Paper ID #48410”Living” Engineering Laboratory: Enhancing Undergraduate Learning ThroughPlace-Based Education and Lab-Scale Engineering ModelsDr. Kushal Adhikari, Juniata College Dr. Adhikari currently serves as an Assistant Professor of Civil & Environmental Engineering at Juniata College and brings in his teaching experience from Cal Poly Humboldt and Texas Tech University. Dr. Adhikari strongly believes in experential learning and strives to create research opportunities for students while creating an impact on human lives and society. His research interest lies in integrating sustainability dimensions into
absorbing advanced technologies, driving theneed for deeper collaboration with universities. As the trend of open innovation graduallyfrom enterprises to academia, research universities appear to face growing pressure toenhance industrial outreach as part of their third mission. This study examines howuniversities may engage in industrial outreach through open innovation laboratories, industry-university research centers, and joint R&D centers. Based on a multi-case analysis of sixinstitutions, with data collected through interviews and document analysis, the researchhighlights differences in organizational structures, motivations, and mechanisms. Openinnovation laboratories appear to leverage internal academic entrepreneurship
Python'sfoundation while operating several actuators and sensors. The testbench and controller weredesigned, built, and tested for use in a hands-on robotics course for sophomore engineeringstudents, which requires extensive prototyping of robotic mechanisms. In the laboratory sessionassociated with Python programming, the students learn how to operate and control different typesof DC motors, stepper motors, servo motors, and linear actuators. Then, the students use thetestbench to collect and export data using tracking and measurement sensors. The testbenchconsists of frames, a collection of motors and sensors. The controller was developed to operate sixDC motors, five servo motors, and four sensors. Incorporating this testbench and experiment
: Develop new courses and restructure the curriculumby replacing 4-credit courses with 3-credit courses. This adjustment will address content-relatedconcerns, improve course alignment with academic standards, and provide greater flexibility forintegrating additional topics or electives. Development of New Laboratories: Establish two state-of-the-art laboratories to bridge thegap between theoretical concepts and hands-on experience, fostering practical skill development. Course Refinement: Revise and update existing courses to align with current industrystandards, address identified content gaps, and enhance learning outcomes. Creation of an Undergraduate Research Course: Introduce a dedicated research course toprovide students with opportunities
Tecnologico de Monterrey, currently collaborating with this university since 2004 holding different positions and responsibilities, among which stand out; the creation of the electronics laboratories in 2005, assuming the direction of the Electronic Engineering and Communications degree in 2006, the creation of the networks laboratory in 2007, the creation of the media center laboratories in 2008, assuming In the same year the position of director of academic programs, which included the career directorates, the admissions directorate and the marketing directorate of the Campus. His work especializes in attracting new students to STEM programs at University level. In 2017, he took the position of career director of
of2024, a “soft launch” of the new major. Students were exposed to various robotic platforms, includingmobile ground vehicles, unmanned aerial vehicles, robotic arms, and cobots as an introduction to thefield of robotics engineering. The course provided essential introductory skills and experiential learningopportunities through lectures, laboratories, and off-site learning visits. Project-based learning wasincorporated into course activities, with the following learning objectives: 1. Describe and interpret basic components of robotic systems. 2. Comprehend the working principles of different types of robots (ground, aerial, and manipulators) and demonstrate their applications. 3. Assemble, program and operate various automation
are used in project-basedundergraduate robotics courses at the University of Michigan: a first-year programming courseand a graduate robotics laboratory. We also describe a block-based visual programming interfacebased on the same framework and its use in a grade school context. Finally, we present lessonslearned in teaching undergraduate courses with real robots at different levels, and highlight futureopportunities for development in this area.1 IntroductionRobotics is growing rapidly in undergraduate education, with more institutions incorporatingrobotics in existing curricula, adding robotics concentrations, or introducing roboticsmajors [1, 2]. This rise in popularity creates a renewed demand for technology in the classroom togive
difference illustrated the details of the UV lights reflected and fluorescentattributes in this example. The developed fusion algorithm between RGB and UV providedsuccessful results that the proposed algorithm was further tested on various UV images that wereacquired as contaminations on surfaces in a laboratory setting. Figure 7 showed one of those testimages. a. b. c.Figure 7. (a) Stainless steel surface with invisible ink under visible light, (b) Under UV light with 254 nm, (c) CUV composite image after processingThere were about 500 images used in this research with various types of biological and non
, “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
(SCD) at the University of Illinois at Urbana-Champaign. I work with a group of wonderful and talented people at SCD’s Assessment and Research Laboratory to conduct research that informs and evaluates our practice of teaching and learning human-centered design in formal and informal learning environments. My Research focuses on studying students’ collaborative problem solving processes and the role of the teacher in facilitating these processes in STEM classrooms.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
Constructivism and Mental Models theory, he examines collaborative approaches to systems thinking. As part of his research assistantship, he contributes to projects aimed at improving doctoral engineering student retention, advisor relationships, and laboratory transitions, enhancing graduate student success and academic experiences.Maxell Lumbera, Purdue University at West Lafayette (COE) Maxell Lumbera is a PhD student at the School of Engineering Education at Purdue University. He holds a Master’s and Bachelor’s degrees in Civil Engineering from the Institute of Civil Engineering, University of the Philippines Diliman. His current research focuses on engineering instructors’ experiences in implementing pedagogies in their
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
,laboratory processes, modeling approaches to some problem and derive answers. While generalcollege writing courses are crucial to their development as well-rounded, educated individuals,engineering students can struggle to see the connection between some Platonic concepts inclassical disciplines like Rhetoric and their audience focus for a proposal. While this connectionis likely obvious for an instructor in the Classics, it might not be obvious to engineering students.Pivoting toward more applied communication courses or content can help reinforce students’integrative understanding of engineering communication and their responsibilities for clarity,accuracy, and conciseness [16] - [17]. It should be noted that if the aim is to teach
research (e.g., new robot platforms) encourages higher-level learning and showcases a capacity for independent exploration.References [1] J. M. Esposito, “The state of robotics education: Proposed goals for positively transforming robotics education at postsecondary institutions,” IEEE Robotics Automation Magazine, vol. 24, no. 3, pp. 157–164, 2017. [2] E. Tosello, S. Michieletto, and E. Pagello, “Training master students to program both virtual and real autonomous robots in a teaching laboratory,” in 2016 IEEE Global Engineering Education Conference (EDUCON), 2016, pp. 621–630. [3] T. Tsoy, L. Sabirova, R. Lavrenov, and E. Magid, “Master program students experiences in robot operating system course,” in 2018 11th
. P., Scarlatos, L. (2025). The impact of alternative rhetoric and AI on inclusivity inSTEM education. To be presented at the 2025 ASEE Annual Conference & Exposition.Hallifax, S., Serna, A., Marty, J. C., & Lavoué, É. (2019). Adaptive gamification in education: Aliterature review of current trends and developments. In Transforming Learning with MeaningfulTechnologies: 14th European Conference on Technology Enhanced Learning, EC-TEL 2019,Delft, The Netherlands, September 16–19, 2019, Proceedings 14 (pp. 294-307).Karacop, A. (2017). The Effects of Using Jigsaw Method Based on Cooperative Learning Modelin the Undergraduate Science Laboratory Practices. Universal Journal of Educational Research,5(3), 420-434.Spiekermann, S., &
makerspace workshopsinto core curricula to reinforce interdisciplinary collaboration. Three key strategies emerge: 1. Reinforcement of Fundamental Concepts: Makerspace projects can complement science and engineering courses by providing tangible applications of theoretical principles. Constructivist learning theory [22] suggests that interactive, hands-on experiences enable students to break down complex threshold concepts [23] through experimental iteration. 2. Prototyping in Design Education: Integrating makerspace workshops into senior capstone and laboratory courses ensure that students have practical prototyping skills to support their design objectives. Early interdisciplinary exposure in makerspaces can also
©American Society for Engineering Education, 2025 Paper ID #46014 combination of engineering, AI, art and humanities, and raised interest among the worldwide press, including the Wall Street Journal and the BBC.Prof. Eiji Kamioka Prof. Eiji Kamioka (Member, IEEE) received the B.S., M.S., and D.S. degrees in physics from Aoyama Gakuin University. He is currently working as a Professor and a member of the Dean Office of College of Engineering at the Shibaura Institute of Technology (SIT). He also leads initiative of implementing COILs at SIT. Before joining the SIT, he was worked at the SHARP Communication Laboratory, Institute
Multirobot Systems," in IEEE Control Systems Magazine, vol. 40, no. 1, pp. 26-44, Feb. 2020.20 Vega L., Buscaron, C., Schwartz, E. M. and Arroyo, A. A., “MILyBots: Design and development of swarm robots”, Machine Intelligence Laboratory, University of Florida, 200821 Madni, A & Jackson, S., “Towards a Conceptual Framework for Resilience Engineering”, Systems Journal, IEEE, 2009 3. 181 - 191. 10.1109/JSYST.2009.2017397.22 E. Stachew, T. Houette, and P. Gruber, “Root Systems Research for Bioinspired Resilient Design: A Concept Framework for Foundation and Coastal Engineering,” Frontiers in Robotics and AI, vol. 8, Apr. 2021, doi: https://doi.org/10.3389/frobt.2021.548444.23 M. E. C. Bento, “Design of a Wide-Area Power
]. These studies explore specific locations within higher education, such as laboratories[26],classrooms [27], disciplines [28], and administrative settings, offering insights into the livedexperiences and practices that define academic life. Certain concepts from the social sciences can help illuminate what convergence educationis and how it functions. One useful anthropological concept is liminality, which refers to atransitional or transformative state of being—an "in-between" phase where structures are loosened,identities are reconfigured, and new possibilities emerge. Liminality has been used to studyintermediary roles in higher education, such as students who navigate between peers andprofessors as they prepare for and move towards
putblished on MIT OpenCourseWare: SP.248 NEET Ways of Thinking and Defining real-world problems with the D.I.S. method.Dr. Gregory L. Long, Massachusetts Institute of Technology Gregory L. Long, PhD is currently the Lead Laboratory Instructor for NEET’s Autonomous Machines thread at the Massachusetts Institute of Technology. He has a broad range of engineering design, prototype fabrication, woodworking, and manufacturing experienceDr. M. Mehdi SalekDr. Amitava ’Babi’ Mitra, Massachusetts Institute of Technology Amitava ’Babi’ Mitra linkedin.com/in/babimitra|+1-617-324-8131 | babi@mit.edu Dr. Amitava ’Babi’ Mitra is the founding Executive Director of the New Engineering Education Transformation (NEET) program at MITSarah
/microelectronics, renewable energy, biomedicals) applications in academia and industry alike – Los Alamos National Laboratory (LANL), Massachusetts Institute of Technology (MIT), Singapore University of Technology and Design (SUTD), Advanced Micro Devices (AMD), Hewlett-Packard (HP), Spansion and SunPower. Dr. Budiman is currently serving as the Director of Oregon Renewable Energy Research (OREC) where he oversees a wide range of applied research/technology programs for accelerating the pace of transition to renewable energy especially in the state of Oregon (from photovoltaics, agrivoltaics, wind and energy storage all the way to hydrogen production, including the use of Artificial Intelligence/AI and Machine Learning/ML for