Figures of Merit for Active Antenna Enabled 5G Communication Networks

J. Mckinnis, I. Gresham, Randy Becker
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引用次数: 4

Abstract

Active antennas enable novel spatial techniques and beam-forming technology crucial to overcoming millimeter wave propagation challenges for fifth generation (5G) communication systems. At millimeter wave frequencies, a large effective aperture can be accommodated in a physically small area to overcome the high channel loss in these spectrum bands. The ability to dynamically steer and shape active antenna beam(s) to track users., overcome changing channel conditions, and focus the radiated energy into the desired direction provides additional degrees of flexibility and enables better performance for 5G radio system designs. To provide an over-the-air interface for previous generations of radio access networks, traditional architectures have relied upon separate, passive antennas connected by radio frequency cables to active radio transceivers. Active antenna systems, also known as phased array antenna systems, are an advancement from these previous radio access architectures. To implement an active antenna, a array of active radiating elements is utilized to combine passive antenna functions with active amplification and signal conditioning capabilities. Active antennas are an enabling technology for millimeter wave 5G communication systems that create a fundamental architecture shift requiring new Figures of Merit (FoMs). The 5G active antenna FoMs defined in this paper provide methods for antenna performance comparisons and wireless system evaluation.
支持有源天线的5G通信网络的性能指标
有源天线实现了新的空间技术和波束形成技术,这对克服第五代(5G)通信系统的毫米波传播挑战至关重要。在毫米波频率下,可以在较小的物理面积内容纳较大的有效孔径,以克服这些频段的高信道损耗。动态引导和塑造有源天线波束以跟踪用户的能力。,克服不断变化的信道条件,并将辐射能量聚焦到所需的方向,为5G无线电系统设计提供了额外的灵活性,并实现了更好的性能。为了为前几代无线接入网络提供空中接口,传统架构依赖于通过射频电缆连接到有源无线电收发器的独立无源天线。有源天线系统,也被称为相控阵天线系统,是从这些以前的无线电接入架构的进步。为了实现有源天线,利用一组有源辐射元件将无源天线功能与有源放大和信号调理能力相结合。有源天线是毫米波5G通信系统的一项使能技术,它创造了一种基本的架构转变,需要新的性能指标(FoMs)。本文定义的5G有源天线fom为天线性能比较和无线系统评估提供了方法。
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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