Medicine, Beth Israel Deaconess Medical Center
Uncertainty. This seems to be the word characterizing this moment in history. Many warn that our younger generation is particularly feeling this uncertainty. Even without the context of political polarization, global unrest, and climate crisis, young adults and college-aged students might inherently face more uncertainties during their transitional, formative phase in life. One’s early twenties are often described as a pivotal yet stressful time when many facets of uncertainty around future prospects are present. Young people are finding their identity, new social networks, and planning for financial independence, career choices, and first jobs.
Interestingly, uncertainty in the science, technology, engineering, and mathematics (STEM) professional pipeline is often a subject of discussion, given the industry’s frequent fluctuations, dependence on the economy, and fast-changing technologies. Specific areas within the STEM entry-level job market might experience more volatility, but the US Bureau of Labor Statistics indicates no more uncertainty in STEM than in other sectors. Recent layoffs in the tech industry in 2023–2024 following the COVID-19 pandemic, however, have greatly shaped perceptions to the contrary. Similarly, data show that the ambulatory health care industry is growing (e.g., there is a national shortage of primary care providers). Yet, medical school applications are declining postpandemic, and the question of future demand for doctors as we enter a new frontier of AI in medicine seems to be on many young minds. Intertwined in this network of uncertainty is the overarching political climate and new leadership in the United States that may threaten to uproot institutions and foundations of science that have been in place for decades or more. Uncertainty for the next generation, in STEM or otherwise, is clear and present.
Academic burnout is a maladaptive syndrome due to academic demands characterized by emotional exhaustion (e.g., high levels of anxiety, frustration, and apathy), cynicism (e.g., lack of enthusiasm and engagement in learning), and low personal accomplishment and academic efficacy (e.g., diminished sense of self-worth). Unfortunately, the reported global prevalence of burnout in college-aged students during the COVID-19 pandemic in both Western and non-Western countries was up to 55% (with 20% reporting severe burnout).1 Relatedly, the stress of uncertainty has been linked to poor self-rated health and academic performance. Low tolerance of uncertainty is associated with low efficacy, fatigue, and helplessness and is thought to exacerbate academic burnout, although this area is understudied.
In a recent analysis of cross-sectional survey data2, Qiang et al. sought to probe this hypothesized association between intolerance of uncertainty and academic burnout in young adult STEM students. Of important note is that this study was conducted in China and thus underscores the importance of cross-cultural perspectives; these issues are not unique to the US but span globally.
The study participants were 1022 undergraduate and graduate students who were sent an online questionnaire. While not explicitly stated, students are presumed to be affiliated with the Guandong University of Petrochemical Technology, where the study was conducted. The survey included four validated Chinese-version questionnaires: (1) Intolerance of Uncertainty Scale (e.g., “Unpredictable events make me upset,” “Uncertainty prevents me from having a fulfilling life”), (2) Academic Burnout Scale (e.g., “I feel that what I have learned is useless,” “I am tired of studying”), (3) Self-Compassion Scale (including dimensions of self-kindness, common humanity, mindfulness, and self-judgment, e.g., “I am dissatisfied with and critical of my own shortcomings and deficiencies”—reverse scored), and (4) Self-Regulatory Fatigue Scale (including cognitive, emotional, and behavioral dimensions, e.g., “I have difficulty executing my exercise program”).
Considering the theoretical “resource limitation model,” investigators were interested in exploring self-regulatory fatigue as a potential pathway between uncertainty tolerance and academic burnout. Self-regulatory fatigue is defined as a state caused by chronic resource depletion (psychological and physiological), which leads to a decrease in self-regulatory capacity (“ego-depletion”). Investigators then asked whether self-compassion—treating oneself with kindness and understanding in the face of perceived inadequacy—might be protective and intervene.
Using this cross-sectional survey data (88.6% response rate), investigators conducted correlational, mediation, and moderated mediation models to test directional hypotheses involving the above constructs. Adjusting for age, gender, home location (urban, rural, and township), and household economic status, the models revealed that intolerance of uncertainty positively predicted academic burnout. In addition, self-regulatory fatigue mediated the effect of uncertainty intolerance on burnout, accounting for 61.5% of the total effect. They then looked at the moderation of self-compassion on self-regulatory fatigue and then indirectly on academic burnout. As hypothesized, they found that intolerance of uncertainty predicted self-regulatory fatigue in those with lower self-compassion, but in those with higher self-compassion, that effect was no longer significant. Similarly, the effect of uncertainty intolerance on academic burnout appeared to decrease with increased self-compassion. Thus, self-compassion can be an effective protective factor to mitigate the negative effects of uncertainty on burnout.
This study provides one actionable strategy for addressing the academic sequelae of uncertainty in young adults. While the study focused on academic burnout, I suspect that the effects of pervasive uncertainty in our society today have a broader reach that bleeds over into multiple aspects of life. However, we can prioritize strategies to equip our next generation with resilience and coping skills. Self-compassion techniques might include self-compassion meditation, cultivation of mindfulness and self-awareness through a myriad of mind-body therapies, mindful activities like journaling, or simply engaging more in meaningful personal activities. While seemingly simple, implementation will require thoughtfulness around diverse cultural norms and values (e.g., perceptions of communal harmony versus self-prioritization), pragmatic barriers in overburdened educational systems, and shifting the STEM culture to prioritize mental health as important as technical skills. All of these will take time and intention to practice and require systematic support, awareness, and engagement on multiple levels—personal, institutional (including university leaders/faculty), the STEM community, and society as a whole—to bring this emerging health crisis of our next generation to the public health fore.
2. Qiang J, He X, Xia Z, Huang J, Xu C. The association between intolerance of uncertainty and academic burnout among university students: The role of self-regulatory fatigue and self-compassion. Front. Public Health 2024;12:1441465. DOI: 10.3389/fpubh.2024.144146.
Mobile Technology and Academic Well-Being: Unraveling the Interplay of Addiction, Conflict, and Mindfulness
Education and Medical Director
Osher Center for Integrative Health
Harvard Medical School and Brigham and Women’s Hospital
Medical Director, Benson-Henry Institute for Mind Body Medicine
Co-Director, Center for Comprehensive Healing
Massachusetts General Hospital
The proliferation of mobile technology has reshaped collegiate learning environments, creating paradoxical outcomes where connectivity tools designed to enhance education increasingly undermine academic performance through compulsive usage patterns. In Yang et al.’s study,1 the authors investigate mobile phone addiction’s pathway to academic burnout through technology conflict.
The study was conducted in an academic setting at a university in Jingzhou, China, utilizing a cross-sectional design to investigate the relationship between mobile phone addiction, technology conflict, mindfulness, and academic burnout among college students. A total of 850 undergraduate students were initially recruited through convenience sampling, with 752 valid questionnaires retained after excluding incomplete or irregular responses. Participants ranged in age from 17 to 23 years (M = 19.4, SD = 1.2), comprising 66.4% female students and representing freshmen (34%), sophomores (36%), and juniors (30%). Data collection occurred in classroom environments using paper-and-pencil questionnaires administered over 30-min sessions between January and July 2022, with ethical approval obtained from the institutional review board at the researchers’ university. The study controlled for demographic variables, including gender, age, academic year, and mobile phone usage history, employing validated psychometric instruments such as the Mobile Phone Addiction Index and Maslach Burnout Inventory-Student Survey. This setting provided a controlled yet ecologically valid context for examining technology-related behavioral patterns in Chinese higher education, reflecting typical smartphone usage challenges faced by digital-native students in lecture-based academic systems.
The study confirmed that mobile phone addiction directly predicts academic burnout (β = 0.301, p < 0.001), aligning with prior research on attention fragmentation and self-regulation deficits. The elaborated intrusion theory framework explained how compulsive device checking creates cognitive preoccupation that displaces academic engagement. Notably, the 8.8% variance explained in academic burnout suggested multifactorial etiology but established smartphone overuse as a modifiable risk factor.
The mediation analysis revealed that technology conflict explains 36% of mobile addiction’s academic impact, operationalized through: Technology-Personal Conflict: Sleep disruption (β = 0.447, p < 0.001) and sedentary behavior exacerbate physical exhaustion. Technology-Academic Conflict: Attention diversion creates knowledge gaps (β = 0.330, p < 0.001) and eroded self-efficacy.
This dual pathway model extended the conservation of resources theory, demonstrating how mobile overuse drains physical stamina and cognitive reserves essential for academic persistence.
The moderation analysis revealed that mindfulness serves as a neurological buffer through: Attention Regulation: Reduced cognitive preoccupation with devices (β = −0.449, p < 0.001) Emotional Nonreactivity: Lower rumination about usage guilt (β = −0.409, p < 0.001) Metacognitive Awareness: Early detection of problematic usage patterns
Notably, at 1 SD below the mindfulness mean, mobile addiction’s burnout impact increased by 80% compared to high-mindfulness counterparts, suggesting trait mindfulness may confer psychological immunity.
With 752 Chinese undergraduates demonstrating significant mediation effects and mindfulness moderating both direct and indirect pathways, this research provides crucial insights for addressing a growing global public health challenge. There are potentially important implications for practice and policy. At an institutional level, curriculum-embedded practices like focused attention meditation could increase baseline mindfulness levels. In addition, there can be “digital hygiene modules, where students learn technology conflict recognition and mitigation strategies. Finally, campus design strategies may employ architectural psychology to create device-free zones” to reduce environmental triggers.
This work has clinical implications as well. For example, new assessment tools might be incorporated into academic counseling with technology conflict scales. Targeted mind-body interventions might be offered for high-risk students. Finally, there may even be family education programs that address intergenerational misunderstandings about digital learning.
There are several limitations to consider concerning this study. The cultural context matters as Confucian educational values may amplify academic burnout perceptions. The self-report measures are susceptible to social desirability bias. Finally, the cross-sectional design obscures developmental trajectories for studies.
Future research might employ neuroimaging studies (e.g., fMRI investigations of mindfulness’ impact on craving-related neural circuits). Cross-cultural comparisons may also examine the differences between individualist and collectivist educational contexts. Finally, we must understand the longitudinal consequences of integrated digital wellness programs.
Yang et al.’s work fundamentally advances our understanding of digital technologies’ dual-edged role in education. By elucidating the technology conflict pathway and identifying mindfulness as a modifiable protective factor, this research provides an empirical foundation for developing multi-level interventions. Future integration with learning analytics and wearable sensors could enable real-time prevention of academic burnout progression. As educational institutions grapple with the digital attention crisis, these findings underscore the urgency of fostering intentional technology relationships grounded in mindfulness and self-awareness.
Might Mind-Body Training Prevent STEM Teachers from ‘Leaking Out’ of the Education Pipeline?
Director
Osher Center for Integrative Health
Harvard Medical School and Brigham and Women’s Hospital
Rapid advancements in STEM influence every sector of our society. To enhance innovative applications of STEM and maintain global competitiveness, the United States and many other countries have invested significantly in building and sustaining what is known as the STEM pipeline. This effort primarily focuses on educational initiatives to recruit and train future scientists. While considerable attention has been given to optimizing curricula and increasing the recruitment of historically underrepresented groups in STEM—such as women and socioeconomically disadvantaged populations—less emphasis has been placed on understanding the various stresses STEM teachers face and developing their resiliency skills to combat burnout. This is crucial for preventing teachers from “leaking out” of the STEM pipeline.
Similar to health care provider burnout, the complex demands placed on STEM teachers can lead to high levels of stress and burnout, with estimates suggesting that as many as 50% of STEM teachers experience significant burnout. Daily challenges include difficult interactions with students, staff, parents, and administration, coupled with excessive workloads and low wages. The stress experienced by teachers has a profound impact not only on their health and well-being but also on their performance and emotional well-being, which, in turn, affects the quality of education and emotional support they provide to their students. High levels of stress and burnout also contribute to increased absenteeism and staff turnover, leading to substantial economic costs.
Research in other populations suggests emotional regulation (ER), i.e., the processes by which people influence their emotions when they have them and how they experience and express them, could be a key mediator of burnout. However, this issue has not been evaluated among STEM teachers.
To address this gap, Israeli researchers Farhi and Rubenstein conducted a cross-sectional study to evaluate the role of ER skills in stress, well-being, and burnout among STEM teachers. The study included 165 middle and high school STEM teachers who completed standard online questionnaires assessing ER, stress, well-being, and burnout. Participants were also asked to comment on three videos showcasing authentic classroom scenarios in mathematics and pedagogy.
Study participants were recruited via social networks and ranged from 17 to 64 years (M = 43.38 years, SD = 10.21; 69.1% females). Tenure (seniority) ranged from 1 to 35 years (M = 13.24 years, SD = 9.68). 24% of the teachers had a BA/B.Ed., 68% had an MA/M.Ed., 5% had a PhD, and 3% had other degrees.
A large battery of relevant variables and measurements was assessed, including demographics (age, gender, ethnicity), education history and teaching training (e.g., seniority, teaching subject), teaching context (e.g., grade and number of students, abilities/disabilities of learners), and previous training in ER. ER was evaluated using two validated self-report questionnaires: the Difficulties in Emotion Regulation Scale (DERS) and the Emotion Regulation Questionnaire (ERQ). Higher scores on each scale indicate greater use of reappraisal or suppression strategies. Overall well-being was assessed with the Life Satisfaction Index. Stress was assessed with the Teachers’ Stress Inventory, which evaluates factors affecting stress among teachers (e.g., time management, work-related pressures, discipline and motivation, and emotional manifestations). The Teachers’ Burnout questionnaire was used to measure burnout because of teachers’ work at school, including three dimensions: exhaustion, lack of self-fulfillment, and depersonalization of students. Emotional and cognitive behavioral responses to short online videos depicting classroom situations were also assessed.
As hypothesized by the authors, there were significant correlations between well-being, burnout, and stress among participating STEM teachers. Higher well-being was correlated with lower burnout and stress. Also, as hypothesized, overall, greater difficulties in ER were associated with lower well-being and greater burnout, stress, and use of a suppression strategy. Contrary to expectations, seniority (measured in years of teaching) was not correlated with any of the variables, suggesting seniority does not play a significant role in predicting ER skills, stress, well-being, or burnout among STEM teachers.
Structured responses to classroom video vignettes supported survey data and identified a significant positive correlation between video emotion (the intensity of the negative emotions the teachers felt when watching the videos), the use of the suppression strategy reported in the ERQ, and difficulties in ER reported in the DERS. Results of structural equation models further support that stress predicts difficulties in ER and burnout positively, and difficulties in ER predict well-being negatively.
Some limitations of this study include its cross-sectional design, which precludes causal inferences, and the sample’s generalizability, which is limited to predominantly Israeli women teachers.
In summary, findings from this study highlight the potential key role of ER in the well-being of teachers and their risk of burnout. The authors aptly conclude that one practical way to improve ER is through mind-body practices. Mind-body interventions have been shown to improve mindfulness skills and decrease psychological distress, and more specifically, healthier cognitive appraisal skills have been attributed to well-being. Of note, 86% of the recruited teachers in this study reported never receiving formal ER training. Given the current teacher shortage crisis, particularly in STEM fields, future research is warranted to further evaluate the benefits of mind-body practices targeting ER on STEM teachers’ (and educators in general) well-being and resilience to burnout, along with potential benefits of this training to the quality of education students receive. In addition to effectiveness, these studies should evaluate cost-effectiveness, as implementing sustainable large-scale mind-body training programs can be costly. Finally, paralleling initiatives in health care, such individual-focused programs will need to be embedded within larger programs that address systemic factors such as unreasonable workloads, lack of autonomy, and toxic workplace cultures, contributing significantly to burnout.