The Relationship Between Radar Polarimetry and Radar Interferometry
This paper examines the relationship between the phase measured by a radar polarimeter and a radar interferometer.
Engineering topics
Publications and source records attributed to Kim, Y..
This paper examines the relationship between the phase measured by a radar polarimeter and a radar interferometer.
Radar remote sensing instruments acquire data useful for geophysical investigations by measuring electromagnetic interactions with natural objects.
SAR interferometry has enabled two important science applications: surface change detection and topographic mapping.
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The NASA/JPL AIRSAR system was upgraded to collect polarimetric interferometric data from the June 98 deployment.
Unlike scalar interferometry, polarimetric interferometry provides the field cross correlation using various polarization responses.
This article describes past and current achievements in the development of space-borne imaging radar technology and discusses possibilities for the future. The article focuses on space-borne capabilities for civil and scientific purposes.
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This paper describes the first fixed-baseline polarmetric interferometry, achieved with Jet Propulsion Laboratory's (JPL) TOPSAR radar with co- and cross-polarized signals.
The use of an atmospheric boundary layer (ABL) model is investigated to improve wind retrieval algorithms for NASA scatterometer projects.
In this paper, we present ionospheric effects on polarimetric and interferometric SAR images, especially at low frequencies.
During the past ten years, the NASA/JPL AIRSAR system has produced polarimetric and interferometric SAR data. SAR polarimetry is useful for characterizing scattering mechanisms while SAR interferometry yields high resolution topographic maps.
The NASA/JPL AIRSAR Integrated Processor (AIP) is a multi-frequency polarimetric and interferometric SAR processor designed for better understanding of scattering from different types of Earth terrain.
Inflatable structures have been identified as one of the enabling technologies to achieve low mass, high packaging efficiency, and reliable deployment for future NASA spaceborne synthetic aperture radar (SAR) array antennas.