image scanners.This paper details the techniques used in a microprocessor laboratory to generate a CRT imageof both text and graphics using the rasterizing hardware built into the AMD 29205 processor. BackgroundThis paper is an extension of a paper presented previously at the 1995 ASEE annualconference1 that detailed the techniques for designing a microprocessor lab around the 29205processor. The lab station described in that paper included both the SA-29205 demonstrationboard for the processor and a separate terminal for interaction with a host computer. The labstation in that microprocessor laboratory is evolving away from the need for the separateterminal by using the processing power available in
modify the manner in which the principles, concepts and ideas that affecttechnology transfer and competency building are expressed and conveyed. These institutions needto produce an environment in which location and distance are removed as learning inhibitors by areal-time, hands-on, learner-centered, virtual-reality, computer-driven, next generation distancelearning platform (NGDLP). In order to migrate to this environment, the capability forlearner-centered teaming must exist across all selected learner node sets, thereby producing thevirtual laboratory. Today’s learners are rapidly loosing interest in the bulk-packaged educationalextravaganza deals offered in the mass production lecture-centered teaching environment of thepast and
notfeasible in the available time when attempted using standard chips, and the emphasis in the firstcourse can be shifted away from wiring and troubleshooting toward system-level design.This paper describes the course and laboratory, presents design projects undertaken in Fall, 1996,and reflects on the results.INTRODUCTORY COMPUTER ENGINEERING COURSEThe goal of the first course in computer engineering at Trinity College, ENGR221L--DigitalCircuits And Systems, is to develop a working knowledge of digital devices and systems in thecontext of computer-aided design. The course covers number systems and codes; BooleanAlgebra and combinational logic; flip-flops, registers and counters; finite state machines;memory devices and systems; programmable logic
in a gentle, non-threatening manner by developing a collection of hands-onlaboratory experiences based upon simple systems constructed out of LEGOs and controlled bysmall microprocessors. These laboratory experiences are designed to lead students, literally bytheir hands-on experimentation, through the use of technology in support of many everydayactivities.Laboratory experiences, inspired by work done at MIT1,2, typically involve the design andconstruction (out of LEGOs) of simple models of familiar real-world systems, including anelevator and its controller, a garage door and its opener, a computer-controlled car, and a homesecurity system. The supporting instructional material includes a laboratory manual andlaboratory kits appropriate to
the same way? Now we will turn to some basic comparisons of the threesystems.Credit Systems: Mexican courses carry 6 to 10 units, usually two units or credits for each hour oflecture, and one unit for each hour in laboratory or working groups. Some schools assign units forthe time spent on practical work, class projects, or outside assignments. In general, a 6-unit courseis three lecture hours per week without a laboratory, while 8-unit courses have three hours of lectureplus lab or practical work. Mexican semesters can be as long as 18 weeks, with 2 weeks for Page 2.308.2examinations. Thus, a 6-unit course represents about 48 hours of
North Texasto bring the Mechanical Engineering Technology (MEET) and the Manufacturing EngineeringTechnology (MFET) programs closer together so that the students in either discipline getsignificant exposure to both design and manufacturing functions. A project to manufacture testequipment for laboratory use was selected as a means of demonstrating the usefulness ofconcurrent engineering. This selection had some advantages since the fixtures, tools, devices,and test specimens could be used in other labs, thus reducing the laboratory operating costs, andat the same time giving the students realistic problems to solve in the process of learning vitaldesign and manufacturing functions. ActivityThe faculty
andflexibility. CAD/CAM and computer numerically controlled (CNC) machine tools play importantroles in modern manufacturing engineering.Indoctrinating students in the modern production process is crucial. ME 435, the IntermediateManufacturing course offered by the mechanical engineering department at Christian BrothersUniversity (CBU), addresses this need. First offered in the fall of 1996, the class revolves aroundthe use of computers to integrate the design, analysis, and manufacturing phases of production.Students in ME 435 use the facilities of the Integrated Laboratory for Manufacturing Education(ILME) developed at CBU under a National Science Foundation grant.Students are first introduced to parametric design methodology, including part and
and a cross bar was mounted in order to fix the positionof the rocker roller. A cable was attached to the rocker tip to allow loading with a set ofcalibration weights. The calibration curve, i.e. amplifier voltage as a function of force is shown inFigure 4. An amplifier gain was selected to give a full scale amplifier output spanning a +/-5 voltrange for a loading equivalent to the maximum expected injection pressure. Because the straingages produce linear output, it is usually not necessary to cover the entire load range withcalibration weights.EXPERIMENTAL SET-UP FOR ENGINE TESTING The heavy-duty diesel engine used in this study is set-up in the University of Michigan’sW. E. Lay Automotive Laboratory with the aim of obtaining the
presentations form the foundation of the delivery and are written with themultimedia package Authorware®. Recognizing the drawbacks to a curriculum delivered solelyon the computer screen, other types of activities are incorporated to satisfy a variety of learningstyles. Examples include hands-on laboratories, team design and analysis projects, instructor-ledproblem-solving sessions, and lectures.The first five modules (developed by M. Ssemakula and R. Pryor of Wayne State University)consist of the subjects normally found in a first- or second-year engineering physics course,covering fluids, thermal properties, the first and second laws of thermodynamics, and the kinetictheory of ideal gases. The primary form of instruction consists of laboratory
Through Long Leads This project consisted of developing a Matlab-based model to analyze the effects of long cables on PWM inverter-fed induction motors. Another faculty member, who teaches the Page 2.162.3 Electromagnetic courses, was enlisted for this project. An experimental set-up was established in the Energy Conversion Laboratory to verify the results from the Matlab-based model. This research project was sponsored by a motor-drive manufacturer who offered a position to the student after graduation. Unfortunately, the student accepted a better economical offer. Both faculty members
graphically in Figs. 7-14 painted thefollowing picture:i) The courses provided considerable knowledge but they were too theoretical and were notrelevant to the Lao environment.ii) The tutorials, laboratory sessions, practicals and home assignments were useful and helpfulin understanding the subjects.iii) The practical training and the final year project formed a useful background for the job.iv) The lecturers were well prepared and encouraged students to think for themselves.Furthermore their lectures were interesting and the lecturers made themselves available forconsultation after class.Although the above opinions were shared by the majority of the graduates, a substantialnumber disagreed, particularly on issues related to their lecturers. These
a satisfactory level of competence in the areas of teaching, scholarship and servicein preparation for going up for promotion and tenure. TeachingSince teaching is the most important area for an engineering technology faculty member, anyschool that has engineering technology should establish a teaching culture. In this environment,excellence in teaching delivery in the classroom and laboratory should be expected as the sinequa non. In addition, a method to continually assess student learning, in addition to the normalgrading system, should be established. There should also be a method for ongoing curriculumand laboratory development in all courses, so as to maintain the state of the art in the
between the numbers) as quarters, andthe divisions on the thimble as pennies. When the total is added up, put a decimal sign in frontof the figures instead of a dollar sign.SoftwareA computer software program can be helpful in giving students an opportunity to work withphase diagrams. For a number of years, we have used a software program titled “The Use OfPhase Diagrams” in material laboratories as a supplement to phase diagram laboratories andlectures.3 The program contains a number of isomorphous and eutectic binary phase diagramexamples. Given a phase diagram to work with, students can practice calculations on their ownand then turn to the computer program to check their work. Each diagram labels phases andmarks the location of the alloy on
Manager Maestro QualityFigure 5: Role of RP & M in Concurrent Engineering Figure 6: RP & M ProcessApplication at GMI The current application at GMI involves three laboratories/functional areas/courses:polymer processing, computer integrated manufacturing, and metal casting. The application atGMI is as shown in Figure 6. Development of a new product will commence with conceptdevelopment and selection. At this early stage various groups of students from the threefunctional areas interface with each other and bring producibility issues to the table. A singlesolid model of the part to be built drives the entire process. The developed solid model is thenexamined and modified in order to meet the
requirement to promotion, typically surpasses a full timecommitment. Moreover, the fiscal, facility, and expertise constraints of a small institute limitviable projects, particularly experimental endeavors. To meet the research requirements forpromotion, three junior, untenured faculty members (an electrical engineer and two physicists)took the initiative to form a cross-discipline, off-campus collaborative research effort with asenior, tenured physiologist at a mid-sized research university. The junior faculty memberscontribute their time and technical skills to the project. The physiologist provides mentoring,direction, laboratory space and supplies. The collaboration involves the waveform analysis of electroretinograms (ERG) in rats. Atthis
the lab.The second lab does specific gravity by immersion in water and also includes an introduction tohardness testing stressing the use of manual hardness testers to improve hands-on skills.Students must take turns using some of the equipment, this helps develop teamwork skills. Bythe end of the second lab the students are ready for more involved work such as tensile testingand the effects of heat treating.Another topic that needs attention is the use of numbers. Most of the students have never given aphysical meaning to a number except for length. Presenting such concepts as stress and strainbefore actually doing the laboratory work causes the majority of the students considerableconsternation. Only after doing several tensile tests and
members of thecommittee are elected each year by the faculty. Review criteria include teaching excellence,research activities, professional growth, and service to the university. Teaching excellence is themajor factor considered during the renewal process. The Milwaukee School of Engineering (MSOE) is a private university that specializes intechnical based programs. The university offers undergraduate degrees in engineering,engineering technology, technical communications, business, and nursing and master’s degrees inengineering, engineering management, environmental engineering, and perfusion. The universitystresses undergraduate education, with an emphasis on design content, laboratories and smallclasses. The university does not use
engineering technology curriculum because of the stronghands-on emphasis. The department of electrical engineering technology has been offeringnumber of high level courses in the areas of fiber optics, data communications & computernetworking, digital image processing & vision and data compression & multimedia technologyand optical communications. Because of hands-on nature of the program each course has anassigned laboratory. Considering the rapid rate at which electrical engineering technology andequipment are changing, the existing equipment needs to be updated and improved to adequatelyprepare the students.The purpose of this paper is to present the results of NSF-sponsored Instrumentation andLaboratory (ILI) program for equipment to
retention, mastery of coursesubject matter, computer skills, laboratory skills, development skills, PE licensing, professionalsociety involvement, pursuing advanced degrees, and employment.2. Curriculum: Insure that the curriculum and labs in each ET discipline meet applicable NJIT,ABET, industry, professional licensing, and student requirements.3. New Program Opportunities: Increased enrollment through the development of newacademic programs.4. Support To Students: Enhance student success by providing the necessary support withregard to academic advisement, day and evening advisement, flexible laboratory schedules,assess to PCs and Workstations.5. Faculty and Staff Development: Provide faculty with the opportunity to remain current withregard to
degrees are ABET accredited.We recently received a National Science Foundation (NSF) Curriculum (ILI) grant. Themajor thrust of implementation reflects the revolution caused by technology in civilengineering and survey. We give each student not only the theory but also actualexperience with the projects and equipment that are the "bread and butter" of civilengineering practice. Laboratories in cartography, photogrammetry, surveying and civilengineering are designed to integrate experiences in this new technology.In the area of Geographic Information Systems (GIS), the merger of information fromdifferent sources, often in different formats, is the norm in civil engineering technologypractice, using GIS-based systems. We must recognize and keep up
ASSIGNMENTS To complement the lecture and enhance the student’s learning experience, a lab (orassignment) manual has been developed. The students are also required to select a morecomplicated system than required by the labs to model as a final project (There is not a labassociated with the course. These “labs” are really just assignments, but are being referred to aslabs.). The labs that have been developed are listed in Table 2 and some of the projects that thestudents have modeled are given in Table 3. Table 2: Laboratory (Course) AssignmentsLab 1: Registers and Combinatorial Logic Code for an entity and architecture pair using the structural style of coding is developedfor an 8-bit register with read, write
disciplines.The present criteria address six major aspects of an engineering program: the faculty must bewell qualified and sufficient in number to cover essential curricular areas; the students must beprepared to enter engineering study, and graduates must show acceptable performance; the ad- Page 2.53.1ministration must lead and support the engineering program; facilities, including classrooms,laboratories, library, computer, etc., must adequately support the engineering program; institu-tional commitment must be evident through adequate financial support for the engineering pro-gram; and the curriculum must show certain quantitative and qualitative
design, and education administration, with a majorconcentration in technology or technology education.Graduate students are afforded the opportunity to work and study with School of Technologyfaculty members who have national and international reputations in technical and manufacturingdisciplines, as well as areas of human resources. Many of these faculty members have prominentreputations as authors and scholars; over 70 of their textbooks and laboratory manuals are in printand utilized in technology courses throughout the world.This exceptional faculty, from the eight academic departments within the School of Technology,teach and conduct applied research in 52 individual laboratories, utilizing equipment valued atover 28 million dollars.Applied
. Several industries provide training tapes that illustrate the practical applicationto engineering principles. These tapes can aide the student in understanding and better equip himto apply the subject on the job. Video tapes also have the ability to demonstrate the applicationof the engineering principles in industry which is also helpful.5. Laboratory work. Since hands on laboratory exercises are not practical for the distancelearner, students will need to meet with faculty for a concentrated two or three week lab exerciseperiod one to two times each year. This lab work is best conducted at a local industry such as apower plant when learning about the principles of Thermodynamics, for example. Lab work willbe based on an extended work day with a
disadvantage of being in the competition the first time(Solar Splash has existed for three years), A&T is also handicapped by having onlyone semester to design and build the boat, compared to the two semesters mostother schools devote to the project. To alleviate some of the time pressure, the Page 2.223.2faculty prepared some groundwork prior to the beginning of the semester.Chen, et al. Page 2 of 4Sufficient funding was solicited from four sources: the Jet Propulsion Laboratory(JPL), A&T’s College of Engineering, and the two participating departments. JPLwas attracted to the project because
Session 2438 Integrating Graphics and the Concurrent Engineering Design Process into Electrical Engineering Education K.A. Korzeniowski United States Naval Academy ABSTRACT This paper describes a laboratory exercise performed by Electrical Engineering majors takinga first course in electrical circuit theory. The goal of this exercise was to familiarize students withengineering drawings, concurrent product engineering and manufacturing considerations within thecontext of design applications for an
available for student use. Studentresponse was favorable, and the faculty involved assessed the desiccant materials to be a usefuladdition to the course.In addition to the material developed for the curriculum module, future improvements for thedesiccant segment of the course will include a hands-on laboratory experience. An instrumentedtest cell for desiccant devices is currently being developed by the Global Center for DesiccantTechnology. This laboratory will be available for student use in connection with the airconditioning course. Module AvailabilityAs part of the activities of the Global Center for Desiccant Technology (GCDT), copies of themodule have been sent to all mechanical engineering programs
Session 2263 Multimedia Technology Supporting Manufacturing Education Henry W. Kraebber, P. E. Purdue University - School of Technology Accredited programs in manufacturing engineering technology stress hands onapplications and problem solving using the computer as a tool. The computers found intechnology laboratories come in many different forms directed at solving a particular problem,developing and documenting a product design, controlling a process or machine, or even helpingto manage the business side of the operation. Students learn to program and operate manydifferent
shownmathematically. For example, in a series RLC circuit the inductive reactance cancels out thecapacitive reactance at resonant frequency. Therefore, the circuit has a minimum impedance anda maximum current at this frequency. However, it is hard to see from the formulas how thereactance and the current respond to the frequency change, when the circuit frequency isapproaching the resonant frequency. It is also difficult to introduce the sensitivity of a RLCcircuit and the effectiveness of the capacitance or the inductance to resonance or sensitivity.RLC circuit resonance can be demonstrated in a laboratory. The experimental demonstration cangive students a chance to see this electrical phenomena. However, the equipment used in thisdemonstration is not
,instrumentation amplifiers in a second analog course, and microprocessor interfacing in aseparate digital course. The integration of these three topics in which students design, simulate,build and test a data acquisition system will help them to understand a practical industrialapplication. In this paper we will use a PC Interface card to connect the interfacing circuit whichis on a breadboard to the computer. The interfacing circuit will be connected to an analog circuitthat measures temperature. All engineering and engineering technology school laboratories areequipped with microcomputers. The advantage of using a PC interface card is that with amoderate cost for interfacing cards, the computers can be used for the programming of the digitalcircuits