and motivation for this project of mechanical engineering curriculumevaluation with respect to manufacturing knowledge requirements, an investigation of the range Page 23.1201.6of accredited programs available in the state of Michigan to train students for mechanical andmanufacturing engineering work was performed. Currently, there are only two institutions thatoffer accredited manufacturing engineering degrees (Grand Valley State University in GrandRapids and The University of Michigan – Dearborn). Not all students who anticipate a career inmanufacturing will have access to programs that specifically train students in the
textbook or notes. There were very few“give up” type of responses (one “cry”), which gives hope to having successful students with“grit”, that will overcome obstacles and persevere.26 Figure 12Students' Perceptions on Professional SkillsSeveral questions relate to professional skills in looking at their work ethic, management of timeand coping with the upcoming challenges of engineering problem solving. Engineers needtechnical skills but equally important for their careers, they need a broad set of professionalskills. Students and faculty both understand that time management skills are absolutelymandatory. Students were therefore asked, beyond time management, for their perception ofwhat other skills
students’ educationalpreparation. There may also be a lack of the faculty’s confidence in instruction students in usingsuch open-ended experiences [33]. By developing problem-solving skills, it is logical thatengineers will become more adept at troubleshooting problems. Research on troubleshootingproblem-solving has shown that experienced engineers differ from poor engineers’ primarily intheir strategizing to solve troubleshooting problems. Also, researchers have done studies on howto improve the troubleshooting performance of technicians in strategizing to solve a problem [12,13] . However, to date, much of the research has not been implemented as a part of the curriculumof technical engineering careers. Therefore, it is necessary to focus on
(82%) Student attitudes and/or interest in STEM (68%) Student STEM achievement, content knowledge, and/or understanding (64%) Page 23.1279.9 Student understanding of technology, engineering, and/or science processes (61%)The informal programs place their primary emphasis on interest, attitudes, motivations, andbehaviors toward STEM learning. Formal programs tend to focus more on content knowledgeand processes, often tied to meeting specific standards and/or raising achievement in the STEMdisciplines. Increasing the STEM career pipeline is also a common goal for the programsreviewed for this study, but specific data to
conferences such as American Education Research Association (AERA), American Society for Engineering Education (ASEE), WebMedia, and WebNet, etc.Dr. Jane A LeClair, Excelsior College Dr. LeClair is currently the Dean of the School of Business and Technology at Excelsior College in Albany, New York. Dr. LeClair, whose career in the nuclear industry has spanned two decades, has worked in various management positions for Constellation Energy. A past Chair of the ANS ETWD division, she received the ANS Training Excellence Award and is the current and past chair of the ANS Conference on Nuclear Training and Education. She is a past ASEE Regional Chair and chaired the ASEE regional conference in 2011. She also is the
and process design with CAE methods, additive and subtractive manufacturing, quality control and lean manufacturing. ©American Society for Engineering Education, 2024 Transformative Approach of Engineering Technology Curricula based on Sustainability, Systems Thinking, and CreativityAbstractThe necessity to adapt and reimage the curriculum of engineering technology degree programs iscrucial to better prepare students for their future careers in engineering. This necessity arisesfrom the continuous evolution of technological advancements and the increasing importance ofsustainability in the engineering field. As technology rapidly advances, engineers, who oftenbegin their careers with an engineering
Management at Regis University, a B.S. in Electrical Engineer- ing and Computer Science at the University of California at Berkeley; has 25 years of software/hardware industry experience and 21 patents; and has volunteered extensively in developing countries.Mrs. Tanya D. Ennis, University of Colorado, Boulder TANYA D. ENNIS is the current Engineering GoldShirt Program Director at the University of Colorado Boulder’s College of Engineering and Applied Science. She received her M.S. in Computer Engineering from the University of Southern California in Los Angeles and her B.S. in Electrical Engineering from Southern University in Baton Rouge, Louisiana. Her career in the telecommunications industry included positions in
design team, we met with the anatomy and physiology professor (our client) to present ourfinal product. He was happy with the completed project and animatedly spoke of a variety ofways to utilize it in future labs. He also mentioned the possibility of a second iteration in thefuture or commissioning our team to construct an additional device. A few days later, wecompleted our final project presentation for evaluation, and all the engineering professors presentexpressed their satisfaction with both the final product and the overall team effort.ConclusionMany students primarily focus on passing necessary courses and meeting requirements set byprofessors, whereas in future careers the focus is often on the requirements of a customer orsupervisor
. The cohort also represented 7of the 10 engineering departments in our College of Engineering.Academic SuccessDuring the pre-interview, all participants emphasized the importance of equipping students withthe skills needed to succeed academically and professionally. Common strategies that they werealready utilizing in their teaching (as indicated in their pre-interviews) included making coursematerials accessible, using flexible assessment methods, and integrating real-world applicationsinto the curriculum. While all participants aimed to support student success, their specificmethods varied. For example, Diana focused on teaching students relationship-building and gritto achieve their professional career goals, while Natasha emphasized
Paper ID #45864Exploring Engineering Majors Through Engaging Synthetic ScenariosDr. David Gray, Virginia Polytechnic Institute and State University Dr. David Gray is a Collegiate Assistant Professor in the Department of Engineering Education at Virginia Tech. He teaches in the first-year general engineering program and leads interdisciplinary undergraduate research initiatives. His work focuses on integrating engineering identity development, early-career student research, and human-centered design into undergraduate curricula. Dr. Gray serves as PI on several externally funded projects supporting sustainable aviation
academiccommunity as to whether this new technology should be embraced or banned from theclassroom. As it has become more apparent that this transformational technology will becomean increasingly important part of our world, there is an obligation to introduce students to itscapabilities and prepare students for the career opportunities it presents. Slimi [5] argues thatapplying AI in higher education should be a requirement for all higher institutions. The listedcaveats are that academic faculty must be well trained in using AI to equip learners with therequired skills to face future career challenges. In addition, faculty must highlight ethics andpotential consequences to humanity.Khalifa and Albadaway [6] specifically addressed the importance of
, supplemented with additional questions designed to explore issues specific to oureducational context.The main objective is to comprehensively assess the level of knowledge, skills, and attitudes towardsustainability among higher education students in STEM programs at a private Chilean university.This assessment will include an analysis of students' perceptions regarding the relevance of theSustainable Development Goals (SDGs) in their personal lives and future professional careers. Thefindings will provide key information for designing appropriate strategies in the future to integratesustainability into academic programs effectively. These strategies will ensure that they areeducational, effective, and contextualized, addressing STEM programs
Secondary Mathematics Teaching Certification in 2008 and an MS in Mechanical Engineering in 2018. Ms. Perkins is a former Assistant Engineering Educator in the Engineering Technology Department of Wichita State University. She has also taught Secondary Mathematics courses in both public and private school settings. ©American Society for Engineering Education, 2025 I Have to Get Back in the Classroom: A Graduate Student's Journey Navigating Dual Academic Identities.IntroductionMany who endeavor to teach engineering in higher education pursue doctoral degrees to securethe minimum credentials required for their desired career. During their doctoral studies, somefind they have to set
Paper ID #46556Knitting the knitters: Building and sustaining leadership teams for equity-orientedinstitutional changeSandra Laursen, University of Colorado Boulder Sandra Laursen is senior research associate and director of Ethnography & Evaluation Research (E&ER), where she leads research and evaluation studies focusing on education and career paths in science, technology, engineering, and mathematics (STEM) fields. She has studied ADVANCE projects for 25 years as an evaluator and researcher, and has published articles, books and online resources on strategies for institutional change to advance equity and
from Carnegie Mellon University. He received US National Science Foundation CAREER Award, US Air Force Office of Sponsored Research’s Summer Faculty Fellowship, and Google’s ASPIRE Research award in security and privacy, inter alia. He is an expert in the areas of cybersecurity and privacy. He has hundreds of publications in the most reputable venues as well as numerous patents. His research has been funded by numerous government agencies and industry. He has chaired/served on the of top-tier security conferences, e.g., NDSS, USENIX, ACM CCS, IEEE SP, and serving as the deputy editor in-chief of IEEE TIFS and associate editor of Elsevier COMNET journals. More information can be obtained from http://nweb.eng.fiu.edu
Research Assistant and Graduate Teaching Associate, primarily teaching first-year engineering and engineering mathematics. She also has both a B.S. and M.S. in Biomedical Engineering from Wright State, where she also worked as a Graduate Teaching Associate for an engineering mathematics course.Mr. James Nathaniel Newcomer, Virginia Polytechnic Institute and State University Former mechatronics engineer and STEM educator who now works with first-year engineering students to help them establish academic trajectories to develop and meet their career goals. ©American Society for Engineering Education, 2025 First-Year Engineering Students' Quantification of "Self" in the
those jobs. Previous research has shown a linkbetween STEM education and interest in future STEM careers. Traditionally, learning tools suchas lectures and discussions have been used to promote STEM learning in the classroom.However, in recent decades, geospatial science (GSS) technology learning tools that capture,store, analyse, or visualize the characteristics and locations of real-world phenomena digitallyhave also been used for this purpose. Though many educational research studies have assessedthe use of traditional and GSS technology learning tools separately for promoting STEMlearning, few have compared these two types of learning tools against each other. Those that dohave usually only compared digital mapping or geographic information
said, but why aren’t you saying it?’” – MayaMaya was frustrated by this experience, but also expected that in her future career she mighthave similar experiences, because there was a good chance that she might find herself as the onlyBlack person at a design firm. She was not comfortable with being treated differently for beingBlack: “It’s a little uncomfortable because I feel like a quota sometimes. I’m getting certain things because I’m Black and that they want me to feel included, but do I actually deserve them? Is there someone else that deserves them more than I do? I’m a hard worker, so I want to get things that I know that I deserve, not something just because of my skin tone, which was a little
North Atlantic/Arctic countries. His most recent works involves connecting applied learning to economic development in both engineering curriculum and non-engineering curriculum.Dr. Jennifer Karlin, Minnesota State University, Mankato Jennifer Karlin spent the first half of her career at the South Dakota School of Mines and Technology, where she was a professor of industrial engineering and held the Pietz professorship for entrepreneurship and economic development. She is now a professor of integrated engineering at Minnesota State University, Mankato with the Iron Range Engineering program. She joined IRE in 2019 as one of the founding faculty of the Bell engineering practice-embedded learning model.Zachary Reed
primary contributors to economic productivity, societal well-being, and thedevelopment of innovative solutions and advanced technologies in countries all across the world,especially when interdisciplinary approaches are applied [1, 2].As the complexity of systems we rely on increases and technology reliance increases over time, sodoes the need for capable professionals to solve the equally complex problems that appear withthis advancement. This surge in demand highlights the importance of STEM education at all levelsof learning.Texas A&M University at Qatar recognizes students as future leaders and has committed tofostering STEM education for high school students aiming to pursue careers in engineering orSTEM disciplines. Through programs
the importance of engagingundergraduate students in research projects. This is not the place to elaborate on this particularaspect, but a few examples are provided to add credibility to this paper.Kate Rix [1] gives a summary on the benefits of undergraduate research. She states that“Students learn more by and through research. On top of this, students find enjoyment inconducting such non-classical class activities.” Specifically, she further adds: “Studies showstudents who participate (in research activities) earn better grades, are more likely tograduate and are better equipped for graduate school or careers.”The University of California Davis (UCD) is proud of having four out of ten students performingundergraduate research activities in
accessibility, sustainability, and the fair distribution of resources,which are often overlooked in traditional engineering programs [6], [7], [8]. This criticalengagement is important for promoting more inclusive and socially responsible engineeringpractices. Studies have shown that when students are exposed to social justice frameworks, theyare better equipped to develop solutions that address the needs of all members of society,particularly marginalized communities [5], [6]. Thus, integrating social justice into engineeringeducation enhances technical competence of students and also prepares them to be agents ofpositive social change in their professional careers.1.4 Purpose of the StudyThis study seeks to explore how gender influences engineering
broaderapplicability of the intervention [38]. Additionally, longitudinal studies tracking the long-termeffects of improved programming self-efficacy on academic and career success would providevaluable insights into the lasting impact of such interventions on students in programming andengineering fields [39].ConclusionThis study demonstrated that the WebTA code critiquing tool significantly improvedprogramming self-efficacy among first-year engineering students, with particularly notable gainsfor female students. These findings underscore the effectiveness of targeted educationalinterventions in boosting self-efficacy, which is essential for success in programming. Tools likeWebTA, which provide immediate feedback, can be instrumental in addressing
must “tap all talent” — attract a broad group of individuals who are presently under-represented in engineering. Second, we must restructure engineering education so that studentsexperience early in their training what engineers do. Because over forty percent of all four-year engineering graduates began their introductory studies in the community college, pre-baccalaureate preparation has drawn close attention. Women, racial/ethnic minorities, and lowincome students are well represented in community colleges, but only a small number of thesepopulations graduate with associate’s degrees in engineering and engineering technologies.Research has shown that an interest in engineering as a career impacts persistence. Yet womenand other
, enabling scalable, student-centered learning experiences.The ability for students to rapidly generate scripts, visuals, and narration allows for fast prototyping anditeration—core habits of innovation. Moreover, this method democratizes the creation of high-qualityeducational resources, especially for institutions with limited multimedia budgets or staffing.In addition, the author found that developing or managing a website offers a strategic and entrepreneurialmindset perspective to scale lessons learned from his 45-plus career and from his colleagues as well asreceiving feedback to improve a strategic plan, PyramidX-OS, mentorship approaches, its associatedactivity form, and incentive program.6.1 AI-Assisted Talking Chatbot as Mentor and
program, we started by reviewing our objectives and outcomes to ensurethey were relevant and aligned with the needs of our various stakeholders. To determine if we wereappropriately aligned as a program, we started by considering what lies at the very heart of what we aretrying to accomplish – the mission of the United States Military Academy: To educate, train, and inspire the Corps of Cadets so that each graduate is a commissioned leader of character committed to the values of Duty, Honor, Country and prepared for a career of professional excellence and service to the Nation as an officer in the United States Army. (Educating, 2007)We also derived insights from the educational goals of the Military Academy found in
communication. She has implemented two Virtual Exchanges and collaborates with multiple organizations across Latin America to foster international relationships that broaden public engagement with science. Her work in these arenas has been recognized with the AAAS Early Career Award for Public Engagement with Science and a NSF Faculty Early Career Development (CAREER) Award.Daniel Suarez, Pontificia Universidad Javeriana ©American Society for Engineering Education, 2025 Building Global Competencies in Biomedical Engineering Education through Virtual ExchangeABSTRACT Our world’s most pressing biomedical challenges cross national boundaries and demandinternational
Multicultural Engineering Program and Director of the Clark Scholars Program. In this role, Dr. Griggs drives initiatives to improve the recruitment and retention of historically underrepresented groups pursuing degrees in engineering and strives to foster a welcoming environment that celebrates culture and inclusion. She is the advisor for the National Society of Black Engineers and co-advisor for the Society of Hispanic Professional Engineers, and the Multicultural Engineering Graduate Association. Her passion lies in mentoring through meaningful career discussions and helping students gain confidence as well as succeed in their chosen degree fields.Dixon Zor, Pennsylvania State UniversityChristopher L Dancy, The Pennsylvania
, honesty, integrity, kindness, courage,forbearance, and respect. Here we will summarize two of the stories. Figure 1 illustrates bothstories.2.2.1 Story 1: Lu Ban and Ya ZiOne of the virtue-of-the-week stories was about Lu Ban and his son Ya Zi 24,25 . This storyexemplified the virtues of diligence of perseverance. Lu Ban (507 – 440 B.C.E.) is a reveredengineer, architect, and a master of carpentry and masonry in ancient China.Lu Ban’s son, Ya Zi, was not sure about his dream job and future career. First, he told his fatherLu Ban that he would like to become a farmer. Lu Ban was delighted to know it and encouragedYa Zi to go to another place and learn the skills of farming from experienced farmers. One yearlater, Ya Zi returned home. He told
and Magerko’s[10] seminal paper, they identified 17 core competencies users need to interact with and developAI. Their research is based on a review of academic articles, books, conference papers and greyliterature. These competencies focus on how AI works, how to identify and recognize AI,knowing it’s strengths and weakness, how to use it effectively, in-depth data literacy skills,creating and developing AI, and lastly the ethics of using AI and potential global impact.In a more current literature review, Chee et al[17], identified 8 AI competencies categories: AIdevice and software, data and algorithmic literacy, problem solving, communication andcollaboration, AI ethics, career-related competencies, AI content creation, and