Paper ID #10255Intercollegiate Student Design Projects: Lessons Learned by Four Universi-tiesProf. Nassif E Rayess, University of Detroit MercyDr. Brian A Garner, Baylor University Dr. Brian A.Garner is an Associate Professor in Mechanical Engineering at Baylor University. He re- ceived his PhD in ME from the University of Texas at Austin in 1998, and joined the Baylor faculty in 2002. His research interests include computer modeling of the human musculoskeletal system, algorithms for human motion analysis, biomechanics of equine assisted therapies, and design of therapy assistance devices. His teaching includes capstone
), communicating effectively (g) and engaging in life-long learning (i).Since 2007, the engineering department at Messiah College has been pioneering a multi-yearplan known as the Integrated Projects Curriculum (IPC) that involves a four-semester project-course sequence, with students working on multidisciplinary teams, typically beginning in theirjunior year. Details of the IPC as a curriculum modification have been previously published,including benefits over the traditional senior capstone project course, portfolio evaluation ofstudent project work, structure of the course sequence, and the place of Group Orientation (GO),a one-credit course normally taken by our engineering students in the Spring semester of theirsophomore year, preceding the project
being fulfilled. Service learning allows engineering to be donewith a community that serves as a customer, while creative and original design solutions can be Page 24.188.4developed by students to meet the community’s needs. Projects can be chosen as a group effortor as a senior capstone design project.Since 2005, the College of Engineering (CoE), Engineering, Education Innovation Center (EEIC)at The Ohio State University has conducted an engineering service-learning program in Honduras.The program is designed to introduce and teach students the concepts of humanitarianengineering through a practical, real-world, hands-on, service-learning
newrelevant themes and focus, our first-year engineering courses can yet again transform with a newlook, yet still retain some of the cherished gems of the old.References 1. Doyle, T (2009). Cornerstone Design – Product Dissection in a Common First-Year Engineering Design and Graphics Course. Proceedings of the American Society for Engineering Education Annual Conference and Exposition, Austin, TX. Page 24.880.14 2. Grimheden, M (2007). From Capstone Courses to Cornerstone Projects: Transferring Experiences from Design Engineering Final Year Students to First Year Students. Proceedings of the American Society for
of the designproblem, summarize the project modifications that stemmed from the lessons learned in theprevious iteration, address the instructional coordination challenges and successes, and discussthe value of the multidisciplinary project to student achievement of course specific outcomesrelated to the freshman engineering sequence.IntroductionThis paper details the implementation and evolution of a multidisciplinary design project thatserves as a capstone activity for freshman engineering students among the MechanicalEngineering (ME) and Electrical and Computer Engineering (ECE) disciplines. All students froman engineering discipline at Norwich University complete a common, general introduction toengineering course that introduces them to
motivation to learn1, 2, 7.While project-based learning has been widely adopted for senior design capstone courses and isbecoming more common in freshman level courses8, the use of projects in intermediate coursesin engineering science is still rare. The National Science Board9 has identified three keychallenges facing engineering education including the need to retain more engineering majorsand the need to teach these students the professional skills needed to practice in the 21st century.Projects can be an important instructional strategy that engineering educators can implement toaddress these challenges; however, in-depth evaluations of the effect that project-based learninghas on a variety of student outcomes are difficult to find3. Without
Marymount University Dr. Matthew T. Siniawski is an Associate Professor of Mechanical Engineering at Loyola Marymount University in Los Angeles, CA. He teaches the senior capstone design project courses and has recently begun mentoring students on the design of assistive devices for children with disabilities. One of his research interests lies in understanding how these Learning Through Service projects impact participating engineering students and community partners. He is also interested in researching classroom-based peda- gogies of engagement and developing a standards-based grading system for engineering project courses.Dr. Adam R Carberry, Arizona State University Adam R. Carberry, Ph.D., is an Assistant Professor
of the 2002 IEEE Frontiers in Education Conference, F2-A, pp.12-14, 2002.13. S. Vattam, M. Helms, and A. Goel, “Biologically-Inspired Innovation in Engineering Design: A Cognitive Study,” GVU Technical Report - http://hdl.handle.net/1853/14346, 2007.14. V. Mahnic, “A Capstone Course on Agile Software Development Using Scrum,” IEEE Transactions on Education, Vol. 55, Issue: 1, pp. 99-106, February 2012.15. D.F. Rico and H.H. Sayani, “Use of Agile Methods in Software Engineering Education,” Proceedings of the Agile Conference (AGILE '09), pp. 174-179, August 2009.16. D. Damian et al., “Teaching a globally distributed project course using Scrum practices,” Collaborative Teaching of Globally Distributed Software Development
Page 24.740.2and collaboration ability that are crucial in our economy. Practical approach preferred byindustry and the more hands-on experience working collaboratively with others (includingindustry individuals) will benefit students in understanding project scheduling. Through theindustry project-based educational model, students spend their time learning material fromexperiential case studies brought to the class in small-size groups. After collecting and analyzingquantitative and qualitative data about real projects selected in the University’s region, they arepreparing the findings to be exposed in class through presentations and small hands-on demos.These accumulate into a capstone project with all knowledge gained for deeper
was found that the combination of styromol coatingin the experimental mullite sand produced the fastest cooling rate, and the combination of theexperimental coat in the control mullite sand produced the cast with the least number of internaldefects. The undergraduate student participated in this research experience received credits towardher senior project capstone culminating experience in engineering technology. Moreover, thestudent demonstrated her compliance with Criteria 3-Student Outcomes: a, b, c, d, f, and g.Currently she is employed by GM Smyrna plant as Production Supervisor & Group Leader.REU BACKGROUNDThe REU project “Industrial Application of Sensing, Modeling, and Control” sought to enhancethe image of the metal casting
to help students learn the technology. Past laboratory reports arebeing made available to the students to serve as a guide and samples of how to develop roboticprograms/syntax, sensor circuit wiring, methods used for part feeding and end of arm tooldesign. Digital videos of past projects have also been made available to the students to view anduse as a resource in developing their own projects. The development of the above instructionalresources will hopefully allow more in depth and complicated projects as students spend lesstime learning the basics.The authors feel using the type of “open ended” laboratory experiences described in this paper isan excellent way to prepare students for their senior capstone course which typically is an
,graduates, and faculty are presented. This paper also provides direction to the faculty for whichtypes of projects should be pursued for optimal educational benefit and to pinpoint areas thatmight need improvement in project design and implementation.1. IntroductionEngineering design courses provide valuable design experience for engineering students. Thecapstone design courses has gained considerable attention ever since it was found that the studentoutcomes set forth by the Accreditation Board for Engineering and Technology (ABET) areachievable in this course1 . Although capstone design courses are commonly taught at mostengineering schools, how they are taught and what they include varies widely2. Manysuggestions have been made to improve the
common to all students and the following two years are specific to disciplines. Through the course of their education, students take part in several interdisciplinary design projects, including three major design projects offered in first and second years and capstone projects in fourth year. In the capstone course, students work on industry motivated real-life projects. In order to evaluate the effectiveness of these project-based learning activities, and to better understand how students evolve through the completion of these projects, a survey was conducted among first year, sophomore and senior students. The survey asked students for their views on the structure of these design courses
the ‘perfect’ capstone project that captures the student’s interest and personal passion,and incorporates the fundamental engineering knowledge they have gained over the past 3 or soyears, is always challenging. As students master the fundamentals in their engineering education,the senior capstone project offers an opportunity to students to work on a problem that mighthave driven them to study engineering in the first place or, now armed with the new formalengineering knowledge, apply it to seeking solutions in areas of personal interest, experience andpassion. The challenge here as a faculty advisor, it to work with the student to develop a viableproject, which meets the educational outcomes, provides an exciting experience, and fits in
Paper ID #8657Student Perceptions of Design Projects That Involve Developing Assistive De-vices for Elementary School Children with DisabilitiesDr. Matthew T. Siniawski, Loyola Marymount University Dr. Matthew T. Siniawski is an Associate Professor of Mechanical Engineering at Loyola Marymount University in Los Angeles, CA. He teaches the senior capstone design project courses and has recently begun mentoring students on the design of assistive devices for children with disabilities. One of his research interests lies in understanding how these Learning Through Service projects impact participating engineering students
detail during class lectures and practiced these concepts in focused homeworkassignments, but students sometimes had difficulties implementing them in their design projects.One year, some students came to our offices for help during their capstone design project. Intheir project, they needed to design a power transmission by using gears and shafts. In theprevious DME course in which the theoretical analysis through lectures was focused without any Page 24.1189.2design project, we did discuss how to design a shaft, how to design a pair of gears and how tochoose bearings. They did homework assignments very well on each of these tasks. But theydid not
chambers to processclinical specimens such as blood, saliva, urine, or environmental samples such as drinking water, food,air. The cassette or ‘chip’ is mated with a small, portable instrument that provides the cassette withcontrolled heating, fluidic actuation and flow control, and detection capabilities. Most commonly, thetest result is determined by measuring an optical signal such as fluorescence. Ideally, the system is self-contained, can be operated by non-technical users, costs about $10 per test, and provides an easily-interpreted clinically-relevant test result in a time frame of one hour or less.From the perspective of engineering education, POC technology offers many opportunities and vehiclesfor interdisciplinary, capstone projects
design. Multi- Sections are Two semester Sections are Projects designed semester described as capstone projects. described as to be one “teams” and span Required for some “companies”. semester, though multiple majors. Projects can span projects can carry semesters. semesters or on longer. All Projects can span years. Can undergraduate semesters. participate students at the Students can multiple
, business and design. Multi- Sections are Two semester Sections are Projects designed semester described as capstone projects. described as to be one “teams” and span Required for some “companies”. semester, though multiple majors. Projects can span projects can carry semesters. semesters or on longer. All Projects can span years. Can undergraduate semesters. participate students at the Students can
short, fast statistical experiments (must use either confidence intervals,factorial ANOVA, or regression) from the capstone projects. With the widespread use ofSmartphones and mobile computing devices, we thought using these devices would be aninteresting and inexpensive way to develop new projects each semester.In the Fall 2013 semester, we had two student teams develop experiments to obtain engineeringdata on human balance using a balance board and their Smartphone with a purchased app. Thepurpose of the experiments was not to teach students to use Smartphone apps, they can alreadydo that effortlessly, but to have an inexpensive way for them to collect engineering data that theycould analyze and make statistical conclusions. We did anticipate
graduating from 4-year engineering or engineering technology program mustcomplete some type of capstone design project in order to graduate. It is of utmost that theproject selected is not any project, but rather one that simultaneously enhances the learningexperience of students, prepares the graduating ones for the real world, increases freshmenretention and strengthens relationships between universities and industries. The key to makingthe most out of capstone design projects is to carefully select ones that will accomplish all of theabove. After completing a 4-year engineering program, most students are proficient in theprinciples they studied in the classroom. Whether recent graduates are able to apply theseprinciples to various situations upon
undergraduate students, and the program employs seven full-timefaculty members, with approximately ten adjuncts. The curriculum covers six civil engineeringsubdisciplines: transportation, water resources, environmental, structural, geotechnical, andconstruction engineering.To graduate, students are required to pass at least one course in each of the recognized civilengineering subdisciplines. Students may then specialize in one or more of the subdisciplines by Page 24.325.2enrolling in several available electives. To complete their education, undergraduates participatein a two-course capstone design and project management sequence during their senior
the drawing sets as measured by the higher scoresin their capstone assignment.BackgroundThis research attempts to investigate the difficulty in the adaptation of open-ended design Page 24.906.2problems in the Graphical Communication Curriculum. This is done with the use of a personaldesign project in which all design decisions are left to the student. This encourages a higherlevel of involvement and brings to the forefront the need to be accurate in the use of properdimensioning. This is a reasonable assumption given that the student is now aware that they aretrying to communicate their own idea and not attempting to replicate a problem
student studying Public Policy at Oregon State University. She also holds an M.S. in Environmental Engineering and a B.S. in Mechanical Engineering from Oregon State Univer- sity. Her research in engineering education is focused on student teams engaged in the Virtual Bioreactor (VBioR) Laboratory project. She is specifically interested in understanding the student-instructor interac- tions and feedback that occur during this project and how these factors influence student learning.Dr. Debra M. Gilbuena, Oregon State University Debra Gilbuena is a postdoctoral scholar in the School of Chemical, Biological, and Environmental Engi- neering at Oregon State University. Debra has an M.BA, an M.S, and four years of industrial
also fromtechnology, engineering and social context perspectives. During their junior and senior years, theprogram provides undergraduates with a number of unique hands-on research, design, andprototyping experiences including Senior Capstone Projects and specially designed semesterprojects for numerous courses. In addition, in the Networking and Security sector, we designed acourse to mirror this type of rapid development by taking a group of under-skilled sophomore,junior, and senior students, assigning them to groups, and demanding a final product over justone semester. In that class (to be referred to as all-class project-based) just 11 to 14 studentswere challenged to work together to identify a single idea for a network-based end-to
using a single complex designproblem as with capstone projects, a collection of simpler problems were used. Each lecturetopic was organized around a “class problem set” packet consisting of problem statements andblank space for students to record the solutions and relevant background information (equationdevelopment, definitions, etc.). Problems were selected or designed to include not only relevanttechnical data, but also a real world context. All problems were solved in class with the studentscompleting all calculations and providing input on the general solution strategy. To illustrate the technique, consider the following problem from one of the class problemsets on “Equilibrium”, which included a total of seven problems. It is a
practice. Table 1: Traditional vs. Project-Based Learning in Engineering Education [21] PBL in engineering education tends to gravitate to creative projects engaged bylarger teams with longer and more complex lifecycles[5]. Engineering education hasbegun developing student-centered learning projects, particularly “capstone” projectsdone at the conclusion of a student’s degree program[11]. Project based learning Page 24.871.3opportunities have emerged in a number of applied science fields, including computer 2 programming [17] environmental science [26
solving. His research interests particularly focus on what prevents students from being able to integrate and extend the knowledge developed in specific courses in the core curriculum to the more complex, authentic problems and projects they face as professionals. Dr. Koretsky is one of the founding members of the Center for Lifelong STEM Education Research at OSU.Erick Jacob Nefcy, Oregon State UniversityDr. Debra M. Gilbuena, Oregon State University Debra Gilbuena is a postdoctoral scholar in the School of Chemical, Biological, and Environmental Engi- neering at Oregon State University. Debra has an M.BA, an M.S, and four years of industrial experience including a position in sensor development. Sensor development is
together and leveraging the research team’s expertise in civil engineering, engineeringeducation, and communication. We are focusing on the immediate need for improved, readily-transferrable techniques for the incorporation of technical writing in engineering courses, mosttypically at the sophomore and junior levels. The premise with selecting the sophomore andjunior levels is that most programs “bookend” technical writing in some fashion, with freshman-level design courses and senior-level capstone courses often being more project-based andalready involving substantial writing. In contrast, the sophomore and junior levels tend not toinclude much writing beyond formatted laboratory reports, although with resource limitationseven these reports have
Senior Member of the IEEE, and teaches courses in circuits, signals, communication systems, and networking.Prof. William Barnekow, Milwaukee School of Engineering Prof. William Barnekow is Professor of Electrical Engineering and Computer Science at Milwaukee School of Engineering. He earned the M.S. in Electrical Engineering from University of California – Berkeley. His primary areas of interest are in embedded microcomputer-based systems, digital circuits and systems, advanced digital design using VHDL, senior capstone design projects in software and computer engineering, and computer networks. Page 24.76.1