机载有源相控阵雷达15W x波段GaN收发模块设计

Channa Babar Ali, Muhammad Hashsham Chishti, Umar Anjum, Shahzad Arshad, Abdulfattah Noorwali, Syed Aziz Shah
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引用次数: 1

摘要

发射/接收模块(TRM)是满足下一代有源电子扫描阵列雷达关键要求的核心组件,即多种功能、模块化和可扩展性。此外,表面上对小型化、宽带性能、高输出功率和良好电气性能的要求加剧了TRM设计的复杂性。因此,本文旨在设计范围为8.5 GHz - 11 GHz,输出功率为15W,同时满足一半波长尺寸约束的TRM。此外,本文还重点设计了apt架构,优化了衬底,提出了PCB层和MMIC堆叠,设计了高频传输线,进行了串扰分析并提出了验证TRM的测试设置。通过可视化系统模拟器(AWR)中的射频预算仿真、ANSYS HFSS中的传输线设计、Cadence Allegro中的多层PCB设计以及ANSYS SIwave中的串扰仿真验证了所提出的TRM架构。简而言之,TRM在回波损耗和分数带宽方面达到了标准,所有高频传输线的回波损耗都低于-20 dB,并且在整个x波段从8 GHz到12 GHz的范围内获得了< 40%的分数带宽。此外,近端串扰(NEXT)和远端串扰(ext)均小于7%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design of 15W X-Band GaN Based Transmit / Receive Module for Airborne Active Phased Array Radar Applications
Transmit / Receive module (TRM) is the core component that addresses key requirements of next generation Active Electronically Scanned Array Radars i.e. multifarious functionality, modularity and scalability. Furthermore, ostensible requirements of miniaturization, wideband performance, high-output power and apt electrical performance exacerbate design intricacies of TRM. Thus, the proposed paper aims to design TRM ranging from 8.5 GHz – 11 GHz, with 15W output power while meeting half-the-wavelength size constraint. Moreover, the proposed paper focuses to devise apt architecture, opt substrate optimally, propose PCB layer and MMIC stack-up, design high-frequency transmission lines, perform crosstalk analysis and propose test-setup for validation of TRM. The proposed architecture of TRM was validated through RF budget simulation in Visual System Simulator (AWR) followed by transmission lines design in ANSYS HFSS, Multi-layer PCB design in Cadence Allegro and Crosstalk simulations in ANSYS SIwave. In a nutshell, the achieved performance of TRM was up-to-the-mark in terms of returns loss and fractional bandwidth as return losses of all high-frequency transmission lines were below -20 dB and fractional bandwidth < 40% was attained over the entire X-Band from 8 GHz to 12 GHz. Furthermore, the near-end crosstalk (NEXT) and far-end crosstalk (FEXT) were achieved to be < 7%.
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