undergraduate program in Computational Mathematics hasbeen recently approved. The trend seems to be that most of the students wishing to pursue thedegree program are engineering students interested in pursuing a dual major. The challengesfaced by the department are 1) to offer these dual majors an integrated curriculum that wouldtake advantage of their engineering background and 2) to offer a curriculum which will enablethem to complete the degree within one additional year without compromising the integrity ofthe program. In this paper, the authors discuss in detail their Computational Mathematicscurriculum and the modification of the curriculum for the dual majors.IntroductionComputational Mathematics is a multidisciplinary field that applies the
Paper ID #32762What Strategies do Diverse Women in Engineering Use to Cope withSituational Hidden Curriculum?Dr. Victoria Beth Sellers, University of Florida Dr. Victoria Sellers is a postdoctoral research associate in the Department of Engineering Education at the University of Florida. Her current research is focused on determining how engineering students respond to hidden curriculum. Victoria has previously served as an editorial assistant to the Journal of Women and Minorities in Science and Engineering, as well as the communications intern for the Journal of Engineering Education. Victoria received a PhD in
solve problems appropriateto civil engineering. At NAU, an introduction to materials science is integrated into theprogram's required one hour CENE 253L Mechanics of Materials laboratory. Two additionalrequired courses in the curriculum, CENE 253 Mechanics of Materials and CENE 438Reinforced Concrete Design require students to use specific materials science knowledge. Thisintroduction with the limited application in two courses will not adequately prepare students toachieve this outcome at the specified LOA.Outcome 10 Sustainability: Apply the principles of sustainability to the design of traditional andemergent engineering systems. Civil engineering students at NAU are introduced to theprinciples of sustainability in their required CENE 150
communication skills, project management, as well as overview lectures on major technical and non-technical disciplines.2. Creation of a large, interdisciplinary undergraduate laboratory, used by students from many disciplines to plan a variety of engineering experiments in a common space.3. Use of laptop computers as design tools that are integrated into the Engineering courses.I. IntroductionOur world is becoming ever more complex. It is no longer possible to cope by relying onexpertise from a single discipline. Concurrent Engineering is now a practice used throughoutindustry, and its participants are expected to be able to work in an inter-disciplinary environment.A second trend is the renewed emphasis on design, as opposed to analysis, in
selective CdTe deposition on patterned CdTe(111), Si(100), Si(211) and SOI substrates using a conventional close-spaced sublimation (CSS) technique for applications related to solar cells and infrared detectors. Her educational activities include an NSF funded Course Curriculum Laboratory Improvement grant to develop an Applied Quantum Mechanics Course for Electrical Engineers in addition to collaborations with Purdue University on an NSF Network for Computational Nanotechnology grant to develop educational materials associated with the simulation of semiconductor devices using the NanoHUB.org website.Benjamin C. Flores, University of Texas, El Paso Dr. Benjamin C. Flores joined the faculty of the University of Texas at
AC 2008-392: READING, WRITING - ENERGY: AN NSF CCLI PROJECT TOENHANCE A FRESHMAN CORE CURRICULUM NATURAL SCIENCE COURSEChristine Ehlig-Economides, Texas A&M University Christine Ehlig-Economides is a full professor of Petroleum Engineering at Texas A&M University. She worked for 20 years for Schlumberger in the oil industry in more than 30 countries. Dr. Ehlig-Economides has a B.A. in Math-Science from Rice University, an M.S. in Chemical Engineering from the University of Kansas, and a Ph.D. from Stanford University in Petroleum Engineering. She is currently developing education and research programs in energy sustainability. She was elected to the National Academy of
transferring to the Department of Engineering & Design at Eastern Washington University. His interest include image and video processing, communication systems, digital signal processing, and cryptographic theory and applications.Claudio Talarico, Eastern Washington University CLAUDIO TALARICO received his Ph.D. in the University of Hawaii at Manoa in Electrical Engineering. He is currently an Assistant Professor of Electrical Engineering at Eastern Washington University. His research interests include design methodologies for integrated circuits and systems and complex systems-on-chips.David Freiberger, Eastern Washington University DAVID FREIBERGER is an undergraduate student in Electrical
ultraviolet (EUV) lithography, etc. Entanglement-enhanced lithography is also insight.Knowledge of quantum physics is essential in modern communication technologies. Quantumwell (QW) devices provide such an example. QW devices feature very thin epitaxial layers ofsemiconductor materials that are grown using techniques like molecular beam epitaxy. Thesedevices can be integrated with various optoelectronic devices to provide photonic integratedcircuits with increased functionality. They are widely used in lasers, photodetectors, modulators,and switches. QW also operates much faster with much less manufacturing costs. Theseadvantages are of great importance to the telecommunication and computer industry. QWsemiconductor lasers have also become the key
several years, microcontrollers have been an integral part of the electricaland computer engineering curriculum at the U.S. Air Force Academy. In fact, fifty percent ofour junior/senior level computer systems courses have used Motorola’s 68HC11 exclusivelyeither in conjunction with an evaluation board or as a single, stand-alone controller. We arecurrently in the process of migrating from the 68HC11 to the 68HC12 within our computersystems courses. This paper describes the rationale for the transition, the preparation stepsrequired, the implementation issues we faced, the results of the transition as viewed by facultymembers and cadets, and lessons learned from the experience.IntroductionAfter the advent of the Motorola 68HC11 microcontroller in
require 128 semester hours. • There shall be a set of common core courses that enables students to enroll in engineering with an undeclared major and to change majors without loss of credit through the end of the third semester. • To ensure education beyond technology, provide flexibility for students to develop thematic options, and complement the technical content of the curriculum, all programs shall have a pool of 36 semester hours of elective courses. The student’s portfolio and plan of study guide the selection of appropriate electives. The electives are used to fulfill two College Page 8.45.2
2006-1042: DEVELOPING AN ENGINEERING EDUCATION RESEARCHCOMMUNITY OF PRACTICE THROUGH A STRUCTURED WORKSHOPCURRICULUMMaura Borrego, Virginia Tech MAURA BORREGO is an assistant professor of Engineering Education at Virginia Tech. Dr. Borrego holds an M.S. and Ph.D. in Materials Science and Engineering from Stanford University. Her current research interests center around interdisciplinary collaboration in engineering education, including studies of the collaborative relationships between engineers and education researchers and how engineering faculty learn educational research methods.Ruth Streveler, Colorado School of Mines RUTH A. STREVELER is the Director of the Center for Engineering Education
Session 1149 Build It and Will They Come? Refurbishing and Restoring an ECET Curriculum Professors Peter Schuyler and Tom Eppes University of HartfordAbstractSince the 1990’s, nationwide enrollment in engineering technology programs has been declining.It has become increasing difficult to attract and retain students. A number of reasons have beenattributed to this trend including; outdated curricula, loss of manufacturing jobs, off-shoring ofjobs and a weak economy. As a result, competition to enroll students interested in theseprograms is
AC 2008-959: ENRICHING A CURRICULUM WITH LOCAL CONTENTWillie Ofosu, Pennsylvania State University - Wilkes-Barre Dr. Willie K. Ofosu is an Associate Professor of Electrical Engineering Technology at Pennsylvania State University. He teaches telecommunications, wireless systems, computer networking, optoelectronics and analog and digital electronics at the Wilkes-Barre campus. He is a member of ASEE, IEEE, IET (England) and a Chartered Engineer (CEng) of England. He is currently involved in international activities in cooperation with some faculty members at Kwame Nkrumah University of Science and Technology in Ghana. He is an advocate of diversity in the education field. Dr
Paper ID #21715Implementing a Course-based Undergraduate Research Experience (CURE)into an IE CurriculumMs. Leslie Potter, Iowa State University Leslie Potter is a Senior Lecturer and Co-Chair of the Undergraduate Research Program in the Industrial and Manufacturing Systems Engineering Department at Iowa State University. She currently teaches courses on information engineering, programming, and process improvements. Her research interests include the impact of undergraduate research, engineering and professional skill integration, and teaching effectiveness.Dr. Richard Stone, Iowa State University Richard T. Stone PhD
engineering colleagues are rarelyaware of this conceptual integration. Consequently undeclared, incomplete or conflictingperspectives tend to inhibit the acceptance of the concept of an inclusive curriculum and henceits implementation in the engineering curriculum. If and when some consensus is reached as toits desirability and applicability in engineering, a second difficulty arises: how can the Page 7.177.3characteristics of an inclusive curriculum be incorporated into engineering programs? Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American
. student at the University of Central Florida. She has recently participated as a graduate research assistant on the NSF grant to reengineer the IE curriculum at UCF.Lesia Crumpton-Young, University of Central Florida Lesia Crumpton-Young, Ph.D. is a Professor in the Industrial Engineering and Management Systems Department at the University of Central Florida. Her research interests are Ergonomics and Human Factors Engineering.Luis Rabelo, University of Central Florida Luis Rabelo, Ph.D. is an Associate Professor in the Industrial Engineering and Management Systems Department at the University of Central Florida. His research interests are Engineering Management and Information
2006-563: THE EVOLUTION OF A TECHNICAL CURRICULUMRon McKean, Ferris State University Ron McKean – Is serving as Interim Associate Dean / Associate Professor in the College of Technology at Ferris State University (Big Rapids, MI). His academic experience includes 15 years as faculty (four as Department Chair) in the EET & CNS department. During this time, he has championed several curriculum initiatives including the BS Computer Networks and Systems. Prior to academics, he worked 14 years as an Electrical Engineer, Engineering Technical Manager, and Principle Investigator/Project Engineer. He holds a MSEE from the University of Michigan
Clarkson Project-Based Learning Partnership ProgramAt the beginning of the year, the students were posed with a problem statement: Too much solidwaste generated in the school cafeteria is sent to a landfill. Wording of the problem we posedwas critical in order to guide the students in the direction we wanted to go. Composting becamean obvious solution for biodegradable wastes, while non-biodegradable materials wereincorporated into concrete. These solutions provided the students with an understanding thatthey can reduce solid waste, as well as providing a topic that can be integrated into their requiredcore curriculum. Over the course of the year, the students learned about solid waste, the scienceof composting and concrete, built and used compost
and Depar tment of Electr onics and Computer Engineer ing TechnologyAbstr actThe Microelectronics Laboratory Curriculum development, for both associate and bachelordegrees, is a project between Arizona State University East (ASU East), three communitycolleges in the Maricopa Community College District, and Maricopa AdvancedTechnology Education Center (MATEC) and is funded by the National ScienceFoundation. This paper describes a model curriculum development strategy to create user-friendly material for students and the instructor. The development team consists of facultyfrom community colleges, ASU East and industry subject matter experts (SMEs). Tomaximize the efficiency of the development team an Online Authoring Tool is
Paper ID #26981Science and Engineering Courses, Theory and Practice; An ExampleDr. S. ”Hossein” Mousavinezhad P.E., Idaho State University Dr. Mousavinezhad was the principal investigator of the National Science Foundation’s research grant, National Wireless Research Collaboration Symposium 2014; he has published a book (with Dr. Hu of University of North Dakota) on mobile computing in 2013. Professor Mousavinezhad is an active mem- ber of IEEE and ASEE having chaired sessions in national and regional conferences. He has been an ABET Program Evaluator for Electrical Engineering and Computer Engineering as well as
learning of control-systems concepts.Future plans include the development of a Digital Control Systems Laboratory course, using theGyroscope unit in an Aerospace Digital Flight Control course and in advanced graduate courses.We also hope to integrate the MAE and ECE undergraduate control-systems courses for a fullmultidisciplinary experience. We believe that the intermingled perspectives of two disciplineswill lead to better-rounded learning.AcknowledgementThis laboratory was made possible and this work was supported in part by the National ScienceFoundation under grant DUE–981009. Also special thanks to Ali Pak from ECP, and both NickCostescu and Darren Dawson from QRTS for helping to design an affordable system; for emailand telephone support
to promote higher-level thinking skills and improve retention. For the project, incoming freshman will be given a plot of undeveloped land that, by the time they graduate, will be turned into a blueprint for certain segments of the city (time constraints prevent the design of an entire city). Design tasks include all facets of the traditional civil engineering program, such as site planning and layout, sewer and water infrastructure, water supply, wastewater treatment, buildings, transportation systems, channel design, floodplain analysis, and geotechnical work. A common, four-year design project unifies the curriculum and allows material learned in early courses to carry forward, unlike
products and services, e-production iscentered on the actual creation of goods and commodities. The availability of differentprototyping systems at each of the three partner schools, all connected via the internet, are givingstudents first hand experience in how technologies can be utilized to speed product developmentand production while providing a contextual learning environment which will facilitate theacquisition of relevant skills.There are three major institutions involved in this project: Saddleback College, San Diego CityCollege, and California State University, Los Angeles. Each school plays an integral part of theproject. Through the leadership of the Principal Investigator Ken Patton, the Dean of BusinessScience, Vocational Education
FUTURE DIRECTIONSMechanical Engineering curriculum. Some of the results from The biggest limitation in the current implementation of thisthis survey are presented in Figure 5. Four of the students course is the lack of open-ended design problems. Whilestrongly agreed that the course increased their level of students currently get a lot of practice with analyzing thepreparedness for becoming an engineer, while one agreed and kinematics and kinetics of mechanisms, they do not see manyone was neutral. I think this is a very positive outcome, seeing problems which task them with designing a system to produceas Mechanisms is a rather difficult course. I believe confidence desired results. The only
Session 15470 Modernization of an Aircraft Maintenance Curriculum: Measuring up to the TAC of ABET Aaron R. Cowin, Terrence K. Kelly Parks College of Engineering and Aviation Saint Louis UniversityAbstractThe Department of Aerospace Technology at Parks College of Engineering and Aviation, SaintLouis University has offered a Bachelor of Science Degree in Aeronautics with a concentration inAircraft Maintenance Engineering since 1949.1,2 The degree was developed in an era when aircraftmanufacturing was in its infancy and
one of its periodic curriculum reviews. In that review, its alumni in engineering andmanagement professions expressed that ABE graduates needed better skills in measurementinstrumentation and data acquisition. As a response to the alumni feedback, and to the emergingfield of precision agriculture, the Department started a course entitled Instrumentation and DataAcquisition in the fall semester of 1998. The course contents were selected from topicsrecommended by engineers practicing in industry, taking into consideration the materialsoffered in similar courses at other universities 1. In 2000, the Department further refined thecourse contents to ensure compliance with the ABET 2000 criteria, which stressed an assessmentof the course based on
1 Development of an undergraduate bioengineering curriculum that mirrors the breadth of the field Ruth Ochia, Ph.D., P.E. Department of Bioengineering, Temple University, Philadelphia, PA of areas of concentration, this curriculum set up might be moreAbstract—Temple University’s Bioengineering undergraduate difficult.program was launched in Fall 2013 and initially comprised a The purpose of
the model (Figure 7), represents curriculum design, whichincludes the course structure and content. This bar carries the two outcomes to students and linksthe goals to the framework. A strong curriculum that integrates all the previous factors well, isrequired for any successful engineering education.On a student’s perspective, an effective design-based curriculum involves a strong integration ofengineering theory and provision of context, as they are discussed in this model. It is difficult tolearn abstract concepts, especially within the first few years of study, when the rationale isunclear. The authors propose that the curriculums should further involve focus on developingappreciation and rehearsal of the engineering practice. Students
AC 2009-646: AN APPROACH TO SELECTING EFFECTIVE PROJECTS FORENGINEERING COMPUTER GRAPHICSClaude Villiers, Florida Gulf Coast University CLAUDE VILLIERS is an Assistant Professor of Civil Engineering at Florida Gulf Coast University. He received his Ph.D. in Civil Engineering with a concentration in Materials and Construction from the University of Florida in 2004. Previously Dr. Villiers was an Assistant Professor at The City College of New York. Prior to this position, he was employed by the Florida Department of Transportation (FDOT) as a research engineer. Dr. Villiers also was employed by The University of Florida and worked on several projects sponsored by the FDOT and the
Paper ID #20251The Impact of Veterans and Curriculum Heterogeneity on Online GraduateEngineering Program Performance: An Empirical StudyDr. Douglas Moore Schutz, Tokyo University of Science Douglas M. Schutz is an Associate Professor of Information Systems, International Business, and Man- agement at the Tokyo University of Science in Japan. He received a Ph.D. in Business Administration focusing on Management Information Systems (MIS) from the Fox School of Business of Temple Uni- versity at Philadelphia, an MBA in Information Management from the McCombs School of Business of the University of Texas at Austin, and a B.S