节点文献

固态原子自旋微波大功率激发天线设计

Design of Solid-state Atom Spin Microwave High-power Excitation Antenna

  • 推荐 CAJ下载
  • PDF下载
  • 不支持迅雷等下载工具,请取消加速工具后下载。

【作者】 刘丽双; 郭浩; 朱政强; 唐军; 任天令;

【Author】 LIU Li-shuang;GUO Hao;ZHU Zheng-qiang;TANG Jun;REN Tian-ling;School of Instrument and Electronics, North University of China;Beijing Institute of Aerospace Control Devices;School of Integrated Circuits, Tsinghua University;

【机构】 中北大学仪器与电子学院; 北京航天控制仪器研究所; 清华大学集成电路学院;

【摘要】 固态原子自旋磁传感器具有磁灵敏度高、体积小等优势,在精密测量领域具有很好的发展前景。面向高灵敏度固态原子自旋磁传感器对大功率高均匀微波激发天线的需求,设计了一种类环形磁耦合天线结构,通过增加不规则移相回路和环形开口结构使微波场在环形天线中心处叠加,产生大功率高均匀微波场。实验中,通过仿真得到该结构S11参数为-20.8dB,微波非均匀性小于6%。同时,通过与传统环形天线对比测试,该类环形天线使固态原子自旋ODMR谱对比度提升了330%,相应的磁传感灵敏度提升了约450%,实现了对固态原子自旋磁传感结构的灵敏度提升,为高灵敏固态原子自旋传感测量技术提供了技术支撑。

【Abstract】 Solid-state atomic spin magnetic sensor has the advantages of high magnetic sensitivity and small volume, and has a good development prospect in the field of precision measurement. In this paper, a kind of ring magnetic coupling antenna structure is designed to meet the requirements of high-power and high-uniformity microwave excitation antenna for high-sensitivity solid-state atomic spin magnetic sensor. By adding irregular phase-shifting circuit and ring opening structure, the microwave field is superimposed at the center of the ring antenna to produce high-power and high-uniformity microwave field. In the experiment, the S11 parameters of the structure are-20.8 dB and the microwave nonuniformity is less than 6%. At the same time, through the comparison test with the traditional ring antenna, it is found that this kind of ring antenna can improve the ODMR spectral contrast of solid-state atom spin by 330%, and the corresponding magnetic sensing sensitivity by about 450%, which can improve the sensitivity of the solid-state atom spin magnetic sensing structure, and provide technical support for the highly sensitive solid-state atom spin sensing measurement technology.

【基金】 国家自然科学基金(编号:62175219,51635011)
  • 【文献出处】 导航与控制 ,Navigation and Control , 编辑部邮箱 ,2022年Z1期
  • 【分类号】TN820
  • 【下载频次】19
节点文献中: 

本文链接的文献网络图示:

本文的引文网络