• Laser & Optoelectronics Progress
  • Vol. 59, Issue 2, 0212001 (2022)
Jinrui Gao1, Dahai Li1、2、*, Heng Lai1, Xinwei Zhang1, Ruiyang Wang1, and Yilang Ruan1
Author Affiliations
  • 1College of Electronics and Information Engineering, Sichuan University, Chengdu , Sichuan 610065, China
  • 2College of Aeronautics and Astronautics, Sichuan University, Chengdu , Sichuan 610065, China
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    DOI: 10.3788/LOP202259.0212001 Cite this Article Set citation alerts
    Jinrui Gao, Dahai Li, Heng Lai, Xinwei Zhang, Ruiyang Wang, Yilang Ruan. Measurement of Wavefront Aberration of Lens Based on Phase Measuring Deflectometry[J]. Laser & Optoelectronics Progress, 2022, 59(2): 0212001 Copy Citation Text show less
    Optical paths of ideal imaging and actual imaging of single lens
    Fig. 1. Optical paths of ideal imaging and actual imaging of single lens
    Optical paths of ideal imaging and actual imaging of reverse ray tracing
    Fig. 2. Optical paths of ideal imaging and actual imaging of reverse ray tracing
    Schematic diagram of the prism model
    Fig. 3. Schematic diagram of the prism model
    Optical path diagram of the prism model. (a) Ray tracing; (b) reverse ray tracing
    Fig. 4. Optical path diagram of the prism model. (a) Ray tracing; (b) reverse ray tracing
    Optical path diagram of incident parallel light
    Fig. 5. Optical path diagram of incident parallel light
    Simulation results of ray tracing. (a) Apex angles of the prisms in the horizontal direction on the x-axis; (b) angular aberration of ray tracing; (c) angular aberration of reverse ray tracing; (d) δx-δRx
    Fig. 6. Simulation results of ray tracing. (a) Apex angles of the prisms in the horizontal direction on the x-axis; (b) angular aberration of ray tracing; (c) angular aberration of reverse ray tracing; (d) δx-δRx
    Wavefront aberration obtained by ray tracing. (a) Angular aberration in the horizontal direction of ray tracing; (b) angular aberration in the vertical direction of reverse ray tracing; (c) wavefront aberration of ray tracing; (d) wavefront aberration of reverse ray tracing; (e) W-WR
    Fig. 7. Wavefront aberration obtained by ray tracing. (a) Angular aberration in the horizontal direction of ray tracing; (b) angular aberration in the vertical direction of reverse ray tracing; (c) wavefront aberration of ray tracing; (d) wavefront aberration of reverse ray tracing; (e) W-WR
    Top view of the experimental setup
    Fig. 8. Top view of the experimental setup
    Fringe patterns in experiment. (a) Patterns with lens; (b) patterns without lens
    Fig. 9. Fringe patterns in experiment. (a) Patterns with lens; (b) patterns without lens
    Schematic diagram of calculating δR
    Fig. 10. Schematic diagram of calculating δR
    False-color plots of the measurement results of different methods. (a) Zernike 4 terms removed; (b) Zernike 10 terms removed; (c) Zernike 11 terms removed
    Fig. 11. False-color plots of the measurement results of different methods. (a) Zernike 4 terms removed; (b) Zernike 10 terms removed; (c) Zernike 11 terms removed
    ParameterWWRWWR
    RMS1.26711.26715.6281×10-8
    PV4.20174.20172.8507×10-7
    Table 1. Comparison of wavefront aberrations
    ParameterAfter 4 terms removedAfter 10 terms removedAfter 11 terms removed
    RMSPVRMSPVRMSPV
    Experiment0.9793.8240.9703.3770.0190.167
    Interferometer0.9123.5310.9093.4140.0420.418
    Table 2. RMS and PV of measurement results of different methods
    Jinrui Gao, Dahai Li, Heng Lai, Xinwei Zhang, Ruiyang Wang, Yilang Ruan. Measurement of Wavefront Aberration of Lens Based on Phase Measuring Deflectometry[J]. Laser & Optoelectronics Progress, 2022, 59(2): 0212001
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