scores, financial need status, involvement inextracurricular activities, recommendation letters, essay writing skills and whether the candidatewas from an underrepresented group in engineering. Each committee members’ rankings wereaggregated equally to figure out the overall student eligibility ranking.Finally, the candidates were contacted with official scholarship offer letters. The selection ofseven candidates whom all accepted the offers were realized in two rounds of selection cycle. Inorder to implement an evaluation plan with the purpose of measuring this project’s early impactin attracting and recruiting students for careers in nuclear related fields, a first semester intakesurvey of not only award candidates but their peers in the
orifice, and gradually shut down the flow. We had tochange the nozzle on more than one occasion, and we were only coating 9 panels. If a similarfield application was going to be attempted for a utility scale solar farm, some type of moreelegant sprayer would be necessary to prevent clogging (such as one with an ultrasonic vibratinghead).Weather was also a major variable for field applications of the coating. On two sequential dayswe had to cancel plans to coat the panels due to rain. On the day that we were finally able toproceed, we began the day with a nice calm sunny morning. However, after applying the firstcoat and beginning the second, a pressure front began to move into the area and winds picked up.We eventually had to cease application
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
the topic in general,they can be much more thorough in their research. This debate helps them discover and exploremuch more than they learn in the lectures. Knowing how to solder electrical components could be a worthwhile skill for constructingsome of the projects. With this in mind, a laboratory session is planned for the students about thebasics of soldering, as well as the basics of electronic devices. This aids their attaining a morepractical perspective of the theoretical concepts that they have heard. For the practice session,each of the students and teachers is given a soldering kit containing instructions and materials tobuild a basic 555 timer circuit. This practical work is fun and interesting, given the fact that theyall have
to complete the project. Managing theproject requires the engineer to demonstrate effective teamwork, clear communication and theability to balance the social, economic and environmental impacts of the project. Moreover, thisapproach provides a context that makes learning the fundamentals more relevant and, hence,results in better retention by students.This project is an underway project for capstone Senior Design Project, performed by a team offour students in the ET department. Senior Design Project is a sequence of three-quarter capstoneproject design courses required for all the BSET majors. The course focuses on planning,development, and implementation of an engineering design project, which includes formal reportwriting, project
primary questions collected were: • How much power/voltage/current will this system produce? • What can you do with the power you produce? • Isn’t it hard to build? • Is it expensive? • Can I come and look at it when it’s finished?This paper describes detailed design and construction of an axial flux wind turbine/generator.This includes a cost analysis, and pictures of the project phases. Graphs showing wind speed andelectrical power data during testing are obtained. A brief layout of the educational module thatwill be taught with all the information is compiled into a teaching plan. Students involved in theproject have gained knowledge and skills in electrical and mechanical areas. They also
differences between the gasifier and the direct combustionburners used were significant. These differences presented many uncontrolled variables thatdetracted from quantitative comparison of the two processes. As described below in FutureWork, direct combustion experiments planned in upcoming classes will use a second vacuumbottle to eliminate geometric dissimilarities between the two systems.Wood Ash and Unburned FuelThe ash and unburned fuel remaining at the end of the combustion processes provided additionalcomparisons and efficacy measures between the gasifier and direct combustor. For completecombustion, biomass leaves trace amounts of ash, made up mostly of non-organic chemicals thatdo not burn. However, if inadequate oxygen was available to
demonstrate the Seebeck and thePeltier effects. Present two experimental plans to the professor. If approved, then set up the twoexperiments. Have them checked by the professor. Once approved, go ahead and run them andgather data.In the next part of this lab you are tasked to design another experiment, but not to actually conductit. This time, you are tasked with measuring the efficiency of the system that powers the fan.Brainstorm with your teammates on how you would do it. The following questions can guide you:What data would you want to gather and explain why? What would you measure in order to get thedesired data? Which devices would you use to do those measurements?Keep in mind that you would need to modify the supplied equipment to make the
the planning and designing of large PVsystems. The first system involves a retail store called “MART” and the second involve arecreational center called “RAC”. Designing aspect included engineering, economic, andenvironmental factors such as optimal array orientations, shading effects, and compatibilityissues between the PV arrays and inverters under the forecasted weather conditions. Variousmethods for estimating the performance of a PV system were presented with the aim todetermine if photovoltaic energy is both economical and environmentally sound, thus making itsustainable. Different capital budgeting techniques were also investigated to decide whetherinstalling PV systems is financially feasible under the prevailing economic conditions
Michael FarabeeCollege of Science and Technology NCA&T: Electronics Technology Graduate Greensboro, United States mmfarabe@aggies.ncat.edu XXX-X-XXXX-XXXX-X/XX/$XX.00 ©20XX IEEEAbstract ̶ ̶ We present the design, development, we felt would be essential to the outcome weand implementation of user-friendly lesson plans wanted and the learning experience we wanted tothat provide high-level explanations of solar provide. We had issues with the consistency of theenergy concepts. The project kits will be available sunlight charging our devices adequately forin novice, intermediate, and advanced difficulty functionality, so we had to figure out the bestlevels. We have chosen this project
all of the sockets were changed out,we immediately went to the new leads, due Figure 9: Back connections to safety socketsto their enhanced safety.ConclusionWe found during our investigation that not everything works as advertised. Thus, we definitelyrecommend that anyone planning to rewire their lab start with a test batch of materials to makesure they do the job. We were fortunate in that the manufacturer of the first batch of sockets wepurchased took them back when the problem was shown to them.By re-wiring the power benches and equipment,the safety of the laboratory has been improved. Atthe time of the writing of this paper, we have beenusing the safety leads for two semesters. Duringthat time, there have been no arcing events
fees – theSustainable Campus Environment Fee and the Cleaner Energy Technologies Fee. With the ultimate goalof making the University of Illinois at Urbana-Champaign a leader in campus sustainability, SSC reviews,recommends, and funds projects that increase environmental stewardship, inspire change, and impactstudents [4].” These two fees generate over $1.1 million annually, which is one of the largestsustainability fund of its kind in the United States [4]. Funds are made available for sustainabilityprojects proposed by the students. Participation in the SSC competition provided an ideal platform toorganize all of the goals of the one credit hour class—namely, group work, leadership, project planning,written and oral communication, etc—around
; (1st year) Applications Processes Foundational Heat Power Fluid Power (2nd year) Applications Applied Applied Electrical 3rd year Thermodynamics Fluid Mechanics Energy Systems Career Capstone Co-Op & Internship Electives (4th year) HVAC Utilities Transportation Manufacturing Figure 1. Energy conversion modules are being integrated into the 4-year plan of study.Another aspect of Figure 1 is an effort to maintain continuity between the energy conversionmodules in different courses by creating an Energy
order ESRI ArcView Free demo CYMDIST Distribution System Analysis CYME cymdist Free demo Page 11.507.7Decision Support toolsThe decision support tools will be a set of software application tools that are available either thruCOTS (commercially off the shelf) and/or designed and hand-written by the students. Thedecision support tools are basically the brain of the system that makes intelligent and sometimescomplex decisions. Some of these are: 1) Diagnostic and Outage analysis 2) Switch coordination 3) Repair planning 4) Restoration time 5) Catastrophic
specialized stabilized 3-phase power supply.Future activities planned for summer and fall 2012 will concentrate on integration of SELmicroprocessor-based relays with lab subsystems and deployment of synchrophasor technology. Page 25.956.8Educational importance and student feedbackDuring the course of the work on the senior design projects using joint Smart Grid laboratory,students reflected on their educational experience: This project offers a deep understanding of how the micro-grid works, by providing educational knowledge through a theoretical approach, as well as hands on approach working with the equipment directly. This
; Instituto Tecnologico de Estudios Superiores de Monterrey; and Instituto Politcnico Nacional, Mexico.Dr. Sanjeev Kumar, University of Texas, Pan American Sanjeev Kumar, Associate Professor, is active in research, development, and teaching in the areas of computer network security, high-speed internet switching/routing, wireless ad hoc networks, computer architecture, digital logic systems, and smart grid. Before joining UTPA, Kumar worked with the leading networking companies in the United States. In the networking industry, Kumar played a leading role in planning, research, and development of new communications equipment and networks. Kumar has authored more than 50 technical papers. Kumar’s research findings have been
assigned one of six alternative energy sources (wind,natural gas, fuel cell, solar, biodiesel, or nuclear) for which they developed a Partial Replacementof Campus Electricity plan. Student teams were required to identify Cedarville’s electricitysupplier’s energy source, its cost of purchasing the electricity, and the carbon output resultingfrom the electricity purchased by the university. Their task was to locate an existing commercialpower generating unit which could generate at least 15% of Cedarville’s current electricitydemands, compute the capital expenditure to purchase and install the unit, and perform a life-cycle analysis in order to compute total cost to the university over a 30-year period forimplementing their plan.Though Congress has
graduated in December 2008, and began work on his master’s degree in January 2009. During the summer of 2009 Josh took an internship with Oak Ridge National Laboratories. Josh joined the Dakota Venture Group in the fall of 2008 and currently holds the position of Vice President of Finance. Josh plans to finish his Master’s of Electrical Engineering in August of 2010.Tessa Haagenson, University of North Dakota Tessa Haagenson is from Leeds, North Dakota. She was awarded a B.S. degree in Environmental Studies from Bemidji State University in 2007, after which she spent a semester abroad as a guest graduate student in an energy studies program in Aalborg, Denmark. Tessa’s additional international
inrelation to the methodology described by Fink. A summary of the modified taxonomy (referredto as Fink’s taxonomy through the remainder of this paper) is provided in Table 2. Table 2. Summary of Fink’s Taxonomy of Significant Learning2 Level Example Action Verbs Foundational Knowledge Define, list, match, name, recall Application Organize, rank, solve, calculate, prove Integration Compare, contrast, correlate, integrate Human Dimension Advise, influence, motivate, mediate, communicate Caring Commit, discover, value Learning how to Learn Develop a learning plan, identify resources, researchSeveral key
presented at the National Sustainable DesignExpo held on April 18 and 19, 2013, and we plan to present and/or publish a detailed technicalpaper about this PV module at a Solar Energy conference or in a Solar Energy journal. Fig. 5. The prototype module: (a) SolidWorks® model, and (b) actual device. Fig. 6. The standard panel being used as the baseline for energy collection comparison.ConclusionsA student team was assembled recently to participate in the EPA-sponsored P3 national designcompetition. The team’s objective is to design a fixed-tilt PV module, enclosing individualcolumns of solar cells that can separately track the sun. A preliminary design has been completed,and the team is performing tests to quantify the improvement upon
simulation inaccuracies that might produce unrealistic results.The third step is abstract conceptualization, where a new idea or modification to the conceptslearned in the experience is determined [10]. Based on areas that were in need of improvement inthe model, the student would investigate how to make the model more accurate or realistic.When these improvements were implemented, the fourth part of the cycle, activeexperimentation, was engaged. Ideas for improvement from the abstract conceptualization wereimplemented into the model, and thus a new simulation was created [10]. After developing animprovement plan, the student was able to implement changes to the model and conduct a newset of simulation tests to determine if the model results made
, trigonometry and analytic geometry, and finally CalculusI enhance learning objectives in this renewable energy class. In addition, a laboratory manual fromFESTO-Didactic provides detailed review information on related fundamentals before thelaboratory activities.This curriculum update serves as a major and minor class for multiple degree concentrations suchas Electronics and Computer Engineering Technology (ECET), construction management, safetymanagement, and engineering design and development in the department of engineeringtechnology. The university’s recent strong partnership with a major energy services company alsomakes electrical power and renewable energy curriculum central to the University and College’sstrategic planning that will produce
program objectives) and compliance with the program outcomes is prepared andsubmitted to the department chair for the assessment purposes.Future plans to evaluate the effectiveness of the capstone in term of learning outcomes: actions that willbe implemented to improve the effectiveness of the curriculum in term of learning outcomes: We expanded on the instructors’ self-evaluation such that more direct assessment of students’ learning outcomes is obtained. A set of standards for instructor’s self-evaluation will be prepared by the faculty and the Board of Advisors and will be implemented with the annual assessment cycle. The main point of these standards is that the evaluation of students’ performance will based
show a planlayout and the interior of the office, respectively. The office had a desk, chair, computer, printer,and filing cabinets similar to a standard office. In addition to that, the office had a round meetingtable with four chairs around it. Two of the office walls are adjacent to other offices, the thirdcontains a large 1.8 m×1.2 m double pane window, and the fourth wall has the entrance door thatleads to the building hallway. The hallway was generally kept at a higher temperature than thetesting office and the adjacent offices. The room ceiling is made up of squared acoustic tiles with0.6 m on each side and has two triple-bulb fluorescent light fixtures. Figure 1. Office plan layout
green energymanufacturing integrated with virtual reality (VR) in the Department of Engineering Technologyat Drexel University. Since green energy manufacturing is defined as “a system that integratesproduct and process design issues with issues of manufacturing planning and control in such amanner as to identify, quantify, assess, and manage the flow of environmental waste in materialsand energy with the goal of reducing and ultimately minimizing environmental impact whilemaximizing resource efficiency,” increased environmental consciousness among manufacturingindustries helps to foster new techniques for streamlining processes and increased reusability [1-4]. Connecting manufacturing devices and aggregating the data created is enabling
Tank surfaceFigure 11: Vertical view of sensor location plan (all dimensions are inches) Tank surface Figure 12: Vertical view of U-tube plan (all dimensions are inches) Page 12.446.13 Figure 13. Lab-scale GSHP in the labTesting of lab-scale GSHPThe lab-scale GSHP still is being tested under various conditions to determine the impact ofthermal load on the soil. Soil temperature and moisture content are being analyzed to drawappropriate conclusions. So far, the results from the first round of experiments have beenpositive. The soil can be used to dissipate a significant amount of thermal
theOutcomes Assessment and Future Plans for using simulation activities. The discussion is based Page 11.1131.2upon the introduction of simple simulation exercises within an introductory level course inelectro-mechanical energy conversion.Simulation in Energy Conversion EngineeringThe demands of modern engineering have created a need for a design process that emphasizessimulation and model validation. This approach provides a corresponding reduction in timelyprototype development and testing. The use of an integrated environment for simulation andmodel validation simplifies the design process, thus reducing time and costs. As a specificexample
fall2012. The plan is to limit each NZEH design to a fixed construction cost budget, and then tohave students do tradeoff analysis considering insulation levels, number and types of windows,type of heating/cooling system, solar water heating, and perhaps most importantly, overall size ofthe house. Construction cost data was developed from RSMeans along with consultations withcontractors and equipment suppliers. By constraining the project to be NZEH, the efficiencylevels that are economically justified are measurably higher than a more typical house designwhere current electricity prices are the basis for energy tradeoffs. Another way of saying this isthat putting in more insulation in the wall, for example, and reducing the electricity needed
graduates in the department of engineering and technology at WCU,developing an emphasis in electric power engineering plays a vital role in educating the nextgeneration of the region’s power industry workforce.To that end, an undergraduate curriculum development effort was planned and is projected totrain, prepare for research, and educate the students enrolled in the Department of Engineeringand Technology for careers in the power industry. The curriculum includes three fundamentalpower engineering courses: 1. Power Systems 2. Power Electronics 3. Electrical Machines and DrivesThis paper describes in detail the first pilot implementation of the Power Systems coursecomponent entitled “Modern Power Systems Analysis” for Electrical and
Composite Industries, RockWind LLC, Atometrics Micro- Machining, Wanxiang Energy, and Materials Modification, Inc. His recent peer-review experience in- cludes committees for the 21st Century Jobs Fund for the State of Michigan, the National Science Foun- dation, the Development Capital Network (Phase II), and the Fast Pitch Business Plans for the State of Illinois. He serves on the Board of Directors of three NFPs focused on renewable energy and efficiency technologies, and is a recent graduate of the NREL Golden Colorado’s EnergyExec program. He also consults for the regional economic development agency regarding CleanTech opportunities. Recently he was a speaker at the International Bio Energy Conference in Lidkoping