Acta Photonica Sinica, Volume. 51, Issue 8, 0851505(2022)

Polarimetric Optical Imaging:Devices,Technologies and Applications(Invited)

Liyong REN1...2,3,*, Jian LIANG1,2,3, Enshi QU2, Wenfei ZHANG2,4, Bojun DU5, Feiya MA1,3, Shaoben GUO1,3, and Jin ZHANG13 |Show fewer author(s)
Author Affiliations
  • 1School of Physics and Information Technology,Shaanxi Normal University,Xi'an 710119,China
  • 2Xi'an Institute of Optics and Precision Mechanics,Chinese Academy of Sciences,Xi'an 710119,China
  • 3Xi'an Key Laboratory of Optical Information Manipulation and Augmentation(OMA),Xi'an 710119,China
  • 4School of Physics and Optoelectronics Engineering,Shandong University of Technology,Zibo,Shandong 255000,China
  • 5Unit 63861 of PLA,Baicheng,Jilin 137001,China
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    Figures & Tables(42)
    Division-of-aperture chromatic polarimetric camera with full-polarization-state simultaneous detection[12]
    Optical-path simulation diagram of optical system of polarimetric camera[50]
    Schematic diagram of three-dimensional structure of light separation and transmission system
    Developed division-of-aperture polarimetric lens with full-polarization-state simultaneous detection
    A frame of raw image from division-of-aperture polarimetric camera
    Registered results of polarized images
    DoP image and AoP image calculated from polarized images before and after registration
    Structure diagram of polarization-color filter
    Schematic of optical path of division-of-aperture simultaneous polarimetric optical imaging based on color-polarizer filter
    Comparison of spatial resolution[14]
    Multiangle linear polarizer
    Comparison between DoP images
    Comparison between AoP images
    Schematic of physical degradation model in scattering environment[75]
    Polarimetric dehazing imaging result without sky area[30]
    Polarimetric dehazed images in continuously changing sea fog environment
    Variation of entropy value in dehazed image with ε[32]
    Workflow chart of dehazing/descattering algorithm for fast polarimetric imaging in HSI color space[33]
    Polarimetric dehazed images based on HSI color space[33]
    A frame with different polarizations of the same scene taken by a polarimetric imaging system[12]
    Polarimetric dehazed image[12]
    Workflow chart of polarimetric dehazing/descattering algorithm based on low-pass filter denoising[35]
    Polarimetric dehazing results[35]
    Architecture of real-time polarimetric dehazing/descattering system
    Software interface of real-time polarimetric dehazing/descattering imaging
    A key frame of underwater descattering imaging scenes in video stream
    A key frame of outdoor descattering scenes in video stream
    Original low-resolution and reconstructed high-resolution SWIR polarized images of one-yuan coin[54]
    Polarization information images of one-yuan coin[54]
    High-resolution convolutional neural network architecture[97]
    Reconstruction results of NIR image[97]
    Polarization information images of the target[97]
    Experimental results of SWIR imaging of a plane model[97]
    High-resolution reconstruction of SWIR polarimetric images[97]
    Physical model schematic of polarization 3D reconstruction imaging
    Variations of DoP of diffuse reflection light with incident angle θ for materials with different refractive index
    Reconstructed 3D polarimetric imaging result of paper cup
    Intensity images for cylinder with different surface materials
    3D reconstruction results for cylinder with different surface materials
    • Table 1. SSIM of every two polarized images of scene shown in Fig. 5 and Fig. 6

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      Table 1. SSIM of every two polarized images of scene shown in Fig. 5 and Fig. 6

      SSIM_0_45SSIM_0_90SSIM_0_CSSIM_45_90SSIM_45_CSSIM_90_C
      Before registration0.486 50.447 00.492 80.479 10.621 00.459 0
      Registered0.842 60.801 50.845 90.881 10.901 20.865 0
    • Table 2. NMI of every two polarized images of scene shown in Fig. 5 and Fig. 6

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      Table 2. NMI of every two polarized images of scene shown in Fig. 5 and Fig. 6

      NMI_0_45NMI_0_90NMI_0_CNMI_45_90NMI_45_CNMI_90_C
      Before registration1.070 11.078 81.068 21.085 81.107 81.086 3
      Registered1.141 71.186 91.200 61.188 81.173 91.218 1
    • Table 3. Calculation schedule for different dehazing/descattering methods33

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      Table 3. Calculation schedule for different dehazing/descattering methods33

      Image No.Image size(h×wTarel77His. Equ.78Polarimetric optical dehazing in RGB space 30Polarimetric optical dehazing in HSI space 33
      1727×1 15035.48 s1.24 s86.27 s30.99 s
      2950×1 30068.85 s1.27 s140.31 s52.91 s
      3970×1 30069.71 s1.36 s142.53 s52.96 s
      4690×1 18038.98 s1.11 s88.12 s31.27 s
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    Liyong REN, Jian LIANG, Enshi QU, Wenfei ZHANG, Bojun DU, Feiya MA, Shaoben GUO, Jin ZHANG. Polarimetric Optical Imaging:Devices,Technologies and Applications(Invited)[J]. Acta Photonica Sinica, 2022, 51(8): 0851505

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    Paper Information

    Category:

    Received: Jun. 25, 2022

    Accepted: Aug. 4, 2022

    Published Online: Oct. 25, 2022

    The Author Email: REN Liyong (renliy@snnu.edu.cn)

    DOI:10.3788/gzxb20225108.0851505

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