and problem solving tests from 4458 students in introductory physicscourses using active learning method and those of 2084 students in traditional courses. Theresults showed statistically higher average gains in the classes using active learning methods.Inspired by inductive teaching and active learning approaches, some textbooks started tointroduce fundamental topics by using cases/projects instead of focusing on the calculations inSTEM disciplines [12].Through our teaching experiences, we have also observed that students learn more effectivelywhen videos and in-class demonstrations are introduced as supplements to lecture notes,especially when software and hardware are used. For example, CENG342 Digital Systems is arequired course for
. He has experience in the telecommunication industry where he worked as a Project Manager developing solutions of high-speed transmission systems for internet services providers and mobile service companies. He has trained engi- neers and technicians through formal courses, on-the-job training, and supervising on field. His research interest includes self-regulated learning, abstraction in problem solving, and troubleshooting problem solving in laboratory environments. His long-term goals include improving laboratory hands-on activities based on how students improve their metacognitive skills. c American Society for Engineering Education, 2018 Developing a Portable Laboratory
members and discussions of our external advisory board which is dominated byindustry members. A recent accreditation visit provides additional evidence of acceptanceamong the engineering community.Introduction and Brief History:Our online development history has its roots in the MIT open courseware project whichpublished its first course in 2002 and very quickly gained widespread interest among engineeringfaculty in the US1 . At our institution faculty began experimenting with both developing theirown freely available online materials as well as referring students to MIT open courseware forsupplemental materials for their courses. Until 2010 these efforts in our electrical engineeringprogram were individual and not generally coordinated even at
. Now more than ever, teams are beingrecognized as dynamic in nature, a far cry from the common assumption of static, with looseboundaries and fluid memberships6. It is not uncommon for engineers to face the challenge ofworking with constantly changing teams, and as such it is important to understand membershipchange, its overarching effects on outcomes, and how to survive it.Membership change Promotions, selection, layoffs, retirement, role transitions, and absenteeism are just a fewreasons that members may be removed or added to a team7. More often than notmultidisciplinary teams are formed and employees need to be accustomed to working with newteam members who are brought on to a project. It is extremely important for teams to be able
applications of DSP that can helpcaptivate students and motivate them to learn the theoretical material. Perhaps the best way toexpose students to the applications of DSP is with a laboratory course, but at some institutions afull laboratory course in DSP is not feasible due to time, space, and funding constraints.Alternatives to laboratories include projects, simulations, and demonstrations. Although manyDSP algorithms can be demonstrated using offline (not real-time) processing, somedemonstrations are just more compelling if they operate in real-time. A real-time demonstrationwith audio signals, for example, can be more interesting because the user can use his/her ownvoice as the input and hear the results immediately.Many authors have explored
-take the FCC examination for full credit atother examination sites by the end of the course period. Over the last 5 years, over 700 ElectricalEngineering students have successfully passed their amateur radio examination as part of the 1styear orientation class. Projects created by the amateur radio community were incorporated intothe formal and informal curriculum for the Electrical Engineering department to take advantageof the newly FCC licensed students. Informal assessment of 1st year amateur radio licensingincludes increased interest in the RF/microwave/communication concentration of the curriculum,strong membership growth in the amateur radio club on campus, and a devoted group of licensedAlumni who come back to campus each year to
monitoring personnel when prior establishedthresholds are exceeded. The IoT application platform that was used in this work is ThingWorxby PTC 10, and their academic program offers a host of IoT projects with varying difficulty levelsthat are designed to target students at different stages in their academic programs.Description of the ActivityAs part of our efforts to introduce pre-engineering freshman students to various disciplines inengineering, the College of Science and Engineering (CSE) at Seattle University offers an‘Introduction to Engineering’ course. Each engineering department hosts interactive sessionsthat include an overview of the discipline, curriculum, sub-disciplines and career pathways, and ahands-on activity session that
-based prototype for biomedical smart imaging application known as the wireless endoscopic capsule. Dr. Faycal Saffih joined Voxtel Inc., OR, USA, as Senior Ana- log Active Pixel Sensor engineer, designing imagers based on SOI-CMOS technology for high-energy physics particles detection, and electrons microscopy imaging. From 2009 until 2012, he joined KAUST as Research Fellow where incepted his invention on Smart Nano-photonic devices dedicated for imaging and solar energy harvesting. Dr. Saffih recently (March 2017) got certified from Renewables Academy (RENAC: www.renac.de), Germany, for developing Renewable Energy projects. Driven by his inter- est on Intelligence-Harvesting and (Physical- and Bio-) Mimicry, Dr
photoreceptor cells in the human retina dueto their excessive intensity and blue content. (See, Reference [10] by G.R.Davies [10])4. Conclusions and RemarksThe experiments were integrated into a senior level Optoelectronics course delivered at theUniversity of Southern Maine. The course was originally offered as a lecture-only course. Theseexperiments were introduced in the second offering as add-on semester projects. Students did theexperiments with great enthuasim and presented their results in final reports in written form anddelivered them as oral power point presentations. As a matter of fact, most of the data used inthis paper are from experiments conducted by the students. The author wants to take thisopportunity to praise the enthusim
were already familiarwith. Students proposed visualization projects in areas of their interest and incorporated theknowledge gained from the articles which they reviewed.2. Visualization applied in various power system topics In the power system analysis course a series of information visualization tasks wereassigned to students who were challenged to develop visual cognition systems that would aidthem and their fellow students in better understanding and retaining core concepts of thecourse material. For the purpose of the visualization projects, information visualization isdefined as the use of visual aides, such as computer graphics, to organize and display data insuch a way that facilitates successful decision-making and analysis
totackle projects with little or no help, and provides the sense of accomplishment that leads astudent to exclaim “It blinked!” when he succeeds in causing an LED to blink. Soft coreprocessors run on an FPGA development board were used to implement changes to amicroprocessors course in order to achieve the desired goals. The use of soft core processorsallows configuration changes not possible in traditional microprocessors.Simplifying the processor, exposing the low level processor interactions, and adjusting theprocessor configuration as needed to best demonstrate the desired foundational concepts, areintegral to the updated microprocessors course at Boise State University. Course enhancements,including development and continuing augmentation of
sufficientactivities to work with a lab-sized wind generator system and experience different aspects of thewind turbine generator operation.The solar energy lab was based on the roof-top 45W solar energy system kit which includes threesolar panels and one charge controller as shown in Figure 3. The high power spot lights also seenin the figure were purchased to provide the emulated sun light for the experiment indoor. Figure 3. solar energy kit and the sunlight emulator Figure 4. schematic of solar energy systemA control/monitoring panel box was designed and fabricated by students to allow conductingdifferent energy flow projects. The schematic of one of the designs is as shown in Figure 4. Theswitching box
this topic through first-hand experience as a visiting scholar from a Chinese engineeringuniversity. First, the engineering education reforming taking place in China will be described bylooking at Chinese current EE curriculum requirements. And then, the curricula, semesterarrangement, credit and degree systems are compared between Chinese and U.S. electricalengineering undergraduate programs. The emphasis on math, core EE subjects, project designand working experience in industry is stronger in Chinese EE programs comparing to that of U.S.universities. But the tendency of teaching as many core subject courses as possible has resultedin a complete neglect of computer aid and modern tool applications in the curriculum. Thesedifferences may have
mastering new information.[1,2] Furthermore,frequent practice promotes speed as well as accuracy. This point is particularly relevant in thefield of electrical engineering, as students must master core concepts (e.g., Ohm’s law) such thatthey can apply them quickly and effortlessly in order to efficiently solve more advancedproblems. The present project pilot-tested a novel technique for encouraging frequent, fast-paced practice among students in the first circuits course. Nineteen undergraduate engineeringmajors (including civil, mechanical, environmental and electrical) participated in a face-to-facecourse in which traditional course activities (lectures, in-class discussion, exams) weresupplemented by three online homework modules. These modules
nano scalelevel, but also experience the impact of design decisions at the device levels. Introduction ofnano devices in VLSI curricula also help the students learn nano technology.IntroductionThe paper describes our experience in teaching nano scale devices in an undergraduatecourse, which convinced us that it is possible to integrate nano scale devices in VLSI coursethrough design projects. As the deep sub micron and beyond technology emerges, trainingefforts in nano scale device characterization becomes more important than ever [1-5].The research is motivated by the significant increase of education and training ability in nanoelectronics areas at undergraduate level. It is estimated that about two millionnanotechnology workers will be
ABET Criterion in orderto validly conduct program-level assessment activities. Performance criteria are specific,measurable statements identifying the performance required to meet the outcome. Forperformance appraisals (e.g., design projects, lab experiments), well-stated Performance Criteriaprovide faculty with clear direction for implementation, as well as explicit expectations ofstudent performance. Therefore, Performance Criteria were defined for each Program Outcome(an example of the CET department program level Performance Criteria is provided in Table 2as part of the department’s assessment plan).Table 2: Assessment Cycle for ABET Criterion 3a: “An appropriate mastery of theknowledge, techniques, skills, and modern tools of their
international partnerships not only enhance our lives, but represent our best hopefor peace and professional progress in the future. These collaborations raise awareness of globalissues, promote greater participation in projects of joint interest and build or strengthen bridgesof mutual understanding and respect. All of this is nowadays facilitated by the new technologiesof ubiquitous networks and computing devices that take information about anything everywhere.Progress towards the New Brazilian Economy of the 21st CenturyGraduate programs in electrical and computer engineering developed quickly in the 1970’s inmany Brazilian universities. The programs at the University of Rio de Janeiro (COPPE) andCatholic University (PUC) in Rio, the Federal
proveninnovative teaching methods based on a project-based, hands-on, active-learning approach to engineeringeducation. The main teaching method to be adopted is studio-based4, 5, which combines hands-onexperimenting with lecturing, as opposed to the traditional lectures and lab sessions. The use of projectsin the curriculum motivates student learning and facilitates understanding of class material6. The Page 15.1035.2developed curriculum allows students to graduate as engineers after taking a total of 126 semester credithours distributed into core courses, cognate courses, electives, and general education requirements. Thefacilities planned for
analysis, simulation, and control of human-robot systems; project-based education, STEM outreach, and application of new instructional technology in classroom instruction.Dr. Rami Jubrail Haddad, Georgia Southern University Rami J. Haddad is an Assistant Professor in the Department of Electrical Engineering at Georgia Southern University. He received his B.Sc. degree in Electronics and Telecommunication Engineering from the Applied Sciences University, Amman, Jordan, his M.Sc. degree in Electrical and Computer Engineering from the University of Minnesota, Duluth, MN, and his Ph.D. degree from the University of Akron, Akron, OH. His research focuses on various aspects of optical fiber communication/networks, wireless
department. In this role he has led department-wide changes in curriculum with emphasis on project- and lab-based instruction and learning. His research interests are in the areas of engineering education, semiconductor device characterization, design and simulation, signal integrity and THz sensors. He is a member of IEEE and ASEE.Mr. Phillip Wong, Portland State University Phillip Wong received an M.S. degree in electrical engineering from Carnegie Mellon University in 1990. Since then, he has been with Portland State University, Oregon, USA, where he is currently the ECE Lab Coordinator and an instructor. c American Society for Engineering Education, 2016 Exploring Proficiency Testing
interface, computer-assisted learning, and computer-based assessment.Elizabeth Godfrey, University of Technology Sydney Dr Elizabeth Godfrey is currently working as Senior Research Fellow on an Australian Learning and Teaching Council project aimed at understanding and reducing attrition in engineering education. She is the current Past President of the Australasian Association of Engineering Education. Her recent experience has included a 9 year term as the Associate Dean Undergraduate at the School of Engineering at the University of AucklandLawrence Carter, University of Auckland Lawrence Carter was born and educated in the United Kingdom, and has lectured in electronics and
. Vanessa Svihla, University of New Mexico Dr. Vanessa Svihla is a learning scientist and assistant professor at the University of New Mexico in the Organization, Information & Learning Sciences program, and in the Chemical & Biological Engineering Department. She served as Co-PI on an NSF RET Grant and a USDA NIFA grant, and is currently co-PI on three NSF-funded projects in engineering and computer science education, including a Revolutioniz- ing Engineering Departments project. She was selected as a National Academy of Education / Spencer Postdoctoral Fellow. Dr. Svihla studies learning in authentic, real world conditions; this includes a two- strand research program focused on (1) authentic assessment, often
action research project to learn about the student courseexperience and help the faculty improve the course. This project methodology uses a simple andefficient formative approach that incorporates strategic and continuous open-ended surveyquestions in optional feedback assignments to gauge the student experience across the course.Data were collected in the course learning management system (LMS) for multiple sections in afreshman Introduction to Electrical and Computer Engineering (first circuits) course using aflipped pedagogy across four years and with three different instructors. These assessmentsfocused on identifying challenges to learning, or “Muddiest Points” and student perceptionsabout classroom strategies and general learning/academic
science at the University of Colorado, Colorado Springs. He received his Ph.D. from the University of Texas, Austin. His research aims at improving the security, reliability, and performance of network systems. He has two U.S. patents on distributed network restora- tion and survivable architecture. He recently developed an efficient internet security (IPSec) protocol that significantly improves the performance and security of online storage systems. In an AFOSR-NISSC sponsored project, a secure information sharing system was developed for setting up secure information infrastructure which is based on attribute certificate to coordinate multiple agencies task forces. He is the Principal Investigator of an international
; Program Manager for Electrical Transmission and Distribution Contracts, Iraq Project and Contracting Office (PCO), Bagh- dad, Iraq; Assistant Public Works Officer, Program Management Officer, Operations Officer, AROICC, ROICC, and Facilities, Engineering and Acquisition Division Director, Public Works Department, NAS Sigonella, Sicily; Seabee Enlisted Community Manager (BUPERS-325D), NSA Millington, Millington, TN; and Assistant Current Operations Officer (N3C1) and Current Operations Officer (N3C), Navy Expe- ditionary Combat Command (NECC), JEB Little Creek-Fort Story, VA. He obtained his Ph.D. in Electri- cal Engineering from the Naval Postgraduate School. He is a Registered Professional Engineer in the state of
. We have tracked the progress of thestudents and their understanding of CT in broader terms. This paper investigates the effect of engineering and coding activities through distancelearning on CT education. We shared our preliminary results in this paper. The contribution ofthis study is two-folded. (i) The effect of engineering activities and (ii) the effects of codingactivities are examined on students under distance learning constraints with emphasis on sub-domains of CT.Methodology In this project, we aim to activate CT abilities by engineering problems and codingactivities through distance education. Our study consists of 4 different groups from grades3,4,5,6,7,8. The students from grades 3 and 4 receive an education that
, multilevel inverters, and electric drives.Dr. Johanna Naukkarinen, Lappeenranta-Lahti University of Technology Johanna Naukkarinen received her M.Sc. degree in chemical engineering from Helsinki University of Technology in 2001, her D.Sc. (Tech) degree in knowledge management from Tampere University of Technology in 2015, and her professional teacher qualification from Tampere University of Applied sci- ences in 2013. She is currently working as a post-doctoral researcher and project manager with the School of Energy Systems at Lappeenranta-Lahti University of Technology LUT with main research interests re- lated to technology and society, gender diversity and engineering education.Dr. Hanna Niemel¨a, Lappeenranta-Lahti
in STEM fields. 1,2,3 . Under the umbrella of active learning,however, a large variety of different (and sometimes contradictory) methodologies have beenproposed; including project-based learning, problem-based learning, gamification, tinkering,collaborative learning, class competitions, and many others. As educators become more interestedin student-centered pedagogies, the question of which specific techniques are most effective isincreasingly important.Because active learning is still an emerging paradigm, the number of studies examining distinctapproaches is somewhat limited, and the difficulty of isolating those techniques in the classroomenvironment is a recognized concern. 1 In this paper, we wish to contribute to the growing pool
offerings. The first exams consisted of an in-class portion and atake-home programming assignment. The final exam was cumulative and had no take-homeportion, although students had previously completed a large, multi-week final project. Thoughdifficult to directly compare, in both offerings performance on the final projects were comparablewith most students meeting or exceeding expectations.ResultsAs Fig. 3 show, formatting of exams across the Fall 2016 offering without daily quizzes and theFall 2017 offering that included daily quizzes was similar. In 2016, the in-class portion of the firstexam had 35 questions that varied between multiple-choice style questions and open-responsesquestions. Similarly, the Fall 2017 offering’s first exam had 47
. His"Mobile Studio" project developed a hardware/software interface which, when connected tocomputer via USB cable, provides similar functionality to that of the laboratory equipment currentlyassociated with an instrumented studio classroom2. The first generation Mobile Studio was realizedby a tablet PC, and instrumentation interface implemented on a breadboard, and graphic displaysoftware as shown in Fig. 1. The instrumentation interface reads data from and sends signals to thestudent circuit made in the open space of the interface board. The graphic display software allowsstudents, by tapping icons and clicking buttons, to measure and display data and to generate signals.With access to wireless internet for class materials, the portable set