2006-783: STUDENT ENGAGEMENT THROUGH MATHEMATICALAPPLICATIONS IN ELECTRICAL POWER SYSTEMSBruno Osorno, California State University-Northridge Bruno Osorno has been teaching for over 20 years. He has written over 20 technical papers all related to electrical engineering. His interests are reasearch in engineering education, application of new technologies into the curriculum and computer applications in electric power systems. He received an MSEE from the University of Colorado, Boulder and continued studies towards a PHD degree resulting in ABD. He has a great deal of industrial and consulting experience, more recently he was involved in consulting for NASA-JPL in the analysis of an electrical
Techniques ‚ Design Project I/IIThe laboratory component is an integral part of the CME program. Hands-on experiences areemphasized throughout the curriculum in various laboratory and lecture-lab courses. Studentsgain experiences in experimental methods in a number of laboratory courses as well. Because ofthe hands on experiences and involvement with industry, the CME program has been involvedwith a number of regional and national engineering competitions. These include compositebridge building and solar car race competitions.The major contribution that this undergraduate CME program has had is to the compositesindustry by providing them human resources to expand and develop their marketplace objectives.This is evidenced by a high percentage of
Engineering, Aviation and Technology involving Aerospace, Electrical and ComputerEngineering undergraduate students. This project was initiated as a part of Senior CapstoneDesign course in August 2005. The fundamental purpose for the BillikenSat project is twofold.First, it will provide the participating undergraduate students with practical experience in thedesign and construction / integration of a real space mission. Second, it will reinforce interestand support for space mission designs within the Aerospace Engineering program, ParksCollege, and the broader Saint Louis University community. It also has the potential for outreachprogram at the K-12 level. This paper gives an overall view of the current status of design andimplementation process of
engineer in the state of Louisiana.Bill Elmore, Mississippi State University BILL ELMORE, Ph.D., P.E., is Associate Professor and Hunter Henry Chair, Mississippi State University. His teaching areas include the integrated freshman engineering and courses throughout the chemical engineering curriculum including unit operations laboratories and reactor design. His current research activities include engineering educational reform, enzyme-based catalytic reactions in micro-scale reactor systems, and bioengineering applied to renewable fuels and chemicals. Page 11.562.1© American Society for
appropriate context for integrating ethical issues in the curriculum. The case reviewsthe ASCE and NSPE Codes of Ethics and presents a real-life account of the failed ManhattanWestway project development owing to a breach of ethics in the development of theEnvironmental Impact Statement. With the ethical context of the project, students are then askedto develop a relative ranking of the project alternatives using a simple multi-attribute decisionmaking framework to instill an appreciation of the subjectivity involved in identifying theoptimal project, the ethical dilemmas that could arise in such situations, and the ethicalresponsibilities and pressures that civil engineers may face during project development. Suchcases may be integrated into
2006-960: CHANGING TIMES: THE STATUS OF COMPUTING EDUCATION INTHE UNITED STATESBarry Lunt, Brigham Young University Barry M. Lunt is an Associate Professor of Information Technology at Brigham Young University in Provo, UT. Dr. Lunt received a B.S. and an M.S. degree in EET from BYU, and a Ph.D. in Occupational and Adult Education from Utah State University in Logan, UT. He has spent seven years in industry as a design engineer, and 19 years in engineering technology education. His present research emphases are the physical design of electronic circuits and systems, IT curriculum, and engineering technology education.Joseph Ekstrom, Brigham Young University Joseph J. Ekstrom (Ph. D
, Old Dominion University Richard Jones has been teaching at ODU since 1994. He is a retired United States Navy Submarine Service Lt. Commander with sub-specialties in Ballistic Missile, Torpedo, Sonar, and Radio systems. Richard has previously taught Mechanical Engineering Design at the United States Military Academy, West Point, N.Y., and Electrical Engineering at the United States Naval Academy, Annapolis, Md. He holds an ASEET from Cameron University, a BSEET from Oklahoma State University, and a Master of Engineering in Electronics Engineering from the Naval Postgraduate School at Monterey, California.William Stanley, Old Dominion University William D. Stanley, Eminent
required course in electromagneticcompatibility and signal integrity for our CPE curriculum and a redesign for our required two-course sequence in electromagnetics for our EE curriculum. The EMC/SI course for CPEs hasbeen offered several times. The initial redesign for the EM courses for EEs is complete and willbe implemented in the 2006/2007 academic year. Also included is an evolving elective course inhigh-speed design which has been offered since 1999.AcknowledgementThis work is supported by the National Science Foundation, CCLI A&I DUE-0410845.7 Wegratefully acknowledge members of our advisory board, Thomas Van Doren with the Universityof Missouri-Rolla, Bruce Archambeault with IBM at Research Triangle Park, and Gloria Rogerswith
concepts and analytical methods taught at theintroductory level. As a result, it has been agreed that student performance in introductorycourses should be based on individual assessments. Group exercises and team learningenvironments are integrated in the EET curriculum at the senior level to assist in the successfultransition of the student into his or her profession.The faculty within the department has traditionally used a weighted average comprised of gradedhomework assignments, quizzes, tests, and a final exam to determine an overall grade. Theeffect of graded versus non-graded homework in an introductory undergraduate engineeringcourse has been investigated [1], and previous research has illustrated the effectiveness ofhomework assignments
for engineeringstudents. At our university, undergraduate students at all levels have been and will continue tobe involved in water resources projects throughout their undergraduate careers. While our areais well suited for providing these projects, the approach can be emulated in many otheruniversities. The integration of projects across the curriculum provides a better studentexperience and understanding of civil engineering practice. Projects in the classroom should behandled like projects in professional practice with students taking responsibility for planning andexecuting the projects. Experience with freshmen students in these projects was particularly positive. Theelevation certificate survey provides an excellent elementary
Engineering education. Resource. July (pp. 13-15).4. Wells, J.H. and Taylor, T.A. (1996). First principles in Biological Engineering education. Resource. April (pp. 12, 22).5. Lauffenburger, D.A. (2003). Biological Engineering, The New Fusion of Biology and Engineering at MIT. http://web.mit.edu/be/about.html.6 . Gharib, M. (2003). Personal Communication.7. Ornstein A. C and Hunkins, F.P. (1988) Curriculum--foundations, principles, and issues. Englewood Cliffs, N.J.: Prentice Hall.8. Anderson, J. A. (1998). Learning and Memory: An Integrated Approach. John Wiley & Sons, Inc.9. National Academy of Engineering. Educating the Engineer of 2020: Adapting Engineering Education to the New Century. National Academy of Sciences, 2005. http
the end of the Spring semester, just in timeto present a better report to the conference. 2. IITS: Intelligent Interactive Tutoring System ShellFor the sake of completeness of presentation, we first give a brief summary of the IITSarchitecture. The IITS shell is an integration of various mathematical tools and an expert-system-type logical analysis/synthesis tools in a web-based environment. The IITS consists ofsix primary modules: 1) Domain knowledge module 2) Student model module 3) Student interface module 4) Instructor interface module 5) Student log module 6) Mathematical tools moduleThe IITS system is written in web programming language Java, and uses the MySQL
2006-2654: EXPERIENTIAL LEARNING FOR INDUSTRIAL ENGINEERINGCURRICULUMSandra Furterer, University of Central Florida Sandra L. Furterer, Ph.D. is the Assistant Department Chair in the Industrial Engineering and Management Systems department in the College of Engineering and Computer Science at the University of Central Florida. Dr. Furterer’s research and teaching interests are change management related to application of Lean Enterprise and Six Sigma, as well as engineering education.Jessica Jenness, University of Central Florida Jessica Jenness is an IEMS Masters student in Quality Engineering at the University of Central Florida. She has a Bachelor’s of Science in Statistics from UCF
lean phenomenon and summarize how it is similar to and differentfrom “traditional” IE. We then suggest how the essential elements of lean thinking can beintegrated throughout the core of an IE curriculum so that students are introduced to the essentiallean principles without the need for additional courses specifically devoted to lean. We alsosuggest how it may be possible for undergraduates enrolled in an IE program to obtain leancertification before graduation making them more desirable to companies who are pursuing leaninitiatives. Besides providing graduates with skills that are in high demand, certification canserve to emphasize the natural connection between industrial engineering and lean thinkingincreasing the awareness of the value of
2006-1042: DEVELOPING AN ENGINEERING EDUCATION RESEARCHCOMMUNITY OF PRACTICE THROUGH A STRUCTURED WORKSHOPCURRICULUMMaura Borrego, Virginia Tech MAURA BORREGO is an assistant professor of Engineering Education at Virginia Tech. Dr. Borrego holds an M.S. and Ph.D. in Materials Science and Engineering from Stanford University. Her current research interests center around interdisciplinary collaboration in engineering education, including studies of the collaborative relationships between engineers and education researchers and how engineering faculty learn educational research methods.Ruth Streveler, Colorado School of Mines RUTH A. STREVELER is the Director of the Center for Engineering Education
2006-563: THE EVOLUTION OF A TECHNICAL CURRICULUMRon McKean, Ferris State University Ron McKean – Is serving as Interim Associate Dean / Associate Professor in the College of Technology at Ferris State University (Big Rapids, MI). His academic experience includes 15 years as faculty (four as Department Chair) in the EET & CNS department. During this time, he has championed several curriculum initiatives including the BS Computer Networks and Systems. Prior to academics, he worked 14 years as an Electrical Engineer, Engineering Technical Manager, and Principle Investigator/Project Engineer. He holds a MSEE from the University of Michigan
11.1119.1© American Society for Engineering Education, 2006 Sequential Course Outcome Linkage: A Framework for Assessing an Environmental Engineering Curriculum Within a CE ProgramAbstractThe Department of Civil and Environmental Engineering has recently adopted anexpanded set of fifteen program outcomes identified in the American Society of CivilEngineers Body of Knowledge and conducted work leading to development of commoncourse goals with appropriate levels of cognitive achievement based on Bloom’staxonomy. In addition, the department has adopted a holistic process for investigatingand analyzing the linkage of individual course goals in various discipline-specific areasof concentration within the
is required in manyengineering programs. However, the topics covered in such a course are dependent on thespecific engineering discipline. Due to enrollment and resources, pre-engineering programstypically can only offer one engineering graphics course to meet the requirements of allengineering majors. This paper details the development of an engineering graphics course for apre-engineering program to meet the requirements of transfer universities regardless of theengineering discipline.Most students at UWMC transfer to universities within the University of Wisconsin System.Because of this fact, the curriculum of the UWMC pre-engineering program is designed forsmooth transfer to an engineering program within the UW System. The subject matter
engineering, management, and business skills to successfully integrate an increasinglycomplex body of knowledge for the rapid introduction of new products to the marketplace. Theintegrated program between the College of Engineering and the College of BusinessAdministration at UT prepares its graduates for two different, yet closely related, career paths:one geared toward becoming an entrepreneur and initiating new start-up companies, and theother focused on taking a lead management role in existing companies where the forces ofcompetition require rapid changes in design and manufacturing for a short product developmentcycle. Although the MS-MBA program at UT is still in its infancy, its curriculum and productidea base are continually being reinforced
participants with an opportunity to share their successes in leadership areas; • To provide an opportunity to exchange ideas with industrial leaders.The ETLI is a two or three-day event hosted by an engineering technology institution in the fall.In October 2005, the authors presented a workshop regarding ethics education. The purpose ofthe workshop was to provide background and motivation for the integration of ethics into theEngineering Technology curriculum and, to that end, involve the participants in exercises (casestudies) of varying complexity.ETLI ETHICS WORKSHOP: BACKGROUND PRESENTATIONIn order to build a small but common base from which to work, the background for a limitedbasis of ethical philosophies and decision making was presented
attended a professional developmentworkshop. Assessment rubrics are integrated into the learning module in order to evaluate theeffectiveness of the materials. Prior to using the curriculum, students take an online Interest andAttitude Questionnaire and Pre-Assessment to establish baseline attitudes and knowledge. Inaddition, a short (45 minute) team design challenge is used to evaluate the extent to whichstudent teams are using the engineering design process prior to exposure to the curriculum.Upon completion of these activities, the students begin the unit. Students are introduced to a dialysis patient and her doctor through a professionallyproduced video segment. The purpose of this segment is to provide societal context for
and control groups. The students in the control group were computer science majors; thestudents in the treatment group were a mix of computer science and other majors. CCP chose twodifferent courses in which to implement the curriculum. The first introduced a modified version of theAlice curriculum as a module in a course in which the primary focus was computer literacy. The modulelasted for two to three weeks on average, and focused primarily on the tutorial sessions available in theAlice software. Certain sections of this course were designated as treatment, others as control. In addition,CCP integrated the Alice curriculum into an introductory programming course as a five-week module. Nocontrol groups were selected for this course. TC3 had
to facilitate it by introducing theoretical tests (Robotics Olympiads) as integral parts ofrobot contests. We present our experience of theoretical tests at the Trinity College Fire-FightingHome Robot Contests [3], Botball Tournaments [4], and International Robot Olympiads [5].Teaching for Understanding and Aptitude DevelopmentAptitude can be defined as a capacity or potential for achievement in a given area based on theability to understand phenomena and principles both formally and through experience [6]. Thethree components of the aptitude are knowledge, ability, and motivation.Development of aptitude and understanding is not an automatic result of any learning process.From the experience of educational studies in mathematics and science
responsible for delivering thesubject matter.A complete project evaluation was an integral part of this course. The class project utilizedPEEP®, a widely used industry software package for economic evaluations. PEEP® software isindustry specific software that generates production and economic information for decisionmaking purposes for oil and gas companies. Not only did it contribute to a substantial part of thestudent’s grade, but also it tied many of the different subject areas together. It helpeddemonstrate to the students how the engineering and business aspects were related and oftendependent on the other (e.g., information regarding financing or costs was needed in order tomake engineering decisions). The students were required to work in
2006-2020: PROVIDING AN INTEGRATED INTERNATIONAL EXPERIENCEFOR UNDERGRADUATE ENGINEERING STUDENTS AT A SMALLINSTITUTIONEric Johnson, Valparaiso University Eric Johnson is the Paul and Cleo Brandt Professor of Engineering and an Associate Professor in the Electrical and Computer Engineering Department at Valparaiso University. His area of scientific research is design process methodologies and his teaching interests include introductory computer design courses and the development of international experiences for engineering students.Sarah DeMaris, Valparaiso University Sarah DeMaris is Professor of German and Director of the Kade-Duesenberg German House and Cultural Center at Valparaiso
2006-77: INTRODUCTORY MEMS TECHNOLOGY USING BULKMICROMACHINING IN THE SEMICONDUCTOR MANUFACTURINGCURRICULUMDugan Um, Southwest Texas State University Page 11.844.1© American Society for Engineering Education, 2006 Introductory MEMS technology using Bulk Micromachining in the Semiconductor Manufacturing Curriculum I. Introduction Microelectromechanical systems (MEMS) are small, integrated devices or systems thatcombine electrical and mechanical components. They range in size from sub micrometer (or submicron) to millimeter. MEMS extends the fabrication techniques developed for integrated circuitindustry to micromachining and manufacturing by adding
topics of chemical sciences andtechnology. This course was eventually extended and also became an integral part ofarchitectural, building and civil engineering curricula. Though all undergraduate engineeringstudents at VUT had sound fundamental science background in disciplines of mathematicsand physics, more than half of these students had no exposure to chemical sciences beyondthat offered as part of general science curriculum at junior levels in secondary schools andcolleges. This paper deals with the development of chemical syllabus and its refinementsince its introduction in 1995 and is outlined in this paper.The students’ lack of previous background in chemistry combined with the lack oflaboratory resources and constrained by that this
2006-1246: INTEGRATION OF A DSP HARDWARE-BASED LABORATORY INTOAN INTRODUCTORY SIGNALS AND SYSTEMS COURSELisa Huettel, Duke University LISA G. HUETTEL, Ph.D., is an Assistant Professor of the Practice and Director of Undergraduate Laboratories in the Department of Electrical and Computer Engineering at Duke University. Her research interests include the application of statistical signal processing to remote sensing and engineering education. She received her M.S. and Ph.D. in Electrical Engineering from Duke University. Page 11.797.1© American Society for Engineering Education, 2006
suchas computer-aided drafting, statics, strength of materials, dynamics, thermodynamics, fluidmechanics, automation and controls, and computer solid modeling. All four options thenculminate in three senior technical electives and a senior project that integrates course work witha practical project assignment in the student’s area of interest. Upper-division generaleducational requirements may be accomplished by completing a minor in EngineeringManagement. Table 1 – Senior Electives within MET Curriculum Manufacturing Systems Mechanical Systems Design MET 400, Computer Numerical Control in Production MET 440, Heat Transfer MET 410, Advanced Manufacturing
challenging strategy computer games, have become a big part of our everyday routine.Other, less obvious, applications, such as automatic target recognition, earthquake prediction,gene expression discovery, intelligent credit fraud protection and affectionate computing, tomention just a few, are examples of cutting-edge applications of ML in various technological,scientific and financial domains.This paper describes the outcomes of a prototype project titled “PROJECT EMD-MLR:Educational Materials Development through the Integration of Machine Learning Research intoSenior Design Projects“, whose intellectual focus is ML. The project is an on-going, multi-institute effort that started in May 2004. The project partners are two major universities