career in academia or industry, including the developmentof soft skills and increased confidence to articulate their technical ideas and knowledge. This approachcan be further extended to all STEM fields to enhance learner engagement in research-based tasks andincrease learning outcomes relating to creative and professional activities. Our results based on an IRB-approved survey indicate that 81% of the participants strongly agreed or agreed that attending the paneldiscussions increased their understanding of research topics related to the course materials. Furthermore,94% of the survey responders strongly agreed or agreed that working on a capstone report helped thembetter understand the process of creating a research paper, while 75% of the
and software to interface with the world. In thispaper, we discuss our motivations, the design of the course, what we have learned from teachingthe course, and where we see the future of experiential education heading, especially in light ofthe COVID-19 pandemic and the need for highly effective remote instruction. We believe thatthe model we have created in this classroom experience successfully prepares students for therigors of an engineering career.Our ECE department has a rich history of exemplary theoretical teaching, with a strong emphasison research, but undergraduate students felt a void in how to apply that knowledge intoengineering practice, especially in future careers. This is why in recent years we have stronglyfocused on
Stein, University of California, San Diego Works as the Project Development and Outreach Coordinator for the Electrical and Computer Engineering Department at UC San Diego.Prof. Truong Nguyen, University of California, San Diego Truong Nguyen is a Distinguished Professor at UCSD. His current research interests are video processing and machine learning algorithms with applications in health monitoring/diagnosis and 3D modeling. He received the IEEE Signal Processing Paper Award for the paper he co-wrote with Prof. P. P. Vaidyanathan on linear-phase perfect-reconstruction filter banks (1992). He received the NSF Career Award in 1995. While serving as department Chair (2014-2019), Prof. Nguyen and several faculty and
courses, and studies the use of context in both K-12 and undergraduate engineering design education. He received his Ph.D. in Engineering Education (2010) and M.S./B.S. in Electrical and Com- puter Engineering from Purdue University. Dr. Jordan is PI on several NSF-funded projects related to design, including an NSF Early CAREER Award entitled ”CAREER: Engineering Design Across Navajo Culture, Community, and Society” and ”Might Young Makers be the Engineers of the Future?,” and is a Co-PI on the NSF Revolutionizing Engineering Departments grant ”Additive Innovation: An Educational Ecosystem of Making and Risk Taking.” He was named one of ASEE PRISM’s ”20 Faculty Under 40” in 2014, and received a Presidential Early
identify as Latino/a, Black, Native American, or Alaska Nativetogether make up 27% of the U.S. population age 21 and older but hold only 11% of science andengineering positions [2]. Relative to other fields of engineering, electrical and computer engineering lag behindwith women making up 19% and 18% of undergraduate degrees awarded, respectively.Underrepresentation of women in engineering majors and subsequent industry positions beginswith an individual’s choice to pursue this career field [3]. Difficulties in recruiting and retainingfemale-identified engineering students have been explained by availability, or absence, ofenvironmental supports such as assistance in male-dominated teams [4] and positiverelationships with advisors and
students engaged in the hour-long sessionto assemble and test the PCB-based circuit. This project activity has demonstrated that(a) the K-12 student is more actively engaged in the integrated project, (b) gains thesystem level appreciation of the design problem, and (c) has the confidence to completethe project. Page 22.895.2The ECE department plans to host ECE day events with STEM-based integrated projectactivities in ECE to (a) encourage K-12 students to consider careers in ECE, (b)strengthen the undergraduate enrollment in ECE, and (c) link the undergraduate ECEprogram with the K-12 STEM curriculum.This paper is organized as follows. Section 2
infused throughout our four-year curriculum with a series of project-basedand problem-oriented learning modules. The pedagogy of vertical integration is implemented tocut across artificial course boundaries. The feedback from the initial implementation is verypositive and encouraging. The students enjoy what they learned and have more confidence andmotivation to pursue advanced studies and careers in CPS/IoT area.Background and motivationDue to our insatiable desires for more electronics functionalities and higher performancecommunications, computing, and automation, electrical engineers serve a vital function in ourmodern world. Currently, undergraduate electrical engineering (EE) students are in highdemands to be hired with the highest median
Electrical and Computer Engineering department at Auburn University. He is currently working as a research assistant to Mark L. Adams in the STORM Lab. His current research focus is in quantum engineering and introducing quantum systems to high school and undergraduate students.Prof. John Y. Hung, Auburn University John Y. Hung is a professor of electrical and computer engineering at Auburn University, where he has been on the faculty since 1989. Prior to his academic career, he worked for Johnson Controls, Inc., in the field of digital controllers for commercial building automation systems, and also worked as a consultant in control systems design. Hung is a Fellow of IEEE, and serves on the IEEE Board of Directors. He
expected, supportservices have a tremendous role in helping students be successful. We discuss some of the mostcommon student support services and provide recommendations for optimizing theireffectiveness.BackgroundAccording to the US Bureau of Labor Statistics, employment in STEM occupations grew by 10.5percent between May 2009 and May 2015, compared to a 5.2 percent net growth in non-STEMoccupations; the electrical engineering industry is projected to grow by 11 percent from 2014 to20242. This growth rate provides an opportunity for universities to draw on new sources of talentto feed the pipeline to STEM careers; a popular choice being community colleges, which areuniquely positioned to provide a talented and diverse pool of transfer students
ofbeing directly applicable to potential career choices they would be making after graduating in thenear future, whether that decision regarded graduate school or full-time employment. Many ofthe students reported that they were pleased that the course involved Linux since theirknowledge/experience of Linux was questioned on some of their recent job interviews.Since the class was composed of 15 students, it was easy to create 5 teams of 3 students each.Each team was assigned a common set of tasks required to create a wireless Linux cluster. Thecluster was to be composed of 4 nodes and a server.Initially, the students were given an overview of the concepts of software and systemsengineering, problem solving, and how project management related to
Society for Engineering Education, 2012 Parallel Simulation of Many-core Processors: Integration of Research and EducationAbstractProviding undergraduate students with an opportunity to experience meaningful academicresearch has a potential impact on their future career choice. Our approach combines twoseemingly contradicting attributes: (i) to make it exciting, the effort targets a grand researchobjective; and (ii) to make the experience self-assuring and overall positive, the concrete taskhanded to a student is feasible, given their background and time constraints, while stillcontributing towards the grand objective. We believe that this can motivate a wider range ofundergraduate students, including
andprocessinMatlab.Exampleoftasksatthislevelwouldbeedgedetectionalgorithm.StudentswillparticipateinaninternalcompetitionforthemostinterestingprojecttopresentatthefinalSITEpresentationday.SupportMaterial:Alltrainingmaterialneededforthecoursewillbeprovidedontheprojectwebsite.Nobackgroundisneededinphotographyorimageprocessing.Advancedscientificconcepts will be avoided. This course is open to students with freshman/sophomorestanding.Thematerialinthecoursewillbelargelyself‐contained.ThetechnicalcontentsofthecoursewillbesuitablewithcalculusIbackground.Skills for STEM Careers: Writing and implementing image processing applications andalgorithms using Matlab high level language to extract and analyze data from images,Improvingmathematicalandanalyticalskillsofdata,altogetherwillsignificantlyimprovethe resumes of participants. Prospective industries include image forensics, astronomy,artificialintelligence,biomedicalscience,aerospace,video/audioengineering,photography,radarengineering,andsoon.ProjectSignificanceandRelevance:Imagesareincreasinglykeytoengineering,science,andmanyotherfields
between her/his knowledge of engineering and itsapplications to medicine? Should programs require biology instead of chemistry, or both? Inthis paper we address how we can help our engineering students to be best prepared for and/orpursue a career in bioengineering, biological, and medical sciences?” 4To answer this question, let us first overview the curriculum of bio-medical engineeringeducation in engineering schools & medical education in medical schools. Page 11.653.2The Engineering curriculumThe traditional approach in bio-medical engineering education has been to emphasize the basicnatural sciences such as biology, chemistry and physics
shows that decisions to pursue STEM in later careers are influenced by early exposureduring K-12 education [1]. This early exposure is also useful in understanding connectionsbetween coursework related to mathematics, science, and liberal arts. For example, a pilot studyfound that students who were introduced to neuroscience in the context of health sciencespossessed an increased knowledge and awareness of the growing concerns related to mentalhealth issues [2]. Another study found that students who pursued higher education in STEMreported having an early personal connection to their field through a family member or friendwith a career in STEM [3]. Students who lack such personal connections may also be drawn tothe field by shadowing a
opinions on the value andquality of the lab/simulation components and overall effect. We were especially interested in (a)the students' impressions on the accuracy of their experimental data and (b) the students'confidence in their ability to carry out the experiments. Some of the survey questions includedwere: “How easy it was to understand and perform the experiment?”, “Was the outcome of theexperiment same as predicted?” Last question on the survey inquired about the long-termusefulness and impacts of the lab experience. “Do you think the experience gained inexperiments will help in your future career?”All students in this study have answered the surveys. According to Table I, students in bothstudent groups reported about the same level of
was taught by Computer Sciencefaculty in consultation with staff of the University's career guidance center. Early results havebeen very promising. Many students intending to study enginerering and computation find thecourse both enjoyable and engaging, and appear to be highly motivated towards continuing inthis direction. We are conducting a longitudinal study to determine the effectiveness of thiscourse in improving student success in CS and Engineering.In order to engage a large number of freshmen, the course is incorporated into a required firstsemester "University Studies" program designed to teach skills necessary for academic successand to provide career guidance. Students attending this course are provided an accessible earlyexposure
education. We have collected data from undergraduate junior-standingengineering modeling and design students at our university through a longitudinal studyspanning the last three years. The statistical analysis has helped us identify important factors thatcan influence success of students in their future engineering careers. These include problemsolving, communication, and logical thinking skills, perception of self-efficacy to developstudents’ self-belief, and their course grades. The purpose of present work is to examine theeffect of PBL activities on engineering students’ grades and self-efficacy. Furthermore, weinvestigate whether there is a difference between students’ course grades based on their genderafter engaging in PBL activities
Engineering and Science Building University of Pittsburgh at Johnstown Johnstown, PA 15904 c American Society for Engineering Education, 2019 Impact of Embedded Systems Course on Undergraduate Capstone ProjectsAbstract: When electrical (EE) and computer engineers (COE) are trained, it is imperative that nearly allacquire some level of exposure to microcontrollers and associated software development skills toeffectively function as engineers in their careers. At this university, electrical engineering andcomputer engineering majors take a one-semester course in microcontrollers to learn embeddedsystem development in their junior year. In prior semesters, they
. Indeed, the defining aspect of SDR is its extremely multidisciplinary nature,requiring a tremendous breadth of knowledge and background in a wide variety of subjects.Successful SDR development is contingent on the successful integration and synthesis ofmaterial taught across the entire electrical engineering (EE) and computer science andengineering (CSE) undergraduate curricula. The Challenge allows the students to develop theskills and mindsets they will require in their careers, regardless of whether or not they work inthe SDR domain.Smart Radio Challenge Affecting the Learning of SDR DesignAs stated above, the SDR design domain employs many different aspects of telecommunicationsand design tools, covering antennas and EM environment
the summer research program questionnaire The opportunity for close interaction with the faculty members was: The opportunity to learn more about other faculty and student projects in addition to my own was: The opportunity to learn more about how to plan for graduate school and careers in electrical engineering, computer engineering was: The opportunity to learn more about general research processes & methods was: The opportunity to learn more about the Cognitive Communications related skills and techniques was: The opportunity to become familiar with the relevant scientific literature for my research project was: The opportunity to learn more about the
classrooms throughout the Boise area and serving as a career mentor to high school students interested in pursuing engineering as a career. Taylor’s role at CSATS focused on interfacing with science and engineering research faculty to develop and implement K-12 teacher professional development. Currently, Taylor is pursuing a doctorate degree in Materials Science and Engineering and Penn State University.Dr. Matthew Johnson, Matt is an Assistant Professor with the Center for Science and the Schools in the College of Education at Penn State University. His research interests focus on how teachers learn about epistemic practices of en- gineers through in-service teacher professional development programs and how they provide
electrical and computer engineering department heads wasconducted in 2009 to solicit responses regarding what constitutes sufficient assessment forprogram educational objectives. The results of this survey indicate that the current views of whatconstitutes sufficiency by ABET are misguided, resulting in the collection of statistically invaliddata, faulty assumptions regarding the causality of a program’s objectives to the career successesof their alumni, and unwarranted citations for shortcomings beyond the control of both programand institution. This paper presents a detailed analysis of the survey responses and providesrecommendations to ABET for changes to the accreditation process.IntroductionIn the “Criteria for Accrediting Engineering Programs
prepare electrical engineering students to enter theworkforce with the necessary skills to be successful in their careers and remain in a professionthat holds so much promise for this country's future. The intention of this study is to beexploratory in nature, and therefore the resulting goals are not meant to be an exhaustive list ofthose important in the electrical engineering profession. It is hoped that the results of this studywill be merely a starting point for further discussion and research into the values shared bydifferent sectors of the profession so that these groups can then use this information to betterprepare future electrical engineers for practice.MethodsData To address the research question, the author used interview data
predicted that the growth of Science, Technology,Engineering, and Mathematics (STEM) related jobs will be approximately 13 percent from 2014to 2024; the only field with a higher predicted growth rate is the medical field [1], while theanticipated growth rate of all non-STEM fields is only estimated to be 11 percent [2]. Additionally,the growth of robotics and other automation in the workforce is shifting the demand to high-skill,high-wage jobs [3]. From 2000 to 2008 there was a decline of 32 percent in manufacturing jobs,while overall job growth was still 4.5 percent [4]. This, coupled with the large groups of futureretiring engineers [5], makes engineering a very promising career path for students to pursue.Students need exposure to STEM at a
economy. Students who havea broader view of their engineering education, and understand how engineering solutions impactthe environment and cultures, as well as how culture impacts engineering, are better prepared fortheir career as an engineer in a global society.Three Global Learning Outcomes were identified as part of the university-wide initiative: 1) GlobalEngagement; 2) Diversity Education; and 3) Environmental Sustainability. We agree with this di-vision of global learning aspects. While sustainability may not initially seem to be a component ofglobal learning, it is an aspect that is truly global in its scope, and of concern to all peoples on thisEarth. Disregard for the importance of sustainability has global effects. Furthermore
aboutstakeholders. First, they broadened their understanding of a technology’s stakeholders to includeemployees, communities impacted by their business, and suppliers and subcontractors (seebolded data in Figure 1). The largest increase was in “communities affected by their business,”which went from 66% of students ranking them “highest importance in the pre-survey to 86% inthe post-survey.The students also showed an increase in their belief that they would have to identify relevantstakeholders as a part of their future careers as engineers (Figure 2). Almost all students (93%)ended the course expressing a belief that engineers played a role in a company’s CSR efforts, upfrom 80% of students believing so at the beginning of the course
of Tennessee at Chattanooga, along with its partners, has developed acomprehensive approach to addressing the workforce development needs of the power sector.Funded through a Department of Energy grant the partners are recruiting high school studentsinto power careers, providing two-year and four-year college training, and developinglaboratories and graduate curricula tailored to new power and energy technologies. Existingworkforce training takes the form of diverse workshop and seminar offerings. The paperdescribes these programs, their results, and lessons learned from expanding outreach andcurricula for power sector constituents.IntroductionThe power sector is dealing with the challenge of an aging workforce, with critical knowledgeand
Students Program (ESP) [4] attended by entering freshmen at theUniversity of Texas at El Paso, a primarily Hispanic-Serving Institution (HSI) serving an economicallydisadvantaged bi-national urban area on the US-Mexico border. The objective of the entering studentsprogram is to assist students in developing skills necessary for academic success in college and to assist incareer selection. MPCT, which is allocated approximately half of the course‟s instructional time, providestechnical content to complement the entering students program‟s curriculum that reviews study, note-taking,presentation, and writing skills, and career guidance. Introductory courses for technical disciplines such as computer science can offer a limited
aboutrobotics’ before takin ng the class. The course increased thhe student interests in robbotics andassociateed careers, ass shown in Fig. F 3, wheree there were only 3 studeents stating ‘Very interesstedin roboticcs’ before th he course whhile 10 studennts stated the same outcoome after thhe course.Moreoveer, nine studeents became interested inn a robotics career after the course while w there was wonly one student with h the same raanking beforre the coursee. (a
definition of quantitative and precise metricsthat reflect changes in the program. A second is the data collection and the action definitions thatshould minimize or, at least, allow the resolution of interdependencies and correlations amongthem. While these form an intellectually interesting modeling and feedback problem, one mustalso be prepared to accommodate some faculty resistance, indifference, or simply lack of time toperform such tasks. Viewing automation and consistency as a key for the success of continuousimprovement, we have implemented this feedback process for the last four years and here wepresent some of our experiences.1. IntroductionObjective and meaningful evaluation of student performance and career success is a complicatedproblem