Council of Texas (ERCOT), and generate a report on the actual energyproduction revenue.In this paper we introduce a set of experimental laboratory exercises for undergraduate studentsto become familiar with these practices of Renewable Solar Energy.Hands on Experience for Students on an Energy Management SystemIntroductionWe have implemented a data acquisition/energy management system (DA/EMS) for a 5kWphotovoltaic array system. Our main goal with this system is to improve the education of ourundergraduate and graduate students about these arising technologies that are being implementedin our world today. Our DA/EMS has various hardware components including sensors, a dataacquisition interface, circuitry implementation, loads, and the
telecommunications fields.While students interested in communication networks typically have a computer science orengineering background. This divergence results in many challenges for the coeducation of suchprofessionals and students. We are discussing our approach in the design, development andimplementation of an undergraduate course, and the associate laboratory on smart grids. Projectchallenges include the selection of most appropriate course level, content and topics, textbooks,additional learning materials, laboratory experiments, inclusion or not an end-of-semesterproject, or field trips, etc. Two fundamental issues characterize smart grid education:multidisciplinary education and integrative nature of the smart grid solutions. 1
education and help the students to understand the concepts and applications ofthis type of energy. Due to the high costs of the training units, it becomes a budget concern topurchase training units for laboratory sections. Some of the pre-built training units already on themarket have a price range from ten thousand to fifty thousand dollars per unit. If there are budgetconcerns for the program, the only option that remains is to teach theory without the benefit ofhands-on training. Taking these issues into consideration, the students in the IndustrialTechnology program have designed, built, and tested a multi-purpose renewable energy trainingunit for the alternative energy related classes. This prototype trainer is designed to be used forhands-on
experience, he has taught many different engineering and technology courses at undergraduate and graduate levels. His tremendous re- search experience in manufacturing includes environmentally conscious manufacturing, Internet based robotics, and Web based quality. In the past years, he has been involved in sustainable manufacturing for maximizing energy and material recovery while minimizing environmental impact.Miss Ieva Narkeviciute, Stanford University Ieva Narkeviciute received her B.S. (2012) in Chemical Engineering from the University of Massachusetts Amherst where she worked in the laboratory of Prof. George Huber on biomass conversion to biofuels. She received her M.S. (2015) in Chemical Engineering from Stanford
related systems. That combination ofyears of consulting and teaching helped create the foundation for the course.The course is specifically required for mechanical engineering majors who have elected thevehicle systems concentration within mechanical engineering. Other students who meet thebasic course requirements of Electrical Circuits, and Physics are welcome to take the course as atechnical elective.Course Format and General Content:The Vehicle Energy Systems course involves a typical lecture and laboratory format with twolecture hours and a three-hour laboratory each week. The initial lecture content briefly reviewsfundamental electrical and mechanical basics, and applies basic DC, single phase and three phaseAC content as well as power and
requiring innovative curricula, newcourses and laboratories to educate students to work in this rapidly developing industry andbecome acquainted with these new technologies. Moreover, the pace of change in engineeringeducation is accelerating due to technology advances and administrative constraints. Educatorsare modifying curriculum content to embrace technological advances in the program or courselearning outcomes. In modern world where everything changes at an extremely fast pace keepingup with technology changes is not only desirable but necessary. The renewable energy, greendesign and manufacturing are highly interdisciplinary, crossing boundaries between researchareas, making difficult to cover each of them in a single course. However, they
course, with an emphasis on computer programming using MATLAB and communication. Her teaching interests are in the area of thermo-fluids and freshmen engineering. Her current research is focused on the success of freshmen engineering students, and implementing a flipped classroom by using Team-Based Learning in engineering core courses. Jennifer can be reached at jmpeuker@gmail.comDr. Steffen Peuker, University of Alaska Anchorage Dr. Steffen Peuker is an Assistant Professor of Mechanical Engineering and the Director of the Thermal System Design Laboratory at the University of Alaska Anchorage. He is teaching the Thermal System De- sign, Thermal System Design Laboratory, HVAC Systems Optimization and Introduction to
revealcourses in the electric vehicle area. There are, however, on-going grant programs and recentannouncements of grant funded opportunities that are designed to help develop engineering andtechnical courses and programs with a skill focus on electric vehicle design and manufacturing.Examples of Electric Vehicle Courses and ProjectsSeveral programs, courses or projects that focus on electric vehicle instruction have beendescribed in recent literature. General Motors Corporation is joining with the University ofMichigan to create a new automotive advanced battery laboratory as well as a specializedcurriculum to develop automotive battery engineers.21,22 An Advanced Technological EducationNSF grant program sponsored a joint college-university project
twenty years.The program of instruction includes a laboratory program that uses appropriate laboratoryequipment, kits, and a hands-on project to design, build, fabricate, populate, test, and iterate aDC/DC converter. Assessment summarizes nearly twenty years of successful instruction.IntroductionAlmost all electrical power in industrialized societies now is processed through at least onepower electronic stage. As such, electrical engineers (EE) often encounter power electroniccircuitry and systems when performing their routine duties. A knowledge of how these systemswork gives an EE an advantage in understanding and working with power of a nature that isprovided to every electrical system. As part of an innovative sequence of courses at
part of the University HVAC system. It is used tomonitor and save energy through energy performance contracting with different control systems.Recently, the HVAC laboratory facilities (Split-System Central Unit Heat Pump, Air HandlingUnits (AHUs), Variable Air Volumes (VAVs) box, and even a Wall-Mounted Heat Pump) havebeen incorporated into the University's BAS system to become a part of students’ education.BAS is the foundation of the energy management efficiency of modern buildings. Basically, acentral system, the intelligent Metasys BAS software, connects the HVAC, lighting, security andprotection systems and allows them to communicate on a single platform to provide the necessaryinformation to the energy manager; enabling them to make more
. The numbered elements on the Figure highlight the key components. A smallbrazed plate heat exchanger (1) [8] has flow meters (2) connected to the hot and cold sides. Atotal of four integrated circuit temperature sensors (4) are used to measure the temperaturedifferential for both the hot and cold sides. All sensors are connected to a USB data acquisitionmodule from National Instruments.The heat exchanger apparatus has a number of subtle features based on experiences with thisequipment over time. The entire device is mounted inside a perforated stainless steel pan thatfits over the edge of a laboratory sink, see Figure 3, to contain any inadvertent leaks that occur.In addition, the HX apparatus has hose connections that quickly connect to the
is covered by the cone of the wind augmentation apparatus as shown in Figure1. Therefore first and second year engineering students experienced a hands-on project thatchallenged their goal: to come up with a design that could improve power output on small-scalewind turbines. Page 26.447.2 Figure 1. Cross sectional of Wind Tunnel Attachment (WTA). (Modified from Dakeev, & Mazumder, 2014) National Renewable Energy Laboratory (NREL) reported that today’s world is thrivingon the idea of renewable energy 7. Scarcity of nonrenewable resources necessitated increasingdemand for energy sources that are naturally occurring
) programs. He hasalso worked in industry, where he was responsible for designing, specifying, testing, andanalyzing electro-mechanical devices. In this paper, the author will describe topics that shouldbe included in an electric rotating machine course and explain why using Matlab is an efficientmethod for students to solve lecture problems and analyze laboratory data.Due to the time constraint in one quarter, seven (7) important AC and DC laboratory assignmentspertaining to electric machines are selected for this course. Using MatLab enables the in-depthteaching of these topics during the ten-week quarter period. In the following sections of thispaper, he will describe the subjects that he teaches in an electric rotating machine class, duringone
university efforts in green technologyleadership. This includes bringing a hydrogen fueling station on campus. The comprehensivenature of the university, its strategic location in the hydrogen and fuel cell abundant industrialregion and a historically minority-serving charter make it an ideal candidate to carry out theproject. The approach used is multidisciplinary and a combination of full fledged courses andlecture modules. The latter is applied to both hard core engineering courses as well as to ageneral education course reaching wider university audience. The funding is also used toestablish a “Zero Emissions Laboratory” with both purchased and custom built experiments.Curriculum, Course, and Laboratory DescriptionsTwo full-fledged courses
Fontalvo Page 25.1403.1 c American Society for Engineering Education, 2012 CHEM E Sustainable Energy Demos, Workshops, Town Hall Meetings and Other Stakeholder Engagement: Working the Pipeline José A. Colucci-Ríos, Miriam Fontalvo, Efraín O’Neill-Carrillo University of Puerto Rico-MayagüezAbstract – A Sustainable Energy Laboratory in the Chemical Engineering Department has beeninstrumental in the effective incorporation of sustainability into chemical education targetingaudiences (hundreds per year) from the whole spectrum: K
buildings,hydrogen fuel-cell systems, wind power (generator and gear train systems), waste heat, biomassfuels, wave power, tidal power, active/passive human power, nuclear and hydroelectric energy,storage technologies (battery, supercapacitors), and hands-on laboratory projects. This courseacquaints students with existing and potential ambient alternative energy sources, productioncapacities and energy harvesting, conversion, and storage techniques. Key concepts,terminology, definitions, and nomenclature common to all energy systems are introduced byusing historical traditional energy generation methods and by reviewing typical energyconsumption patterns. The course concludes with a general review of how to integrate energyharvesting technologies
AC 2010-851: DEVELOPING AN ENERGY LITERACY CURRICULUM FORINCOMING FRESHMEN AT BAYLOR UNIVERSITY: LESSONS LEARNEDKenneth Van Treuren, Baylor University Dr. Van Treuren is a professor on the faculty in the Mechanical Engineering Department at Baylor University. He teaches the capstone Mechanical Engineering Laboratory course as well as courses in heat transfer, aerospace engineering, gas turbines, fluid mechanics, and wind power. His research interests include energy education and gas turbine heat transfer. He can be contacted at Kenneth_Van_Treuren@baylor.edu.Ian Gravagne, Baylor University Dr. Gravagne is an assistant professor with the Electrical and Computer Engineering department at
Page 22.923.5 Figure 3: Electronic Load EL200 1 Figure 4: Voltage Converter VC100 1ExperimentsThree laboratory exercises were introduced at the end of the Electric Circuit course that requiredconnecting the fuel cell system as shown in Figure 5. All students were undergraduate majors inthe EET program. A graduate assistant supervised twenty students to perform the experiment.The students were assigned as teams to perform the experiment on ten sessions that took abouttwo days. Each team consisted of two to three students. Although this system was not introducedin detail in the lectures, particularly the chemistry of the Hydrogen fuel cell, the authors believeit is a potential educational tool to extend
integrate technology into K-12 classrooms. TCIPG is addressing the challenge of how to protect the nation’s power grid by significantly improving the way the power grid infrastructure is built, making it more secure, reliable, and safe.Mr. Quanyan Zhu, University of Illinois, Urbana-Champaign Quanyan Zhu is currently a Ph.D. candidate at the Department of Electrical and Computer Engineer- ing and the Coordinated Science Laboratory (CSL) at University of Illinois, Urbana-Champaign (UIUC), working with Prof. Tamer Bacsar at the Information Trust Institute (ITI). He has received his master’s and bachelor’s degrees from University of Toronto and McGill University, respectively and both in electrical engineering. He has been
multimedia is a pervasive part of our lives. Content of all types is available fromwebsites such as YouTube, Hulu, and Pandora. Individuals consume this content using homeentertainment systems, personal computers, tablet PC’s and cell phones giving them access tomultimedia information at any time or place. Applying this approach to education gives studentsbetter access to course content, expands instructor time, assures uniform delivery, and can beconstructed to engage students using several learning styles simultaneously. This paperdocuments the application of on-demand multimedia content into electric machines lecture-laboratory courses. It will explore software tools, application techniques, and student responsesto on-demand video and screen
seven year review and assessment of Lawrence Technological University’s Alternative Energy Engineering Program initially funded through grants from the State of MichiganAbstractLawrence Technological University applied for and received two funding grants from the Stateof Michigan in 2003 and 2004 to develop curriculum and to establish courses in the field ofAlternative Energy Engineering. Lawrence Tech in 2003 was one of five schools in Michigan toreceive these initial funds. This paper reviews the decision making process originally used toestablish the curriculum, the engineering courses developed through these grants, theestablishment of an Alternative Energy Engineering laboratory, and the subsequent evolution ofthe
generators – inundergraduate laboratories are considerably smaller than those in industry. Transformers aretypically in the tens, or, at most, hundreds of volt-amperes and rotating machines are typicallyfractional horsepower. This means that in the lab the currents are usually in the milliampererange. Industrial test equipment is usually designed to measure in the kVA range. For example,the standard current probes on Fluke power meters are designed for 600 A. The smallest currentprobe available from Fluke that can handle both AC and DC is designed for 30 A.This paper will discuss a method to allow industrial test equipment to be used in undergraduatelabs. Our solution is to use multiple turns of wire (bobbins) in the current probes. Since
as designing and testing of propulsion systems 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
institutions ranging from community colleges to doctorategranting universities. Parallel to these initiatives, a host of textbooks and professional referencebooks are now widely available in the market with new ones being introduced steadily. Thesebooks tend to cover various selections from a wide spectrum of topics to different levels of depthand breadth as well as from different aspects such as technical, economic and environmental. AtGrand Valley State University a four credit hour upper division undergraduate technical electivecourse was developed and taught since fall 20091-2. The course was initially offered on anexperimental basis as a four credit four contact hour course for a couple of times before a finalformat of 3-lecture and 3-laboratory
systems, and hydrogen fuelcell units [10].Reed and Stanchina from the University of Pittsburgh urged the need for new curriculum tofocus on the emerging technologies in electrical power systems such as smart grid and cleanenergy integration [11 ]. Their work on smart grid education model approaches in engineeringcurricula provided one of the best models of engineering education in power electronics andpower systems. Grinberg and Safiuddin developed a multi-institutional smart grid laboratory toenhance modern power systems education and to satisfy the needs of new technology as a resultof the skills shortages and the aging power engineering professional workforce [12]. Kerestes etal. reported an enhanced workforce development study through a
robotic vehicle. ® ®• Microprocessors – A Parallax Basic Stamp system is programmed to interface with LED’sand pushbuttons.• Digital Audio – Laptop software provided the platform for experiments in sampling audio,aliasing, filtering, special effects, MP3, etc.• Brushless DC Motor – A kit serves as the basis for this experiment where students build andtest their own motor. Each student takes home a completed motor. Student ownership of theproject is critical to engaging student interest4,5.Each week, the lecture introduces the concepts for that week’s laboratory activity. As thestudents rotate between the four professors every two weeks, they experience the professors’specialty areas, socially connect
Semester 2015 offeringof the course the students were given laboratory projects where they used a Doble F6150e PowerSystem Simulator to test either a Schweitzer Engineering Labs SEL-221F microprocessor-basedrelay or a Westinghouse (ABB) Type CO electromechanical relay. The test setup for testing theSEL -221F is shown in Figure 8 below. Figure 8. Protective Relay Testing Lab SetupBased on employer input, the electromechanical relays were not included in the Winter Semester2016 lab assignments, and will not be included in the future. Also based on employers’comments, the students performed the tests individually rather than in teams. This allowed thestudents to gain experience in all aspects of testing – setting
The course suitable for integrating the DSSC research results is a required seniorundergraduate course, Solar Cells and Modules for all students majoring in the BS degreeconcentration, Alternative Energy Technologies and as an elective for students from othermajors. During fall semester 2010, the students in the class participated in characterizingthe cells in the laboratory. In the lecture class theoretical discussion of the solar cell I-Vcharacteristics and internal resistance influence on the I-V curve were covered. TheDSSC’s I-V characterization was performed using an equivalent circuit model that isshown in the Figure 5. The series and shunt resistances of the cell are primarycontributors for the internal resistance. The Figure 6
ingreenhouse gas emissions. In order to implement renewable energy in projects, qualifiedpersonnel take a very important role in planning and design prior to project implementation.Education and training of workforce who will be involved in the projects is important and shouldbe taken into account when investments are considered to execute projects, so that there will bequalified personnel. In preparing students for their future career, real-world experiences andhands-on training is an important part of their education. Research projects and laboratories areexcellent teaching aids for providing students with opportunities to implement the theory theylearn in class. Educating the younger generations about sustainable and clean energy sources isvital to
growing global environmental concerns overtheir use for the generation of electric power have increased the interest in the utilizationof renewable energy. This also raises the needs for engineering and sciences programs toprovide training in the areas of renewable energy technology. New programs, courses andsupport laboratories need to be developed and implemented. This paper describes thedevelopment of a design module that forms part of a project-based course in solar-windenergy systems taught at one of the author’s former institution during the Winter 2006term. Course materials were developed during the summer 2005 and fall 2006. Thismodule, which is part of the course-support laboratory, consists of a decision supportsoftware application used