the project, students were administered a second CATME survey to determine if the designvolatility had an impact on the team dynamics. The results of both surveys were statisticallycompared for significant differences.The results of the study suggest that student perception of their peer’s contribution was unchangedfollowing the design change. However, the students’ perception of their individual contributionchanged, specifically regarding their contribution to the teamwork and their expectation of qualityin the final product.IntroductionEngineering design has been referred to as a team sport. Multiple disciplines are often required fordifferent aspects of a product, with integration of mechanical, electrical, and computer
education, a variety of pedagogical considerations have beenimplemented and experimented, such as inquiry-based learning (Behrouzi and Kuchma, 2016),project-based learning (Khorbotly, 2015; Wang et. al., 2017; Zhao et. al., 2017; Luo, 2015),cooperative learning (Akili, 2012), active learning (Luo, 2015; Akili, 2014; Oliveira, 2015),divide-and-conquer learning (Kos and Miller, 2017; Sullivan-Green, et. al., 2017), student-centered learning (Grigg and Stephan, 2018), and problem-based method (Oliveira, 2015), etc.The project-based learning approach is one of the innovative methods promoted in engineeringeducation. Khorbotly developed and taught a computer vision curriculum in the undergraduateelectrical and computer engineering program using a
that our curricula of today effectively do not prepareour students for the careers of tomorrow [2]. More importantly, the way students learn has alsofundamentally changed [3], swiftly rendering our instructional methodologies obsolete. Ouroverarching motivation is to aid the engineering education community in the (re)design processof engineering curricula such that they can transcend the competency gap between the graduatesof today and the careers of tomorrow.The Joint Task Force on Computing Curricula by the Institute of Electrical and ElectronicsEngineers (IEEE) Computer Society and the Association of Computing Machinery (ACM) haspublished two Curriculum Guidelines for Undergraduate Degree Programs in ComputerEngineering (CE), one in 2004
-optics, including plasmonics, nanofabrication, computational modeling, photonic crystals, and engineering education. ©American Society for Engineering Education, 2023 Work in Progress: An optimization model for assigning students to multidisciplinary teams by considering preferences and skillsAbstractProject-based learning has become popular and prevalent across higher education. Additionally,the Accrediting Board for Engineering and Technology also emphasizes the ability to function inmultidisciplinary teams. These educational practices have resulted in the implementation ofteam-based projects throughout engineering curriculums. Team formation, however, is not atrivial process and occasionally
future career.Most universities have an introduction to engineering freshman course that covers broad viewsof mechanical, electrical and general engineering. Most universities concentrate on a freshmandesign course with emphasis on mechanical design, [Sheppart, et al., 2002]7 [University ofTennessee webpage http://tnengineer.engr.utk.edu/] [Matsuishi, et. al., 2002]3 and littleinvolvement with electrical design. Few have electrical engineering freshman design classes[Patangia, 2002]4. Integration in freshman courses involves mathematics, with statics, dynamicsand mechanical design and problem solving [Felder, 1996]1 [Wood, et. al., 2001]11 or humanitiesand engineering [Sinclair, et al., 1995]8 or upper class engineering students with freshmen
Post Doctoral Research Fellow from the University of Birmingham, UK. She was a Visiting Professor at Michigan Technological University for five years, and an Associate professor at Tennessee Technological University for 7 years prior to arriving at the University of the District of Columbia in the Fall of 2001. Dr. Ososanya research interests include new applications for VLSI ASIC design, Microcomputer Architecture, Microcontrollers, Nanotechnology, and Renewable Energy Systems. In recent years, she has worked with colleagues to apply these technologies to Biomass research, Solar Cells efficiency capture research, and Renewable Energy Curriculum developments. Dr. Ososanya teaches a myriad of Electrical Engineering
computer and electrical engineer has as much to contribute to car production as amechanical engineer. Any major engineering project requires engineers from differentdisciplines to work together and to understand the role and importance of each and everycontribution to make the project a success. Engineering education is following these professionalchanges and more and more interdisciplinary courses are being added to the engineering andengineering technology curriculum. However, a majority of these courses focus on one to twoengineering disciplines, and few courses are able to offer something to students from severaldifferent majors.Engineering Boundaries BlurringThe intellectual components of engineering must be connected holistically to avoid
employing three modules, this curriculum avoids a cumulativeexposure to a specific matter and, at the same time, introduces related material from otherdisciplines. Likewise, the proposed curriculum still demands the knowledge acquired inprevious courses. This sequential learning leads to a more refined understanding of subjectmaterial and promotes greater efforts at synthesis and analysis.This mechanical engineering curriculum concludes in a substantial project or course after thestudent has demonstrated a good understanding of the fundamentals of the discipline. In theAmerican Association of Colleges’ (AAC) view, this experience provides two great lessons: 1)the joy of mastery, the thrill of moving forward in a formal body of knowledge and gaining
, controls, and sensorytechnologies. Typical experiments and design projects will be addressed in this paper to illustrate educationalobjectives and flexibility in equipment configuration. Challenges in accomplishing the stated educationalobjectives will also be addressed. II. The Senior Laboratory Motivated by the need to integrate design throughout the electrical engineering curriculum and to instillin students attributes of creative thinking, the new laboratory was developed. This laboratory takes the place of atraditional electrical machines and energy conversion laboratory. In the previous laboratory, students used toconduct classical experiments to characterize electric machines and
Fig 2. Electric power generation employment details, 1998-2017 [1], [2]. [4].In this project, the focus was made on the solar photovoltaic technology, by developing the state-of-the-art laboratory and curriculum that match well with the relevant industry needs, to train thestudents in the Engineering Technology (ET) Departments at New Jersey Institute of Technology(NJIT) and County College of Morris (CCM).New Courses and Laboratories DevelopmentTwo identical laboratories were developed, one per each partner institution, and were equippedwith the following products from Amatrol Inc.: “Solar PV Installation Learning System”, “SolarPV Troubleshooting Learning System”, “Solar Thermal Troubleshooting
) Education Research key to student Conference achievement Proceedings22. Quadrato & Engineering Applied Offers approach toWelch (2003) Education Research capstone design projects Conference (program that provides clear Proceedings focus) expectations for students24. Salama et al. Engineering Applied Provides senior capstone(2004) Education Research design projects in Journal (program electrical engineering a focus) progress Assessment for
interdisciplinary communicationbreakdown in the engineering field. Factors that distinguish the exceptional engineer include theability to make, read, and interpret plans; effective interdisciplinary communication skills; andthe ability to combine creative thinking and visualization to make unique designs. Incorporatingarchitectural graphics into the general engineering curriculum exposes all engineering studentsacross the disciplines to a universal language and the creative design process. The practicalapplication of architectural graphics is presented across the fields of general, civil, mechanical,and electrical engineering.IntroductionEngineering graphics is a fundamental communication medium used by technically trainedpeople worldwide to design
up of an Internet-based laboratory forinteractive learning. Faculties from two Historically Black Colleges and Universities (HBCU)collaborate on this project, with the aim of revamping some existing laboratories with virtual andremote functionalities. The objectives of this effort are to improve the learning of under-represented student population in the ET program; provide a platform to publish the VR-Labcourseware developed in senior projects; promote inter-institutional collaboration by developingand sharing VR-Lab courseware; develop faculty expertise through research and teachinginitiatives; and disseminate results and findings of the project to other universities and colleges.In this paper, the authors intend to demonstrate their
activities: 1) crafting a solar charger for mobile phones and 2) creating amodel microgrid capable of providing electrical Energy to at least one classroom. Subsequently, studentsand teachers will present their achievements to the local community.To evaluate the project's learning outcomes, students underwent pre- and post-tests focusing on theproject's content. They also participated in a survey gauging their attitudes towards STEM subjects andcareers. Additionally, the assessment involved a review of students' engagement with and completion ofasynchronous assignments, examining the influence on the learning process. In summary, the paperpresents the findings and insights from these assessments and the project. 2. Literature reviewAccording to
Technology and Industrial Distribution Department in 1989 and has served as the Program Director of the Electronics and Telecommunications Programs and as the Associate Department Head for Operations. He received his BS degree in electrical engineering (1975) from California State University, Sacramento, and his MS (1980) and DE (1983) degrees in industrial engineering from Texas A&M University. His education and research interests include project management, innovation and entrepreneurship, and embedded product/system development.John Poston, Texas A&M UniversityKenneth Peddicord, Texas A&M UniversityJohn Crenshaw, STP Nuclear Operating Company
effort of visits and networking, a total of twenty teachers with avariety of science, math and technology specialties participated in this week-long program heldin July of 2010.During the workshop, a simple, portable curriculum, which can also be used by teachers in theirinstitutions, was given to attract both teachers and students in the fundamental areas of ElectricalEngineering Technology that is applicable to Nuclear Power Systems. The curriculum includedboth lecture and lab sessions which are suitable for beginners in Electric and Digital Systems.Additionally, a field trip to a nearby nuclear power plant and an oil refining facility wasorganized to introduce teachers to the industry.Finally, a survey was conducted to evaluate the overall
project objective is to promote electrical and computer engineering technologyeducation in sustainability topics. The sources of sustainable power such as wind and solarsystems today primarily utilize power electronics as an enabling technology. Therefore, teachingpower electronics and associated technology in an engaging manner will eventually serve thisobjective. The proposed teaching methodology includes a portable lab bench, which is capable ofperforming various lab activities that support the lecture module sequence related tosustainability topics presented in the class. The lab activities are not intended to be exhaustivebut simple enough to stimulate student interest in the topic. The activities that are selected fromCUSP™ curriculum
at SUNY-Binghamton offered its owndiscipline- specific capstone design course. (Figure 1) At the direction of the dean inSeptember 2000, a committee consisting of all department chairs, undergraduate programdirectors, and the associate dean for administration was established. This committee metregularly over the course of the academic year and recommended that a pilot multi-disciplinary capstone project sequence be developed and offered beginning in fall 2001. Page 9.932.1The Department of Electrical and Computer Engineering (ECE), and the Department of Proceedings of the 2004 American Society for Engineering Education
collect, sort, and deliver objects on a playfield. Thiscourse is an upper-level elective for ME, EE, CpE, and Computer Science students and currentlymeets for three contact hours a week. Many of the lessons learned by Stein were used in designingthe project, milestones, and pedagogical techniques in this work. Stein’s own course design workwas built on the foundation of many other studies [3]-[7].Cherng, et al. [3] provide a detailed discussion of their mechanical engineering senior electivecourse entitled Principles and Applications of Mechatronics System Design. Particular courseobjectives were to prepare ME undergraduate students in the area of integrating microcontrollers,provide the student with hands-on experiences, and to challenge
. Following the symposium, the CoP has been regularly meetingmonthly to discuss CoP goals, online teaching tips [4], course format (whether all the courses needto be offered in identical format), synchronous vs asynchronous offering, etc. The project emphasizes the importance of building community among CoP EPACT facultyand how to engage in deep collaboration with faculty across multiple institutions. CC engineeringfaculty often work in departments with multiple disciplines, limiting opportunities forcollaboration. This project creates dedicated spaces for faculty to share curriculum, pedagogy, anda vision for student success, while also ensuring alignment with university-level engineeringprograms. In year two, the focus is on developing the
presents preliminary findingsbased on semi-structured interviews with four racially minoritized engineering students.Conceptual framework - Hidden curriculum in engineering educational assessmentsWe use the concept of hidden curriculum [27] to guide our research and result interpretation.More specifically, we view the concept of hidden curriculum from an assessment point of view,using data on student experiences with engineering classroom exams to explore what hiddencurriculum looks like for racially minoritized students. Hidden curriculum refers to any type ofimplicit, unofficial, or unintended messages, content, expectations that occurred in aneducational setting [27]. In engineering education, Villanueva et al. [14] have been exploring thekey
Paper ID #7138By the Students, for the students: A New Paradigm for Better Achieving theLearning ObjectivesMr. Mohammadjafar EsmaeiliDr. Ali Eydgahi, Eastern Michigan University Dr. Eydgahi is a professor in the school of Engineering Technology at Eastern Michigan University. He has supervised a number of graduate thesis and undergraduate projects in the areas of Unmanned Vehicle Design, Sensor Fusion, Speaker Recognition Design, Virtual Reality and Visualization, Digital Signal Processing, Control Systems, Robotics and Systems Automation. He has an extensive experience in curriculum and laboratory design and development
twins combined with immersive technologies allow students to experiencecomplex systems more intuitively. Balla et al. [23] emphasize the role of digital twins in project-basedlearning (PBL), where students work on real-world design challenges and interact with virtual models ofengineering systems. This immersive approach encourages experimentation and iteration, helpingstudents to refine their design thinking and problem-solving skills. The use of digital twins in combinationwith AR/VR technologies also promotes active engagement and enhances spatial reasoning, which iscrucial in engineering design.Theme 4: Cross-Disciplinary Collaboration and Industry-Academia Integration Finally, the last theme that emerged from our study is related
required for all the BSET concentrations. The goal of these courses is to demonstrate theability to manage a major project involving the design and implementation of products with amixture of electrical and mechanical elements as a member of a product development team.Several projects that were conducted by our ET students were employing the capabilities of theabove equipment and tools acquired or developed with the help of this project. One of theexamples of such projects is a 2014 SME Senior design competition award winning that aimed atdeveloping a 3D printer that will bring a new twist to the field of 3D printing - conductivity. Thisproject was sponsored by our grant up to $1000 and has the following goals: The ability to print with a low
others. Projects arealso presented in public exhibitions for more objective evaluation. Page 12.451.7Table 1 Mechanical Engineering Curriculum Based on Capstone Design EducationYr Stage of Education Items for Education Important Educational Direction Progress - disassemble/assemble -educate principle of operation of learning structure -operation of working mechatronic system and its structure and principles of model mechanism -encourage to learn basic mechanics1 machines and -basic and engineering analysis electric circuits electric/electronic
Engineering EducationThe efforts to identify the root of the problem in the UK revealed that students’ perceptions arestrongly negatively influenced by what they know about electric power – old laboratoryequipment, out-of-date courses and presentation, depressing images of power stations, lines, etc.,a lack of proper counseling, and non-visible application of Information Technology.The InnovationsThe components of various creative solutions proposed in many programs 1-3 may beconveniently organized into three categories: (1) what power engineering curriculum shouldcontain, (2) how course materials should be delivered, and (3) how to market (or promote) theprogram. This is summarized in Table 1. The active engagement of a few in the field and
framework of the internet of things is highly valued from the standpoint ofassembling a physical system or a product which integrates the functional aspects of traditionalsubjects with modern tools to deliver tangible outcomes in the real world.The course also prepares the student to participate on the integrated project platform for co-curricular and research project activities. The integrated platform was designed to test andimplement the next generation of intelligent ground vehicles. The platform comprises modulesfor training data sets using the neural network, performing object detection and classification,followed by collision avoidance. In addition to course and curriculum development, the platformsupports the active participation of the
to this, the excitement generated at Freshman Design Day as the teams described their experiences to visitors yields a positive outlook for the future of this type of project in the College of Engineering.References 1- National Research Council, National Science Education Standards, Washington, DC, National Academy Press, 1996. http://www.nap.edu/readingroom/books/nses.htm 2- NC Standard Course of Study, http://www.ncpublicschools.org/curriculum. 3- Bottomley, Laura J., et al., “The View from Here: How the Freshman Experience Looks to Young Women at NC State University,” Proceedings ASEE Annual Conference June 2003, Nashville, TN.LAURA J. BOTTOMLEY is the Director of the Women in Engineering and Outreach Programs
STEM Projects Look like in Middle School and High School Classrooms? A Systematic Literature Review of Empirical 2024 ASEE Middle Atlantic Section Conference Studies of iSTEM Projects.” International Journal of STEM Education, vol. 9, no. 1, 2022, pp. 73–15, https://doi.org/10.1186/s40594-022-00390-8.17. Smith, Robert W. , “Time for change: New visions for High School”, Chapter 5: Reforming the most troubled high schools: The Talent Development Approach. Hampton Press, 2006.18. Johnson, Carla C., et al. “Car Crashes, Grade 12: STEM Road Map for High School. STEM Road Map Curriculum Series.” NSTA Press, NSTA Press, 2018, https://doi.org/10.2505/9781681405469.19. Ovadiya, Tikva. “Implementing Theoretical
by Ardis et al.5. The authors clearlypresented the need and requirements for a marketplace primarily for sharing information on Page 24.478.2project ideas to faculty and students. However, the marketplace did not assist in teams formation,or making project-team assignments based on student interest. The design presented in this paperis the only known available design to the authors which truly alleviates the logistical burden ofsharing information about projects, forming teams, accepting bids and awarding projects to theteams – all through one single website, with little to no faculty involvement.Need for an online