Richard Klemm received his Dipl. -Ing and Dr-Ing degrees in communications from the Technical University of Berlin. He currently works with FGAN-FHR, a branch of the German Defence Research Establishment. His main interest is in adaptive clutter and jammer suppression for radar, array processing for active and passive sonar, with emphasis on matched field processing for shallow water applications, and detection of moving targets by moving sensor plaforms. He has published numerous articles on various aspects of radar and sonar signal processing, and two books on space-time adaptive processing. He has been a member of the NATO AGARD AVP/RTO-SET panels and chaired various AGARD and RTO symposia. He initialised and chaired the European Conference on Synthetic Aperture Radar, EUSAR'96. He received the RTO SET Excellence Award 2001 and the Clark-Griffiths Premium 2003.

• Section A Suppression of clutter in moving radar: Part I: Space-slow time processing for airborne MTI radarChapter 1: Space-time adaptive processing for manoeuvring airborne radarChapter 2: Non-linear and adaptive two-dimensional FIR filters for STAP theory and experimental resultsChapter 3: Space-time techniques for SARChapter 4: Sigma-Delta-STAP: an efficient, affordable approach for clutter suppressionChapter 5: STAP with omnidirectional antenna arraysSection A Suppression of clutter in moving radar: Part II: Space-slow time processing for space-based MTI radarChapter 6: SAR-GMTI concept for RADARSAT-2Chapter 7: STAP simulation and processing for spaceborne radarChapter 8: Techniques for range-ambiguous clutter mitigation in space-based radar systemsSection A Suppression of clutter in moving radar: Part III: Processing architecturesChapter 9: Parallel processing architectures for STAPSection A Suppression of clutter in moving radar: Part IV: Clutter inhomogeneitiesChapter 10: STAP in heterogeneous clutter environmentsChapter 11: Adaptive weight training for post-Doppler STAP algorithms in non-homogeneous clutterChapter 12: Application of deterministic techniques to STAPChapter 13: Robust techniques in space-time adaptive processingSection B Miscellaneous space-time processing applications: Part V: Ground target tracking with STAP radarChapter 14: Ground target tracking with STAP radar: the sensorChapter 15: Ground target tracking with STAP radar: selected tracking aspectsSection B Miscellaneous space-time processing applications: Part VI: Space-fast time techniquesChapter 16: Superresolution and jammer suppression with broadband arrays for multifunction radarSection B Miscellaneous space-time processing applications: Part VII: Over-the-horizon radar applicationsChapter 17: Stochastically constrained spatial and spatio-temporal adaptive processing for non-stationary hot clutter cancellationSection B Miscellaneous space-time processing applications: Part VIII: Applications in acoustics and seismicsChapter 18: Space-time adaptive matched field processing (STAMP)Chapter 19: Space-time signal processing for surface ship towed active sonarChapter 20: EM and SAGE algorithms for towed array dataChapter 21: The common reflection surface (CRS) stack - a data-driven space-time adaptive seismic reflection imaging procedureSection B Miscellaneous space-time processing applications: Part IX: Space-time techniques in communicationsChapter 22: STAP for space/code/time division multiple access systemsChapter 23: Underwater communication with vertical receiver arraysChapter 24: Reduced-rank interference suppression and equalisation for GPS and downlink CDMAChapter 25: Introduction to space-time coding

Richard Klemm received his Dipl. -Ing and Dr-Ing degrees in communications from the Technical University of Berlin. He currently works with FGAN-FHR, a branch of the German Defence Research Establishment. His main interest is in adaptive clutter and jammer suppression for radar, array processing for active and passive sonar, with emphasis on matched field processing for shallow water applications, and detection of moving targets by moving sensor plaforms. He has published numerous articles on various aspects of radar and sonar signal processing, and two books on space-time adaptive processing. He has been a member of the NATO AGARD AVP/RTO-SET panels and chaired various AGARD and RTO symposia. He initialised and chaired the European Conference on Synthetic Aperture Radar, EUSAR'96. He received the RTO SET Excellence Award 2001 and the Clark-Griffiths Premium 2003.

• Section A Suppression of clutter in moving radar: Part I: Space-slow time processing for airborne MTI radarChapter 1: Space-time adaptive processing for manoeuvring airborne radarChapter 2: Non-linear and adaptive two-dimensional FIR filters for STAP theory and experimental resultsChapter 3: Space-time techniques for SARChapter 4: Sigma-Delta-STAP: an efficient, affordable approach for clutter suppressionChapter 5: STAP with omnidirectional antenna arraysSection A Suppression of clutter in moving radar: Part II: Space-slow time processing for space-based MTI radarChapter 6: SAR-GMTI concept for RADARSAT-2Chapter 7: STAP simulation and processing for spaceborne radarChapter 8: Techniques for range-ambiguous clutter mitigation in space-based radar systemsSection A Suppression of clutter in moving radar: Part III: Processing architecturesChapter 9: Parallel processing architectures for STAPSection A Suppression of clutter in moving radar: Part IV: Clutter inhomogeneitiesChapter 10: STAP in heterogeneous clutter environmentsChapter 11: Adaptive weight training for post-Doppler STAP algorithms in non-homogeneous clutterChapter 12: Application of deterministic techniques to STAPChapter 13: Robust techniques in space-time adaptive processingSection B Miscellaneous space-time processing applications: Part V: Ground target tracking with STAP radarChapter 14: Ground target tracking with STAP radar: the sensorChapter 15: Ground target tracking with STAP radar: selected tracking aspectsSection B Miscellaneous space-time processing applications: Part VI: Space-fast time techniquesChapter 16: Superresolution and jammer suppression with broadband arrays for multifunction radarSection B Miscellaneous space-time processing applications: Part VII: Over-the-horizon radar applicationsChapter 17: Stochastically constrained spatial and spatio-temporal adaptive processing for non-stationary hot clutter cancellationSection B Miscellaneous space-time processing applications: Part VIII: Applications in acoustics and seismicsChapter 18: Space-time adaptive matched field processing (STAMP)Chapter 19: Space-time signal processing for surface ship towed active sonarChapter 20: EM and SAGE algorithms for towed array dataChapter 21: The common reflection surface (CRS) stack - a data-driven space-time adaptive seismic reflection imaging procedureSection B Miscellaneous space-time processing applications: Part IX: Space-time techniques in communicationsChapter 22: STAP for space/code/time division multiple access systemsChapter 23: Underwater communication with vertical receiver arraysChapter 24: Reduced-rank interference suppression and equalisation for GPS and downlink CDMAChapter 25: Introduction to space-time coding

Richard Klemm received his Dipl. -Ing and Dr-Ing degrees in communications from the Technical University of Berlin. He currently works with FGAN-FHR, a branch of the German Defence Research Establishment. His main interest is in adaptive clutter and jammer suppression for radar, array processing for active and passive sonar, with emphasis on matched field processing for shallow water applications, and detection of moving targets by moving sensor plaforms. He has published numerous articles on various aspects of radar and sonar signal processing, and two books on space-time adaptive processing. He has been a member of the NATO AGARD AVP/RTO-SET panels and chaired various AGARD and RTO symposia. He initialised and chaired the European Conference on Synthetic Aperture Radar, EUSAR'96. He received the RTO SET Excellence Award 2001 and the Clark-Griffiths Premium 2003.

• Section A Suppression of clutter in moving radar: Part I: Space-slow time processing for airborne MTI radarChapter 1: Space-time adaptive processing for manoeuvring airborne radarChapter 2: Non-linear and adaptive two-dimensional FIR filters for STAP theory and experimental resultsChapter 3: Space-time techniques for SARChapter 4: Sigma-Delta-STAP: an efficient, affordable approach for clutter suppressionChapter 5: STAP with omnidirectional antenna arraysSection A Suppression of clutter in moving radar: Part II: Space-slow time processing for space-based MTI radarChapter 6: SAR-GMTI concept for RADARSAT-2Chapter 7: STAP simulation and processing for spaceborne radarChapter 8: Techniques for range-ambiguous clutter mitigation in space-based radar systemsSection A Suppression of clutter in moving radar: Part III: Processing architecturesChapter 9: Parallel processing architectures for STAPSection A Suppression of clutter in moving radar: Part IV: Clutter inhomogeneitiesChapter 10: STAP in heterogeneous clutter environmentsChapter 11: Adaptive weight training for post-Doppler STAP algorithms in non-homogeneous clutterChapter 12: Application of deterministic techniques to STAPChapter 13: Robust techniques in space-time adaptive processingSection B Miscellaneous space-time processing applications: Part V: Ground target tracking with STAP radarChapter 14: Ground target tracking with STAP radar: the sensorChapter 15: Ground target tracking with STAP radar: selected tracking aspectsSection B Miscellaneous space-time processing applications: Part VI: Space-fast time techniquesChapter 16: Superresolution and jammer suppression with broadband arrays for multifunction radarSection B Miscellaneous space-time processing applications: Part VII: Over-the-horizon radar applicationsChapter 17: Stochastically constrained spatial and spatio-temporal adaptive processing for non-stationary hot clutter cancellationSection B Miscellaneous space-time processing applications: Part VIII: Applications in acoustics and seismicsChapter 18: Space-time adaptive matched field processing (STAMP)Chapter 19: Space-time signal processing for surface ship towed active sonarChapter 20: EM and SAGE algorithms for towed array dataChapter 21: The common reflection surface (CRS) stack - a data-driven space-time adaptive seismic reflection imaging procedureSection B Miscellaneous space-time processing applications: Part IX: Space-time techniques in communicationsChapter 22: STAP for space/code/time division multiple access systemsChapter 23: Underwater communication with vertical receiver arraysChapter 24: Reduced-rank interference suppression and equalisation for GPS and downlink CDMAChapter 25: Introduction to space-time coding