Orbital Angular Momentum Vortex Waves Generation Using Textile Antenna Array for 5G Wearable Applications

Shehab Khan Noor, Arif Mawardi Ismail, M. N. Mohd Yasin, Mohamed Nasrun Osman, N. Ramli
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引用次数: 1

Abstract

The development of wireless systems for fifth-generation technology (5G) has enabled the use of textile antennas for a wide range of applications, and it has now become one of the world's most in-demand technology. As the number of wireless devices and users increase, operators would need higher channel capacity to deliver better possible service to their customers. This paper presents the generation of Orbital Angular Momentum (OAM) vortex waves with mode 1 using a wearable textile antenna. OAM introduces a new scheme called Mode Domain Multiple Access (MDMA). OAM mode is an orthogonal mode with each mode carrying individual signals. Therefore, multiple signals can be sent using the same carrier frequency without additional resources. This allows the channel capacity and spectrum efficiency to be enhanced. The proposed antenna array comprises rectangular microstrip patch elements with an inset fed technique. Felt textile fabric was used as an antenna substrate. A carefully planned feeding phase shift network was used to excite the elements by supplying similar output energy at output ports with the required phase shift value. The generated OAM waves were confirmed by measuring the null in the boresight direction of their 2D radiation patterns as well as simulated phase distribution, intensity distribution and mode purity. The antenna covered portions of the 5G n77 band with a bandwidth of 81.7 MHz and an overall gain of 2.9 dBi. This is, to the best of our knowledge, the first work on generating OAM waves using a flexible textile material.
基于纺织天线阵列的轨道角动量涡波产生技术在5G可穿戴应用中的应用
第五代技术(5G)无线系统的发展使纺织天线能够广泛应用,现在已成为世界上最受欢迎的技术之一。随着无线设备和用户数量的增加,运营商将需要更高的信道容量来为客户提供更好的服务。提出了一种利用可穿戴织物天线产生模式为1的轨道角动量涡旋波的方法。OAM引入了一种称为模式域多址(MDMA)的新方案。OAM模式是一种正交模式,每个模式携带单独的信号。因此,可以使用相同的载波频率发送多个信号,而无需额外的资源。这样可以提高信道容量和频谱效率。所提出的天线阵列包括具有插入馈电技术的矩形微带贴片元件。用毛毡织物作为天线衬底。通过在输出端口提供具有所需相移值的类似输出能量,使用精心规划的馈电相移网络来激发元件。通过测量其二维辐射方向的零点以及模拟的相位分布、强度分布和模态纯度来证实所产生的OAM波。该天线覆盖了5G n77频段的部分,带宽为81.7 MHz,总增益为2.9 dBi。据我们所知,这是第一个使用柔性纺织材料产生OAM波的工作。
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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