have demonstrated in this paper, ECE students are well equipped tocontribute to addressing the UN Sustainable Development Goals through their knowledge ofinformation, communication, and energy technologies. Several examples of projects, both seniorcapstone design projects as well as extracurricular projects have been described in this paper. Otherprojects that have also been conducted by ECE students in Villanova University include the establishmentof information hubs/kiosks in Nicaragua, a telemedicine project also in Nicaragua, and communicationdevices for a physically handicapped client in the US. IEEE is supporting humanitarian engineeringinitiatives throughout the world and setting undergraduate ECE students on the path to be able
progress: How a Cornerstone Course Impacts Self-efficacy and EntrepreneurshipIntroductionEngineers have emerged as pivotal players in technological innovation in the past decadeby founding or actively participating in entrepreneurial ventures [1]. Consequently, policyinitiatives have increasingly supported integrating entrepreneurship programs withinengineering education [2]. Economic shifts and an evolving job market for graduates haveheightened the demand for engineers with an entrepreneurial mindset, which is defined asthe cognitive adaptability that preceeds entrepreneurial behaviors for acting onopportunities, learning from failures, and creating economic and social value throughproblem-solving [6]. Such a mindset
tasks." Similarly, under the code "using themakerspace," we placed the instance labeled as "learning to use new tools/technology."Comparing the sub-cases. Once we completed each of the narratives, we moved on tothe second stage, where we conducted an inductive analysis of all three subcases tounderstand the processes and outcomes across the subcases as explained by their localconditions [21]. More specifically, in this stage, we looked for similarities anddifferences across the narratives, with respect to the varying degrees of participationwith experienced members and the processes and outcomes that emerged from them. Wealso looked for similarities and differences across the narratives, in terms of how theexperiences of the sampled
informal learning environments and educational technologies. She currently conducts research with the Lawrence Hall of Science on their engineering exhibits and works to improve the facilitation and design of the exhibits. Her research fo- cuses on how science center visitors engage and tinker at engineering activities and the impacts of these open-ended tinkering activities in terms of STEM learning and engineering understanding. Page 23.752.1 c American Society for Engineering Education, 2013 Ingenuity Lab: Making and Engineering through Design
arise• I am confident I am able to communicate effectively to a range of audiences• I am confident I am able to use communication technologies• I am confident that I possess the capability to evaluate information in the media• I am confident I am able to cope with uncertainties involved in a particular task• I am confident that I am able to cope with various demands on my time• I am confident I can cope with multiple stressors
Paper ID #42845Visuospatial and Embodied Cognition in STEM Education: A SystematicLiterature ReviewMrs. Fadhla B. Junus, Purdue University Fadhla Junus, a third-year Ph.D. student at Purdue University’s School of Engineering Education, brings a unique blend of industry experience and academic expertise to her research on technology-enhanced learning, specifically in developing personalized learning environments for higher-education computer programming students. She is interested in investigating how students learn computer programming, how to make learning computer programs easier, what theories support designing
’ and women’s participation and persistence in STEM education from elementary school through doctoral training. In addition to her scholarly work, she is co-author of the undergraduate textbook, Psychology of Women and Gender: Half the Human Experience+ (Sage, 2022). She is a Fellow of the American Psychological Association and is Associate Editor of the journal Stigma and Health.Dr. Joseph Roy, American Society for Engineering Education (ASEE) Joseph Roy has over 15 years of data science and higher education expertise. He currently directs three national annual data collections at the ASEE of colleges of engineering and engineering technology that gather detailed enrollment, degrees awarded, research expenditures
video recorded and thesessions transcribed. Our intent is to fully analyze the group dynamics, discourse, andcontent in a more in-depth fashion than the preliminary findings reported here. The fiveteams ended up same-gendered. Although this will be avoided in the future, someinteresting results emerged, perhaps because of that demographic. We identify the teamsas follows: F1 and F2 (all-female teams), M1, M2, and M3 (all male teams).All student teams were given the same photograph and brief scenario. The photo was oneof Dorothea Lange’s less widely recognized images of Dust Bowl migrant families. Theimage portrayed three children in an informal encampment. The instructions askedstudents to determine what they could about the conditions of this
Engineering Education at University of Nevada, Reno. His re- search focuses on the interactions between engineering cultures, student motivation, and their learning experiences. His projects involve the study of student perceptions, beliefs and attitudes towards becoming engineers, their problem solving processes, and cultural fit. His education includes a B.S. in Biomedical Engineering from Rose-Hulman Institute of Technology, a M.S. in Bioengineering and Ph.D. in Engineer- ing and Science Education from Clemson University.Dr. Lisa Benson, Clemson University Lisa Benson is an Associate Professor of Engineering and Science Education at Clemson University, with a joint appointment in Bioengineering. Her research focuses on
may also be influenced by a learned professional outlook ororientation. However, student perceptions of creativity and technical fields may emerge and evensolidify prior to starting college coursework [10]. College-level instructors may thus encounterprior biases when formally teaching design to students for the first time. Before entering secondary education, students are not yet characterized by an associatedfuture profession—they are not yet “engineering” students. Instead, as the acronym STEM(Science, Technology, Engineering, and Math) has become a widespread term in education tostrengthen and grow student awareness of these subjects, strong STEM associations mayinfluence students’ thinking about design in unintended ways. While
students include women as well as men. Onesignificant advantage the building and skilled trades education programs offer students isapprenticeships with local employers, which allows them to earn money and gain valuable on-the-job experience at the same time they’re getting an education. Sometimes theseapprenticeships lead to full-time positions in the company. With the foregoing in mind, the goalof this paper is to clearly define the building and technical skilled trades, focusing onarchitectural technology, automotive systems technology, computer-integrated machining,construction trades, electrical systems technology, and electronics engineering technology.Added emphasis will be placed on the role of engineering in teaching these subjects and
Paper ID #15239A Two-Dimensional Typology for Characterizing Student Peer and Instruc-tor Feedback in Capstone Design Project CoursesDr. Ada Hurst, University of Waterloo Ada Hurst is a Lecturer in the Department of Management Sciences at the University of Waterloo. She has taught and coordinated the capstone design project course for the Management Engineering program since 2011. She also teaches courses in organizational behavior, theory, and technology. She received a Bachelor of Applied Science in Electrical Engineering, followed by Master of Applied Science and Doctor of Philosophy degrees in Management Sciences
equipment or natural resources. In the futurewhen capitalists talk about their wealth, they will be talking about their control of knowledge.6"While the critical role of human capital is widely understood, we face a significant challenge interms of the incumbent and emerging workforce along the dimensions of both quantity andquality. A recent Advanced Technology Services/Nielsen Research survey of 100 seniormanufacturing executives in the United States indicates an emerging and costly skilled laborshortage triggered by baby boomer retirement and a lost generation of factory workers7. This isnot purely a numbers issue, the changing face of manufacturing and the global playing field thatwas referenced earlier mean that the skill set needed of newly
– Madison and his M.S. and Ph.D. from Purdue University, all in mechanical engineering with an emphasis in the thermal sciencesDr. Carolyn J. Lawrence-Dill, Iowa State University Carolyn Lawrence-Dill has devoted the last 20 years to developing computational systems/solutions that support the plant research community. Her work enables the use of existing and emerging knowledge to establish common standards and methods for data collection, integration, and sharing. Such efforts help to eliminate redundancy, improve the efficiency of current and future projects, and increase the availability of data and data analysis tools for plant biologists working in diverse crops across the world. Carolyn led the USDA’s maize model
Paper ID #29859Initiatives to financially, academically, and socially supportunderrepresented minorities in STEM disciplinesDr. Anitha Sarah Subburaj, West Texas A&M University Dr. Anitha Subburaj is an Assistant Professor at West Texas A&M University. She received her Ph.D. in Electrical Engineering in 2014 from Texas Tech University, where she worked as a Research Assistant on the project, ”Advanced Battery Modeling and Evaluation”. She received her ME degree from Anna Uni- versity, India in 2007. She held a position as Assistant Professor, at Kumaraguru College of Technology, India for three years. Her areas
in research, that cross traditional disciplinarydepartmental boundaries3. Nanoscale science and engineering provides a multitude of newinterdisciplinary teaching opportunities for engaging the interest of students and for broadeningtheir vision of science, engineering, and technology. Nanoscale science and engineering thuspermit the development of new strategies for enhancing science literacy, preparing the workforcefor emerging technologies, and attracting a diverse group of talented students to the workforce oftomorrow.A wide variety of nanotechnology educational programs are in various stages of developmentand implementation across the United States and in other nations, spanning K-12, associate and
are growing as ADEP principles are refined.The first such partnership involves Michigan Tech and IEC Core MSI member UDC, who have“signed a … memorandum of understanding (MOU) focused on the values of diversity, equity,inclusion and sense of belonging” [7]. The MOU’s scope includes student exchanges andgraduate study articulations, faculty collaborations and visiting professorships, and Joint fundingproposals and philanthropy. The second involves an alliance of several IEC Core MSI members(UDC, VSU, PVAMU, AAMU, Tuskegee), plus Central State University (CSU) andBinghampton University (BU) [8]. Esther Ososanya, an ECE professor from UDC reports thatthe latter alliance was established “following the ‘Emerging Technology &
Industrial EngineeringTechnology program and were required to take the course; the remaining 2 students wereenrolled in the Mechanical Engineering Technology program and were taking the course as anelective. Class ranking included 1 sophomore, 9 juniors, and 5 seniors. Of the 15 students whoparticipated in the intervention, 14 completed both pre- and post- GES surveys.3.3. Case Study ScenarioInspired by the historical seismic activity of the Middle East and the 2023 Turkey–Syriaearthquakes, a case study was developed that applied concepts taught in the course (thetransportation problem) to humanitarian engineering. The scenario was presented as follows:“For the class project we will be developing a disaster relief plan to supply emergency
, andqualitative feedback emphasized the value of real-world problem-solving and peercollaboration. The use of low-cost materials, open-source software, and hybrid deliverymethods ensures accessibility and adaptability across diverse institutional settings.This framework offers a scalable and replicable model for transforming electromagneticsinstruction. Future work will focus on broader implementation, refinement of instructionalpractices, and the integration of emerging technologies such as augmented reality andmachine learning. The findings support the inclusion of interactive, hands-on methodologiesin STEM curricula to better prepare students for contemporary engineering practice.I. IntroductionElectromagnetics serves as a fundamental component of
©American Society for Engineering Education, 2025 Sociotechnical Integration in Data Science EducationAbstractColleges and universities are witnessing the emergence of the new interdisciplinary field of datascience/data analytics, which typically includes computing, statistics, mathematics, data systemsengineering, and real-world applications. As a new interdisciplinary engineering discipline, thefield offers a transformational opportunity to develop a meaningful, collaborative, integratedsociotechnical curriculum from the ground up to bridge the division between “society” and“technology.” Data technologies and data-driven decision-making are a powerful entry point intoengineering education for faculty in science and technology
Paper ID #21276Research Experiences for Teachers in Precision Agriculture and Sustainabil-ity for Solitary STEM EducatorsBradley Bowen, Virginia Tech Bradley Bowen is an assistant professor at Virginia Tech in the School of Education’s Integrative STEM Education program. He has a B.S. in Civil Engineering from Virginia Tech and a Master’s of Civil Engineering and an Ed.D. in Technology Education both from N.C. State University. Using his work experience in both engineering and education, he specializes in designing Integrative STEM activities for K-12 students and implementing professional development programs for K-12
14.186.7References1. Dale, E. (1969). Audiovisual Methods in Teaching. 3 ed. New York: Dryden Press2. Kolb, D. A. (1984). Experiential Learning: Experience as the Source of Learning and Development, EnglewoodCliffs NJ, Prentice Hall.3. Chickering, A.W and Ehrmann, S.C, Implementing the seven principles: technology as a lever, AAHE Bulletin,pp3-6, (1996)4. Chickering, A.W and Gamson, Z.F “Seven Principles for Good Practice in Undergraduate Education”, TheWingspread Journal, Winona State University, (1984)5. Chi, M.T (2005). Commonsense Conceptions of Emergent Processes: Why some conceptions are Robust. Journalof the Learning Sciences 14(2):161-996. Bloom, B.S. (1956) Taxonomy of Educational Objectives Handbook I: The Cognitive Domain. New York
members adaptan existing tool or develop and validate a new one. These tools will aid in data collection, butevaluators must also manage the data in order to analyze it. One method of organizing the largeamount of data that will emerge is to develop or adapt tools that use the same scale, such as a 5or 7-point Likert-scale. Given a specific faculty role model and ratings from several sourcesusing a standard scale, evaluators can arrive at a quantifiable number using a weighted averageof the scores provided by student ratings, peer ratings, department head evaluations, and self-assessment [13].These tools should also be available to the faculty, either during professional developmentactivities or in a central location, so they can know the areas
ballooning in near space,that attracts and engages students in undergraduate research early on, and improves their overalllearning experience at college. We first briefly describe an existing ballooning system designed forthe 2017 solar eclipse project, and then provide details of the subsystems of our own payload thatintegrates three different modes of communication technologies to enhance tracking capability ofthe balloon system. Combined with the Iridium-based balloon tracking, our multiband trackingsystem can be a useful tool for tracking of high-altitude ballooning systems and provide a platformof undergraduate research for further enhancements or modifications, ultimately contributing toimproving the student learning experience.1. Overview of
Visiting Assistant Professor at Purdue University School of Aeronautics and Astronau- tics. His research interests are in model-based systems engineering, system-of-systems, and information fusion. He also holds a temporary faculty appointment with U.S. Navy Naval Surface Warfare Center in Crane, IN. He has worked with the John Hopkins University Applied Physics Laboratory on fusion systems and prior to joining Purdue University, he was a flight controls and flight management systems engineer at Honeywell Aerospace. He is a Certified Systems Engineering Professional from the Interna- tional Council on Systems Engineering (INCOSE) where he is a co-chair of the Complex Systems Work- ing Group and the assistant director of
student engagement and how they can be used to improve diversity within engineer- ing. LaMeres received his Ph.D. from the University of Colorado, Boulder. He has published over 80 manuscripts and 2 textbooks in the area of digital systems and engineering education. LaMeres has also been granted 13 US patents in the area of digital signal propagation. LaMeres is a member of ASEE, a Senior Member of IEEE, and a registered Professional Engineer in the States of Montana and Col- orado. Prior to joining the MSU faculty, LaMeres worked as an R&D engineer for Agilent Technologies in Colorado Springs, CO where he designed electronic test equipment.Prof. Jessi L. Smith, Montana State University Jessi L. Smith is Professor
Paper ID #17758Exploring, Documenting, and Improving Humanitarian Service Learning throughEngineers Without Borders USADr. Tina Lee, University of Wisconsin-Stout Dr. Tina Lee is an Associate Professor of Anthropology and the Program Director for the Applied Social Science Program at the University of Wisconsin-Stout.Dr. Devin R. Berg, University of Wisconsin, Stout Devin Berg is an Associate Professor and Program Director of the B.S. Mechanical Engineering program in the Engineering and Technology Department at the University of Wisconsin - Stout.Dr. Elizabeth Anne Buchanan, UW-Stout Elizabeth Buchanan is Endowed Chair in
(”Robots that Care” by Jerome Groopman, 2009), Popular Science (”The New Face of Autism Therapy”, 2010), the IEEE Spectrum (”Caregiver Robots”, 2010), and is one of the LA Times Magazine 2010 Visionaries. Prof. Mataric is an associate editor of three major journals and has published extensively. She serves or has recently servied on a number of advisory boards, including the National Science Foundation Computing and Information Sciences and Engineering (CISE) Division Advisory Committee, and the Willow Garage and Evolution Robotics Scientific Advi- sory Boards. Prof. Mataric is actively involved in K-12 educational outreach, having obtained federal and corporate grants to develop free open-source curricular materials
student learning. The PRS is a computer-based, wireless system where students useindividually coded transmitters to answer questions based on the lesson material. This paper willsummarize the results of a study using the PRS in the United States Air Force AcademyEngineering Division Fundamentals of Mechanics course. A class survey and focus group wereused to determine the usefulness of PRS-based assessment for the course. The goal of theanalysis was to use emerging technology to enhance the learning environment in engineeringcourses by increasing instructor-student interaction through assessment and real-time feedback.IntroductionStudent-active learning is an effective way to increase retention of lesson concepts. Involvingthe students tends to
partof their educational “culture”. Very often an experience abroad can lengthen time to graduation.Of the 78,227 engineering and engineering technology bachelor’s degrees awarded in 20041,fewer than 6,000 had an international experience 2. More than 90% of engineering graduatescurrently enter a global profession with little or no international experience.Nationally, progress is being made and one result is an emergence of various study abroadmodels such as industrial internships, international co-ops, service-oriented models, andtraditional exchange programs. A diversity of structures and sojourn lengths means a variety ofstudent experiences and hence different student outcomes. Measuring student outcomes andunderstanding the learning