Bad Idea, suggests that educators should bemore focused on the learning process rather than strictly on the teaching process. Toooften we follow a primitive but intuitive teaching model such as: “You go to school, asmart person tells you something, and you are expected to learn it and remember it, and ifyou don’t, you are stupid.”According to this model, teaching is telling, and learning is bulimic. Some 70 years ofresearch shows that telling, in the form of lecturing, is just as good for transmittinginformation as, but no better than, reading a book, listening to a tape, or watching a film.The same research shows that within weeks and months, students retain only 10 percentof that information. Even then, they can rarely apply it to the messy
The Construction Advancement Institute at the University of New Mexico was created to advance the state-of-the-practice in the construction industry in New Mexico, the USA and internationally. The CAI will advance the industry through education, service, and applied research. Education will include programs of study leading to certification, associate degrees, bachelor’s degrees, and graduate degrees so that individuals from all levels in the construction industry can choose and follow a career path aided by the appropriate coursework. The CAI is responsive to the needs of students, industry, and the citizens of New Mexico through a unique education-industry partnership unlike any other
Page 7.483.4 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationdegree). In the ‘old-style’ programs it was important to include the right courses to be preparedfor the university of choice after graduation. In 1998 the so-called ‘tweede fase’ (second phase)was introduced to the upper three grades of the VWO. The changes to the upper three gradesconcerned both changes in course content and teaching-philosophy; with classic in-class lecturesreplaced by a combination of in-class lectures and group-oriented projects, independent research,computer-based information acquisition, etc. [7]. Reasons for the
Paper ID #44698Adapting CAD Education for Visual InclusivityMr. Matthew Levi Giles, University of Southern California Matthew Giles is a PhD Student in the Aerospace and Mechanical Engineering Department at the Univer- sity of Southern California. His research interests include applied mathematics and analytical methods, with a particular emphasis on control systems and the application of evolutionary game theory in engi- neering settings. For this paper, he was responsible for developing the adapted assignments and course materials.Bo Jin, University of Southern California Bo is a Lecturer Faculty at the University of
profession1 as well as outside of theprofession2 focus on outcomes, identifying cognitive skills that are required for an educatedperson in general or for an educated engineer in particular. Consequently, this study focuses onthe stated outcomes and goals of colleges and universities with programs accredited by theEngineering Accreditation Commission-Accreditation Board for Engineering and Technology(or EAC-ABET). Because the original motivation for this study was for the design of a newgeneral education program at the University of Evansville, the study focused on masters andbachelors schools, excluding large, national research universities. However, it is hoped that thedata gathered may prove useful to other engineering departments who are involved
@osu.edu post.1@osu.edu AbstractCurrently, technology education continues to be considered an elective area in most states, withthe process of writing and approving these state standards challenging. The inclusion oftechnology education into STEM education has made it even more critical now to assess thecurrent status of technology and engineering education curriculum, implementation, andinclusion of minority populations. This quantitative research revisits a national 2001 status studydescribing technology education programs. Using stratified random sampling of high schooltechnology programs in Ohio, the online survey reassesses enrollment numbers of instructors
educationalmaterials. In this paper, novel approaches to improving power systems engineering educationthrough gamification are reviewed and explored. This study also explored relevant examples ofgamified implementations in education in other subjects, such as math, physics, andprogramming. From this, the similarities and differences between power system education andthe external subjects are explored, and a research agenda to apply gamification to power systemseducation is developed.IntroductionPower engineering is the oldest electrical engineering subdiscipline [1] and it is key enablingtechnology for all other engineering disciplines (without power, there is no computer science,etc.). However, the education in power engineering has consistently suffered as
Paper ID #15420Toward Engineering-Oriented Health Informatics EducationDr. D. Cenk Erdil, Marist College Dr. Erdil is an Assistant Professor of Computer Science at Marist College. He has been designing and teaching general computer science courses for more than a decade. He has also contributed to the design and management of several computer science and engineering programs as a program coordinator. His research interests include K-12 STEM education, distributed resource scheduling, cloud computing for big data, public health informatics, and mHealth. Prior to joining Marist, he was an Associate Research Scientist at
from the Massachusetts Institute of Technology, Cambridge, MA, in 1992 and 1999, respectively. He is currently Professor of Electrical and Computer Engineering at the University of Massachusetts, Amherst. His cur- rent research interests include computer architecture and field-programmable devices.Mr. George Bryan Polivka, Shorelight Bryan Polivka is currently the Senior Director for Shorelight Education, focused on instructional design and learning architecture. He has helped schools, universities, corporations, and nonprofits with strat- egy and strategically positioned product. He and his teams have built online, hybrid, and live distance programs for and with a long list of universities including UMass Amherst
an educative institution, the ITESM is unique in this sense, scoping a widerange of the educational spectrum: research and the exploitation of its results to make themost out of technological advantages, and the development of researchers andprofessionals that contribute significantly to the regional and national development.3. REVERSE ENGINEERING AS A TEACHING TECHNIQUE. Reverse Engineering (RE) is already a main technique in a wide range ofmanufacturing processes. The RE approach focuses on the re-analysis of existingproducts where the relevant technical documentation or information is not available. Theaim is to investigate specifications, cost, operations, manufacturability, reliability,limitations, function and other information
include simulation and visualization software techniques, partnering more closely withindustry to provide both realistic project activity as well as continued education options for theexisting workforce, and to utilize alternative classroom delivery techniques and mechanisms.The National Science Foundation has identified the need for innovation in this area and hasaggressively sponsored research and development activities to address and remedy thissituation.7-10Curriculum SectionRecognizing the demand for power engineering expertise and the current pool of available talent,the U.S. Naval Academy has embarked on a path to create a power systems track within theelectrical engineering major. The goals of the proposed track are to educate junior
Online Engineering Education: A Comprehensive Review Wael Ibrahim, Rasha Morsi ECPI College of Technology/Norfolk State UniversityAbstractDevelopment and assessment of synchronous and asynchronous distance learning curricula is anever growing research due to the new emerging virtual universities. Recent reports confirm thefast growth in online education at an even higher rate than anticipated by educational institutions.The suitability of online learning to engineering disciplines however has been questioned. Thispaper researches online degree granting institutions and attempts to gain an insight in the growthof online education and its correlation with engineering
. Heteaches courses in mechanics and design.LEAH JAMIESONLeah Jamieson is Professor of Electrical and Computer Engineering at Purdue University, where she is co-founder and Co-Director of the EPICS Program. She is a co-recipient of the American Society for Engineering Education 1997 Chester F.Carlson Award for Innovation in Engineering Education for her work on the EPICS Program. Her research interests are inthe areas of speech recognition and parallel algorithms. She is a Fellow of the IEEE.ED COYLEEd Coyle is a Professor of Electrical and Computer Engineering at Purdue University, where he is co-founder and Co-Director of the EPICS Program. He is a co-recipient of the American Society for Engineering Education 1997 Chester F.Carlson Award for
Ph.D. in Computer Science from the University of Oklahoma, Norman, Oklahoma. His research focuses on diverse areas such as: D ©American Society for Engineering Education, 2024 Serious Games in Computer Engineering EducationAbstractThe purpose of a capstone design project course is to provide graduating senior students with theopportunity to demonstrate understanding of the concepts they have learned during their studies.As with many computer science and engineering programs, students of the computer engineeringprogram at Utah Valley University (UVU) conclude their degree programs with a semestercapstone design experience. The intent is for students to utilize competencies developed in thefirst
Paper ID #16892Piloting Accessible Engineering Education OnlineRachel LeBlanc, WPI Rachel LeBlanc is the Executive Director of Corporate and Professional Education at Worcester Polytech- nic Institute. She manages the portfolio of non-traditional academic programs for the University including online programs, corporate education, and professional education. Rachel has over ten years of experi- ence working with faculty and industry experts to create education solutions to meet business needs. She manages a variety of functional areas including business development, marketing, product development, and operations
jobs in 2007. Fall 2019 Mid-Atlantic ASEE Conference, November1-2, 2019 – Cooper Union, NYCFigure 2 Cumulative wind capacity by the end of 2007 and Year 2007 only installedFigure 3 Direct jobs created in Europe 2007, cumulative capacity installed until 2007 resultant jobs/MWThe manufacturing of wind turbines gives more employment opportunities. Nevertheless, the industrycreates jobs in research and development, system design, installation and maintenance, education andtraining, energy auditing and management and consulting.From a case study from Germany, it is known as far as back in 1997 the Building Code of Germany wasaltered via a change in legislation to bring the “wind power” projects as the highly favored projects in thelaw
. Student learning outcomes e. Assessment 4. Engineering Design: Innovation and Invention a. Design processes: definitions, parallels b. Practicing problem solving and design c. Evaluating products and designs 5. The Technological World a. Previous definitions b. Changing paradigms 6. K-5 Educational Programs a. Children’s Engineering b. Engineering is Elementary c. Competitions (Odyssey of the Mind, Science and Technology Fairs, etc.) d. Working with parents: STEM nights 7. Educational Grant Writing and Publishing a. General grant writing principals b. Identifying requirements c. Research versus program
but all the components of theeducational system.The rapid fluctuations of the job more and the constant emergence of new multidisciplinaryspecializations necessitate an educational system that provides the student with a strong basisin fundamental sciences and which is flexible enough to adapt to the students desires and jobmarket requirements. In general, an appropriate credit hour system with efficient tutoring isthe answer but student demographics limit its applicability for the time being.Another major problem facing the academic engineering community is the increase of theaverage age of the staff on account of the brain drain resulting from low remuneration andinadequate research facilities.Presently there exists several initiatives
engineering educators. These new low-budget tools allow for morechoices with regards to how, when and where information is shared between the instructor andthe students, with promising results. Most of the distance education research has found thatstudents in well-designed distance education courses perform as well as students in well-designed traditional courses1. At the same time the need is rising for instructors to find moreeconomical methods to educate students. These are the driving forces behind the franticdevelopment of new distance education tools which are revolutionizing the education industry.METHODOLOGYThe methodology, shown in Figure 1, links the educational and motivational objectives of aneducational interaction with appropriate
moved from the Worcester Polytechnic Institute, where he was the Head of the Department of Mechanical Engineering, in 2010. Tryggvason received his doctorate from Brown University in 1985 and spent a year as a postdoctoral researcher at the Courant Institute. After fifteen years as a professor of Mechanical Engineering and Applied Mechanics at the University of Michigan, he moved to WPI in 2000. He has also held short term visiting positions at Caltech, NASA Lewis Engineering Research Center, University of Marseilles, and University of Paris VI. Professor Tryg- gvason is well known for his research on numerical simulations of multiphase and free-surface flows, vortex flows, and flows with phase changes. He is an
AC 2012-5055: MULTIMEDIA SYSTEMS EDUCATION INNOVATIONS I:SPEECHProf. Tokunbo Ogunfunmi, Santa Clara University Tokunbo Ogunfunmi is the Associate Dean for Research and Faculty Development in the School of En- gineering at Santa Clara University (SCU), Santa Clara, Calif. He is also an Associate Professor in the Department of Electrical Engineering and Director of the Signal Processing Research Lab. (SPRL). In 2003, he served as Acting Chair of the Department of Electrical Engineering at SCU. His research inter- ests include digital signal processing, adaptive and nonlinear filters, multimedia (Video/Audio/Speech), neural networks, and VLSI/FPGA/DSP development. He has published 140+ papers in refereed journal
. He has ten years ofindustrial experience in photonics research and development at McDonnell Douglas Corporation (now The BoeingCo.), St. Louis, MO. Page 9.1090.12 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Education
total quality management and continuousimprovement programs. Schools with the best programs may even win the Malcolm BaldridgeAward, whose administrators have created a new educational category along side the originalcategories for private businesses. In order to achieve customer satisfaction and measure quality,universities are developing models to assess teaching and research productivity, value-addedactivities, and learning outcomes, establishing benchmarks to assess the return on investment.Education has become a marketing endeavor, competing for customers.Students: The New Education "Customer"In viewing the student as the consumer of education, the student's role is shifted and hisrelationship with the professor is no longer a "student
the importance of age-appropriate circuit education tools,offering insights for educators designing engaging and developmentally appropriate STEMcurriculums for young learners.INTRODUCTIONEarly exposure to circuit education is crucial for developing the knowledge and skills they needfor future studies in engineering. However, traditional circuit education has largely relied ontheoretical instruction, often failing to accommodate the cognitive and motor skill levels of earlyelementary students. Conventional circuit components are typically small, requiring fine motorprecision, and their abstract nature can make it difficult for young learners to form a tangibleunderstanding of electrical principles. Research suggests that young children
the theory-heavy and often microscopic subject of materials science and the moreapplied aspects of materials engineering. It is relatively small compared to, say, the more generalfield of Mechanical Engineering. The subject is, however, of fundamental importance toMechanical Engineers and relevant courses are therefore incorporated into many sucheducational programs. Departments, Courses, and Educators within these disciplines areinterlinked (see Figure 1) and both researchers and educators associated with MechanicalEngineering often use the methodologies of Materials Science or Materials Engineering. Mechanical Engineering
maneuverable and aesthetic concrete canoe.The design/build process required to create a competitive concrete canoe provides civilengineering students with an opportunity to gain hands-on practical experience and leadershipskills that will enhance their engineering education. They learn the importance of effectiveproject management and teamwork, including communication, organization, quality and costcontrol and safety. The technical challenges of the project are quite similar to thoseencountered in a high-quality undergraduate research project.Students who participate on a concrete canoe team gain valuable skills that they would notnecessarily learn in a standard engineering undergraduate curriculum. The concrete canoecompetition is a program that
be the opportunity to bring newtechnologies to bear on the problem. This will require a change in the decision models used by industries andwill require new actions by engineers of all specializations, not j ust environmental engineers. Academia has two responsibilities in this area. The first is to educate engineers in all specialties toaccount for environmental effects as part of their normal engineering practice. The second is to engage inmeaningful research, development and technology transfer in the area of environmentally responsible materials,product and manufacturing design. The Engineering Department at the University of Texas-Pan American undertook this “EnvironmentalEducation Initiative” because we realized that in
. Consequently, the National Science 8Foundation and the National Endowment for the Humanities encouraged studies on engineeringethics, which caused the field to become an established and recognized discipline. The subjectof engineering ethics is now a full-time study by numerous researchers (Davis, 1999; Herkert,2000; McGinn, 2003; Steneck, 1999; Stephan, 2002).“The last quarter of the 20th century witnessed many notable changes in engineering education inthe USA, including growing recognition of the importance of ethics and social responsibility”(Herkert, 2000, p.303). This acknowledgement of the importance of ethics in engineering hasbeen spurred on by
Review, vol. 36, no. 3 (Spring 1995), pp. 63-76.25. Lionni, L., Fish is Fish, New York, Scholastic Press, 1970.26. Manz, Charles C. and Henry P. Sims, Jr., Business Without Bosses: How Self-Managing Teams Are Building High-Performing Companies, New York: John Wiley, 1993.27. Maurer, Rick, Beyond the Wall of Resistance: Unconventional Strategies That Build Support for Change, Bard Press, 1996.28. McKeachie, W. and P. Pintrich, Y. Lin, and D. Smith,, Teaching and Learning in the College Classroom: A Review of the Research Literature, 1986, Ann Arbor: Regents of the University of michigan, ED 314 999, 124 pp, MF-01, PC-05.29. NRC, “Engineering Education: Designing an Adaptive System”, National Research Council, Washington, D.C
Paper ID #43321Optimizing Transfer Pathways in Higher EducationDr. Yiming Zhang, The University of Arizona Yiming Zhang completed his doctoral degree in Electrical and Computer Engineering from the University of Arizona in 2023. His research focuses on machine learning, data analytics, and optimization in the application of higher education.Prof. Gregory L. Heileman, The University of Arizona Gregory (Greg) L. Heileman currently serves as the Vice Provost for Undergraduate Education and Professor of Electrical and Computer Engineering at the University of Arizona, where he is responsible for facilitating