Session 2425 Capstone Design in Electrical and Computer Engineering Delivery and Assessment of ABET Criterion 3 James A. Reising University of EvansvilleIntroductionSeveral changes have been made to the Senior Design Project Course Sequence at the Universityof Evansville as previously described in “Senior Design Project Course Sequence, Electrical andComputer Engineering”1 to provide students with additional exposure to the non-technicalaspects of engineering and to enable assessment of the outcomes of ABET Criterion 32, listedbelow for
Design Lab and enhancing the experience for students working on engineering design projects. c American Society for Engineering Education, 2016 Using Capstone to Drive Continuous Improvement in the CurriculumAbstractCapstone is intended to be a proving ground for students to demonstrate that they are preparedfor professional practice. Accordingly, this paper addresses the problem of how capstone canprovide feedback and thereby continuously make improvements to the engineering curriculum.A progressive model for hierarchically prioritizing student outcomes and mapping them to directmetrics related to the curriculum is presented as a mechanism for generating feedback. Themodel is used to highlight areas of
. Page 25.590.1 c American Society for Engineering Education, 2012 Evaluation of Design Work and the Achievement of Learning Outcomes in Senior Capstone CoursesAbstractThe two-semester Mechanical Engineering Capstone course at Brigham Young University(BYU) was created in 1990 to help students learn a structured design process and assist them indeveloping design skills for the practice of engineering. Course outcomes were establishedbased on stakeholder input and students receive classroom instruction as well as do projectdesign work on projects provided by industry sponsors. To date more than 575 design and buildprojects have been completed for more than 300 industry project sponsors
the 2006-2007 academic year two MET students proposed, for their“senior project”, to convert an existing Mustang automobile to a rechargeable electric vehicle(REV) for commuter transportation. They derived a great deal of personal satisfaction byworking on a technically complex project.This paper will give a short description of the Mechanical Engineering Technology seniorcapstone design course sequence at University of Cincinnati, the list of pre-requisites of thissequence, and describe the 2006-2007 REV project, providing information about an affordable,efficient and cleaner method for commuter transportation.IntroductionCompleting a senior capstone design project is a graduation requirement for all students in theMechanical Engineering
stage. In the course, these process stages and visual steps are used tostructure and facilitate a semester long, student-directed, teacher-facilitated design project inwhich students are asked to design an innovative, inventive, or inspirational idea. Students arefree to choose a project focus in their area of interest. Students in the Digital Media program tendto choose topics such as: character, product, and game design, and architectural, interior, andenvironmental visualization. Self motivation, individuation, and actualization are pedagogicaldrivers that dramatically improve the students’ work ethic and academic performance.ScopeThe scope of this paper is intended to provide an outline of a design process and to describevisual thinking
countries. Capstone design is a good startingplace for faculty collaboration and synchronization, because it reflects and assembles allthe features of the curricula in different educational systems across a large number ofcountries.The authors have many years of combined teaching experience in two differenteducational systems and have launched collaborative and synchronous teaching of acapstone design course in the United States and China since 2010. The same designtopics have been offered to student teams in the two collaborating schools. Based on thestudents’ learning experience and performance in the finished projects, the majordifferences in the two systems are significant. For example, American students putmore effort into creativity, team
2022 ASE Illinois-Indiana Section Conference Proceedings | Paper ID 36137 Individual Capstone Assessment Using Z-Scores M. Austin Creasy* Purdue University mcreasy@purdue.edu L. Eric Stacy Purdue UniversityAbstractCapstone courses and the associated projects are the culminating learning experiencefor many engineering programs. Students are placed in teams with an assigned projectthat simulates working in an industrial setting. Grading individual students within theseteams can be challenging for an instructor because many of the course deliverables arethe
education to prepare engineeringgraduates for the competitive global market place1, 2. Among capabilities cited as deficient instudent preparation are professional skills and abilities to innovate technical products in thecontext of business conditions3, 4. Oftentimes, these topics are not given appropriate attention inengineering programs.Important professional skill development is often assigned to capstone engineering designcourses. These courses are the culminating experiences for undergraduate engineering students,and they often incorporate client-driven design projects that have significant professionalchallenges. Surveys of capstone design instructors, however, indicate that instructional focus andassessment of student learning vary greatly
Paper ID #16272Integration of General Education into the Senior Capstone Class in Engineer-ingDr. Patricia R Backer, San Jose State University Dr. Backer been a faculty at SJSU since 1990 and held positions as an assistant professor, associate professor, professor, department chair, and director. Since coming to San Jose State University in 1990, I have been involved in the General Education program. Currently, Dr. Backer serves as the PI for two SJSU grants: the AANAPISI grant and the Title III Strengthening grant both from the U.S. Department of Education.Dr. Laura E Sullivan-Green, San Jose State University Dr
Paper ID #9730Work in Progress: International BME Capstone and Summer Design Expe-rienceProf. Mark A. Ruegsegger, The Ohio State University Mark Ruegsegger is currently an Associate Professor of Practice in the Department of Biomedical Engi- neering at Ohio State University. He has a curricular focus on the Senior Design capstone course, which includes multi-disciplinary teams of BME, Mechanical Engineering, Occupational & Physical Therapy, and other Medical and Engineering disciplines. Each project team builds a device that provides assis- tance to those with disabilities, or projects with other clinical or
Bioengineering Capstone DesignAbstractStudy abroad course-work presents unique collaboration potential with capstone engineeringdesign, specifically as a source for student projects. Project-based instruction of bioengineeringcapstone design hinges upon engaging the students’ interest and commitment early in the project.Strategies to achieve this level of student commitment can include encouraging student-originated project ideas, seeking projects from real-world external clients in research andindustry, or offering instructor-originated projects orchestrated specifically to elicit studentinterest. Another alternative, soliciting student-originated engineering design projects derivedfrom study abroad courses, allows for practical projects with real
satisfactory answer can be found. Using data from periodic nationwidecapstone surveys, combined with observation and review of capstone design literature, we thenexplore whether these concepts may be typical of all Capstone Design courses. During Fall 2022,students in a large multidisciplinary engineering capstone program were asked to completeperiodic written reflections in support of proposed concepts 1 and 2, in order to explore whetherwritten reflection may support student progress through these thresholds. Four times over thesemester, students reflected on their individual project work as part of a team, and two to threetimes over the semester, teams reflected on what they learned from early-stage prototypes. Thispaper presents our rationale for
work looks at the impact of authentic value- added capstone projects on student’s soft skills by comparing results of a multi-year collaboration survey given to multiple senior capstone teams. The observed trends suggest that projects with community impact (irrespective of size or geographic constraint) foster increased communication, participation, and ultimately collaboration.Introduction There is a worldwide push to engage and develop K-12 student interest in Science,Technology, Engineering and Mathematics (STEM) disciplines1. Some STEM collegiate programs,such as civil and mechanical engineering, seem to have a plethora of incoming and returningstudents.Why?Buildingblocks
Paper ID #30836From Cornerstone to Capstone: Students’ Design Thinking and ProblemSolvingKaylee A Dunnigan, NYU’s Tandon School of Engineering Kaylee Dunnigan is a fourth-year undergraduate student working towards her B.S. in Chemical and Biomolecular Engineering at the NYU Tandon School of Engineering. They are the head of research and development for the Introduction to Engineering and Design at Tandon. In this position they de- velop semester long design projects for students, hands-on labs, as well as mentor students throughout these projects. They have worked previously at Sandia National Labs Advanced Materials Labs
club-to-coursework relationship occurs inthe interdisciplinary (ME and MET) Capstone Design course. Club-sponsored automotivedesign and build projects are treated essentially as any other industry-sponsored project,with the twist that they are funded primarily by students who are primarily enrolled ineither the ME or MET curriculum. Many of the students fill dual roles: That is, they helpdefine the projects in their role as club members and are then enlisted by courseinstructors to design/build/test the components as members of the design teams working,resulting in a course grade. This scenario has resulted in a level of student involvement in– and enthusiasm for – the engineering education process that has rarely been seen beforeat this
advisor, each student sought a laboratory in his/her area ofinterest. The research is structured as two course equivalents (100 hours each). “BiomedicalEngineering Capstone Research I” was designed to immerse the student in a wide range oflaboratory functions. “Biomedical Engineering Capstone Research II” is designed to give thestudent in-depth experience by functioning as an engineer on a project, either ongoing in thelaboratory or being developed.Grading of each course is via written and oral reports, as well as laboratory supervisor input.The first course requires the writing of a report on the experience, while the second requires aformal research paper in the style of journal articles.The experience from these courses has been excellent for
. She joined the research team in December of 2015 and is currently working on assessing motivation in academia. c American Society for Engineering Education, 2018 Providing Student and Faculty Feedback from Motivation Assessments in Capstone CoursesAbstractStudent motivation in capstone design courses is assessed in six capstone project courses at sixdiverse institutions in the 2017-2018 academic year. This assessment follows a similarassessment study at a large public university in six unique capstone courses. Reliability andvalidity analysis during the first year contributed to upgrades to the assessment tools currentlybeing implemented. Qualitative feedback from student and
Industry-Based Software ToolsIntroductionService learning or civic engagement is a goal being pursued by many institutions of higher education.This goal is addressed by computer science (CS) and information technology (IT) programs whichencourage or require some form of real world experience. However, students in computer science and inother science fields are not typically attracted by community or real world projects. Faculty and staff inthese disciplines have a responsibility to connect students with the community and the world that theywill support upon graduation. This paper describes a paradigm for community-based capstone coursesthat uses industry-sanctioned software engineering support tools. A discussion of the supportingpedagogical
AC 2012-3881: CAPSTONE DESIGN: INSIGHTS FROM AN INTERNA-TIONAL COLLABORATIVE STUDENT TEAMProf. James H. Hanson, Rose-Hulman Institute of Technology James Hanson is an Associate Professor of civil engineering at the Rose-Hulman Institute of Technology, where his teaching emphasis is structural analysis and design. Over the last nine years, he has taught or co-taught capstone design. For eight of those years, he has been in charge of recruiting external clients and coordinating projects for capstone design.Dr. John Aidoo, Rose-Hulman Institute of Technology Page 25.285.1 c American
Session 3425 The Mechanical Engineering Capstone Design Experience at Union College Prof. Nicholas Krouglicof Union College Department of Mechanical Engineering Schenectady, NY 12308AbstractDesign of Mechanical Systems (MER-144) is a project-oriented course that provides a capstonedesign experience for the mechanics area of the mechanical engineering curriculum at UnionCollege. Choosing an appropriate design project for this course, one that integrates all of
], but ECE students rarely take these courses from technology departments. A survey ofthe courses offered in the ECE curriculum by the four year universities in Virginia list no coursesin PLC based control. However, there are numerous reports on innovative approached to teachPLC in engineering technology programs [11-12]. To offset these missing skills in ECEgraduates, a capstone project as a pilot course was introduced in this work. The PLC basedcontrol can effectively be taught in a hands-on laboratory setting which is the focus of this paper.. Hardware and software integration using PLCs, and active lab-based learning is more effectivein these types of courses for engineering students [13], [14].Use of industrial robots in manufacturing
toreturn to QFD throughout their projects in order to learn this cascading process. This paper willassess the use of QFD during the later stages of a Capstone project to amplify the voice of thecustomer and emphasize quality control.Mechanical Engineering students at The Citadel are historically required to develop a house ofquality as part of an assignment generating requirements and constraints. In the beginning of thecapstone project, students are introduced to the structured process of defining the customer’srequirements and the process for transforming them into specific product designs. Students arerequired to establish the voice of the customer (VOC) into the design of their capstone project bycreating, deploying, and analyzing a survey
Engineering 19, 20. Theproposal for the new program included a new course, ECE 491 Senior Project I, whichwas introduced to satisfy two distinct goals: provide a capstone design experience;introduce new material in the area of computer network hardware. The course is notintended to replace a typical course in computer networks, which covers material relatedto network architectures, protocols and performance.The CourseOrganized in a 14-week semester with two 50-minute lectures and one 3-hour laboratoryperiod per week, ECE 491 has several goals: to learn about computer network protocolsand hardware; to work on a design project that must interface properly with other groups;to evaluate the project from ethical and socially responsible points of view; to
constructs of design activity engagement [4]–[7],motivation [8]–[10] and situated cognition [11]–[14]. Design activity engagement frames thesocial context of our investigation [4] and describes the complex cognitive [7], [15], [16] andsocial processes [2], [17] involved in the design process within a capstone course. Theseprocesses are a result from the structure of capstone courses, within which students engage incomplex open-ended projects and collaborate with student peers as well as professionalengineers sponsors. We further study student’s motivation to engage in design behaviors asrelated to their identity construction [8]–[10]. Finally, we connect students’ understanding ofdesign activity engagement to literature in situated cognition [12
Session F2D3 Technical Risk Management As the Connectivity in a Capstone Design Course Pete Hylton Mechanical Engineering Technology Department Purdue School of Engineering and Technology Indiana University / Purdue University at Indianapolis AbstractMany high-tech industries have recently begun to institute Technical Risk Management(TRM) as a part of major design efforts. The US Department of Defense has startedrequiring that TRM procedures be defined in proposals and that all major reviews
AC 2010-156: A CAPSTONE APPROACH TO EXPLORING TEACHEROUTCOMES FROM PROFESSIONAL DEVELOPMENTHoward Kimmel, New Jersey Institute of Technology HOWARD KIMMEL is Professor of Chemical Engineering and Executive Director of the Center for Pre-College Programs at New Jersey Institute of Technology. He has spent the past thirty years designing and implementing professional development programs and curricula for K-12 teachers in science and technology. At the college level, he collaborates on projects exploring teaching methodologies and assessment strategies in first-year college courses in the sciences, engineering, and computer science.Ronald Rockland, New Jersey Institute of Technology RONALD H
competence in design4.Design ModelA conceptual model for knowledge and abilities is one of three legs of the Assessment Triangle,used as a basis for knowing what students know1. Therefore, creation of valid assessments forcapstone engineering design courses requires such a model for engineering design. Design modeldevelopment presented here is part of a National Science Foundation project entitled:“Transferable Assessments for Capstone Engineering Design Courses”. Project leadership froma diverse multi-institution and multidisciplinary team offers potential for producing a model thatis transferable across widely varied capstone course environments.Achievement targets in capstone engineering design courses must be stated clearly so thatperformance
onbest practices and leading industry trends. To the AEC industry’s leading providers of critical thinkers,creative solution makers and future leaders, AE programs adopt a myriad of teaching strategies. The coreof AE programs revolve around providing a realistic design and construction experience for students thatsimulates industry, with senior capstone projects commonly being the location for such an experience. Upto now, much has been researched on capstone delivery, but often excluded in this research are AE programsdue to the small cohort size, as say compared to mechanical engineering. This paper is the third in a seriesof AE program benchmarking, where the initial paper looked at general formulations, delivery, and projectutilization
stillongoing. The author started teaching the class in Spring 2006. Since then each semester between19 and 33 students have been enrolled in the class, forming between five and nine teams.Status before RedesignThe senior design course prior to the redesign was structured as follows: • Each project became its own section of the senior design class. • Individual students or a team of students would work on a project, no rule existed on how many students were a minimum or maximum number for a team. • Each project had a faculty advisor. • The faculty advisor decided what deliverables were necessary for the project; no consistency existed for the whole class on reports or presentations. • The faculty advisor graded the projectThis
. Page 14.822.1© American Society for Engineering Education, 2009 Jumpstarting the Capstone Experience Through a Bioengineering Product Design CourseIntroductionFaculty at Florida Gulf Coast University have developed Bioengineering Product Design (BME4800C) specifically to introduce concepts and skills in bioengineering product design in thesemester prior to our capstone experience – thus, jumpstarting students into their senior designprojects. Our intent has been to use a reverse engineering, semester-long project to familiarizestudents with FDA regulations, intellectual property issues, and design with SolidWorks, amongother topics, in their junior year so more attention can be paid to the design