TEAMWORK AND GALLERY METHOD IN ENGINEERING DESIGN PROJECT Serdar Tumkor1, Ali 1mre Aydeniz1, Ismail Fidan21 Istanbul Technical University Gumussuyu, Istanbul, Turkey/2Tennessee Tech University, Cookeville, TN 38505AbstractIn MAK 422E Engineering Design course, the objective is to present a comprehensive,consistent, and clear approach to systematic engineering design. At the very beginning of thesemester students in the class divide in to groups. All groups consist of 5 – 7 persons with agroup leader. In the course, in order to give an opportunity to a senior students, are making apractice of theoretical knowledge, projects are given to them. All projects are related to
Session 3661 CULTURAL ANTHROPOLOGY AND ENGINEERING DESIGN DO THEY MIX? Robert Knecht Colorado School of MinesAbstract – This presentation relates the cultural of St. Kitts to the engineering design projectsimplemented by second-year students as part of their Design (EPICS) experience. Imagine anopportunity to practice engineering skills on a culturally diverse island as part of yourundergraduate experience. St Kitts/Nevis is a Caribbean island inhabited mostly by descendantsof
Session 3425 Learning About Engineering Design Through Product Dissection Steven Mickelson, Carl Bern, Richard Freeman Iowa State UniversityAbstractThe electromechanical watt-hour meter is a familiar sight on utility posts and buildingseverywhere. Millions of these meters register electrical energy use for the purpose of revenuebilling by electric power suppliers. Watt-hour meters are excellent engineered products forlearning about the engineering design process and the engineering disciplines through the use ofreverse engineering or product dissection. At Iowa State University, we are using these
focussedapproach and aids learning within each subject but produces significant problems when the Page 7.476.4student tries to apply the techniques outwith the confines of the specific topic, as found in Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationdesign classes where multidisciplinary problems are common. The basis of the class is thatgood design analysis skills are based upon a general understanding of three main steps:problem formulation, solution and implementation of results.The Problem Formulation stage
engineering student has a working flashlight. Having developedsignificant familiarity with their flashlights, students are asked to design a number of alternativesfor implementing an on/off switch. This provides them with an incremental design problem in acomplete context: they know the details of their current design and they understand somemanufacturing constraints. Page 2.134.2The shop floor experience is carried one step further by introducing the students to valuabledesign and manufacturing principles. Specifically, students are challenged with the question,“How does the performance of a machine (or process) affect the overall design of a
AC 2011-2853: DETECT - DESIGN ENTREPRENEURSHIP TECHNOL-OGY ENGINEERING COLLABORATION TRANSATLANTIC PROJECTHeinz Schmidt-Walter, Hochschule Darmstadt, Germany Heinz Schmidt-Walter is from Germany, the town of Bremen. He studied Electrical Engineering at the University of Hannover where he also got his PhD in the area of power electronics. Consequently his first industrial engagement was in power electronics, specially high speed brushless frequency drives for high speed centrifuges. 1988 he went back to the University, first to the privat University of Deutsche Telekom, where he worked and lectured in power electronics, specially Switch mode power supplies. 2000 he changed to the University of applied siences
Session 1308 Biological Engineering Student Design Projects With Real Clients Ann D. Christy, Marybeth Lima The Ohio State University / Louisiana State UniversityAbstractThis paper examines the use of student engineering design problems for real clients that require amultidisciplinary team approach to solve them. Design projects are described including animalhabitats for a variety of wild animals, an inner-city playground, food-grade bacteriocinbioseparation apparatus, environmental control systems for a tiger habitat (in conjunction withthe animal habitat
design methods after theory and numerical applications (Figure 1 shows an example of a large number of flow charts developed for architectural engineering courses). a. Integration between Architecture and Architectural Engineering:The Architects are responsible for turning the owner's program and requirements into a model.They are responsible on designing the spaces and give function to each space of the building. Inparticular, they are responsible on developing the initial architecture plans that represents theshape of the building and the function of the spaces. The architectural engineer needs to haveenough knowledge about architecture, to be able to understand the plans, extract thenecessary information, discuss them with the
were more open-ended innature, required more time to complete, and contained a procedural design component. While weare intrinsically convinced that the design of experiments component introduced to the junior-level course in 1997 has been helpful, it is not abundantly clear from performance in the senior-level lab that any enhanced understanding of experimental development carries over from oneterm to the next. This paper compares the performance of students functioning under both the“old” and “new” lab structures.IntroductionLaboratory experiences are an important component of mechanical engineering (ME) education.This paper will attempt to elucidate the following hypothesis: Directed laboratory experiencegained in one term (Spring, Junior
disciplines were divided into subteams—a fuel cell team Page 7.270.3(2-4 members) and the robot team (2-4 members). The fuel cell subteam drew on the expertiseProceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright 2002, American Society for Engineering Educationof civil and chemical engineers, whose understanding of microbiology and chemistry werecrucial to optimizing the output of the fuel cell. Because of the multidisciplinary nature of theproject, contribution and cooperation from all students were important factors in the success oftheir designs. The
Session 2526 Designing Experiments in a Civil Engineering Curriculum Allen C. Estes and J. Ledlie Klosky United States Military AcademyIntroductionAs all ABET-accredited institutions become more familiar with the Engineering Criteria(EC) 20001 on which their accreditations depend, it is important for various institutions toshare information on how they are meeting these new requirements. The newaccreditation philosophy requires institutions to define their own missions and objectivesand to develop a process of assessment and continued improvement. The emphasis is ondemonstrating how the
Web-Based Collaboration Tool in Engineering Design Courses Junichi Kanai School of Engineering Rensselaer Polytechnic Institute 110 8th Street Troy, NY 12180-3590 USAAbstractIn our capstone design courses, a team of senior engineering students works on a problem specified by anindustrial partner. The course goals are to develop a solution and to demonstrate its feasibility in a 15week semester. A web-based bulletin board system was integrated into the courses as an on-linecollaboration tool in the spring of 2005. Although the students
Web-Based Collaboration Tool in Engineering Design Courses Junichi Kanai School of Engineering Rensselaer Polytechnic Institute 110 8th Street Troy, NY 12180-3590 USAAbstractIn our capstone design courses, a team of senior engineering students works on a problem specified by anindustrial partner. The course goals are to develop a solution and to demonstrate its feasibility in a 15week semester. A web-based bulletin board system was integrated into the courses as an on-linecollaboration tool in the spring of 2005. Although the students
2006-279: GREEN ENGINEERING DESIGN THROUGH PROJECT-BASEDINDUSTRIAL PARTNERSHIPSC. Stewart Slater, Rowan University C. Stewart Slater is a Professor and Founding Chair of Chemical Engineering at Rowan University. He received his Ph.D., M.S. and B.S. from Rutgers University. His research and teaching interests are in the area of membrane technology where he has applied this to fields such as specialty chemical manufacture, green engineering, bio/pharmaceutical manufacture and food processing. He is the recipient of the 1999 Chester Carlson Award, 1999 and 1998 Joseph J. Martin Award, 1996 George Westinghouse Award, and the 1989 Dow Outstanding New Faculty Award.Mariano Savelski, Rowan
launcher. Page 6.511.3 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright © 2001, American Society for Engineering EducationBefore the first design project is assigned, students are prepared with several activities. They areintroduced to the five-step design process discussed in Howell’s Engineering Design andProblem Solving.3 The five steps are: (1) Define the problem, (2) Gather pertinent information,(3) Generate multiple solutions, (4) Analyze and select a solution, and (5) Test and implementthe solution.To help the students understand the process of
Session 2309 A Series of Design Courses in Biomedical Engineering Frank J. Fronczak, John G. Webster University of Wisconsin-MadisonAbstractThe curriculum for the BSBME degree at the University of Wisconsin-Madison requires a seriesof six design courses. Students begin in their third semester with prerequisites of calculus,physics and chemistry. We solicit real projects from faculty in biomedical engineering and thelife sciences. Groups of two or three students interact with these clients to define thespecifications for their projects. Instructors teach them design principles and
Session 2438 Utilizing Reverse Engineering to Explore the Design Process Rebecca Sidler Kellogg, Roland Jenison Department of Aerospace Engineering and Engineering Mechanics Iowa State University AbstractFaculty at Iowa State University (ISU) have used the process of reverse engineering for the pastfive years to introduce lower division students to product design principles. This paper discussesthe use of reverse engineering as a hands-on activity in the Engineering Design Graphics (ENGR170) course. This activity was initiated with
Elective Elective Elective ElectiveWhile these “upper branches” may be courses taught in an undergraduate program, in most casesthey will be added to later in the engineer's career, and they should be the most adaptable topersonal choice, job market considerations, and interests.The complete treeA picture of the complete,successful engineer is one with ahealthy and deep system of roots inthe basic sciences and humanities,with a solid, straight core trunk ofteam skills including the ability tolead design and projectmanagement, with healthy lowerbranches of understanding in thefundamental engineering sciences,and with a set of upper branchesthat permit him or her to takeadvantage of the
Session 2282 An ECE Capstone Design Experience John Gesink, S. Hossein Mousavinezhad Associate Professor, Electrical and Computer Engineering / Professor and Chair, Electrical and Computer Engineering Western Michigan University, Kalamazoo Michigan, 49008 The capstone design experience in the Department of Electrical and ComputerEngineering at Western Michigan University is a two-semester sequence of two courses, the firstof the two (ECE Design I) being a 2 credit course while the second (ECE Design II) is 3credits. Students must have
AC 2012-4707: THE NEWCOMEN PUMPING ENGINE: A CAPSTONEDESIGN PROJECTDr. Matthew A. Carr, U.S. Naval Academy Matthe Carr is Permanent Military Professor of mechanical engineering and a nuclear submarine Officer.Michael V. CristianoProf. Patrick Caton, U.S. Naval Academy Page 25.1325.1 c American Society for Engineering Education, 2012 The Newcomen Pumping Engine: A Capstone Design ProjectabstractThe purpose of this article is to describe the undergraduate mechanical engineering capstonedesign project of building an operating and instrumented scale model Newcomen Engine.Thomas Newcomen built
engineering design course,namely, AME4163 Principles of Design. The students in the course are required to demonstratetheir understanding of design principles
outnumber those in competing nations andout compute those in developing countries; what is needed, in our opinion, is an engineeringworkforce able to out innovate the rest of the world and create so much value that our nation willbe able to compete – and win – in the 21st century.In preparation for understanding how we as engineering educators might adjust our curricula torespond to these changing times, the first author has read numerous books1-8,12-15 on the subjectof innovation and creativity. Simultaneously, the College of Engineering of Science at theUniversity of Detroit Mercy had identified Innovation and Creativity as one of four critical areasvital to the future success of our engineering students. This UDM priority coupled with
equipment.As conveyed by Czernikowski5, it is important to understand that capstone students usually havea demanding academic schedule. And key deliverables and expectations should be realisticallystated considering the academic schedules of the average capstone student. Also, facultymembers may not have the time to mentor capstone teams appropriately. Thus, the introductionof the AIS capstone liaison serves to complement the capstone faculty as a high-level mentor,who is adept in the engineering design process.Phase 2: Iterative Design ProcessStage 3: Teams engage in an iterative design process to further refine their projects. Throughiterative processes, capstone teams are encouraged to utilize a variety of CAD modeling andprogramming software, and
more haphazard. Once students were able to correctly interpret the problem, their path toa viable solution progressed much more smoothly and efficiently.IntroductionUnderstanding how and if engineering students are utilizing the engineering design process(EDP) is important in order to understand and implement effective teaching of design courses.The obvious first step in any engineering design task is identifying the problem or need; a bridgewashes out, garbage bins are needed for a train, an amputee needs a more comfortable leg brace.However, there needs to be a distinction made between identifying the need and interpreting theproblem. Interpreting the problem is the interface between identifying the need and developing aviable solution. If
were used to quantitatively characterize design behaviors as wellas to provide qualitative representations of the data. The results from this study show that there arestatistically significant differences between novices and experts while designing. The findingsestablish an empirical foundation for improved engineering education and motivation for furtherresearch. By building on existing knowledge of the cognitive differences and similarities betweennovices as developing learners and experts as target performers, a better understanding of theircognitive behaviors can be learned. This understanding is essential to identify appropriate learningexperiences to reduce the performance gap between expert and novice designers.This paper presents
in a relatively relaxed environment focused on a well-structured project. Inthis way, the students can see how these tools relate to the task at hand and help organize theirwork. In Principles of Design course, the students will author these documents, and write aproject proposal, perhaps for their senior project in the following year. So the experience in thefirst class gives them working knowledge of how the document is actually used, albeit in asimple project. The feedback from the instructors in the Principles of Design class indicates thatthe students are eager to engage in the work and understand the purpose of the documentationfrom their experiences in Engineering Practice.There is also anecdotal evidence that the team skills, design
while expanding our understanding of how students evolve to acquire expert-level design skills. The results inform leaders in engineering education and developers ofinstructional materials and curricula, as well as teachers and designers planning classroomstrategies, of initiatives in formal engineering education. The development of educationalstrategies are explored and developed through a workshop of engineering design educators tomove students along a trajectory towards expert design behavior. Table 1 presents an overview ofthe problem, approach, and potential outcomes of this project.Background and Significance of Related WorkThere has been a significant impediment in providing quantitative empirical evidence about thecognitive behavior of
AC 2009-40: A FIRST-YEAR ENGINEERING AFFORDABLE-HOUSING PROJECTMadiha Khurshid, University of CalgaryMarjan Eggermont, University of CalgaryDaryl Caswell, University of Calgary M. Khurshid is a second year biomedical student. Page 14.27.1© American Society for Engineering Education, 2009 A First Year Engineering Affordable Housing Design ProjectAbstractA second year biomedical engineering student, instructors, agencies and members of thecommunity worked together to design a first year engineering design curriculum for sevenhundred and fifty entry level engineering students for the 2008/2009 academic year. The goals ofthe curriculum are threefold: to make
industry-education partnerships that already exist.The program was created in line with traditional and contemporary training delivery methods foradult learners. Even more essential was the need to not only develop technical training for allparticipants but also allow for nontechnical training or soft-skill development. The programsuccess hinges on university partnerships as well. Gaps in knowledge and understanding areidentified in associate-level engineers. Using that knowledge, Schweitzer EngineeringLaboratories representatives work intimately with targeted universities to enhance curriculumand industry research partnerships and also develop essential programming to continue to feedthe pipeline for future engineers. The EDP is hinged on the
Paper ID #8452A Case-Study Analysis of Design Heuristics in an Upper-Level Cross-DisciplinaryDesign CourseJulia Kramer, University of Michigan, College of Engineering Julia Kramer is a senior in Mechanical Engineering at the University of Michigan. She has been work- ing in design research for over a year, studying idea generation tools, design problems for experimental studies, and the ways in which teams work from ideation to prototypes. Her research interests include creativity and innovation in engineering, the intersection between engineering education and design, and the investigation of local users and