• Acta Photonica Sinica
  • Vol. 50, Issue 11, 1134001 (2021)
Tong SU1, Lizhi SHENG1、*, Yongan LIU1、2, Xuehan ZHANG1、2, Yifan LIU1、2, and Baosheng ZHAO1
Author Affiliations
  • 1State Key Laboratory of Transient Optics and Photonics,Xi'an Institute of Optics and Precision Mechanics,Chinese Academy of Sciences,Xi'an 710119,China
  • 2University of Chinese Academy of Sciences,Beijing 100049,China
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    DOI: 10.3788/gzxb20215011.1134001 Cite this Article
    Tong SU, Lizhi SHENG, Yongan LIU, Xuehan ZHANG, Yifan LIU, Baosheng ZHAO. Theoretical and Technical Research of X-ray Communication in Plasma Sheath[J]. Acta Photonica Sinica, 2021, 50(11): 1134001 Copy Citation Text show less
    Plasma attenuation based on different incident electromagnetic wave frequency
    Fig. 1. Plasma attenuation based on different incident electromagnetic wave frequency
    Attenuation coefficient variation with different incident X-ray photon number(modified model)
    Fig. 2. Attenuation coefficient variation with different incident X-ray photon number(modified model)
    The principle of X-ray communication experiment system
    Fig. 3. The principle of X-ray communication experiment system
    The physical diagram of the plasma generation device[19]
    Fig. 4. The physical diagram of the plasma generation device19
    GCMX emission source after packaging
    Fig. 5. GCMX emission source after packaging
    NaI(Tl)scintillator detector after packaging
    Fig. 6. NaI(Tl)scintillator detector after packaging
    The relationship between incident X-photon flux and transmittance
    Fig. 7. The relationship between incident X-photon flux and transmittance
    The relationship between X-ray transmittance and free electron density
    Fig. 8. The relationship between X-ray transmittance and free electron density
    Effect of different incident photon numbers on the energy spectrum of X-ray
    Fig. 9. Effect of different incident photon numbers on the energy spectrum of X-ray
    X-ray communication verification in plasma
    Fig. 10. X-ray communication verification in plasma
    FPGA based error detector system
    Fig. 11. FPGA based error detector system
    3 μA6 μA12 μA24 μA48 μA120 μA
    300 W67.84%71.7%74.82%84.26%87.24%93.74%
    500 W57.41%60.64%73.34%76.88%86.83%88.93%
    700 W54.21%57.43%70.72%72.00%82.88%85.17%
    1 000 W47.78%54.65%65.04%69.81%78.32%83.36%
    Table 1. X-ray transmission rate under different anode current and different RF power
    ConditionsCommunication rate/MbpsBER

    Plasma density:7×1011/cm3

    Anode voltage:15 kV

    18.0×10-5

    Plasma density:1×1012/cm3

    Anode voltage:20 kV

    16.4×10-5

    Plasma density:1.2×1012/cm3

    Anode voltage:30 kV

    17.5×10-5
    Table 2. Experimental results of X-ray communication ground verification in the plasma sheath
    Tong SU, Lizhi SHENG, Yongan LIU, Xuehan ZHANG, Yifan LIU, Baosheng ZHAO. Theoretical and Technical Research of X-ray Communication in Plasma Sheath[J]. Acta Photonica Sinica, 2021, 50(11): 1134001
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