Paper ID #46529The use of Engineering laboratories for teaching PhysicsDr. Octavio Mattasoglio Neto, Instituto Mau´a de Tecnologia Undergraduate in Physics (1983), Master in Science (1989) and Phd in Education (1998) all of them from Universidade de S˜ao Paulo. Professor of Physics at Mau´a Institute of Technology, since 1994 and President of Teacher’s Academy at the same Institution.Dr. Thiago de Assis Augusto, Maua Institute of Technology Bachelor’s degree in Mechanical Engineering (2016), Master’s degree in Mechanical Engineering, in the area of Materials and Processes (2019), from the FEI University Center, and PhD in
moved to the University of Illinois Urbana-Champaign as a Teaching Assistant Professor in June 2020. He serves as the co-chair for the Teaching Methods and Education Materials Committee at ACI and the co-chair of the Committee on Faculty Development at ASCE. ©American Society for Engineering Education, 2025 CASE STUDY: Integration of Python programming in a Civil Engineering laboratory course John S. Popovics, Yiming Niu, Sotiria Koloutsou-Vakakis, Karthik Pattaje, Jacob Henschen Department of Civil and Environmental Engineering, University of Illinois Urbana- Champaign,205 N. Mathews, Urbana, IL 618011. IntroductionIn this case study, we present an
Paper ID #48962Taco Holder Laboratory ProjectChidiebere Akudigwe, Oral Roberts University Chidi Akuidgwe is a Nigerian undergraduate Mechanical Engineering student at Oral University. Fueled by curiosity and determination, he pursues innovative solutions.Mark Baumruk, Oral Roberts University Mark Baumruk is an engineering major with a mechanical concentration in the School of Engineering at Oral Roberts University. He is on track to earn his Bachelor of Science in Engineering in May 2025. Driven by a desire to understand how things work, his academic interests include thermal and fluid sciences, as well as hands-on
Paper ID #47314BYOE: Hands-on Experiments for Teaching Process Safety: Exploring DustExplosionsDr. George Prpich, University of Virginia Professional Skills and Safety are my main pedagogical interests. I use the Chemical Engineering laboratory to implement safety training to improve safety culture, and to adapt assessment methods to enhance development of students’ professional skills. I am an Assistant Professor of Chemical Engineering at the University of Virginia and I hold a B.Sc. (University of Saskatchewan) and Ph.D. in Chemical Engineering (Queen’s University). Complimenting my pedagogical research is an interest in
before returning to Virginia Tech to teach engineering as a professor of practice. He then moved to Charlottesville and began teaching at the University of Virginia in the Electrical and Computer Engineering Department, where he has now been for 5 years.Dr. George Prpich, University of Virginia Professional Skills and Safety are my main pedagogical interests. I use the Chemical Engineering laboratory to implement safety training to improve safety culture, and to adapt assessment methods to enhance development of students’ professional skills. I am an Assistant Professor of Chemical Engineering at the University of Virginia and I hold a B.Sc. (University of Saskatchewan) and Ph.D. in Chemical Engineering (Queen’s
physical concepts. However, despite their increasingadoption in laboratories and classrooms, there is significant variability in the technologies andpedagogical strategies used across different teaching kits. Furthermore, their overalleffectiveness in achieving specific learning outcomes remains underexplored, highlighting acritical need for further investigation in this area. This systematic review adheres to the Preferred Reporting Items for Systematic Reviews andMeta-Analyses (PRISMA) guidelines to comprehensively analyze the current landscape ofteaching kits in biomedical engineering education. The review focuses on evaluating the types oftechnologies integrated into these kits, the educational methodologies they support, and theoutcomes
toolkit. However, it can be difficult to impart the criticality of such topics toundergraduate students in the early years, especially to Freshman students overwhelmed withnew experiences and responsibilities. Even students who successfully learn these skills willquickly forget them, inhibiting the synthesis of those skills with future lessons.An entertaining, hands-on laboratory activity centered on the quadrant tool from antiquity can beeffective in teaching those crucial skills. The Mariner’s Quadrant is a historical nautical tool thatnavigators used to measure celestial body altitude, the forerunner to modern sextants, surveyingequipment and remote measurement devices. There are many variants of the quadrantsthroughout history for different
of two different metal materials joined at one end to forma junction (see Figure 2). When a temperature variation occurs at the junction, it generates avoltage, which can then be converted into temperature, through calibration. Since part of the flowstagnates at the thermocouple junction, the measured temperature is often assumed to be the totaltemperature. A laboratory has been developed to allow aerospace engineering students to verifythis assumption while teaching them how to measure flow velocity using a Pitot-static tube. Thislaboratory has not been found in the open literature. Figure 1: Pitot-static tube [4] Figure 2: ThermocoupleExperimental SetupThe experimental
to cultivate and evaluate supportive teaching and learning networks in engineering departments and colleges. He received his doctoral degree in Engineering Education at Virginia Tech, where he was a recipient of the NSF Graduate Research Fellowship. His dissertation studied the teaching practices of engineering instructors during game-based learning activities, and how these practices affected student motivation. ©American Society for Engineering Education, 2025 WIP: Evaluating the impacts of an integrated, project-based approach to biomedical engineering laboratory teachingIntroductionEngineering laboratory courses serve as a vital component of the engineering
Paper ID #48417BOARD # 99: Work in Progress: AI in online laboratory teaching - A SystematicLiterature ReviewMr. Johannes Kubasch, University of Wuppertal Johannes Kubasch is a mechanical engineer and research associate at the Chair of Technical and Engineering Education at the University of Wuppertal. As a engineer in automotive engineering, he initially worked in the automotive supply industry in the development of airbag systems before moving to the University of Wuppertal to work in the field of engineering education. In the past, he worked on the AdeLeBk.nrw project to digitize the university training of prospective
Illinois, Urbana-Champaign. Her teaching interests include formalized problem-solving technique in non-major introductory physics courses and encouraging open-ended exploration in introductory physics laboratory. She also develops and manages graduate TA training and professional development activitiesDr. Christopher D. Schmitz, University of Illinois Urbana-Champaign Christopher D. Schmitz received his Ph.D. in Electrical and Computer Engineering from the University of Illinois in 2002.Chandrasekhar RadhakrishnanDr. Rebecca Marie Reck, University of Illinois at Urbana - Champaign Rebecca M. Reck is a Teaching Associate Professor of Bioengineering at the University of Illinois Urbana-Champaign. Her research includes
parts. Ashley earned her Ph.D. in Computational Science from Florida State University, her Master’s in STEM teaching, and Bachelor’s degrees in Chemical & Biomedical Engineering and Biological Sciences.Dr. Thomas Feldhausen, Oak Ridge National Laboratory Dr. Thomas Feldhausen is a research staff member in the Manufacturing Science Division at Oak Ridge National Laboratory in addition to being a joint faculty member of the University of Texas at El Paso as a research assistant professor in the department of Aerospace and Mechanical Engineering. He received his bachelor’s and master’s degree in mechanical engineering from Kansas State University, with a focus on curriculum development for mechanical engineering
Paper ID #49497Teaching Digital TwinsKari J Lippert, University of South AlabamaProf. Sean Walker, University of South Alabama Dr. Walker is an Associate Professor at the University of South Alabama in Mobile, AL and Program Coordinator of the Systems Engineering Program. They received their Ph.D. in Systems Design Engineering from the University of Waterloo, in Waterloo, Canada, in 2012. Dr. Walker has taught at the University of South Alabama since 2016 and has won multiple teaching awards from Mortar Board and Tau Beta Pi. Sean’s research interests include Engineering Education, Sociotechnical Systems, and Sustainable
Montana State, Boise State, and University of Idaho. Damon’s research background is in energy modeling and thermal comfort. His current research includes bio-based building materials, indoor air quality, and the fiscal impact of energy codes. ©American Society for Engineering Education, 2025 The use of digital twins and AR for indoor environmental quality: classroom as a dynamic laboratory for hands-on and applied STEM-based teaching modules.AbstractThrough a collaboration between the Virtual Technology and Design program and the IntegratedDesign Lab at the University of Idaho, this research aims to establish a holistic framework toaddress the current challenges of indoor
Paper ID #46255Virtual Reality in Chemical Engineering Laboratory EducationDr. Ronald Carl Hedden, Rensselaer Polytechnic Institute Ronald C. Hedden is Professor of Practice in the Dept. of Chemical and Biological Engineering at RPI. His research and teaching interests cover both Chemical Engineering and Polymer Science. Dr. Hedden’s research has recently focused on the use of Virtual Reality in the classroom and laboratory.Prof. Joel L. Plawsky, Rensselaer Polytechnic InstituteXiatao Sun, Yale University Xiatao Sun is currently a Ph.D. student in Computer Science at Yale University. His research focuses on spatial
activities [21, 22].Laboratories are a critical aspect of engineering education, yet this is not always apparent whenreading literature. While there are assumptions that labs are not observed critically because oftheir universally accepted status in the curriculum [23], it is problematic that from 1993 to 2002,only 5% of all articles published in the Journal of Engineering Education used “laboratory” as akeyword [24]. These lab courses should not, however, be overlooked because they are primelocations to achieve the goals of ABET and the American Society of Engineering Education(ASEE) to teach “21st Century Skills” such as teamwork, communication, and lifelong learning[25-28].Industrial Collaboration in Engineering CurriculaIndustrial partnership is
FundamentalsAbstract Teaching of fundamentals of communication systems varies widely across programs in US andabroad, mainly due to the type of undergraduate engineering programs and the depth of thecommunications field within the curricula. The variety is spread across electrical engineering andelectrical engineering technology programs, and programs with focus on telecommunications orwhich only offer core or elective courses in communications. Adding to the variety, someprograms include hands-on laboratory courses, others include simulation-based laboratories mostof the time using Matlab, while others may only include lecture courses with no labs. Theaccessibility of the new software defined radio (SDR) platforms offers the option to introduceunexpensive
of the seven experiments were centered aroundtwo pieces of equipment: a small wind tunnel and a pipe flow test bench. The wind tunnel (shown inFigure 1) was manufactured by AeroLab [13], but is no longer sold. The square test section (sixinches by six inches) has hinged acrylic sidewalls. The maximum air speed in the test section isapproximately 30 m/s.The pipe flow test bench (Figure 2) was built in-house, with funding from a Faculty DevelopmentGrant (total cost: less than $5000). The test bench was inspired by others who designed and built in-house pipe flow rigs or pump test rigs for their teaching laboratories [14], [15], [16], [17], [18], [19],[20], [21], [22]. The test bench consists of a small centrifugal pump, multiple Bourdon gauges
course policies for students with physical and mental disabilities and chronicillnesses, enabling them to fully engage with this important experiential learning opportunity. Bymodeling accessibility through the lab design and course policies, as well as intentionallydiscussing workplace accessibility, laboratory instructors can teach students the importance ofdesigning and maintaining accessible spaces and the skills to achieve these goals in their futurework. In this study, we surveyed UO lab instructors to understand how, or if, accessible designis implemented in existing chemical engineering lab courses to understand how our institutionsand programs are supporting disabled and chronically ill students. We draw on our experienceand the survey
critical to the functioning of the laboratory itself. If the control system is down,the functionality of the equipment may be limited, but experiments can still be performed. Inmany cases, a significant part of the experiment is still operated manually. The goal is to providedata acquisition and some control features for each of the experiments in the lab, not to provideautomation. The system is intended to be a teaching tool.Our Yokogawa control system has a server that allows students to have remote access to thelaboratory experiments and to their experimental data. Several experiments run for longer thanthe laboratory period, and the ability for students to follow an experiment and to remotely controlfunctions is an important feature of the
mundane.The technique exemplifies Vygotsky’s zone of proximal development where you teach a studentjust outside of their range of knowledge [11]. In a high-tech laboratory, there is the potential forstudents assume that these principles only exist in such a setting and are beyond them—thatcellphone development is only for tech companies, yet one day that could be them.The current literature reinforces our observation of student deficiencies. Student difficulties inlearning from these lab experiences are partly due to their lack of observation of the worldaround them through free play (see Rosen [3]) Combined with the rise of the impacts of mobiletechnology on attention, memory, and delay of gratification, we see these issues becoming moresignificant
generally have for lab coursework. Anotherissue students experience is developing a thorough understanding of what the lab is teaching andretaining that knowledge. Nowhere is this more apparent than in the discipline of manufacturingprocesses and the study of material properties in material science.Material properties lie at the heart of many engineering disciplines, as materials are whatengineers incorporate in their disciplines. The study of material properties can be greatlyaccelerated in engineering courses by integrating a hands-on approach to the creation and testingof laboratory experiments through inquiry-based experiential learning. This approach will beachieved by allowing students to create, design, test, and write their own laboratory
educational tools in renewable en- ergy has never been greater [3-5]. Virtual laboratories, enhanced by real-time simulations, are emerging as powerful resources for teaching and research in 1 ´ Laboratoire d’Electrotechnique, ´ Electronique de Puissance et Commande Industrielle:http://leepci.gel.ulaval.ca/ 2 https://www.ulaval.ca/ this field. These advanced digital platforms provide students and researchers with a safe, controlled, and dynamic environment where they can experi- ment with microgrid operations, test control strategies, and analyze system performance without the limitations of physical laboratory setups. Numer
Paper ID #48951Stretch Blow Molding Laboratory Using Preform and 3D Printed MoldTrevont Moore, Oral Roberts University I am an engineering major with a mechanical concentration in the School of Engineering at Oral Roberts University. I will earn a Bachelor of Science in Engineering in May 2026. I have been drawn to science and math for as long as I can remember, and studying engineering has only furthered my desire for it. I am hungry for more and more knowledge so that I can impact the world for good.Mr. Jonathan V Ophus, Oral Roberts University Jonathan Ophus has worked in several facets of the fabrication industry over
Paper ID #49323Examining Leadership Development Program Educational Delivery Modelsand Perceived Participant Connection at a Military Research InstitutionDr. Emily Myers, Air Force Research Laboratory Dr. Emily Myers serves the 711 Human Performance Wing as an internal consultant providing and facilitating access to coaching, mentoring, change management, leadership development, culture/climate assessment and intervention, team building, meeting facilitation, and customized, team-based workshops. She specializes in leadership development, qualitative and mixed-methods research, adult learning, communication, and high
Paper ID #47292Faculty Professional Development in Engineering Lab Writing Pedagogiesthrough a National WorkshopDr. Dave Kim, Washington State University-Vancouver Dr. Dave Kim is Professor and Mechanical Engineering Program Coordinator in the School of Engineering and Computer Science at Washington State University Vancouver. His teaching and research have been in the areas of engineering materials, fracture mechanics, and manufacturing processes. In particular, he has been very active in pedagogical research in the area of writing pedagogy in engineering laboratory courses. Dr. Kim and his collaborators attracted close to
helpfulness of the avatars and comments on previous questions were also provided. GTAswere also prompted to participate in an optional semi-structured interview where additionalquestions were asked in a dialogue which expanded on the survey themes. The survey andgeneral interview questions can be found in the Appendix.3.2 ParticipantsGTAs for the mechanical engineering laboratory course sequence are selected by the WoodruffSchool from the population of graduate students based upon a priority queue of students who arecurrently unfunded, not by the instructors of the courses. No additional English languageproficiency tests, outside teaching assistant training, or previous teaching assistant experience isrequired to be selected. The given population of
Teaching and Learning Program (ITLP) is located at the University of ColoradoBoulder, a large public research institution. Through workshops, laboratories, active learningspaces, and manufacturing and prototyping facilities, our ITLP team supports the College ofEngineering and Applied Science (CEAS) in growing students’ hands-on engineering skillsacross all disciplines in the college. In 2022, CEAS published strategic goals focused in largepart on improving the quality of instruction [13]. In support of students and to help achievecollege goals, our redesign aligned with key measures—including enhancing co-curricularopportunities, developing innovative educational offerings, and implementing inclusive learningexperiences to benefit students.In
“see” nanostructures created in real-time, which isparticularly useful for hands-on learning and exploration. While the NanoFrazor has beenused primarily as a research tool, it is believed that it could be used as an effectiveeducational tool as the equipment and software are beginner-friendly and customizable whileproviding the opportunity to create and observe nanostructures in real-time.The goal of this project is to create educational materials that teaches nanofabrication byusing the NanoFrazor, with a target audience of general undergraduate engineering studentslocated in North America. To achieve this goal, classroom lectures with accompanyinglecture materials and hands-on laboratory exercises where the NanoFrazor is used tointroduce
aims to integrate NLP AI systems into laboratory teaching. The aim isto train users in the skills required to use NLP AI technologies. Students and teachers alikeshould be able to experience the potentials and limitations of AI technologies and thus, on theone hand, significantly develop their skills in dealing with NLP AI and, on the other hand,substantially strengthen confidence and acceptance in AI technologies. To this end,pedagogical teaching and learning scenarios for solving real-world problems will bedeveloped as part of a laboratory course in the lecture on fluid mechanics in mechanicalengineering studies. This approach aims to provide students with essential AI skills for societyand the world of work in a reflective and critical way