equipment, online resources, etc.,however there are few that provide undergraduate students with both an engineering education and achance to do real engineering. Our EES provides both. Through our capstone course, students have anopportunity to directly design and contribute to the overall system. USAFA does not have access tograduate students and although we can do long distance collaboration with the Air Force Institute ofTechnology, we generally consider our projects to be at the undergraduate level.Senior Capstone Design teams are nearly all multi-disciplinary consisting of students from many majors Page 23.1000.7including electrical
stakeholder expectations.Systems Engineering Practice when applied within a capstone design project has a greaterpotential to develop program outcomes within students compared to traditional capstone projects.The process provides an engineering framework for the design process, as well as alerting thestudents using the process to other issues, such as the social and environmental impacts ofpossible designs. It allows the development of their communication and teamwork skills far moredue to the nature of the process.The most rewarding aspect of renewable energy design projects in a university setting is thecollaborative effort with students from multi-disciplinary engineering and science programs.Constraint-based design requirements drives the
in Engineering Program (WE@RIT); ME Department Advocate for Engineering Honors Program; and Member of Multidisciplinary Capstone Design Leadership Team. Page 12.670.1© American Society for Engineering Education, 2007 Enhancing Life-Long Learning and Communication Abilities through a Unique Series of Projects in ThermodynamicsAbstractMechanical engineering courses in Thermodynamics typically provide a detailed treatment of thefirst and second laws of thermodynamics from a classical viewpoint in order to prepare studentsfor subsequent courses and ultimately, engineering practice. Therefore, thermodynamics
EngineersWithout Borders and Engineering for Change (E4C), which they could use to give them someideas for potential technologies.Approximately 3 lecture periods were devoted to the concepts of appropriate technology. Theselectures focused on the nature of appropriate technology and its characteristics (per Table 1).Two alternative energy projects that were MSU Engineering Capstone Design Projects werepresented to the students and were critiqued in the terms of satisfying the appropriate technologychecklist. The two projects are described below. Following class discussion, the students cameto the conclusion that the Connect-On-Demand Satellite Link was not an appropriate technology,while the Vaccine Refrigerator did satisfy the criteria for an appropriate
problem. Ingeneral, there is at least the potential that these fluids could contaminate the pumpedwater or otherwise enter the environment. Furthermore, they can be expensive, and arerarely available where ‘appropriate technology’ is needed.Two separate student-designed pumps are presented that seek to overcome theselimitations. They were developed as part of 2-semester ‘Capstone’ design project classes.In one, air separates a small charge of working fluid from well water, reducing thepotential for contamination. The other pump is designed to boil water at lowertemperatures than might otherwise be necessary, by use of an inverted water column, andis useful when water need only be lifted a few meters. An alternative to this design is alsosuggested
AC 2007-1205: TRAVELING ENGINEERING ACTIVITY KITS – ENERGY ANDTHE ENVIRONMENT: DESIGNED BY COLLEGE STUDENTS FOR MIDDLESCHOOL STUDENTSElizabeth DeBartolo, Rochester Institute of Technology ELIZABETH A. DEBARTOLO is an Associate Professor in the Mechanical Engineering Department at the Rochester Institute of Technology. She earned her BSE at Duke University in 1994 and her MSME and Ph.D. at Purdue University in 1996 and 2000, respectively. She works with several students in the area of fatigue life prediction. Dr. DeBartolo serves on her college's leadership teams for both multi-disciplinary capstone design and outreach program development.Margaret Bailey, Rochester Institute of Technology
nighttime operation.IntroductionA senior project has been established to give students the opportunity toparticipate in real life research that is applicable to energy conservation in theState of California. This project will provide a capstone educational experiencefor senior students to enhance their ability to be initially productive professionalengineers. The project team consists of three faculty in the Electrical andComputer Engineering (ECE) Department and four senior students. This projectis due to be completed by the fall of 2007. This project will endeavor to establishand demonstrate the feasibility of producing a computer controlled power supplyfor large light emitting diode (LED) arrays. It will reduce energy consumptionand costs
become more competitive through achieving lean production and energy efficiency and waste minimization. As a mechanism to facilitate this effort, we provide links to each others website and provide the necessary web materials.Student involvementUp to date, both undergraduate and graduate students have been successfully involved with theCenter’s work - graduate classes through group projects, and senior undergraduate classesthrough Capstone projects. In addition to engineering, students majoring in physics, biochemistryand management have also been involved in the effort. These students have tackled, or getinvolved in, many activities such as:• Training about industrial energy audits, jointly supervised and facilitated by the
schemes as advanced senior (capstone) design projects to be developed to monitor and control frequency and voltage of the AC grid.Table 1. Estimated energy output from a 10 kW Bergey Excel-S Wind Turbine at City: CedarFalls Turbine: Bergey Excel; 10 kW Loss Factor (%): 12 Tower Height: 100 feetThe objectives of a typical wind power education in a Baccalaureate degree program shouldinclude basic mathematics, physics, statistical analysis, computer programming, electricalcircuits, analog devices, digital electronics, conventional and renewable energy fundamentals,electrical machines, power electronics, programmable logic controllers (PLCs), electromechanics, measurement and protection fundamentals, power transmission lines, power
. Proceedings, November, 1999.[27] Pecen R., Hall T., Chalkiadakis F., Zora A., “Renewable Energy Based Capstone design Applications for AnUndergraduate Engineering Technology Curriculum”, Proceedings of 33rd ASEE/IEEE Frontiers in Education (FIE)Conference 2003, Session S1E, Boulder, CO, November 5-8, 2003.[28] Pecen R., O’Meara Ron, Zora A, “Design and Construction of a Solar Powered Outdoor Digital Display as aSenior Design Project”, Proceedings of the ASEE 2004 Annual Conference and Exposition, EngineeringTechnology Division, Salt Lake City, Utah, June 22-26, 2004.[29] Iowa Energy Center Wind Assess. Data for Iowa, http://www.energy.iastate.edu/renewable/wind/assesment
totheir future employment. Students benefit from the knowledge and experience of practicingengineers. Combining classroom instruction with a capstone design project reinforces keyprinciples and gives students a practical application for their knowledge. This paper reports howelectrical facilities of a university and personnel responsible for its design and maintenancebecame key partners in energy management and renewable power projects for a capstone seniordesign course. This paper documents grid operations, power plant efficiency, and energy costcontrol projects, focusing on a substation design for integrating a wind turbine into theuniversity’s grid. The project includes topics in power systems analysis using practical designmethods. Effective
offerings were as follows: Figure 1: Project Based Learning Core of CoursesBy starting in the Junior year and culminating with a year-long senior capstone, participants wereable to progressively build their professional skills over several semesters. Detail PBL coursedescriptions may be found after the following titles: ENGR 350 - Engineering Practices and Principles III - Engineering project-based learning (open-ended) with emphasis on project control and engineering design processes. Special emphasis will be placed on professional, ethical, global, environmental, and contemporary issues. Contact Hours: 2 Lecture, 2 Lab. ENGR 400 - Engineering Capstone I - Senior engineering project
2010 7 ME680 (RIT, 3rd - 5th) Team Presentation Sub-total 90 Team PresentationAs indicated in Table 1, the technical book review project has been assigned to varying audiencesizes and year groups. Students who have completed this project range in year level from secondthrough fifth year standing. The author has found that notable successes on both projects aredemonstrated by students of all year levels. There have been many examples of the book reviewproject sparking an interest in a second or third year student which has lead that individualtowards a certain co-op position, capstone design project, or research. The team presentationproject has
converter system design,industry codes, standards and potential specialization in this engineering field. Students learn,verify, and reinforce lecture concepts by performing power converter experiments in thelaboratory sessions. In our approach we adopted the principles of the problem-learningmethodology. With this approach, students can develop confidence and the abilities needed inproject design, as well as in their senior capstone design courses. The design experience developsthe students’ lifelong learning skills, self-evaluations, self-discovery, and peer instruction in thedesign’s creation, critique, and justification. Through the projects, the students learn to use andunderstand the manufacturer data sheets, application notes, and technical
projects including fixing electric car started in an experimental engineering project coursewhich was taught first time in the department in lieu of a capstone project course. There were acouple of team projects in this course including electric car project. Due to time constraints in theclass the project was incomplete. However, same and more students were interested to work onthe same project either as volunteer basis or enrolling in an independent/directed study courses.Faculty advisors worked with students on weekly basis and created a time/work log for eachstudent to fill out the work progress and details of the duties. Every week the project progress isreviewed by the project advisors and students together. Each student was given time to
areas aswell as in thermal-fluid, energy conversion and mechanical areas from various levels of instruction andaddressed to a broad spectrum of students, from freshmen to seniors, from high school graduates to adultlearners. She also has extended experience in curriculum development. Dr Husanu developed laboratoryactivities for Measurement and Instrumentation course as well as for quality control undergraduate andgraduate courses in ET Masters program. Also, she introduced the first experiential activity for AppliedMechanics courses. She is coordinator and advisor for capstone projects for Engineering Technology. c American Society for Engineering Education, 2020 Project-based Learning with Implementation of
. Page 22.202.15References[1] RiverQuest, Green Boat Project. Accessed on January 11, 2011.http://www.riverquest.org/pdf/RQExplorer_HybridPropulsion07.pdf[2] R. Pecen, T. Hall, F. Chalkiadakis, A. Zora, "Renewable energy based capstone designapplications for an undergraduate engineering technology curriculum," FIE, Vol. 3, pp.S1E-7,33rd Annual Frontiers in Education (FIE'03), 2003.[3] Li Wang; Shiang-Shong Chen; Guang-Zhe Zheng; Zhi-Rong Lu; Chia-Tien Hsiung; Chen-Bin Huang; Cheng-Ching Huang. Installation of a 400-W wind turbine generator on acommercial fishing boat to achieve energy saving. Power and Energy Society General Meeting,2010 IEEE, 25-29 July 2010, Pg. 1 – 6, ISSN: 1944-9925, E-ISBN: 978-1-4244-8357-0, PrintISBN: 978-1-4244-6549-1
2011 ASEE Annual Conferenceinitial cost or in the long term operating costs. While one system may be more expensivein the beginning, by using more natural ventilation and lighting it may save costs for theowner over time.These variables can be used to find the balance between energy consumption andperformance. In other cases, the owner is concerned about other issues such as pollutionand the protection of the environment. 4. Assessing students learningIn the capstone presented here, the learning approach was composed of project basedlearning combined with continuous discussions between the students, team leaders andthe instructor (the instructor is the main author of this paper and the two other authors arethe team leaders). Two approaches
engineering students because it requires an understanding of plant biology andchemistry laboratory techniques. In 2006, the mechanical engineering department at SeattleUniversity was approached by a local startup company and asked to design a photobioreactor togrow oleaginous algae. This project was established as a year-long capstone design project. Itwas manned by four mechanical engineering students and supervised by industry liaisons fromthe company, and faculty advisors from both mechanical engineering and biology. Although theadvisors were initially concerned about the interdisciplinary component of the project, thestudents were enthusiastic and successfully completed the project. The successes of that projectlead to three more algae related
submersible pump. The design was a collaborative workof all the engineering programs at the University and enjoyed the participation of severalengineering students, including capstone design projects. The model design is shown in Fig.6. Page 14.217.7 Fig. 6 Model Solar/Wind Powered Water Pumping System on the campus of UDC, entirelydesigned and mounted by UDC students. The center picture depicts an 800 Gal water tank with, inside, a submersible 900W water pump.III. MOU with a local GO and Renewable Energy Power System Design andImplementation.Inspired by the lessons learned from the fact finding mission to Ethiopia and the
University of Wisconsin-Madison in 1993. His research and teaching interests are in power electronics, electric machines and drives, electrical power systems, and analog/mixed signal electronics. He has taught senior capstone design since 1985 at several universities.Dr. Steven W. Beyerlein, University of Idaho, Moscow Dr. Beyerlein has taught at the University of Idaho for the last 27 years. He is coordinator of the college of engineering inter-disciplinary capstone design course. He is also a co-PI on a DOE sponsored Industrial Assessment Center program in which several of the student authors have been involved. Dr. Beyerlein has been active in research projects involving engine testing, engine heat release modeling, design
12.446.1© American Society for Engineering Education, 2007 Design and Construction of a Lab-Scale Ground Source Heat PumpAbstractUndergraduate engineering and engineering technology students are in need of rigorous andmulti-faceted hands-on activities to enhance their self-confidence and technical skills. Very fewcourses give students the opportunity to approach practical design and production problems in aholistic manner. Senior design courses or capstone projects frequently give students theopportunity to design complex or multi-component systems in a timely effective manner.However, most capstone design projects are only concerned with the design itself and not withproduction, construction, or
] and sometimes distinguishing them is not easy. The project-led education hasbeen very popular in engineering programs since the 1990s [2]. The project-based learning isextensively being used for teaching engineering design through capstone or senior designcourses. This is partly due to requirements of accreditation bodies [2].Considering the fact that teaching and research are two most important functions of highereducation systems, the integration of them has been an attractive idea. However, as reported byHealey [4], there are strong feeling among academicians on relationship between research andteaching. While some believe “university research often detracts from the quality ofteaching”[5], other stated “courses taught by those at the
be successful in providing theses for graduate students that clearly containedmore than theses performed in similar subjects without senior capstone design teamcontributions. The quality of those theses are usually superior, for example [2,9,10,11,12,13].Papers generated from those theses were more likely to receive recognition and higher marks inpeer reviews. Hence, we again employed these methods in the project at hand.The project’s staffing was organized in the typical fashion with a major professor chairing acommittee of three professors for a Master’s degree with thesis. A graduate mentor wasappointed and, through a documented self-selection process, a team of undergraduates wasappointed [14,15]. For a senior capstone design project
buildingincluding its structural, HVAC and electrical systems. Students also review and deepen theirunderstanding of architecturally related topics including special layout and building codesrequirements.Most importantly, project methodology will be discussed. We discuss the capstone designprogram from students’ point of view, and the experience earned in design, integration, and alsoin written and oral communication skills. Methodology used to evaluate the effectiveness of thecapstone design program in term of learning outcomes is also described.Introduction:The Architectural Engineering Senior Project Capstone Class (AREN 485/486) proposes to usean actual industrial facility as the basis for the senior project. The purpose of the class is toprovide
paper presents the detaileddesign of a flexible low-cost Wi-Fi enabled cloud monitoring device by undergraduate electricaland computer engineering students in a capstone senior design project class.Keywords: Smart meters, Power monitoring devices, Embedded Systems design, Electrical andComputer Engineering capstone design projects.1. Introduction:Cloud computing is increasingly used by corporations for storing digital information. As aresult, the ability to monitor, and manage the power consumption of servers in a cloud network isessential. “Cloud computing is a model for enabling convenient on-demand network access to ashared pool of configurable computing resources (e.g. network servers, storage, applications, andservices) with minimal
Department ofIndustrial and Manufacturing Engineering, teaching fundamentals of energy efficiency will be mainlythrough the thermodynamics and fluid mechanics courses. For a more comprehensive practice of thesubject from freshman thru senior level, a new freshman level product design fundamentals is introduced.The thermodynamics and fluid mechanics courses are reformed as a lecture and lab classes, and a newadvanced product design course is introduced. Prior to graduation, students would utilize this knowledgein their capstone design project for design of innovative energy efficient products.3. Energy efficiency testingIn recent years students of engineering technology programs of WMU have been offered capstone designprojects for innovative design
, II, and III in Table 1.)They include a common core of 35 credits that provides a foundation in the liberal arts and anexploratory curriculum that includes 40 credits in the Arts and Humanities (10 credits), SocialSciences (10 credits), Natural Sciences (15 credits, including both biological science andphysical science courses) and Math (5 credits).General Engineering Core RequirementsThe general engineering core requirements are common to all concentrations and includemathematics, chemistry, physics, programming, probability and statistics, circuits, junior leveldesign, internship courses, and the senior design and capstone project. A listing of theserequirements is shown in Table 2 along with related learning outcomes from Table 1. Ten
systems to reject heat from therefrigerant to the outdoor air and to help in liquefying the refrigerant as it passes through itstubes. Reducing the surrounding air temperature or the surface temperature for the condenserwould help in eliminating an additional source of heat into the refrigerant and lower thetemperature of air surrounding the condensers which would enhance the air-conditioning systemperformance.A capstone project in the School of Engineering Technology at Purdue University conducted anexperimental and analytical study to investigate the performance of a 3 ton-refrigerant (TR) air-conditioning unit, installed in a residential house, while shading its condenser. The surfacetemperature of the tubes exiting the condenser were measured
for Engineering Education, 2012 Integration of System Thinking, Engineering Reasoning and Decision Making Skills in Design of Thermal Systems CourseAbstract Design of thermal system is in essence a Capstone design class for thermal andenergy systems. One of the major difficulties encountered by instructors in theseCapstone design courses is that many senior students do not have adequate preparation inapplying design skills such as critical thinking, engineering reasoning, and decisionmaking to successfully complete their design project. In this paper, the process ofintegrating system thinking, engineering reasoning and decision making skills intoDesign of Thermal Systems course is