scholarly journals Town Government, Industry, And University Involvement In The Capstone Design Course At The University Of Hartford

2020 ◽  
Author(s):  
Mohammad Saleh Keshawarz ◽  
David Pines
Author(s):  
Patrick Dumond ◽  
Eric Lanteigne

Traditionally, mechanical engineering capstone courses focused on teaching students the application of fundamental engineering theory to complex mechanical designs. Recently, there has been a transition towards experiential learning initiatives, such as prototyping, in engineering design. This paper looks at the relationship between the mechanical engineering design capstone course and a course in product design and development, which provides students with the opportunity to build prototypes of their designs, at the University of Ottawa. The importance of the traditional capstone course is considered and the implications of implementing these designs are examined. Many capstone design projects would require extensive work so that they could be implemented. A large hurdle appears to exist between analytical design and design implementation, and the term time constraints limit the complexity of designs intended for prototyping. In fact, students require many design iterations before they can build full-scale functional prototypes of their design. Therefore, we have observed that simple products work best for teaching design implementation.


Author(s):  
Douglas V. Gallagher ◽  
Ronald A. L. Rorrer

At the University Colorado Denver, a manufacturing process design course was specifically created to raise the level of the as constructed senior design projects in the department. The manufacturing process design course creates a feed forward loop into the senior design course, while the senior design course generates a feedback loop into the process design course. Every student and student project has the opportunity to utilize CNC mills and lathes where appropriate. Specific emphasis is placed upon the interfaces from solid models to CAM models and subsequently the interface from CAM models to the machine tool. Often the construction of many senior design projects approaches the level of blacksmithing due to time constraints and lack of fabrication background. Obviously, most engineering students have neither the time nor the ability to become expert fabricators. However, the wide incorporation of CNC machining in the program allows, an opportunity to not only raise the quality of their prototypes, but also to immerse in the hands on experience of living with the ramifications of their own design decisions in manufacturing. Additionally, some of the art of fabrication is turned into the science of fabrication. The focus of this paper will be primarily on examining the effect of formal incorporation of the manufacturing process in the capstone design course.


Author(s):  
Barry Hyman ◽  
Sanjeev Khanna ◽  
Yuyi Lin ◽  
Jim Borgford-Parnell

This paper describes an NSF funded project in the Mechanical and Aerospace Engineering (MAE) Department at the University of Missouri. A primary goal of this project is to systematically increase project-based learning (PBL) experiences throughout the MAE curriculum. To accomplish this goal, recent capstone design projects that need further refinements serve as the basis for PBL activities throughout the MAE curriculum. A major tool for facilitating these refinement efforts is a new senior/graduate Design Management course in which each student in this course learns how to plan and manage design projects. These students then implement their learning by serving as project team managers in the courses in which the refinement activities are being conducted. This paper provides a detailed case study of five refinements to one capstone design that took place in four different MAE courses during the Spring 2011 semester. The paper describes a Fall 2009 capstone project that consisted of designing a portable wood chipper. The student design was very promising, leading to a chipper with significantly greater chipping capacity than commercially available chippers of the same size and weight. However, several faculty members reviewed the results and identified additional opportunities for refining the design. This paper describes activities during Spring 2011 when students in four different MAE courses developed refinements to the original design. The roles of the Design Management students in these activities are discussed. The paper also includes a discussion of the methods and findings of the formative assessment process, including interviews with, and surveys of, faculty and students.


Author(s):  
Cherly Pearce ◽  
Steve Lambert ◽  
Wayne Parker

An interdisciplinary design approach is a collaborative effort involving team members from different engineering disciplines to solve a problem. An opportunity for interdisciplinary education exists in the fourth year capstone design project. Interdisciplinary capstone courses are offered at other Canadian universities but, at the University of Waterloo (UW) the co-operative undergraduate engineering program poses a logistical barrier to students interacting with students in other disciplines for capstone design projects. Currently, students can form their own interdisciplinary team but differences in course structure, project deliverables, and design terminology and method between engineering disciplines is challenging for students and instructors. An investigation into the feasibility of a new interdisciplinary capstone design course at UW is undertaken. A possible home for the interdisciplinary capstone course could be under the Chair of Design Engineering. Overall, receptivity among departments is positive but a more comprehensive analysis is required.


Author(s):  
Chris Rennick ◽  
Eugene Li

The capstone design project is ubiquitous in engineering programs worldwide, and is seen by students as the single most important activity in their undergraduate careers. Staff and faculty at the University of Waterloo identified three issues with the current capstone process: students are unaware of industrial suppliers, they lack multi-disciplinary exposure, and they often struggle to identify "good" needs for their projects. The Engineering IDEAs Clinic, with support from instructors and staff from across Engineering, developed a conference for students to address these issues. EngCon – aimed at students in third/fourth year – brought students together with their peers from other programs, instructors from across the Faculty, and representatives from suppliers (both external industry, and internal support units) with the goal of improving their capstone projects. This paper presents the design and implementation of EngCon in both 2017 and 2018 with lessons learned from offering a large coordinated set of workshops aimed at students as they enter their capstone design projects.  


Author(s):  
W.C.D. DeGagne ◽  
Paul Labossiere

One of the most effective and efficient ways for an engineering program to facilitate compliance with the Canadian Engineering Accreditation Board (CEAB) accreditation criteria is through capstone design projects and courses. Currently, the University of Manitoba Faculty of Engineering has several capstone design courses; however, each is independently focused on its own respective discipline. The resulting educational experience for students, though rigorous and challenging, is maintained within the boundaries of the students’ engineering discipline, thereby neglecting to provide the opportunity for students to work with people from multiple disciplines and across multiple fields. This style/mode of education, where students work in silos, arguably does not reflect real world engineering. Program representatives from the Faculty of Engineering agree. An interdisciplinary capstone course would provide a more rounded engineering education for students. Exposing students to other disciplines and facilitating their learning of the knowledge, skills and behaviours required to work in a multidisciplinary capacity will more effectively prepare students for the real world. Thus, to better comply with CEAB requirements and to increase the breadth and depth of students’ engineering education, an interdisciplinary capstone pilot course will be launched at the University of Manitoba.This paper explains how this multidisciplinary capstone pilot program has been developed, and touches on the early stages of its initiation and implementation.


1999 ◽  
Author(s):  
William R. Murray ◽  
Joseph L. Garbini

Abstract Capstone design courses in engineering, which provide students the opportunity to tackle open-ended, real-world projects, are generally held in high regard as learning experiences. A relatively new and increasingly important component of engineering is the area of mechatronics. In this paper, we review the goals of capstone design courses and examine how well suited mechatronics projects are for use as projects in capstone design courses. Our experiences in using mechatronics projects in the senior-level capstone design course in the Department of Mechanical Engineering at the University of Washington are presented. From these experiences, we demonstrate that mechatronics projects are particulary well suited for use in capstone design.


Author(s):  
Narges Balouchestani Asli ◽  
Majd Zouda ◽  
Kamran Behdinan

Innovation is a necessity to embrace possibilities and face challenges and problems in our continuously changing world. Multidisciplinary capstones can be a place for students to be innovative. Students not only get a chance to work on a real project from industry, but they also work with students from different disciplines. This diversity of knowledge and perspectives can lead to team innovation. This paper explores team level factors affecting innovation in 4th year multidisciplinary capstone design at the University of Toronto. This paper is a qualitative study that explores the effect of diversity of knowledge, support for innovation from supervisor and client, team size, and team vision on innovation. Our research sheds some light on what behaviors in teams lead to innovation. Supporting and encouraging these behaviors from educational institutions provides an environment for students to be more innovative


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