Description

Book Synopsis

A real-world guide to practical applications of ground penetrating radar (GPR)

The nondestructive nature of ground penetrating radar makes it an important and popular method of subsurface imaging, but it is a highly specialized field, requiring a deep understanding of the underlying science for successful application. Introduction to Ground Penetrating Radar: Inverse Scattering and Data Processing provides experienced professionals with the background they need to ensure precise data collection and analysis.

Written to build upon the information presented in more general introductory volumes, the book discusses the fundamental mathematical, physical, and engineering principles upon which GPR is built. Real-world examples and field data provide readers an accurate view of day-to-day GPR use. Topics include:

  • 2D scattering for dielectric and magnetic targets
  • 3D scattering equations and migration algorithms
  • Host medium character

    Table of Contents

    Foreword xiii

    Acknowledgments xvii

    About the Author xix

    Contributors xxi

    1 Introduction to GPR Prospecting 1

    1.1 What Is a GPR? 1

    1.2 GPR Systems and GPR Signals 4

    1.3 GPR Application Fields 5

    1.4 Measurement Configurations, Bands, and Polarizations 6

    1.5 GPR Data Processing 8

    2 Characterization of the Host Medium 10

    2.1 The Characteristics of the Host Medium 10

    2.2 The Measure of the Propagation Velocity in a Masonry 11

    2.3 The Measure of the Propagation Velocity in a Homogeneous Soil 13

    2.3.1 Interfacial Data in Common Offset Mode with a Null Offset: The Case of a Point-like Target 13

    2.3.2 Interfacial Data in Common Offset Mode with a Null Offset: The Case of a Circular Target 17

    2.3.3 Interfacial Data in Common Offset Mode with a Non-null Offset: The Case of a Point-like Target 18

    2.3.4 Noninterfacial Data in Common Offset Mode with a Null Offset: The Case of a Point-like Target 22

    2.3.5 Interfacial Data in Common Midpoint (CMP) Mode 25

    2.4 Lossy, Magnetic, and Dispersive Media 27

    Questions 31

    3 GPR Data Sampling: Frequency and Time Steps 32

    3.1 Stepped Frequency GPR Systems: The Problem of the Aliasing and the Frequency Step 32

    3.2 Shape and Thickness of the GPR Pulses 36

    3.3 Stepped Frequency GPR Systems: The Problem of the Demodulation and the Frequency Step 40

    3.4 Aliasing and Time Step for Pulsed GPR Systems 45

    Questions 47

    4 The 2d Scattering Equations for Dielectric Targets 48

    4.1 Preliminary Remarks 48

    4.2 Derivation of the Scattering Equations Without Considering the Effect of the Antennas 51

    4.3 Calculation of the Incident Field Radiated by a Filamentary Current 61

    4.4 The Plane Wave Spectrum of an Electromagnetic Source in a Homogeneous Space 61

    4.5 The Insertion of the Source Characteristics in the Scattering Equations 65

    4.6 The Far Field in a Homogeneous Lossless Space in Terms of Plane Wave Spectrum 69

    4.7 The Effective Length of an Electromagnetic Source in a Homogeneous Space 73

    4.8 The Insertion of the Receiver Characteristics in the Scattering Equations 75

    Questions 77

    5 The 2d Scattering Equations for Magnetic Targets 79

    5.1 The Scattering Equations with Only Magnetic Anomalies 79

    5.2 The Contribution of the x-Component of the Fitzgerald Vector 83

    5.3 The Contribution of the z-Component of the Fitzgerald Vector 88

    5.4 The Joined Contribution of Both the x- and z-Components of the Fitzgerald Vector 93

    5.5 The Case with Both Dielectric and Magnetic Anomalies 94

    Questions 95

    6 ILL-posedness and Nonlinearity 96

    6.1 Electromagnetic Inverse Scattering 96

    6.2 Ill-Posedness 97

    6.3 Nonlinearity 97

    6.4 The Ill-Posedness of the Inverse Scattering Problem 100

    6.5 The Nonlinearity of the Inverse Scattering Problem 103

    Questions 103

    7 Extraction of the Scattered Field Data From the GPR Data 105

    7.1 Zero Timing 105

    7.2 Muting of Interface Contributions 106

    7.3 The Differential Configuration 110

    7.4 The Background Removal 111

    Questions 115

    8 the Born Approximation 116

    8.1 The Classical Born Approximation 116

    8.2 The Born Approximation in the Presence of Magnetic Targets 119

    8.3 Weak and Nonweak Scattering Objects 120

    Questions 121

    9 Diffraction Tomography 122

    9.1 Introduction to Diffraction Tomography 122

    9.2 Diffraction Tomography for Dielectric Targets 123

    9.3 Diffraction Tomography for Dielectric Targets Seen Under a Limited View Angle 130

    9.4 The Effective Maximum and Minimum View Angle 140

    9.5 Horizontal Resolution 142

    9.6 Vertical Resolution 145

    9.7 Spatial Step 147

    9.8 Frequency Step 148

    9.9 Time Step 149

    9.10 The Effect of a Non-null Height of the Observation Line 150

    9.11 The Effect of the Radiation Characteristics of the Antennas 156

    9.12 DT Relationship in the Presence of Magnetic Targets 158

    9.13 DT Relationship for a Differential Configuration 160

    9.14 DT Relationship in the Presence of Background Removal 163

    Questions 168

    10 Two-dimensional Migration Algorithms 169

    10.1 Migration in the Frequency Domain 169

    10.2 Migration in the Time Domain (Raffaele Persico and Raffaele Solimene) 175

    Questions 181

    11 Three-dimensional Scattering Equations 182
    Lorenzo Lo Monte, Raffaele Persico, and Raffaele Solimene

    11.1 Scattering in Three Dimensions: Redefinition of the Main Symbols 182

    11.2 The Scattering Equations in 3D 184

    11.3 Three-Dimensional Green’s Functions 184

    11.4 The Incident Field 185

    11.5 Homogeneous 3D Green’s Functions 187

    11.6 The Plane Wave Spectrum of a 3D Homogeneous Green’s Fucntion 192

    11.7 Half-Space Green’s Functions 197

    Questions 204

    12 Three-dimensional Diffraction Tomography 205

    12.1 Born Approximation and DT in 3D 205

    12.2 Ideal and Limited-View-Angle 3D Retrievable Spectral Sets 210

    12.3 Spatial Step and Transect 212

    12.4 Horizontal Resolution (Raffaele Persico and Raffaele Solimene) 213

    12.5 Vertical Resolution, Frequency and Time Steps 217

    Questions 218

    13 Three-dimensional Migration Algorithms 219

    13.1 3D Migration Formulas in the Frequency Domain 219

    13.2 3D Migration Formulas in the Time Domain 222

    13.3 3D Versus 2D Migration Formulas in the Time Domain 226

    Questions 228

    14 The Singular Value Decomposition 229

    14.1 The Method of Moments 229

    14.2 Reminders About Eigenvalues and Eigenvectors 231

    14.3 The Singular Value Decomposition 234

    14.4 The Study of the Inverse Scattering Relationship by Means of the SVD 238

    Questions 241

    15 Numerical and Experimental Examples 242

    15.1 Examples with Regard to the Measure of the Propagation Velocity 242

    15.1.1 Common Offset Interfacial Data with Null Offset on a Homogeneous Soil 242

    15.1.2 Common Offset Interfacial Data on a Wall, Neglecting the Offset Between the Antennas 245

    15.1.3 Interfacial Common Offset Data on a Homogeneous Soil: The Effect on the Offset Between the Antennas 247

    15.1.4 Noninterfacial Common Offset Data with a Null Offset Between the Antennas 249

    15.1.5 Common Midpoint Data 250

    15.2 Exercises on Spatial Step and Horizontal Resolution 252

    15.3 Exercises on Frequency Step and Vertical Resolution 264

    15.4 Exercises on the Number of Trial Unknowns 271

    15.5 Exercises on Spectral and Spatial Contents 274

    15.6 Exercises on the Effect of the Height of the Observation Line 280

    15.7 Exercises on the Effect of the Extent of the Investigation Domain 284

    15.8 Exercises on the Effects of the Background Removal 295

    15.9 2D and 3D Migration Examples with a Single Set and Two Crossed Sets of B-Scans (Marcello Ciminale, Giovanni Leucci, Loredana Matera, and Raffaele Persico) 304

    15.10 2D and 3D Inversion Examples (Ilaria Catapano and Raffaele Persico) 311

    Appendices 327

    Appendix A (Raffaele Persico and Raffaele Solimene) 329

    Appendix B 334

    Appendix C 335

    Appendix D 337

    Appendix E 340

    Appendix F (Raffaele Persico and Raffaele Solimene) 346

    Appendix G: Answers to Questions 349

    References 358

    Index 365

Introduction to Ground Penetrating Radar

    Product form

    £97.16

    Includes FREE delivery

    RRP £107.95 – you save £10.79 (9%)

    Order before 4pm today for delivery by Sat 4 Jul 2026.

    A Hardback by Raffaele Persico

    10 in stock

      Trusted by thousands of customers. See 2,385+ Customer Reviews

      View other formats and editions of Introduction to Ground Penetrating Radar by Raffaele Persico

      Publisher: John Wiley & Sons Inc
      Publication Date: 25/07/2014
      ISBN13: 9781118305003, 978-1118305003
      ISBN10: 1118305000

      Description

      Book Synopsis

      A real-world guide to practical applications of ground penetrating radar (GPR)

      The nondestructive nature of ground penetrating radar makes it an important and popular method of subsurface imaging, but it is a highly specialized field, requiring a deep understanding of the underlying science for successful application. Introduction to Ground Penetrating Radar: Inverse Scattering and Data Processing provides experienced professionals with the background they need to ensure precise data collection and analysis.

      Written to build upon the information presented in more general introductory volumes, the book discusses the fundamental mathematical, physical, and engineering principles upon which GPR is built. Real-world examples and field data provide readers an accurate view of day-to-day GPR use. Topics include:

      • 2D scattering for dielectric and magnetic targets
      • 3D scattering equations and migration algorithms
      • Host medium character

        Table of Contents

        Foreword xiii

        Acknowledgments xvii

        About the Author xix

        Contributors xxi

        1 Introduction to GPR Prospecting 1

        1.1 What Is a GPR? 1

        1.2 GPR Systems and GPR Signals 4

        1.3 GPR Application Fields 5

        1.4 Measurement Configurations, Bands, and Polarizations 6

        1.5 GPR Data Processing 8

        2 Characterization of the Host Medium 10

        2.1 The Characteristics of the Host Medium 10

        2.2 The Measure of the Propagation Velocity in a Masonry 11

        2.3 The Measure of the Propagation Velocity in a Homogeneous Soil 13

        2.3.1 Interfacial Data in Common Offset Mode with a Null Offset: The Case of a Point-like Target 13

        2.3.2 Interfacial Data in Common Offset Mode with a Null Offset: The Case of a Circular Target 17

        2.3.3 Interfacial Data in Common Offset Mode with a Non-null Offset: The Case of a Point-like Target 18

        2.3.4 Noninterfacial Data in Common Offset Mode with a Null Offset: The Case of a Point-like Target 22

        2.3.5 Interfacial Data in Common Midpoint (CMP) Mode 25

        2.4 Lossy, Magnetic, and Dispersive Media 27

        Questions 31

        3 GPR Data Sampling: Frequency and Time Steps 32

        3.1 Stepped Frequency GPR Systems: The Problem of the Aliasing and the Frequency Step 32

        3.2 Shape and Thickness of the GPR Pulses 36

        3.3 Stepped Frequency GPR Systems: The Problem of the Demodulation and the Frequency Step 40

        3.4 Aliasing and Time Step for Pulsed GPR Systems 45

        Questions 47

        4 The 2d Scattering Equations for Dielectric Targets 48

        4.1 Preliminary Remarks 48

        4.2 Derivation of the Scattering Equations Without Considering the Effect of the Antennas 51

        4.3 Calculation of the Incident Field Radiated by a Filamentary Current 61

        4.4 The Plane Wave Spectrum of an Electromagnetic Source in a Homogeneous Space 61

        4.5 The Insertion of the Source Characteristics in the Scattering Equations 65

        4.6 The Far Field in a Homogeneous Lossless Space in Terms of Plane Wave Spectrum 69

        4.7 The Effective Length of an Electromagnetic Source in a Homogeneous Space 73

        4.8 The Insertion of the Receiver Characteristics in the Scattering Equations 75

        Questions 77

        5 The 2d Scattering Equations for Magnetic Targets 79

        5.1 The Scattering Equations with Only Magnetic Anomalies 79

        5.2 The Contribution of the x-Component of the Fitzgerald Vector 83

        5.3 The Contribution of the z-Component of the Fitzgerald Vector 88

        5.4 The Joined Contribution of Both the x- and z-Components of the Fitzgerald Vector 93

        5.5 The Case with Both Dielectric and Magnetic Anomalies 94

        Questions 95

        6 ILL-posedness and Nonlinearity 96

        6.1 Electromagnetic Inverse Scattering 96

        6.2 Ill-Posedness 97

        6.3 Nonlinearity 97

        6.4 The Ill-Posedness of the Inverse Scattering Problem 100

        6.5 The Nonlinearity of the Inverse Scattering Problem 103

        Questions 103

        7 Extraction of the Scattered Field Data From the GPR Data 105

        7.1 Zero Timing 105

        7.2 Muting of Interface Contributions 106

        7.3 The Differential Configuration 110

        7.4 The Background Removal 111

        Questions 115

        8 the Born Approximation 116

        8.1 The Classical Born Approximation 116

        8.2 The Born Approximation in the Presence of Magnetic Targets 119

        8.3 Weak and Nonweak Scattering Objects 120

        Questions 121

        9 Diffraction Tomography 122

        9.1 Introduction to Diffraction Tomography 122

        9.2 Diffraction Tomography for Dielectric Targets 123

        9.3 Diffraction Tomography for Dielectric Targets Seen Under a Limited View Angle 130

        9.4 The Effective Maximum and Minimum View Angle 140

        9.5 Horizontal Resolution 142

        9.6 Vertical Resolution 145

        9.7 Spatial Step 147

        9.8 Frequency Step 148

        9.9 Time Step 149

        9.10 The Effect of a Non-null Height of the Observation Line 150

        9.11 The Effect of the Radiation Characteristics of the Antennas 156

        9.12 DT Relationship in the Presence of Magnetic Targets 158

        9.13 DT Relationship for a Differential Configuration 160

        9.14 DT Relationship in the Presence of Background Removal 163

        Questions 168

        10 Two-dimensional Migration Algorithms 169

        10.1 Migration in the Frequency Domain 169

        10.2 Migration in the Time Domain (Raffaele Persico and Raffaele Solimene) 175

        Questions 181

        11 Three-dimensional Scattering Equations 182
        Lorenzo Lo Monte, Raffaele Persico, and Raffaele Solimene

        11.1 Scattering in Three Dimensions: Redefinition of the Main Symbols 182

        11.2 The Scattering Equations in 3D 184

        11.3 Three-Dimensional Green’s Functions 184

        11.4 The Incident Field 185

        11.5 Homogeneous 3D Green’s Functions 187

        11.6 The Plane Wave Spectrum of a 3D Homogeneous Green’s Fucntion 192

        11.7 Half-Space Green’s Functions 197

        Questions 204

        12 Three-dimensional Diffraction Tomography 205

        12.1 Born Approximation and DT in 3D 205

        12.2 Ideal and Limited-View-Angle 3D Retrievable Spectral Sets 210

        12.3 Spatial Step and Transect 212

        12.4 Horizontal Resolution (Raffaele Persico and Raffaele Solimene) 213

        12.5 Vertical Resolution, Frequency and Time Steps 217

        Questions 218

        13 Three-dimensional Migration Algorithms 219

        13.1 3D Migration Formulas in the Frequency Domain 219

        13.2 3D Migration Formulas in the Time Domain 222

        13.3 3D Versus 2D Migration Formulas in the Time Domain 226

        Questions 228

        14 The Singular Value Decomposition 229

        14.1 The Method of Moments 229

        14.2 Reminders About Eigenvalues and Eigenvectors 231

        14.3 The Singular Value Decomposition 234

        14.4 The Study of the Inverse Scattering Relationship by Means of the SVD 238

        Questions 241

        15 Numerical and Experimental Examples 242

        15.1 Examples with Regard to the Measure of the Propagation Velocity 242

        15.1.1 Common Offset Interfacial Data with Null Offset on a Homogeneous Soil 242

        15.1.2 Common Offset Interfacial Data on a Wall, Neglecting the Offset Between the Antennas 245

        15.1.3 Interfacial Common Offset Data on a Homogeneous Soil: The Effect on the Offset Between the Antennas 247

        15.1.4 Noninterfacial Common Offset Data with a Null Offset Between the Antennas 249

        15.1.5 Common Midpoint Data 250

        15.2 Exercises on Spatial Step and Horizontal Resolution 252

        15.3 Exercises on Frequency Step and Vertical Resolution 264

        15.4 Exercises on the Number of Trial Unknowns 271

        15.5 Exercises on Spectral and Spatial Contents 274

        15.6 Exercises on the Effect of the Height of the Observation Line 280

        15.7 Exercises on the Effect of the Extent of the Investigation Domain 284

        15.8 Exercises on the Effects of the Background Removal 295

        15.9 2D and 3D Migration Examples with a Single Set and Two Crossed Sets of B-Scans (Marcello Ciminale, Giovanni Leucci, Loredana Matera, and Raffaele Persico) 304

        15.10 2D and 3D Inversion Examples (Ilaria Catapano and Raffaele Persico) 311

        Appendices 327

        Appendix A (Raffaele Persico and Raffaele Solimene) 329

        Appendix B 334

        Appendix C 335

        Appendix D 337

        Appendix E 340

        Appendix F (Raffaele Persico and Raffaele Solimene) 346

        Appendix G: Answers to Questions 349

        References 358

        Index 365

      Recently viewed products

      © 2026 Book Curl

        • American Express
        • Apple Pay
        • Diners Club
        • Discover
        • Google Pay
        • Maestro
        • Mastercard
        • PayPal
        • Shop Pay
        • Union Pay
        • Visa

        Login

        Forgot your password?

        Don't have an account yet?
        Create account