Mathematical model of a communication channel with an unmanned aerial vehicle

N. S. Arkhipov, I. Polyansky, Y. Yakovlev, A. V. Subbotenko
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Abstract

In this paper, a mathematical model of a communication channel with an unmanned aerial vehicle and taking into account the specifics of the locations of a ground communication point when determining the effects of refraction, diffraction and interference of electromagnetic waves is proposed. A meaningful statement of the problem based on the mathematical relationship between the energy parameters of the first transmission equation and the quality indicators (BER) of the second transmission equation has been formed. The main features of calculating the parameters of the first equation are to determine the rules for calculating the level of attenuation due to the influence of the earths surface. The calculation of attenuations for cases of removal of an unmanned aerial vehicle from a ground communication point within the areas of line of sight, partial shade and shadow has been clarified. The second transmission equation is based on the mathematical model of the Rice communication channel. With respect to the energy parameters and the selected communication quality indicator for the formed mathematical model, examples of graphical dependencies are given in the study of typical computational problems. With respect to the energy parameters and the selected communication quality indicator for the formed mathematical model, examples of graphical dependencies in the study of typical computational problems are given.
无人机通信信道的数学模型
本文建立了无人机通信信道的数学模型,在确定电磁波的折射、衍射和干扰效应时,考虑了地面通信点位置的特殊性。基于第一传输方程的能量参数与第二传输方程的质量指标(BER)之间的数学关系,对问题进行了有意义的表述。计算第一个方程参数的主要特点是确定由于地球表面影响而引起的衰减水平的计算规则。澄清了在视线、部分阴影和阴影范围内将无人机从地面通讯点移除的情况下的衰减计算。第二个传输方程是基于Rice通信信道的数学模型。对于所形成的数学模型的能量参数和所选择的通信质量指标,在典型计算问题的研究中给出了图形依赖关系的例子。针对所形成的数学模型的能量参数和选定的通信质量指标,给出了典型计算问题研究中的图形依赖关系的实例。
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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