University of Portland in Oregon. Dr. Ferguson is a member Eta Kappa Nu, IEEE, and ASEE.David Voltmer, Rose-Hulman Institute of Technology David Voltmer is a Professor of Electrical and Computer Engineering at Rose-Hulman Institute of Technology. His interests include electromagnetics, microwave metrology, systems engineering, and entrepreneurial student classes and projects. Page 11.541.1© American Society for Engineering Education, 2006 Engaging ECE Students in the Practice of EngineeringAbstractThe design sequence at Rose-Hulman Institute of Technology has a long tradition of educatingstudents in
: We Don't Just Play Heavy Metal Music-- We Also Talk About MetallurgyAbstractA weekly radio program is broadcast from a campus studio with the purposes of providingmaterials engineering instruction and entertainment to the local community. Faculty andstudents that organize and create each weekly show are students and fans of both materials topicsand music. The format of the show includes music that ranges up to the extreme metal genre.Discussions are held between blocks of songs, and include a variety of topics. Past discussiontopics include the environment, manufacturing, atomic level processes in materials andextraterrestial visitors. A project exercise in a Materials Engineering course allows students tocreate a
undergraduate levels. Page 11.261.1© American Society for Engineering Education, 2006 Attracting Women to Engineering that Serves Developing CommunitiesAbstractThe University of Colorado at Boulder has created a program in Engineering for DevelopingCommunities (EDC). It is currently formalized as a graduate program within the Environmentalsub-discipline of Civil Engineering. Longer term plans are to create a certificate option forundergraduate students in the College of Engineering. In the meantime, a variety of courseshave included EDC-related content and projects. Service-learning and active
, communication andlifelong learning. One possible and feasible approach is to address those professional lifeskills via targeted content in engineering applications courses [1] . This approach was chosenin reforming the tooling design and measurement course for manufacturing engineeringtechnology (MNET) students at the South Dakota State University (SDSU).Subjects in the course include jigs, fixtures, molds, tools and dies in various productionsettings, material selection, precision machining, manufacturing inspection equipment andtechniques, dimensional metrology and geometric conformance. WebCT courseware, anenvironment for developing web-based educational activities and materials [2], was used tosupplement lecture material, lab projects, homework
aided design which is primarily geared todrafting; this is supplemented further by courses in automation and computer integratedmanufacturing. As a part of the curriculum, there are courses on mechanics of materialsand engineering materials (metals and plastics), and also on electronics andinstrumentation. There is some emphasis on design for quality through courses in qualitycontrol and design of experiments. The capstone projects do however, focus on variousaspects of design, namely design for manufacturability as well as design for assembly.However, the perspectives of design, as such are not uniformly and strictly emphasized ina traditional manufacturing engineering technology curriculum. Furthermore, in theprogram at the author’s
wasimplemented online, with requests sent via email to representatives of all ABET-accreditedengineering programs (1724 programs at 350 institutions, as of 2004). The online survey yieldeda strong response, with 444 programs from 232 institutions submitting responses. Thiscorresponds to a 26% response rate from engineering programs and a 66% response rate frominstitutions. The results of this survey, with a focus on developments in the past ten years, arepresented graphically and discussed. Particular focus areas include course logistics, facultyinvolvement, project coordination, funding details, and industry sponsorship. The results serveas a snapshot of current practices in engineering capstone design education as well as anindication of trends over
2006-986: RETROCOMMISSIONING (RCX) MECHANICAL SYSTEMS ON AUNIVERSITY CAMPUS: STUDENT CAPSTONE EXPERIENCEMargaret Bailey, Rochester Institute of TechnologyErin George, Rochester Institute of Technology Page 11.1092.1© American Society for Engineering Education, 2006 Retrocommissioning (RCX) Mechanical Systems on a University Campus: Student Capstone ExperienceAbstractSenior engineering students at Rochester Institute of Technology are required to complete a 22-week culminating project prior to graduating. This multidisciplinary project assembles teams ofstudents in various engineering majors to work together on an engineering design projectsponsored by
structure, timelines,design projects, and assessment of students’ work. Instructor and student reactions to the newlydesigned course are discussed, including their views on the relevancy, work load, and overallreaction.IntroductionThe University of Wisconsin-Marathon County (UWMC) offers a two-year pre-engineeringprogram. The purpose of this program is to give students the core engineering courses they needduring the first two years in college. After completing the first two years, they transfer into oneof many engineering programs at many universities. The curriculum of such a pre-engineeringprogram must encompass necessary courses students need regardless of which specific major oruniversity they transfer. Engineering graphics is one course which
2006-871: THREADING TOPICS AND CREATING COURSE LINKAGE AMONGCOURSES AND CURRICULAR AREASJeffrey Richardson, Purdue University Jeffrey J. Richardson is an Assistant Professor for the Electrical and Computer Engineering Technology Department at Purdue University where he teaches introductory and advanced embedded microcontroller courses. At Purdue, he is active in Project Lead the Way, recruitment and retention of students, applied research and has written several conference papers related to teaching embedded microcontroller systems.John Denton, Purdue University John P. Denton is an Associate Professor for the Electrical and Computer Engineering Technology Department at Purdue
different levels of Bloom’s Taxonomy to address studentdevelopment. Bloom’s Taxonomy identifies levels of knowledge and helps faculty identifystudents who have mastered those levels. Multiple pedagogical techniques are used that addresslearning at different levels on Bloom’s taxonomy: 1) independent reading with formative Page 11.1308.2evaluation helps individual students master fundamentals (remember and understand), 2) follow-up active learning in class helps student teams apply knowledge to a design problem (apply andanalyze), and 3) design projects have students test how useful acquired knowledge is (evaluateand create). The following
2006-449: INDUSTRIAL ENGINEERING APPLICATION IN SPACE MISSIONDouglas McLennan, Goddard Space Flight Center Dr. Douglas McLennan is the Project Manager of the Space Technology - 5 (ST-5) at the Goddard Space flight Center (GSFC) in Greenbelt, Maryland. Dr. McLennan received his B.Sc. in Physics in 1978 from Carleton University, Ottawa, Ontario Canada. He received his M.S. in 1980 and Ph.D. in 1983 from Georgetown University, Washington D.C.Guangming Chen, Morgan State University Dr. Guangming Chen is an Associate Professor in Industrial Engineering at Morgan State University. He joined Morgan State faculty in 1990 as an Assistant Professor. Since September 2002, he has worked with ST-5
&CIS, the processes for the sustainable delivery and use of F&CIS, andthe resources required for the delivery and use of F&CIS in a sustainable way.In a sustainable approach to F&CIS, decision-makers need to integrate sustainability at all stages ofthe project life cycle, particularly the early funding allocation, planning and conceptual design phases.More specifically, to be successful in the pursuit of sustainability, the A/E/C industry needs to: (1)define, plan, and design more sustainable F&CIS; (2) procure, construct, commission, operate, andmaintain F&CIS in more sustainable ways; and (3) supply more sustainable building technologies,systems, products and materials used within F&CIS. Satisfying these needs
2006-1382: PEER ASSESSMENT METHODOLOGIES FOR ALABORATORY-BASED COURSERathika Rajaravivarma, Central CT State University Page 11.987.1© American Society for Engineering Education, 2006Peer Assessment Methodologies for a Laboratory-Based CourseAbstractAdvances in technology and the explosive growth of the Internet have called fornew ways of learning environment. The content delivery is no longer the passiveapproach of lecture emanating from the teacher to the student. It is imperativethat computer networking courses taught at the undergraduate level containadequate hands-on implementation based projects and experiments in order tobetter train students. The computing curricula 2001 (CC2001
site’sconstruction manager, and the Department of Civil and Environmental Engineering at TuftsUniversity, based on two, active, on-campus construction projects; a residence hall and a newmusic building. Active, problem-based learning was central to course delivery with access toreal-world applications of construction processes and technology readily available. The courseinstructors were CEE faculty, Linbeck personnel, and numerous guest presenters ranging fromarchitects/engineers/builders to managers of university operations and community relations. Theclassroom was on-site; a construction trailer converted into the Linbeck Learning Center.Pedagogically, this arrangement changed the course dynamics from using sites as co- or extra-curricular components in
3 3D Art and Fundamentals of Flight – Plane Building Done 4 3D Art and Web Design-I – Plane Flying Starts 5 Exam I and Web Design-II 6 Instrumentation and Web Design-III – Final Project Assigned 7 Circuits and Engineering Math 8 Timers, Flip Flops and other ICS, Exam-II 9 Temperature Satellite and How Things Work Launching Temperature Satellite, Recording, Analyzing Data, and 10 Presentation of Final Project – Plane Flying Endsinvolve building a bridge using K’NEX parts that is then tested to collapse, building and flyingof an electrically powered
Aspects in Architectural Design course in a college ofarchitecture, which focuses on experiential learning activities in the design studio. The designprocess is tackled from three geometrical complexity directions: tessellations, curve surfaces,and subdividing space by solids. Mathematical needs in architecture design and relevantlearning methods were selected from interviews with practicing architects and educationalliterature. The course evaluation was based on observations, attitude questionnaires, projectportfolios and interviews. Portfolio's assessment criteria focused on the project contents,design solutions and mathematics applications. Results of the course follow-up revealed avariety of mathematically-defined complex geometrical shapes
ChallengesAbstractThere are many benefits to participating in multi-campus collaborations among project-baseddesign teams. First, students gain experience in working in a distributed design environment,which is becoming more commonplace in engineering practice. Second, collaborations offer theability to share complementary expertise and allow student design teams to participate in projectsthat they would not normally be able to undertake alone. Third, collaboration among teams ofmultiple campuses allows for sharing of prior work and the opportunity to build upon the work tohave a more significant impact.There are, however, challenges to participating in multi-campus collaborations. It is difficult forstudent teams to partition projects such that they can be done
Technological University Geoff Gwaltney is a Senior Research Engineer at the Keweenaw Research Center at Michigan Techological University. Geoff has worked closely with the AFE Enterprise.Scott Bradley, Michigan Technological University Scott Bradley is a Project Manager and Research Leader at the Keweenaw Research Center at Michigan Techological University. Scott has worked closely with the AFE Enterprise. Page 11.552.1© American Society for Engineering Education, 2006 Engineering Education in Alternative EnergyAbstractThis paper describes education and research efforts in alternative energy at
Page 11.729.3 2out and properly implemented instructional strategy. Our experience in service learning revealsthat service learning by its nature can provide authentic learning experience. * Authentic learning strategy invariably involves the learners in activities that deal with a real-life problem. * Service learning involves real people in real time, and therefore, it contains certain elements of drama and dilemma, just like in real world. * In service learning projects, content knowledge usually is embedded in the situation in which it is used. * In service learning, students are not usually given engineering specifications to start with (as opposed to class projects
executed as a three-quarter IntegratedDesign Sequence (IDS) course, offered in conjunction with a practicing professional engineer(client), and other practitioners and faculty members acting as mentors. IDS is an innovative andambitious three-course series focusing on a single design theme with multiple components thatencourage interaction among traditional CEE specialty areas (e.g., construction, environmental,geotechnical, structural, transportation, water resources). Students work in design teams, like adesign firm, and submit feasibility, design and construction plans, and associated cost estimatesfor a real-world project. Students must interface with a “client” and a group (consisting of 6 to 8members) of “industry advisors” or practitioners
in 1999. His interests include the physics of polymers and numerical computational methods in materials science. Page 11.359.1© American Society for Engineering Education, 2006 CONVERGING-DIVERGING APPROACH TO DESIGN IN THE SOPHOMORE ENGINEERING CLINICAbstractThe Rowan University Sophomore Engineering Clinic is a two-semester sequence intended toteach engineering design and communication. Historically, the course has been taught withsemester-long projects, one in the fall and one in the spring. An example from the fall 2003 and2004 semesters was the Hoistinator project. Student teams of 4-5 were challenged
Consultants Pte Ltd and Land Transport Authority. Page 11.819.1© American Society for Engineering Education, 2006International Collaborative Project in Engineering Design Education Between Japan, Singapore, and United StatesAbstractThis paper reports positive learning outcomes from an international collaborativeproject in Engineering Design Education between Kanazawa Institute of Technology(KIT) in Japan, Singapore Polytechnic (SP) in Singapore, and Rose-Hulman Institute ofTechnology (RHIT) in the United States.Two visiting academic staff from SP came to KIT from November 2002 to February2003 to study the Engineering Design II
University of Pittsburgh) and at The Pennsylvania State University. Dr. Bursic has done research and published work in the areas Engineering and Project Management and Engineering Education. She is a member of IIE and ASEE and is a registered Professional Engineer in the state of Pennsylvania. Page 11.222.1© American Society for Engineering Education, 2006 Applying Engineering Economic Analysis to Contemporary Problems with Global and Societal ImplicationsAbstractThis paper describes the use of contemporary issues to teach students to solve problems in aglobal and societal context in an introductory
2006-1481: ASSESSING STUDENT KNOWLEDGE OF THE LEARNINGOBJECTIVESJoanne Mathews, Illinois Institute of TechnologyDaniel Ferguson, Illinois Institute of Technology Senior Lecturer, Interprofessional Studies Program (IPRO), Il Institute of TechnologyMargaret Huyck, Illinois Institute of TechnologyAbhinav Pamulaparthy, Illinois Institute of Technology IPRO Team Project Manager; major in MMAE Page 11.240.1© American Society for Engineering Education, 2006 Assessing Student Acquisition of Knowledge of Learning Objectives for an Interprofessional Projects ProgramAbstractThe Interprofessional Projects Program
2006-424: CHALLENGES/ISSUES IN A INDUSTRY-ACADEMICCOLLABORATIONJayathi Raghavan, Embry-Riddle Aeronautical University Jayathi Raghavan is an Assistant Professor in the Department of Mathematics at Embry-Riddle Aeronautical University. She received her Ph.D. in Applied Mathematics in 2000 and MS in Computer Science in 1998 from Washington State University. Dr. Raghavan has taught a variety of mathematics courses, programming and database systems courses for the past six years. Her current area of interests are, Computational Mathematics, Database Systems and Software Engineering. She has worked on industry and government funded projects in the area of database systems and mathematics
constraints and meeting course objectives, these classes tend to offer either structuredprojects or surface level introduction to product development and especially new productdevelopment. The projects developed, in Engenius Solutions Lab, are not structured and requirea level of commitment not generally required in the student inventor’s classes.Over the past five years, Engenius Solutions has worked with over 20 different projects whichspan the various engineering disciplines and product lines. The Board of Directors and staff haveaccumulated a reservoir of knowledge in assisting students with product development. Thispaper is a reflection on the successes, failures and next steps for Engenius Solutions, a grantfunded, student run, product
thecontrol over their learning in open-ended situations. Other students, however, become frustratedand disheartened, and ask to be returned to a comfortable state of structure, guidance, andtraditional learning. The self-directed knowledge acquisition in technical disciplines hashistorically been a controversial approach that deserves our close examination, as some studentscite self-direction as a positive contributor to learning, while others report decreases in learningdue to student control. In this paper, we explore the issues surrounding student directed learningin a project-based introductory materials science course. We present preliminary data on thestudent responses to open-ended projects and self-guided learning, with particular emphasis
, Finland. He was Acting Professor of Electrical Engineering at University of Oulu in 1970-73 and 1975-78. At University of Oulu his research fields were industrial process dynamics, electronics, and wireless communications. During the 1970s and 1980s he did high-tech R&D and product development as an entrepreneur. During 1998-2000 he worked as Project Manager for a Digital Radio project. He started the EE development work in the 1970s. During 1978-83 he was manager of the Further Education Organization at University of Oulu. He continued EE development at Kymenlaakso Polytechnic in the 1990s. Since 2001 he has been Project Manager at Helsinki Polytechnic for the R&D work aimed at
appropriate context for integrating ethical issues in the curriculum. The case reviewsthe ASCE and NSPE Codes of Ethics and presents a real-life account of the failed ManhattanWestway project development owing to a breach of ethics in the development of theEnvironmental Impact Statement. With the ethical context of the project, students are then askedto develop a relative ranking of the project alternatives using a simple multi-attribute decisionmaking framework to instill an appreciation of the subjectivity involved in identifying theoptimal project, the ethical dilemmas that could arise in such situations, and the ethicalresponsibilities and pressures that civil engineers may face during project development. Suchcases may be integrated into
2006-18: DESIGN AND IMPLEMENTATION OF AN ADVANCED RESOURCESECONOMIC AND RISK ANALYSIS COURSEJ. Cunha, University of Alberta J. C. Cunha is an associate professor at the School of Mining and Petroleum, University of Alberta, Canada. His main research and teaching interests are in the areas of well design, horizontal wells, deepwater developments and risk analysis applied to various petroleum engineering processes. Prior to joining UofA, Cunha has worked for 25 years at Petrobras where, as a senior technical advisor, he worked in a number of onshore and offshore projects in Brazil, various South America countries, Gulf of Mexico, Africa and the Caribbean. Originally a civil engineer