education.IntroductionThe integration of Artificial Intelligence (AI) and Machine Learning (ML) into modernengineering practices has created an urgent need for engineers with AI/ML skills to tacklechallenges in automation, robotics, preventive maintenance, defect detection, system optimization,and beyond. This integration underscores the transformative potential of AI/ML in engineeringeducation, necessitating curriculum advancements to prepare students for the evolvingtechnological landscape [1]. This need is driven not only by industry demands but also by students,who increasingly see AI/ML expertise as vital for their future careers and expect opportunities toapply these skills in real-world engineering projects. Numerous national reports, including thoseby the
by an NSF CAREER award, an Alfred P. Sloan Fellowship, a Marion Milligan Mason award for women in the chemical sciences from AAAS, and a Ralph E. Powe Jr. Faculty Award from ORAU. For her teaching, Fullerton was awarded the 2018 James Pommersheim Award for Excellence in Teaching in Chemical Engineering at Pitt. For more information: http://fullertonlab.pitt.edu/Dr. G¨otz Veser, University of Pittsburgh ©American Society for Engineering Education, 2025 Creating a Modularized Graduate Curriculum in Chemical EngineeringAbstractU.S. graduate engineering programs traditionally follow a “one-size-fits-all” approach that prioritizesresearch skills, is slow to adapt to industry trends
expected experiences [5]. Within the workplace,professionals use informal learning for continuing education, seeking help, gathering information,finding support or feedback, collaborating, and gaining further experience in both their career andprivate lives [24, 25]. However, despite research showing the benefits of informal learningopportunities, many individuals and organizations push for formal education over informal ormixed educational pathways [26].Informal Learning Informal education and opportunities in STEM help bridge the gap betweenformal education and real-world experiences and foster continuing education throughout a careerand beyond [27, 28]. Specifically within computer science education (CSEd), active learningtechniques like
Paper ID #47866BOARD #135: The 2TO4 Project - Facilitated Transition from 2-Year to4-Year Electrical and Computer Engineering Studies by Building Student/FacultyNetworks (WIP)Dr. Kenneth A Connor, Rensselaer Polytechnic Institute Kenneth Connor is Program Officer at the Inclusive Engineering Consortium (IEC), whose mission is to enable MSI ECE programs to produce more and better prepared graduates from groups that have been historically underrepresented in ECE careers. He is also an emeritus professor in the Department of Electrical, Computer, and Systems Engineering (ECSE) at Rensselaer Polytechnic Institute (RPI) where
careers and graduate school, and personal andprofessional gains.[3-6] For university and society benefits, undergraduate research has alsobeen linked to continuation in STEM and graduate programs with particular benefits for studentsunder-represented in those fields.[7-12]While the benefits of undergraduate research for students, university, and society have beendocumented, the benefits of undergraduate research for the mentors (graduate students, post-docs, and faculty) are less well-demonstrated and documented. Similarly, barriers for faculty toengage in undergraduate research practices are still being evaluated. Work by Hayward et al.examined researchers’ motivation and outcomes by career stage for undergraduate researchmentors.[13] Although
Institute and State University Dr. Vinod K. Lohani is a Professor of Engineering Education at Virginia Tech. He served as a Program Director in the Division of Graduate Education, NSF for 4 years (2020-24). In this capacity, he was deeply engaged with the NSF Research Traineeship (NRT), Innovations in Graduate Education (IGE) and CAREER programs and also participated in several NSF-wide working groups on semiconductors and quantum information science and engineering (QISE).Dr. Manoj K Jha P.E., North Carolina A&T State University Dr. Manoj K Jha is an associate professor in the Civil, Architectural, and Environmental Engineering department at the North Carolina A&T State University. His research interests include
engineering (IPE)and general engineering self-efficacy (GESE) (Table 2 for the specific items).Table 2. Engineering survey items Items Construct 1. I am committed to study hard in my engineering classes. IPE 2. I am determined to use my engineering knowledge in my future IPE career. 3. I plan to take a lot of engineering classes in high school. IPE 4. I can master the content in the engineering-related courses I am GESS taking this semester. 5. I can master the content
every spring semester since.One research-cited reason that collegiate students leave engineering is a lack of engineering-related experiences during the first year of the program. Conventional first-year engineeringcurricula require students to complete multiple gateway courses prior to beginning disciplinarycoursework. These courses oftentimes deal with abstract material with little perceivedengineering context. As a result, students end up believing that all engineering courses will besimilar, and some ultimately leave for other professional arenas where applications can beunderstood much earlier in academic career(s). A key motivating factor in developing ENGR 111was to augment student desire to persist in engineering degree pursuit, by
does not do enough to prepare students for their careers. Sorby expresses thisgoal of engineering education as follows: “It is time that we as educators take a long, critical look at ourvalues and curricula to ensure that we are preparing students for careers that exist today and for futurecareers” [2]. Sorby is aligned with many who believe that less emphasis on theory and more emphasis onspecific tools and problem-solving strategies would be more beneficial for career readiness.The Grinter Report should be commended for its willingness to ask difficult questions of itsrecommendations including the question of career readiness. When considering the broad curriculum itrecommends, the authors ask themselves: “would the employer be pleased with
studies [9].Table 1. Community Cultural Wealth Model Capital Description Example Aspirational Capital Sustain hopes and dreams and Career goals overcoming barriers Social Capital Social network of people and Relationship with peers community Linguistic Capital Communication styles and Connect with others with language languages Familial Capital Knowledge amongst family and Drawing from community culture historical and cultural knowledge Navigational Capital Skills to navigate social Skills to overcome
complexity of problems solved, and the development of specificskills (e.g., prototyping, data analysis, experimental design) can be tracked. Additionally, studentself-assessments and faculty evaluations can provide qualitative insights into the development ofpractical and academic skills.Academic and professional impact are supported by defining clear roles and responsibilities forstudents at different academic levels, ensuring each student works on tasks aligned with theirexpertise. This approach helps students focus on developing career-specific competencies andcontributes to their progression toward graduation. Metrics for evaluating this outcome couldinclude the successful completion of assignments aligned with their academic level, the numberof
, workforce development, and student success initiatives. Dr. Gattis has secured and managed over $6.9 million in competitive NSF and ADHE grants, supporting student retention, innovation in STEM education, and workforce-aligned pathways. Her work focuses on increasing diversity, improving STEM career readiness, and strengthening industry collaboration.Dr. Stephen R. Addison, University of Central Arkansas Dr. Stephen R. Addison is a Professor of Physics and Dean of the College of Science and Engineering at the University of Central Arkansas. Dr. Addison joined the faculty of the University of Central Arkansas in 1984, and has previously served as Dean and Associate Dean of the College of Natural Sciences and
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. As a graduate student, he was a NASA Harriet G. Jenkins Graduate Fellow and mentor for the Summer Research Opportunities Program. Dr. Henderson has dedicated his career to increasing the number of students who are in pathways to pursue STEM careers. He believes that exposing students to STEM early will have a lasting impact on their lives and academic
students with a sense of purpose and agency. This alignmentwith real-world issues has been shown to enhance long-term engagement in STEM careers,particularly for underrepresented groups who may not see themselves reflected in traditionalSTEM narratives [8], [9].This study investigates the dual outcomes of engagement and self-efficacy within the context ofthe “United We End Racism” STEM Fair. Specifically, it addresses the following researchquestions: 1. How do themed STEM activities, such as Ducks and Diversity, foster engagement and self-efficacy among underrepresented K-12 students? 2. What impacts do these experiences have on students’ interest in STEM careers and their self-confidence in applying engineering concepts?To explore
.” Entity Verdict CSTA Standard Human different none ChatGPT different none Llama different none Claude similar to Compare tradeoffs associated with computing technologies that affect people’s everyday activities and career options.Table 6: Classification for Arkansas standard CSRB.Y1.10.7: “Research and identify diverse ca-reers and career opportunities (e.g., accessibility, availability, demand) that are influenced by com-puter science and the technical and soft skills needed for each.”there does not appear to be a close match to this standard in any of the CSTA standards. However,Claude categorized it as based on CSTA 3B-AP-4: “Compare multiple
Applications ofQuanser® company. After that, the leaders of the academic minor designed their own labpractices and solutions. Hence, the lab practices are aligned to the actual curricula frommechatronics, robotics and mechanics careers; this, to guarantee the versatility of the teachingmaterial.During the first semester of implementation, to test their own control strategies through the labpractices, students used the following products: DC Motor (under both configurations: inertialdisk and inverted pendulum), Aero 2 (using the three systems: 1 DOF, Half quadrotor andhelicopter).On the other hand, considering that engineering education emphasizes technical skills to preparegraduates for the real-world engineering context, during the third period of
Laboratory, as well as the Co-Director of the National Science Foundation’s Nanosystems Engineering Research Center for Advanced Self-Powered Systems of Integrated Sensors and Technologies (ASSIST) and the Co-Director of the Institute of Connected Sensor Systems (IConS) at NC State. Among his many achievements, Dr. Bozkurt received the Faculty Early Career Development (CAREER) Award from the National Science Foundation and the IEEE Sensors Council Young Professional Award. In 2015, he was named to Popular Science Magazine’s ”Brilliant 10” list. His team has also earned best paper and presentation awards from prestigious conferences, including the U.S. Government Microcircuit Applications & Critical Technology
Undergraduate Quantum Computing EducationAbstractAs quantum computing (QC) technologies continue to advance, there is an increasing demand fora workforce skilled in QC. Higher education plays a critical role in preparing students with thefoundational knowledge and specialized skills required for careers in quantum research,development, and application. While a few studies have introduced QC to high school students orcomputer science majors, there is limited focus on students from diverse academic backgrounds.Existing research has primarily shared instructors’ experiences and efforts in teaching quantumcomputing in higher education, but there is a notable lack of studies exploring ways to enhanceQC instruction and examining students’ learning and
summer program includes a mentoring program that hasevolved over seven years, informed by mentor and mentee formative evaluations. This papershares the lessons learned from a seven-year case study that includes qualitative and quantitativedata, and was informed by educational experts’ experience, and through formative evaluation ofthe mentoring program.MethodsThis case study (Yin, 2013) was bound by time; students participate in the NHERI REU summerprogram for ten (10) weeks during the summer months of May, June, July, and August. Allstudents attended research meetings, career development workshops, and the REU researchsymposium at the end of the year where they presented their research through publicpresentations and poster sessions. The
of mouth, which means many students areunaware of the possibility of joining a research team until late in their undergraduate career. Thislate awareness leaves little time for a deep and meaningful research experience.Through collaboration across five universities, the research team has developed an Early StudentExposure to research program that employs entrepreneurially minded learning at the freshmanand sophomore levels to introduce students to the concept of research and inspire them to engagein undergraduate research. A series of videos and designed exercises inform students aboutresearch opportunities and the role that research plays in the development of technologies thatbenefit society. These exercises have been employed at the five
program is designed to familiarize students with the university andurban environments and provide access to advanced courses that are often unavailable tostudents in their home communities. Previous participants have completed all of the mathrequired for their bachelor of science degrees before enrolling in college.ANSEP Summer BridgeSummer Bridge is a college and career visioning opportunity for students who are graduatinghigh school. The program jump starts students’ academic and professional development bybringing them to UAA to complete paid summer internships with industry, state, and federalpartners and a college course. The program is completed the summer between their high schoolgraduation and their first year of college. Students are
Professor in the Computer Science Department at UNC Charlotte, where she also serves as Assistant Director of the Center for Education Innovation & Research. Dr. Rorrer’s scholarship areas include the science of broadening participation in computing, SoBP, which is a recognized domain of critical importance in STEM workforce development and educational programming. Her work has focused on educational programs, outreach and collective impact activities that expand the national pipeline into STEM careers. College student development and Faculty career development are central themes across her body of work. ©American Society for Engineering Education, 2025WIP: Exploring First Generation
highDFW rates. Our course redesign tackled these issues by integrating two key strategies:contextualized learning and the inclusion of undergraduate learning assistants (LAs) to foster apeer-supported learning environment.The first approach, contextualized learning, embeds computing concepts within real-worldengineering problems. By presenting engineering-focused challenges, students were able tobridge the gap between theoretical knowledge and practical application. This approach not onlyfostered deeper comprehension but also significantly increased engagement, helping students toconnect computing principles to their future careers. As a result, we observed improvements inboth retention and academic performance.The second approach involved the
? RQ3: What socio-demographic factors most determine a student's academic performance?This research aims to establish the foundation for designing and developing predictivemodels that enable the early identification of socio-demographic and academic factors withthe greatest impact on student performance upon entering the Faculty of Engineering.Implementing these models aims to detect students at higher risk of dropout and understandtheir specific needs. This will allow the implementation of personalized support strategies,which may include financial aid, flexible work schedules, study methodology reinforcementactivities, or academic and career guidance programs. By anticipating potential causes ofdropout, institutions can strengthen
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
Engineer who specializes in the field of nonlinear control theory. ©American Society for Engineering Education, 2025Inspiring Young Minds: Translating Advanced STEM Technology for High School Students for College and Workforce Readiness within the GEMS Programs (Other)AbstractGirls in Engineering, Mathematics, and Science (GEMS) is a project-based Science, Technology,Engineering, and Mathematics (STEM) program that encourages and empowers the nextgeneration to pursue STEM pathways in education and careers [1], [2]. GEMS after-school andsummer programs are designed to educate by providing hands-on experiential learning inrobotics, programming, and research [3]-[8]. Consisting of two key
). As part of his joint appointment with UAF’s College of Engineering & Mines and Geophysical Institute, Dr Hatfield teaches courses in electrical and aerospace engineering, conducts UAS research in support of ACUASI, and participates in STEM outreach activities. In addition, Dr Hatfield administers UAF’s Aerospace Engineering Programs and serves as faculty advisor for the university’s student chapter of the American Institute of Aeronautics & Astronautics. Prior to joining UAF in 2013, Dr Hatfield was a US Air Force officer where he served in numerous capacities over a 28-year career. Dr Hatfield’s assignments included 2 tours teaching at the USAF Academy (Department of Astronautics, ’92-’96, ’99-’02) and
careers, fromfirst-year assistant professors to associate and full professors with more than a decade of service,and our collective institutional service has spanned many areas including accessibility, assessment,curricular innovation, faculty development, faculty hiring, student life, and undergraduate research.2.2 Formal Training in New Research AreasThe lead author of this paper requested and received funding from the Provost’s office at OlinCollege of approximately $10,000. The majority of this amount was to support four authors totake part in the ProQual Institute, a workshop spanning around ten weeks that covers core topicsin interpretive research and research quality [8]. Two of the authors had already participated inProQual in the
professor and Associate School Head in the School of Civil and Environmental Engineering at Oregon State University. His research interests include conceptual change and situated cognition. He received the NSF CAREER award inDr. James L. Huff, University of Georgia Dr. James Huff is an Associate Professor within the Engineering Education Transformations Institute and School of Electrical and Computer Engineering. He also serves as Deputy Editor with the Journal of Engineering Education and Chair of the Education Research and Methods Division in the American Society for Engineering Education. He earned his Ph.D. in Engineering Education from Purdue University, his M.S. in Electrical and Computer Engineering from Purdue
seems like a blatant issue that shouldn't have existed in the first place."Personal Awareness Discussed new "Before this class, I definitely had 7 understanding of internalized a lot of common stereotypes bias or own biases about engineers... After taking this class, I feel like I have moved past many of those stereotypes and feel more confident that I could belong in an engineering career."Professional Expressed "My personal responsibility as a future 11Responsibility