knowledge to practicalchallenges but also gain hands-on experience in data science and tool development. Theseprojects help students see how their work directly affects communities, industries, and theenvironment, offering invaluable insights into both the technical and human-centered aspects ofinnovation.The Smart Microscope Project (with Dr. Aravindhan Sriharan, Dermatopathologist andProfessor of Pathology and Laboratory Medicine, Dartmouth) exemplifies how students learnedto bridge the gap between traditional workflows and modern technological advancements. Whileworking on this project, students explored the fundamentals of medical diagnostics and thelimitations of traditional microscopes on telepathology. They then applied data science to
laboratories, automotive, energy,aerospace, and NASA. In the comments section of the survey, many reflected on the impact of their REUexperience, describing it as “a wonderful program that opened many doors to my career”; “incrediblyimpactful… many opportunities in networking and career development have been especially beneficial tome”; “REU was honestly one of the best parts of my undergrad for so many reasons…growing up shy andunconfident, the position helped me build confidence, interact with peers from other schools and helped mefeel much more confident when applying for first jobs in my career…”; “Honestly, I had a wonderfulexperience in the program and I wouldn’t have even been interested in research if I didn’t do this program!I’m in the
recruitment.OutcomesThe REU Site was funded in March 2023 with the first cohort of students welcomed on campustwo months later. We have since implemented the project fully in summer 2024. Across thetwo cohorts, the project engaged 20 undergraduate students (17 were not currently enrolled atour university) from a variety of majors to work on research quesƟons in the fields of civil,environmental, and geodeƟc engineering. The student cohort diversity increased across theprogram years with the 2024 cohort having gender parity, one student from a Historically BlackCollege and University, and two students from Puerto Rico.The key acƟvity of the REU Site was the 9-week immersive research experience in whichparƟcipants worked in Faculty Mentor laboratories under the
Engineering Coursework on Biomedical Engineering Students’ Career Expectations and Goals.BackgroundBiomedical Quality Engineers (QEs) are oftentimes the last line of defense to ensure the safetyand reliability of crucial medical devices. Their biomedical engineering (BME) backgroundequips them with a cross-disciplinary education that traverses topics like instrumentation,biomechanics, and laboratory skills. This foundation creates a flexibility in cross-functionalteams that few other engineers have, making them the ideal Quality Engineer in the medicaldevice industry [1]. We define Quality Engineering careers according to the job titles theAmerican Society for Quality consider Quality Engineering, such as
Laboratory in St. Paul, Minnesota. He received his B.S. in mechanical engineering from Michigan State University. Dr. Johnson received his S.M. and Ph.D. from the Massachusetts Institute of Technology. Dr. Johnson’s research focuses on production economics, engineering education, and design tools. Dr. Johnson has over 100 peer reviewed publications and several patents. His research has been funded by the National Science Foundation, the Department of Energy, and industry.Glen Miller ©American Society for Engineering Education, 2025ER2: Preparing High School Teachers to Introduce Engineering Ethics Ideas Vandna Krishnan, Amarnath Banerjee, Bimal Nepal, Michael Johnson, and Glen Miller
scholarships.While recruitment efforts continued, more opportunities to connect with industry partners andpeer mentors were offered in Year 2 of the program (2024). In April 2024, IMMERSE in STEMscholars had the opportunity to go on a tour of Dexterity, a start-up that designs robotics systemsfor shipping and other logistics industry companies. They also had a chance to visit SLACNational Accelerator Laboratory in May 2024. These field trips were enriching experiences, witha scholar commenting in a feedback survey “The most helpful was finding more activities such asthe Dexterity field trip. It was so exciting and seeing what I could do around my field.”.In Spring 2024, peer mentoring events were organized, including a campus tour organized byscholars from
in STEM academia. Her research centers on the creation of optimal higher education policies and practices that advance faculty careers and student success, as well as the schooling experiences of Mexican-descent youth in the mid-20th century.Dr. Comas Lamar Haynes, Georgia Tech Research Institute Comas Lamar Haynes is a Principal Research Engineer / faculty member of the Georgia Tech Research Institute and Joint Faculty Appointee at the Oak Ridge National Laboratory. His research includes modeling steady state and transient behavior of advanced enDr. Billyde BrownRay Phillips, American Society for Engineering Education ©American Society for Engineering Education, 2025 NSF
. Ruibal-Villasenor, D. Rosengrant, R. Jordan, and C. E. Hmelo-Silver, “Design and Reflection Help Students Develop Scientific Abilities: Learning in Introductory Physics Laboratories,” J. Learn. Sci., vol. 19, no. 1, pp. 54–98, Jan. 2010, doi: 10.1080/10508400903452876.[8] S. Sheppard and Carnegie Foundation for the Advancement of Teaching, Eds., Educating engineers: designing for the future of the field, 1st ed. in The preparation for professions series. San Francisco, CA: Jossey-Bass, 2009.[9] S. I. Pinto and S. M. Zvacek, “Cognitive apprenticeship and T-shaped instructional design in computational fluid mechanics: Student perspectives on learning,” Int. J. Mech. Eng. Educ., vol. 50, no. 1, pp. 51–77, Jan. 2022, doi
effective laboratory techniques. (safety training prior to lab sessions: glassblowing, potter’s wheel, pug milling, stained glass, scanning electron microscope) 9-12.P.1.1 Students will be able to use the Periodic Table to determine the atomic structure of elements, valence number, family relationships, and regions (metals, nonmetals, and metalloids). (use concept of electronegativity to predict which elements would be expected to form ceramics) 9-12.P.1.3 Students will be able to predict whether reactions will speed up or slow down as conditions change. (use the role of particle size as it relates to the concept of sintering of ceramics) 9-12.P.1.5 Students will be able to distinguish among chemical, physical, and nuclear changes. (use the
theresearch. This concise structure allowed students to quickly integrate into the program whileminimizing information overload.2.1.2 ProjectFor the following nine weeks, small mentoring groups were formed, with five faculty advisorseach working with a team of 2-3 students. 2 graduate students served as project coordinators aswell as near peer mentors. The students divided their work hours between a common laboratoryshared with the rest of the cohort and their advisor's laboratory, where they collaborated withtheir advisor's research groups. Intentional Strategies to improve teamwork and collaborationwere implemented, such as: • Collaboration: Students worked in teams, balancing collective tasks with individual contributions. Additionally
multiple opportunities to presenttheir research progress throughout the summer toexperts in the field. They also received professionaldevelopment training on research ethics, technicalcommunication, and launching careers in systemsbioengineering. Figure 1 shows a summary of theactivities in a typical summer. For two summers (2020 & 2021), the program was run as a completelyvirtual REU due to institutional constraints on visiting researchers due to the pandemic, as the nature ofsystems bioengineering and BDS research enables it to be conducted outside a laboratory setting. Toassess the program each year, we analyzed participant demographics, outcomes in presenting andpublishing their work, career outcomes, exit interviews, and anonymous survey
Center for Signal Integrity and CentralPennsylvania Research and Teaching Laboratory for Biofuels.2. S-STEM Student Support Services and ProgramsThe project aims to build off the current PSCC infrastructure and enhance the scholars’opportunities for social and academic integration and student-faculty interactions through a focuson four key components (S.T.E.M.): Scholar Support; Team-Based Cohorts; EngagementActivities; and Multi-Level Mentoring. These components are based on the Persistence ofInterest Framework of Figure 1 and provide opportunities for the scholars to foster theirpersistence related to academic interest, the rigor of the academics, and commitment to theSTEM programs.For example, we implemented a STEM Scholars’ Orientation Day
engineeringstudents with active, hands-on learning opportunities to enrich their education and better preparethem for their chosen careers (1-3). Chemical engineering is a multidisciplinary field of studywith a large depth and breadth of material to cover in just four short years, so learning should beboth efficient and reinforcing of basic concepts to maintain student retention and success. To better facilitate better learning outcomes in our current NSF sponsored work, our teamdeveloped several ultra-low-cost desktop learning modules (LCDLMs) which can serve as a full,unit operations experiment without need for a full laboratory budget and set up to facilitate (4-6).The more recent kits are on the order of 10” x 4” x 1” (1) meaning they can be used
. David C. Mays, University of Colorado Denver David Mays is an Associate Professor in the Department of Civil Engineering at the University of Colorado Denver. He earned his B.S. from the University of Pennsylvania in 1995, then taught high school through Teach for America and worked as a contractor at Los Alamos National Laboratory before earning his M.S. and Ph.D. from the University of California Berkeley in 1999 and 2005, respectively. He has been at CU Denver since 2005, where he teaches fluid mechanics and hydrology, studies flow in porous media using ideas from complex systems science, leads the graduate track in Hydrologic, Environmental, and Sustainability Engineering (HESE), and advocates for broadening
electrical engineering and PhD in History of Science and Technology from Johns Hopkins University. As an engineer at the Johns Hopkins University Applied Physics Laboratory, Hearty built radio communications hardware for NASA’s Parker Solar Probe. As a historian, he has studied collaborations across disciplines of engineering and applied science since the 1930s. His doctoral dissertation analyzed the rise and development of water quality management, a multidisciplinary field of applied science, from the New Deal to the Clean Water Act.Adelheid Voskuhl, University of Pennsylvania ©American Society for Engineering Education, 2025Pedagogical Choices for Navigating and Teaching Sociotechnical
academia. Her research centers on the creation of optimal higher education policies and practices that advance faculty careers and student success, as well as the schooling experiences of Mexican-descent youth in the mid-20th century.Jennifer TygretDr. Comas Lamar Haynes, Georgia Tech Research Institute Comas Lamar Haynes is a Principal Research Engineer / faculty member of the Georgia Tech Research Institute and Joint Faculty Appointee at the Oak Ridge National Laboratory. His research includes modeling steady state and transient behavior of advanced enDr. Canek Moises Luna Phillips, Rice University Dr. Canek Phillips is a Research Scientist at in the George R. Brown School of Engineering at Rice University where his
theirsurvey, and they found that most capstone courses contained a mixture of classroom and projectcomponents, with an increase in both the variety and quantity of projects that were externallysourced through industry. Researching the types of activities that civil engineering programs areusing for their capstone project reinforced those findings. Even when searching for “research-focused” capstones, the types of projects identified in the various articles are project-orientedand/or linked to industry. While the list is certainly not exhaustive, several examples are thesetypes of capstone projects are described in [3] – [7]. Warner and O’Hern [8] describe howHoward University and Sandia National Laboratories have collaborated to develop research
settings.In higher education, AI has influenced classroom instruction, laboratory learning, researchproductivity, and administrative processes [1, 2].Within engineering education, the momentum toward AI adoption is accelerating. Traditionallylimited to robotics, automation, and control systems, AI is now being adopted more broadly,facilitating curriculum design, enabling automated assessments, and providing personalizedfeedback mechanisms [3, 4]. As faculty expand their exploration of AI’s pedagogical potential,the discourse has also highlighted concerns, such as the risk of student overreliance and thereadiness of faculty to adopt AI responsibly and effectively [5]. Yet, the overall recognition ofAI’s potential continues to drive its integration
fail to account forthe influence of contextual factors such as school type and teacher-student interactions, which maymediate the effectiveness of such interventions. For instance, students in resource-rich privateschools with access to advanced laboratory equipment and interactive learning opportunities oftenoutperform their peers in under-resourced public schools, suggesting that educationalenvironments play a crucial role in spatial ability development [5]. Yet, a systematic investigationof these contextual factors in secondary school settings is largely absent from existing literature,leaving a critical gap in understanding how educational environments shape spatial reasoning.Physics education has emerged as a promising avenue for
Paper ID #47259A process safety framework for teaching and learningProf. Tracy L. Carter, Northeastern University Tracy Carter is a faculty member in the Chemical Engineering Department at Northeastern University. She is also a faculty facilitator for the Industry/CCPS Faculty Workshops on process safety. In addition to her academic work, she has 9 years of R&D experience in industry. She has 15+ years of experience teaching unit operations laboratory and process safety to undergraduate and graduate students. She also has 5+ years mentoring graduate students on technical communications in the NU College of Engineering
North Carolina State University. His previous training includes a B.A. in Psychology from the University of Northern Iowa and an M.A. in Social Sciences from the University of Chicago. Matthew’s research focuses on sociocultural inequality in engineering graduate education with the intention of increasing diversity, equity, inclusion, and justice in STEM graduate education. He is completed a postdoctoral appointment in engineering education with the Engineering Cognitive Research Laboratory with Dr. Catherin Berdanier at Pennsylvania State University. He is currently a Research Scientist at Purdue University with the STRIDE research group directed by Dr. Allison Godwin at Cornell University.Dr. Danielle V. Lewis
, “We must teach more effectively: here are four ways to getstarted,” Molecular Biology of the Cell, vol. 26(12), pp. 2151-2155, 2015.[3] Rossow, M., “Learning statics by studying worked examples,” ASEE National AnnualConference, Salt Lake City, UT, June 24-27, 2018.[4] R. O’Neill, R.C. Geiger, K. Csavina, and C. Orndoff, “Making statics dynamic!” Combininglecture and laboratory into an interdisciplinary, problem-based, active learning environment,”ASEE National Conference, Honolulu, HI, June 24-27, 2007.[5] A.K.T. Howard, “Gamification Design for Engineering Statics,” ASEE National AnnualConference, Virtual, July 26-29, 2021.[6] S. Mehta and S. Danielson, “Teaching statics “dynamically,” Session 1368, ASEE NationalAnnual Conference, Charlotte
assistant professor of bioinformatics at Baylor University. She received her B.S. in Bioinformatics at Baylor University before completing her M.S. and Ph.D. in Biomedical Informatics at Vanderbilt University.Dr. Blake Everett Johnson, University of Illinois Urbana-Champaign Dr. Blake Everett Johnson is a Teaching Associate Professor and instructional laboratory manager in the Department of Mechanical Science and Engineering at the University of Illinois Urbana-Champaign. His research interests include experimental fluid mechanics, measurement science, engineering education, engineering leadership, and professional identity development.Mitchel Daniel, Rose-Hulman Institute of TechnologyJonathan Rylander, Baylor University
instructor noticed that the traditional mathematical focus and delivery of the content weredifficult for students to grasp and to keep them engaged. Furthermore, the course's lecture-onlyformat, with two 75-minute sessions per week, left little time for problem-solving or lab basedinstruction. To address these constraints, the instructor developed and implemented the “signaldetective” approach to make the fundamental concepts and methods of signals and systemsmeaningful and relatable without delving too deeply into the math (supplementary materials andreadings from the textbook are provided for those students who want to delve deeper into themath). Separately, a series of brief, targeted laboratory exercises have been introduced toreinforce key
engage in, assuming thestudent could contribute regardless of any geographical locations. Interestingly, despite inherentlimitations, the fully online students largely preferred roles with hands-on components, highlyranking field research and laboratory research. Several roles that are easier to navigate in adistributed research team that students also expressed interest include project management, dataanalysis, safety management, and consulting. The roles that were reported to have the least fit forstudents were computer coding, manuscript preparation, and survey development, withapproximately 30–40% of respondents indicating that this type of role in an undergraduateresearch project did not fit with their plan. However, each potential role
laboratory operations.Project management: From the third to the tenth weeks, weekly meetings were scheduledbetween REU participants and their mentors to discuss the research progress. A spirit ofteamwork was encouraged among the REU participants who were working on related projects.Program meetings of all faculty members and REU participants were held during the fourth andseventh weeks. REU participants presented their independent research results and status reportsduring the program meetings.REU participants were encouraged to exchange ideas with each other and mentors in programmeetings, brown bag lunch meetings, and research seminars organized by the REU site. REUparticipants also practiced the research, problem-solving, presentation, and
, structural morphing, and energy harvesting. Ongoing projects range from developing high-bandwidth, high-authority actuators for vibration testing in jet engines to taking inspiration from how mosquitos eject drops from their wings before flight to discover new ways of decontaminating surfaces. His current research is funded by the Office of Naval Research, NSF, DoD, NASA, and several industry partners. Prof. Kauffman enjoys teaching a variety of courses in the MAE Department. He frequently teaches the Mechanical Systems Laboratory, which lets him interact with students and enjoy their ”aha!” moments in the smaller lab setting. He is fortunate to advise a fantastic research group with a great mix of graduate and
Paper ID #46557Best Practices for Developing Virtual Reality Education SimulationsMollie Johnson, Massachusetts Institute of Technology Mollie Johnson is a graduate researcher in the Engineering Systems Laboratory at the Massachusetts Institute of Technology. She received her BS in aerospace engineering from the Georgia Institute of Technology and is furthering her education as a Masters’ student in AeroAstro at MIT.Dr. Olivier Ladislas de Weck, Massachusetts Institute of Technology Olivier de Weck is a Professor of Aeronautics and Astronautics and Engineering Systems at MIT. His research focuses on the technological
Paper ID #47647BOARD # 263: IUSE: Research on Generative Design Thinking: DesignCognition, Tools, andEducationJohn Zachary Clay, University of Texas at Austin John Z. Clay is a Research Scientist Assistant in the System Integration and Design Informatics Laboratory at the University of Texas at Austin. Their research focuses on design thinking and the cognitive processes relevant to both traditional human-driven design and artificial intelligence (AI)-driven design using generative AI, i.e., generative design thinking.Dr. Molly H Goldstein, University of Illinois Urbana-Champaign Dr. Molly H. Goldstein is a Teaching