establishing project needs • Establishing, developing and writing design specifications • Developing design concepts • Testing the validity design concepts with physical and mathematical models • Feasibility: physical, economic and design team compatibility Page 8.189.4"Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Education" • Human factors • Intellectual Property (patents, copyrights, trademarks, service marks, etc.) • Engineering Design Methodologies • Project Planning
developing knowledge, skills and abilities (KSAs) within students that are useful in designingand crafting a quality problem statement. Some assessment rubrics were identified but theseseemed to focus more on formatting than content. Little guidance was identified relative tolesson plans for developing problem statement design KSAs. This paper, describes some initialefforts toward developing problem statement KSAs within senior engineering students that havebegun from some exploratory research and classroom experiences. BackgroundThe East Carolina University (ECU) initiated its first ever engineering program in 2004. Theprogram culminates in a two semester capstone design project based learning experience
(Nikitina, 2009)7 ultimate goal Spend time thinking and planning your life and work so that you are not always in “crisis” mode (Cross, 2008)8 Page 25.911.3 Keep a journal of time use to establish a baseline of how time is being used Coach yourself with questions such as, “What is the best (Kane, 2007)9 use of my time now?” “If you have to eat two frogs, eat the ugliest one first” (your “frog” is your biggest, most important task, uglier means bigger and more important) (p.2)10 (Tracy, 2007)10 “If you have to eat a live frog at all, it doesn’t pay to sit and look at it for
fieldof metrology. The essence of the Navy Metrology and Calibration Program including its vastlaboratory structure are provided as a foundation to illustrate skill sets and disciplines involvedgenerally with metrology. Then, MEC’s partnerships and other activities to educate peopleabout metrology and to inspire students to consider metrology as a career field are presented.Also, specific examples of projects with professional societies and other organizations involvedwith metrology are highlighted and discussed. Included are MEC’s various STEM outreachefforts highlighting metrology that align with DoD’s STEM Outreach Strategic Plan as well aspartnerships developed with local colleges and universities. The intent of the paper will be toprovide a
. Page 15.523.1© American Society for Engineering Education, 2010To Establish an Importance Index of Basic Chemistry Competence in theUniversities of Science and Technology, Taiwan1. Introduction In order to facilitate the intellectual industry and innovation ability, the government inTaiwan has proclaimed a “National Development Plan” since 2002 (Council for EconomicPlanning and Development, 2005). One of the targets in the plan is to increase highlyqualified manpower, to fuel the desperate demands from the electronic engineering, greenenergy, chemical engineering, and biotechnology fields. From the viewpoint of the futuredevelopment, nanotechnology, communication technology, green energy, environmentalindustry, optoelectronic industry and
that design projects must followto help students build tighter connections among the three subjects. A comprehensiveassessment and evaluation plan has also been designed and implemented. This paper willdescribe the integration mechanisms, project specifications, and systems to address study skills,as well as data that has been collected and analyzed to date. Future assessment plans andstrategies for expanding the program for more students and extending it to two additional first-year engineering tracks will also be described.IntroductionFirst-year engineering curricula have been identified as significant opportunities to improve four-year engineering curricula, and many institutions have addressed the opportunity in differentways. At Texas A
Orleans levees in hurricane Katrina. As Associate Dean, he oversees curriculum, advising, career planning, study abroad, early engineering and other related initiatives.Neeraj Buch, Michigan State University NEERAJ BUCH is a Professor in the Department of Civil and Environmental Engineering at Michigan State University. He is also the Director of the Cornerstone Engineering and Engineering Residential Experience program at Michigan State University. He earned his M.S. degree in pavement engineering in 1988 from the University of Michigan, Ann Arbor, and his Ph.D. in pavement and materials engineering from Texas A&M University, College Station, in 1995. Dr. Buch began his academic
library system. Referencelibrarians work with students individually and in at least one hands-on workshop on researchtools. Other competencies have to do with elementary project management for a researchproject: project planning, formal proposal, literature review, draft, and final project document.In addition, the course requires at least two technical oral presentations, one using PowerPoint.Table 2 summarizes the general syllabus for the TC freshman comp courses – but with theadditions to the FIGs course with a focus on space exploration.Table 2: The General Syllabus with Educational and Professional ImplicationsGeneral Course Syllabus: 2-credit Technical Communication course in the COE UW – MadisonBased on the general syllabus, focus is on
computingand career plans. Amongst the selected students, there were only four that had little or noexposure to programming. Most of the girls had taken a high school computing course and insome cases they had two or three years of computing instruction. Two of the girls had taughtthemselves how to program. The most frequently mentioned language that the students knew wasC++, followed by Java. Other languages mentioned included Basic, Pascal, HTML, Alice,Python and Scratch. Five of the girls indicated plans to go into computer science as a career.Many were trying to decide between computing and other scientific or engineering fields.When asked what led to their interest in computing or programming, most of the students cited ageneral interest in
A.S.E.T/B.S.E.T Plan of Study (Supply[5]. This issue is further complicated by the fact that food and Chain Source: ISO 22006)foodstuff production and manufacturing is becoming increasingly complex and is requiring moretechnically skilled employees [6]. The U.S. Department of Labor’s Career Guide to Industries, 2008-09Edition, Food Manufacturing, stated: “Fierce competition has led food manufacturing plants to invest in technologically advanced machinery to become more productive. The new machines have been applied to tasks as varied as packaging, inspection, and inventory control, but the processing of animal products remains a labor-intensive activity that is resistant to automation efforts. As a result
TechnologyEntrepreneurship is increasingly being recognized as an important part of engineering education.However, it is also seen that establishing of a traditional business plan that was taught toengineers, is not considered as “the cutting edge” of doing entrepreneurship. Despite the businessplan being a core element of most engineering entrepreneurship curricula, there are new conceptsin entrepreneurship such as “The Lean Startup” which are being increasingly talked about. Alongthese lines, the faculty in The College of Engineering and Computer Science at California StateUniversity, Northridge are working with industry leaders and professionals to continuouslyimprove the entrepreneurship curriculum being taught to the engineers of today & tomorrow.One of
, Project Assignment, Planning, Deliverables, Evaluation Criteria Team assembly (who) 3 09/10/2013 Overview and purposes of EBT Read Chs 6-7, do worksheet 4 09/17/2013 Discuss team worksheets; meaning and value of People Involvement Read Chs 8-9; do list of purposes 5 09/24/2013 Demonstrate group process of Purposes phase Redo list and hierarchy of Purposes 6 10/01/2013 Review purpose hierarchy and decide step Read Chs 10-11; list Future Solution 7 10/08/2013 Demonstrate group process of Future Solution phase
Paper ID #8887Global Competency: Are Engineering Students Ready?Dr. Steven H. Billis, New York Institute of Technology Steven H. Billis, Ph.D, is professor of Electrical and Computer Engineering of the School of Engineering and Computing Sciences (SoECS) at New York Institute of Technology. He is also the Director of As- sessment and Planning for the SoECS and in this regard responsible for accreditation and reaccreditation of the School’s programs. he earned his Ph.D. from the Polytechnic Instiute of Brooklyn in 1972 in the area of Quantum Electronics. His present area of expertise is digital design.Dr. Nada Marie Anid
to get information to support my opinions. 8. I usually have more than one source of information before making a decision. 9. I plan where to get information on a topic. 10. I plan how to get information on a topic. 11. I put my ideas in order of importance. 12. I back my decisions by the information I have on hand. 13. I listen to the ideas of others even if I disagree with them. 14. I compare ideas when thinking about a topic. 15. I keep my mind open to different ideas when planning to make a decision. 16. I am aware that sometimes there are no right or wrong answers to a question. 17. I develop a checklist to help me think about an issue. 18. I can easily tell
&McTaggart [20] was utilized to guide implementation of the research presented in this case Page 24.707.7study: 1) [carry] out a plan of action to improve what is already happening, 2) [take] actionto implement the plan, 3) observe the effects of action in the context in which it occurs, and4) reflect on these effects as a basis for further planning, and subsequent action.Research QuestionsOne of the goals of this research project was to investigate the effects of new formativeand summative assessment instruments upon student learning in the PBL-infused course.These instruments were designed and incorporated in the third offering of the
supported by the National Science Foundation Under Grant No. 1158615In addition to aligning with the cognitive science and teacher professional development research,an engineering concept driven approach to teacher professional development provides a commonbasis for teachers to define and understand engineering. The concepts also provide a point ofcomparison to differentiate engineering from science. And perhaps most importantly,engineering concepts provide entry points for their inclusion into the existing science curriculum.Thus the development of a conceptual foundation has been critical to every aspect of the project,grounding the research and activities, including institute planning, instrumentation development,research design and project
Management at the United States Military Academy at West Point and the Associate Director of the Center for Nation Reconstruction and Capacity Development. He has authored and co-authored over 20 technical publications to include book chapters and refereed publications on infrastructure, capacity development geotechnical engineering, engineering management, and value modeling. Dr. McDonald earned his BS degree from the United States Military Academy in Civil Engineering (ABET), a MBA-Information Systems (Oklahoma City University); MS degrees in City and Regional Planning, Geography (Western Kentucky University) and Environmental Engineering (Missouri Univer- sity of Science and Technology); and a PhD in Geological
competitive strength is itsassurance that it will be able to meet these challenges, but it cannot stand still. Withoutcontinuing progress, the nation will suffer setbacks that might have been avoided had moreprofessionals possessed the requisite knowledge to understand larger issues and contexts. TheMinistry of Education (MOE) of Taiwan, in response to the challenges of the new century, hasproposed new directions for the development of higher education to serve as the basis for theadministration of higher education. Among these initiatives, the arts and the humanities havebeen re-emphasized in universities’ planning and development processes (MOE, 1998). Because Taiwan faces unprecedented challenges of economic and social transition and aclear need
students taking the course. This phase also involves developing all of thedocumentation for the course, much the same as detailed engineering drawings, bills of materialand manufacturing process plans are developed for a manufactured product.Some of the typical documentation for a capstone course includes a detailed syllabus, selectionor development of a textbook, descriptions of any deliverables or reports to be submitted by thestudents, detailed lesson plans, lab activities, quizzes and/or examinations, grading criteria and ahost of other items such as project sponsor agreement letters, policy statements concerningintellectual property, liability, and etc.Once the design has been completed, including its documentation, the design can begin to
% (57%) 7% (8%) disciplines. I have talked with someone or have seen a presentation (or show) that has 3% (4%) 13% (8%) 22% (27%) 45% (44%) 17% (17%) captured my imagination about the engineering discipline I have chosen. For the engineering field I am currently planning to pursue, I believe I will have 35% (28%) 43% (41%) 14% (21%) 5% (8%) 3% (3%) little interaction with people from other engineering disciplines. I believe to be a successful practicing engineer I will have to know a little 3% (3%) 9% (9%) 24% (33%) 40% (39%) 24% (16%) about a lot of things rather than a
Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Educationstudents need to have a good understanding of the process, methodologies, and tools commonlyused in industry to design and develop products, good written and oral communication skills, theability to work in an effective and efficient fashion in multidisciplinary teams, good planning andtime management skills, an understanding of ethical and societal issues, and the list goes on.Also, they must be exposed to meaningful practical experiences that closely resemble the “realworld” practice of the engineering profession. In this regard, two approaches that have beenwidely used to provide undergraduate
toward developing Engineering Education programs, it appears at thistime that no single institution or engineering education center encompasses all of the componentsthat are being considered here. Centers shown in Table 1 do contain some aspects of what SEEDwill strive to accomplish but lack academic programs in engineering education. In addition,Virginia Polytechnic Institute & State University recently received an NSF Bridges inEngineering Education planning grant (NSF Award No. 0342000) to, in part, "develop a newdegree program in education to enable engineering graduates to earn a master's degree while alsoqualifying for licensure as technology teachers in the Commonwealth of Virginia5
$750,000 9/1/98 8/31/03 9872505 Agenda Curriculum EEC- Planning Pilot Study for a “Course-less” $100,000 1/1/03 12/31/03 0230681 Grant CurriculumPrior to this NSF support, several of the authors had experimented with integrated design projectswithin a course. Success with this venture (23, 24) led to a pilot study (first row in Table 1), whichexplored the possibility of applying this idea to multiple courses. Thus, 1996, the year of the pilotstudy, represents the “founding” of Sooner City. Further success with these early projects led tothe large Action Agenda proposal, which funded the full development of Sooner City, details ofwhich are given below
industrial and commercial energy conservationtechniques as part of this innovative laboratory experience. The results they have generated arecreating motivation for a broader introduction of these concepts into the engineering curriculum.Background As our university's enrollment grows, new buildings are constructed and we increase ouruse of technology, we create a significant increase in our use of energy. In 2001 our universityadministration joined 46 other colleges and universities across New Jersey in endorsing aSustainability Greenhouse Gas Action Plan for the state that calls for a 3.5% reduction ingreenhouse gas emissions below 1990 levels by 20053. This commitment as well as ongoing
, Virginia Tech (BEEVT) is to create a contemporary framework forundergraduate engineering pedagogy. Among the issues being studied by the collaborative is theuse of ePortfolios in the education of engineers. Several BEEVT investigators and selectedengineering students participated in a pilot of the Virginia Tech Electronic Portfolio (VTeP) infall 2003. This paper presents a review of studies on the use of portfolios and summarizes thefindings of the pilot. The future plans of BEEVT investigators targeted at developing guidelinesfor the use and evaluation of ePortfolios for improving both student learning and engineeringprograms are also briefly discussed.1. IntroductionIn fall 2003, a group of engineering and education faculty at Virginia Tech
computer during the free time. In this study, unless the girls were assigned aspecific time on the computers, the boys monopolized the computers 8. As early as the seventhgrade, boys plan to study more math than girls do 16. From sixth to twelfth grades there is anoverall decline in both male and female students' liking and enjoyment of math 17. Studentsreported that math became more difficult, that they received less support from parents, teachers Page 8.1091.2and peers for studying math, and that math became more anxiety provoking over time. FemaleProceedings of the 2003 American Society for Engineering Education Annual Conference &
capstone courses and byindustry concerns about workplace preparedness of engineering graduates5,6, many degreeprograms across engineering disciplines have adopted industry-sponsored projects, most of whichextend over an academic year7. At a time when student learning and assessment in capstonecourses are increasingly important to program accreditation, capstone course instructors are beingchallenged by the need to plan, facilitate, and assess student learning where expected capstonecourse outcomes are uncertain and differ significantly from those of traditional engineeringscience courses8.Establishing suitable capstone course learning outcomes is essential for facilitating and assessingstudent achievement related to many ABET criterion 3 outcomes
Session 2238 Learning Theories: Applications for Instruction in Constraint- Based Solid Modeling and Other Engineering Graphics Topics Nathan W. Hartman, Theodore J. Branoff Purdue University/North Carolina State UniversityAbstractConstraint-based modeling tools, as well as computer graphics tools in general, offer the usermany choices in commands and techniques for creating graphics, which forces the user to have astrategy or plan as they proceed. The formulation of this plan is often dependent on theintegration of existing knowledge and current factors, such as customer specifications
accountability for the entire assignment), and problem-based learningand similar approaches (teaching material only after a need to know it has been established in thecontext of a complex question or problem, which increases the likelihood that the students will Page 9.1226.1absorb and retain it). Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Education Our focus next shifts to planning courses and measuring learning outcomes. We begin bydefining and illustrating learning objectives—explicit statements of what
) course, became aware of the changes in their understandingof DET. Weekly reflection papers, weekly written pre and post tests and lesson plans were usedas data sources. A rubric linking the course outcomes with six major categories (engineering as adesign process, gender and diversity, societal relevance of engineering, technical self-efficacy,tinkering self-efficacy and transfer to classroom teaching) was developed to code text. Severalpasses through the data led to the refinements for the six categories that allowed the coding ofalmost all of the text. We specifically looked for shifts in understanding over a 15-week periodand an awareness that these shifts were taking place (e.g. “It’s not that I had a bad attitude abouttechnology to begin