!), feel like they took substantive steps towards becoming an engineer, and arebetter prepared to “hit the books hard” and be successful in follow-on courses.The Civil Engineering CourseThe basic first-year University Experience course provides orientation to the campusenvironment particularly in terms of academic resources such as library and museum archives,technology and computing, advising, learning styles models, et cetera. The civil engineeringcourse is structured around three engineering design experiences that move students along theeducational paradigm of learner, observer, assistant, to practitioner. Course delivery methodfollows a learn-by-doing, just-in-time approach. Approximately 7 lessons of 29 were devoted to
., Computers, theorizing, and practice, in Berdayes, Vincent &Murphy, John W. (eds.), Computers, Human Interaction, and Organizations: Critical Issues, PraegerPublishers, Westport, CT, 2000, pp 1-13.2. Cooper, Alan, The Inmates are Running the Asylum, Sams Publishing, 1999.3. Denning, Peter J., The field of programmers myth, Communications of the ACM, 47, 7, July 2004,15-20.4. Fernandez, John D., Engaging students with community organizations by using computer technology,SIGITE 2004 Conference, October 2004.5. Fernandez, John D., Human computer interaction closes the software engineering gap, Proceedings ofthe 2004 American Society for Engineering Education Conference and Exposition, 2004.6. Hafner, Katie, Wanted by the police: a good user
, while ensuring that mathematics coursesaccommodate the needs of other engineering majors simultaneously.With the technological explosion characteristic of the Information Age, electrical engineeringis becoming increasingly dependent on advanced mathematical concepts. Mathematicsfaculties play a vital role in the education of undergraduate electrical engineering students. Therole can extend beyond course work by exploiting opportunities to collaborate with electricalengineering faculty on practical projects and applied research.This coordination impacts the sequencing of undergraduate mathematics courses taken byelectrical engineering students, the selection of examples and applications in these courses, thecoverage of particular topics, and the
presents lessons learned from this pilot symposium and discusseshow we intend to incorporate these lessons into next year’s symposium.Introduction The Boyer Commission Report has urged universities to “make research-basedlearning the standard” for the education of undergraduates [1]. Also calling for more Page 10.73.1* This work was supported by the National Science Foundation: NSF Project 0341171. Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering Educationresearch by undergraduates in science, technology
., “A Model for the Engineering Laboratory of the Future”, Proceedings of the Fourth WorldConference on Engineering Education, Saint Paul, MN, 1995, pp. 112-116.3. Ratcliffe, M., Parker, G., and King, C., “Meeting the Needs of the Employer: An Innovative Course in SoftwareEngineering”, Proceedings of the Fourth World Conference on Engineering Education, Saint Paul, MN, 1995, pp.39-42.4. Krar, S.F., Gill, A.R., Smid, P., “Technology of Machine Tools”, 6th ed., McGraw Hill, 2005.5. Giesecke, F.E., Mitchell, A., Spencer, H.C., Hill, I.L., Dygdon, J.T., Novak, J.E., “Technical Drawing”, 12th ed.,Prentice Hall, 2000.6. Hawkins, S., Coney, M.B., Bystrom, K.E., “Incidental Writing in the Engineering Classroom,” Journal ofEngineering Education, vol. 85
in the awareness of programoutcomes and their importance in the curriculum. Many students see them as overly generalizedstatements that have no bearing on the concepts they need to pass a given course. Thus,dissemination of the notion and value of program outcomes is a major hurdle for the faculty.This paper suggests that engaging students at the freshman level in the departmental programoutcomes is one strategy to foster a climate of their acceptance in later courses. Examples offreshman class assignments and projects that address specific program outcomes in a MechanicalEngineering department are presented.IntroductionIn the mid-1990’s, the Accreditation Board for Engineering and Technology (ABET) developeda new set of criteria for
Page 10.437.1 Proceedings of the 2005 American Society of Engineering Education Annual Conference & Exposition Copyright C 2005, American Society of Engineering EducationES 107, Introduction to Engineering, is a three semester-hour course. It provides an introductionto engineering through a realistic and hands-on problem-solving experience. It focuses onengineering design process--the application of math, science, and technology to create devicesand systems that meet human needs. It provides an introduction to group work, to oral andwritten communications and to engineering ethics. The course is required for all freshman-engineering students, and a large number of non-engineering majors at the University of
educational mandate in the University of Iowa College of Engineering (UICoE) as expressed by the Accreditation Board for Engineering and Technology (ABET): “Eachgraduate will have an education that is supportive of a broad awareness of the diversity of theworld and its cultures, and that provides an understanding of the impact of engineering practicein the global/societal context.”9 This paper provides an overview of the lectures, materials andactivities that comprise the Emergency/Homeless Shelter Design Project that we give our Page 10.555.2students as a capstone design project in our EPSI project sections. Proceedings of the 2005 American
, in which a total of 5 engineersworked on the entire analog portion and only a single engineer designed the ADC.This trend has increased the importance of teamwork and communication skills for newengineering graduates, and has received attention from bodies such as the Accreditation Boardfor Engineering and Technology (ABET)1. Employers value prospective employees withteamwork experience2. Page 10.159.1 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering EducationThe authors believe that integrating these skills
engineering students have passed the fundamentals ofengineering examination. This is significantly higher than the national average of roughly 60-70%. The data indicate, therefore, that engineering students, who are motivated to enroll in andcomplete a review course, are well prepared to satisfy the requirements of the FE Examination.This is also true for the other engineering disciplinesVII. Engineering AccreditationThere are various criteria that must be satisfied for an engineering program to be accredited bythe Accreditation Board for Engineering and Technology (ABET). These are tabulated in thepublication, “Criteria for Accrediting Engineering Programs”1. One requirement that must besatisfied is that each program should have an assessment
estimates theeffects of climate and integration measures on career commitment. Both regression analyses findthat certain aspects of climate and integration are significantly associated with graduate studentadvancement and retention.I. IntroductionGraduate enrollments in science, technology, engineering and mathematics (STEM) reached arecord high of 455,400 students in the fall of 2002. According to the National ScienceFoundation, the number of women graduate students in STEM has increased every year for thelast twenty years and more than 40% of STEM graduate students are women [5]. As science andengineering graduate programs become more diverse, it is imperative that we know more aboutgender differences in perceptions about the climate for graduate
strategies, and connect with the many resources that areavailable on campus to help ensure success.BackgroundThe high school level Introduction to Engineering course was developed based on the interestand ideas that emerged from a workshop conducted at UMBC in July 2001. The objective of theworkshop was to better equip high school teachers and counselors to identify, guide, and prepareprospective students at each of their schools for a career in engineering. The three-day workshopwas developed and presented by the author and was modeled after work done by RaymondLandis1, former Dean of Engineering and Technology at California State University, LosAngeles. Invitations to the workshop with a brochure and application form were sent to areahigh schools
Empty-Handed Demonstr ations for Engineer s: Think Inside the Box Maurice F. Aburdene*, Beverly JaegerŒ, Susan FreemanŒ *Bucknell University, ŒNortheastern UniversityAbstractRecently there has been much emphasis on the inclusion of technology to improve student learning inengineering and this has proven to be very effective in a variety of engineering courses. The objective ofthis paper is to supplement technology-based education by teaching fundamental concepts using "empty-handed" demonstrations. This instructive technique is defined as one that is accomplished by usingwhatever is typically available in or near traditional classrooms and by simulating concepts with studentsand/or
undergraduatedegree, whether they plan to continue their studies in graduate school or enter the workforce.Feedback from industrial advisors and the Accreditation Board for Engineering and Technology(ABET) continues to emphasize communication skills as a primary attribute sought during thehiring process. Due to the nature of the flexible, multidisciplinary undergraduate curriculum, Page 10.766.2communication skills are particularly important to individuals graduating from Penn State’sEngineering Science honors program so they can convey, to those unfamiliar with the Proceedings of the 2005 American Society for Engineering Education Annual Conference
Students Are Leaving Engineering Curriculums; Can Our Educational Approach Stop This? Tonya Emerson, Michael Ward College of Engineering, Computer Science, and Construction Management California State University, ChicoAbstractRetention rates in Science, Technology, Engineering, and Math (STEM) majors have been aserious concern nationwide for many years. The Consortium for Student Retention DataExchange’s 2002-2003 STEM Retention Report provides sobering data on our national retentionrates. The report shows that retention rates at Carnegie-Masters type institutions for incomingfirst-year students in STEM majors that continue and
involvement in the trainingand assigning of visitors to engineering and engineering technology programs that do not havetraditional lead society sponsors. This paper describes the on-going developments as well as theopportunities these evolving new relationships may offer to ASEE members to provide valuableprofessional service to engineering and engineering technology education as program evaluators.ASEE & ABET Interactions and InvolvementASEE was almost 40 years old when it and six other professional societies established ABET’spredecessor, the Engineers Council for Professional Development (ECPD) in 1932 [1]. ASEEhas actively interacted with ABET ever since. ABET and ASEE are vitally interested in thequality of educational programs in
behind the scene of the problem to ensure the success of theproject. Jamerson students are helping to shape their own learning paths by becoming problemsolvers of and for the future.BibliographyBurghardt, M. David (1999a). Introduction to Engineering Design and Problem Solving. New York: Mc-GrawHill.Burghardt, M. David (1999b). Assessing Elementary School Design Portfolios, The Technology Teacher, 59 (2).Koch, Janice (1999). Science Stories. Boston: Houghton Mifflin Co.Florida Sunshine State Standards for Mathematics and Science (2004). State EducationDepartment, Tallahassee, FL.AuthorsROBERT POTH is the Principal of Douglas L. Jamerson, Jr. Elementary School. He earned his B.A. in ElementaryEducation and a M.Ed in Educational Leadership from
response by strain gauge technology 5 Measure structural deflections 6 Compare analytical and theoretical results 7 Communicate test results through reports or presentation Page 10.778.3Table 2. Learning outcomes for ME 331. Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering Education For the past three years, the ME 331 lab experiences have included; Tensile testing,Rockwell Hardness; Microhardness, Impact testing, Torsion testing, Flexure testing, Heattreatment (HT
Engineering Education Annual Conference and Exposition Copyright © 2005, American Society for Engineering Education o Center for the Advancement of Engineering Education (CASEE) Annals of Research on Engineering Education (AREE) o Departments of Engineering Education Purdue – Department of Engineering Education Virginia Polytechnic University – Department of Engineering Education Utah State University – Department of Engineering and Technology EducationThe RREE workshops are positioned to assist in building engineering education researchcapacity in the engineering faculty community. More rigorous engineering education research isbeing called for
for Engineering Education Annual Conference & ExpositionCopyright © 2005, American Society for Engineering EducationWe thank those students who are participating in this study, in particular the two womendiscussed in this paper, and the Learning, Technology and Interaction Group led by ReedStevens at the University of Washington for helpful comments on and discussion of anearlier draft of this paper.References[1] Stevens, R. & Hall, R. “Disciplined perception: Learning to see in technoscience,” Talking mathematics in school: Studies of teaching and learning, (107-149). M. Lampert & M. L. Blunk, (Eds.), Cambridge University Press: Cambridge, 1998.[2] Lave, J. and Wenger, E. Situated learning: Legitimate peripheral
discussed which improves student understanding of theconcepts in applied engineering mechanics. As part of the course, a steel truss bridge project isintegrated into the curriculum.I. IntroductionEngineers are technical problem solvers. From a historical prospective of the mid 20th centuryand after, engineers have been trained to be number “crunchers” due to significant changes inengineering education and technology as a result of the post World War II era1-4. From highschool math and science courses through college engineering courses, engineers have been“molded” to crunch numbers. Here is a problem with all the associated numerical information.Now, solve for the solution.The practice of number crunching has not only been ingrained in our
-track faculty hired for the fall 2004, 11 (23.4%)are women.COURSE Preparation of two written papers and two oral presentations on mechanicalDESCRIPTION: engineering topics; generation of a professional résumé; development of a life- long learning plan; presentations by different faculty and industry representatives on: effective communications, preparation for engineering practice, becoming a professional engineer, contemporary issues, engineering ethics, career-long technical competence, the impact of technology on society, and being well-read and well-informed. One Credit (1-1). Prerequisite: Upper level ME
PVC.SummaryEveryday real life situations present potential for case studies. The physical situation and effectsare generally reported in the media. These reports are written for lay public and are easy tocomprehend. These situations can be expanded to probe further into the causes and remedies ofthe problems, while utilizing the concepts and fundamentals of science and engineering. It is aninteresting teaching tool and students can relate to the practical aspects of engineering ineveryday life.References1. Castaneda, Ruben, The Washington Post, Page B2, Tuesday, Feb 20, 2001.2. HI Point Industries - Oclansorb http://www.oclansorb.com/oclan.htm3. ABTEK – Technologies and Services http://www.bbriefings.com/pdf/30/exp032_t_absorb.pdf4. EC-2100P http
References Bailey, R. W., Human Performance Engineering, Prentice-Hall, 1996 Certiport, “IC3", Certiport Plaza, American Fork, UT Gupta, U., Information Systems, Prentice-Hall, 2001 Leedy, P.D., & Ormond, J. E., Practical Research, Planning and Design, Prentice - Hall, 8th ed.Snyder, L., Fluency with Information Technology, Skills, Concepts, & Capabilities,Addison-Wesley TestOut Inc., Pleasant Grove, UT Page 10.342.15 13 AppendixCategory Tabulated Forms Page 10.342.16 14 QUESTION BANK BY CATEGORY CONTENT Computer and Management of
An Experiential and Inductively Structured Process Control Course in Chemical Engineering David L. Silverstein University of KentuckyAbstractAn inductive approach to teaching chemical engineering courses has been demonstratedto improve student learning in courses such as mass transfer and stoichiometry. Onecourse particularly well-suited to elements of inductive structure is chemical processcontrol, where experiential learning can also be applied to maximize student learning.This paper discusses the first two implementations of an inductive course structure in thisthree-hour senior-level course at the University of Kentucky Extended Campus Programsin
accreditation criteria as an instrument for fostering implementationof the BOK; it summarizes the development process leading to new draft BOK-compliantaccreditation criteria; and, finally, it provides a detailed description and analysis of theproducts—proposed Basic Level Civil Engineering Program Criteria, Advanced Level GeneralCriteria, and the associated draft ASCE Commentary.The ultimate purpose of this paper is to share the new draft criteria with a broader audience andto solicit feedback that will further improve the quality, relevance, and effectiveness of theseproducts.Background: Policy 465 and the Body of KnowledgeRapid technological advancement, globalization, and ever-increasing political, social,environmental, and economic constraints are
topics covered, adescription of the resource materials developed for use by the workshop participants in theirrespective classrooms, and follow-up school visits by ISU College of Engineering student-faculty teams. We conclude the paper with our thoughts on future extensions and improvementsin this program.Motivation for the project:It has been nationally recognized, and well documented, that the United States is facing alooming shortage of citizen engineers and scientists in the coming decades.1 Since the SecondWorld War, the US has relied on “technological innovation” in preserving our preeminent standin the world economy, and in ensuring our own security. The basis for this technologicalsuperiority has been our ability to train and retain
Session 1602 Identifying Specific, Measurable “Skills” Perceived as Requisite for Graduating Aerospace Engineers Kimble-Thom, M.A., Thom, J.M., Crossley, W.A. Purdue UniversityIntroductionIn the last 15 years engineering educators and industry practitioners have attempted to identifywhat skills a graduating engineer needs to acquire during his/her undergraduate education inorder to be successful at design activities. The efforts to identify these design skills are hamperedby both the lack of precision in the terms used to describe design skills and by the
many information technology executives who completed the survey indicated that theyroutinely overestimate by 150%, extending the project duration by a factor of 2.5, whenplanning project timelines and making commitments. By contrast, TSP teams generally reportsetting the most aggressive schedules that they believe can actually be met. Page 10.1124.8 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering EducationIn assessing the quality of products produced by TSP teams, it may be useful to
. Theengineering based labs were designed to enhance and stimulate middle school students’interest in science, technology, engineering, and mathematics (STEM) concepts. Lessonsare focused on increasing students’ awareness of engineering in daily tasks. Careeropportunities relating to the engineering lesson were presented. The importance ofeffective teamwork, critical thinking, problem solving, and sound technicalcommunication are emphasized. These engineering labs are available for future use bythe partner teacher and the GK-12 program.IntroductionThe National Science Foundation Graduate Teaching Fellows in K-12 EducationVanderbilt-Meharry-Tennessee State Program is now in its fifth full year1. The majorfocus of this program is to partner graduate