• Acta Optica Sinica
  • Vol. 41, Issue 2, 0222002 (2021)
Yu Guo1, Chunzhu Zhao2、**, Mingxu Piao1、*, Hanqing Zheng1, Shanshan Gu1, and Yuan Ju1
Author Affiliations
  • 1School of Opto-Electronic Engineering, Changchun University of Science and Technology, Changchun, Jilin 130022, China
  • 2Institute of Molecular Medicine, Peking University, Beijing 100871, China
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    DOI: 10.3788/AOS202141.0222002 Cite this Article Set citation alerts
    Yu Guo, Chunzhu Zhao, Mingxu Piao, Hanqing Zheng, Shanshan Gu, Yuan Ju. Aberration Correction of Onboard Conformal Window Based on Fixed Corrector and Lens Array[J]. Acta Optica Sinica, 2021, 41(2): 0222002 Copy Citation Text show less
    Principle diagram of aberration correction for conformal window based on fixed correction plate and lens array
    Fig. 1. Principle diagram of aberration correction for conformal window based on fixed correction plate and lens array
    Optical path structure of adjacent imaging channels
    Fig. 2. Optical path structure of adjacent imaging channels
    Initial structure of conformal optical system. (a) In Y-Z plane, LA is 0°; (b) in X-Z plane, LA is 0°, 21° and 42°
    Fig. 3. Initial structure of conformal optical system. (a) In Y-Z plane, LA is 0°; (b) in X-Z plane, LA is 0°, 21° and 42°
    Relationship between Zernike coefficient and LA. (a) Zernike coefficient of Z1--Z9; (b) Zernike coefficient of Z10--Z18
    Fig. 4. Relationship between Zernike coefficient and LA. (a) Zernike coefficient of Z1--Z9; (b) Zernike coefficient of Z10--Z18
    Full field of view display with different LA. (a) 0°; (b) 21°; (c) 42°
    Fig. 5. Full field of view display with different LA. (a) 0°; (b) 21°; (c) 42°
    Conformal optical system structure after adding fixed calibration plate. (a) In Y-Z plane, LA is 0°; (b) in X-Z plane, LA is 0°, 21° and 42°
    Fig. 6. Conformal optical system structure after adding fixed calibration plate. (a) In Y-Z plane, LA is 0°; (b) in X-Z plane, LA is 0°, 21° and 42°
    Relationship between Zernike coefficient and LA after adding fixed calibration plate. (a) Zernike coefficient of Z1--Z9; (b) Zernike coefficient of Z10--Z18
    Fig. 7. Relationship between Zernike coefficient and LA after adding fixed calibration plate. (a) Zernike coefficient of Z1--Z9; (b) Zernike coefficient of Z10--Z18
    Conformal optical system structure after adding lens array. (a) In Y-Z plane, LA is 0°; (b) in X-Z plane, LA is 0°, 21° and 42°; (c) in X-Z plane, LA is 0°--42°; (d) 3D structure of LA is 0°--42°
    Fig. 8. Conformal optical system structure after adding lens array. (a) In Y-Z plane, LA is 0°; (b) in X-Z plane, LA is 0°, 21° and 42°; (c) in X-Z plane, LA is 0°--42°; (d) 3D structure of LA is 0°--42°
    RX and RY of each lens unit after optimization
    Fig. 9. RX and RY of each lens unit after optimization
    Relationship between Zernike coefficient and LA after adding lens array. (a) Zernike coefficient of Z1--Z9; (b) Zernike coefficient of Z10--Z18
    Fig. 10. Relationship between Zernike coefficient and LA after adding lens array. (a) Zernike coefficient of Z1--Z9; (b) Zernike coefficient of Z10--Z18
    Full field of view display of residual astigmatism in different LA after adding lens array. (a) 0°; (b) 21°; (c) 42°
    Fig. 11. Full field of view display of residual astigmatism in different LA after adding lens array. (a) 0°; (b) 21°; (c) 42°
    Relationship between Zernike coefficient and LA after rotating lens unit. (a) Zernike coefficient of Z1--Z9; (b) Zernike coefficient of Z10--Z18
    Fig. 12. Relationship between Zernike coefficient and LA after rotating lens unit. (a) Zernike coefficient of Z1--Z9; (b) Zernike coefficient of Z10--Z18
    Full field of view display of residual astigmatism in different LA after rotating lens array . (a) 0°; (b) 21°; (c) 42°
    Fig. 13. Full field of view display of residual astigmatism in different LA after rotating lens array . (a) 0°; (b) 21°; (c) 42°
    RX and RY of each lens unit after rotation optimization
    Fig. 14. RX and RY of each lens unit after rotation optimization
    Rotation angle of each lens unit around Z axis
    Fig. 15. Rotation angle of each lens unit around Z axis
    Conformal optical system structure based on fixed correction plate and lens array. (a) LA is 0°; (b) LA is -42°
    Fig. 16. Conformal optical system structure based on fixed correction plate and lens array. (a) LA is 0°; (b) LA is -42°
    Yu Guo, Chunzhu Zhao, Mingxu Piao, Hanqing Zheng, Shanshan Gu, Yuan Ju. Aberration Correction of Onboard Conformal Window Based on Fixed Corrector and Lens Array[J]. Acta Optica Sinica, 2021, 41(2): 0222002
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