The Influence of Demographics on an Introductory Circuits Course Carlotta A. Berry Tennessee State UniversityAbstract This paper evaluates the performance of engineering students in an introductory circuitscourse during the period of Fall 2000 through Spring 2003 at Tennessee State University (TSU).TSU is a historically black university in Nashville, TN with an approximate enrollment of 9000graduate and undergraduate students with 500 full- and part-time faculty. The College ofEngineering, Technology, and Computer Science has an approximate enrollment of 1000students and 8 majors. This paper will
processes available for making the product using this material may then beconsidered and the best process chosen based on the technological and economic feasibilities ofthe process. Unfortunately this exercise is seldom simple on account of the enormous progress inthe development of materials and processes in recent times [1]. Fortunately, the monumentalwork done by Ashby and his associates [2] has paved the way for not only making these taskssimpler, but provide unambiguous guidelines for completing these tasks. A course with exampleshighlighting these aspects would be of great benefit to mechanical engineering students inlearning how to apply the knowledge in their profession. This paper was written as a preamblefor this goal.In this paper the
and con- struction. Ms. Spencer’s research interests include: architectural professional education, study abroad, internships, international education of architects, education in online and virtual environments, building information management, technology in construction management, and sustainable construction prac- tices.Dr. Kimberly Grau Talley P.E., Texas State University - San Marcos Dr. Kimberly G. Talley is an assistant professor in the Department of Engineering Technology, Senior Research Fellow and Maker Space Co-Director for the LBJ Institute for STEM Education and Research at Texas State University, and a licensed Professional Engineer. She received her Ph.D. and M.S.E. from the University of Texas
sponsored by the United States Department of Energy (DOE) through its National Renewable Energy Laboratory (NREL),[1] involving universities from around the world. It is fashioned after the Olympic decathlon and, like its namesake, consists of ten contests testing performance in selected skills. However, instead of focusing on athletic ability, the Solar Decathlon spotlights the application of solar energy and other sustainable building techniques to the construction of residential structures. Its purpose is to illustrate the feasibility and encourage the use of alternative energy sources and renewable energy technologies in a contemporary context. The first Solar
AC 2007-661: FRESHMAN LAB EXPERIMENT: CITRUS POWERED CARDavid Ye, Polytechnic University David Ye is a senior head teaching assistant in General Engineering. He expects to receive his BSEE from Polytechnic University in June 2007. His interests include robotics. He interned at Symbol Technologies researching wireless protocols and Power LEDs.Roshan Abraham, Polytechnic University Roshan Abraham is a teaching assistant in General Engineering. He expects to receive his BSME from Polytechnic University in June 2007.Gunter Georgi, Polytechnic University Gunter W. Georgi is an Industry Professor at Polytechnic University. He received his B.S. from Cooper Union and his M.S. and professional M
Scott College, and both a B.S. in Engineering Science and a Ph.D. in Civil Engineering from the University of South Florida. She has over 16 years of experience in developing curriculum in engineering and engineering technology and is a registered professional engineer in the State of Florida. She is currently working with Douglas L. Jamerson, Jr.© American Society for Engineering Education, 2007 Elementary School to develop curriculum content for its Center for Mathmatics and Engineering.Richard Gilbert, University of South Florida RICHARD GILBERT is a professor of Chemical Engineering in the College of Engineering at the University of South Florida. He has developed educational materials for
form a community (item #3mentioned above), firm up housing arrangements for the summer, distribute information on theresearch projects that would be available for the summer, and tour the campus and laboratories.All of the teachers, whether they were able to visit the campus or not, then were asked to return alisting of the top three projects on which they would like to work. By the end of May all teachershad been assigned projects, with two teachers assigned to each project and each pre-serviceteacher paired with an in-service teacher. This allowed about two weeks for the teachers tocommunicate with each other, and with their mentor, prior to the start of the on-campus portion ofthe program. We found this two week period to be extremely
learningexperience. IntroductionTechnology is becoming an integral part of our lives and its effects are no more prominent thanin the lifestyles of younger generations who grew up immersed in technology. As technologicalinnovations become pervasive, their transformative power spreads throughout society, and that Page 26.1478.2includes education. The enthusiasm for emerging technologies like mobile devices, wirelessnetworks, cloud computing, and social media stems from the tremendous opportunities they offerto transform and enhance the learning and teaching experiences1, 2, 3. With the proliferation ofeducational
quality to that offace-to-face education.MethodologyFor this study a list of 230 companies in Western Kentucky University’s service area wasobtained using the 2005 Kentucky Directory of Business and Industry. This list included theorganizations’ mailing address and contact information. A survey was sent to Human ResourceManagers (HRM) of these organizations asking them to answer questions about hiring andplacing current employees into three different graduate programs.The first section of the survey was designed to determine how many employees the organizationswere likely to hire out of three different master’s programs. The programs that were listed werea Master of Science in Industrial Technology, Master of Science in Technology Management,and
stakeholders are highlighted.Introduction According to the Occupational Outlook Handbook, engineers (in all disciplines) heldapproximately 1.5 million jobs in the U.S. 2002 (the most recent year for which employmentfigures are available), while workers in the broad technology field held approximately 2.6million jobs (including positions such as engineering technologists, computer systems analysts,database administrators, computer scientists, computer programmers, computer softwareengineers, and computer and information systems managers). The need for a prepared, productive, and engaged engineering/technology workforce iswell documented.1,2 Additionally, there is tremendous evidence to suggest that organizationsthat invest in their human
4IET 700 Thesis or Option* 6 ___ Required Course Total: 30Department Approved Technical ElectivesThe student must select 15 credits from the following list to complete a total program of 45 credithours.IET 512 Alternative Energy Systems 4IET 523 Emerging Technologies 4IET 524 Quality Control 4IET 526 Engineering Project Cost Analysis
regularly discuss design problems related to rapid prototyping, offer advice and information regarding new ideas and potential pitfalls, and have access to additional information through seminars on related technology. Page 9.1242.2 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering 4. Provide means to improve the knowledge base in rapid prototyping and related technology through research activities at South Dakota State University. 5. Create an atmosphere
business analysis project, in many cases companies are exposed to new computingand information technologies. Also, the industrial client has the opportunity to access, throughthe student teams, the extensive resources of the university, which are not otherwise readilyavailable. Finally, companies have an opportunity to constructively participate in the programs ofeducation and research at the University and get to meet first hand students who could bepotential employees.The project-based, self-directed learning paradigm is not without problems. Most students havebeen exposed for their entire education to a Platonic lecture/exam approach and find the TEAMprogram challenging. The necessity to accept ownership for their learning can be
carryout the new concentration requirements at the AAS and BS degree levels. The best plan forintroducing concepts of alternative and renewable energy will be injecting information into theexisting courses. For example, new concepts will be introduced in Information SystemsTechnology by adding courses on computer networking and programming for power gridmanagement and Optical Systems Technology will develop courses on photovoltaic and solarenergy and establish a laboratory with a solar panel array. A capstone course in alternative andrenewable energy would incorporate the following: guest lecturers from industry; field trips toinvestigate operating solar, nuclear, wind and conventional power sources; laboratory instructionat ASU’s Photovoltaic
carryout the new concentration requirements at the AAS and BS degree levels. The best plan forintroducing concepts of alternative and renewable energy will be injecting information into theexisting courses. For example, new concepts will be introduced in Information SystemsTechnology by adding courses on computer networking and programming for power gridmanagement and Optical Systems Technology will develop courses on photovoltaic and solarenergy and establish a laboratory with a solar panel array. A capstone course in alternative andrenewable energy would incorporate the following: guest lecturers from industry; field trips toinvestigate operating solar, nuclear, wind and conventional power sources; laboratory instructionat ASU’s Photovoltaic
that the growing importance of software usage in labs will help to alleviate this problem, but, in addition broader Page 13.221.6 steps need to be taken to encourage women to become involved in technology. This type of information needs to be disseminated to high school counselors. The NSF funding and ELITE scholarships are another way to provide encouragement to women and minorities. TABLE 2 ECET outcomes mapped to TAC/ABET and Engineer 2020 Electronic and Computer Engineering Corresponding TAC/ABET Attributes of Engineer 2020 Technology Option
carryout the new concentration requirements at the AAS and BS degree levels. The best plan forintroducing concepts of alternative and renewable energy will be injecting information into theexisting courses. For example, new concepts will be introduced in Information SystemsTechnology by adding courses on computer networking and programming for power gridmanagement and Optical Systems Technology will develop courses on photovoltaic and solarenergy and establish a laboratory with a solar panel array. A capstone course in alternative andrenewable energy would incorporate the following: guest lecturers from industry; field trips toinvestigate operating solar, nuclear, wind and conventional power sources; laboratory instructionat ASU’s Photovoltaic
started its new Master of Science in Technology degree program in2008, and today after 9 years, has one of the largest enrollments for graduate programs inTechnology in the nation1. The program has had over 350 graduates. Many of these graduatesalso received graduate certifications (about 110) as part their degree addressing the regionalneeds of the industry.Including technical management to an MS in Technology program has been the distinguishingfactor between Master of Science degrees in Technology and those in engineering programs. In apaper on graduate programs in Engineering Technology, the authors recommended thatEngineering Technology programs consider and incorporate emerging sub-disciplines, as well asincluding technical management in the
science, the distinctions between engineering and science are less sharpduring earlier periods in history). Many, if not most, technological developments havebeen developed in tandem with or as a result of military requirements and objectives.Work of even the earliest engineers and scientists, such as the work of Archimedes toimprove the catapult (c. 250 BC), have been directed toward serving military purposes.Accounts by many historians of engineering underscore the nearly inseparable linksbetween engineering and the military, particularly during the era (c. 17th Century) whenengineering emerged as a profession in the sense defined by Davis9. So identified wasengineering with military projects that, according to Hacker15, “the very term
program. Thus, careful strategic planning is needed to address this issue. With the current situations of the global economy, the Universities and the academic units associated with the graduate programs need to secure additional resources from extramural sources to support graduate student and graduate research activities. This will warrant new challenges for the faculty and the associated academic leaders to enhance new avenues for additional funding.3. General strategic recommendations: Based on the above general analysis, the following strategic recommendation is developed. a. Graduate programs in Engineering Technology and discipline-linked Engineering Technology have many new opportunities to explore and utilize the emerging
successful when students can transfer learning to new contexts,dualist models assume transfer is weakly coupled to educational environments while theenactivist viewpoint posits that environments strongly affect transfer.The enactivist model can inform efforts to encourage technological literacy. Like many areas inSTEM, education technological literacy has sought to identify and support learning outcomesthat specify effective teaching or content interventions which enable learners to become moretechnologically literate. From the enactivist perspective, however, technological literacy isachieved by placing individuals into an environment in which they must navigate technology-induced challenges, with success defined as learning processes that allow
just-in- time learning teams. 2. a model in which a graduate student is also a teaching assistant in a concurrent course and will work with the faculty team.The project-based course is not new to science, technology, engineering, mathematicsand business. Business Operations and Information Management 770: Introduction toQuality and Productivity Improvement and Industrial Engineering 575 Introduction toQuality Engineering are two graduate courses. Engineering Professional Development Page 11.1347.6160: Introduction to Engineering is a highly acclaimed course for first-year students andis based on real-world projects
clearing up ambiguities or misconceptions in addition toreceiving valuable feedback information for program improvements.In general, both organizations have been very pleased with the students selected to work in theirorganizations. The Forschungszentrum KA was extremely pleased with the students working intheir organization. They indicated they would like to see the program expanded to a longer timeperiod. They believe the program is too short; just as the student is adjusting to the culture,language, and become familiar with work system; it is time for them to leave. One interestingfinding emerged: both organizations indicated that the students’ knowledge of the Germanlanguage was less important for their work experience; however, it was
, changes in degreeprograms occurred more rapidly than the current criteria could be modified under TAC’s two-yearrevision cycle, and it became increasingly clear that the existing criteria were not a suitable frameworkfrom which to address new and emerging issues in engineering technology education. With remotedelivery of courses, web-based instruction, just-in-time instruction and non-traditional programsbecoming increasingly common, TAC realized their criteria document needed more than amendments---itneeded a new framework. In 1996, the TAC Criteria Committee was charged to recommend the formatand substance for criteria suitable for accrediting engineering technology programs into the long-termfuture. That committee opted for outcomes-based
indicated that they would pursue a career inengineering. From the 2004 group, several participants have inquired about entering engineeringnext summer. There is no doubt that the educational materials have provided these studentssufficient information to make an educated decision to pursue a degree in engineering.Introduction Most students who know anything about engineering perceive this academic field as “very Page 10.506.1 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Educationdifficult” and “very demanding”; fun is
simulation they should define the parameters that are themost important and explain the difference between the theoretical and experimental results.10. Vibration of stringIn our laboratory we have four lab stands where the vibration of the systems with distributedmass and elasticity are analyzed. The first one is the electric guitar. Electromagnetic transducerschange the vibration of the strings into electric signals which can be analyzed in the domain offrequency or time. The frequency spectrum of the string gives information about the harmonicsthat are generated by the string – Fig.15. If we know the fundamental frequency of the string Page
first-year honors engineeringstudents at the same university. A survey was administered as a required homeworkassignment to students in the first-year engineering class, Honors Engineering ProblemSolving and Computer Tools. Students were asked to rate their confidence in their abilityto succeed in the course as well as to list and rank the factors they perceived asinfluencing their self-efficacy beliefs. This paper will present the influences of honorsfirst-year engineering student self-efficacy beliefs and compare them to the beliefs andinfluences of non-honors first-year engineering students. Such information may helpeducators construct a learning environment that promotes positive self-efficacy, and thusthe achievement and retention of their
process- oriented, rather than technique oriented.9 Softsystems theory takes as its starting point not a problem but a situation in which at least oneperson has a feeling that some elements of a situation or process are problematic and hence worthexploring. The methodology moves from finding out about the situation to taking action withinit, and does so not by relying on experience but by doing some careful, formally organizedsystems thinking about the problem situation.10Socio-technical systems theory is used to define the behavior of organizations. Specifically, thistheory defines organizations as pursuing a primary task that can best be realized if their social,technological, and economic dimensions are jointly optimized.11 An application of
research Interests are globalized engineering/technology education, engineering technology innovative curriculum development, outcome assessments, and refining program accreditation procedures. c American Society for Engineering Education, 2016 Implementation of a Bachelor of Science in Mechatronics Engineering Technology ProgramAbstractThe purpose of this paper is to provide an account of a project to develop and implement amultidisciplinary B.S. in Mechatronics Engineering Technology curriculum based on the needs ofindustry in Northern Kentucky / Southern Ohio regional areas. The main source of information forthe assessment of region’s industry needs for mechatronics
, knowledge- intensive jobs and the innovative enterprises that lead to discovery and new technology, our economy will suffer and our people will face a lower standard of living. Economic studies conducted even before the information-technology revolution have shown that as much as 85% of measured growth in US income per capita was due to technological change. (p. 1) Keeping pace with this pressing need, the white house has taken upon the Educateto Innovate (WhiteHouse Press release(s) (2009 & 2010) initiative): The AP (1/7) reports that on Wednesday, President Obama launched his $250 million "Educate to Innovate" campaign "to train math and science teachers and help meet his