thebeneficial effects of higher tolerance for ambiguity on increased efficacy, satisfaction, andconflict resolution in the context of an open-ended, team-based, industry-sponsored engineeringdesign project.Keywords: Design teams, tolerance for ambiguity, efficacy, design performance.1. IntroductionBecause “engineering programs must demonstrate that their graduates have: …an ability todesign a system, component, or process to meet desired needs,” and “an ability to function inmulti-disciplinary teams….”1, design is integrated to the engineering curricula through the use ofdesign teams. In many cases, this integration also uses industry-sponsored design projects. Mostof the industry-sponsored design project applications are at the capstone design level
to introduceS-L into engineering, which add approximately eight more universities to the list. Tsangi andLima and Oakesx describe more examples of S-L in engineering courses.However, Service-Learning is not commonly integrated into core engineering classes; when it isused, it is most often incorporated into elective and capstone courses, such as with the EPICS Page 11.1150.3program started at Purdue, now expanded to 15 universities, that involves electiveinterdisciplinary S-L courses that students can take from first year to senior yearxi and thecapstone projects explored by civil engineering students at the University of Utahxii. There
-based teaching and learning. Clearly, implementing new processes ofassessment of outcomes for ABET is having a significant effect on our programs. We have beenfortunate to have other influences, as well, including good counsel from external advisory boardsand the resources from an endowed center for engineering education, both of which have beeneffective in fostering change.Over the last 15 years, these diverse drivers for change have nurtured nearly 50 major projectsfor which substantial funding was available. These 50 initiatives, however, do not begin torepresent the totality of the effort because many individual faculty and small groups of facultycarried out projects to improve what they are doing in their own classes without the benefit
them in a full range of professional skills, mostnotably communication, ethics, teamwork, and lifelong learning. Attention to contemporaryissues receives limited attention in some of the courses. To date, however, none of the courseshave rigorous, codified assessment schemas in place to consistently document student skills; allare thus appropriate venues for testing the assessment methodology under development.Integrated CoursesThe second implementation model involves integrating the professional skills into technicalcourses; this model is currently in place in the capstone design courses in both MSE and ESM.Both capstone design programs are full-year courses that address not only engineering design,but the larger project management issues
the curriculums of Connections and Identity but these curricula may not be explicitly taught. Capstone projects are used to assess how students integrate all of these curriculums.With such an analysis, it is easy to articulate why the traditional program has failed to serve at-risk populations such as women: By concentrating the Core and Practice up front, this program Page 11.1316.6may discourage or misrepresent the discipline for those, particularly women, who need somesense of Connection to society and Identity to the field.5Recent innovative efforts in engineering education can be understood using the PCM language: By
Cutting Edge” series of faculty teaching enhancement programs.Ruth Streveler, Colorado School of Mines RUTH A. STREVELER is the Director of the Center for Engineering Education at the Colorado School of Mines and Research Associate Professor in Academic Affairs. Dr. Streveler holds a Ph.D. in Educational Psychology from the University of Hawaii at Manoa, Master of Science in Zoology from the Ohio State University, and a Bachelor of Arts in Biology from Indiana University at Bloomington. She is co-principle investigator of three NSF-sponsored projects: Developing an Outcomes Assessment Instrument for Identifying Engineering Student Misconceptions in Thermal and Transport Sciences (DUE
2006-2042: REPRESENTATION ISSUES IN ENGINEERING EDUCATION:ENGINEERING ISSUES AND PARALLELS FROM THE VISUAL &PERFORMING ARTSWilliam Lee, University of South Florida Bill Lee is a Professor of Chemical Engineering with a significant interest in the practical and philosophical aspects of the educational process. He currently has several projects with faculty in the Visual and Performing Arts, exploring issues in the educational process, problem solving, and creativity.Mernet Larson, University of South Florida Mernet Larson is a Professor of Art History who has written and taught in the areas of art history, art theory, art criticism, and educational aspects of art. She is also a professional
oftenspanned more than one of the above cited subcategories.The Teaching and Learning category captures any instructional intervention designed to improvestudent educational outcomes. More interventions were coded to this subcategory (57.3% of allinterventions) than any other subcategory (see Table 2.a). Aside from “Other,” which contains Page 11.496.5118 discrete interventions, the most common teaching- and learning-related interventions were:teams (17.3% of all articles), collaborative/cooperative learning (16.9% of all articles), lecture(traditional) (13.0% of all articles), projects (11.4% of all articles), active learning (10.4% of allarticles
2006-161: STRATEGIES FOR ASSESSING COURSE-SPECIFIC OUTCOMESDavid Meyer, Purdue University David G. Meyer has been very active in curriculum development, learning outcome assessment, design education, and use of instructional technology. He is currently responsible for creating, maintaining, and teaching the core ECE digital systems course sequence: ECE 270 (Introduction to Digital System Design), ECE 362 (Microprocessor System Design and Interfacing), and ECE 477 (Digital Systems Senior Design Project). He has written numerous papers on innovative uses of technology in education; more recent research contributions include papers on learning outcome assessment in both lower-division “content
train studentsin “technical communication” have prioritized writing over speaking. Second, most approachesto communication skill development include an emphasis on either integrating writing and Page 11.625.2speaking into an introductory and/or capstone engineering course or offering a TechnicalCommunication course specifically for engineering students. Third, research in this area oftenhighlights previous attempts to incorporate or develop writing assignments using a writing-in-the-disciplines approach while relying on industry representatives and/or alumni to providediscipline-specific, genre-based knowledge. While these approaches to
Page 11.557.12 Professional Engineer, The Institution of Engineers, Australia.5. Mann, L.M.W. and Radcliffe, D. 2003, 'Using a Tailored Systems Engineering Process within Capstone Design Projects to Develop Program Outcomes in Students', paper presented to ASEE/IEEE Frontiers in Education Conference, Boulder, CO.6. Noor, M.J.M.M., et al. 2002, 'A New Engineering Education Model for Malaysia', International journal of engineering education., vol. 18, no. 1, pp. 8-16.7. Noor, M.J.M.M., et al. 2005, 'Developing A Malaysian Outcome-Based Engineering Education Model', paper presented to The 4th Global Colloquium on Engineering Education GCEE 2005, Sydney, Australia, 26. - 29. Sept.8. Walther, J., Mann, L