“green screen”; developing a threestep iterative process for videos based on story boards; and changing how concepts wereidentified. In the first year students selected from a list of relevant concepts, in the second yearconcepts were represented mathematically. During both years the videos were scored usingrubrics on both accuracy of conceptual understanding and production values, and were also peer-evaluated. Comparisons of video scores to performance on standard exams and the results ofconcept inventories are presented. We also reflect on the value of videos for self-explanationand for engaging with conceptually difficult material. Example student videos will be used toillustrate both correct and incorrect conceptual explanations.Introduction
processing. He receives external support through grants from agen- cies such as the US Geological Survey. He has authored more than 25 peer-reviewed publications, often with DigiPen students.Mr. Christopher Theriault, DigiPen Institute of Technology Christopher Theriault earned his BS in Computer Engineering from DigigPen as the first graduate of the program in 2007. In addition to serving as a Lecturer for the program, he also serves as the Lab Manager for the ECE department, an opportunity which allows him to work with students to develop their projects. His own passions for engineering focus on the embedded system space, and his final student project consisting of a modular electronics platform was used by DigiPen to
design costs wereroutinely reaching the tens of millions of dollars 3. Given these constraints, how can we aseducators hope to provide a meaningful SoC design experience in a 10-week quarter?This paper attempts to answer that question by detailing a 1-quarter SoC design course I pilotedin Spring quarter 2015, CPE 439 Real Time Embedded Systems. As discussed in EnablingTechnology, I based the course around a new type of technology called a Programmable SoC(PSoC). PSoCs abstract away many of the low-level design decisions and development work thatgoes into a traditional SoC bring-up, allowing students to focus on developing custom IP,connecting it to the processor through an industry standard interconnect bus, and writing driversoftware to control
Cincinnati Children’s Hospital Medical Center. In addition to his industry experience, he has spent two years, while completing his PhD in Computer Science and Engineering, as a National Science Foun- dation GK-12 fellow - teaching and bring real-word STEM applications in two urban high schools. He has authored peer-reviewed articles, presented at national/international conferences, and taught under- graduate/graduate courses in both Hardware Security (computer science & engineering) as well as STEM Education and Outreach.Dr. Andrea Carneal Burrows, University of Wyoming Dr. Andrea C. Burrows received a Curriculum and Instruction: Science Specialization research Ed.D. from the University of Cincinnati, M.S. in Science
that each student gained the necessarytechnical skill to be able to be an active contributor to the team project and be successful in theremainder of their academic career. It is vitally important that every ECE student be able to solder,build circuits, and write basic programs as early as possible in their curriculum. There was also asignificant reduction in the amount of documents that the students had to submit. This wasnecessary due to the higher level of difficulty required to complete the projects.Quantitative ResultsThe quantitative results were obtained by evaluating the individual and team assignments as wellas the final course grades for the original course during the Fall 2014 and Winter 2014 quartersand the enhanced course during
. Originally this was done as a wayfor students to display their work to their peers and underclassmen while gaining experience in areal world setting. The poster session also allowed an opportunity for the underclassmen to seethe exciting work done at the senior level, and to provide motivation for them to begin thinkingof their own future projects. The poster session gradually grew into a more formal presentationused for assessment when the working engineers began participating in the session.Present Structure of the Senior ProjectThis section details the three course structure of the capstone sequence at the University ofEvansville mentioned earlier. The first course is EE 494, which is non-credit course but requiredfor graduation. It is taken in
and confidence.Lab 2 Arduino Pulse Width Modulation: instead of using the bench top instrument of a functiongenerator to make the PWM signal, the students needed to write software on an Arduinomicrocontroller. With software and the microcontroller board, the students generated the samePWM signals that they had previously made with the function generator. This lab exposedstudents to the process of writing computer programs, downloading to hardware, running andtesting that hardware. The trial and error experimentation and control of the motor alloweddevelopment of insight and confidence.Lab 3 Sensors and Conditionals: sensor input to the microcontroller was introduced. Studentsactivated sensors, setup analog-to-digital conversion on the
retention rates. These include peer tutoring, learning communities,faculty mentoring, scholarships, summer programs, improved academic advising, research withfaculty, integration with industry, engineering learning communities and many more 6. Oneconsensus resulting from this research is the importance of the First-Year EngineeringExperience (FYEE) 7. These FYEE programs have been proven to improve retention in a varietyof universities. Common themes are building student community, a hands on teaching style, andfaculty interaction.A popular approach to the first-year experience has been to develop a first-year engineeringcourse with a focus on activities to improve retention instead of exclusively on technical content.These course are becoming
methods: [9] • Student-centered learning • Constructivism • Problem-based learning • Peer assisted learningElliott [8] summarizes a number of reasons why instructors have used flipped classrooms: • The amount of material introduced in the class can be increased. • It can serve as a validation that students read or view required material. • There is more time for hands-on learning in the classroom. • Students have more time to participate in collaborative or peer learning during regular class time.Bishop and Verleger [9] define a flipped classroom as a combination of interactivegroup learning activities in the classroom (prescribed by student-centered learning theories), andcomputer-based
University –Mankato at the Iron Range Engineering program where he served as an Assistant Professor. Professor Habibi has taught a number of electrical engineering courses such Analog Electronics, Advance Analog Design, Communications, Circuits II, Signals and Systems, and Controls. Professor. Habibi’s passion for engineering education, teaching and mentorship is demonstrated each day through his inter- actions with students inside and outside the classroom. To this point, he has shared his knowledge of best practices in engineering education with his peers through the many articles he has published in ASEE conference proceedings. He has been investigating novel methods on how to motivate students to learn, as well as
institutions have some distance learning offerings as of 20143.Our large, public, research university (Arizona State University) has started to offer its ABETaccredited undergraduate program in a fully online format beginning fall 2013, with the goal ofproviding online students the same high quality educational experience as the on-site students4.At the time of this writing, our degree program is one of the only two ABET accredited BSelectrical engineering programs in the nation offered in a 100% online format5.Digital Design Fundamentals is the first electrical engineering course on this online bachelordegree program major map. An online version of the course was designed to deliver equivalentcontent and assessment comparable to the face-to-face
, wireless sensor networks, wireless mesh networks, and cyber-security and wireless communication for smart grid. Dr. Rawat is the recipient of NSF Faculty Early Career Development (CAREER) Award in 2016. His research is supported by US National Science Foundation, University Sponsored Program and Center for Sustainability grants. Dr. Rawat has published over 120 scientific/technical articles, 7 books and over 15 peer-reviewed book chapters. He has been serving as an Editor/Guest Editor for over 10 international journals. He serves as webmaster for IEEE INFOCOM 2016, Student Travel Grant Co-chair of IEEE INFOCOM 2015, track chair for wireless net- working and mobility of IEEE CCNC 2016, Track Chair for Communications
as air-core inductors using thick wiregauge. The initial electrical system testing consisted of charging then discharging the Rayleigh circuitcapacitors through power resistors at 20V , 150 V, and 400 V to assess heat dissipation issues and to notepotential ringing problems in the PFN. As of this writing, testing is on-going. The low-voltage capacitorshave been charged to 50 V, and successfully discharged through the armature. No issues were found. C. Measurement System Testing 12The Rogowski coil was first used with a low-power PFN to demonstrate its ability to capture short pulseduration currents. The bullet chronograph will be assessed during integrated system testing. Specifically,the
facultydevelopment initiatives, organized by ASEE and sponsored by NSF, Virtual Communities ofPractice24 (VCPs) aimed to bring together practitioners in specific disciplines with faculty activein the scholarship of teaching and learning in those disciplines. One of the authors participated inthe VCP and found it to be useful, but more as an introduction to research-based instructionalpractices, than a comprehensive resource to walk a practitioner through implementation andevaluation of an innovation. The main issue again was the general context in which mostexamples of innovative teaching practices were presented. The participants saw the value ofvarious practices such as peer instruction, but found it hard to translate it to the context of theircourses
faculty professional development programs and teaches graduate courses on Instructional Systems Design. Her research interests focus on using instructional strategies in online and blended teaching and learning, professional development for teaching online, and application of emerging technologies in education. She has published 15 peer-reviewed journal articles and book chapters and delivered more than 50 presentations at international and local conferences and event and served as the Co-Managing Editor of the Teaching Online Pedagogical Repository. c American Society for Engineering Education, 2016