CZT Correction of Range-Dependent Residual-RCM For Airborne SAR Motion Compensation

For the airborne SAR imaging, the motion compensation (MOCO) is required because of the phase error caused by the atmospheric turbulence. In the case of ultrahigh-resolution and wide-swath, the phase error may be rangedependent (RD), which may induce a RD residual-RCM after the correction of range c...

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Published inIEEE International Geoscience and Remote Sensing Symposium proceedings pp. 2320 - 2322
Main Authors Chen, Jianlai, Liang, Buge, Yang, De-Gui, Zhao, Dang-Jun, Yuan, Xue-lin, Shi, Wei, Mo, Jin-jun
Format Conference Proceeding
LanguageEnglish
Published IEEE 01.07.2019
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ISSN2153-7003
DOI10.1109/IGARSS.2019.8897853

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Abstract For the airborne SAR imaging, the motion compensation (MOCO) is required because of the phase error caused by the atmospheric turbulence. In the case of ultrahigh-resolution and wide-swath, the phase error may be rangedependent (RD), which may induce a RD residual-RCM after the correction of range cell migration (RCM) by using the range migration algorithm (RMA). Currently, phase gradient autofocus (PGA) is widely used to estimate the phase error from the raw data. However, the RD residual-RCM may degrade the accuracy of the PGA. To overcome such a problem, we present a CZT correction algorithm to correct the RD residual-RCM. Processing of airborne real data validates the effectiveness of the proposed algorithm.
AbstractList For the airborne SAR imaging, the motion compensation (MOCO) is required because of the phase error caused by the atmospheric turbulence. In the case of ultrahigh-resolution and wide-swath, the phase error may be rangedependent (RD), which may induce a RD residual-RCM after the correction of range cell migration (RCM) by using the range migration algorithm (RMA). Currently, phase gradient autofocus (PGA) is widely used to estimate the phase error from the raw data. However, the RD residual-RCM may degrade the accuracy of the PGA. To overcome such a problem, we present a CZT correction algorithm to correct the RD residual-RCM. Processing of airborne real data validates the effectiveness of the proposed algorithm.
Author Zhao, Dang-Jun
Shi, Wei
Yuan, Xue-lin
Mo, Jin-jun
Chen, Jianlai
Yang, De-Gui
Liang, Buge
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Snippet For the airborne SAR imaging, the motion compensation (MOCO) is required because of the phase error caused by the atmospheric turbulence. In the case of...
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SubjectTerms Chirp-Z transform (CZT)
Electronics packaging
Estimation
Motion compensation
phase gradient autofocus (PGA)
Radar imaging
Radar polarimetry
Remote sensing
residual-RCM
Synthetic aperture radar
Synthetic aperture radar (SAR)
Title CZT Correction of Range-Dependent Residual-RCM For Airborne SAR Motion Compensation
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