The ionosphere is the Earth's upper atmosphere with sufficiently charged particles that
influence the electromagnetic wave propagation, thereby impeding spaceborne synthetic …

An L-band geosynchronous synthetic aperture radar (GEO SAR) is susceptible to the
ionospheric scintillation induced by ionospheric irregularities due to its lower carrier …

Synthetic aperture radar (SAR) systems, which operate under a slant-viewing geometry,
inevitably entail shadow regions in the resulting radar image. Such shadow profiles contain …

An L-band geosynchronous synthetic aperture radar (GEO SAR) will be inevitably affected
by ionosphere scintillation because of its low carrier frequency. Meanwhile, compared with …

Amplitude stripes imposed by ionospheric scintillation have been frequently observed in
many of the equatorial nighttime acquisitions of the Advanced Land Observing Satellite …

It is well known that the ionospheric scintillation caused by small-scale ionospheric
irregularities is a major distortion source for low-frequency spaceborne synthetic aperture …

The spaceborne low-frequency (L-band and below) synthetic aperture radar (SAR) is very
susceptible to ionospheric scintillation. The scintillation phase error (SPE) is a vital factor …

Spaceborne synthetic aperture radar (SAR) systems, operating at L-band or lower, are very
susceptible to ionospheric scintillation. The scintillation phase error (SPE) can bring about …

The ionospheric scintillation induced by local ionospheric plasma anomalies could lead to
significant degradation for geosynchronous earth orbit synthetic aperture radar (SAR) …

With a view to detecting foliage-obscured/ground-obscured targets on a global scale, low
frequency (ie, very high frequency (VHF)/ultrahigh frequency (UHF) band) and wide …