Session 2125 Integrating PLM Methods into the Undergraduate Curriculum Russell T. Frame, Charles Pezeshki, M. Grant Norton School of Mechanical and Materials Engineering Washington State University, Pullman, WA 99164Abstract The methodology used to design new products is changing as computertechnology advances. Companies worldwide are adopting Product Lifecycle Management(PLM) solutions to stay competitive. This technology allows control of all aspects of thedesign process from initial concept to obsolescence and disposal. A database manages allinformation, controls access to data, and lets
-level technicians, they gave teamwork,communication, and computer skills top priority. Recently several four-year engineeringprograms have initiated freshmen curricula (4,5,6) that integrate multiple disciplinarycontent at the entry level. At the associate degree level, two development efforts areunderway. (7,8) These initiatives provide guidelines for the development of the newcurriculum.Educational research also provides additional guidelines for a curriculum change.Gardner (9), in his concepts of multiple intelligence and Felder (10), in comments onstudents’ learning styles, show that students require instructional strategies that differfrom the traditional lecture format. Brown and Brown (11) have described how problem-based learning allows
Session 2613 Revitalizing Statistics in the Chemical Engineering Curriculum David E. Clough Department of Chemical Engineering University of ColoradoFor many years, the Department of Chemical Engineering at the University of Colorado hasstruggled with the dilemma of how to provide our undergraduate students with appropriateknowledge and skills in applied statistics. We have attempted, with varying degrees of failure,⇒ traditional “introduction to probability and statistics” courses at the sophomore
AC 2010-1903: A SPIRAL LEARNING CURRICULUM IN MECHANICALENGINEERINGRobert Roemer, University of Utah Robert B. Roemer is currently a professor of Mechanical Engineering at the University of Utah. He received his B.S. degree from the University of Wisconsin, Madison, and his M.S. and Ph.D. degrees from Stanford University. He teaches courses in engineering design, and is interested in integrating the use of design projects and active learning throughout the curriculum to improve engineering education.Stacy Bamberg, University of Utah Stacy J. Morris Bamberg is an assistant professor of Mechanical Engineering at the University of Utah. She received her S.B. and S.M. in Mechanical Engineering
engineering education grants for undergraduate research experience, a bridge and mentoring program, departmental curriculum reforms, and innovative interdisciplinary project oriented engineering education programs. Page 12.214.1© American Society for Engineering Education, 2007An Innovative Mechanical and Energy Engineering CurriculumAbstract:The continuing expansion of the new College of Engineering at the University of North Texas(UNT) has created an opportunity to establish a new Department of Mechanical and EnergyEngineering and an excellent occasion for the establishment of innovative and interdisciplinaryapproaches to
is a case study of the success of an IPv6 course that is currently taught in the College ofTechnology and Computer Science at East Carolina University as part of a Bachelor of Sciencein Information and Computer Technology degree program. The course was piloted in the 2006summer semester, repeated in the 2007 Spring semester, and is scheduled for the 2007 Fallsemester. The IPv6 course discussed in this case study emphasized a hands-on approach toteaching IPv6 network deployment. Extensive use of a remote access system developed at ouruniversity allowed remote students to access the console ports of Cisco routers, LinuxWorkstations and Microsoft Workstations running Windows XP and Server 2003. Remoteaccess to equipment allowed students to
efforts must define strategies forreleasing new versions of the system, how those versions will be deployed, and how runningsystems will be upgraded. As with concurrent development, component-based designs provideassistance by partitioning the system. But system engineering must formulate a plan for thesystem’s lifecycle.3 Curriculum modificationThis section defines course modification made to an existing embedded devices course offeredeach spring in the Division of Computing Studies at Arizona State University’s PolytechnicCampus. The first offering began in spring 2002 and the modifications were implemented inspring 2004 and 2005. Those modifications drove several faculty discussions involving thehardware and embedded program offerings
Session 3155 Bringing Practitioners (and Practice) into the Curriculum Walter W. Massie, MSc, P.E. Offshore Engineering Curriculum Leader Delft University of Technology Delft, The NetherlandsAbstractMany of the Delft University of Technology curricula have a rich history of bringing practice intothe classroom. The most common and most obvious way that this is done in Delft is to seekcandidates for full professorships almost universally from industry as opposed to having themprogress ‘up through the ranks’ as
Session 3248 An Industrial Engineering Technology Curriculum for the Millennium Donna C.S. Summers University of DaytonAbstractThe Industrial Engineering Technology program at the University of Dayton has completed amajor effort to study our existing curriculum and courses as the means to improve thecoordination and dissemination of knowledge. While courses within our program have been andwill continue to be updated each time a course is taught, this improvement effort was more far-reaching. We sought insight into future curriculum structure as well as future courseconfiguration. The
Session 2247 Delivery of a common microelectronics technology curriculum at several degree levels John Robertson, Lakshmi Munukutla and Richard Newman College of Technology and Applied Sciences Arizona State University East Mesa, Arizona, 85212AbstractIn an integrated circuit (IC) manufacturing company, the workforce has many skill andeducation levels but everyone has to work together and communicate effectively oncomplex technology issues. The microelectronics technology curriculum at ASU hastherefore taken on the same challenge - to present a
Can a student become a good mechanical engineer without ever walking into a machineshop? The answer to this question may be that it is possible. However, this paper makes theargument that a good design engineer needs to have understanding and experience that can bestbe obtained in a machine shop. Better mechanical designs will be created by a designer with thecomplete understanding of how machine components are communicated through mechanicaldrawings, dimensioned and toleranced, and finally created in a machine shop. Furthermore, thispaper explores how project builds should be included throughout the curriculum so that everystudent gets the appropriate exposure to the proper machining experiences to hone theirmechanical design skills
reader may want to examine the web sitehttp://www.fuelcells.org/ for more information concerning other types.There are many uses for fuel cells — right now, all of the major automakers are workingto commercialize a fuel cell car. Fuel cells are powering buses, boats, trains, planes,scooters, even bicycles. There are fuel cell-powered vending machines, vacuum cleaners,and highway road signs. Miniature fuel cells for cellular phones, laptop computers, andportable electronics are on their way to market. Hospitals, credit card centers, policestations, and banks are all using fuel cells to provide power to their facilities. Wastewatertreatment plants and landfills are using fuel cells to convert the methane gas they produceinto electricity. Fuel
Testing in the Engineering Curriculum without Numbers F.G. Edwards, E.W. LeFevre, W.M. Hale4190 Bell Engineering Center, Department of Civil Engineering, University of Arkansas, Fayetteville, AR, (479)575-4456, edwards@engr.uark.eduAbstractSince putting numbers, even of mixed units, into a formula to determine the answer is a “no-brainer” with today’s calculators, constructing a test similar to the type given even ten years agodoes little to evaluate a student’s understanding of the subject matter and definitely does notevaluate the levels of knowledge as described by Bloom. The National Society of Examinationof Engineers and Surveyors is in the process of evaluating a test that does not
Teaching MEMS Curriculum in Electrical Engineering Graduate Program Xingguo Xiong, Linfeng Zhang, Lawrence Hmurcik Department of Electrical and Computer Engineering, University of Bridgeport, Bridgeport, CT 06604Abstract: Microelectromechanical Systems (MEMS) refer to devices and systems in the sizerange of 1 micron (1 micron=10-6m) to 1000 microns. Due to their small size, MEMStechnology has the advantages of low weight, low cost, low power consumption and highresolution. MEMS have found broad applications in automobile, inertial navigation, lightdisplay, optical and RF communications, biomedicine, etc. World’s MEMS market isgrowing
AC 2008-2230: A PRACTICE-INTEGRATED UNDERGRADUATE CURRICULUMIN MECHANICAL ENGINEERINGMark Yim, University of Pennsylvania Mark Yim is the Gabel Family Term Junior Professor in Mechanical Engineering and MEAM Undergraduate Curriculum Chair. His research interests include: Modular reconfigurable robots and locomotion, PolyBot; flying robotic mechanisms and haptic devices.Katherine Kuchenbecker, University of Pennsylvania Katherine J. Kuchenbecker is the Skirkanich Assistant Professor of Innovation in Mechanical Engineering and Applied Mechanics at the University of Pennsylvania. Her primary research interest is the design and control of haptic interfaces for virtual environments and teleoperation
example of how industry-based learning could beintegrated into a lecture based course. The interview protocol was similar to the one used foralumni and students, but with a shift towards understanding the approach used in a specific classby a specific instructor. What was the instructor’s general philosophy and approach to includingindustry-based learning in the course? What did that integration look like within the context ofthe class being taught? And how might that approach be different for a course with differentcontent or at a different level in the curriculum?Classroom observations were conducted during the same time frame as the interviews. Fiveclasses were observed: Statics, Thermodynamics, Fluid Mechanics, Computational Methods
, fire protection and lighting. Also, he supervises many courses in the frame of interprofessional projects (IPRO) program. Areas of Interests: - Zonal modeling approach, - Integration zonal models/building energy simulation models, - Zero Net Energy (ZNE) building, - Airflow in Multizone Buildings & Smoke Control, - Thermal Comfort & Indoor Air Quality, - Predictive modeling and forecasting: Support Vector Machine (SVM) tools, - Energy, HVAC, Plumbing & Fire Protection Systems Design, - Computational Fluid Dynamic (CFD) Application in Building, - BIM & REVIT: application to Architecture and Electrical/Lighting Design systems
Classification of Educational Goals. Handbook 1. The Cognitive Domain”, New York: McKay, 1956.3. Meriam, J. L., Engineering Mechanics - Dynamics, John Wiley and Sons, 1978.4. Cornwell, P. J., “Teaching Dynamics using Modern Tools”, Proceedings of the 1995 ASEE National Conference, Anaheim, CA, 1995.PHILLIP J. CORNWELLPhillip Cornwell is an Associate Professor of Mechanical Engineering at Rose-Hulman Institute of Technology.He received a B.S. in Mechanical Engineering from Texas Tech University in 1985 and a M.A. and Ph.D. fromPrinceton University in 1987 and 1989 respectively. His current interests include structural dynamics, finiteelement analysis, and the use of computers in the undergraduate engineering curriculum
Paper ID #17817Developing a Curriculum for Marine Mechatronics TechniciansDr. Vukica M. Jovanovic, Old Dominion University Dr. Vukica Jovanovic is an Assistant Professor of Engineering Technology in Mechanical Engineering Technology Program. She holds a Ph.D. from Purdue University in Mechanical Engineering Technol- ogy, focus on Digital Manufacturing. Her research is focused on mechatronics, digital manufacturing, digital thread, cyber physical systems, broadening participation, and engineering education. She is a Co-Director of Mechatronics and Digital Manufacturing Lab at ODU and a lead of Area of Specializa- tion
engineering curriculum atUniversity of Illinois at Chicago since Fall 2018. In particular, "electrification" of studentprojects and learning outcomes has been front and center in the department's latest strategicplanning. Leveraging recent literature and faculty expertise, an increasingly deeper integration ofArduino has since taken place, while attempting to maintain the core of team-based mechanicaldesign using morphological methods. The focus of this paper is to identify the challenges andpitfalls in such an endeavor by reflecting on the process of change over three semesters ofimplementation, including the deployment of both top-down and bottom-up approaches. Inparticular, this paper will examine course content development, teaching staff
discussion. Contextualizing professional developmentoutcomes by integrating them into existing gateway and professional issues courses providedsignificant improvements in student awareness (meta-cognition) of the professional world3. Forthe cases where no significant improvement was found, observations suggest that in order for theprofessional development intervention to be effective, the course format must be sufficient toadequately develop the instructional intervention strategies. Thus, to aid in this issue, “Mini”modules were developed to provide an additional means of integrating professional developmentissues into the curriculum. In this case, we anticipated the modules being used in capstone designcourses where professional development issues
Session 2186 Using Problem-based Learning to Modify Curriculum to Meet Industry Needs James C. Wood Tri-County Technical College Pendleton, SCAbstractThe problem-based learning (PBL) process is an effective teaching and learning approach thatallows instructors to meet educational and industry-specific objectives. Also, PBL is an effectivemeans of incorporating workplace skills such as teaming, problem solving, and technicalcommunications into technical courses. To modify curriculum to
Session 1526 Realistic Reaction Engineering Experiments for the Undergraduate Curriculum Kevin D. Dahm, Stephanie Farrell, Robert P. Hesketh and Mariano J. Savelski Department of Chemical Engineering, Rowan UniversityIntroductionThe pedagogy of teaching chemical reaction engineering is continually advancing through theuse of new computational tools such as POLYMATH and MATLAB; interactive computerapplications; and a new emphasis in textbooks on relating theory to industrially relevantchemical reactions. What is currently lacking in this area are chemical reaction engineeringexperiments that employ
Session 1566 Addressing Manufacturing Challenges in a Mechanical Engineering Curriculum A. R. Jalloh, A. A. Mobasher, Z. T. Deng, R. Rojas-Oviedo, X. C. Qian Mechanical Engineering Department Alabama A&M University Huntsville, Al 35762 Phone: (256) 851 5891 email: ajalloh@aamu.edu; amobasher@aamu.edu; aamzxd01@aamu.edu; rojaso@aamu.edu, cian@aamu.eduAbstractEmerging technologies in engineering challenge the new generation of engineers to workin more specialized environments
25.1373.4transportation, planning, and public works. In particular, GIS provides a unique combination ofcomplex relational databases, comprehensive spatial analysis tools, and powerful 2D and 3Dgraphical displays that allow engineers to better manage information for design and modeling.For these reasons, we selected GIS as the tool for this curriculum transformation project. We useESRI’s ArcGIS software for the implementation of the course projects. We selected this systembecause it is widely used and many universities, including the UM have site licenses for thesoftware, facilitating its use by faculty and students.Similar GIS curricular development at the Missouri University of Science and Technology(MUST) at Rolla developed a prototype computer-based-learning
Session 2561 Training Faculty for Ethics Across the Curriculum Marilyn A. Dyrud Oregon Institute of TechnologyIntroductionEthics has been an important topic for a number of years in many disciplines. With blatantlyunethical and highly publicized situations occurring in major companies, it behooves us morethan ever, as instructors, to make a conscious effort to integrate ethics into all of our courses,regardless of academic area or students’ level of achievement. Some instructors, however, mayfeel that they are not knowledgeable enough in the field of ethics to broach the
various aspects of laser-tissue interaction related to our curriculum. Lab and Design CoursesA 900 square foot laboratory has been acquired adjacent to the research laboratories ofDrs. Rastegar and Coté, which is currently being re-structured with extra sinks, extraelectrical outlets and chilled water for use as a Biomedical Optics teaching laboratory.Over $70,000 dollars have been spent purchasing various optical equipment, opticalcomponents, electronic equipment, electronic components, and computers for the lab.Nine of the ten labs to be performed by students have been fully written as defined belowand the tenth lab, on microscopy, is currently being completed. The laboratory course,along with the semester design projects, will be taught
Session 3513 Development of a Dynamic Curriculum Assessment Examination John Wagner, David Finley Dr. John J. McKetta Department of Chemical Engineering Tri-State UniversityAbstractProgram assessment has become increasingly important for obtainingaccreditation. Furthermore, ABET Engineering Criteria 2000 mandates the useof multiple assessment measures. One important objective measure of programperformance is a comprehensive examination given to students in their senioryear. Many engineering programs now use the Fundamentals of Engineering(FE) examination as this comprehensive
Paper ID #8371Invited Paper - Curriculum Development to meet Accreditation RequirementsMrs. Prue Howard, Central Queensland University Dr Prue Howard has a Bachelors Degree in Mechanical Engineering, A Masters Degree in Engineering, and a Professional Doctorate in Transdisciplinary Studies. She came to academia after four years as an engineer and designer in industry. Her initial research/consulting area was in dynamics and failure analysis, but the opportunity to become involved in Engineering Education research quickly changed her direction. An early grant from what was then known as CAUT showed how integration of
Session 2002-648 An Undergraduate Biomedical Engineering Curriculum – First Principles First Michael Nowak, Donald Leone, Ronald Adrezin University of Hartfordabstract:The University of Hartford established an undergraduate program in Biomedical Engineering inthe early 1990s. The program is based on the philosophy that a student should first have a solidfoundation in traditional engineering disciplines, followed by in-depth courses in biomedicalengineering, significant off-campus experience in a biomedical facility, and design opportunities.This provides the