AC 2010-2111: QUALITY INDICATORS FOR ENGINEERING & TECHNOLOGYEDUCATIONMichael Dyrenfurth, Purdue UniversityMike Murphy, Dublin Institute of TechnologyGary Bertoline, Purdue University Page 15.1008.1© American Society for Engineering Education, 2010 Quality Indicators for Engineering & Technology EducationAbstractIn recent years the development and use of university rankings, comparisons, and/or leaguetables has become popular and several methodologies are now frequently used to provide acomparative ranking of universities. These rankings are often based on research and publicationactivity and also not uncommonly focus on indicators that can be measured rather
AC 2010-1650: IMPROVISATION FOR ENGINEERING INNOVATIONPeter Ludovice, Georgia Institute of Technology Pete Ludovice is an Associate Prof. of Chemical and and Biomolecular Engineering at the Georgia Institute of Technology. He received a B.S. and Ph.D. in chemical engineering from the University of Illinois and M.I.T. respectively. Pete carries out research on the molecular modeling of synthetic and biological macromolecules, and the use of humor and improvisation to improve technical innovation, communication and education. He works as a stand-up comedian in front of technical & non-technical audiences internationally. Pete hosts a weekly radio show entitled INSIDE THE BLACK BOX
Learning (INSPIRE). She received a Ph.D. and a M.A in Science Education, Department of Curriculum and Instruction from Arizona State University. Her creative research focuses on collaborative learning, design & decision-making, and the role of engineering self-efficacy on student achievement.Noemi Mendoza Diaz, Purdue University Page 15.449.1© American Society for Engineering Education, 2010 Assessing Elementary Teachers’ Perceptions of Engineering and Familiarity with Design, Engineering and Technology: Implications on Teacher Professional DevelopmentAbstractSixty-nine elementary
AC 2010-2028: SPECIAL SESSION: DEVELOPING INTERCULTURALENGINEERS THROUGH SERVICEKurt Paterson, Michigan Technological University Page 15.1083.1© American Society for Engineering Education, 2010 Developing Intercultural Engineers Through ServiceAbstractThis paper reports on recent efforts to understand the cultural awareness among engineeringstudents. A standard assessment program has been instituted across the various programs atMichigan Technological University with pre-, during-, and post-project phases. The mixed-methods assessment plan consists of surveys, reflection statements, journaling, a wellnessindicator, the Intercultural Development Inventory, and project
AC 2010-1667: AN EXAMINATION OF INDUSTRY'S DESIRED TRAITS FORENGINEERING GRADUATES AND GENDER DIFFERENCESAnna Pereira, Michigan Technological University Anna Pereira is a graduate student in mechanical engineering. Her research interests include human factors and engineering education.Michele Miller, Michigan Technological University Dr. Michele Miller is an Associate Professor in mechanical engineering. She teaches classes on manufacturing and controls and does disciplinary research on microelectromechanical systems and precision machining. Her educational research interests include problem solving in the lab and informal engineering education.William Helton, Michigan Technological University
AC 2010-1970: REFINEMENT AND INITIAL TESTING OF AN ENGINEERINGSTUDENT PRESENTATION SCORING SYSTEMTristan Utschig, Georgia Institute of Technology Dr. Tristan T. Utschig is a Senior Academic Professional in the Center for the Enhancement of Teaching and Learning and is Assistant Director for the Scholarship and Assessment of Teaching and Learning at the Georgia Institute of Technology. Formerly, he was Associate Professor of Engineering Physics at Lewis-Clark State College. Dr. Utschig has regularly published and presented work on a variety of topics including assessment instruments and methodologies, using technology in the classroom, faculty development in instructional design, teaching
AC 2010-1184: ESTABLISH AN IMPORTANCE INDEX OF BASIC CHEMISTRYCOMPETENCE IN THE UNIVERSITIES OF SCIENCE AND TECHNOLOGY INTAIWANPao-Chi Chen, Lunghwa University Science and Technology Professor Chen is the Dean, College of Engineering at Lunghwa University of Science and Technology.Kwannin Kuo, Lunghwa University of Science and Technology Kwannin Kuo is a lecturer in the department of Chemical and Materials Engineering at Lunghwa University of Science and Technology in Taiwan. He is also an EdD candidate in TESOL program at Queen's University, Belfast.Meei-Ruey Hsu, Ming-Chuan University Meei-Ruey Hsu is a professor in the department of Tourism at Ming-Chuan University in Taiwan
AC 2010-1808: STEPWISE METHOD FOR DEAF AND HARD-OF-HEARINGSTEM STUDENTS IN SOLVING WORD PROBLEMSGary Behm, Rochester Institute of Technology Gary Behm is a Senior Project Associate and Director of the NTID Center on Access Technology Innovation Laboratory and a Visiting Lecturer at NTID. He is a deaf engineer at IBM who received his BS from RIT and his MS from Lehigh University. He currently serves as a loaned executive at NTID/RIT working in the Center on Access Technology and the department of Engineering Studies. At IBM, he is a delivery project manager in the Rapid Application Development Engineering System. Behm has six patents and has presented over 20 scientific and technical papers
. Page 15.227.3 First, a broad range of literature covers STEM education for non-STEM majors, with asubset of that including technical or engineering knowledge. One such study is from Krupczakand Green who described what non-engineers were interested in learning about within atechnological literacy course15. Students frequently mentioned wanting to gain practicalinformation to help consumers and users of technology, such as understanding what to do whentechnology breaks down. Understanding the actual thinking processes of scientists or engineersdid not come up. However, some educators do emphasize the need to make engineeringeducation more flexible so that non-engineering majors who want more technical backgroundhave a means for getting
for Engineering Education, 2010 Refining a Critical Thinking Rubric for EngineeringAbstractThe Accreditation Board for Engineering and Technology in 2000 revised accreditation criteriato require program assessment according to eleven outcomes that all require critical thinkingskills. Critical thinking can be incorporated into engineering classes in a variety of waysincluding writing assignments, active learning strategies, project-based design experiences, andcourse redesign. Clearly, accurately and consistently assessing critical thinking acrossengineering courses is challenging. In 2007 the University of Louisville selected the Paul-Eldercritical thinking framework for use in all undergraduate courses. However, few
https://engineering.purdue.edu/EPICS/(EPICS) – begun at Purdue in 1995Illinois Institute of Technology - 1995 http://ipro.iit.edu/Interprofessional Projects (IPRO)Design for the Other 80% (D80) – Michigan http://www.mtu.edu/d80/Tech since 1996University of Michigan Ann Arbor - http://www.engin.umich.edu/societies/pts/ProCEED/Program for Civic Engagement inEngineering Design (ProCEED) c. 2000Service-Learning Integrated throughout a http://slice.uml.edu/College of Engineering (SLICE) – UMassLowell begun in 2004Humanitarian Engineering Program – http://humanitarian.mines.edu/Colorado School of MinesHumanitarian Engineering and Social http://www.engr.psu.edu/eceEntrepreneurship Program – Penn
AC 2010-627: SCALE DEVELOPMENT FOR ENGINEERING MODELINGSELF-EFFICACYTuba Yildirim, University of PittsburghMary Besterfield-Sacre, University of PittsburghLarry Shuman, University of Pittsburgh Page 15.1050.1© American Society for Engineering Education, 2010 An Engineering Modeling Self-Efficacy (EMSE) ScaleAbstractSelf-efficacy is defined as personal judgments of one’s capabilities to organize and executecourses of action to attain designated goals. Self-efficacy is shown to be a significant predictor ofacademic performance, academic motivation, students’ participation in activities, rate of solutionof arithmetic problems, and use of learning strategies. Students with
instructors understand the role of exploring technology/society interactions in engineering education? ≠ How do faculty describe the process they use in exploring technology/society interactions in their own teaching? ≠ Are there challenges or barriers to teaching about technology/society interactions in engineering education?Where “society” includes both social issues (such as poverty, or environmentalconservation) and social structures (such as political and economic systems).As a lecturer of education and technology & society studies, and an education specialistwithin an engineering faculty, I have become intrigued with the beliefs behind curriculumselection, and also how professors choose to contextualize their
the United States (US) K-12 setting is an idea that has been gainingattention as professional and educational groups push for its inclusion into the pre-college STEMclassrooms 1-4. Other countries such as the United Kingdom (UK), Australia, New Zealand, andCanada include design and technology in their pre-college curriculum 5-8.The International Technology Education Association (ITEA) places engineering design withintechnology education classrooms and describes engineering design as demanding “criticalthinking, the application of technical knowledge, creativity, and an appreciation of the effects ofa design on society and the environment” 1. The National Research Council (NRC)3 recognizesthe importance of the relationship between the
global reach. Capacity building has also been aided by thecreation of PhD-granting departments of Engineering Education at several US and internationalinstitutions.NSF recently funded a new project to continue and expand the work done by RREE and ISEE.Expanding and sustaining research capacity in engineering and technology education: Building onsuccessful programs for faculty and graduate students (which we will call the RREE2) (DUE-0817461) broadens the Community of Practice (COP) model successfully used to develop the RREEand ISEE programs. Page 15.280.2The RREE2 project has three goals: 1. Design and deliver a new generation of programs to
, Page 15.869.2Ford Partnership for Advanced Studies, Full Option Science System, The Infinity Project,Materials World Modules, and Project Lead the Way. The sample for this study was drawnproximal to Utah State University which resulted in the inclusion of students from Project Leadthe Way (PLTW) programs. The National Academy of Engineering highlighted three significantbenefits of improving the public understanding of engineering: 1. Sustaining the U.S. capacity for technological innovation. A better understanding of engineering would educate policy makers and the public as to how engineering contributes to economic development, quality of life, national security, and health. 2. Attracting young people to careers in engineering
Technology (ABET) (2006) adapted two cognitivemodels for incorporation into engineering classrooms. Incorporation of Bloom’s taxonomy and amodification of the Kolb Learning Cycle were necessary to show alignment with ABET criteria.The 2006 ABET Criteria marked a decisive change in the direction of engineering education.While earlier calls for change were in the form of recommendations, the ABET criteriarepresented a requirement for continued accreditation. This joined with the specific talents andrecognition engineer educators bring to the incorporation of cognitive science in the classroomand the relative newness of the subject matter, make this a productive area of study.The purpose of this study is to synthesize, through a meta-analysis study
engineering4 and a significant number ofthose who remain in engineering move from one engineering discipline to another. A closerexamination reveals that the pathways chosen by engineering students differ greatly. Xie andShauman8 have published the most comprehensive research on Science, Technology,Engineering, and Math (STEM) student pathways to date. They studied STEM pathways (andparticularly gender differences in those pathways) from early qualification and expression ofinterest in college study through pursuit of college study, persistence to graduation, pursuit of acareer, and career persistence. An early MIDFIELD model (figure 1) hypothesized some criticaltransitions in the engineering pathway, but this model was too simplistic to represent
and/or situations. In contrast, this proposal concentrates heavily on the development of processes that integrate instructional (student, instructor, course, curriculum) measurements and analysis with ABET (Accreditation Board for Engineering and Technology)-mandated assessment and improvement. Thus, a major deliverable of the project is a transferable system with which other engineering programs could monitor their own instructional environment and develop and test their own educational innovations. 3. Ease of use - A key trade-off in the utility of any innovation is the time and resources needed to implement it versus the benefits that result from the implementation (in this case, improved student learning
levelsof the taxonomy: fundamental, intermediate and advanced. The incremental growth ofengineering problem-solving skills, as illustrated by the taxonomy and the CPI, is also applicableto other STEM disciplines: science, technology and mathematics. The CPI served as theframework for developing an assessment instrument with measurable outcomes that enablescoring, as well as placing the student at the appropriate level within the taxonomy. Further, asample laboratory assignment is presented to demonstrate the positive impact of hands-onexperiences on the student’s conceptual understanding and problem-solving skills. Initial resultsof a test series given to engineering juniors are reported. These results indicate the effectivenessof the developed
engineeringstudents (approximately 400). EDC consists of several sections with each having about16 students and two instructors (engineering and writing). In the first quarter, all fourteams in a section work on the same project. The projects focus on universal design andcan range from designing assistive technologies for stroke survivors to newly designedfield-hockey sticks for the disabled.The IDP course is a two quarter sequence and is intended for undergraduate students atthe junior or senior level. The format is similar to EDC and focuses on team-baseddesign. Typically, enrollment is around 25 students per quarter. Furthermore, twoinstructors (engineering and writing) and a variety of advisors help oversee the studentteams.MI is a two-quarter sequence
received her Masters in Education Technology Program at Purdue University. Her research interest focuses on engineering problem solving, cognition and instructional design. Page 15.28.1© American Society for Engineering Education, 2010 A Framework for Using Graphical Representations as Assessments of Engineering ThinkingAbstractEngineers and engineering students often face the challenge of comprehending complex systemsbecause they are unsuccessful at recognizing major components in the system and therelationships between the components. Diagrams and sketches can facilitate their comprehensionand
, with an additional appointment in Ophthalmology. His primary teaching is in human and animal physiology. He is the Co-Director of the Northwestern Center for Engineering Education Research and Associate Director of the Northwestern University Inderdepartmental Neuroscience Graduate Program. Formerly, he was the Associate Director of the VaNTH Engineering Research Center in Bioengineering Educational Technologies, and chair of the Biomedical Engineering Department at Northwestern. He is a fellow of the American Institute of Medical and Biological Engineering, the Biomedical Engineering Society, and the Association for Research in Vision and Ophthalmology. His research interests are
AC 2010-806: TOWARDS A MODEL OF TEACHING EXPERTISE IN CAPSTONEDESIGN: DEVELOPMENT AND VALIDATION OF A PRELIMINARY SURVEYINSTRUMENTJames Pembridge, Virginia TechMarie Paretti, Virginia Tech Page 15.1269.1© American Society for Engineering Education, 2010 Towards a Model of Teaching Expertise in Capstone Design: Development and Validation of a Preliminary Survey InstrumentAbstractCapstone design courses seek to create a transitional environment between school and work byengaging students in collaborative, open-ended projects. These environments present a challengeto capstone faculty because the pedagogies used in such courses may differ significantly fromthose
AC 2010-91: A PILOT VALIDATION STUDY OF THE EPISTEMOLOGICALBELIEFS ASSESSMENT FOR ENGINEERING (EBAE): FIRST-YEARENGINEERING STUDENT BELIEFSAdam Carberry, Tufts University Adam R. Carberry is a Doctoral Candidate in Engineering Education in the Tufts University Math, Science, Technology, and Engineering Education program. He holds an M.S. in Chemistry from Tufts University and a B.S. in Material Science Engineering from Alfred University. He is currently working at the Tufts University Center for Engineering Education and Outreach as a research assistant and manager of the Student Teacher Outreach Mentorship Program (STOMP).Matthew Ohland, Purdue University Matthew W. Ohland is an Associate Professor in
opportunities such as Race to theTop,2 greater numbers of K-12 educators are participating in STEM (science, technology,engineering and mathematics) professional development activities. Consequently there is agrowing need to understand K-12 STEM teachers’ knowledge and beliefs, effectiveness andinstructional decision making3. Education research shows that instructional practice and teacherdecision making are influenced by teachers’ beliefs about learning and instruction4-8.Furthermore, the educational experience for students is dependent on the quality andeffectiveness of teachers, more than perhaps any other single alterable factor9-11. For example,teachers’ views have serious implications for the perceived place and purpose of engineering inthe K-12
AC 2010-1826: REPAIRING STUDENT MISCONCEPTIONS USING ONTOLOGYTRAINING: A STUDY WITH JUNIOR AND SENIOR UNDERGRADUATEENGINEERING STUDENTSDazhi Yang, Purdue University Dazhi Yang is a postdoctoral researcher and an instructional designer in the School of Engineering Education at Purdue University, West Lafayette, IN. She obtained both her master’s and Ph.D. degrees in Educational Technology from Purdue in 2004 and 2008, respectively. She has taught a variety of subjects at the K-12, undergraduate, and graduate levels. She also has worked on various instructional deign and technology-supported learning projects across disciplines. Dr. Yang’s research interests are instructional design and strategies
AC 2010-1501: SPECIAL SESSION: MODEL-ELICITING ACTIVITIES INENGINEERING: A FOCUS ON MODEL BUILDINGEric Hamilton, United States Air Force AcademyMary Besterfield-Sacre, University of PittsburghBarbara Olds, Colorado School of MinesNora Siewiorek, University of Pittsburgh Page 15.1081.1© American Society for Engineering Education, 2010 MEAs In Engineering: A Focus On Model BuildingAbstractThis paper addresses the importance of models and modeling in engineering education reform. Itfocuses specifically on model-eliciting activities, or MEAs, as research and curriculum tools todevelop complex reasoning skills, nurture transference and generalizability of problem
BRIGE grant), advancing problem based learning methodologies (NSF CCLI grant), assessing student learning, as well as understanding and integrating complex problem solving in undergraduate engineering education (NSF CAREER grant). Her other research interests lie in cardiovascular fluid mechanics, sustainability research, and K-12 engineering outreach.Eric Pappas, James Madison University ERIC PAPPAS is an associate professor in the School of Engineering and the Department of Integrated Science and Technology at James Madison University. Page 15.1082.1© American Society for Engineering
programs, where she coordinated student courses as well as parent information sessions. Her research interests include students' perceptions of their learning experience as and how to promote students' learning who show giftedness in the Engineering and Technology areas. Page 15.423.1© American Society for Engineering Education, 2010 Development of Parents’ Engineering Awareness Survey (PEAS) According to the Knowledge, Attitudes, and Behavior FrameworkAbstractWith increased interest in promoting engineering as a field of study and career pathway to bothcollege and pre-college student, it is important to