intelligence (AI), biomanufacturing, regulation, cyber- becoming standard regulations and industry practice. Thisphysical system risk management and automation, biology, and framework includes an iterative process as shown in Figure 1biochemistry guides a multifaceted capstone project. This below. One pivotal element of this framework is transformingproject focuses on developing an interdisciplinary, modularized the validated innovative research to education and industryand extensible STEM education and industry workforce life- workforce training and ultimately reflecting conceptlong training platform. This advanced educational initiative applications in industry practices; see for example [2].offers
intelligence (AI), biomanufacturing, regulation, cyber- becoming standard regulations and industry practice. Thisphysical system risk management and automation, biology, and framework includes an iterative process as shown in Figure 1biochemistry guides a multifaceted capstone project. This below. One pivotal element of this framework is transformingproject focuses on developing an interdisciplinary, modularized the validated innovative research to education and industryand extensible STEM education and industry workforce life- workforce training and ultimately reflecting conceptlong training platform. This advanced educational initiative applications in industry practices; see for example [2].offers
intelligence (AI), biomanufacturing, regulation, cyber- becoming standard regulations and industry practice. Thisphysical system risk management and automation, biology, and framework includes an iterative process as shown in Figure 1biochemistry guides a multifaceted capstone project. This below. One pivotal element of this framework is transformingproject focuses on developing an interdisciplinary, modularized the validated innovative research to education and industryand extensible STEM education and industry workforce life- workforce training and ultimately reflecting conceptlong training platform. This advanced educational initiative applications in industry practices; see for example [2].offers
intelligence (AI), biomanufacturing, regulation, cyber- becoming standard regulations and industry practice. Thisphysical system risk management and automation, biology, and framework includes an iterative process as shown in Figure 1biochemistry guides a multifaceted capstone project. This below. One pivotal element of this framework is transformingproject focuses on developing an interdisciplinary, modularized the validated innovative research to education and industryand extensible STEM education and industry workforce life- workforce training and ultimately reflecting conceptlong training platform. This advanced educational initiative applications in industry practices; see for example [2].offers
intelligence (AI), biomanufacturing, regulation, cyber- becoming standard regulations and industry practice. Thisphysical system risk management and automation, biology, and framework includes an iterative process as shown in Figure 1biochemistry guides a multifaceted capstone project. This below. One pivotal element of this framework is transformingproject focuses on developing an interdisciplinary, modularized the validated innovative research to education and industryand extensible STEM education and industry workforce life- workforce training and ultimately reflecting conceptlong training platform. This advanced educational initiative applications in industry practices; see for example [2].offers
tool for control systems Matilda Ho Mechanical Engineering Student University of Texas at Dallas AbstractAmong engineering students, control systems are a notoriously challenging subject for itsabstractness—making difficult to connect each of its subtopics for a comprehensive understanding.The undergraduate capstone project discussed in this paper focused on developing a free, onlineeducation tool for control systems that integrates the traditional curriculum with interactivecomponents to create a more comprehensive learning experience. The technical products used todevelop the learning tool
homes and use the EPA’s EJSCREEN tool to look at the demographics inthe area and pollutants they are subjected to. During class, students were given a briefexplanation of California’s Cap and Trade Policy. They then played a game to simulate the openmarket of allowances and see where emissions improvements were and were not made. Studentswere then asked what changes could be made to the game (and, by extension, to the Cap-and-Trade Policy) to encourage equity.The senior Capstone class experienced a broader inclusion of social justice in their classcurriculum. From the start of the quarter, students were told they would need to include a socialjustice analysis as part of their Capstone project report. This analysis was required to includemeans
that for a student to do well in the capstone course, theymust have grounded knowledge in the lower-level courses including the three coursesdepicted. The design of core courses in the lower-level or upper-level is flawed whenthere are gaps in knowledge resulting in students’ inability to make the connection fromone level to the other. Capstone [1] Cost Estimating [2] Project Planning and Scheduling Construction
. Robotic design is currentlynot yet well represented in undergraduate academic programs.In order to prepare our computer engineering students for the robot design experience which canbe considered as a complex embedded systems design, we offer two courses on embeddedsystems. However, these two courses on embedded systems design are not enough to teach thestudents the skills that they need. In order to satisfy the ABET requirements students incomputer engineering program are required to take a capstone course. The projects that studentsdo in this capstone course are embedded projects. This paper describes a robotic project that astudent has done in this capstone course.IntroductionWikipedia defines a robot as [1] “ a machine—especially one
. Capstone design is a culminating course offered toundergraduate students in which they collaborate to design, build, and test engineering solutionsfor real-world problems. The students enrolled in these courses must first solve the problems offorming teams and identifying a course project. This is especially challenging for one-semestercourses because students must form groups in less than a week. The challenge is furtherexacerbated for interdisciplinary capstone design courses. Students must form teams withindividuals studying different majors; in most cases, teammates have never previously met. Atthe end of the semester, teams display and pitch their inventions and marketability to a panel ofjudges, guests, media, and peers while competing for
c Society for Engineering Education, 2021 Leader Development Model (LDM) through Self and Peer Assessment across the CurriculumAbstractLeadership development and assessment impact the engineering program curriculum at TheCitadel, resulting in embedded indicators and teamed learning activities mapped across all fouryears of the undergraduate curriculum. The institution-specific leadership model developed atThe Citadel prepares students for leadership through teamed challenges and projects, positioningthe engineering program to provide robust learning experiences for students.Reinforced in multiple senior-level capstone design courses and a sophomore-level, engineering-specific communications course
of automation components including programmable logic controllers (PLC’s),actuators and robots, sensors, motors, drivers, and operator control displays. Students design,simulate, build, test and document automation systems for capstone projects to demonstrate theirunderstanding of the subjects. The initial version of the courses and lab was described in a paperin late fall 2006 1.Since then, several different types of laboratory equipment have been added the course syllabusand material has been continuously improved. Active learning and hands-on learning are thebasis for instruction in the courses. Several short projects have been added to the course. Teamsof two-to-three students develop and complete capstone projects. More details about
, supplies, services,and other associated community project expenses. PACCE is also a campfire where thoseinvolved with community-based engagement programs can meet to plan and coordinateawareness, advocacy, training, faculty development, assessment, and communications. Finally, itis a portal through which community and campus entities can meet, plan, and coordinateresources for the mutual benefit of each other. PACCE activities shown in Figure 1 allowstudents to engage with their course materials, take an active role in learning, reflect on theirindividual and collective experiences and develop while completing a team project for acommunity partner (9). Capstone Projects Multidisciplinary
or electives in • Capstone project in final year together another field. • Professional practice & internships Curriculum: special featuresIn order to promote the success and persistence of traditionally underrepresented students, ourcurriculum is heavily based on pedagogical techniques shown to increase their engagement.● Asset Based Learning ○ Provide opportunities for students to articulate the assets they arrive with, and embed the use of those assets in the lessons of engineering design● Community Engagement ○ Students work with communities throughout the curriculum, integrating engineering skills within the
requirements persist, as all services face the challenges posed by explosives safety.Beginning in the fall of 2019, researchers at the NAVFAC EXWC in Port Hueneme, CA andfaculty at USMA began partnering in search of mutually beneficial research and educationopportunities. This paper presents a unique research project and capstone experience at theundergraduate level that will benefit DoD research, active-duty service members, andundergraduate civil engineering students from June 2020 to May 2021. Three civil engineeringstudents embarked on a project-based study to support NAVFAC EXWC in their role as subjectmatter experts in protective construction for explosives safety for multiple military construction(MILCON) projects on Navy installations
University of Texas at Austin AbstractThe ABET accreditation criterion 5 requires a "culminating major engineering design experience"in the curriculum1. This is commonly referred to as the senior capstone design course. Thefreshman engineering education experience is loaded with required science and mathematicscourses, and there is little room for an engineering experience. Nonetheless, most faculty want tohave some engineering course during the freshman year, and many ideas have been tried over theyears. Of these many ideas, the concept of a team design project with hands-on activities seems tobe the most popular and most beneficial. This paper reports on such a proposed freshmanengineering cornerstone
programinitiated community based senior design projects [57]. The primary benefit was that studentsrecognized they could positively impact the lives of others. In addition, the projects engaged at-risk students.Because design is process oriented, it is a natural place to include ethics education [58]. McLeannotes that two aspects of the design process invite ethical considerations: identification of criteriaand constraints and questioning related to the product life-cycle. Ethics goes beyond concernsfor public safety to include consideration of environmental impacts and sustainability.AssessmentBecause senior capstone design classes synthesize knowledge from the entire curriculum, theypresent an ideal opportunity for program assessment. These assessments
design.While there are many inclusions of product redesign in papers discussing capstone designcourses, this paper focuses on the use of FMEA in a Design Support Analysis course in anAeronautical Engineering Technology program at a junior level. The course includes lectures,videos, quizzes, and the final project. The goal of the final project is to dramatically reduce lifecycle costs through maintenance reductions, a priori failure identification and analysis, andsubsequent reliability and maintainability improvements. This paper introduces the FMEAprocess as described in SAE ARP5580, presents the FMEA method as completed in the course,and discusses FMEA changes that could be incorporated to improvements to the course.Keywords: standards, FMEA
in engineering capstone design. The authors implementedthis collaboration model with a pilot project three years ago. This model was slightly modifiedbased on the lessons learned and learning outcomes reported by the participating EEP and ECESD teams. This model brought forth some keen observations and lessons, which the authorshave seen as the first step in forming a comprehensive multi-disciplinary design program. Thepreliminary impact of these steps is that 15 to 20% of the ECE SD program’s design projects aremulti-disciplinary (with 6 to 8 faculty members from several departments as mentors) and aregrowing. This growing multi-disciplinary collaboration has also brought in additional annualfunding. This paper shares the structure, phases
) to enhance process or final designSubstantive and structural stages of construct validation for the Sustainable Design Rubric werebased on a study of capstone design at James Madison University. Our goal was to determine theextent to which our theoretically and empirically defined rubric criteria were accessible tostudent audiences. We collected data during Spring 2018 from 51 junior engineering studentsfrom two course sections of capstone design. Students were given a homework assignment thatincluded evaluating their capstone projects with our draft rubric. Each student belonged to one offifteen capstone teams and was assigned to evaluate their projects against a subset of rubriccriteria (approximately two-thirds of the rubric’s 14 criteria
courses complementing the primary major, and atwo-semester capstone project course; 10 courses worth 30 credit hours in total.Figure 1: Program outline. Shaded courses form a required core. Arrows to electives are notdrawn, different core courses are prerequisites for different electives.2.2 Core coursesThe goal of the core courses is to develop fundamental knowledge and skills. All core courseshave non-credit weekly labs associated with them.2.2.1 Introduction to Computer Science IIntroduction to Computer Science I (Intro I) course is designed for students with no priorbackground in computing. It has two central aims. The first aim is to enable the students todevelop computational solutions to practical problems: • Break a
topics?If this capstone sequence is truly as effective as we believe in preparing engineers for their futureemployment, we should be able to see a discernible difference. While we did not set out to createthis capstone as a pedagogical research project, we are discovering daily that the teachingplatform is one that deserves to be studied to fully appreciate and understand the effectiveness ofthe material on student success. References1. J. Dunlosky, K. A. Rawson, E. J. Marsh, M. J. Nathan, and D. T. Willingham, “Improving Students’ Learning With Effective Learning Techniques: Promising Directions From Cognitive and Educational Psychology,” Psychol Sci Public Interest, 2013, Jan, 14(1):4-58, doi: 10.1177
-credit MSSE degree requires 3 core courses (9 credits) to build a whole systems foundation, 2-4 elective core courses (6-12 credits) to provide further breadth in Sustainable Engineering, and 3-5 courses(9-15 credits) selected from one of 5 tracks to provide depth in a discipline-specific area, and either a 3-credit capstone or 6-credit thesis research project. The International Development (ID) Concentrationoption entails 3 courses along with a research requirement. All 3 ID courses may count toward the electivecore requirement, and specific ID courses also may count toward selected discipline-specific tracks (forexample, a course in Sustainable WASH counts toward the water resources track). Under this framework,students can develop
Engineering (EE) program at the MilwaukeeSchool of Engineering (MSOE), design is strongly integrated into many courses1. These projectsare generally short-term in the context of an eleven-week term, and involve individual or two- 211student teams. The projects lead to the major capstone design experience, Senior Design, whichis a three-term course sequence: EE-407/8/9. Each term consists of an eleven week term, so threeterms is one academic year. While all EE students are required to take this course sequence,interdisciplinary projects may be undertaken, and the teams can include other engineeringstudents: computer, mechanical, software, etc. Over the 26 years of the existence of this course,it has
Jiawei Gong yuz29@miamioh.edu jzg317@psu.edu Engineering Technology Mechanical Engineering Miami University, Middletown, OH 45011 Penn State University, Erie, PA 16510 Abstract This research presents analysis of a quick return linkage mechanism utilizing computationalsoftware Mathcad and Inventor. It is implemented as a class project to enhance MechanicalEngineering and Mechanical Engineering Technology students’ understanding of linkagemechanism in courses Dynamics and Machine Dynamics. The objectives of the project are toteach (1) kinematic and kinetic analysis of linkage mechanism (2
eleven primary objectives where each objective was a mini-project. The objectives built toward a comprehensive design that was a code compliant, graphicaland numerical structural solution to a predetermined architectural design. The desired level oflearning was demonstrating the ability to apply the technical theory to a large complex problem.The instruments were in the form of homework problems and examinations for the introductoryclasses, and mini-projects assembling into a comprehensive solution for the capstone course.Each homework and examination question connected to a single learning objective. Thequestions were in the same format as the National Council of Architectural Registration Board(NCARB) license examination. I have been building
received his M.S. and Ph.D. in Computer Science from the University of Oklahoma, Norman, Oklahoma. His research focuses on diverse areas such as: Database Design, Data Structures, Artificial Intelligence, Robotics, Computer Aided Manufacturing, Data Mining, Data Warehousing, and Machine Learning. American c Society for Engineering Education, 2021 Haptics in AviationAbstractThe purpose of a capstone design project course is to provide graduating senior students theopportunity to demonstrate understanding of the concepts they have learned during their studies.As with many computer science and engineering programs, students of the
credits (6 courses), according to the formula described in Table 1.Required elements of a student’s plan of study include courses in naval hydrodynamics, controland autonomous systems, and an approved capstone project on a naval science & technologytopic, which can be either a full-year senior design elective (which also satisfies the ABETcapstone design experience requirement) or a single-semester independent investigation with afaculty advisor.Curriculum and facilitiesThe primary certificate courses are listed in Table 1, and are arranged into the categories of navalhydrodynamics courses, control & autonomous systems courses, and capstone courses. Courselearning objectives focus on technical knowledge associated with the subject as well
three departments in the Frank H.Dotterweich College of Engineering at Texas A&M University-Kingsville have incorporatedengineering design instruction and hands-on design projects in the last two years as part of NSFgrant award #1928611. A primary objective of this grant is to increase the retention andpersistence of minorities in the engineering programs by incorporating high-impact enrichmentactivities into courses early in the student’s academic career. A logical course to include high-impact activities for first-year students is the introduction to engineering courses in thedepartments, which are titled “Engineering as a Career” (GEEN 1201), within the Frank H.Dotterweich College of Engineering.This work presents the approach used for a
programs atthe university (see Appendix A for the rubric). In addition to the institution-wide assessment ofinformation fluency, the Library department conducts its own assessment of information fluencyinstruction on an offsetting cycle from IWAC. In this assessment, librarians review therecommendations from previous IWAC findings and collected interim data to monitor theprogress and effectiveness of implemented changes.During the 2016-17 academic year, IWAC collected artifacts from seniors of all programs toassess this learning outcome. Mechanical Engineering students were assessed at the masterylevel using their senior lab reports, capstone project final reports, and engineering ethics papers.The results of the rubric scoring showed the