• Acta Optica Sinica
  • Vol. 39, Issue 2, 0212008 (2019)
Fucai Zhang1、2、*, Bojun Sun1, and Xiaogang Sun1、*
Author Affiliations
  • 1 School of Electrical Engineering and Automation, Harbin Institute of Technology, Harbin, Heilongjiang 150001, China
  • 2 Institute of Electrical and Control Engineering, Heilongjiang University of Science and Technology, Harbin, Heilongjiang 150022, China
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    DOI: 10.3788/AOS201939.0212008 Cite this Article Set citation alerts
    Fucai Zhang, Bojun Sun, Xiaogang Sun. Multispectral True Temperature Inversion Based on Multi-Objective Minimization Optimization Method[J]. Acta Optica Sinica, 2019, 39(2): 0212008 Copy Citation Text show less
    Variation of spectral emissivity with wavelength. (a) Model A; (b) model B; (c) model C; (d) model D; (e) model E
    Fig. 1. Variation of spectral emissivity with wavelength. (a) Model A; (b) model B; (c) model C; (d) model D; (e) model E
    Location of three measurement targets
    Fig. 2. Location of three measurement targets
    True temperature curves of three targets
    Fig. 3. True temperature curves of three targets
    Curves between spectral emissivity and wavelength
    Fig. 4. Curves between spectral emissivity and wavelength
    No.Range of emissivityTrue temperature /KBrightness temperature (0.4 μm) /KBrightness temperature (0.5 μm) /KBrightness temperature (0.6 μm) /K
    A0.45-0.951800.01785.51768.21747.5
    2000.01982.11962.61935.4
    B0.50-0.901800.01739.71735.11733.5
    2000.01925.81920.21918.3
    C0.70-0.901800.01786.51777.91763.7
    2000.01983.41972.81955.2
    D0.65-0.851800.01768.41763.81760.2
    2000.01961.11955.41953.1
    E0.65-0.751800.01765.91763.81762.0
    2000.01958.01955.41953.1
    No.Range of emissivityBrightness temperature (0.7 μm) /KBrightness temperature(0.8 μm) /KBrightness temperature(0.9 μm) /KBrightness temperature(1.0 μm) /KBrightness temperature(1.1 μm) /K
    A0.45-0.951722.91698.41669.71648.61621.8
    1908.21878.91840.41814.81782.4
    B0.50-0.901734.61738.01743.51751.11760.6
    1919.51923.71930.51939.81951.5
    C0.70-0.901747.61738.01746.01751.11760.6
    1935.51923.71933.61939.81951.5
    D0.65-0.851757.81756.31746.01734.71722.1
    1952.81962.01933.61919.71900.5
    E0.65-0.751749.71738.01738.41734.71722.1
    1938.11923.71924.21919.71904.3
    Table 1. Simulation data of measured target
    Model No.Range of emissivityTrue temperature /KTemperature by SMM method /KAccuracy in SMM method /%Time in SMM method /sTemperature by MMO method /KAccuracy in MMO method /%Time in MMO method /sEnhancement ratio of MMO method /%
    A0.45-0.951800.01793.3-0.3785.34541800.00.001.789197.90
    2000.01998.8-0.0680.66922000.00.001.972397.56
    B0.50-0.901800.01791.5-0.3175.89901785.9-0.781.873297.53
    2000.01988.7-0.5778.35411982.7-0.871.879397.60
    C0.70-0.901800.01798.7-0.0770.64041799.8-0.011.900497.31
    2000.01996.2-0.1980.63062000.00.001.786197.78
    D0.65-0.851800.01802.20.1271.02591806.70.371.880497.35
    2000.02009.20.4681.30682008.30.421.876197.69
    E0.65-0.751800.01802.30.1273.97361804.10.231.658297.76
    2000.02005.30.2788.02542005.00.251.843297.91
    Table 2. Result comparison of two iterative methods
    Fucai Zhang, Bojun Sun, Xiaogang Sun. Multispectral True Temperature Inversion Based on Multi-Objective Minimization Optimization Method[J]. Acta Optica Sinica, 2019, 39(2): 0212008
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