DocumentCode
1282869
Title
Material Classification of an Unknown Object Using Turbulence-Degraded Polarimetric Imagery
Author
Hyde, Milo W. ; Cain, Stephen C. ; Schmidt, Jason D. ; Havrilla, Michael J.
Author_Institution
Dept. of Electr. & Comput. Eng., Air Force Inst. of Technol., Wright-Patterson AFB, OH, USA
Volume
49
Issue
1
fYear
2011
Firstpage
264
Lastpage
276
Abstract
In this paper, a material-classification technique using polarimetric imagery degraded by atmospheric turbulence is presented. The classification technique described here determines whether an object is composed of dielectric or metallic materials. The technique implements a modified version of the LeMaster and Cain polarimetric maximum-likelihood blind-deconvolution algorithm in order to remove atmospheric distortion and correctly classify the unknown object. The dielectric/metal classification decision is based on degree-of-linear-polarization (DOLP) maximum-likelihood estimates provided by two novel DOLP priors (one being representative of dielectric materials and the other being representative of metallic materials) developed in this paper. The DOLP estimate, which maximizes the log-likelihood function, determines the image pixel´s classification. Included in this paper is the review and modification of the LeMaster and Cain deconvolution algorithm. Also provided is the development of the novel DOLP priors, including their mathematical forms and the physical insight underlying their formulation. Lastly, the experimental results of two dielectric and metallic samples are provided to validate the proposed classification technique.
Keywords
atmospheric turbulence; dielectric materials; image classification; materials science computing; maximum likelihood estimation; polarimetry; DOLP maximum-likelihood estimates; atmospheric distortion; atmospheric turbulence; degree-of-linear-polarization; dielectric materials; image pixel classification; material classification; material-classification technique; metallic materials; polarimetric maximum-likelihood blind-deconvolution; turbulence-degraded polarimetric imagery; unknown object; Atmospheric measurements; Classification algorithms; Degradation; Dielectric materials; Dielectrics; Geometry; Inorganic materials; Light scattering; Materials; Maximum likelihood estimation; Metals; Optical polarization; Optical scattering; Pixel; Polarimetry; Rough surfaces; Surface roughness; Deconvolution; dielectric materials; imaging; metals; optical scattering; polarimetry; random media;
fLanguage
English
Journal_Title
Geoscience and Remote Sensing, IEEE Transactions on
Publisher
ieee
ISSN
0196-2892
Type
jour
DOI
10.1109/TGRS.2010.2053547
Filename
5535083
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