without committingto being one; (2) make students aware of what it means and how it feels to think and act like adesign engineer; and (3) allow faculty, advisors, and potential employers to see individualsmature from having relatively undifferentiated intelligence into professional minds withdocumented skills and experience, some becoming design engineers, but all understanding wheredesign thinking fits into our everyday lives. Thus, the course emphasizes direct experience,practical design thinking, and the building of real product prototypes. No prior design experienceor fabrication skills are required. The ideas developed in the course are grounded in the students’collective background life experiences and observations of "human needs
/Pennsylvania State UniversityAbstractPenn State University has hosted a NSF sponsored GK-12 Outreach project for the pastfive years, and has just begun the second phase of the project. The Penn State projectutilizes the talents of many science and engineering graduate students as teachers,mentors and role models for the K-12 classrooms. The project focuses on developingskills of students in the areas of science, technology, engineering and mathematicsthrough the use of Advanced Transportation Technologies. The GK-12 students areinvited to participate in research in various ways in support of Advanced TransportationTechnology such as undergraduate/graduate student competitions like Future Truck andChallenge X. The quantitative assessment planned at the
understanding and improving learning.... When it is embedded effectively within larger institutional systems, assessment can help us focus our collective attention, examine our assumptions, and create a shared academic culture dedicated to assuring and improving the quality of higher education....Thomas A. Angelo, Director of the Assessment Page 10.982.1 Forum, American Association for Higher Education1“Proceedings of the 2005 American Society for Engineering Education Annual Conference and ExpositionCopyright © 2005, American Society for Engineering Education”Based on various studies1 ABET is
Society for Engineering Education Annual Conference & Exposition Copyright 2005 American Society for Engineering EducationConsidering the future use of the engineering resource guide it is likely that it will growas more and more teachers submit lessons for inclusion. With that in mind, the TTUEngineering Dean’s Office is looking to license submissions and the documents as awhole using Creative Commons licensing. Creative Commons licensing is designed topromote the free exchange of information while still preserving copyright ownership. Inusing the Creative Commons license, contributors will acknowledge that their submissioncan be used in a non-profit, educational setting by the university. Likewise, the resourceguide
Using Classroom Communication Systems: A Unique Technology-Based K-14 Outreach Program at an Engineering University Susan E. Kowalski, Frank V. Kowalski, and Adam P. Kowalski Colorado School of MinesAbstract: We describe a unique K-14 outreach program of Colorado School of Mines, a publicengineering university. This program is centered on Classroom Communication Systems (a.k.a.student response systems), in which every student uses a handheld, wireless IR remote device totransmit a response to a question posed by the instructor. The responses are recorded andinstantaneously compiled in a student-anonymous histogram for all to see. This
A Middle School Program to Attract Native American Students to STEM Higher Education Wei Lin1, Luther Olson2, G. Padmanabhan1, and Carol Davis2 1 North Dakota State University, Fargo, North Dakota, USA 2 Turtle Mountain Community College, Belcourt, North Dakota, USA ABSTRACTA 3-year collaborative project between the Turtle Mountain Community College, NorthDakota and the Department of Civil Engineering and Construction, North Dakota StateUniversity, “A Reservation Collaboration Initiative for Pre-college Excellence inScience, Technology, Engineering and Mathematics (RECIPE)” funded by NASAcompleted two years and is in
University and Community Partnerships for Reaching Pre-College Students: The EPICS Model Joy Garton Krueger, William C. Oakes, Leah Jamieson, Carla Zoltowski Purdue University Sarah Nation and Jill Heinzen Crane Naval Surface Warfare CenterIntroductionMathematics and science are creations of the human mind and, as such, are continuousenterprises1. Many young students possess the innate ability to think and reasonmathematically2 and most children possess a level of curiosity about the world around them3Yet, the commitment by the engineering and educational professions to ensure that these
ranking their confidence and to briefly describe them. “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005. American Society for Engineering Education”They were encouraged to report everything that came to mind. After listing all of the factorsthey considered, students were asked to rank the factors from most to least influential.Analysis Due to the large number of students enrolled in ENGR 106, smaller sample populationswere selected for analysis using stratified random sampling. The population of men and womenwere each stratified by ethnicity (Table 1) and randomly sampled based on a 95% confidencelevel and a confidence interval of 5. Sample
Laboratory Improvement (CCLI) Program and the EducationalMaterials Development (EMD) Track. The authors also thank Dr. Richard Shaw and hiscolleagues in the Center for Writers at North Dakota State University for their help in thepreparation of this manuscript.References1. NRC. (1996). “From Analysis to Action: Undergraduate Education in Science, Mathematics, Engineering, and Technology,” A report from NRC, http://books.nap.edu/catalog/9128.html, accessed March 30, 2001.2. NRC. (2000). How people learn: Brain, Mind, Experience, and School (expanded edition). National Research Council’s Commission on Behavioral and Social Sciences and Education: Developments in the Science of Learning and Learning Research and Educational Practice. National
Session 1793K-12 Summer Engineering Outreach Programs – Curriculum Comparisons Between Ages, Minorities, and Genders. Andrew L. Gerhart Lawrence Technological University, Southfield, MI 48075AbstractEnsuring that the level of the material presented/used for a K-12 program is not too easy or tooadvanced can be a challenge to the instructor. Also ensuring that the material will be of interestto a variety of students (i.e., minorities, females, etc.) can be a challenge. LawrenceTechnological University has two outreach programs each summer. One program, called
Calibrated Peer Review: A Tool for Assessing the Process as Well as the Product in Learning Outcomes Patricia A. Carlson† and Frederick C. Berry†† † Humanities and Social Science Department †† Electrical and Computer Engineering Department Rose-Hulman Institute of Technology Terre Haute, IndianaAbstract: For about two decades now, engineering education has been in the process of re-inventing itself. ABET’s revised requirements, changing realities of the workplace, and thegrowing awareness of
A Cognitive-Based Approach for Teaching Programming to Computer Science and Engineering Students Covington, R. and Benegas, L. California State University Northridge, Northridge, CA, 913301. IntroductionAn issue receiving attention in the undergraduate Computer Science curriculum over the pastfew years has been the high failure rate in the freshman programming course. This coursegenerally corresponds to the ACM/IEEE course designation CS1. It is normally an introductorybut fast-paced and challenging course for students who have not previously studied computerprogramming (programming novices), but who do have a minimum level of mathematicalmaturity (students who are
Conceptions of the Engineering Design Process: An Expert Study of Advanced Practicing Professionals Susan Mosborg, Robin Adams, Rebecca Kim, Cynthia J. Atman, Jennifer Turns, and Monica Cardella Center for Engineering Learning and Teaching, University of WashingtonAbstract. Published models of the engineering design process are widely available and oftenillustrated for students with a block diagram showing design as sequential and iterative. Here weexamine experts’ conceptions of the design process in relation to a model synthesized fromseveral introductory engineering textbooks. How do experts’ conceptions compare? What mightthey see as alternative accounts? We
, social, and educational objectives in mind. The analysis of the three main questionspresented here (changes in professional aspirations, perceptions of own skills, and interest incommunity service) revealed that over the course of the semester, students perceived learninggains and increased their orientation toward a service approach. First, students changed theirprofessional aspirations toward engineering/product development and further education andaway from management consulting and medicine. Second, the perception of their own skillsincreased in key product design areas such as ability to design new products, creativity, andproblem solving. Third, 2.009 students’ attitude became more service-oriented.In summary, the goal of integrating
specialist and the scientist are grouped together in one career track asindividual contributors as that seems to be the common accepted definition in literature (See for Page 10.1322.1instance Landis2 and Covert4). It might be worthwhile to also keep in mind the definition from Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition. Copyright © 2005, American Society for Engineering EducationSpurgeon5 who distinguishes between managers and individual contributors, which can be usedas a definitive decision maker in cases of doubt to which group an engineer belongs
, so we contacted participants individually. Furthermore, interview protocols were stillbeing refined as CSM’s academic year drew to a close. When protocols were complete, CSMhad only four weeks between Spring Break and Final Exams to schedule forty-eight interviewsone-and-one-half hours, each. When a student had to reschedule or missed an appointment, the Page 10.1074.6entire schedule was under even greater pressure.Proceedings of the 2005 American Society for Engineering Education Annual Conference and Exposition Copyright© 2005, American Society for Engineering EducationResearchers must be mindful of the participant’s value
(even if it means going to some bad movies or sitting through somepoor TV programs), bring them into the classroom to be dealt with face-to-face and re-engineer the problem by correctly applying physical laws to expose the physical fallacies.The good news is that the Instructor can count on the fact that a majority of the studentshave already seen the illusions and have had their attention focused on the “problem”even if subliminally, for one or two hours (depending upon the length of the movie orTV). Thus there is some level of recall by the students of their favorite movie or TV1 The author remembers fondly the ‘60’s movie “Flubber’ staring Fred Mac Murray as the absent minded
move may commence. Realistically, as the amountof unknown and imprecise information becomes increasingly larger, it becomes more difficult toplan out contingency plans for the later stages of the game. The best decisions will also be those Page 10.1283.11that provide the greatest longevity of the units. Keep in mind that even the best plans often failbecause either there are too many unknown variables or the opposing plans are better strategies.“Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education”Students should
., Science: The Endless Frontier, Office of Scientific Research and Development, 1945.2. Ferguson, E.S., Engineering and the Minds Eye, MIT Press, 1993.3. Boyd, W., The History of Western Education, Eighth Edition, Barnes & Noble, Inc. 1966.4. Boyer, E.L., Selected Speeches, The Carnegie Foundation for the Advancement of Teaching, 1997.5. Dewey, J., Democracy and Education, 1916.6. Whitehead, A. N., The Aims of Education, Macmillan, 1929.7. Grinter Report, Report of the Committee on Evaluation of Engineering Education, Journal of Engineering Education 46, September 19558. Walker, E.A., Teaching Research Isn’t Teaching Engineering, ASEE, 1969.9. Boyer, E.L., Scholarship Reconsidered: Priorities of the Professoriate
Implementing a Mailing Campaign for Undergraduate Student Recruitment Bryan Hill College of Engineering University of Arkansas - Fayetteville, AR 72701 ABSTRACTThe process of recruiting a high school student to enroll into a university is a veryintricate and intense process. Why is this complicated? You must read a 17 or 18year olds mind in order to obtain this information, which is very tricky if notimpossible sometimes. How do you keep the interest of a student? What buttondo you have to push for them to read the information you send them? How manytimes and when should you contact a prospective
Technology Management Program. The centerpiece of this initiative is a comprehensive design of a newentrepreneurship program. The curriculum will rely on engineering and businesscourses. One unique feature of this program is that we propose to engage freshman inthe curriculum. We see this as a benefit to retention of students with both technical andbusiness interests. . In the “capstone” classes, students will be organized in E-teams with varyingeducational backgrounds. The six prior Entrepreneurship courses in concert with thebusiness courses will provide the students with the tools needed to successfully developtheir products. These E-Teams will include Oklahoma inventors that commonly have aproduct concept in mind with little insight
psychology of the child. New York: Basic Books11. Vygotsky, L. (1978). Mind in society. Cambridge, MA: Harvard University Press12. Harnad, S. (1982) Neoconstructivism: A unifying theme for the cognitive sciences. In T.13. Jonassen, D. H. (1991) Objectivism versus constructivism: do we need a new philosophical paradigm? Educational Technology Research and Development, 39 (3), 5-14. . . . . Page 10.348.6 “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering Education”
Wayne State University, • History of technology at the University of South Florida, • Business law at Milwaukee School of Engineering, • Team leadership and facilitation at North Carolina ATSU and Milwaukee School of Engineering, • Reliability at Cal State Hayward, • Cognitive engineering at Ohio State University, • Fuzzy logic at SUNY-Binghamton, and • Entrepreneurship at South Dakota School of Mines and Technology.ConclusionsAs a faculty member, I sometimes feel that the field is dominated by large research baseddepartments. I believe we should keep in mind that only 66% of the IE programs are indepartments that grant the Ph.D., and over half of IE faculty members are in departments thathave 14 or fewer faculty
Wayne State University, • History of technology at the University of South Florida, • Business law at Milwaukee School of Engineering, • Team leadership and facilitation at North Carolina ATSU and Milwaukee School of Engineering, • Reliability at Cal State Hayward, • Cognitive engineering at Ohio State University, • Fuzzy logic at SUNY-Binghamton, and • Entrepreneurship at South Dakota School of Mines and Technology.ConclusionsAs a faculty member, I sometimes feel that the field is dominated by large research baseddepartments. I believe we should keep in mind that only 66% of the IE programs are indepartments that grant the Ph.D., and over half of IE faculty members are in departments thathave 14 or fewer faculty
participants were university graphics instructors with a variety of academic andindustrial backgrounds.I. IntroductionMuch research has been done to assess how the human mind operates, how it perceives and Page 10.153.1processes information. These individual learning differences are referred to as “learning styles” “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education”(Butler, 1987). As a result, many learning models have been developed by which an individual’sstyle of learning can be assessed. Educators can begin
disciplines, acquiring the analytical skills and methods of each, theyexperience themselves as investigators and search for truths that cut across the interests andbiases that lie within a single disciplinary perspective.” (1997, p. 140) Collaborative ability, in addition to design skills and technical intelligence, is of growingimportance for today’s engineering graduates. Engineers of the future must not only becomfortable with technology outside of their own discipline, they must also be experienced withcollaborative problem solving tools. A spirit of cooperation, rather than a spirit of competitionwill drive innovation. As Sally Helgesen writes in The Female Advantage, Fearlessness, a thirst for combat, single-minded devotion to an
Original Quarter One Projects Utilizing Rapid Prototyping Bruce A. Feodoroff New England Institute of TechnologyAbstractThis paper describes the success New England Institute of Technology (NEIT) is experiencing ingrabbing hold of the first quarter students’ creative energy and motivating them to succeed inMechanical Engineering Technology. The introduction and use of a rapid prototype machine hassignificantly impacted not only the quality of the resulting original project models or prototypesbut has greatly enhanced the learning experience for quarter one (freshmen) students. This hashelped in sustaining the students’ interest in Mechanical Engineering
open their minds to an alternative future career option. By theirvery nature, elementary students are observant and curious about the world around them andwant to know how everything works and fits together — a perfect match for engineering.Malinda refined her prior experiences with teaching and writing to create curricular units onmotion (mechanical engineering), energy and environmental engineering. Each unit adhered tostate and national science and math standards, and included hands-on student activities. Meetingthe educational content standards, and providing clear curricular documentation was important ifteachers were going to find her engineering lessons useful enough to implement in future classes.Students were immersed in intriguing
starts before expanding outward to methods and theories, and theirapplications in engineering disciplines.PerspectiveLearning does not take place when the student is exposed to new information by reading notesand books or listening to lectures. Rather, learning takes place when the student internalizes thatinformation—when the mind constructs meaning from the information and retains it byassociating it with existing knowledge.Even during the process of learning it is all too common for students to construct inaccurateand/or incomplete meaning from the information presented to them. Therefore, for meaningfullearning to take place, it is important that misconceptions and inaccuracies are identified andremedied while the student is actively engaged
and not assessed separately.This has at least two important implications for engineering educators at ISU. First, we must re-examine how we use the classroom in educating future engineers, broadening our focus toinclude competency development. Second, these results confirm our belief that experientialeducation (internships) is critical to students becoming successful in the engineering workplace.With all this in mind, we identified the workplace competencies most important to ourstakeholders to the practice of engineering at the professional level, how those competencies Page 10.1271.2“Proceedings of the 2005 American Society for