Yan LI, Wei-jie ZHANG, Jia-Yu CHEN. Modeling and simulation for target detection in polarization scene[J]. Optics and precision engineering, 2017, 25(8): 2233-2243.
DOI:
Yan LI, Wei-jie ZHANG, Jia-Yu CHEN. Modeling and simulation for target detection in polarization scene[J]. Optics and precision engineering, 2017, 25(8): 2233-2243. DOI: 10.3788/OPE.20172508.2233.
Modeling and simulation for target detection in polarization scene
There is complex mutual interference among targets
background reflection and aerosol radiation under a real environment when optical remote sensing technology is used to detect targets in complex scene. This paper explores the technology of modeling and simulation for targets in a polarization scene. The optical theories and polarization model basis were introduced
and numerical simulation and analysis for Priest-Germer model were implemented. The simulation software for the detection of targets in the polarization scene was developed and the design idea and frame of the software were given. Then
the model for Polarization Bidirectional Reflectance Distribution Function was introduced
and its Stokes expression was given and analyzed in numerical simulation. Four groups of polarization simulation experiments and gray level histograms of polarization images under wavelength irradiation conditions of 440 nm and 600 nm for two different surface materials were given respectively for two given target models
and a comparative experiment was analyzed. The experiment results indicate that polarization simulation software based on Priest-Germer model is sensitive to different targets
irradiation wavelengths and materials
and provides better resolution and identification ability.
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