AC 2008-706: CREATING A SOLAR OVEN INDUSTRY IN TANZANIA: ACAPSTONE DESIGN EXPERIENCECraig Somerton, Michigan State University CRAIG W. SOMERTON Craig W. Somerton is an Associate Professor and Associate Chair of the Undergraduate Program for Mechanical Engineering at Michigan State University. He teaches in the area of thermal engineering including thermodynamics, heat transfer, and thermal design. He also teaches the capstone design course for the department. Dr. Somerton has research interests in computer design of thermal systems, transport phenomena in porous media, and application of continuous quality improvement principles to engineering education. He received his B.S. in 1976
Prerequisites for Capstone Design Abstract A NASA project to improve university design education curricula has resulted in the addition of an undergraduate introduction to systems engineering and a spacecraft subsystems modeling laboratory as prerequisites to the capstone spacecraft/mission design course in aerospace engineering at the University of Texas at Austin. The systems engineering course materials, created by the second author, are based on NASA systems engineering practices and available in the public domain on the internet (http://spacese.spacegrant.org). The current paper summarizes the content of the systems engineering course, as well as a companion lab on modeling spacecraft subsystems, and focuses on the positive
innovators are attempting to transformengineering education is through implementation of interdisciplinary capstone design courses.Interdisciplinary capstone design courses provide students from different fields with theopportunity to work directly with other design students and professionals to develop a real world,authentic project. Studies have shown that engineering departments across the nation areattempting to implement interdisciplinary capstone design courses into their curriculum1.The Interdisciplinary Design Experience (IDeX) is an interdisciplinary academic programdeveloped to provide real world experience with innovative sustainable design projects toengineering, architecture and construction management undergraduate and Masters
Engineering Design in an Exam EnvironmentAbstractOne of the most difficult aspects of engineering is the effective teaching of engineering design.While it is paramount that every engineering student be exposed to engineering design, it can bedifficult to assess the design skills of individual students. Most design assessment is typicallyconducted at the project or team level, and many assessments of design effectiveness only usethe capstone experience. This is clearly inadequate. Instead, what is needed is an effectivemethod that can be used to partially assess the design capabilities of individual students in anexam setting.This article will discuss an approach to assessing design skills in the exam environment
Multi-Disciplinary Capstone Design and Implementation of Orbital Debris Removal System Emmanuel U. Enemuoh, Jose Carrillo, Jong Beom Lee Mechanical & Industrial Engineering, University of Minnesota Duluth 1305 Ordean Court, 105 VKH, Duluth, MN 55812 Scott Norr Electrical Engineering, University of Minnesota Duluth 1305 Ordean Court, 105 VKH, Duluth, MN 55812AbstractThe goal of this multidisciplinary capstone design project is to promote and sustain undergraduateresearch at the University of Minnesota Duluth (UMD) through a fundamental
concrete examples. The course exposes students to various techniques ingetting the systems engineering job done, such as concept of operations, requirementsdevelopment, trade studies and decision analysis, failure modes effects analysis, andcost/schedule modeling. The order of the some 24 different topics follows, to some extent, thesystem life cycle of development, with system formulation topics at the beginning and systemimplementation topics later. Page 23.203.3The second effort originated from NASA’s sponsorship of engineering faculty ideas forchallenging capstone design projects. One of the winning proposals came from AuburnUniversity’s Drs
several years while developing andteaching the HVAC curricula in the Architectural Engineering program. We emphasize theimportance of how such disciplines as thermodynamics, fluid mechanics, heat transfer andelectricity together create a successful curriculum. In addition, we describe briefly the history ofthe architectural engineering curriculum at University of Wyoming, the capstone design HVACproject, and the HVAC design process.Most importantly, project methodology will be discussed, beginning with system selection (fancoil, VAV (Variable Air Volume) terminal box, under floor air distribution system, displacementventilation and beam system), heating and cooling load estimation, systems sizing, airflowdistribution, commissioning and
capstone engineering design courses 2. Define an assessment structure that measures achievement of targeted outcomes in the context of capstone engineering design projects 3. Present assessment instruments and bases for scoring used in team-based design projects 4. Propose an approach for measuring reflective practice in team-based design projectsOutcomes and Performance CriteriaThe Transferable Integrated Design Engineering Education (TIDEE) consortium recentlyreported four areas of performance for learning and solution development in capstoneengineering design courses. [22-24] In this paper, the four areas have been revised to alignclosely with learner development and solution development needed in a rapidly changing
the governing equations (Fig. 4), and to simultaneously solve multiple analysis problems for integrated design projects. Page 12.390.7 6 REVISION Figure 4 Interactive mouse-picking of spur gear geometry factor (J) directly from a graph in the AGMA tooth strength analysis module and nonlinear solution of an eccentric buckling problem in the column buckling analysis modulec. Flexibility: To solve more than one type of mechanics problem using the same tool, to solve mechanics problems in
AC 2012-4314: APPLYING THRESHOLD LEARNING THEORY TO TEACHSUSTAINABLE BUSINESS PRACTICE IN POST-GRADUATE ENGINEER-ING EDUCATIONDr. Cheryl J.K. Desha, Queensland University of Technology Cheryl Desha is a lecturer in sustainable development in the faculty of engineering and science (School of Earth, Environment and Biological Systems), Queensland University of Technology. She is also a Principal Researcher in the Natural Edge Project (TNEP) research group, a non-profit academic network for research, education, and innovation for sustainable prosperity. Desha graduated in 1999 from envi- ronmental engineering and worked for consulting engineering firm Arup for four years, also undertaking work placement within the
support an engineering conceptdevelopment from cradle to grave. For SE students, that full life cycle planning and designhappens in their capstone course. The Systems Engineering Capstone class is usually taught asthe last course for any Master of Systems Engineering program. Within the class, students pursuea team project where they apply systems engineering methods to a specific problem. They thencreate the final deliverable with a systems engineering management plan. While students receivestrong technical training within this experience, ethical and justice-oriented skillsets andmindsets are lacking if not non-existent. For example, decolonization strategies – the ability tocritically examine systems and power differentials through systems
AC 2010-1448: ASSESSMENT OF ABET 3 A-K IN AN OPEN-ENDED CAPSTONE?Ronald Welch, University of Texas, Tyler Ronald W. Welch is Professor and Chair for the Department of Civil Engineering at The University of Texas at Tyler in Tyler, Texas. Until Jan 2007, Dr. Welch was at the United States Military Academy (USMA) where he held numerous leadership positions within the Civil Engineering Program and the Department of Civil and Mechanical Engineering. He is a registered Professional Engineer in Virginia. Ron Welch received a B.S. degree in Engineering Mechanics from USMA in 1982 and M.S. and Ph.D. degrees in Civil Engineering from the University of Illinois in Champaign-Urbana IL in 1990 and 1999
focus on alternative energy and power generation. Thisprogram had its first graduates in 2014. Since then, we have undergone a continual growthprocess for Capstone Design, consisting of efforts to better integrate real-world projects that havea strong alternative energy focus and that can prepare graduates to work in the renewable energysector. In the 2022/2023 school year, capstone faculty became aware of the US Department ofEnergy Solar District Cup [7], [8] competition and went through a process to integrate thiscompetition into the program's Capstone Design. Several challenges were encountered during theprocess, leading to the goal of this paper: to share an overview of faculty experiences integratingthis competition into Capstone Design
Session 2793 Development of a Crawfish Processing Machine in a Capstone Design Course Michael Larson, Donal Collins, Melanie Landry Department of Mechanical Engineering, Tulane University, LA 70118AbstractThis paper describes how an entrepreneurial focus can be brought to a capstone designcourse in mechanical engineering. During the 2000-2001 academic year, seniorundergraduates in the Department of Mechanical Engineering at Tulane University weredivided into teams to prototype, test, refine and manufacture a new product under thedirection of faculty and graduate students who created the
skills has beenintegrated into the Stewart School of ISyE at Georgia Tech Capstone Design course since2002[15]. The course involves student teams working on real-life design projects with for-profitcorporations, non-profits, health care organizations and government agencies. Students give sixpresentations during the course. The proposal presentation, interim presentation, and finalpresentation are each given to the Faculty Committee and class and to the client.ApproachThe presentation instruction is unique in its stress on information about communication collecteddirectly from people in the workforce: practicing industrial engineers, managers, and seniorexecutives of organizations employing many IEs. The interview process is described in
Prepare the Final Draft of the END: Capstone Report Document Design, and Submit on LMS Analysis, and Documentation Process Figure 3: Overview of the Design, Analysis, and Documentation Process.3. This part of the project included 30% of the entire project’s grade, while the other 70% belongs to
a refocusing of federalresearch dollars and through the development of educational programs dedicated to HomelandSecurity. For example, the Department of Homeland Security (DHS) through the Research andTechnology office has established University-based centers of excellence at several majorresearch universities and the Homeland Security Advanced Research Projects Agency(HSARPA) supports fundamental and applied research within academia as well as the privatesector1.On the educational side, the American Society of Industrial Security (ASIS) currently lists 113 Page 11.114.2Colleges and Universities within the United States that have programs
University of California, Berkeley in Mechanical Engineering.Amber Janssen MLIS, California State University, Maritime Academy Amber Janssen is a senior assistant librarian at California State University, Maritime Academy (CSUM). Her research background is in the instruction and assessment of information fluency in undergraduate education. Prior to CSUM, Ms. Janssen was a technical editor for the Research & Development office of Tetra Tech, Inc. Ms. Janssen earned her MLIS from San Jose State University. c American Society for Engineering Education, 2018 Reinforcing Information Fluency: Instruction Collaboration in Senior Capstone Laboratory CourseAbstractThis paper
into 5 categories of analysis that arerelated to the five steps that are part of the effective creative process proposed byCsikszentmihalyi5: 1) Finding problems (preparation), 2) Gathering and reflecting oninformation (incubation), 3) Problem exploration (insight), 4) Generating and evaluating ideas(evaluation), and 5) Implementation (elaboration).Creativity assessment was also based on the Consensual Assessment Technique9 (CAT), which isconstructed on the idea that the best measure of creativity regardless of what is being evaluated,is the assessment by experts in that field. Therefore, a group of twenty experts in Food Science,Technology, and Engineering fields were invited to evaluate capstone course final projects anddeveloped food
. Fewstudents had taken any additional design courses before their capstone course. In the capstone,they were learning further aspects of the design process, and were organized into teams to workon different problems posed by actual clients. None of the teams were working on KMCphototherapy. Students were not informed about our conception of the stages of modeling. Theyperformed the activities for our study as regular activities for the course, for which they receivedcredit. They were informed that their work on these activities would be helpful to their owndesign project and that they would also be analyzed as part of a research project.Implementation StrategyIteration 1: This phase was designed to assess student ideas of what constitutes modeling
comparison of the InterdisciplinaryExperimental Engineering Project Course to a capstone course is offered in this paper.I. IntroductionMost engineering and technology programs require their undergraduate students to take a seniordesign/capstone course to complete the degree. Most capstone courses are yearlong or a semesterlong, are specific to the student’s major, and are designed to demonstrate, in some way, thestudent’s knowledge of the discipline. To fulfill the requirements of a capstone course, thestudent accomplishes a field-specific project by herself/himself and is required to prepare apaper, a presentation, and/or poster to present the project before a group of peers. In some cases,industrial advisory board members are invited to the
and electronic imaging. She is a member of ASEE, SWE, Tau Beta Pi and Eta Kappa Nu. Page 23.944.1 c American Society for Engineering Education, 2013 One Last Tool for Their Toolbox: Preparing Students for Capstone DesignIntroduction:In many electrical engineering programs, students are required to demonstrate the success oftheir capstone design project by building and testing a prototype. Depending on the nature andcomplexity of the design specifications, the final product may be a composite of analog anddigital, hardware and software, discrete
Session 2660 Capstone Design Experiences Across National and Cultural Borders: Course Development William S. Kisaalita Biological and Agricultural Engineering Department University of Georgia Driftmier Engineering Center Athens, Georgia 30602 E-mail: williamk@engr.uga.eduAbstract It is well recognized that the world is becoming a global village. Today'sundergraduates will occupy workplaces and communities that have been transformed byglobalization
. Research sponsors include NSF, General Motors, Ford, Lucent Technologies, SME, and ALCOA. He has approximately 32 refereed publications and has been the PI on research projects with a total value of about $2.5 million. Page 11.698.1© American Society for Engineering Education, 2006 How to Engineer a Winning Competition Project:Lessons Learned from the Human Powered Vehicle Challenge Page 11.698.2AbstractEngineering society competitions, such as the ASME Human Powered Vehicle Challenge, arecommonly used as projects in capstone engineering projects. At MTU, we
consistent, engaging and hands-on experience for first-year students, hoping to excite and inspire them in the first step of their journey. There is a strong team, continuously improving on project-based curriculum for the first-year and beyond. Sudan Freeman is also the Associate Dean, Undergraduate Education. ©American Society for Engineering Education, 2023 Student Definitions of DEI in First-Year Engineering and Capstone DesignLike many universities, Northeastern University has several initiatives to improve diversity,equity, and inclusion (DEI) in its various programs. The authors have received an internal grantto develop the “New Engineering Toolbox”, which will be a resource to help
small scale problem so theybecome comfortable with this engineering design process. The required courses in the majoralign with program educational outcomes and are the methods and formulation courses shown inFigure 2 for the department learning model. These courses also emphasize specific phases of theSDP. For example, SE385 Decision Analysis provides cadets with advanced methods to use inthe Decision Making phase. EM411, Project Management enables cadets to understand how toimplement a systems solution.Systems engineering majors culminate their education in two Capstone Design courses, SE402and SE403, which are listed under the required electives in Figure 5. Cadets use the SDP to workon a new, significant problem with a real client who is
, structured approach is a great benefit to the development of complexsystems, both for large aerospace contractors and student projects. Systems engineeringdisciplines help provide the order necessary to the design and production processes. Common tothe aerospace industry, systems engineering processes are often discussed in engineeringcurriculum, but opportunities to participate in these processes are rare. Capstone engineeringcourses, such as the FalconLAUNCH courses, are perhaps the best way to provide a meaningfulexperience in these important disciplines.One of the important systems engineering disciplines is configuration control and managingchanges during the design and manufacturing processes. An example of this is the engineeringchange
Session 3451 Retooling the Environmental Engineering Laboratory Capstone Experience for ABET 2000 Laura W. Lackey, Richard O. Mines, Philip T. McCreanor, and André J. ButlerMercer University School of Engineering, Department of Environmental Engineering, 1400 Coleman Ave, Macon, GA 31207-0001AbstractThe traditional undergraduate environmental engineering laboratory experience is well designedand provides students with appropriate hands on activities relating to data collection andanalysis. Students learn the appropriate procedures to perform analytical tests on water,wastewater
particularly in the areas such as ship design. It is sobering to recognize that ourgraduates will be responsible for billions of dollars worth of ship design and construction and formaritime safety and environmental protection around the world. We believe the lessons theylearn in our ship design sequence will help them do these jobs well.Wrap UpThe combination of a broad based, highly integrated subject area, and an extremely demandingmilitary academy setting require USCGA NA&ME faculty to work as a team in coordinating andmanaging an effective capstone design project. At USCGA, three faculty, teaching threedifferent courses, have developed a semester-long design project approach that incorporatesprinciples and practices from each subject area
technologies to en- hance Drexel’s Engineering Technology course offerings. Eric is currently pursuing a Ph.D in Computer Engineering at Drexel, and is an author of several technical papers in the field of Engineering Technology Education.Sarina M. Stoor, Arora Engineers Inc. Project Coordinator at Arora Engineers, Inc.Mr. Fahad Ibrahim AlsuhaibaniAlexander M. Rogers, Drexel University c American Society for Engineering Education, 2019 Senior Design Project – The Road from Initial Design to Working PrototypeAbstractThe Senior Design Project is the capstone undergraduate experience for Drexel University’sEngineering Technology (ET) students. During this