that produces the interrupts required fortiming and running your model, either on our hardware target or on a simulator 8. Figure 2. Student experiment on the lab Page 12.943.43. Lab ContentsWeekly laboratory assignments are provided enhancement on Discrete time signal and systemlab. A brief description of the some topics covered and the use of exercises are given below.3.1 Analog/Digital ConversionIn many continuous time signal applications, it is getting more attractive to convert a continuous-time signal into a digital-time signal. Sampling and quantization determine the accuracy of thedigital signal. The ideal
Laboratory (see subject’s wrist)Student Questionnaire Responses The students who participated in the program were given a short questionnaire atthe beginning of the program to assess their level of education and experience and todetermine their reasons for participating in the program. Of the seven students whoattended high school in the US and did not have any engineering courses at Texas Tech,four had completed calculus in high school, two were on track to complete calculus intheir senior year, one completed pre-calculus, and three had some experience inprogramming C++. When asked what attracted them to engineering, students typically Page
tostart from any location on campus say “market place”. Then the wheelchair wouldessentially navigate straight to the door step of the campus market place.Usually, implementing GPS guidance on many robotic devices takes a considerable Page 13.1144.5amount of time because there is a significant amount of trial and error involved. Thetrials must also be conducted outside of the laboratory and therefore, takes up even moretime than usual. The reason is due to the fact that GPS signals can not travel throughbuildings and walls. They are only best with a clear view of the sky.GPS NavigationThe purpose of GPS navigation is to allow motion after giving a single
lecture and directed problem solving session combination helped me prepare for exams. 4. The on-line lecture and directed problem solving session combination helped me prepare for the laboratory experiments. 5. I would choose the on-line lecture and directed problem solving session combination in another ECE course (if available). 6. I would prefer only a live (traditional) lecture over the on-line lecture and directed problem solving session combination for this course. 7. I enjoyed learning course material in the directed problem solving format. 8. Having a choice of course delivery options enhanced my ability to learn. 9. The directed problem solving sessions enhanced my learning experience.10. I
AC 2009-1425: VIRTUALIZING FIRST FOR IMPROVED RECRUITMENT OFSTUDENTS IN COMPUTER SCIENCE AND ENGINEERINGJohn Bowles, University of South Carolina John Bowles is an Associate Professor in the Computer Science and Engineering Department at the University of South Carolina where he teaches and does research in reliable system design. Previously he was employed by NCR Corporation and Bell Laboratories. He has a BS in Engineering Science from the University of Virginia, an MS in Applied Mathematics from the University of Michigan, and a Ph.D. in Computer Science from Rutgers University.Caitlin Buchhaults, University of South Carolina Caitlin Buckhaults is an undergraduate student majoring in Computer
assisted to define their ProgramEducational Objectives (Criterion 2) and Program Outcomes (Criterion 3). This enabled eachprogram to develop or re-define its mission statement, to develop outcomes based course syllabi,and to map the outcomes to program educational objectives. Additionally, this led to an ABETEC 2000 Mock Visit. The objectives of the Mock Visit were to visit the laboratory facilities,conduct interviews with faculty and students, evaluate the first draft of the individual EC 2000self-study reports, and to offer candid comments and recommendations to incorporate assessmentand continuous quality improvements within the programs. The results from the Mock Visit werean eye-opener for many of faculty and provided the vital external
where different groups of students doing laboratory work submitting identicalreports or individual students handing up a report written in a previous year by a group ofstudents as their own work for assessment are not uncommon.Figures 2 and 3 should illustrate this misdeed. Students, working in groups of three in computerhardware course were given the task to write an algorithm for bubble sorting. Surprisingly, bothgroups have submitted identical reports with identical algorithms and identical errors. The onlydifference was that one group had compiled a code whereas the other group submitted an imageof the code! Page 14.435.4B. 2. Bubble Sort
specialization. An ideal scenario would be to have 4 introductory courses in year 1 that covers all the courses indicated in Level 1. ≠ Year 2: Emphasis in year 2 is more on design. Courses that can foster this capability in the students are considered, as can be seen in the some mentioned courses at level L2 under each category. Additionally, one suggestion is if only 2 courses were offered in year 1 then courses from the other two categories should be offered from level 1. To realize the objective of design, laboratory courses can be considered which provides the necessary exposure to students to the relevant tools and methodology. ≠ Year 3: Learning objective in year 3 is on equipping the
2006-33: PROBABILITY AND IMAGE ENHANCEMENTMaurice Aburdene, Bucknell University MAURICE F. ABURDENE is the T. Jefferson Miers Professor of Electrical Engineering and Professor of Computer Science at Bucknell University. He has taught at Swarthmore College, the State University of New York at Oswego, and the University of Connecticut. His research areas include, parallel algorithms, simulation of dynamic systems, distributed algorithms, computer communication networks, control systems, computer-assisted laboratories, and signal processing.Thomas Goodman, Bucknell University THOMAS J. GOODMAN earned his B.S. degree in electrical engineering from Bucknell University and is currently pursuing a
recording of the entire AM radio band, so the students could see that in orderto tune in a particular station, the receiver must isolate one of the stations and demodulate it.When teaching frequency hopping systems, it would be interesting to examine the signal from afrequency hopping system such as Bluetooth to witness the signal jumping from one frequencyto another. In teaching software-defined radio, it would be interesting to test receivers with realRF signals instead of simulated ones.There are advantages in having the students work with real signals in laboratory courses[1,2,3].But for those students without access to the expensive test equipment or the time to set up theexperiments, a database may be the only way to get access to a wide
of required software does not tell the whole story for computer engineering. Acomputer engineering degree is not an electrical engineering degree with a minor in computerscience. There are differences in the hardware courses and the courses that mix hardware andsoftware between electrical and computer engineering. Likewise, many programs teachhardware and software to computer engineering students by way of laboratory projects andexperiments. We have made no attempt to distinguish computer engineering courses in this areaand we leave this to future studies.References1. http://www.abet.org/ABET2. "Computer Engineering Curricula 2016" was issued by the Joint Task Group on Computer Engineering Curricula from the Association for Computing
reworking of the circuit. A preferred method is to simulate the circuit usingsoftware to identify problems and then simulate the corrected circuit until most errors are fixed. Nosimulation is perfect, so testing of the final hardware is still necessary, but simulation can findmany of the errors. (f)-LabVIEW For digital courses LabVIEW [2] could be used. LabVIEW is an acronym name for Laboratory Virtual Instrumentation Engineering Workbench. It is a graphical developments system designed by National Instruments. It is used in many industries. It can be used for data acquisition, machine control, instrument, and a wide variety of other applications. The use of LabVIEW reduces development time for a design. LabVIEW provides engineers with the tools
Proceedings, Austin, TX, 2009.[13] L. Head, “Signals, Systems, and Music: General Education for an IntegratedCurriculum,” ASEE Annual Conference Proceedings, Vancouver, BC, 2011.[14] A. Sathyanarayanan Rao, J. Fan, C. Brame, B. Landman, “Improving ConceptualUnderstanding of Signals and Systems in Undergraduate Engineering Students UsingCollaborative In-Class Laboratory Exercises,” ASEE Annual Conference Proceedings,Indianapolis, IN, 2014.[15] B. Verdin, R. Von Borries, P. Nava, A. Butler, “An Experiment to Enhance Signalsand Systems Learning by Using Technology Based Teaching Strategies,” ASEE AnnualConference Proceedings, Indianapolis, IN, 2014.[16] B. Ferri, A. Ferri, K. Connor, “BYOE: Mobile Experiment for Signals and Systems– Analysis of a Guitar
coursesincluded in the cyberphysical-systems certificate is a digital hardware design course. The focus ofthe digital hardware design course is to teach the usage and implementation of digital systems andalgorithms onto field-programmable gate arrays (FPGAs); semiconductor devices containing amatrix of reconfigurable logic blocks connected together that can be reprogrammed to any desiredfunction post-manufacturing. This course has been taught, until recently, in a traditionallecture-based manner with periodic hands-on projects and laboratory exercises. The course wasrecently flipped [1], featuring many new active-learning techniques and overhauled laboratoryexercises. To satisfy the new cyberphysical systems security certificate requirements
for future engineers are their self-belief and resolve to utilize the skills they learn during courses, laboratories, and projects throughthe curriculum. An important element of measuring effectiveness of engineering education,therefore, is to assess the impact of content delivery methodologies on the resolve and self-beliefof the students as they progress through various courses during the curriculum [7].A very important subject in undergraduate engineering curriculum is engineering modeling anddesign. Success in engineering career largely depends on thorough understanding of engineeringdesign process from problem definition to prototype development, dissemination of results, anddesign review.The engineering modeling and design curriculum
sources like thesolar cells, and basic power electronic circuits. A typical day in the camp starts with an hour-longlecture by a faculty member, followed by hands-on learning in the lab under the supervision ofgraduate student instructors. The laboratory activities are designed to demonstrate the practicalaspects of the concepts learned in the lecture as well as exposing students to the complexity ofelectrical engineering problems. Some of the lab-activities are tracking the maximum power pointfor a solar cell using a resistor kit, manipulating electrical switches to control light bulbs, energystorage design with ultra-capacitors. This year as part of one of the design activities of the camp,the students were familiarized with the concepts of
Communication,Data Communication, Digital Image Processing, and Renewable Energy Systems. Our currentcurriculum includes, in the junior year, a series of laboratory experiences with emphases inCircuits (Fall Quarter), Electronics (Winter Quarter), and Signals and Systems (Spring Quarter).This lab sequence is designed to equip students with skills necessary to successfully complete ayear-long junior design project that has a unique theme each year; we aim to design an IoT-themed project for AY 2018-2019. Through the proposed initiative, we foresee that ECEstudents will encounter an IoT-enhanced course at least thrice per year, throughout theirundergraduate program. Based on prior enrollment data, this translates into an average cohortsize of 140
documented a communication protocol for transmitting GPS location information and device status to the backend server. • (k) An ability to use the techniques, skills, and modern engineering tools necessary for engineering practice – Throughout the design and development process the GPS tracking device team made use of a variety of engineering tools and techniques. They utilized the Kinetis Software Development Kit (SDK) and hardware development kit to develop the initial software. Schematic capture and PCB layout tools were also incorporated. Testing and debugging of the custom PCB was done using standard laboratory equipment such as multi-meters and oscilloscopes.Based on rubrics for each
the microcontroller board. While assembly coding is important to learn thehardware intimately, the higher level C language is more productive in terms of development costs,and also C is less error-prone. Students find that the embedded course is rigorous and challengingthroughout the semester, but builds their confidence in the subject and usage of the microcontrollerdevelopment board – Dragon 12B plus. Laboratory exercisers use several different sensors and motordriver modules as peripherals in addition to the built-in components on the hardware board. The embedded systems lab experiments build confidence in students so that when theirembedded class final (exam) project [1] is assigned, they are not fazed by it. That project is to
report, Carnegie Mellon University, 1985.[2] A. T. Chamillard and Kim A. Braun. Evaluating programming ability in an introductory computer science course. ACM SIGCSE Bulletin, 32(1):212–216, 2000. ISSN 00978418. doi: 10.1145/331795.331857. URL http://portal.acm.org/citation.cfm?doid=331795.331857.[3] Mary Elaine Califf and Mary Goodwin. Testing Skills and Knowledge: Introducing a Laboratory Exam in CSl. In Proceedings of the 33rd ACM technical symposium on Computer science education - SIGCSE ’02, page 217, 2002.[4] Karla Steinbrugge Fant, Branimir Pejcinovic, and Phillip Wong. Exploring Proficiency Testing of Programming Skills in Lower-division Com- puter Science and Electrical Engineering Courses. In ASEE Annual Conference
and Current Laws, see Table 1) was split into two topics, resultingin 11 total mastery topics. In addition, students are now required to earn at least 70% of the totalnumber of possible points in order to obtain a C, instead of only requiring demonstrating ofmastery. This scheme will subsequently remove the outliers observed in Figure 2. It will alsoreduce the burden on the instructor with respect to making a strict determination of whether astudent will pass or fail very early in the semester.References[1] B. S. Bloom, “Learning for Mastery. Instruction and Curriculum. Regional Education Laboratory for the Carolinas and Virginia, Topical Papers and Reprints, Number 1,” Eval. Comment, vol. 1, no. 2, May 1968.[2] W. J. Leonard, C. V
editorial board member for the Journal of Advanced Academics and Gifted Child Quarterly. c American Society for Engineering Education, 2019Work in Progress: Integrating Differentiated Instruction and Project-BasedLearning to Teach Embedded SystemsAbstractEmbedded systems, smart electronics, and the Internet of Things (IoT) are topics that arerapidly evolving, not just in research and development laboratories, but in the real worldof industrial and consumer products. Because of the fast pace of technological progress,the evolution of standards, and the non-stop growth in the application space, it isimpossible to teach our students everything that they need to master. How then, can webest prepare students with a
system design technique”. Electronics Letters. Volume: 26, Issue: 5 ,1 Mar. 1990, Pages: 284 -286. 8. J. Yang, E. Brunvand, “Self-timed design with dynamic domino circuits”. Proceedings of the IEEE Computer Society Annual Symposium on VLSI (ISVLSI’03) 2003. 9. N.P. Singh, “A design methodology for self-timed systems,” MIT Computer Science Laboratory Tech. Report. TR-258, Feb. 1981. 10. Press, W.H., Teukolsky, S.A., Vetterling, W.T. and Flannery, B.P.:”Numerical Recipes in C: The Art of Scientific Computing, 2nd Ed.,”(Cambridge University Press, Cambridge, UK, 1992). 11. Sutherland, I., Sproull, B. and Harris D.: “Logical Effort: Designing Fast CMOS Circuits,” (Morgan
Paper ID #14852CATE: A Circuit Analysis Tool for EducationDr. Fred W. DePiero, California Polytechnic State University, San Luis Obispo Dr. Fred DePiero received his B.S. and M.S. degrees in Electrical Engineering from Michigan State Uni- versity in 1985 and 1987. He then worked as a Development Associate at Oak Ridge National Laboratory until 1993. Fred began working on his Ph.D. at the University of Tennessee while still at ORNL, and completed it in May 1996. Fred joined the faculty at Cal Poly in September of 1996. He is presently serving as the Associate Dean for Student Success in the College of Engineering.Mr. K
examples of similar courses elsewhere.) The course originated more than 20 years ago andhas always required that students complete a series of open-ended projects related to the requiredjunior level coursework. There is no lecture, other than for organization, and the class meetsonce a week as a way to more formally answer questions and provide support for studentsworking on projects. Over the years the number of projects and the nature of the projects hasvaried. Over the past five years the course has been restructured so as to satisfy three objectives: 1. The course provides a mechanism whereby students can complete laboratory exercises that reinforce the theoretical material learned in the junior year. This includes the areas of
5. A corresponding ThingWorxMashup can be designed to display the collected information as shown in Figure 6, and to sendout an email alert when the temperature or humidity exceeds a pre-set threshold. As part of our future work, IoT-based activities will be embedded in the curriculum, as aresult of which undergraduate students will be exposed to applications of IoT in the context ofcore electrical and computer engineering courses and laboratories. The author hopes to conduct astudy using qualitative and quantitative methods to determine impact of this curriculumenhancement in recruitment and retention efforts. In addition to the curriculum impact, IoTserves as an effective platform to motivate undergraduate research. The author and
enhancements to vehicle stability control (VSC), adaptive cruise control (ACC), and other active safety features. He holds three patents and launched Provectus Technical Solutions, LLC, and engineering services company. Dr. Riley has implemented a Vehicle Modeling and Simulation Laboratory (VMSL) and current research interests include autonomous vehicle modeling and simulation, sensor fusion, parameter estimation, and machine learning. c American Society for Engineering Education, 2017 IR Sensing Integrated with a Single Board Computer for Development and Demonstration of Autonomous Vehicle Following H. Bryan Riley, Camron Schumann, and James Petersen
AC 2008-346: BEYOND VHDL SIMULATION TO ON-CHIP TESTINGRonald Hayne, The Citadel Ronald J. Hayne, PhD, is an Assistant Professor in the Department of Electrical and Computer Engineering at The Citadel. His professional areas of interest are digital systems and hardware description languages. He is a retired Army Colonel with experience in academics and Defense laboratories. Page 13.251.1© American Society for Engineering Education, 2008 Beyond VHDL Simulation to On-Chip TestingAbstractDigital systems design relies heavily on hardware description languages and their associatedsoftware tools
and handouts, assignments, lectures, in-class discussions,group work, laboratory work, use of library and Internet resources, and instructor’s feedback.The entire class was divided into small teams of 3 or 4 students each and two teams were pairedas a group for the reasons further detailed below. With two class sections of the course due tolarge enrollment, there were 4 groups in one section, i.e., 27 students, and 6 groups in the othersection, i.e., 36 students. The topics covered in this course were organized in a manner such thateither as an individual or group as necessary, students could submit written reports as milestonesalong the way. There were seven Written Reports on 1) System Overview, 2) Requirement
Va Va Vc Vb Formation of balanced but unsymmetrical voltage setFigure 3. Visualization of Symmetrical Components (Microsoft PowerPoint)2.4. Case 4: Visualization of line flow data (LabVIEW) The National Instruments – LabVIEW, Laboratory Virtual InstrumentationEngineering Workbench, was used to design an interface to a power system simulationprogram to display per unit values, voltages, currents, phase angles, generated voltage andsynchronous machine load angle on a polar chart. As shown in Figure 4a, the purpose is tovisualize the relationship between rotor angle and stator magnetic field in a