• Journal of Infrared and Millimeter Waves
  • Vol. 40, Issue 1, 133 (2021)
Rui-Hua ZHANG1, Bo-Xin SHI2, Jin-Fa YANG1, Hong-Ying ZHAO1、*, and Zheng-Kang ZUO1
Author Affiliations
  • 1Institute of Remote Sensing and Geographic Information System,School of Earth and Space Science,Peking University,Beijing 100871,China
  • 2National Engineering Laboratory for Video Technology,Peking University,Beijing 100871,China
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    DOI: 10.11972/j.issn.1001-9014.2021.01.018 Cite this Article
    Rui-Hua ZHANG, Bo-Xin SHI, Jin-Fa YANG, Hong-Ying ZHAO, Zheng-Kang ZUO. Polarimetric multi-view 3D reconstruction based on parallax angle and zenith angle optimization[J]. Journal of Infrared and Millimeter Waves, 2021, 40(1): 133 Copy Citation Text show less
    General object surface reflection mixed polarization phenomenon
    Fig. 1. General object surface reflection mixed polarization phenomenon
    Schematic representation of parallax angle parameterized feature points
    Fig. 2. Schematic representation of parallax angle parameterized feature points
    Polarization 3D reconstruction results of ceramic vase (a) polarization images, (b) degree of polarization, (c) zenith angle image, (d) the result of FC algorithm, (e) polarized azimuth angle image, (f) normal image, (g) the result of Shapelet algorithm
    Fig. 3. Polarization 3D reconstruction results of ceramic vase (a) polarization images, (b) degree of polarization, (c) zenith angle image, (d) the result of FC algorithm, (e) polarized azimuth angle image, (f) normal image, (g) the result of Shapelet algorithm
    Relationship between polarization degree and zenith angle (a) Pure specular emission polarization, (b) Pure diffuse emission polarization
    Fig. 4. Relationship between polarization degree and zenith angle (a) Pure specular emission polarization, (b) Pure diffuse emission polarization
    Overall technology flowmap (a) multi-view images, (b) multi-view images preprocessing, (c) normal obtained from multi-view images, (d) depth map obtained from multi-view images, (e) polarization zenith and azimuth angle, (f) corrected normal, (g) depth map by using FC algorithm, (h) depth map from fusion algorithm
    Fig. 5. Overall technology flowmap (a) multi-view images, (b) multi-view images preprocessing, (c) normal obtained from multi-view images, (d) depth map obtained from multi-view images, (e) polarization zenith and azimuth angle, (f) corrected normal, (g) depth map by using FC algorithm, (h) depth map from fusion algorithm
    Edge propagation algorithm
    Fig. 6. Edge propagation algorithm
    The problem of calculating zenith angle (a) the relationship between dop and zenith angle (theta) (the vase) , (b) the relationship between dop and zenith angle (theta) under different n value
    Fig. 7. The problem of calculating zenith angle (a) the relationship between dop and zenith angle (theta) (the vase) , (b) the relationship between dop and zenith angle (theta) under different n value
    Normal vector results
    Fig. 8. Normal vector results
    Surface reconstruction results
    Fig. 9. Surface reconstruction results
    Rui-Hua ZHANG, Bo-Xin SHI, Jin-Fa YANG, Hong-Ying ZHAO, Zheng-Kang ZUO. Polarimetric multi-view 3D reconstruction based on parallax angle and zenith angle optimization[J]. Journal of Infrared and Millimeter Waves, 2021, 40(1): 133
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