simultaneous engineering,a focus which echoes long-standing themes in product development practices.1’lz Nevertheless, presentingthese ideas in undergraduate engineering education calls for a departure from the usual content and pedagogicalapproaches. The goal of this paper is to describe the development of a new course in concurrent engineering.Teaching concepts in product development benefits greatly from a hands-on approach. We have attempted toestablish this goal in three ways: by developing and using a number of laboratories and demonstrations, byinviting speakers from industry who can make classroom lessons concrete, and by using cases as the basis forclass discussion. This paper includes a discussion of the curriculum, of existing
result, we have decided to provide thedesign team a pre-fabricated mobile robot platform made by AK Peters Corporation[1]. The platform includesthe robot body, wheels, two motors and gear boxes1. We believe this will help them avoid spending too muchtime designing and revising the robot body. Fig. 1 shows a sketch of the robot the design team is currentlyworking on. A caster wheel is attached at the back of the platform to provide stability of the robot system. Theactual senior design project took place during the Spring/96 semester. As a final project of another lab class,however, the project team had completed the initial part of the senior project. Since the goal of this project is to create a mobile robot with navigational
Credit Hours Reduction In Florida over the past several years, the legislature, Board of Regents, and universities have worked ona variety of programs to improve the efficiency and accountability of university education. The most recentmeasurement shows that an average student in Florida’s public universities take, about 24 credit hours beyondthose required of a final degree. 1 A reasonable balance between the student’s need for education exploration and the state’s need forgreater access for all its citizens to higher education gives the student extra hours up to 10VO of those requiredfor their degree at the state’s expense. The cost of “excess” hours beyond 10% will become the responsibility ofstudents and universities. In
lecturers and students. making use of new technologies where appropriate. Our most significant ‘experiment’ in this area was to require the 1 Background Dynamics class of 1995 to interact with a computer-basedThe starting point for the developments described here is tutorial system we developed (see Devenish 1995 for morethat most students are opportunistic: that they will generally information about this system). This paper focuses on thedo whatever they perceive is necessary to ‘get through’, or
projectteam performed the grading. The project team urged students not to share notes or unit access with students in 4other groups, and a later survey indicated that most complied . Fifty-one students participated in the Fall 1993 experiments. Table 1 shows the results of the first test,used to ensure that neither group was inherently superior. Though the mean score of the experimental groupwas slightly less than of the control group, the difference was not significant at the 95°/0 level. Thus, the groupsdisplayed generally similar capabilities. In CE 305, students work on homework assignments in three-person teams. The experimental groupconsisted of nine teams, leaving
strengths and "opportunities 1 Pressure control by varying the speed of afor improvement" that have been observed in this bloweroffering. 2 Level control in a water tank by varyingThe web address for the lab is the speed of a water pumphttp://chem.engr.utc.edu.This paper in expanded form is at 3 Temperature control in a heat exchangerhttp://chem.engr.utc.edu/Henry-Pub by varying the flow rate of a hot water supplyHARDWARE AND SOFTWARE 4 Speed control of a motor
, shown in Figure 1. The information in the profiles is used by the instructors to composethe individual teams. In the 1995 class of 24 students, we created four teams of six students each, meetingduring two different lab times (three hours per week). Ideally, the teams should have a maximum of fourstudents4, however limitations in laboratory facilities required us to limit the number of teams. In the 1996class, we limited class size to 20 students, comprising five-member teams. The smaller team size is definitelymore tractable in the laboratory setting. The teams are assembled to be as heterogeneous as possible, from thepoint of view of diversity in knowledge and work experience. Name, Academic Major Address, Phone Number
V13NTANA’s 3GroupSystems and LOTUS Notes) to assist in the collaborative efforts of a systems analysis and designclass. In additio~ cooperative learning techniques were employed to encourage and enhance thecollaborative tools. In the following, the results of this endeavor are related along with problemsencountered on the way.CASWGROUPWARE APPLICATIONS: During the fall semester of 1995, the CASE tool and cooperativelearning techniques were used to successfidly analyze and model five team projects in a Systems Analysis &Design class of twenty students: 1. Student/advisor access @student records over school’s H This system would allow a student and/or advisor to sit down at a terminal connected to the university’s LAN
their own time, to use the electroniclibrary and attend classes.Objectives The objectives of this work were as follows: 1) Define and establish an innovative corrosion education module for the engineering materials knowledge area. 2) Establish the instructional process, the prerequisites and the test for competency of the corrosion module. 3) Incorporate the candidates’ experiences in the C.A.T. in the corrosion module case studies. 4) Develop computer aided instructional material and testing methods for the corrosion module. 5) Collaborate with coalition partners to establish academic credit and degree requirements for the engineering materials knowledge area
, square, sawtooth and trianglewaves—students discover that the amplitudes of the frequency domain components in the test andcomputer simulation appear to disagree. The sine wave test consists of displaying a sinusoid from a function generator on an FFTSpectrum Analyzer. Results are verified by observing the same signal on an oscilloscope and comparingthe frequencies and amplitudes reported by the function generator, analyzer and scope. In generalthis simple verification is not possible with complicated signals. The computer-based FFT analysis simulates a situation where data are stored on disk or tapeand are later fed to a computer program for Fourier analysis. This is a common test scenario, and theMathcad† exercise shown in Fig. 1
theprogram and some of the details regarding the engineering courses have been discussed byFroyd (1) and Richards (2 ). Courses in mathematics are coordinated with the courses inengineering and comprise primary mathematical threads for the curriculum. courses indifferential equations are of course included; recognizing the increased importance of dataanalysis for engineering as well as the current emphasis on quality methods and statisticalprocess control in manufacturing, a course in statistics also comprises a main thread of thecurriculum. The propose of this paper is to discuss the reasons for including this course, itscontent and plans for future development.Need for the course Engineers, in research and in creating manufacturing processes
shows how geometry can affect theload carrying capacity of a material used in construction how different materials have different failurecharacteristics, and how construction affects the performance of a composite material.The student will learn to:1. Fabricate different types of layered beams such as A. Built-up beams of a single material, and B. Composite beams of a mixture of materials,2. Test these layered beams to determine how and where the beams fails,3. Use knowledge gained from 1 and 2, to design a layered beam that will fail in a predicted manner, and4. Capture a knowledge of the effects of lamination, adhesion, and geometry in layered beam construction on beam strength and failure location.Equipment and Supplies:1. Forster
research internships to both highschool and undergraduate female students in 1987. The program allows talented high school women toexplore research opportunities in science and engineering and to build their confidence in SEM relatedfields [1-3]. The students work independently on a research project with an ISU faculty member. Thestudents complete a hands-on research project and present a formal paper and poster at the completion ofthe session. The high school students also agree to do a presentation for their home schools during theirsenior years. Page 1.128.1 $ix~~ 1996 ASEE Annual Conference Proceedings
constructed).For its course & instructor evaluation forms, ECE chose a set of ten questions (eleven for the "lab" version ofthe form); this same set of questions was used for over twenty years. The analysis performed was fairlystraight-forward: the mean of each question was computed on a five-point scale (with "5" → "strongly agree"and "1" → "strongly disagree"), and from equally weighted arithmetic averages of several of these means, threecomposite scores were computed: (1) an "instructor" score, (2) a "course" score, and (3) a "facilities" score.Associated with each composite score was a "percentile". A sample of the CAFETERIA-style form used isillustrated in Figure 1, and a sample of the report output produced appears in Figure 2
., "Educating Tomorrow's Engineers," IEEE Education Society Newsletter, Fall 1994, pp. 1-5.7. Aldridge, et. al., published paper on first cross-disciplinary senior design project coordinated by center.8. Introduction to Team-Based Design, NSF Grant # DUE-9354523, February 1, 1994-September 30,1996.9. Dally, J. W. and Zhang, G. M., "A Freshman Engineering Design Course," Journal of Engineering Education, Vol 82, No. 2, pp. 83-91.10. Grubbs, Lbert B. Jr. and Zoghi, Ehbood, "Overview of a Capstone Project Prerequisite Course," The International Journal of Engineering Education, Vol. 9, No. 5, pp. 386-390.11. Brickell, Col James L., Proter, Col David B., Reynolds, Col Michael F. and Cosgrove, Capt Richard D., "Assigning
brings lately additional problems. Unusual solutions have to be found.The paper will present the steps taken by two engineering technology colleges in order to have an exchangeprogram. Oregon Institute of Technology, with campuses in Klamath Falls and Portland and HogeschoolEnschede in the Netherlands established students and faculty exchanges starting in 1991. Over a period offive years, this small program proved to bring different benefits for all parties involved: students, faculty andlocal industry.1. Introduction We all know and we hear over and over again the same refrain: we live in a global market economy.Since the collapse of communism, borders became more permeable and we should acknowledge that there isno border for
integrated has been shown to lead to decreases in development time, engineering changes,and time to market and to increases in overall quality, productivity, dollar sales and return on assets [1].Central to the reduced design cost are the use of numerical simulations. This is especially true in theaerospace field. Hoist et. al. [2] argue that the development costs for advanced vehicles are escalating ‘-due the constant desire in the commercial field for advancement in aerodynamic, fuel, and propulsionefficiency, weight reduction, flight stability and control, and environment al factors. One way to containthese costs is to place a greater emphasis on computer simulations. However, the simulation of theperformance of complex aerospace vehicles is
and process improvement that were realized as a result of such interaction. Ironically, as the coursedeveloped, these examples became more numerous and subsequent offerings of the course will betteremphasize this facet of the course. However, there is still a great need for more real life examples.General Onzanization The initial lectures in the course were introductory in nature. These lectures helped to set the stageand get all of the students thinking in the same dwection. There were three primary concerns in this section:1) an introduction to the course, lecture outline and class projects, 2) an overview of manufacturingprocesses and process planning for aerospace students, and 3) an overview of aircrafl systems analysis anddesign
curriculumaligned with the strategic directions of the department. Page 1.134.1 1996 ASEE Annual Conference ProceedingsThe Process For our purposes the curriculum renewal process can be modeled as a six-stage procedure (see Figure 1): Stage 1 -- Preparation Stage 2 -- Strategic Planning Stage 3 -- Identifying Curriculum Renewal Objectives, Performance Measures, Goals and Milestones Stage 4 -- Analyzing the Existing Curriculum Stage 5 -- Designing the New Curriculum Stage 6 -- Implementing the New CurriculumContinuous curriculum improvement is
Session 1626 CURRICULUM INNOVATION FOR SIMULATION AND DESIGN OF WIRELESS COMMUNICATIONS SYSTEMS 1 2 1 1 1Theodore S. Rappaport , William H. Tranter , Jeffrey H. Reed , Brian D. Woerner , Donna M. Krizman 1 2 Virginia Polytechnic Institute and State University / University of Missouri - Rolla http://www.ee.vt.edu/mprg/education/nsf/nsf.htmlABSTRACT The U. S. telecommunications industry is experiencing
College ofBasic and Applied Sciences, the Public Relations, the Development and the Foundation, at MTSU wereinvolved in the project in different capacities. We designed and built a solar car, the SOLARAIDER (FIG. 1).The project was a great success and put MTSU on the national scene. The specifications of our solar car aregiven below. Weight: 500 kg (1 100 lb) Dimensions: Length: 6m (19.7 ft), Width: 2m (6.6 ft), Height: 1.2m (3.9 i?) Motor: 6 kW (8 hp); brushless permanent Magnet; 11.8 kg (26 lb), Manfi Solectria Solar Array: 120 W Manfi ASE Americas Batteries: 133 kg (293 lb), Manf Delphi Automotive Systems Chassis: Made of foam-carbon fiber-fiber glass composite with aluminum and steel suspension units
political forces. However, during 1993, a committee wasformed to examine an appropriate course content. After much discussion, a proposal was developed andsubmitted to the full faculty for approval. The proposal is shown as Exhibit 1. As you may see, itcontained the “kitchen sink;” i.e., a broad range of topics from macroeconomic, accounting, finance, andproduction management. I was given the assignment to design and teach the initial course offering. Based on my experienceat GE and TRW, to be effective as an engineering manager, I believed that the students needed threeperspectives to interact effectively with financial personnel in their organizations. These were: [1] How financial budget and reports are constructed for organizational
information to support design. Design of Experiments (DOE) techniques are employed todevelop a predictive relationship for the dependence of the heat transfer coefficient for a fin as a function ofcross-sectional shape, material and convection air speed. The resulting prediction equation is used to design afin to give off a specified heat rate.Introduction Just as the engineering profession has a long enduring and close tie with the basic sciences, theengineering laboratory has often adopted the goals, objectives and methodologies of laboratory experiences inthe sciences. A compendium of goals and objectives for an engineering laboratory might look like this:1. testing and confirmation of theoretical principles2. gaining a familiarity
into the curriculum. However, due to its complexity, it must be implemented properly or it can be disastrous to your students. Page 1.449.1... .- . . .- {ti:b’~ 1996 ASEE Annual Conference Proceedings ‘...,~yy$: - ~Q how complex is “complex software”? To illustrate how complex a software can be, Figure 1 shows the number of manuals and pages that come with a typical CAD software. Keep in mind that each student will also have a theory text of about 600 pages and many drawing assignments. You can see that t; ‘e addition of CAD software to the first
ofsourcesl’2’3’4’5. However, many students don’t realize this type of literature is available, andif they do know there is information out there, they don’ t know where to easily find it. The Purdue UniversityStudent Chapter of the American Society for Engineering Education (ASEE) offers seminars to help fill thisvoid in the educational process of graduate students. The purpose of this paper is to present an overview of thegraduate seminar series.THE GRADUATE SEMINAR SERIESThe graduate seminar series is designed to inform graduate students about three areas of their careerdevelopment process: (1) getting the right job, (2) keeping a job, and (3) developing a personal educationalphilosophy. These seminars are designed to provide graduate students
“ - ” 1 Session 1532 .— .. . ‘DESIGN & RACE COMPETITION OF A SOLAR POWERED VEHICLE Dr. Edward M. Lenoe, Dr. Eddie Fowler United States Military Academy/ Kansas State UniversityABSTRACT This paper describes the performance of the USMA “Onondaga”, a solar powered vehicle whichcompleted the recent SUNRAYCE ’95 event wherein 38 cars raced 1300 miles from Indianapolis, IN toGolden, CO. In particular, a rather simple and rugged solar array configuration, using only threediodes, was
supplied. The “success” of thetruss was to be a function of the efficiency of the structure: load carried divided by the structure’s weight.This allowed the students the freedom to build a light, simple structure that would carry a relatively smallload, a massive and complex structure that would carry a large load, or any possibility in between. Sincefasteners overwhelmed the weight of the other structural members, the weight of the fasteners wassubtracted from the total weight to determine the truss structures’ weight for all efficiency calculations. Thematerials supplied were a one 12 foot long, ‘% inch OD, 0.035 inch wall thickness, 6061-T6 aluminum tube,a 12 inch by 24 inch 6061 aluminum sheet of 0.063 inch thickness, and 100- 1/8 inch pop