graduating out of the major did not have necessaryexperience or knowledge in robotics. Using best practices in engineering education, the course transitioned from a lecturemodel to a project-based learning model that includes three blocks over a forty-lesson semester:block 1, introductory topics; block 2, robotics design and implementation; and block 3, mazecompetition. Each laboratory includes a brief fifteen-minute introduction to a fundamentalelectrical and computer engineering concept and 3.5-hours of hands-on application. For example,after learning how the average power of a system can be controlled via pulse-width modulation,students integrate motors into the robot and connect each motor to a modern measurement tool toobserve the
howeffectively the project helps students build critical systems-thinking skills, and the challenges ofadopting resources for fast-tracking the development of new laboratory projects.IntroductionThe notion of systems thinking is well-known, but views vary on its specific definition1,2. Forexample, the systems dynamics community emphasizes understanding the temporal dynamics ofinterconnected parts, including the effects of feedback and emergent behaviors, via conceptualand simulation models3. Others have emphasized design in a broader context, includingassessment of societal impacts and awareness of economic and societal goals4.In our practice-oriented view, systems thinking is already pervasive across engineeringdisciplines, highly valued in industry
Paper ID #34770Pinball Applications for Engineering EducationDr. Zachariah E. Fuchs, University of Cincinnati Zachariah Fuchs received a B.S. degree in electrical engineering from the University of Evansville in 2007. Subsequently, he was a National Science Foundation Graduate Research Fellow and DoD SMART Scholar at the University of Florida, USA where he received a M.S. and Ph.D. in electrical and computer engineering in 2009 and 2012 respectively. He was previously a research engineer with the Sensors Directorate of the Air Force Research Lab at Wright Patterson Air Force Base and an Assistant Professor in the
Geddis, Hampton University Demetris L. Geddis is an associate professor and Chair of Electrical and Computer Engineering at Hamp- ton University. He has extensive research experience in the areas of Integrated optoelectronics, Optics, Microelectronics, and Electromagnetics. He has worked as a Research and Design Engineer at Motorola and Bell laboratories. Also, he worked at NASA Langley Research Center as a NASA faculty fellow for the Nondestructive Evaluation Sciences Branch where he performed research in the area of optical fiber sensing for real time health monitoring of aerospace vehicles. Current research interests and publications are in the areas of Photonics, Optoelectronics, Microelectronics, Heterogeneous
) and the graduate faculty of Computer Science. He received the B.S. degree in electrical engineering from Cornell University, and the M.S. degree in electrical engineering and computer sciences from the University of California, Berkeley. He then worked for awhile at several Silicon Valley startup companies before re- turning to Cornell to pursue a Ph.D. in electrical and computer engineering in 2006. Prior to his arrival at WWU, he worked as a postdoctoral researcher at Sup´elec/LSS near Paris, France, and was an assistant professor at Worcester Polytechnic Institute. c American Society for Engineering Education, 2016 Self-Corrected Homework for Incentivizing
overall design. It is during this phase that general instruction over computerarchitecture is provided in a lecture format. Teams are asked to learn about material relevant totheir part of the design, create block diagrams, fully define signals that impact other teams, anddocument all of their work on the course Wiki. At the end of the research phase, teams deliverformal presentations of their findings. Other students, as well as an assessment board made up ofthe instructor, other knowledgeable instructors, and key graduate students, are also present forthe presentation. The assessment board is responsible for assessing the team on the effectivenessand clarity of communication of their part of the design, as well as their understanding of
for faculty collaboration designed tobroaden the use of innovative practices in engineering classrooms. A recentrecommendation from the Innovation with Impact report called for increasing facultyawareness about effective teaching innovations as well increasing engagement inengineering courses (Jamieson & Lohmann, 2012). The focus of this research study is onhow small, long-term faculty groups can be used as a model to encourage suchinnovations and improvements in teaching. In addition to developing a faculty teachingdevelopment process, the project also involves the creation of sharable resources forinnovative teaching. While there are many general resources for teaching, we seek tocreate resources specifically for electrical and computer
Research Scientist/Engineer at NorthWest Research Associates. Jeremy believes that curricula should be student-centered and embedded within an engaged, collaborative community who un- derstand the broader, societal implications of their work. He aims to achieve this through the design of project-based and experiential curricula, including a recent redesign of the Computer Engineering pro- gram. He serves on several committees including the steering committee for the Faculty Senate. He also leads ABET accreditation and coordinates assessment for the Computer Engineering program. Jeremy’s research is in space physics and electrical engineering, including atmospheric electricity, radio wave propagation, and digital signal
, ASIC development, system electronics and architecture, program management, and senior hardware development manager. Currently, Dr. Liddicoat is the Assistant Vice President for Academic Personnel and the Forbes Professor of Computer and Electrical Engineering at Cal Poly State University in San Luis Obispo. He teaches digital design and embedded systems courses. His research interests include computer architecture, computer arithmetic, networks, re-configurable computing and engineering education. Dr. Liddicoat received the Professional Achievement Award from the College of Engineering at California Polytechnic State University in 2003, and he is a Senior Member of
-signal circuits for biomedical applications.Mr. Tyler Sheaves, Intel Corporation Tyler Sheaves is a Ph.D. student at University of California, Davis and a graduate technical intern in the academic outreach division of Intel’s Programmable Solutions Group. In his position at Intel, he develops virtual FPGA-based learning applications and curriculum. In academia, his primary areas of research are hardware security, intellectual property protection, and digital integrated circuit design and verification. American c Society for Engineering Education, 2021Cloud Based Instruction Model for Electrical Engineering Courses – A Rapid Response To Enable Fully
, free of charge forstudents. Best practices of schematic design and board design were shared with the students asthey were encouraged to design PCBs for previous circuits that they had built.Intro to Python (Hardware and Software) LessonsThe first week of material consisted of a combination of the basics of Python programming andcircuits using CircuitPython and the Metro M0 Express microcontroller board. The programmingconcepts introduced included variables, operators, functions, conditional statements, loops, lists,and dictionaries. The students built upon these programming concepts and Python skills duringthe Machine Learning week. The circuit concepts included microcontroller pins, electroniccomponents, analog vs. digital, Ohm's Law with the
Sp10 Sp11 Sp12Figure 5 – Performance on the assembly language concepts for three "traditional" semesters and three "flipped" semesters.In summary, in terms of lower order learning, our research is congruent with the results of othersthat a "flipped" approach does not necessarily improve student performance for lower-orderlearning outcomes. At that same time, a "flipped" approach does not decrease performance forthese outcomes either, suggesting it is a viable alternative to a traditional model.We now turn our attention to the impact of the flipped classroom on higher-order learningoutcomes. Our original hypothesis in designing our "flip" was increased class time and student-instructor interaction
usuallyinvolves group work. Many of the engineering projects in the paper were group work. Engineersare now, more than ever, expected to collaborate and cooperate with their peers [17]. Futuredirections for integrating PBL in these courses include adding one more project that allowsstudents to design from scratch in Logic Circuits, and assessing whether the students who havebenefited from PBL will continue to be successful in their future courses.References:[1] Shekar, A. Project based Learning in Engineering Design Education: Sharing Best Practices, ASEE 120thAnnual Conference and Exposition, paper ID 10806, Indianapolis, IN, 2014.[2] Pang, J. Active Learning in the Introduction to Digital Logic Design Laboratory Course. 2015 ASEE Zone IIIConference
Paper ID #15101A Survey of the State of the Power Engineering Profession in the PacificNorthwest and what Working Professionals are Defining as Priorities for Prepar-ing Students to Fill Present and Near-Future VacanciesProf. Donald M. Peter P.E., Seattle Pacific University Don has taught electrical engineering at Seattle Pacific University since 1987, specializing in analog and power electronics, Before that he worked as a design/evaluation/diagnostics engineer at Tektronx, Inc. for eleven years. He has been involved in various consulting projects, including two summers as a NASA Summer Faculty Fellow at the Jet Propulsion
courses, but important to the IoT, such asmicrocontroller interfaces, antenna design and RFID energy harvesting principles are introducedto the students.It has been recognized that the growing field of IoT will require an equally growing workforceconsisting of capable technicians and engineers with broad skillsets2. However, at presentsuitable IoT-centric curricula that addresses this need are not readily availble2 and to date veryfew IoT curricula have been proposed in the research literature. In some instances, it has beensuggested to introduce IoT as a graduate course that focuses predominately on networkingprinciples3. We desire to teach an IoT course that appeals to undergraduates, is comprehensiveand accentuates core electrical and computer
unstructuredintegrated projects in the core and elective courses of the ECE curriculum. Page 24.503.12Comprehensive curriculum integration will create and strengthen undergraduate engineeringeducation as follows: (a) Establish the laboratory facilities to deliver integrated skills (b) Adopt integrated projects across the ECE curriculum to enhance student learningAlthough research has shown the advantages of incorporating integrated projects into an ECEcurriculum, it is not yet widely accepted or practiced. The implementation of this curriculummodel and the careful assessment of its effectiveness will serve to guide others in best practicesthrough the
correct model was uploaded, students had an easy time performing this lab. In the fall 2012 class, the syllabus was modified to state that the best 13 out of the 14 (six labs plus eight quizzes) were counted towards the final grade, most students selected to work on the lab so that they can drop a low grade in quizzes.The educational impact of these labs was best seen in the performance of the students on the linecoding lab. In that lab, they were required to research four line coding schemes such as bipolarNRZ and differential Manchester, then implement each one as a masked subsystem in Simulinkusing any method of their choice. This served as both a learning experience and an evaluation oftheir accumulated Simulink skills. The
his Ph.D. from Colorado State University. His research interests are in the areas of Fiber Optic Communications, Faculty Development, Nanotechnology, Application of Telecommunications Technologies in Distance Education, and impact of Technology on Society. He teaches Wireless Engineering, Network Engineering, Fiber Optic Communications, Technology and Society, and Project Management. He also advises students on their senior design projects. He is the author of “The Telecommunications Fact Book, 2E” and co-author of “Technology and Society: Crossroads to the 21st Century,” “Technology and Society: A Bridge to the 21st Century,” and “Technology and Society: Issues for the 21st Century and Beyond.” He is
properties of materials. Page 23.1019.1 c American Society for Engineering Education, 2013 Rationale for a Required Course on Signal and Power Integrity in Computer Engineering Curriculum AbstractTwo aspects of digital systems are digital logic design and digital circuit implementation. Theformer is a standard required subject in an electrical and computer engineering curriculum. Thelatter is usually taught as a senior elective or more often as a graduate class. While the formerhas become simpler, easier and more abstract, the latter has become more analog, moreintegrated
populations, teaching practices, and community college students. Her dis- sertation will be a Phenemological case study on community college students in a Research Experience for Undergraduate (REU) Program.Mr. Alireza Dayerizadeh, North Carolina State University Alireza received his B.S. in Electrical Engineering from the University of South Florida in 2015. His previous industry experience includes engineering roles at DPR Construction, Jabil, GE Aviation, and Stryker Communications. In the Fall of 2016, Alireza began pursing a PhD in Power Electronics at North Carolina State University. He is a recipient of the Electrical and Computer Engineering Department’s Merit Fellowship (2016) and the NSF Graduate Research
, PhD, is a post-doctoral research associate in the General Engineering department in the Shiley-Marcos School of Engineering, where she innovatively integrates social justice, humanitarian advancement, and peace into the traditional engineering canon. Before joining USD in August 2017, Bre spent 9 years at Clemson University, where she was a three-time graduate of the bioengineering program (BS, MS, and PhD), founder of The Design & Entrepreneurship Network (DEN), and Division I rower. In her spare time, Bre teaches design thinking workshops for higher education faculty/administrators at the Stanford d.School as a University Innovation Fellow, coaches a global community of learners through IDEO U, and fails
Chemical Engineering. He is a registered Professional Engineer in Tennessee. He has nineteen years of industrial experience in industrial process and product development in the detergent, paper, and packaging industries. He teaches capstone design, value engineering and engineering economy at the undergraduate level, and technical innovation and advanced engineering economy in the graduate Engineering Management program. His research interests include product development, technical innovation, entrepreneurship, and design. c American Society for Engineering Education, 2016 A Comprehensive Approach to Power Sector Workforce DevelopmentAbstractThe University
end-to-endproject where they start with simulation and work their way up to a populated hardware productthey can hold in their hand … especially one with surface mount parts. Local undergraduatestudents may be in this situation simply because of their choice of option area, and graduatestudents (particularly international) may have come from curricula that did not emphasis hands-on work, including practical issues associated with board layout, population, and testing. Thesehands-on opportunities are imperative for university educators that seek to graduate employablestudents.IV. ConclusionThis paper presented initial experiences and lessons learned with regard to the integration of awearable, wireless electrocardiograph design project into a
the time ofthe impact. The PIC sends this information to the memory card. A software package developedto work with this device enables the end user to view a map indicating where each impactoccurred. The impact data is retrieved by inserting the memory card into a PC or PDA.Information about the strength and time of each impact is displayed on a map.The design project has won first place as the best design project at Ohio Northern University(ONU) and second place in the IEEE-Student Activities Conference 2009. The paper presentsthe technical content of the design, the assessment of the design with respect to ABET criteriona-k, and the advantages of and recommendations for industry-sponsored projects.IntroductionThe senior design course -also
2006-2119: INTEGRATION OF INTERACTIVE SIMULATIONS AND VIRTUALEXPERIMENTS IN TELECOMMUNICATIONS COURSES FOR ONSITE, ONLINEAND HYBRID DELIVERYYakov Cherner, ATeL, LLC Dr. Yakov E. Cherner, a Founder and President of ATEL, LLC, combines 20+ years of research and teaching practice with extensive experience in writing curricula and developing educational software. He is the author of an innovative concept of multi-layered simulation-based conceptual teaching of science and technology. This instructional approach uses real-world objects, processes and learning situations that are familiar to students as the context for virtual science and technology investigations. To facilitate this methodology for
Paper ID #16754Developments in the Teaching of Engineering Electromagnetics for Improve-ment in Student Interest and UnderstandingMs. Lauren E. Donohoe, Department of Electrical Engineering at The Pennsylvania State University Lauren Donohoe received B.S. Degrees in both Electrical Engineering and Physics from the Pennsylvania State University in 2014. She is currently a M.S. student in Electrical Engineering at the Pennsylvania State University. During her graduate studies in electrical engineering, she researched and implemented teaching meth- ods to stimulate interest in students. She chose to perform education and
Paper ID #18696Development of an Experimental Platform for Analysis of Cyber Attacks onthe Power GridMr. James Dylan Kollmer, Temple University James Kollmer is currently a second year master’s student in Electrical and Computer Engineering at Temple University. His research is focused on networked control systems and more specifically, Smart Grid resiliency and protection schemes via control theory applications. He is particularly interested in power systems, power electronics, and resilience control applications. Before coming to Temple Univer- sity, he graduated from East Stroudsburg University and Temple University
. Moreover, the majority of thesemajors enrolled in the Robotics Track (one of five EE tracks offered to EE majors). Thesestudents most often cited that the idea of seeing immediate results of their work in buildingrobots to perform a variety of missions was very alluring and conceivably more rewarding thanother endeavors. Afterwards the program has again revaluated on how best to accommodate thisgrowing interest and its potential impact upon graduates, the robotics program itself and itsrelevance in new military applications. Consequently, our program is working with variouscompanies, other universities, and other government organizations to conduct joint research,develop future platforms/algorithms, and design courses to meet the rising demand
in Engineering Education (FREE, formerly RIFE, group), whose diverse projects and group members are described at feministengineering.org. She received a CAREER award in 2010 and a PECASE award in 2012 for her project researching the stories of undergraduate engineering women and men of color and white women. She received ASEE-ERM’s best paper award for her CAREER research, and the Denice Denton Emerging Leader award from the Anita Borg Institute, both in 2013. She helped found, fund, and grow the PEER Collaborative, a peer mentoring group of early career and re- cently tenured faculty and research staff primarily evaluated based on their engineering education research productivity. She can be contacted by email at
graduating in a major divided bythe number ever declaring that major [3, 4].At the professoriate level, the percentage of female faculty lags behind the percentages offemales obtaining PhD degrees in all engineering fields. ECE continues to have lowerpercentages of women than engineering overall. ECE ranks 17th out of 21 engineering disciplinesconsidered in the percentage of female faculty with 12% females compared to 16% forengineering overall [1]. The percentages of African American and Hispanic faculty are low butsimilar for ECE and Engineering as a whole at 3% and 4%, respectively. The percentage ofAsian American faculty is higher in ECE (31%) than Engineering (27%).Research has shown that the percentages of women undergraduate science and