Instructional Designer at Case Western Reserve University in Cleveland, Ohio, where he develops and maintains the university’s academic technology architecture, and an instructor for the School of Ed- ucation and Higher Development at the University of Colorado Denver. Prior to moving to Cleveland, Brian did sensational stuff with video, supported web conferencing and online lecture recording and re- searched emerging technologies for CU Online at the University of Colorado Denver. He has earned a MEd in Instructional Technology and a Bachelor of Arts in Video and Audio Production from Kent State University
prompt: “Tell us something positive you saw in another student’s paper, so that we canall learn from it” (Figure 3). Reflective Prompt: “Tell us something positive you saw in another student’s paper, so that we can all learn from it.” ● “My partner very clearly laid out the gap in technology in his Introduction, and justified the need for his own project strongly.” ● “My partner used a flowchart to summarize his method. It made the method clear and easy to understand.” ● “My partner used a table to organize dense information in the Design section. I could refer to it easily and read it quickly.” ● “My partner did a great job of summarizing within subsections, so that I had the context for all of the design
tool in engineeringeducation, and as a potential method of increasing retention in engineering.IntroductionActive learning methods1 have proven to be an effective way to increase engineering self-efficacy2,academic performance3, feelings of responsibility to complete future tasks4, and recently retentionin science, technology, engineering and math (STEM)5. While the list of positive effects of activelearning use continue to emerge in the literature, its use is still minimal due to the resourcesrequired of practicitioners1,3. Research on the effects of active learning should continue to beresearched and published until it is clear to researchers and practitioners that the benefits outweighthe cost.Of the various calls within STEM education, the
businessschools as well as the business and technology enterprise communities” [3]. The efforts to support entrepreneurship in engineering programs often come in the formof entrepreneurship experiential learning activities such as creating a business plan, consultingwith practicing entrepreneurs, interviewing potential customers, delivering pitches, applying togrants, and prototyping a minimal viable product (MVP). Entrepreneurship programs and centersalso assist students in taking their projects and ideas beyond the scope of the classroom throughaccelerator programs that help students start businesses or with commercialization. To manychange agents associated with these efforts, the success of these entrepreneurship activities andprograms is not
- zations.Prof. Brent K. Jesiek, Purdue University, West Lafayette (College of Engineering) Dr. Brent K. Jesiek is an Associate Professor in the Schools of Engineering Education and Electrical and Computer Engineering at Purdue University. He also leads the Global Engineering Education Collabora- tory (GEEC) research group, and is the recipient of an NSF CAREER award to study boundary-spanning roles and competencies among early career engineers. He holds a B.S. in Electrical Engineering from Michigan Tech and M.S. and Ph.D. degrees in Science and Technology Studies (STS) from Virginia Tech. Dr. Jesiek draws on expertise from engineering, computing, and the social sciences to advance under- standing of geographic, disciplinary
significant role in theprocess and need to be addressed. Strategies for mitigating the negative effects of this andharnessing the benefits of experience are also presented. After incorporating feedback from thiswork, the matrix will be presented, used, and assessed in classes at both Ohio NorthernUniversity and Merrimack College.1 Introduction and literature reviewIn the realm of engineering education, the selection of controllers emerges as a cornerstone,shaping the academic discourse and practical insights imparted to the next generation ofengineers. Knowledge of controllers equips mechanical engineers with the skills to design andwork with modern, sophisticated systems, keeping them relevant and effective in a rapidlyevolving technological
researchers have long been siloed into their own areas of research expertise, such thatcollaborations often occur with researchers in the same or adjacent fields. Yet, the challengesfacing the world require solutions that do not exist within one disciplinary silo and requirecreative solutions that reach across the boundaries of science, technology, engineering, arts, andmathematics (STEAM) disciplines. One way creativity is sparked is through interdisciplinarycollaborations. When conflicting perspectives on a given topic are presented, people seek toovercome these conflicts and through this process, creative solutions can emerge. However,interdisciplinary collaborations are often complicated due to differences regarding disciplinarylanguages, lack of
inevitable(meritocracy) [3], [5]. These technocratic ideologies inform common assumptions (e.g., theunproblematic goodness of technological advancement, or the singular qualification of technicalexperts to inform technological development) by constraining engineers’ socio-technicalimaginaries, or their particular senses of self, relation to others, and acceptable norms which,once adapted, are taken “as natural, the only vision of social life possible” [7]. In this way,technocratic ideologies obscure the profound entanglement of technology with systems ofoppression (e.g., capitalism or white supremacy) [10]. For example, the increasing influence offor-profit, private organizations in the field of engineering promotes managerialism, whichnaturalizes
project support and teamworkAbstractThis Design Methodologies paper presents the design process and technology used to facilitate afirst-year, service-learning based engineering design course at the University of South Florida.The course is facilitated using a cloud-based collaboration tool called Slack which allowsindividuals to be organized and assigned to channels for easy dissemination of information. Thenature of the Slack channels offered evolves throughout the semester to mirror the needs of thedesign process. This paper presents the strategy used to leverage Slack and administer the designprocess. The general structure of the course is presented before and after the use of Slack. Thefuture direction of the
Version ProgressionFirst Iteration: The initial prototype introduced the fundamental components of the chatbot,including a Postgres database, a document uploader, a character text splitter, and a conversationalretrieval QA chain (Figure 4). These elements provided the essential framework for retrievingand processing information. Postgres was chosen as the database management system due to itsreliability in handling structured data. The overuse of the document uploader highlighted theneed to transition to a document store to reduce system clutter and enhance modularity. The conversational retrieval QA chain was sufficient in answering user queries byextracting relevant document-based information. However, a key limitation emerged—while
realinterdisciplinary team-based learning and teaching, placing emphasis on activity-based teachingand learning, and real life application focusing on the enterprise, from conception to operation.Central to this effort is the enhancement and use of physical facilities that promote theinteraction of stakeholders to conceptualize, design, prototype and manufacture products drivenby a market need.10. References1. Information Technology for Manufacturing: A Research Agenda, National Research Council, National Academy Press, Washington, D.C. 1995.2. Integrated Manufacturing Technology Roadmapping Project: Modeling & Simulation (“Fanout Review” Draft), IMTR Project Office, Oak Ridge Centers for Manufacturing Technology, Oak Ridge, Tennessee, Nov
, 2020.[11] R. R. Fowler, “Talking teams: Increased equity in participation in online compared to face-to-face team discussions,” The ASEE Computers in Education (CoED) Journal, vol. 6, no. 1, p. 14, 2015.[12] B. Hanks, S. Fitzgerald, R. McCauley, L. Murphy, and C. Zander, “Pair programming in education: a literature review,” Computer Science Education, vol. 21, no. 2, pp. 135–173, 2011.[13] R. S. Moog and J. N. Spencer, Process oriented guided inquiry learning. American Chemical Society Washington, DC, 2008, vol. 994.[14] T. Koschmann, “Paradigm shifts and instructional technology: An introduction,” CSCL: Theory and practice of an emerging paradigm, vol. 12, no. 4, pp. 18–19, 1996.[15] E. Lehtinen, K. Hakkarainen, L. Lipponen
majors, including Electrical and Computer Engineering students. Multiple factors contribute to retention issues, such as poor teaching and advising, the difficulty of the engineering curriculum, and lack of motivation resulting from poor connections to the engineering community. Statistics indicate a large drop in the continuation rate between the first and third years among Science, Technology, Engineering, Math (STEM) students. As students encounter increasing course difficulty in the early stages of their programs, they often lack motivation to persist because they have weak connections to their majors and potential careers in STEM. The Summer Interdisciplinary Team
Engineering and Mechanical Engineering Technology. Before starting his career in academia, Williamson served as a naval architect and electronics engineer for the Department of the Navy and received the Civilian Service Medal for his efforts during the first Gulf War. Dr. Williamson’s teaching, research, and publication interests span a range of topics including trans- port phenomena, metallurgy, thermomechanical stir processing, and university-K12 partnerships. He is a strong advocate for information technology literacy within public schools, He is the past Secretary and current member of the Board of Directors for the Commonwealth Center for Advanced Manufacturing (CCAM) which is a public-private partnership between
inequalities emerge across courses due to differences ininstructors’ skills, attributes, and attitudes, which range from pioneering creators to earlyadopters, to unwilling change-embracers [2]. It is evident that approaches to teachingengineering continue to evolve. The key question persists about how educators can overcome ourown new knowledge deficit to best help engineering students cultivate a growth mindset fornavigating technological disruptions, without inducing stress or anxiety about rapidly shiftingnorms.In this paper, we present initial findings on student attitudes toward the use of interpreted, high-level object-oriented programming languages such as Python [3] and R [4] in the problem-solving process within coursework. This study is part
for your unit?,” and “How does an engineer’s adaptability factor into promotiondecisions for your unit?” Coding was conducted following the abovementioned process bymultiple researchers and discussed among the research team to review results and ensureinterrater reliability after each coding cycle. The finalized codes were also compared acrosscompanies to identify similarities and differences in engineering managers’ views of the role ofadaptability in promotion and hiring.The conventions used for quotes in this paper are as follows: All names, belonging to theparticipant or otherwise, have been redacted and replaced with a generic placeholder, representedby brackets, to protect anonymity. The same was done for any other information which
increase engagement in science, technology, engineering, and math(STEM). Recent studies have made significant advances in unveiling LGBTQ+ inequities andmarginalization in STEM, such as disparate retention rates in STEM educational programs [1] andprofessional devaluation [2]. These emerging studies suggest that the LGBTQ+ community ismarginalized and that the LGBTQ+ community should be included in efforts to broaden participation inSTEM.Suitably, the number of grants awarded to study and support the lesbian, gay, bisexual, transgender,and queer (LGBTQ+) community in STEM fields has grown over the past few decades. For example, in2020, the NSF awarded the first-ever CAREER grant that explicitly included the acronym “LGBTQ” in theproposal title
Paper ID #33625Interventions to Improve Mentoring Over an Eight-Session Out-Of-SchoolWorkshop for High School Students (Work in Progress)Mrs. Katherine Dornian, University of Calgary Katherine is a Masters student in Electrical and Computer Engineering at the Schulich School of Engi- neering, University of Calgary. Their interests are in informal education and mentorship as ways to attract broader audiences in engineering.Prof. Laleh Behjat P.Eng., University of Calgary Dr. Laleh Behjat is a Professor in the Department of Electrical and Computer Engineering at the Univer- sity of Calgary. Her research interests include
in hand. In Problems of Education in the 21st Century, page 54. . [4] A.C. Burrows. Partnerships: A systemic study of two professional developments with university faculty and k-12 teachers of science, technology, engineering, and mathematics. Problems of Education in the 21st Century, 65(1):28–38, . [5] A.C. Burrows, M. DiPompeo, A. Myers, R. Hickox, M. Borowczak, D. French, and A. Schwortz. Authentic science experiences: Pre-collegiate science teachers’ successes and challenges during professional development. Problems of Education in the 21st Century, 70:59–73, . [6] A. Burrows, M. Lockwood, M. Borowczak, E. Janak, and B. Barber. Integrated stem: Focus on informal education and community collaboration through
PhD program, he completed several research fellowships in STEM education and technology design as UBC Public Scholar Initiative Awardee, Mitacs-Canada and UBC Go Global Scholar at the University of California-Los Angeles, University of Cambridge in England, and ETH-Zurich.Prof. Andre Phillion P.Eng., McMaster University Andr´e Phillion is an Associate Professor in the Department of Materials Science and Engineering and Director of the faculty’s Experiential Learning Office at McMaster University, Hamilton, Canada. His research interests focus on mathematical modelling and 3D imaging of engineering metals and their man- ufacturing processes. The main focus of the research is to experimentally investigate and numerically
ExperiencePurposeThe national effort to remain a leader in scientific exploration and technological developmenthas redoubled educational efforts to not only introduce students to the field of engineering atyounger and younger grade levels, but also to place more effort on retaining the students whoultimately choose engineering as a career path. As a result, more institutions are placing a highervalue on first-year engineering introductory courses, a key component of retention at theundergraduate level [1].However, with engineering being an incredibly broad field, there is relatively little agreementfrom institution to institution, and often from department to department within the same college,on the content and skills to address in a first-year course [2, 3
2006-996: UNDERSTANDING "DESIGN THINKING" IN THE CONTEXT OFEDUCATIONRichard Fry, Brigham Young University Richard Fry currently serves as the program chair in the Industrial Design Program in the School of Technology at Brigham Young University where he specializes in Product Design. Previous to entering the education field, he worked professionally in the areas of Appliance, Aerospace, Exhibit, and Home Fitness design. He received his MFA from University of Illinois at Urbana-Champaign in 1994. Page 11.1363.1© American Society for Engineering Education, 2006 Understanding “Design
with conventional education environments.Moreover, different from previous styles, cooperative learning also deeply enables theextension of individual abilities for a more advanced comprehension, sharing thoughtswith other learners and maintaining bidirectional interactions between learners andteaching staff, or among learners, without any disturbance to class contexts. It isexpected that the form and roles of distance education will rapidly emerge from theconventional methods and lead to some innovative approaches to provide feasiblyextensive options in educational processes, which are required to enable individuallearners to mentally or physically keep up with the changing times.Keywords: Cooperative Learning Mobile Interfaces
collect nationwidenarratives of attrition. This paper presents a novel method for studying attrition using the publicly-available online forum Reddit.com to collect first-hand accounts and authentic narratives ofattrition. These often- anonymous online discussions offer a unique view into the authenticthoughts of engineering graduate students considering leaving their program, throughout thedecision-making process. This paper proposes a method to efficiently collect and parse open-source information into coherent narratives across “posts” or “threads” of conversation using datamining tools. The underlying methodology developed is based on achieving a holistic view of thediscourse patterns and authentic narratives surrounding attrition, which in
a structure for learning about teams by analyzing their verbal processes.2. Managing Engineering DesignEGR 686 Managing Engineering Design is a graduate-level engineering course offered atNorthern Arizona University (NAU) through the College of Engineering and Technology as partof NAU’s newly created Master of Engineering program. The intent of EGR 686 is to introduceengineering students to the basics of design project management. It is specifically geared towardsthe activities of a front-line manager of a team of engineering designers. Page 6.966.1 Proceedings of the 2001 American Society for Engineering Education Annual Conference
Paper ID #43075A Work-in-Progress Study: Exploring Performance-Based Assessment in anInterdisciplinary Projects ProgramAbdulrahman Alsharif, Virginia Polytechnic Institute and State University Abdulrahman Alsharif is a research assistant for the Engineering Education Department and a PhD candidate at Virginia Tech.Dr. Lisa D. McNair, Virginia Polytechnic Institute and State University Lisa D. McNair is a Professor of Engineering Education at Virginia Tech, where she also serves as Deputy Executive Director of the Institute for Creativity, Arts, and Technology (ICAT).Dr. Mark Vincent Huerta, Virginia Polytechnic Institute and
AC 2011-311: EXPLORING SENIOR ENGINEERING STUDENTS’ CON-CEPTIONS OF MODELINGAdam R. Carberry, Arizona State University Adam R. Carberry is a Postdoctoral Research Associate in the College of Technology and Innovation, De- partment of Engineering at Arizona State University. He earned a B.S. in Materials Science Engineering from Alfred University, and received his M.S. and Ph.D., both from Tufts University, in Chemistry and Engineering Education respectively. His research interests include conceptions of modeling in engineer- ing, engineering epistemological beliefs, and engineering service-learning.Ann F. McKenna, Arizona State University Ann McKenna is an Associate Professor in the Department of Engineering in the
thingscannot be overemphasized, it is in the application of basic research that scientists and engineerscan come to an impasse. If this scenario is then clouded with a political extension, we have theproverbial sticky wicket to say the least. The question remains, “Who is best suited to oil thewicket for it to operate smoothly and with the least amount of wear and tear”? One solution lieswith the individual who is not only technically competent in the various aspects of the issue, butwho also possesses the interpersonal skills to mesh the necessary facets into a workable solution.Nowhere is the need for such an individual more critical than in issues concerning waterresources. The quantity and quality of water has emerged as one of the most critical
competitions,” in 2001 Annual Conference, 2001, pp. 6–699. [5] S. F. Kiefer and C. W. Somerton, “Benefits of mentoring students in design competitions,” in 2011 ASEE Annual Conference & Exposition, 2011, pp. 22–278. [6] S. Tenhunen, T. M¨annist¨o, M. Luukkainen, and P. Ihantola, “A systematic literature review of capstone courses in software engineering,” Information and Software Technology, vol. 159, p. 107191, 2023. [7] K. Doulougeri, J. D. Vermunt, G. Bombaerts, and M. Bots, “Challenge-based learning implementation in engineering education: A systematic literature review,” Journal of Engineering Education, 2024. [8] F. Firdausih and A. Aslan, “Literature review: The effect of project-based learning on student motivation and
object identification thantraditional visualization in time constricted setup environments. The system's potentialapplications include security monitoring, navigation and mapping aids, and interactiveeducational tools. Key challenges addressed include real-time data processing, algorithmicoptimization, and signal noise mitigation. Future research will focus on enhancing classificationprecision, improving computational efficiency, and adapting the sensor network to diverseenvironments and object types.Introduction Wi-Fi-based imaging has emerged as a promising technology for non-intrusive objectdetection, environmental mapping, and security applications. The ability to see into a room usingRF frequencies used by practically every device in