addition, mechanical engineering experiencehelped to take this project’s concept into completion. Utilizing the mechanical engineeringstudent’s experience with modeling and operations research, the group was able to modify theGridLab-D to model the experiment. As the nation’s only urban land-grant university, the University of the District of Columbia hasa special focus on urban sustainability, which is reflected in its curriculum and research focuses.The experience that these students brought to the framing of this project was integral to itssuccess. Collaboration through the capstone project allowed students to share the lessons they’velearned through their internships or research projects in a concrete manner. One student, who haddone
regional industry, equipment donations from alumni and industry supporters, andsupport for graduate student shop mentors [5,6,7]. Results from over 30 capstone design teamprojects are shared each year with the public, alumni, and industry partners at a signatureuniversity event known as the Design Expo [8]. Large-scale formative assessment of in-progressproject work is provided through three Snapshot Days throughout the two semester sequencewhere team members informally discuss project status in a class-wide interactive poster session[9]. An archive of past project work is keep on a website that now includes course curriculum aswell as over 300 previous capstone projects [10]. The overall learning environment is engagingfor upperclassmen as well
allow students to work on projects that can be relevant tocurrent leading edge research and technology. The development, content and structure oflaboratory activities and project-based learning as part of this effort to embed renewable energyinto our curriculum are also presented. [7]Background and Curricular Context: ET curricula descriptionEngineering education moves into the twenty first century charged with an environmental agendato respond to wider changes in the society. However, the educators are regularly modifyingcurriculum content to embrace technological changes into the learning outcomes. On the otherhand, renewable energy and sustainability are highly interdisciplinary, crossing over between anumbers of research areas, which makes
multidisciplinary nature ofpower quality presents an opportunity to integrate various aspects of energy and power systemsresearch. The power quality research and related-education activities are prepare a new kind ofpower engineer, able to meet the energy challenges of the 21st century. Power quality are linkingpower systems, power electronics and contemporary energy and power issues in order to createan integrated perspective of today energy and power systems. Current research plans are centeredon the power quality impact of integrating alternate energy sources to the power distributionsystems. The educational aspect can provide alternatives for a renovation of energy education byimplementing power quality activities in the power engineering curriculum
is an assistant professor of Science Education at the University of Wisconsin-Milwaukee in the Department of Curriculum and Instruction. Her research interests include equity and access issues in mathematics and science, STEM initiatives, multicultural mathematics and science education. Dr. Hamlin earned her B.A.S. in Teaching Mathematics from the University of Minnesota-Duluth. She completed her M.S. in Science Education, M.S. in Ecology and Evolutionary Biology, and her Ph.D. in Educational Studies at the University of Michigan. Page 15.965.1© American Society for Engineering Education
Paper ID #7749A laboratory for energy efficient product designDr. Alamgir A. Choudhury, Western Michigan University Alamgir A. Choudhury is an Associate Professor of Industrial and Manufacturing Engineering at Western Michigan University, Kalamazoo, Michigan. His MS and PhD are in mechanical engineering from NMSU (Las Cruces) and BS in mechanical engineering from BUET (Dhaka). His interest includes computer applications in curriculum, MCAE, mechanics, instrumentation & control, and fluid power. He is also a Registered Professional Engineer in the State of Ohio and affiliated with ASME, ASEE, SME and TAP.Jorge Rodriguez
. Reed and W. E. Stanchina, Smart Grid Education Models for Modern Electric Power System EngineeringCurriculum, IEEE Power and Energy Society General Meeting, 2010, pp. 1-5.22. M. Kezunovic, Teaching the smart grid fundamentals using modeling, simulation, and hands-on laboratoryexperiments, in Power and Energy Society General Meeting, 2010 IEEE, July 2010, pp. 1–6.23. N. N. Schulz, Integrating Smart Grid Technologies into an Electrical and Computer Engineering Curriculum,Innovative Smart Grid Technologies,2011 ASIA (ISGT), IEEE PES, 2011, pp. 1-5.24. R. Belu and I. Husanu, An Undergraduate Course on Renewable Energy Conversion Systems for EngineeringTechnology Students, 2011 ASEEE Conference & Exposition, June 26 - 29, Vancouver, BC, Canada
, development, and demonstration activities in government, industry, andacademia1. The program is offered through awards to California State University Los Angeles,Humboldt State University, Michigan Technological University, University of North CarolinaCharlotte and the University of North Dakota. Recognizing the inherent complexity of the topicand a multitude of new concepts, the HFCT programs are integrating laboratory practicum andprojects supporting student learning.This paper provides an overview of each participating institution laboratory practicum designand implementation after one and a half years of executing the program. While the funding wasprovided under the same DOE program, the paths, disciplines, courses, approaches ofimplementation
. manufacturability, and sustainability (e) an ability to identify, formulate, and solve engineering problemsIntegrates liberal arts and disciplinary (h) the broad education necessary toknowledge. I.B. Integrates the liberal arts with engineering understand the impact of engineering knowledge to understand the impact of engineering solutions in a global, economic
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
Paper ID #15838A Modular System for Energy Efficiency Study of Hydraulic ApplicationsDr. Alamgir A. Choudhury, Western Michigan University Alamgir A. Choudhury is an Associate Professor of Engineering Design, Manufacturing and Management Systems at Western Michigan University, Kalamazoo, Michigan. His MS and PhD are in mechanical en- gineering from NMSU (Las Cruces) and BS in mechanical engineering from BUET (Dhaka). His interest includes computer applications in curriculum, MCAE, mechanics, fluid power, and instrumentation & control. He is a Registered Professional Engineer in the State of Ohio and affiliated with ASME
, it isproposed that similar energy savings are possible in a wide variety of industries for which certaincriteria are met. Criteria for successful implementation are proposed, includingrecommendations for changes to both industrial and educational paradigms that perpetuate sub-optimal system designs and implementations. Possible changes to existing curricular structuresare explored, and recommendations for an integrated, multidisciplinary curriculum are proposed.IntroductionOne of the most significant challenges facing humankind today is that of energy. Engineers andscientists of every stripe have been challenged to address the world's energy needs. Thoughthere is a great deal of excitement and public attention focused on alternative energies
, the studentsare prepared to effectively integrate energy system development over a broad spectrum of technologieswith the socio-economic requirements to successfully implement them and to compete in the globalenergy market. Thus, the second part of the course module focused on improving the presentation Draft of a paper submitted for presentation at the 2017 ASEE Annual Conference & Exposition, Columbus, OH, June 25-28, 2017.skills. In this part, authors critically evaluated the paper they had selected. The topics ranged fromoptimizing energy storage for California (potential of solar and wind in that region with scoping ofbattery such that renewable could supply constant power for an entire day) to review of the currentstate of
Advisor for ASHRAE, as manager of a series of continuingeducation classes on energy in buildings, and as an instructor of an undergraduate HVAC course.Combining this experience with literature research and several personal interviews with industrypersonnel a list of educational needs for future HVAC engineers will be created. This will thenbe discussed with regard to what is achievable in the engineering curriculum and what otheroptions for attainment (workshops, continuing education, on the job experience, etc.) arepossible. The combination of options that are being pursued by Minnesota State University,Mankato will then be described.II. Putting it into PerspectiveWhile fuel efficiency in automobiles is often in the news, it has only been
also provides an overview of the electric vehicle drive train andcorresponding engineering roles and skills, and reviews recent employment descriptions of whatindustry expects. Prospective curriculum items are discussed including identifying major topicalareas for electric vehicle courses and a specific topical outline for an introductory electric vehiclecourse. Finally, the paper forecasts the need for resources including facilities, laboratoryequipment and faculty development in this area.IntroductionThe world of electric vehicle development is changing fast. Plug-in hybrid vehicles exist todaywhere two electric hub motors provide power to the rear wheels, but the development focus hasshifted to an all-electric vehicle that uses one electric
curriculum taught in public and global health classes, with the focus being onhow clean-energy systems decrease environmental pollution and improve community health. MercerUniversity’s Quality Enhancement Plan (QEP, running from 2015-2020) focuses on combining researchwith service (with a tagline of “Research that Reaches Out”), with a dedicated, staffed office. Thisproject is coordinating with Mercer’s QEP to advance integration of the initiative approach across theuniversity.Feedback from students in Mercer University’s Green Engineering course has shown that they find thehousehold level examples used to teach about energy efficiency and conservation to be beneficial andmemorable, the study of small-scale solar PV and shallow geothermal systems to
into a system that provides a continuous and uninterrupted powerstream.1. IntroductionRenewable energy related courses are becoming an essential part of engineering andengineering/industrial technology curricula. Many schools are integrating renewable energyprograms or courses to their core curriculum to support existing programs to expose students toenergy systems [1-7]. The nature of renewable energy courses differs depending on the program ofstudies in various departments. For example, construction and civil engineeringtechnology/science programs usually adopt green building and geothermal related classes andprojects [8], engineering programs adopt thermal systems, solar, wind, human power, energyconversions systems, and biomass classes
pathways for working professionals and develops a locally-educated engineeringworkforce in support of the regional power industry. The power system protection laboratory isa critical feature of these two programs.In 2009, the IEEE Power System Relaying Committee (PSRC) established goals for protectionlaboratory curriculum.8 Following the goal of the PSRC for universities to adopt an educationmodel to successfully prepare students for industry, we established laboratory objectives for ourprotection laboratory to create a smooth transition from education to industry employment.8,9,10Power system protection is a rich and dense subject, and at PSU the course topics are coveredduring a fast-paced, ten week lecture series; time spent conducting
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
others. Utilization of energy storage systems begins at the transmissionlevel where large scale storage devices are the best options to be used. Next, the small scaleenergy storage devices are the ones that are used at the consumers end.Small scale energy storage devices include battery energy storage system (BESS), thermalenergy storage (TESS), ultra-capacitors (EDLC), and flywheels. Among the listed small scaleenergy storage systems, Battery Energy Storage systems (BESS) is the most commonly usedcategory of energy storage systems with the renewable energy sources. Battery Energy StorageSystems play a significant role in the integration of small scale renewable energy sources into themain power system network (a.k.a. smart grid). They can be
students access live solar energy data from theirlaptop or smart phone. A preliminary evaluation of the educational impact shows that studentsnot only gained an appreciation for solar energy, but they had confidence in their ability todevelop innovative ideas for improving solar panel performance.Energy TransformationEngineers should have technical expertise, but also the ability to work with new and “uncertain”information, collaborate, and solve open-ended problems [1]. In order to make it a reality, aninstitutional transformation of university teaching is essential [2] – [5]. That is the motivationbehind an energy transformation project underway in an undergraduate Engineering Technologyprogram. The goal is a new energy systems curriculum that
. 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
were just aseager to learn about how to teach these concepts to students. The lead instructors took time todiscuss instructional strategies with the faculty participants, pointing out commonmisconceptions and common mistakes made by students. These discussions were interspersedthroughout the institute program, so that participants were engaged in a learning format thatalternated between digesting new information and skills, and integrating this information intotheir instructional repertoire. Equally important was providing participants with instructionalmaterials in an accessible format that they could easily utilize in their classrooms. Participants inthe workshop were provided with both teacher lesson plans and student handouts for each of
) under the program called, AdvancedTechnology Education. One of the project goals is to develop curriculum in the field ofalternative energy technologies both for four-year and two-year degree seeking students whoare pursuing BS and AAS degrees respectively. The department of Electronic Systems atASU’s Polytechnic campus is in the process of launching a new degree concentrationbeginning fall 2007 within the existing TAC of ABET accredited BS degree program. Thispaper focuses on a new undergraduate course “Application of Nanotechnology forBatteries, Solar, and Fuel Cells”, one of the targeted courses that will be developed tohighlight the potential of nano-materials in the energy area. The Electronic Systems Department (ESD) recently
variety of disciplines, including computer science, mechanicalengineering, and sustainability-focused programs, and they create opportunities forinterdisciplinary problem solving.IntroductionEnergy education can be found in many disciplines throughout a college curriculum. The basiclaws of the conservation of energy and an introduction to its many forms is integral to first-yearphysics coursework. Early environmental science courses emphasize the impacts of energyextraction and conversion on natural systems. Later courses in environmental studies explorenatural resources used to harvest energy. Business schools offer courses in the areas of energyand environmental economics. Traditional engineering disciplines study energy transformation,and
. Tooran Emami, United States Coast Guard Academy Tooran Emami is an associate professor of Electrical Engineering at the U. S. Coast Guard Academy. She received M.S. and Ph.D. degrees in Electrical Engineering from Wichita State University in 2006 and 2009, respectively. Dr. Emami was an adjunct faculty member of the Department of Electrical Engineering and Computer Science at Wichita State University for three semesters. Her research interests are Proportional Integral Derivative (PID) controllers, robust control, time delay, compensator design, and filter design applications, for continuous-time and discrete-time systems.Mr. David Fournier, United States Coast Guard Academy Holds a BA and MS from Southern New
Paper ID #27029Board 70: Development and Implementation of a Non-Intrusive Load Moni-toring AlgorithmDr. Robert J Kerestes, University of Pittsburgh Robert Kerestes, PhD, is an assistant professor of electrical and computer engineering at the University of Pittsburgh’s Swanson School of Engineering. Robert was born in Pittsburgh, Pennsylvania. He got his B.S. (2010), his M.S (2012). and his PhD (2014) from the University of Pittsburgh, all with a concen- tration in electric power systems. Robert’s academic focus is in education as it applies to engineering at the collegiate level. His areas of interest are in electric
. In keeping with the spirit of the EcoHawksprogram, it was decided that any control system would have to integrate all of the existingelements while providing for the capability of adding further projects. This system would ideallybe able to monitor the flow of energy throughout and between the EcoHawks’ componentprojects, such as between roof-mounted solar panels and the Beetle, while calculating theefficiencies of this energy transfer. The solution was the implementation of a Smart Grid system. To this end, the EcoHawks applied for and received an EPA grant (P3: People, Prosperity andthe Planet) to build a stand-alone model of a scale Smart Grid, schematically shown via Figure 5,in order to demonstrate both the laboratory and vehicle as
Post Doctoral Research Fellow from the University of Birmingham, UK. She was a Visiting Professor at Michigan Technological University for five years, and an Associate professor at Tennessee Technological University for 7 years prior to arriving at the University of the District of Columbia in the Fall of 2001. Dr. Ososanya research interests include new applications for VLSI ASIC design, Microcomputer Architecture, Microcontrollers, Nanotechnology, and Renewable Energy Systems. In recent years, she has worked with colleagues to apply these technologies to Biomass research, Solar Cells efficiency capture research, and Renewable Energy Curriculum developments. Dr. Ososanya teaches a myriad of Electrical Engineering
Paper ID #26974Virtual Instrumentation for Study of a Fluid Power SystemDr. Alamgir A. Choudhury, Western Michigan University Alamgir A. Choudhury is an Associate Professor of Engineering Design, Manufacturing and Management Systems at Western Michigan University, Kalamazoo, Michigan. His MS and PhD are in mechanical en- gineering from NMSU (Las Cruces) and BS in mechanical engineering from BUET (Dhaka). His interest includes computer applications in curriculum, MCAE, mechanics, fluid power, and instrumentation & control. He is a Registered Professional Engineer in the State of Ohio and affiliated with ASME, ASEE