disassembled but operational hard disc drive. Furthermore, in theworkshops students are required to perform experiments that include: installation of a secondfloppy disc drive; addition of a second (slave) Integrated Drive Electronics (IDE) hard discdrive; upgrading from an Industry Standard Architecture (ISA) input/output card to a PCI LocalBus etc. This is complemented by experiments in fault diagnosis, correction and management.All operations are at the module rather than the component level. Page 5.492.33. PhysicsCIM and NIM attract students from a wide range of disciplines. The students differ greatly inrespect to both their physics and
Session 2247 Economical Integration of Virtual Laboratories in EET Curricula A. M. Ibrahim DeVry Institute of Technology Toronto, Ontario, CanadaAbstractVirtual Laboratories provide interactive environment for creating and conducting simulatedexperiments. Integrating virtual labs into an EET curriculum has the potential of enhancingclassroom delivery by establishing a timely connection between theory and practice. Virtual labscan also help institutions to cope with budget constraints without sacrificing quality.Nevertheless
. A Teaching Strategy and Engineering Curriculum Transformation Workshop given at the University of Maryland addressed such topics as the impact of ABET 2000 on course development, the integration of cooperative learning teaching models, development of an inclusive classroom, and the development of student-friendly syllabi.• “In Their Own Words,” a video and accompanying workshop that addresses student experiences in the classroom and how to enhance the student learning environment, is under continuing development. The video will be tailored to fit the demographics of each of the ECSEL campuses. On May 11, 1999 Penn State conducted a training program for facilitators of the video workshop. Twenty-one participants
University in Erie, PA. His research interests include Global Software Engineering, Affective Domain Learning, Engineering Education Research, as well as Philos- ophy of Engineering and Engineering Education. He is regularly involved in supporting the regional entrepreneurial ecosystem, as well as projects that serve the regional community. He is an active member and volunteer for both the Institute of Electrical and Electronic Engineers (IEEE) Computer Society and the American Society for Engineering Education (ASEE). He has published numerous conference papers and journal articles on innovations in Software Engineering curriculum development and Philosophy of Engineering & Computing
year.Fullan’s educational change theory was used to investigate the impact of STEAM education in 2public school districts as they aligned to new state STE curriculum frameworks. A mixedmethods, embedded case study approach was used to explore how sixteen (16) elementaryteachers and six (6) district leaders implemented revised STE curricula before and during thepandemic. This study investigated the research question “How does the presence of science,engineering and technology curricula and STEAM Labs, and in particular their absence duringCOVID-19, impact elementary education and the implementation of new science, technology andengineering (STE) curriculum frameworks?”. Study participants were invited betweenDecember 2021 – February 2022 to complete an
. Page 13.1075.1© American Society for Engineering Education, 2008 Service Learning: Community and Cultural Values that Engage Under Represented Groups into the STEM PipelineAbstractEnvironmental and Spatial Technology (EAST) is a high school elective class that usessophisticated technology in service projects designed to improve students’ critical thinking andproblem solving skills. EAST is a national initiative that now includes more than 220 schools inArkansas, California, Hawaii, Iowa, Illinois, Louisiana, Oklahoma and Pennsylvania. It is aproject-based, service-learning class that integrates technology into the traditional high schoolcurriculum. EAST students work in teams to solve real world problems in their schools
industry or enrollin graduate programs and are confronted with the challenge of developing electronic medicaldevice prototypes. These prototypes requires the integration of very diverse technical skillsincluding analog and digital electronics, microcontroller hardware and software,telecommunications, power electronics and signal processing. The course investmenttraditionally used to foster and hone these skills is not practical in a four-year BME program. Inorder to accommodate the broad nature of the BME curriculum, and still equip BME studentswith the skills they will need in electronic medical device prototyping, our program implementsa problem-oriented, top town approach to teaching medical electronics. Two senior level, co-requisite courses
industrystandard to an FPGA-based intelligent controller for daily life applications. Such project willcontribute to the feasibility study of industry standard of wireless IEEE 802.11 and VHDL,FPGA for real world applications [2]. The developed system of FPGA-based microwave ovencontroller integrated with IEEE 802.11 wireless communication is illustrated in Figure 1. Figure 1 The system design of the wireless intelligent micrwave controllerStudents implemented the intelligent controller on FPGA and also developed IEEE 802.11communication functionality for remote control. The features of this team-based project are asfollows. • The project provides students with a great opportunity to obtain extensively hands-on experience to deal with
design course, however for manydigital applications microcontrollers provide a very cost effective solution in a compact package.This paper examines the tradeoffs and suitability of CPLDs, Field Programmable Gate Arrays(FPGAs), microcontrollers, and their associated software for digital applications typically taughtin a digital design course in an engineering technology program. IntroductionIn typical electronics and computer engineering technology curriculums (and similarly forengineering) programmable devices fall into either of two tracks. The first would includeCPLDs and FPGAs, and would be used to implement combinational logic, sequential logic, andstate machines, etc. The second would be comprised of
: Opportunities in Undergraduate Engineering,” Journal of Cleaner Production, vol. 8, no. 5, pp. 397–405, Oct. 2000, doi: 10.1016/S0959- 6526(00)00043-3.[6] A. Guerra, “Integration of Sustainability in Engineering Education: Why Is Pbl an Answer?,” International Journal of Sustainability in Higher Education, vol. 18, no. 3, pp. 436–454, Jan. 2017, doi: 10.1108/IJSHE-02-2016-0022.[7] M. McCormick, A. R. Bielefeldt, C. W. Swan, and K. G. Paterson, “Assessing Students’ Motivation to Engage in Sustainable Engineering,” Int J of Sus in Higher Ed, vol. 16, no. 2, pp. 136–154, Mar. 2015, doi: 10.1108/IJSHE-06-2013-0054.[8] WCED, “Report of the World Commission on Environment and Development: Our Common Future,” Brundtland Commission
past, the course has been well received by students and, generally, has beencomplimented by alumni, faculty peers, and practitioners. Still, the persistent difficultyexperienced by students over the years in attempting to grasp the more challenging concepts ofprocess control led me to try a different mode of instruction in 1996.In the Spring semester of 1996, I converted the classroom component of the course to an active-learning format. This was facilitated by being able to teach the course in the Bechtel ActiveLearning Center of the Integrated Teaching & Learning Laboratory (ITLL), a new instructionalfacility in the College of Engineering and Applied Science at the University of Colorado. In lieuof traditional lecture, I wrote over 40
, L. E., Burniston, E. E., Gastineau, J. E., and O’Neal, J. B., "An Integrated First-YearEngineering Curriculum at North Carolina State University," 1995 Frontiers in Education Conference Proceedings,Atlanta, GA, November 1995.2. Felder, R.M., Beichner, R.J., Bernold, L.E., Burniston, E.E., Dail, P.R., "Update on IMPEC," presented at 1997ASEE Annual Conference, Milwaukee, WI, June, 1997.3. Beaudoin, D. L., and Ollis, D. F., "A Product and Process Engineerng Laboratory for Freshmen," Journal ofEngineering Education, Vol. 84 [4], 1995, pp.1-6.4. Brown, A., and Ollis, D. F., "Team Teaching: A Freshmen Engineering Rhetoric and Laboratory," ASEE 1996Annual Conference Proceesings, Washington, DC, June 1996.5. Sutton, J. and Brickley, J.J., "A
Session 2230 Review of a Possible Model for Technology Aided Engineering Design Graphics Gary S. Godfrey Northern Illinois UniversityAbstract This research project looks at the present state of 2-D Visualization. It uncovers 3-D Visualizationlearning issues using an analysis technique. Integration of solid modeling into the curriculum is refined usingthree advanced cognitive Instructional Design training techniques. The model of Cognitive Apprenticeship isexamined. The theory of Contextual Module Analysis is put into practice
ofaccreditation paradigm. It provided an opportunity for ABET to put forward the newaccreditation criteria-EC2000, which brought a profound impact on engineering educationwithin colleges and universities. In order to cope with the transformation paradigm ofprogram accreditation, colleges and universities carried out various engineering educationreform which included the exploration of a variety of learning outcomes assessment methods,the engagement of a wide range of intellectual resources, the internalization of the philosophyof continuous quality improvement, the integration of evaluation management mechanism,the in-depth reform of curriculum and teaching, and the talents cultivation in line with theEC2000 standard.(2) Understand the concept of
. Heer joined the School of Electrical Engineering and Computer Science at Oregon State University as a member of the professional faculty. In this role, he coordinates the TekBots R program development and implementation. In addition to his research interests in creating innovative engineering education experiences, he is also performing his Ph.D. research in the area of integrated sensor systems using nanotechnology.Donald Heer, Oregon State University Heer works on the development of the TekBotsTM and Platforms for LearningTM program in the School of Electrical Engineering and Computer Science at Oregon State University. As the Educational Research and Development Coordinator, he has coordinated the curriculum
, particularlycommunity service and humanitarian engineering projects, by creating intentional linkagesbetween the formal curriculum (e.g. developing global awareness) and these informal learningexperiences (e.g. engineering-related study abroad). Such linkages may be particularly effectivein helping develop students’ contextual awareness.” As engineering entrepreneurship education takes shape and continues to leverage co-curricular experiences for learning, Lattuca et al.’s findings suggest that a more in depth analysisof entrepreneurial co-curricular experiences in the context of the Terenzini and Reason’s collegeimpact framework is warranted. There is an organizational reliance on both entrepreneurshipacademic and co-curricular programs, required
. The lack ofsituated or contextual curricular materials integrating conceptual understanding and practiceimpedes students’ abilities to be productive and innovative engineers.Project GoalsThe objective of this research effort is to synthesize early career engineering professionals’ andstudents’ mental representations or models of traffic signal systems and use this knowledge todevelop a concept inventory in traffic signal operations that is relevant to engineering practice.Conducting fundamental engineering education research on student and practitioner ways ofknowing is a critical and often overlooked first step in curriculum and assessment design. Assuch, having an engineering design relevant traffic signal operations concept inventory (TSCI
Engineering Educationuniversities, both engineering and non-engineering students take this course. Non-engineeringmajors choose Introduction to Engineering as an elective course to fulfill the scientificmethodology requirement of the current Core Curriculum at UNH. Historically, large numbersof non-engineering students take this course. The diversity of students in a particular class variesfrom section to section. It is not uncommon for freshmen engineering students to be in a classwith sophomore, junior or senior non-engineering majors.Evolution of Project-Based Version of the CoursePrior to the introduction of EAS107P in the curriculum, the structure of any particular section ofEAS107 was dependent on the faculty member teaching the course. Some
/troubleshooting, and student participation requirements should be weighed beforeinclusion in curricula.The modern engineering lesson plan and classroom should adapt constantly to match theimproving communication technologies and make regular attempts to blend the most usefultechnological advances with up-to-date, relevant curricula. Keeping educational technology up todate should be thought of as an integral part of an engineering curriculum and in-step with thecutting edge of innovation.References[1] A. W. Chickering and Z. F. Gamson, “Seven principles for good practice in undergraduateeducation,” Biochemical Education, vol. 17, no. 3, pp. 140–141, 1989.[2] N. D. Vaughan, M. Cleveland-Innes, and D. R. Garrison, Teaching in blended learning environments
course sequence over the 2021-2022 and2022-2023 academic years to determine the effect of EM-focused instruction and first-yeardesign projects on EM growth. We analyzed responses in a pre/post manner within theseacademic years and holistically analyzed across academic years. We used the cross-year analysisto address the impact of curricular changes. Finally, we provide implications and pedagogicalapproaches that can support the development of an EM in the future.2. BackgroundThe Ohio State University (OSU) partnered with KEEN in 2017 and has since integrated EMLacross several courses in its engineering curriculum. This initiative first began with the redesignof the First Year Engineering Program (FYEP) standard course sequence. Alterations to
, frequency multiplier, and power amplifier at the finaloutput stage. In an FM receiver they see the components working as: an RF amplifier, localoscillator, FM mixer, IF amplifier, FM detector, output audio amplifier and automatic frequencycontrol circuit. Students also learned to appreciate the modular nature of complex designs.At the end of the semester, a survey was given to determine the results on student learningconcerning the concepts and applications of electronics. The results of this project may promptthe implementation of other projects that may include multidisciplinary collaboration, integrationof projects between classes, projects across concentrations, and integration of a single projectfrom the freshman to the senior
recruitmentphase, pre-departure activities, an orientation period upon arrival in Germany, an explanation ofcourse load requirements, preparation for integration into campus life and the local communitywhile abroad, program-sponsored group excursions to points of interest in Europe, and activitiesand contributions to campus life upon return to Lafayette College. This paper also discusses thefuture directions of this program based on the past experiences, faculty reactions, and students’input.Although the program is designed to cater specifically to the needs of Lafayette College students,faculty and the institution as a whole cooperate in Jacobs University’s “tailor-made” approach to
. Unfortunately, this course is not integrated withthe remainder of the curriculum. For instance, after taking this course, an EE or ME major rarely sees thetools employed in a sequel course within his major. This issue has been addressed by a multi-university project funded by the National ScienceFoundation [1]. Tasks accomplished by this coalition during the period 1991 - 1992 include thefollowing: (i) Integration of economic principles in a Thermosystems Design Analysis course, (ii)Development of a economic design simulator for estimating cost to manufacture for various thermalcomponents, (iii) Development of case studies focusing on economic principles in design, and (iv)Development of course materials for a course entitled Economics of
AC 2011-2614: UNPACKING THE INTERDISCIPLINARY MIND: IMPLI-CATIONS FOR TEACHING AND LEARNINGWendy C. Newstetter, Georgia Institute of Technology Wendy C. Newstetter is the Director of Learning Sciences Research in the Wallace H. Coulter Department of Biomedical Engineering at Georgia Tech.Her research focuses on understanding learning in interdisci- plines towards designing educational environments that develop integrative problem solving. Page 22.1583.1 c American Society for Engineering Education, 2011 Unpacking the interdisciplinary mind: Implications for teaching
. Refugefrom the complexities of human nature and human societies should no longer be offered in engi-neering schools. Perhaps century-long efforts to integrate liberal learning are finally bearingfruit. As Samuel Florman tells us, “For more than a hundred years educators have been trying to find an appropriate place for liberal learning in the engineering curriculum. Many of the good things that Ameri- cans think of when they speak of a college education are taught through the humanities Page 3.310.2 and social sciences: knowledge of our history, government, and communal aspirations
designs1.Although mechanical engineering students at Union College are exposed to CAD and FEA in anumber of courses throughout the undergraduate curriculum, MER-144 focuses on integratingdesign and analysis. If a part or assembly doesn’t meet specifications, students are expected tomodify the CAD model and analyze it again to see if the changes helped. A typical example ofthis integrated approach to engineering design is presented below. Figure 2 is an isometric viewof Team Jumper’s final design while Figure 3 illustrates the results of the finite element analysison one of the critical components. Page 8.1152.6 Figure 2
microplastics) [1], [2]. Particle science plays acrucial role in product quality, material transport and storage, manufacturing processes andadvancement of materials science [3]. For example, understanding particle behavior (i.e., dryflow, aggregation and agglomeration) at a mass scale is crucial to the safety and improvement ofstorage, transport and manufacturing processes [3].Despite calls since the 1990’s to increase the availability of a uniform particle sciencecurriculum, little progress has been made in integrating particle science into the currentengineering curriculum—resulting in a limited number of engineers trained in the field [1].Within the United States, particle science courses are sparse and lack uniformity within thematerials and
a Florida-based energy technology industry • Provide a state resource for objective energy systems analysis. • Work with Florida Department of Education via FLATE to develop framework for curriculum construction that will help prepare a qualified energy workforce. • Work with the University of Florida’s extension service to develop a state wide platform to develop and deliver outreach programs to create an informed public.Multiple Tier Education Delivery Approach FESC’s focus on education is to be sure that Florida has the talent needed to support thedeveloping and emerging industries that it supporting. The system’s approach to energyeducation requires the integration of three independent education infrastructures
, highexpectations, honesty, integrity, intuition, judgment, optimism, persistence, positiveness, respect,self-esteem, sensitivity, thoughtfulness, thoroughness, and tolerance”. Those attitudes are builtover a lifetime and are a function of role models, mentors and experiences that are largelyoutside the curriculum. They are very difficult to incorporate into a CEPC that is restricted tocurricular issues. Still, it could be argued that this topic is embedded in several existingrequirements in both the General Criteria and the newly revised CEPC. By the time studentshave functioned on a multidisciplinary team, demonstrated an understanding of professional andethical responsibility, recognized the need for life-long learning, explained basic concepts
help educators design effective learning modules that take into account learning styles.Bibliography1. Huggans, 1998, The Impact of the Integration of Learning Styles Theory with a We-based Asynchronous DistanceLearning Process to Enhance Learning by Electrical Engineering Students, Ph.D. Dissertation, University ofMissouri – Rolla.2. Della-Dora, D. and Blanchard, L., 1979, “Moving toward Self-directed Learning: Highlights of RelevantResearch and of Promising Practices,” Association for Supervision and Curriculum Development, ISBN:0871200945.3. Keefe, J., 1990, “Learning Style: Where are we Going?” Momentum, Vol. 21, Iss. 1, February, pp.44-48.4. Felder, R. et. al, 1988, “Learning and Teaching Styles in Engineering Education” Engineering