基于新型全封装共面波导的60 GHz 0-360˚液晶无源模拟延迟线

Jinfeng Li
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引用次数: 2

摘要

针对60ghz星间交叉链路,研制了一种基于液晶(LC)的新型0-360°连续可变真时延移相器(延迟线)。该器件是在无杂散模式的全封闭式共面波导(CB-ECPW)上开发的。该新颖技术的基础是电场均匀化概念,以及通过智能阻抗匹配在各种相位延迟状态下平衡插入损耗,从而消除波束转向畸变,而无需使用幅度补偿网络。制造特点是无镍镀金和镀孔关闭。测量的最坏情况插入损耗为-7.04 dB(0-360°相移),相位调谐上升时间为0.6秒,在60 GHz下,该器件的正向传输系数提高了1 dB,与我们之前优化的基于lc的ECPW移相器相比,响应时间缩短了3.4秒。这使得新器件能够在各种优点和敏捷性方面与现有的基于波导的LC模拟延迟线竞争。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
60 GHz 0-360˚ Passive Analog Delay Line in Liquid Crystal Technology based on a Novel Conductor-backed Fully-enclosed Coplanar Waveguide
A new 0-360° continuously-variable true-time-delay phase shifter (delay line) based on liquid crystal (LC) is prototyped targeting 60 GHz inter-satellite cross-links. The device is developed on a stray-modes-free conductor-backed fully-enclosed coplanar waveguide (CB-ECPW). The novelty is underpinned by an electric field homogenisation concept, as well as insertion losses balancing at various phase-delay states by smart impedance-matching to remove beam-steering distortions without using amplitude compensation networks. The manufacturing features nickel-free gold-plating and vias plated shut. Measured worst-case insertion loss being -7.04 dB (0-360° phase-shifting) and phase-tuning rise time being 0.6 seconds at 60 GHz, the device demonstrates an improvement of up to 1 dB for the forward transmission coefficient, as well as a reduction of 3.4 seconds for the response time compared against our previously optimised LC-based ECPW phase shifter. These enable the new device to compete with existing waveguide-based LC analog delay lines in terms of various figure-of-merits and agility.
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