Implementation of the MRF24J40MA Module This paper provides an overview of a capstone demonstration project that is a requiredsenior design project and is an integral part of EET curriculum at Old Dominion University.Students may choose to participate in the microprocessor capstone project with faculty mentorsas part of a university research activity or they may elect to prepare and submit a proposal for analternative project funded by the student under faculty direction. This demonstration project isone of the components of an on-going undergraduate research project in the ElectricalEngineering Technology department. Student team members in this demonstration project were given all of the necessaryhardware and software resources to
of guest speakers from alumni or industry was a common response.3) Although not mutually exclusive, the suggestion of having an ethics course received significant support, as judged by the number of observations, and as compared to distribution of instruction across the curriculum or adding to existing course(s).4) Practice in team and group work was cited as important to the development of ethical and professional behavior.Bibliography1. Gustafson, R. & Merrill, J. 2000. Developing an Outcomes Assessment Survey for Seniors, Alumni and Managers/Supervisors. ASEE Annual Conference and Exposition, June 18-21, St. Louis, MO.2. Gustafson, R., Castro, J. & Hussen, P. 2001. Alumni Perceptions of the Graduate Needs in Business and
pedagogy, antenna theory, and remote sensing. © American Society for Engineering Education, 2022 Powered by www.slayte.com Design of a Wind Tunnel: A Student Project to Design and Build Their Own Wind Tunnels as the Culmination of Fluid Mechanics LaboratoryAbstractFluid Mechanics Laboratory (or a similarly titled course) is an integral part of any mechanicalengineering curriculum. One of the instruments used to demonstrate several key principles offluid flow is the wind tunnel. Currently, our department does not have a wind tunnel that canadequately demonstrate several desired fluid flow concepts to the students. Therefore, as part
, allowing students to view lectures from their computer terminals. And, in atwo-way, interactive format, they’ll still be able to pose questions to the lecturer and interact with the lecturer’sdata and information in real time."1 Many questions, however, remain — such as: What curriculum changes need to be made in order toeffectively utilize technology-based instructional delivery? How well can students adapt their learning style tosuch an environment? How does technology-based instructional delivery impact academic performance —does it hinder or help students learn? What impact does technology-based instructional delivery have on stu-dents’ perceptions of the course and the instructor? What are the advantages and disadvantages of technology
computer andInternet resources such as gigabits network, video conferencing and remote control software. Butwe found that it could be adapted to minimal IT resources such as cable modem at 1 Mbps andaudio-only feedback between teacher and students. System performance and student feedbackfor the first 7-week class period are reported herein. IntroductionOne of the thrusts in the UGA/Biological & Agricultural Engineering Department curriculum isto enhance the experiential learning aspects for our engineering students during class lectures aswell as during laboratory experiments needed for the course. Based on Student Technology feesand departmental funds, the Collaborative Distance Education (CDE
. Page 22.1341.2* World of Warcraft is a fantasy video game involving warfare.So, how should we conduct team training? What do students know about teams on the way in?Does anything we do actually make our students better team members? This paper endeavorsonly to address the first two questions. While an extensive student performance-basedassessment of teamwork is done across the curriculum, this paper will only look at how tointroduce students to teamwork using a discovery-based pedagogy that enables students torealize that “student teams” are “real team experiences” not “simulations” and that teamwork is askill that can be developed and must be practiced and not just something they will do when theyget a job. Limited course-level assessment
. Lattuca, P. Terenzini and J. Volkwein, “Engineering Change: A Study of the Impact of EC2000,” 2006. [Online]. Available: http:∥www .abet.org.[3] J. Cui and X. Wang, “Research on social demands for curriculum reform of Higher Engineering Education: Based on the survey of employers in industrial enterprises,” Research on higher engineering education, no.2, pp.88-95,2013.[4] C. E. Hmelo-Silver, “Problem-based learning: What and how do students learn,” Educational psychology review, vol.16, no.3, pp.235-266, 2004.[5] J. L. He, B.C. Yang, T. T. Zeng and C. J. Ye, “Quality evaluation of school enterprise cooperative education and construction of high-quality cooperative education mode: An empirical analysis based on 1538 surveys
National Science Foundations Advanced Technological Education (NSF-ATE) as a Regional Center of Excellence. FLATE’s mission is to support manufacturing education in K-14 programs through outreach, professional development, curriculum reform and technician research. She earned a Ph.D. in Civil En- gineering/Environmental from the University of South Florida and served on the Engineering faculty at Hofstra University and the FSU-FAMU College of Engineering. Dr. Barger has authored over 50 papers for presentations on engineering and technology education, serves on several national advisory boards for CTE and workforce education initiatives, and is a Fellow of the American Society of Engineering Edu- cation (ASEE) and the
member of the American Society for Engineering Education and the SAFE Association. Prior to receiving his Ph.D. in 1983, Dr. Nelson worked as a design engineer in industry and taught as an adjunct professor at the University of Houston and Texas A&M University at Galveston. In industry he was primarily involved in design of floating and fixed structures for the offshore petroleum industry. After receiving his Ph.D., Dr. Nelson joined the civil engineering faculty at Texas A&M University. He joined the civil engineering faculty at Clemson University in 1989 as Program Director and founder of the Clemson University Graduate Engineering Programs at The Citadel and became Chair of Civil Engineering in 1998. In
(integrating science, math, technology, writing andcommunication) and approaches the investigation and application of new automobiletechnologies and transportation fuels within a societal and global context. Table 2 summarizesthe general outline of the course, which follows a standard engineering problem solvingapproach. In any given year, the specific details have varied within this framework. The entiremodule is designed to extend over a total of 16 to 20, 40-minute class periods. Detailed unit andlesson plans for this module are available.14ParticipantsStudents enrolled in an advanced placement environmental science (APES) class at a high schoolin rural St. Lawrence County, NY have been study participants for all three years. This nonregents-based
survey data on the effectiveness of the module is alsopresented.I. IntroductionHands-on laboratories have been an integral part of the engineering curriculum since itsinception1. Their importance has been recognized by the Accreditation Board of EngineeringEducation (ABET) and its predecessors by creating criteria requiring adequate laboratorypractice for students2-6. During the last three decades, engineering laboratories have becomemore complex, including simulation tools and computer-controlled test and measurementequipment7-8. This increased sophistication has also led to more expensive equipment. Theinclusion of such laboratory courses in the undergraduate curriculum is challenging due to thelarge number of students and the increased demand
realization: design, manufacture, test, and correlateproduct performance with analysis results.With this motive, this article describes a product realization exercise integrated recently into anew design course. This course is introduced as a part of a restructuring of the aerospaceengineering curriculum at the University of Missouri-Rolla. The primary goal of this new courseis to introduce students to open-ended problems and to the processes of engineering design andto provide an environment that encourages students to interact with each other at early stages oftheir study program. The students are required to design a small radio-controlled model, analyzeits performance, and construct it. Once the model construction has been completed and
upper division courses in an Engineering Technology department. Page 3.406.3There were two full-time teachers in the lower division (one instructor, one tenured assistant)who did not support the administration’s decision to offer upper division courses, and thereforerequested not to teach any of those courses. The mood was somewhat hostile. For example,Albert could not use equipment from “their” lab. Most of the upper division courses had neverbeen taught, and the curriculum was modeled after a program at another university. Albert wasnot aware of the situation in the department when he joined.Mentoring was non-existent. Albert’s department head
Paper ID #11396Synthesis of Engineering Undergraduate Students’ Out of Class InvolvementMs. Rongrong Yu, Virginia Tech Rongrong Yu is a PhD student at the Educational Research and Evaluation Program in School of Education at Virginia Tech. She holds a B.S. degree in psychology and a M.Ed. degree in educational psychology. Her research interests include K-12 student mathematics and science achievement, STEM and gender, and co-curricular involvement.Dr. Denise Rutledge Simmons PE, Virginia Tech Dr. Denise R. Simmons, PE, is an assistant professor in the Myers-Lawson School of Construction and in Civil &
and NotTeaching; 2) Problem Based Learning; 3) Facilitating Group Learning (PromotingAccountability, Linking Assignments, and Stimulating the Idea Exchange); 4) ChangingLearning Behavior Outside the Classroom; and 5) Preparing to Teach. Topics included inthe “Teaching” section include: 1) The Seven “Good Practices” for Teachers; 2)Teaching with Hospitality; 3) The Importance of Listening; and 4) Assessment Via theMinute Paper.The presented techniques are not cumbersome or extremely involved. In fact they are funand very straightforward. Learn more about these practical and helpful teaching ideasthat can easily be implemented into your curriculum. Examples and brief case studies areutilized to increase clarity and understanding.Learning
University, in Computer Engineering. Page 11.860.1© American Society for Engineering Education, 2006 Laboratory for Digital ElectronicsAbstractThe Digital Electronics course (ECE 3500)1 was created in the Department of Electrical andComputer Engineering of Western Michigan University to develop the skills students need todesign, and simulate digital integrated circuits down to the transistor layout level using MentorGraphics Category II tools2. Digital Electronics is a required course for students majoring incomputer engineering. The class has an embedded lab which makes use of the 0.25 microntechnology for IC
including Dynamics, Mechanics of Solids, Fluids, Thermodynamics, etc.Typically taken in the first semester of the 2nd year of a standard 4-year engineeringundergraduate curriculum, success in Statics is critical for continued success along the pathwayto an engineering degree. As the first technical engineering class students encounter, Statics hasthe potential to make novice students excited and enamored with the engineering problem-solving and analytical process, or conversely students’ experience in Statics can cause them toswitch disciplines or feel discouraged about pursuing engineering. It is a focal class in the Page 23.856.2trajectory of
. L., Olsen, P. E., Nwogbaga, A. P., and S. Stotts, "Integrative approach for a transformative freshman-level STEM curriculum," Journal of College Teaching and Learning, vol. 13, 2016.11. Wilson, Z. S., Holmes, L., Sylvain, M., Batiste, L., Johnson, M., McGuire, S., Pang, S. and I. Warner. "Hierarchical mentoring: A transformative strategy for improving diversity and retention in undergraduate STEM disciplines," Journal of Science Education and Technology, vol. 21, p.p. 148-156, 2012.12. Gilmer, T. "An understanding of the improved grades, retention and graduation rates of STEM majors at the Academic Investment in Math and Science (AIMS) Program of Bowling Green State University (BGSU)," Journal of STEM Education, vol. 8
Masters of Systems Engineering from Southern Polytechnic State University. Scott is Branch head of Software Tool Engineering in the Electronic Systems Division. He has over 20 years experience in system testing, integration, quality assurance and process improvement. Prior to joining GTRI, Scott was instrumental in system testing and development process improvements at TransCore and Northrop Grumman. Scott has presented at the National Defense Industrial Association (NDIA) Systems Engineering and CMMI conferences. He is an Atlanta Software Process Improvement Network (SPIN) Board Member. Page 22.1366.1
polesmachine. If we look at a 2 poles machine and 60 HZ supply, the speed calculates out to 3600 RPM. Theonly way to vary the speed is to change the F in the equation. We can accomplish this with a VariableFrequency Drive (VFD).System construction:A primary system has been constructed. This system is composed of an axial fan/motor connected to aduct/damper, to a variable frequency drive (VFD) and to a Programmable Logic Controller (PLC) witha view panel and connected to a computer for programming purposes. The design and implementationof an experiment that include a VFD to control a three phase variable speed motor of a fan integrated toa PLC has been performed. This system will be used to verify several variants to control the rotationalspeed of
freshman and sophomore level students. The coursematerials presented in this paper start with introducing students to a working product andthen challenge them with problems requiring the redesign of components. Subsequently,various manufacturing methods, techniques, processes, and equipment are discussed indetail so that students can prototype these newly designed components in the laboratories.As part of the curriculum of an Engineering Technology program, these courses aim atdeveloping students' ability to work in collaborative groups to apply engineering andtechnology knowledge to solve real-world technical problems requiring the application ofpractical procedures and methods.The Design and Prototyping is an introductory manufacturing processes
well with other people (Item 1) and have good verbal skills (Item 2). Schoolcounselors agree to a greater extent that most people feel that males can do well in DET careers(Item 10) as compared to females (Item 9) or minorities (Item 11), but this may or may not be areflection of what school counselors feel. It is not clear whether counselors believe that DETshould be integrated into the K-12 curriculum (Item 8). These results are similar to those found Page 14.824.5for K-12 teachers16. This leads us to believe that school counselors and K-12 teachers havesimilar perceptions of engineering. Therefore, the same content that is used in
, no. 1, p. 189, Aug. 2021, doi: 10.1057/s41599-021-00871-1.[8] G. Bixler, J. Campbell, R. Dzwonczyk, H. L. Greene, J. Merrill, and K. M. Passino, “Humanitarian Engineering at The Ohio State University: Lessons Learned in Enriching Education While Helping People,” IJSLE, pp. 78–96, Dec. 2014, doi: 10.24908/ijsle.v0i0.5545.[9] K. Conroy and P. Sours, “Engagement in Practice: Better preparing students for community-engaged engineering by restructuring an academic program, minor, and curriculum,” presented at the ASEE Annual Conference, 2023.[10] A. Parkinson, J. Harb, and S. Magleby, “Developing Global Competence In Engineers: What Does It Mean? What Is Most Important?,” in 2009 Annual Conference & Exposition
integral portion of lower division engineering curricula for Civil, Mechanical, andManufacturing Engineering. These courses are crucial in the engineering education process forthese disciplines because they introduce students to the engineering approach in problem solving,provide basic principles that are used in following courses, and let lower division studentsrecognize if they are equipped for an engineering curricula. In addition, many questions for theFundamentals of Engineering exam have their roots in these courses.Providing the proper teaching environment for these courses is a challenge for faculty anddepartment administrations because a) there are numerous students that must be accommodated,b) the students deserve a quality experience to
been definedto cover the key features of integrated circuit fabrication technology as well as theorganizational and solution management skills needed by any effective practitioner in theindustry.Industrial participation has included a very active Advisory Board, senior staffassignment, seminars on specialist topics and company visits. Although this activity hasa specialist microelectronics focus, there are many general features that are applicable toall branches of technology.1. Refocus the goalsThe interface between industry and academia is never comfortable. Nor should it be ifwe are to meet changing market needs with independence and measured forethought. Allacademic technology programs profess a close interaction with industry with the
currentdemand, and faces eminent retirement of many of its technical and engineering workforce thatwill fuel future demand. In the SME “Workforce Imperative: A Manufacturing EducationStrategy” white paper, recommendations are made to ensure preparation of existing and futureworkforce. These include working together to attract students into manufacturing, articulate astandard core of manufacturing knowledge, improve manufacturing curriculum, integratemanufacturing into STEM education, develop faculty, and strategically deploy resources.This paper describes the results of an online survey that was distributed to a broad audienceincluding managers, company owners, engineers, educators and education administrators. Theobjective of the survey was to
emissionsalone [1]. This is a large percentage, which is why green roofs are such an up-and-coming designdecision for new buildings. As the use of green roofs becomes more prevalent, an evaluation ofthe benefits and challenges may be something architectural engineering programs choose toincorporate into their curriculum. This paper aims to consider the particular challenge of addedweight to a roof structure, with the understanding that the addition of structural material tosupport this load must be considered alongside operational energy benefits that a green roofprovides. In addition, the research herein provides a methodological framework for evaluatingthe efficacy of energy-saving strategies in general, including relevant software tools
preliminary data, three research questions were formulated toassess the impact of incorporating an Experiential Learning Project as a part of a second-yearcourse on class effectiveness, retention (persistence) and graduation rates, and students’engagement/perception of instruction:Research Questions 1) To what extent does the introduction of IDEAS Active Learning Project improve student’s success in Engineering Analysis Statics? 2) To what extent Active Learning Projects introduced early in the curriculum improve student retention and graduation rates? 3) Do Active Learning Projects improve Engagement, Class Participation, and Students’ Perception of Instruction?Research Design and ControlTo answer these questions, an
explore how each organization materializesits design ethos within various communities. Both organizations have a long history. Keymonographs, countless invited talks, various organizational roundtables, and exhibitionsdedicated to organizational design principles shape a complex discourse space. Multimodaldiscourse analysis deals with this complexity by integrating many different communicationforms. The research uses multimodal discourse analysis to distill an organization’s message. Therigor of multimodal discourse analysis stems from careful reading of the source text, testinginterpretations through directly related texts, and situating interpretations in related scholarly
AC 2007-2128: CEDARLOGIC ? A NEW GRAPHICAL DIGITAL LOGIC CADTOOLClint Kohl, Cedarville University Dr. Kohl serves as Associate Professor of Computer Engineering at Cedarville University. He earned his B.S.E.E. from South Dakota State University, his M.S.E.E. from University of North Dakota, and his Ph.D. in Computer Engineering from Iowa State University. His areas of interest include digital electronics, computer architecture, programmable logic devices, and microprocessor systems.Keith Shomper, Cedarville University Dr. Shomper serves as an Associate Professor of Computer Science and has been at Cedarville Universtiy since August 2003. He received his B.A. in Mathematics from the