Design of a high performance wideband S-APAS architecture

M. Lamanna
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引用次数: 4

Abstract

The S-APAS (Scalable Multifunction Radio Frequency — Active Phased Array System) architecture has already been presented in previous papers [1] [2] [3]. The potential use of this architecture, in different versions and different operating bands, have been also analyzed on the basis of parallel technological developments [4] [5] [6] [7] [8]. However, the most challenging issue for the S-APAS architecture is a suitable design which allows this architecture to work at different operating frequencies and with wide instantaneous bandwidth, by using the same T/R modules and the same framework structure, while offering the best radio frequency performance at different frequencies. The main problems in defining such a wideband version of the S-APAS architecture are both in the technological aspects, i.e. producing T/R modules, with enough performance at frequencies of interest, and in system design, i.e. defining an array structure that is capable to provide high performance radio frequency figures while changing frequency, by means of a suitably reconfigurable beamforming and beamshaping. This paper tackles these problems, in order to assess feasibility of the wide band approach both in terms of technological capability and architectural feasibility. Regarding the first problem, the technological capabilities of the T/R components, in particular the GaN amplifier, are examined, starting from the wideband characteristics of the present generation of GaN components and analyzing the medium term improvements which have been planned in this area. With regard to the wideband architecture, a frequency tapered array design approach [9] is taken into consideration and its properties are analyzed, in order to evaluate the best configuration that is applicable to the S-APAS architecture.
一种高性能宽带S-APAS架构设计
S-APAS(可扩展多功能射频-有源相控阵系统)架构已经在之前的论文[1][2][3]中提出。在并行技术发展的基础上,还分析了该架构在不同版本和不同操作频带中的潜在用途[4][5][6][7][8]。然而,S-APAS架构最具挑战性的问题是合适的设计,该设计允许该架构在不同的工作频率和宽瞬时带宽下工作,通过使用相同的T/R模块和相同的框架结构,同时在不同频率下提供最佳的射频性能。定义这种S-APAS架构的宽带版本的主要问题在于技术方面,即生产在感兴趣的频率下具有足够性能的T/R模块,以及系统设计,即定义能够在改变频率时提供高性能射频数字的阵列结构,通过适当的可重构波束形成和波束整形。本文对这些问题进行了探讨,从技术能力和架构可行性两方面对宽带方法的可行性进行了评估。关于第一个问题,从当前一代GaN组件的宽带特性开始,并分析在该领域计划的中期改进,对T/R组件,特别是GaN放大器的技术能力进行了检查。对于宽带架构,考虑了频率递减阵列设计方法[9]并分析了其特性,以评估适用于S-APAS架构的最佳配置。
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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