laboratories help to facilitate the complete working experience forthe students. The labs allow the students to design, create, and enhance their vehicles. Eachstudent has the ability to work on every aspect of the vehicle they are creating and hone theirskills. The machine shop allows the students to test their designs as well as gain invaluableexperience working on machines such as laser cutters that they will be using during their futurecareers. These projects help students to sharpen their skills for future workmanship, such as teamwork, understanding responsibility, and making use of techniques learned in class. Moreover theEVP students gain an irreplaceable experience and lifelong relationships while working withinternational students and
theenvironment under which they worked 1. The NREL/MIDC site is friendly to the user 2. I believe I have the required background to understand the level of information in this exercise 3. I believe each section helps me understand the following section. 4. I believe the MatLAB programs are well writtenIX- Conclusions Although the attention of the ASEE to Solar Energy has been active for many years [16], Page 24.1297.12today it is even more active because the solar industry has grown steadily, and the interest of theengineering students has grown exponentially. The dissemination of the new knowledge fromindustry and laboratories
results in a less than 10%difference. A sample Portfolio Manager screen for this analysis is shown below (Figure 3).Figure 2: Photo of student visit to Butler Square building (with representatives of McGough and Sebesta Blomberg). Page 23.968.5 Figure 3: Example Portfolio Manager screen for Butler Square.IV. Case Study #1 – Student DormFollowing the experience with Butler Square, students were divided into two groups with eachgroup assigned to a different building to execute a study conducted by the students. Initially theMinnesota State University Mankato Renewable Energy Laboratory building
2012) 5. R. Elmoudi, I. Grinberg, M Safiuddin, " Design and implementation of Static VAR Compensator for Classroom and Research Applications in Smart Grid Laboratory," in proceedings of IEEE International Conference on Smart Grid Engineering (SGE’12), 27-29 August, 2012, UOIT, Oshawa, Canada Page 23.1068.17
, Siemens, Schneider Electric, ABB,Motorola, Schweitzer Engineering Laboratories, Cisco, and Powell Electric.. Many of thesemanufacturers currently have applications in place that will highly support the smart grid visiontoday but need to mature to a common platform to seamlessly integrate electrical power andnetwork communications as one system. Many manufacturers also have these kinds ofintegration applications working but only within their own product line and own proprietarysoftware and protocols[2]. There are many national and local government agencies along withprivate sectors that have begun to develop pilot studies on smart grids applications and havestarted to model smart grid concepts to learn more of its limitations and conditions before
room for a full course on fuel cells.IntroductionIt is surprising to learn that fuel cell technology is over 165 years old, and yet it has made onlymarginal inroads in the modern power production world. William Grove, a British investigator,is generally acknowledged as the inventor of the fuel cell. However, some sources indicate that itmight have been Humphrey Davy who should be credited with this invention in 1801, almostforty years earlier3. The successful development of combustion-mechanical power-dynamotechnology in the early 1900 overshadowed any attempts to commercially develop fuel cells’direct conversion for many years to come. Most fuel cell work was done in a laboratory setting
. This percentage for engineering courses was mere 0.86%. This is unfortunate since theinfrastructure required for online education has been primary developed by engineers.The perceived obstacles in widespread integration of online courses in engineering curriculumscan be divided into two categories: physical obstacles and cultural obstacles. A major physicalbarrier is how to provide hands-on trainings, which traditionally take place in laboratories andmachine shops, in an online setting. However, this may not be a major problem since, contrary towhat one may expect, the data shows that online education is primary “local”. A little over half ofall students who took at least one online course took some face-to-face courses at the sameinstitution
of Engineering Education V. Assessing TeachingEffectiveness and Educational Scholarship. Chem. Eng. Ed., 34(3), 198-207.8. Felder, R.M., J.E. Stice & A. Rugarcia. 2000. The Future of Engineering Education VI. Making ReformHappen. Chem. Eng. Ed., 34(3), 208-215.9. Smith, K.A., Sheppard, S. D., Johnson, D.W ., & Johnson, R.T. 2005. Pedagogies of Engagement:Classroom-Based Practices. Journal of Engineering Education Special Issue on the State of the Art and Practice ofEngineering Education Research, 94(1): 87-102.10. eInstructions homepage can be found at http://www.einstruction.com/11. Clancy, E. A., Quinn, P., and Miller, J.E. 2005. Assessment of a Case Study Laboratory to Increase Awarenessof Ethical Issues in Engineering. IEEE
,2:1, Winter 1998, pp. 6-7.[3] NJCEP Rebates http://www.njcep.com, New Jersey Clean Energy Program[4] NJCEP Solar Renewable Energy Certificates http://www.njcep.com/srec/index.html[5] NJCEP Solar Rebates through December 2005 http://www.njcep.com/html/res-installed/solar-install.html#s3[6] NJCEP Program Eligibility http://www.njcep.com/html/3_eligib_guide.html[7] Mesa Environmental Sciences[8] http://www.solarpathfinder.com, Solar Pathfinder Official Website[9] NFPA, “National Electric Code 2005”[10] Solar Radiation Data: http://www.nrel.gov, National Renewable Energy Laboratory Website as interpreted andsummarized by the New Jersey Clean Energy Program in their public presentations to consumers[11] G. A. Masters, “Renewable and Efficient
. • Using an Architecture-Level Power Simulator. Breakdown of Energy Consumption: An important part of power-aware design is tracking down where the energy is being spent through the use of power simulators. The focus of this module is on architectural and circuit-level power simulators, like Wattch and HSpice. Page 11.803.4 • Fetch Throttling: The fetch unit in a processor may bring in instructions at a higher rate than they can be consumed by the execution unit resulting in a waste of energy. Techniques to throttle back the fetch are studied in this module, and laboratory exercises are included to
college for in the first place.Conclusion:It is absolutely possible to create engaging, high-impact, inspirational exercises on the cheap.You can do it – we’re going to take a leap here and guess that your campus has buildings too! Goahead and use them as real-world laboratories for teaching sustainability, civil engineering andbuilding science. Students like and respond positively to this kind of instruction and we believethe students did better because of it. You and your students will be pleased with how rapidly andmeaningfully you can engage a complex building-wide problem when that building is on yourown campus.Bibliography[1] F. Rajabipour and A. Radlinska, "Sustainable Construction: Active Learning of Sustainability Through Design and
, [accessed March 17,2019].[17] National Renewable Energy Laboratory, “Solar Energy and Capacity Value,”, NREL/FS-6A20-57582, September 2013, [Online]. Available:http://www.nrel.gov/docs/fy13osti/57582.pdf , [accessed June 21, 2016].[18] PowerWorld® Corporation, PowerWorld® Simulator Overview, 1997-2019, [Online].Available: http://www.powerworld.com/products/simulator/overview , [accessed March 17,2019 and May 9, 2016].[19] SynerGEE® Electric, Power distribution analysis and optimization - SynerGEE® Electric,undated, [Online]. Available: https://www.dnvgl.com/services/power-distribution-analysis-and-optimizationsynergi-electric-5005 , [accessed on May 9, 2016].[20] Flynn, N., M. Schnitker, T. Chen, and B. Alruwaili, “Non-Wire Solutions to
focused on recruitment of new students. 5. How did you learn about the NRC scholarship project? 6. How could the recruitment and application process for new NRC scholars be improved? 7. How could the NRC scholarship project be improved?Likert-type options were used in the first four questions above. An open-ended answer approachwas used in the remaining three questions. The survey results for these questions are providedbelow for a senior level (EE472) and a sophomore level (EE212) course (with or without NRCscholarship recipients). Course 1: EE472 – Advanced Power Electronics and Drives: Design and Analysis; n = 3; Number of NRC scholarship recipients = 2. Course 2: EE212 – Instrumentation and Networks Laboratory; n = 28
. Donald Goldthwaite and the Firstyear Engineering Learning and Innovation Center and Lab Assistants for their support during thisproject and making the prototype in the lab.References1. The Science of Teaching Science, M. Mitchell Waldrop, Nature, Vol 523, 272-274 (2015)2. Physical and Virtual Laboratories in Science and Engineering Education, Ton de Jong, Marcia C. Linn, and Zacharias C. Zacharia, Science, Vol. 340, Issue 6130, 20133. Impact of a Design Project on Engineering Physics: Does motor design project motivate students? Bala Maheswaran, ASEE Conference Proceeding, AC 2013.4. Developing Interactive Teaching Strategies for Electrical Engineering Faculty, Margret Hjalmarson, Jill K Nelson, Lisa G. Huettel, Wayne T. Padgett
presentations from industry leaders and policymakers—renewable energy is changing so quickly, that it is important for students to gain information from “top name” leaders in the renewable energy marketplace as well as from national and state policymakers who make rules that govern markets and create incentives. Team-based problem solving. Students will work together to create optimal energy system designs for sustainable communities. The students will use a web-based free shareware program known as HOMER™, which is available for download from the National Renewable Energy Laboratory (NREL)-- http://www.nrel.gov/homer/. Class discussion. We will use the assigned texts, guest presentations and
beincorporated in the new programs relating to disaster & emergency management and solarenergy at the undergraduate and graduate level.References1. Doyle S. Rice, “Report: Climate change behind rise in weather disasters,” USA TODAY, October 10, 2012.2. Jennifer Leaning, and Debarati Guha-Sapir, “Natural Disasters, Armed Conflict, and Public Health,” National England Journal of Medicine, November 2013.3. The World Bank. http://www.worldbank.org/4. Munich Re, Leading Experts on Risk Solutions Worldwide. http://www.munichre.com/en/homepage/default.aspx5. William R. Young, Jr., “History of Applying Photovoltaic to Disaster Relief,” FSEC-CR-96, Prepared by Sandia Laboratory, 1996.6. Solar PV emergencies & Resilience
• Specify RE system based on stated energy supply requirements• Describe characteristics of energy storage systems• Specify battery charging systems• Explain the operation of grid-tie RE systems• Analyze and give examples of RE case studies• Demonstrate competence in RE system design/operation in lab Page 22.1239.8Table 3 Laboratory Exercises for Elex 121 Renewable Energy Systems• Lab 1 Generation of DC and AC Voltage and Inverters Students see demonstrations of cranked and inverter AC generation. They use a 555 timer, two power transistors, and a transformer to light a neon bulb from a DC supply.• Lab 2 Photovoltaic Solar Energy
laboratory dealing with theissues and testbed development of micro renewable energy systems. In a second iteration of thiscourse, a graduate component was set up, where students would venture into advanced concepts.Papers on retail power beaming were developed by the graduate students in this course. The firstpaper studied policy issues related to retail power beaming, while a second dealt witharchitecture options and costs. The third paper in this series has shown that the optimalarchitecture will probably be one where stratospheric buoyant platforms will serve to capture anddistribute power coming from terrestrial plants either directly or via space satellites. This optionreduces the receiving antenna size needed at the ground to dimensions
. Page 24.1219.13 17. Wikipedia, “Fossil-fuel power station,” found at https://en.wikipedia.org/wiki/Coal_power, Dec 2013. 18. Wikispaces, “How Coal Power Works,” found at http://coalpower.wikispaces.com/How+Coal+Power+Works, Dec 2013.19. Duke Energy, “How IGCC Works,” found at http://www.duke-energy.com/about-us/how-igcc-works.asp, Dec 2013.20. National Energy Technology Laboratory, “Pinon Pine IGCC Power Project ,” Project Fact Sheet, Process Flow Diagram, found at http://www.netl.doe.gov/technologies/coalpower/cctc/cctdp/project_briefs/pinon/pinondemo.html, Dec 2013.21. Discover Physiks, found at http://fisikamir.blogspot.com/2012/02/change-of-phase.html, Dec 2013
of Technology (Mexico, 1996). Dr. Torres Garibay has taught several courses and laboratories at both Klamath Falls and Portland-Metro campuses, and served in various administrative positions, including department chair and program director.Jessica Kerby, Oregon Institute of Technology First year graduate student in the Renewable Energy Engineering program at the Oregon Institute of Technology. Previous Master of Science in Physics from the University of Cincinnati, Ohio.Mr. Andrew Powers Minigan, The Right Question Institute Andrew P. Minigan is the Right Question Institute’s (RQI) Director of Strategy. He facilitates active learn- ing experiences for educators, faculty, researchers, and students in both K-12 and
) (q) (r) (s) (t) Figure 3. Images of ten example Model Passive Solar Homes On the project due date, the students bring their models to the laboratory and brieflydescribe their home’s features to the instructor and the other students. As part of theirdescription, the students describe the real-world location where their model home was designedto be located. Then they place their home on the heliodon with the south side of their homefacing the arm of the heliodon. Each home is tested at two altitude angles: solar noon on thewinter solstice, and solar noon on the summer solstice. Based on the location and the resultingaltitude angles, the student adjusts
the project, the instructor began searching for prospective students. It was envisionedthat the project would offer a learning platform to students allowing them to generate novelmethods of applying energy conversion, while providing a practical result to the client.The laboratory background of this project was a 1/3 scale 1960’s style Ford Model T built byMcCullough Co, changed to Toro Co, then to Sharp Mini Cars. The charge given by the clientwas to convert the vehicle’s prime mover from gasoline to electrical using the design criteriaoutlined below:Hard Project Requirements • Retain original controls for Front, Neutral, and Reverse [F-N-R] using a lever on the left- hand side [LH] and the throttle which was a lever on right side of
servedby distribution transformers is worth analyzing as the increased load can pose maintenance andfailure concerns to transformers [19]. A study performed by the Pacific Northwest National Laboratory (PNNL) found that theintroduction of an EV load to a distribution transformer increased the failure rate by 0.02% peryear [24]. Reasonably exceeding standard operation ratings have not been found to increase thelikelihood of sudden transformer failures significantly. However, research indicates that increasedload does impact the operation lifespan. A study [25] analyzed how the number of EVs at differentcharging levels affected the aging of a transformer. The results of this study are shown in Table 4.Results indicate that multiple EVs under
Energy concentration was developed at LakeSuperior State University (LSSU). This concentration is composed of courses such as powerelectronics, power transmission and distribution, and vehicle energy systems. In addition, a newcourse entitled Energy Systems & Sustainability was also developed for this concentration.This new Energy Systems & Sustainability course is designed to provide a broad overview andallows both engineering and non-engineering students to gain exposure to these areas. There isalso a separate laboratory course that is designed for the engineering students, and as suchcontains more technical detail. Only the lecture course is discussed in this work. The primaryobjectives for the course are for students to be able to
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
Education, proceedings of,Seattle,WA, 2015.[10] Robson, N., Morgan, J. A. and Radhi, H. J. (2015) ‘Development of an UndergraduateMultidisciplinary Mechanical Design Laboratory Sequence based on Faculty Research’,Proceedings of the ASEE Annual Conference & Exposition, pp. 1–16.[11] Mennella, T. A. (2015) ‘Designing Authentic Undergraduate Research Experiences in aSingle-Semester Lab Course’, American Biology Teacher (University of California Press), 77(7),pp. 526–531. doi: 10.1525/abt.2015.77.7.7.[12] Orser, D. J., Bazargan, K. and Sartori, J. (2018) ‘Harnessing State-of-the-art Internet ofThings Labs to Motivate First-year Electrical and Computer Engineering Students’, Proceedingsof the ASEE Annual Conference & Exposition, pp. 1–15.[13
, G. and Suehrcke, H., Lawrence Berkeley National Laboratory, Tracking the Sun, October 2019.[2] Solar Energy Industries Association Research Data, retrieved 16 Jan 2020 from: https://www.seia.org/solar-industry-research-data[3] P. McCormick and H. Suehrcke, “The effect of intermittent solar radiation on the performance of PV systems,” Solar Energy, vol. 171, pp. 667–674, Jul. 2018.[4] B. Sivaneasan, N. K. Kandasamy, M. L. Lim, and K. P. Goh, “A new demand response algorithm for solar PV intermittency management,” Applied Energy, vol. 218, pp. 36–45, Mar. 2018.[5] M. Anvari, G. Lohmann, M. Wächter, P. Milan, E. Lorenz, D. Heinemann, M. R. R. Tabar, and J. Peinke, “Short term fluctuations of wind and solar power systems,” New
Paper ID #31473Prototype Automated Solar Tracking with Power Generation SystemDr. Saeed Sean Monemi, California State Polytechnic University Pomona Dr. Sean Monemi is a Professor of Electrical & Computer Engineering and Director of Smart Grid Laboratory at Cal Poly Pomona. He has many years of industrial experience and practiced engineering profession as an electrical engineer for Litton Industries. His professional experience includes working as a senior engineer and supervisor in one of the largest power company, Tennessee Valley Authority, in the areas of Substation Deign and Metering
Education Program (KEEP), delivering professional development courses in energy science for public school teachers. Dr. Walz is an alumnus of the Department of Energy Academies Creating Teacher Scientists (DOE ACTS) Program, and he worked at the National Renewable Energy Laboratory (NREL) conducting research in renewable fuels and electrochemical materials. He continues his work with NREL, serving as an instructor for the Summer Renewable Energy Institute for middle and high school teachers. Dr. Walz has been recognized as Professor of the Year by the Carnegie Foundation and the Council for Advancement and Support of Education, and as the Energy Educator of the Year by the Wisconsin Association for Environmental
course was the location where they take the exams. Studentswere allowed to take quizzes and exams at home. Students who opted to come to aclassroom were given an opportunity to come to a computer laboratory at a scheduledtime to take the exams. Although the average time students took to complete was only75% of the time given, several students felt that the time provided was not enough tocomplete quizzes and exams. However, it is also important to note that no one was able toscore 100% on any exam.The students were required to do a project and prepare a webpage on their findings sothat the rest of the class members can learn their findings. This was one of the ways topresent their work to other students in an online course. Two help sessions to