Paper ID #15385Systems Engineering and Capstone ProjectsDr. Fred J. Looft, Worcester Polytechnic Institute Prof. Looft earned his B..S, M.S. and Ph.D. degrees in Electrical Engineering at the University of Michi- gan. After a brief period on industry, he joined the faculty of WPI 1n 1980 where he is now a professor in the ECE department and a founder of, and Academic Head of the Systems Engineering program. His interests include projects based education, curriculum development, international study abroad programs and mentoring, and autonomous robotic systems.. c American Society for Engineering
Engineering from the University of Stuttgart, Germany in 1995.Peter L. Russell, Stevens Institute of Technology Peter Russell is an Industry Assistant Professor of Engineering and Science at Stevens Institute of Tech- nology. He earned a BFA, BARCH from the Rhode Island School of Design. Mr. Russell has extensive experience in the architectural profession. As an Assistant Professor, Mr. Russell is managing interdisci- plinary projects for both The Department of Energy and The Department of Defense. Page 22.1278.1 c American Society for Engineering Education, 2011 SE CAPSTONE
-level multidisciplinary capstone course, Interdisciplinary Capstone Design Project (ICDP). Thecourse is open to students from biomedical engineering, chemical engineering, computerengineering, electrical engineering, mechanical engineering, and industrial engineering. Whileall engineering students at The Pennsylvania State University complete a capstone design course,most students complete a discipline-specific capstone. An interdisciplinary design course thatmeets ABET criteria for the engineering majors listed above has been developed by Penn Stateto allow students to work on multidisciplinary, innovative design. This course, therefore, servesas an ideal test bed for the introduction of systems engineering into a senior capstone designcourse
AC 2011-1211: SE CAPSTONE: INTEGRATING SYSTEMS ENGINEER-ING FUNDAMENTALS TO ENGINEERING CAPSTONE PROJECTS: EX-PERIENTIAL AND ACTIVESteven Corns, Missouri University of Science and TechnolotyCihan H. Dagli, Missouri University of Science & Technology Cihan Dagli is a Professor of Engineering Management and Systems Engineering, and Affiliated Profes- sor of Electrical and Computer Engineering at the Missouri University of Science and Technology. He received BS and MS degrees in Industrial Engineering from the Middle East Technical University and a Ph.D. in Applied Operations Research in Large Scale Systems Design and Operation from the University of Birmingham, United Kingdom, where from 1976 to 1979 he was a British
- Introducing Multidisciplinary Capstone Design to the United States Coast Guard AcademyThe United States Coast Guard Academy (USCGA) is one of five Service Academies educatingand training generations of Military Officers. USCGA offers eight majors including fourengineering majors- Civil, Electrical and Computer, Mechanical and Naval Architectural andMarine Engineering. Each major has traditionally taught its own capstone design course, whichranged from a one-semester paper project to a two-semester project with a functional prototype.Multidisciplinary projects have been rare and collaboration on projects has usually been limitedto having cadets from other majors working as part of design teams, but usually being enrolled ina separate
Page 25.848.1 c American Society for Engineering Education, 2012 Introducing Systems Engineering Concepts in a Senior Capstone Design CourseAbstractSenior capstone design projects can often expand in complexity to include systems of systems,particularly in projects involving embedded systems to control a larger system. Principles ofSystems Engineering (SE) can be integrated into the capstone course to help students—who maynot have been exposed previously—manage this increased complexity.This paper presents an evolving framework of essential SE fundamental elements, including thetop-level processes of Requirements Analysis, Functional Analysis and Allocation, Design orSynthesis
applying it as a change agent.Students had to produce an integrating final project in one semester (around 18 weeks), andboth students and instructors pointed out that, at the end of the whole degree program,students were not ready to undertake a high caliber project which incorporated much learning,skills, and professional attitudes.Responding to that problem, the university introduced a Capstone Course in systemsengineering in the mid 1980s. It came in the next to last semester of the program, just beforethe student thesis and graduation. Lasting 17 weeks, the course required students to developan intervention for improvement in an administrative system, aimed at integrating andapplying methods and skills learned along the way. Thus students
years of active duty Air Force service, Dr. Colombi led command and control systems integration projects, systems engineering for the Air Force E-3 aircraft program office, researched biometric systems security at the National Security Agency and managed/ researched communications networking in the Air Force Research Laboratory.Richard G Cobb, Air Force Institute of Technology Page 22.7.1 c American Society for Engineering Education, 2011 Fostering Systems Engineering Education Through Interdisciplinary Programs and Graduate Capstone ProjectsAbstract The
, 2014 Using a Marketplace to Form Multidisciplinary Systems Engineering Capstone Project TeamsAbstractOur previous research has shown that multidisciplinary capstone projects can enhancedevelopment of Systems Engineering (SE) competencies. However, undergraduate engineeringcapstone projects typically focus on only one engineering discipline. In order to assist facultyand students in forming multidisciplinary teams, a marketplace for multidisciplinary SE capstoneprojects has been created by a Systems Engineering Research Center (SERC) project conductedat Stevens Institute of Technology. The marketplace enables potential project sponsors toadvertise opportunities to a broad audience of potential student teams
what to document andhow as discussed in Section 5.5. Instructor Guide to SE Design Application to Capstone Courses This section is generalizes our aerospace-focused SE Design approach for other engineeringdisciplines interested in SE Design application to capstone and other design related courses. Thegeneralized approach was developed with SERC sponsorship through the Capstone MarketplaceProject8. As shown in Figure 12, capstone courses have multiple implementation options. Theoptions include project deliverable type which we categorize as (1) Products (hardware orsoftware including reports) and (2) Reports. Product focused projects increase workload for bothstudents and instructional teams and competitive (single projects) reduce workload
AC 2012-4043: IMPLEMENTATION OF A MULTI-DISCIPLINARY SYS-TEMS ENGINEERING CAPSTONE DESIGN COURSE AT THREE PUERTORICAN UNIVERSITIESDr. Michele Miller, Michigan Technological University Michele Miller is an Associate Professor of Mechanical Engineering at Michigan Technological Univer- sity. She teaches classes on manufacturing and does research in engineering education with particular interest in hands-on ability, lifelong learning, and project-based learning.Dr. John K. Gershenson, Michigan Technological UniversityProf. Amilcar Alejandro Rincon-Charris, Inter American University of Puerto Rico, Bayamon Amilcar A. Rincon-Charris was born on Barranquilla, Colombia, 1976. He will receive a Ph.D. in con- trol and robotics
easilybe a subset of the definition used in this paper.Using systems engineering concepts for a project or component to a course in the education ofundergraduate as well as in pre-college education has been reported. A systems engineeringapproach was applied to a BSEE program3 that used a tailored systems engineering process in acapstone course to increase the possibility that students developed desired ABET-relatedoutcomes within their design experience. A systems engineering and management process4 was Page 25.12.3successful in achieving program goals by aligning capstone course assignments to a decisionmaking process and incorporating a real
communication skills. c American Society for Engineering Education, 2016 Solution-based learning (SBL): Using systems engineering principles to guide capstone projects in technologyAbstractIn this paper, a new learning framework – solution-based learning (SBL) – is introduced. Itoffers a way of motivating students to continuously improve products or processes based onpractical or aesthetic considerations. This learning framework keeps the focus on early andsustained success through all phases of a project. It leverages selected principles of SystemsEngineering such as developing a discovery-oriented, multidisciplinary, life-cycle view ofany given project. It also provides learners with the
and systems engineering communities have defined a large number of processes thatcan be characterized by models such as the waterfall model, v-model, spiral model, etc10. Thesemodels include large monolithic requirements and design activities with feedback loops. Someimplementations such as the Team Software Process6,7 cause a significant amount of overheadfor students from stringent requirements in documentation and data logging. Unfortunately,during a capstone design project in which students are working with new tools, programminglanguages, multidisciplinary domains, etc., they often encounter setbacks, requirements changes,and design changes because they are learning. More traditional processes do not lend themselvesto change.An agile
AC 2012-3821: INTEGRATING PROJECT MANAGEMENT, LEAN-SIXSIGMA, AND ASSESSMENT IN AN INDUSTRIAL ENGINEERING CAP-STONE COURSEDr. Ana Vila-Parrish, North Carolina State University Ana ”Anita” Vila-Parrish is a Teaching Assistant Professor and Director of Undergraduate Programs in the Edward P. Fitts Department of Industrial and Systems Engineering.Dr. Dianne Raubenheimer, Meredith College Page 25.803.1 c American Society for Engineering Education, 2012 Integrating Project Management & Lean-Six Sigma Methodologies in an Industrial Engineering Capstone CourseAbstractThe ability to
, University of the District of Columbia Sasan Haghani, Ph.D., is an Associate Professor of Electrical and Computer Engineering at the University of the District of Columbia. His research interests include the application of wireless sensor networks in biomedical and environmental domains and performance analysis of communication systems over fading channels.Roussel Kamaha c American Society for Engineering Education, 2016 Real-Time System Implementation for Video ProcessingAbstractThis paper details the results of a capstone design project to develop a real-timehardware/software video processing system to implement Canny edge detection algorithm on aZynq FPGA platform. The HSL tool, part of
suchas design and construction of a vehicle or robot quickly see the application of lecture topics toprojects. Although the topics such as Quality Function Deployment and Failure Modes andEffect Analysis have broader applications, many students working on paper designs orhumanitarian projects had difficulty relating the importance of the topic to their project. Theadded communication time that a hybrid class can offer will aid the students in making theseconnections.Background on the Senior Design CoursesThe Multidisciplinary Capstone Design Program in the Engineering Division encompasses atwo-semester course sequence. Students from Civil, Environmental, Electrical, and MechanicalEngineering specialties from the CSM Division of Engineering
, Ph.D. is an Assistant Professor of Software Engineering in the School of Graduate and Professional Studies at The Pennsylvania State University. Prior to entering academia she worked in industry and government as a software and electronics engineer. Her research interests include problem solving in software and systems design, team learning, and project management. Page 22.838.1 c American Society for Engineering Education, 2011 Improving Team Learning in Systems DesignAbstractA detailed statistical experiment to study the effect of the cognitive collaborative model (CCM
activities such as collection and analysis of data and publications as part of the National Science Foundation’s Science Partnerships Program as well as in the implementation of capstone projects at the Center for Innovation in Engineering and Science Educa- tion (CIESE). Prior to joining CIESE he was a practicing chemical engineer on water treatments, envi- ronmental management systems and quality assurance. Chris received a BE in in Chemical Engineering from University of Guayaquil, an Environmental Technology Certificate from the Swedish International Development Agency, and a ME in Engineering Management from Stevens Institute of Technology. He’s currently pursuing a PhD in Financial Engineering at Stevens.Alice F
Electronics and Telecommunications from theUnive Page 22.613.2 c American Society for Engineering Education, 2011 Enhanced Airport Management Information System for Small and Medium- Sized Airports: A Systems Engineering Capstone Design ExperienceAbstractThis paper presents the capstone design course educational process in place within the SystemsEngineering Department at the University of Arkansas at Little Rock, emphasized through thework of a group of students that were enrolled in the capstone design sequence during the 2006-2007 academic year. The process includes preparation for the capstone design project
Reduction andRecycling met on a weekly basis to discuss the project and ensure it met everyone’s objectives.Throughout the process, both groups realized that the value of such a partnership reaches into thecore of their mission at the university.This work will detail the execution of two capstone design projects with significant sustainabilitycontent. Project scope and deliverables will be discussed, along with project outcomes andlessons learned during the conduct of these projects. Project disposition and future work are alsodetailed. Links between sustainability and accreditation criteria are discussed.Literature ReviewWhile there are many papers that are worth mentioning in the literature for sustainabilityeducation for engineers, we have to
Paper ID #24057From Technology Elaboration Toward Application Innovation: An Instruc-tional Transformation in a Project-oriented Capstone Course of DynamicControl SystemsMr. Kuan-Yu Chou, National Chiao Tung University Kuan-Yu Chou received the B.S. degree in electrical engineering from I-Shou University, Kaohsiung, Taiwan in 2010. M.S. degree in computer science and information engineering from National Chiayi University, Chiayi, Taiwan in 2012. He is currently working toward the Ph.D. degree in Institute of Electrical Control Engineering from National Chiao Tung University, Hsinchu, Taiwan. His research interests include
in which capstone design courses differ between engineering programsis the type of design project students complete. There has been a recent trend for engineeringprograms to partner with industry to provide capstone design projects direct from the “realworld.” In 1994, industry projects accounted for approximately 59% of capstone design projectsin surveyed engineering programs, compared to 71% in 2005.4,8 Not only do these projectsenrich students’ appreciation of educational relevance, but they are also beneficial in establishingindustry ties to programs and encouraging faculty professional development.3 Industrysponsored projects present a number of drawbacks, however, including difficulty in findingprojects, determining an appropriate
Prerequisites for Capstone Design Abstract A NASA project to improve university design education curricula has resulted in the addition of an undergraduate introduction to systems engineering and a spacecraft subsystems modeling laboratory as prerequisites to the capstone spacecraft/mission design course in aerospace engineering at the University of Texas at Austin. The systems engineering course materials, created by the second author, are based on NASA systems engineering practices and available in the public domain on the internet (http://spacese.spacegrant.org). The current paper summarizes the content of the systems engineering course, as well as a companion lab on modeling spacecraft subsystems, and focuses on the positive
concrete examples. The course exposes students to various techniques ingetting the systems engineering job done, such as concept of operations, requirementsdevelopment, trade studies and decision analysis, failure modes effects analysis, andcost/schedule modeling. The order of the some 24 different topics follows, to some extent, thesystem life cycle of development, with system formulation topics at the beginning and systemimplementation topics later. Page 23.203.3The second effort originated from NASA’s sponsorship of engineering faculty ideas forchallenging capstone design projects. One of the winning proposals came from AuburnUniversity’s Drs
Paper ID #23976A Four-step Method for Capstone Design Teams to Gather Relevant andWell-defined Product RequirementsDr. Rachana Ashok Gupta, North Carolina State University Dr. Rachana A Gupta is currently a Teaching Associate professor and Associate Director of ECE Senior Design Program at NCSU. She teaches and mentors several senior design students on industry-sponsored projects (On average 12 / semester) to successful completion of an end product. These projects include all aspects of System Engineering: concept design, product design and design trade-offs, prototyping and testing (circuit design, PCB, mechanical
incorporating SEcontent in the traditional framework of engineering curricula and the lack of experience with SEby academic practitioners. This paper presents the results of a 17 month project between twolarge public institutions to investigate and incorporate educational tools and practical experiencesin the teaching of SE in existing design courses, to be later transitioned into a broad range ofcourses within the curricula. The main objective of the project introduced students to thepractical applications of the fundamentals of SE without displacing other course content. Thetarget courses at Texas A&M University included three senior-level courses, of which two wererequired capstone design courses and one an optional technical design elective
engineering approach withalternative implementations of the capstone engineering courses by other colleges anduniversities6-13. Specifically, any capstone projects involving 3D printing and Arduinos todesign a quadcopter are investigated and summarized13-23. The paper also attempts to comparethe student’s prototype with other popular commercially available quadcopters, including somecost comparisons24.Description of the Original Master of Science in Electrical EngineeringUniversity’s Master of Science in Electrical Engineeringprogram offers an in-depth understanding of modernsystems design for emerging and evolving technologies.Students experience design projects in digital, spread-spectrum and space communications, CMOS circuitry andcomputer
by theVee Model [1] [2] [3] [4]. Table 1. Measuring Learner AchievementThe Systems Engineering (SE) ApproachIn order to promote the systems engineering approach, the COE began by changing the requiredcourses from project management courses to the first two systems engineering courses. Then,the capstone was revised to follow the Vee Model from systems engineering. The perceivedbenefits of implementing systems engineering concepts include: Shift students’ focus from technology solution to what system must do (e.g. requirements) SE helps with planning, organizing, executing and evaluating a project SE provides structure through weekly deliverables to guide students throughout a project
Learning Courses using Crowd SignalsProject-based learning (PBL) is a growing component of engineering education in the UnitedStates. Its perceived educational value is exemplified by its explicit mention in ABET’sCriterion 5, which requires engineering programs to provide a culminating design experience thatincorporates engineering standards and multiple constraints. Capstone courses and design-build-test projects allow students to synthesize and apply engineering knowledge, skills, and tools toopen-ended design problems. Students work and communicate in teams to complete tasks likegenerating requirements, and testing and integrating equipment. There appears to be widespreadconsensus that project-based learning is