. It is time for creation of Power EngineeringEducation Consortium. Advantages of such close cooperation are: 1. Mutual use of facilities (laboratory and others) for more efficient allocation of funds for equipment. 2. Coordination of curriculum development at different levels, identification of talented students for possible recruitment by educational and industrial partners. 3. Cooperation on undergraduate and graduate research, both basic and applied. 4. International cooperation with partnering institutions.It is obvious that utilizing combined resources would allow addressing industry and academianeeds more efficiently, both in terms of educating workforce and research and
foreign oil. Two videos were shown, Earth’s Clean EnergyDestiny (2000) and The Hydrogen Age (2005). The history of the fuel cell was explored to leadinto the next activity. A hands-on fuel cell laboratory experience enabled the students to morefully engage with and appreciate the processes as they used solar energy to hydrolyze waterwhich then powered small circuits (Figure 1). Figure 1. Hands-on learning with fuel cells.Six fuel cell seminar/discussion programs were offered featuring speakers from outside industryas well as from within the university. The seminars included entrepreneurial, scientific, andglobal energy perspectives to broaden their understanding of contemporary fuel cell and energyresearch needs.Three
EGEE 304 Heat and Mass Transfer 3 LecturesMATSE 201 Intro. to Material 3 EGEE 430 Intro. to Combustion 3 ScienceEGEE 301 Thermodynamics and 6 FSC 431 Chemistry of Fuels- coal, 3 Fluid Mechanics of Energy Systems petroleum, gas, biomassEGEE 302 Principles of Energy 3 EGEE 411 Energy Laboratory 3 EngineeringProfessional Elective 1 3 EGEE 438 Sustainable Energy Options 3 16 15 7th Semester
camless valvetrain control. Page 13.211.1© American Society for Engineering Education, 2008 Applied Engineering with LabVIEW: Experiences From A Plug-In Hybrid ProjectAbstractIn this paper we discuss a primarily undergraduate project conducted during the 2006-2007academic year with the goals of converting a stock Toyota Prius to a plug-in hybrid havingenhanced electric only range capability. This project afforded the author with anopportunity to help with the utilization of National Instrument’s Laboratory VirtualInstrument Engineering Workbench (LabVIEW) and a National Instruments compact RIO(Reconfigurable Input/Output
: ‚ Page 13.1210.12 The size of the digestor ‚ Material (vinyl, steel, etc..) 11 ‚ The shape (cylinder, square, rectangular, flat, and cone bottom) ‚ Number of tanks on the digestor, the number of feeders and features ‚ The purpose of use (biogas, pharmacy, laboratory, etc) ‚ The time required to run an operational digester from the beginning to the end Our custom made digestors ranged from ($200.00 plastic bucket – estimated $20,000.00, 55-gallon factory made steel digestor) each, all features included. Energy Requirements calculations:‚ Average household that is 800 sq ft uses
as follows. In Section II, the load balancing modelusing GridLab-D is explained, the smart appliances used in the model are described, and theXML structure of the model is defined. Section III of the paper shows the results of the GridLab-D model. In Section IV, the benefits and challenges of this multi-disciplinary capstone projectfor out students and dynamics of the inter-departmental cooperation between our electrical andmechanical engineering students are discussed. Finally, the conclusions are provided in SectionV.II. LOAD BALANCING USING GRIDLAB-D GridLab-D is an agent-based modeling system developed and maintained by the U.S.Department of Energy’s Pacific Northwest National Laboratory and is provided to the public freeof charge. In
returned to his boyhood home and is teaching at Northern Michigan University. He is a member of HKN and IEEE, a Registered Professional Engineer in California, and is a past chair of the Energy Conversion and Conservation Division of ASEE. c American Society for Engineering Education, 2018 Teaching Power Circuit Breaker Testing to UndergraduatesAbstractMost educational electrical power laboratories do not have access to a working 69-kV SF6 PufferCircuit Breaker. At Northern Michigan University, a utility consortium has donated a SiemensSP-72.5-40, 1200 A continuous circuit breaker. The students perform travel time, insulationresistance, contact resistance, and power factor/dissipation factor testing
development and sensitivity/optimization analyses.For typical single semester thermofluid courses, they were smaller projects in several formats,including: data gathering and evaluations for many case studies, sensitivity analyses and optimization of existing numerical models.In order to provide an appropriate environment for students to conduct their research, the authorestablished the Energy Sustainability Research Laboratory (ESRL) and collaborated with othercolleagues to establish the Fuel Cell Research Laboratory at West Virginia University Institute ofTechnology. These two labs were equipped with the following experimental setups: Wind energy: Small scale horizontal and vertical axis wind turbines and weather station to
Electrical Circuit Gear set Gear set and DC Voltage (V) and DC motor Measurement motor Figure 11: The picture of system in our electrical laboratory during tests Page 12.613.11The PMDC motors selected for our experiments are: the FA-130 and RC-260 PMDC23. Theexperimental results are given in table 2. In this experiment, the hydraulic door closer handle ismoved by hand without any stop for 90 degree
-dimensional steady state conduction solutions for cases where temperatureboundary conditions were prescribed. The present research expands the features of the programto include prescribed heat flux boundary conditions as well as convective boundary conditions.Moreover, the expanded program also handles transient cases so that students can watchtemperature changes in a material on a real-time basis. The addition of these boundaryconditions also now allows one dimensional problems to be solved by specifying a zero heat fluxcondition on opposing sides of the body.The solutions for the original version of the program were generated using a code developed forSandia National Laboratory which was DOS based. The revised program has replaced thiscomputational
AC 2007-455: A STUDENT-CENTERED SOLAR PHOTOVOLTAICINSTALLATION PROJECTArthur Haman, University of Detroit Mercy In his fifty years at the University Arthur C. Haman has progressed through the academic ranks to his current position of Professor of Mechanical Engineering and Associate Dean for Operations. His industrial experience was acquired as a Structures and Armaments engineer at Northrup Aviation and as an engineer in the Scientific Laboratory of the Ford Motor Company. He has also held visiting professorships at what was Carnegie Institute of Technology and Dartmouth College. His current interests are in thermodynamics and internal combustion engines.Robert Ross, University of Detroit Mercy
, interesting assignments, and applying the material to the real world make a courseengaging.” (1) Another study found that student participation in laboratory or demonstrationexercises in conjunction with a lecture produces a more positive learning outcome. (2)Application and demonstration are two key tools of an educator and will be explained further inthis paper so students will be able to comprehend the abstract ideas of irreversibility and Carnotefficiency. This paper ties the theoretical Carnot efficiency to the applications to which it isrelated.One of the more challenging concepts for students is the irreversibility of heat transfer through afinite temperature difference. It is easier to understand the irreversibility of other processes suchas
the digital scope and other test instruments. This related to all course laboratories. ≠ The student improved his design skills by demonstrating the use of component data sheets and software design tools. His testing, calibration and troubleshooting skills were enhanced. The undergraduate researcher prototyped a current sensor circuit for future use using a Hall Effect current sensor and OP AMPs. All courses use OP AMPs for design projects. ≠ The student gained programming experience with software used in classes. The control system course uses MATLAB to solve control problems. ≠ The student broadened his view of higher education and improved his ability to help other students. ≠ The student was better able
, university laboratory? Where did the equipment come from? Did you build it? Did you loan it from somewhere? Did you work in a professional laboratory? Did you do the project yourself or did you receive help? If you received help the judges are looking for you to give credit to those individuals. Did you have clarity with the details of your science project? How well your project fits in with the theme of being beneficial to society will be taken into account?Table 5
Engineering Laboratory 3EGEE 302 Principles of Energy EngineeringProfessional Elective 1 3 EGEE 438 Wind and Hydro Energy Engineering 3 16 15 7th Semester 8th SemesterENGL 202C (GWS) Technical 3 EGEE 494A Research Projects 2 WritingFSC 432 Petroleum and Natural Gas 3 EGEE 437 Solar Energy Engineering 3 ProcessingEGEE 441 Electrochemical Energy 3 EGEE 464W Energy Design Project 3
and courses at Sinclair Community College. He has published on building’s thermal loads and has presented at the 2007 Energy Sustainability Conference in Long Beach, California, the 2009 Energy Sustainability Conference in San Francisco, California, the Renewable Energy & Energy Efficiency Workforce Education Conference in Hudson Valley, New York, the Sustainability Symposium in Eugene, Oregon, and others. Page 22.1298.1 c American Society for Engineering Education, 2011 Blueprint for Developing a Laboratory and Curriculum for Energy Efficiency, Renewable and
developing and sharinglearning tools in the Renewable Energy field.The general educational outcomes of the EE program in UTPA are, concisely written: 1- usemath, 2- make experiments, 3- design equipments, 4- do team work, 5- communicate ideas, 6- beresponsible, 7- lifelong learning, and 8- computer literacy. Student's working on theseexperiments can develop further these abilities. Assessment of these outcomes will be done bythe inclusion of pertinent questions in Lab handouts.7- ConclusionGiven the current interest in the integration of solar technologies to the electric utilities, and thelack of teaching materials in this area, UTPA has developed six laboratory experiments on PVsolar technology topics. The experiments use software and hardware
efficiency by presenting eachstep with encountered issues and solutions. It can be part of the laboratory experiments toinvestigate variety of viable energy sources by performing experiments. The response of thestudents can be collected if they have positive or negative intentions. Students worked in thesystem stated that the use of "real" data makes the programming concepts taught in lecture muchmore meaningful to them. For many of these students, this experience involves the mostintensive teamwork they have had to deal with in their educational experience. Page 13.360.7 H2
, Architecture, and Sciences, anda unique college that includes Economics, Public Policy, International Affairs, ModernLanguages and History of Science and Technology.IntroductionThe objective of this paper is to describe the development and initial experiences with a course-laboratory package suitable for students from all schools on a university campus on an issue ofglobal importance. The intellectual challenge is in tackling the core learning issues for such acourse across disciplines, and tailoring the contents to diverse interests and talents, integratinghands-on building and testing with high-level concept development. The course has to attractstudents all over campus, while ensuring excellent value to all.Some believe that the Hubbert Peak Oil1
engineering technology curricula, 2) the faculty inter-disciplinary expertisenecessary to teach new sustainability, green design or renewable energy topics, 3) the resistanceto revising existing senior design project courses, and 4) new laboratory infrastructure6-12. Thegreen manufacturing, renewable energy technology and sustainability skills and knowledge arerequired to meet the following objectives, including energy efficiency and management,sustainable planning and design, sustainable and green manufacturing, and renewable energysources such as biomass, biofuels, solar power, and wind energy. These components are selectedbecause they represent green technologies highest potential impact in our areas. Development ofa workforce skilled in these
presented during the were delivered last couple of days of the workshopHands-on evaluation Designed to measure the Completed by the instructional performance the performance team by the end of the first of the participants on the week of the training when hands-on laboratory exercises participants completed assigned hands-on exercisesReadiness survey Designed to capture each Completed by the end of the participant’s perception of the training
including design and development of pilot testing facility, mechanical instrumentation, and industrial applications of aircraft engines. Also, in the past 10 years she gained experience in teaching ME and ET courses in both quality control and quality assurance areas as well as in thermal-fluid, energy conversion and mechanical areas from various levels of instruction and addressed to a broad spectrum of students, from freshmen to seniors, from high school graduates to adult learners. She also has extended experience in curriculum development. Dr Husanu developed laboratory activities for Measurement and Instrumentation course as well as for quality control undergraduate and graduate courses in ET Masters program. Also
other electrical engineering courses, with benefits notedby both students and instructors. For example, this approach was taken in an undergraduatepower electronics course, and survey respondents noted that the on-line quizzes were beneficialto their understanding13. Remote laboratories sometimes comprise blended learningenvironments. In the area of control theory, a remote lab was used so that students couldremotely experiment and integrate the practical with the theoretical aspects of the course14. Asimilar goal was noted in another controls engineering course, in which a web-based simulatorwas used to complement the theoretical-based lectures15. In this controls course, there was anincrease from 63% to 79% on an end-of-course exam, when
, power point slides, etc. However, several studies have found that students’ mastery ofcontent knowledge increases when they are engaged in problem-based learning (PBL) andproject based learning (PjBL) [10-24].Curricula must focus not only on the theoretical basis ofenergy systems, but also on the experimental works of power technologies. This point of view isimportant in power and energy engineering studies, consisting of mixtures of power electronics,energy conversion, electric machines, electric circuits, computing, signals and systems,communications, and electromagnetics. Promoting, adapting, and restructuring powerengineering disciplines can be done by defining a new curriculum that includes news courses,new laboratories or new topics in
and Exposition, 2002.5. Shervin, K., and Mavromihales, M., Design Fabrication and Testing a Heat Exchanger as a Student Project, Proceedings of 1999 ASEE Annual Conference and Exposition, Albuquerque, NM, 1999.6. Munro, J. M., A Design Experiment for the Fluid Mechanics Laboratory, Proceedings of 2002 ASEE Annual Conference and Exposition, 2002.7. Somerton, C. W., and Genik, L. J., Weaving a Theme of an Engineering Firm through the Projects of Thermal Design Courses, Proceedings of 2004 ASEE Annual Conference and Exposition, 2004.8. http://www.gouldspumps.com/pss.html9. http://www.greenheck.com/10. http://www.chiblo.com/11. http://www.thermo-dynamics.com/heat_exchangers.html12. http
Renewable Energy Laboratory: Expert Tools. Available: http://www.solmetric.com/annualinsolation-us.html[7] A. D. James Larminie, Fuel cell systems explained (2nd edition): WILEY, 2003.
projects with communities in Puerto Rico since 2002. Eight undergraduate electrical engineering students participated in three different capstone projects related to improving water service in rural communities, in particular improving the electrical system for the pump that takes water from the community well. In one of the projects, the team included students from Electrical, Mechanical, and Civil Engineering, as well as Surveying and Biology students, and students from Purdue University15. Acting as Faculty mentor in the UICD broadened the policy horizon of Dr. O’Neill and was an invaluable capacity building experience that helped in future policy work. Another example of a community-based project is the photovoltaic (PV) laboratory at Casa
expectancy of the modules.It is estimated by tests developed by the International Electro-technical Commission that PVmodules should be reliable up to 30 years once installed, but exposure to outdoor conditions maycause an escalated rate of degradation not represented in laboratory tests (Sharma & Chandel,2013).A study was conducted on a 26+ year old PV power plant in Phoenix, Arizona to determineperformance, durability and reliability. The plant consisted of eight sub-arrays rated at 200kWdc,standard test conditions (STC). Power output measured in 2011 at STC decreased from theoriginal 200 KWdc to 76 kWdc representing a power loss of 62% over the 26+ years of operation.It was also determined that some installation practices contributed to the
: Renewable andSustainable Energy Reviews, vol. 20, April 2013, pp. 443-61.[8] G. Barbose & N. Darghouth (2016). Tracking the Sun IV. Lawrence Berkeley National Laboratory.[9] National Electric Code, 2014 Edition, Article 690 Solar Photovoltaic (PV) Systems, [Online]. Available:http://www.energy.gov.bb/web/component/docman/doc_download/71-article-690-solar-photovoltaic-pv-systems.[Accessed Feb. 4, 2018].[10] T. Buonassisi, “PV Efficiency: Measurement & Theoretical Limits,” Lecture 14 – 10/27/2011. [Online].Available: MIT Open Courseware: https://ocw.mit.edu/courses/mechanical-engineering/2-627-fundamentals-of-photovoltaics-fall-2013/lecture-videos-slides/MIT2_627F13_lec14.pdf. [Accessed Feb. 4, 2018].
alternative to TiO2 in Gratzel-type solar cells.Conclusion “Application of Nanotechnology for Batteries, Solar, and Fuel Cells” is one of thetargeted undergraduate courses developed to highlight the potential of nano-materials in theenergy area. Integrated lecture/laboratory format is adopted to allow this three credit hourscourse to cover the following topics: introduction to the basics of nanoscale science,technology, and engineering. The approach of this industry-responsive course is to offerproject-oriented modules which are consistent with the ASU Polytechnic mission ofcombining academic content with latest industrial practices. The modules offered in thiscourse place broad exposure to the scientific and engineering principles along with