Analysis of Some Problems from a Course on Theoretical Mechanics Solved by Descriptive Geometry’s Methods

O. Nazarova
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引用次数: 8

Abstract

In this paper the usability of descriptive geometry’s methods for solution problems related to theoretical mechanics is considered. Descriptive geometry emerged as a science intended for solution the problems of human activity’s different branches. In connection with development of modern graphical means, the value of descriptive geometry is greatly underestimated, but it is on descriptive geometry’s principles and laws that have been built algorithms used in graphic applications [30]. For a long time descriptive geometry has been used by scientists in various spheres of human activity [27]. In study of general technical disciplines, interdisciplinary connections play an important role, especially between theoretical disciplines, whose understanding is particularly difficult for students [35]. Understanding the possibility of using descriptive geometry’s methods, students can think over aspects of their use in the performance of tasks under study, for example, theoretical mechanics. Methods, which can be use while solving problems from the course of theoretical mechanics, are learned by students in the standard course of descriptive geometry and are not particularly difficult. Therefore, the graphical approach to solving problems of theoretical mechanics is accessible and understandable for majority of successful students. In this paper example problems from the course of theoretical mechanics on the topics "Plane System of Forces" and "Spatial System of Forces" have been considered. Graphical problem solving was performed using the image of force vectors with the help of orthogonal projections. For checking the correctness of graphicalcons.
用描述几何方法解理理论力学课程中若干问题的分析
本文考虑了描述几何方法在解决理论力学相关问题中的可用性。描述几何作为一门旨在解决人类活动不同分支问题的科学而出现。随着现代图形手段的发展,描述几何的价值被大大低估了,但正是基于描述几何的原理和规律,才建立了图形应用中使用的算法[30]。长期以来,描述几何一直被科学家用于人类活动的各个领域[27]。在一般技术学科的学习中,跨学科的联系起着重要的作用,尤其是理论学科之间的联系,这对学生来说尤其难以理解[35]。理解了使用描述几何方法的可能性,学生可以思考在学习任务中使用这些方法的各个方面,例如理论力学。在解决理论力学课程中的问题时可以使用的方法,是学生在描述几何的标准课程中学习到的,并不是特别难。因此,对于大多数成功的学生来说,解决理论力学问题的图解方法是容易理解的。本文考虑了理论力学“平面力系”和“空间力系”课程中的例题。利用力矢量图像,借助正交投影进行图形化求解。用于检查图形图标的正确性。
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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