Teaching Mechatronic System Modeling: A Fifteen-Year Journey

Shuvra Das
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Abstract

Most innovations happen at the intersections of disciplines. New products get designed through synergistic integration of multi-disciplinary concepts. For example, in today’s automobiles purely mechanical systems have been replaced by “by-wire” devices that are software controlled, lighter, more efficient, and reliable. While engineering disciplines are merging seamlessly in real world products, academic silos are mostly still intact. At University of Detroit Mercy, we have broken down some silos by launching the Robotics and Mechatronics Systems Engineering major. Mechatronic Systems Modeling is a mandatory course in this major. This course uses a technique of power flow called bond graphs to model mechatronic systems. This technique is not discipline specific and students with different disciplinary background can easily understand and master it. Recently, the use of Simscape, a MATLAB/Simulink tool for physical system modeling has also been added to this course. The use of these two tools in complex system modeling tasks helps students develop an understanding of engineering system behavior by moving beyond the narrow boundaries of individual disciplines. This paper describes the course content and structure, the modeling methods, selected student projects, some of the lessons learned, and several offshoot activities that have resulted from this course.
机电系统建模教学:十五年历程
大多数创新都发生在学科的交叉点。新产品是通过多学科概念的协同整合而设计出来的。例如,在今天的汽车中,纯粹的机械系统已经被软件控制的“线控”装置所取代,这种装置更轻、更高效、更可靠。虽然工程学科正在与现实世界的产品无缝融合,但学术孤岛大多仍然完好无损。在底特律仁慈大学,我们通过开设机器人和机电一体化系统工程专业打破了一些壁垒。机电系统建模是本专业的必修课程。本课程使用一种称为键合图的功率流技术来模拟机电系统。该技术不具有学科特殊性,不同学科背景的学生都能很容易理解和掌握。最近,使用Simscape,一个MATLAB/Simulink工具的物理系统建模也被添加到这门课程。在复杂的系统建模任务中使用这两种工具可以帮助学生通过超越单个学科的狭窄边界来发展对工程系统行为的理解。这篇论文描述了课程的内容和结构、建模方法、选定的学生项目、所学的一些课程,以及从这门课程中产生的一些分支活动。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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