• Laser & Optoelectronics Progress
  • Vol. 58, Issue 14, 1411001 (2021)
Dezhi Su1, Shiyong Wu1, Liang Liu2、*, and Lingshun Liu1
Author Affiliations
  • 1College of Basic Sciences for Aviation, Naval Aviation University, Yantai, Shandong 264001, China
  • 2Coast Guard College, Naval Aviation University, Yantai, Shandong 264001, China
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    DOI: 10.3788/LOP202158.1411001 Cite this Article Set citation alerts
    Dezhi Su, Shiyong Wu, Liang Liu, Lingshun Liu. Ocean Wave Spectrum Modeling-Based Sea Surface Polarization Simulation[J]. Laser & Optoelectronics Progress, 2021, 58(14): 1411001 Copy Citation Text show less
    Model of sea water infrared radiation
    Fig. 1. Model of sea water infrared radiation
    24-hours curve of sea-surface temperature
    Fig. 2. 24-hours curve of sea-surface temperature
    Simulation of sea water infrared radiation
    Fig. 3. Simulation of sea water infrared radiation
    Radiance of seawater, sky and atmosphere with average degree of polarization in different time. (a) Radiance of seawater, sky and atmosphere in 24 h; (b) average degree of polarization of sea surface in 24 h
    Fig. 4. Radiance of seawater, sky and atmosphere with average degree of polarization in different time. (a) Radiance of seawater, sky and atmosphere in 24 h; (b) average degree of polarization of sea surface in 24 h
    Average and maximum degree of polarization in different time. (a) Average degree of polarization; (b) maximum degree of polarization
    Fig. 5. Average and maximum degree of polarization in different time. (a) Average degree of polarization; (b) maximum degree of polarization
    Degree of polarization versus detecting angle with different wind speeds. (a) PM; (b) Elfouhaily; (c) Jonswap
    Fig. 6. Degree of polarization versus detecting angle with different wind speeds. (a) PM; (b) Elfouhaily; (c) Jonswap
    Comparison of polarization degree of the sea surface at wind speed of 5 m/s and 10 m/s. (a) Wind speed of 5 m/s; (b) wind speed of 10 m/s
    Fig. 7. Comparison of polarization degree of the sea surface at wind speed of 5 m/s and 10 m/s. (a) Wind speed of 5 m/s; (b) wind speed of 10 m/s
    Distribution of incident angles of micro panels at the detecting angle of 60°. (a) PM; (b) Elfouhaily; (c) Jonswap
    Fig. 8. Distribution of incident angles of micro panels at the detecting angle of 60°. (a) PM; (b) Elfouhaily; (c) Jonswap
    Distribution of incident angles of micro panels at wind speed of 10 m/s and detection angle of 60°
    Fig. 9. Distribution of incident angles of micro panels at wind speed of 10 m/s and detection angle of 60°
    Degree of polarization versus wind speeds with different detecting angles. (a) PM; (b) Elfouhaily; (c) Jonswap
    Fig. 10. Degree of polarization versus wind speeds with different detecting angles. (a) PM; (b) Elfouhaily; (c) Jonswap
    Difference of degree of polarization versus detecting angle. (a) PM; (b) Elfouhaily; (c) Jonswap
    Fig. 11. Difference of degree of polarization versus detecting angle. (a) PM; (b) Elfouhaily; (c) Jonswap
    Dezhi Su, Shiyong Wu, Liang Liu, Lingshun Liu. Ocean Wave Spectrum Modeling-Based Sea Surface Polarization Simulation[J]. Laser & Optoelectronics Progress, 2021, 58(14): 1411001
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