AC 2007-2208: PREPARING AND ADVISING A FAST-TRACK EDUCATION INROBOTICSDavid Chang, USMA Major David J. Chang is an Assistant Professor at the US Military Academy, West Point, NY. His recent research has been on Coordinated & Sensing Robotics, Distributed & Autonomous Control Systems, and Network Vulnerability & Flexibility. Chang received his B.S. in Electrical Engineering from Drexel University and an M.S.E. and Ph.D. in Electrical and Systems Engineering from the University of Pennsylvania. Contact him at david.chang@usma.eduGrant Jacoby, USMA Lieutenant Colonel Grant A. Jacoby is a Senior Research Scientist and Assistant Professor at the US Military Academy, West Point, NY
. A completely new view isheld of what it is meant by learning and how it takes place.Is e-learning different from traditional teaching and learning? In e-learning, it is the learner, not the facilitator, who controls the learning pace andorder of learning experiences, and to a certain extent, the selection of which experiences area part of the course. Each learner may experience different learning outcomes through thesame curriculum. E-learning can take place when and where learners want it to, making iteasier to integrate learning with a definite procedure. However, e-learning is never morethan a mouse click from engaging or quitting. They can start or drop out at any moment.Web designers can never take the motivation of the learners
/interest in Engineering Education.• It gives me an opportunity to learn about best practices in other institutions It offers a forum for me to fraternize with people who share my passion for education and learning• Networking with like-minded faculty colleagues• To be informed about the current trends in engineering curriculum development. To learn about the new effective teaching techniques in engineering. To remain updated about the awards, fellowships, summer internships etc. available to students and faculty. General Benefits• To receive copies of PRISM to allow me to keep (somewhat) abreast of developments in Eng.• ASEE is the professional organization that represents the educational aspects of our collective
AC 2007-2466: E-HEALTH (DIGITAL HEALTH) AND SITUATION IN IT/ICTBENEFITSRamin Sadeghi, Power & Water University of Technology Ramin Sadeghi, Power and water University of Technology (PWUT) The author is in charge of distance learning program at the institution. He has developed a Web-based distance learning software program – Director for Distance Learning Center of PWUT.Saeid Moslehpour, University of Hartford SAEID MOSLEHPOUR is an Assistant Professor in the Electrical and Computer Engineering Department in the College of Engineering, Technology, and Architecture at the University of Hartford. He holds PhD from Iowa State University and BS MS and EdSp degrees from Central Missouri State
thepeople being served or to the teams themselves. What the instructors of the course realized is thata project of this nature requires more relaxed guidelines as far as the complexity of the project isconcerned. This does not mean that the course objectives are sacrificed, however. For example,many more complex prototypes that are developed tend to either just survive the testing phase ordevelop failures during the testing of the system requirements. Relaxing the complexity inallowing the design to largely become an integration of systems – combining elements that werepurchased along with the design of some other components, the engineering design that wasinvolved was not relaxed. What it did was to allow the team to spend less effort in
education in general, and those of the Middle East and the Arab Gulf States, in particular Page 12.92.1© American Society for Engineering Education, 2007 A Practitioner - Faculty Collaboration in Teaching Civil Engineering DesignAbstractTeaching civil engineering design through senior projects or capstone design courses, withindustry involvement and support, has increased in recent years. The general trend towardincreasing the design component in engineering curricula is part of an effort to better preparegraduates for engineering practice. While some design projects are still of the “made up
the Department Chairperson for Physics, Engineering, & Architecture and a member of the AAPT Committee on Physics in Two Year Colleges. His primary professional interest is in the integration of the findings of physics and engineering education research with education practice. Page 12.1426.1© American Society for Engineering Education, 2007 THE EVOLUTION OF THE EDGE PROGRAM IN ITS FOURTH YEARThis paper presents the results of the fourth iteration of the EDGE (Early Development ofGeneral Engineering) Summer Bridge Program that was initiated in 20031. This year the projectwas completely supported by a grant
, negotiated by the Senior VicePresident and Provost at the University of Dayton and his counterpart at Shanghai NormalUniversity, articulated the format of the program, admission requirements, tuition and fees, andthe responsibilities of each institution. It was agreed that an articulation be developed to transferstudents in two programs: Electronic Information Engineering at SNU to Electronic EngineeringTechnology at UD; and Mechanical Design, Manufacture & Automation at SNU toManufacturing Engineering Technology at UD. The agreement also indicated that “the twoparties will negotiate the curriculum offered…”Early in the curriculum development process, faculty at UD shared course outcomes and syllabiwith their counterparts at SNU. A short time
softwareorganization, thus providing the students with a taste of an implemented process.The model for an undergraduate software engineering curriculum proposed in D. J. Bagert et al.5proposes a list of nine software engineering courses that can be part of a Computer Science or aSoftware Engineering degree. The list includes a one-semester course on software qualityassurance but includes no guidelines or suggestions on how to teach the topic.Jaccheri et al.6 describe a software process improvement course in which the students are given adocumented quality manual that contains a general process model written in a formal softwareprocess modelling language and they have to perform improvement initiatives.Gannod et al.7 propose a list of four software engineering
’ performance on sciencestandardized exams as they progress through school.5,6 This suggests that the lower performance Page 12.1258.2of older students on these exams is due at least partially to a lack of interest in science.Several promising strategies have been developed by science educators in an effort to increasestudents’ interests and positive attitudes toward science. Schwartz-Bloom and Halpininvestigated the introduction of pharmacology topics into biology and chemistry curriculums andfound that this topic was of interest to students in both science areas and thus caused an increasein student learning.1 Their work builds on previous research
work independently or in small learning teamsas they acquire and integrating information in a process that resembles that of inquiry.Problem-solving learning has its roots in the medical school setting where small groupsof mature, motivated students work to solve very real-world problems. In this process,problems are defined and researched, and high levels of learning occur as they progressthrough the exploration, analysis and implementation cycle.Students soon see that learning is an ongoing process and that there will always be (evenfor the teacher) new learning issues to be explored. Because they learn concepts incontext, they are more likely to retain that knowledge and apply it appropriately in novelsituations.5 As they work through real
)Equations (28), (31), and (32) define the discrete electromagnetic system. This is not onlythe simplest discretization but also has some very nice properties. All the integralrelations and other theorems that are true of the continuum electric and magnetic fieldsare exactly true of this discretization, and can be proved using simple algebra. Forexample, adding up Equation (28) over a set of cells comprising a region of space givesthe integral form of the continuity equation, relating the sum of the charges in a region tothe sum of the discrete currents at its surface.The discrete electrodynamic system described above can be easily simulated on acomputer. The computation of electromagnetic fields is needed for an abundance ofeveryday applications
assessment of the studentlearning outcomes have been done using both a test prepared by the school and a standard testknown as the SSCI.The Signals and Systems Concept Inventory (SSCI) [2-3] is a set of multiple-choice questionsthat measures students’ understanding of fundamental concepts such as signal transformations,linearity, time-invariance, transforms, convolution, etc. There are two versions of the SSCI forLinear Systems. One deals with Continuous-Time (CT) systems and the other deals withDiscrete-Time (DT) systems.The paper is divided into six sections. In Section 2, we describe our Electrical Engineeringundergraduate curriculum. In Section 3, we describe the Linear Systems course contents. InSection 4, we discuss an assessment test used
studentwith a good basis for discussing sources of experimental uncertainty. We do not require a formalanalysis of experimental uncertainty since this is covered later in our curriculum, however, we dostrongly believe that it is important for students to begin developing an understanding ofexperimental uncertainty and ask them to comment on uncertainty in every lab write-up. Thesources of uncertainty in this lab include the accuracy of the spring scales, the accuracy of thelinear measurements, and the fact that we are ignoring the mass of the spring scales and chain. Page 12.151.8 12 T1y
an African beachhead and a prototype for regional capacity building, to build in gender equity at each stage of the process, and to design for scaling throughout Africa, based on stakeholder engagement. The innovation for engineering education consists of building and leveraging multi-stakeholder megacommunities focused on building sustainable capacity through engineering education through strategic co-leadership by the private sector. .I. Introduction – on capacity building, technology infrastructure and innovation The process of capacity building and the role of technology infrastructure and innovation is discussed more thoroughly in “HP University Relations: helping build engineering capacity in Latin America.” In her paper
engineeringprogram is in progress and has followed a four step process: • Develop program educational objectives, program outcomes, and the supporting curriculum. • Integrate program outcomes and curriculum. • Develop an assessment plan. • Develop an evaluation and improvement plan.Program Educational Objectives, Outcomes, CurriculumAs discussed earlier in this paper, the construction engineering proposal committeedeveloped the program educational objectives, program outcomes, and curriculum.Program constituencies were identified and consulted. The committee communicatedwith the university administration, faculty and students of the Construction Managementand Civil Engineering Technology departments, industry and professional
, 2006, San Diego, CA, 6 pp.9. Roselli RJ & Brophy, SP (2006) Experiences with formative assessment in engineering classrooms. Journal ofEngineering. Education, 95, 325-333.10. Slain, D, Abate, M, Hodges, BM, Stamatakis, MK, & Wolak, S. (2004) An interactive response system topromote active learning in the doctor of pharmacy curriculum. Am. J. Pharmaceutical Education. 68(5), pp. 1 – 9.AcknowledgementsThis work was supported primarily by the Engineering Research Centers program of theNational Science Foundation under grant EEC-9876363. Page 12.1567.14
not combined intoa single department that shared some courses, it is likely that the first programming courses incomputer science would use Java.Another major change in the computer science curriculum consists of the way in which thetechnical electives are structured and chosen. Upper level electives in the computer scienceprogram are structured such that they are open to both computer science students and tocomputer engineering students. This means that in general, the only prerequisite for thesecourses is the data structures course. In terms of which courses are offered, for example, itmeans that an advanced version of object oriented programming will probably not be offeredunless there is great enrollment in computer science since there is
involves an integrated three-step processincluding a discipline-specific pre-lab activity, general/customized information literacyinstruction, and communication skills development. This paper describes how thecollaborating team has learned from each other’s reflections to make the assignment ameaningful learning experience.Librarians and faculty have been traversing on parallel paths during the past few decades.The rapid explosion of technological integration into nearly every aspect of daily life hasmerged the separate paths into one. Writing centers and libraries recognize their roles ascenters of learning and the importance of collaboration.1 Librarians, writing center staffand faculty must now travel in tandem in order to prepare students to
the program grows will ultimately be a function of programassessment and funding. Parallel efforts will include curricula design incorporating the newMichigan Merit Core Curriculum.IV. Integrating an Enterprise Model into the High School CurriculumThe pilot will begin as an extracurricular program, however for this initiative to be successful inthe long term it needs to help students meet the state graduation requirements developed inresponse to the Cherry Commission. The new Michigan Merit Core Curriculum establishes arigorous set of graduation requirements that are among the best in the nation. The requirementswere created to prepare students with the skills and knowledge needed to meet the demands ofthe 21st Century global economy.The
student may have difficulty understanding what a mathematical solution to a problem 2means from a practical point of view. If students are provided with the means to performexperimentation and to apply the theory to real world situations, this can only be expected to leadto a better visualization and understanding of the theoretical concepts. The simulation systemdiscussed here presents an attempt of integrating Web-based content and interactive multimediatechniques into the curriculum. The integrated platform provides an easy flow of data fromtheory to modeling and measurement, bridging the gap between theory and hands-on learning, asshown in Figure 1. It greatly enhances the students’ understanding
members played an integral part in the development of this advanced manufacturing program. Curriculum is based on program competencies and program outcomes established and approved by key executives, managers and engineers from local manufacturing firms. SDCC MFET industry advisory board consists of executives, managers and engineers from Goodrich Aerostructures, Delta Design, Kyocera, Sony, Jabil Circuit, Northrop Grumman, Raytheon, Remec, Nokia, Solar Turbines, NASSCO, GKN Chem-Tronics and Johnson Matthey. The board has been assisting the Engineering and Technologies Department with program advertisement at their own companies. For example, Goodrich Aerostructures and GKN Chem-Tronics have published
) Department at EWUwere determined to bring this practical dimension of engineering education into the classroom.Utilizing a combined total of over 50 years of industrial experience to draw from, actual andrealistic problems were incorporated into every aspect of the coursework. Instead of usingstandard textbook exercises, problems and their associated constraints are drawn from theirprevious industrial experience in order to reflect more accurately exactly how engineers functionon the job. These practical problem solving projects challenge students to perform like practicingengineers as an integral part of their learning experience. The end result is a greatly enhancedreal world aspect of their education, while preparing them for their eventual
AC 2007-1330: BUILDING A MODERN POWER ELECTRONICS AND ELECTRICMACHINES LABORATORYKe Chen, Cleveland State University Ke Chen received BS degree from Tsinghua University, Beijing, China. He is currently a master student in Electrical and Computer Engineering Department at Cleveland State University.Ana Stankovic, Cleveland State University Dr. Ana V. Stankovic received BS, MS and PhD degrees from the University of Belgrade, Serbia and University of Wisconsin-Madison. She is currently an Associate Professor in Electrical and Computer Engineering Department at Cleveland State University. Her expertise is power electronics and electric machines and drives
Jack Purdum is currently an assistant professor in the Computer Technology department at Purdue University. He is the author of 14 programming texts and has research interests in methods in computer language education, image processing, and mobile computing. Dr. Purdum was also the CEO of a company that produced compilers, editor, assemblers, linkers, and other programming tools as well as a statistics package. Page 12.472.1© American Society for Engineering Education, 2007 Designing curricula to teach concepts and increase employabilityAbstractThe software development curriculum in the Computer
asa $100 kit. The kit includes supervisory software written in Visual Basic that allows students tocommunicate with the board via the left and right channels of the Line-In port on a computersound card. Generally speaking, the functionality and resources on this board are restricted whenone considers broad use in an EE curriculum. For example, if a professor were to assign studentsthe task of building an audio filter comprised of a cascade of active filters, the breadboard wouldnot provide enough space. Additionally, for circuit theory and signals & systems courses, EEstudents would need access to an array of input waveforms in addition to audio, includingperiodic sine, square, and triangle waveforms. Because of the importance that modern
. The intensity of activities above indicates a need to interest secondary schoolstudents with STEM curriculum. With keen interest in introducing and energizing secondaryschool students to STEM curriculum, the authors (we), together with local secondary schoolteachers, evaluated the typical high school curriculum and found that while Science, Technology,and Mathematics (STM) were widely taught, Engineering was mostly absent in the curriculum.We also noted that engineering was the subject matter that brought STM to life throughapplication of the knowledge gained. After several discussions, the authors selectedMechatronics as an avenue for cultivating interest in STEM and maintaining it during highschool and post high school years because of its
analysis. “Because so many different designs and approaches exist to solving aproblem, a designer is required to be systematic or else face the prospect of wandering endlesslyin search of a solution” (p. 91). 10ConstraintsThe design processes utilized in engineering and technology education are very similar withsome notable exceptions. Lewis has suggested that engineering design places more emphasis onassessing constraints, trade-offs, and utilizing predictive analysis compared to technologyeducation. 1 The importance of constraints is, however, included in the Standards forTechnological Literacy: Content for the Study of Technology. 10 In Standard Eight, constraintsare viewed as an integral part of an iterative process that typically requires
was easy to replicate in an academic department. Componentswere cheap and the design skills were well-suited to undergraduate teaching in anyElectronics Technology department. However, electronics in that form has effectivelydisappeared so the provocative question is, “how have the discipline skills being taught inhigher education institutions changed to match the new generation of job requirements?”The technology change has been driven by the effects of increasing integration ofelectronic functions on silicon. The inexorable progress of Moore’s law 1 has allowed arelatively small number of companies around the world to produce powerful electronicfunctions that deliver super-computer performance on a single chip. The product is alsodelivered
drafting and design.Optimally, the program will take the input gathered from employers and use thatinformation to refine the program into a seamlessly integrated process where the studentis challenged in every course to rise to the highest level of performance in a real-worldscenario based curriculum. Typically, the problems presented to employees in the real Page 12.1538.6world are ill structured problems with multiple unknown variable and no clearprototypical solutions. Jonassen (2000), in dealing with designing instruction for illstructured problems recommends a systematic approach to designing instruction in thisparticular case. First, begin with