前辅文
 Part I SAR Basics
  Chapter 1 History of Radar Remote Sensing
  Chapter 2 Introduction to Synthetic Aperture Radar
   2.1 Technical Considerations for A Ship Detection Remote Sensing System
    2.1.1 Electromagnetic Spectrum
    2.1.2 Microwave Scattering Behavior
   2.2 The Relation Between Ship Size and Radar Backscattering
    2.2.1 Radar Equation
    2.2.2 Controlling the Radar Backscattering of Ships
    2.2.3 Example for the Required Specifications to Detect Ships with A Radar Remote Sensing System
   2.3 Distinguishing Different Ships with A Radar Remote Sensing System
    2.3.1 Radar Resolution
    2.3.2 Side-looking Airborne Radar Systems
    2.3.3 Synthetic Aperture Radar Systems
   2.4 Establishing A Target’s Position with SAR
    2.4.1 SAR Geometry in Range Direction
    2.4.2 Geometrical Model of SAR Positioning
    2.4.3 Geometrical Distortions in SAR Imaging
   2.5 Speckle Effect
    2.5.1 Speckle Statistics and Multi-Looking
    2.5.2 Speckle Filtering
   2.6 SAR Satellite System for Ship Detection
    2.6.1 Signal-to-Noise Ratio
    2.6.2 Pulse Repetition Frequency
    2.6.3 Satellite Orbits and Repeat Time
    2.6.4 SAR Acquisition Modes
   2.7 SAR Polarimetry
   2.8 Conclusions on the Developed SAR System for Ship Detection
 Part II DEM Generation
  Chapter 3 SAR Interferometry
   3.1 Introduction into SAR Interferometry
    3.1.1 Amplitude and Phase Components of SAR Images
    3.1.2 Phase Differences As Basis for Height Determination
   3.2 SAR Interferometry Processing Steps
    3.2.1 SAR Data Selection—Considerations for SAR Interferometry
    3.2.2 SAR Co-registration
    3.2.3 Coarse-to-Fine Co-registration
    3.2.4 Orbit and DEM-based Co-registration
    3.2.5 Interferogram Generation
    3.2.6 Flat-Earth Phase Removal
    3.2.7 Height of Ambiguity
    3.2.8 Topographic Phase Removal
    3.2.9 Coherence Estimation
    3.2.10 Phase Unwrapping
    3.2.11 DSM Generation
   3.3 SAR Interferometry with Spotlight and TOPS Images
   3.4 Error Sources
    3.4.1 Loss of Coherence
    3.4.2 Temporal Decorrelation
    3.4.3 Atmospheric Delay
    3.4.4 Orbit Errors
   3.5 Conclusions
  Chapter 4 StereoSAR
   4.1 Introduction to Stereo-Radargrammetry
   4.2 Finding Homologous Points
   4.3 Deriving Relative Height Information
   4.4 DSM Generation
   4.5 Deriving Absolute Height Information
   4.6 Example Application of StereoSAR at Mount Song
   4.7 Conclusions
 Part III Surface Motion
  Chapter 5 Differential SAR Interferometry
   5.1 Two-pass D-InSAR
   5.2 Three-pass D-InSAR
   5.3 Interpretation of Wrapped Differential Interferograms
   5.4 Measurement with Unwrapped Differential Interferograms
   5.5 Example: Coseismic Interferometry for the Bam Earthquake
    5.5.1 Two-pass D-InSAR Example
    5.5.2 Three-pass D-InSAR Example
   5.6 Conclusions
  Chapter 6 Permanent Scatterer Interferometry
   6.1 Identifying the Permanent Scatterers
   6.2 Pre-processing Steps
   6.3 Generation of A PS Network
   6.4 Estimation of the Atmospheric Phase Screen
    6.4.1 Estimating Topographic Height Error and Velocity
    6.4.2 Unwrapping Along the Edges
    6.4.3 APS Estimation
   6.5 Velocity and Residual Height Estimation for All PS
   6.6 Including Alternative Motion Models
   6.7 Temporal Coherence
   6.8 Example
  Chapter 7 Alternative Approaches to PSI
   7.1 Spatio-Temporal Unwrapping Network
    7.1.1 Point Selection in STUN
    7.1.2 Sparse Network Creation
    7.1.3 Solving the Equations with LAMBDA
    7.1.4 Densifying the Network
    7.1.5 Example
   7.2 Persistent Scatterer Pair Interferometry
   7.3 Stanford Method of Persistent Scatterers
    7.3.1 Persistent Scatterer Selection in StaMPS
    7.3.2 3D Phase Unwrapping
    7.3.3 Spatially Correlated Terms
  Chapter 8 Distributed Scatterer Interferometry
   8.1 Small Baseline Subset Technique
   8.2 Quasi-Persistent Scatter Technique
   8.3 SqueeSAR
  Chapter 9 Pixel Tracking and Point Target Offset Tracking
   9.1 Pixel Tracking
   9.2 Point-Target Offset Tracking
  Chapter 10 Motion from SAR Geodesy
   10.1 Positioning in SAR Images
   10.2 Factors Influencing the Positioning
    10.2.1 Static Influencing Factors
    10.2.2 Dynamic Influencing Factors
    10.2.3 Sub-Pixel Positioning Precision
   10.3 Absolute 3D Positioning Using Stereo Configuration
   10.4 Absolute Methods versus Relative Methods
   10.5 Motion from SAR Geodesy
   10.6 SAR Geodesy in Practice
    10.6.1 Finding Suitable Points
    10.6.2 Correction for Geodynamical Effects
    10.6.3 Correction for Dynamic Atmospheric Effects
 Bibliography
 Index