Paper
26 October 2011 Illumination and shadow compensation of hyperspectral images using a digital surface model and non-linear least squares estimation
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Abstract
Object detection and material classification are two central tasks in electro-optical remote sensing and hyperspectral imaging applications. These are challenging problems as the measured spectra in hyperspectral images from satellite or airborne platforms vary significantly depending on the light conditions at the imaged surface, e.g., shadow versus non-shadow. In this work, a Digital Surface Model (DSM) is used to estimate different components of the incident light. These light components are subsequently used to predict what a measured spectrum would look like under different light conditions. The derived method is evaluated using an urban hyperspectral data set with 24 bands in the wavelength range 381.9 nm to 1040.4 nm and a DSM created from LIDAR 3D data acquired simultaneously with the hyperspectral data.
© (2011) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
Ola Friman, Gustav Tolt, and Jörgen Ahlberg "Illumination and shadow compensation of hyperspectral images using a digital surface model and non-linear least squares estimation", Proc. SPIE 8180, Image and Signal Processing for Remote Sensing XVII, 81800Q (26 October 2011); https://doi.org/10.1117/12.898084
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Cited by 18 scholarly publications.
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KEYWORDS
Hyperspectral imaging

Electro optical modeling

Sensors

Data acquisition

Atmospheric modeling

Image segmentation

Remote sensing

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