Cover -- About the Author -- Title Page -- Copyright Page -- Contents -- Preface -- Acknowledgments -- 1 Introduction to Synthetic Aperture Radar -- 1.1 Introduction -- 1.2 Origins of SAR -- 1.3 Examples of Synthetic Aperture Radar Systems -- 1.4 Timing and Geometry -- 1.5 The Synthetic Aperture -- 2 Ranging -- 2.1 Rangevia Echoing -- 2.2 The Linear Frequency-Modulated Chirp -- 2.3 Detecting the Received LFM Chirps -- 3 Imaging -- 3.1 Mathematical Model -- 3.2 Simulated Point Scatterers Using Quadrature Demodulation -- 3.3 Simulated Point Scatterers Using Dechirp -- 4 Image Formation -- 4.1 The Image Formation Chain -- 4.2 Motion Compensation -- 4.3 Processing Tools -- 5 Image Formation Algorithms for Quadrature Demodulated Data -- 5.1 Range-Doppler Algorithm -- 5.2 Omega-K or Range Migration Algorithm -- 5.3 Quadrature Demodulation versus Dechirp -- 6 Image Formation Algorithms for Dechirped Data -- 6.1 Polar Formatting -- 6.2 The Backprojection Algorithm -- 7 Autofocus -- 7.1 Sources of Phase Error -- 7.2 MapDrift -- 7.3 Phase Gradient Autofocus -- 8 Image Quality -- 8.1 Speckle -- 8.2 Multilook -- 8.3 Other Speckle Reduction Techniques -- 8.4 Aperture Weighting -- 8.5 Image Quality Metrics -- 9 Linear Frequency-Modulated Continuous Wave Systems -- 9.1 LFMCW Systems -- 9.2 LFMCW Transmitter-Receiver Model -- 9.3 LFMCW Mathematical Model -- 9.4 Motion Compensation for LFMCW -- 10 Remote Sensing with Synthetic Aperture Radar -- 10.1 Polarimetry -- 10.2 Ocean Remote Sensing -- 10.3 Deep Learning -- 11 Interferometry -- 11.1 The Basics -- 11.2 Terrain Estimation -- 11.3 Coherent Change Detection -- 11.4 Earthquakes -- 12 Moving Objects in Synthetic Aperture Radar -- 12.1 Mathematical Model -- 12.2 Challenges with Moving Object Estimation and Single-Channel SAR -- 12.3 Other Types of Moving Objects -- Acronyms -- Variables -- Glossary -- Index -- A -- B -- C -- D -- E -- F -- G -- H -- I -- K -- L -- M -- N -- O -- P -- Q -- R -- S -- T -- U -- V -- W -- X
