When a target is involved in maneuvering motion, the nonuniform 3-D rotation motion will
cause a continuous change of image projection plane (IPP), which would induce 2-D spatial …

When a target is moving at high-speed, its high-resolution range profile (HRRP) will be
stretched by the high-order phase error caused by the high velocity. In this case, the inverse …

Owing to the highly maneuvering character involved in targets, the nonuniform 3-D rotation
motions make the assumption that the image projection plane (IPP) is constant during …

In general, conventional error correction for inverse synthetic aperture radarimaging consists
of range alignment and phase adjustment, which compensate range shift and phase error …

Translational motion compensation plays an important role in inverse synthetic aperture
radar (ISAR) imaging. However, existing translational motion compensation algorithms …

Bistatic inverse synthetic aperture radar (Bi-ISAR) can obtain complementary information
about moving targets and overcome the inherent imaging limitations of monostatic ISAR …

Under low signal-to-noise ratio (SNR), the performance of conventional envelop-based
range alignment methods for inverse synthetic aperture radar (ISAR) imaging degrades …

Correct and robust translational motion compensation is necessary but challenging for
inverse synthetic aperture radar (ISAR) imaging and target recognition. On the one hand …

Inverse synthetic aperture radar (ISAR) image is constructed using 2-D spatial distributions
of the radar cross section of a target. ISAR data gathered from moving targets might include …

Targets with uniform rotational motion may cause migration through cross-range cells during
the imaging time, which makes the inverse synthetic aperture radar image smeared …