• High Power Laser and Particle Beams
  • Vol. 36, Issue 7, 079001 (2024)
Qing He1, Dong Li1,2, Li Gu1, Siyuan Luo1,2..., Yudong He1, Biao Li1 and Qiang Wang1,*|Show fewer author(s)
Author Affiliations
  • 1Institute of Electronic Engineering, CAEP, Mianyang 621900, China
  • 2Microsystems and Terahertz Research Center, CAEP, Chengdu 610200, China
  • show less
    DOI: 10.11884/HPLPB202436.240061 Cite this Article
    Qing He, Dong Li, Li Gu, Siyuan Luo, Yudong He, Biao Li, Qiang Wang. Research progress in radio technology based on Rydberg atoms[J]. High Power Laser and Particle Beams, 2024, 36(7): 079001 Copy Citation Text show less
    Experimental set-up used for detecting microwave electric field[19]
    Fig. 1. Experimental set-up used for detecting microwave electric field[19]
    Microwave detection based on EIT-AT[19]
    Fig. 2. Microwave detection based on EIT-AT[19]
    Experimental system for measuring electric field by Mach-Zehnder interferometer[37]
    Fig. 3. Experimental system for measuring electric field by Mach-Zehnder interferometer[37]
    In the atomic superheterodyne method, the local signal with known frequency and phase and the signal field to be measured are mixed by atoms[27]原子超外差法中,已知频率和相位的本地信号和待测信号场通过原子进行混频[27]
    Fig. 4. In the atomic superheterodyne method, the local signal with known frequency and phase and the signal field to be measured are mixed by atoms[27]原子超外差法中,已知频率和相位的本地信号和待测信号场通过原子进行混频[27]
    Schematic diagram of optical repumping energy level[43]
    Fig. 5. Schematic diagram of optical repumping energy level[43]
    Highly sensitive detection using traditional resonant cavity
    Fig. 6. Highly sensitive detection using traditional resonant cavity
    Comparison of precision measurement using single (top) and many-body system (bottom)[48]
    Fig. 7. Comparison of precision measurement using single (top) and many-body system (bottom)[48]
    Schematic diagram of microwave electric field detection using EIA effect in South China Normal University[44]
    Fig. 8. Schematic diagram of microwave electric field detection using EIA effect in South China Normal University[44]
    Schematic diagram of experimental device of measuring K-band microwave by Shanxi University team using Rydberg atom[62]
    Fig. 9. Schematic diagram of experimental device of measuring K-band microwave by Shanxi University team using Rydberg atom[62]
    Detection of MHz RF radio waves by Rydberg atomic system[67]
    Fig. 10. Detection of MHz RF radio waves by Rydberg atomic system[67]
    Schematic diagram of atomic gas chamber detection with integrated electrode of Anderson research group[73]
    Fig. 11. Schematic diagram of atomic gas chamber detection with integrated electrode of Anderson research group[73]
    Quasi-continuous transition frequencies and corresponding dipole moments from different alkali atoms[33]
    Fig. 12. Quasi-continuous transition frequencies and corresponding dipole moments from different alkali atoms[33]
    Atomic radio receiver and spectrum analyzer prepared by Meyer et al using non-resonant heterodyne technique[81]
    Fig. 13. Atomic radio receiver and spectrum analyzer prepared by Meyer et al using non-resonant heterodyne technique[81]
    Microwave electric field polarization measurement[84]
    Fig. 14. Microwave electric field polarization measurement[84]
    Relationship between the measured parameters A and in the experiment, where A1 and A2 represent the areas of two spectral lines in the graph, with the solid line representing the theoretical results[14]实验中测量的参数A和的关系曲线,其中A1和A2表示插图中两条谱线的面积,实线为理论结果[14]
    Fig. 15. Relationship between the measured parameters A and in the experiment, where A1 and A2 represent the areas of two spectral lines in the graph, with the solid line representing the theoretical results[14]实验中测量的参数A和的关系曲线,其中A1A2表示插图中两条谱线的面积,实线为理论结果[14]
    Shanxi University's experimental setup for measuring the scattering field of radio frequency identification (RFID) tag[86]
    Fig. 16. Shanxi University's experimental setup for measuring the scattering field of radio frequency identification (RFID) tag[86]
    Measurement of polarization based on Rydberg atomic mixer[88]
    Fig. 17. Measurement of polarization based on Rydberg atomic mixer[88]
    Two-dimensional imaging results[90]
    Fig. 18. Two-dimensional imaging results[90]
    Using a quantum sensor based on thermal Rydberg atoms to receive data encoded in electromagnetic fields in the extreme electrically small regime[93]
    Fig. 19. Using a quantum sensor based on thermal Rydberg atoms to receive data encoded in electromagnetic fields in the extreme electrically small regime[93]
    Experimental schematic of NIST using atomic mixer to realize phase measurement[104]
    Fig. 20. Experimental schematic of NIST using atomic mixer to realize phase measurement[104]
    propertyn dependence
    binding energyn−2
    energy spacingn−3
    orbital radiusn2
    dipole momentn2
    radiative lifetimen3
    polarizabilityn7
    van der Waals interactionn11
    dipole-dipole interactionn4
    Table 1. The main characteristics of Rydberg atoms
    Qing He, Dong Li, Li Gu, Siyuan Luo, Yudong He, Biao Li, Qiang Wang. Research progress in radio technology based on Rydberg atoms[J]. High Power Laser and Particle Beams, 2024, 36(7): 079001
    Download Citation