because of (A) Strain Hardening A 52 100 (B) Preipitation Hardening B 0 0 (C) Grain Size Hardening C 0 0 (D) None of the choices shown D 0 0L3/Q8 For lattices with BODY-CENTERED point arrangement and a crystal basis of one N 52 100 atom per point, the permitted x-ray reflections are from planes that have Miller indices where (A) any h or k or l is permitted
. Therefore the students had tochange their role. After the development of the cognitive structure they had to use thisknowledge to analyze and evaluate the written knowledge of other learners. In “Bloom’sTaxonomy – learning in action” [4] the educational objective describes in its hierarchy theanalysis and the evaluation as its upper levels. Due to this the students had to raise this level andchange from the learner into the role of a teacher respectively an expert. The amplifying of thestudents examples also asked the students to reflect their still existing example as well as thesolution. This reflexive and evaluative analysis of the work helped to tighten the cognitivestructure and the mental model. After amplifying the example the students got a
selection ≠ Individual student GPA in project course compared to their overall GPA ≠ Gender differences ≠ Professional skill sets developed in course components ≠ Research and teaching partnerships developed with industryProject diversity and selection: Page 14.973.8The variety of the research projects over the years has been wide reflecting the nature of theNatural Resources Engineering programme. Many projects were concerned with finding moresustainable solutions to managing urban stormwater, municipal wastes, land erosion andsediment transport, energy efficiency in buildings and river engineering. Usually projects wereprescribed
, and neuroprosthesis. The instructors of these specificareas were consulted to determine how these scores can be improved for future class offerings.6. ConclusionThis paper has described the development of an artificial organ design course at the PennsylvaniaState University. The objectives of this course are to understand engineering design and problemsolving techniques, become familiar with various engineering issues surrounding the design ofartificial organs, understand the process of obtaining regulatory approval for artificial organs,and apply these techniques and knowledge to the design of artificial organs. The current offeringof this course in the Spring of 2006 reflects this continuous development.AcknowledgementsThe authors would
following topics: Ü A view of E&M theory from a physics and engineering perspective Ü Sources of electromagnetic noise and shielding methods Ü Transmission line phenomena particularly with regard to high-speed digital system Ü General antenna theory and antenna propagation patterns; e.g. for cell phone applications and WiFi. Ü Basic plane wave phenomena such as reflection, transmission, and absorption characteristics at interfaces.Surprisingly, there was almost no external demand for our undergraduates to understand generalwave-guide theory. This was considered to be a more ‘advanced’ topic. With regard to appliedskills, a basic proficiency in the following was considered desirable. Ü Ability to perform E
alone. We explained to the students that, intheir professional careers, they will often run across those who do not share the load equally butthe job must still be done and, if done poorly, reflects on everyone on the team. We consideredthe possibility of using peer reviews of the teams when we assigned grades but so far have optedto give the same grade to each team member. Figure 3 shows that, in spite of the few problems,most of the students thought everyone contributed. Page 11.932.9 Everyone in my group contributed to the case study presentation. 20
leadingcorporations and National Laboratories, and as entrepreneurs. In Hispanic BusinessMagazine recently, UTEP was named Number One in the Top Ten Engineering Schoolsfor Hispanics [1]. Clearly, UTEP produces a large number of high quality baccalaureategraduates.1 This material is based upon work supported by the National Science Foundation under Grant No. DUE-0411320. Any opinions, findings, and conclusions or recommendations expressed in this material are thoseof the author and do not necessarily reflect the views of the National Science Foundation. Support was alsofrom the PACE program (www.PACEpartners.org) and the author gratefully acknowledges their support
science, engineering, and technicalworkforce and to bring best practices to communities nationwide.3 The report describes ashortfall of scientists, engineers, and other technically skilled workers.Much research literature documents the under representation of women in science, technology,engineering, and math (STEM) disciplines, linking this problem to the attitudes and behaviors ofgirls from elementary school through graduate studies and employment. The studies reflect aclear gender distinction at all ages,4,5 showing that as girls grow older, there is steady decline inthe number expressing interest in STEM subjects, and a corresponding decline in the numbers ofwomen entering higher levels of study. Numerous programs proposed, and implemented
theeducational basis of PBL. The main supporters of the cognitive theories are Jean Piagetand Robert Gagne. The implementation of the PBL activities involves instructorguidance, reflection and motivation as well. Constructivism is an off chute fromcognitivism where theorists believe not all information is known and there isn’tnecessarily one truth to all questions. Constructivist philosophy believes knowledge isbased on experiences and one must construct their own meanings. John Dewey, born outof a progressive philosophy, believes in social constructivist psychology, because he isconcerned with the process rather than the end product of the curriculum (Dewey, 1916)4.Cognitive teaching involves problem solving, cooperative learning and discoverylearning
the time table. • Divide work fairly and do not be unfair, such as changing team meeting recorder, reporter, or even team leader over the project. • Criticize ideas without criticizing people. • Differentiate where there is a disagreement within the group. • Integrate a number of different ideas into a single position. • Ask for justification for a member's conclusion or answer.Those teamwork skills shown in team progress reports, final reports and presentations werereflected in teams’ and team members’ grades. Learning attitudes reflecting life-longlearning skills such as hard-work and desire for learning were emphasized in the course,which was graded at 10% of the total grade and graded at 15% for projects
that solvent used in the process.A weighted index was established to measure which solvent would be more applicable for a Page 11.671.6particular process. Each metric was scaled and summed to generate an overall index dependentupon amount of solvent used in the process. To accomplish this, each parameter was normalizedfrom 0-1 so that the lower numbers reflect greener material for a given category. These valueswere then summed by a weighting factor to stress the category of greatest concern. Toaccomplish this, each category (i.e. Ingestion toxicity, biodegradation, aquatic toxicity, etc.) wasinitially weighed on a log scale with a log base
author and Page 11.95.2do not necessarily reflect the views of the National Science Foundation. Support was also from the PACE program(www.PACEpartners.org) and the author gratefully acknowledges their support. Many of the UTEP faculty believe hands on experience is one component of an excellentcurriculum. Ohland et. al. [1] makes a good case for this position and the author does not arguewith the point. As far as control labs are concerned there continues to be excellent discussion onimplementing technology with hardware [2]. This paper has a different focus and that is to usegraphical simulations of mechanical devices to
programs in that we know with relative certainty the likelyfuture employment paths for our graduates. Because of this unique understanding, we have agreat responsibility to the Coast Guard and to our students to prepare them for their futureemployment in service to our taxpaying nation. It is in this context that we pursue our shipdesign sequence following the guidance provided by the ABET Accreditation Criteria.It is interesting in our case to reflect that the ABET emphasis on academic design experience ispresumably motivated by a need for graduates to be prepared to do design work as practicingengineers. In contrast, in our program, the design sequence is very important because we knowour graduates will likely experience hands on design work
ofadditional funding. Over this time, a number of different approaches to leading the changeprocess have been applied. In reflecting on our experiences, it is apparent that we employeddifferent approaches to facilitate change depending on the circumstances, in a sense applyingsituational leadership, and also that our change model has evolved much along the linesdescribed by Clark et al.,2 shifting to a model that always has the question of how we willsustain an innovation built in from the outset.To write this paper, we have selected projects from which we drew significant lessons about theprocess of implementing and sustaining change. For each, we briefly summarize the approach
bend the beam with the appropriate displacement.Based on the mathematical model developed to simulate the real beam experiment, the outputstrain and voltage values appear on the screen of the strain gage indicator.ConclusionThis paper presents the development of a virtual laboratory which enhances the students'understanding of physical concepts by providing a high degree of immersion within richinteractive learning environments. The experimentation system integrates dynamic andinteractive simulations in stand-alone and Web-based environments. During the experimentationphase, changes in parameters and variables are immediately reflected in the graphical userinterface. Thus, the students can visualize in real time how the model behavior
. International practical training isessential for educating tomorrow’s engineering leaders. The need for globally-minded engineersis no longer the question; the new question is how to prepare today’s engineering students for theworkplace. International engineering co-op and internship programs allow students to gain globalcompetencies required by today’s industry. Such programs assume various forms but sharemany of the same benefits and challenges.IntroductionABET criteria for accrediting engineering programs specifically states that students must attain“the broad education necessary to understand the impact of engineering solutions in a global,economic, environmental, and societal context.”1 A reflection of the changing role ofengineering, such
of vibration analysis. The instruments arealso familiar to the campus students from experiments carried out in the traditionallaboratory comprised in e.g. the undergraduate signal processing courses.The experiments in the remote laboratory is designed to reflect on authentic vibrationproblems in the manufacturing industry, e.g. vibration in metal cutting processes.5, 6, 7The object under investigation is a boring bar used for metal cutting in a lathe. Vibrationproblem associated with this type of process is considered to be an important and criticalfactor concerning the performance of, the tool life, the surface finishing, etc. whichfinally ends up on the production cost negatively. Since it is shown that vibrationproblem originates from the
project jointly (Boronkay et al., 2002; Jones et al., 2002). Some of theadvantages noted by those authors include the following:• Increases technical skills.• Teaches teamwork over international borders.• Links two teams over cultural boundaries.• Provides international experiences for students who cannot afford to travel.• Reflects modern reality that products are designed in one country and manufactured in another.• Teaches international project management.• Teaches communication through technical media.Those authors also noted the following disadvantages:• Partner schools must acquire computers, workstations, and communications tools.• Difficult to coordinate the design effort.From those papers, we observed the following additional
interactive” … “Encourage more class involvement”Incorporating any of these suggestions will involve additional time outlay from the class, yetwill likely enhance the quality and variety of the OMEs. Professors can make their owndetermination of which adjustments are appropriate according to their own course schedule,class dynamics, and timing.Professors. As educators, a few additional advisory thoughts emerge from the data, feedback,and our reflection on the OME to further improve it as a design course asset. Some furthermodifications may involve the following: (1) Identify the main objectives clearly to thestudents at the beginning of the semester and emphasize supplemental goals for the OME,beyond the details of administration and assignment
Page 11.381.9 Proceedings of the 2006 American Society for Engineering Education Annual Conference & Exposition Copyright © 2006, American Society for Engineering Education interdisciplinary team has a complexion that extends beyond selecting individuals to participate. 6. Our historic Program has its roots in a 30-year old vision not far removed from that more prominently stated in Engineer of 2020; self-reflection promoted by this project has reaffirmed our institutional commitment to the principles, values, and perspectives of our mission statement: ….to provide a select community of CSM students the enhanced opportunity to explore the interfaces
students to demonstrate the resourcefulness and initiativeto define problems and design solutions. As is happening in engineering schools across thecountry, a realization is dawning that students cannot learn to be engineers simply by listening tolectures and working textbook problems. Ninety years after the publication of Democracy andEducation, in which John Dewey laid out a case for the importance of education in preparingyoung people to participate in public life and “alter conditions,” engineering education isbeginning to recognize that experiential learning is the core of true education.27Tramba’s personal experience reflects the potential impact of creatively integrating hands-onexperience into the engineering curriculum. During her summer
the results were farbetter compared to the fall 2005 data set, thus confirming the positive impact of the module. Butit should be pointed out that no changes were made to the content, quiz questions or the pre andpost-test questions, and the only changes were related to module navigation and instructions. Theresults of the evaluation conducted in spring 2006 will also be presented at the conference.ConclusionsAn online module has been designed, developed and implemented successfully for promotingacademic integrity. The implemented module not only covers academic integrity issues, but alsoengages students to reflect on the issues through quizzes, games, FAQs and case scenarios. Themodule includes features for students to print a Certificate of
. Beverly Hills: Sage Publications. 8. National Science Board. (2004). Science and Engineering Indicators. Arlington: National Science Foundation. 9. Redding, S.G. & Baldwin, E. (1991). Managers for Asia/Pacific: Recruitment and Development Strategies. Hong Kong: Business International. 10. Schlesinger (1992). The Disunity of America: Reflections on a Multicultural Society. New York: W.W. Page 11.317.10 Norton. 11. Tang, J. (2000). Doing Engineering: The Career Attainment and Mobility of Caucasian, Black, and Asian- American Engineers. London: Rowman & Littlefield Publishers.12. Trompenaars, F
descriptors fell neatly into two statistically independentcategories, which Lowman defined as intellectual excitement and interpersonal rapport.Lowman described intellectual excitement as the clarity of the instructor’s presentations, theinstructor’s disciplinary expertise, and the degree to which the students were stimulatedemotionally by the classroom experience. The most common adjectives that described thisintellectual excitement included enthusiastic, knowledgeable, inspiring, humorous, interesting,clear, organized, exciting, engaging, prepared, and energetic. Interpersonal rapport reflects howmuch an instructor cares about her students and the degree to which they are effectivelymotivated by the teacher. The most common descriptive indicators
percent of high school girls reported currently participating in team sports.12 The Boise community reflects a similar focus on sports. 3. They have little contact with women in engineering fields. With only about 11% women13 in the overall engineering workforce, teenage girls are unlikely to encounter women engineering role models. Even if young women choose to major in engineering, many students nationally will earn their bachelor’s degrees without ever being taught by a female professor.14 (Although, Boise State University has an unusually high percentage of female faculty, at three times the national average.) 4. They are flocking to professions where they feel they can make meaningful contributions to
2006-1159: NATIONAL DISSEMINATION OF MULTI-MEDIA CASE STUDIESTHAT BRING REAL-WORLD ISSUES INTO ENGINEERING CLASSROOMS:PILOT STUDYChetan Sankar, Auburn UniversityP.K. Raju, Auburn University Page 11.950.1© American Society for Engineering Education, 2006 National Dissemination of Multi-Media Case Studies That Bring Real-World Issues into Engineering Classrooms: Pilot Study Engineering students are increasingly being asked by potential employers to demonstrate“soft” skills (such as problem solving and business skills) in addition to their “hard” technicalskills. Reflecting these expectations, the Accreditation Board for Engineering Education(ABET) has
course.AcknowledgmentsProf. Lu is supported in part by National Science Foundation CAREER CNS-0347466. Anyopinions, findings, and conclusions or recommendations expressed in this material are thoseof the authors and do not necessarily reflect the views of the sponsors.”References [1] J. Armarego. Advanced Software Design: A Case in Problem-based Learning. In Conference on Software Engineering Education and Training, pages 44–54, 2002. [2] E. A. Billard. Introducing Software Engineering Developments to a Classical Operating Sys- tems Course. IEEE Transactions on Education, 48(1):118–126, February 2005. [3] B. Boehm and D. Port. Educating Software Engineering Students to Manage Risk. In Inter- national Conference on Software Engineering, pages 591–600
higher self-reported improvement in the ability to work on multi-disciplinary teams and understanding ofprofessional and ethical responsibility. The students who worked on the EWB independent studyprojects reported less gain in the “ability to design and conduct experiments”, with the exceptionof the student with who also wrote funding proposals and conducted significant laboratoryexperiments. Other responses, such as presentation skills, reflected differences in the specificexpectations of the experience (REU students were required to give an oral presentation at theend of the summer; independent study students generally write a final report but do not orallypresent their research findings).Table 4. ABET outcomes of the undergraduate student
; turbine operation. 2. Was the case study realistic? All the students felt that the case study reflected reality. 3. You were assigned to play a role. Has Yes, because it forces us to look at the entire this helped you to learn more than you case study and thus we learned more. If I did would have if no role-playing was not play a role I would not have been so involved? involved. It helped me gain knowledge as I completed my research and analyzed what the issues were. Playing the role
graduates by local, regional and national industry. This is reflected by an increased demand for our power engineering graduates (multiple job offers and higher salary) and positive feedback from both our students and their employers. • Student ratings of the CSM instructors in power area are significantly above our division and university average. • Greater enthusiasm and interest in our power program from our student body. This is evidenced by the increased number of higher quality students enrolling in senior (optional) power elective courses. (Average of almost 20 students/year) • Students’ frustrations with laboratory work have been relieved to a large degree by our lab procedures and lab coordination