. 6) Barnett, S.K., “Industrial Experience and Engineering Freshman: A Pilot Program,” Proceedings of the 2002 ASEE Annual Conference and Exposition, June 2002. 7) Hirsch, P., J. Anderson, J.E. Colgate, J. Lake, B. Shwom, and C. Yarnoff, “Enriching Freshman Design Through Collaboration with Professional Designers,” Proceedings of the 2002 ASEE Annual Conference and Exposition, June 2002. 8) Zhang, H., and J. Kadlowec, “ROBOTS! –Freshman Clinic in Mechanical Engineering,” Proceedings of the 2002 ASEE Annual Conference and Exposition, June 2002. 9) Laplume, P., and M. Ruane, “Using Imaging to Introduce Engineering to Freshmen,” Proceedings of the 2002 ASEE Annual Conference and
Session 3263 Utilizing Manufacturing Process Simulation Tools as Instructional Aids Arif Sirinterlikci, Shah Galib Habib Ohio Northern University / Hewlett-Packard CompanyAbstractEngineering numerical analysis software has been utilized in design of manufacturing processes,parts or tooling by major manufacturing companies. These tools have become available to smallercompanies with the advents in computers. Even though cost of most software is still much greaterthan cost of a computer with great capacity, software involvement is becoming more and morecommon in
ManufacturingInitiative (NEMI) Plug and Play Factory Project; An interactive multimedia publication with 3D objects,Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition.Copyright © 2003, American Society for Engineering Education.text and videos in a browser readable format on CD-ROM/ intranet byhttp://www.cimwareukandusa.com, CIMware USA, Inc. and CIMware Ltd., UK, ISBN 1-872631-41-x,2000-2002. Multimedia design & programming by P G Ranky and M F Ranky.[13] Gibbs, B.. and Ranky, P.G.: A Case-based Introduction to Advanced CAM (Computer AidedManufacturing); An interactive multimedia publication with 3D objects, text and videos in a browserreadable format on CD-ROM/ intranet by http://www.cimwareukandusa.com
Session ____ Environmental Education Projects Built Around Feral Battery Research Aaron A. Jennings, Jim Clark, Sara Hise, Bryant Kiedrowski Department of Civil Engineering Case Western Reserve University Cleveland, OH 44106-7201Abstract Feral batteries are consumer batteries that have “run wild” to litter urban pavements. Thisproblem was first identified during a summer 2001 NSF-REU project to measure heavy metals inbrownfield soils. The project required field sampling and shopping to
on torsion as this was the one topic for which we had nophysical lab equipment available to students at Cornell. The lab is web-based and consists of (a)narrated “chalk talks” on basic theory, test equipment, and data reduction procedures, (b) “virtualexperiments,” videos of the tests, including live plotting of twist-torque data, (c) extensive sets ofdata, and (d) a lab manual with suggested exercises and questions. An on-line quiz and adiscussion board are also provided. The instructions page is shown in Figure 1. The lab isdesigned to be modular so that instructors can pick and choose from elements that suit their owncurriculum, perhaps writing their own manual to direct students to specific aspects of the lab andto specific tasks and so
-Skalak (1997)32; Hall (1998)14; Zhang (1999)45;Ghosh (2000)13; and (Njock Libii, 2002) 25.B. Focused-design courses. These kinds of courses are specifically dedicated to teaching design.However, their goal is focused on teaching design techniques that are specific to a given topic ora narrow subject. Typically, they are offered after the freshman year; but they tend to be foundduring the third and fourth years. Examples of such courses are: design of mechanisms (ME),design of experiments (IE, ME, EE), design of filters (EE), electronics design (EE), design ofstructures(CE), design of hydraulic systems (CE), design of software (EE, CompE, SoftwareEngr.), chemical processing (ChemE), mechatronics(ME). A sample of references to papers
Conference andExposition Copyright © 2003, American Society for Engineering Education” Session 2530chemists. The engineering design process includes at least 5 steps [3]: (a) problemdefinition, (b) invention, (c) analysis, (d) decision, and (e) implementation. Middle schoolstudents will learn about the essential engineering functions: design, build, analyze, test,and measure. ETKs will also include real-world constraints: budget, cost, time, risk,reliability, safety; and meeting customer needs and demands.Each ETK will include a student guide explaining key concepts and methods, a teacher’sguide, plans for demonstrations and experiments, and, where appropriate, a
, 1998, ISBN 0-924886-00-5.7 VICKI COBB, Blood & Gore Like You’ve Never Seen!, Scholastic Inc., New York, 1997, ISBN 0-590-92665-9.8 LINDA GAMLIN, Today’s World: The Human Body, Shooting Star Press Inc., New York, 1988, ISBN 1-57335-331-0.9 GAYLORD JOHNSON AND MAURICE BLEIFELD, Hunting with the Microscope, Arco Publishing Company, Inc., New York, 1974, ISBN 0-668-03249-9.10 BETH B. NORDEN AND LYNETTE RUSCHAK, Magnification, a Pop-Up Lift-the-Flat Book, Lodestar Books, New York, 1993, ISBN 0-525-67417-9.11 CHRIS OXLADE AND CORINNE STOCKLEY, The World of the Microscope, A Practical Introduction with Projects and Activities, Usborne Publishing Ltd., London, 1989, ISBN 0-7460-0289-0.12 TAY SLOAN AND DORIS SLOAN, Under the
Transaction, Vol.1 September, 1970, pp. 2517-2522.3. D.Gupta and S. Weinig, Acta Met, 1962, vol. 10, p. 292.4. J. N. Pratt, W. J. Bratina, and B. Chalmers: Acta Met., 1954 vol. 2, p. 203.5. W.P. Roe, H. R. Palmer, and W. R. Opie: Trans. ASM, 1960, vol. 52, p.191.6. A. V. Revyakin: Izv. Akad. Nauk SSSR, Tekh. Nauk Met. i Topliva, 1961, p. 113.7. F. Dyment and C.M. Libanati, J. Mager Sci, vol. 3, no. 4, 1968, p. 349.8. R. J. Wasilewski, Diffusion of Nitrogen and Oxygen in Titanium, Journal of the Institute of Metals, Vol. 83, Institute of Metals, 1954-55, pp. 94-104.9. R. Boyer, G. Welsch, and E. W. Collings, Materials Properties Handbook: Titanium Alloys, Eds., ASM International, 1994, pp.148-149.Biographical InformationAaron
learning," which consists of integrating innovative laboratory techniques with computermodeling and visualization tools to create an interactive and a collaborative team-orientedenvironment for students to dynamically participate in their own learning. An active learningapproach is used to develop the instructional materials for ACM. The goal of the "active learning"curriculum is to create an effective learning environment where students enjoy “hands-on”experiences through laboratory experiments and computer simulations and illustrations. Thegeneral objectives of this study are: (a) to develop a framework on active learning approach, (b) toapply this framework to design teaching modules on fundamentals and applications of ACM; and(c) to translate
)probability and statistics, (b) force, motion, and science of sports, (c) simple machines, (d) physics ofhuman activities, (e) renewable energy, and (f) computer skills. These areas were selected not onlybecause they covered a broad range of subjects identified by the workshop participants, but alsobecause they are useful to show the interplay between mathematics and various branches of science. These subjects were covered in the two summer sessions.Through our own research, we also found that some of our course topics can be integrated withcommercially available education material -- the TIMS Laboratory Investigations.9 This materialwas developed at the University of Illinois at Chicago with the support of NSF. It adopted theintegrative approach to
. We also provide a brief overview of the other two case studies. .3.1. The Crist Power Plant case study. We worked closely with the Gulf Power Company to create a written case study, video,and CD-ROMs as part of our project. The objectives of the Crist case study were to teach thestudents:(a) the technical and project management details involved in planning and implementing a real-world project,(b) the importance of developing and prioritizing project criteria in analyzing alternatives, and(c) how to embed an expert system in the decision-making process. The authors discussed with the plant manager the maintenance and planning schedules of aturbine-generator unit in the plant in several
though some members felt that the ABET Criterion 3(a-k) wasambiguous and difficult to understand by their faculty and students. Therefore, coursecoordinators were asked to define their interpretation of the outcomes by listing the “relevantactivities” that would demonstrate student achievement. Figure 2 below is an example forENVE 442 – Advanced Systems Design: LevelsABET 3(a-k) Criterion (L, M, H) Relevant Activities(a) Ability to apply knowledge of math,science, & engineering H Design project with multiple aspects of design engineering(b) Ability to
, and designed strong model Check Plan bridges using as little material as possible. Act (b) Do: Students built model bridges. (c) Check: After completion of bridges, Figure 3. The PDCA Cycle (the Deming Wheel) students applied load onto the bridges until collapse and observed the failure mode of the bridges. (d) Act: Students improved their design so that the newly designed bridge could attain higher strength.(2) Group activity on the second day: Forty students were assigned to ten teams. (a) Plan: Each team designed a stronger bridge
Session 2320 MICROSOFT EXCEL-BASED NUMERICAL SOLUTION OF LINEAR, HOMOGENEOUS 1D TRANSIENT PARTIAL DIFFERENTIAL EQUATIONS Mohan A. Ketkar Gopal B. Reddy Prairie View A&M University University of Houston Prairie View, TX 77446 Houston, TX 77204ABSTRACTMany transient phenomenons are mathematically described and simulated by the homogeneous,parabolic partial differential equations. Irregular and non-linear boundary conditions poseformidable difficulties to engineers to obtain closed form (exact) solutions.In this
Session 2632 Integrated Engineering Education Through Multi-Disciplinary Nationally Relevant Projects: The Solar Decathlon Project. A.U. Chuku, B. Oni, D. Amstrong, M. Safavi, L. L. Burge Jr. College of Engineering’ Architecture & Physical Sciences Tuskegee University Tuskegee, Alabama 36088AbstractIn the education and training of students in the technical disciplines, our goal is to not onlyequip the students with knowledge and skills necessary to effectively practice theirprofession but to successfully function in a multi-disciplinary, multi-cultural
Session 1477 Active Learning in Distance Education Carol Considine, Tony Dean Old Dominion University ABSTRACTAlthough there are many strategies for incorporating active learning exercises into the traditionalclassroom, incorporating active learning exercises in a distance education delivery format is morechallenging. Active learning has been shown to enhance student performance and attitudes whenused in conjunction with a traditional lecture format.1 In order for students to be activelyinvolved they must read, write
Session 3661 The Social Dimension of Engineering Education A. K. Mazher Aerospace Science Engineering Department, Tuskegee University Tuskegee, Alabama 36088, akmazher@tusk.eduAbstractTechnological advances have an enormous impact on our life and its effects on society,environment and human values are evident everywhere. The engineering is no longer an isolatedfield of human activities and the future role of engineering demands that social, ethical andcultural aspects should be added to the technical dimension of engineering education. The nextgeneration
exam scoring; and questions, such as “How am I doing?” Faculty members may meet challenges to justify student grades and to provide samples of student work with little extra work by electronically retaining student Q/E. • Faculty may rather easily maintain a portfolio of each student’s Q/E by retaining copies of graded Q/E. Advantage: Faculty Faculty members may be challenged by individual students, parents, and, occasionally, attorneys. Professional and regional accrediting agency representatives often ask to see samples of student work; and, sometimes they ask to see samples of “A,” “B,” “C,” “D,” and “F” student work. Faculty members may meet challenges to justify
Session 3202 An Integrated Approach to Unify the Technical Dimension of Engineering Education A. K. Mazher Aerospace Science Engineering Department, Tuskegee University Tuskegee, Alabama 36088, akmazher@tusk.eduSummaryThis paper proposes an integrated approach to unify the technical dimension of engineeringeducation. Integrating the technical dimension of engineering education is a necessary steptowards effectively implementing EC 2000, adopted by the Accreditation Board for Engineeringand Technology (ABET). Technical dimension, in this
1. Ability to a. Systems & project mgt. professionally ii. Engineering, business, mgt. b. Supply chain management integrate systems iii.Quality, cost & scheduling
,technologists, purchasing managers, designers and tool makers develop certain levels ofmaterials expertise with years of experience in their jobs, working with materials andMaterials’ suppliers, and are good candidates for membership in a materials selectioncommittee or team. Identified and pre-selected materials are then subjected to theevaluation phase of the materials election process.2.3. Evaluation of Pre-Screened Acceptable MaterialsFour major approaches/methods are used in the evaluation of pre-screened acceptablematerials; these are the:a. Performance-Cost Index (PCI),b. Failure Analysis.c. Digital Logic Approach (DLA), andd. Life Cycle Value Analysis (LCVA).2.3.a. The performance cost index (PCI) approach is based on the concept ofmaximization
and research, (b) substantial andmanifest neglect of duty, and (c) personally conduct which substantially impairs the individual` s fulfillment of institutional responsibility. The burden of proof in establishing cause fordismissal rests upon the institution. Therefore, some scholars hold the opinion that thestudents` assessment of the instructors is to adopt the business principle of “protecting therights and interests of the customers” to infringe the principle of “academic freedom” [8].In the United States, there is such an organization of university faculty--“Society for a Return Page 8.1110.2to Academic Standards”, who holds a discussion
to Rapid Prototyping Solutions, AnInteractive Multimedia Presentation on CD-ROM with off-line Internet support (650 Mbytes, approx.150 interactive screens, 50 minutes of digital videos, animation and 3DVR objects), by CIMware (IEEand IMechE Approved Professional Developer), 2000-2002, Multimedia design & Programming by P GRanky and M F Ranky.[15] Gibbs, B.. and Ranky, P.G.: A Case-based Introduction to Advanced CAM (Computer AidedManufacturing); An interactive multimedia publication with 3D objects, text and videos in a browserreadable format on CD-ROM/ intranet by http://www.cimwareukandusa.com, CIMware USA, Inc. andCIMware Ltd., UK, ISBN 1-872631-45-2, 2001-2002. Multimedia design & programming by P G Rankyand M F Ranky.[16
Page 8.1003.7 Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright? 2003, American Society for Engineering Education.Figure 2: Selection Factors Ranking F E Selection Factors D A-Shorten Duration B-Sinlge Point Responsibility C-Reduce Cost C D-Constructability E-Reduce
un el ol ul ch lo P R lo th B C E U G A
. Students have the experience described, and faculty members are able toassess the related outcomes. Suggestions have been made for other experiences that would givestudents similar experiences while permitting assessment of these outcomes.Bibliography1. “Criteria for Accrediting Engineering Programs,” Accreditation Board for Engineering and Technology, http://www.abet.org.2. Shaeiwitz, J. A., Whiting, W. B., and Velegol, D., “A Large-Group Senior Design Experience: Teaching Responsibility and Life-Long Learning,” Chemical Engineering Education, vol. 30, no. 1, 1996, pp. 70-75.3. http://www2.cemr.wvu.edu/~wwwche/publications/projects/index.html4. http://www.nd.edu/~enviro/design/design.html5. http://www.che.cemr.wvu.edu/ugrad/outcomesJOSEPH A
readable format on CD-ROM/ intranet byhttp://www.cimwareukandusa.com, CIMware USA, Inc. and CIMware Ltd., UK, ISBN 1-872631-41-x,Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition.Copyright © 2003, American Society for Engineering Education.2000-2002. Multimedia design & programming by P G Ranky and M F Ranky.[34] Gibbs, B.. and Ranky, P.G.: A Case-based Introduction to Advanced CAM (Computer AidedManufacturing); An interactive multimedia publication with 3D objects, text and videos in a browserreadable format on CD-ROM/ intranet by http://www.cimwareukandusa.com, CIMware USA, Inc. andCIMware Ltd., UK, ISBN 1-872631-45-2, 2001-2002. Multimedia design & programming by P G Rankyand M F Ranky
Cooperation in Science Policy, Research and Education, Shanghai and Beijing, China, October 22-24, 2002, 14pp.6. Buckeridge, J. S., “A Y2K Imperative: the Globalization of Engineering Education,” Global Journal of Engineering Education, vol. 4, no. 1, 2000, pp. 19-24.7. Akinmusuru, J. O. and Akinmusuru, B. O., “Need to Understand Foreign Education in Evaluating for P.E. Licensure,” Journal of Professional Issues in Engineering Education and Practice, American Society of Civil Engineers, vol. 126, no. 1, 1996, pp. 26-30.8. The Washington Accord, “Recognition of Equivalency of Accredited Engineering Education Programs leading to the Engineering Degree” [www.washingtonaccord.org].9. The Washington Accord
consisting of the department head and a select group of ASE facultymembers was formed to develop a plan to address such issues as curriculum modernization,computer application in teaching and learning, ABET 2000 criterion 3 goals (Table 1), and mostimportantly, attraction and retention of students. Three subcommittees were formed with eachgiven the task of revising courses in one of three major curriculum areas: flight mechanics,aerodynamics, and structures. A separate subcommittee was formed to develop the curriculumfor the three new "Intro-to-ASE" courses. Table 1. ABET 2000 Criterion 3 - Program Outcomes and Assessment(a) an ability to apply knowledge of mathematics, science, and engineering.(b) an ability to design and conduct