, thevelocity is zero everywhere, and for t ≥ 0, Vx at y=0 is 2 ft/s, and the fluid is water ( = 10-5ft2/s). Choose time interval of 2 sec and distance step (delta y) as 0.05 ft for the calculations. Vx Vx 2 2 t y Use discretized algebraic equivalent of the above equation and by creating a x-y grid calculatevelocity at nodes (1,1), (2,2) and (3,1). Predict laminar velocity profiles for a flow of twoadjacent fluids inside a tube.The above example problem is a typical textbook problem, however, before it was administered,author identified different concepts and concept levels (basic, moderate and advanced) anddeveloped three concept group exercises and administered them sequentially.Concept
So in a sense the question here is: Do students who exhibit specific difficulties in de-scribing rigid body motion at the beginning of Statics exhibit specific difficulties in assessingequilibrium at the beginning or end of Statics? If so, might identifying these students at the startof Statics allow the instructor(s) to more effectively address these students’ expected challengesand give those students a better chance of exiting Statics with a consistent and correct approachto assessing equilibrium? This work attempts to answer the first of these two questions.MethodologyTo test the notion that understanding a dynamic rigid body gives a better foundation for under-standing a static rigid body, students complete a pair of simple questions
Session 2457 Department-Level Reform of Undergraduate Industrial Engineering Education: A New Paradigm for Engineering Curriculum Renewal M. S. Leonard, A. K. Gramopadhye, D. L. Kimbler, M. E. Kurz, R. J. Jacob, C. E. McLendon, and S. Regunath Clemson UniversityAbstractThe Roy Report serves as the basis for today's typical industrial engineering curriculum. Thatreport documents a 1966-1967 study led by Robert Roy, Dean of Engineering Science at JohnsHopkins University, supported by NSF and sponsored by ASEE. Unfortunately, few majorchanges have been made to the core
Session 1566 Teaching Modern Data Acquisition Systems with a Departmental Requirement for Student Laptop Ownership Stephen T. McClain Bruce CainThe University of Alabama at Birmingham Mississippi State University Department of Mechanical Engineering Department of Mechanical Engineering BEC 358B, 1530 3rd Ave S P.O. Box ME Birmingham, AL 35294-4461 Mississippi State, MS 39762 smcclain@uab.edu cain
. This frequently isdone implicitly and only the result is noted, 5 in this instance. However, explicitly showing thesubtraction operation helps prevent careless errors and makes it much easier to follow logic, soTutor requires users to do this explicitly, referring to the last parameter as s-r. Figure 3 displays the Data window after entering equation (1), but before pressing theCompute button. The columns of the Main window show from left to right that the user: Place @ t = : places at time 0 Calc(ulation): an equivalent Amo / Cols: formed by multiplying the amount of flow B5 Page 8.446.2 Proceedings of the 2003 American Society
Session 2149 Planning and Execution: The Key to Developing a TC2K Quality Program David S. Cottrell Pennsylvania State University at HarrisburgIntroduction This paper describes an ongoing process: the integration of the new ABETaccreditation criteria for engineering technology (TC2K) into the School of Science,Engineering, and Technology at the Pennsylvania State University at Harrisburg.Currently three technology programs – Electrical Engineering, Mechanical Engineering,and Structural Design and Construction Engineering – are implementing outcomes
. 1 I dot 12 1/.1 Id s I Constant Voltage 1/L Integrator 100 I R Figure 3. SIMULINK model of 1st order system. Page 8.517.4“Proceedings of the 2003 American Society for Engineering Education Annual Conference &
Identified During Idea GenerationStrategy Description I. Reduce usage To reduce the usage of any energy-consuming device(s). This could be using the devices less often, turning them to a lower power setting, offering fewer devices, or reducing the amount a device needs to be used without changing its efficiency. Solutions ranged from turning off half of the lights to using personal fans instead of AC. II. Increase To replace current energy-consuming devices with those that will be similarly effective but efficiency use less energy. Common examples include replacing incandescent light bulbs with energy- efficient bulbs such as CFL or LED
, South Africa, May, 2007):2344-2357. 2. Watson, G., Gallagher, K. (2005). “Managing for Results”. 2nd ed. London: Chartered Institute of Personnel and Development. 3. Schaffner, S., R. (2010). “An Examination of Communication Skills in Construction: Their Significance to Leadership”. Master of Science Thesis, Purdue University, West Lafayette, IN 4. Hoezen, M., Reymen, I., Dewulf, G. (2006). “The Problem of Communication in Construction.” (paper presented at the CIB W96 Adaptables Conference, Eindhoven, Netherlands, July 3-5, 2006). 5. Dainty, A., Moore, D., and Murray, M. (2006). Communication in Construction; Theory and Practice. London & New York: Taylor and Francis, 2006. 6. Eilenberg, I. (2002
environment class 454 3.4978 1.22834[Integration] Interdisciplinary project and/or class including 454 3.4427 1.18677the concept of sustainability[Prior Experience] Experience and practice related to 454 3.6784 1.31978sustainable construction[Facility or Campaign] Sustainable facility or campaign in the 454 3.3612 1.20774university or college[Faculty] Professor(s) teaching sustainable construction 454 3.4361 1.21765The correlation coefficients between student’s attitude
must build and demonstrate an SDR that addresses the problem(s) defined by the WirelessInnovation Forum and supporting the target waveform(s). The SDR domains provides a methodto tie together many of the subjects in a typical electrical engineering and computer science andengineering undergraduate’s curriculum. Although student teams may choose to use whateverdevelopment environment they wish, we have had success with the GNU Radio developmentenvironment as well as the MATLAB Simulink environment. Simulink allows a model-baseddesign approach, which allows students to take a systems approach to designing the overall SDRtransceiver, which provides them with exposure to this important aspect of project development.In this paper, we discuss the
. In the aggregate, the results did indicate a potential level of interestadequate to financially support a test should one be available. Survey questions and acompilation of the results are documented in the reference, which can be viewed on theAssociation‟s page of the ETD website.(ii)The key results, however, had to do with the costs which respondents were willing to pay foraccess to testing. Respondents were asked to identify a price level at which they would bewilling/able to take advantage of testing, and to estimate how many students they would test eachyear at that price level. Those results provided a basis for estimating a price point that wouldmaximize revenue from an ongoing testing program. When these results were reviewed with
Session 1332 UMIPS: A Semiconductor IP Repository for IC Design Research and Education Michael S. McCorquodale and Richard B. Brown Department of Electrical Engineering and Computer Science Center for Wireless Integrated Microsystems University of Michigan Ann Arbor, Michigan 48109-2122AbstractSemiconductor intellectual property (IP) and design reuse have recently become cornerstones ofcommercial integrated circuit (IC) development because they enable significant gains in
and construction industry. Page 24.272.1 c American Society for Engineering Education, 2014 Changing the Course Design to Include Habitat for Humanity Improved Course Outcomes and Broadened Student’s Perceptions of Community ServiceIntroductionArchitectural education often includes course(s) pertaining to the creation of architecturalworking drawings. Working drawings require the individual creating them to have knowledge ofprinciples, conventions, standards, applications, and restrictions pertaining the manufacture anduse of construction materials, components
: Studio STEM Thanks to our Sponsors! This material is based upon workResearch-based supported by the National Science Foundation (NSF) under Grants DRL 1029756 and 1247287. Any opinions, findings, conclusions or Research about student science recommendations expressed in this learning, motivation to learn material are those of the author(s) STEM concepts, engineering design
undergraduate students. Current graduate students: • Yanshu Li, from F’2012, GRA, Ph.D. Student, SUNY at Buffalo, Buf- falo, NY. • Tim Yore, from S’2011, GRA, Ph.D. Student, SUNY at Buffalo, Buffalo, NY. • Guillaume Thomain, S’2011, GTA, Ph.D. Student, SUNY at Buffalo, Buffalo, NY Total number of graduate students advised = 22. Total number of postdoctoral scholars sponsored = 11.Prof. Athos Chariton Petrou, SUBY at Buffalo Athos Petrou is a professor of Physics at SUNY Buffalo. His studies the magneto-optical properties of semiconductor nanostructures Page 24.659.1 c American Society for
Class Size Figure 2 The smaller the class size, the higher the engagement level Engagement Score Vs. College 55 50 Engagement Score 45 40 35 30 25 0 1 2 3 4 5 6 7 8 Colle ge s
ObjectivesRensselaer’s vision is for students to have: immediate access to course materials, educationalresources, and interactive learning modules; ubiquitous Internet connectivity; and the ability tocommunicate and collaborate with anyone, from anyplace, at anytime. Rensselaer is PrincetonReview’s “America’s Most Connected Campus”, with many of our buildings also equipped withwireless LANs; which are typically used for file server access and communication (e.g. email,IM, etc.). We have begun to investigate how we can integrate un-tethered connectivity andmobile technology in the classroom for courses and the overall education process.Our goal is to expand the engineering studio pedagogy pioneered by Rensselaer by in the early90’s to have students learn with
schools thatwill meet these needs. The high school students, through the clubs, will become involved in moredemanding, engineering related activities as well as participate in advanced competitions, such asthe Junior Engineering Technical Society’s (JETS) TEAM+S Competitions (TEAM+S is theTests of Engineering Aptitude, Mathematics and Science).Mentoring & TutoringAs high school students get involved in the advanced activities, they (and their teachers) willrequire more help. The community college faculty have made the commitment to assist thesestudents and teachers (Figure 1). Figure 1: Community College Faculty working with High School Club MembersFigure 1 shows one of the faculty members working with club members at one of
Education Annual Conference and Exposition Copyright © 2004, American Society for Engineering EducationSTEPS Program has been a big draw in attracting corporate and further grant support to continuethe programs. The mechatronics content has helped to enhance corporate interest because of itsrelevance to the auto industry in Detroit. The modules that have been developed can be adaptedin various configurations to allow faculty to take the show on the road and offer anything from atwo-hour hands-on introduction to mechatronics up to a six or more week series of activities.References[1] “Mechatronics: A Comprehensive, Interdisciplinary Curriculum Development Initiative”, National ScienceFoundation Grant No. DUE-9950862.[2] S. A
learning initiative.” SIT News & Releases, 2001. [http://www.sit.edu/news/2001/impact_study_abroad.html]4. Vande Berg, Michael. “The Assessment of Learning Outcomes in Study Abroad.” Opendoors on the Web.[http://www.opendorsweb.org/Lead%20Stories/Assessment.htm]5. Rubin, Donald and Sutton, Richard. “Assessing Student Learning Outcomes from Study Abroad.” Opendoors on theWeb. [http://www.opendorsweb.org/Lead%20Stories/Assessment.htm]6. Spodek, S. R., Gerhard, L., and Mook, D. J. “Study Abroad: Impact on Engineering Careers,” Proceedings, 2003ASEE Annual Conference & Exposition, Paper No. 2003 3260, 7 pp.7. Rhodes, Gary. “Making the Case for Study Abroad, Without Research Confirming Study-Abroad Outcomes.” IIENetworker: The Magazine of the
waste.BibliographyAngelo, T. & Cross, K. P., (1993). Classroom assessment techniques: A handbook for college teachers. San Francisco: Jossey-Bass.Bee, H. L., (1996). The journey of adulthood, (3rd. edition). Upper Saddle River, NJ: Prentice-Hall.Bennett, R. J., (2003). The talent gap. (paper in preparation)Boyer, E. L., (1990). Scholarship reconsidered: Priorities of the professoriate. The Carnegie Foundation for the Advancement of Teaching. Princeton, NJ: Princeton Univerisity Press.Brookfield, S., (1990). The skillful teacher. San Francisco: Jossey-Bass.Brookfield, S., (1995). Becoming a critically reflective teacher. San Francisco: Jossey-Bass.Brookfield, S, & Preskill, S., (1999). Discussion as a way of teaching: Tools and
process to design and test an orange juice concentration unit. Students are challenged to provide good-tasting orange juice to Boston Schools for $0.15 a glass. - BU’s project involves genetic coding and decoding. The connection between the codes of the DNA building blocks in genes and physical traits are stressed. Students do hands-on gene manipulation to make bacteria fluoresce and create physical models of DNA/RNA to code and decode genetic traits. - Tufts’ project introduces the concept of number systems and the language of computers (binary). Once students are familiar with patterns of 1’s and 0’s, decoder boxes are distributed and students map binary patterns to letters of the alphabet. Students
Retention,” Journal of Engineering Education, January 1998, pp. 79-85.8. Johnson, K. V. and M. Rajai, “’Student in the University’: A Format for Retaining Students in Engineering Technology,” Proceedings, 2000 ASEE Annual Conference (Washington, DC: American Society for Engineering Education, 2000).9. Lau, A. S. and R. N. Pangborn, “Engaging Engineering Students in Learning – A College-wide First Year Seminar Program,” Proceedings, 2001 ASEE Annual Conference (Washington, DC: American Society for Engineering Education, 2001).10. Lau, A. S., et al., “Student Assessments of Engineering First-year Seminars,” Proceedings, 2001 ASEE Annual Conference (Washington, DC: American Society for Engineering Education
X X X X CLO5 X X X X X X X X X X X CLO6 X X XIn connection with and elaboration on EC2000’s outcomes, the project-based, design- integratedteaching approach fortifies the following five key ABET issues: (1) Students must have the ability to function in multidisciplinary teams. Development of the project-based Thermodynamics course will enhance students’ learning in interdisciplinary (multi- functional) team environment
future.References1. ABET, Accreditation Policies and Procedures, Accreditation Board for Engineering and Technology, Inc., http://www.abet.org/criteria.html, Retrieved from the World Wide Web December 16, 2002.2. Barnett, S. (2002). "Industrial Experience and Engineering Freshman: A Pilot Program," American Society for Page 8.1181.8 Engineering Education Annual Conference Proceedings. Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Education3. Barnett, S. and J. Burtner, (2001, October 19
. Page 8.748.2 Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Education Freshman HRS SEM HRS SEMENG 1302 Composition II 3 ALL ENGR 1400 PC Applications in Engineering 4 F,SENGR 1401 Engineering Graphics 4 F,S PHYS 1307 General Physics I 3 ALLHIST 1305 US History to 1877 3 ALL PHYS 1107 General Physics Lab I 1 ALLPSY 1303 General Psychology
the z-axis and translation along the z-axis. Since the revolute joint hasonly one degree of freedom a second mating reference was needed to complete the matingprocess. The second mating reference was the point origin of the fixed body must be coincidentwith the point origin of the moving body. The two mating references together constrained therevolute assembly to exhibit only the rotation about the z-axis of the assembly. A similarprocess of mating was carried out for each of the remaining 23 assembly models.The coordinate system for each body was added to the assembly drawing to help withvisualization of translation(s) and/or rotation(s). The global axes were fixed in space and thesecorrespond to the fixed rigid body. The local coordinate
development. This paper describes a framework that has been used to designexperiential learning programs for developing teamwork and leadership skills in undergraduateindustrial engineering students. The framework combines elements of traditional experientiallearning activities, ropes courses, and the U. S. Army’s Leadership Reaction Course in a series ofteam exercises designed to address specific teamwork and leadership issues. Isomorphic framingis used to present each exercise in a scenario that relates directly to the engineering classroom orworkplace, and debriefing sessions are structured to reinforce the transfer of knowledge betweenthe exercise and the classroom or workplace. The framework is flexible and can be easilyadapted to a variety of
assemblies such as an arbor press anda rack mounted stereo system; an independent study team project to develop a Battlebot™ robot;experimental mechanics team projects to develop indestructible football goal posts and to rapidlydesign, analyze, and visualize stresses in a combined stress experiment; industrial internshipprojects; a project involving metalcasting design optimization involving metal stream shrouding inpouring large high-alloy steel castings. Two additional courses have had students utilize solidmodeling as a result of this effort and these efforts are summarized.Introduction:The process of CAD integration was begun at the freshman level with a second semester courseentitled MET 102, Production design & Specifications (PD&S