Paper ID #48352Advancing AI Education: Curriculum Development in Florida’s Two-YearState Colleges for Student Career AdvancementDr. Ali Zilouchian, Florida Atlantic University Ali Zilouchian is currently the Director of Applied Engineering Research Center and Program Director at Keiser University, He was the founding Director of a $4.5 Million Dollars grant from DOE entitled: aˆ CœAn Articulated Community College-University FraDr. Nancy Romance, Florida Atlantic University Dr. Romance is Professor of STEM Education in the College of Engineering and Computer Science at Florida Atlantic University (FAU) and a graduate faculty
Paper ID #46404Fostering Career Development through Leadership: The Experiences of PeerMentors in STEM courses at a Community CollegeHilda Cecilia Contreras Aguirre, New Mexico State University Hilda Cecilia Contreras Aguirre received an Ed.D. degree in Higher Education Leadership from Texas A&M University-Corpus Christi (TAMU-CC), and an M.Sc. from the University of Technology of Compi`egne, France. She is now a researcher at New Mexico State University (NMSU). She focuses her research on qualitative studies addressing minority and underrepresented student college persistence, such as Latinas’ performance in STEM
Paper ID #48643Work-in-Progress: Inquiry into the career goals and achievements of graduatedstudents after participating in an undergraduate transfer programShannon Conner, Clemson UniversityDr. D. Matthew Boyer, Clemson University Dr. Boyer is a Research Associate Professor in the Department of Engineering and Science Education and an Educational Proposal Writer in the College of Engineering, Computing and Applied Sciences. ©American Society for Engineering Education, 2025 Work-in-Progress: Inquiry into the Career Goals and Achievements of Graduated Students after Participating
research interests include the development of novel pedagogical methods to teach core engineeringcourses and leveraging technology to enhance learning experiences and broaden access to engineeringeducation. He has experience as a practicing engineer and has taught at the university and community-collegelevels. ©American Society for Engineering Education, 2025 Building College Capital for Community College Students: ThePerspectives of Students Participating in an Engineering Momentum ProgramAbstractCommunity colleges have a critical role in providing education and training for students whopursue careers in the science, technology, engineering, and mathematics (STEM) fields. Yet,many community college students
demanding fields, and informs their aspirations for STEM careers.Responses from 39 community college transfer students, gathered through in-depth interviewsand focus group discussions, reveal that the scholarship provides support in various areas,including academic choices, community and social engagement, and providing motivation andpersistence. Additionally, the S-STEM scholarship informs participants' future aspirations byoffering personal and professional development, educational and research opportunities, careeropportunities and access to resources and informational support. Participants highly value thescholarship's role in shaping their career trajectories in the STEM field and contributing to theiracademic success.1. IntroductionThe demand
lensthrough which to explore and understand the decision-making processes of students in STEMfields, particularly those engaged in the S-STEM program. The study situates the variousdynamics in which CRP and CCW alongside student decision-making continues the complex andoften competing priorities that students navigate as they balance academic coursework, transferopportunities, and long-term career aspirations. These frameworks are critical for understandingthe intersection of students’ educational journeys with their socio-cultural identities, resources,and the broader structural forces shaping their choices.Critical Relevant PedagogyCritical Relevant Pedagogy (CRP) emphasizes the importance of education that is not onlycontextually relevant to
challenges, including navigating academic support, finding mentors, and buildingself-efficacy, can negatively impact their academic success and sense of belonging. TheEMPOWER Program, supported by the NSF S-STEM Program, is a collaboration between UCSan Diego, Southwestern College, and Imperial Valley College and is developed to mitigatethese challenges by offering scholarships, mentoring, networking, and research opportunities tolow-income transfer engineering students. Grounded in Schlossberg’s Transition Theory, thisexploratory study investigates the impact of participation and engagement in various social andacademic support activities. Motivation–including self-efficacy, self-determination, intrinsicmotivation, career motivation, and goal
astheir effects on student recruiting, retention, satisfaction and participation in research.IntroductionIn the United States, science, technology, engineering, and mathematics (STEM) fields continueto have a low representation of Black, Hispanic, Native American, women, and those whoqualify as low-income or first-generation college students [1], [2]. Community colleges are ofteninstrumental in providing these students with pathways into STEM careers through opportunitiesfor collaborative learning and by building early momentum in STEM education [3], [4].Community colleges are well-poised to reach students from underrepresented groups: they serve40 percent of all Black undergraduates, 51 percent of all Hispanic undergraduates, and 38percent of
thematically analyze study results [2].The preliminary findings provide a comprehensive characterization of the emergent empiricalliterature related to non-degree credentialing programs in STEM fields. Results indicate thatNDCs emerged as an area of STEM education and workforce research interest during the pastten years. Specifically, practical training, hands-on experiences, career preparation, and short-term certificate programs comprise current STEM NDC program initiatives. Moreover, theresults provide guides for researchers, educators, industry leaders, and policymakers in shapingthe future landscape of STEM education and workforce development.IntroductionKnown for demanding, technically focused preparatory approaches, science, technology
-efficacy by eliminating Math remediation, developing professional identity bycreating a cohort system, promoting socialization activities, strengthening connections to thecollege, and building awareness of engineering fields and career opportunities.[12] TheContextualized Bridge is designed to help prepare students for college-level math and chemistryprior to students starting their engineering/computer science curriculum, during a 6-week, 4 daysper week, 4 hours per day academic intervention during the summer. It is contextualized to addresstopics identified as the main deterrents of students' success and tailored towards student'sindividual skills. In addition to math and chemistry preparation, the Bridge is infused withmentoring, tutoring and
program-level data can help identify attrition points at the program level.Student-level data forms a third level that can clarify and focus student needs analyses. Oneaspect of student-level data is personal attributes associated with academic and career success inSTEM fields. Examples include a growth mindset, STEM identity, a sense of belonging, andacademic self-efficacy. The validated surveys that exist to characterize these attributes areoutlined in the paper. These surveys can be used at the program-level to identify both baselinedata and critical needs. In parallel with surveys, the creation of a student-need archetype usingtechniques from the NSF I-Corps for Learning (I-Corps L) model can be used to elicit anotherdimension of challenges
Ph.D. in Chemical Engineering. She earned an NSF RIEF award recognizing her effort in transitioning from a meaningful ten-year teaching faculty career into engineering education research. Before her current role, she taught STEM courses at diverse institutions such as HSI, community college, and R1 public university.Ms. Ayla Sevilleno, University of Florida Ayla Sevilleno is pursuing a degree in Mechanical and Aerospace Engineering at the University of Florida and expects to graduate in Spring 2028.Justin Ortagus, University of Florida Justin C. Ortagus is an Associate Professor of Higher Education Administration & Policy and Director of the Institute of Higher Education. His research typically examines the
andunderstood. They had established a foothold at their community college, one that would need tobe reestablished elsewhere to complete their academic and career goals.Discussion and ConclusionAs we continue analysis, we are cognizant that while these findings highlight key insights, theyalso underscore the necessity for future research focused on enhancing support initiatives thatbroaden participation and facilitate the transition of community college students into the STEMeducational pipeline and ultimately into industry roles. Throughout our continued analysis of thedata we are intentionally coding lessons that that might inform institutional policy and practice.Through this research, the Community College S-STEM Network (CCSN) aims to develop
engineering.Prior research has shown that a strong engineering identity encourages students to persist in theirstudies despite academic challenges [10], [13] - [17]. The identity constructs include internalqualities and external support, both cited by students as necessary for the profession [10]. Thisperceived connection to their longer-term career goals may also enable students to see the valueof their current academic tasks [18] - [21]. Thus, it enables students to develop their identityduring engineering experiences such as coursework, internships and extracurricular activities.The engineering identity framework has been applied to specific courses, first year experiencesand advancement through the degree program. A linear progression of increasing
good business sense. Improving transfer outcomes is also key to fulfilling Colorado’shigher education master plan, which calls for increasing credential completions by 9,200 beyondnatural enrollment growth and boosting completion of the STEM credentials urgently needed forour state’s workforce.At the turn of the 21st century, transfer leading to engineering graduation was rare for studentsstarting in a community college [9]. Colorado was no exception. About a decade ago, onemember of this team left his community college job for a career as an academic advisor for theengineering college at UCB. He immediately noted the low transfer enrollment, weak retentionand graduation rates, and discovered inequitable admissions policies/requirements
partnerships to statewide educational systems. The findings encourage thedesign of policies and transfer structures that meet the needs of systems and the career goals ofstudents.Background/Literature ReviewModes of institutional transfer There are many ways in which students transfer course credits between institutions toearn a degree in engineering. These include: • vertical transfer, or course credit transfer from a community or technical college to a university, • lateral transfer, or course credit transfer from a university to a different university, • reverse transfer, or course credit transfer from a university to a community or technical college, • dual credit or concurrent enrollment transfer from a high
., Hughes, C., and Kosanovich, M. (2019). “Using Career Orientationsto Map Professional Formation in Engineering Technology.” 2019 IEEE Frontiers in EducationConference (FIE), Covington, KY, USA, pp. 1-5.[13] M. D. Sullivan, C. C. de Cohen, M. J. Barna, M. K. Orr, R. A. Long and M. W. Ohland (2012).“Understanding engineering transfer students: Demographic characteristics and educationaloutcomes.” 2012 Frontiers in Education Conference Proceedings, Seattle, WA, USA, 2012, pp. 1-6.[14] C-ID Transfer Model Curriculum Information,” c-id.net. https://c-id.net/tmc