diverseengineering workforce, it is important to create a pipeline of diverse students who are interestedin engineering [1]. The Inquiry Driven Engineering Activities using Bioengineering Examples(IDEA-BioE) project was designed to engage secondary science and mathematics teachers inresearch focused on biomedical engineering and translate those experiences into modules thatteachers can implement in their classrooms.Surveys show that interest in engineering among pre-college students, especially girls andstudents from racial and ethnic minority groups, is often low (relative to other STEM fields suchas medicine), in part due to students’ lack of understanding as to what engineering is. Negativestereotypes of engineers (e.g., as “nerdy” or socially awkward
State University. He teaches laboratory courses, senior capstone, and manages the Materials Teaching Lab where MSE lab courses work, in addition to supporting student projects and researchers from multiple disciplines. All of his courses emphasize professional development using integrated instruction and practice in technical communication and professional skills provided by collaborators from relevant disciplines, and informed by his many years in industry. ©American Society for Engineering Education, 2025 Alumni Perceptions of Writing TransferIntroductionIn various ways, undergraduate engineering programs incorporate professional skill developmentinto their curriculum or
classroom space (e.g., active learning space) is used and utilized. This type of aggregatedobservation data could be particularly useful to enhance instructional space design (e.g., activelearning classrooms (ALCs)), as well as to support other systemic decision-making. In addition,instructors and teaching teams who want to use evidence-based approaches to improve theirteaching, can struggle when trying to make sense of observational data.As part of a multi-year research project studying instructor behaviour and tool use in a large-scale active learning classroom, we have gathered a large dataset generated from classroomobservations. We saw an opportunity to address the challenge of interpreting our data by buildingpractical, descriptive activity
demand for qualifiedengineers, first-year retention rates remain a significant challenge. This paper will explore howthe redesigned program addresses this challenge.Initially, a project-based Engineering 101 course was revamped in 2016 but showed limitedimprovement in retention rates, stabilizing around the mid-60% range. In 2021, the program wasfurther restructured into a comprehensive, multi-semester experience named the “ShockerDesign Experience," expanding its scope to include students of all majors.The redesigned program integrates the Kern Entrepreneurial Engineering Network (KEEN)Entrepreneurial Mindset framework, emphasizing curiosity, connections, and creating value [1],with Stanford d.school’s Design Thinking model [2]. This approach
translational research development, strategic planning, and implementation of major projects. Ms DeChant is a dynamic leader with 20+ years of experience in higher education, and earned her MBA at Case Western Reserve University, her MS in Cell Biology at Cleveland State University, and her BS at Ohio State University.Dr. Alyson Grace Eggleston, Pennsylvania State University Dr. Eggleston is an Associate Research Professor with Penn State Hershey College of Medicine and Director of Evaluation for the Penn State Clinical and Translational Science Institute. A graduate of Purdue University, she earned a PhD in Language Science with a focus on language effects in spatial cognition, large language datasets, and conducted
, outsidethe courses including ENGR 4801 Rapid Prototyping and Reverse Engineering as an extra-curricular activity, over a large span of years.Bust Case StudyThe subject of the first case is a U.S. Revolutionary War Hero – Robert Morris, the financier ofthe U.S. Revolutionary War. A plaster pattern used in making his statues was found in a storageroom and given to Carnegie Museum of Art for restoration. The museum decided to document itsstate, by working with the lead author. The author was given the task of 3D scanning the most ofimportant part (the top part – Figure 3) of the pattern which was later converted to a bust. Therestored pattern, however, was not scanned. The following parts of this section presents the workinvolved in the project
deep learning. Students achieve high speed and highperformance on heterogeneous cluster architectures, and apply them in multiple fields such asimage classification, speech recognition, and natural language processing, etc. The coursecurriculum balances theoretical concepts with hands-on labs and research projects, fostering bothanalytical and research skills.Course Design and StructureCourse Objectives:The primary objective of this course is to equip students with a comprehensive understanding ofhigh-performance computing (HPC) principles and the emerging paradigm of parallel-basedmachine learning and AI. By the end of the course, students will: 1. Understand the foundational principles of high-performance computing architectures and
Classroom: A Missing Piece in Transitioning Students from Academia to the WorkplaceIntroductionCurrent approaches to engineering education incorporate learning experiences to develop theproblem-solving, critical thinking, and interpersonal skills needed in the modern workplace.These skills are cultivated through increased exposure to real-world scenarios and challenges,and practiced during group projects, internships, and capstone experiences. While significantattention has been devoted to bridging the gaps between engineering theory and practice,classroom learning and workplace realities, and individual vs. teamwork, one crucial area thatremains under-recognized is the development of effective supervisor-subordinate
Technology Systems.Dr. Michael Preuss, Exquiri Consulting, LLC Michael Preuss, EdD, is the Co-founder and Lead Consultant for Exquiri Consulting, LLC. His primary focus is providing assistance to grant project teams in planning and development, through research and external evaluation, and as publication support. Most of his work is completed for Minority-Serving Institutions and he publishes regarding findings on a regular basis.Jorge Federico Gabitto, Prairie View A&M University ©American Society for Engineering Education, 2025 Creating Mixed Reality Lab Modules for a Chemical Engineering Fluid Mechanics Lab – Work in Progress
Paper ID #45584Shared Responsibility for Positive Societal Impact: An Interdisciplinary CourseDr. Jeffrey John Hatala, West Texas A&M University Dr. Hatala has most recently worked with faculty at different universities and in different disciplines (psychology and engineering) to develop and team-teach a interdisciplinary project-based team-based course for teaching the balance between design and societal impact on physical and emotional health on the local and regional levels.Celeste Arden Riley, Texas A&M University - Kingsville Dr. Celeste Riley is an Assistant Professor of Practice in the Department of
. in Educational Leadership with a focus on Organizational Management from Oakland City University, where she conducted research on collaborative advising processes to enhance student success in community colleges. Dr. Lollar has served in various leadership roles, including her tenure as Campus Director at Purdue Polytechnic Institute Columbus, where she fosters industry-academic partnerships and drives initiatives to expand educational access. She is actively engaged in research projects such as Building Rural Community Systems: Education to Employment Partnerships and Expanding Access to Economic Opportunities through Educational Success, collaborating with organizations like CivicLab and the Indiana Commission
hosting global design workshops. ©American Society for Engineering Education, 2025 One Week in Cape Town Clinics: Reflections from an Undergraduate Engineering Experiential Learning TripBackgroundLow-resource, Global Engineering Design Experiences for Engineers: Undergraduateengineering curriculums in the United States aim to equip graduates with a variety of technicaland nontechnical skills. These often include an awareness of global issues and an ability todefine and design within project-specific constraints. Often, the regimented curriculum of anengineering degree does not include the flexibility to include these as a degree requirement [1].In the case of global engineering education, its
University of Illinois Urbana-Champaign to meetthe specific needs of fundamental programming for engineering students. The new curriculumprioritizes teaching foundational programming concepts in lectures while providingengineering-focused applications in lab activities and mini-projects. New topics, such aspseudocode and debugging, were introduced in lectures to deepen engineering students’understanding of programming fundamentals and enhance adaptability to new programminglanguages. Homework and exams were restructured into computer-based assessments featuringauto-grading and randomized problem variations to encourage mastery learning. Bi-weeklymini-projects were designed to connect programming concepts and skills with practicalengineering
11 and 12) STEM education generally focuses on knowledge-basedlearning, yet this approach fails to reflect the dynamic application of STEM concepts in post-secondary and/or research environments. Consequently, many students graduate from secondaryschool with limited understanding of how STEM concepts are applied outside the classroom. Toovercome this challenge, advocacy is high for student-centered learning that immerses studentsin realistic STEM environments through hands-on experience, self-motivated learning, andinquiry-based projects. The Discovery Program was launched in 2016 with the dual objectives of providing (i)senior secondary school STEM students with immersive educational experiences and (ii)engineering graduate students
food-insecure student, Justin is eager to challenge and change engineering engineering education to be a pathway for socioeconomic mobility and broader systemic improvement rather than an additional barrier. ©American Society for Engineering Education, 2025 Engineering Persistence: Assessing Initiatives for First-Year Engineering StudentsAbstract This empirical research full paper describes a project aimed at increasing graduation ratesamong low-income, academically talented engineering students by implementing first-yearstudent initiatives. The project, supported by an NSF-SSTEM (National Science FoundationScholarships in Science, Technology
when working inan international setting. In this work, an international case study was developed for a quantitativeanalysis course as part of a broader research project investigating the relative strengths of globalengagement interventions without extended international travel in helping engineering studentsdevelop a global learner mindset. Therefore, this study aspires to expand research into thedevelopment of global competencies in engineering beyond international study-abroadexperiences. We focus on the development of a holistic and inclusive global engineeringeducation process that can reach all engineering students, even when institutions are not able toprovide extended opportunities to immerse them in other cultures, either because of
Education(CTE) programs. However, mere availability of 3DP is not enough for teachers to fully utilize itspotential in their classrooms. This project develops an EDP course tightly integrated with 3DP for preservice teachers(PST) who are going to enter the workforce in high schools. The approach is to dissect a 3Dprinter’s hardware, explain each component’s function, introduce each component’smanufacturing methods, describe possible defects, and elucidate what works and what does not.This allows the PSTs to develop a better understanding of 3D printing process, have a better ideaon how to fix a 3D printer when it breaks down, and design components that are compatible with3D printing. The 3D printing is also tightly integrated with the
, suggestingbetter team coordination by the end of the course. Students also showed increased autonomyand a stronger sense of belonging, and they valued peer feedback and small-team work more.However, the rise in stress associated with teamwork highlights the importance of integratingcollaborative skill development earlier in the curriculum.Keywords: Collaboration, Construction Engineering, Capstone Project, Teamwork skills,Sense of belonging, self-efficacyIntroductionThe construction industry faces significant challenges due to the complex andmultidisciplinary nature of its projects. Effective teams in this sector must coordinate varioustasks, from design to execution, often within dynamic and rapidly changing environments.However, recurring issues such as
participantengaged in a one-hour interview conducted via online video conferencing. The interviewprotocol focused on their motivations, challenges, and strategies for engaging in CoPs, as wellas the impact of these collaborations on their teaching practices and career development. Semi-structured interviews allowed participants to provide detailed accounts of their experienceswhile ensuring key topics were addressed consistently.Artifacts such as teaching materials, project proposals, and FII-related documents were collectedto contextualize participants’ engagement in CoPs. These artifacts offered additional insightsinto participants’ approaches to collaborative teaching and their contributions to FII projects.Collecting multiple data sources aligns with
ostensibly separate courses; • teaching a very high proportion of the technical content of the degree ‘in-house’ by the engineering department, as opposed to by mathematics and science departments; and • requiring a deep liberal arts core alongside an extensively project-based technical core. The current student population consists of approximately 25 students in the first cohort andapproximately 50 students in each of the subsequent cohorts [3]. At the time of this paper’s datacollection, there were 10 full time faculty in the department, two at the full professor rank, one atassociate rank, and seven at assistant rank. Seven of the faculty members were tenured or tenuretrack, and the other three were non-tenure track professors of
sustainablematerials alongside traditional materials. Specifically, a Sustainable Concrete term project wasdeveloped relating to the creative use of recycled materials in concrete. This project began aftermid-semester with extensive literature review for students to come up with the most interestingand novel idea. Then, students were engaged in research to design their Sustainable Concreteusing recycled materials, industrial wastes, and by-products. Students worked together in groups(a total of four groups with six students in each group) to perform all the steps of the projectfrom design to manufacturing and testing. Each group was also required to build laboratory scalesamples, conduct compressive testing, determine cost, and propose a real-world
) Special Interest Group [2].Faculty professional development can take a wide array of forms. These can include workshops,seminars, mentoring programs, and collaborative research projects [3, 5, 6]. For instance, theNational Effective Teaching Institute (NETI) is a three-day workshop that has been in placesince 1991 to help faculty members understand how to design instruction, integrate activelearning into their classes, and effectively assess learning [7]. Another example, Mentorship 360,is an effort undertaken between Arizona State University and other national universities, with thesupport of the Kern Entrepreneurial Engineering Network (KEEN), to allow all faculty membersthe chance to benefit from faculty mentorship [8]. Some faculty
University of Central Florida (UCF), where she teaches courses in the areas of system dynamics, controls, and biomedical engineering. Her current research interest is engineering education, with focus on blended learning, project-based learning, and digital and design education. Her educational research is supported by grants through the National Institutes of Health and the National Science Foundation. She has published several pedagogical journal and conference articles. She received the Excellence in Undergraduate Teaching Award in 2020 and 2024, and the Teaching Incentive Program Award in 2022 at UCF.Prof. Hyoung Jin Cho, University of Central Florida Professor Hyoung Jin Cho is the Associate Chair of the Department
1980s, ‘convergence’ has become a familiar term in conversationson science and engineering policy. This was, of course, a result of multiple factors that includethe rise of ‘Big Science’ projects such as the Human Genome Project, the digital revolutionacross a range of scientific disciplines, and the growing awareness of the interconnected natureof scientific, environmental, and social challenges. While the idea of convergence offers a general framework for the generation andintegration of knowledge that needs to exist beyond disciplinary boundaries, the initial emphasiswas on the overlapping areas of technological research among nanotechnology, biotechnology,information technology, and cognitive science [8]. In 2016, the U.S. National
existing modeling course, a modulewas developed leveraging a research project that employed community-engaged design to createthe world’s first parametric insurance product protecting the livelihoods and food security ofartisanal, small-, and medium-scale fishers in the Caribbean. In this article, we report details ofthe content of the module as well as assessments of student learning and feedback from studentswith regard to the value of the module to introduce concepts of community-engaged design. Inparticular, these results are discussed in the broader context of the United Nations SustainableDevelopment Goals, specifically the five Ps – partnerships, peace, people, prosperity, and planet.IntroductionThe criteria for accrediting engineering
identity construction in STEM learning spaces. ©American Society for Engineering Education, 2025 Engineering as Relational and Affective: High School Students Engineer for Their Community by Constructing a Community GardenAbstractWith a growing emphasis on integrating social, political, and technical dimensions in K-12 andundergraduate engineering education, this research investigates how high school students learnand engage in sociopolitical engineering by constructing a community garden. Using a relationallearning framework, the study examines students' experiences in a project called Ashford YouthCommunity Garden (AYCG), where students from a diverse urban high school collaborated withtheir peers, teachers
re-contextualize engineering science engineering courses to better reflect and prepare students for the reality of ill-defined, sociotechnical engineering practice. Current projects include studying and designing classroom interventions around macroethical issues in aerospace engineering and the productive beginnings of engineering judgment as students create and use mathematical models. Aaron holds a B.S. in Aerospace Engineering from Michigan and a Ph.D. in Aeronautics and Astronautics from the Massachusetts Institute of Technology. Prior to re-joining Michigan, he was an instructor in Aerospace Engineering Sciences at the University of Colorado Boulder. ©American Society for
records, both of which have large effects on learning outcomes [4]. Schön's theoryof reflective practice is closely related to metacognition [5]: Self-evaluation and Self-monitoringare common between reflective practice and metacognition, and both have large effects onlearning outcomes [4].This complete research paper is from a study of engineering student culture around mathematicalmodeling—but the study serendipitously led to findings about student mindset development.Namely, we find that students who participated in this research project experienced surprisinglearning mindset benefits. We attribute these benefits to the qualitative methodology used in theproject—sustained collaborative autoethnography. This report argues that there is a dual
interventions in the Fall of 2023, and we are now in the secondyear of the project. Most interventions have been rolled out, including pathways, articulation updates,course alignment for CS1, and community building. Since the implementation, we’ve seen a slightincrease in the number of transfer students from ELAC. Upon full implementation, we aim to see not onlya meaningful increase in computing transfer students from ELAC and other community colleges but alsoimproved post-transfer student success rates in the sequence courses at CSULA. The paper will presenttracked transfer rates, academic performance data in early programming courses, and a comparison ofoutcomes before and after implementing interventions.In parallel, our research aims to assess 1
leap, the exploration of Mars.’’The Artemis program hopes to land humans on the moon again by 2027 as a first step in the process.[1] While this enormously ambitious milestone is almost certain to be delayed, there is no doubt inthe seriousness of our nation (and other countries) in achieving this lofty goal soonest.Satisfying these programs and other aerospace-related efforts will require a substantial workforce.According to the US Department of Labor’s Bureau of Labor Statistics, aerospace engineering isexpected to grow at a pace of 6% from 2022 to 2032, above the average of all occupations. “About3,800 openings for aerospace engineers are projected each year, on average, over the decade. Manyof those openings are expected to result from the