AC 2007-1286: PLANNING A SMALL-SCALE WIND-ELECTRIC SYSTEM INEAST-CENTRAL IOWAMichael E. Hay, University of Northern Iowa Michael Hay completed his masters degree in Industrial Technology at the University of Northern Iowa. Mr. Hay holds a BT in Industrial Technology/Mechanical Design from the University of Northern Iowa and an MA in Industrial Technology from the University of Northern Iowa. Mr. Hay has over 25 years of experience in various Engineering positions and is listed on six US patents. His graduate research was in planning small-scale wind-electric systems. He has worked on several other renewable energy and electric vehicle projects as well.Recayi "Reg" Pecen, University of
planning and routing • Settling disputes and resolving conflict • Developing an appreciation for sound decision making and wise leadership • Reading and interpreting requirements, rules and regulations • Understanding the consequences of failureTechnical and Engineering Skills: • The integration of complex mechanical, electrical and software systems • Complex CAD illustrations • Simulation and modeling • Fabrication processes such as welding, bending, cutting, joining and machining • The selection, specification and performance of fasteners • Corrosion prevention and paints • Mold fabrication and fiberglass body construction • Surface preparation and painting • Static structures and dynamic systems • Safety of both
Paper ID #15781Documentation, Review, and Assessment of a State of Michigan-funded En-gineering Undergraduate Summer Internship for the Development and Im-plementation of an Energy Usage Planning Tool for a Large Grain Elevatorand Grain Storage FacilityDr. Robert W. Fletcher, Lawrence Technological University Robert Fletcher joined the faculty of the Mechanical Engineering Department at Lawrence Technological University in the summer of 2003, after two decades of various industry engineering positions in research, and product development. Dr. Fletcher earned his Bachelor of Science Degree in Chemical Engineering from the
design and implement alternative energy systems.Oral Presentation Towards the end of the workshop, each participant was given a topic to research on andthey made an oral presentation to the class. Some of the topics are “Application of solar power”,“Application of wind power”, “Electric safety”, “History of solar power and wind power”, “Solarand wind power hybrid systems” and “Helpful websites for experiments and lesson plans relatedto solar and wind technology”.Lesson Plans Each participant wrote an inquiry-based lesson plan in solar and wind power technology,and electricity after attending the ETI institute. Inquiry-based learning incorporatesinterdisciplinary study, critical thinking skills, and structured research considering
and can be implemented in a variety of ways to fitinstitutions’ particular aspirations.BackgroundThe authors’ involvement in LEED Lab was based upon their institution’s longstandingsustainability initiatives. Ball State University is signatory to the Talloires Declaration, whichstates: The first official statement made by university administrators of a commitment to environmental sustainability in higher education. The Talloires Declaration (TD) is a ten- point action plan for incorporating sustainability and environmental literacy in teaching, research, operations and outreach at colleges and universities. It has been signed by over 350 university presidents and chancellors in over 40 countries. 6Ball State
produce useful electrical power.The project requires knowledge in several technical and scientific areas and is conducted on astudent-team basis with a faculty advisor. IntroductionThis project is multi-disciplinary as it involves biology, chemistry, physics and engineering. Atleast one student from each of these disciplines is a member of the project team. The team meetsonce a week to discuss plans for designs, fabrication of test units, scheduling of tests anddiscussion of test results. The team is led by a student project leader with a faculty member asadvisor. At this point, initial tests have been conducted on a lab model for purposes of provingthat the concept does produce electrical power by
ECMs is followed by areal industrial case study where the measure is implemented, and the annual energy savings wasrealized. Author also provides a discussion around the peak demand reduction, how it relates tothe energy savings that may be achieved due to installation of the ECMs.Finally, author recommends a field trip to help students visualize what they learned in theEngineering Thermodynamics course. This field trip would be visiting an on-site central utilityplant which most universities have to meet their heating and cooling loads. A step-by-stepprocedure is included at the end of this paper which streamlines the field trip planning processand helps the instructors to set and evaluate the goals of the trip. A paper-based
, and recommended practicesfrom the Madison College experience are detailed. Madison College completed a SolarRoadmap in order to prioritize and sequence investment in solar across the multiple buildingsand campus locations operated by the college. The featured installation was the first projectwithin that plan. A ten-step guide on how to create a solar roadmap is shared, so that otherschools can learn from Madison College’s experience and replicate the process for their owninstitutions.Introduction - The Opportunity for Schools to Pursue Solar EnergyThe past two decades have seen massive growth in renewable energy while aging and obsoletecoal fired electrical plants are increasingly being retired. This is illustrated in Figure 1 by thegrowth
construction was adapted in HB1647 building code of Florida Legislature. Najafi is a member of numerous professional societies and has served on many committees and programs, and continuously attends and presents refereed papers at international, national, and local professional meetings and conferences. Lastly, Najafi attends courses, seminars and workshops, and has developed courses, videos and software packages during his career. His areas of specialization include transportation planning and management, legal aspects, construction contract administration, renewable energy, and public works. c American Society for Engineering Education, 2017 100% Renewable energy for Pennsylvania
kits, eachbased on a different energy-related theme: Heat Transfer, Electrical Energy, Wind and Water,Solar Power, and Chemical Energy. Each kit contains an Academic Activity to teach abackground concept, a Hands-On Activity to allow students to apply the concepts learned, and aTake-Home Activity that can be done independently at home. The design team also developedinstruction manuals suitable for non-engineers, lesson plans, handouts, and post-activity quizzesto assess participants’ learning. To date, the kits have been used by over 100 6th graders as wellas dozens more students participating in on-and off-campus outreach programs. This paperdescribes how and why undergraduate engineering students were involved in designing theTEAK
and with number of engineers leaving theworkforce, which is particularly truer in the power industry1-4. Indeed too few engineeringstudents are studying or planning to study power engineering, further compounding to theproblem of power engineers’ shortages1-5. Preparing students for these career opportunities is achallenging task, further complicated because it must be accomplished using often limitedresources and within very stringent time constraints of the already crowded curriculum1, 5-8.Moreover, there also are new challenges due to the grid transition to the future smart grids and tothe increased use of renewable energy. Development and operation of the smart grids requireengineers to have not only a solid power engineering background
audience. Past student teams have presented to a variety of audiencesranging from college level liberal arts classes to middle and high school science, math, andtechnology classes.This paper includes an overview of both projects in their current forms; results of projectassessment, including samples of student feedback, which have been collected and analyzed overthe past five years; the strategy used during department-level assessment to support outcomesrelated to life-long learning, communication, and team work abilities; experience gained throughtranslation of projects to other courses; and future plans for project refinement.I. IntroductionRochester Institute of Technology (RIT) has one of the oldest cooperative education programs inthe country
other rural villages in Ghana as wellas the major cities of Kumasi and Accra to study the economic and business environment, aswell as the technical infrastructure, in the area. This paper describes the GlobalResolve programand this biodiesel project that has the goals of providing students global experience in problem Page 13.1216.2solving and plans to help the village develop a plan for a sustainable biofuels venture.Global Resolve at ASUThe biodiesel project described in this paper grew out of an interdisciplinary interculturalinitiative at ASU called GlobalResolve. GlobalResolve was established at ASU in 2006 as asocial entrepreneurship
encourage a wide range of alternative energysources, President Obama voted in favor of the Energy Policy Act of 2005, proposed a NewEnergy for America plan, and signed American Recovery and Reinvestment Act (ARRA). Thekey points in these policies are as following:≠ Reduce the overall U.S. oil consumption by at least 35%, or 10 million barrels per day, by 2030 in order to offset imports from OPEC nations.≠ Help create five million new jobs by strategically investing $150 billion over the next ten years to catalyze private efforts to build a clean energy future.≠ Ensure 10 percent of our electricity comes from renewable sources by 2012, and 25 percent by 2025.≠ Implement an economy-wide cap-and-trade program to
architects, mechanical and structuralengineers, lighting designers and specialist simulation modelers contribute to anintegrated approach. The integrated approach may involve the use of local weatherconditions, such as wind-driven ventilation and daylighting, as well as the characteristicsof the building shape, materials and space planning needs.In this paper, a methodology presented to our students in the framework of this course ispresented. This methodology is based on using actual buildings, where local weatherconditions as well as engineering considerations and architecture are used in an integratedapproach to achieve a successful design.We discuss the course program from the students’ point of view, and the experienceearned in design
well as operate the larger scale biodiesel production equipment.Typically, the students come to campus 2 or 3 at a time during breaks in their academic classschedule. The students schedule their campus visits independently. The university researchteam utilizes an online calendar to schedule laboratory time, so the high school participants areable to see when research work is being done, and there schedule their visits accordingly.By working side by side with the undergraduates, the students are able to work and contribute ata level beyond what they would typically be able to do. Although the undergraduates were givenno special instructions with regard to working with the high school students, they wereencouraged to include them in planning and
at West Virginia University. He worked at the Los Alamos National Laboratory, New Mexico Highlands University, and is currently an Assistant Professor of Technology Education for at Buffalo State College. He became a member of the Oxford Roundtable in 2008 and plans to present another paper there in 2010. Page 15.895.1© American Society for Engineering Education, 2010 Multi-Institutional Approach to Engineering EducationIntroductionMany specialized areas of study exist for which there is a definite but small market in theindustrial world. The size of this market may preclude the development of
controller selection, 4) installation, and 5) cost analysis. Priorto departing, students participate in designing, prototyping and installing the system. These efforts haveproduced an open-source set of plans. The “Appalachian Street Lamp,” is an inexpensive system thatcan be deployed to remote locales that can access a cellular network but do not have grid power.These field courses emphasize key learning outcomes including: 1) use essential math and science skillsto solve applied science problems, 2) formulate, design, or develop a system, process, or program tomeet desired needs, 3) demonstrate the capacity to function in project teams, and 4) use thetechniques, skills, and technical tools necessary for professional practice in the discipline.A
environment.This paper describes an approach that will design new curricula based on the current trends fordeveloping commercial products that are manufactured from renewable and biodegradablematerials, and that will have a minimal environmental impact given our nation’s agriculture,economy, environment, manufacturing, and engineering resources. Through the development ofthis curriculum, students will gain a background and an appreciation of the complexity of ournation’s agricultural system as well as awareness for possible careers within theagriculture/environmental sustainability/biomaterials manufacturing engineering fields whiledeveloping their professional skills.Through this approach, we plan to generate new courses that present students with
-departmental collaboration, team work, resources planning and scheduling, budgetmanagement and vendor relations from such projects. We installed our 10-kW PV project usingvolunteer student help outside the bounds of classroom activities. Here we present a summary ofthe project itself, along with a one-year post-installation assessment of the LawrenceTechnological University’s project. Also reviewed are its benefits to Lawrence TechnologicalUniversity’s students and our Alternative Energy program, along with several recommendationsfor how other educators might also successfully proceed with similar efforts.Introduction and BackgroundFor the past several years Lawrence Technological University (also known as LTU) has beenactively involved in the field
• Defining LEED • Emergency preparedness planning. Page 22.467.6Besides standard classroom instruction, the students go on site visits, are visited by special guestlecturers, and complete four projects. In detail, the projects are as follows:1) Preparation of an “Energy Conservation Plan” with the following aspects: identifyingopportunities, determining an action plan, calculating the savings, written report.2) Working in a team of two students perform an actual energy audit with the following aspects:energy audit scope & plan, walk-down & information gathering, analysis, recommendations,written report.3) Preparation of an Environmental
adjacent to the downtown area of Milwaukee. In the last century, it was at the heart of the manufacturing base of the city. The central shops for the Milwaukee Road railroad were located here. With the loss of manufacturing from the city’s economy over the last 20 years, much of the Valley reverted to brownfields. Planning for redevelopment of the area began in earnest about 12 years ago. The city promoted a comprehensive planning process, with involvement by the widest possible group of stakeholders. Menomonee Valley Partners was organized as a result. Menomonee Valley Partners continues to be closely involved in the ongoing redevelopment efforts in the Valley.Trolling for Projects: the
-disciplinary engineering program was initiatedat the Polytechnic campus of Arizona State University. A key feature of this program is theemphasis on a Problem Based Learning (PBL) approach to engineering education. Under thispedagogy, students are assigned engineering projects that are carefully planned by the faculty sothat their completion requires mastery of specific sets of traditional engineering topics.Whenever possible, needed topics are presented by faculty members on a “just in time” basisthroughout the curriculum, so that students immediately apply theoretical knowledge to realworld engineering problems. This paper presents an example of the implementation of thispedagogy in a course designed to involve students in an ongoing research
group presented in December 2009 its strategic plan for the future of the electric system. In 2010 the group convened a National Dialogue on Energy, expanding its membership to include other community groups, and professional organizations. During 2011 the group spearheaded a public education effort regarding a new way to elect the two consumer representatives for the Governing Board of the electric utility. PREPA is a state-owned public power company, and although the Governor selected 7 of the 9-member Governing Board, PREPA operated autonomously from the state government. The remaining two members of the Board were representatives elected by the consumers. The Roundtable got two of its members included in the final ballot for the elections
generation of engineers to meet the growing needs inalternate energy while revising the engineering curriculum.. In addition to educational issuesthere are many research challenges and opportunities in such new power and energy areas. Enrollment in engineering programs, although increasing modestly over the past decades, is stillunable to keep pace with industry needs and with the number of engineers leaving workforce [1-8]. Indeed fewer engineering students are studying or planning to study energy engineering,further compounding to the issue of energy engineer’s shortages. However, preparing studentsfor these career opportunities is quite a challenging task, further complicated because it must beaccomplished using often limited resources and within
organization provide guidance to the studentsas needed.The Muhuru Bay Energy Kiosk project was unique in several ways. Rather than being sponsoredby a company, the majority of the project was funded by an external grant from the foundation ofa large international electrical equipment manufacturing company. The grant was awarded toSeattle University with the expectation that a multidisciplinary team of volunteer practitioners—engineers, programmers, social scientists, tradespeople—collaborate on the project. Thevolunteer team, which consisted of about 20 people in addition to the students, worked in sub-teams, each addressing different aspects of the project. For example, there were teams chargedwith developing the business plan for the kiosk, training
Paper ID #5673Enhancing Student Learning Through a Real-World Project in a RenewableEnergy Courses CourseDr. Oxana S Pantchenko, University of California at Santa CruzMs. Tiffany Wise-West P.E., University of California Santa Cruz My civil engineering background is in utility infrastructure planning, design and project management, specializing in urban water and energy systems. Broadly, I am interested in the sociocultural and political economic dimensions of community-based natural resource management. My current research work is focused on sustainable municipal infrastructure projects, ranging from renewable energy to
. Contact Hours: 2 Lecture, 2 Lab. ENGR 400 - Engineering Capstone I - Senior engineering project selection, planning, and development. Emphasis will be placed on defining project requirements, developing project work breakdown structure, conceptual designs, and working prototypes. 1 Lecture, 4 Lab. ENGR 450 - Engineering Capstone II - Senior engineering project design, development, fabrication, and testing. Emphasis will be placed on iterative design processes, project management and execution, fabrication and testing. 1 Lecture, 4 Lab.The PBL sequence of courses provided the participants with an opportunity to learn projectmanagement, technical communication, teaming, and problem-solving skills while
Baylor University’s Quality Enhancement Plan (QEP) presented to theSouthern Association of Colleges and Schools (SACS). Faculty were given the opportunity todevelop residential learning communities for incoming freshmen that revolve around a theme.The topic of energy, and its associated societal, political, environmental and economic threads,was submitted by the authors and eventually selected for development into a course that is beingoffered for the first time last fall. A total of 28 freshmen from a wide diversity of disciplinesvoluntarily signed up for the course and will remain in it for up to four consecutive semesters.The paper examines the structure of this course and our assessment goals.The Case for Energy EducationPeople often assume