into the engineering curriculum, Center Approach and Whole Curriculumapproach. a) The Center Approach refers to as developing a multidisciplinary GREEN center to serve as a focal point towards promoting sustainable design. The Georgia Institute of Technology’s center for sustainability is an exemplary model to this approach. b) The Whole Curriculum approach refers to designing a new curriculum integrating more Sustainable Green perspective.Brown (2009) developed an elective course in Green Building Practices and LEED Certificationat California State University, for the construction management students that led to a fast pacedLEED AP training course for construction professionals. The results shaped a collaborative
Environmental Resources Engineering at Humboldt State University and a Faculty Research Associate at SERC. She is an alumna of HSU where she received her B.S. degree in Environmental Resources Engineering. She received an M.S. in Energy Policy and Analysis and a Ph.D. in Civil and Environmental Engineering from the University of Wisconsin, Madison. Dr. Cashman currently teaches courses in engineering design, water quality, computational methods and environmental fluid hydraulics. At SERC, Cashman is currently involved in a feasibility study for hydroelectric resources for the Yurok tribe and the H2E3 university curriculum project.Peter Lehman, Humboldt State University
cell research used under a wide range of operational conditions for the US Army, as well as battery research, and the implementation of alternative energy power sources in autonomous ground vehicle robots. He is also working with his students supporting DTE Energy in the operation and optimization of their Hydrogen Power Park in Southfield, Michigan, a photovoltaic, biomass, water electrolysis, hydrogen storage, hydrogen vehicle fueling station and fuel cell power demonstration project, funded by the Department of Energy. He has also established an alternative energy laboratory at LTU that contains integrated fuel cell and hydrogen generation systems, as well as equipment
curriculum must span sustainability design, sustainablemanufacturing, and the interaction between sustainability and entrepreneurship. The proposedcurriculum implements teaching modules and a team teaching approach. The modules areproblem-based and result in creating an interdisciplinary educational experience for students.Therefore, one of the main goals of our team will focus on reshaping Manufacturing Engineeringcurricula to respond to current demands to produce environmentally conscious engineers capableof understanding biomaterials manufacturing processes and their implications. There is no doubtthat more attention is needed to be able to create a sustainable environment. Then, most of the
. Page 15.34.1© American Society for Engineering Education, 2010 AC 2010-1255 A GRADUATE CERTIFICATE IN EFFICIENT ENERGY TECHNOLOGYAbstractThe paper presents the design of a graduate certificate in Efficient Energy Technology (EET) inthe Engineering Technology (ET) programs. The certificate aims to prepare professionals in anarea that is extremely critical for the survival of humanity and our civilization. The curriculum isdesigned to deal with all aspects related to source and consumption of energy. The intendedaudience comprise of post-baccalaureate students in Engineering Technologies and the workingsupervisor
participation ofsteering oversight board and steering oversight committees at each level. Figure 2 representstypical curriculum lifecycle for an individual program, such as Smart Power Engineering,Electric Power Fundamentals, etc. It has a number of program outcomes and course outlines2. Fig.2. Curriculum Development for Typical ModuleFigure 3 represents curriculum structure of interrelated modules delivered either at one or atmultiple institutions. Administration and delivery infrastructure are unified and linked toconditions in Fig. 2. Such a structure with distributed modules and unified administration anddelivery network reflects the concept of the consortium by providing flexibility, integration ofexpertise, and
activities which provide opportunities for students to engage in experiments that willreinforce the material covered. The safety of the unit was confirmed after several tests indifferent conditions on campus.1. IntroductionWe live in an age of environmental awareness, and alternative energy education is present inmost of our daily conversations in engineering, technology, and science education. Renewableenergy today provides about 9% of the world’s energy and 8 to 10% of the U.S. needs [1].However, in many parts of the world these percentages are increasing significantly. Based oncurrent data on global warming, as well as the current U.S. dependence on overseas oil, there isan interest and urgency in utilizing alternative energy sources. In order to
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
, 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
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
, 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
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
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
aspirations.1 Introduction and BackgroundMany engineering schools are now employing a service-learning approach to globally-basedhumanitarian projects3,4,5. The importance of integrating both globalization and social needs intothe engineering curriculum is acknowledged by the ABET criteria6, and human need is a clearpriority of the engineering profession, as indicated in the NSPE creed*,7. However, the majorityof North American engineering students are not familiar with the contexts in which vast needsexist, such as those among the physically disabled or the estimated 4 billion people living on lessthan $2 a day (PPP)8. These conditions represent a formidable “frontier design environment”, orenvironments outside the experience and expertise of most