application came as a result of proposals tothe National Undersea Research Program at Hawaii Underseas Research Laboratory. Atthe time (2003), they were planning a series of dives on the underwater seamountVailulu’u off the coast of American Samoa. In support of that, the team proposed thedeployment of an AUV for testing of environmentally based navigation in thatenvironment. For that mission the specifications were basic:Scenario 1: Underwater volcanic exploration.Seamount depth: 500mCaldera Floor :1000m: Operational Range: 0-1000mCaldera Mouth: 2km:Vehicle speed 2kts:Range 5 kmOperational life on 1 batt charge 2 hoursMission ProfileMode 1: Make one pass over caldera, compass based, turn 180 degree, dive to next depthand return. Surface for battery
and other ATE organizations. Areas oftechnology enhancement will be identified, assessed for relevance and incorporated intoexisting or new courses. This process with faculty externships will provide an ongoingopportunity for the RCNGM faculty to stay current. NSF’s ATE program has already invested in the development and implementationof six online technology courses in photonics and telecommunications (NSF 0101654).The results of these piloted courses have demonstrated the need for a blended delivery ofonline courses, using on-site laboratories to augment online delivery of thereby. Inaddition, the following curriculum elements were identified as being critical to thedevelopment of a Next Generation Manufacturing focus within the COT
engineering, reviewing informationcharacterizing the infrastructure and culture of the institution (including demographics of thestudents and faculty), and assessing the interest in engineering education scholarship.As summarized in Table 1, local needs play a major role in defining the organizing theme,recruitment strategies and pathways, the nature of the culminating event, and the focus ofScholars’ studies. For example, each ISEE adopted a theme of investigating learningenvironments as research laboratories, but differed in scope and intent. The benefit of this “lab”theme is that it promotes a view that all learning environments are laboratories for understandinglearners and the learning process. For the first ISEE, the theme was “class as
architectural engineering program inthe country based on the Gourman report4. The Architectural Engineering program (comprising40% of the student body in the Department) has averaged 270 admissions applications per yearover the last two years. Freshman admission into the program is limited to an average of 78students or 29% of the applicants according to Dr. Edward Gibson4, former Associate Chairmanfor Architectural Engineering. The main reason for limiting enrolment of freshman studentsaccording to Dr. Gibson is limited space, including laboratory and studio facilities. This programproduces approximately 40 graduates per year. Page 11.131.4 The
design.The Engineering Management Curriculum at West Point The EM program at West Point provides cadets a nationally recognized major with amulti-disciplinary modern curricula supported by state of the art laboratory facilities. Theprogram has been accredited by the Engineering Accreditation Commission (EAC) of ABETsince 1996, with re-accreditation granted in 2002. The American Society of EngineeringManagement (ASEM) awarded our program the 2005 Founders Award for Academic Excellencefor Leadership of Engineering and Technical Management for Undergraduate Programs. TheEM Program received this same recognition as the best undergraduate program in the nation byASEM in 1992, 1999 and 2002. The USMA Student Chapter of ASEM was also recognized
, Figure 2.6communications, etc. TheSpring ‘04 capstone design class condensed all three groups into one group, indicative of theincreased work-load associated with hardware & software engineering vs. “paper studies”.Salient features of all three team’s preliminary designs, including the PVDF debris payload, wereincorporated into the capstone product, the Orbital Debris Detector satellite (ODDSat) (Figure2.6). Students tested the PVDF payload through actual impacts in a laboratory. The studentsused available NASA Engineering computer models to estimate projectile speed, size, anddirectionality. One important feature of the university environment is the capacity to serve as a repositoryof knowledge and to develop this knowledge base. In
involves the basic design of a learning device to teach auser the name of numbers and how to spell them. The facilitator leads the participants tothe development system described earlier. In preparation for the workshop, eachparticipant has been provided with a laboratory station fully equipped to develop a toy.Since the identity of the numbers will be encoded in a binary fashion, the binarynumbering system is briefly taught to the workshop participants. Once the binarynumbering system has been demonstrated, binary patterns are assigned to the individualnumbers. These binary patterns will be set on the toggle switches to identify the numberof interest.The binary numbers are read by the microcontroller through a program developed withthe C
at Virginia Polytechnic Institute and StateUniversity: A Changing Approach”. 2002 ASEE Annual Conference and Exposition, Montreal, QB, ASEE.3. Connor, J. B., S. York, et al. (2005). “Student Funded Laboratory Exercises at Virginia Tech” ASEE 2005Annual Conference and Exposition, Portland, OR, ASEE4. Lohani, V.K., Sanders, M., Wildman, T., Connor, J., Mallikarjunan, K., Dillaha, T., Muffo, J., Knott, T.W., Lo,J., Loganathan, G.V., Adel, G., Wolfe, M.L., Goff, R., Gregg, M., Chang, M., Agblevor, F., Vaughan, D., Cundiff,J., Fox, E., Griffin, H., and Magliaro, S., 2005, “From BEEVT to DLR NSF Supported Engineering EducationProjects at Virginia Tech” 2005 ASEE Annual Conference, Portland, OR, ASEE5. Bruner, J. (1960). The Process of Education
2006-1858: PORTFOLIOS IN ENGINEERING EDUCATION: WHAT DO THEYPROMISE AND HOW CAN THEY BE USED?Zhiwei Guan, University of Washington ZHIWEI GUAN is a doctoral student in the University of Washington’s Technical Communication department and a member of the Laboratory for User-Centered Engineering Education (LUCEE).Steve Lappenbusch, University of Washington STEVE LAPPENBUSCH is a doctoral student in the University of Washington’s Technical Communication department and a member of the Laboratory for User-Centered Engineering Education (LUCEE).Jennifer Turns, University of Washington JENNIFER TURNS is an assistant professor of Technical Communication at the University of Washington
measurabletemperature change can be produced using hot and cold tap water as the feeds. Though it maynot be possible to completely reach steady state in terms of steady temperatures profiles, theunits must approach steady state in a relatively short time frame and at least give qualitativeresults for pedagogical purposes. Level Indicator Figure 2: Desktop Learning ModuleSuch DLMs should have usefulness apart from application of the full CHAPL pedagogy Page 11.1004.3typically used in the past in our laboratories. In other words one should be able to integrate theiruse into a standard lecture where they may be used as a demonstration unit or to
new technical courses to a core of ECET, mathematics, English, science, and socialscience courses. The program will be structured within the 130 credit-hour limit set by theBoard of Regents. Eighteen (18) hours will be allocated to Biomedical Engineering Technologyspecific courses created for the program; Fifty-two (52) hours constitute a core of ECETtechnical courses; Sixty (60) hours are for the mathematics, science, English, and social sciencecore.Table 1 lists the ECET courses that will be part of the EET-BSBMET degree option. TheBiomedical Engineering Technology courses are identified. Weekly lecture hours, laboratoryhours, and total credit hours are also provided. Laboratory exercises will be conducted for 12out of the 15 weeks in each
. Slicing Solids k. Presentation of Solids. Table 1. A Summary of Several Important Solid Modeling OperationsThe developed reference guide has been provided to all instructors assigned to teach this coursein the spring 2006 semester. The instructors can utilize such a guide while teaching in theclassroom/laboratory settings to complement their teaching and effectively aid the students withthe understanding and visualization of three-dimensional solids. Using this guide, a variety ofsolid models can be developed and edited with ease through interactions and discussions withstudents. The constructed models effectively enhance the visualization capabilities of studentsand provide them with new perspectives. This method of delivery for
cutting-edgeNASA-related research into the undergraduate curriculum. Cal Poly Pomona chose toincorporate the Jet Propulsion Laboratories (JPL) robotic technology research into theundergraduate curricula of the Electrical and Computer Engineering Department, theEngineering Technology Department, Mechanical Engineering Department, and the ComputerScience Department. We proposed to conduct an interdisciplinary project, "Deep SpaceExploration using Smart Robotic Rovers", and develop an autonomous robotic rover.During the last three years, students and faculty participating in this program have developed arobotic rover that has successfully accomplished the initial goals of the project: (1) semi-autonomous navigation systems for remote robots, (2
them understand how they can do this material in their classroom." The main objective of the professional development is to prepare technology teachersto incorporate engineering concepts into classroom and laboratory activities. During2004-05, implementing a concentrated series of professional development experiences,NCETE faculty and graduate students used a set of activity-based engineering designchallenges, intensive discussion, field trips and other activities to prepare teachers toincorporate engineering concepts into their courses. The technology education teachersassumed two distinct roles during the professional development: 1) learning as studentswould learn, and 2) developing the knowledge and skills needed to deliver engineering
Engineering Course Based onStudent Feedback,” 2004 ASEE Annual Conference and Exposition, Salt Lake City, Utah, June 2004.3. Kuncicky, D., Matlab Programming, Prentice-Hall, 2003.4. Herniter, M., Pangasa, R., Scott, D., “Teaching Programming Skills with Matlab”, 2001 ASEE AnnualConference and Exposition, Albuquerque, New Mexico, June 2001.5. Azemi, A., “Using Matlab to Teach the Introductory Computer-Progamming Course for Engineers, 2004ASEE Annual Conference and Exposition, Salt Lake City, Utah, June 2004.6. Cole, W., Everbach, E., McKnight, S., Ruane, M., Tadmor, G., “Teaching Computers to EngineeringFreshmen Through a ‘High-Tech Tools and Toys Laboratory’ ”, 2001 ASEE Annual Conference andExposition, Albuquerque, New Mexico, June 2001.7. Litkouhi
lectures and team based hands-on laboratory components.The lectures focus on the contributions chemistry makes to society, and its applications to fieldssuch as medicine and health-care and the environment. Since chemistry’s role in society is notusually included in introductory chemistry classes in high school, the material is new to mostparticipants. The practical experience in the laboratory has the participants work fundamentalqualitative chemical techniques. Some of the projects have included thin layer chromatology andseparation of substances. Some of the participants have previously conducted chemicallaboratory experiments similar to those used by ITE, but that has not detracted from theirexperience. In most cases these participants are
with the course outcomes. Examplesmay include one or more of the following: an individual quiz or an exam question, anindividual laboratory assignment, a project assignment, or an individual homeworkproblem2.Table 2 Assessment tools and their relationship to the course learning outcomesAssessment Tools Course Learning Outcomes a e g i k Math Physics Engineering1. Test 1 – Problem 1 X X2. Quiz 5 X X3. Test 3 (Take home) X X X X X X X
Enhancing Interdisciplinary Interactions in the College of Engineering and Natural SciencesIntroduction and Project GoalsA team of faculty members in the College of Engineering and Natural Sciences at The Universityof Tulsa (TU) began work in July 2004 on a National Science Foundation (NSF)-funded Course,Curriculum, and Laboratory Improvement (CCLI) Project (Proposal # 0410653). This two-yearproject was based on the use of Interdisciplinary Lively Application Projects (ILAPs)1 as avehicle for strengthening connections among science, engineering, and mathematicsdepartments2. The concept of ILAPs originated from a consortium of 12 schools led by theUnited States Military Academy (USMA) with an NSF funded project, Project
an effective and efficient learninggroup of students.In a paper he presented at the 2004 ASME Heat Transfer/Fluids Engineering SummerConference at Westin Charlotte & Convention Center, Charlotte, North Carolina (July11-15, 2004) the author raised five questions : 1. What should be counted as appropriate goals in an undergraduate engineering course that has a significant laboratory component ? 2. Are the teaching practices utilized by the instructor in this course providing reasonably acceptable paths toward accomplishing the specified learning goals ? 3. What do students actually accomplish in the course and the laboratory exercises and how does the instructor’s teaching methodologies
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
, and enhance communication betweenthe instructor and students.With the reform effort, students developed professional non-technical and technical skillssimultaneously in an integrated mode. The concept for this approach was based on thenotion that technical information and new knowledge acquisition can be achieved in bothformal and informal modes [ 3] . Formal learning experiences occur in lectures delivered by theinstructor while informal learning is obtained through the self-directed and team-basedprojects with appropriate instruction. Professional skills including communication skills,teamwork skills and lifelong learning skills were integrated with up-to-date technical skillsdevelopment in laboratory-rich and hands-on projects.The course
publication, submitting grant proposals, participating in professional societies,and working on departmental and university committees.Teaching is considered the primary activity for faculty members and carries the highest weight(65%) toward the tenure decision. As a result a great deal of effort is channeled each year intoevery aspect related to teaching courses. Lectures are updated to improve class discussions andunderstanding; laboratory exercises are restructured to provide the right emphasis; homeworkassignments are refreshed; and projects are rejuvenated to increase the application of the subjectmatter. All of this effort is aimed at increasing the students’ comprehension of the material beingstudied. Regrettably this process creates a
Laboratory at MIT. She received her Ph.D. in Sociology from Boston University. Her research interests include the assessment of innovations in pedagogy and the use of educational technology.Rafael Bras, Massachusetts Institute of Technology RAFAEL L. BRAS is Edward Abdun Nur Professor of Civil and Environmental Engineering and of Earth Atmospheric and Planetary Sciences at MIT. Dr.Bras' undergraduate and graduate degrees are from MIT, where he joined the Faculty in 1976. He is a former Department Head and Chair of the Faculty. His research interests are in hydrology. His educational interests revolve around Terrascope, the program described in this paper.Kip Hodges, Massachusetts Institute of
, construction methods, etc.• Develop a list of questions for the student team to use to initiate communication with the clientsince communication might not be as easy as with a domestic client. Therefore, the team will beable to maximize the productivity of their initial communication. Page 11.976.10Site Visit• Begin planning the visit right away. Ensure that passports are in order. Determine whethervisas are required. Research local customs and courtesies.• Plan the amount of soil needed to bring back into the US for laboratory testing. Then contactthe USDA at least 2 months in advance to determine the required permits and procedures tobring the
identified as key factors, and each is discussed in detail. Toprovide a concrete context for the discussion, highlights from past projects are provided.The UND/Imation partnership was initiated when select Imation personnel were invited tocampus in 2001 by the Dean of the School of Engineering & Mines, Dr. John Watson. TheImation representatives toured the university engineering laboratories and spoke with anumber of engineering faculty to determine mutual interests. The visit served as a chance forboth parties to discuss their activities and capabilities with the intent of identifying synergisticactivities. The visit resulted in identifying two areas of mutual interest; one in ElectricalEngineering and one in Mechanical Engineering. The
It became increasinglyapparent to the Division that the focus of the co-op program should be upon those areas that arecritical from the standpoint of both academia and industry.The faculty also recognized that, unlike a laboratory that is under the control of the facultymember, our students’ learning environment is under the control of the co-op employer. Whilethe goal was to develop a curriculum that provided all students with common learning outcomesthat they would be developing through participation in the Professional Practice Program, facultymembers were well aware of the time constraints students would face. The curriculum mustenhance the learning that is taking place naturally on the job and should not conflict with, or takepriority
include forced response and steady flow analysis of turbomachinery and hypervelocity gouging on high speed test tracks.Brian Self, U.S. Air Force Academy Brian Self is an Associate Professor of Engineering Mechanics at the U.S. Air Force Academy. He received his B.S. and M.S. in Engineering Mechanics from Virginia Tech and his Ph.D. in Bioengineering at the University of Utah. He has four years of experience with the Air Force Research Laboratory and is in his seventh year of teaching in the Department of Engineering Mechanics. Areas of research include impact injury mechanisms, sports biomechanics, aerospace physiology, and engineering pedagogy
researchers have focused oncreating new instructional materials to address the statistical needs of College of Business (COB)students. At the same time, educational innovators have been emphasizing how critical it is forthe COB students to be exposed to business applications when learning to master the corematerial. Textbook writers have been reasonably successful in addressing either of theserequirements; i.e., to prepare the students on statistics fundamentals or to expose them tobusiness applications. However, instructional materials that integrate both requirements are notreadily available. We worked with the Laboratory for Innovative Technology and EngineeringEducation (LITEE), Auburn University, that has developed award-winning
organisms flourish together. This ideology is possiblethrough the creation of technical solutions by engineering programs which have incorporated thiscurrent issue within its curricula. By representing both industrial and environmental ideals,classroom curricula can address various obstacles to bridge these polar entities. Students canthen develop creative methods in the laboratory with special research projects. Laboratoryresearch reinforces learning through hands-on application of classroom principles, while alsoproviding a significant atmosphere for technical collaboration with industrial contacts.A strengthened infrastructure of international environmental regulation for industry is necessaryfor maintaining a healthy balance in the relationship
include plans to useexperiments or case studies from your research in your lesson plans, as well as the use ofinterested students from your courses as undergraduate research assistants. NSFencourages the use of undergraduates in research, and offers supplemental funding to theCAREER grant to support this activity through the Research Experiences forUndergraduates (REU) program.8 NSF also encourages visits to foreign researchfacilities, and collaboration with foreign institutions in research and educationalactivities. In addition, partnerships with industry, national laboratories, and K-12 schoolsare considered good examples of activities that can integrate research and education. Asyou think about integrating research and education, it can be