An Improved Design of Multiband Patch Antenna at 26 GHz for 5G Mobile

Dichi Syahbana, S. Rahmatia, P. Wulandari
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引用次数: 1

Abstract

This paper proposes an improved design and simulation of rectangular microstrip antenna for mobile communication or especially 5G technology. The main contribution of this work is design simplification of the current model, in which only using design are required as usual in microstrip antenna compared to previously developed parasitic element model. The frequency band is achieved by forcing the model into smaller and calculation to determine the width and length of patch microstrip antenna. To test the effectiveness of the proposed method, CST simulations are carried out under very challenging conditions, namely step change in gap feed line, length of substrate, uses FR-4 of substrate and the performance of the model is evaluated against the popular parasitic element models. From the simulation work, it was found that the proposed model with optimized is superior when subjected by a frequency covering 26--28 GHz with center frequency 26.00 GHz. At the multi band types the coverage frequencies confirmed that from 22 GHz to 40 GHz and 25.93 GHz, 31.126 GHz, and 37.221 GHz as middle frequency of three types. Then maximum gain of this work is 6.85 dB. The method proposed in this paper can be used for all types of frequency coverage because it can be readily retrofitted to the any model rectangular microstrip.
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5G移动26 GHz多频段贴片天线的改进设计
本文提出了一种用于移动通信特别是5G技术的矩形微带天线的改进设计与仿真。这项工作的主要贡献是简化了现有模型的设计,与以前开发的寄生元件模型相比,微带天线只需要使用通常的设计。该频段是通过强迫模型缩小和计算来确定贴片微带天线的宽度和长度来实现的。为了验证该方法的有效性,在极具挑战性的条件下进行了CST仿真,即间隙馈线阶跃变化,衬底长度,衬底使用FR-4,并根据流行的寄生元件模型评估了模型的性能。仿真结果表明,当中心频率为26.00 GHz,频率范围为26—28 GHz时,优化后的模型具有较好的性能。在多频段类型下,覆盖频率确定为22 GHz ~ 40 GHz, 25.93 GHz、31.126 GHz和37.221 GHz为三种类型的中频。那么此工作的最大增益为6.85 dB。本文提出的方法可以用于所有类型的频率覆盖,因为它可以很容易地改造到任何模型的矩形微带。
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