Indianapolis, Indiana
June 15, 2014
June 15, 2014
June 18, 2014
2153-5965
Graduate Studies
14
24.692.1 - 24.692.14
10.18260/1-2--20584
https://peer.asee.org/20584
485
Elizabeth J. Stewart is a PhD candidate at the University of Michigan in the Department of Chemical Engineering. Her primary research relates to the study of bacterial biofilms, a field at the intersection of engineering and microbiology. Elizabeth also pursues engineering education research to advance the understanding of interdisciplinary graduate education, an area familiar to her due to her experiences navigating the intersection of two disciplines.
John Younger, MD, is a Professor and Associate Chair for Research in the Department of Emergency Medicine. In addition to being a practicing physician, he leads a research laboratory focused on issues related to bacterial fouling of materials. In the context of human health, the work concentrates on infections of implanted medical devices. In other contexts, his work focuses on ways to prevent, or even facilitate, bacterial interactions with engineered surfaces. Examples of the former include preventing fouling of industrial surfaces. An example of the latter is the development of new technologies to enhance the detection of low-level bacterial contamination in clinical samples and food.
Mike Solomon is Professor of Chemical Engineering at the University of Michigan. He received his Ph.D. at the University of California at Berkeley in 1996. After a post-doctoral appointment at the University of Melbourne, Australia, he joined the faculty at the University of Michigan. His group’s research interests are in colloidal assembly, gel rheology, and the biomechanics of bacterial biofilms. His educational interests include undergraduate chemical engineering separation, interdisciplinary graduate education, and the mentoring relationship between faculty and graduate students.
Impact of a graduate elective on interdisciplinary learning Abstract The need to create students with interdisciplinary skillsets is increasingly important as global challenges become more complex. Interdisciplinary skills are desired within academia, government and industry. As a result, interdisciplinary graduate programs and interdisciplinary research funding are becoming more prevalent. One program supporting interdisciplinary training is the NSF’s Integrative Graduate Education Research Training (IGERT) Program to fund the interdisciplinary training of graduate students. In 2010, Borrego et al. analyzed 94 IGERT awards and found that 80% of the programs proposed an interdisciplinary graduate course as a primary way to achieve interdisciplinary learning outcomes for students (Borrego et al., 2010, JEE). Through our work, we begin to answer how a stand-‐alone graduate course impacts student’s interdisciplinary perspectives and identities. We used a graduate level elective course listed in the Chemical Engineering department, as a pilot study to advance this understanding of interdisciplinary learning. This course contained content related to both engineering and microbiology and was co-‐taught by faculty members from Chemical Engineering and Emergency Medicine. The course was organized into two segments. The first consisted of lectures and in-‐class problems, alternating between the two disciplinary perspectives, and the second focused on synthesizing understanding from the two disciplines through group project work and real world examples of the material highlighted by external speakers. There were 16 students in the course from the following disciplines: chemical engineering, civil and environmental engineering, microbiology and immunology, and chemistry. Through the experiences of students enrolled in this graduate level elective, we evaluated how student perception of interdisciplinary learning outcomes varied from the beginning to the end of the course. We conducted surveys throughout the course to evaluate changes in student self-‐perception of interdisciplinary learning outcomes, specifically outcomes related to interdisciplinary skills, recognizing disciplinary perspectives, reflective behavior and teamwork skills. These outcomes have been previously correlated to interdisciplinarity (Lattuca et al., 2011, ASEE). To triangulate the survey data, we coded responses from coursework collected during the term. Using this data, we discuss the dependence on knowledge related to a student’s major field of study to their responses to open-‐ended course questions. We also comment on aspects of the course that may have contributed to changes in student learning. This paper demonstrates the effect of a stand-‐alone course on student’s interdisciplinary perspectives and identities through analysis of changes in student-‐perceived interdisciplinary learning outcomes as well as discussion of the extent to which students apply information from fields outside of their own during an interdisciplinary graduate course. This work contributes to advancing the understanding of graduate education in the increasingly interdisciplinary climate.
Stewart, E. J., & Younger, J. G., & Solomon, M. J. (2014, June), Impact of a Graduate Elective in Microbial Soft Matter on Interdisciplinary Learning Paper presented at 2014 ASEE Annual Conference & Exposition, Indianapolis, Indiana. 10.18260/1-2--20584
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