three, 3-hour laboratory sessions are conducted at the nearby Center forIntegrated Manufacturing (CIM) at Camden County College. The 40,000 square foot CIM centeris a state-of-the-art facility with over $1 million dollars worth of equipment purchased or donatedby companies such as IBM, GE, Texas Instruments, and Bridgeport. At this facility, students aretrained in the basics of manufacturing through the fabrication of a working aluminum-bodyflashlight.Each student machines a MAG-style9 flashlight starting with a 3/4 in. diameter rod of aluminumalloy. The students fabricate the flashlight using both manual and computer numerical control(CNC) machines given a set of detailed dimensioned drawings. At the end of three, 3-hoursessions each freshman
thestudent’s education, data communications and networking are often taught without thepracticality of the laboratory section. However a review of the literature shows increasinginterest in and merits of including a laboratory in a data communications and networking course.One such early work by Smith [1] emphasized a very basic approach to instruct in networkprotocol. His approach of limiting communication to the serial port of the PC’s allowed for thedevelopment of an inexpensive laboratory. A similar approach was presented by Akhtar [2]whose laboratory experiments emphasized different communication protocols. Building onSmith’s work, Classen , et al, [3] outlined the development of a data communications laboratoryemphasizing hands-on experience
gains to achieve specified performance,such a task is design in a narrow sense. To broaden the scope of design, a project wasimplemented with the objectives of: 1. Requiring the student to select the controller structure (PI, PID, state space, etc.), implementation (continuous or sampled) and parameters (such as sampling time); 2. Removing classroom-environment cues as to what type of controller will meet the specifications; 3. Increasing the degree to which the design process is iterative, exploring the capabilities and limitations of alternative controller structures.The project has been used with a second semester course control theory, taken by seniors andfirst year graduate students.1. Introduction Toward
. Burr Ridge, IL: Richard D. Irwin, Inc.2. Bertoline, G.R., Wiebe, E.N., Miller, C.L., and Nasman, L.O. (1996). Fundamentals of Graphics Communications. Burr Ridge, IL: Richard D. Irwin, Inc.3. Diffrient, N., Tilley, A.R., and Bardaggy (1974). Humanscale 1/2/3. New York, NY: Henry Dreyfuss Associates, and Cambridge, MA: The MIT Press.4. SAE International (1997). SAE Collegiate Design Series Rules, 400 Commonwealth Drive, Warrendale, PA 15096-0001 (412-776-4841) E-mail: sae@sae.org, http://www.sae.org. Page 2.136.3 Biographical InformationCurrently a professor in the Department of Industrial
own spread sheets to doengineering calculations and graphs.In Statics, shear and moment diagrams are covered near the end of the course. The design projectgiven in Statics was to find the optimal placement of the strut for the main spar of a light aircraftas diagrammed in figure 1. The design criteria was to locate the strut so that the maximumbending moment on the spar would be the minimum value possible. The spread sheet calculatedand graphed the shear and moment along the beam using the method of singularities1. In thiscase, the spread sheet for the analysis and calculations was created by the instructor and given tothe students on disk. Since the project was given near the end of the term it was unreasonable forthe students to create
and control system.This project required the students to develop sound background in mechanical design, fluidthermal system design, as well as, electronic instrumentation and control. In this respect, thissenior project served to tie much of the material from their previous course work together,including that from the following courses: Thermodynamics, Fluid Mechanics I & II, ElectricPower and Devices, and Industrial Instrumentation and Controls. In this respect, the projecttruly represents a ‘capstone’ design project. Page 2.138.6Appendix A. Cart and refrigeration cycle layouts. Figure A.1. Cart layout
department in several courses with theobjective of extending the design experience over a major portion of the curriculum. The type ofproject described here has been used for many years in a junior-level unit operations course,which primarily addresses fluid flow and heat transfer. The process that is evaluated is shown inFigure 1 where a pump is used to convey water from a river, through a heat exchanger, to acooling tower. The objective is for the students to choose the "best" pumping system for theprocess based on their engineering calculations and judgment. Page 2.139.1Project ExampleAn example of a typical pump project is provided in this
competitions. Their second project consists of designing, analyzing andselecting various components of a power transmission system. (Fig. 1). Page 2.264.2 Fig. 1Both projects are executed by teams of 2 to 4 students. For the creative project each team mustdemonstrate the functionality of their device. For the other project, a formal written report isrequired from each team. Oral presentations are required for both projects.As stated earlier, our goal is to introduce finite element analysis to all lower division MechanicalEngineering Technology students. The following section describes our plans for integration offinite element modules in two of our courses.New
assembly language before the first C constructis introduced. This paper describes the course, our rationale, and some observations afterteaching it for the third time.1. Introduction/Rationale.The Electrical Engineering and Computer Science Department at the University of Michigan,Ann Arbor, has recently instituted a major change in its requirements for our undergraduatemajors. We feel strongly that the conventional model practiced throughout the country ofintroducing majors to computing via a high level language programming course is flawed. Ouranswer to whether it is better to start with Pascal, C, or C++ is "none of the above."We have introduced a new course, EECS 100, Introduction to Computing, where the studentsstart from the bottom and work
incorporate the context andphilosophy of the standards in to environmental engineering education. REFERENCES 1. Begley, R. “ISO 14000 A Step Toward Industry Self-Regulation”, Envir. Sci & Tech., 30:7:298-302, 1996. 2. Bennett, M. J., and A. J., Buonicor, “New Guidelines Promote Environmental Responsibility”, Environmental Protection, June 1996. 3. Chill, L. B., and D. P. Schomer, “The Potential Effect of ISO 14000 Standard on Environmental Audit Training in the United States”, Total Quality Environmental Management, Spring 1995. 4. Kuhre, W. L., ISO 14001 Certification Environmental Management Systems, Prentice Hall PTR, New Jersey, 1995. 5. Kuhre, W. L., ISO 14010s Environmental Auditing, Prentice Hall PTR, New Jersey, 1996. 6
ASEE policy, the dean of each institutional member is to appoint a campusrepresentative to act as an on-campus liaison between the Society and the faculty. Havingrepresentatives at the grass roots level, the Society hopes to provide better service andcommunication to each individual member, and also establishes its presence on each campus.In the chain of communication, a campus representative directs questions and concernsrelated to ASEE from each individual member to the ASEE Section officers, Zone officers,and ASEE Headquarters. A campus representative carries many responsibilities 1. Amongthem are to :1) publicize ASEE activities; 2) encourage attendance and promote participationamong faculty in ASEE section, regional, and national meetings
. Page 2.268.2In addition to the lecture notes, a boxed set of reference materials, euphemistically called a"course-in-a-box", has been assembled for schools and firms wishing to implement an in-housetraining program. The contents of the present “course-in-a-box” consist of the following:• Bachner, John Philip (1991). Practice Management for Design Professionals, John Wiley & Sons• Culp Gordon and R. Anne Smith (1992), Managing People (Including Yourself) for Project Success, van Nostrand Reinhold• Johnson, Deborah G. (1991), Ethical Issues in Engineering, Prentice Hall• ASFE loss prevention audio tape series (1 - 18)• The Real World of Engineering: Case Histories 1 - 64, ASFE• ASFE Loss Prevention Test Kit• Contract
labs. This authoring system will allow us to easily integrate C++ or Java modelsof protective relays, three phase transformers, synchronous machines, and other equip-ment. A World Wide Web page was created that contains additional material showing theuser interface. The Web page can be accessed at http://www.eece.maine.edu/Power/Java.1 IntroductionRecently there has been a great deal of interest in developing multimedia based coursewareand labware [1, 2, 3,4, 5,6]. This project involves the creation of a Java based, multimediapower plant simulator, to be used in coordination with a power system lab course [7]. Thesimulator emulates Bangor Pacific’s West Enfield Hydro-Electric Power Plant, located onthe Penobscot River in Maine. Junior
home appliances. Rapid changes in theindustry, and the increasing use of microprocessors in many of today′s machines lead to productsthat are mechatronics in nature. In order to design such products, an engineer must have generalknowledge of various design techniques and special knowledge of a blend of technologies. Suchskills can be obtained from multidisciplinary mechatronics courses. Recognizing the need for mechatronics education, some Japanese higher educationalinstitutions[1] and European colleges and universities[2-4] offer courses in mechatronics atdifferent levels. Some schools abroad even plan to offer degree programs[5] in mechatronics.The significance of this can be underscored by the fact that there is already an
problems prevented us from fully implementing this test however, adequate time willbe set aside for this procedure in the future.The test procedure is delineated in AASHTO T 277-93. A four inch diameter of two inchesmust be extracted from the specimen. The side of the specimen needs to be coated with a non-conducting sealant. The sample is placed into a vacuum desiccator at a pressure of 1 mm Hg forthree hours. Afterwards, the specimen is submerged in water without releasing the vacuum.This is done by using a seperatory funnel located directly over the specimen. The vacuumpressure is maintained for an additional hour. Next, the vacuum is released where the specimenremains submerged for an additional 16 to 20 hours. The sample is then secured in
society, it is imperative that every personhave a basic knowledge, understanding and appreciation of the functions and basic principals ofmath, science, technology and engineering. In his article “Teaching Engineering as a SocialScience” Edward Wenk, Jr. states: ”In propelling change and altering our belief of systems andculture, technology has joined religion, tradition, and family in the scope of its influence”[1] * .According to US Department of Labor predictions, between now and the year 2000, nearly two-thirds of the new entrants into the work force will be women and by the same year, nearly two-thirds of working age women will have jobs [2]. Moreover, the jobs facing these new workers willrequire higher skill levels in science and
card timers. The board, incombination with the Sonic Ranger VI, is capable of detecting reflected pulses from one or twoobjects over a wide range of distances. In practice the distances are less than 1 meter with a SonicRanger pulse interval around 20 msec.C. ExperimentsTo take advantage of the improved data collection environment, several experiments weredeveloped. They are:Photo gate experiments: • An introduction to LabVIEW through analysis of the photo gate signal, • The elastic properties of a rubber band undergoing collision with an air track glider: Astudy of the coefficient of restitution as a function of tension in the rubber band, • Measurement of g using a falling picket fence and Atwood's machine.Sonic Ranger
motions were remote-controlled bylaser light aimed at five different photoresistors embedded in the rear section of the cart. Completion of a project required: 1. Designing and constructing a laser controlled electronic circuit to operate the cart. 2. Designing and constructing a mechanical frame, assembling a drive mechanism to utilize an electrical DC motor to move the cart and a stepper motor to steer it. The electronic controlling circuit was designed and constructed on a prototypeboard so that students could modify or trouble shoot any malfunction section easily. Thecontrol circuit consisted of a laser switching circuit, clock generator, pulse sequencingcircuit and
with the submission, grading, distribution of help, and management of theactivity in the classroom creates problems for both students and instructors. In response to thesedifficulties, we have designed and developed the Reflective Learner, an electronic environmentthat supports and facilitates the learning essay writing activity. Students write their essays in theenvironment. The environment keeps track of the essays as well as provide several forms ofsupport designed to address the student problems. Instructors can define essay assignments andgrade submitted essays in the environment. In this paper, we describe the environment andpresent some findings from a formative evaluation during the 1996-1997 academic year.1. THE ROLE OF REFLECTION AND
(Raich and Cinar, 1994).Singular value decomposition (SVD) provides a computationally efficient method for PCA. Anym x n matrix A of rank r can be decomposed into the following form (Strang, 1988): A = u1s1vT1 + u2s2 v T2 +... +ur sr vTr ( s1 ≥ s 2 ≥...≥ sr > 0)where si (i = 1, 2, ..., r) are positive scalars in descending order, ui (i = 1, 2, ..., r) are m x 1orthonormal vectors and vi (i = 1, 2, ..., r) are n x 1 orthonormal vectors. The first f terms of theabove decomposition provide the best approximation to A with f principal components.PCA is a linear technique in the sense that it uses linear functions to model relationships between
leaving the air handling unit passes through a single, five-foot diameter duct on its way through the maze of ducting that is an architectural design element throughout the building. View windows in the air handling unit reveal moving fans, and at a later date, a window placed into the side of an air duct will reveal streamers placed inside to help visualize air flow. Mechanical equipment, such as pumps, compressors, heat exchangers, etc., is normally hidden from view, but in the ITL Laboratory it is visible through large windows, and students may walk through the two mechanical rooms unsupervised. Signs and system diagrams will explain the equipment, and various pipes are color-coded for easy identification (Fig. 1). Piping is
to prove/“establish” himself/herself in his/herdiscipline and hop on the treadmill in a mad rush toward the “life and death” (or so they seem atthe time) goals of promotion, tenure, merit raises, and national/international professionalreputation [1-4]. In many instances, the intensity of the effort and associated time and energydemands outweigh even those of graduate school. The new professor often is totally dedicated toand immersed in this effort, essentially placing all other priorities, even family, on the “backburner”, as an “investment” in the future that will pay dividends after the above goals arereached, say in roughly a decade. As a relatively new/young professor (during my fifth academic year), I presented“Development
have been incorporated, responses to the question “which additional topicswould you like to see addressed?” have dwindled, and the question was eliminated. Inretrospect, removal of this question may hinder the introduction of new ideas, so re-inclusion of Page 2.277.1this question is currently being considered. The current feedback form, which has not changedsignificantly since 1991, includes four questions in which TAs rate (on a scale of 1-5) the valueof the workshop, its usefulness in developing their teaching skills, how it fulfilled its statedobjectives, and if it should be offered again. In addition, the form asks participants
strong family pressure to remain at Tech once enrolled.There was a hypothesis, though, that women find explicit coping mechanisms in order to remainat Tech. One proposed such mechanism is changing majors - the search for a niche where theycan feel comfortable. In order to properly investigate these hypotheses, there are severalnecessary steps:1. Analyze major changes to see if there is a quantitative difference across gender;2. If there is a quantitative difference, investigate if the patterns of changes are different;3. Interview students to find out their opinions of major changing.Investigation of number one above was immediately hampered by the fact that Georgia Techdoes not explicitly keep records of students’ major changes
participated activelyin the design of the following tools:• SURVEYS. Various surveys were designed using the following strategy: .Assessment Design Matrix: The first step was the development of an Overall Project Assessment Design Matrix, where each task's goals - as defined in the Strategic Plan were outlined. Associated with each goal and objective, the matrix also included the stakeholders (or those identified as having a vested interest in the information gathered). Table 1 shows the Overall Project Assessment Design Matrix. .Individual Task Design Matrices: Once the overall project's goals were summarized in the Design Matrix, four sets of matrices - one for each
. Page 2.281.1 2BACKGROUNDDuring the last decade, the National Science Foundation (NSF) has sponsored coalitionsand partnerships between various higher educational institutions, which focus onenhancing undergraduate engineering education.1 The goals and objectives of theseprojects - oftentimes multi-million dollar, multi-institutional, and interdisciplinary - arecarried out by working teams. In 1994, NSF granted (with funds from the ARPATechnology Reinvestment Program) a unique group of universities - Penn State,University of Washington and University of Puerto Rico at Mayagüez - in collaborationwith Sandia National money to a project called the
perhaps this time fatal) attack on technical education. The curriculum for the nuclear program is shown as Table 1. The 78-credit program is activelyreviewed each year by our 25-member Nuclear Advisory Committee (NAC) for meeting theadvanced education and employment needs of our graduates. The NAC membership includes a vicepresident or higher from each and every nuclear business, currently 20, in Connecticut as well as the5 department chairpersons from four year universities that our students typically attend for theirbaccalaureate degree. Their guidance and direction have optimized employment opportunities forour graduates and guaranteed acceptance as entering juniors in ABET-accredited BS programs.Their program involvement is substantial