case studies. TheSET was created to aid educators in integrating socially engaged engineering and design contentin their courses, helping students develop these important skills. C-SED offers multiplemodalities for integrating SET content into courses, including asynchronous online modules andin-person facilitated lessons tailored to a particular course focus. Prior research has demonstratedthat the SET modules can support students in adopting recommended practices from eachmodule (Lee et al., 2023, 2024; Loweth et al., 2020).In this study, we investigated how the SET materials were applied by students as they engaged ina real-world engineering project in their capstone course. Data were collected from studentreflections on how SET modules
engineering and other courses across the CS curriculum at Moravian University, The College of Wooster, and Xavier University, where he is currently using SPSG in the Software Engineering II and senior capstone courses.Prof. Mikey Goldweber, Denison University Professor of Computer Science at Denison University specializing in Computer Science Education. Additionally, I was a past Board member of Chair of ACM SIGCAS, and a current Associate Editor of ACM Inroads. ©American Society for Engineering Education, 2025 IUSE: Applying Scaffolded Projects for the Social Good to Integrate Service-Learning into Software Engineering EducationAbstractThe Scaffolded Projects for the Social Good
are an important part of engineering students’ training as they exposestudents to complex engineering design problems and include aspects of professionalengineering. These open-ended design courses are presented as a transitional step betweenstudent’s academic and professional engineering careers [1], [2].By understanding and improving student engagement in design activities within capstonecourses, educators can develop and solidify students’ engineering design skills and better preparethem for the transition into workplaces [3]. Little research has been done on the factorsimpacting student engagement in capstone design courses.Summary of project objectives and research methods:Similarly to our results from Year One [4] and Two [5] this study
]. Arguably, transfer of learning to new situations constitutes a core goal of education. Yetdecades of research have demonstrated that transfer of problem-solving strategies rarely happens spontaneously, and ishard to teach [4,13]. In the current project, we propose to address the transfer challenge by focusing on students’ roleidentity and motivation: the complex processes that underlie students’ decision to transfer and enact certain actionslearned in a previous role (e.g., Biodesign student) in a new role (e.g., capstone student).The Motivation to Transfer: The literature on student motivation includes numerous theories and multiple concepts thatdiffer in their emphasis on and interplay of different personal characteristics (e.g., grit, growth
more systems include IoT-related control, communications andfunctionality; IoT-based projects, course materials and exercises should introduce or makestudents or end-users aware of potential cybersecurity issues, threats and concerns [10]-[14].Recent advances in AI have led to more readily available open-source machine learningframeworks and APIs, such as Gemini Developer API [15] or PyTorch [16], as well as many toolssuch as ChatGPT [17].Artificial Intelligence and CybersecuritySenior capstone course design projects should address cybersecurity issues and threats [18]. Aspart of the electrical engineering capstone course at Texas A&M University-Kingsville during theFall 2024 semester, students were tasked to perform a whole system mapping
Undergraduate STEM Education: Hispanic-Serving Institutions(IUSE HSI Program) NSF grant. We present the initial findings on student perceptions from ayear-long introductory engineering course that employs low-cost makerspace technologies, suchas 3D printing, Arduino, Python programming, and virtual reality, in project-based experiencesto enhance foundational engineering skills. In the first semester students receive instruction inbasic math and physics to supplement those introductory courses as well as comprehensivetraining in how to use 3D design software, operate 3D printers, program circuits, write basiccode in Python and interact within VR environments, culminating in a capstone projectexperience. In the second semester, students apply these
resources. 3. Establish a robust network of pre-professional and career development activities, including seminar series, workplace tours, directed internships, and senior capstone projects. These activities are designed to bridge classroom learning with professional environments, equipping students with the skills and experiences needed to thrive as STEM professionals.Key Activities and InnovationsReducing barriers to education with financial support: Financial barriers are among the mostsignificant obstacles for LIAT students [2], and ACCESS directly addresses this challenge byawarding up to $10,000 annually per student. This funding alleviates the financial burden oftuition, fees, and related expenses, enabling scholars to
teaching in the field of electrical engineering, he coordinates the senior engineering capstone program which is a multidisciplinary, two-semester course sequence with projects sponsored by industrial partners. Within this role, he focuses on industrial outreach and the teaching and assessment of professional skills. Prior to joining WCU in 2018, he spent a decade in industry managing and developing innovative technologies across a broad spectrum of applications: SiC and GaN high voltage transistors for energy-efficient power conversion, radio frequency (RF) surface acoustic wave (SAW) filters for mobile phones, and flexible paper-like displays for e-readers. He holds 31 patents related to semiconductor devices and
modules that support student learning. Students are also responsible for publishing theirmodules on a public-facing, freely accessible website [7].Project ContextThe project was implemented into a unique aspect of our university’s curriculum, an equivalent toa capstone experience called ‘engineering clinics’ [8]. Clinics encompass four semesters of two-credit courses exclusive to junior and senior-level students. Each clinic is a unique, oftenmultidisciplinary project supervised by engineering faculty that can be either short or long-term.Students indicate the projects they are interested in and are assigned to projects through a project-matching algorithm [9]. Each semester, students can either choose a new project or stay on theirprevious one
Paper ID #47185BOARD # 307: University of Arkansas Biomedical Engineering REU Site:Training in Emerging Biomedical Optics and Imaging ApproachesProf. Jeff Wolchok, University of Arkansas BS/MS in Mech Eng from UC Davis PhD in Biomed Eng from University of Utah Worked in the medical device industry - 8 years Capstone Design instructor - medical device design There are other authors for this abstractTimothy J. Muldoon, University of Arkansas Dr. Timothy Muldoon is a Professor in the Department of Biomedical Engineering at the University of Arkansas. Dr. Muldoon teaches the Clinical Observations and Needs Finding, the
focuses on nanomaterial innovation for sustainable energy and environment. Dr. Chen has published 300 journal papers and has been listed as a highly cited researcher (top 1%) in materials science/cross-field by Clarivate Analytics. He is an elected fellow of Royal Society of Chemistry, National Academy of Inventors, and the American Society of Mechanical Engineers.Jennifer Nolan, University of Chicago Jennifer is the Program Coordinator for the National Science Foundation Research Traineeship (NRT) AI-enabled Molecular Engineering of Materials and Systems (AIMEMS) for Sustainability in the Pritzker School of Molecular Engineering. She also serves as Senior Project Administrator, Strategic Initiatives for the University
mentorship of women and others with marginalized identities in STEM. Her engineering background is in advanced manufacturing and design.Landon Todd Smith, University of GeorgiaMrs. Kristina Kennedy, The Ohio State University Kristina Kennedy joined The Ohio State University in 2021 as an Associate Professor in the College of Engineering and Faculty Director for the Integrated Business & Engineering Program (IBE) – a multidisciplinary, cross-college program serving both business and engineering honors students. In this role, Kennedy teaches the IBE First-Year Cornerstone and IBE Senior Capstone courses. Additionally, she oversees the program – creating meaningful experiences for students, raising funds, and forging
interdisciplinary engineering education and faculty decision-making.Stephanie Adams, Oregon State University Stephanie Adams is currently enrolled as a doctoral student at Oregon State University, where she is working towards her PhD in Civil Engineering with a concentration in Engineering Education. Her current research focuses on the adoption of evidence-based instructional practices (EBIPs) among engineering faculty members. Additionally, she is investigating the identity development of engineering students in capstone courses.Dr. Prateek Shekhar, New Jersey Institute of Technology Dr. Prateek Shekhar is an Assistant Professor – Engineering Education in the School of Applied Engineering and Technology at the New Jersey
in the School of Engineering + Technology at Western Carolina University (WCU). In addition to teaching in the field of electrical engineering, he coordinates the senior engineering capstone program which is a multidisciplinary, two-semester course sequence with projects sponsored by industrial partners. Within this role, he focuses on industrial outreach and the teaching and assessment of professional skills. Prior to joining WCU in 2018, he spent a decade in industry managing and developing innovative technologies across a broad spectrum of applications: SiC and GaN high voltage transistors for energy-efficient power conversion, radio frequency (RF) surface acoustic wave (SAW) filters for mobile phones, and
Distribution Yes: 16.7% / No: 83.3% Black or African American: 33.3% / Asian: 16.7% /Racial/EthnicGroup Distribution Do not wish to specify: 16.7% / White: 16.7% / American Indian or Alaska Native: 16.7%The participating teachers taught across different grade levels and specialized in various STEMfields, including environmental science, robotics, computer science, chemistry, geology, andeconomics. Their teaching practices ranged from project-based learning to guiding students inadvanced research, such as engineering capstones. Some were actively involved in directingdistrict-wide STEM initiatives, fostering student engagement in extracurricular clubs like roboticsand
Paper ID #46306BOARD # 293: Reflection on Outcomes Data from Eight Years of a SummerREU Site in Systems Bioengineering and Biomedical Data SciencesDr. Timothy E. Allen, University of Virginia Dr. Timothy E. Allen is a Professor in the Department of Biomedical Engineering at the University of Virginia. He received a B.S.E. in Biomedical Engineering at Duke University and M.S. and Ph.D. degrees in Bioengineering at the University of California, San Diego. Dr. Allen’s teaching activities include coordinating the undergraduate teaching labs and the Capstone Design sequence in the BME department at the University of Virginia