during this summer, teaching the skillsthey have learned to others. The final year is Figure 1. Curriculum breakdown forspent working on capstone projects reflecting on a typical engineering student. Thethe coursework and international experience and percentage of class types taken for a Page 25.887.3continuing the advancement of the program. bachelor’s of science degree is shown. Figure 2. Distribution of general education
syllabus. One of the mainobjectives is to teach students from novice to expert users preparing them with adequate fluidmechanics fundamentals and hands-on CFD project works to prepare for their capstone designprojects, higher education and advanced research in fluid mechanics. We have planned toincorporate a CFD educational interface for hands-on student experience in fluid mechanics,which reflects real-world engineering applications used in companies, government research labs,and higher education research.1. IntroductionComputational fluid dynamics (CFD) has been included as a senior-level Thermal-FluidsEngineering course in the curriculum of mechanical engineering program at many USuniversities. In some universities, this course is adopted in
economics of systems. Similar to computer science, a specialtopics course is also available. Ethics in engineering is also included to emphasize theimportance of ethics in the engineering of complex software systems.The curriculum includes a 3-credit hour capstone design and implementation project. The projectis a group project requiring that students work in teams to address the systems and softwareengineering aspects of the project. Page 25.1346.6 Table 1: MSSE degree program with systems and software engineering focus CORE COURSES (12 Hours) CS 5373 Software Modeling and Architecture. This course introduces the theory
1and Logic Design, the junior level course Embedded System, and in the senior courses CapstoneDesign and Professional Issues and Current Topics Seminar. Section four discusses somepreliminary critical thinking assessment done in the Professional Issues and Current TopicsSeminar course. Concluding remarks and future plans are discussed in section five2 Critical thinking at the Speed School of EngineeringIn response to the University’s i2a initiative, the Speed School of engineering has developed amulti-leveled critical thinking program that begins with the school’s freshman program:Introduction to Engineering, and goes on to include sophomore, junior, and senior courses, co-opreports, and undergraduate engineering capstone projects. A
Assignment 13-1: Project related exercise - Executing Test Cases. Assignment 13-2: Project Progress Update. (email) Assignment 14-1: Project related exercise – Preparing Test Report. Page 25.500.11 W14 Assignment 14-2: Project Progress Update (email) W15 Assignment 15-1: Project Final PresentationOther CoverageIn their senior year besides the three electives of their choice the students are required to take acourse on distributed systems and an interdisciplinary capstone course. Students are required touse their knowledge and experiences in software verification when they work on softwareprojects in these
Page 25.304.2graphical representations are termed Model Development and Usage Representations, or ModelMaps, for short. The result of the previous study showed a significant difference in the modelingcharacteristics in the Virtual CVD Laboratory Project when compared to two capstone physicallaboratories. Based on the analysis of work products (design notebooks, design memoranda andfinal reports) of 14 teams, the Virtual CVD Laboratory Project showed significant increases bothin the number of model components students used and the variety of those model componentsfrom team to team.However, we have been concerned that the characterization of the number and types of modelcomponents is under articulated given the relatively static nature of the
the other 80%: engineering hope, Journal for Australasian Engineering Education, 14(1): 1-12.10.Bielefeldt, A.R., B. Amadei and R. Sandekian (2008). Community service attitudes of engi- neering students engaged in service learning projects, American Society for Engineering Edu- cation (ASEE) Conference and Exposition Proceedings, Paper 2008-2430, June 23-25, Pitts- burgh, PA.11.Bielefeldt, A.R., M.M. Dewoolkar, K.M. Caves, B.W. Berdanier, and K.G. Paterson (2011). Diverse Models for Incorporating Service Projects into Engineering Capstone Design Courses. International Journal of Engineering Education. 27(4):1-15.12.American Society for Engineering Education (ASEE). (2008). Engineering Data Management System. Available at
, energy management programs, and a survey ofenergy saving opportunities in commercial and industrial facilities. Energy Control Strategiesincorporates spreadsheets, computer programs, and performance simulation software to estimateenergy savings, implementation costs, CO2 reduction, and utility cost savings with theimplementation of energy saving opportunities. Commercial and Industrial Assessmentincorporates utility analysis, on location assessment format, operation of data collectionequipment, and compiling final reports. The Capstone Project provides the real-worldexperience of the entire assessment experience.IntroductionThe sequence of seven courses teaching energy assessment of residential, commercial, and
, the School ofEngineering received its first accreditation from the Canadian Engineering Accreditation Board(CEAB).The creation of a new School of Engineering offered an exciting opportunity to stress integrationand design from the outset. During the first two years, which are common to all three disciplines,all students study together, in an effort to both teach and show students the integration ofengineering concepts desired by industry and recognized by many as ideal. In addition to takingtraditional engineering courses, students (in both first and second year, and again in the fourthyear capstone design course) work in multi-disciplinary teams on major design projects thatintegrate technical knowledge and metaskills. As noted by
Professor at the University of Texas, Arlington, where she teaches courses and conducts research related to air quality and sustainable energy. Her research has been spon- sored by the National Science Foundation, Texas Commission on Environmental Quality, Luminant Power, and the Defense Advanced Research Projects Agency. She has published more than 60 peer- reviewed papers and conference proceedings. In 2010, she received UT Arlington’s Lockheed Martin Excellence in Engineering Teaching Award. She is a registered Professional Engineer in the state of Texas.Dr. Yvette Pearson Weatherton, University of Texas, Arlington Yvette Pearson Weatherton received her Ph.D. in engineering and applied science (environmental engi
launch provider. The cadets then participate in all the organization ofmanifesting a launch. Once the satellite is launched, the SSRC maintains a ground stationcapable of communicating with any and all of the FalconSATs. Cadets carry out spacecraftflight mission objectives by sending commands from the ground station.The FalconSAT program directly involves cadets in all the stages of spacecraft design anddevelopment. The faculty provides the continuity for the multiple year program. For theFalconSAT program to be successful, cadets must have adequate technical knowledge andpractical hardware experience before working on the program.The primary preparatory class for the FalconSAT capstone project is taken by junior cadets at theAcademy
inengineering education — "for creating the Learning Factory, where multidisciplinary studentteams develop engineering leadership skills by working with industry to solve real-worldproblems." Page 25.295.6 The energy engineering curriculum was designed to enable students in the program tocarry out their capstone design project through The Pennsylvania State University LearningFactory. The students are able to work with teams of students from chemical, mechanical andother engineering disciples on common energy-related problems giving them broad exposure tohow they are expected to operate as part of the energy workforce. The experiences
, TN Tech, UMD, USNA,UVA, and Vanderbilt).• Understand, define and document how the EDPPSR / e-portfolio aligns to grades 10 to 16 informal activities, Introduction to Engineering courses, course related design projects and CAPSTONE courses.• Develop and test training processes for the scorers / raters, teachers, faculty and mentors.• Develop scoring and reporting tools. Supported by NSF 0212217 – Ms. Susan Kemnitzer, Dr. Joy Pauschke, and Ms. Mary Poats (PO) NSF Core ERC Grant 9731748 – Dr. Rajinder Khosla (PO) and Ms. Lynn Preston (PM) NSF GK - 12 Award 0632007 – Dr. Sonia Ortega (PO) and Ms. Mary Poats (PO) NSF SITE RET Award 0642439 – Ms. Mary Poats (PO) NSF SITE RET Award 0743029 – Ms. Mary Poats (PO) NSF
lifetime andalternative triggering approaches. The problem for this senior capstone project was a solarsystem design that could power an image recognition system and provide long life. An externalcompany defined the requirements for the image recognition system. The number of subsystemsthat interconnect to support this expanded functionality is challenging. The subsystems thatmake up this solar-powered camera system include a charging circuit, a heating circuit, a triggercircuit, a solar array, and batteries, Along with the challenges presented from designing thesubsystems, there were a number of lessons learned as a result of the project. Of the lessonslearned, the most notable were the challenge of getting parts for a prototype, the level of
) coupled with several engineering design projects/competitions (bottlerockets, solar cars, bridge building, catapults, hovercrafts, and robotics) help students see therelevance of their summer STEM courses. The percentage of students who participate in theprogram, attend college, and graduate in STEM fields has been tracked throughout the programshistory. The success of the program in attracting above average numbers of young men andwomen to pursue engineering and other STEM fields is presented and related to the programmethods. Several key factors influencing the success of the program, which has grown to serveover 350 students per year locally, are identified presented as a model that can be duplicated inan effort to increase the number of
introductions to BIMsoftware capabilities. Of which 100% were teaching from the Revit software suite. Eightdepartments responded that their program had infused BIM project assignments into one or moredesign/capstone courses.Many universities, colleges and departments have built strategic partnerships with AutodeskEducation Solution Specialists. http://usa.autodesk.com/education/post-secondary/ Autodeskprovides educators with comprehensive curriculum resources and provides a threshold learningexperience for students regardless of experience. Education Solution Specialists will helpfaculty design curriculum, provided resources, guest lecture and/or aid in preparing students forcareers in architecture, engineering, and digital arts.Where Are We NowFrom
environmental statistics course during the sophomore year,technical and professional communication in the junior year, and capstone design during thesenior year. In the latter course, we envision interdisciplinary teams of students collaborating onsustainability projects that draw on skills gained in both their respective majors and their HEREcourses. We plan on developing a proposal for awarding a Sustainable Engineering Certificateupon commencement, akin to those currently offered in Robotics and German TechnicalTranslation, that would signify a student’s completion of all program courses and legitimizehis/her skills to the larger college community, potential employers, and graduate/professionalschools. Expanding HERE in these ways would allow
Page 25.412.12general topics in the lecture course did not provide enough detail, nor were they always relevantor provided in time. For example, audio editing was taught after the first alpha release in whichsome teams wanted to integrate sound. By using detailed design specifications, the lecture topicscould be better aligned with development deadlines. Second, students felt an introductory courseshould use narrow design parameters that would focus their attention on the basic skills of videogame development. Students felt creative opportunities for designing their own game could befacilitated through advanced game design courses (e.g., a Capstone Design course). Insubsequent implementations, the course project requirements were narrowed to
theprogramming environments with java course. We have collected no data to quantify if thismodular course has adequately prepared the first group for capstone senior project, since thesestudents have just started taking their senior project capstone course sequence.Concluding RemarksIn conclusion, it can be stated that with proper guidance, monitoring and diligent care, thetechnology students can be exposed earlier to Xcode, Cocoa framework, Objective-C designpatterns or Android development platform. This will go a long way in motivating them,1eliminating their fear, improving their understanding and enhancing their quality of education.With proper mentoring, capable tutelage, and guidance, these burgeoning and talented youngstudents will contribute to
Rules andProcedures in June 2011.The following changes are required: A stronger statement of the knowledge profile An expectation that graduates will be able to operate close to the frontiers of knowledge in their discipline An expectation that graduates have the capability to research rather than just investigate problems, and this is not to be at the expense of an integrating design-based capstone project An expectation that students are exposed to the practice (non-theoretical or codified) knowledge being applied within day-to-day practice in their discipline A stronger comprehension of contextual knowledge and the ability to apply that knowledge, e.g. in relation to design The ability to apply ethical
. Page 25.97.1 c American Society for Engineering Education, 2012 A Quarter-Century of Teaching Spacecraft-Mission DesignAfter more than twenty five years of teaching a capstone spacecraft-mission design course in anaerospace engineering curriculum, the instructor looks back on the evolution of the course andchanges in student capabilities. The evolution in course structure, types of projects, projectdepth, and instructor understanding of the design process are discussed. The effect of thetremendous increase in information available to students through the Internet is discussed.Instructor BackgroundThe author became a member of the faculty at The University of Texas at Austin in September1965. From 1965
, or dispersed researchers in a variety of disciplines located atinstitutions on different continents. The collaboration may be of students in a capstone course ora blend of student researchers and faculty within a research group. The combination of thoseinvolved in a research project can be endless.In engineering, the momentum toward innovation often promotes a collaborative mindset andenvironment. More specifically, in engineering education, the nature of the field (i.e., living atthe border of multiple disciplines) encourages and sometimes necessitates collaboration. Eventhough engineering education now has degree-granting programs, an opportunity and a need tofoster collaboration among emerging scholars exists and is made evident by the
relative mixture of lecture/lab is approximately the same in both programs and the distinction between contact and credit is not a factor for this high level comparison. 2) A masters program in a typical American system is approximately 30 hours with a significant portion of the program covered by a thesis if required. The Russian system also requires a thesis with almost twice the number of course hours (66 vs. 30). 3) In both the older specialist degree and the new bachelor degree, the Russian system requires a project in industry (the equivalent of a short COOP in the American system), plus the equivalent of a significant senior capstone project. The result is an emphasis on practical
of a “boot camp” of increasingly more complex projects paired withan in-depth project on topics shown to be successful in engaging undergraduate engineeringstudents provides a learning experience that results in student knowledge of the engineeringdesign process – is answered in the affirmative for the short term. Whether this instructionaldesign is successful in student long-term retention of design knowledge remains to be seen.Depending on the major and participation in extracurricular activities, students at my institutionmay not have another design course until their fourth year capstone. I have observed that anumber of capstone students need remedial instruction in the engineering design process due tothe passage of time without
intelligent object such as speed, processing time, setup time, etc. Since the simulationsoftware objects model real world objects, the complexity is reduced and the program structure isclearer. An evaluation version of the Simio Simulation software was obtained and some practicemodels were developed using this software. Simio was found to be a little more difficult to learnthan Arena, but somewhat easier than ProModel.In the Simio Rapid Modeling Workshop, it was learned that Universities could apply for a grantof the professional version of the Simio software that has unlimited capabilities. As mentionedabove, one of the lingering problems that Engineering Technology students have faced in theSenior Project capstone course is that many companies
notrequired that they actually submit the solutions to Innocentive, but most do so as well. A rubricused to grade the submitted assignments is shown in Table 2. The rubric clearly is orientedtowards the graphics and communication aspects of the design project, reflecting the intendedlearning outcomes of the introductory course.DiscussionThe Engineering program at UPEI is very small, and currently only serves the first two yearstowards a degree program that is ultimately completed at Dalhousie University through a long-standing transfer relationship. Students have historically had an excellent track record for beingpractical, and able to excel in capstone design projects after transfer. With a first-year intake ofonly 55 students, our student numbers
Page 25.947.3 used to develop applications on a wide variety of microcontrollers, so that student projects could scale upward into research or capstone requirements. • Similarly, the IDE should be portable from small projects to large projects. The tool set should be easily scalable to more ambitious projects than we would encounter in this course. • The IDE should be portable across host operating systems. Our campus laboratories use both Windows and Linux platforms, and student laptops often run Apple’s OS X. Tools that can be used on any of these platforms will be more accessible to students.Our final goal is to teach microcontroller system design using a modern microcontrollerarchitecture. While there is certainly a
newopportunities in the University community. Social ties are strengthened, and this allows for newlines of research to grow and methods of teaching to be shared.Phase II: FeasibilityAll engineering graduates at this University must complete a capstone senior design project. Theproposals for these design projects are normally vetted and taken to the proposal phase duringthe students’ next to the last semester in the program. The project itself is completed during theirfinal semester. Students either work as individuals or in groups of 2 or 3. We have taken pridein that we are normally able to place students with external clients for these projects. The goal isto involve the student in the solution of a real world engineering problem that will actually
1 EE 4261 Classical Control Systems 3 ENT 3960 Enterprise Project Work IV 1 EE4901/4910 EE Design Project I/II 1/3 ENT 4950 Enterprise Project Work V 2 ME 4901/4911 ME Senior Capstone Design I/II 2/2 ENT 4960 Enterprise Project Work VI 2 ENG 3200 Thermodynamics/Fluid Mechanics 3 ENT 4951 Enterprise Project Work VII 1 ME 4220 Intro to IC Engines 3 TABLE III: REQUIRED COURSES FOR GRADUATE CERTIFICATE (9 CREDITS
the system progresses depending on the different work that must be preformed. Thestages have both a logical and temporal relation. The deeper the stage, the more refine andmature the system becomes. As the flow of the model progresses the products from the previousstages become inputs. Then, when moving to a new stage in the process the nature of thetechnical activities become more shifted. The proper progress from one stage into another iscontrol by gates.A synthesized version can be seen on the NASA ESMD Capstone Design by The Ben Shima 13.The process is the same and is highly used for senior design projects. The propose model that isbeen seek is something efficient and reliable as the NASA model but more practical and focus onthe area of