Departments of Electrical andComputer Engineering or Mechanical Engineering. They have developed a set of courses thatform a complementary suite of technical skills intimately coupled with practice in the field ofelectric drives and power electronics. A list of courses regularly offered by WEMPEC faculty islisted in Table I. The pedagogic approach in all the courses strongly follows a behaviorist model,in keeping with the nominal academic traditions within the university education. Clearlyarticulated course objectives, task-oriented homework assignments, term projects, and gradingthough examinations are the norm in the courses. However, in addition to the classroom studies
statistics and mathematics community. Page 11.1402.1© American Society for Engineering Education, 2006 Using Rapid Feedback to Enhance Student LearningAbstractIn this project our goal is to improve student learning in foundation engineering courses. Ourhypothesis is that learning is improved by providing rapid feedback to students of theirunderstanding of key concepts and skills being taught. This hypothesis was tested throughexperiments in which student performance on quizzes was measured after classes in which theywere provided rapid feedback or not. The feedback system acts as a catalyst to encouragestudents, working in
engaged in learning ethics material. Parts of these changes are attributedto an NSF supported department-level reform (DLR) project. Traditionally, ethics instruction inthe course included reading assignments and video presentations. However, this year, apresentation assignment was developed for the course’s 32-seat workshops. Groups of 3 to 6students were assigned one of eight recent topics: 1) levee construction in New Orleans2) looting and government response in New Orleans 3) debris removal in New Orleans4) contamination issues in New Orleans 5) rebuilding New Orleans 6) Asian tsunami ofDecember 2004 7) San Francisco and earthquake preparedness and 8) Galveston and hurricanes.For each topic, groups were given instructions regarding subjects
2006-2085: A CASE-BASED APPROACH TO SYSTEMS ARCHITECTURE ANDENGINEERING EDUCATIONJonathan Weaver, University of Detroit Mercy JONATHAN M. WEAVER, PH.D. is an Associate professor of Mechanical Engineering at the University of Detroit Mercy (UDM). He received his BSME from Virginia Tech in 1986, his MSME and PhD in ME from RPI in 1990 and 1993, respectively. He has several years of industry experience and regularly consults with an automaker on projects related to CAD, DOE, and product development. He can be reached at weaverjm@udmercy.edu.Michael Vinarcik, University of Detroit Mercy MICHAEL J. VINARCIK, P.E. is an Interior Trim Engineer with Ford Motor Company and an adjunct faculty
campus, growing from 20students in 1998 to 85 students in 2004 (Figure 1). The new curriculum was based on anemerging set of recommendations from a project funded by the United States Department ofAgriculture to study curriculum requirements for biological engineers2. These recommendationsaddressed the concept of a biological engineer from an agricultural and natural resourcesperspective. Many departments that adopted the recommendations and changed their degrees tobiological engineering struggled at first due to a lack of a complete pedagogical change in thedepartments. Often the departments changed the degree name and added a biology course or twoto the curriculum, but failed to fully embrace the full breadth of what biological
2006-258: LEARNING/ASSESSMENT: A TOOL FOR ASSESSING LIBERATIVEPEDAGOGIES IN ENGINEERING EDUCATIONDonna Riley, Smith College Donna Riley is Assistant Professor in the Picker Engineering Program at Smith College. Her work focuses on implementing liberative pedagogies in engineering education.Lionel Claris, Smith College Lionel Claris holds a master's degree in education from Smith College and currently teaches Spanish and French to elementary school students in Springfield, MA. He is a passionate advocate for new ways of thinking about learning, involved locally in the Holistic School Project of Amherst and the Re-radicalization of Hampshire College.Nora Paul-Schultz, Smith College Nora
, $75, and $50 for 2006. The students maycompete either individually or as a team, with no upper limit on the size of the team.The test circuit was designed and built by two University of Tulsa electrical engineering studentsas a project for one of their classes. Their circuit diagram is given in Figure 1, and a picture ofthe unit is given in Figure 2. The test circuit has an on/off switch and a green LED that indicatesthat the unit is on. This simple feature is very useful for determining that the unit is workingcorrectly. The students attach their equipment to the circuit with the alligator clips. The testcircuit contains a blue LED that is on when the circuit is completed through the alligator clipsand the contest entry. When thestudent
physical limitations thatpreclude access to a laboratory. There should be an opportunity for all engineering students tobe exposed to laboratory experiences. This project was initiated with the hypothesis that remotelaboratory experiments controlled via the internet may enhance the educational experience ofstudents who would otherwise not have a laboratory opportunity. The internet-enabledexperiment can be implemented for undergraduates and graduates, distance-learners and on-campus students, as well as for physically-challenged students.Adsorption phenomena and the need for the experimentAdsorption of contaminants to granular activated carbon is a common process used to removecontaminants from air and water. It is frequently employed to assist in
99 ratings of“excellent,” 12 ratings of “good,” and no ratings of “average,” “fair” or “poor.” While they haveoffered a variety of suggestions for improvement over the years (many of which have beenadopted), they have not consistently complained about any individual aspect of the workshop. Page 11.1018.3 The participants’ open responses comment favorably on the following workshop features:• Mini-clinics. Many workshop topics are introduced by calling on participants to react to scenarios of common occurrences in the life of a faculty member. They critique a flawed research proposal; contrast two research project descriptions
spectroscopy 10 Aquatic floral assessment and quantification 11 Aquatic faunal assessment and quantification 12 Bioconcentration and Biomagnification 13 Team project 14 Team project 15 Final Report and PresentationConclusionsThe advantages and need for interdisciplinary studies at the undergraduate level havebeen echoed on numerous fronts. As a mode of discovery and education,interdisciplinary collaboration has delivered much already and promises more—asustainable environment, new discoveries and technologies to inspire young minds, and adeeper understanding and preparedness of our graduates for professional challenges andendeavors. It helps make the higher education system of the United States one of the
performed. These tests tend to be expensive and timeconsuming. With customers pushing for lower cost and products been developedat very fast pace; companies in many cases can not afford the cost or timeassociated with these test.This has forced companies to look elsewhere to find other types of tests that canprovide them with the necessary accuracy to measure vibration at a lower costwithin a shorter period of time. These test methods include the use ofpiezoelectric accelerometers, strain gauges and laser measuring equipment.ANALYSIS:Of all methods used to measure vibration; the use of lasers is the most appealingsince the equipment has minimum or no contact with the object to be measured.The purpose of this project is to develop a non contact
Research Center inBioengineering Educational Technologies has conducted research and development on methodsto improve bioengineering education for the last 6 years. This project has sought to synthesizelearning science, learning technology, assessment and evaluation and the domain knowledge ofbioengineering so that new approaches to bioengineering education could be developed andtested. This project has resulted in a number of innovations that have been shown to improve theeducational process in bioengineering. We are currently developing methods to disseminatethese findings and make then available to the bioengineering educational community.I. IntroductionRecently, there has been a significant concern expressed by academic, scientific, business
undergraduate and graduate students. The researchpresented here uses an observation about the context of education to frame the research project;and locates the project within the realm of previous research on educational climate. This projecttests the null hypothesis that the context of education does not matter for women’s experience ofclimate. Figure 1 indicates the conceptual framework utilized by this research. The mainvariables of interest are in a bold font.Figure 1. Conceptual Framework of Research Classroom Experiences Laboratory Experiences Relationship with Faculty Climate Retention Professional Development Work/Family BalanceThe contexts in which students are educated are different at the undergraduate and
Instructional Systems at the Pennsylvania State University. Her research interests include the design of online learning and how learning occurs in those environments. Address: 201 Hammond Building, University Park, PA 16802. Telephone: 814-865-4017, FAX: 814-865-4021, email: rtoto@psu.eduMark Wharton, Pennsylvania State University Mark J. Wharton is an Assistant Professor of Electrical Engineering at Penn State. He teaches undergraduate courses in Electronics (Electronics I, II, and III) and Senior Project Design, the EE capstone design course. He received his B.S. in Electrical Engineering from Penn State and his M.S. from the University of Colorado in Boulder. Prior to working at Penn State, Mark spent
. The courses at URI are in English and the courses at TUB are in German. • Purdue University’s School of Mechanical Engineering is a participant of the Global Engineering Alliance for Research and Education (GEARE) 5. The core of this program is a junior-year spring/summer semester study-abroad in Germany, India, or China. The courses abroad are in English and transfer back to Purdue so there is no delay in graduation. Concurrently, the students also participate in a two-semester industry- inspired project with students from the other countries and in a two-part industry internship; in both cases, one half of the project and internship is at home, and the other is abroad.The Technische
”.In “Capstone” projects, some instructors may notice that students show a preference formachined parts in their designs. This may result from the ready availability of educationalmachine shops and familiarity with those manufacturing processes. Machined parts are oftenrelatively expensive in production and geometrically simple. In addition to their value in DFXeducation, problems like these may help students develop visualization skill with complex 3-Dparts and assemblies, or lead them to consider using additive manufacturing processes moreoften in design.GradingGood conceptual design practice calls for the generation of many alternative ideas, and someauthors believe criticism can discourage this activity. Certainly, students may be
the software developmentenvironment or platform. Integrated development environments (IDE) have come a longway from their terminal-based assembler or compiler origin. The major compilerdevelopment houses have settled on a semi-standard layout and philosophy of their IDE's.Excellent examples are Visual C++ from Microsoft3 and the IAR compiler family4, verysimilar to the layout shown in Figure 1. These B A C Figure 1: Typical IDEThese IDE's are project-based, showing sources (region A in Figure 1), source filedependencies (region B), and status reports (region C) among other information in a mainwindow
have short exchanges with industry representatives, have a formalmeal at a very nice hotel, and listen to a keynote from a very charismatic engineer from industry,who happened to also be an underrepresented minority.Week Meeting Topics (Fall 05)(2 hrs.)1 Introductions, Time Management (general) Icebreaker, General course information How to “Study” to Get a 4.02 Ice Breaker, Chapter 1: Studying Engineering Video 2: Time Management, How to Catch Up If You Get Behind3 Ice Breaker, Chapter 2: Introduction to Engineering and Engineering Study Video 3: Presentations, Group activity 1-group assignment, project choice4 Engineering student panel – CEMSWE leaders
as condition of the purchase price. The studio was purchased from EARTechnology for approximately $36,000. Sony DSR-30 DVCAM deck:The use of the Sony deck was limited within the first few months of this study. The deck servedas a useful capture device only when the camera was being used to shoot raw video, and post-production was beginning on another part of the multimedia project, and the projects were shoton Mini-DV tape, rather than via the Laird Cap-Div. Camera issues:Issues with the camera, Canon XL1s, were explored to see if the extensive defects related to theoriginal XL1 have transferred over into this model. The first few of the notable issues with thecamera were: (1) the viewfinder’s sensitivity to light and potential for
engineering as physicsand calculus.” [2] For faculty and students and BYU, a recent project of studyingmanufacturing in Cambodia also became a study of Cambodian history, government, and culture.As a result it became, for both students and faculty, a learning experience in the broader, moreholistic context of manufacturing, engineering, technology, and global issues. Rationale and Organization of the Learning ExperienceThe Manufacturing Engineering Technology program at BYU has been increasing its focus onglobal aspects of engineering and technology for several years. Our goal is to provide moreeffective opportunities for faculty and students to gain an awareness of, knowledge about, andexperience in issues and opportunities of
. 3In our hardware/software codesign course, two teams were introduced to Altera Nios and XilinxMicroblaze, respectively. With this introduction, the students proposed projects using Nios andMicroblaze. Two projects were completed: 1) co-design of USB implementation using Nios, and 2) amusic player using Microblaze. Both projects were implemented with co-design and completed asproposed. Both projects utilized hardware written externally and interfaced to the processor successfully.Our small-scale usage of these tools provided us the confidence to offer a microprocessor course as aspecial topic in the very near future before incorporating it into our normal offering. During the sameprocess, we have discovered many pitfalls to this approach of
hydrogen storage efficiency of 10.80% and the excellentstability of its alkaline solutions. The alkaline borohydride solutions undergo hydrolysis inpresence of various transition-metal catalysts to produce hydrogen. The hydrolysis product beingborox it can be recycled. For the hydrolysis process of NABH4, various catalysts of Pt, Ru, Ni,Co etc., have been developed for hydrogen production from borohydride solutions and reportedin recent years. However, implementation of these catalysts into the fuel cell is a challenge. Asummer research project with an undergraduate was launched in developing catalyst forhydrogen generation in PEMFC fuel cell. Catalysts based on chlorides of Co, NI and Ru wasdeveloped and was directly deposited on metal foam. The
Department Chair of Technology Systems at East Carolina University and research interests include technology management and managerial decision methods. During his industrial career, he held positions as project engineer, plant manager, and engineering director.Greg Smith, Pitt Community College GREG SMITH received both his Ph.D. degree in Safety Engineering from Kennedy-Western University and his Master of Science in Safety Engineering from Kennedy-Western University. He received a Bachelor of Arts in Chemistry from East Carolina University and another Bachelor of Arts in Psychology from West Virginia University. He has worked in the bio-industry as a manager and leader, he has served in project and
the student’s education include the breadth to be able to communicate acrossSnow’s academic cultures.III. A mandate for technological literacy in higher education The first thing most people think of on the subject of technology literacy is bringingstudents in non-technical fields up to some minimum level of technical understanding. In 1994,the International Technology Education Association (ITEA) launched its Technology for AllAmericans Project (TfAAP9) as an organization to seek ways to advance student attainment oftechnological literacy. They began by defining technological literacy broadly as follows. Technological literacy is the ability to use, manage, assess, and understand technology. It involves knowledge
outreachparticipation.IntroductionFlat or declining math and science competency in K-12 students in the U.S.1, flat or decliningenrollments of U.S. citizens in undergraduate engineering programs2, and the rising dependenceof society on technology have led to several initiatives in the last decade. These include thecreation of the American Society for Engineering Education EngineeringK-12 Center3, theNational Science Foundation’s GK-12 Teaching Fellows4 and Math Science Partnership5programs, Project Lead the Way6, and a substantial list of institutions that have developed K-12engineering outreach programs nationally7.Doctoral/Research university engineering programs have a unique and essential role in K-12engineering outreach. These programs have the resources to translate both
2006-1283: MAKING STATICS A FRIEND FOR LIFEKevin Dong, Cal Poly-San Luis Obispo Kevin Dong, S.E. is an Associate Professor of Architectural Engineering (ARCE) at Cal Poly – San Luis Obispo. For the past five years he has been teaching classes that emphasize structural systems and structural design to various majors (Architecture, Architectural Engineering, and Construction Management) within the College of Environmental Design and Architecture. His class work utilizes his 13 years of experience with Ove Arup & Partners (ARUP), where he worked in both the San Francisco and London offices. As an Associate with ARUP he worked on a wide variety of projects within the United States and abroad
Prof. Eng. in Indiana. Prof. Sener was awarded numerous teaching awards including the Indiana University President's Award for Distinguished Teaching in 1993 and the IUPUI Chancellor's Award for Excellence in Teaching in 1994 and several TERA awards.David Kieser, Kieser Consulting, LLC Dave Kieser., Principal Planner , Kieser Consulting, LLC, M.S. - Civil Engineering, Purdue University and M.PL. Environmental Planning, Indiana University . Mr. Kieser has over eighteen (18) years of experience in the project management, planning and design of capital improvement projects for municipal clients in Illinois and Indiana. More specifically Mr. Kieser's experience includes innovative financing
psychology of learning and technology. He currently is a faculty member at Brigham Young University in the Technology Teacher Education program where he teaches heavily, serves as the Graduate Coordinator, and mentors numerous undergraduates in research projects. He is happily married, has 6 children, and loves to learn. His research interests are in technological literacy and engineering in the k-12 setting, teaching pedagogy that promotes higher order thinking skills, and creativity. Page 11.569.1© American Society for Engineering Education, 2006 ENGINEERING and Technology IN THE ELEMENTARY
students electricity concepts in science classes.Design-based learning is intended to engage students in ways that enhance their abilities to solvereal-life problems and to reflect on their learning processes. This style of active learning is anextension of project-based learning, which is argued to enable students to relate problems toscience concepts.10, 15 Design-based learning differs from project based learning in that, inaddition to constructing and building, students engage in a design and planning process thatfollows engineering design.Typically, as was the case in the subject school district, electricity (and science in general) istaught using a guided/scripted inquiry approach to learning. Students are given materials andprocedural
. Finally, there is amechanism that will provide feedback from all colleges within the institution for thecontinuous assessment and improvement of overall programs. Student academic advisorsplay a vital role in supporting and retaining students until they complete their education.The ModelFigures 1a and 1b together present a proposed IHE diversity model. The model looks atthe existing total number of minority students (MS) and projects MS growth over a spanof time. The MS growth is achieved through aggressive recruitment and retention.The model looks at both UG & G programs and incorporates them under the mission ofIHE. Both UG & G programs are linked and to succeed they should be enhanced at thesame level of effort with proper allocation