Hussain Musa, Awan Wahaj Abbas, Alzaidi Mohammed S, Hussain Niamat, Ali Esraa Mousa, Falcone Francisco
Department of Electrical Engineering, Bahria University Islamabad Campus, Islamabad 44000, Pakistan.
Department of Information and Communication Engineering, Chungbuk National University, Cheongju 28644, Republic of Korea.
Micromachines (Basel). 2023 Jan 30;14(2):349. doi: 10.3390/mi14020349.
Metamaterials exhibit properties in terms of subwavelength operation or phase manipulation, among others, that can be used in a variety of applications in 5G communication systems. The future and current 5G devices demand high efficiency, high data rate, computational capabilities, cost-effectiveness, compact size, and low power consumption. This variation and advancement are possible when the antenna design is revised to operate over wideband, high gain, and multiband and has characteristics of compact size, reconfiguration, absorption, and simple ease of fabrication. The materials loaded with antennas or, in the same cases, without antennas, offer the aforementioned characteristics to bring advancement in order to facilitate users. A number of works on designing metasurfaces capable of improving bandwidth, gain efficiency, and reducing the size and cost of antennas are available in the literature for this purpose. Not only are these applications possible, but the intelligent metasurfaces are also designed to obtain reconfiguration in terms of frequency and polarization. The number of absorbers loaded with metamaterials is also designed to improve the absorption percentage used for radar applications. Thus, in this paper, the general overview of different types of metamaterials and their role in performance enhancement and application in 5G and 6G communication systems is discussed.
超材料在亚波长操作或相位操纵等方面展现出一些特性,这些特性可用于5G通信系统的各种应用中。未来和当前的5G设备需要具备高效率、高数据速率、计算能力、成本效益、紧凑尺寸和低功耗等特点。当对天线设计进行改进,使其能够在宽带、高增益和多频段上运行,并具备紧凑尺寸、可重构性、吸收特性以及易于制造的特点时,这种变化和进步才有可能实现。加载了天线的材料,或者在相同情况下未加载天线的材料,具备上述特性,从而推动进步以方便用户使用。为此,文献中有许多关于设计能够提高带宽、增益效率以及减小天线尺寸和成本的超表面的研究工作。这些应用不仅是可行的,而且智能超表面还被设计用于实现频率和极化方面的可重构性。加载了超材料的吸收体数量也被设计用于提高雷达应用中的吸收百分比。因此,本文将讨论不同类型超材料的总体概况及其在5G和6G通信系统性能增强和应用中的作用。