• Acta Optica Sinica
  • Vol. 39, Issue 10, 1006001 (2019)
Shuaijun Duan1, Guihua Fan2、*, Laixian Zhang2, and Ruifeng Liu1
Author Affiliations
  • 1Department of Graduate, Space Engineering University, Beijing 101416, China
  • 2Department of Electronic and Optics Engineering, Space Engineering University, Beijing 101416, China
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    DOI: 10.3788/AOS201939.1006001 Cite this Article Set citation alerts
    Shuaijun Duan, Guihua Fan, Laixian Zhang, Ruifeng Liu. Laser-Echo-Power Distribution Model of Large-Field Cat-Eye Lens and Characteristics Analysis[J]. Acta Optica Sinica, 2019, 39(10): 1006001 Copy Citation Text show less
    Transmission process of tilting Gaussian beam passing through cat-eye optical lens
    Fig. 1. Transmission process of tilting Gaussian beam passing through cat-eye optical lens
    Transmission process of equivalent normal incident beam passing through line misalignment cat-eye optical lens
    Fig. 2. Transmission process of equivalent normal incident beam passing through line misalignment cat-eye optical lens
    Echo spots and intensity distributions with different incident angles. (a)-(d) Echo spots when θ=0°,10°,20°,30°; (e)-(h) intensity distributions when θ=0°,10°,20°,30°
    Fig. 3. Echo spots and intensity distributions with different incident angles. (a)-(d) Echo spots when θ=0°,10°,20°,30°; (e)-(h) intensity distributions when θ=0°,10°,20°,30°
    Echo spots with different focal lengths when incident angle is 20° and diameter is 50 mm. (a) f=20 mm; (b) f=30 mm; (c) f=40 mm; (d) f=50 mm
    Fig. 4. Echo spots with different focal lengths when incident angle is 20° and diameter is 50 mm. (a) f=20 mm; (b) f=30 mm; (c) f=40 mm; (d) f=50 mm
    Echo spots with different diameters when incident angle is 20° and focal length is 50 mm. (a) D=50 mm; (b) D=60 mm; (c) D=70 mm; (d) D=80 mm
    Fig. 5. Echo spots with different diameters when incident angle is 20° and focal length is 50 mm. (a) D=50 mm; (b) D=60 mm; (c) D=70 mm; (d) D=80 mm
    Echo spots with different defocusing amounts at normal incidence. (a) δ=-0.02 mm; (b) δ=-0.01 mm; (c) δ=0 mm; (d) δ=0.01 mm; (e) δ=0.02 mm
    Fig. 6. Echo spots with different defocusing amounts at normal incidence. (a) δ=-0.02 mm; (b) δ=-0.01 mm; (c) δ=0 mm; (d) δ=0.01 mm; (e) δ=0.02 mm
    Echo spots with different defocusing amounts at incident angle of 20°. (a) δ=-0.02 mm; (b) δ=-0.01 mm; (c) δ=0 mm; (d) δ=0.01 mm; (e) δ=0.02 mm
    Fig. 7. Echo spots with different defocusing amounts at incident angle of 20°. (a) δ=-0.02 mm; (b) δ=-0.01 mm; (c) δ=0 mm; (d) δ=0.01 mm; (e) δ=0.02 mm
    Relationship between offset and incident angle under different defocusing amounts
    Fig. 8. Relationship between offset and incident angle under different defocusing amounts
    Relationship between offset and defocusing amount at different incident angles
    Fig. 9. Relationship between offset and defocusing amount at different incident angles
    Diagram of experimental setup
    Fig. 10. Diagram of experimental setup
    Experimental spots with different defocusing amounts at normal incidence. (a) δ=-1 mm; (b) δ=-0.5 mm; (c) δ=0 mm; (d) δ=0.5 mm; (e) δ=1 mm
    Fig. 11. Experimental spots with different defocusing amounts at normal incidence. (a) δ=-1 mm; (b) δ=-0.5 mm; (c) δ=0 mm; (d) δ=0.5 mm; (e) δ=1 mm
    Simulated spots with different defocusing amounts at normal incidence. (a) δ=-1 mm; (b) δ=-0.5 mm; (c) δ=0 mm; (d) δ=0.5 mm; (e) δ=1 mm
    Fig. 12. Simulated spots with different defocusing amounts at normal incidence. (a) δ=-1 mm; (b) δ=-0.5 mm; (c) δ=0 mm; (d) δ=0.5 mm; (e) δ=1 mm
    Experimental spots under different incident angles. (a) θ=0°; (b) θ=2°; (c) θ=4°; (d) θ=6°; (e) θ=8°
    Fig. 13. Experimental spots under different incident angles. (a) θ=0°; (b) θ=2°; (c) θ=4°; (d) θ=6°; (e) θ=8°
    Simulated spots under different incident angles. (a) θ=0°; (b) θ=2°; (c) θ=4°; (d) θ=6°; (e) θ=8°
    Fig. 14. Simulated spots under different incident angles. (a) θ=0°; (b) θ=2°; (c) θ=4°; (d) θ=6°; (e) θ=8°
    Offset of echo at different incident angles
    Fig. 15. Offset of echo at different incident angles
    Shuaijun Duan, Guihua Fan, Laixian Zhang, Ruifeng Liu. Laser-Echo-Power Distribution Model of Large-Field Cat-Eye Lens and Characteristics Analysis[J]. Acta Optica Sinica, 2019, 39(10): 1006001
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