• Optics and Precision Engineering
  • Vol. 30, Issue 21, 2737 (2022)
Zhengxiang SHEN, Jun YU, Xiaoqiang WANG, and Zhanshan WANG*
Author Affiliations
  • Institute of Precision Optical Engineering, MOE Key Laboratory of Advanced Micro-Structured Materials, Shanghai Frontiers Science Center of Digital Optics, Shanghai Professional Technical Service Platform for Full-Spectrum and High-Performance Optical Thin Film Devices and Applications, School of Physics Science and Engineering, Tongji University, Shanghai200092, China
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    DOI: 10.37188/OPE.20223021.2737 Cite this Article
    Zhengxiang SHEN, Jun YU, Xiaoqiang WANG, Zhanshan WANG. Development and application of precision optical system for laser detection[J]. Optics and Precision Engineering, 2022, 30(21): 2737 Copy Citation Text show less
    Development process of precision optical mechanical system
    Fig. 1. Development process of precision optical mechanical system
    Coupling design and analysis method of "optical design-structural design-thermomechanical design" for precision optical mechanical system
    Fig. 2. Coupling design and analysis method of "optical design-structural design-thermomechanical design" for precision optical mechanical system
    Assembly and integration method for precision opto mechanical system
    Fig. 3. Assembly and integration method for precision opto mechanical system
    Optical design block diagram of VISAR and SOP joint diagnostic system at the XG-III facility
    Fig. 4. Optical design block diagram of VISAR and SOP joint diagnostic system at the XG-III facility
    Optical design of VISAR and SOP active passive joint diagnostic system at the XG-III facility
    Fig. 5. Optical design of VISAR and SOP active passive joint diagnostic system at the XG-III facility
    Optical transfer functions of three branches of VISAR & SOP joint diagnosis system
    Fig. 6. Optical transfer functions of three branches of VISAR & SOP joint diagnosis system
    Optical path coupling adjustment based on bidirectional two-color coaxial laser
    Fig. 7. Optical path coupling adjustment based on bidirectional two-color coaxial laser
    Spatial resolution of the imaging system is tested by the discrimination plate(the spatial resolution is better than 5 μm)
    Fig. 8. Spatial resolution of the imaging system is tested by the discrimination plate(the spatial resolution is better than 5 μm)
    On site photo of VISAR and SOP active passive joint diagnostic system at the “XG-III” facility
    Fig. 9. On site photo of VISAR and SOP active passive joint diagnostic system at the “XG-III” facility
    Gold sample heated by laser accelerated proton beam with scanning time window of 5 ns
    Fig. 10. Gold sample heated by laser accelerated proton beam with scanning time window of 5 ns
    Gold sample heated by laser accelerated proton beam with scanning time window of 1 ns
    Fig. 11. Gold sample heated by laser accelerated proton beam with scanning time window of 1 ns
    Optical path of radiation high temperature measurement optical system
    Fig. 12. Optical path of radiation high temperature measurement optical system
    Mechanical structure of radiation high temperature measurement optical system
    Fig. 13. Mechanical structure of radiation high temperature measurement optical system
    Modeling and mechanical performance simulation analysis of cantilever connected tube structure
    Fig. 14. Modeling and mechanical performance simulation analysis of cantilever connected tube structure
    Object resolution of high temperature radiation optical measurement system
    Fig. 15. Object resolution of high temperature radiation optical measurement system
    Optical path layout of divergent light LRCS measurement system
    Fig. 16. Optical path layout of divergent light LRCS measurement system
    Optical path layout of dual function parallel light LRCS measurement system
    Fig. 17. Optical path layout of dual function parallel light LRCS measurement system
    LRCS measurement system for measuring scattering characteristics of sea environment
    Fig. 18. LRCS measurement system for measuring scattering characteristics of sea environment
    LRCS measurement curve of standard diffuse reflector with reflectivity of 0.99, the test curve is consistent with the theoretical calculation results
    Fig. 19. LRCS measurement curve of standard diffuse reflector with reflectivity of 0.99, the test curve is consistent with the theoretical calculation results
    Artificial wave making pool in laboratory
    Fig. 20. Artificial wave making pool in laboratory
    Schematic diagram of simulated sea environment measurement
    Fig. 21. Schematic diagram of simulated sea environment measurement
    Laser scattering echo intensity of regular sea surface under different sea conditions and different dip angles
    Fig. 22. Laser scattering echo intensity of regular sea surface under different sea conditions and different dip angles
    Laser scattering echo intensity of irregular sea surface under different sea conditions and different dip angles
    Fig. 23. Laser scattering echo intensity of irregular sea surface under different sea conditions and different dip angles
    Comparison of simulation and test data of sea surface laser scattering characteristics at different angles of friction
    Fig. 24. Comparison of simulation and test data of sea surface laser scattering characteristics at different angles of friction
    Zhengxiang SHEN, Jun YU, Xiaoqiang WANG, Zhanshan WANG. Development and application of precision optical system for laser detection[J]. Optics and Precision Engineering, 2022, 30(21): 2737
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