Paper ID #28070Work in Progress: Peer-based Programming in Undergraduate EngineeringDr. Jennifer L Johrendt, University of Windsor Dr. Johrendt is the Assistant Dean - Student Affairs for the Faculty of Engineering and an Associate Professor in the Department of Mechanical, Automotive, and Materials Engineering at the University of Windsor. She holds degrees in Mathematics and Engineering from Queen’s University in Kingston (B.Sc., M.A.Sc.) and Mechanical Engineering from the University of Windsor (Ph.D.). She began a career in automotive research as a product development engineer at the University of Windsor/Chrysler
their engineering degrees. Scholarship accentuates the positive impact ofundergraduate research such as involvement in various student outcomes, encompassingperceived advancements in academic skills and a deepened understanding of engineering andresearch processes [10], [11]. For example, studies have comprehensively explored themultifaceted benefits of undergraduate research (see [12], [13], [14]). Seymour and colleaguesinclusive review synthesizes findings from numerous studies, emphasizing the positive influenceof UR on students' interest in STEM majors, career readiness, research acumen, critical thinking,disciplinary expertise, comprehension of the research process, insight into scientificmethodologies, and enhanced self-efficacy and self
seventh, eighth, and ninth grade revealed a trend that even withinSTEM, girls are less inclined to pursue engineering careers compared to traditional science-related paths [15]. The interdisciplinary approach of industrial engineering integrates conceptsfrom psychology, biology, and mathematics with engineering principles, which could bridge theinterest gap among female students. As Industrial Engineering and Ergonomics are lesser-knownareas within engineering, we aim to inspire students to explore the often overlooked discipline byhighlighting the breadth and potential of Industrial Engineering in optimizing various systemswith human-centered approaches, with the goal of contributing to a more well-rounded STEMexposure. The Extraordinary
for boththe R&D industry through a synthetic biology & laboratory skills pathway and abiomanufacturing and bioprocess pathway. These interrelated projects have evolved over time andare currently progressing simultaneously; each semi-autonomous piece provides a vital feedstockto our larger vision of the regional bioeconomy. We illustrate how these pieces affect thedevelopment of the workforce in the infographic in Figure 1.Generating Interest and Entering the PipelineThe foundation of our efforts lies in a regional effort to develop scientific literacy aroundsynthetic biology and interest in biotechnology careers. This effort started in 2019 when allbiology teachers from the Dobbins-Bennett High School in Kingsport, Tennessee, and
educator, lecturer, and Hip Hop activist, boasting an illustrious career spanning over 30 years. His tireless dedication revolves around empowering Black youth and championing African-centered perspectives. Founder of The Uhuru Academy, Baba Amin has pioneered a transformative educational experience deeply rooted in African culture and history. Beyond traditional academic realms, his influence extends to the community through podcasting and activism, drawing inspiration from influential Black leaders such as Malcolm X, Marcus Garvey, and W.E.B. DuBois. Baba Amin’s impact reaches into the realm of Hip Hop activism, utilizing the medium of conscious rap to advocate for social change. His commitment to cultivating
understanding of the desired endoutcomes. 2. Mentoring and Learning StageCISTAR. In addition to having an academic faculty and graduate student(s) mentoring the REMstudents on their research project, CISTAR leverages two Purdue engineering programs thatintroduce students to research: Summer Undergraduate Research Fellowship program(https://engineering.purdue.edu/Engr/Research/EURO/students/about-SURF) and the PathwaysScholar program (how a graduate degree can prepare you for different career pathways). Thus,the REM students are part of a wider research program with other undergraduates from acrossthe U.S. and from different countries. CISTAR hires, as well, several near peers who areengineering graduate students to help the REM students be
past few years as they have navigatedtheir promotion and/or tenure processes while carrying the primary responsibilities for the careand education of children who have been diagnosed with a specific learning disability (SLD).The accounts presented below is represented in the form of collaborative autoethnographyhighlighting the balancing act of working in their engineering departments and the inequitiesthese women faculty of color have faced in still meeting the demands of their careers whilejuggling motherhood. Since the authors are already underrepresented in engineering, they optedto remove their names and identifying information from the quotes used in the manuscript tominimize any work-related retaliation. The readers are cautioned
Paper ID #42169Board 244: Do DEI Efforts Count in Tenure Evaluations? An Experiment inTwo STEM fieldsDr. Damani White-Lewis, University of Pennsylvania Damani White-Lewis is an assistant professor of higher education in the Graduate School of Education at the University of Pennsylvania. He studies racial inequality in academic careers and contexts using theories and methods from organizational behavior and social psychology. His work has been funded by the National Institutes of Health (NIH), National Science Foundation (NSF), and has appeared in The Journal of Higher Education, Research in Higher Education, The Review
personality psychology from the University of Wisconsin–Madison in 2007. Prior to his career in psychology, he spent six years as a teacher, coach, and social worker. Chris is a second generation educator whose grandparents were tenant farmers in Iowa and Nebraska. He tries to emulate their hard work and persistence in the pursuit of social justice. One of his favorite childhood memories is eating his paternal grandmother’s homemade fruit pies with plenty of ice cream.Emma HuelskoetterMichelle Francis, University of Virginia ©American Society for Engineering Education, 2024 Motivation Loss in Math: Contributing Factors and ConsequencesAbstractSustaining student motivation in STEM education is
-identification[2] M. Kotche, “Clinical Immersion Internship Introduces Students to Needs Assessment,” presented at the 2016 ASEE Annual Conference & Exposition, Jun. 2016. Accessed: Jan. 18, 2024. [Online]. Available: https://peer.asee.org/clinical-immersion-internship-introduces- students-to-needs-assessment[3] M. Ong, J. M. Smith, and L. T. Ko, “Counterspaces for women of color in STEM higher education: Marginal and central spaces for persistence and success,” J. Res. Sci. Teach., vol. 55, no. 2, pp. 206–245, 2018, doi: 10.1002/tea.21417.[4] K. C. Thiem and N. Dasgupta, “From Precollege to Career: Barriers Facing Historically Marginalized Students and Evidence-Based Solutions,” Soc. Issues Policy Rev., vol. 16, no. 1, pp. 212
Paper ID #42757Understanding and Enhancing Student Engagement: Measuring Resources,Self-Assessment and Constructive Engagement In 1st-Year Engineering CoursesNavid Yaghoubisharif, Oregon State UniversityDr. Shane A. Brown P.E., Oregon State University Shane Brown is an associate professor and Associate School Head in the School of Civil and Environmental Engineering at Oregon State University. His research interests include conceptual change and situated cognition. He received the NSF CAREER award inDr. Natasha Mallette P.E., Oregon State University Dr. Natasha Mallette is a licensed professional engineer with expertise in
Paper ID #42158Unveiling the Crisis: Decoding the Working Conditions of Doctoral EngineeringStudents and the Call for Decent WorkMr. Rafael De Leon, The Ohio State University A current PhD student in engineering education at The Ohio State University, Rafael De Leon has spent much of his academic and professional career researching and analyzing energy technologies. He spent some time working at the National Energy Technology Lab (NETL) becoming familiar with how policy is influenced by engineers. His current research interests include graduate student working conditions and policy. He enjoys spending time with family and
their degree. Theproblem is compounded when there is a lack of realization that these students have manyresponsibilities outside of schoolwork (Tyson, 2012).Yet, these students still enroll in college and universities for multiple reasons. A study found thattypical non-traditional students expect to utilize college for career preparation and were lesslikely to be focused on the social scene (Forbus, Newbold, & Mehta, 2011). Another study citeda personal desire to complete what they started, being a role model for their children, and thefinancial incentives to improve their economic situation (Bohl, Haak, & Shrestha, 2017).Providing a meaningful undergraduate experience to non-traditional students will go a long waytowards enhancing
Space workforce, or ALLIES. Initially, the ALLIESpartnership was centered within engineering design classes at CPUT and UAH. Engineeringdesign tools and methodologies were shared as well as the establishment of a focus upon thedesign and development of Science, Technology, Engineering, and Mathematics (STEM) toolscreated by the CPUT and UAH engineering students. The STEM tools are intended to providekindergarten-through-grade-twelve (K-12) students, both in the United Sates (US) and SouthAfrica, an intuitive, hands-on learning experience in order to encourage the younger students topursue a STEM education and, ultimately, a STEM career. During the design process, theengineering design students visit the K-12 schools in order to incorporate the
objectives. Industries are demanding that an educationaltransformation be made to change how mechanical engineers, manufacturing engineers, andCNC machinists are learning the skills required to meet modern and future workforce needs.In fact, many jobs that young people are being trained for today may not exist or may besubstantially different by the time these young people enter the workforce. Industry 4.0 is a newera. Education must adapt to this new era for students to be successful in their future careers. Ifthe education ecosystem does not adapt, then the time to talent (time it takes for a recent graduateto become effective in a role) will continue to widen, impacting the profitability and viability of abroad range of industries.The objective
demographic groups, as students who identify as Asian,Black, and Multiple Races scored below their peers across the state.Albemarle High School (HS2), as per the 2022-2023 Virginia Department of Education’s SchoolQuality Profiles (HS2SQP), accommodates approximately 2,000 students and provides a diversecadre of educational offerings29,31. HS2 provides over 25 college-level courses and featuresprograms like AVID (Advancement Via Individual Determination) and the STEM (Science,Technology, Engineering, Math) Career Learning Community, open to all HS2 students as well asthose through the shared school division 29.Demographically, the student body at HS2 breaks down as follows: 49.4% White, 16.9% Black,18.9% Hispanic/Latino, 7.9% Asian, <1.0% Native
associatedleadership roles, both in academia and industry, which contributes to limited access to mentorshipin engineering that is inclusive and responsive to women’s needs [2]–[8]. When referring tomentorship throughout this paper, we adopt the operationalized definition developed by theNational Academies of Sciences, Engineering, and Medicine (NASEM), which describesmentorship as “a professional, working alliance in which individuals work together over time tosupport the personal and professional growth, development, and success of the relational partnersthrough the provision of career and psychosocial support” and contend also that mentorship is“essential to the holistic development of [engineers], including but not limited to developing astrong identity
anexample, one of the first assignments in our first engineering class - EGR 111 (Introduction toEngineering Thinking and Practice) - was a personal statement of what each student hoped to dowith an engineering degree and where they envisioned they would be after graduation. This wasnot an easy assignment but one that we would give back to students on graduation day (nearly 4years later). Similar visioning assignments like an Independent Development Plan (IDP) wouldbe part of the curriculum too and would continue to be improved by the founding faculty team(e.g. Melissa Kenny, Kyle Luthy, Kyana Young, Courtney DiVittorio). Ethical Leadershipassignments and Career Readiness assignments in capstone design, etc. Figure 3: Some of the
designed to support their educational experiences). This research showsthat CSt face three main challenges: time constraints, lack of knowledge of available resources,and lack of availability of affordable child care. Assets of CSt include their increased motivation,organizational skills, and patience; these assets may be responsible for the higher GPAs that CSthave relative to their peers.As outlined above, none of the studies included in this review focused specifically on engineeringstudents. One study, which involved students from a variety of areas of study, consisted of 23%engineering students; [32] another study involved students studying the built environment [13] (aninterdisciplinary field appropriate for students considering careers in
to past students who participatedin a senior-year fluid mechanics course during spring semesters spanning 2019-2022 and wereengaged in a semester-long multidisciplinary service-learning project. The objective was toassess their current perception of the impact of the assignment, after several years have passedand they have moved into their professional careers (long-term impact). We also examined howthe opinions of all participants as a group may have evolved from when they were students tonow as working professionals. We compared their recent group responses with reflections theycompleted during the course (short-term impact). Class Setting The Fluid Mechanics course, part of a midsize university's Mechanical
’ educational careers [5], it behooves programs to take advantage of the data available tothem in order to better understand the unique backgrounds and needs of students as they navigatethrough the curricula.Accordingly, engineering education researchers have identified many factors that predictengineering students’ academic success [6]–[8]. To build power and generalizability, someanalyses have aggregated data across multiple engineering programs and institutions, such asresearch using the MIDFIELD database [9]. While these generalized insights have valuablecontributions for the engineering community and its subdisciplines, there is also value incontextualizing analyses within specific programs, since departmental culture, studentcomposition, and many
transdisciplinary,holistic, and problem-solving abilities [18]. Research indicates that incorporatingdesign thinking into engineering education yields several positive outcomes, includingenhanced creativity, sustainability, and career readiness[19]. Furthermore, it has beenshown to improve students' leadership, algorithmic, entrepreneurial, and criticalthinking skills, fostering a culture of design and creativity [20]. Graham’s studyshows [21] design thinking enhances empathy, entrepreneurship, emergingtechnologies, material science, collaboration, and a human-centric focus.Traditionally, engineering education has heavily focused on critical thinking withintechnical realms, nurturing students' proficiency in managing tasks [22]. In contrast,design thinking
Paper ID #44090Board 85: Work in Progress: Asset-Driven Equitable Partnerships (ADEP inPractice)Dr. Kenneth A Connor, Inclusive Engineering Consortium & Rensselaer Polytechnic Institute Kenneth Connor is Program Officer at the Inclusive Engineering Consortium (IEC), whose mission is to enable MSI ECE programs to produce more and better prepared graduates from groups that have been historically underrepresented in ECE careers. He is also an emeritus professor in the Department of Electrical, Computer, and Systems Engineering (ECSE) at Rensselaer Polytechnic Institute (RPI) where he taught courses on electromagnetics
through the continuingprofessional education of university teaching staff.In short, thinking about the way of teaching has been the product of research andexperiences that show the need to focus on training to scale up or improve student retentionpractices and inter-and transdisciplinary views of the specificity of a field in relation towhat surrounds it.We have varied antecedents in Latin America that show that in recent times, engineeringhas had little growth because these careers are perceived as very long and difficult, addingto the fact that the initial years have become more difficult for those who join these careers[21]. Therefore, thinking about teaching would give us the possibility of providing areflective look at the practice that
looking for technically skilled professionals andindividuals with strong leadership abilities. Leadership in engineering is the ability to guide,motivate, and influence a team of professionals toward achieving goals and objectives. TheEngineering School of a University in Chile needs to understand the self-perceived skills of itsstudents, especially those in the final years of their engineering programs. This will help thefaculty prepare future professionals for team management, decision-making, and otheressential skills required in their careers. The School can align their graduation standards withthe career profiles of the students to ensure they are well-equipped to succeed in theirprofession.Numerous studies have suggested that there is a
engineering education, pp. 1–17, 2010 Available at: https://files.eric.ed.gov/fulltext/EJ1076158.pdf.[2] K. Mattern, J. Radunzel, and P. Westrick. “Development of STEM Readiness Benchmarks to Assist Educational and Career Decision Making.” ACT Research Report Series, 2015 (3). ACT, Inc., 2014[3] A. Sithole, E. T. Chiyaka, P. McCarthy, D.M. Mupinga, B.K. Bucklein, and J. Kibirige. “Student Attraction, Persistence and Retention in STEM Programs: Successes and Continuing Challenges”. Higher Education Studies, 7(1), pp.46-59, 2017[4] E. R. Kurban, and A. F. Cabrera. “Building readiness and intention towards STEM fields of study: using HSLS: 09 and SEM to examine this complex process
, after which theauxiliary material gets elbowed out to address new technical developments, external pressures,and so forth. We are, however, conscientious about both the reason to spread this work out andthe how to sustain it.For the former, as faculty who advise all the students in our programs—with each of whom wemeet no less than three times each year (no less than once per quarter, typically two or threetimes) just for advising—we are familiar with many students’ tendency to identify what theyconsider throw-away courses. These are required courses that many students do not perceive asessential to their career. And because we cannot teach our major courses more than once peryear, it is sometimes justifiable for a student to leave these
rewarding, challenging, andessential component of research and serves as a primary indicator of academic success [1];however, it requires considerable effort, consistent feedback, and practice to develop and sustainthese skills [2], [3]. Strong writing skills are beneficial to students’ careers and enhance theircompetencies [3]. There is a particular gap for graduate students who are non-native Englishspeakers, as they often have limited opportunities to learn technical writing skills, especially in aresearch environment. Studies have revealed that many graduate students lack knowledge aboutmanuscript writing and are unfamiliar with issues like scientific misconduct [4]. Additionally,many students lack awareness of manuscript structure and the
Paper ID #49758Work in Progress: A two-way learning street: Near-peer college studentsenhance high school after-school STEM club opportunitiesMr. Ernest David Cartwright Sr., Marshall University As the oldest of four in a single-parent household near Dayton, Ohio, my upbringing instilled a deep sense of responsibility and resilience. Growing up, I developed a passion for math and science, which shaped my academic pursuits and guided my career path. I earned my Bachelor’s and Master’s degrees in Mechanical Engineering from the University of Dayton, where I honed my analytical and problem-solving skills. I then worked for
classifications where I learned the different types and uses for differentships in the world and the US. As someone who started with no knowledge on this industry, Ifelt I finished the course with a better concept of the shipbuilding industry… Apart from learningabout ship organization internationally, I learned about some tools that I had seen in theory incourses previously taken. This course showed how these tools are used to schedule, manufacture,and supervise shipbuilding. Overall, I felt this course to be helpful in both, providing a goodcontext of shipbuilding for anyone interested in pursuing careers related to it and in explaininghow management tools are used to prepare anyone interested in pursuing other managementcareers.” Although anecdotal in