Optimized T-shaped resonator via local enhancement model integration within a cell for enhanced Rydberg-atom receiver sensing.

IF 7
Bo Wu, Zhanshan Sun, Di Sang, Yi Liu, Qiang An, Yi Lin, Yunqi Fu
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Abstract

Rydberg atom with resonators is regarded as promising atomic receivers to surpass conventional receivers' sensitivity. However, previous research has presented diverse open resonator structures, focusing on design yet lacking in theoretical guidance. Here we bridge this gap by elucidating the fundamental principles of local enhancement in open resonators, which guides us to adopt positive countermeasures aimed at maximizing the electric-field local enhancement ability and avoid blindly modifications. To overcome limitations of injection-type cylindrical resonators, which require external antennas and lack mobility, we propose an enclosed T-shaped resonator (TSR) integrated within a vapor cell for direct C-band coupling. Simulations show that the enhancement factor rises from 27 times of the basic parallel-plate resonator (PPR) to 57 times of the TSR at the same resonant frequency. An experimental validation was performed with an TSR. The TSR has 32.5 dB at 7.83 GHz electric-field local enhancement ability and an electrical size of 0.18 λ.

通过单元内局部增强模型集成优化的t形谐振器,用于增强里德堡-原子接收器传感。
带谐振腔的里德伯原子被认为是一种有希望超越传统接收器灵敏度的原子接收器。然而,以往的研究提出了各种各样的开腔结构,主要集中在设计上,缺乏理论指导。本文通过阐述开放谐振腔局部增强的基本原理来弥补这一差距,指导我们采取旨在最大化电场局部增强能力的积极对策,避免盲目修改。为了克服注入型圆柱形谐振器需要外部天线和缺乏移动性的局限性,我们提出了一种集成在蒸汽池内的封闭式t形谐振器(TSR),用于直接c波段耦合。仿真结果表明,在相同谐振频率下,增强系数从基本平行板谐振器(PPR)的27倍提高到TSR的57倍。用TSR进行了实验验证。在7.83 GHz时,TSR具有32.5 dB的电场局部增强能力,电尺寸为0.18 λ。
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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