consulted to help shape the new plan of study.For many years, the Purdue EET program prided itself as being one of only a few in the UnitedStates with a strong electric power program. The plan of study included a required electricmotors course, which was organized in a traditional pattern of magnetics, DC machines,transformers, and AC machines. Electives included a course oriented toward electric utilityoperations (generation and transmission), an electrical distribution course, 1 and two controlscourses. Despite this history, some faculty viewed the required course as a target for elimination,which would allow other topics to be included. Surprisingly, however, there were a few non-power faculty who felt the course should be kept exactly as it
modularizedcurriculum model in Mechanics designed to serve the needs of students pursuing degreesof Bachelors of Manufacturing Engineering (BME) and Bachelor of Science EngineeringTechnology (BSET) in Manufacturing. The curriculum provides a unified learningexperience including topics in mechanical physics, statics and dynamics rather than thetraditional distinct courses in these subjects. All learning experiences are rooted first inpractical applications with which the students are familiar and focus on instilling anintuitive understanding of key concepts prior to the introduction of formal analyticaltechniques. The complete curriculum is being implemented in computer-basedmultimedia form, allowing for individualized self-paced learning.1. Introduction
be used in either study mode or lecture mode and contains various exercises,animations and quantitatively correct simulations. The combining of these with other learningresources such as mathematical packages and laboratory work is considered.1. IntroductionThere would appear, from recent reviews of engineering education in the USA1 and inAustralia2 that there is strong impetus towards a broadening of engineering courses and astriving to make students more central in the whole educational process. Coupled with thesedirections is a highlighting of longlife learning aspects so that students progressively takegreater control of their learning. This means that as important as the technical skills is theobtaining of the learning skills to ensure
course is designated exclusively to hands-on experience. The course is designedto cover a wide area of fiber optic basic theories and applications. It includes laboratoryexperiments introducing students to the following: basic knowledge, skills and manual dexterityneeded for handling and testing fiber optic waveguides, characteristics of optical components,fiber optic communication systems, and fiber optic sensing systems. 1. INTRODUCTIONThis paper describes the development of a one semester credit undergraduate laboratory course(Optical Fiber Laboratory) to be taught concurrent with the Optical Fiber Communicationslecture course (Optical Fiber Communications). The project is supported by: 1. National
1 Session 2560Development of Social Literacy in First Year Engineering Curriculum Josef Rojter Department of Mechanical Engineering Victoria University of Technology P.O. Box 14428, MMC Melbourne VIC 8000 Australia Page 3.211.1 1 2ABSTRACT A revised first year
Session 2266 Development of Undergraduate Laboratories in Thermal-Fluids Area Through Student Involvement Ganesh V. Kudav Youngstown State UniversityIntroduction The undergraduate mechanical engineering curriculum at Youngstown StateUniversity (YSU) currently requires the students to take three experiment-oriented 1-quarter-hour laboratory courses from the areas in applied thermodynamics, stress-strain analysis, heattransfer, fluid mechanics, vibrations, acoustics, and advanced machine design. These labcourses are offered at the senior level and the
control topics,modern digital control topics and digital filter synthesis techniques. A topical outline is given inTable 1. Table 1. Course Outline Review of z-transforms The pulse transfer function Single-loop controller design PID and lead-lag controllers Ragazzini controller design Digital filter synthesis Discrete-time state variable representation State feedback and associated algorithms Prediction, current and reduced order observers Nonzero setpoints versus regulators L-Q optimal control Reciprocal root locus
3.214.1DiscussionSteady State AC Analysis - SophomoresCharles Steinmetz, in the late nineteenth century, developed a method for the steady stateanalysis of electric circuits that are excited by sinusoidal signalsi. Sophomore EE/EETstudents recognize this as the complex impedance approach to AC circuit analysis.Presentation of this technique frequently begins with the assertion that the forcedresponse of a linear time invariant (LTI) system will often be of the same form as theforcing function (e.g., a sinusoidal input yields a sinusoidal output of the same frequency,with, perhaps, a phase shift). A more detailed examination exposes that the mathematicalorigin of this assertion is the fact that: (1) the response of a LTI system to the complexexponential, ejωt, is
environment is shown in Figure 1. A simple trussmodel is being analyzed with most display options turned off to avoid clutter. As shown, theDr. Frame window consists of a main viewing pane, a toolbar, and a status/feedback pane at thebottom of the window. The main viewing pane itself can be subdivided. The primary view ofthe structure is on the left. This is the view which the user manipulates and modifies. Forclarity this figure does not show the displaced state of the structure, but it possible – and Page 3.215.1frequently useful – to superimpose displacements on this main view of the structure. Theauxiliary view on the right is used to show internal
Session 1238 Distance Collaborations With Industry A. Peskin, K. Swyler Brookhaven National LaboratoryThe Case for Distance CollaborationsThe college-industry relationship has been identified as a key policy issue in EngineeringEducation. [1] Collaborations between academic institutions and the industrial sectorhave a long history and a bright future. For Engineering and Engineering Technologyprograms in particular, industry has played a crucial role in many areas includingadvisement, financial support, and practical training of both faculty and students. Amongthe most important and
Session 1248 Distance Collaborations With Industry A. Peskin, K. Swyler Brookhaven National LaboratoryThe Case for Distance CollaborationsThe college-industry relationship has been identified as a key policy issue in EngineeringEducation. [1] Collaborations between academic institutions and the industrial sectorhave a long history and a bright future. For Engineering and Engineering Technologyprograms in particular, industry has played a crucial role in many areas includingadvisement, financial support, and practical training of both faculty and students. Amongthe most important and
evaluations.Current StudiesSince the original study comparing studio, live remote and delayed remote, we havebegun to experiment with live broadcast using the Internet and CU-SeeMe® (CU-SeeMe® is White Pine's desktop Videoconferencing software for real time person-to-person or group conferencing). University of South Florida, and specifically theIndustrial and Management Systems Engineering Department, has been designated as aBeta Test Site and Reflector point for CU-SeeMe®. To participate in the experimentalalternative broadcast students at participating sites must agree to the following:1. The student agrees to use the following minimum equipment (or higher) and not to deviate from it. Hardware: IBM PC or clone - Pentium/100 MHz (or higher
%) students were Rochester-area studentswho utilized distance learning to overcome the barriers of time and place. During thistime period 15% of these students were full-time RIT students and 9% were part-timeevening students. 1 While the number of remote students has continued to grow, distancedelivered courses also remain popular with co-op and full-time students with schedulingproblems. The distance program at RIT includes four different Master of Science degrees,three Bachelor of Science degrees, and eleven professional certificates. The Departmentof Electrical, Computer, and Telecommunications (ECT) Engineering Technology (ET)offers courses for three of the professional certificates and two of the Bachelor of Sciencedegrees in two
. The Page 3.220.6latter evaluations, called Student Ratings of Teaching Effectiveness (SRTE’s), allow the studentsto rate the course on a set of sixteen, seven-step evaluative scales.The results of the content evaluation techniques and the SRTE’s are shown in Tables 1 and 2respectively.An evaluation of the effectiveness of the course was made by conducting paired comparisons ofthe mean scores for each assessment method of the students in the host classroom versus those inthe distance classroom. Overall, there was no difference in the baseline measure between the twogroups, some differences in performance measured by traditional content
various semiconductor switchingdevices, we ask students to use a Curve Tracer, Tektronix 370 specifically, to study switchingcharacteristics for Bipolar Junction Transistor (BJT), Metal Oxide Semiconductor Field EffectTransistor (MOSFET), Insulated Gate Bipolar Transistor, Silicon Controlled Rectifier (SCR), etc. Atypical characteristic curve for MOSFET IRF150 is shown in Figure 1. Most controllable switches(BJT, MOSFET, IGBT, etc.) used in power electronics circuits are either fully ON or completelyOFF, i.e., they are used as switches. Turn on and turn off characteristics such as voltage drop acrossswitches when they are fully ON, minimum voltage to turn on MOSFET, minimum gate current totrigger SCR, etc. are important parameters for students to
the outstationsites.The following lessons were learned from using this system which apply to all our distancelearning activities: 1. Physical distance among classrooms has no bearing on the dynamics of classroom or learning. There are advantages of classrooms being near each other. However, quality of sound is very important when all members of the class can hear anyone for greater interaction among students and the instructor to reduce the impact of physical distance. 2. Voice contact is comparatively more important than the small faces appearing on visual images on the screen. 3. More preparation required for the classes. The relevant material for the class session must be in the hands of the students at the beginning
Session 3620 Distributed Instrumentation and Computation: A Look at What’s Out on the End of the Internet Jerry C. Hamann, Suresh Muknahallipatna University of WyomingAbstractThis paper provides an overview of some emerging uses of the internet in engineering educationand research. Included are descriptions of unique instrumentation and laboratory facilities madeavailable to the world community by way of the ubiquitous web.1. IntroductionThe internet is truly becoming commonplace in education, industry and commerce. It provides achannel for entertainment
Session 1633simultaneously obtain the necessary knowledge of the point, how about the relationship withor instruction concerning his operation from other points, etc. Multimedia technology is usedanother screen. The combination of operation in the demonstration of each knowledge point,skill training and related knowledge training is and 3D animation is introduced to explain theeffective because it tells the operator both how to inner structure and make the physical fieldsoperate and why to do so. visualized in the corresponding knowledge points. For example, Figure 1 shows the2. System Description
Session 3251 A Drainage Module for Environmental Engineering Joseph Cataldo The Cooper Union for the Advancement of Science and ArtAbstractThis study consists of a learning module for undergraduate environmental or civil engineeringstudents. The module is separated into two. The first half of the module is structured aroundthree illustrative examples. A state of the art computer program, “Flood Hydrograph Package”(HEC-1), developed by the US Army Corps of Engineers, is used in all of the three examples.This program is used in engineering practice to determine watershed flooding
at CSM during the spring semester of 1997 that provided a potential answer: (1) TheStudent Council for Mines Little Theater (MLT) voted to allow an all-student production team toproduce the musical, The Music Man; (2) two of the three professors involved with the projecthave extensive backgrounds in theater; (3) one of those two professors happened to be teaching asophomore level Design (EPICS) course that semester; and (4) the third professor, a designengineer by trade and passionate inclination, auditioned and acted in the production. This articlereports the insights we gathered observing this all-student production team in action and, basedon these findings, to propose a working model to develop and to teach teams in design,leadership
Session 1526 PS/18 DSP Does It Mahmood Nahvi, Professor Electrical Engineering Department California Polytechnic State University San Luis Obispo, CaliforniaContents:1. Summary2. Introduction3. Objectives of the Course and Laboratory4. Students' Background5. Laboratory Facilities6. Experiments7. Programming DSP Boards and Chips8. Discussion and Conclusion9. References1. SummaryUndergraduate engineering students are generally more enthusiastic about subjects whichprovide them with
data has been entered, the users can view the root locus plot of any mode. Be-low is a screen shot of the Root Locus form. Figure 1 – Root LocusAside from the traditional root locus plots, Archangel98 allows the user to choose any element inthe system to be the “gain”, or pseudo gain. The user chooses a fixed closed loop gain, and thenchooses any element in the system to be the pseudo gain, as well as selecting its range of values.At this point, the closed loop poles are migrated as the pseudo gain is varied. What this providesis more of an educational tool then a design tool, in that the user can see the effect a parameterhas on the system
these problems by providing a simple electronics calculator with a powerful graphical user interface. 1. INTRODUCTIONECALC v2.0 is a menu-driven windows-based1 interactive program for the solution ofknown electronic circuits. With ECALC you can solve the basic types of transistorcircuits found in a typical analog electronics course. The main type of calculations thatECALC can perform are: • DC Bias calculations, and • Small-signal amplifiers calculationsfor electronic circuits with one transistor (one stage). In its present version ECALC is capable of analyzing circuits composed of bipolarjunction transistors (BJT) and some members of the FET family of transistors, namelyjunction
natural systems. This approach represents anew paradigm for engineering design. In another paper, we identified principles to guide thosepracticing ecological engineering that reflect our own thinking as well as ideas from others whohave written on engineering and ecological design (Bergen et al., 1997b). The five basic designprinciples we propose are: 1. Design consistent with ecological principles 2. Design for site-specific context 3. Maintain the independence of design functional requirements 4. Design for efficiency in energy and information 5. Acknowledge the values and purposes that motivate designWe define ecological engineering broadly and advocate its application to a number of problemareas. Potential applications
Page 3.229.1six responses were received from supervisors. Finally, a group of part time (evening) students (1)were asked to complete a similar survey. The part time students are adult students who hold fulltime jobs. Hence, they are familiar with the workplace and know why they are going to schooland what they hope the degree will do for their career. We wanted to learn how similar theirresponses were, compared to the alumni responses and if current evening students could providea proxy for our alumni in future surveys. A total of 133 responses were received from EETstudents, including 74 alumni and 47 current part time students. RESULTSTo characterize the
. wasdue to international students[1]. In 1993/94 international students in the field of engineering totaled76,055 or about 17 percent of the international student population. The number of internationalstudents at the University of Nevada, Las Vegas was 427 in 1992/93 and 503 in 1993/94; at theUniversity of Toledo, it was 1440 in 1992/93 and 1349 in 1993/94. Accordingly, efficient methodsmust be implemented to guide these students through U.S. institutions of higher learning.UNIVERSITY PROGRAMSTo guide international students, as well as native born students, through their educationalexperiences, universities must develop and execute a number of programs/policies. These programsinclude Orientation
3-phase 3-pulse rectifiers, the main points were summarized in the following manner: 3 phase, 3 pulse rectifier circuit operation (Page 14 to page 17) Main Points: The voltage of K always follows the highest line voltage of the three phases. L is assumed very large, so that output current can be considered having no ripple at all. The diodes used are ideal diodes with zero switching delay. Hence, the shape of the output current is rectangular. But, this causes electromagnetic interference. UF of the transformer is only 74%, as each phase conducts 1/3 of the time in every cycle.Because it points out clearly the main points of important areas of the subject, this workbook waswell received by the
live forms, simulators are used as tools for design, concept development,demonstrations, and as supplements to laboratory experiments. In a laboratory environment theirspeed of operation and input-output capability place them on a par with analog simulators and Page 3.231.1their programming flexibility gives them an advantage.A previous paper[1] discussed some basic aspects of the dynamics of interaction between thestudent and the computer with emphasis on the sensory-motor, decision, and computationalprocesses involved. The man-machine interaction is modeled by the diagram of Figure 1. Theuser changes parameters of simulation by hand, fingers
Web-based tools are examined. IntroductionKhan noted that the Internet is increasingly becoming an influential medium for delivering“dynamic and global education” while concurrently enabling students and instructors to interactregardless of time or place.1 In the past several years, the use of Internet technology, enabling theconnection between individual computer networks, has exploded in the United States and aroundthe world. From electronic commerce to education, the Internet has become a vital resource tocompanies, government, and academia. In the academic community, there is much fanfare andexcitement concerning its revolutionary implications for educational improvements. However,there exists