teachingsocial scientists to think like engineers, which will better prepare all of them to develop solutionsfor major societal problems.Community-engaged design projectsThe integrative capstone experience is the yearlong design project, where multidisciplinaryteams work together with community partners on problems at the intersection of health, society,and technology (Fig. 2). Teams are composed of 4-5 graduate students from different disciplinesand local community partners invested in solving big societal challenges. Graduate students areimmersed within community settings, challenging the traditional hierarchies between researchersand participants by engaging community stakeholders as full participants in the research process[10]. Over the year, these
team members need to be happy about the work they’re doing Responsibility get the work done on time Achievement team members collectively want to succeed to their best ability The personal growth and/or new goals the participants felt developed during theirteamwork projects were diverse and far-ranging, including the following: starting more projects,using more SolidWorks and coding software, thinking about their senior year capstone project,finding their desired career path niche, improving their understanding of MatLab and coding,restoring their faith in
clients with their printing needs. Students who use ourservices most often are those requiring additive manufacturing to build prototypes or models fortheir capstone projects, entrepreneur business classes, and first-year engineering projects.Figure 1: Launch Lab maker space with AR/VR systems and 3D printersParticipation in Launch Lab is inclusive and dynamic. The group meets weekly to discuss newand ongoing business. Attendees include students, faculty, staff, and persons from outside ouruniversity. Everyone with an interest is welcome to participate in Launch Lab projects and toattend our meetings. A few founding faculty members provide a stable core of membership whilemost students, faculty, and community members participate when their
Paper ID #18566Assessing Individual Temperament and Group Performance in a Project-Based Learning ExperienceCapt. Jeremiah Matthew Stache P.E., U.S. Military Academy Captain Jeremiah Stache is an assistant professor in the Department of Civil and Mechanical Engineering at the U.S. Military Academy, West Point, NY. He received his B.S. from the U.S. Military Academy, West Point; M.S. from both the University of Tennessee, Knoxville and Missouri University of Science and Technology, Rolla; and is currently a Ph.D student at Mississippi State University, Starkville. He is a registered Professional Engineer in the states of
in a loss of business and, in some cases, even bankruptcy of a company.Communication is a mix of verbal and non-verbal interactions and etiquette. Therefore, theengineering students need to practice and to enhance their skills in communication, while workingwith projects in teams with students from other countries and cultures. In this paper, the authorsdescribe their international projects where students from Denmark and the USA work together.For the USA students, it is a part of their senior design capstone course and for the Danish studentsit is an innovation and an interdisciplinary project, so called the Innovation Pilot [1].The key learning objectives for training communication skills in order to work in global teams andmanage projects
proficiency with tools such as a 3D printer, laser cutter, CNC router, solderingiron, and SolidWorks. Interestingly, although enhanced fabrication skills was a key learningobjective, no students indicated that this was a primary reason to enroll in the course, nor didthey view fabrication skills as directly benefitting them in either college coursework or in theengineering profession. Although they believed the construction experience might help with asenior capstone project, they saw fabrication as disparate from engineering practice, which theyviewed as heavily focused on theory and application. Rather, they believed the soft skillsembedded in the project – such as time management, scheduling, and communication – were thekey takeaways for
infrastructure resilience, and engineering ed- ucation. She taught 11 courses at UConn, including Statics, Structural Analysis, Senior Capstone Project, and new Structural Health Monitoring and Sensors courses. Dr. Jang is the recipient of the 2018 Civil Engineering Educator of the Year award from the Connecticut Society of Civil Engineers, the 2021 Dis- tinguished Engineering Educator Award from the UConn School of Engineering, and the 2021 ASEE Emerging Leader Fellow Award from the Civil Engineering Division. She is the newsletter editor of the ASEE Civil Engineering Division and the treasurer of the ASEE Northeast Section. In addition, she is a faculty advisor of the American Society of Civil Engineers (ASCE) UConn Chapter
Paper ID #30163Contextualized design projects in graphics and visualization course:Student perceptions and sustainability systems-thinking knowledgeDr. Raghu Pucha, Georgia Institute of Technology Dr. Raghu Pucha is a Senior Lecturer at the Woodruff School of Mechanical Engineering, Georgia Insti- tute of Technology, in the area of CAD/CAE and Manufacturing. Dr. Pucha teaches computer graphics and design courses at Georgia Tech., and conducts research in the area of developing computational tools for the design, analysis and manufacturing of advanced materials and systems. Dr. Pucha has three provisional U.S. patents and
education curriculum with a focus on laboratory courses for the University of Minnesota, Twin Cities, Electrical and Computer Engineering Department. His courses leverage project-based learning, experiential learning, and self-paced activities. David has over ten years of industry experience specializing in mixed-signal RF integrated circuit design, power systems, and power electronics.Prof. Kia Bazargan, University of Minnesota, Twin Cities Prof. Kia Bazargan is an Associate Professor with the Department of Electrical and Computer Engineering at the University of Minnesota. Has has published over 70 peer-reviewed papers and book chapters related to FPGAs and VLSI computer-aided design. He received his Bachelors degree
2001, she joined the Spacecraft Technology Center as an Assistant Director where she was responsible for the structural and thermal analysis of pay- loads. She served as Director of the Space Engineering Institute and in 2010 she accepted a position with the Academic Affairs office of the Dwight Look College of Engineering where she oversaw outreach, recruiting, retention and enrichment programs for the college. Since 2013, she serves as the Executive Director for Industry and Nonprofit Partnerships with responsibilities to increase opportunities for under- graduates engineering students to engage in experiential learning multidisciplinary team projects. These include promoting capstone design projects sponsored by
. Eng. Design, 16(6), 2005, pp. 557-576.[12]. Glier, M. W., et al. 2011. "Distributed Ideation: Idea Generation in Distributed Capstone Engineering Design Teams." International Journal of Engineering Education 27.6 (2011): 1281.[13]. C. Dym, et al., 2005. “Engineering Design Thinking, Teaching, and Learning”, Journal of Engineering Education, 94(1), 2005, pp. 103-120.[14]. Alexander, M. (1985). The team effectiveness critique. The 1985 annual: Developing human resources, 101- 106.[15]. Lai, J., Honda, T., & Yang, M. C. (2010). A study of the role of user-centered design methods in design team projects. Artificial Intelligence for Engineering Design, Analysis and Manufacturing, 24(3), 303-316.[16]. Hirsch, P. L., &
University of Nigeria, Nigeria and the University of Cape Town, South Africa. Currently, His research focus is in the field of Computing and Engineering Education where he is involved with investigating team-based computational projects using qualitative, quantitative, and artificial intelligence-based tools. He is also involved with developing and redesigning a Team-Based transdisciplinary graduate course under the Purdue University EMBRIO Innovation Hub Grant project, where He has contributed by applying computational fluid dynamics methods in the development of partial differential equation (PDE) models to implement cell cytokinesis. His ongoing Ph.D. research broadly investigates teamwork interactions and
of motivation on performance and persistence in mechanical engineering design courses. Elisabeth is an active member of ASEE, ASME, and Tau Beta Pi Engineering Honor Society. ©American Society for Engineering Education, 2023 Neurocognitive Examination of the Impact of Design Project Representation on Student Motivation and PerformanceAbstractThe ASME Vision 2030 Project (V2030) outlined a set of goals to aid in the development ofengineering education to better face the current and future demands of the profession. Part of thisvision proposed the implementation of designed-based curricula throughout the degree program.These design courses are meant to introduce students to implementing
Paper ID #32748Examining the Me in Team-based Projects: Students’ Perceptions of Timeand TasksDr. Marcia Gail Headley, University of Delaware Dr. Headley is a Research Associate III at the Center for Research in Education and Social Policy (CRESP) at the University of Delaware. She specializes in the development of mixed methods research designs and strategies for integrating quantitative and qualitative research approaches. She is the recip- ient of the 2017 American Education Research Association (AERA) Mixed Methods SIG Outstanding Dissertation Award. Her methodological work has been published in the prestigious
engineering students are required to complete a one- or two-semesterlong capstone course sequence that emphasizes integration of concepts and material fromprevious classes in the completion of a substantial design project. Education researchers havealso recognized the potential benefits design experiences can offer at earlier stages of anengineering curriculum, including introductory level courses [24, 35]. An important benefit ishelping to make clear to students at an early stage the importance of and linkage between thesupporting math and science courses they are required to take and the engineering field whichthey have chosen to study [10, 25, 32]. Design experiences completed early in the engineeringcurriculum can also make technical course
Paper ID #41521A Multi-institution Design Project on Sustainable Cities: The Sustainabilityand Social Entrepreneurship FellowshipMr. Christopher Rennick, University of Waterloo Mr. Christopher Rennick received his B.A.Sc., Honours Electrical Engineering in 2007 and his M.A.Sc. in Electrical Engineering in 2009, both from the University of Windsor, in Windsor, Ontario, Canada. Chris is the Engineering Educational Developer in the Pearl Sullivan Engineering Ideas Clinic at the University of Waterloo, where he focuses on implementing hands-on, real-world design experiences across Waterloo’s engineering programs. Chris is
Wireless Power Transfer (WPT) to terrestrial receiving antennae. This system is called Space Solar Power (SSP).Complex systems require multi-disciplinary teams working cooperatively to integrate theirfindings into a comprehensive whole. Engineering capstone projects are a good model however,they tend to include students within a single department and may lack the academic diversityneeded in a holistic study. Ultra-ambitious efforts like SSP are likely to require internationalparticipation, so an objective of the SSP-WPT team was to include representatives from severalnations as well.Attracting students to a summer internship generally requires pay. To offer college creditsgenerally requires tuition. Asking students to work pro bono is asking a
junior years is dominated by coretechnical subjects such mechanics of materials, aerodynamics, propulsion, and controls. Ideally,these engineering science courses give students the theoretical background that they can apply inengineering design courses, on student project teams, and as a practicing engineer. However, itcan be easy to teach engineering science courses with little connection to the practice ofengineering. One way to make the connection between engineering science content andengineering practice is to frame this technical content as mathematical models that describenatural phenomena under certain simplifying assumptions. With this framing, the purpose ofengineering science courses shifts from memorizing formulas and applying them
dedication from these students, along with their rigorousresearch endeavors, equates to the workload typically associated with two high school coursesper year. This level of commitment could readily qualify as capstone projects or independentstudy credits. Regrettably, very few school districts presently accommodate such research creditswithin their established curricula. Addressing this issue presents an emerging challenge foreducators and administrators: how to design supportive and flexible school curricula thatseamlessly integrate project-based and service-based learning initiatives into students' academiceducation. By developing an advanced school curriculum that incorporates these learningmethodologies, a ripple effect can occur, benefiting a
Paper ID #11784Infusing a Concurrent Engineering Model into AcademiaProf. John Wadach, Monroe Community College John Wadach is a professor and department chair of the Engineering Science and Physics Department at Monroe Community College in Rochester, NY. He has taught a variety of physics and engineering courses in his 30 year career. Wadach is most inspired by the use of design-build projects in his engineering courses. Infusing a Concurrent Engineering Model into Academia is the title of the NSF TUES grant that he and co-PIs George Fazekas and Paul Brennan were awarded $200,000. Wadach has been the co-organizer of
-endedproblem-solving is because of the limited guidance or literature on how to effectively integratewicked, real-world problems into engineering courses at the level of technical core.1.1 Current Approaches: Capstone Design and Co-op/InternshipIt is known that capstone experiences instituted in various formats do provide an effectiveculminating opportunity to engineering students for gaining a real-world experience with theengineering design process. However, since capstone projects come at the very last semester(s)and since each project cannot cover the whole range of technical areas that students are expectedto learn in their degree program, this approach cannot be the only solution for creating learningexperiences that support the growth of
these challenges. The program integrates a robust “design spine” that spansthe entirety of the undergraduate experience. This spine includes project-based courses thatprogressively develop students’ skills in design thinking, empathy, and technical analysis. Earlycourses, such as introductory design and manufacturing, provide foundational exposure to HCDprinciples, while senior capstone projects emphasize tackling comprehensive, real-world designchallenges. These capstone projects not only demand technical proficiency but also requirestudents to engage deeply with user needs, environmental considerations, and societal impacts.Extracurricular and informal learning environments are another hallmark of the program.Engineering competition teams
effectively 3) Design and conduct experiments 4) Analyze and interpret data 5) Design a system that is within realistic constraintsEngineering educators across the U.S. have recognized the power of this approach. For example,the number of team-based and multidisciplinary team-based capstone classes across the U.S. hasincreased15 since 1995, likely due to the influence of ABET on U.S. engineering programs.16Similarly, the number of “Cornerstone” freshmen engineering design project classes hasincreased, although by no means are they universal in U.S. engineering curricula4. Cornerstonedesign experiences require significant faculty involvement, and from the student’s point of view,projects should be motivating and challenging but not
for both online and on-campuseducation. Page 26.1204.5For challenges, we encounter two issues: (1) how to engage students in multidisciplinary teamprojects; and (2) how to ensure student authentication. 3As an engineering program, one of our expected student outcomes is an ability to function onmultidisciplinary teams. However, perhaps partly due to the small size of the program, most ofour capstone design projects are done individually. To enhance students’ team experience, we arecurrently working on two approaches: to have students working on similar capstone design projectsprovide feedback
inthe Introduction to Feedback Control course for several different projects, including linefollowing robot, ball levitator, ball balancer, and inverted pendulum self-balancing robot.Without learning Arduino in Digital Circuits Fundamentals, they would not be able to completethese course projects in just a few weeks. They have also used Arduino in their capstone seniordesign projects to build line following tennis ball shooter, remote controlled mobile trebuchet,robotic cat, robotic dog, Rubik’s cube solving machine, hovercraft, submarine, etc. Prior tolearning Arduino in Digital Circuits Fundamentals, students had to learn Arduino themselveswhile doing capstone senior design. As a result, they often could not build the working prototypeuntil
independentlyin unstructured work sessions to accomplish the project tasks. There is little faculty supervisionand the student must be self-reliant and motivated to make progress in the project while alsoknowing when to ask for help. A third distinction is that the results of an independent study mayresult in novel preliminary findings that can contribute to new knowledge or original work. Acapstone project is typically focused on application and the results obtained may not be original.Students may use an independent study as an opportunity to further their Senior Capstone projectby finishing any additional work needed to conclude the project. These types of experiences arevery similar to the typical Capstone project and are not the focus of this
faculty converged on the final AerospaceEngineering Curriculum informed by benchmarking against peer institutions. It will explore howthe fledgling department will leverage both new aerospace engineering courses and existingmechanical engineering courses for curriculum and faculty optimization. The desired end state isa program that both satisfies ABET Accreditation requirements and maximizes high-qualityinstruction with projects-based, hands-on learning leveraging flight laboratories in thedepartment’s aircraft, a new wind tunnel (under construction), summer internships with DoD andindustry partners, and culminating in a sponsored capstone design project.Key words: Aerospace Engineering, education, curriculum development, program
theculmination of the second course, students will have applied the EDP to a minimum of 4 projectsand 6 Quick-Builds, allowing them to refine their EDP skills. In Honors Engineering III, studentswill tackle extremely complex problems, implementing sophisticated techniques and tools such as3D printing, electrical sensors, and microcontroller-driven control systems. This course willculminate in a capstone project requiring multiple iterations of testing and re-design.Quick-Build Module DevelopmentEach module was based on an engineering sub-discipline and was divided into 2 periods: 1)brainstorming and 2) building and testing. Fellows consulted with the high school teacher aboutthe design challenge that they wished to introduce to the students. This was
Native American Engineering StudentsABSTRACTEngineering students have limited opportunities for experiential learning, especially at TribalColleges and Universities, where engineering programs tend to be small, and resources areextremely limited. Typically, the first and senior years of a student's engineering educationjourney are infused with hands-on projects and capstone courses. However, the sophomore andjunior years generally need more opportunities for active learning, gaining professional skills,and developing a sense of professional practice. Also, scholars have increasingly realized thatarts subjects help students understand connections between different disciplines from acomprehensive perspective.This study highlights findings from
Paper ID #15776Comparison of Students’ Outcome to Different Types of Project Based Ser-vice Learning Experiences for CEE Senior DesignDr. Dan Budny P.E., University of Pittsburgh Dr. Dan Budny joined the University of Pittsburgh faculty as Academic Director of the Freshman Pro- grams and an Associate Professor in Civil Engineering in January 2000. Prior to that time he served as Associate Professor of Civil Engineering and Freshman Programs at Purdue University. He holds a B.S. and M.S. degree from Michigan Technological University, and an M.S. and Ph.D. degree from Michigan State University. His research has focused on