At the heart of this research lies a fundamental question: how do learners from different academic disciplines progress and evolve when introduced to programming? While computer science students are traditionally expected to excel given their background, mathematics students bring their own sets of strengths, such as mathematical rigor and analytical thinking. The study exploits modern computational methods—especially sequence analysis—to unravel these learning processes, providing insights that transcend simplistic, one-time assessments. This multi-dimensional longitudinal approach places the spotlight on temporal patterns, engagement behaviors, and technical output, capturing the subtle and dynamic nature of learning programming.

Employing a cohort-based approach, the researchers analyzed data from two groups: novice computer science majors and mathematics majors enrolled in a compulsory programming course. The dataset included detailed

The American Youth Panel, launched in 2024 to complement RAND’s long-standing American Life Panel, surveyed close to 2,000 young individuals aged between 12 and 21. Their responses form a nationally representative data set, meticulously collected through digital communication methods like email and text messaging, to capture the authentic attitudes, behaviors, and academic experiences of contemporary youths. This methodological innovation enables timely, relevant insights into how students are engaging with core subjects such as mathematics amid rapid societal and instructional changes.

Remarkably, the loss of enthusiasm for math cut across demographic categories, with no significant variation observed in gender or racial and ethnic groups. This uniformity suggests that the erosion of interest is a systemic issue rather than one confined to specific populations. Such findings implicate educational environments, curriculum approaches, and the general culture around mathematics learning as factors that require urgent scrutiny and reform.

Another striking revelation from the survey is that only 30% of students in middle and high schools consider themselves “math people.” For those who do identify this way, their positive self-perception generally traces back to experiences in elementary school, underscoring the crucial role early education plays in shaping students’ mathematical identities. This insight places a spotlight on elementary school educators, highlighting their potential influence on students’ long-term engagement with math, which could have lasting ramifications for STEM workforce development.

Heather L. Schwartz, vice president and director of RAND Education and Labor, emphasizes that boredom — often overlooked in the conversation about academic achievement — is a fundamental barrier to post-pandemic recovery in math proficiency. The persistence of boredom during math lessons signals a need for educators to rethink and revitalize how mathematics is taught. Student engagement is not merely a peripheral concern; it is an essential driver for improved academic outcomes and sustained interest in STEM disciplines.

The survey further delved into students’ preferences for the format of math instruction, revealing a nuanced attitude towards technology integration. While one might assume that digital tools and online activities would energize students in today’s tech-centric environment, the data suggests otherwise. Many youths reported a desire for fewer online math activities in favor of more face-to-face instruction that incorporates real-world applications. This preference challenges prevailing assumptions about edtech and invites a reevaluation of how technology is blended with traditional teaching methods.

Robert Bozick, a senior research scientist at RAND, advocates for a balanced pedagogical approach that leverages both face-to-face interactions with teachers and carefully curated offline and online activities. He argues that this mixed strategy, coupled with greater emphasis on real-world math applications, could significantly enhance student motivation. The integration of practical, tangible problems into math curricula might bridge the gap between abstract concepts and students’ lived experiences, fostering deeper cognitive engagement and relevance.

Exposure to applied mathematics connects theoretical knowledge to real-life contexts, providing intrinsic motivation by revealing the utility of math beyond the classroom. This approach aligns with cognitive science research, which posits that meaningful learning occurs when students perceive subject matter as purposeful and applicable. Curricular reforms that embed problem-solving in financial literacy, engineering, or technology could spark renewed interest and combat the pervasive disengagement RAND’s survey has identified.

The longitudinal nature of the RAND study will allow researchers and educators to track changes in math attitudes over time as new instructional strategies are implemented, and post-pandemic educational landscapes evolve. This dynamic monitoring is critical because student engagement is influenced by multiple factors, including instructional quality, classroom environment, socio-emotional support, and broader societal trends affecting youth.

RAND’s establishment of the American Youth Panel responds to an important research gap — the need for timely, representative data on the attitudes and experiences of young people transitioning to adulthood. Unlike many large-scale surveys that focus on adults or aggregate data at broad levels, AYP hones in on youth voices with fine-grained precision, enabling targeted policy interventions and educational innovations precisely where they matter most.

The implications of this research are far-reaching. Persistent disinterest in mathematics could have cascading effects on students’ academic trajectories, limiting access to higher education in STEM fields and constraining workforce pipelines critical to technological advancement and economic competitiveness. Therefore, addressing boredom and disengagement is not merely an educational challenge but a national imperative requiring coordinated efforts among teachers, administrators, policymakers, and parents.

The RAND survey also sheds light on the complex relationship between educational technology and student engagement. As digital learning tools become more prevalent in classrooms, understanding the conditions under which they help or hinder learning is essential. The survey’s findings caution against uncritical adoption of online math activities, urging a pedagogically sound integration that complements, rather than replaces, human interaction and experiential learning.

In summary, this first-of-its-kind research by RAND’s American Youth Panel presents a compelling narrative on the state of math education among U.S. youths. It calls for urgent, coordinated interventions focused on enhancing engagement through diverse instructional modalities and contextualized content. By acknowledging and addressing the widespread boredom reported by students, educators have an opportunity to revitalize math learning and better prepare young people for the demands of the future.

Subject of Research: Student Engagement and Attitudes Toward Mathematics in U.S. Middle and High Schools

Article Title: Losing Interest in Math: Findings from the American Youth Panel

News Publication Date: 2024

Web References:

• https://www.rand.org/pubs/research_reports/RRA3988-1.html
• https://www.rand.org/education-and-labor/survey-panels/ayp.html

References:

• Diliberti, M.K., Ohls, S., Schwartz, H.L., & Bozick, R. (2024). Losing Interest in Math: Findings from the American Youth Panel. RAND Corporation.

Keywords: Education, Mathematics, Students, Education Policy, Education Technology

A recently published longitudinal study, carried out by a team at The Education University of Hong Kong, sheds critical light on this issue. Spearheaded by Dr. Chan Wang, Dr. Weipeng Yang, and Dr. Alfredo Bautista, the research investigates the lived experiences of female preschool teachers of diverse ethnicities—namely Filipino, Pakistani, and Hong Kong Chinese—within Hong Kong’s densely urbanized educational settings. Their findings, disseminated through the ECNU Review of Education in May 2025, offer keen insights into the socio-cultural and organizational impediments that hinder these educators’ effective incorporation of STEM methodologies.

At the crux of their investigation lies the application of the Concerns-Based Adoption Model (CBAM), a robust analytical framework designed to assess the adoption and concerns of educators when integrating new practices. Over a six-week period, the team implemented a professional development program tailored to enhance STEM teaching competencies among the participants. Data collection methods encompassed in-depth interviews, multifaceted surveys, and reflective worksheets, allowing for both qualitative and quantitative assessment of the teachers’ evolving perspectives and challenges encountered during the program.

One of the study’s pivotal revelations centers around the pervasive effect of gender stereotypes and ethnic minority biases that subtly erode the confidence of female teachers in adopting STEM subjects. Despite their participation in targeted professional development, many educators reported persistent feelings of self-doubt, often compounded by cultural expectations that circumscribe women’s roles in society and, by extension, in science-related pedagogies. This phenomenon aligns with broader psychological theories on stereotype threat, whereby individuals internalize negative stereotypes that subsequently impair their performance and engagement.

Parallel to the gendered dimension is the profound influence of deeply ingrained cultural values, notably those stemming from Confucian traditions prevalent in Chinese society. The study elucidates how these cultural frameworks prioritize teacher-directed instruction and academic rigor, often encouraging rote memorization and deference over experiential learning and inquiry—which are cornerstones of effective STEM education. Consequently, educators faced an inherent conflict between the prescribed curricular content and the pedagogical approaches most conducive to fostering STEM literacy through hands-on exploration.

The research also identifies a significant gap in the availability and adaptability of STEM teaching resources that resonate with Hong Kong’s unique socio-cultural milieu. Many instructional materials, including videos and textbooks, originate from Western educational contexts, rendering them less pertinent or accessible for teachers operating within a distinctly different linguistic, cultural, and pedagogical environment. This mismatch not only complicates lesson planning but also detracts from the authenticity and engagement potential of STEM initiatives within local classrooms.

Further compounding these challenges are systemic constraints inherent to the structure of Hong Kong’s preschool education landscape. The curriculum’s rigidity, coupled with spatial limitations endemic to urban schools, restricts opportunities for interactive STEM activities. Such constraints reflect broader urban planning realities, where limited classroom space and high student-to-teacher ratios delimit the scope of hands-on experiments and collaborative learning that are vital for STEM engagement.

Moreover, the study underscores the high-stakes performance pressures exerted by parents and educational institutions, which often prioritize traditional academic achievement and primary school readiness over exploratory learning processes. This emphasis on measurable outcomes and standardized assessments diminishes institutional support for innovative STEM pedagogies, placing further strain on educators striving to balance curricular demands with progressive teaching methods.

Importantly, the researchers argue that these entrenched challenges transcend individual shortcomings, revealing a complex web of sociocultural and organizational factors that collectively shape the climate in which female, ethnically diverse preschool teachers operate. Their confidence, efficacy, and instructional choices emerge not merely from personal capabilities but from the intertwined influences of cultural identity, gender dynamics, and institutional constraints.

Given this intricate context, the study compellingly advocates for the development of professional development programs that are not only technically robust but also culturally responsive and contextually grounded. Tailored support mechanisms must acknowledge and integrate the unique experiences of female teachers from ethnic minorities, facilitating pedagogical adaptations that honor both cultural legacies and the demands of contemporary STEM education.

In addition to training, the provision of localized teaching resources that reflect Hong Kong’s multicultural environment and educational priorities is imperative. Partnerships between curriculum developers, educators, and community stakeholders could catalyze the creation of instructional materials that resonate authentically with students and teachers alike, thereby augmenting engagement and efficacy.

The urgency of such interventions is accentuated by Hong Kong’s strategic goal to strengthen STEM competencies at all educational levels. Recognizing that early childhood education forms the foundation for sustained academic and career trajectories in STEM fields, empowering educators in this sector is vital for fostering long-term inclusivity and diversity within science and technology disciplines.

Wang and colleagues emphasize that a “one-size-fits-all” approach to STEM education is fundamentally untenable, particularly in culturally heterogeneous urban settings such as Hong Kong. Instead, an adaptive, empathetic pedagogy that respects contextual nuances and supports teachers holistically offers the most promising pathway to sustainable reform.

Beyond pedagogical implications, this research contributes to critical debates on educational equity and the intersectionality of identity in professional contexts. By illuminating the unique challenges faced by female, ethnically diverse educators, the study encourages policymakers and institutions to re-examine structural barriers and craft inclusive policies that valorize diversity as a strength rather than a hurdle in STEM education.

As the world grapples with the imperative to nurture future generations equipped with scientific literacy and innovation capacities, the findings from Hong Kong resonate globally—highlighting the necessity of empowering educators who are instrumental in translating policy visions into classroom realities.

Ultimately, this investigation not only diagnoses the impediments to effective STEM teaching in early childhood classrooms but also offers a blueprint for transformative action. Through culturally sensitive professional development, resource localization, and systemic flexibility, it charts a path toward more equitable and impactful STEM education that harnesses the full potential of women teachers from diverse ethnic backgrounds.

Subject of Research: People

Article Title: The Complex Context of STEM Teaching for Female, Ethnically Diverse Preschool Teachers in Hong Kong: A Concerns-Based Adoption Model

News Publication Date: 9-May-2025

Web References: http://dx.doi.org/10.1177/20965311251322184

References: Wang, C., Yang, W., & Bautista, A. (2025). The Complex Context of STEM Teaching for Female, Ethnically Diverse Preschool Teachers in Hong Kong: A Concerns-Based Adoption Model. ECNU Review of Education. https://doi.org/10.1177/20965311251322184

Image Credits: Combat Capabilities Development Command from Openverse

Keywords: Education; Science education; Science teaching; Science faculty; Educational assessment; Educational attainment; Educational levels; Science careers; Teaching; Educational methods; Education technology; Educational facilities; Educational programs; Students; Science communication; Education research

The investigation focused on a large cohort of 690 undergraduates enrolled in Ohio State’s introductory chemistry courses during the fall semester of 2020. This period, coinciding with the COVID-19 pandemic, added an extra layer of complexity to students’ academic experiences, prompting the researchers to factor in pandemic-related disruptions alongside traditional academic variables such as standardized test scores and demographics. The longitudinal study measured students’ perceived effort—differentiating between “criterion effort,” or self-assessment of the hard work they personally invested, and “comparative effort,” which involves evaluating one’s effort relative to peers—at three distinct points during the semester. Parallelly, science self-concept was tracked, capturing students’ belief in their capacity to succeed in scientific fields.

The distinction between criterion and comparative effort proved pivotal. Students who simply recognized their own earnest labor without juxtaposing it against others’ efforts showed a bolstering of science self-concept, particularly among women. Conversely, those who perceived themselves as exerting more effort than peers frequently internalized this differential as a signal of deficient innate ability, negatively influencing self-concept regardless of gender. This internalization aligns with broader psychological theories positing that human beings interpret greater effort needed for success as evidence of lower ability, as effortless achievement is often culturally linked to high aptitude.

Gender differences formed a compelling dimension of the findings. Women who endorsed criterion effort—acknowledging their diligent engagement without comparative framing—demonstrated an uplift in their scientific self-belief and tended toward higher achievement in the chemistry course. This may reflect women’s increased awareness of and response to pervasive gender stereotypes in STEM, whereby exertion is reframed as a tool to overcome systemic biases rather than an indicator of incompetence. In contrast, men’s self-confidence in science appeared anchored more strongly in prior tangible achievements (such as standardized test scores) than in their subjective perceptions of effort. Their science self-concept showed less fluctuation in response to self-reported effort, possibly due to a cultural baseline of perceived scientific competence common among male students.

The reciprocal nature of the relationships between perceived effort and achievement was particularly striking. Early in the semester, students who reported higher criterion effort achieved better scores on midterm exams. This success in turn reinforced their belief in the value of their own hard work, creating a positive feedback loop that fostered both motivation and performance improvements. However, the pattern was attenuated or reversed in cases where comparative effort dominated students’ narratives. Those focusing on how much harder they worked compared to others generally recorded lower chemistry grades, indicating that social comparison can sap both motivation and achievement in high-stakes STEM environments.

This dynamic is especially concerning given the competitive and often “weed-out” nature of many introductory STEM courses. The climate in these classes can inadvertently encourage students to gauge themselves against their peers rather than to cultivate an intrinsic sense of progress and mastery. The researchers emphasize that such a comparative mindset can erect psychological barriers that disproportionately affect women and other marginalized groups, ultimately exacerbating existing disparities in STEM retention and success. By contrast, fostering a mindset attuned to criterion effort—an internal gauge of effortfulness disconnected from social comparison—appears critical for sustaining confidence and achievement among diverse student populations.

The technical rigor of the study is underscored by its robust methodology, including three-timepoint assessments of effort perception, science self-concept, and exam performance, as well as controls for prior academic achievement and pandemic-related effects. The sophisticated modeling of reciprocal effects between variables allowed the research team to parse out not only correlations but also potential causal directions, revealing how early academic experiences and self-perceptions dynamically influence one another over time. This contributes novel empirical evidence to educational psychology, especially regarding how perceptions of effort interact with confidence and outcomes in authentic, high-pressure undergraduate STEM contexts.

Lead author Hyewon Lee, who conducted the study during her doctoral training at Ohio State, highlights the practical implications for educators and institutions. “The findings point to a crucial need for early interventions in STEM courses that help students focus on their own growth and effort rather than fixating on how others seem to perform,” Lee explained. Such strategies could involve targeted messaging, self-reflective exercises, and institutional policies that minimize unhealthy competition and foster intra-individual benchmarks of success. For women in particular, reinforcing the view that effort is a source of empowerment—not a mark of deficiency—may be key to closing confidence and achievement gaps.

Co-author Shirley L. Yu, an associate professor specializing in educational psychology and leader of Ohio State’s SPARKS Lab, elaborated on the conceptual underpinnings. She framed criterion effort as “the belief that you work hard to learn because that effort is necessary to master course material.” In contrast, comparative effort is laden with implications that can be psychologically toxic: “If you’re comparing your effort to others and feel like you have to work harder, it may suggest a perceived lack of ability, which undermines science self-concept.” Yu’s insights suggest that beyond curriculum design, attention must be paid to the social and psychological climates of STEM classrooms to foster resilience and self-efficacy.

The study also illuminates the layered nature of effort perception and achievement, which are not static but dynamically interwoven. While criterion effort boosted midterm performance, students’ actual grades then positively influenced subsequent perceptions of effort invested in the course. This cyclical relationship was more pronounced among women, emphasizing how reinforcing early successes can promote sustained engagement. Contrastingly, reliance on social comparison yielded a more convoluted and generally detrimental pattern, reinforcing the necessity of shifting pedagogical focus towards individualized measures of effort and accomplishment.

Importantly, this research fills a notable gap in understanding how subtle psychological constructs operate in real-world STEM classrooms rather than controlled experimental settings. The authentic context, large sample size, and repeated measures provide high ecological validity, making the results highly relevant for educators, policymakers, and researchers striving to enhance inclusion and persistence in science disciplines. The study’s unique contribution lies in its delineation of two distinct but interacting types of perceived effort and their profound, gender-differentiated consequences on science self-concept and achievement.

Given that introductory STEM courses often serve as critical filter points determining students’ continuation in scientific fields, the findings underscore a pressing need for educational reform. Cultivating environments where students can internalize effort as a positive and self-referential metric may not only improve academic outcomes but also help dismantle persistent gender gaps and foster diverse scientific talent pipelines. As Yu succinctly stated, “We need to find ways to take away barriers that may keep qualified students, particularly women, from succeeding,” a challenge this study powerfully illuminates.

In sum, this groundbreaking research offers an intricate portrait of how students’ inner narratives about effort and ability influence their trajectories in STEM education. By distinguishing between harmful social comparisons and empowering self-assessments of effort, the study charts a path toward more inclusive and effective pedagogical practices. As STEM fields continue to seek broader participation and equity, insights like these hold promise for informing interventions that nurture resilience, confidence, and sustained achievement among all students.

—

Subject of Research: People

Article Title: “Am I trying hard or harder than others?”: Gender differences in reciprocal relations between perceived effort, science self-concept, and achievement in chemistry

News Publication Date: 5-Feb-2025

Web References:
https://www.sciencedirect.com/science/article/pii/S0361476X25000141
http://dx.doi.org/10.1016/j.cedpsych.2025.102349

References:
Lee, H., Yu, S. L., Lin, T.-J., & Kim, M. (2025). “Am I trying hard or harder than others?”: Gender differences in reciprocal relations between perceived effort, science self-concept, and achievement in chemistry. Contemporary Educational Psychology. https://doi.org/10.1016/j.cedpsych.2025.102349

Keywords: STEM education, perceived effort, science self-concept, gender differences, chemistry achievement, educational psychology, social comparison, criterion effort, comparative effort, undergraduate STEM retention, academic motivation, gender stereotypes in STEM

At the heart of this research lies the concept of “capital” — a multifaceted framework used to quantify and assess the various resources and assets teachers draw upon in their professional journeys. Human capital, broadly defined, encompasses the knowledge, skills, and experiences that teachers accumulate through education and continuous learning. In the context of this study, it was analyzed how advanced subject matter expertise and pedagogical skills empower educators to navigate classroom challenges, thereby fostering higher job satisfaction and commitment. The researchers emphasize that investments in professional development tailored specifically for STEM educators can significantly boost this form of capital, directly influencing retention rates.

Beyond individual competencies, the study highlights the pivotal role of social capital — the web of relationships and networks teachers engage with both inside and outside their educational environments. Social capital manifests through collegial support, mentorship relationships, and collaborative communities of practice that provide emotional backing and practical guidance. The authors argue that strong professional networks mitigate feelings of isolation, reduce burnout, and create a shared sense of purpose among science and math teachers. Through detailed qualitative and quantitative analyses, the research demonstrates that schools fostering vibrant collegial ecosystems see markedly improved teacher longevity.

Structural capital, an often-overlooked dimension, pertains to the institutional mechanisms, policies, and resources embedded within the educational infrastructure. This includes access to teaching materials, administrative support, workload distribution, and career advancement opportunities. Ekmekci and colleagues meticulously document how supportive structures—such as reasonable class sizes, availability of laboratory equipment, and clear promotion pathways—alleviate many systemic barriers that typically drive teachers away. Their findings suggest that while human and social capital fuel teacher motivation, structural capital forms the bedrock upon which sustainable retention strategies must be built.

Perhaps the most novel contribution of this research is the exploration of positive psychological capital, a construct encompassing hope, resilience, optimism, and self-efficacy. This internal reservoir of psychological strengths equips teachers to cope with adversities and maintain their enthusiasm over prolonged periods. Using robust psychometric measures, the study quantifies how positive psychological traits correlate strongly with job satisfaction and intention to remain in the profession. Intriguingly, interventions designed to enhance optimism and resilience, such as mindfulness training and cognitive-behavioral techniques, emerge as promising tools to bolster teacher retention in STEM fields.

The integration of these four capitals into a comprehensive retention model marks a significant advance in educational research. The authors’ interdisciplinary methodology combines large-scale surveys, in-depth interviews, and longitudinal data analysis to capture a holistic picture of the retention phenomenon. This cross-sectional design ensures that findings are not only statistically significant but also richly contextualized within the everyday lived experiences of teachers. By synthesizing these diverse data streams, the study offers a nuanced understanding that transcends simplistic solutions and acknowledges the complex interplay of personal, social, and organizational factors.

In practical terms, the study’s implications urge policymakers and school administrators to adopt a multi-dimensional approach in tackling STEM teacher shortages. Rather than focusing narrowly on recruitment incentives or isolated professional development programs, sustained investment across all four capitals is essential. For example, enhancing human capital through rigorous and ongoing content training must be paired with efforts to build supportive teacher communities and enact structural reforms that foster fair workload management and resource availability. Simultaneously, cultivating positive psychological capital through mental health support and resilience-building initiatives can empower teachers to thrive in demanding educational settings.

Furthermore, this research underscores the importance of context-specific strategies. The relative influence of each capital factor varies significantly across different regions, school types, and demographic groups. For instance, urban schools facing high turnover may benefit more from strengthened social capital and psychological support, while rural schools might require amplified structural investments and targeted human capital development. The authors advocate for locally tailored retention policies that respect the unique challenges and strengths of each teaching environment, rather than one-size-fits-all solutions.

What distinguishes this study from prior research is its recognition of teacher retention as a dynamic and evolving process rather than a static endpoint. The longitudinal aspect reveals that teachers’ reliance on different forms of capital shifts throughout their careers. Newly inducted teachers tend to depend heavily on social and structural support, while more experienced educators draw extensively on accrued human and psychological capital. This temporal dimension points to the need for staged interventions that correspond to teachers’ varying needs at different career phases, thereby maximizing retention outcomes.

The technological embrace within STEM education also emerges as an undercurrent in the analysis. While not the main focus, the authors briefly note the dual-edged impact of technology integration on teacher retention. Access to cutting-edge digital tools and platforms can enhance instructional quality and teacher efficacy, boosting human capital. Conversely, inadequate training or excessive technology demands may exacerbate stress, undermining psychological capital. As education increasingly digitizes, balancing technological innovation with teacher well-being becomes crucial for sustainable retention.

Career pathways and leadership opportunities within the STEM teaching profession also feature prominently in the study’s discussion of structural capital. Teachers are more likely to remain when they perceive clear advancement trajectories, recognition platforms, and avenues for professional autonomy. The research points out that mentorship roles, curriculum leadership positions, and involvement in policy-making not only elevate retention but enrich the educational ecosystem by leveraging experienced educators as catalysts for systemic improvement.

In light of global STEM workforce shortages, this research holds profound implications beyond education itself. Sustaining a robust pipeline of qualified science and mathematics teachers is imperative not only for student achievement but also for the broader innovation economy and societal progress. The multidimensional capital framework proposed by Ekmekci and colleagues offers a replicable model for international adoption, capable of guiding cross-cultural policy dialogue and cooperative educational reform.

The study’s methodological rigor, combined with its actionable insights, positions it to catalyze a paradigm shift in how educational stakeholders approach teacher retention. Its attention to psychological variables alongside structural and social factors enriches the traditional discourse, inviting greater integration of mental health and well-being into retention strategies. This holistic lens aligns with contemporary movements toward human-centered education systems that recognize teachers as whole individuals with multifaceted needs.

Looking forward, the authors call for further research to explore intervention efficacy targeting each form of capital, encouraging experimental designs and randomized controlled trials. They highlight the promising intersection of positive psychology interventions and community-building initiatives as fertile ground for future studies. Moreover, expanding this framework to include interdisciplinary STEM education contexts and diverse cultural settings could significantly enhance its applicability.

In summary, the 2025 study by Ekmekci, Aqazade, McGraw, and collaborators represents a landmark in understanding and addressing the complex challenges of science and mathematics teacher retention. By articulating the essential roles of human, social, structural, and positive psychological capital, it provides a comprehensive and scientifically grounded blueprint for sustaining the STEM teaching workforce. Its findings resonate powerfully with educators, policymakers, and researchers alike, offering hope and strategic direction in the collective quest to nurture and keep the educators who shape tomorrow’s innovators.

Subject of Research: Teacher retention in science and mathematics education, examined through the lens of human, social, structural, and positive psychological capital.

Article Title: Using human, social, structural, and positive psychological capital to explore science and mathematics teacher retention.

Article References:
Ekmekci, A., Aqazade, M., McGraw, R. et al. Using human, social, structural, and positive psychological capital to explore science and mathematics teacher retention. IJ STEM Ed 12, 14 (2025). https://doi.org/10.1186/s40594-024-00523-1

Image Credits: AI Generated