Degree in Engineering Program. While in college he was a Ronald E. McNair Scholar which afforded him the opportunity to intern at NASA Langley. He also earned distinction as a Phi Beta Kappa member and an American Chemical Society Scholar. Dr. Henderson completed his Ph.D. in Chemical & Biomolecular Engineering at the University of Illinois at Urbana-Champaign. During his time as a graduate student, he was a NASA Harriet G. Jenkins Graduate Fellow. Dr. Henderson has dedicated his career to increasing the number of students who are on pathways to pursue STEM careers. He believes that exposing students to STEM early will have a lasting impact on their lives and academic pursuits. He is the co-founder of the St. Elmo
the teachers identified abouteffective professional development opportunities by having tangible takeaways. We’ll go intomore detail about some of the specific sessions next.To meet the teachers’ needs of engineering career pathways and gaining an understanding ofthe resources available to students at Virginia Tech, we provided three specific sessions thataddressed these needs. An industry panel of 4 engineering professionals who work in theSouthwest Virginia region came to speak to the teachers about their careers, offered advice onhow to prepare students for the engineering workforce, and answered any possible questionsthe teachers had about the engineering industry generally and in the region specifically.Teachers also participated in
prototypedevelopment further engage students and prepare them for careers in the medical device field.Drawing on two years of course implementation, this paper discusses the challenges, successes,and key outcomes of this approach, offering practical advice for educators interested in creatingsimilar industry-collaborative courses.IntroductionThe Twin Cities region is a global leader in the medical device industry, home to a thrivingecosystem of established companies, innovative startups, and renowned healthcare institutions.This dynamic environment drives both economic growth and advancements in medicaltechnologies, creating a high demand for engineering graduates who possess not only technicalexpertise but also practical, industry-relevant skills
value students place on external resources. Thefindings highlight the need for better institutional support, mentorship, and career preparation forCS students, particularly those from underrepresented backgrounds. Additionally, this researchlays the groundwork for future studies on the evolving role of external online education inshaping the academic and professional trajectories of CS students.IntroductionIn recent years, the rapid evolution of technology and the growing demand for computer science(CS) professionals have transformed the educational landscape. As universities strive to preparestudents for the dynamic tech industry, gaps in formal education have become increasinglyevident. These gaps—ranging from insufficient mentorship to a
experience and mentorship in promotingthe socio-academic integration of underrepresented minorities into STEM fields [5]. Studiesconsistently demonstrate that research experience positively influences career choice,preparation, and placement, while programs incorporating research experiences are linked toincreased degree completion and academic persistence [4], [6], [7]. Similarly, mentorship hasbeen shown to significantly enhance academic achievement, productivity, and persistence [8].Providing students with resources, networking opportunities, and encouragement has provenparticularly effective in fostering academic success and resilience. Furthermore, undergraduateresearch not only cultivates excellence but also expands participation in
and prompting teamwork through guided worksheets requiring groupdiscussions. Additionally, emphasis was placed on developing expert-like epistemologiessurrounding BME, as research has indicated that there is a connection between students’ beliefsabout science and engineering and learning in STEM courses [6], [7], [8], [9]. To achieve this,we encouraged comfort with failure as well as an understanding of the importance of iterationthrough activities like the “desert island” scenario in Module 1 and the exploration of the bloodpressure datasets in Module 3.A major goal of this course transformation was to foster confidence in translating skills learnedto future careers. To achieve this, we dedicated one class session to reflecting on both
, etc.—we haveobserved some consistent trends. Participation in this AP-level CS course has led to a decrease instudent self-efficacy as well as the students’ own assessment of their interest in the field of CS.In contrast with these trends, the research team observed strong reporting of students planning topursue CS-related careers following their high school graduation, with some notable exceptions.Keywordsbroadening participation, computer science education, high schoolIntroductionTo meet the technical workforce needs of domestic industries, significant resources have beeninvested by government, corporate, and non-profit organizations to increase student interest andskills in computer science (CS). Specifically, sizeable effort has been
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
) course to all first-year students in Fall 2023, teaching approximately 1300 students each year. Matthew recently defended his dissertation in February 2025 and plans to pursue a career in academia teaching first-year engineering students starting Fall 2025.Lucila Marcela Carias Duron, Auburn University Lucila M. Carias earned her B.S. in Chemical Engineering from Universidad Centroamericana ”Jose Simeon Ca˜nas” in El Salvador in 2018. She continued her academic journey with a Master’s in Process Engineering from the same university in 2021 and a Master’s in Integrated Management Systems from Nebrija University, Spain, in 2020. Lucila has four years of professional experience in the flexible packaging and recycling
Paper ID #47028Promoting the Persistence of Underrepresented Low-Income Engineering TransferStudents through a Comprehensive Scholarship Program (Experience)Anna-Lena Dicke, University of California, Irvine Dr. Dicke is an Associate Project Scientist within the School of Education at the University of California, Irvine. In her research, she aims to understand how students’ motivation and interest in the STEM fields can be fostered to secure their educational persistence and long-term career success. Trying to bridge the gap between theory and practice, she is currently involved in an NSF-funded project aimed at fostering
thegraduate research training experience.By fostering growth as researchers and professionals, graduate education in engineering preparesstudents for careers in either academia or industry. In addition to providing technical trainingand knowledge, graduate education should help students build confidence in their capabilities,develop specialized research skills, and feel connected to both the academic and professionalcommunities [1]. While these broad goals generally align with established student outcomes,such as those specified by the Accreditation Board for Engineering and Technology (ABET) orthe Canadian Engineering Accreditation Board (CEAB), they also reflect the unique challengesof advanced research training.Works that empirically assess the
pedagogy and the contextualization and validation of measurement instruments with a keen interest in sub-Saharan Africa. ©American Society for Engineering Education, 2025WIP: The Design of a Professional Development Program for PetroleumEngineering Educators Towards Integrating Data Analytics and MachineLearning into Petroleum Engineering Curriculum AbstractThe petroleum industry is increasingly embracing digital transformation, enabled by data analytics,machine learning and other data-driven innovations. The proliferation of oilfield data as well asthe availability of open-source data mining softwares is opening up career frontiers in petroleumdata analytics and machine
and engagement in the STEM fields.IntroductionFor the last few decades, STEM programs have been underrepresented by minority students,primarily female students in higher education. Fields such as computer science and engineeringare where the absence of minority and female students is more noticeable; however, subjectssuch as biology, chemistry, and life sciences are more attractive to female students whenselecting a college degree and potential career paths [1]. To address this disparity and increasethe diversity of students in computer science and cybersecurity, especially underrepresentedminorities (URM) and women, it is necessary to create awareness and foster interest from anearly age [2]. Implementing effective STEM programs in the K-12
research focuses on empowering engineering education scholars to be more effective at impacting transformational change in engineering and developing educational experiences that consider epistemic thinking. She develops and uses innovative research methods that allow for deep investigations of constructs such as epistemic thinking, identity, and agency. Dr. Faber has a B.S. in Bioengineering and a Ph.D. in Engineering and Science Education from Clemson University and a M.S. in Biomedical Engineering from Cornell University. Among other awards for her research, she was awarded a National Science Foundation CAREER Award in 2022 to study epistemic negotiations on interdisciplinary engineering education research teams.Dr
been co-designed by host lab researchers and the programdirector to provide students with a structured research project at the appropriate academic levelwhich also meaningfully contributes to the host lab’s research program. In addition, the studentsparticipate in pre-departure research training, pre-departure cultural training, professionaldevelopment workshops, a visit to the European Centre for Disease Prevention and Control(ECDC), an open forum on the use of AI in health, cultural outings in Stockholm, a finalresearch presentation symposium, a career readiness workshop series, and be able to present theirwork at the Biomedical Engineering Society (BMES) annual meeting. This paper reports on thefirst year of the grant, program structure and
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
students to tackle complex projects, often involving interdisciplinary applications infields such as medicine, finance, and environmental science. Graduate students also exploreinnovation and entrepreneurship, examining how AI can disrupt industries and create new businessmodels.Integrating AI into Computer Science (CS) and Information Systems (IS) programs enhancesstudent engagement, proficiency learning outcomes, and career readiness and prepares students toleverage AI responsibly and effectively in the global job market. This paper identifies key AI topicsand proposes how they can be seamlessly integrated into undergraduate and graduate curricula tooptimize learning and achieve critical educational outcomes.Keywords: Artificial Intelligence
Paper ID #45686Curriculum Design for All LearnersDr. Cathy P. Lachapelle, STEM Education Insights Cathy is particularly interested in how collaborative interaction and scaffolded experiences with disciplinary practices help children learn science, math, and engineering. Her work on STEM education research projects includes design, evaluation, and effiDr. Medha Dalal, Arizona State University Dr. Medha Dalal is an assistant research professor and associate director of scholarly initiatives in the Fulton Schools of Engineering at Arizona State University. Her career as an engineering education researcher focuses on
Manufacturing Institute and Deloitte [4], [5] predicts that there might be 3.8 million unfilledpositions across the entire U.S. between 2024 and 2033, and approximately half of these availablepositions (1.9 million) will remain unfilled if the skills and applicant gaps cannot be filled. Thereis an urgent necessity to enhance university enrollments and degree completion to help fill the gapsand meet the demands of high-skilled professionals. This shortage of skilled technical workforce with university degrees can be attributed to thelack of interest in higher education and careers in STEM (Science, Technology, Engineering, andMathematics)-related fields at both K-12 and college levels. The latest State of U.S. Scienceand Engineering [6] and NSF
Engineering Academy, and builds partnerships that expand access and opportunity for underrepresented students. Throughout her career, Cori has remained committed to equity, access, and student-centered innovation. Her leadership emphasizes collaboration, data-informed decisions, and fostering meaningful educational opportunities for all learners. ©American Society for Engineering Education, 2025 Increasing Access to Engineering through Dual Enrollment Programs in High School Settings and SummerCamps for Grades 6-12 on the University of Arizona Campus (Evaluation, Diversity)AbstractThe University of Arizona’s College of Engineering (COE) aims to increase access
Barakat, The University of Texas at Tyler Dr. Barakat is currently serving as a Professor and Chair of Mechanical Engineering at the University of Texas at Tyler. Dr. Barakat is a professionally registered engineer in Ontario, Canada, a Fulbright Specialist, and is a fellow of the American Society of Mechanical Engineers (ASME). Dr. Barakat holds a Ph.D. in Mechanical Engineering from McMaster University, Ontario, and a Master Degree from Concordia University, Canada. He is also the recipient of multiple awards including the ASME Edwin Church Medal (2020), ASME McDonald Mentoring Award (2014), ASME Dedicated Service Award (2011), and GVSU Distinguished Early-Career Award (2010). Dr. Barakat has served in many
organizations as an opportunity to display moral virtues. This dimension -together with managing, business techniques and economics-, constitutes the foundation for having the leadership capacity to develop his institucional management activity. During his university career performs a close relationship related to the administration of human resources, budget, planning and development of academic and administrative projects, emphasizing the creation of a working environment for his officials to deliver the best of their capabilities. The teaching performance work has motivated his contribution to the community so that as too individual to achieve his own development. In this area, he responsible for carrying out educational
], andgenerally helping students clarify their future career goals [10], [11]. However, for a student toparticipate in research, they generally must take the initiative to seek out a position on a facultymembers’ research team or through an industry position. The low number of available positionsand the inherent challenges of pursuing this pathway for many students is a significant barrierthat leaves them without the opportunity to engage in research during their undergraduatecareers.Course-based Undergraduate Research Experiences (CUREs) provide a potential solution tothese challenges related to student access. CUREs allow faculty to integrate an authentic researchexperience into their courses simultaneously providing value for both external
theprinciples of science.Undergraduate research programs are particularly effective in enhancing critical thinking and com-munication skills. Students learn to think independently while carrying out research, to criticallyanalyze data, and to present results. In that way, students develop skills which are of great valueduring professional life 12 . Those projects which are carried out in cooperation with external part-ners, such as universities and employers enhance the communication and teamwork abilities ofstudents even more 11 .Such research-based education has a greater impact on the career desires and aspirations of thestudents. It is assessed that many students in the future will pursue a career in their field of studywhen they are working on
the level of creativity or autonomy they desired. Despite theseconcerns, the majority of students responded positively, indicating that their labs and projects preparedthem for future endeavors and appreciated the limited autonomy to explore their own ideas. Theintegration of entrepreneurial education into the manufacturing curriculum has shown promising results inencouraging engineering students to engage more deeply with I&E programming. The outcomes of thisproject suggest students see some value in I&E content integration and that there exists a viable path forother engineering departments to foster entrepreneurial thinking in their students. Students' preferencessuggest including I&E content early in their academic careers and
creativity in engineering design settings.Dr. Qing Li Education Virginia Tech, Blacksburg, VA Ph.D., Statistics, 2015 Dissertation: Change-Point Detection in Recurrent-Event Context. Advisor: Dr. Feng Guo, GPA: 3.9/4.0 University of Rochester, Rochester, NY M.S., Electrical and Computer Engineering,Prof. Shan Jiang, Iowa State University of Science and Technology Dr. Shan Jiang is an Associate Professor in the Materials Science and Engineering department at Iowa State University. He earned his Ph.D. from the University of Illinois at Urbana-Champaign and completed postdoctoral research at MIT. Prior to his academic career, Dr. Jiang worked as a research scientist at Dow Chemical Company, focusing on coating materials
Postal 17-1200-841, Quito 170901, Ecuador.* Correspondence: Blanca Esthela Moscoso, bemoscoso@uce.edu.ecAbstractThis study evaluates a pedagogical model aimed at enhancing collaborative entrepreneurshipcompetencies in students pursuing technical careers, addressing the gap in current technicaleducation regarding entrepreneurial skills. Entrepreneurship is recognized as essential for theeconomic and social development of a country, yet technical career programs often lack sufficientfocus on the collaborative aspects of entrepreneurship, such as leadership, team communication,and mediation. The research sought to test Moscoso's pedagogical model, integrating thesecompetencies into the curriculum. Specific objectives included designing a model
Agency and Holistic Growth in an Engineering ProgramIntroduction raditional engineering curriculum and course structures prioritize preparing students forTtechnical and logical reasoning skills that are intrinsic to becoming an engineer. While these skills are undeniably vital for an engineering career, these courses often fail to provide opportunities for students to explore skills that go beyond the traditional curriculum and classroom walls. In addition, course structures often reinforce the stereotypical narrative in engineering that there is a dichotomy between the social and technical aspects with the latter being more important. Preparing students for both social and technical sides
STEM graduate training: industry mentors' perspective Zilong Pan, Volkmar Dierolf, Anand Jagota, Himanshu Jain Lehigh University, Bethlehem, PA 18015Abstract Driven by the fact that a great majority of STEM PhD graduates will be employed in non-academic jobs, primarily in industry (defined broadly to include private corporations, nationallabs, defense organizations, etc.), there is a growing recognition that the present format ofdoctoral training does not prepare them sufficiently for a career outside academia [1, 2]. Inresponse to this need, recently a new student-centered model of STEM doctorate, PasteurPartners PhD (P3), was developed based on use-inspired