. Upon graduating, Atayliya aspires to pursue a career that broadens interest and representation in the STEM + C fields. Atayliya N. Irving is currently pursuing her Ph.D. at the University of Florida (UF). She initially enrolled in the electrical and computer engineering (ECE) department at UF, but later switched to the engineering education department in her second semester. Atayliya holds a bachelor’s degree in computer science from Jackson State University (JSU), which she earned in the spring of 2022. While studying at JSU, she conducted research with the Engineering Research Development Center (ERDC) in the Critical Infrastructure-Cyber Protection (CICP) program. During her time there, she worked on research
current issues in technology,environmental sustainability, and human resources, a holistic approach is essential – beginningwith early student engagement and education before college. K-12 outreach programs led byuniversities are designed to introduce students to various fields and career options. Nevertheless,there is a lack of comprehensive discussion and documentation on their benefits and results,particularly in transportation engineering. This paper presents a DOT-funded summer camphosted by a university aimed at increasing the number and diversity of students pursuing highereducation and careers in transportation-related fields. The camp curriculum comprised lecturesby senior transportation professionals, student-led projects, field trips
Paper ID #45863Decarbonization Education for K-12: A Pilot Study on Transforming StudentPerceptions and Career Trajectories in Clean EnergyMohamed Khalafalla, Florida A&M University - Florida State University Dr. Mohamed Khalafalla is an Assistant Professor of Construction Engineering at Florida A&M University’s School of Architecture and Engineering Technology. His research expertise includes risk analysis, cost estimating, and concrete materials research. Dr. Khalafalla has contributed extensively to projects sponsored by the Department of Energy and the Tennessee Department of Transportation, conducting studies in
Paper ID #46546Designing effective STEM outreach activities to inspire students to ultimatelypursue careers in the Electrical and Computer Engineering fieldsDr. Federica Aveta, Wentworth Institute of Technology Federica Aveta received the B.S. and M.S. degrees in Electronic Engineering from La Sapienza University, Rome, Italy, in 2012 and 2016, respectively, and the Ph.D. degree in Electrical and Computer Engineering from the University of Oklahoma (OU), Tulsa, Oklahoma, in 2020. Before joining Wentworth Institute of Technology, Federica has worked as an Optical Engineer where she designed, built, and tested optical fiber
benefit of industry and society.Prof. Sugana Chawla, University of Notre DameRobyn Brenza KressStacy Garrett-RayKim R Jassem MHA, MSDA, PMP, Ascension Foundation ©American Society for Engineering Education, 2025 Fostering STEM Engagement: Evaluating the Impact of the #GOALS Program on Middle-School Students' Interest and Motivation in Science and Technology (Evaluation) Valentina Kuskova 1, Sugana Chawla1, Robyn Kress 2, Stacey Garrett-Ray2, Kim Jassem2 Abstract The #GOALS (Go Out and Love Science) program, spearheaded by the Ascension Foundation for Health Equity, aims to engage middle school students from underserved communities and ignite their interest in healthcare careers. It is currently
circuits that power today’s technology. Following the passage of theCHIPS (Creating Helpful Incentives to Produce Semiconductors) and Science Act of 2022, investments inUnited States semiconductor production have surged, highlighting the need for workforce development tosupport this expanding industry. In response, efforts have emerged to introduce semiconductor content intoK-12 education, aiming to inspire and prepare students for engineering and technology careers in thiscritical field. This work-in-progress paper explores how one K-12 workforce development initiative seeksto vertically align semiconductor education across entire school districts, ensuring that learning andexperiences progressively build in complexity from kindergarten through
adulthood, career and college readiness, community schools, and research-practice partnerships.Margo K Williams, The Johns Hopkins University Margo Williams is an Instructional Design Manager at Johns Hopkins University’s Whiting School of Engineering. She supports a portfolio of engineering and applied science courses and programs within the Whiting School, including BOAST over all five years of program testing, implementation, and refinement over multiple learning management systems (Blackboard, Blackboard Ultra, and Schoology). She holds a B.A. in English from St. Mary’s College of Maryland, and a graduate certificate in Instructional Systems Development and an M.S. in Human Centered Computing from University of
semiconductor manufacturing highlights the need forrobust, resource-rich educational programs that expose students to the semiconductor andmicroelectronics fields. While formal education platforms and programs exist, they often remainrelatively inaccessible to many students, especially those who are still deciding whether topursue careers in STEM and are constrained by restrictive standards and coursework that haslittle room for such new content. This makes informal education avenues essential for attractingand retaining an interest in STEM, especially semiconductors [7]. According to [8], informaleducation provides students with opportunities to participate, practice, and feel a sense ofbelonging in the STEM ecosystem, positioning them well for making
Paper ID #48806Pre-college design ”Tech for Good”: As a member of a collaborative team,students believe they can change the world.Dr. Shana Lee McAlexander, Duke University As Associate Director, Shana leads grant operations for the Harnessing AI for Understanding & Designing Materials (aiM Program), a Research Traineeship program supported by the National Science Foundation. She also serves as Associate Director of Duke STEM Academy, an immersive summer high school program featured in this paper. Shana’s research interests revolve around STEM Education; representation in science and engineering careers; access to
approach. We conducted around of open coding, followed by focused coding. This allowed us to generate our findingsinductively and directly from the raw data, and we further analyzed the former in the context ofthe Social Cognitive Career Theory (SCCT). We also conducted inter-rater reliability checks tobolster the research quality of our work. Our preliminary findings indicate that stereotypes,exposure to women engineers’ experiences, and the perception of certain engineering fields asmale-dominated influenced women’s decisions to pursue engineering studies. Additionally, highschools, universities, the media, and governmental policies were perceived as influential factorsby the female survey respondents. These diverse cultural and institutional
skills. ● Rubric 3. STEM Workforce Readiness: Increasing student awareness of STEM career opportunities and pathways to further education. ● Rubric 4. STEM Interest, Engagement, and Identity: Cultivating STEM interest and identity requires culturally relevant, open-ended, and localized learning experiences that allow students to be recognized as experts. ● Rubric 5. Ability to Make STEM Connections: Recognizing interdisciplinary applications of concepts, engaging in practices that draw on knowledge from multiple disciplines, and understanding when and how to apply STEM knowledge.Bauer (2023) used this iSTEM rubric to analyze pre-service teachers' (PSTs) conceptualizationof trans- and interdisciplinary approaches to STEM
University’s Whiting School of Engineering where he has served on the faculty since 2008 with secondary appointmeRachel E Durham, Notre Dame of Maryland University Rachel E. Durham (PhD, Sociology and Demography, Pennsylvania State University) is an Associate Professor in the School of Education at Notre Dame of Maryland University, and a Senior Fellow with the Baltimore Education Research Consortium (BERC). With a background in sociology of education, education policy, and demography, her research focuses on graduates’ transition to adulthood, career and college readiness, community schools, and research-practice partnerships.Ms. Alisha Nicole Sparks, The Johns Hopkins University Alisha Sparks serves as the Executive
theArtificial Intelligence (AI) workforce in this two-year impact study from Fall 2022 to Fall 2024.Thus, our findings are relevant for optimizing pre-college to college education pipelines to meetworkforce needs in engineering, AI, and the Computer Science (CS) industry.To study the impact of the pre-college AI education program on student progression, we conductedfocus group interviews in Fall 2024, two years after the pre-college program. With thematic analy-sis, we quantify student and program outcomes by synthesizing four themes: social and emotionallearning, self-efficacy, career readiness, and program impact. To formally validate human thematicanalysis, we ask: (RQ1) What methods can validate heuristic thematic analysis for reliable studyof
occupations in the state (15.5%).In line with the nationwide trend, there is an identical statewide and local pressing demand tostimulate and sustain the interest in STEM careers for K-12 students, particularly for URM andfemale students, with many ‘dropping out’ of the STEM career trajectory starting in middlegrades. In the state of Georgia, there is a significant disparity between the number of computingdegrees and certificates awarded to students of color compared to White students and thatawarded to female students compared to their counterparts; only about one-third of such degreesare awarded to the students of color and around 40% to females [3]. According to the NationalGirls Collaborative Project (NGCP) [4], there exists a large gap in the K
. Survey results indicatethat high school students, after participating in the program, were more likely than the nationalaverage of STEM high school students to have an interest in exploring a career in computerscience. These results (40% versus 11%) suggest that the program fosters a pipeline of futureinnovators and problem solvers while building a stronger community with a well-educatedworkforce capable of addressing local needs. This study also highlights the positive impact oncollege students, as they enhance their skills through mentoring and guiding younger learners,cultivating their confidence around the social impact engineers can have in the community.IntroductionAlthough engineering has been a major discipline since the 18th century
ability to succeed inengineering tasks, is a crucial predictor of whether students remain engaged in engineeringeducation or pursue engineering as a college major. This is especially critical in rural settings,where access to engineering education or career development opportunities may be limited. Toaddress this, the mixed methods study implemented a 3D printing experience centered on engagingstudents in hands-on making and tinkering activities. The quantitative component employed adesign one-group pre- and post-test design using a modified version of Mamaril et al.’s (2016)engineering self-efficacy survey to assess students’ self-efficacy levels before and after theirparticipation in the 3D printing activities. The qualitative inquiry focused
coursework-based experience.In addition, students attended a series of educational and professional development seminars,including college preparation, engineering career pathways, research center tours, anddemonstrations from members of the university research community and local engineeringcommunity. Exposing students to relevant engineering workshops allowed high school studentsto be motivated and inspired by different learning opportunities and to understand potentialapplications of their degrees in future careers. We assessed the success of the programimplementation through a post-camp survey to all student participants, specifically on studentlearning outcomes of understanding design and fabrication, as well as the effectiveness of
cooperation, communication,creativity, and collaboration. These soft skills positively impact students development, includingtheir career development [1]. STEM Summer Camps, especially those who focus on hands-onlearning and laboratory experiences can improve students’ interest in and persistence in STEMfields [2]. In addition to the skills and knowledge developed, Camps on Campus allow studentsto engage with faculty, staff, students, and university facilities to enrich their experiences andallow for a greater sense of self efficacy as campers see themselves as university students.The access to high quality facilities, including university laboratories and faculty who lead theselabs, is an important aspect of our campus. Not only are these facilities
students feel CAD. empowered, capable, and connected to CEE track examples: Bridge-building, peers and mentors. recyclable scavenger hunt, and insulated Foster STEM Pathways: Increase awareness house challenges. of STEM career opportunities and post- Lab tours: Participants explore inspiring secondary education pathways through lab STEM labs during Tuesday and Wednesday tours, student panels, and networking tours. opportunities. Guest speakers: Lunchtime panels feature university students and
involves water and wastewater, she has strong interests in engineering education research, teacher professional development, and secondary STEM education. In 2021, Erica received the ASEE Pacific Southwest Early Career Teaching Award and two awards at UNLV for mentoring undergraduate and graduate students. She also received the Peter J. Bosscher Outstanding Faculty Advisor Award in 2019 from Engineers Without Borders and was recognized as a Nevada Woman in STEM by Senator Jackie Rosen. ©American Society for Engineering Education, 2025 Contact information: Dr. Erica Marti (erica.marti@unlv.edu) You can transmit sound via light? An engineering activity to demonstrate
Federal Highway Administration (FHWA), hosted by universities, and managedby the Department of Transportation (DOT) of each state. The purpose of the NSTI program is topromote the interests of minority and underrepresented rising high school students intransportation related career and college degrees. In summer 2024, the Engineering Technologydepartment at Middle Tennessee State University hosted our first ever NSTI program, which was4-week long and non-residential. The program offered several field trips to various places and acurriculum consisted of three components: (i) Arduino programming and robotics challenges; (ii)computer vision and drones; (iii) traffic simulation using Simulation of Urban Mobility (SUMO).During the closing ceremony
students’ participation in a two-week summerworkforce development program focused on microelectronics (Work in Progress)Overview of the project:This study explored the impact of a stipend on high school students’ participation in a two-weeksummer workforce development program focused on microelectronics. The two-week programwas part of a Midwest economic development organization’s multi-tier plan to attract newcompanies to their region focused on the semiconductor and microelectronics industries. As partof this plan to attract this new industry, the regional economic development organization fundeda two-week workforce development program for high school students to learn more aboutsemiconductors and microelectronics and career pathway options
,” was added during the second round ofcoding to help fully capture what parents value.The preliminary results show that parents have basic ideas about engineering. Some of them haveexposure due to their family background and have constructed an image of their child as a diligentand talented student. They also view their children’s involvement in engineering education positively,as it benefits their college applications and career choices. However, as engineering courses do notcurrently count towards Advanced Placement (AP) credits, parents express concerns about balancingthe time to take engineering courses and fulfill perceived AP requirements for college admission.Parents’ actions are limited by a lack of information and connections with
Engineering Education, 2025A Comparison Between a Week-Long Electrical and Computer EngineeringSummer Camp’s Session on Middle School Students’ Interests in STEM(Evaluation)Abstract: Middle school is a crucial period for students developing interests, forming identities,and exploring career choices. STEM summer programs have demonstrated that these aspects canbe effectively influenced by including various hands-on learning activities. Structuring the campsto have interactive, hands-on sessions is vital to aligning students’ values and interests withinSTEM disciplines. Within these summer camps, it is essential to identify which activitiessignificantly increase the students’ likelihood of pursuing careers in STEM fields. This studycompares two cohorts
University. ©American Society for Engineering Education, 2025 Energy Grid Card GameThe Energy Grid Card Game was designed for pre-college students (grades 6-12) tobe played in an informal learning environment. The game explores the technical,environmental, and economic choices and challenges of using energy resourcesthroughout our daily lives. Undergraduates at Illinois State University designed theactivity as part of the NSF-funded SUPERCHARGE project, which seeks to improveaccess to STEM college and career pathways while making connections toengineering and sustainability-related problems that can be addressed in theircommunities. Designed for 2-5 players, each player first draws an
Illinois State University. ©American Society for Engineering Education, 2025 olar Energy Activities ShowcaseThe following activities are examples from a unit of study that focuses on harnessing,using, and controlling energy. These activities were designed for pre-college learners ingrades 6-12 in informal learning settings as part of [NSF grant project] byundergraduates at [University]. The goal of [project] is to promote interest in collegeand career pathways related to engineering, sustainability, and renewable energytechnologies. All activities can be freely accessed at: [REDACTED URL]In Singing SolarCircuits, studentsexperiment with solarpower by using solarcells to create music.They will connect
pandemic was disruptive to the education system across the world in countlessways. And while remote and virtual learning tried to address the challenge of content delivery,hands-on laboratory experiences which provided authentic science inquiry for high schoolstudents were impossible to replace during the pandemic. Additionally, the valuable afterschooland summer programs that supplemented such in school training (e.g., science fairs, roboticscompetitions, Science Olympiad) were not available as well. Research tells us that suchexperiences are crucial to catalyze a high school students’ interest in STEM careers [1], [2].Even more detrimental is the fact that these activities are often identified as milestones forstudents who are college-bound
integrate authentic engineering activities that connect with real-worldissues like sustainability. Storytelling about sustainable engineering offers a practical method ofintroducing PSTs to authentic engineering projects, practices, and careers. This work-in-progress, funded by ASEE’s Engineering for One Planet (EOP) initiative, illustrates the impactof engaging PSTs in reading and reflecting upon a set of “Sustainable Engineering Stories”during science teaching methods courses at two institutions.During the summer of 2024, the researchers interviewed engineers from various disciplinesabout projects oriented toward sustainability. From those interviews, we created a set of eightSustainable Engineering Stories for PSTs enrolled in their elementary
Paper ID #45947BOARD # 217: The design of a summer camp blending bioengineering andprogramming skills for middle school girls and gender minority students(Work in Progress)Prof. Wesley Lawson, University of Maryland, College Park Prof. Lawson has earned five degrees from the University of Maryland, including a Ph,D, in Electrical Engineering in 1985. In his professional career at College Park, where he has been a full professor since 1997, he has worked on high-power microwave development, medical devices, and STEM education research for engineers, pre-service teachers, and middle/high school students.Hamza Shaikh
the camp to engineering as a field and future career. Qualitative responses were analyzed through a process of framework analysis [4] while stayingopen to additional emergent themes. Participants’ responses provided evidence of TSI, MSI-Feeling, and MSI-Value. TSI was highlighted through a focus on the integrated nature of theactivities: “I like building things because I enjoyed seeing how to implement different thingssuch as circuits and coding together.” Participants shared that the activities were fun andinteresting because they were hands-on and they enjoyed learning something new. For example,“[I enjoyed] making the planes, because it taught me a lot about physics concepts I haven'tlearned yet.” Tackling new and challenging content was