阿肯色大学电子制造工艺课程与实验室

T. L. Landers, E.W. Fant, E.M. Malstrom, W. Brown
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引用次数: 0

摘要

阿肯色大学电气与工业工程系开设了一门电子制造工艺课程。本课程是为任何工程学科的研究生和高年级本科生设计的课程的一部分。它以促进并行工程为目标,作为电子制造的概览。本文描述了我们的方法,重点是跨学科学生团队执行印刷线路板CADICAM的实验室组件。学生们在Sun工作站进行设计工作,并在结合机器人和视觉技术的电子组装工作单元中进行混合技术自动化组装。对于工程师来说,仅仅专注于自己的学科已经不可行了。客户对产品质量要求越来越高,成本要求越来越低;而且,压缩产品开发时间的技术压力和竞争压力并存。这些趋势需要并行工程方法,其中工程师能够在跨学科团队中合作,以实现经济成功的集体目标。产品及其制造过程必须同时设计,所有学科的工程师都需要更好地理解他们的活动是如何相互作用的。设计工程师需要了解生产过程的局限性,以便设计可制造的产品。同样,制造工程师应该了解新兴产品技术,以便计划和优化制造过程。为了实现并行工程的目标,电子行业需要对设计和生产都有很好理解的工程专业毕业生。金属加工行业的产品/工艺设计和计算机辅助设计(CADICAM)在大学工程课程中早就开设了;然而,电子工业没有类似的课程。阿肯色大学的电气工程和工业工程系通过启动电子制造项目来解决这一需求。创建该计划的第一阶段是开发电子制造工艺课程。该课程的目标是为工程师在世界电子工业中成功竞争所必需的团队环境中的入门级参与做好准备。课程目录描述指出,该课程是电子工业制造过程和并行工程的入门课程,提供了电子元件和产品以及制造和组装过程的调查。提出了设计、生产率、质量和经济原则,重点是可制造性。本课程的方法与过去六年来的策略一致,即提供课程和实验室经验,使学生获得工业规模工艺设备的实践经验。在AT&T基金会、其他行业和阿肯色州的慷慨支持下,我们开发了最先进的材料处理和制造自动化实验室。电子制造过程课程的实验部分在制造自动化实验室进行。自1991年1月以来,近100名来自电气、工业和计算机系统工程专业的学生选修了《电子制造工艺》。作者已经开发了一个教科书和实验练习,以配合课程。以前的论文[1,2,31]描述了概念和课程。本文的重点是实验室部分,我们认为这是至关重要的,这门课程的成功和普及。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Curriculum And Laboratories In Electronics Manufacturing Processes At The University Of Arkansas
The University of Arkansas Electrical and Industrial Engineering Departments have developed a course in Electronics Manufacturing Processes. The course is part of a program designed for graduate and upper-level undergraduate students from any engineering discipline. It serves as a survey of electronics manufacturing with the objective of promoting concurrent engineering. This paper describes our approach with emphasis on the laboratory component in which interdisciplinary student teams perform CADICAM of printed wiring boards. The students perform design work on Sun workstations and mixed-technology automated assembly in an electronics assembly workcell incorporating robotics and vision technologies. Introduction It is no longer viable for engineers to remain narrowly focused in their individual disciplines. Increasingly, customers demand products of higher quality and lower cost; and there are both technical and competitive pressures to compress product development time. These trends necessitate the concurrent engineering approach, wherein engineers are able to cooperate in interdisciplinary teams to achieve the collective goal of economic success. The product and its manufacturing process must be designed concurrently, and engineers of all disciplines need better understanding of how their activities interact. Design engineers need to know the limitations of the production processes in order to design manufacturable products. Similarly, manufacturing engineers should be knowledgeable about emerging product technologies in order to plan and optimize the manufacturing process. The electronics industry needs engineering graduates who have a good understanding of both design and production, in order to accomplish the objectives of concurrent engineering. College engineering courses have long been available in product/process design and computer-aided design I computer-aided manufacturing (CADICAM) for the metal-working industries; however, no comparable course has been available for the electronics industry. The Departments of Electrical Engineering and Industrial Engineering at the University of Arkansas have addressed this need through initiation of a program in Electronics Manufacturing. The first stage in creation of this program has been development of a course in Electronics Manufacturing Processes. 0-7803-0755-082 $3.00 01992 IEEE 174 The objective of the course is to prepare engineers for entry-level participation in the team environment necessary for successful competition in the world electronics industry. The catalog description states that the course is an introduction to manufacturing processes and concurrent engineering in the electronics industry, providing a survey of electronics components and products and the processes of fabrication and assembly. Principles of design, productivity, quality and economics are presented, with an emphasis on manufacturability. The approach for this course has been consistent with a strategy over the last six years to provide curriculum and laboratory experiences in which the students gain hands-on experience with industrial-scale process equipment. With generous support from the AT&T Foundation, other industries and the State of Arkansas, we have developed state-of-the-art Materials Handling and Manufacturing Automation Laboratories. The laboratory component of the Electronics Manufacturing Processes course is conducted in the Manufacturing Automation Laboratory. Almost 100 students from electrical, industrial and computer-systems engineering have taken Electronics Manufacturing Processes since January 1991. The authors have developed a textbook and laboratory exercises to accompany the course. Previous papers [ 1,2 , 31 have described the concepts and curriculum. This paper focuses on the laboratory component that we believe is vital to the success and popularity of the course.
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