AC 2008-2221: MAKING MATH AND SCIENCE EXCITING THROUGHENGINEERING SPORT: THE WRIGHT STATE UNIVERSITY TREBUCHETCOMPETITIONJoseph Slater, Wright State University Dr. Joseph C. Slater received his B.S. and M.S. degrees in Aerospace Engineering, and Ph.D. in Mechanical Engineering from the department of Mechanical and Aerospace Engineering at the State University of New York at Buffalo under the guidance of Dr. Daniel J. Inman. Dr. Slater joined the Department of Mechanical and Materials Engineering at Wright State University in the Fall of 1993. His research interests are mode localization (pertaining to high cycle fatigue), nonlinear dynamics, nonlinear system ID, turbomachinery dynamics, smart
AC 2009-943: MATH TOOLS FOR ENGINEERING: A NEW APPROACH TOTEACHING CALCULUS III AND DIFFERENTIAL EQUATIONSHassan Moore, University of Alabama, BirminghamGregg Janowski, University of Alabama, BirminghamMelinda Lalor, University of Alabama, Birmingham Page 14.865.1© American Society for Engineering Education, 2009MATH TOOLS FOR ENGINEERING: A NEW APPROACH TOTEACHING CALCULUS III AND DIFFERENTIAL EQUATIONSAbstractDuring the fall of 2008 at the University of Alabama at Birmingham, a new course (EGR/MA265 – Mathematical Tools for Engineering Problem Solving) was offered in a joint effort by theSchool of Engineering and the Department of Mathematics combining differential equations
AC 2009-1131: INTEGRATING MICROETHICS AND MACROETHICS INGRADUATE SCIENCE AND ENGINEERING EDUCATION: DEVELOPINGINSTRUCTIONAL MODELSJoseph Herkert, Arizona State University Polytechnic Joseph Herkert, D. Sc., P.E., is Lincoln Associate Professor of Ethics and Technology at Arizona State University. He has taught engineering ethics and related courses for more than twenty years. His work on engineering ethics has appeared in engineering, law, social science, and applied ethics journals. Dr. Herkert is the past Editor of IEEE Technology & Society and a founding Associate Editor of Engineering Studies. He received his BSEE from Southern Methodist University and his doctorate in Engineering and
AC 2009-2268: SUCCESS CRITICAL FACTORS FOR IMPLEMENTING QUALITYSYSTEMS IN EUROPEAN HIGHER EDUCATIONEdmundo Tovar, Polytechnic University, MontegancedoPaola Carina, Universidad Politécnica de MadridKaren Castillo, Universidad Politécnica de Madrid Page 14.1093.1© American Society for Engineering Education, 2009 CRITICAL SUCCESS FACTORS FOR IMPLEMENTING QUALITY SYSTEMS IN EUROPEAN HIGHER EDUCATIONAbstractQuality assurance in higher education is by no means only a European concern. All over theworld there is an increasing interest in quality and standards, reflecting both the rapid growthof higher education and its cost to the
ofunderstanding (on both sides) of how engineering or processes are done in different parts ofthe world. Some things that may seem trivial to us are very difficult or different in other partsof the world and this can cause miscommunication, design issues, slow-down inimplementation schedules as well as quality issues.” “A globally competent engineer requires an open mind and a sensitivity to the differencesand complexities of other cultures. Due to the magnitude of the problem engineers shouldfocus on one major country/culture or one major region.”ApplicationBy defining global competence more precisely, engineering colleges can focus morespecifically on the attributes they are trying to develop. Furthermore, some of these attributescould conceivably be
students. To solve thisissue we brought social awareness to members of the group, as well as tolerance andresponsibility with this approach. It also emphasized to the students a tolerant and an open-minded world, now and forevermore. A group of multidiscipline, multinational, multiculturalundergraduate students at Salt Lake Community College, majoring in Civil, Mechanical,Electrical and Computer engineering are working on a project involving vertical farming,hydroponic watering, and making the plant growing process smart.Food and its availability is of major concern in all nations, especially the underdevelopedcommunities. Students get exposed to different engineering disciplines, and learn how to work ina multicultural team and become socially
Paper ID #22004Conceptual Framework for Integrating a Wireless Sensor and Control Net-work into a Robotics Course for Senior Students of Mechanical EngineeringTechnologyDr. Zhou Zhang, New York City College of Technology Assistant Professor, Ph.D. Department of Mechanical Engineering Technology, CUNY New York City College of Technology, 186 Jay St, Brooklyn, NY 11201. Email: ZhZhang@citytech.cuny.eduDr. Andy S. Zhang, New York City College of Technology Dr. Andy S. Zhang received his Ph.D. from the City University of New York in 1995. He is currently the program director of a mechatronics project in the New York City College of
Paper ID #22490Piloting the Use of Technology to Provide Better Support to Students Through-out Their Life CycleRachel LeBlanc, International Council on Systems Engineering Rachel LeBlanc is the Assistant Vice President of Academic and Corporate Engagement at Worcester Polytechnic Institute. She manages the portfolio of non-traditional academic programs for the University and engages in economic development activities tied to university strategy. Rachel has over 15 years of experience working with faculty and industry experts to create education solutions to meet business needs. She manages a variety of functional areas
Paper ID #15222’Lion Leadership Lessons Video Series’ - Delivering Engineering LeadershipLessons to a Broad AudienceDr. Dean H. Lang, Pennsylvania State University, University Park Dr. Lang is currently the Associate Director of the Engineering Leadership Research Program at Penn State University. She holds a BS in Mechanical Engineering from West Virginia University, an MBA from Johns Hopkins University, and a PhD in Kinesiology with a focus on Biomechanics from Penn State University. Dr. Lang’s previous professional experiences and research interests range from mechanical engineering facilities design to research that
Press, 19923. Ward J., Why can I see memories, Scientific American Mind, January/February 2016.4. Timoshenko S. and Young D. H., Engineering Mechanics: Statics, Preprint Copy, McGraw Hill, Inc., New York, New York, 19565. Popov P. P., Introduction to mechanics of materials, Prentice-Hall, Inc., Englewood Cliff’s, NJ, 19686. MSC Industrial Supply Co. Catalogue, 2010.7. Timoshenko S., and MacCullough G. H., Elements of Strength of Materials, D. Van Nostrand Company, Princeton New Jersey, 1949.8. Boresi A. P. and Schmidt R. J., Advanced Mechanics of Materials, John Wiley & Sons. Inc., New York New York, 200039. Bhonsle S. R. And Weinmann K. J., Mathematical Modeling for the Design of Machine
Paper ID #21708Inspiring girls to pursue STEM (ages three to thirteen): a recipe for a suc-cessful outreach eventDr. Jodi Prosise, St. Ambrose University Jodi Prosise is Chair of Engineering and Physics and an Associate Professor of Industrial Engineering and Mechanical Engineering. She earned her PhD in Biomedical Engineering at University of Minnesota and her Bachelor of Science in Mechanical Engineering at Iowa State University. She teaches courses in both Industrial and Mechanical Engineering at SAU, focusing in Engineering Graphics, Manufacturing, the Engineering Sciences, and Design. She was recently the PI of an NSF
sustainable construction education in construction programsincluding civil engineering programs; sustainable construction course case study for a specificprogram in Australia, and the needs of integration between existing construction courses and theconcept of sustainability in construction curriculum. However, the previous studies, especially inthe U.S.A., did not observe significant change within the construction curriculum, which wouldbe integrated conventional courses in the areas of scheduling, estimating, contracting andsustainable knowledge and skills.The purpose of this study is to develop a sustainable construction course designed for universityconstruction programs that uses a systematic course development approach which is divided
AC 2008-318: STUDENT ATTITUDES TOWARDS THE USE OF GRAPHICALPROGRAMMING LANGUAGESJeremy Garrett, Virginia Polytechnic Institute and State University Jeremy Garrett is currently working on his Ph.D. in Curriculum and Instruction, with a specialization in Integrative S.T.E.M. Education, at Virginia Tech. His doctoral research, which he has recently begun, is on college freshmen-level engineering design curriculum. He has an M.S. in Applied and Industrial Physics from Virginia Tech, and a B.S. in Physics from Western (North) Carolina University. He has been teaching freshmen and sophomore general engineering courses for the last four years (some years as a lead teacher / instructor and some years as an
AC 2007-2032: OUTREACH WITH GAME DESIGN EDUCATIONDavid Schwartz, Cornell University After finishing his dissertation in Civil Engineering and writing two textbooks as a graduate student in 1999, Cornell's Computer Science department made an offer David I. Schwartz couldn't refuse. Schwartz has made a career in researching and developing new curricula and educational technology. Over the past five years, he has collaborated with faculty and staff to build the Cornell Library Collaborative Learning Computer Laboratory (CL3) and the Game Design Initiative at Cornell (GDIAC; http://gdiac.cis.cornell.edu). CL3 currently hosts Cornell's new game courses, which now belong to a new
Technical Assistance Centers, at the College of William and Mary, providing professional development programs for teachers. She has worked in public education for twenty-two years and is an adjunct Assistant Professor at William and Mary, teaching courses in collaborative consultation and assessment, as well serving as the college's VDP Project Coordinator.Eugene Brown, Virginia Tech Eugene Brown is Professor of Mechanical Engineering at Virginia Tech. He has worked with ONR since 2001 on university-centered Navy work force development issues. He teaches undergraduate and graduate courses in thermodynamics and fluid mechanics and is the author of many papers and reports describing his
Matthew A. Easter is a Doctoral Candidate in Educational Psychology at The University of Missouri-Columbia. He currently works as a Curriculum Developer and Designer for the Radiation Protection Curriculum Project.Rose Marra, University of Missouri ROSE M. MARRA is an Associate Professor in the School of Information Science and Learning Technologies at the University of Missouri. She is PI of the NSF-funded Assessing Women and Men in Engineering (AWE) and Assessing Women In Student Environments (AWISE) projects. Her research interests include gender equity issues, the epistemological development of college students, and promoting meaningful learning in web-based environments.William Miller
AC 2007-253: ENCOURAGING CREATIVITY IN INTRODUCTORY COMPUTERSCIENCE PROGRAMMING ASSIGNMENTSTammy VanDeGrift, University of Portland Tammy VanDeGrift is an Assistant Professor at the University of Portland. She received a B.A. from Gustavus Adolphus College and her M.S. and Ph.D. degrees from the University of Washington (Seattle). Her research interests include computer science education, educational technology, multimedia, software engineering, and CS theory. Page 12.608.1© American Society for Engineering Education, 2007 Encouraging Creativity in Introductory Computer Science
, and solve problems at the boundaries of traditional disciplines. As always within the civil engineering profession, change must be accomplished mindful of the profession’s primary concern for protecting public safety, health, and welfare.” iiIn general, risk is understood in a variety of ways. One may be interested in estimating fatalitieson a highway, or the precipitation quantity from a 100 year storm, or the magnitude andfrequency of earthquakes in a specific region. These are all good and useful exercises, however,the goal of this paper is to: 1. Define “risk engineering” as an integrating discipline that supports design development, project controls and project management. 2. Develop a theoretical
Paper ID #8816A Partial Flip, A Whole Transformation: Redesigning Sophomore CircuitsDr. Theresa Mae Swift, Missouri University of Science & Technology Theresa M. Swift is an Assistant Teaching Professor in the Department of Electrical and Computer En- gineering at Missouri University of Science and Technology. She teaches the sophomore circuits and introduction to electronic devices courses for ECE majors as well as a service course in circuits for other engineering disciplines on campus. She is a member of both the ECE curriculum committee and the cur- riculum committee for all engineering disciplines on the
c American Society for Engineering Education, 2013 Contextual Learning Concepts Drive Architectural Education to Partner with IndustryIntroductionThe field of architecture is people oriented, which cannot be practiced in isolation. From conceptto completion the focus is always on the end user. According to Gutman, buildings are objects ofuse apart from being objects of pleasure [1]. Architecture is so essentially a social art that noarchitect can talk about his (or her) medium or about his (or her) schemes without reference tohow they will be used by people [1]. Once the idea for a facility has been conceptualized, thedesigner begins to conceptualize solutions for that particular structure, while taking
Education.causes and effects and try to eliminate them. Then, as a secondary optimization level, themedium and low RPN values should be analyzed and eliminated in the same manner asthe highly rated values.To summarize, the lower the rating the better in this case. The DFRA team should keepin mind the following: 'The better the definition of the wanted characteristics, the easier itis to identify potential failure modes for corrective action.'Instructional Design and Example CasesIn terms of instructional design for IE (Industrial Engineering) our cases are object-oriented and self-contained; nevertheless, they can be integrated or grouped into differentclasses of objects in a lean and flexible way, just as a modern software program, or amodern
abovedisclaimer, therefore, ABET is able to enforce the “Beneficiaries only within NationalBoundaries” clause. Would the signatories of the Washington Accord also “bestow” ongraduates of engineering programs in countries in which existing signatories have visited andconsidered “substantially equivalent” to the programs in their programs? Thus, what would bethe place of a program in Papua New Guinea about which the Institution of Engineers Australia(IEAust) has deemed “substantially equivalent”?The above brings to mind the issue of engineers trained outside of the United Kingdom onprograms identical to those in the United Kingdom (Akinmusuru and Akinmusuru 7). Althoughthe requirement of accreditation within national boundaries is prima facie reasonable
AC 2010-1148: CODING PRACTICES FOR EMBEDDED SYSTEMSMichael Pook, Boise State UniversitySin Ming Loo, Boise State UniversityArlen Planting, Boise State UniversityJosh Kiepert, Boise State UniversityDerek Klein, Boise State University Page 15.281.1© American Society for Engineering Education, 2010 Coding Practices for Embedded Systems Abstract Far too often, students focus on creating a working project without any regard for thequality, readability, and maintainability of their code. Students are not usually made to realizehow learning and applying good coding practices can improve the success of their projects andmake
Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright© 2005, American Society for Engineering Educationmaterial outside of one’s expertise, gaining insight from diverse viewpoints, providing outsidesupport for department internal review, and engaging in interdisciplinary scholarly activities suchas interdisciplinary research 4. These benefits also include more intangible notions such asfostering community across department boundaries and appreciating each other’s contributionsto student education.With these benefits in mind, the AE and HU/COM faculty chose to pursue collaborative teachingin three phases. First, as a test case a new writing course was developed and linked
Creating an environment for learning Helping students become autonomous, self-regulated learners Reflecting on and evaluating their teaching5.With these strategies in mind, ELVIS was employed during lectures for real-time demonstrationsof circuit performance in a second electronics class, EE 338K (a junior/senior level elective with20 students) in the College of Engineering at the University of Texas at Austin in the summer2003 term. The experienced faculty member (JP) was aware of the perplexing nature of thetopics for many students and he wanted to integrate ELVIS into his lectures in order to helpstudents visualize concepts that are more traditionally taught using only mathematical formulasand to give them a context for theoretical
Session 2004-761 TECHTRONICS: HANDS-ON EXPLORATION OF TECHNOLOGY IN EVERYDAY LIFE Paul A. Klenk, Gary A. Ybarra, Rodger D. Dalton Duke University Pratt School of EngineeringAbstractTechtronics is an after school science enrichment program that encourages at-risk middle schoolstudents to pursue careers in engineering and technical fields. A joint venture between the PrattSchool of Engineering at Duke University and Rogers-Herr Middle School in Durham, NorthCarolina, Techtronics seeks to stimulate intellectual curiosity in engineering through exposure tofour engineering
independent discipline status. For example, engineering learningcould only occur after “xin shu yi gui yu chun zheng” (one’s heart is pure and rectified) and “yizhongguo jingshi zhi xue weiji” (training in Chinese Confucian classics as fundamental). Toachieve this kind of foundational moral and intellectual development, it was assumed that theConfucian classics were covered in all levels of schooling, from the small xuetang (elementaryschools) to preparatory colleges and universities. In fact, the policy documents indicated thattreatment of Confucian teachings in elementary schools and universities should be well-aligned,especially in order to rectify human mind and human nature.10 Engineering was more specificallytreated as “yineng” (“artistic
encourage the engineering profession to see all “ways of knowing” (especially those that are community-based and/or non-technical) as valued and integral parts of the community-based design process? What are best practices in terms of teaching our students and ourselves the critical importance of contextual listening? How do we use our engineering skills to tackle complex societal problems?Conclusion: lessons learned as a community-engaged faculty memberWhen I first ventured into service-learning, I had outcomes for my students in mind. I waslooking at the research compiled by Eyler and Giles (1999) which showed that service-learningresulted in deeper understanding of course content and an increased ability to apply
, Page 10.929.5they lost some of the personal interactions that occurred in the previous workshops because ofthe increased number of participants. In addition several of the meeting rooms were crowded “Proceedings of the 2005 American Society of Engineering Education Annual Conference & Exposition Copyright © 2005, American Society of Engineering Education”with 100-120 participants. With this in mind, the 2001 and 2003 workshops were restricted toeighty participants conducting research in the areas supported by CMS, drawing more heavilyfrom the content of and the feedback about the 1995 and 1997 workshops.The 1995 workshop consisted of six formal sessions spread over a 2-1/2 day period and two half-day technical
, depletion, spectrum) has been developed to fill this gap.The V:BUDS computational engine, originally developed to provide material balances for fuelcycle system studies, uses a few spatial region collision probability formulation to treat thespatial dependence of the flux. This is coupled with a multigroup treatment of energydependence incorporating a hyperfine (740 group) or traditional (110 group) mesh. V:BUDS isbundled with custom cross section libraries, evaluated from the ENDF-B/VI data using NJOY99 Page 10.192.1and covering the temperature range 300 – 1500 K. The libraries include fuel matrix, cladding,Proceedings of the 2005 American Society