university’s steady growth anddiversification coupled with the state’s technology boom. Since its inception, the college hasgrown explosively with more than 60 new faculty, and a 16th place U.S. News & World Report2010 ranking among public masters level engineering colleges. Since 2000, the college hasadded one doctorate, six masters and one new undergraduate program, Materials Science andEngineering (2005). In the College of Arts and Sciences, a new masters program in Mathematicswas added in 2005, a doctoral programs in Geosciences was added in 2006, and a masters Page 22.1465.2program in Chemistry began in 2010. Two additional doctoral
underrepresented groups in academia. She has communicated her findings in research papers, grant proposals, public presentations, short films and in journal publications. Her work is funded by the National Science Foundation, the Luce Foundation and the University of Washington Labor Center. She earned a Masters in Socio-Cultural Anthropology for her work on the historical and social relations of reproduction in Bahia Brazil. In her doctoral research in Socio-Cultural Anthropology at the University of Washington, she continues to engage feminist critical race theory and participatory, ethno- graphic methodologies in her examination of unexamined bias and politics of reproduction in cultures of technology
AC 2011-1905: DESIGNING AND TESTING WATER FILTRATION DE-VICES USING THE ENGINEERING DESIGN PROCESS: A DESCRIP-TION OF AN EIGHTH GRADE CURRICULAR UNIT ON BIOREMEDI-ATIONTirupalavanam G. Ganesh, Arizona State University Tirupalavanam G. Ganesh is Assistant Professor of Engineering Education at Arizona State University’s Ira A. Fulton Schools of Engineering. He has bachelors and masters degrees in Computer Science and Engineering and a PhD in Curriculum and Instruction. His research interests include educational research methods, communication of research, and k-16+ engineering education. Ganesh’s research is largely focused on studying k-12 curricula, and teaching-learning processes in both the formal and informal
AC 2011-1190: DESIGNING STEM KIOSKS: A STUDENT PROJECT THATTEACHESBekir Kelceoglu, Indiana University Purdue University, Indianapolis Assistant Prof. Bekir Kelceoglu was born in Ankara, Turkey and attended Anadolu University, where he received his B.A. in Interior Architecture degree. Even before his graduation, he started to work as a free-lance tutor, product designer, and interior designer. In year 2006, he received his Master of Fine Arts degree from the Ohio State University, concentrating on Design Development in industrial design. Prior to joining School of Engineering and Technology in IUPUI, where he currently teaches Architectural Technology and Interior Design classes, he successfully established Interior
student has mastered the mathematics to the point that the “bigpicture” can be seen. In fact, many students learn the equations quite well, but neverreach the point of truly understanding the principles illustrated by those equations.A major goal of the CEE initiative is the development of courseware, and, in particular,software that allows students to gain an initial intuition about a core ECE topic inconjunction with the presentation of the equations. Thus, as they struggle with the oftencomplex mathematics underlying that topic, they have the advantage of understanding Page 4.351.1how those mathematics fit into the system as a whole.The one-on-one
to Expand Student Opportunity, a National Science Foundation Alliance for Minority Participation project.Dr. McHenry has been actively involved in four-year technology programs for over 33 years. He was the 1996winner of ASEE’s Fredrick J. Berger Award.SCOTT S. CARTIERScott Cartier has been working for Motorola for the last ten years in positions including wafer fabrication facilitiesengineering, wafer fabrication process engineering, semiconductor assembly equipment engineering, and militaryelectronics packaging. Scott presently leads the engineering team for the facilities fit-up of the MOS12 wafer fabfactory expansion in Chandler, Arizona. Scott has a Masters Degree in Technology specializing in Microelectronicsfrom Arizona State
. KANT VAJPAYEES. Kant Vajpayee is a professor at The University of Southern Mississippi. He has been a faculty for more thantwenty-five years at four different universities in India, England, Canada, and the US. He has authored four textbooksand published/presented more than one hundred articles in manufacturing and mechanical engineering, or onenvironmental issues. Dr. Vajpayee has held research grants in excess of a million dollars. He received bachelor sand master s degrees in India and PhD degree from The University of Birmingham in England%all in mechanicalengineering. Page 4.401.4
each period. The quizzes were graded dailyby the instructor. Detailed corrections and comments were added, and the quizzes were returnedto the students at the beginning of the following class period. Except for the first quiz, given onthe second day of class, quizzes focused on material presented at least two class periods earlier.This two-day delay for quizzing allowed each student the opportunity to master the materialbefore being quizzed on it. A typical quiz consisted of two questions. The first question coveredrecently presented material. The second question addressed material that could have beencovered as early as the first day of class. Thus, each student was required to learn the newmaterial in a timely manner. Staying abreast of the
Journal, vol. VII, no. 1, pp. 8–11, January-March 1997.[4] Porat, B., A Course in Digital Signal Processing, John Wiley & Sons, Inc., 1997. ®[5] Ingle, V. K., and Proakis, J. G., Digital Signal Processing Using MATLAB V.4, PWS Publishing, 1997.[6] Mitra, S. K., Digital Signal Processing: A Computer-Based Approach, McGraw-Hill, 1998. ®[7] Ambardar, A., and Borghesani, C., Mastering DSP Concepts Using MATLAB , Prentice-Hall, 1998. Page 4.421.6[8] Burrus, C. S
, D. & Widmer, N., Electronic Troubleshooting, Second Edition, McGraw-Hill, 1999.7. Fogler, H.S. & LeBlanc, S.E., Strategies for Creative Problem Solving, Prentice Hall, 1995.8. Rowland, R., Simple Process Control, SMT (Surface Mount Technology), February, 1999, pp.32-4.9. Lecklider, T. & Vitale, P., Taking the Measure of the Instrumentation Industry, EE – Evaluation Engineering, December, 1998, pp.38-47.WILLIAM F. REEVEWilliam Frank Reeve is currently an Associate Professor in the Electrical Engineering Technology Department ofPurdue University. He had a varied career in industry, the military, and in education. He received the Bachelor ofScience and Master of Science degrees in physics from the University of Louisville. He
Building Bridges: A Course to Transition Chemistry Students to ChemicalEngineeringZ. Otero Keil and R. P. Hesketh, Chemical Engineering Program, Rowan University,Glassboro, NJ, 08028 There is a growing population of chemistry students and graduates interested inpursuing a graduate degree in chemical engineering. In general, these students arerequired to take the undergraduate core and mathematics courses before they canparticipate in a graduate engineering program. Although some undergraduate coursework is still necessary, transition courses that provide students with experimentalexperiences and theoretical background can serve to enhance learning and shorten thetime required to complete a Master of Science degree in engineering
last few years, a significant effort has been taken to restructure the system of study atthe Faculty. Students admitted before 1994 have followed the traditional pattern of university-level engineering education in Poland, i.e., they have pursued a five-year program leading to adegree equivalent to the Master of Science (Master of Engineering) in the selected field ofengineering3,4. With the beginning of the academic year 1994/95, a new system of study wasintroduced. In what follows, we briefly describe those features of the system that mostsignificantly contribute to its flexibility. A more detailed description of the system of study at ourFaculty can be found elsewhere8,11,12,13,19,20.The general structure of the studies is shown in Fig. 1
Bangladesh University of Engineering and Technology with a B.Sc. inMechanical Engineering in 1977. He completed his Masters in Engineering in Mechanical and AeronauticalEngineering at Carleton University, Canada (1980), and M.S. (1982), Ph.D.(1987) in Engineering Mechanics at theUniversity of Wisconsin. Abulkhair taught at Savannah State College in Georgia for three years before coming toUW-Platteville. His research interests are in the areas of Applied Mechanics and Mechanical Design.FAHMIDA R. MASOOM is an Adjunct Professor in the College of Engineering, Mathematics and Science atUW-Platteville. She graduated from the University of Rajshahi, Bangladesh with a B.Sc. Honors in Applied Physicsin 1983. She completed her M.S. (1986) in Engineering
, NY. Dr. Iskander is a recipient of NSF CAREER award, Chi Epsilon (Civil Engineering Honor Society) Metropolitan District James M. Robbins Excellence in Teaching Award, Polytechnic’s Distinguished Teacher Award, and Polytechnic’s Jacobs Excellence in Education Award. Dr. Iskander’s research interests include Geotechnical modeling with transparent soils, foundation engineering, and urban geotechnology. He makes extenive uses of sensors and measurement systems in his research studies. Dr. Iskander has published 50 papers and supervised 6 doctoral students, 14 masters students, 6 undergraduate students, and 7 high school students.Noel Kriftcher, Polytechnic University NOEL KRIFTCHER is
Euler’scalculus and the subsequent developments as Cauchy’s analysis. The new analysis of Cauchyand the new definition of functions called for clear descriptions of the domain and range of thefunctions. But for the algebraic functions of calculus the domains are relatively simple,excluding the isolated zeroes that occur in the denominator and the “excluded intervals”, whichoccur when taking an even root of a negative value.Euler, being unencumbered by the “monstrosities” developed during the 19th century, could relyon his intuition to develop into “the master of us all.” However, the ingenious examples andtechniques invented during the 19th century led mathematicians to distrust Euler’s intuition andvisualizations. By the mid 20th century, visual
Specification, http://www.motorsolver.com/files/Download/DYNO-MOTOR-SPECS.pdf4. “Simulation Study of Wind Energy Conversion Systems,” M.S. Thesis, Rohit Tirumala, University of Minnesota, 20005. Renewable and Efficient Electric Power Systems by Gilbert M. Masters, 2004 edition by John Wiley & Sons, Inc., Hoboken, New Jersey.6. Electric Drives: An Integrative Approach by Ned Mohan, 2003 Edition, http://www.mnpere.com7. HiRel Systems Inverter Board, http://www.hirelsystems.com/shop/Inverter-Board.html8. First Course on Power Electronics by Ned Mohan, 2003 Edition, http://www.mnpere.com Page 15.458.8
him apart was that he not only mastered the technology ofhis profession but also discovered the need for better organization of the technical literature. Outof his interest for doing things better, the idea of an index for the engineering literature was born.Norman F. Koch8, in his short biography of J. B. Johnson, best describes the beginning of TheEngineering Index: “The Index of Current Engineering Literature” was started by professor Johnson because Page 15.1230.2 he found the need of such an index while doing research work. It originated in an outline of a few of his own engineering journals. This suggested a more
review], we demonstrated that techniques used in the earlystages of design (e.g., for concept generation) can be characterized in terms of the degree ofdifficulty associated with learning and using them effectively. Here, we extend thisproposition to design techniques across all stages of the design process, using the followingscale to reflect the level required for their mastery: • Level 1 = very easy to master • Level 2 = easy to master • Level 3 = mid-level difficulty to master • Level 4 = hard to master • Level 5 = very hard to master.The same selection of 24 techniques that appeared in Table 2 will be mapped according tothis level metric below (see Table 3), after we have discussed the classification of
. InAugust 2015 he will graduate from The University of Texas at Austin with a Master of Arts inSTEM Education with a special focus on Engineering. WORKSHOP INFORMATIONProposed Title:Creativity and Intuitive Ideation in EngineeringAbstract: Please provide a concise description that includes the workshop’s learning objectives(maximum 750 characters). The abstract is used on the ASEE website, program materials, andother K-12 Workshop promotional activities.Participants of this workshop will be introduced to a research-based, three-step process forgenerating design ideas: brainstorming, mind mapping, and concept sketching. This sequence oftechniques, which is used to support creative ideation in both secondary and
students. It isnoteworthy that the ENGR 160 students anticipate sleeping for one third of the week incontrast to the national cohort which plans only six hours of sleep each day (a level ofsleep inconsistent with long-term health, personal safety, and performance). Individual168-hour schedules are selected for real-time anonymous presentation to highlight thedisparities in presentation, realistic constraints, and practicality. The overall results ofthis assignment emphasize the commitment needed to master engineering content andsuggest a path to success. Socializing, Recreating, other 7% Sleeping
knowledge in a particular field.Illustrations of appropriate forms of scholarship include the following: books; articles; monographs; bookreviews of significant length and scope; research project reports such as those under the auspices of theAmerican Bar Foundation or under contract research; publications of learned societies such as ALl, ABA,bar associations, the AALS, or the various judicial and administrative conferences; publications resultingfrom professional service, including the briefs in law reform litigation as might result, for example,through participation with legal aid or similar welfare services, the conduct of arbitrations, courtappointments, or acting as a master; publications stemming from governmental appointments; andteaching
has been evolutionary and has not kept up with the needs of thepracticing profession which is moving at a faster pace. Change will not happen by itself without plannedeffort and execution. The National Collaborative Task serves as a catalyst and change agent for action.Major systemic reform in engineering graduate education must begin by establishing new innovativegraduate programs in professional engineering practice for leadership of technology development andinnovation in industry.Whereas undergraduate engineering and technology education serve as the basic preparation forbeginning entry into engineering practice, the National Collaborative Task Force recognizes that furtherprofessional education, beyond the baccalaureate and masters
our success” says Jim Guyette,President and Chief Executive Officer of Rolls-Royce North America, Inc. Guyette points out that wemust support the career development of our people to maximize their potential.5 For this to thrive,individuals must embrace the challenges and opportunities associated with lifelong learning and partnerwith industry, education, and government to master needed skills. The sum of knowledge within anindustry or profession continues to grow on a daily basis. This dynamic condition is a reality of the paceof our nation and must be reflected in a proactive fashion with our approach to learning.Meeting the Challenge - Creating a National CollaborativeThe Council on Competitiveness has pointed out, “The United States could
. engineering workforce in industry is critical tothe continuous improvement, invention, development, and innovation of new technology which is theengine for U.S. economic prosperity and competitiveness. This paper focuses on a unique model forworkforce development that represents a significant advancement in professional graduate educationextending through the professional masters, professional doctorate and fellow levels of engineeringpractice. This advancement in professional graduate education forms a new partnership for university-industry engagement for U.S. engineering workforce development that completes a missing piece of theprocess to better enable U.S. technological innovation which is long overdue. The impact of project-basedlearning on
understand what skills and knowledge they must master andintegrate to complete the challenge.We have developed a challenge-based instructional module on gait motions and elementarybiomechanics for our first-year engineering course co-listed in biomedical and mechanicalengineering to target skills in manipulating, graphing, and interpreting empirical, time-varyingdata. Our motivation for this module is that freshmen often arrive without adequate experiencein simple graphing techniques and unfamiliarity with basic data representations. In addition, thestudents have a wide variety of educational backgrounds in mathematics, where some studentsare enrolled in third semester Calculus and some in College Algebra.Gait ModuleThe learning objectives for this
addition to myteaching, I also advise the student chapter of ACM and direct the Virtual Reality UndergraduateProjects Laboratory ( VRUPL ) [8], which currently has sixteen active members working on a Page 7.808.2variety of virtual reality simulations[1]. I have directed one completed Masters project since Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American society for Engineering EducationI started at UIC two years ago and am currently advising a second Masters student in the area ofimmersive interactive three-dimensional scientific
improves, Valencia expects this program to bounce backto hiring levels previously reached in 2001.Bibliography1. URL:http://www.ejob.com/ecareer1.htm.Ejob; Engineering Salary Data.2. Valencia Community College, The Engineering Articulated Program. An articulated agreementbetween Valencia Community College and the University of Central Florida.3. National Science Foundation, Memorandum to Principal Investigators, Fiscal Year 2000 ComputerScience, Engineering, and Mathematical Scholarships Program.Dr. GABY N. HAWATDr. Hawat holds Bachelors and Masters degrees in Electrical Engineering, a Doctorate degree in HigherEducation, and is also a graduate of Harvard University’s Management Development Program. Dr. Hawatis currently the Dean of Engineering
; Exposition Copyright© 2002, American Society for Engineering EducationSESSION NUMBER 3632Antenna winners have included a 3-foot diameter parabolic dish, a 6-element Yagi Uda, a 13-element Yagi Uda, 4 10-element Yagi Uda's in a broadside phased array, V antenna, rhombic,horn, 14-element Yagi Uda and a corner reflector with a Yagi. Some of the graduates have goneto work at Channel Master, Antenna Specialist and other antenna companies. Pictured above aresome of the entries from the Fall 2001 contest.Bibliography1. Constantine Balanis, Antenna Theory Analysis and Design, 2nd ed., John Wiley & Sons, New York, 1997.2. Warren L. Stutzman and Gary A. Thiele, Antenna Theory and Design, 2nd ed., John Wiley & Sons, New York,1998.3. Randall Musselman
Engineering from the Univ. ofAkron, in 1979, 1986, and 1990, respectively. His research interests include digital simulation, nonlineardynamics, chaos, control theory, system identification and adaptive control. He is a member of ASEE,IEEE, Eta Kappa Nu, and Tau Beta Pi.Professor Nick M. Safai has been the Chair of the Engineering Department at SLCC. He received his Ph.D.in Engineering from Princeton University in 1977, and Masters of Science in Aerospace and MechanicalEngineering in 1974, MSE in Civil Engineering in 1975, and MSE in Petroleum Reservoir Engineering in1975 all from Princeton University. He holds a B.S. in Mechanical Engineering from Michigan State in1972
. Shepherd, L.N. Hulley, D.T.W. Liang, Power Electronics and Motor Control, SecondEdition. Cambridge University Press. 1999.[6] Joseph Vithayathil, Power Electronics Principles and Applications, McGraw-Hill, 1995.[7] Duane Hanselman, Bruce Littlefield, Mastering Matlab 5, Prentice-Hall, 1998.[8] Stephen J. Chapman, Matlab Programming for Engineers, Brooks/Cole Thomson Learning,2000.[9] J.N. Ross, The Essence of Power Electronics, Prentice-Hall, 1997.[10] IEEE Standard 519.[11] Gordon W. Roberts, Adel S. Sedra, Spice, Second Edition, Oxford University Press, 1999.BRUNO OSORNO, is a professor of electrical and computer engineering at California StateUniversity Northridge. He is the lead faculty member in the Power Systems and PowerElectronics program