用于x波段APAA的宽带微带双极化辐射器

P.L. Batov, E.N. Gurkin, S.O. Knyazev, D.L. Borisevitch
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引用次数: 0

摘要

本文介绍了有源相控阵宽带微带x波段辐射体的模型和结构。对散热器的基本要求已经制定。给出了该辐射体在自由空间和无限阵列中的计算机电磁仿真结果,以及在波导模拟器中的辐射体实验测试结果。在测试样品上模拟并估计了该辐射体的驻波比、去耦系数和损耗等特性。实验结果与数值模拟结果吻合较好。特别是实现了20%的带宽,且驻波比不大于2。在波导模拟器中进行的样品测试给出了0.5 dB的损耗(辐射器的主动损耗和回波损耗,而模拟器本身没有损耗)。从数值模拟结果可以看出,在3db增益损耗下,主平面的扫描角度应不小于±40°或±45°。因此,所提出的微带辐射器可用于x波段有源相控阵,该相控阵应在20%的带宽下工作,极化可调。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Wideband microstrip dual polarization radiator for X-band APAA
In this paper the model and the construction of a wideband microstrip X-band radiator of active phased antenna arrays have been presented. The basic demands to the radiator have been formulated. The results of computer electromagnetic simulation of the radiator in free space and in the infinite array have been given, as well as the results of radiator experimental testing in the waveguide simulator. The characteristics of a proposed radiator such as VSWR, decoupling coefficient and losses have been simulated and estimated experimentally on the test sample. Experiment has shown good agreement with numerical simulation results. Particularly, 20% bandwidth with VSWR no greater than 2 has been achieved. Sample testing in a waveguide simulator gives 0,5 dB loss (active and return loss in radiator without loss in simulator itself). Scan angle at 3 dB gain loss, as it follows from numerical simulation results, should be no less than ±40° or ±45° in the main planes. So, proposed microstrip radiator may be used for X-band active phased arrays, which should work in 20% bandwidth with steerable polarization.
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