, technology in the classroom and assessment. Curriculum integrationat UA necessitated cohort scheduling because the content of the new integrated FC math, scienceand engineering courses, although equivalent to the traditional curriculum as a whole, weredifferent individually than their traditional counterparts. Thus, students were required to takeeither all of the FC courses or none of them. Active learning was usually implemented in the classrooms by means of team exercises.Students were assigned to the same four-person teams for all of the four courses (chemistry,mathematics, physics and engineering). Team homework assignments and projects were alsofrequently assigned. Although teamwork was not one of the primary four thrusts of the FC
efforts of research faculty or their institutions,rather it serves to strengthen the professional education mission of universities. Newengagement mechanisms of non-traditional graduate education programs provides closerinteraction and engagement with industry through the integrative combination of needs-driven directed research. Full-time employees in industry are an untapped lifelonglearner who can meet the needs of graduate professional engineer faculty in almost anygraduate program. Developing adjuncts as full members of the graduate educationfaculty will occur through the development and implementation of unique university-industry-government collaborative partnerships. By working together in newengagement mechanisms to strengthen real-world
, Professor Mike Anderson, Dec. 2000.2. Elger, D.F., S.W. Beyerlein, and R. S. Budwig, Using Design, Build and Test Projects to Teach Engineering, Proceedings of the 2000 Frontiers in Education Conference, Kansas City, Missouri, Oct. 2000.3. Foss, J. F., Basic Elements in a Fluid Mechanics Laboratory Experience: An Engineering Science Approach, Journal of Fluids Engineering, Vol 110, Mar 1988, p 9-15.4. Lasher, William C., Jack H. Young, and Richard C. Progelhof, A Plan for Integrating CFD into an Undergraduate Curriculum, Final report submitted to the National Science Foundation, Grant # DUE-9651218, www.pserie.psu.edu/cfd/index.html, Jan 4, 2002.5. Novak, J.D., Gowin, D.B., Learning How to Learn, Cambridge: New York, p. xi
required e lective courses rose from50% to 80% over a four-year period. For this reason, DSP-oriented labs and senior designcourses have become very popular in recent years. A number of these courses focus onprogramming of DSP chips: typical examples are given in [2,3,4,5,6,7,8].This paper describes the implementation and assessment of a DSP-based laboratory course that istailored to the particular needs of students at Worcester Polytechnic Institute (WPI). In 1970,WPI developed a unique outcome-oriented, project-based engineering curriculum, referred tolocally as the WPI Plan [9]. The WPI Plan is distinguished by several features: · Courses are offered in four seven-week terms, identified by the letters A, B, C, and D. Students
Copyright © 2002, American Society for Engineering EducationStudents start by taking an intensive course in applications of computers to engineering. In thiscourse they learn how to use the computer to solve engineering problems. The course involves aproject selected by the student, combining computer languages, databases, data acquisition, andspreadsheets.Computer modeling is an integral part of the program. Students start with a visualization courseand two courses in computer-aided design, followed by a course in 3-D modeling. These coursesinclude the most common CADD software packages: MicroStation, AutoCAD, and 3D Studio1.The latest version of software is always used in these courses.There are two courses in structural analysis, the first one
favorspresent worth methods as much for their simplicity as for the foundation that PW provides thealternative methods.At an earlier ASEE conference, Hartman 6 spoke of an engineering economy curriculum that isgrowing stagnant. His suggestions to enhance the curriculum included teaching engineeringeconomy in the context of decision analysis and design processes, and also to integrate researchadvances. Nachtmann5 and others suggest that an increased emphasis be placed on case studies.But these are more, not less. While beneficial, such integrations will increase the challenge foreducators to identify and sufficiently cover appropriate topic areas that best serve our students.So, how should we proceed? We can begin by identifying the redundant, the
acore curriculum for all cadets that establishes a foundation to leverage in considering social,economic and political dimensions of a problem. All cadets take courses in economics, socialscience, and political science. However, this allows us to work at a higher level of detail, butdoes not mean that others could not introduce and discuss ideas related to social, political, andeconomic principles. As educators, this represents a challenge to many faculty members, takingus out of our comfort zone of science, while requiring us to prepare to teach in different ways.Summary Environmental security is an issue of growing importance in the world, one that shakes atthe foundations of world peace. The best example that can be offered is
according to specifications provided by the instructors. Finally, each stu-dent was directed to develop a teaching unit that integrates some of the concepts of scientificinquiry and application discussed in the course into their 7-12 teaching. This paper describes ourMasters program, provides an outline of the course titled “The Engineering Process,” andpresents results from our first offering of the course.IntroductionThe precollege education system in America is currently under pressure to adopt standards-basedcurricula. Outcome assessment of learning is of paramount importance in this new educationalclimate. Nearly all of the national standards in math, science and technology include standardsrelated to the inclusion of “real-life” applications
, Curriculum andLaboratory Improvement Program under grant DUE-9952577. Southern Illinois UniversityCarbondale College of Engineering, College of Mass Communication and Media Arts and theMaterials Technology Center provide additional support. In addition, a faculty member from theCollege of Education is involved with the assessment of the project. In addition, assessment anddevelopment is supported through an industry partner. It is hoped that the final product will serveas a national model for a diverse range of university environments. Strength of Materials or Mechanics of Materials is a second-semester sophomore or first-semester junior level engineering class, and is required for all civil engineering majors, as well asmost other engineering
questions have been used to teach andassess conceptual understanding in mathematics and science education. 25-29 Now, thesetools are being applied to humanities and social sciences, and to some extent toengineering education. 30-33Concept maps are useful for identifying and organizing concepts and their relationships toeach other. A concept map is a two-dimensional, hierarchical node-link diagram thatdepicts the structure of knowledge within a scientific discipline as viewed by a student, aninstructor, or an expert in a field. 34 Cornwell has used concept maps for defining bothcourse-level and curriculum-level content in mechanical engineering. 35 He finds thatconcept maps help students establish connections between the various topics and
manufacturing processes that they mightencounter as part of their cooperative work experience. The revision of the curriculum in 2001caused a redesign of the course and added some design experiences to further enhance theeducational process. This paper discusses the development of the new course calledInterdisciplinary Design and Manufacturing and discusses relationship of course coverage to theSME competency gaps. The manufacturing portion describes the lecture topics and laboratoryexperiments that were an integral part of the course. The mechanical and electrical designportions describe the use of commercial toys and a self-designed toy platform that formed thebasis of the new design laboratory portion of the class. It will be demonstrated that it is
academic needs ofa regional, place-bound population. Our students are also non-traditional from the perspectivethat the majority are ethnic minorities, first in their families to attend college, and balance theiracademic lives with required part-time, and sometimes, full-time employment. With so manyactivities, our students tend to minimize their time on campus, and unfortunately, minimizing theutilization of academic support activities.Research findings support the fact that efforts to foster academic and social integration areespecially important for commuter students [3] . A sense of community plays an important role inretention. Campus integration can be achieved by providing students with an academic andsocial environment that enhances
provide a tutorial for future studentson how to use GIS to extract the watershed parameters needed for hydrologic modeling. Shewill also be presenting her work at the 2002 ASCE conference on Water Resources Planningand Management.Implementation of Curricular ImprovementsThe strength of the project is that local field exercises instill a sense of excitement andenthusiasm for curricular assignments that were formerly merely textbook cases. Thephysical connection to the site ensures that the students will regard their data as having real-world implications, not as cooked-up examples. The geosciences have a long history offieldwork as an integral part of curriculum; however, this has not been the case in the field ofcivil engineering, even in a
should be set in such way that permits some degree of imprecision in thework done.Sigma levels of performance are expressed often in Defects per Million Opportunities (DPMO)For “typical” shift of a process mean from a specification for every 100 product units, 93.32 ofthem will have desired characteristics that fall within m 3 σ. This corresponds to approximately66,800 defective units per million of the products for m 3 σ. For the m 6 σ process performancethere is only 3.4 DPMO. However, improvement from a three to a four sigma quality level is notthe same as an improvement from a five to a six sigma quality level. A shift in sigma qualitylevel from five to Six Sigma is a much more difficult improvement effort than a shift in sigmaquality level
disciplinesin a course on Welding Engineering and Design of Welded Structures by:1. Creating courseware for use at the upper senior level and developing it further by taking advantage of recent innovations in scientific research and instructional technology;2. Laying the foundation for developing a new graduate course that provides for an integration and synthesis of mechanics, materials technology, manufacturing and design;CURRICULUM DEVELOPMENTThe new course seeks to emphasize on the relationship between applied mechanics and materialsscience while teaching the science of welding and the total design of welded structures. As willbe evident from the course content, it is an interdisciplinary course covering areas of mechanics,materials science
research and design. The classes at SJSU in this combined department haveconsistently required the integration of comprehensive literature searches into their classprojects. The current curriculum of the College of Engineering has been designed withextensive input from industry and guidance from ABET (Accreditation Board forEngineering and Technology). This curriculum reflects a strong component of criticalthinking throughout the engineering classes. The program objectives of each departmentcarry out this commitment. Page 7.491.2 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition
discussed.Bioengineering Curriculum at Rice UniversityThe Bioengineering undergraduate program at Rice University is designed to prepare studentsfor careers in the rapidly developing areas of biomedical engineering and bioprocessing. Theundergraduate educational program in Bioengineering has the goal of producing a new type ofbiomedical engineer, fully conversant with modern biochemistry and cell and molecularbiology.1-2 This type of biomedical engineer translates bench-scale scientific advances inbiological sciences into cost-effective new products and processes. New and innovative curriculain lecture and laboratory courses are being developed to educate bioengineers who not onlycreate new tissues and cell-based therapies but also deliver them at a cost
, 11, and as a dynamic textbook 12. Recently, interactive multimedia have beenintegrated with expert system technology producing intelligent tutoring systems for engineeringstudents 13-16 . These intelligent tutoring systems "learn" about the individual student and cantailor the material to meet the needs and the learning styles appropriate to the individual student.The goal of the Interactive Multimedia Intelligent Tutoring System (IMITS) is to develop anintelligent tutor for an introductory sequence in electrical circuits and systems. The frameworkdeveloped for this system is to be transferable to and used by any discipline, not onlyengineering. The project has as its major goals to:1) Develop and integrate the components necessary to form
Session 1566 A Micro-Controller Based Robotics Course for ME Students Wayne Walter, PhD, P.E. Gleason Professor of Mechanical Engineering Rochester Institute of Technology Rochester, NY 14623IntroductionFor many years the emphasis of our robotics course has been on projects where students design,build, and test tooling to accompany an industrial robot in a workcell. At the end of a ten-weekquarter, students were expected to demonstrate a working prototype that integrates sensors,actuators, and feeders together
." --Mel Collier, International Symposium on Research, Development, and Practice in Digital Libraries 1997AbstractThis paper examines how digital libraries (DL) may be integrated into the learning resources ofengineering students. The advent of digital libraries has opened revolutionary opportunities inengineering education. The diversity of resources offers rich opportunities to enhanceengineering education, providing access to data, codes, problems and information that are farbeyond what each individual teacher has time to develop. However, students are largely unawareof the DL resources, as well as the most efficient manner to utilize them. Learners still require adisciplined study scheme and
its application into real engineering projects [Innovative Design].The first two of the stated objectives were identified as the two most important elements that anemerging engineer needs to know in the National Science Foundation sponsored - AmericanSociety of Mechanical Engineers’ report, “Integrating the Product Realization Process into theUndergraduate Curriculum.”Issues to be resolved by faculty membersThe faculty members who participate in the multi-disciplinary design activity must be devoted tothis effort and work to overcome the impediments to teaming. The faculty members shouldparticipate in the multi-disciplinary capstone activity because they believe that the studentsreceive benefits that cannot be obtained in a single-discipline
: Assessing the Impactof Writing as a Multi-Function Design Tool, outlines a two-year project to developmethods of assessing the effectiveness of engineering students’ use of writing as a designpractice. Engineering educators have long recognized the importance of effective writtencommunication skills, and many programs have incorporated an emphasis on writtencommunication within their curriculums. Indeed, the ABET 2000 criteria not onlyemphasized writing skills but also specifically located responsibility for writinginstruction within the engineering program itself: Competence in written communication in the English language is essential for the engineering graduate. Although specific coursework requirements serve as a foundation for such
implementation with integrated circuits, power supply limitations, and physical size constraints will govern which of several proposed systems is an optimum for any particular application.B. Oscillator and Other Transmitter Non-linearities • Inter-modulation and Cross-modulation and noise up-conversion • Receiver Single/Double Conversions versus local oscillator choices • Transmitter noise modulations considerations All physical devices are non-linear. Whether any non-linearity affects a system depends on the system architecture. In this module, the student will consider power dissipation versus Page 7.6.6 Proceedings of the
tocomplement the existing emphasis on disciplinary depth.To this end, the College of Engineering began efforts to integrate the student-centered activitiesin those parts of the curriculum where they could provide the greatest benefit. The first majoreffort was to restructure the first year curriculum for all students who intend to enter the Collegeof Engineering in their second year. This included the development of a new two-coursesequence entitled “Introduction to Engineering Systems.” (These courses are designated asEG111/112 and will be referred to as such in this paper.) These multidisciplinary coursesintroduce engineering students to the role of engineers in society, and illustrate how engineersdesign systems and solve problems. This is done in
captures the degree to which anindividual uses each of four learning patterns. Through these patterns the learner represents howhe or she sees the world, takes in stimuli, integrates the stimuli and formulates a response to it.An individual can begin his or her learning with a particular pattern or patterns, use patterns asneeded, or avoid them. Teams were then created in order to maximize individual and collectiveuse of learning patterns. This paper will report1. The results of the initial study conducted during the Fall 2001 semester.2. An overview of the patterns that resulted from the administration of the LCI to all Freshmen and Sophomore Engineering students at Rowan3. Examples of the patterns of the teams that were assigned (to show how
); as an upper-division andgraduate level course (primarily to engineers); as an intensive “Intersession” class (8 day and 10day format); and as a short course for faculty. The class is based on a “creative system”,developed by the author, which codifies the techniques she developed over a 30-year managementcareer. The class builds on the NASA Systems Engineering process, which was developed by ateam, led by the author in the early 1990’s1. Many references (see Bibliography for a sample)were used to support the experienced-based course design. While there are numerous coursesavailable in elements of this class (e.g. senior design classes), to the author’s knowledge there areno other classes which integrate all the pieces into an overall process
the FFT. Because of the placement of the course in the Page 7.58.4 "Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Education"curriculum, most of the students have not been formally introduced to the mathematical basis ofeither the Fourier series or the Fourier transform. Therefore, the experiment is performed usingstandard mathematical software and test cases to insure the students are using the softwareappropriately. Therefore, the first part of each semester's experiment involves plotting an knownsinusoidal
Infusion of international issues into curriculum at participants’ home institutions Increased collaborative teaching, research, and service activities between Page 7.945.3 US and European engineering educators Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering EducationThe electronic conferenceGearold Johnson, Academic Vice President of the National Technological University andRussel C. Jones, managing partner in World Expertise LLC, designed an electronicconference that took the form of a
© 1991 pp. 662-6646. Palmer M. A., Wnek G. E., Hudson J. B.: New Approaches for an Introductory Materials Science Course; ASEE Materials Division 1998 Conference7. Pollio H.: What Students Think about and Do in College Lecture Classes; Teaching-Learning Issues (53) University of Tennessee Learning Research Center, ©1984 [Referenced from Holou et al: First-Year Integrated Curricula: Design, Alternatives and Examples; Journal of Engineering Education, ©1999 pp. 435-48]8. Eastlake C. N.: Tell Me -I’ll Forget, Show Me - I’ll Remember, Involve Me - I’ll Understand; Proceedings ASEE Annual Conference, ASEE, Washington DC, ©1986, pg. 420.9. Bloom B. S. and Krathwohl D. R.: Taxonomy of Educational
http://www.utep.edu/green) and student development. The green engineeringbuilding design contest is a student development activity that strengthens the bondbetween our commuter students and the University community that serves them.Figure1. The Green Engineering Building Contest is an example of the activities thattake place in the MIE academic support model.Impact on the design of the Engineering AnnexSince integration of green engineering concepts into the design of the Engineering Annexwas a late addition to the construction project of which the budget, location, space, andbuilding functionality were already defined and approved by the Board of the Universityof Texas System, only designs that would not affect the already defined