. Page 11.94.1© American Society for Engineering Education, 2006 A Power Systems Analysis ProjectAbstractThis paper describes a six-week laboratory project in which students analyze a small powersystem. The analysis is done with PowerWorld and is supplemented with MatLab calculations.The students were provided information concerning a small (seven bus, two generator) powersystem. They were required to assemble all of the information into tables, both in actual valuesas well as in per unit on a common base, before beginning the analysis. Since the system wassmall, students could manually calculate Ybus and Zbus values and compare them to thePowerWorld results. Any discrepancies had to be resolved in order to get the
2006-1309: A PROJECT EXPERIENCE IN POWER ENGINEERING DESIGNASPECTSGiri Venkataramanan, University of Wisconsin-Madison Giri Venkataramanan received the B.E. degree in electrical engineering from the Government College of Technology, Coimbatore, India, the M.S. degree from the California Institute of Technology, Pasadena, and the Ph.D. degree from the University of Wisconsin, Madison. After teaching electrical engineering at Montana State University, Bozeman, he returned to University of Wisconsin, Madison, as a faculty member in 1999, where he continues to direct research in various areas of electronic power conversion as an Associate Director of the Wisconsin Electric Machines and
2006-1124: BRUSHLESS DC MOTOR PROJECT IN AN INTRODUCTION TOELECTRICAL ENGINEERING COURSEStephen Williams, Milwaukee School of Engineering Dr. Stephen Williams is Associate Professor of Electrical Engineering and Computer Science at the Milwaukee School of Engineering (MSOE). He received the Ph.D. degree from the University of Missouri in 1990 and has 20 years of experience across the corporate, government, and university sectors. He is a registered Professional Engineer in Wisconsin. He teaches courses in control systems, electronic design, and electromechanics. Page 11.291.1© American Society for
outfitted withanemometers in southern New Jersey. The students are gathering critical resource data forassessing the economics and effectiveness of wind turbines for potential customers throughoutthe coastal environs of New Jersey. The students have also created the New Jersey AnemometerLoan Program official website4 which provides consumer outreach, online wind resource links,and essential “how-tos” regarding wind resource assessment.II. IntroductionEngineering clinic educational objectives at Rowan University include the following:At the conclusion of the course, students will (i) Demonstrate expanded knowledge of the general practices and the profession of engineering through immersion in an engineering project environment of
problem. Ingeneral, there is at least the potential that these fluids could contaminate the pumpedwater or otherwise enter the environment. Furthermore, they can be expensive, and arerarely available where ‘appropriate technology’ is needed.Two separate student-designed pumps are presented that seek to overcome theselimitations. They were developed as part of 2-semester ‘Capstone’ design project classes.In one, air separates a small charge of working fluid from well water, reducing thepotential for contamination. The other pump is designed to boil water at lowertemperatures than might otherwise be necessary, by use of an inverted water column, andis useful when water need only be lifted a few meters. An alternative to this design is alsosuggested
designs. Senior students involved inthis project have shown excellent progress by developing their technical and teamwork/socialskills as part of the Senior Design I and II core courses and have been successfully completingtheir course requirements.I. Introduction and Problem DefinitionWorldwide, the need for electrical power has increased exponentially. Energy needs versusclimate change relation has been a subject of a significant debate in the world. Recent scientificevidence indicates that global warming is underway 1. Observed changes show that despite largevariations from year to year, the global mean temperature has risen significantly in the lastcentury 1. Expected future increases in global average temperatures may have adverse
-cost Solar Tracking Photo-Voltaic (PV) Module and Wind Turbine Combination SystemI. IntroductionThis paper describes the design of a low cost, 0.9kW solar tracking photo-voltaic (PV) arraysystem as part of an undergraduate senior project. The solar tracking system is interfaced with a1kW wind turbine, a deep cycle battery storage system, a charge controller and an inverter. Solartracking is realized through “field” programmable complex digital circuit and alternatively with alow cost solar radiation sensing transducer consisting of green light emitting diodes (LED).Actuation of the panel tilt for azimuth tracking and rotation of the panel for solar tracking areoperated with a gear motor-based control system for adjusting the PV mount
2006-153: CONSERVATION OF ENERGY FOR CAMPUS BUILDINGS: DESIGN,COMMUNICATION AND ENVIRONMENTALISM THROUGH PROJECT BASEDLEARNINGWilliam Riddell, Rowan University William Riddell is an Assistant Professor of Civil and Environmental Engineering, and Sophomore Clinic Coordinator at Rowan University. He recieved his Ph.D. from Cornell University, and his B.S. from the University of Massachusetts at Amherst. His interests are in the safety, efficiency and durability of transportation and building systems.Peter Jansson, Rowan University Peter Mark Jansson is an Associate Professor of Electrical and Computer Engineering at Rowan University teaching AC and DC electric circuits, power systems
2006-344: A DESCRIPTION OF A CAPSTONE PROJECT TO DEVELOP A WEBBASED ENERGY CENTER FOR MONITORING ALTERNATIVE ANDRENEWABLE ENERGY SITESFrancis Di Bella, Northeastern UniversityRyan Healey, Northeastern University Mr.Healey is an ElectricalEngineering Technology student;Class of 2006. He is extremely versatil in electrical and computer engineering technology. He has authored the description of the web site engine. He expects to attend graduate school after graduation Page 11.37.1© American Society for Engineering Education, 2006 ASEE 2006 Annual Conference, Chicago, Ill
twoofferings of the course, feedback from the students, and lessons learned by the instructors.Development of the CourseFor several years one of the authors has taught a traditional thermal design course which focuseson conventional energy sources and systems (ME 416 Computer Assisted Design of ThermalSystems). It is a design intensive course that significantly utilizes projects to facilitate thestudents’ learning. It has become a very successful course with one of the largest enrollments foran elective course in the mechanical engineering program. The authors decided to use thislearning model for a new course in alternative energy systems with an emphasis on design.A new course with a design emphasis was welcome, as the mechanical engineering
Page 11.900.4poorly employing subscripted variables. In every successful case, run times were less than 3seconds. The whole exercise was somewhat shorter in duration for efficient code writers, about2-4 hours, than for the 65% who wrote inefficient code, 6-25 hours.Electrical engineering technology (EET) students at Buffalo State were also assigned similar taskbut this was the first time such an assignment was given to them. Ten students were involved inthis project. Their mathematics background varied with three students just being transferred fromcommunity college and taking technical calculus concurrently with Power Systems 1 course.Several students did not take programming course yet. Five students were taking MATLAB®and MathCAD
. Distributed generation is considered to be thenew and more suitable approach to providing solutions for socio-economic energy problemsthat have taken on considerable importance as we move into the new millennium. Theenhanced efficiency, environmental friendliness, flexibility and scalability of the emergingtechnologies involved in distributed generation have put these systems at the forefront toprovide power generation for the future8-10. Overall, the potential efficiency of anyconfigurations of hybrid power systems has been estimated to be about 80% by a generalizedmodel13.1.2 Course DescriptionThe courses consist of lectures, fundamental design exercises, a mid-term exam in the eighthweek, and a design project due during the final exam week (the
article. Steps in this process include backgroundon understanding our energy needs, projected future needs, oil reserve estimates,and alternative energies; understanding the economics of energy; identifying vi-able alternatives; developing an argument for that viability; testing this argumentthrough lab work; presenting the argument, method, and results; and preparation Page 11.436.2of a research paper. The format of this research experience is a paid 12-week, 40-hour per a weekinternship. The breakdown of this internship is the following: 4 weeks of lectures, 1 2 weeks of developing a method to argue this thesis
president of Wulfinghoff Energy Services, Inc. Page 11.939.1© American Society for Engineering Education, 2006 Moving Engineering Practice into the Classroom: Using the New Interactive ReferencesA New Concept in Engineering EducationThe practice of engineering requires the skill to continually gain reliable understanding ofpreviously unfamiliar subjects, which will be used by the engineer as the basis for decisionsaffecting the welfare of clients and the public. The great variety of issues that an engineer mustaddress requires that principles and data must be found and assimilated into a project
there.The course instructor felt that the project, supported by lectures in two-dimensional heat transfer,enabled the students to better visualize the two-dimensional temperature distribution. Thisopinion was supported by classroom discussions and project grades. The students had clearlydeveloped a deeper understanding of temperature gradients and the resulting conductive heattransfer in a two-dimensional solid. In order to determine how the students viewed the value ofthis project they were surveyed. Thirty one of the 32 students taking the class completed thesurvey. The survey, with the tabulated results, is as follows:Question 1.The problem enhanced my understanding of steady conduction heat transfer (heat flux) in a two-dimensional
medicine and you rarely hear: “I liked biology.” rather, the more common response is: “I wanted to help people.” Contrast this with an engineer's most common response: “I liked math and science” and it is easy to see why many young people don't see a future in a profession perceived as isolating and lacking in social relevance. Indeed, in engineering disciplines where social relevance is manifest, such as environmental or biomedical, women are well-represented.Mikic and Grasso30 also note: “the view of engineering as a profession in service to humanity isbecoming more widespread and thus is the inclusion of socially relevant design projectsthroughout the curriculum.” In their project where students design toys to teach children
available COTS • Switching coordination • System reconfiguration • Load dispatching • Fault Analysis • Fault Recovery Page 11.507.3 Week 10 Students Project PresentationsExpected Course OutcomesAfter the successful completion of this curse the students will be able to: • Understand an Electrical Distribution Network System, and recognize its properties and characteristics. • Perform system analysis with an exiting EDN and therefore identify the problems and suggest improvements. • Understand the operation of substation and thus identify its components
. The faculty involved with the project provided theoverall concept to the students, and provided the basic hardware for the students. The facultyalso closely monitored the students' progress, and helped make sure that the students were able to Page 11.475.10complete the task and develop a good experiment. As a result of the project, the studentsinvolved in the development process were able to gain a much deeper understanding of heattransfer, thermodynamics, experimental methods, as well as development of educationalmaterials. This unique opportunity to actually design and build experiments to be used by futurestudents resulted in the students
work. On this page, PHP scripts duplicate the students'calculations to help graders find the student's errors and give customized feedback. Thereare form fields on this page so graders can grade the assignment and make comments. Assoon as this occurs, students can see their grades and comments online.All the graded items in the class, not just the online assignments, are included on thestudent's 'grades page.' Their final course grade is also automatically projected, with anaccompanying letter grade.For some graded items, quizzes for example, the lowest two scores of ten may bedropped when the final course grade is calculated. The 'grades page' counts all of thequizzes until nine are graded, then the lowest grades are dropped. For example, one
apparatus under study (Figure 1) was designed and manufactured in 2003 aspart of an ASHRAE funded Senior Design Project. The system uses a typical vapor compression Page 11.461.2cycle with R-134a as the refrigerant. For the compressor, a Seltec TM-08 unit was used. Thiscompressor is commonly used in automotive applications. It is powered by a 3 hp three-phaseelectric motor that is operated by a frequency controller. Trunion bearings support the motor,which is connected to a load cell for measuring the torque applied to the compressor. Heatrejection is accomplished through a coaxial condenser manufactured by Edwards Engineering.Cold water from the