processes. Dr. Davis is a licensed private pilot and performs research primarily in areas related to aviation. His current research at OU involves the design and development of a new GPS Ground Based Augmentation System utilizing feedback control and the design of instrumentation and data acquisition for navigational systems. Additionally, he serves as the ECE recruiting coordinator and one of the primary academic advisers for ECE students.Mark B. Yeary, University of Oklahoma Mark B. Yeary (S’95M’00SM’03) received the B.S. (honors), M.S., and Ph.D. degrees from the Depart- ment of Electrical Engineering, Texas A&M University (TAMU), College Station, in 1992, 1994, and 1999, respectively. Following his graduation
projects in industry and academia for more than 15 years.Dr. Nicholas B. Conklin, Gannon University Nicholas B. Conklin received a B.S. in applied physics from Grove City College in 2001, and a Ph.D. in physics from Penn State University in 2009. He is currently an associate professor and chair of the Physics Department at Gannon University, Erie, PA. c American Society for Engineering Education, 2017 Solar Eclipse Ballooning with a Multiband Tracking Subsystem for Undergraduate Research ExperienceAbstractThis paper discusses an on-going research project that offers an undergraduate research platform inelectrical and computer engineering (ECE), especially for high-altitude
Paper ID #13401Building a Vulnerability Testing Lab in an Educational EnvironmentAustin Whipple, Bishop Fox Austin Whipple received a B.S. in Information Technology from BYU in 2014, where he led and worked on the Red Team. He now works as a Senior Security Analyst at Bishop Fox.Mr. Keith B Smith, Brigham Young University Keith Smith earned his Bachelors of Science in Information Technology at Brigham Young University with an emphasis in Information Assurance and Cyber Security. His educational interests lie in web application security and promoting cyber security awareness. Keith is married with three children. He
Engi- neers. In 2013, she was invited as a visiting researcher to collaborate with the EVOVision Group at the computer department of CICESE in Baja California. In 2014, B. Lorena Villarreal earned a nomination on MIT Technology Review’s ”Innovators under 35 Mexico” (TR35) list for her work on the development of an artificial olfactory system for odor-source tracking and localization using rescue robots. In 2015, she was awarded through a program between INFOTEC, CONACYT, the Newton Fund, and the Mexican Secretariat of Economy, with the opportunity to participate in a training course on technology commer- cialization as part of the Leaders in Innovation Fellowship program offered by the Royal Academy of
, vehicular networks, virtualized wireless networks, green communications, the Internet of Things, and unmanned aircraft systems. Dr. Marojevic has been instructor of undergraduate and graduate level classes at the Barcelona Tech and Virginia Tech. He is a member of the IEEE, ACM, and ASEE.Dr. Carl B. Dietrich, Virginia Tech A licensed Professional Engineer in Virginia, Carl Dietrich earned a BS EE degree from Texas A&M University, and MS EE and PhD EE degrees from Virginia Tech. He has taught courses in software defined radio, communications systems, electronics, and electromagnetic fields. He has also taught short courses on software defined radio since 2007, covering fundamental concepts and enabling technologies
techniques. The primary focus of his studies at OU has been in power systems, and he will be joining the ExxonMobil Corporation in Baton Rouge, La., upon graduation.Dr. Mark B. Yeary, University of Oklahoma Mark B. Yeary received the B.S. (honors), M.S., and Ph.D. degrees from the Department of Electrical Engineering, Texas A&M University (TAMU), College Station, in 1992, 1994, and 1999, respectively. Following his graduation in 1999, he was a member of the DSP group and a lecturer with the Depart- ment of Electrical Engineering, TAMU, where he continued to lead a variety of industrially sponsored projects. Since Fall 2002, he has been with the University of Oklahoma (OU)’s School of Electrical and Computer
Renewable Energy Education”, Renewable Energy Journal, vol. 34, no. 2, pp. 435-439, February 2009.9. H. Hassan, “Bachelor of Science Degree in Electrical Engineering with Concentration in Alternative Energy Technology”, proceedings of the 36th Southeastern Symposium on System Theory, pp. 492-496, Atlanta, GA, March 2004.10. C. Somerton, and A. Benard , “Developing a Design Based Alternative Energy Course”, proceedings from the Annual ASEE Conference and Exposition, AC 2006-43, Chicago, IL, June 2006.11. G. Tamizhmani, B. Rogers, and R. Sundararajan, “A Multidisciplinary Course on Fuel Cells: Their Science and Engineering”, proceedings of the ASEE Annual Conference and Exposition, pp. 10111-10117, Salt Lake City
, robotics, real-time control system implementation, rapid prototyping for real-time systems, and modeling and analysis of mechatronic systems.Dr. Robert B. Reese, Mississippi State University Dr. Robert B. Reese is an associate professor in the Electrical and Computer Engineering Department at Mississippi State University.Dr. M. Jean Mohammadi-Aragh, Mississippi State University Dr. M. Jean Mohammadi-Aragh is a visiting assistant professor with a joint appointment in the Depart- ment of Electrical and Computer Engineering and the Bagley College of Engineering Dean’s Office at Mississippi State University. Through her role in the Hearin Engineering First-Year Experiences Pro- gram, she is assessing the college’s current
processing algorithm for wireless communication systems, array signal process- ing, source localization, MIMO systems, channel estimation, and OFDM and OFDMA communication systems. He is a Senior Member of the Institute of Doctors Engineers and Scientists (IDES). He served as the Editor-in-Chief of International Journal on Electrical and Power Engineering (ACEEE, USA). He is a regular Reviewer for many well-known journals.Dr. CHEDLY B. Yahya, Prince Mohammad Bin Fahd University Dr. Yahya is an assistant professor at the Electrical Engineering Department, PMU (Prince Mohammad Bin Fahd University). He completed his PhD in 1992 from Georgia Institute of Technology (Ga Tech). His major area of study was semiconductor devices
McCullough, Colorado State University Ryan McCullough is a B.S./M.S. student in Electrical Engineering at Colorado State University. He currently has a B.Ed. from the University of Toledo and worked as a teacher for five years before returning to get a degree in electrical engineering in 2014. He is working as a research assistant in both engineering education and MRI RF coil design.Sanja B. Manic, Colorado State University Sanja graduated with bachelor’s degree from the University of Belgrade, Serbia in 2010, and is currently a graduate student at Colorado State University. Her interests are Numerical methods in Applied Electro- magnetics and Antenna design.Prof. Anthony A. Maciejewski, Colorado State University
facilitate learning for all students. 4.b Experiential Group Learning—Enhancing Communication and Problem-Solving Skills In conjunction with implementing a flipped classroom, the instructor cultivated a hands-on collaborative learning environment for the students through student-directed group work. In an attempt to guarantee a collaborative learning environment, the instructor used lab assignments (experiments and projects) which required working in dyads and groups of four, ensuring that Page 24.615.5 students engaged in some form of student-centered, active learning within the flipped classroom.Evidence of the use of this approach was
academia for more than 15 years.Dr. Nicholas B. Conklin, Gannon University Nicholas B. Conklin received a B.S. in applied physics from Grove City College in 2001, and a Ph.D. in physics from Penn State University in 2009. He is currently an associate professor and chair of the Physics Department at Gannon University, Erie, PA. c American Society for Engineering Education, 2017 Assessment of Student Learning Experience in Two Exemplary Engineering ProjectsAbstractIn this paper, we examine and quantify similarities of two engineering projects each of which iseither 1) an undergraduate research project primarily integrating off-the-shelf devices and referredto as the
industry and academia for more than 15 years.Dr. Nicholas B. Conklin, Gannon University Nicholas B. Conklin received a B.S. in applied physics from Grove City College in 2001, and a Ph.D. in physics from Penn State University in 2009. He is currently an assistant professor in the Physics Department at Gannon University, Erie, PA. Page 23.660.1 c American Society for Engineering Education, 2013 High Altitude Radiation Detector (HARD): Integration of Undergraduate Research into Senior Design and Lessons LearnedAbstractAn interdisciplinary undergraduate research project conducted
projects in industry and academia for more than 15 years.Dr. Nicholas B Conklin, Gannon University Nicholas B. Conklin received a B.S. in applied physics from Grove City College in 2001, and a Ph.D. in physics from Penn State University in 2009. He is currently an assistant professor in the Physics Department at Gannon University, Erie, PA. Page 24.664.1 c American Society for Engineering Education, 2014 High Altitude Radiation Detector (HARD): An Exemplary Means to Stimulate Electrical and Computer Engineering Undergraduate ResearchAbstractThis
Paper ID #15133Informed Teaching and Learning Using Thought-Bubbles for Focusing Stu-dent Attention in Engineering CoursesProf. Danda B. Rawat, Georgia Southern University Dr. Danda B. Rawat received a Ph.D. in Electrical and Computer Engineering from Old Dominion Uni- versity in December 2010. Currently, he is the Assistant Professor in the Department of Electrical En- gineering at Georgia Southern University. Dr. Rawat’s research interests include design, analysis, and evaluation of cognitive radio networks, software defined networks, cyber physical systems, wireless vir- tualization, vehicular/wireless ad hoc networks
. Page 26.1036.8 a. Label where the two blocks were joined with a black vertical line. b. Label each block as either: ‘Phosphorus atoms and free carriers ‘ / ‘Boron atoms and free carriers’ / ‘Boron atoms only’ / ‘Phosphorous atoms only’ c. Label locations where you get ‘maximum E-field’ and ‘zero E-field’ and make sure you understand why. d. Draw a band-diagram underneath this, extending vertical dotted lines down for the edges of the depletion region, and extending down the vertical line for where the blocks were, such that they all go through your band-diagram. Label Ec/Ev/Ef on the diagram. Make sure EVERYTHING in the diagram represents un-equal dopings, including
. Page 22.2.6 (a) Main Diagram (b) Diagram for Subsystem “Pull to Position” in (a) Figure 4 Simulink Diagram for Play-Back ModeThe test results are shown in Figure 5. The actual curve (dashed) follows the reference curve(solid) except in the beginning when the device grip was pulled from the center of the workspace to the starting point of the reference curve. During the test, the user felt that his hand,which is holding the grip of the Falcon device, was being guided through the trajectory. Page 22.2.7 Figure 5 Testing Results
. Page 26.136.5 (a) (b) (b) (d)Figure 5: PSpice simulations for the circuit of Figure 4 with R2=3.9K, L1=22C1=47F,and varying R1 to: (a) R1=0.1; (b) R1=0.5; (c) R1=1; (d) R1=3.At this stage usually the lab students are elated in having solved the “puzzle” of the contrastbetween theoretical or simulated calculations and the actual circuit response as measured in thelab. This is also usually the time when suggestions, comments and relevant interesting questionsstart to freely flow from different students in a spontaneous braistorming sessions.“Wow! Can we actually find the serial resitance in
there is no unique solution; one of the many solutions isshown in Figure 10(b).Hee we presented only two examples to demonstrate that even an assignment project if usedproperly can be a reach platform for students learning and not just “soldering exercise”. Page 14.90.11 Headlight Indicator Figure 9. Headlight Indicator for car project.6 (a) (b) Figure 10. Implementing headlight indicator (a) prototyping area template; (b) one possible
was not the goal of the group work in this class.ResultsIn Fall of 2011, the new course design was taught for the first time. Section A was taught withthe partially-flipped design while sections B and C were taught in the traditional lecture format.Students met Mondays and Wednesdays for 50 minutes in section A and for 50 minutesMondays, Wednesdays, and Fridays for sections B and C. Students received a daily schedule onthe first day so they knew when each assignment was due.Section A students were required to watch a video lecture before each class meeting. A short on-line quiz (through Blackboard) after each video lesson tested student understanding of theconcepts covered in the lesson. During this pilot, the two videos were made available
biaslevels, we have no choice but to move forward and to compensate for yos whenever possible.Therefore we will assume for the time being that:Zo ≈ RDso a) Av ≈ - yfq RDThe practical output conductance will be addressed later in the paper.In order to avoid the non-linear affects of a transistor’s saturation and turn off areas of operation,and assuming our output is symmetrical (a sign wave), a good place to bias the drain of theamplifier (VD) is at approximately 0.5 * VDD 7. Absent other design criteria, this assumption willnormally allow for close to optimal output amplitude. Therefore:VRD = VDD - 0.5 * VDD = 0.5 * VDDso b) RD = 0.5 * VDD / IDqThe transconductance of a MOSFET can be found by taking the derivative of the transferfunction for
Paper ID #34625WIP: Collaborative Undergraduate Research Project to Develop aRemotely-Accessible, Open-Source, Portable, Software-Defined Radio-BasedAntenna Range for Research, Education, and OutreachCarl B. Dietrich, Virginia Polytechnic Institute and State University A licensed Professional Engineer in Virginia, Carl Dietrich earned a BS EE degree from Texas A&M University, and MS EE and PhD EE degrees from Virginia Tech. He has taught courses in software defined radio, communications systems, electronics, and electromagnetic fields. He has also taught short courses on software defined radio since 2007, covering
presented in class and provide various opportunities to become proficient with standard instrumentation used in electrical engineering.Course OutlineThe course outline is provided in Figure 3. Topics Days Introduction and Overview 0.5 I. Fundamentals A. Prefixed Engineering Notation B. Charge, Current, Voltage, Power C. Passive Sign Convention D. Ideal Sources 1. Independent Sources 2.5 2. Dependent Sources E. Ohm's Law, Resistance, and Power Absorption
) (b) E(3) => [1000,1413]Hz vs E(4) => [1413,1995]Hz E(1) => [501,708]Hz vs E(5) => [1995,2818]Hz 0.45 0.9 0.4 a - blue 0.8 i - red 0.7 0.35 o - black 0.3 0.6 a - blue
voltage (objectives 8 and 11) 26 Page 15.277.8 7) Compare the brightness of the bulb in circuit 1 with that in circuit 2. Which bulb is brighter?The DC circuit (A)questions in each Bulb in circuit 1 of the concept inventories were categorized according to theinstructional objectives (B) Bulb in indicated circuit 2 in Table 2. From the table it is apparent that objective numbers4, 5, 8, 10, and(C)11Neither, each have they several questions per objective. More questions per
(b) the prototype in Figure 1,[10] which is close in spirit to theRASCL concept and provides a limited but useful toolset, especially when compared to unitsunder $1000 that were located during this search. The board in Figure 1, designed by WilliamDurfee at the University of Minnesota, is a forward thinking tool designed to “pilot an innovativeapproach to system dynamics and control laboratories that incorporates proven hands-on learning Page 12.1220.3principles to improve student learning.”[10] Its primary purpose is to provide students with ameans to filter acoustic signals, and the board is one of a pair of boards available for purchase
MG-2 0.5 0.4 0 2 4 6 8 10 Day (a) (b) Figure 7 (a) a smart grid (b) the overall performance of three
apparent. RED GREEN LED LED R A B GREEN RED LED LED C Page 22.90.7 Figure 3. LED-based circuit illustrating the operation of a bridge rectifier. Some time is spent with this
)) Actions setRGB((col, row), (r, g, b)) write(filename) clear(color) save to filefill entire Raster with a single color (default is black) repaint() redraw now In order to facilitate projects that plot mathematical functions and leverage students‟ incoming knowledge,Raster‟s origin is located in the lower-left corner, and thus column-row addressing directly mimics x-ycoordinates within the first quadrant of a Cartesian plane. url = “http:….jpg
experiment in theactual laboratory (Group A). The third set of questions was intended only for studentsconducting the experiment remotely (Group B) and the last set of questions was intended forstudents who had a choice of conducting the experiment in the real laboratory or the remotelaboratory or both. The complete analysis of all student responses is beyond the scope of thispaper, thus only the questions and their answers as well as students comments from the first setare included here.Response to student questionnaires was not compulsory. Yet about 80 % of students submitted aresponse together with their reports. Surprisingly, the lowest return - only about 30% - occurredin group B – remote experiment only. All responses were submitted