Portland, Oregon
June 23, 2024
June 23, 2024
June 26, 2024
Biomedical Engineering Division (BED)
5
10.18260/1-2--48379
https://peer.asee.org/48379
73
I am a PhD student in Biomedical Engineering at the University of North Dakota. My team consists of a mix of graduate and undergraduate students who worked collaboratively on this abstract.
I am an undergraduate student in my 3rd year in Biomedical Engineering at the University of North Dakota. I am a Coauthor on this paper.
Ryan Striker is a life-long learner. Ryan has two decades of professional experience designing embedded electronic hardware for industrial, military, medical, and automotive applications. Ryan earned his BS and PhD in Electrical Engineering and his MS in Systems Engineering. He now teaches Biomedical Engineering at the University of North Dakota using a methodology known as Innovation-Based Learning.
Enrique is an experienced Systems Engineer with a demonstrated history of working in the electrical and electronic manufacturing field. Highly skilled in Embedded Devices, Software Engineering, and Electronics. He is a strong information technology profes
Dr. Ewert has been involved in cardiovascular engineering for over 25 years in both research and instruction. He has consulted for major medical device companies in the area of cardiovascular engineering and performed research with US and inte
Bridging Theory and Practice: Innovation-Based Learning and NSF I-Corps in Modern Engineering Education. Tubbs, Abigail M.S, Beduhn, Paige, Brown Tre’Darrius, Ramirez, Esmeralda
The dynamic landscape of the modern world necessitates a paradigm shift in engineering education, moving beyond theoretical knowledge to cultivate practical skills. This abstract will delve into a transformative approach that leverages the National Science Foundation's regional I-Corp program (NSF I-Corp) and innovation-based learning (IBL) principles to revolutionize engineering education, with a focus on advancing repetitive transcranial magnetic stimulation (rTMS). By immersing a mix of graduate and undergraduate students in the collaborative and real-world-oriented environment of the I-Corp Cohort, we establish a critical bridge between classroom knowledge and practical applications in this innovation-based learning (IBL) class project. This research emphasizes the significance of expanding these educational paradigms to equip engineering students to contribute to the continuous evolution of technologies like rTMS. Innovation-Based Learning (IBL), a cornerstone for this approach, encourages creative thinking and problem solving, pushing engineering students to go "out of the classroom" and explore novel ideas for real world challenges. When IBL is implemented with the NSF cohort, IBL manifests through user interviews, aligning with the I-Corps mission to promote understanding of market needs and potential application for innovation. The competitive selection of I-Corp teams ensures rigorous training, resources and mentorship to validate commercial potential of innovation. Team interviews and surveys were used to capture the experience of student engineer participants in IBL and the NSF cohort. These interviews highlight advantages of hands-on learning and real-world exposure while acknowledging challenges participants encountered. We have surveys about each team member's exposure scheduling and performing interviews with customers, as well as their opinions on the techniques used during research. The feedback collected will offer conclusive evidence of the valuable skills and lessons acquired and provide insights into areas of improvement for future iterations of the program. Recognizing these challenges, future work will focus on refining the curriculum and ensuring a balanced workload, aiming to further optimize the learning experiences of student engineers worldwide. The adoption of innovation-based learning principles and the incorporation of regional I-Corps cohorts into engineering school projects and classes represent a dynamic and forward-thinking approach to education in the field. By embracing these methodologies, educational institutions can equip their students with the essential skills needed to excel in their academic pursuits and careers as future engineers and innovators. The collaborative and real-world-oriented nature of the I-Corps cohorts serves as a bridge between classroom knowledge and industry application, providing students with invaluable exposure to the challenges and opportunities they will encounter in their professional journeys. The integration of innovation-based learning and NSF regional I-Corps cohorts is a catalyst for reimagining engineering education. This visionary approach empowers students to become agile and resourceful engineers who can drive innovation, meet evolving industry demands, and contribute to the economic growth of their regions. As we explore and expand these educational paradigms, we can anticipate a brighter and more innovative future for engineering education that better equips students to meet the complex challenges of our rapidly changing world.
Tubbs, A., & Beduhn, P., & Striker, R., & Alvarez Vazquez, E., & Ewert, D. (2024, June), Board 8: Work in Progress: Bridging Theory and Practice: Innovation-Based Learning and NSF I-Corps in Modern Engineering Education. Paper presented at 2024 ASEE Annual Conference & Exposition, Portland, Oregon. 10.18260/1-2--48379
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