of topics such as regulatory affairs [1] and engineeringstandards [2]. Although the combination of technical and “soft skills” can be an importantdistinguishing characteristic of biomedical engineers in industry, it is challenging to effectivelyteach students professional topics in an undergraduate biomedical engineering curriculum thatalso attempts to cover the breadth of engineering and life science topics that is the hallmark ofthe discipline.Recognizing the importance of professional topics, students are often required to implementthem in their culminating capstone design project. A common approach is to teach the topics inthe capstone design courses themselves, often by providing didactic sessions covering each topicjust before students
review, (viii)mechanical integrity, (ix) hot work permit, (x) management of change, (xi) incidentinvestigation, (xii) emergency planning, (xiii) compliance audits, and (xiv) trade secretprotection. Though these tools had their origin in the chemical industry, they are still useful inmanufacturing industries that are non-chemical in nature. Some tools by their nature may onlyapply to the chemical industry. Capstone courses offer a venue for a detailed discussion ofcertain tools that are very pertinent to a particular capstone project, while still providing acursory treatment of the rest of the tools.Each discipline will adapt the tools to its capstone courses. Incorporation of PSM into amanufacturing curriculum may be better illustrated by using
assignments facilitate students being able to learnremotely. Applications and lab projects can be controlled using IoT capabilities. As processorshave improved more affordable microprocessor or computer alternatives such as Arduino,Raspberry Pi and other similar platforms have become more commonly utilized in educationalsettings. In this project, IoT concepts, educational materials and methods are introduced tostudents through various avenues such as Independent Study courses, Capstone Senior Designcourses and Sensors courses.BackgroundFigure 1 shows a simple representation of an IoT system that utilizes a Raspberry Pi. TheRaspberry Pi could be replaced by an Arduino, Field Programmable Gate Array (FPGA), or aProgrammable Logic Controller (PLC). In
education courses. Most students take the first-year engineering seminar (onesemester) and introduction to surveying. Students begin to take core civil engineering courses intheir second year, as well as a second-year, one-semester engineering seminar. Year threeconsists of required engineering courses, and students complete the remaining required andelective engineering courses in their final year. The capstone course is taken in the final semesterof study.Design-based or design-intensive courses are embedded throughout the curriculum. Students areintroduced to engineering design in the first-year engineering seminar; however, this course isnot specific to civil engineering and does not include a design project. The first required projectis
AC 2009-1176: A PORTABLE WORKCELL DESIGN FOR THE ROBOTICSINDUSTRYTaskin Padir, Worcester Polytechnic Institute Dr. Taskin Padir is a visiting assistant professor in the robotics engineering program at Worcester Polytechnic Institute. Prior to WPI, he was an assistant professor of Electrical and Computer Engineering at Lake Superior State University where he taught undergraduate courses in robotics, machine vision and systems integration, circuit analysis, electronics, and introduction to engineering and advised capstone design projects within the robotics and automation option. He received his PhD and M.S. degrees from Purdue University, both in electrical engineering. He received his
capstone design course. The freshman courseintroduces students to the process skills associated with engineering design. Emphasis is on teamwork, communications skills, and computer-aided analytical tools. Activities include prototypebuilding and testing with industrial collaboration. As students complete this course beforechoosing a major in the College of Engineering, the technical content is general and does notfocus on a particular engineering discipline. In contrast, the senior capstone design courserequires students to apply the tools acquired in both required courses and technical electiveswithin our department. By blending professional engineering topics and project activity, theexisting capstone design course dilutes both these components
Undergraduate Engineering Technology StudentsAbstractThe introduction of Six Sigma quality principles in industry has revolutionized production, aswell as many other sectors of society. Academia has not moved as quickly to adjust its curricula,as it should to keep pace with the demands of industry. This paper documents the need andstructure of a Six Sigma Green Belt Certification program, driven by the industrial advisorycommittee of the Engineering Technology program at Western Carolina University, a regionalcomprehensive university that works closely with its industrial partners in multiple modes. Thisnew program is targeted at undergraduate Engineering Technology students, and takes advantageof two existing courses and capstone projects that
Industrial Engineering and Co-PI of the MERIT project. Her research interests include Sustainable Energy, Green Manufacturing, Quality Control, and Multi Objective Decision Making and Optimization as well as Engineering Education. She has served as PI and Co-PI in several NSF, NIST, DoEd, NASA, USDA and industry sponsored projects.Dr. Jaya S. Goswami, Texas A&M University-Kingsville American c Society for Engineering Education, 2022 1 Session XXXX Improving Minority Students’ Career Readiness Through Enhanced Capstone
theoretical background and system developmentmethodology used in development. Additionally an overview of the system is presentedfollowed by lessons learned from these efforts. By providing this information the authorshope to encourage the innovative application of IT in Capstone programs at otheruniversities.Background: Project OverviewThe Auburn Engineering Technical Assistance Program (ATAP) has used their fundingfrom the National Science Foundation (ENG#0332594) to marshal the diverse resourcesand interests of different (a) units of a state cooperative extension system, (b)departments of an academic institution, (c) research laboratories, (d) industrialdevelopment units of private corporations and government, and (e) manufacturingcompanies. The
1 PEER ASSESSMENT (JURY) OF EXPERIENTIAL LEARNING Nathaniel Jensen, Civil Engineering Technician, FHWA Philip Brach, Ph.D., P.E., F-NSPE Distinguished Professor, Emeritus Ahmet Zeytinci, Ph.D., P.E., Professor University of the District of Columbia Washington, DC Abstract The use of a student’s work experience involving the investigation, inspection, collection, and analysis of data for the rating of park service bridges in the United States, is presented as a Senior Capstone Project for Civil
Session 2625 Engineering Design Opportunities at the United States Military Academy Major Robert J. Rabb and Colonel John S. Klegka United States Military AcademyAbstractThe United States Military Academy (USMA) at West Point has developed a program topromote academic activities beyond the basic requirements. With a three semester designsequence, this program can enhance student learning and experience with the design process andgive students a head start on their capstone project. Although the academy’s mission is toprepare cadets for future military service and
ofthe laboratory component in the Machine Design course. Here, the formative skills needed forthe Capstone Senior Design project are further improved. Open-ended design projects are createdto complement the specific mechanical element – or topic – being covered. The purposes of theseproblems are twofold: (1) to understand, use and become proficient in the ‘design process’; and(2) to explore, discover and learn a relatively basic yet significant facet of engineeringtechnology as it is practiced. A detailed design report is required and can include: title; table ofcontents; introduction; technical body with sketches, figures, tables, chronological development;results; conclusions/recommendations; appendix; and references. Preference may be given
project. Many of these projects take place at WPI’s Global Project Centers, located aroundthe world. The IQP is most often completed in the junior year.The final project that a WPI student must complete is a capstone design project in their major,termed the MQP (for Major Qualifying Project), which is typically completed in a st udent’ssenior year. The project is equivalent to three courses, and is designed to demonstrateapplication of disciplinary knowledge and skills in the solution of a problem similar to one thatmight be encountered early in a student’s career. In IE, these projects are almost alwayssponsored by industry, and students complete the project in teams of 2-4 students, often spendingapproximately half their time on-site. One
, industrial and mechanical engineering. The analysis focuses on astudy of what students express as relevant learning points. We have found students to besurprisingly frank about what they learned and where they thought their experience in thecourse fell short. Over time we have observed common themes that emerge amongstudents concerning their ability to deal with project changes and team dynamics andhave charted the resulting ebb and flow of enthusiasm and motivation over the course ofa semester.BackgroundCapstone projects represent a major milestone in a student’s academic career andprofessional development where they are expected to integrate knowledge and skills fromprior coursework. Capstone also represents a major checkpoint for assessing
Student Progress on “a-k” ABET Educational OutcomesIntroductionABET EC2000 brought significant changes to the way engineering and engineering technology programsmust assess, evaluate, improve, and document effectiveness of curriculum in order to be accredited1. This paper describes a process being used in the Electrical and Computer EngineeringTechnology department at University of Cincinnati to assess student progress on the “a-k” ABETEducational Outcomes. Several assessment rubrics were developed to assess students’ ability inlab courses, technical knowledge and competence in project design and capstone courses, andtechnical communication skills including oral presentations, lab reports, and technical reports.Courses from freshmen to senior
emphasized design through its program outcomes, but criterion 3 also includesteamwork, communication skills, ethics and professionalism, and an understanding of theimpact of engineering in a broad global and societal context. Various project modes havedeveloped in response to these criteria. Berg and Nasr [1] suggest a capstone coursewhich has a strong environmental component to help meet “those difficult ABETprogram educational outcomes.” Nicholas et al [2] suggest community service projects tostrengthen student understanding of societal needs. Hoffman [3] has used rehabilitationand disability needs to bridge design to society. In the thermal fluids area, Janna andHockstone [4] reviewed traditional design assessment with some link to economics
AC 2010-583: R2D2 AS A MOTIVATOR IN ENGINEERING EDUCATIONBrian Peterson, United States Air Force AcademyPatrick Sweeney, United States Air Force AcademyDelbert Christman, United States Air Force Academy Page 15.1010.1© American Society for Engineering Education, 2010 R2D2 as a Motivator in Engineering EducationThe use of robotic system applications continues to grow as a learning tool in electrical andcomputer engineering, but basic designs and projects have been well investigated and advancesin the field are becoming increasingly complex. Many new and interesting systems are beyondthe scope of what undergraduates can tackle as a capstone project. As a result
course topics in producttesting, project management, customer interaction, and the business aspect of productdevelopment. As the faculty moves forward with this initiative, it has become increasingly importantto ensure that all students experience multiple product development opportunities while pursuingtheir degrees. This not only gives them hands-on experience, an important trait of anyengineering technology program, but it reinforces the concepts being taught in the classroom. Italso helps the students develop life-long learning habits and best practices. To this end, thefaculty, with the help of industrial partners, now ensures that both courses and capstone projectshave a strong product development aspect. Through this vetting
Capstone CourseOur capstone course is a year-long course taken by all seniors in the department, not justComputer Science majors. In this course, students are placed in groups of four to six tocomplete a major project across two semesters. We split the course into the first and secondsemester offerings: Capstone 1 and Capstone 2 respectively. The capstone courses had 65students complete it with 29 who had previously taken ToC. Occasionally non-EECS majorsare part of some groups due to the interdisciplinary nature of the projects, but most groupmembers are EECS majors. Deliverables include a project analysis, lab notebook, formalgroup presentations (such as sprint reviews), as well as written documents (such as a designreport and a continuity
Work-in-progress: Examining engineering seniors students’ perception of justice and fairness of grading practicesThis work-in-progress paper reports preliminary results about engineering students’ perceptions of thejustice and fairness in grading. The paper quantitatively compares students’ perceptions between aspecifications graded and traditionally graded capstone class and analyzes qualitative comments aboutstudents’ overall perceptions of grading. Specifications grading, as defined by Nilson (2015), is a systemof assigning grades primarily characterized by grading each assignment as pass or no-pass (i.e., fail).Specifications grading responds to the call for grading reform in education (Brookhart, 2011) and buildson
= 15 CH humanitarian (3) (3) MAT 343 (3) (3) (3) SENIOR (2016/2017) Capstone Concentration General Secondary2nd Semester 1st Semester Concentration Project I (L) Math or Studies Focus Area Science (HU/SB) (upper div) = 15 CH EGR 401 (3) (3) (3) (3
scenario. Many of thesedesired goals are difficult to attain in a traditional classroom setting and may not be realized tillstudents complete their senior capstone design projects. Capstone projects are the culminatingexperience for undergraduate civil engineering students. Performance on these projects mayserve as an individual assessment tool to evaluate student learning outcomes in accordance withthe Accreditation Board for Engineering and Technology (ABET). The ABET student outcomesinclude a student’s ability to solve problems, apply new knowledge, design, communicate bothwritten and orally, conduct experiments, function effectively as a member of a team, andrecognize ethical and professional responsibilities. One of the main challenges for
Report. The course culminateswith a Senior Design and Undergraduate Research Expo at the term’s end. The Expo, open to thepublic, displays projects not only from the ET department, but also from the College’s sciencedepartments.The project: The Engine Power Cycle Interface was developed by a team of six studentsenrolled in a Senior Technology Capstone course during the fall 2021 semester. The team hadone faculty advisor as mentor. The overall project’s goal was to design and program a simple andeasy to use graphical user interface (GUI) that will assist future MET students enrolled in theApplied Thermodynamics course in their learning of several gas power cycles. From theinstructor’s point of view, the software might serve as an additional
Williams College offered capstone-like courses.3 However, the real impetus forwidespread adoption would await another century: capstones entered the common educationallexicon as formal curricula began to embrace them in the 1980s. Capstone's modern curriculaare designed to let students integrate knowledge from foundational courses while also developingbroader skills such as presentation, writing, teamwork, and of course, design, consistent with thegoals outlined in the influential Green Report from the ASEE.2 There are now even textbooksthat explain in detail the possible micro-structure of capstone courses in engineering.4 A recentpaper (2012) provides a survey of the literature on capstone courses.1The computer science capstone (senior design
of Pennsylvania. It begins with the historical reasoning behind the implementation.This is followed by the implementation strategy and some preliminary assessment of theeffectiveness of machining and drawing documentation activities.2. Historical Background From its inception, the York College Engineering Program has always prided itself onbeing a “hands-on” engineering program. Lab experiences are used heavily throughout theacademic curriculum to reinforce lecture material. In addition, there is a freshman level projectoriented course sequence, and a two-semester senior capstone course that includes a large project Page 24.879.2build1
education in general, and those of the Middle East and the Arab Gulf States, in particular Page 12.92.1© American Society for Engineering Education, 2007 A Practitioner - Faculty Collaboration in Teaching Civil Engineering DesignAbstractTeaching civil engineering design through senior projects or capstone design courses, withindustry involvement and support, has increased in recent years. The general trend towardincreasing the design component in engineering curricula is part of an effort to better preparegraduates for engineering practice. While some design projects are still of the “made up
thecompetition was finalized by selecting the best project based on team “pitch,” the leadershipdevelopment continued with the students developing a leadership plan to launch their projects.This paper will present the details of the pedagogical approach, with a step-by-step explanationof the structure of a “capstone” leadership development project incorporating team dynamics,structured deliverables, and techniques of engagement of the business and engineering majors inthe context of a competitive sustainability challenge program. This paper will present collectedassessment data, an analysis of the data, and provide recommendations for improvement.IntroductionThe work described in this paper focuses on a capstone engineering leadership experience
in various ways.However, these methods may not be as important for modern students entering industry orresearch, where the ability to be clear and succinct may be vital.As part of the capstone sequence at the Milwaukee School of Engineering (MSOE), students inthe Computer Science and Software Engineering Programs are required to prepare and deliver anelevator pitch related to their project during the first term once the initial requirements have beenestablished. This pitch helps to solidify the project scope and is used as part of the continuousimprovement process for the programs.To help improve the capstone experience, a subset of elevator pitches for the programs wereevaluated by external, industrial advisory board members to provide
solving skills needed in today’s industry. We workwith industry to fund scholarships, and host recruitment fairs for full-time job placement. Withindustry assistance and funding, students work on faculty/student industry projects andfaculty/company directed capstone senior design projects, as a bridge between education and thework environment. Through our Engineer-In-Residence program, Technology graduate studentsare placed at companies and supported for a semester long “in-house” project. There are manyother avenues used to provide pathways between industry and academics.We have developed a strong triangle which links student, industry, and university. Theindustry/academic partnership must be present in all phases of development and delivery
their professional life and to ensure that students are on a path of life-long learning. Thefirst objective must include synthesis and application of knowledge acquired in the first threeyears of the program, namely application of advanced analysis techniques to design. The secondobjective involves exploration of important issues needed to prepare graduates for professionalpractice and/or graduate school. The third objective needs to instill student confidence in theirability to learn on their own. The mechanical engineering program at Union Collegeaccomplishes these goals through four complementary components of the senior yearcurriculum: (1) a required two term senior research/design project, (2) required capstone designcourses in mechanical