Design Build a 4x4 Mimo Microstrip Antenna with Artificial Dielectric Muse Array Technique to increase Antenna Gain pexisting Application 5G

A. Handayani, Aan Sugiyanto, Ciksadan Ciksadan, J. Endri
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Abstract

The development of fifth-generation cellular technology, commonly referred to as "5G" networks, is believed to be able to maximize data speed access needs. In order to maximize the utilization of the existing 5G network in Indonesia, Telkomsel providers are using a frequency of 2.3 GHz with a bandwidth of 50 MHz. So we need an antenna amplifier that is easy to fabricate and place anywhere to maximize the signal capture range. A microstrip antenna is a suitable antenna for this amplifier. The advantage of this antenna is that it has a light mass and is easy to fabricate. while the drawbacks come in the form of narrow bandwidth and small gains. Therefore, an antenna design with an artificial substrate and array technique was made to overcome this. The design of this microstrip antenna was made in the CST Studio Suite 2019. The design was carried out by entering the antenna dimension values to be simulated and seeing the parameters; if they are not suitable, then they need to be optimized again, and when they are appropriate, the design results are fabricated and printed. In testing the signal capture power using the Xirrus WiFi Inspector, this antenna was able to capture the signal beam, which was 105 meters or 40 meters further than not using the antenna. In addition, from testing, it is known that this antenna has a gain of 16.15 dBi. While in the simulation, it is also known that this antenna has the following characteristics: return loss: -32,353 dB (S11), -32,737 dB (S22), -33,974 dB (S33), -34,423 dB (S44), VSWR: 1,049 (VSWR 1), 1,047 (VSWR 2), 1.040 (VSWR 3), 1.038 (VSWR 4), impedance: 50.7 -111 MHz.
利用人工介电缪斯阵列技术设计构建4x4 Mimo微带天线,以提高现有应用5G的天线增益
第五代蜂窝技术(通常被称为“5G”网络)的发展被认为能够最大限度地满足数据速度访问需求。为了最大限度地利用印度尼西亚现有的5G网络,Telkomsel供应商正在使用2.3 GHz的频率和50 MHz的带宽。因此,我们需要一种易于制造和放置的天线放大器,以最大限度地提高信号捕获范围。微带天线是这种放大器的合适天线。这种天线的优点是质量轻,易于制造。缺点是带宽窄,增益小。因此,采用人工基板和阵列技术设计天线来克服这一问题。该微带天线的设计是在CST Studio Suite 2019中完成的。通过输入待仿真天线尺寸值并查看参数进行设计;如果它们不合适,那么它们需要再次优化,当它们合适时,设计结果被制造和打印。在使用Xirrus WiFi Inspector测试信号捕获能力时,该天线能够捕获信号波束,比不使用该天线远105米或40米。此外,通过测试可知,该天线的增益为16.15 dBi。而在仿真中,我们还知道该天线具有以下特性:回波损耗:- 32353 dB (S11), - 32737 dB (S22), - 33974 dB (S33), - 34423 dB (S44), VSWR: 1049 (VSWR 1), 1047 (VSWR 2), 1.040 (VSWR 3), 1.038 (VSWR 4),阻抗:50.7 -111 MHz。
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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