
doi: 10.1109/36.536528
Presents a generalized formulation of the extended chirp scaling (ECS) approach for high precision processing of air- and spaceborne SAR data. Based on the original chirp scaling function, the ECS algorithm incorporates a new azimuth scaling function and a subaperture approach, which allow an effective phase-preserving processing of ScanSAR data without interpolation for azimuth geometric correction. The azimuth scaling can also be used for automatic azimuth coregistration of interferometric image pairs which are acquired with different sampling distances. Additionally, a novel range scaling formulation is proposed for automatic range coregistration of interferometric image pairs or for improved robustness for the processing of highly squinted data. Several simulation and processing results of air- and spaceborne SAR data are presented to demonstrate the validity of the proposed algorithms.
Motion Compensation, Chirp-Scaling, Range- and Azimutskalierung, SAR-Verarbeitung, Synthetic Aperture Radar, Chirp Scaling Algorithm, SAR, ScanSAR
Motion Compensation, Chirp-Scaling, Range- and Azimutskalierung, SAR-Verarbeitung, Synthetic Aperture Radar, Chirp Scaling Algorithm, SAR, ScanSAR
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