License and Copyright© 2020 by the authors; CC BY-NC-ND license
Keywordshigh-resolution; highly-squinted; maneuvers; fifth-order motion parameter model; spatial variation; frequency-domain processing; extended back-projection algorithm; topography variations; computational burden; high resolution; lunar penetrating radar; lunar exploration; compressive sensing; lunar regolith modeling; signal processing; Synthetic Aperture Radar (SAR); Airborne SAR; Sounder; P-Band; helicopter-borne radar; UHF and VHF bands; MIMO radar; through-wall imaging; ultrawideband signal; SFCW; sparse array; back projection algorithm; Vivaldi antenna; Synthetic Aperture Radar (SAR); Airborne SAR; SAR Interferometry; Digital Elevation Model (DEM); Frequency-Modulated Continuous-Wave (FMCW); differential interferometry; DInSAR; precision agriculture; drone-borne radar; crop growth deficit map; radar imaging; unmanned aerial vehicle; inverse scattering; linear scattering models; global positioning systems; differential interferometry; DInSAR; drone-borne radar; range-Doppler processor; corner reflector; forward-looking GPR; surface clutter; near-field; antenna arrays; microwave imaging; coherence factor; n/a
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