Journal of Applied Optics, Volume. 43, Issue 4, 565(2022)

Progress and prospects in national defense optical metrology technology

Bing YU
Author Affiliations
  • [in Chinese]
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    Figures & Tables(21)
    Physical photo of calibration device of contrast distortion for visible light resolution transfer function
    Physical photo of calibration device for visible light image plane uniformity
    Field experiment of infrared radiation of engine
    Physical photo of calibration device of terahertz source radiation parameters
    Physical photo of calibration device of linearity and wavelength of terahertz time-domain spectrometer
    Schematic diagram of transmittance-reflection ratio measuring device of micro-nano structure space
    Overall design diagram of tracking accuracy calibration device
    Physical photo of calibration device of missile system multi-spectral stealth
    Physical photo of calibration device of imaging seeker photoelectric detection equipment
    Physical photo of calibration device of multi-axial photoelectric system
    Support technology system of military test instruments
    Measuring principle of laser polarization measuring instrument and its 3D model
    Physical photo of infrared materials emissivity measuring instrument
    Center deviation measuring instrument for dual-band optical elements
    Three-dimensional design diagram of TV imaging performance parameter measuring instrument
    Schematic diagram of infrared scanning radiometer composition
    Structure diagram of picowatt laser power and energy meter prototype
    Three-dimensional model of ultrashort laser pulse width tester
    Working principle diagram of UV visible light high-resolution image correction spectrometer
    • Table 1. Highest metrological standard indexes of national defense for laser parameter metrology major

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      Table 1. Highest metrological standard indexes of national defense for laser parameter metrology major

      标准名称主要指标
      激光小功率标准装置0.1 mW~100 mW;Urel=1.5%(k = 2)
      激光小能量标准装置1×10−3 J~1 J;Urel=1.7%(k = 2)
      激光能量标准装置0.1 J~30 J;Urel=2.5%(k = 2)
      激光中功率标准装置1 W~100 W;Urel=2%(k = 2)
      单脉冲激光峰值功率标准装置峰值功率:1 W~50 MW;脉冲宽度:10 ns~100 ns检定波长:1.06 μm, 10.6 μm;Urel=5%(1.06 μm),Urel=6%(10.6 μm)
      重复脉冲激光峰值功率标准装置峰值功率:0.1 μW~1 W;脉冲宽度:10 ns~100 ns激光波长:0.91 μm,1.06 μm;Urel=5%
    • Table 2. Highest metrological standard indexes of national defense for spectral photometric chromaticity metrology major

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      Table 2. Highest metrological standard indexes of national defense for spectral photometric chromaticity metrology major

      标准名称主要指标
      光谱透射比标准波长:200 nm~2 500 nm;透射比:0.01~1.00测量不确定度:波长U=0.10 nm~0.30 nm(k=2)透射比:Urel=0.5%(k=2)(可见)Urel=1.0%(k=2)(紫外、近红外)
      光谱漫反射比标准波长:250 nm~2 000 nm;反射比:0.01~1.00测量不确定度:Urel=1.6%(k=2)
      弱光度标准测量范围:1×10−1 lx~1.2×10−7 lx测量不确定度:Urel=2.5%(k=2),10−1 lx~10−3 lxUrel=3.5%(k=2),<10−3 lx~10−7 lx
      光亮度标准测量范围:2 cd/m2~1 000 cd/m2Urel=1.4%(k=2)
      发光强度标准测量范围:1 cd~1 200 cd;Urel=1.0%(k=2)
      光照度标准测量范围:6 lx~3×103 lx;Urel=1.0%(k=2)
      总光通量标准总光通量范围:10 lm~4 000 lm;Urel=1.2%(k=2)
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    Bing YU. Progress and prospects in national defense optical metrology technology[J]. Journal of Applied Optics, 2022, 43(4): 565

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    Paper Information

    Category: REVIEWS

    Received: May. 30, 2022

    Accepted: --

    Published Online: Aug. 10, 2022

    The Author Email:

    DOI:10.5768/JAO202243.0409002

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