Eliminating sensing blind spots of field-enhanced Rydberg atomic antenna via an asymmetric parallel-plate resonator

IF 5.8 2区 物理与天体物理 Q1 OPTICS EPJ Quantum Technology Pub Date : 2024-04-24 DOI:10.1140/epjqt/s40507-024-00239-9
Bo Wu, Yan-Li Zhou, Zhen-Ke Ding, Rui-Qi Mao, Si-Xian Qian, Zhi-Qian Wan, Yi Liu, Qiang An, Yi Lin, Yun-Qi Fu
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Abstract

Due to its large electric dipole moment, the Rydberg atom exhibits a strong response to weak electric fields, hence it is regarded as a highly promising atomic antenna. However, to enhance the reception sensitivity, split-ring resonators are needed normally, which will brings sensing blind spots. Thus it is not conducive to the application of full-coverage space communication. Here we propose that an atomic antenna with an asymmetric parallel-plate resonator, can not only enhance the received signal, but also eliminate sensing blind spots (pattern roundness can reach 7.8 dB while the split-ring resonator can be up to 39 dB). We analyze the influence of structural parameters on the field enhancement factor and directionality, and further discuss the limitation of the sensitivity by using thermal resistor noise theory. This work is expected to pave the way for the development of field-enhanced Rydberg atomic antennas that communicate without a blind spot.

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通过非对称平行板谐振器消除场增强雷德贝格原子天线的传感盲点
由于雷德贝格原子具有很大的电偶极矩,它对微弱电场的反应很强,因此被认为是一种很有前途的原子天线。然而,为了提高接收灵敏度,通常需要使用分环谐振器,这会带来感应盲点。因此不利于全覆盖空间通信的应用。在这里,我们提出了一种带有非对称平行板谐振器的原子天线,不仅能增强接收信号,还能消除感应盲点(图案圆度可达 7.8 dB,而分环谐振器可达 39 dB)。我们分析了结构参数对场增强因子和方向性的影响,并利用热阻噪声理论进一步讨论了灵敏度的限制。这项工作有望为开发无盲点通信的场增强雷德堡原子天线铺平道路。
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来源期刊
EPJ Quantum Technology
EPJ Quantum Technology Physics and Astronomy-Atomic and Molecular Physics, and Optics
CiteScore
7.70
自引率
7.50%
发文量
28
审稿时长
71 days
期刊介绍: Driven by advances in technology and experimental capability, the last decade has seen the emergence of quantum technology: a new praxis for controlling the quantum world. It is now possible to engineer complex, multi-component systems that merge the once distinct fields of quantum optics and condensed matter physics. EPJ Quantum Technology covers theoretical and experimental advances in subjects including but not limited to the following: Quantum measurement, metrology and lithography Quantum complex systems, networks and cellular automata Quantum electromechanical systems Quantum optomechanical systems Quantum machines, engineering and nanorobotics Quantum control theory Quantum information, communication and computation Quantum thermodynamics Quantum metamaterials The effect of Casimir forces on micro- and nano-electromechanical systems Quantum biology Quantum sensing Hybrid quantum systems Quantum simulations.
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