this activity. This person also identified as having a gender that is under-represented in the field of computing. Only one person wished to spend more time on thisactivity (question 6) and specifically stated:“I liked learning what people did with their careers because I have no clue what to do with mine.It gives me ideas! And hope!”Only two students specifically answered the open ended question each stating:“I thought the choice of contributors was good.” Assessing Weekly Computing Contributor Activity 5 4.4 Average Likert
. This is about the cost of a textbook. It is a device that the students would own throughout their entire undergraduate career, and have applications beyond that of a particular class. For instance, the device could be used as a multimeter, scope or a controller (using the digital I/O in conjunction with the analog I/O); providing a highly useful project tool (signal processor/controller) for any individual studying to become a scientist or engineer.EVALUATION The following research questions are currently being tested and evaluated in diversesituations in the Circuits (for majors), and Electronics & Instrumentation (for non-majors) coursesat each of the partnering schools to study the resulting impact on student
virtual systems enables students engaged in distance learning tomaster practical skills at any time and at any place. This paper presents an introduction to“Active Learning Suite (ALSuite)” software developed for interactive simulations and virtualexperiments, and discusses its application for Telecommunication (Fiber Optics and WirelessCommunications) Courses, for onsite, online and hybrid delivery modes.I. IntroductionTo achieve success in learning and in pursuing a successful career, a student in the 21st centuryneeds to attain proficiency in science, technology, and culture, in addition to the reading,writing and calculating skills. The Digital-age literacy requires students to gain understandingof information in all its forms: basic literacy
Foundation CAREER award in 2006. He is also a visiting scholar at the Berkeley Wireless Research Center for the 2012-13 academic year.Dr. andre knoesen, Department of Electrical and Computer Engineering, U C Davis Andr´e Knoesen received his B.Ing. degree in electronics engineering from the University of Pretoria, South Africa, in 1980 and the M.S.E.E. and Ph.D. degrees from the Georgia Institute of Technology, Atlanta, in 1982 and 1987, respectively. He joined the Department of Electrical Engineering, University of California, Davis, in 1987 where he is now a Professor. He performs research in biosensors, and materials for high-frequency electronic and optoelectronic applications. Dr. Knoesen is a fellow of the
members with guidance from theinstructor. It is obvious that students need to maintain positive interdependence15,16: studentsneed to rely on each other to complete the project and nobody can do this alone. This teachesthem the necessity of being a team player and the needs to keep learning from colleagues in theirfuture careers. If students know they are going to be held individually accountable, they wouldmake a serious effort to learn and contribute.As instructors, we have attempted to integrate an assessment driven learning approach to ensurestudents’ progress. Assessment is built into the lab execution. For example, with the assistance ofGTAs, students in a team are randomly picked to report progress, and explain design choices anddecisions
most benefit in terms of using the material later in their careers and so thesesomewhat esoteric topics were removed from the course. Based on one of the author’sexperience in teaching students at Montana State over the last eight years, and in following whatmany of the EE 433 students do after graduation, the most common tasks that align withpotential content for EE 433 include RF/microwave board layout, component selection, andcircuit-level and system-level calculations. It is interesting to note that not one student hasindicated that he/she is involved with distributed filter design. In place of the lectures devotedto the theory of distributed element filter design, time in lecture was opened for discussing thefundamentals of Doppler radar
Electrical and Computer EngineeringIn planning how the Department of Electrical and Computer Engineering (ECE) would meet therequirements of the University-wide, quality enhancement program (QEP), there was unanimousagreement that critical thinking is an important requirement to be successful within the electricalengineering profession. In an effort to help students become better critical thinkers andappreciate the importance of its practice throughout their education and careers, critical thinkingand engineering reasoning was implemented in several key courses throughout the ECEcurriculum. At the current time critical thinking instruction is formally incorporated into onesophomore level course, one junior level course, and two senior level courses
. 4.24 10 I think this course experience will be helpful for my future career. 4.13 * 5-Strongly agree, 4-Agree, 3-Neutral, 2-Disagree, 1-Strongly disagree Table 3. Exit Survey part I. 3ph Intro DC DC Ind. Ind. XFR cir- Lab Gen. M M Gen. cuit 1
2-level outcome and assessment metrics mapping supports precisely the kind of outcome-achievement analysis that ABETdesires. Accordingly, and perhaps because this methodology is easy to explain and interpret, we have achieved 100% compliance withour undergraduate teaching faculty.ABET requires many criteria be met for accreditation. Criterion 2 lists Program Educational Objectives that graduates are expected tofulfill during their professional careers. For example in computer science, Criterion 2.3 asks whether “Graduates have followed acareer path for which they have been trained either through suitable employment or graduate studies.” Alumni surveys are the standardway to get answers. However, contacting the companies and asking about USC
, and normally learned on the job. The best systemsthinkers become technical leads and managers in part because they become experts in systemsthinking as part of their professional and technical career growth. Systems thinking is in ourexperience often developed through informal mentoring, and is larger in its aims and scope than Page 22.1693.2systems engineering (as often executed, e.g., using trade studies involving several variables).Our definition includes the systems dynamics viewpoint and encompassing contexts, but alsoinvolves thinking about the design process in ways that (i) span traditional disciplinaryboundaries, (ii) integrate
course sequence thatwas introduced in the 2009-10 year.3. Course DevelopmentHistorically, the EAS 101 syllabus followed a traditional set of topics, such as problem solvingand data presentation. Rudimentary coverage of mechanical systems, electric circuits, fluidmechanics, thermodynamics, and statistics was provided. Other subjects included someprinciples of design, engineering economics, ethics, and a very short MATLAB tutorial. The CSprogramming course was devoted exclusively to teaching the fundamentals of computerprogramming, with UNIX serving as the development environment. These courses exhibited anumber of deficiencies for prospective ECE students: ● For those who were still undecided about engineering as a career path, the EAS and CS
all courses(e.g. Caucasian (74% and 64% respectively for the two Circuits classes; 78% Introduction toElectronics; 90% Electronic Instrumentation), Asian (13%; 20%; 12%; 5% respectively), andHispanic (4%; 11%; 5%; 5% respectively).19Similarly, evaluators have found successful use with students representing different stages ofcareer development. Those enrolled in Electric Circuits in the replication phase were primarily intheir second year while the courses in each transfer phase represented more advanced courses atRPI and generally served students at a higher level in their academic career. The majority ofstudents enrolled in the course in the context-transfer phase were third and fourth year studentsin mechanical or aeronautical engineering
. Page 22.1159.8As described in [6], other curricular modules examine the principles underlying ballistic motion, physicaland electrical resonance, and other dynamic phenomena.5. EvaluationOur expectation is that students who attend iMPaCT will have: Increased competency and confidence at ―computational thinking tasks‖ including programming and math concepts. Relevant experiences applying math applied towards problems that include computational thinking early enough to affect choices regarding academic major and career. Greater success in subsequent coursework that includes mathematics or quantitative reasoning.There is a growing body of evidence that these expectations are being met. This section briefly
institution in the United States has combined bothtechnologies to offer ECE undergraduate courses completely online. This new approachrepresents a major paradigm shift in the way higher education institutions should think whendelivering Electrical Engineering education. We hope that it will open the door to many studentswho are candidates for joining the science, technology, engineering and mathematics workforcesuch as, current and new personnel relocating to new military bases, mid-career employees, andex-military personnel because they typically require the opportunity to continue to earn a livingwhile pursing their education and are most often unable to relocate to college campuses for thetwo to three years required to complete the requisite
category of ”transatlantic professors” defining the role of academia in the global education and global engineering era and developing global innovation and tech- nology solutions. He was educated both in Poland and the former Soviet Union and has conducted his academic career in both the United States (University of New Hampshire, USA) and in Europe (France, Germany, Hungary, Poland, Russia, and Ukraine). His service has been with high tech industry, NGOs, ranging from the state level (National Infrastructure Institute) to a global level (NATO, United Nations Organization). He is a member of the Executive Committee (Innovation Chair) of the IEEE Computer So- ciety’s Design Automation Technical Committee. He chaired the
non-EE students who wish to learn more about electronics without having to digest extensive theory and math. • Gets students building circuits from the start, with little theoretical introduction. • Lets students experience early in their careers the non-idealities of real-world engineering, and demonstrates the utility of simple rule-of-thumb design. • Appears to have students complete the subject with a positive impression of engineering as a field of study. • Can be readily taught by a graduate student or an advanced undergraduate, enabling large numbers of students to take the subject without taxing a limited (and over-worked) faculty and staff.Its weaknesses include that it: • Is somewhat more
, and process real-world signalsprovides numerous benefits in classroom and laboratory settings. Furthermore, exposure to SDRis increasingly important for students wishing to pursue careers in the telecommunication,networking, and radar fields. An undergraduate laboratory can be outfitted with relatively high-performance SDRs at a reasonable cost.It was recently discovered that USB digital television tuners can be used as SDR receivers.Since this discovery, the tuners have been successfully used in a wide variety of applications. Ata cost less than $20 (USD), these so-called “RTL-SDR” devices set a new price point for SDRtechnology that is particularly attractive within an educational context.This paper presents the use of these low-cost SDRs
hands-on activities, and to enhance other forms of collaborative and active learning.Consistency in coverage had been a problem with this particular course, which is taught everyterm and has 8-9 sections of 45-50 students each. The instructors are senior PhD students, manyof whom are interested in academic careers. A survey of the instructors showed a largeinconsistency in coverage, upwards of 20% mismatch in topics between sections. High levels ofinconsistency across multiple sections of a course is not unusual even among experiencedinstructors when the syllabus is considered to be “packed with material.” Blending the coursewith all course lectures online and common homework and exams across all sections removesmost of the inconsistency across
perspectives and will consider the parallel option as asolution to problems that they want to solve. Some argued that it should be offered as a seniorlevel required course. The last option will be harder to implement at our program, as it wouldrequire elimination of another core course in the existing curriculum. We believe that parallelismand concurrency are fundamental topics in computer engineering and should permeate thecurriculum. By adding the concepts slowly as modules to existing courses, we hope to encourageand motivate more students to pursue parallel and distributive computing in the senior level andchoose it as a future career. In 2019, we obtained an internal grant from the college to helpfacilitate our efforts. The remaining of the paper
Lu is an assistant professor in the School of Electrical and Computer Engineering of Purdue University and (by courtesy) the Department of Computer Science. In 2004, he obtained an NSF Career Award for studying energy conservation by operating systems. He obtained Ph.D. from the Department of Electrical Engineering at Stanford University in 2002.David Meyer, Purdue University David G. Meyer has been very active in curriculum development, learning outcome assessment, design education, and use of instructional technology. He is currently responsible for creating, maintaining, and teaching the core ECE digital systems course sequence. He has written numerous papers on innovative uses of
institution. In 2004 he was awarded a (National) Tertiary Teaching Excellence Award in the Sustained Excellence in Teaching category and in 2005 he received the Australasian Association for Engineering Education award for excellence in Engineering Education in the Teaching and Learning category. Dr Rowe is a member of the IET, the IEEE, the Institution of Professional Engineers of New Zealand (IPENZ), ASEE, STLHE and AaeE.Elizabeth Godfrey, University of Auckland Dr Elizabeth Godfrey has just finished a 9 year term as the Associate Dean Undergraduate at the School of Engineering at the University of Auckland after a career that has included university lecturing, teaching and 10 years as an
AC 2009-608: THE ROBOT RACER CAPSTONE PROJECTJames Archibald, Brigham Young University James K. Archibald received the B.S. degree (summa cum laude) in mathematics from Brigham Young University, Provo, UT, in 1981, and the M.S. and Ph.D. degrees in computer science from the University of Washington, Seattle, in 1983 and 1987, respectively. Since 1987, he has been with the Department of Electrical and Computer Engineering, Brigham Young University. His current research interests include robotics and multiagent systems. Dr. Archibald is a member of the Association for Computing Machinery and the Phi Kappa Phi.Doran Wilde, Brigham Young University Dr. Wilde started his career as an electrical
disciplines (Chemical, Civil and Environmental,Electrical and Computer, and Mechanical) were started in 1995; the first undergraduateclass enrolled in 1996; the first engineering building was completed in 1998; and the firstgraduates left Rowan in 2000. Accreditation under ABET [14] Criteria 2000 was grantedto all four engineering programs in 2001. The opportunity to create new engineeringprograms is rare—most educators spend their careers making the best of incrementalcurriculum innovation at established institutions. There are many well-known problemssuch as those cataloged by the ASEE report, “Engineering for a Changing World” [24]. Itwas clear that engineering education needed to do a much better job of demonstrating therelevance of materials
Page 11.934.11IGVC, and to fulfill the senior design requirement for the students in our department. Theparticipation in this project gave students real life team work experience. They experienced theapplication of theoretical information in different areas of knowledge to solve real life problems.This experience could later be used in their professional careers to solve similar problems innumerous other applications. The potential of real-world autonomous devices being able tocontrol themselves is growing, and in some cases is very desirable.Throughout the process of designing and building the autonomous vehicles, the teamsencountered many problems and made some mistakes of their own and they had to be realizedand acted on accordingly. The
Security.” He is a recent recipient of the NSF CAREER award (2012), as well as the ISU award for Early Achievement in Teaching (2012) and the ECpE department’s Warren B. Boast undergraduate teaching award (2009, 2011, 2016).Dr. Mani Mina, Iowa State University Mani Mina is with the department of Industrial Design and Electrical and Computer Engineering at Iowa State University. He has been working on better understanding of students’ learning and aspects of tech- nological and engineering philosophy and literacy. In particular how such literacy and competency are reflected in curricular and student activities. His interests also include Design and Engineering, the human side of engineering, new ways of teaching
skills useful in engineering practice, such as the use of testand measurement equipment and certain software.One particularly useful skill set in electrical engineering, and for students interacting withelectrical equipment, is the use of electrical test and measurement equipment includingmultimeters, function generators, and oscilloscopes. Another skill valuable to a variety ofengineering disciplines is the ability to prototype and construct circuits3. Even if students don’tuse test and measurement equipment or prototyping in their future careers or senior designexperiences, it is valuable for these students to have an appreciation for how measurements areperformed to the limitations and sources of error associated with using equipment to
present our University’s efforts to contribute to this need by way of a hands-onactivity designed for high school students. The workshop was devised to achieve three primarygoals: 1) Encourage consideration of a career in electrical and computer engineering 2) Buildexcitement about the Internet-of-Things and provide students with a future technical focus and 3)Introduce students to the fundamental building blocks that make up the Internet-of-Things. Duringthis activity, students complete a project in which they first construct a circuit to read data from atemperature sensor using a microcontroller platform. The students then write software to transmitthat data over a short-range wireless network and then eventually to an Internet-connected
Arizona University, Flagstaff, AZ, USA, he was an Adjunct Professor in the Computer Science Electrical Engineering department at the University of Missouri – Kansas City. Before beginning his academic career, he spent 31 years in industry as a manager and software developer and consultant.Dr. Molly A. McVey, University of Kansas Dr. Molly A. McVey is a post-doctoral teaching fellow at the University of Kansas School of Engineering where she works with faculty to incorporate evidence-based and student-centered teaching methods, and to research the impacts of changes made to teaching on student learning and success. Dr. McVey earned her Ph.D in Mechanical Engineering from the University of Kansas.Christopher Patrick
to master these skills before they graduate. In addition, this upgrade aligns with the1The authors like to recognize Dr. Mohamed Rafiquzzaman from California State polytechnicUniversity-Pomona for his continuous support that was indispensable in producing this work.hands-on approach to teaching, and the ECE department’s mission to prepare students to begin aprofessional career or pursue a graduate degree.The advantages of Digital Oscilloscopes (DO) was discussed in [4], the author highlighted thecapabilities of DO to measure small signals, store waveforms, perform routine calibrations anddiagnostics, reduce noise, capture transient events, and perform mathematical operations. Theauthor used the DO to show infinite persistence diode Volt-Amp