From Spark to STEM: Designing Outreach that Sustains a Talent Pipeline for Students to Higher Education

Abstract

Science, Technology, Engineering, and Mathematics (STEM) outreach for students must function as more than a collection of enrichment events; it must operate as a coherent talent-development pipeline that strengthens identity, deepens disciplinary understanding, and connects students to sustained mentorship and opportunity. Building on a system-of-systems analysis of outreach stakeholders, and place-based evidence demonstrating gains in interest and self-efficacy among middle-school students, this column presents an outreach framework tailored toward increasing STEM impact. The framework centers on inquiry-rich learning; culturally relevant, community-anchored curriculum; structured near-peer mentorship; teacher professional development; and family navigation supports. We further illustrate how a service-academy–HBCU partnership expands regional capacity through co-developed modules, train-the-trainer cycles, and mobile workshops. Finally, we describe how programs can institutionalize logistics and evaluation to measure both learning and linkage (movement to the next opportunity). Together, these elements create a scalable model that transforms early interest into durable pathways to advanced STEM study and careers.

Keywords

STEM outreach place-based learning near-peer mentoring pipeline development college access

CLD STEM and PVAMU faculty collaborate to develop new STEM workshop modules that complement and strengthen existing STEM initiatives at PVAMU.”

Introduction

Developing a sustainable Science, Technology, Engineering, and Mathematics (STEM) outreach pipeline for young students requires more than isolated enrichment events; it demands a coordinated ecosystem in which students, peers, mentors, teachers, families, and community institutions collectively shape long-term participation in advanced study. Research that frames STEM outreach as a system of systems shows that self-efficacy, identity development, peer culture, mentorship, teacher capacity, and organizational logistics must work in concert to support learner progression (Appel et al., 2020). For young students who require depth, autonomy, and authentic intellectual challenge, effective outreach must strengthen disciplinary identity, provide authentic inquiry opportunities, and create continuity across transitions into selective STEM coursework and majors.

Evidence from a week-long, place-based program demonstrates why an ecosystem approach matters. In Boz, Smith, Hammack, Davis, and Cornish, middle-school learners were able to investigate local issues by culturing microbes, analyzing campus water quality, and connecting nutrition to Indigenous foodways (2025). These learners reported higher interest, stronger connections to community contexts, and deeper engagement than peers in worksheet-driven instruction. Evaluators also found that oral explanations and collaborative demonstrations better captured learning in nonformal settings, underscoring the value of flexible, mixed-method assessment (Boz et al., 2025). Meanwhile, national analyses continue to show persistent inequities in high-demand STEM fields; underrepresentation of women (especially in engineering and computer science) and of Black and Latino students signals the need for early outreach, structured mentoring, and navigation supports for marginalized gifted learners (Johnson & Whisenhunt, 2025).

This article advances a pipeline-oriented model by integrating systems-level research, empirical program findings, and practitioner experience. Central to the model is a service-academy–HBCU partnership built on a multi-touch, cadet (service academy student)-mentored outreach framework and expanded through co-developed curriculum, facilitator training, and mobile workshops (Sheetz et al., 2019). Together, these elements demonstrate how cross-institutional collaboration, place-anchored inquiry, near-peer mentoring, teacher professional learning, and family engagement can transform early sparks into durable, equitable pathways to advanced STEM study and careers.

Why STEM Outreach Matters Specifically for Gifted Youth?

For gifted learners, outreach is not a peripheral add-on; it is an infrastructure that connects advanced curiosity to authentic practice, identity, and long-term opportunity. System-level analyses indicate that outcomes improve when students, peers, mentors, teachers, families, administrators, and organizations coordinate efforts; alignment enhances self-efficacy and belonging, which in turn predicts persistence into advanced study (Appel et al., 2020).

The United States Military Academy’s (USMA) Center for Leadership Development in Science, Technology, Engineering and Mathematics (CLD STEM) mobile-workshop model operationalizes this ecosystem: cadets (USMA students) mentor youth through hands-on challenges while educator and family sessions run in parallel. Evaluations show multi-touch designs boost student interest, especially for students in the targeted populations: girls and historically underrepresented students (Sheetz et al., 2019). It also provides evidence of developing leadership in mentors (Sheetz et al., 2019). These two indicators support the need for STEM learners to sustain acceleration over time.

Students and STEM activity participants (STEM participants for short) respond especially well to place-based, inquiry-rich learning that asks them to collect evidence, weigh trade-offs, and communicate to real audiences. In a week-long, locally anchored program, students who cultured microbes, tested water quality, and examined connections to food systems reported higher interest and perceived relevance than peers in traditional formats; oral demonstrations and collaborative explanations also revealed understanding that written artifacts sometimes missed (Boz et al., 2025). Collectively, the evidence affirms that accurate evaluation of STEM participants’ complex reasoning outside classroom settings is contingent upon mixed-method assessment strategies that extend beyond conventional written artifacts.

Science, Technology, Engineering, Arts, and Mathematics experiences broaden entry points into STEM. Activities such as movement, wearable circuits, and Micro:bit programming raise confidence and widen students’ sense of belonging, especially for those with limited prior exposure, including many under-identified or underserved gifted students (Boone et al., 2020). These kinds of creative, low-barrier activities give students more ways to participate and succeed, which can be especially important for learners who may not initially see themselves as “STEM students.” By offering multiple pathways into problem-solving, whether through art, motion, design, or technology, STEAM approaches help STEM participants recognize their strengths and build early momentum. They also create an environment where students can safely take risks, experiment, and collaborate, all of which strengthen confidence and support long-term interest in STEM fields (Boone et al., 2020).

Equity and workforce data show why early, structured, and sustained outreach is essential. Even though the need for highly skilled STEM workers continues to rise, many groups remain underrepresented. Targeted mentoring, guidance on course sequencing and financial aid, and partnerships that expand access to rigorous learning experiences are critical for supporting historically marginalized gifted students and helping them stay on advanced STEM pathways (Johnson & Whisenhunt, 2025). These supports give students a clearer picture of what opportunities are available and how to prepare for them. They also help families understand the steps involved in pursuing advanced coursework, which can make the process feel more manageable. When students receive steady encouragement and practical direction, they are more likely to remain engaged, build confidence, and continue into higher-level STEM opportunities. Over time, these experiences create a stronger sense of direction and help gifted learners see a realistic path toward future STEM study.

The Pipeline Lens: Outreach as a System—Not a Series of Events

A comprehensive stakeholder analysis portrays STEM outreach as an interdependent system of systems with actors whose goals and actions jointly shape outcomes: students and peers, mentors and role models, teachers, parents and guardians, administrators, outreach providers and organizations, policy makers, and museums/maker spaces and researchers (Appel et al., 2020). Within this system:

• Students are both beneficiaries and agents; identity and self-efficacy strongly predict persistence in advanced STEM coursework and majors. Outreach that explicitly builds metacognition and agency consistently yields large gains across delivery modes (Appel et al., 2020).

• Peers can amplify or dampen interest; well-designed clubs, camps, and team projects can shift a cohort’s social temperature toward STEM and support retention for students of color (Appel et al., 2020).

• Mentors and role models provide identity cues and navigational capital; however, scaling mentorship requires structure—time, matching, and continuity (Appel et al., 2020; Sheetz et al., 2019).

• Teachers are force multipliers when outreach includes teacher professional learning and classroom-ready resources, not just student-facing events (Appel et al., 2020).

• Families shape expectations and decisions; family-inclusive outreach increases navigational capital (Appel et al., 2020; Sheetz et al., 2019).

• Administrators and partner organizations determine access, space, scheduling, and continuity—constraints that often decide whether promising pilots scale (Appel et al., 2020).

For students who benefit from coherent talent-development ecologies, this systems view is essential. Pipelines fracture when any node fails: a peer culture dismissive of “try-hards,” a school that cannot flex schedules for STEM advancement, a family unaware of research internships, or a lack of mentors who mirror students’ identities. When nodes synchronize, students experience a sustained arc of challenge, purpose, and belonging.

Evidence-Informed Outreach Principles for STEM Participants

The following principles translate research and field experience into practical guidance for programs that aim to move students from early interest to long-term participation in STEM. They are written to be actionable in schools, districts, museums, and university partnerships, and to scale from single classrooms to multi-site initiatives. Each principle highlights a core design choice and then points to the practices that make.

(1) Design for inquiry with authentic stakes.

Students thrive when tasks demand investigation, modeling, trade-off analysis, and argument from evidence. Place-anchored investigations elevate interest and deepen understanding, making STEM consequential to students’ lives. Moreover, mobile-workshop models that pair design challenges (e.g., circuits, robotics, renewable energy) provide STEM participants room to test hypotheses, iterate, and communicate to real audiences (Sheetz et al., 2019).

(2) Embed structured near-peer and professional mentoring.

Identity and self-efficacy are powerful predictors of persistence in advanced STEM; outreach works best when it scaffolds regular contact with trained near-peers and professionals who normalize advanced identities and demystify majors and careers (Appel et al., 2020). Programs should formalize matching, cadence, and mentor training. The cadet-mentored model reflects these lessons: its multi-touch structure supports mentees and mentors and sustains participation across a calendar year (Sheetz et al., 2019).

(3) Leverage place-based and STEAM-infused experiences to broaden who engages. For students from underserved communities, designs that marry local relevance with creativity (movement, making, visualization) expand entry points and confidence. STEAM programs using kinesthetic and wearable-circuit activities showed sizable confidence gains for girls and students with limited prior exposure (Boone et al., 2020). Place-based sequences co-developed with higher-education partners can provide a blend of rigor and resonance that helps students see their work as problem-solving for their own communities (Boz et al., 2025).

(4) Make outreach teacher-powered and family-inclusive.

To move beyond one-off events, every student-facing experience should have a parallel teacher component (teach the teachers) and predictable family navigation moments (course sequencing, dual enrollment, aid, etc.), converting interest into enrollment in advanced tracks (Appel et al., 2020). This is especially critical given the underrepresentation of women and Black and Latino students in high-demand fields; early, coordinated supports help keep students from marginalized communities on advanced trajectories and pathways (Johnson & Whisenhunt, 2025). Cadet-mentored outreach demonstrates how educator workshops and parent sessions interleaved with student labs create multi-touch arcs that last beyond a single day (Sheetz et al., 2019).

(5) Institutionalize partnerships and logistics for scale.

Sustained, high-quality outreach depends on institutionalized partnerships that guarantee stable calendars, shared space, consistent staffing, and portable curricula across schools and higher-education partners. Systems evidence shows that when logistics (mentor scheduling, facility access, transportation, and curriculum continuity) are left to ad-hoc coordination, programs lose momentum and fail to reach intended students; aligned structures dramatically improve reliability and equity of access (Appel et al., 2020). Long-running mobile-workshop models likewise show that multi-touch outreach scales when institutions jointly plan timelines, maintain materials and kits, and embed teacher and family touchpoints as recurring components rather than optional add-ons (Sheetz et al., 2019). Place-based evaluations also affirm that consistent resources, predictable scheduling, and coherent instructional supports are essential to maintain the hands-on, inquiry-rich environments that drive gifted learners’ engagement and learning (Boz et al., 2025).

United States Military Academy and Prairie View A&M University Partnership

The partnership between the United States Military Academy’s (USMA) Center for Leader Development in STEM (CLD STEM) and Prairie View A&M University (PVAMU) began as a cross-institutional faculty initiative. It originated when faculty members from both institutions jointly submitted a competitive mini-grant proposal to the Army Educational Outreach Program (AEOP). Their proposal articulated a shared vision for expanding high-quality STEM outreach in underserved communities by pairing PVAMU’s regional reach with USMA’s proven mobile-workshop model. Once awarded, the mini-grant supplied the initial resources and structure needed to formalize planning, launch early collaborative activities, and begin developing the co-facilitated workshops that would eventually grow into the broader USMA–PVAMU partnership. The award also served as a proof of concept, demonstrating that the two institutions could successfully co-design and co-deliver STEM programming aligned with AEOP’s goals and the needs of local schools.

PVAMU, a historically Black university with strong engineering programs and a well-established ROTC presence, emerged as a natural partner for expanding STEM outreach across surrounding communities. The CLD STEM model provided a ready-made framework that PVAMU could adapt through its regional networks and long-standing commitment to K–12 engagement in the greater Houston area. The collaboration evolved into a multi-phase effort centered on co-development, co-training, and co-delivery of outreach. As part of this structure, CLD STEM hosts PVAMU ROTC cadets during the service-academy summer STEM program, where cadets observe instructional methods, practice mentoring, and gain experience with leadership-integrated teaching. Upon returning to PVAMU, these cadets help lead a train-the-trainer process that prepares additional undergraduates to deliver STEM workshops in local schools. This model expands mentor capacity and builds a sustainable near-peer pipeline across institutions.

At the same time, CLD STEM and PVAMU faculty collaborate to develop new STEM workshop modules that complement and strengthen existing STEM initiatives at PVAMU. The partnership prioritizes schools serving middle-grade priority populations, increasing access to rigorous, mentor-supported STEM learning opportunities. Its strength lies in a dual structure: vertical integration, which creates a developmental pathway connecting cadets, undergraduates, and pre-college learners; and horizontal coordination, which ensures alignment in curriculum, training, and program delivery across institutions. Together, these elements support regional expansion of a validated outreach model while reinforcing the core components identified in stakeholder research: aligned mentorship, teacher capacity-building, family engagement, and reliable organizational logistics.

Impact and the Pipeline to Higher Education and STEM Majors

Prairie View A&M University, like many Historically Black Colleges and Universities (HBCUs), has a long-standing mission of preparing career-ready graduates who can thrive in an increasingly competitive and technologically driven workforce. As STEM fields continue to shape emerging industries such as artificial intelligence, cybersecurity, biotechnology, renewable energy, and advanced manufacturing, the demand for graduates with strong analytical, computational, and problem-solving skills is more serious than ever. To meet these workforce needs, more students must enter college with a sustained interest in STEM and ultimately choose pathways that lead to high-growth careers.

Building a strong STEM pipeline supports this goal in several ways. First, it expands early exposure to STEM content and helps students, including middle-school students, build confidence and see themselves as future scientists, engineers, innovators, and mathematicians. Second, it strengthens PVAMU’s recruitment efforts by fostering multi-year relationships with participants in STEM outreach programs. Through repeated interactions, students begin to view PVAMU not just as one college option but as an aspirational destination where they can pursue rigorous STEM education in a culturally affirming environment. For many students, who may not have previously considered college or envisioned themselves in STEM roles, continual exposure to PVAMU’s faculty, programs, and student mentors increases the likelihood that they will see the university as a place to launch their academic and professional futures.

The USMA–PVAMU partnership further amplifies this effort. By bringing hands-on, mobile STEM workshops directly into surrounding communities, the collaboration meets students where they are—geographically, developmentally, and motivationally. The model’s emphasis on repeated touchpoints, near-peer engagement, and culturally responsive practices creates a continuum of experiences that nurture STEM curiosity and gradually build STEM commitment. Joint development of new workshop modules ensures that programming remains innovative, relevant, and aligned with emerging workforce trends.

The military dimension of the partnership adds an additional layer of impact. Involving both West Point and PVAMU ROTC cadets exposes students to examples of disciplined leadership, service-oriented career pathways, and the varied roles STEM professionals play within the Armed Forces. For some students, these interactions spark interest not only in STEM fields but also in potential opportunities within the U.S. military, whether through ROTC participation, service academies, or STEM-aligned military occupations. This dual pathway strengthens postsecondary possibilities and supports national efforts to cultivate a technologically proficient, leadership-ready military workforce.

Taken together, this partnership is far more than a traditional outreach initiative; it functions as a strategic, equity-driven pipeline. By combining expanded STEM access with college awareness, leadership development, and exposure to real-world service pathways, the collaboration has the potential to shape the academic trajectories and career identities of students across the greater Prairie View region.

Conclusion

A pipeline is not a collection of isolated opportunities; it is a coherent journey in which each step prepares and connects to the next. For students, that journey should feel like a widening horizon—from curiosity to competence to contribution. A systems perspective shows that durable gains emerge when students, mentors, teachers, families, and organizations move in synchrony—supported by predictable logistics, mentor cadence, and classroom-ready curriculum (Appel et al., 2020). Program evidence from place-based initiatives demonstrates how locally anchored inquiry raises interest and makes learning transferable, while mixed-method evaluation better captures understanding (Boz et al., 2025). Long-running mobile-workshop work further indicates that multi-touch designs (e.g., student labs paired with educator and family touchpoints) strengthen identity and self-efficacy for learners and develop leadership in near-peer mentors (Sheetz et al., 2019).

The equity case is equally clear: without early, structured supports that include mentoring, course-planning, and financial-aid navigation, underrepresentation of women and of Black and Latino students in high-demand fields will persist (Johnson & Whisenhunt, n.d.). The partnership model described here shows how institutions can convert promising programs into infrastructure with sequenced experiences, co-developed modules, mentor ladders, teacher professional development, family engagement, and data systems that track both learning and linkage. With these elements in place, outreach does more than spark curiosity; it carries students forward into advanced coursework, selective majors, and the innovation workforce the nation needs (Appel et al., 2020; Boz et al., 2025; Sheetz et al., 2019).

Footnotes

ORCID iD

Samuel Ivy

Funding

The authors received no financial support for the research, authorship, and/or publication of this article.

Declaration of Conflicting Interests

The authors declared no potential conflicts of interest with respect to the research, authorship, and/or publication of this article.

Bio

Dr. Samuel J. Ivy is an associate professor of mathematics at Prairie View A&M University. He previously served on the faculty at the University of Mary Hardin–Baylor and as a visiting assistant professor at the United States Military Academy, where he also directed the Center for Leadership and Diversity in STEM. He earned his Ph.D. and M.S. in Mathematics from North Carolina State University and his B.S. in Mathematics from Morehouse College. His research interests include representation theory, Lie theory, symbolic computation, and inquiry‑based approaches to mathematical learning. Dr. Ivy is deeply committed to STEM outreach, undergraduate mentoring, and integrating evidence‑based teaching practices that support student engagement and performance. His service to the mathematical community includes roles with the Mathematical Association of America, the National Association of Mathematics, and the Math Alliance. His work has been recognized through honors such as being named a 2019 Mathematically Gifted & Black Honoree and earning multiple research and curriculum awards at PVAMU.

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