Paper ID #26064Work in Progress: Designing Modeling-based Learning Experiences Withina Capstone Engineering CourseMr. Joseph A. Lyon, Purdue University, West Lafayette Joseph A. Lyon is a Ph.D. student in the School of Engineering Education and a M.S. student in the School of Industrial Engineering at Purdue University. He earned a B.S. in Agricultural and Biological Engineering from Purdue University. His research interests include models and modeling, computational thinking, and computation in engineering education.Dr. Alejandra J. Magana, Purdue University, West Lafayette Alejandra Magana is an Associate Professor in the
]), engineering students (e.g., [4]), engineering courses (e.g., [5]), and classroomactivities and projects (e.g., [6]). To better understand how well students conceptualize EM, faculty in the Department ofEngineering Education at The Ohio State University created an assignment to investigate howwell students understand EM and what concepts they relate to it. Note, this university uses theKEEN framework to describe EM, but rather than using the word “Entrepreneurial” they haveused “Engineering” in some courses to help students understand that the skills involve more thanjust the business aspects of engineering design [7]. This assignment was given to both a first-yearengineering course and a multidisciplinary engineering capstone course. The
Paper ID #31052Let’s get ethical: Incorporating ”The Office” and engaging practicesinto an ethics module for capstone studentsDr. Joshua Gargac, University of Mount Union Joshua Gargac is an assistant professor of mechanical engineering at the University of Mount Union in Alliance, OH, where he advises the mechanical engineering senior capstone projects and SAE Baja team. In addition, Dr. Gargac teaches first-year engineering courses, computer-aided design, kinematics and dynamics of machinery, design of machine elements, and manufacturing science. He received his BSME from Ohio Northern University and a PhD in
CS II, may alsoend up taking the same higher-level courses as students that have taken CS I and CS II.We study student performance in the two courses CS I and CS II to investigate the relationshipbetween grades in these two courses and advanced courses such as Object-oriented ProblemSolving, Data Structures, and Capstone Software Engineering course. The analysis of student datahelps us answer the research questions.Software Engineering is an advanced course that utilizes concepts learned in foundation coursesas well as 200- and 300-level courses. Students take up a term project and go through all phasesof software development i.e., Requirement gathering, Design, Development, Testing andDeployment. It is for this reason that we consider
Director of the International Senior Design program that allows undergraduates to combine the engineering capstone design course with field construction in a developing country. She is a co-author and illustrator for a book to be published in 2008 titled Field Guide in Engineering for Development Workers: Water Supply, Sanitation Systems, and Indoor Air Quality (American Society for Civil Engineers (ASCE) Press). Ms. Phillips brings over 20 years of project and company management experience to her professional practice-type classes.James Mihelcic, Michigan Technological University Dr. James R. Mihelcic is a Professor of Civil & Environmental Engineering at Michigan Technological
potential for the capstone projects by reducing machining waste. This paper’s purposes are to 1) provide the necessary background information to fullyunderstand the key elements of metal casting in an engineering Capstone course and 2) documenthow the availability of in-house sand casting impacts students’ design thought process andenjoyment of the course. These goals provide direction for future capstone project curriculumdevelopment to exploit the potential of sand casting for prototyping purposes while remainingunder safe working conditions in the lab. This process can also lead to a significant cost reductionin the capstone project development and raw material purchase, as metal waste from subtractivemanufacturing processes can be
AC 2011-662: ASSESSING ENGINEERING STUDENTS’ ABILITIES ATGENERATING AND USING MATHEMATICAL MODELS IN CAPSTONEDESIGNJennifer L. Cole, Northwestern University Jennifer Cole is the Assistant Chair in Chemical and Biological Engineering in the Robert R. McCormick School of Engineering and Applied Science at Northwestern University. Dr. Cole’s primary teaching is in capstone design, and her research interests are in engineering design education.Robert A. Linsenmeier, Northwestern University Professor, Departments of Biomedical Engineering and Neurobiology & Physiology and Director, North- western Center for Engineering Education ResearchEsteban Molina, Florida International University Esteban Molina has a B.S. in
Engineering Education, 2017 Development of a Design Canvas with Application to First-Year and Capstone Design CoursesThe adoption of canvas tools in entrepreneurship and design education is increasing. TheBusiness Model Canvas (BMC), perhaps one of the best-known canvas tools, is the key elementof the Lean LaunchPad methodology (Blank, 2013) – a widely utilized approach to businessmodel development. Importantly, using canvases like the BMC supports student learning througha data-driven and iterative process that actively engages students. Another benefit of the canvasapproach in an educational setting is they can be used in a preliminary or conceptual designphase, where students can begin to identify and make
the local community on the opioid crisis facing rural America.Interdisciplinary communication methods used by student teams to engage various communitystakeholders and the project sponsors are discussed. The challenges and lessons learnedassociated with connecting a large community project across three semesters in two differentdepartments with different learning objectives are discussed.IntroductionA senior design project course is designed to satisfy Accreditation Board for Engineering andTechnology (ABET) engineering design criteria. ABET Criterion 5 on Curriculum describes theintegration of content as follows: “ The Integration of Content: Baccalaureate degree curriculamust provide a capstone or integrating experience that develops
to design an effective interdisciplinary course or project. Thecollaborative experience model for construction undergraduates has been initiated to promotecollaboration between architecture and construction management students2. The cooperativemodel is important to promote interaction between design and building education, and to developother multidisciplinary approaches for integrating pedagogical models in many discipline-specific topics.Many efforts have been made on design engineering capstone courses3-5. For example, Page 15.997.2integrating senior capstone courses using different pedagogical strategies have been designed
Paper ID #9819A Comparison of Adult Learning Characteristics between First-year and Se-nior Capstone StudentsDr. James J. Pembridge, Embry-Riddle Aeronautical Univ., Daytona Beach Page 24.33.1 c American Society for Engineering Education, 2014 A Comparison of Adult Learning Characteristics between First-year and Senior Capstone Students: A Pilot Instrument to Measure Andragogical ConstructsThe ability to teach engineers who are capable of working effectively in a field or disciplinerelies on an
Session: 3242 A Graduate Case Study – Integration of Capstone Concepts in Engineering Management Paul Kauffmann and Bill Peterson Old Dominion UniversityAssessment and Capstone Case ProjectsMany master in engineering management programs are considering accreditation by ABET,ASEM or similar organizations as a means to demonstrate and assure quality. In manyassessment systems, a capstone project is employed to provide a consistent and controlledopportunity for students to demonstrate proficiency in key learning outcomes. This papercontributes to the literature
Session 1931 Managing Virtual Teams in Senior Industrial Projects Ahmed ElSawy*, Bonita Barger**, Tom Timmerman**, and Wagdy Mahmoud* *College of Engineering/**College of Business Administration Tennessee Technological University, Cookeville, TN 38505-0001AbstractThe Industrial Projects course at Tennessee Technological University represents the practicalexecution of the technological skills and knowledge the students gained from all sourcesthroughout their college career, work experience, and life. This course is the capstone experiencethat requires both teamwork and individual skills in
Academic Versus Industrial Senior Design Projects Michael A. Rother Department of Chemical Engineering University of Minnesota-Duluth For the past seven years, the Department of Chemical Engineering at the University ofMinnesota-Duluth has used industrially supplied projects in its senior capstone design sequence.The change was implemented from academic to industrial projects as a result of an ABETrecommendation to increase the multidisciplinary experiences of the students. By ABETdefinition, an industrially supplied project is considered multidisciplinary. The department doesnot charge companies for the student
this project for example, multi-disciplinary tasks involving avariety of skills such as component specification, selection and procurement; mechanicalfabrication; embedded software design, implementation and testing; documentation; and flightrequirements provided a rich arena from which to gain experience. Indirect benefits also exist.Current students in the ET programs, now aware of applied-research grant project opportunitieswithin their program area, are more motivated to stay in their ET program of choice because theysee real-world application of the program content. They are also encouraged to better prepare forand approach senior project or other capstone experience. Finally, the presence of such a projectin the department has also
determined the effectiveness of the various purification techniques for removingcontaminants ranging from dirt and sediment to chlorine and bacteria. Also, the studentcompared the various techniques based on the rates of production of clean water, operation costs,energy efficiencies and sustainability.IntroductionA senior capstone design project was undertaken in the 2006-2007 academic year to create adevice for use as an educational tool for water quality and purification. Inspiration for theproject came from the fallout after hurricane Katrina. The project eventually lead to thefounding of a long-term water project for education and implementation in developing nations,where potable water is scarce1. Initially, the project built on a collaboration
. Page 15.198.2© American Society for Engineering Education, 2010 Assessing Curriculum Improvement through Senior ProjectsAbstractSenior project and/or capstone design courses are intended to provide a culminating designexperience for students and to demonstrate their understanding of engineering knowledge andtheir ability to apply that knowledge to practical problems. It is expected that the quality andattributes of students’ senior design projects can be used as a good measure of determining howwell the curriculum prepares students to engage in engineering design as well as a measure offaculty teaching and student learning. This paper reports the results of a study designed to assesswhether the new computer engineering curriculum
project management approach for conducting business andimprovements. It is crucial to embed the practice of real-world project management teams in thestructure of the capstone project courses.This paper aims to study and analyze a model of capstone projects, the senior project course.Students from at least three different engineering technology programs are teamed up towork together in an innovative way to brainstorm, suggest and choose a project. Furthermore,teams work together through the process of creating a commercial product.The teams in this course will also create a complete project document that includes the patentsearch process, market survey analysis, design, product testing, and commercialization plans.This documentation is an
. c American Society for Engineering Education, 2017 A Pilot Program in Open-Ended Problem Solving and Project ManagementAbstractThis research is motivated by the need for students’ early exposure to work readiness skills thatpromote effectiveness in dealing with complex open-ended technical problems as may beencountered in senior capstone projects or professional practice. This paper presents preliminarywork in the building of Rube Goldberg machines as student projects to foster some of theseskills. Design of Rube Goldberg machines may be employed in a number of settings as a vehiclefor teaching basic engineering skills. These designs require students to creatively consider avariety of
product team Figure 1 The IPT Program Strategic MissionThe Senior Design ExperienceFor the past 18 years the capstone course at the undergraduate level in the department ofMechanical and Aerospace Engineering (MAE) was a one-semester long senior designexperience. This design experience has been taught in an integrated product team environmentwith projects that have been supported by the local aerospace community (i.e., NASA or DoD)including involvement from other disciplines such as Electrical Engineering, Marketing, andTechnical Communications. The UAHuntsville Senior Design Experience takes a project based Page
project choicesthat meet their individual needs for a challenging, rewarding academic experience. The fact thatthis course is offered in addition to the program-required capstone course and taken by over 90percent of the seniors each year testifies to the value that the cadets see in the course.In the past decade at USMA, academic promotion criteria have increasingly looked at researchand publication records of faculty members. Thus, what was once a primarily teaching-focusedschool has began to morph into a research-focused school. With the growing need for modestfaculty research and the absence of graduate students, the development of undergraduateresearch opportunities quickly evolved. There have been numerous successes and failures overthe
towards the newer students [8].Motivation: It has been shown that students felt improvement in communication and problem-solving skills when provided with the opportunity to work with industry partners [9]. If it isassumed that this was mostly due to their ability to work with more experienced individuals andto benefit from more senior perspectives, the effort in introducing a cross-cohort projectmay demonstrate the same benefits albeit to a lesser extent since the difference in experience issignificantly smaller. Lu et al. in 2016 developed a project which started in 2012 and continuedto the date of publishing which allowed over 50 undergraduate students from many differentcohorts to contribute on a capstone project, sometimes over several years
/thayerschool/sets/72157626513266429/ ; last accessed January 1, 201217) Goff, R. and Terpenny, J; Capstone Design, Mechanical Engineering Project or Personnel Management challenge?; ASEE Annual Conference and Convention Proceedings, 2006, paper #167618) Personal verbal communication between the author and one of the Formula HybridTM competition judges during the 2010 competition event at Loudon, New Hampshire19) Schuster, P., Davol, A., Mello, J.; Student Competitions – Benefits and Challenges, ASEE Annual Conference and Convention Proceedings, 2006, paper #183520) Chang, I, et al; Designing and manufacturing of Formula SAE-Hybrid racecar for a new engineering education program, 2010 IEEE Vehicle Power and Propulsion
engineering cornerstone and capstone projects are becoming an important part ofengineering curricula in order to satisfy ABET requirements, these projects differ from the wide-spread meaning of project based learning where projects are used to as instructional tools to teach newconcepts and where the whole learning process in a given area is organized around projects.Project based learning, as well as problem-based learning, has its roots in constructionism learningtheory.8 Constructionism9 posits that individuals learn best when they are constructing an artifact thatcan be shared with others. Dewey10, Piaget11, Brunner12, and others have contributed to thefoundation of these methods as an outgrowth of cognitive and later constructivist, theory of
in continuing this research and he was currentlyworking on using GPGPUs to accelerate an image processing algorithm as a part of his senior(capstone) design project, it seemed a natural fit to consider implementing the sFFT on a GPGPUas well. While understanding the mathematical proofs that underlie the theory for the sFFT issomewhat complex and would be beyond the scope of an undergraduate research project, amanageable project is to reverse engineer the existing C code and find a portion that is amenableto parallelization on GPGPUs. The C code for the sFFT was available from the researchers atMIT who were working on the sFFT.9 This code was used to validate their sFFT algorithm butthe focus was not on optimization to take advantage of a
twosections. Many studies on class size compare very small classes to very large classes, but thisstudy aims to determine whether a relatively small increase in class size (68% in this case)demonstrates any significant differences in student perceptions of learning and in theachievement of learning outcomes.2. Project-based Learning CourseThe project-based learning course that is discussed in this study is a junior-level course that aimsto introduce students to engineering design and development and project management whileworking in interdisciplinary teams. Furthermore, this course is expected to serve as a preparationfor the Senior Design (Capstone) course during the senior year. The course content and the maindeliverables of the course are listed
students who have very good GPA struggle during senior capstone design. This is duemainly to the lack of system-level integrating experience. When given a real-life project,students have challenges of linking it with what they have learned from different courses inprevious years. “It seems that all the course projects we completed previously in individualcourse have nothing to do with the senior design” said one student.One of the student outcomes evaluated by ABET for engineering programs accreditation is “anability to design a system, component, or process to meet desired needs…”1. Among the most-favored pedagogical models to help students attaining this ability are integrated curricula2,project-based learning (PBL), problem-based learning, and
two semester capstone design projectinvolving design of a product or process, analysis, simulation, prototype, fabrication, assembly,testing and assessment of design. Students are required to utilize current technical tools to solvethe chosen problem. Results of such projects are presented as written report, and publicpresentation of the overall project. They also use project management tools to plan and trackproject progress. Typically in the two semester project, students complete the design andanalysis of the subject in first semester, and fabrication and development of the prototype oractual system during the second semester. Recognizing the value for student practices inresponding to real-world needs, expectations, and constraints
the system. In this case, students are required to acquire all necessarycomponents through local dealers or the internet. Although these components are readilyavailable and inexpensive, this requirement adds the dimension of responsibility to theproject as well as familiarizing the student with the cost of building such a system. It alsoemphasizes the need to be cost effective.This experiment, which started as a capstone project, is now used regularly in theautomatic control class due to the overwhelmingly positive response from students. It hasproven to be both a very successful learning and teaching experience. As seeminglyabstract ideas become practical solutions and skills, students begin to trust theirknowledge of the subject matter
and learn from fellow students’ cooperative education experiences. They also examine practices that were realized in various course projects and assignments, and analyze the differences and similarities between their experiences in industry and their learning experience from the course. After the session, the students combine their perspectives from both retrospection and examination to reflect on how they will perform differently in their next co-op rotation or work assignment. Session Theme (Classroom