subject of fine artfrom a perspective where technology-oriented students would have an advantage, rather than ahandicap; to exploit the experience so as to reinforce some aspect of engineering science byreviewing it in a new context; and to place the engineering students in an environment composedmostly of others in the same discipline.BackgroundAlthough many engineering students would argue otherwise, an exposure to the arts is anessential part of every undergraduate's curriculum. This is underscored by its de facto inclusion,in some form, in the required "distributional elective" hours imposed by virtually every degreeprogram in the United States. Educators recognize that many young people who selecttechnology as a career objective at an early
://www.pisa.oecd.org/dataoecd/46/14/33694881.pdf3. Blum, W., "ICMI Study 14: Applications and Modeling in Mathematics Education – Discussion Document", Educational Studies in Mathematics, Vol. 51, 2002, pp. 149-171.4. Crowther, K., Thomson, D., and Cullingford, C., "Engineering Degree Students Deficient in Mathematical Expertise – Why?", International Journal of Mathematics Education in Science and Technology, Vol. 28, 1997, pp. 785-792.5. Gravemeijer, K., and Doorman, M. "Context Problems in Realistic Mathematics Education: A Calculus Course as an Example", Educational Studies in Mathematics, Vol. 39, 1999, pp. 111-129.6. Verner, I., and Maor, S., "Integrating Design Problems in Mathematics Curriculum: An Architecture
grounded in one’s experience.An excerpt from Foucault’s Power/Knowledge discussing the “regime of truth” was used tostimulate critical thinking about the course content. In a reflective essay and class discussion,students considered the relationship between power and knowledge in thermodynamics andbeyond. Analyzing student responses to the Foucault reading and regular course reflectionsreveals a significant shift in their understanding of classroom pedagogy, an increase in criticalthinking about the course and its subject matter, and an emergence of independent ideas thatstudents pursued further in the course.IntroductionEngineering students continually confront the challenge of bridging the gap between theory andpractice, between curriculum
provideinformation that will allow the internal process owners (e.g. program faculty and administrators)to make improvements to the curriculum in an attempt to meet long-range Program Educational Page 11.786.6Objectives (PEOs) and student success in their career field.Summary and Conclusions As the title of this article indicates, the process of integrating internal and externalstakeholders into a successful ABET accreditation team is achievable, but obstacles tocreating an integrated success model still exist. The primary method to overcome most, ifnot all, of these obstacles is to insure an open communication path is maintained betweenthe
degrees in any given field 2,5,6.For Japanese students, entrance to universities is determined by performance on entranceachievement examinations taken at the end of high school. The examinations are difficultand challenging even for the best students. Outside observers have noted that Japanesehigh school is “not a minimal competency curriculum”1 and “pre-university education inJapan is demanding, and gets results.” 6There is inordinate competition for admittance into those few universities considered tobe the most desirable and prestigious. This stems from the hiring practices of the largestcorporations and the government in Japan which hire only graduates of certain schools7.Undergraduate grades are not considered to be an important factor in
science to engineering applications, and the role of failure in the developmentprocess.Summary:As a foundations course, HON101B not only served as an introductory seminar in thehistory of emerging technologies, but also as the first step in a diagonal curriculum thatwe hope students will follow into graduate school. Beginning with the three courses thatmake up the Honors Track we hope to help our students understand the impact on and byother engineers to society through discussion and the creation of their own works.Following this sequence, students will be encouraged to continue to participate in UPoNthrough the Nano-scale Engineering Certificate Program offered through the College ofEngineering.We have begun a longitudinal evaluation study of
. Page 11.768.21. IntroductionIn recent years, there has been a call to integrate more of the so-called “soft skills” into theengineering curriculum, including written and oral communication, time management,teamwork, and leadership1. To be a successful engineer, these skills have been found necessaryby engineering industry. Introducing core courses to the engineering curriculum (e.g.,humanities, history, social sciences, communication courses) has been effective in alleviating thelack of necessary “soft-skills.” Unfortunately, the classroom is not always the best place to learnand practice these skills. Therefore, innovative techniques and out-of-class learning experiencesare paramount to the engineering curriculum. They allow the student a
integration associated with the humanities and social sciences into theengineering curriculum. The other dimension involves the vertical depth of knowledgeintegration associated with scientific fundamentals and engineering application.An emerging group of students from our new interdisciplinary Product Design andInnovation (PDI) program offers a glimpse into how to integrate the humanities andsocial sciences (H&SS) into an engineering curriculum. PDI offers a dual degreeprogram built around a studio design class each semester, which is integrated into a core-engineering curriculum leading to bachelor degrees in both mechanical engineering andH&SS. The program is administered through our Science and Technology Studiesdepartment, which resides
2006-1605: INCORPORATION OF A COMPREHENSIVE DESIGN EXPERIENCEIN THE INTEGRATED ENGINEERING PROJECT DESIGN MODELJose Guevara, University of Puerto Rico Dr. Guevara is an associate professor of Civil Engineering at the University of Puerto Rico, he is leading the work to make improvements to the capstone course and helping also in the improvements to the curriculum. He has also work as a structural consultant for a wide variety of projects including commercial, residential, industrial, transportation, marine facilities as well as the tren urbano.Ismael Pagan-Trinidad, University of Puerto Rico-MayaguezDidier Valdes-Diaz, University of Puerto Rico-MayaguezEileen Pesantes, University of Puerto Rico
factors in retention.A second aspect of the transfer-strategic nature of this first technical course is academic. In thiscourse, students must integrate their previous learning from the electronics bridge courses thatwere taken at their AAS-level colleges. Besides being an inherent concept reinforcementvehicle, this course serves as the primary bridge from the electronics bridge and calculus coursesthat were taken at the AAS-EET level to the +2 BS-EET curriculum. Numerous EET studentshave told their instructors that in this course they realized that they were “in the right place,” thatthey could “handle” the academic rigors of a BS-EET program, and that they were committed tocompleting the program. Although anecdotal, such comments have been
2006-1384: METHODS FOR THE DISSEMINATION OF EDUCATIONALREFORM IN BIOMEDICAL ENGINEERINGThomas Harris, Vanderbilt University Thomas R. Harris is the Orrin Henry Ingram Distinguished Professor of Engineering and Professor of Biomedical Engineering, Chemical Engineering and Medicine at Vanderbilt University. He is currently Chair of the Department of Biomedical Engineering. He received B.S. and M.S. degrees in chemical engineering from Texas A&M University and the Ph.D. degree from Tulane University in that field. He holds an M.D. degree from Vanderbilt University. His current interests focus on the development of learning science and learning technology for bioengineering. He is currently
. Sprinsky, W. H. 2002, ”Integrating Instruction in Geographic Information Systems with a Civil EngineeringTechnology Curriculum”, Geospatial World 20025. Sprinsky, W. H. 2002, Transformation of Survey Coordinates, Another Look at an Old Problem. Journal ofSurveying Engineering, ASCE. Page 11.1210.21
Develop effective communication skills Experience open –ended problem solving Develop technical competence and confidenceFigure 1. Developing Context for Engineering Practice.Course AssignmentsStudents are provided a foundational understanding of the engineering design process by firstidentifying and describing the steps involved in a typical civil engineering project. An importantcomponent of this teaching is the integration of the civil engineering code of ethics within thedesign process. National and state regulations required under the Safe Drinking Water Act(SDWA) are also introduced, providing students with background for the assignments. Using anopen-ended, team-based project
,laboratory measurements and dynamic systems across several semesters/courses. This shouldenable students to better understand the relationship of basic STEM (Science, Technology,Engineering, and Mathematics) material to an ongoing problem1,2,3,4.Dynamic modeling and testing of mechanical systems provides students with importantunderstanding of the characteristics and performance of structural dynamic systems. Studentcomprehension of this important Mechanical Engineering topic in today’s world of simulation,instead of testing, is critical. The materials from UMass-Lowell are adapted and implementedinto three of the Mechanical Engineering curriculum courses at Michigan Tech. The materialswere interwoven into the existing course material to enhance the
beginning of this period and present aposter of their project at the end of the summer.Faculty from the University of Texas at Austin, M. D. Anderson Cancer Center, the Universityof Texas Health Science Center-Houston, and Rice University have participated in this program.Students from the University of Texas (summers of 2004, 2005) and Rice University (summer of2005) have participated in the program. The program evaluations showed an increase in studentinterest in translational research careers. We believe programs of this kind will create anundergraduate experience that is well suited to develop a new generation of translationalresearchers in medicine and biomedical engineering.MotivationThe NIH Roadmap Initiative identified opportunities in
power and powerconsumption of a node. First, the battery is the main source for power on a node. Battery sizeand capacity will depend on the size of the mote, ranging from an AA battery for a CrossbowMicaz mote of a couple of cubic inches in size, to batteries integrated onto a 1mm3 smart dustmote13. Once the battery is depleted the mote is rendered useless until the battery is replaced.Research is being done on solar cells to help improve the life of the battery17.The sensors and the communication systems are not the only significant sources of powerconsumption. A sophisticated operating system running on a hardware base of a multi-MegahertzCPU and multi-megabyte memory system can also consume significant power. The standardpower conservation
common dilemma when considering the undergraduate curriculum is the proper balancebetween “teaching fundamental theory” versus “teaching applied software”. While theestablishment of a sound base of engineering fundamentals within our students is perhaps theprimary goal of the undergraduate curriculum, increasingly there is a legitimate incentive toexpose students to the proper use of different engineering software tools in preparation for theirprofessional careers. While efforts to include such computational techniques have included thedevelopment of an elective upper-level undergraduate course1, the practical difficulty ofimplementing these changes within and throughout the curriculum, and in particular thedifficulty of integrating software
2006-705: DO FUEL CELL TOPICS BELONG IN A COMBUSTION COURSE?David Blekhman, Grand Valley State University DAVID BLEKHMAN is an Assistant Professor in the School of Engineering at Grand Valley State University. He holds M.S. in Thermal Physics from the St. Petersburg State Technical University, Russia and a Ph. D. in Mechanical Engineering from the State University of New York at Buffalo. Since joining GVSU, he has taught courses in the Mechanics and Thermal-Fluids sequences. He has also focused on developing courses in Combustion and Alternative Energy.Ali Mohammadzadeh, Grand Valley State University ALI R. MOHAMMADZADEH is currently assistant professor of engineering at Padnos School
2006-974: INTEGRATING STUDY ABROAD AND COOPERATIVE EDUCATION:A CASE STUDYStan Guidera, Bowling Green State University DR. STAN GUIDERA is an Associate Professor in the Architecture/Environmental Design Studies Program in the College of Technology at Bowling Green State University. He teaches design studios, advanced CAD and computer modeling courses, and advanced computer rendering and animation classes. He is a registered architect and has used computer-aided design extensively in design studios as well as in professional practice. Page 11.793.1© American Society for Engineering Education, 2006
(VIP) Program is an engineering educationprogram that operates in a research and development context. Undergraduate students that joinVIP teams earn academic credit for their participation in design efforts that assist faculty andgraduate students with research and development issues in their areas of technical expertise. Theteams are: multidisciplinary – drawing students from across engineering; vertically-integrated –maintaining a mix of sophomores through PhD students each semester; and long-term – eachundergraduate student may participate in a project for up to seven semesters and each graduatestudent may participate for the duration of their graduate career. The continuity, technical depth,and disciplinary breadth of these teams enable
Page 11.804.6solving problems, everyone wins. We cannot afford to lose the game of educating ournext generation because the outcome is so critical to our nation’s future and its role in theworld! The following is a list compiled from the MVCS science club experience that has beenseen to help our students become more interested in science, math and engineering fields. 1) Start early in the educational process, even in grade school: It is important to have an elementary curriculum to comprehensively cover the areas of math and science. This plants the seed and starts it growing to be well rooted for the branches, such as the area of engineering, to come. A well rounded academic foundation with practical application
tointegrate into the biotechnology curriculum also. In addition, a one-hour lecture wasadded to facilitate teaching more background and theory prior to conducting theexperiment. Finally, in order to assess the students’ learning an electronic portfolio wascompleted that contained writing activities and projects. The electronic portfolioassignments were piloted to assess the students’ understanding of the impact of thetechnology on the field of biotechnology, encourage the students to develop critical andcreative thinking skills by integrating and applying knowledge from the lecture andlaboratory activities. In summary, the goal of the activities developed for the portfoliowas to provide the experiences that would enable the students to
focus in the first year of the curriculum reform has been on restructuring andredefining the core curriculum, responding to assessment results, implementing several newassessment tools, and planning and executing two pedagogical workshops. In this paper, wedescribe the process by which we have modified the core curriculum and the results of theredesign. [This work was supported by NSF grant EEC- 0431812].Initial assessment activities associated with our legacy curriculum indicated several areas thatneeded to be strengthened. First, students rarely felt they understood the coherent, overarchingframework that integrates basic principles. Second, there was an unbalanced coverage offundamental areas of ECE. Finally, the laboratory and design
specifications.At the same time, system integration responsibilities have become more prevalent, requiringinterface and control though means such as networking and the web. For example, the ObjectManagement Group’s (OMG) Common Object Request Broker Architecture (CORBA) is nowcommonly used to abstract communication across different processors in embedded systems ([1]as an example). In fact, most OMG meetings are now dominated by embedded systemsdevelopers in contrast with the information technology (IT) developers who dominated meetingsless than a decade ago. Embedded systems are also employing other IT strategies such as webservices and enterprise service bus architectures to handle their integration requirements ([2] asan example
approaches to teaching mathematics in context are Realistic MathematicsEducation (RME) and Mathematics as a Service Subject (MSS). In RME, the mathematicscurriculum integrates various context problems which are experientially real to the student7,while the MSS approach considers mathematics as part of professional education and focuseson mathematical skills needed for professional practice8, p. 8.Our study utilizes the RME and MSS approaches to developing an applications-motivatedmathematics curriculum for colleges of architecture. At the first stage we developed a firstyear mathematics course, based on the RME approach9. The two-year follow-up indicated thepositive effect of integrating applications on motivation, understanding, creativity and
Conceptualization (Thinking)Figure 1: Kolb elements of learning and learning styles with overlaid learning activities and 4MAT learning cycle (arrows); adapted from3.Vision for Curriculum EnhancementBased on ideas generated by the Kolb/4MAT system, and funded by an NSF curriculum plan-ning grant8, we have redesigned our systems area curriculum. Overall, we have identified 38credit hours of courses that will be affected: a two semester sequence in circuit theory, a two se-mester sequence in electronic circuit analysis and design; a linear systems theory course, theircompanion non-integrated laboratories, senior technical electives and their companion non-integrated laboratories, and the senior seminar/senior design courses. The old core and its
2006-378: INFUSING THE MATERIALS ENGINEERING CURRICULUM WITHSUSTAINABILITY PRINCIPLESKatherine Chen, California Polytechnic State University KATHERINE C. CHEN is an Associate Professor in the Materials Engineering Department at Cal Poly State University, San Luis Obispo, CA. She received her bachelor degrees (in Chemistry and Materials Science & Engineering) from Michigan State University, and Ph.D. from the Massachusetts Institute of Technology. At Cal Poly, she teaches numerous materials engineering courses and labs.Linda Vanasupa, California Polytechnic State University Linda Vanasupa is a professor in the Materials Engineering Department at the California Polytechnic State
essential to engineering in a problem-solving environment 2. To provide a context for considering the interactions and synergistic relations between properties in engineering systemsThe proposed course outline for the first offering is given in Table 3. Because there is no text forthe course the first two years of offerings will be used to generate an extensive set of coursenotes and examples based on the best available demonstrations of a computational context forfoundational engineering courses. In cooperation with colleagues from the ENE curriculum a Page 11.993.7series of integrated and evaluated on-line modules are
. The course is taught every semester and is a core course in the engineeringtechnology curriculum. The self-guided activity is and will remain an active part of thecourse. Page 11.413.6The following case study discusses and explains how a group of students designed theirown thermodynamic experiment based on the implemented PBL approach.Case Study: Household RefrigeratorAs part of the thermodynamic course in the Department of Engineering Technology andIndustrial Distribution at Texas A&M University, students learned the laws ofthermodynamics for closed and open systems. They also learned specific applications ofthose laws like in the case of power and
2006-386: A NEW APPROACH IN MICROPROCESSOR/MICROCONTROLLERCOURSES/LABORATORIES MATERIAL DESIGN AND DEVELOPMENTSteve Hsiung, Old Dominion University STEVE C. HSIUNG Steve Hsiung is an associate professor of electrical engineering technology at Old Dominion University. Prior to his current position, Dr. Hsiung had worked for Maxim Integrated Products, Inc., Seagate Technology, Inc., and Lam Research Corp., all in Silicon Valley, CA. Dr. Hsiung also taught at Utah State University and California University of Pennsylvania. He earned his BS degree from National Kauhsiung Normal University in 1980, MS degrees from University of North Dakota in 1986 and Kansas State University in 1988, and a PhD