thermodynamics and fluid mechanics courses. Her research interests include the use of natural rubber in medical devices and engineering education.Dr. Ann D. Christy P.E., Ohio State University Ann D. Christy, PE, is a professor of Food, Agricultural, and Biological Engineering and a professor of Engineering Education at the Ohio State University (OSU). She earned both her B.S. in agricultural engineering and M.S. in biomedical engineering at OSU, and her Ph.D. in environmental engineering at Clemson University. She worked for an engineering consulting firm before entering academia and continues to collaborate with the consulting industry. She has taught courses in bioenergy, biological en- gineering, capstone design, HVAC
or fail to become engineers. Her research interests include utilizing a discipline-based focus to explore the professional identity formation of undergraduate civil engineering students and the in- and out-of-class experiences that shape these identities. She is also interested in the application of Grounded Theory and other qualitative methods to gain a nuanced understanding of individual student experiences. Dr. McCall’s current work includes an NSF-funded project examining the professional identity formation of undergraduate students with disabilities.Dr. Marie C Paretti, Virginia Polytechnic Institute and State University Marie C. Paretti is a Professor of Engineering Education at Virginia Tech, where she directs
Paper ID #30058Developing the ESLS - Engineering Students Learning Strategies instrumentDr. Sreyoshi Bhaduri, McGraw-Hill Sreyoshi Bhaduri leads Global People Analytics at McGraw Hill - where she works on projects leveraging employee data to generate data-driven insights for decisions impacting organizational Culture and Talent. Sreyoshi has an interdisciplinary expertise having earned her Ph.D. in Engineering Education from the College of Engineering at Virginia Tech and Masters degrees in Applied Statistics and Mechanical En- gineering. Her research interests include women in technology and industry, studying the impact
outside theirmajors.One way to promote engineering and liberal arts is to use projects with an innovative andentrepreneurial emphasis.32 Students are challenged by big questions that are open ended andthat allows them to pursue creative solutions, typically in capstone projects. This helps studentsto see their engineering education in the global context.Another way to integrate engineering and liberal arts is to develop minors such as “TechnologyManagement and Policy” that is available at the University of Virginia.33 As an interdisciplinaryminor, it is open to all undergraduates. This program helped engineering students find relevantliberal arts courses that are a vital component of a professional study. If these courses areimportant for a minor
academics first and everything else last”), in addition to their courses having very little socialcontext. This may be indicative of a typical problem in engineering education – first-yearcourses are interesting and project-based, but then in the second year, all the intense prerequisitesmust be taken, which limits students’ abilities to engage with social issues within or outside theircourses. Additionally, some students chose to be more involved with sororities or sports teams Page 26.643.6rather than volunteer groups, and their schedules did not allow for both activities.Table 2: Demographics of Students Interviewed and EPRA Survey Results
Paper ID #30624Leaving Civil Engineering: Examining the Intersections of Gender,Disability, and Professional IdentityDr. Cassandra J. McCall, Virginia Tech Dr. Cassandra McCall is a post-doctoral researcher in the Department of Engineering Education Vir- ginia Tech. Her primary research interests include professional identity formation in undergraduate civil engineering students, grounded theory methods, and theory development. Currently, she is principal in- vestigator on an NSF sponsored project exploring the professional identity formation of civil engineering students who experience disabilities. In particular, she is
to be more efficient in my time management. It reallyhelped that our advisor gave clear weekly targets and expectations.One such experience about time management sticks out above the rest: there was a week when Iwas waist-deep in work on my Capstone project. I was tasked with 3D modeling a motor box fora rotating wire system. Creating the 3D models for this design ate up most of my time that weekand I still needed to get my responsibilities done for the research. To help get my work done thatweek I had to create a schedule for myself on which times I would allocate solely for research.Creating this schedule helped me be more on track for the tasks I had been assigned that week aswell as a continued time frame that I would always put towards
engineering degree programs.Undergraduate engineering curricula include engineering ethics through specialized courses andprogram-wide integration. While some engineering programs embed one stand-alone ethicscourse within a curriculum, other programs embed ethics modules across a few courses within acurriculum. Very few engineering programs weave engineering ethics across a four-yearundergraduate curriculum in a concerted and developmental way [7]. Engineering ethics taughtin stand-alone courses is usually offered within the first two years of study [4]. According toDavis [6], several engineering programs also embed ethical modules into technical writing andcommunication seminars, senior capstone projects, and introduction to engineering courses
experience is limitedto a single capstone project undertaken in their final year [13-15]. Despite the fact that engineering and scientific knowledge has grown at an astonishing rate overthe past century, engineering still only nominally requires 4 years of training (i.e., a bachelor’s degree) tobe able to enter and operate in the engineering workforce. For comparison, the number of years oftraining needed to practice law has increased from 4 to 7 and to practice medicine has increased from 3 to10 over the same time period. Given the breadth and depth of the technical knowledge students need tomaster, there are very few opportunities to incorporate additional non-technical material into mosttechnical courses, especially the engineering
a necessity. This is especiallytrue in STEM disciplines, where students often need to work in diverse environments upongraduation. Studies have demonstrated that STEM students find it challenging to work with adiverse population. This is juxtaposed with the reality that over 50% of STEM employers preferto hire interculturally competent graduates. As such, national agencies and higher educationinstitutions have been urging STEM faculty to integrate intercultural competence into thecurriculum. Through this study, we intend to showcase the integration of interculturalcompetence concepts in a first-year cybersecurity classroom. The pedagogical framework for thecourse is project-based learning. The Intercultural Knowledge and Competence (IKC
professions. Estell is Professor of Computer Engineering and Computer Science at Ohio Northern University, where he currently teaches first-year programming and user interface design courses, and serves on the college’s Capstone Design Committee. Much of his research involves design education pedagogy, including formative assessment of client-student interactions, modeling sources of engineering design constraints, and applying the entrepreneurial mindset to first-year programming projects through student engagement in educational software development. Estell earned his BS in Computer Science and Engineering degree from The University of Toledo and both his MS and PhD degrees in computer science from the University of
traditional curriculum (Applied statistics for research, Datascience foundations, and one DS Elective) with the aforementioned advanced undergraduate courses,streamlining the academic path for students interested in a quicker progression toward a Master’s in DataScience.As in the two-year program, 4 + 1 students undertake a comprehensive capstone project spread across twosemesters, during which they engage in extensive research, write a detailed treatise, and present theirwork, showcasing their mastery of Data Science concepts and methodologies.F. Minor and Related ClassesIn addition to the undergraduate and graduate programs, we also have developed a Data Science minor.The Data Science minor provides students with the necessary analytical skills to
Paper ID #47660Characterizing student adoption of generative AI in technical communicationcoursesProf. Angela Lai, Tufts University I am a current Assistant Teaching Professor in the Department of Biomedical Engineering at Tufts University. I am involved in mentoring students in both the laboratory and in the classroom and am the program director for the capstone for seniors and engineering design process for juniors.Prof. Kavon Karrobi, Boston University Kavon Karrobi is a Lecturer in the Department of Biomedical Engineering, as well as the Manager of the Bioengineering Technology & Entrepreneurship Center (BTEC) at
possible and even compelling [9, p. 4].There are numerous examples of innovative, interdisciplinary, first-year engineering courses thatalso motivated our curriculum development. Some utilize project-based learning strategies tohelp establish an understanding of the nature and limitations of engineering models [11]. Someembrace role-play as a way to demonstrate the importance of context and perspective in defining,to say nothing of solving, sociotechnical problems [12]. Yet others have an explicit focus onethics, having students grapple with real-world engineering ethics problems [13]. All of thesecourses prioritized communications and teamwork, and created opportunities for empathybuilding.3. Course overviewMaking the Modern World challenges a
Paper ID #11690A Cross-Sectional Study of Engineering Student Perceptions and ExperiencesRelated to Global ReadinessDr. Sarah E Zappe, Pennsylvania State University, University Park Dr. Sarah Zappe is Research Associate and Director of Assessment and Instructional Support in the Leonhard Center for the Enhancement of Engineering Education at Penn State. She holds a doctoral degree in educational psychology emphasizing applied measurement and testing. In her position, Sarah is responsible for developing instructional support programs for faculty, providing evaluation support for educational proposals and projects, and working
26 30–60–minutequalitative interviews during the 2023 Fall semester to understand the students’ institution–specific experiences of inclusion and exclusion. Additional interviews with students, faculty andadministrators will be conducted during the 2024-25 school year.During this project, five student research assistants conducted semi-structured interviews withtheir fellow students. The interview data collected was analyzed and used to help createsuggestions for practices that might lead to a diverse and inclusive culture in our newmakerspace. By discovering what individual students and stakeholder groups value and expect ofan inclusive makerspace the research team was able provide guidance to campus leaders and themakerspace director to
courses in Sustainability, Humanitiesand Social Sciences, Ethics, as well as soft skills such as writing, communication and teamwork.7,8,9 Strategies for pedagogical reforms included cornerstone and capstone courses, projectand problem-based learning, active participatory learning opportunities, instructionallaboratories, learning a second language, and foreign country internships.10,11,12,13Nevertheless, most engineering education programs continue to emphasize the technical aspects,while the social and environmental aspects remain externalized.14 Barbara Olds15 notes that “theeducation of science and engineering students has for too long been merely “technical”, oftenneglecting human complexity in order to achieve quantifiable correctness
engineering education, including a Statics workbook for undergraduate engineering students. She is the Director of Innovation Programs and Operations for the non-profit research collaborative, Ad- vancing Engineering Excellence in P-12 Engineering Education. Dr. Gurganus teaches several first and second year Mechanical Engineering classes along with the Mechanical Engineering Senior Capstone design course for UMBC. American c Society for Engineering Education, 2021Assessing Engineering State of Mind of First Year Undergraduate African American/BlackStudents in Scholar Programs (Work-in-Progress)Abstract Research shows there are various internal and external
questions Q1-4 and Q9 and is associated withsetting up goals, starting projects, and working/managing others. Factor F3 involved questions Q5,Q7, and Q8 and is associated with direct influence over a team or community. Factor 4 (Q17-19)focused the professionals’ self-efficacy towards affecting their community.3. Results3.1 EFA results Due to the low sample size of 25 usable professionals’ entries after the data imputation, EFAwas not ran on the professionals’ responses. Moreover, the Central Limit Theory for theassumption of normality is not applicable; hence non-parametric tests had to be conducted. Instead,the factor distribution from the student data was used, and further analyzed, when analyzing theprofessionals’ responses, see Table 3 of
male faculty member each year since its inception in 2011. He joined the institution in2011 after nearly fifteen years in the electronics industry.The course draws a lot of comparisons to our two-semester senior design sequence. However,there are significant differences between ECE490 and our capstone design classes. First, unlikesenior design, ECE490 has a single course objective: Students will be able to apply theengineering design process. Second, it is a truly multi-disciplinary class, and in ECE490engineers of all majors (bio, civil, computer, electrical, and mechanical) work on multi-disciplinary teams developing solutions to real world problems.One of the most significant differences between ECE490 and the senior design sequence is
decisionsabout scientific and technical training.The author has previously presented a design paradigm based on a morally deep worldview.3,4After teaching this methodology to several capstone design classes, it seemed important to addseveral additional elements to the design process. That which seemed missing occurred at theoutset and at the conclusion of the process including: (1) a beginning with an open mind freefrom pre-conceived notion, biases and prejudices; (2) an explicit challenge to the designer toconsider the plight of the Earth; and (3) an exploration of the values and purposes associatedboth with the design and the designer. The challenge at hand then is to bring these three newelements into the morally deep design paradigm already
location on the ambiguity spectrum.The National Science Foundation (NSF) has funded a three-year project to study this importantintellectual development of students in a typical STEM curriculum. Cross-sectional andlongitudinal studies of STEM students as well as non-STEM students at a Historically BlackCollege are being conducted to measure the influence of the current curriculum in context of theconstructs of tolerance of ambiguity, intellectual mental models, and STEM identity.This work-in-progress paper shares some preliminary results of the baseline data that has beencollected during the first year of the NSF-funded project.MethodThe participants of this within-subject and between-group quasi-experimental study are studentsof a Historically
, where she directs the Vir- ginia Tech Engineering Communications Center (VTECC). Her research focuses on communication in engineering design, interdisciplinary communication and collaboration, design education, and gender in engineering. She was awarded a CAREER grant from the National Science Foundation to study expert teaching in capstone design courses, and is co-PI on numerous NSF grants exploring communication, design, and identity in engineering. Drawing on theories of situated learning and identity development, her work includes studies on the teaching and learning of communication, effective teaching practices in design education, the effects of differing design pedagogies on retention and motivation, the
courses. Other applications have included constructing structuralmodels for structural design and capstone courses. This paper takes this use of classroomtechnology even further by demonstrating how K’nex pieces can be used effectively in an upper-division, highly technical structural dynamics / seismic design course.K’nex pieces consist of various rods and connectors as shown in Figure 1. The rods areingeniously sized such that right triangles are naturally formed. While one size of rod forms thesides of a triangle, the next size up forms the hypotenuse. The pattern continues as the rodschange colors and triangles get progressively larger. The connectors allow rods to be joined at45 and 90 degree angles in various configurations. Some connectors
, subject to areview of academic progress and financial eligibility. Some students were offered less than twoyears of support due to limited availability of project funds near the end of a grant period, and asmall number of students left the program.Activities. All S-STEM program activities were run or coordinated through the CoE’s EventsOffice with assistance from the Diversity Programs Office (DPO). The mission of the DPO is toprovide academic and non-academic support to increase enrollment, retention, and graduationamong under-represented minorities and women, but DPO services are available to all CoEstudents. The DPO collaborates with the university’s Learning Resource Center (LRC) toprovide academic support services and essay writing support
During the summer of 2023, at the University of Cincinnati, 48 students attended the Men ofColor high school engineering camp. This camp involved work with students who identified asbeing African American/Black Asian, Hispanic/Latinx, and/or mixed races. The majority ofparticipants self-identified as Black and only one student as white. These students wereimmersed in a week-long experience wherein they toured campus facilities, spoke with industryprofessionals, toured local engineering companies, and completed hands-on STEM andcommunication activities. The week culminated in a final presentation on Friday where families,partners, and staff were invited to view capstone presentations where participants presented theirvision of a prompt: The
. He has published 16 papers in peer-reviewed journals, 28 papers in peer-reviewed conference proceedings, and given 12 technical presentations on various topics including: additive manufacturing, mechatronics, biomechanics, and engineering education. He currently teaches the Engineered Systems In Society, Mechanical Engineering Professional Practice, and Capstone Design I and II courses. ©American Society for Engineering Education, 2024 Exploring the Impact of Study Sheets on Students' Performance in an Engineered Systems in Society CourseAbstractThe purpose of this study is to investigate the impact of study sheets on second-year engineeringstudents' performance in an
Paper ID #47777Work-In-Progress: The Intersection of Neurodivergent Identity, Creativity,and Innovation among Engineering StudentsDr. Azadeh Bolhari, University of Colorado Boulder Dr. Bolhari is a professor of environmental engineering in the Department of Civil, Environmental, and Architectural Engineering (CEAE) at the University of Colorado Boulder. She specializes in teaching the fate and transport of contaminants as well as capstone design projects. Dr. Bolhari is passionate about community-based participatory action research. Her research interests lie at the intersection of engineering and social science, focusing
Geneva, working on the West Area Neutrino Facility and North Area 48. Since then Jo˜ao has held several positions in teaching and management in higher ed- ucation at institutions across the UK, Middle East, Africa and Asia. At Leeds Becket University, Jo˜ao specialised in teaching Mobile and Fixed Networking Technologies and introduced compendium-based teaching practices and led the design and implementation of the first Mobile and Distributed Computer Networks postgraduate course in UK. Jo˜ao authored and managed a European Social Fund Project in Women in Engineering contributing to widening participation and inclusion of women engineers, developed and ran world-class innovative aca- demic practice methods in
), and students can select from the course catalog that addresses a number oftopics such as, data ethics, entrepreneurship, laboratory life, for example. These courses useapproaches aligned with the humanities and social sciences to further investigate the social andethical issues related to engineering and engineered artifacts. In their fourth-year all engineeringstudents take a yearlong course sequence in both their fall and spring semesters. This is wherethey learn about STS theories, consider various ethical frameworks and apply these concepts totheir own research topics. A graduation requirement is for all students to generate a writtenportfolio that includes a report on their technical capstone project and STS research paper thataddresses