Design and Implementation of Different Unit Cells for Reconfigurable Intelligent Surface

Jaafar Qassim Kadhim, Adheed H. Sallomi, I. Svyd
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Abstract

Recently, great attention has been given to the idea of a smart environment. It often involves the use of reconfigurable intelligent surfaces (RIS) for the management of electromagnetic wave reflections as the world awaits the emergence of 6G. Changeable intelligent surfaces may enhance the creation of wireless communication. The design and analysis of several unit cell reflections are presented in this work. The first design relies on the Switching Technique which involves switching on and off to acquire the phase as well as the coefficient of reflection to accommodate 6G standards. The unit cells design is configured to operate in the millimeter band and X band. In the second design, the radius of the circular patch was changed to adjustment of the phase and reflection coefficient. The use of Floquet technique is employed in investigating the scattering characteristics of a unit cell's constituent elements based on the assumption that every element consists of an extremely iterating periodic structure. To determine the optimal force reflection and the transformation phase, the return loss alongside reflection phase graphs of each resonant component were examined. The simulation results indicate that the first design exhibits a reflection phase shift range of -180 to 90 and a reflection magnitude over 0.93 at a frequency of 11GHz. In contrast, the second design demonstrates a reflection phase shift range of -135 to 135 and a reflection magnitude surpassing 0.9 at a frequency of 28GHz. The analysis and simulation of the design models were carried out using the CST model.
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可重构智能表面不同单元格的设计与实现
最近,智能环境的概念受到了极大关注。这通常涉及使用可重新配置的智能表面(RIS)来管理电磁波反射,因为全世界都在等待 6G 的出现。可改变的智能表面可以增强无线通信的创造力。本作品介绍了几种单元反射的设计和分析。第一种设计依赖于开关技术,通过开关来获取相位和反射系数,以适应 6G 标准。单元设计配置为在毫米波段和 X 波段工作。在第二个设计中,改变了圆形贴片的半径,以调整相位和反射系数。在研究单元单元组成元素的散射特性时,采用了 Floquet 技术,其假设是每个元素都由极度迭代的周期结构组成。为了确定最佳力反射和转换相位,研究了每个谐振元件的回波损耗和反射相位图。模拟结果表明,在 11 千兆赫频率下,第一种设计的反射相移范围为 -180 至 90,反射幅度超过 0.93。相比之下,第二种设计在 28GHz 频率下的反射相移范围为-135 至 135,反射幅度超过 0.9。使用 CST 模型对设计模型进行了分析和模拟。
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来源期刊
CiteScore
0.70
自引率
0.00%
发文量
74
审稿时长
50 weeks
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