for a three-year term as a Senior Faculty Fellow of Polytechnic University’s Othmer Institute for Interdisciplinary Studies. He has edited one book and published four chapters in edited books, 37 journal articles, and 76 conference papers. He has mentored 67 high school students, 38 high school teachers, 10 undergraduate summer interns, and seven undergraduate capstone-design teams. In addition, he has supervised three M.S. projects, two M.S. thesis, and two Ph.D. dissertations.Magued Iskander, Polytechnic University MAGUED ISKANDER is Associate Professor and Graduate Adviser of the Civil Engineering Department at Polytechnic University, Brooklyn, NY. Dr. Iskander is a recipient of NSF
participating in researchexperiences.Project EMD-MLR’s main teaching practice is to involve undergraduate students into StudentDesign Project (SDP) teams with each team working on an individual machine learning projectwith a definite research orientation. The term “SDP” refers to senior design projects inengineering disciplines or capstone course in computer science disciplines. Each team consists of4 undergraduate students (3 from a group of seniors at FIT or UCF and one sophomore studentfrom BCC and SSC, respectively). Each SDP team is advised weekly by at least one EMD-MLRfaculty and, if needed, will is more frequently by a Ph.D. student mentor. Each SDP consists ofan (i) educational materials development component and a (ii) supervised research
, M. “Putting the utility of match-tracking in Fuzzy ARTMAP to thetest,” In Proceedings of the Seventh International Conference on Knowledge-Based Intelligent Information (KES),London, England, 20032. Anagnostopoulos, G. C., Georgiopoulos, M., Ports, K., Richie, S., Cardinale, N., White, M., Kepuska, V., Chan,P.K., Wu, A., Kysilka, M., “Project EMD-MLR: Educational Materials Development and Research in MachineLearning for Undergraduate students,” Proceedings of the ASEE 2005 Annual Conference and Exposition, Session3232, Capstone & Educational Resource Developments, June 12-15, Portland, Oregon, 2005.3. Castro, J., Secretan, J.(*), Georgiopoulos, M., DeMara, R. F., Anagnostopoulos, G., and Gonzalez, A., “Pipeliningof Fuzzy ARTMAP (FAM
” of fluid mechanics, hydrology, water treatment, structures, etc. would make them that much more excited about their upper level core courses.• The project-based senior capstone design experience mentored by practicing professional engineers has been a very successful course at the University of Hartford. Many of our students stay in the area and work for the companies or local and state government entities that sponsor these projects and we did not want our students to lose that experience.The other concern that needed to be addressed was funding for the students to implement theirdesign. It is expected that the class will have 10 – 15 students and it is hoped that most if not allof these students would have the opportunity to
introductory materials engineering classes. Most recently, he has been working on Project Pathways, an NSF supported Math Science Partnership, in developing modules for a courses on Connecting Mathematics with Physics and Chemistry and also a course on Engineering Capstone DesignVeronica Burrows, Arizona State University Veronica Burrows is Associate Director of the Center for Research on Education in Science, Mathematics, Engineering, and Technology and Associate professor in the Department of Chemical & Materials Engineering at Arizona State University. She received her B.S. in Chemical Engineering from Drexel University and her Ph.D. in Chemical Engineering from Princeton
be a young person’s pursuit again, and more young geeks would strengthen thesupport systems.The university may be one of the best places to begin rebuilding geek support systems. AtIPFW, very few incoming freshmen have ever built an electroinic project. During the first threesemesters of the ECET curriculum, they perform lab experiments by wiring and testing simplecircuits (counters, amplifier circuits, etc.) on solderless breadboards. These circuits reinforce aparticular aspect of circuit operation, but do not do anything useful or entertaining, and they aretorn down at the conclusion of the exercise. In the fourth semester all students take theElectronic Fabrication course, the capstone course for the AS EET degree. For most students, itis
Corporation to conductresearch on precision engineering projects. The cooperation between these groups hasestablished a successful, unique, effective, and synergistic program that would not be possiblewithout the contributions of each partner. The projects have been ongoing for four years andcontinue to evolve. The lessons learned from this experience are presented to share insightslearned on developing long-term professional relationships between university and industrypartners. Topics include the choice of appropriate projects, the use of capstone design courses,the contributions of graduate students, opportunities for internal and external funding,management strategies, and dealing with intellectual property ownership issues.Thus far, the
thebeneficial effects of higher tolerance for ambiguity on increased efficacy, satisfaction, andconflict resolution in the context of an open-ended, team-based, industry-sponsored engineeringdesign project.Keywords: Design teams, tolerance for ambiguity, efficacy, design performance.1. IntroductionBecause “engineering programs must demonstrate that their graduates have: …an ability todesign a system, component, or process to meet desired needs,” and “an ability to function inmulti-disciplinary teams….”1, design is integrated to the engineering curricula through the use ofdesign teams. In many cases, this integration also uses industry-sponsored design projects. Mostof the industry-sponsored design project applications are at the capstone design level
aided design which is primarily geared todrafting; this is supplemented further by courses in automation and computer integratedmanufacturing. As a part of the curriculum, there are courses on mechanics of materialsand engineering materials (metals and plastics), and also on electronics andinstrumentation. There is some emphasis on design for quality through courses in qualitycontrol and design of experiments. The capstone projects do however, focus on variousaspects of design, namely design for manufacturability as well as design for assembly.However, the perspectives of design, as such are not uniformly and strictly emphasized ina traditional manufacturing engineering technology curriculum. Furthermore, in theprogram at the author’s
advisorbut they are encouraged and free to seek help from all faculty in the school.To quantify whether CAD/CAE is being used intelligently we asked University of GuephProfessor Emeritus Jan Jofriet to review four capstone design reports (which incorporated CAEas part of the design process) against a number of ‘intelligent use’ indicators. Professor Jofriethas an extensive background in researching and teaching of FEA. The projects utilized eitherCFD or solid mechanics within their design. Six measures were used to assess the level ofintelligent CAE use. Table 1 provides the six measures and the descriptors used for each of thesemeasures.Observations and DiscussionOne of the most valuable outcomes that has resulted from this effort in the second
covered in each course of the sequence.The Software Enterprise combines the presentation and practice of software engineeringconcepts with project activity. Instead of gaining exposure to software engineering disciplineareas in separate courses and then applying them in a later semester in a capstone course, thesequence provides the initial exposure to concepts, follows it with in-depth problem solving, andasks students to apply the knowledge immediately in an ongoing, significantly challengingproject. We elaborate on this approach in the next section. Page 11.1331.2 Course 1 Course 2 Course 3
. Page 11.1427.1© American Society for Engineering Education, 2006 Vertical Mentoring: Closing the Loop in DesignAbstractTo help students ‘close the loop in design’ – that is, appreciate the importance and depth of theirdesign knowledge through a specific demonstration of this ability beyond their capstone designproject – we have implemented a vertical mentoring scheme in biomedical engineering design.Biomedical engineering seniors in the fourth quarter of the design sequence serve as designmentors to teams of juniors beginning their first quarter of design.In the junior-level course, student teams work on a smaller, common design project to ‘practice’a complete iteration of the design process before they tackle larger, more
-Service Learning Opportunity: A University and Community Partnership in CreekRestoration.” Camilla M. Savitz, 2004. 34TH ASEE/IEEE Frontiers in Education Conference. Savannah, GA.10 “Service-Learning in Capstone Design Projects: Emphasizing Reflection.” 2004. Patricia Brackin and J. DarrellGibson. Proceedings of the 2004 Annual Conference for Engineering Education.11 “Service-Learning in CHE Senior Design. 2004. Lisa G. Bullard, Patti H. Clayton, and Steven W. Peretti.Proceedings of the 2004 Annual Conference for Engineering Education. Page 11.294.9APPENDIX A: RESULTS OF STUDENT SURVEYEVALUATIONStudent SurveyPlease complete the survey with responses to certain questions and ranking of
learning process is more critical, for the capstone designclass the final product is imperative. Both the pan-mentor and the industrial client will conductthe product evaluation.3. Course Assessment The pan-mentor, the students, and industrial clients at the end of project will assess the Page 11.435.4course. For each, the assessment tool will be a questionnaire developed by the pan-mentor. Forthe industrial clients, the questionnaire will ask for input regarding the relevance of the course totheir company, including areas of improvements, as well as the strong points of the course. Mostdesign projects, for example capstone design projects, will
hands-on design projects. Also unique in the class studies is the fact thatvarious stages of the design projects are used extensively throughout the entire course from thevery beginning to the final.These projects use software to create designs that include the very basic concepts of national firealarm code and carry on through the more advanced concepts. In addition, there is a capstoneproject for the course. This capstone project requires a proficiency in both the national fire alarmcode and application software.The innovative software exercises and projects that have been developed for the national firealarm code studies are given.IntroductionThe goal of the development of the fire code studies is to create a new National Fire Alarm
exerciseproblem solving skills. The teamwork and weekly meetings requires students to demonstrateeffective communication skills, make cohesive presentations, and listen to criticism from fellowteam members. Essentially by forming a small business and manufacturing a product, thestudents in the capstone sequence realize the significance of their contributions to their businessand learn to view the “big picture”. In the future, the capstone courses will work more closely with entrepreneurs. In aneffort to manage the projects the University is currently considering developing an EnterpriseCenter (EC) to be housed in the School of Engineering Technology. The EC will serve as aninterface between the Manufacturing capstone courses and entrepreneurs
wereintroduced in the first week of class and three reading assignments (PowerPoint slides) werecreated for exposure to the workstation. The Blackboard course management system is used todistribute course reading assignments 16. The second reading assignment used animation resultsfrom the virtual workstation to illustrate initial condition responses and how they were affectedwith and without dynamic braking. The third reading assignment discussed the modeling of themechanical subsystems using SimMechanics and the Virtual Reality Toolbox.The goals of the revised curriculum:• Incorporate a laboratory feel into the control theory courses to enhance learning• Reduce the learning curve of using Simulink in senior capstone project designs• Reduce the learning
22.5%Final Presentation of Project by Participant 10.0% Total 100%Capstone ShowcaseIn September of 2005, the Northeast Network STEM Fellows Capstone Showcase washeld to provide an opportunity for all of the STEM Fellows Teams to present the plansthey had developed to promote greater student interest in STEM careers as well as toadvance STEM teaching and learning at the local level. The final plans developed by the11 STEM Fellows who participated in the Embedded Computer Systems & Photonicsreflected the positive influence that this professional development course had on themand how they would implement their new knowledge into their district.Demographics of
Systemsand is part of the four-year Control and Instrumentation Technology program at the University ofHouston Downtown (UHD) in Houston, Texas. Continuing development of the electrical powersystems course includes the knowledge and application of LabVIEW software for various virtualexercises and projects. Included in the class are many actual electrical power control projects thatrange from the initial studies of the basics of electrical power systems and LabVIEW to the finaladvanced capstone project design.Many of the class students work in industry in various related professions. Also, the classstudents have varied technical experience level and background of academics. The proceedingtwo elements make the class both challenging and interesting to
cure the laminates. Finally, after curing, platens were cooled to room temperature andthe completed laminate was removed from the press and de-flashed. Physical examination of thefiber glass reinforced polymeric composite laminate indicated that the upgraded press has beenable to produce the high quality polymer laminates with smooth surfaces.Assessment of Students and ProjectThe Department of Technology uses a capstone project course as an instrument to validateprogram outcomes, and to document student progress in meeting accreditation criteria. Allprogram students are required to complete a project and demonstrate their teamwork,communication, and problem solving skills in the real world project, which in this case was totransform an
: Capstone Courses:In order to take advantage of the interdisciplinary program structure, an interdisciplinarycapstone design project course was created with the support of distributed and integratedmanufacturing processes. Funded by SME (Society of Manufacturing Engineers), thisproject course provides students with the experience of integrating the technicalknowledge they have learned from other courses. The project highlights include 1)Integration of business and engineering skills through a two-semester, team-basedcapstone manufacturing project course; 2) Development of a distributed product designand manufacturing environment including a realistic supply-chain network; 3)Development of modular courseware to support the capstone design project; 4
involvement, the most-often mentionedmethod of ensuring faculty involvement was leadership from the top. That is, top-downleadership and support were seen as critical in faculty involvement. Other methods includedengaging faculty at faculty meetings, faculty retreats, and training sessions and workshops.Assessment methods for demonstrating achievement of outcomes most mentioned by the Page 11.1254.2surveyed institutions were examples of student work (at selected points during the students’careers), embedded course-based measures (such as standard exam questions or lab reports),capstone projects, and portfolios. While many other methods of assessment were
written exams, oral exams,embedded questions in exams and assignments, portfolio analysis, papers/writing samples,simulated activities/case-studies, capstone projects, videotapes of student's skills, inside/outsideexaminers, and internship experiences.7 With all of these instruments, the student’s knowledgeand skill can be directly measured. Since it would be beyond the scope of this paper to provide ananalysis of all the direct measures of assessment that are available, the focus will be on those thatwere used at the authors’ department. Course tests and examinations are perhaps the most commonly used direct assessmentmeasure. Most courses use tests to measure student progress, therefore they are readily available.Assuming that the tests
two dimensional mechanisms analysis problems.The mechanisms course is a prerequisite of the senior design capstone course. The elements ofthe design course process include but are not limited to: establishment of objectives, synthesis ofideas, and mechanical analysis of the selected components of the project. Real-world constraintssuch as economical and societal factors, marketability, ergonomics, safety, aesthetics, and ethicsare also an integral part of this capstone course. A major requirement of all senior designprojects is that each final report and oral presentation clearly demonstrates practical applicationsof concepts and methods learned in other engineering technology courses. The course projectreports and final oral presentations
andactuators are being developed on a continuing basis, students will be instructed on how to adaptto the use of newly developed devices. The sensors and actuators course includes significanttreatment of new technologies such as MEMS. It also features a capstone project that requiresstudents to engage in self-directed learning about a transducer not discussed in class.(d) Increasing the participation of women and underrepresented minorities in engineering byengaging the freshmen and pre-college populations in hands-on instruction in mechatronics isfacilitated by the introduction of mechatronic-based hands-on projects at the freshman and pre-college levels. The authors have already had considerable success in developing and deliveringmechatronics
%) Senior Design [8 cr - Sr]Harvey Mudd College [13,19] 4 12 Frosh Project [3 cr - Freshman]BSE – 128 Credits (9%) Clinic [3 cr /Jr, 6 cr /Sr]Olin College [12,20] >7 27 Engineering Design Nature [~3 cr - Freshman]BSECE – 128 Credits (21%) Eng. Des. / Collab. Des. [4 cr each - Soph] Capstone Design Projects [16 cr Senior] Plus: Unifying Projects for Each Two SubjectsRose-Hulman Inst Tech [4,21] 5 20 Analysis & Design of Eng. Sys. [4 cr. - Soph]BSEE, BSCE – 194 credits (10
to introduceS-L into engineering, which add approximately eight more universities to the list. Tsangi andLima and Oakesx describe more examples of S-L in engineering courses.However, Service-Learning is not commonly integrated into core engineering classes; when it isused, it is most often incorporated into elective and capstone courses, such as with the EPICS Page 11.1150.3program started at Purdue, now expanded to 15 universities, that involves electiveinterdisciplinary S-L courses that students can take from first year to senior yearxi and thecapstone projects explored by civil engineering students at the University of Utahxii. There
than simply use agame for the term project of a software engineering course, as some authors have suggested.1, 6, 11Real software engineering involves acquiring application domain knowledge in order tounderstand the client’s needs. Adding game topics to crowded software engineering courses, assome authors have suggested,2, 6 requires sacrificing important software engineering topics.Focusing on one application area in the first software engineering class is not fair to all students.Not every software engineering student wants to become a game developer. The author believesthat the capstone design course should not be the only opportunity for students to managecomplex software development projects. This suggests the use of elective courses as a
research investigation techniques in order toaddress a real-world, complex problem. The first term of the course will be at Pitt with thesecond term at UNICAMP. Project topics will be developed in combination withrecommendations from various stakeholders including the Industrial Advisory Board, colleaguesin industry, the IGERT faculty at all four institutions, and the interests and preliminary researchof the students themselves. Research will be firmly rooted in industrial needs. The problem willbuild upon the combined students’ acquired engineering knowledge and will requirecollaboration to resolve. The capstone courses will reinforce the community-building aspect ofthe IGERT, since students will work in teams both at Pitt and UNICAMP. In the
Systems Engineering. His teaching and research is in the area of manufacturing operations and includes capstone design. Before coming to Georgia Tech, he worked as an engineer in the semiconductor industry for a dozen years and served as Partner and CEO for a small company that developed software for factory scheduling.Garlie Forehand, Georgia Institute of Technology Dr. Forehand was Director of Research Program Planning and Development at Education Testing Service until February 2000. Dr. Forehand teaches and consults in the areas of research design and workplace communication. His research emphasizes curriculum innovation and evaluation. As a consultant to Georgia Tech, he has assisted