Education”23%.2 But by 1960 this number was up to 38-49%3 and as high as 50-59% by the mid-60s.4 In the early1990’s the percentage of students who self-reported cheating reached67%5 and is expected to go even higher in coming decades. Unfortunately, the trends aresimilar for engineering students and the numbers are even higher than the college-wideaverages. Between 1964 and 1992 the number of engineering students who self-reportedcheating in college increased from 58% to 74%.6,7 In terms of the extent to whichstudents admit to cheating, engineering students are second only to business students, asshown in Table 1.Table 1: 1992 Levels of Cheating Among Students of Various Disciplines in College6 Discipline Percent who self
and the unique factors that affect the students in choosing a major at theNaval Academy. The authors conclude that effective recruitment methods should provide positiverole models for prospective female engineers, but that these recruitment efforts should avoidobvious reference to gender.1 INTRODUCTIONIn the recent Land of Plenty report of the Congressional Commission on the Advancement ofWomen and Minorities in Science, Engineering and Technology Development [1], the commissionconcluded that America needs to cultivate more diversity among students and professionals inscience, engineering, and technology to maintain a competitive edge in these fields. At thecollegiate level, there are a number of female students who possess the ability to
Page 6.762.1initiated. The fundamental purpose of this project was to illustrate the essentials of mechatronics Proceedings of the 2001 American Society for Engineering Education Annual Conference and Exposition Copyright © 2001, American Society for Engineering Educationto an earlier academic level in the curriculum, more precisely to a sophomore level. The methodof introduction was to create an optional part of a sophomore-level course in which the studentswould have exposure to various aspects of mechatronics. Custom program elements weredesigned and fabricated including the VT Project Box (Fig. 1), the PIC Visual Development(PVD) Software (Fig. 2), and various sensors and actuators. These assets were used in two
tracks: DSP system theory,real-time implementation principles, and laboratory exercises. The theory and real-time principlesare presented in short lecture modules like the one shown below, while the laboratory exercises areperformed using a DSP development board attached to the student’s local computer. The use of aphysical development board allows more realistic laboratory exercises to be performed than woulda network-based simulation tool. Student interaction, instructor feedback, and course organizationare provided through the web interface. The student interaction and hands-on aspects of the coursemore closely approximate a university experience rather than a typical asynchronous web-basedtraining course.1. IntroductionThe rapid advancement
vectorgraphics are used to simulate the dynamic whiteboard environment. In addition, there is aseparate window for high-resolution graphics and video, and another window for real-timeaccess to an interactive discussion forum. For the laboratory portion of the course, streamingvideo of actual demonstrations of laboratory procedures is used. In addition, for each type oftest, a “rock breaking simulator” has been developed that allows students to collect their ownunique data set, with subsequent data analysis and report writing.The online geomechanics course will debut in 2001 and will be part of the Arizona Tri-University Master of Engineering program (University of Arizona, Arizona State University,Northern Arizona University)1. This tri-University
. This is followed by presentation of the hardwareand software scheme adopted to implement on-line inspection procedures for surface roughnessand geometrical data measurement of the machined part. The surface finish data is obtainedusing a newly designed laser based technique; where as geometrical data is obtained using aspecially designed optical digitizer. These measurement techniques will be implemented in theform of embedded systems. The paper concludes by giving examples of how these instrumentsare adopted for an on-line monitoring process in an aerospace industry.1 Embedded MicrocontrollersAn embedded microcontroller is a small but complete computer system implemented on a singlesilicon chip. It often includes memory, Input/Output
Session 2793 ONLINE MODELING IN TEACHING GEOMECHANICS VIA THE WEB SITE Jiang Li and Matthew Y. Lee Morgan State University/Amherst CollegeAbstractIn the present paper, the design of online modeling in soil mechanics with multimediatool on the Internet has been discussed. The online modeling in geomechanics servers asa virtual laboratory that can be used for both teaching and research at the Department ofCivil Engineering, School of Engineering, Morgan State University. In this paper, thefollows are emphasized: 1) design of main and sub web pages, 2) design of the online runtime ActiveX coded
Engineering Kinetics Class. In addition Iwill explain the key goals and how well they were met. I found that the key to the success of thiseffort was providing the students with a long list of possible example projects and their pointvalue. The resulting projects are sometimes just the necessary work to fulfill a requirement butmany times they show great creativity and insight.I. IntroductionI began using open beginning projects in our senior course in equilibrium and kinetics for severalreasons. My goals were: (1) to encourage students curiosity, (2) to recognize the diversity of ourstudents desires and interests, (3) to encourage, particularly our top students, to address morechallenging problems, (4) to allow these seniors to order their own work
to take the clinicclasses irrespective of their own engineering discipline. The students receive two creditsper semester for the Junior/Senior clinic. Table 1: Overview of Engineering Clinic Content Year Engineering clinic theme (Fall) Engineering clinic theme (Spring) Freshman Engineering Measurements Competitive Assessment Laboratory Sophomore Discipline Specific Design Interdisciplinary Design Modules Junior Multidisciplinary Research and Design Multidisciplinary Research and Design Senior Multidisciplinary Research and Design Multidisciplinary Research and Design
for seismic studies. These included the following projects:1. Project 1: development of high strength microconcrete for small-scale models. This project was concerned with the manufacture of model concrete to construct 1:12 scale models.2. Project 2: behavior of steel connections for low-rise building frames under seismic loads. This project investigated the use of 1:2 scale models to investigate a novel technique to enhance the energy dissipating capability of semi-rigid connections used in low rise buildings.3. Project 3: testing and evaluation of modern aseismic systems utilizing small-scale models. This project investigated the performance of various types of damping and base isolation devices for buildings using 1:24 scale
the design process.Students are tested on all six elements in the taxonomy of the design process. The frequenthomework and small quizzes test the students’ knowledge, comprehension of the subjectmaterial as well as the ability to apply these aspects to solve engineering problems. The designprojects then test the students’ ability to analyze design problems, synthesize solutions andevaluate and therefore optimize the design.IV. Design of a Thermal RecuperatorFollowing several lectures dedicated to heat exchanger applications, the final design project isassigned to the student teams. Figure 1 is the specification sheet describing the design goals andavailable material, including material and other costs
so. We have used Geometric Programming in this paper based on our experience of this technique in design and manufacturing problems. Other attribute of this technique is its ability to predict the proportions of various cost terms even before the design is attempted. However, we want to test the applicability of other similar nonlinear programming techniques to the optimal design problems based on life cycle costs and compare accuracy and other pertinent evaluation parameters later. LCC is divided in to two main categories, 1) acquisition cost and 2) support cost. The acquisition costs are the costs associated with the design and build of the product. All of the cost required for research and
reference to Graves Pyramid for ChebyshevPolynomials.1. IntroductionIn microwave and optical waveguides, phase velocities are infinite at the cutoff frequency andare always greater than the velocity of light in the dielectric in the guide, where group velocity iszero at cutoff and is always less than the velocity of light in the dielectric in the guide. As thefrequency increases far beyond cutoff, phase and group velocities both approach the velocity oflight in the dielectric in metallic and dielectric guides. These phase velocities are described asfast waves. In traveling wave tubes, slow wave structures create phase velocities with velocitiesalong the axis of the structure much less than the velocity of light. In slow wave structures suchas
considering the social impacts of the designs. Figure 1 – A team of students at their presentation stand, with their robotStudents interested by the contest register in teams of three to ten people. Teams can be made ofall ECE students or also of students from other disciplines. The contest is held in an exhibitionhall where each team has a presentation stand to explain their design and market their product byputting up posters, preparing a presentation, showing videos, demos, decorations, etc. Teamshave the morning to set up their stand, and the presentations opened to the public are done fromnoon to 5 pm. Evaluation by the members of the jury starts around 1pm, first by visiting the
; Exposition Copyright 2001, American Society for Engineering Education Page 6.771.3specifications, feasibility considerations, alternative solutions, concurrent design, and preparationof detailed drawings.The prerequisites by topic are: Basic knowledge of structural, geotechnical, transportation,environmental, and hydraulic engineering; basic elements of cost estimation, scheduling, andengineering economy.The topics (2 hour classes) for the “lecture” portion are varied depending on the instructors, butgenerally have included guest speakers on topics including: 1. Personality Types and Diversity in Project Teams
center was set up in Washington, DC25 years ago and since then we have expanded the program throughout the world. Now, nearly2/3 of our students travel internationally to conduct these projects. We send more engineeringstudents abroad than any other US university, and we are second in the nation for doctoraluniversities for the percent of our total student body that studies abroad.1 The details of ourprogram structure and operation are presented elsewhere.2,3 Space constraints prevent detaileddescription of the program and typical student projects. However, shown below is one exampleof a project completed at our Bangkok center. WPI has developed an administrative division, theInterdisciplinary and Global Studies Division (IGSD) to run this large
listed above, we have two additional outcomes (F andG) for the overall program.F. The program should increase and enhance the involvement of women and underrepresented minorities in the networking and general information technology areas.G. The program should provide educational benefits to undergraduate and masters students in the participating academic departments.IV. StrategiesThe following six strategies will be applied to provide the education and training needed toproduce the five outcomes (A through E) in our Ph.D. students and to achieve the two additionaldesired program outcomes (F and G). Implementation approaches for each are discussed.1. We are developing a research program that addresses key problems in advanced networking
that is raised in a lawsuit of copyrightinfringement when the unauthorized use is made for purposes of teaching, research andscholarship. To qualify for this defense four statutory criteria must be evaluated because there isno brite line legal test giving a clear and definitive yes or no answer. The four factors indetermining whether the use made of a work in any particular case is a fair use the factors to beconsidered shall include- “(1) the purpose and character of the use, including whether such use is of a commercial nature or is for nonprofit educational purposes; (2) the nature of the copyrighted work; (3) the amount and substantiality of the portion used in relation to the copyrighted work as a
animated explanations (The animations themselves will be shown during the presentation of the paper at the conference.) • student group prepared projects focusing on applications of the numerical techniques presented via the Internet to the rest of the students. Proceedings of the 2001 American Society for Engineering Education annual Conference & Exposition Page 6.76.1 Copyright 2001, American Society for Engineering EducationThese features will be presented and discussed in the paper.II. Group Presentations Table 1 Numerical Techniques
profoundtechnical knowledge and understanding, competent to manage complex projects creating andbuilding new technical applications that work down to the last detail.Bibliography1. Johnson, S.D., and Erekson, T. L. Technology’s role in vocational education reform Illinois Vocational Educational Journal. 44, 1, 11-152. Grinter, Linton E., Summary of the Report on Evaluation of Engineering Education. Published in the Journal of Engineering Education, Sept 1955 pp 25-60. This reference reprinted in Journal of Engineering Education, January 1994, pp 74-94, pp79, 82 referenced in text. Article available from http://www.asee.org/publications/reports/grinter.cfm.3. Senge, P. The Fifth discipline, new York, Doubleday, (1990), p2114. Lunt
, bottoming out during 1994-1996, Page 6.776.1while the demand for employees with the technical skills is increasing. “Employers are trying Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright © 2001, American Society for Engineering Educationevery approach to reach students – both in the virtual world of the internet and in face-to-faceencounters.”1 Enrollment data published by the Engineering Workforce Commission clearlyshows “a smaller proportion of college students choosing engineering during the late 1980s and1990s.” 1 Furthermore, the latest employment
needs while maintain academic standards & research objectives standards while industry/student needsInteraction with Industry Direct GeneralClass Size Smaller (20-30 students) Larger (25-50 students)Class Duration 8 hour per day – 2 consecutive days 50- 75 minutes per classClass Interval Every other week Twice a weekConcurrent Courses 1-2 courses 2-3 courses Work responsibilities Research interestsDevelopment of More consistent and deepening More individual
Session 3230 Peer Evaluation in a Mandatory Cooperative Education Environment Matthew W. Ohland and Cynthia J. Finelli Clemson University / Kettering UniversityAbstractPrevious studies with a majority white student population [1] and with a majority black popula-tion [2] demonstrated that peer ratings to assess individual performance of team membersshowed no effects relating to gender but significant effects relating to race. For this study, thestudent population is majority white, but is from Kettering University, an institution that requiresparticipation in a cooperative education program
two previous studies.II. Class and team demographicsPeer evaluation data from two sections of a single course taught by Layton in Spring 2000 areincluded in this study. The course is MEEN 337 Dynamics, a core course for most engineeringmajors at North Carolina A&T State University. Student demographics are shown in Table 1,where “L&O II” represents this study. Data from L&O I and KFF are shown for comparison.Table 1: Demographic data.Study N Men Women Non-minorities Minorities InstitutionL&O II 70 85% 15% 10% 90% NC A&TL&O I 70 73% 27% 13% 87% NC A&TKFF 208 70% 30% 89
, the execution is difficult. In this paper, performance evaluation is discussed in terms ofits role in the motivation process and examples of typically encountered problems are shared.II. Expectancy TheoryToday, expectancy theory 1 is one of the most widely accepted explanations of motivation.After almost forty years since its introduction, evidence suggests that, overall, expectancy theoryworks 2.Essentially, expectancy theory focuses on three relationships. Expectancy Theory Individual Individual Organizational Personal Effort Performance Rewards Goals R1 R2
being covered in the physics class. The writing assignments given in bothclasses formed the basis of the data collected during the study. The underlying questionsinvolved the assessment of student learning in physics as well as in college writing. The primaryresearch questions were: (1) could this course linkage serve to enhance student motivation tothink more deeply and critically about the physics-specific content they were writing about ineach class? (2) If so, could this enhanced motivation be linked to increased studentunderstanding in physics? During this presentation, highlights of the curricula developed for thelinked classes will be provided along with a summary of the data collected. Results related tothe assessment of student
control the set point. Using a PIC 16C773microcontroller and a conventional two-line LCD display we have developed a display devicewhose functionality is very flexible. The device uses the Serial Peripheral Interface (SPI) tointerrogate one or more controllers and cycle the contents of the LCD display. The display unitis configured as an SPI master (one who can initiate the transfer of information).Multiple slave devices can be connected to a single SPI. Thus, one can easily have one deviceper display, one display for many devices, or a mixture of the two. While this device wasdeveloped for a specific application, its usefulness extends to a broad range of applications.1. Introduction1.1 Problem DescriptionIn a joint effort between the University
Cooper union purchased 29 videos and a CD6 from AVC Marketing (The Universityof Iowa) Insight Media, Encyclopedia Britannica Education Co. and ASCE. Since each ofthe videos run approximately half an hour it was not feasible to show each video in class.Therefore, a small segment of the appropriate videos was copied on a master video. Each Page 6.1029.2segment covers at least one of the module topics and is listed in Table 1. The videos were Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Educationpre-set to run during the
apply and get selected for researchopportunities has increased. During the first three years of the program, the number ofstudents who were funded by this program ranged from fifteen to twenty one. In 1998-1999 there was a major increase in students interested in participating in the MIEprogram. One of the reasons has been the student awareness that the REU coordinatorprovides for the students. Visiting student’s classrooms and disseminating informationhas been a very successful mechanism. In summer and fall semesters, the number ofstudents applying ranged from forty-two to eighty students. Since then, more than fortystudents participate in a research experience.Below (Fig.1) is a graph indicating the number of students who have participated in
withcorner nodes.1,2 Details of this element can also be found.3,4 This element is shown in Figure 1.The local coordinate axes ( i.e. x and y ) are shown, as well as the nondimensional coordinates x y ξ= and η= a bThe displacement functions for the element in terms of the nondimensional coordinates are u x = c1 ξ + c2 ξ η + c 3 η + c 4 u y = c5 ξ + c 6 ξ η + c 7 η + c 8where c1 through c8 are functions of the nodal displacements u1 through u8. Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Page