Building a Sphere from Imaginary Points

A. Girsh
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Abstract

Euclidean spaces of various dimensions do not contain imaginary images and objects by definition, but are inextricably linked with them through special cases, and this leads to the need to expand the field in geometry into the region of imaginary values [1, 19, 26]. Such an extension, i.e. adding to the field of real coordinates spaces of different dimensions, the field of imaginary coordinates leads to different variants of spaces of different dimensions, depending on the chosen axiomatics. Earlier in a number of articles, examples of solving some actual problems of geometry using imaginary geometric images and objects were shown [4, 5, 6, 13, 21, 22, 29]. The article provides constructions for constructing a sphere from four predetermined points, of which one pair or both pairs of points can be imaginary complex conjugate. The construction is carried out on combined diagrams by the methods of descriptive geometry by analogy with the well-known problem of constructing a sphere from four real points. The construction of a sphere is based on seven auxiliary constructions for constructing a circle from points that can be imaginary conjugates. Both 3D problems of constructing spheres for given points and methods of 2D construction problems for determining the required imaginary points are considered. A method for calculating the parameters of the obtained sphere is described. The application of the method to other problems of descriptive geometry, for example, to the problems of finding geometric places of points, is considered. equidistant from two given surfaces. Recently, this issue has been intensively studied, for example, in the works [5, 6].
从虚点构建球体
各种维的欧几里得空间在定义上并不包含虚像和虚物,而是通过特殊的情况与虚像和虚物有着千丝万条的联系,这就导致了在几何上需要将场扩展到虚值区域[1,19,26]。这种扩展,即在不同维数的实坐标空间域中加上虚坐标空间,根据所选择的公理化,导致不同维数的空间的不同变体。在前面的一些文章中,展示了使用虚构的几何图像和物体来解决一些实际几何问题的例子[4,5,6,13,21,22,29]。给出了由四个预定点构成球面的构造,其中一个点对或两个点对可以是虚复共轭。用描述几何的方法,通过类比众所周知的由四个实点构成一个球体的问题,对组合图进行了构造。球体的构造基于七个辅助构造,这些辅助构造可以由虚共轭点构成圆。考虑了给定点的三维构造球面问题和确定所需虚点的二维构造问题的方法。描述了一种计算所得球面参数的方法。本文还考虑了将该方法应用于描述几何的其他问题,例如寻找点的几何位置的问题。等距的:与两个给定曲面等距的最近,这一问题得到了深入的研究,例如,在作品[5,6]中。
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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