Symbolic Scientific Software Skills for Engineering Students

Pramod Abichandani, Richard Primerano, M. Kam
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引用次数: 3

Abstract

The emergence of powerful numeric and symbolic scientific software applications, including MATLAB, Maple, and Mathematica, has revolutionized engineering design. These applications have allowed users to perform computations and calculations at levels of sophistication and depth that were not available to practitioners even one generation ago. They have also given educators the ability to convey advanced mathematical and engineering concepts in new ways and spend more time on analysis of engineering systems and less time on remedial mathematics. This new capability, which has become a fundamental tool for sophisticated designers in industry, is still not fully embraced in many engineering curricula. To exemplify the potential of scientific software in the engineering classroom, we describe a laboratory exercise conducted by second-year engineering students at Drexel University. It introduces a geosynchronous satellite orbital entry problem, and demonstrates how scientific software can help students understand the behavior of an interesting physical system in a way that would have required much more effort using traditional methods. We believe that early introduction to symbolic computation tools and scientific software would be very valuable to engineering students. Such tools should become standard instruments in the arsenal of present-day engineers. Moreover, their use should be adopted across the curriculum (not only in introductory mathematics classes) and become part of the design experience in all engineering disciplines.
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工科学生符号科学软件技能
强大的数字和符号科学软件应用程序的出现,包括MATLAB、Maple和Mathematica,已经彻底改变了工程设计。这些应用程序允许用户在复杂和深度的层次上执行计算和计算,甚至在一代人之前,从业者都无法获得这些计算和计算。它们还使教育工作者能够以新的方式传达先进的数学和工程概念,并将更多的时间花在工程系统的分析上,减少在补习数学上的时间。这种新能力已成为工业中资深设计师的基本工具,但仍未被许多工程课程完全接受。为了举例说明科学软件在工程课堂上的潜力,我们描述了一个由德雷塞尔大学二年级工程专业学生进行的实验室练习。它介绍了一个地球同步卫星入轨问题,并演示了科学软件如何帮助学生理解一个有趣的物理系统的行为,而使用传统方法则需要付出更多的努力。我们相信早期的符号计算工具和科学软件的介绍将对工程专业的学生非常有价值。这些工具应该成为当今工程师武器库中的标准工具。此外,它们的使用应该在整个课程中采用(不仅仅是在数学入门课程中),并成为所有工程学科设计经验的一部分。
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