• Acta Optica Sinica
  • Vol. 43, Issue 6, 0601013 (2023)
Juan Liu, Qian Du, Fangning Liu, Ke Wang, Jiayi Yu**, and Dongmei Wei*
Author Affiliations
  • Shandong Provincial Engineering and Technical Center of Light Manipulations, School of Physics and Electronics, Shandong Normal University, Jinan 250358, Shandong, China
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    DOI: 10.3788/AOS221804 Cite this Article Set citation alerts
    Juan Liu, Qian Du, Fangning Liu, Ke Wang, Jiayi Yu, Dongmei Wei. Vortex Beam Phase Correction Based on Deep Phase Estimation Network[J]. Acta Optica Sinica, 2023, 43(6): 0601013 Copy Citation Text show less
    Schematic diagram of beam transmission through multiple phase screens
    Fig. 1. Schematic diagram of beam transmission through multiple phase screens
    Simulated phase diagram
    Fig. 2. Simulated phase diagram
    Influence of atmospheric turbulence on beam transmission
    Fig. 3. Influence of atmospheric turbulence on beam transmission
    Mode purity of LG (l=5) under different turbulence intensities
    Fig. 4. Mode purity of LG (l=5) under different turbulence intensities
    Block diagrams of phase compensation process. (a) Source pre-compensation; (b) direct compensation at receiving end
    Fig. 5. Block diagrams of phase compensation process. (a) Source pre-compensation; (b) direct compensation at receiving end
    DPEnet network structure
    Fig. 6. DPEnet network structure
    Simulated and predicted phase screens with different turbulence intensities. (a) 1×10-14 m-2/3; (b) 2.5×10-14 m-2/3; (c) 5×10-14 m-2/3; (d) 7.5×10-14 m-2/3; (e) 1×10-13 m-2/3
    Fig. 7. Simulated and predicted phase screens with different turbulence intensities. (a) 1×10-14 m-2/3; (b) 2.5×10-14 m-2/3; (c) 5×10-14 m-2/3; (d) 7.5×10-14 m-2/3; (e) 1×10-13 m-2/3
    Compensation results. (a) Intensity profile in source plane; uncompensated and compensated intensity profiles with turbulence intensities of (b) 1×10-14 m-2/3, (c) 2.5×10-14 m-2/3, (d) 5×10-14 m-2/3, (e) 7.5×10-14 m-2/3, and (f) 1×10-13 m-2/3, respectively
    Fig. 8. Compensation results. (a) Intensity profile in source plane; uncompensated and compensated intensity profiles with turbulence intensities of (b) 1×10-14 m-2/3, (c) 2.5×10-14 m-2/3, (d) 5×10-14 m-2/3, (e) 7.5×10-14 m-2/3, and (f) 1×10-13 m-2/3, respectively
    Mode purity before and after compensation
    Fig. 9. Mode purity before and after compensation
    Phases before and after compensation. (a) Phase in source plane; uncompensated and compensated phases with turbulence intensities of (b) 1×10-14 m-2/3, (c) 2.5×10-14 m-2/3, (d) 5×10-14 m-2/3, (e) 7.5×10-14 m-2/3, and (f) 1×10-13 m-2/3, respectively
    Fig. 10. Phases before and after compensation. (a) Phase in source plane; uncompensated and compensated phases with turbulence intensities of (b) 1×10-14 m-2/3, (c) 2.5×10-14 m-2/3, (d) 5×10-14 m-2/3, (e) 7.5×10-14 m-2/3, and (f) 1×10-13 m-2/3, respectively
    Data setCn2 /10-14 m-2/3 of LGSample size of LGCn2 /10-14 m-2/3 of GBSample size of LG
    Train set[1,10]30000[1,10]30000
    Test set 11100011000
    Test set 22.510002.51000
    Test set 35100051000
    Test set 47.510007.51000
    Test set 5101000101000
    Table 1. Database
    Cn2 /10-14 m-2/312.557.510
    MSE of LG0.070.150.250.380.53
    MSE of GB0.060.140.310.480.67
    Table 2. Comparison of MSE between predicted phase screen and simulated phase screen
    Cn2 /10-14 m-2/3MSE without compensationMSE with compensation for LGMSE with compensation for GB
    1246.850.348.4
    2.5527.868.164.1
    5931.398.9109.0
    7.51259.0151.9166.5
    101557.9228.9243.1
    Table 3. Comparison of MSE of intensity profiles before and after compensation
    Juan Liu, Qian Du, Fangning Liu, Ke Wang, Jiayi Yu, Dongmei Wei. Vortex Beam Phase Correction Based on Deep Phase Estimation Network[J]. Acta Optica Sinica, 2023, 43(6): 0601013
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