
doi: 10.1109/36.649799
handle: 20.500.14243/243815
Efficient and precise compensation of the range cell migration (RCM) effect is a key point for a fast and accurate synthetic aperture radar (SAR) data processor. In particular the range-dependent nature of the range cell migration effect complicates the compensation operation. It has been recently shown that an exact compensation of the range-dependent RCM (RDRCM) phenomenon can be carried out either by applying the chirp scaling algorithm or the chirp z-transform procedure. This paper investigates the relationship between the two methods. In particular, it is shown that the chirp z-transform based approach represents a particular implementation of the chirp scaling algorithm. A final discussion is dedicated to show how the chirp z-transform and the chirp scaling procedure can be applied within a SAR data processing algorithm.
geophysical measurement technique, radar remote sensing, Convolutional codes, Synthetic aperture radar, Helium, Chirp, remote sensing by radar, chirp z-transform, FM radar, land surface, range-dependent range cell migration effect, geophysical techniques, terrain mapping, exact compensation, Convolution, Interpolation, radar imaging, RDRCM, Computational efficiency, Data processing, Kernel, chirp scaling algorithm, geophysical signal processing, RCM, Filtering, synthetic aperture radar, SAR
geophysical measurement technique, radar remote sensing, Convolutional codes, Synthetic aperture radar, Helium, Chirp, remote sensing by radar, chirp z-transform, FM radar, land surface, range-dependent range cell migration effect, geophysical techniques, terrain mapping, exact compensation, Convolution, Interpolation, radar imaging, RDRCM, Computational efficiency, Data processing, Kernel, chirp scaling algorithm, geophysical signal processing, RCM, Filtering, synthetic aperture radar, SAR
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