,graduate students, and faculty. This paper analyzes the student learning outcomes, forEngineering and Engineering Technology (E&ET) programs, where the curriculum has beentailored to include undergraduate research, as compared to lecture & lab-based curriculum.Previous research, on which the present work is based, shows that research projects allowstudents to explore, discover and innovate in a limited period of time and space. Theliterature reveals that undergraduate research helps to integrate students with the faculty andresults in publications which appear in peer-reviewed journals. Thus the student is able tocreate portfolios that shed light on their learning and skills development in the professions.Through this work, the following
Space Vehicle Mission Planning Laboratory at the University of Maryland Eastern Shore. In 2010, he joined Eastern Michigan University as an Associate Dean in the College of Technology and currently is a Professor in the School of Engineer- ing Technology. He has an extensive experience in curriculum and laboratory design and development. Dr. Eydgahi has served as a member of the Board of Directors for Tau Alpha Pi, as a member of Advi- sory and Editorial boards for many International Journals in Engineering and Technology, as a member of review panel for NASA and Department of Education, as a regional and chapter chairman of IEEE, SME, and ASEE, and as a session chair and as a member of scientific and international
technologies to en- hance Drexel’s Engineering Technology course offerings. Eric is currently pursuing a Ph.D in Computer Engineering at Drexel, and is an author of several technical papers in the field of Engineering Technology Education.Sarina M. Stoor, Arora Engineers Inc. Project Coordinator at Arora Engineers, Inc.Mr. Fahad Ibrahim AlsuhaibaniAlexander M. Rogers, Drexel University c American Society for Engineering Education, 2019 Senior Design Project – The Road from Initial Design to Working PrototypeAbstractThe Senior Design Project is the capstone undergraduate experience for Drexel University’sEngineering Technology (ET) students. During this
Department at The Technical University of Cluj-Napoca, Electrical and Computer Engineering Department at Rose-Hulman Institute of Technology, Terre Haute, In and R@D engineer for The Institute of Scientific Research for Automation and Telecommunications, Bucharest, Romania. Over the past ten years she taught several undergraduate and graduate courses on Electronic Components and Circuits, Digital Design, Design of Fault Tolerant Systems and Testing of Digital Systems. Her current research interest includes Reliability and Fault Tolerance of Electronic Systems, Programmable Logic De- vices and new educational methods teaching digital design and analog electronics, emphasizing ”hands- on” experiences and project-based
Paper ID #25827Board 3: Engineering Technology Scholars-IMProving Retention and Stu-dent Success (ETS-IMPRESS): First Year Progress ReportDr. Nasser Alaraje, Michigan Technological University Dr. Alaraje is a Professor and Program Chair of Electrical Engineering Technology in the School of Technology at Michigan Tech. Prior to his faculty appointment, he was employed by Lucent Technolo- gies as a hardware design engineer, from 1997- 2002, and by vLogix as chief hardware design engineer, from 2002-2004. Dr. Alaraje’s research interests focus on processor architecture, System-on-Chip design methodology, Field-Programmable
thinking can be uncomfortable for both student and instructor, but it often leads tosubstantial creative content in a project. As noted in Sheppard et al (1997) in describing thefreshman engineering design and product design program at Stanford, one of the instructors(Faste) noted: “some of the best ideas were initially labeled ‘stupid’.”9 There is a clear need tocreate a classroom environment that encourages divergent thinking and permits new ideas to beexplored.There are numerous examples of cornerstone (freshman/sophomore) design classes inengineering programs. Three examples highlight some of the characteristics needed to provide anengaging engineering experience for freshman students. As part of a curriculum overhaul, MITimplemented CDIO
andautomation areas. These statistics clearly show there is a skill gap between industry needs andwhat current curriculum offers at community college levels and other levels. To fill these skillgap there is a need for industry driven curriculum development and this project reflected thoseissues. Driven by the program objectives, the Old Dominion University (ODU) and CCAMteam developed an approach to formulate the curriculum and courses. Since the mechatronicsprograms are mature, the approach for this project was to piggy-back on these programs tointroduce robotics technology programs into the current offerings. Mechatronics is aninterdisciplinary area of engineering that combines mechanical and electrical engineering and
developing their skills and interest in the STEM fields to ensuretheir success at the post-secondary level and beyond. The fundamental principles of E-CADEMY are based on a combination of best practices from research including: a project-basedlearning (PBL) curriculum, high dosage model, cohort of like-minded peers, engagement withSTEM professionals, and family engagement [4]-[8]. This paper provides an overview of theprogram’s component, student feedback and program model future considerations.II. Program Overview Project SYNCERE has provided equitable hands-on engineering experiences for morethan 20,000 underrepresented students in grades three through twelve since 2011. The goal of theorganization’s work is to create pathways for
Paper ID #11372Innovative Embedded Systems ProjectMr. Stephen A. Strom, Pennsylvania State University, Erie Stephen Strom is a lecturer in the Electrical and Computer Engineering Technology department of Penn State Behrend, and holds a B.S. in electrical engineering from Carnegie Mellon University. His career includes over thirty years experience in designing and programming embedded systems and has multiple patents for both hardware designs and software algorithms Page 26.971.1 c American
Arduino Pulse WidthModulation, Lab 3 Sensors and Conditionals, and Lab 4 Autonomous Vehicle. Each lab wasgroup work with 2 or 3 students per group.Design of Project-based Learning (PBL) ActivitiesDesign of PBL for Logic CircuitsSimilar to the curriculum at many universities, our program has a Logic Circuits course forsophomore students in electrical engineering and computer engineering. This course is a 3 hourlecture, 2 hour lab, 4 credit course. The following topics are introduced to students: numbersystems, Boolean logic, Boolean algebra, K-maps, Flip-Flops, counters, and registers. Problemsets related to these topics were assigned.To increase the amount of PBL activity, two structured projects were added to the lab section.Both projects had
Carpenter and Raymond Hansen* {carpentera1, hansenr2}@wit.edu Dept. of Electrical and Computer Engineering *Dept. of Computer Science and Networking Wentworth Institute of TechnologyAs cybersecurity grows as a specialty within electrical and computer engineering and computerscience, students increasingly choose to pursue projects in the area. These projects come in theform of class projects, senior design/capstone projects, and extracurricular research of varyingdegrees of difficulty and sub-genres of cybersecurity. However, it is easy for these cybersecurityprojects to put students in danger of violating laws or compromising equipment; thus, it is
paradigm in education through an NSF sponsored program. Long experience in curriculum development. Extensive knowledge in academic programs, professional development programs and on the job training plans. Motivated, fluent in English with multi-lingual capability, internationally educated professional, with work experience in different countries and international organizations. Highly diversified, person- able and outreaching communication skills. Winner of 2012 faculty of the year award at Lawrence Tech- nological University. Nominated for Teaching Excellence and Using Technology in Classroom Awards.Mr. Jerry Cuper, Lawrence Technological University Jerry Cuper is a professor and advisor in the Department of Engineering
applications and potential impact.An essential aspect of implementing AI in the EE curriculum is fostering collaborative researchand establishing industry partnerships [21]. Engaging students in AI-related research projectsallows them to explore real-world applications and challenges, enhancing their learningexperience. Additionally, establishing connections with industry professionals provides studentsvaluable insights into current AI practices and emerging trends. These collaborative initiativesbetween academia and industry ensure a holistic and well-rounded approach to AI integration inthe EE curriculum that remains timely and relevant to industry needs.Student Survey on AI's Role in Electrical Engineering Education: Perceptions of Benefitsand
matter.Additional metrics can track the applicability of the BSET program outside of the classroom andworkforce development. As Paul Nutter et al states, “Academic programs can benefit byassessing their effectiveness to fulfill the needs and expectations of manufacturing industries,gaining insights for appropriate curriculum revisions to enhance the job-readiness of students toserve these ‘customers’ of our academic services.” [4] Metrics may include: • # of companies engaged in the program through guest lectures, co-ops and internships • # of funding requests for researching teaching methods to improve BSET program • # of sponsored manufacturing research projects with an application component not only in engineering technology but with the
option and the Technology Education degree was cancelled due to low enrollment.These five programs, EET, MET, including a CAD/CAM option, PET, ID and IT were the pro-grams that existed when we began to switch the ET programs to engineering.Two of the defining characteristics of the engineering technology programs at WWU were signif-icant experiential learning through labs and projects and strong connections to local industrythrough both sponsored projects and active Industrial Advisory Committees (IACs). The heart ofthe Mission Statement for the Department was, and still is: “developing industry-ready graduatesthrough a combination of creative problem-solving, analytical skills development, and experientiallearning.”[4] All three programs had
propose a Fundamental Learning Integration Platform (FLIP) which creates aphysical connection between the conceptual and practical engineering concepts throughout anentire 4-year Mechanical Engineering curriculum [10]. Students were made explicitly aware ofhow each concept from their courses fits into the bigger picture through an end of semesterproject that revolved around a specific aspect of the steam engine. This concept is difficult toapply to Electrical Engineering because of the wide variety of specializations offered within themajor. While connections between areas are plentiful, creating a singular project that faculty ofall specializations will deem sufficiently applicable would be nigh impossible.Alnajjar proposes “Integrative Learning
engineer, from 1997- 2002, and by vLogix as chief hardware design engineer, from 2002-2004. In 2009, Alaraje was awarded the Golden Jubilee by the College of Engi- neering at Assiut University, in Egypt. He has served as an ABET/IEEE-TAC evaluator for electrical engineering technology and computer engineering technology programs. Dr. Alaraje is a 2013-2014 Fulbright scholarship recipient at Qatar University, where he taught courses on Embedded Systems. Ad- ditionally, Dr. Alaraje is recipient of an NSF award for a digital logic design curriculum revision in collaboration with College of Lake County in Illinois, and NSF award in collaboration with University of New Mexico, Drake State Technical College and Chandler
the MET 4100 curriculum. The subject of this newly developed project is todesign (start-to-finish) an HVAC system to satisfy the heating load requirements for the twoMET laboratories in the ET Department. This course is a senior level course, and at this level,the students already have prior general knowledge of technical drawing and drafting, heattransfer, psychometric chart, and duct design. To better facilitate the access to the technicalinformation, a lesson plan discussing the benefits of using the University’s library resources andan online LibGuide webpage (https://libguides.utoledo.edu/MET4100) were created and added tothe course’s Blackboard platform. The webpage lists some of the resources required for theHVAC design project, like e
of the ASEE and IEEE.Dr. Jeffrey E. Froyd, Texas A&M University Dr. Jeffrey E. Froyd is a TEES Research Professor in the Office of Engineering Academic and Student Affairs at Texas A&M University, College Station. He received the B.S. degree in mathematics from Rose-Hulman Institute of Technology and the M.S. and Ph.D. degrees in electrical engineering from the University of Minnesota, Minneapolis. He was an Assistant Professor, Associate Professor, and Professor of Electrical and Computer Engineering at Rose-Hulman Institute of Technology. At Rose-Hulman, he co-created the Integrated, First-Year Curriculum in Science, Engineering and Mathematics, which was recognized in 1997 with a Hesburgh Award
Paper ID #38842Considerations for software-defined radio use within a project-basedlearning subjectDr. Glenn J Bradford, University of Melbourne Glenn Bradford is a Teaching Fellow in the Department of Electrical and Electronic Engineering at the University of Melbourne. His main focus is creating innovative curriculum that incorporates practical, hands-on experiences to better drive student learning. From 2015 to 2020, he worked as a 5G Wireless Systems Engineer at Intel Corporation developing advanced 5G wireless prototypes and systems exploring the convergence of 5G wireless with emerging immersive media applications
Society for Engineering Education, 2020 Crayowulf: A Multidisciplinary Capstone ProjectABSTRACTSenior capstone projects provide an excellent means of having students apply and integrate manyof the topics they have learned over the course of their undergraduate education. In this paper, wedescribe a two-semester (10-month) senior capstone project in which a multidisciplinary group—one computer science student, one electrical engineering student, and two mechanical engineeringstudents—worked as a team to implement an innovative Beowulf cluster design. The clustercommemorates the Cray-1 supercomputer, with a small hexagonal aluminum case enclosing adistributed multiprocessor consisting of five Nvidia Jetson TX2 single board
a need for project-based curricula that incorporateimportant elements of computer science, engineering and technology, and create engaging andmeaningful classroom projects exemplifying real-world CS endeavors in which all students canparticipate.To address these concerns for developing students’ computer science skills and, understandingand awareness of cybersecurity issues across multiple educational levels, we have developed andpiloted a Do-It-Yourself (DIY) modular Cybersecurity Training (CST) Kit with theaccompanying modular curriculum at variable levels. The Kit allows the students to test theconcepts taught in class on real hardware immediately. It facilitates hands-on assignment wherethe students assemble modular hardware components
Applying Scrum Project Management Methods in Biomedical and Electrical and Computer Engineering Capstone Design Courses David Lee1 , Carl Wick1 , and Hernan Figueroa2 1 Biomedical Engineering, George Washington University 2 Electrical and Computer Engineering, George Washington University Mar. 15, 2018AbstractThe Biomedical engineering and Electrical and Computer Engineering Departments at GeorgeWashington University have traditionally used a waterfall project management methodologyfor their two and three semester capstone design courses. We noticed that this approach re-sulted in incomplete senior design projects
statement of work(SOW) and given constraints. The main advantages of the competition-driven projects isstudents’ self-motivation and interest in working in a competitive environment. A majority ofthese projects require expertise from multiple disciplines leading to interdisciplinary projects.To introduce state-of-the-art autonomous vehicle technology to ET students, the EET and theMET programs at Oklahoma State University (OSU), Stillwater, OK revised the curriculum tointroduce competition-based interdisciplinary senior design projects. The pilot project wasintroduced in spring 2018 as a one-semester project. The design teams were tasked to build anautonomous vehicle using a commercial remote control (RC) car that can autonomously navigatea
resourcefulness and creativity and to develop and improve their oral and writtencommunication skills. Some important outcomes associated with undergraduate research includedeeper and more detailed learning, application of knowledge to a real situation, analysis andinterpretation of data and results, integration of material learned in several courses, anddevelopment and clarification of career paths among others [3].Senior Design CoursesThe introduction of the two-semester senior design courses, ENT 465, Electrical Design I andENT 466, Electrical Design II, at SUNY Buffalo State addressed a concern raised by faculty inthe department that a one semester course did not provide adequate time for students to completerigorous projects. Many of the projects
, curriculum, student experience, faculty,learning resources and administrative support. A two-day long site visit was conducted by apanel of two external and two internal peer reviewers. This paper presents planning, preparationand lessons learned from this recent academic review of the program. Some of the highlightedlessons learned are plan early, develop and implement a continuous improvement plan, securefaculty and administrative support to drive success in a graduate program.IntroductionAccreditation is an integral part of most undergraduate Engineering Technology (ET) programsin the USA. Accreditation bodies like ABET ensure that a program meets the quality standardsthat produce graduates prepared to enter a global workforce (ABET, 2019
between academia and industry. Activities include: • Managed Ohio Development Services Agency Ohio MEP funded program on ”Man- ufacturing 5.0” to develop a framework and set of tools to guide MEP staff assisting small- and medium- sized manufacturing firms in their journey toward digital integration. • Completed ODSA-funded project on Ohio Advanced Manufacturing Technical Resource Network roadmaps organized by manufactur- ing processes to determine manufacturing needs and technical solutions for machining, molding, join- ing/forming, additive manufacturing. • Served as lead coordinator of a Bachelor of Science in Engineer- ing Technology degree program at The Ohio State University focused on curriculum development and
educational standpoint, but also those from the perspective of industry providedan excellent foundation for all individuals who contributed to this project. Furthermore,communicating and working with industry partners played a significant role in this micro-credential development. Attending technical training and listening to recommendations of industrypartners in companies like General Electric (GE) provided a clear pathway to building the coursework and choosing the appropriate educational trainers that much easier. Staying atop what ishappening not only in the respective industry, but also in the political world that affects it is crucialto understanding when a micro-credential can be offered. With students wanting careers in thefield, there needs
. degree in physics from Villanova University, and an M.S. degree in Electrical Engineering from the University of Pennsylvania. I was a communication system engineer at General Electric in both military and commer- cial communication satellite operations for over nine years. I establish technical, college level, programs of study for modernized classroom and laboratory curricula including online course platforms, and inte- grated technologies. I have been involved in several grant efforts as the author and project director that have enhanced the programs at Bucks. I am currently the PI of an NSF ATE grant to increase the num- ber of engineering technicians in Southeastern Pennsylvania. This grant involves a
educational programsdesigned to promote gender equality. Boykin (2010) stated that the year 2010 might wellbe remembered as the year of a four-letter word usually associated with plant life made itinto the national spotlight, “STEM is suddenly everywhere”(para.2). President BarackObama (2013) said, “One of the things that I really strongly believe in is that we need tohave more Women interested in math, science, and engineering. The problem studied in this research project was the enrollment of female STEMEngineering Technology students and the impact of professional mentoring and financialincentives on their enrollment, retention, and completion of engineering curriculum. In2011, the researcher joined a Middle Tennessee public university as a