this project, several educational objectives are met: to develop creative andcritical thinking, to introduce design principles, to provide hands on experience, to developteamwork and communication skills, and to stimulate enthusiasm for engineering.IntroductionRowan University is pioneering a progressive and innovative Engineering program that usesinnovative methods of teaching and learning to prepare students better for a rapidly changing andhighly competitive marketplace, as recommended by ASEE [1]. Key features of the programinclude: (i) multidisciplinary education through collaborative laboratory and course work; (ii)teamwork as the necessary framework for solving complex problems; (iii) incorporation of state-of-the-art technologies
) 0V (OFF) Ve(max) (b) Page 4.356.3 Fig. 1 Closed Loop Control SystemThe Controller Output is often subjected to signal conditioning in order to provide theproper signal level or power as required by the Actuator. If the Actuator is a motor, thenthe signal conditioning block may be a power amplifier that generates the appropriatepower to drive the motor.The use of negative feedback is the key to the proper operation of a control system.Consider the operation of the ON/OFF control system depicted in Fig. 1b. The object ofthe temperature control
increased demand for English-Japanese bilinguals is particularlynoticeable. For example, Table 1 shows the number of companies that placed positionannouncements for English-Japanese bilingual engineers and scientists in the Nikkei PlacementGuide International (a yearly recruitment publication) each year for the past four years.1 Table 1: Companies recruiting bilingual engineers and scientistsYear Number of companies that recruit Place of employment bilingual engineers and scientists (total number of companies listed) Japan US Others1998 86 (86) 84 23 151997 94 (99) 94
formaterial balances has been Elementary Principles of Chemical Processes by Felder andRousseau. The CD-ROM developed from the Marathon Sat Gas plant contains information forcalculating material balances for the following situations: 1. Distillation column 2. Gas absorption column 3. Three-phase water separatorThe distillation column and the gas absorption column problem sets are reasonablystraightforward; however, each operation contains 11 components including water and hydrogensulfide. In addition to material balance calculations, each problem set includes information toinitiate class discussion on corrosion, H2S removal, H2O removal, H2O solubility, alternateprocesses, etc. The CD-ROM shows pictures of
500 -700nm. The wavelength of the specific light source that is diffracted is determined by thefollowing phase matching condition: λ = ∆n α va/fa (1)The ATOF parameters referenced in Eq. (1) are defined below: λ = Wavelength ∆n = Refractive index va = Velocity of the acoustic wave fa = Frequency of the acoustic wave α = Geometry of CrystalThe process of image acquisition at different frequencies is controlled by the LabView. Initiallythe frequency is set from the front panel and the user can click on run camera from the frontpanel to acquire an image at this frequency and save the image in TIFF format. This process isrepeated
the motor torque and power of the lathe with respect to the depth of cut in real time and studyof these for different materials and different tools are goals of the Labview application.The development of the project is described and the results from the Lathe instrumentation areenclosed and discussed. Inquiry based and advanced features associated with the project thatcould enable examining student understanding of data acquisition, interfacing, sensing andprogramming at the end of the project are highlighted. Utilization of the project as part of the ETand Manufacturing curriculum is highlighted. The scope of future work is presented.1. IntroductionPC based instrumentation has been widely accepted as a very effective means of measuring
of problems and entered the solutions, the work wasimmediately evaluated and the results printed on the student’s screen. Since the numbersin the problems are variable, the student was able to try other versions of the missedproblem by requesting a new set of homework problems. Each time, the server created anew set of problems with new solutions, allowing drill and mastery learning. Final scoreswere submitted to the course instructor.IV. ImplementationIV. i. SoftwareThe software used for this project was Test Pilot; a Java based authoring programdeveloped at Purdue University. Figure 1 shows the opening page for the Test Pilotsoftware. (Note: Test Pilot is currently in use at over 175 institutions worldwide. Theyrange from commercial use
, or some combination of all ofthese and more. This paper describes what is meant by each of the above, and then looks at howeach of the above topics are presented in the design course.II. Project DefinitionThe question that must be answered during this phase of the design project is "How will weknow when we are done?" A very good reference book for this and other aspects of projectplanning and execution is "Getting the Job Done" 1. Success in this phase of the project will notinsure the success of the project, but doing a poor job will insure some degree of failure or atleast much wasted effort. This process takes much time and energy and is typically thought ofas non productive work by the students and many practicing engineers. A primary
Session 3613 LEADING UNDERGRADUATES ALONG STRUCTURED PATHS TO THE BUILDING OF GOOD PROCESS MODELS Alan S. Foss1, George Stephanopoulos2 1 Department of Chemical Engineering, University of California, Berkeley, CA 94720 2 Department of Chemical Engineering Massachusetts Institute of Technology, Cambridge, MA 02139 ABSTRACT Students are led to crafting a process model before writing any equations. This isaccomplished by leading them through a structured modeling methodology
Session 1668 Learner-Centered Educational Software for Constitutive Modeling of Soils Timothy Robert Wyatt, Emir Jose Macari Georgia Institute of TechnologyAbstractAn educational software package has been developed and tested for its potential to conveyaspects of constitutive modeling of soils to civil engineering undergraduate and graduatestudents. The software accounts for tenets of learner-centered design (LCD): (1) the software isintended to encourage individual exploration; and (2) students are expected to experiencepersonal growth through
are presented. Undertakings by some local companieswhose employees attend evening and day classes are described. Some discipline-relatedtechnical and non-technical skills are examined in relevance to traditional and non-traditionalstudents. Learning environment with a mixed population is also described from the point ofview of benefits to traditional, non-traditional students and faculty.1. IntroductionPeople with some work experience become students for the first time, or return to a universitydue to various circumstances dictated largely by their economic situation and personal goals.Growing demands of work environment for a more skilled employee and more updatedknowledge also play an important role in decisions to attend a university
linear algebra, single degree of freedomspring, bar element, beam element and industrial applications of FEM. These modules can beaccessed by students and engineers twenty-four hours a day since they reside on a World-WideWeb server. This paper will review the format of the bar and beam element learning modulesand the experiences of the first author in integrating all five modules into the introductoryundergraduate finite element course at WPI. The issue of student feedback is also addressed.1. IntroductionThe Internet/World-Wide Web (WWW) is emerging as a new medium for transmittinginformation globally, created in multimedia form. Engineering educators have been using theWeb the past few academic years in courses, for posting course guidelines
engineering management we struggle with the wide breadth of material that our students areexpected to learn, and new material is continuously identified as key to their education. Howeverwe are constrained by market forces to limit the length of our degree programs. We, aseducators, have several options: 1) reduce the depth of the material we cover, 2) eliminate someof our core material, 3) ignore some of the new material or 4) find methods to improve thelearning the effectiveness of our students’ learning. Other fields of engineering education as wellas technical training programs face similar pressures to improve learning effectiveness.However, there are opportunities to make some of these needed improvements
. Student perception on the use of interactive video conferencing in Biomedical EngineeringTechnology education. Proceedings of the 1997 ASEE Conference, session #1149Newport C and Elms, D, 1997. Effective Engineers. International Journal of Engineering Education, vol 13, pp.325-332.Steiner C., 1998. Education for innovation and management: The engineering educator’s dilemma. IEEETransactions on Education, vol 41, pp. 1-7Xu Y, Wald A and Cappiello J, 1997. Effective communication in the biomedical engineering department. Journalof Clinical Engineering, Vol 22, pp.328-334Zimmerman D, Palmquist M and Muraki M, 1998. Students as WWW Surfers: A brief look at students and theWWW. Proceedings of the 1998 Int. Professional Comm. Conf., pp. 285-232ALBERT
purchased several SME Manufacturing Management videotapes that I show inclass.3. Assigned Projects with Emphasis on the Team WorkIn this class two projects are assigned to students:1. CAD-CAM project2. Ergonomics design group projectThe CAD-CAM project involves the Dyna numerically controlled milling machine and MasterCam CNC software. This project gives mechanical engineering students a hands-on opportunityto use our well-equipped automated manufacturing laboratory and learn about numericallycontrolled machines and Computer Aided Manufacturing. On this project two students work as agroup, designing and manufacturing two matching parts of dies that have close fit tolerances. Iexplain in class very briefly the principles of CNC, then students learn
and have become interested inlearning math and physics through creating with the bricks. In this paper, we outline some of thecourses that use the bricks and how they have improved the interest and education of students ofall ages.I. IntroductionFor the past ten years, faculty members from the college of engineering at Tufts University havebeen teaching engineering to students ages 3 to 30. About five years ago, NASA funded Tufts todevelop engineering curricula centered on aeronautics for this age group, starting the LEGO DataAcquisition and Prototyping System (LDAPS)1. Our main goal is to present students with a fullengineering design project (construction of an airport, for example) and teach math and science -as well as reading and writing
,researchers should consider the overall assignment, and not individual elements, whendeveloping research programs in this area.For engineering educators, it is important to understand and explain these organizational andcultural variables to students who are very likely to face the challenge of an expatriateassignment sometime in their careers. This paper provides details of the model to assist facultyin that endeavor. Page 4.530.1 Figure 1: The Life Cycle of an Expatriate Assignment Organization determines need
knowledge learned from different courses, suchas electrical system design and computer-aided manufacturing. Finally, the final product fromsuch a project can be used as a demo for prospective students, parents, and visitors; as a projectcandidate for future groups of students; and as an instructional tool.1. IntroductionThe primary objective of this paper is to demonstrate that ladder diagrams and icon-basedprogramming can be integrated in automated storage/retrieval system (AS/RS) design. An AS/RS Page 4.103.1is a good representation of integrated automation technology in automated storage systemdesign1. However, it is costly to purchase or
system identification throughimplementation and tuning of a PD controller. This design project has been integrated into thejunior level curriculum in the Systems Engineering department at the United States NavalAcademy.1. IntroductionIt is well known that classroom discussion of the theory of control can be greatly enhancedthrough appropriate experimental investigations. Students unable to grasp the concepts offeedback and system response through lectures are often more receptive to hands-ondemonstrations and investigations. Further, many topics relating to the process of system designare difficult at best to teach in a lecture format. It is extremely challenging to motivate in theclassroom the difficulties of real implementation of control
profile of the students in the FC group, a matched comparison group of freshmenstudents (called the non-FC group) was chosen at each campus. ASU selected its matchedcomparison group by sorting through the list of incoming freshmen students and selecting thosewho were: (1) enrolled as professional engineering students in one of the degree programs in theCollege; (2) taking at least the same course load as were the FC students (i.e., 13 hours or more);and (3) enrolled in at least three of the same courses in which the FC students were enrolled.Additional categories included high school GPA, SAT and ACT scores, and ethnicity. RHITselected its matched comparison group based on a predicted index formula that included GPA,SAT scores, high school rank
employed totemporarily reorganize a large College of Engineering and Technology to accomplish a specificset of tasks. This reorganization, based upon the principles of matrix management, resulted in acomplete re-engineering of the College’s programs and curricula. The results, achieved byfaculty working in cross-functional teams are now institutionalized in the catalog and beingexecuted. More importantly, the results were achieved in one academic year.1. IntroductionI accepted the opportunity to become Dean of Old Dominion University’s College ofEngineering and Technology in the Spring of 1997. During the interview process and as a resultof numerous discussions with faculty and university level administrators, it became obvious thatone of my
. Page 4.372.3 Duration of Engineering Program 100 80 % of Total Reviewed 60 Schools 40 20 0 3 4 5 Duration of Program, YearsFig. 1. Duration of Marine Engineering ProgramsAs might be judged from the limited information available, there are just a few countries, likeChina, Indonesia, Netherlands, and some others, where economics and management became anintegral segment of the maritime engineering curriculum. Particularly noteworthy is the Dutchtraining system for integrated officers. Their program includes a
. Students lack of familiarity with effective conflict modelsalso contributes to the avoidance of conflict, and when it does occur, to the increased likelihoodof destructive outcomes. One model that I’ve found very helpful is a dual concern model (goaland relationship) that had its origins with the Blake and Mouton managerial grid (Blake andMouton, 1964; Blake, Shepherd, &Mouton, 1964).Conflict StrategiesJohnson & Johnson (1991) created thegrid shown in Figure 1 describing fiveways for approaching conflict dependingon the relative importance of the goal andthe relationship. They also created asurvey to help individuals recognize theirpreferred approach to conflict (seeJohnson & Johnson, 1995 or Smith,1999).An elaboration on each of these
, diagnostic assessment,prescription, and postassessment.Properly structured objectives are vital for mastery learning. Objectives represent what theinstructor wants the learner to be able to accomplish when completing a course. Theseobjectives should be measurable to a predetermined standard. Bloom’s taxonomy is a good toolto use when constructing objectives [1]. Careful analysis of subject matter should revealobjectives that fall within the cognitive, affective, and psychomotor domains. Higher-orderobjectives should be used when possible but not at the cost of having an objective that is notmeasurable. Important while developing objectives is establishing a minimum pass level. Manysubjects will have nothing less than flawless work as the minimum
. Little is said about the concept of forms or about the importantaspects of forms. There is more to know about forms than how to change forms. Form changesshould be treated as tactics in the strategies of analytical problem solving. This paper describesthe principles concerning forms, which are usually omitted from the appropriate texts, and theimportant place of forms in the strategies of mathematics.1. Principles of Mathematical Forms • It is natural for mathematical objects (integers, rational numbers, other real numbers, functions, vectors, linear transformations, complex numbers, tensors, etc.) to have more than one form. • There is no best form for all purposes. • Useful special canonical forms are found sometimes. • We should
precalculus and the remaining 40% start below precalculus. The decision was made to pilot a curriculum with students that are ready for precalculus. The curriculum was to expose students to engineering from the start of and in every term during their college careers. Concurrent classes were to support each other. Intended consequences of better preparation and a streamlined curriculum are higher success and retention rates, higher quality graduates as well as shorter times to graduation. Designing this integrated engineering curriculum is a major undertaking with many features. In this paper we will focus on two of our objectives, namely 1) The introduction of key theoretical concepts “in context”, and 2) The elimination of
typical civilian college.B. IED Course ObjectivesThis, then, is the environment in which we present IED. The course has several objectives,among which are to:• teach cadets a formal, systematic method for problem solving and design.• introduce cadets to the four engineering majors offered at the Academy, as part of a larger program to assist them in making an informed choice of major.• familiarize cadets, including those who will not themselves become engineers, with the vari- ous roles which engineering and engineers perform in the Coast Guard at large. Page 4.20.2The course concept diagram (Figure 1) shows the key elements of the
Engineering Science program since its inception in the 1960s. From those early beginnings,courses in engineering design have been in the engineering science core—courses with group-oriented projects be-ginning with the first semester and culminating in the senior year with a full year project that builds upon the entirecurriculum.The nature of the design element in the engineering science curriculum has evolved considerably in the thirty yearssince its inception. In the early 1990s, the Department reviewed the design components of the curriculum and redi-rected the emphasis on design to the entire engineering core [1] [2]. Rather than treating design as a separate com-ponent of engineering, the approach adopted by the Department tries to incorporate