paper is based on the recommendations made by the National Science Foundation andControl Systems Society of IEEE. In light of those recommendations and issues discussed at aNSF/CSS workshop, the author raises the question of appropriate contents for a control systemcourse as taught in a typical first course ET program. Presently, the majority of electrical, somemechanical and almost all electromechanical engineering technology programs have a course intheir curriculum called control systems. Even though they carry the same name, most often theircontents are drastically different. In many programs the focus of the course is on the applicationof typical classical control. There are some programs where the whole course is aboutapplication and
. bibliographicFOM for Class B (Class A was not considered due to extremely low citation level). Page 12.577.6 Figure 1. Final project score vs. Bibliographic FOMFigure 1 shows a positive correlation (c > 0.5) between grade and references cited. Although thiscould be explained by the generally high performance of detail-oriented students, the results areencouraging and could indicate a higher level of research ability resulting from finding,digesting, and citing scholarly references.ConclusionThis paper reports on the effects of focused library instruction on electrical engineering designprojects. Two classes in consecutive
closer starts moving and continues until the door is completely closed. Thehydraulic door closer has rotating parts that can provide a potential mechanical energy source.This energy source is converted appropriately to electrical energy to provide power to a low-power wireless sensor.In the first phase of the project, an appropriate gear set is designed to increase the speed of therotation so that it is able to provide enough rotation speed for the generator. Then a power circuithas been designed to implement and manage energy conversion. This circuit will regulate thevoltage for a wireless sensor node. Before implementation of the experiment, necessarycomputer simulations were conducted. If the sensor node functions appropriately with the
value of good team work.The project emphasizes on the word team because team is not same as group. The term groupimplies a somewhat more than a collection of individuals but the team implies much more [2].The curriculum in any specific area of study tends to narrowly focus students on that area,whereas real-world multifaceted systems tend to incorporate components from multipledisciplines. The development of such systems has shifted from designing individual componentsin segregation to working in cross-functional teams that include the variety of proficienciesneeded to design an entire system [1].The counter design provides an opportunity for studentsinterested in electronics, design, application and troubleshooting to combine their interest
AC 2007-1053: A CAPSTONE ANALOG INTEGRATED CIRCUITS PROJECT FORELECTRONICS ENGINEERING TECHNOLOGY MAJORSDavid Pocock, Oregon Institute of Technology DAVID N. POCOCK is an Associate Professor and is the Curriculum Coordinator and head of the Analog Block of the Electronics Engineering Technology department at Oregon Institute of Technology in Klamath Falls, OR. His main research interests are semiconductor device modeling, infrared focal plane arrays, nuclear radiation effects, and web-based real electronics labs for distance education.Kevin McCullough, Oregon Institute of Technology KEVIN MCCULLOUGH is a Senior at Oregon Institute of Technology in the Electronics Engineering Technology
these I/O modules in several of thelaboratory assignments and projects, in the embedded controller courses, show students about theimportance of building fully functional and robust hardware that could be used in othercoursework and projects. Figure 1. I/O modules built by the students in the Electronic Fabrication courseThe Embedded Controller Fundamentals CourseIn engineering technology programs the connection between course concepts and real-worldapplications is very important. Exposure to real-world applications early in the curriculum is animportant factor in student interest, long-term understanding and retention5. Also in 2-yearprograms students should experience the
. McLellan et al., “Using multimedia to teach the theory of digital multimedia signals,” IEEE Trans.Education, pp. 336–341, Aug. 1996.4. C. C. Munson, “Elements of a new Electrical Engineering curriculum at Illinois: A shift from circuits to signalprocessing,” in Proc. 1995 IEEE Symp. Circuits and Systems, vol. 2, 1995, pp. 1–4Sf.5. B. Masi, “The impact of faculty-mentored versus web-guided engineering design experience on freshmanskills,” in Proc. 2003 Annual Conference of the American Society of Engineering Education, 2003. Page 12.718.14
to teach jitter analysis a little at a time, in several courses, as students progress through their undergraduate curriculum. Given that approach, several topics are appropriate to work into one or more first-year courses, in order to lay a foundation for a more in-depth treatment in later years. The basis for this discussion will be the Electrical and Computer Engineering Technology (ECET) curriculum at Purdue’s College of Technology. Jitter analysis fits within Purdue’s ECET program objective outcome 3.1: Analyze, design, and implement electronic systems using control, communication, computer, or power systems.” 2 Page
addition, a project notebook is maintained byeach student and used to record ideas, data, test results, and experiences throughout the project.IntroductionThe course Topics of Applied Design is offered autumn quarter of the junior year forbaccalaureate students in Electrical and Computer Engineering Technology. Prerequisites for thecourse include three course sequences in electronics, electric circuits, and digital electronics. Inessence, students have completed the major technical sequences required for an associate degreein Electrical and Computer Engineering Technology. The primary focus at the beginning of thejunior year is to introduce students to a course in applied design that utilizes a capstone projectas a learning vehicle to bring
Electrical and Computer Engineering Technology from Purdue University, Calumet in 2007. His current interests reside in remotely operated vehicles (air, water, and ground based), robotics, and embedded systems (specifically, microcontrollers programmed using BASIC, C, and Assembly languages). Page 12.953.1© American Society for Engineering Education, 2007 INTERNET CONTROLLED UNDERWATER VEHICLEAbstractThe paper provides an overview of design, development, and testing of the Internet ControlledUnderwater Vehicle. As a senior design project it provides the students an integratingexperience of the knowledge and
. Page 12.99.1© American Society for Engineering Education, 2007 A Project-Based Approach to Teaching the Nuclear Fuel CycleAbstractThe nuclear fuel cycle – defined as the series of processes through which materials passin the course of electricity generation – is accepted as a subject in which graduatingnuclear engineering students should be well-versed.While a technology-based, water reactor-based approach to teaching the fuel cycle has agreat deal of validity, it can be argued that other approaches can offer students superiorpreparation to participate in today’s national (e.g. the Advanced Fuel Cycle Initiative andGlobal Nuclear Energy Partnership) and international debate regarding the futuredirection of the fuel cycle. The concepts
Technology Electrical and Computer Engineering Department Dr. Dan Moore is the associate dean of the faculty and professor in the Electrical and Engineering Department at Rose-Hulman Institute of Technology. He received his PhD in Electrical Page 12.235.1 Engineering from N. C. State University in 1989 in the area of compound semiconductors. He directed the departmental senior design program for several years and now oversees externally sponsored multidisciplinary graduate and undergraduate projects. His current research interests include engineering design methodologies
Education, 2007 The Current Generation of Integrated Engineering Curriculum - Assessment After Two Years of ImplementationAbstractIn September of 2004 our university adopted the Multidisciplinary Engineering FoundationSpiral Curriculum as the basis for disciplinary engineering programs in Chemical, Civil,Electrical, Mechanical and General Engineering. The curriculum includes a sequence of firstand second year engineering courses, matched closely with the development of students’mathematical sophistication and analytical capabilities and integrated with course work in thesciences. Students develop a conceptual understanding of engineering basics in this series ofcourses which stress practical applications of these principles.The
obtained in 2003 the substantial equivalence certification from ABET, for the curricularprograms in Civil Engineering, Electrical Engineering, Mechanical Engineering, ComputerScience Engineering and Chemical Engineering. This is the first Engineering School in Chile andthe second in Latin America in obtaining this recognition.Despite this encouraging situation, the School decided two years ago, to start a deep curricularrevision process. One of the triggering facts for this decision was the award of public funding(project MECEUP UCH0403, www.reing.cl), in order to develop a joint initiative with ourcolleagues from Universidad de Chile. Its objective in short, was to do a thorough analysis of themethodologies that are been used internationally for
AC 2007-756: MOBIUS MICROSYSTEMS: A CASE STUDY IN THECOMMERCIALIZATION OF GRADUATE RESEARCH IN ELECTRICALENGINEERINGMichael McCorquodale, Mobius Microsystems, Inc. Michael S. McCorquodale was born in Richardson, TX, on November 12, 1974. He received the B.S.E. degree with honors in electrical engineering from the University of Illinois at Urbana-Champaign in 1997. For the next year, he was with Hughes Space and Communications Co., El Segundo, CA, where he developed GHz InP and SiGe digital integrated circuits. In 1998, he began graduate work at the University of Michigan where he completed the M.S.E and Ph.D. degrees in electrical engineering in 2000 and 2004, respectively, in the National
[cited; Available from: http://www.qsrinternational.com/products/productoverview/N6.htm.33. Russell, M., A. Goldberg, and K. O'Connor, Computer-based testing and validity: a look back into the future. Assessment in Education, 2003. 10(3): p. 279-293.34. Kruhlak, R., et al. Online Practice and Assessment in First Year Physics. in Canadian Association of Physicists Congress. 2005. Vancouver, Canada.35. Gordijn, J. and W. Nijhof, Effects of complex feedback on computer-assisted modular instruction. Computers and Education, 2002. 39(2): p. 183-200.36. Chen, P.M., An automated feedback system for computer organization projects. IEEE Transactions on Education, 2004. 47(2): p. 232-240
that an electronicstechnician needs, or for that matter, first defining what an electronics technician does. Again, thisissue does not effect the two-year ABET programs as much since they are inclined to emphasizethe basics for two years and tend to defer the applications of the technology to the upper-levelfour-year programs. These curriculum issues will be addressed in more detail later in varioussections of this paper.How have ET faculty reacted to the problem of declining enrollment? During the last decade,across the nation, numerous legacy electronics technology programs at the two-year level haveopted to become Cisco and A+ based computer networking and repair programs by adding theseoptions to their degree offerings. Many faculty in ET
terms the method can bedescribed as “Group students on teams with similar challenges, and everybody will benefit”.IntroductionThe engineering program at Grand Valley State University has a strong industrial focus. In sup-port of our mission, projects have always been used extensively throughout the curriculum. Theproject process begins in the freshman year using formalized project management experiences forthe students, and management procedures for the faculty. The typical sequence for a project isgiven below2. 1. Team formation 2. Needs identification 3. Conceptual designs 4. A detailed design proposal 5. Approval Page 12.62.2
* 5 3 0 3 High Frequency Systems 6 3 3 4 Embedded PCs 6 3 3 4 Biomedical Instrumentation* 7 3 3 4 BMET Elective (ECET) 7 3 3 4 BMET Elective* 8 3 3 4 BMET Capstone Project/Internship* 8 3 3 4The curriculum adds five new technical courses to a core of ECET, mathematics, English,science, and social science courses. The program is structured within the 130 credit-hour limitset by
required core course every semesterwith a S-L project that is either a required or elective part of the course. During 2005-06fourteen core ME courses had S-L projects, and a required engineering ethics course alsohad S-L in addition to four elective courses. Nine of twelve ME faculty membersincorporated S-L in those courses (more recently 12 of 13), in addition to 3 facultyoutside the department teaching courses for ME students. This initiative is part of acollege-wide effort to have all five undergraduate programs have S-L integrated into thecore curriculum (ECE, ChE, CE, and Plastics E).Courses and projects included, for examples, introduction to engineering for first yearstudents (common to students in all five programs) who designed and built
outside our traditional service area. We havehad considerable success in delivering Applied Project Management via our own CART CMS Page 12.522.3and wanted to explore the possibility of using it more extensively throughout the curriculum.This expansion of web-based delivery presents obvious and not so obvious challenges particularto the delivery of an MIET Online curriculum. We are in the process of critically analyzing theadvantages and disadvantages of such program delivery.2. MIET Online Admission RequirementsTo enter our program a student must be 21 years of age and have completed an associate degreeor the equivalent from an accredited
the assessment, design, development, delivery and evaluation of large nationwide curricula. Page 12.554.2© American Society for Engineering Education, 2007 Distance learning in the graduate-level ocean engineering curriculumAbstractVirginia Tech is an established leader in distance learning with 85% of departments offeringsome form of electronic courses 1 . The graduate level Ocean Engineering curriculum is fullyavailable to off-campus students, thus allowing professionals anywhere in the world to earn anMS degree. The MS in Ocean Engineering was the first program in engineering at
Earth and Environmental Engineering 4 6 5 Electrical Engineering 37 36 19 Industrial Engineering/Operations Research 26 41 95 Mechanical Engineering 32 33 38 TOTAL 339 321 324Course Structure:A typical class session is approximately three hours and is divided into two equal parts. Aninstructional lecture about professional development and project management skills isadministered during the first half of the class session, with built-in
the curriculumthat should be used to teach technology. As a result, the technology programs from stateto state, and from district to district within individual states, vary widely in both qualityand content, with no defined metrics to test student aptitude. Thus one school’stechnology program may provide students with instruction in cabinet making and metalworking while another school in the next school district may be teaching digitalelectronics, robotics and, multimedia design.The goal of any far-reaching STEM program needs to address the curriculum needs oftechnology education. Programs such as Project Lead the Way (PLTW)[12] and TheInfinity Project[13] have stepped into this perceived curriculum void and have createdprograms that bring
AC 2007-1495: EFFECTS OF THE TEAM-BASED APPROACH ON INDIVIDUALLEARNINGJason Pitts, Oklahoma State UniversityPatrick Teague, Oklahoma State UniversityAlan Cheville, Oklahoma State UniversityCharles Bunting, Oklahoma State UniversitySohum Sohoni, Oklahoma State University Page 12.588.1© American Society for Engineering Education, 2007 Effects of the Team-Based Approach on Individual Learning1.IntroductionThis study is a part of the ES21C project at Oklahoma State University. The goal of ES21C is toprepare OSU electrical engineering students to meet the challenges of engineering in the 21stcentury. The proposal for the ES21C project gives the following summary
Electrical and Computer Engineering Tennessee State University 3500 John A Merritt Blvd, Nashville, TN 37209AbstractEmbedded systems are the fastest growing areas of computing in recent years. This growingpopularity calls for engineers with experience in designing and implementing embedded systems.This paper describes an undergraduate embedded system design course in our curriculum that isoffered as technical elective for senior students. The course contents, organization of thematerials and the laboratory are presented. This course is designed by introducing a balancedview of software and hardware concepts in the design process. The objectives of this course areto expose students to the field of
-friendly, time and memory efficient computer programs. In order to gainexperience in practical problem solving, examples from various engineering disciplinesincluding civil engineering, mechanical engineering and electrical engineering are used.After completing Computational Modeling, students are expected to be able to: • Formulate a problem, • Select the best solution approach, • Analyze it using computational modeling, • Perform an error analysis, and • Communicate the results in a user-friendly, written and graphical form.Course Integration ExamplesFour projects were selected for the course integration effort. The problems from the first threeprojects were first presented as example problems in the Statics course. In subsequent weeks
must demonstrate that their students attain…an ability to function on multi-disciplinary teams.”1 This requirement can be met in a numberof ways, including a structured simulated experience or by an actual capstone project thatrequires the involvement of several disciplines.Our university offers a bachelor of science degree in engineering (general engineering) withconcentrations in biomedical (BME), computer (CE), electrical (EE), mechanical (ME), andmaterials joining engineering (MJE). Much of the curriculum is interdisciplinary. All engineerstake core courses including Statics, Dynamics, Circuits, Mechatronics, and Thermodynamics.Design projects have been included in several of these courses. In parallel, the Department ofEngineering
inquiry-based methodologies. In this project, the Signals and Systems class is beingtotally redesigned. Using Microsoft Excel® and Matlab®, in-class exercises have beendeveloped to motivate and demonstrate key concepts in Signals and Systems. This process hasbeen incremental with some changes made every year and was first described in “Studio-BasedSignals and Systems”. The current paper reports on the status of this transition and, mostimportantly, concentrates on an assessment of the effectiveness of the changes based on theSignals and Systems Concept Inventory (SSCI) published by Buck et al. Using the SSCI in apre- post-test format, we quantified the gain in concept understanding that the students get fromthis new classroom format. It also
Institute of Technology GEORGE SLACK is Instructor of Electrical Engineering at RIT with primary interest in Senior Design and Digital Systems. Prior to RIT, he was a project manager and engineer in design engineering at Xerox Corp and Bosch Corp. George has an MS degree from University of Page 12.1231.1 Rochester. He can be reached at gbseee@rit.edu.© American Society for Engineering Education, 2007 Redesigning a College-Wide Multidisciplinary Senior Design Program at RITAbstractSince 2002, the Kate Gleason College of Engineering (KGCOE) at the Rochester Institute