Application of the PReMA algorithm to remove the polarization-albedo bias from remote sensing imagery

We applied the recently developed PReMA (Polarization Relative to the Maximum Attainable) algorithm<sup>1, 2</sup> to test its ability to remove the polarization-albedo bias from remote polarimetric imagery. Our results show that, even though PReMA was derived for 45&deg; specular geometry, it is effective at non-specular geometries as well. Application of the PReMA transform to image data removed the polarization-albedo bias exhibited by the standard DoLP (Degree of Linear Polarization polarization) metric, and it also added a significant boost to the polarimetric signature of all targets, especially the brighter ones. The PReMA algorithm should thus improve the detectability of polarized targets in remote sensing data. We demonstrate that application of the PReMA transform results in pixel values that are proportional to surface roughness, allowing analysts to perform improved surface characterization on remote polarimetric data.

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Published
2025-09-17
DOI
https://doi.org/10.1117/12.3063669
Primary Topic
Remote-Sensing Image Classification
Type
article
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article

Application of the PReMA algorithm to remove the polarization-albedo bias from remote sensing imagery

Kyle Gorkowski, Bradley G. Henderson
Remote-Sensing Image Classification
article

Application of the PReMA algorithm to remove the polarization-albedo bias from remote sensing imagery

Kyle Gorkowski, Bradley G. Henderson
article en

Abstract

We applied the recently developed PReMA (Polarization Relative to the Maximum Attainable) algorithm<sup>1, 2</sup> to test its ability to remove the polarization-albedo bias from remote polarimetric imagery. Our results show that, even though PReMA was derived for 45&deg; specular geometry, it is effective at non-specular geometries as well. Application of the PReMA transform to image data removed the polarization-albedo bias exhibited by the standard DoLP (Degree of Linear Polarization polarization) metric, and it also added a significant boost to the polarimetric signature of all targets, especially the brighter ones. The PReMA algorithm should thus improve the detectability of polarized targets in remote sensing data. We demonstrate that application of the PReMA transform results in pixel values that are proportional to surface roughness, allowing analysts to perform improved surface characterization on remote polarimetric data.

Los Alamos National Laboratory (US)
Openalex Percentile: Top 63%
Remote-Sensing Image Classification
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Application of the PReMA algorithm to remove the polarization-albedo bias from remote sensing imagery — Kyle Gorkowski, Bradley G. Henderson · (2025) | TGRS Research Map | TGRS