- periments. Students generate and analyze data, observe graphic representations of the data, and construct as well as interact with simulations. In this paper we will discuss some exam- ples of “activities” we have created for Interactive Dynamics. These activities address not only those attributes that ABET, industry, and NSF would like to see in an engineer, but also embody the intellectual aspects of mechanics and dynamics beyond those essential skills needed to succeed in the engineering workplace.1 IntroductionUndergraduate dynamics is a required course in many undergraduate curricula such as mechani-cal, civil, industrial, and aerospace engineering. In the College of Engineering at Penn State Uni-versity, for example, it is
have a chance totake a course in engineering. Focus groups with FFF taking ECE 100 in the spring and freshmenwho have not taken ECE 100 could be used to clarify their program needs. The CEAS iscomprised of Aerospace and Mechanical, Chemical, Bio and Materials, Civil, Computer Science,Electrical, and Industrial Engineering, and the Del E. Webb School of Construction. TheComputer Science Department is comprised of a Computer Systems Engineering Program and aComputer Science Program. All students in the CEAS, except the Computer Science studentsare required to take ECE 100.Office of Minority Engineering ProgramsAlthough a minority engineering office had existed for some years in the CEAS, the programwas quite limited in its support of minority
most noteworthyexamples are telecommunications, material science, aerospace technology, generic research,pharmaceutical industry, and information technology. (For detailed examples of US-China jointventures, see: http://www.boeing.com/companyoffices/aboutus/Boechina97.html, for Boeing in Chinaand http://www.sichuan-china.com/sichuan-china/scpages/IA_29.HTM for Motorola in China,http://china.com/ for China.Com, the Internet gateway to China).In spite of its fast scientific and technological achievements in recent years, there is still asubstantial distance between China and other industrial nations, such as America, with respect tooverall scientific and technological levels. The distance is even wider with regard to newscientific and
Curriculum in Science, Engineering, and Mathematics, Proceedings of the 1996 Frontiers in Education Conference, Salt Lake City, Utah, November 1996.Biographical InformationBarry McNeill is in the Design and Manufacturing group of the Mechanical & Aerospace Engineering departmentat Arizona State University. He received his BS in Chemical Engineering and MS and PhD degrees in MechanicalEngineering from Stanford University. He has prepared and delivered a number of workshops on the new learningculture for engineering courses. He can be reached at mcneill@asu.eduLynn Bellamy is in the Chemical, Bio, and Material Engineering department at Arizona State University. Hereceived his BS degree in Chemical Engineering from Texas A & M and his
Conference & Exposition.13 Ganji, A. R. (2008) Experience in developing and teaching a general education course in energy. ASME Conference Proceedings. Volume 9: Engineering Education and Professional Development.14 Eberhardt, S. (2002). Developing Web-based tools for a General Education course in aerospace. Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition.15 Pearce, J. A. (2000). Technology for non-technical students: Adventures on the other side of campus. 30th ASEE/IEEE Frontiers in Education Conference.16 Bloomfield, L. A. (2008). How Everything Works: Making Physics out of the Ordinary. Somerset, NJ: John Wiley & Sons.17 Gerretson, H. & Golson, E. (2004
students intending to major in aerospace engineering (15percent), mechanical engineering (20 percent) and civil engineering (10 percent), but decreasesover time in computer science and engineering (15 to 5 percent) and electrical engineering (8 to 5percent), while the percentage interested in chemical engineering has increased (from 10 to 25percent over the years of the survey).Students also report their career aspirations immediately following graduation and 20 years later.Approximately half of all students surveyed indicated post-graduation plans to attend engineeringgraduate school or to take a job in an engineering industry, and about one-sixth of the groupindicated post-graduation plans to pursue an MBA degree. On the longer, 20-year horizon
AC 2010-851: DEVELOPING AN ENERGY LITERACY CURRICULUM FORINCOMING FRESHMEN AT BAYLOR UNIVERSITY: LESSONS LEARNEDKenneth Van Treuren, Baylor University Dr. Van Treuren is a professor on the faculty in the Mechanical Engineering Department at Baylor University. He teaches the capstone Mechanical Engineering Laboratory course as well as courses in heat transfer, aerospace engineering, gas turbines, fluid mechanics, and wind power. His research interests include energy education and gas turbine heat transfer. He can be contacted at Kenneth_Van_Treuren@baylor.edu.Ian Gravagne, Baylor University Dr. Gravagne is an assistant professor with the Electrical and Computer Engineering department at
TaskForce Engineer-Leaders Project. The Project concerns the deliberate advancement of professionalgraduate engineering education relevant to the needs of creative engineering practice in industry toenhance U.S. technological innovation and competitiveness. The strength of the innovation and leadershipcapacity of America’s professional engineering base in our civilian, aerospace, and defense industries is acritical asset in our global economic recovery. As with other learned professions, there are progressiveskill sets and actions that must be learned or developed at the advanced levels of the practice ofengineering. This series of papers addresses the skills continuum in three main parts: a) Part I addressesthe Direct Leadership Skills and Actions
provides auseful calibration point for individual contributions.Characteristics of the ProgramThe program includes the following characteristics: The program is situated at a private research university. All projects are approached in an authentic “clinical” real world fashion. Page 15.42.4 A single semester multidisciplinary capstone involving electrical, mechanical, computer systems and industrial engineering students with a common syllabus across all participating departments. A small percentage (less than 5%) of aerospace, biomedical, and materials engineering students also participate and also
AC 2010-390: THE NATURAL STRUCTURE OF ALGEBRA AND CALCULUSAndrew Grossfield, Vaughn College of Aeronautics Throughout his career, Dr. Grossfield combined an interest in engineering design and mathematics. He earned a BSEE at the City College of New York. During the early sixties, he obtained an M.S. degree in mathematics part time while designing circuitry full time in the aerospace/avionics industry. As a Graduate Associate, pursuing a doctoral degree at the University of Arizona, he was uniquely positioned as both a calculus teacher and as a student taking courses in applied mathematics. He prepared and attended lectures, concurrently, which developed his acute sensitivity to differences
Engineering Courses in North America”, Journal of Engineering Education, , pp 165-174, April 1995.4. Napper, S. and Hale, P., “Using Design Projects for Program Assessment”, Journal of Engineering Education, , pp 169-172, April 1999.5. Mokhtar, W. and Carroll, M.,“ABET Accreditation - Realization in Thermo/Fluid Courses”, AIAA 47th Aerospace Science Meeting and Exhibit, AIAA paper no. AIAA-2009-570, January 2009. Page 15.259.156. Hadim, H., and Esche, S., “Enhancing the Engineering Curriculum Through Project-Based Learning”, 32nd ASEE/IEEE Frontiers in Education Conference, Boston, November 2002.7. Newell, T. and
of learned now it’s not about so much success, as I guess, it’s how the success relates to me. But about conventional success as how much you can take from an experience, how much you can learn in a class. Like, there’s one class I recently took, and I made a C in the class, but honestly I learned so much in that class I learn much more than any other class [I made an A in]. So I think success is how an experience changes you, how your outlook changes based on that” (Male Aerospace Engineer)While the passage above provides a direct example of mastery goals from an academicperformance perspective, the statement below provides a more general take, but still exemplifiesmastery goal-orientation
- pare students for successful careers. Previously he was marketing manager for MathWorks’ Controls products and worked closely with customers in automotive and aerospace industries on modeling, simu- lation, and control design. Page 22.67.1 c American Society for Engineering Education, 2011 A Modern Educational Power Electronics Laboratory to Enhance Hands-on Active LearningAbstract – A new educational power electronics laboratory based on state-of-the-art tools andindustrial-grade platforms is presented in this paper. The developed laboratory, which is builtbased upon
AC 2011-2249: A NEW APPROACH IN TEACHING ”MEASUREMENTLABORATORY” COURSES BASED ON TRIZIrina Nicoleta Ciobanescu Husanu, Drexel University Dr. CiobanescuHusanu is Assistant Professor in Engineering Technology at Drexel University. She re- ceived her PhD degree in mechanical engineering from Drexel University in 2005 and also holds a MS degree in aeronautical engineering. Her research interest is in thermal and fluid sciences with applica- tions in micro-combustion, fuel cells and research of alternative and green fuels as well as expanding her research work towards new areas regarding plasma assisted combustion. Dr. Ciobanescu-Husanu has prior industrial experience in aerospace engineering areas, that encompasses
AC 2011-1638: A VEHICLE DYNAMICS DESIGN AND SIMULATION TOOLFOR CAPSTONE PROJECTSJohn E. Pakkala, Milwaukee School of Engineering John E. Pakkala is an Associate Professor of Mechanical Engineering at Milwaukee School of Engineer- ing (MSOE). Before coming to MSOE, he spent more than twenty years as a special machine designer and was involved with the design, construction and installation of machines and manufacturing automa- tion equipment for automotive, aerospace, and defense industry clients. Dr. Pakkala earned a Bachelor of Science degree in mechanical engineering from Michigan State University. His Master of Science and Ph.D. degrees in electrical engineering from Michigan Technological University were in the
research interest is in thermal and fluid sciences with applica- tions in micro-combustion, fuel cells and research of alternative and green fuels as well as expanding her research work towards new areas regarding plasma assisted combustion. Dr. Ciobanescu-Husanu has prior industrial experience in aerospace engineering areas, that encompasses both theoretical analysis and experimental investigations such as designing and testing of propulsion systems including design and development of pilot testing facility, mechanical instrumentation of the tested prototype, and developing industrial applications of aircraft engines. Also, in the past 6 years she gained experience in teaching Mechanical Engineering courses with
the School of Engineering Education at Purdue University.Brian Self, California Polytechnic State University Brian Self is a Professor in the Mechanical Engineering Department at California Polytechnic State University in San Luis Obispo. Prior to joining the faculty at Cal Poly in 2006, he taught for seven years at the United States Air Force Academy and worked for four years in the Air Force Research Laboratories. Research interests include active learning and engineering education, spatial disorientation, rehabilitation engineering, sports biomechanics, and aerospace physiology. He worked on a team that developed the Dynamics Concept Inventory and is currently
AC 2010-2209: DEVELOPMENT OF AN INTELLIGENT REMEDIAL TUTORIALLEARNING SYSTEM FOR NON-TRADITIONAL AND ADVANCED PLACEMENTSTUDENTSSteven Walk, Old Dominion University Steven R. Walk, PE, is Assistant Professor of Electrical Engineering Technology at Old Dominion University, Norfolk, Virginia. He recently was head of the Center for Technology Forecasting, and Director of the Maritime-Aerospace Liaison and Technology Development Center, at Maine Maritime Academy, Castine, Maine. His research interests include high voltage electromagnetic phenomena, energy conversion systems, technology management, and technological change and social forecasting. Mr. Walk is owner and founder of Technology
education. Page 15.500.8Figure 2: These examples were from the Girls and Mothers only Course that was led by twowomen aerospace engineers. After the Family Science Course, when asked to draw an engineerat work, the participants drew girls and women in their responses.We use Instruction Evaluations during the Family Science Courses and Post-training EngineerSurveys in order to measure participating engineers’ improvement, understanding, andperceptions. Completed evaluations are used by participating engineers in order to improve theirinstruction strategies and practices. Evaluation measurements include how well the instructorstie the lesson into an
’ interaction with the curriculum and activities.Outcomes for the families include developing the motivation to learn about science and to thinkof themselves as science learners. Participants are asked a variety of open-ended questions inorder to demonstrate their understanding of engineering and science and their interest in the field(figure 3). Ongoing involvement leads to positive changes in communication at the individual,family and community levels. Page 15.501.8 Figure 3: These examples were from the Girls and Mothers only Course that was led by two women aerospace engineers. After the Family Science Course, when asked to draw an engineer at work
part-time as a high school mathematics teacherwhile also enrolled in a doctoral program in mathematics education; c) a female teacher with ten-years of experience working with women in science and engineering who was also enrolled part-time in a master’s degree in bio-engineering. In addition, six undergraduate research internsrepresenting these engineering disciplines worked to help facilitate the project: Electrical andElectronics Engineering (female, Latino), Chemical Engineering (female, African American),Mechanical and Aerospace Engineering (1 female, White; 1 male, African American), ComputerScience and Engineering (male, White), and Materials Science and Engineering (male, White).These undergraduate research interns served as peer
Talent Manager, forMilitary Air and Information at BAE Systems, a global defense, aerospace, and securitycompany, reports that “by providing our employees with cultural awareness support we canmaximise our export opportunities and develop strong relations with our internationalcustomers” [18]. In academia, aside from the trainings offer by Kathleen Wong (Lau), Directorof the Southwest Center for Human Relations at the University of Oklahoma, STEM facultyreceive little if any intercultural communication training to prepare them for interculturalencounters [19]. In engineering, where career advancement is a function of publications andgrant awards, implementing intercultural training has the potential to heighten faculty members’intercultural
Booz, Allen and Hamilton where she developed manufacturing strategy in a number of diverse industries from pharmaceuticals to aerospace. Sara has B.S., M.S. and Ph.D. degrees from the Department of Industrial Engineering and Engineering Management at Stanford University and an M.S. in Statistics from the same institution. She was a member of the Board of Directors of the Building Materials Holding Corporation and currently serves on the advisory boards of the Corporate Design Foundation and of the Design MBA Program at the California College of the Arts. Page 21.26.1 c
the engineering curriculum.Most engineering graduates employed in industry will work in collaborative teams. Currentprojects, particularly those in aerospace, defense, and vehicle design, are of such magnitude thatthe involvement of multiple disciplines becomes essential. Separation of disciplines essentiallydisappears in much of modern industry.1Some of the advantages of project teams include: • Teams provide the most efficient use of workers’ skills. • Employees are able to pool knowledge and ideas to arrive at better and more creative problem solutions.2 • Teamwork based on coordinated tasks and peer leadership permits removal of layers of hierarchy.3 • Teams benefit from the combination of people with diverse
Page 10.1016.12of Wisconsin–Madison in 1993. His research interests include the mechanics of nanostructures,dynamics of mechanical systems, the application of dynamical systems theory, and engineeringeducation. Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering EducationFRANCESCO COSTANZO came to Penn State in 1995 and is an Associate Professor of EngineeringScience and Mechanics. He earned a Ph.D. degree in Aerospace Engineering from the Texas A&MUniversity in 1993. His research interests include the mechanics of nanostructures, the dynamiccrack propagation in thermoelastic materials, and engineering education.MICHAEL E
, Canada, June 19, 2002DAVID R. DOUCETTEDavid R. Doucette is an Industry Professor at Polytechnic University. He received his BS, MS, and Ph.D. degreesfrom Polytechnic Institute of Brooklyn, the predecessor of Polytechnic University. He is a registered ProfessionalEngineer in New York. He has taught at Polytechnic for over 35 years, and also spent over 20 years in industry. Heis listed in eight Who’s Who volumes.GUNTER W. GEORGIGunter W. Georgi is an Industry Professor at Polytechnic University. He received his B.S. from Cooper Union andhis M.S. and professional M. E. Degrees from Columbia University. He is a registered Professional Engineer. Heworked many years in the aerospace industry in design, analysis and management functions, including the
the ETHOS program came from a variety of sourcesincluding The University of Dayton’s Honors/Scholars Program and New Engineer Program,Center for Social Concern, Department of Mechanical and Aerospace Engineering and various Page 10.216.6Marianist Communities on campus. Soil Enrichment Haulers served as a corporate sponsor for Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Educationthe ETHOS program. Students and the ETHOS administration also requested financial supportfrom family and friends to help
Society for Engineering Education• Peer evaluations are routinely conducted in studios to provide feedback to students on their success at presenting lessons to the entire class.• An hour-long observation of the students in action teaching in the K-12 setting is made by one instructor, with constructive feedback immediately provided to the student.• Students are asked to respond to a series of written open-ended questions about their experiences in the course.• An independent student focus group interview is conducted at semester end, with emphasis on how to improve the course for future offerings.All students in the pilot offering were final semester aerospace and mechanical engineeringseniors. The number of students was too
PolicyImplementationVirginia Tech’s approach to green engineering has been one of diffusion. Its core courses areaccepted by the departments of Biological Systems Engineering, Electrical and ComputerEngineering (plus Computer Science), and Mechanical Engineering as technical electives. TheDepartment of Industrial and Systems Engineering accepts these courses as science electives.The departments of Material Science and Engineering, and Aerospace and Ocean Engineeringaccept the courses as technical electives for individual students, subject to a departmentalapproval process. The other departments within Virginia Tech’s College of Engineering (Civiland Environmental Engineering, Mining and Minerals Engineering, Chemical Engineering, andEngineering Science and Mechanics