. She holds BA, MS, and PhD degrees. Page 14.1071.1© American Society for Engineering Education, 2009 Start Earlier, Prepare Better: An Engineering Senior Seminar CourseAbstractThis paper describes a seminar course offered to senior engineering students to prepare them fortheir senior design projects and to prepare them for their future professional careers.Most undergraduate curricula, especially in the field of engineering, include senior design as oneof the capstone courses. Successful senior projects demonstrate the knowledge and problem-solving abilities of students as well as
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
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
AC 2009-1624: INCORPORATING SOFT-CORE AND HARD-CORE PROCESSORSIN CAPSTONE DESIGN COURSESWagdy Mahmoud, University of the District of Columbia Page 14.724.1© American Society for Engineering Education, 2009 Incorporating Soft Core and Hard Core Processors in Capstone Design Courses Wagdy H Mahmoud University of the District of Columbia wmahmoud@udc.eduAbstractThis paper provides details of our electrical engineering program efforts to introduce sot andhard core processors and the concept of SoC in senior-level and senior-design courses. The
and developmentand b) the disconnect between perceived and expected proficiency for capstone graduates. Thiseffort adds to a growing body of work to understand and ultimately improve capstone education.1. Introduction and MotivationCapstone engineering design course program instantiations are based upon academic institution,department, and instructor. Each brings a unique perspective to the course and the learningenvironment. Capstone engineering design projects are each unique in their own right sinceindividuals or teams may select a project that has never been done before. In this context ofvariations of uniqueness, if that can be used as a means to define an educational environment, isit possible to evaluate a capstone engineering design
capstone engineering design courses 2. Define an assessment structure that measures achievement of targeted outcomes in the context of capstone engineering design projects 3. Present assessment instruments and bases for scoring used in team-based design projects 4. Propose an approach for measuring reflective practice in team-based design projectsOutcomes and Performance CriteriaThe Transferable Integrated Design Engineering Education (TIDEE) consortium recentlyreported four areas of performance for learning and solution development in capstoneengineering design courses. [22-24] In this paper, the four areas have been revised to alignclosely with learner development and solution development needed in a rapidly changing
224the design projects. The Power Point or similar presentations which take place at the end ofthe semester in front of Design Juries is the climactic event of the courses where thedefenses of the projects are conducted and which is a significant component of the gradesgiven to each design team member for their performance and contributions to the project.IntroductionContemporary work environments request/mandate that engineers be able to participate inwork on diverse projects and make their contributions to the effort. Therefore it isincumbent on the Universities teaching design to provide the requisite learning experiencespreparing the future engineers to hit the ground running and deliver what is expected ofthem. The Capstone Design
performance. This approach isevaluated versus the previous, a more highly subjective, assessment approach for this course.The paper concludes with a discussion of how this process will be implemented for later years.Introduction:At Embry-Riddle Aeronautical University (ERAU), Daytona Beach campus, two courses, CEC420/421: Computer System Design Lab and SE 450/451: Software Team Project, comprise thetwo halves of a single year-long capstone course provided by the Department of Computer andSoftware Engineering. There is typically a significantly higher number of software engineeringstudents versus computer engineering students. The course also invites participants from otherdepartments such as human factors in order to encourage a multidisciplinary
has shown, the Millennial student does not respond to traditional instructionaltechniques as past experience might indicate. This readjustment must also be made by employersin general and by first line managers in particular.Assessing the experience that students had with an interdisciplinary capstone senior designcourse provides valuable insight into workforce expectations and areas for management styleadaptation to maximize retention of technical staff. This work details and evaluates the responsesreceived from students taking an anonymous survey of their experiences working with technicalcontacts associated with sponsored design projects. This body of knowledge is important forfaculty in capstone design programs to understand, and more
introduced which assesses theeffect that differences between capstone experiences have on student outcomes.The proposed framework identifies sources of variation in a student’s capstoneexperience that are endogenous to the course (e.g., project type, team size) andexogenous to it (e.g., students’ prior knowledge, students’ demographics). This approachemphasizes an understanding of the underlying aspects of each student’s individualcapstone experience. In addition, differences that students bring with them to capstone,including prior industrial experience, academic performance, and demographicdifferences, are integrated into the framework. Understanding the connection betweenthese differences and the fulfillment of desired outcomes is important to
AC 2009-169: THE DEVELOPMENT AND IMPLEMENTATION OF ANEXPANDED CAPSTONE DESIGN EXPERIENCE BY REPLACING ANINTERNSHIP COURSEE. Delbert Horton, Texas A&M University, Commerce E.DELBERT HORTON, Ph.D., P.E., Assistant Professor of Industrial Engineering. Dr. Horton teaches a variety of engineering courses, including: Industrial Operations Research courses, Industrial Capstone System Design, and a Project Management course. He has over 38 years experience in academia and in product development and manufacturing, and intelligence systems development and integration for U.S. Government agencies. His experience includes various engineering development and management, and consulting roles at
Universal Eye Speculum with Vibrational AnesthesiaAbstractIn these days of universities encouraging interaction between students and the community,faculty members sometimes need look no further than their own personal lives to find suchopportunities. This professor was undergoing a simple ophthalmological procedure when shenoticed the discomfort related not to the procedure itself, but to the eye speculum used to holdback her lashes during the procedure.Discussions began immediately with the ophthalmologist regarding the causes of the discomfortand other limitations of what appeared to be a simple, mechanical device; from these discussionsa senior capstone design project was proposed. The goal of the project was
multiple approaches to deal with theuncertainty and we would like to investigate how engineering students respond to theuncertainty.We used a framework of mathematical thinking to examine how engineering students deal withuncertainty in design. Currently, in many engineering curricula, the first three years consist ofmathematics and science courses. In the fourth year, a capstone design project is added toprovide a chance for students to deal with complex real-world problems. Determining howstudents use mathematical thinking in this capstone design project will potentially informengineering educators on integrating engineering science and practical design tasks.Theoretical frameworkIn order to investigate how engineering students learn and use
industry sponsor perspectives.AcknowledgementsThis work was supported by the HPI-Stanford Design Thinking Research Program. Proceedings of the 2009 American Society for Engineering Education Pacific Southwest Regional Conference 19Bibliography1. Prince, MJ, RM Felder, “Inductive Teaching and Learning Methods: Definitions, Comparisons, and Research Bases,” Journal of Engineering Education, April 1995, pp. 165-174.2. Dutson, AJ, RH Todd, SP Magleby, CD Sorensen, RH Todd, “A Review of Literature on Teaching Engineering Design Through Project-Oriented Capstone Courses,” Journal of Engineering Education, January 1997, pp. 17
Materials Science and Engineering at Virginia Tech. She also is the faculty advisor for the Material Advantage Student Professional Organization and of the Journal of Undergraduate Materials Research (JUMR). In addition to teaching the materials processing laboratories, she mentors at least one team each year in their senior capstone project. Page 14.68.1© American Society for Engineering Education, 2009 A Multi-University, Interdisciplinary Senior Design Project in EngineeringAbstractA senior capstone design project is being conducted jointly by research teams at two
-2006 SL was incorporated intoa total of 38 undergraduate engineering courses taught by 32 professors and 5 teaching staffserving 721 undergraduate students. In 2006-2007 there were 39 undergraduate engineeringcourses that included SL taught by 31 faculty with a combined enrollment of more than 1250students. The main approach of the SLICE program to integrate SL into existing courses is theopposite of the EPICS program which created a series of separate courses with SL projects.SLICE does include some specifically interdisciplinary PBSL courses in the Junior and Senioryear, including Community-based Engineering Design Project II and III and the IntercollegiateEngineering Capstone Design Project. 8,9 Global Perspective ProgramAnother
presentation skills were also developed through each of threepresentations given by the teams during the semester. The primary purpose of thesepresentations was to facilitate communication of goals and progress to the other teamsand to the instructors. In the first presentation students shared their initial goals for thesemester. These were modified during the class discussion that followed to ensure that allaspects of the project were covered. A second presentation in mid-semester allowed forassessment of student progress. The Final Presentation was given at the end of semesterto report on the work completed and the remaining tasks necessary for the assessmenttrip. Although the course was originally tailored after the capstone design course
. Page 14.357.2Literature ReviewIt is not uncommon to include a design project in a thermal fluids laboratory experience forMechanical Engineering undergraduate students. Choate and Schmaltz1 discussed a design andbuild senior capstone experience in the thermal fluid sciences emphasizing professional ethicsand communication as well as the use of open ended design problems in undergraduateeducation. Kim2 explored the use of innovative design projects in a thermal fluids laboratorycourse to improve the undergraduates understanding of experimental data and design ofexperiments. Knight and McDonald3 looked at balancing the laboratory experience and designprojects in the distinct stems of Mechanical Engineering. Hoke and Somerton4 explored
MOSIS demonstrates the feasibility of the first design process. Better yet,the robot is currently operated via an FPGA board running Verilog code written by Page 14.989.10undergraduate students at Notre Dame. Throughout the process of reworking the controlstructure for Godzilla, undergraduate students have been exposed to numerous differentCAD tools, design strategies, and circuit properties. Based on all of our experiences, wehave learned that while both approaches offer different benefits, the FPGA approach ismore conducive to a capstone project for a VLSI Design class.AcknowledgmentsSpecial thanks goes to visiting professor Dr. Michael Ciletti for
AC 2009-457: LEARNING ABOUT BLOOD THROUGH A PROPERTY DATABASEPROJECTCraig Somerton, Michigan State University Craig W. Somerton is an Associate Professor and Associate Chair of the Undergraduate Program for Mechanical Engineering at Michigan State University. He teaches in the area of thermal engineering including thermodynamics, heat transfer, and thermal design. He also teaches the capstone design course for the department. Dr. Somerton has research interests in computer design of thermal systems, transport phenomena in porous media, and application of continuous quality improvement principles to engineering education. He received his B.S. in 1976, his M.S. in 1979, and his Ph.D. in
that even groupingstudents at different experience levels can achieve excellent outcomes. This research takes theseexperiences one step further to look at a sustainable system to enhance learning outcomes.The Courses and Projects The two courses described below are only two of many courses in the IE curriculum thatuse PBL. These courses are the first in which we grouped senior students from one class withsophomore students from another to work on industry generated projects. For more than ten years the senior facility design class has conducted projects for localcompanies. The students work in teams of four to seven students to produce an improvedfacilities design expressed in a report and a presentation. This capstone senior
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
, Northeastern UniversityAbstractCommunity partnerships comprise a core aspect of the Engineers Without Borders–USA (EWB-USA) mission. Since its inception in 2000 as a single chapter at the University of Colorado atBoulder, EWB-USA has grown to incorporate well over 250 chapters working with communitiesin 43 developing countries. This is largely through the efforts of young engineering students andtheir mentors. The overarching mission of EWB is primarily to provide support for communitiesin the developing world, by applying a broad range of engineering principles to generatesustainable solutions in challenging settings. Examples of a few past projects are water sanitationsystems, solar electrification, and compost sites converting waste into usable
circuitry not only works, but interfaces seamlessly with the overall system. This includes ensuring that the device can communicate with the system’s master controller. ≠ Documenting their design in such a way that it could be duplicated by a third party.Through this process, the students develop their own set of best practices so that they are trulyprepared for a very rigorous and time intensive capstone design sequence. In addition, whilethey have seen most of the design tools before, this experience prepares them to use the toolsprofessionally. Finally, this new project also gives the students a deeper understanding ofprocess control and digital instrumentation, a secondary goal that is part of the new PowerEngineering Technology
AC 2009-1643: COMMUNITY-BASED SERVICE PROJECT LEARNING IN CIVILENGINEERING COURSESClara Fang, University of Hartford Page 14.342.1© American Society for Engineering Education, 2009 Community-based Service Project Learning into Civil Engineering CoursesAbstractThis paper describes and analyzes the experience of implementing community-based serviceproject learning into civil engineering undergraduate courses at the University of Hartford, andconsiders the evidence of the impact of such learning on students and community organizations.The paper begins by discussing how such a learning module has been developed and analyzesthe
AC 2009-287: INTRODUCING BIOMEDICAL ENGINEERING TO MECHANICALENGINEERS THROUGH THERMAL DESIGN PROJECTSCraig Somerton, Michigan State University Craig W. Somerton is an Associate Professor and Associate Chair of the Undergraduate Program for Mechanical Engineering at Michigan State University. He teaches in the area of thermal engineering including thermodynamics, heat transfer, and thermal design. He also teaches the capstone design course for the department. Dr. Somerton has research interests in computer design of thermal systems, transport phenomena in porous media, and application of continuous quality improvement principles to engineering education. He received his B.S. in 1976, his M.S
multidisciplinary, project-based learning in biomedical engineering,” Proceedings of the American Society for Engineering Education Annual Conference & Exposition, Honolulu, Hawaii, 2007. 17. Way, T.P., “A Virtual Laboratory Model for Encouraging Undergraduate Research,” SIGCSE’06, Houston, Texas, 2006. 18. Koretsky, M., and Gummer, E., “The Role of Virtual Laboratories in Capstone Engineering Courses,” Research in Engineering Education Symposium, 2008. Page 14.767.10
due dates. The EGR 481 syllabus is as follows:Course Syllabus: EGR 481 - Fall 08 Project Design Principles and ApplicationsProfessor’s name: Dr. S. MonemiOffice location & phone: 9-527, 909-869-2520Email: ssmonemi@csupomona.eduClass time and location: MW 1:00-1:50 PM, Room 9-329Course prerequisites: Upper division standingOffice Hours: Monday, Tuesday, Wednesday 8:00 - 10:00 AMTextbook: Class notes and handoutsCourse Description: Completion of a capstone senior design team project under faculty supervision. Results are presented in a formal report.Course Coverage: Learn how to design, develop, and analyze
curriculum at the University of Hartford aims to engage students ininterdisciplinary design and real-world projects in each of their four years. As enteringfreshman, all engineering students are required to take a course in which they work with robotson various small projects. The sophomore course, described in this paper, is entitled Engineeringby Design and it is the next course in the sequence. Its purpose is to involve students in a projectthat is more comprehensive and realistic than their freshman experience. The junior level coursestudies the engineering process from conceptual design to manufacturing. Finally, as seniors, thestudents take their capstone design course in which groups work on a single significantengineering problem that may be