Chargement en cours…

Detecting and Classifying Low Probability of Intercept Radar.

This revised and expanded second edition brings you to the cutting edge with new chapters on LPI radar design, including over-the-horizon radar, random noise radar, and netted LPI radar. You also discover critical LPI detection techniques, parameter extraction signal processing techniques, and anti-...

Description complète

Détails bibliographiques
Cote:Libro Electrónico
Auteur principal: Pace, Philip E.
Format: Électronique eBook
Langue:Inglés
Publié: Norwood : Artech House, 2008.
Édition:2nd ed.
Sujets:
Accès en ligne:Texto completo
Table des matières:
  • Detecting and Classifying Low Probability of Intercept Radar Second Edition; Contents; Foreword; Preface; Acknowledgments; PART I: FUNDAMENTALS OF LPI RADAR DESIGN; Chapter 1 To See and Not Be Seen; 1.1 The Requirement for LPI; 1.2 Characteristics of LPI Radar; 1.2.1 Antenna Considerations; 1.2.2 Achieving Ultra-Low Side Lobes; 1.2.3 Antenna Scan Patterns for Search Processing; 1.2.4 Advanced Multifunction RF Concept; 1.2.5 Transmitter Considerations; 1.2.6 Power Management; 1.2.7 Carrier Frequency Considerations; 1.3 Pulse Compression-The Key to LPI Radar; 1.4 Radar Detection Range.
  • 1.5 Interception Range1.6 Comparing Radar Range and Interception Range; 1.7 The Pilot LPI Radar; 1.8 Concluding Remarks; References; Problems; Chapter 2 LPI Technology and Applications; 2.1 Altimeters; 2.1.1 Introduction; 2.1.2 Fielded LPI Altimeters; 2.2 Landing Systems; 2.2.1 Introduction; 2.2.2 Fielded LPI Landing Systems; 2.3 Surveillance and Fire Control Radar; 2.3.1 Battlefield Awareness; 2.3.2 LPI Ground-Based Systems; 2.3.3 LPI Airborne Systems; 2.4 Antiship Capable Missile and Torpedo Seekers; 2.4.1 A Significant Threat to Surface Navies; 2.4.2 Fielded LPI Seeker Systems.
  • 2.5 Summary of LPI Radar SystemsReferences; Problems; Chapter 3 Ambiguity Analysis of LPI Waveforms; 3.1 The Ambiguity Function; 3.2 Periodic Autocorrelation Function; 3.3 Periodic Ambiguity Function; 3.3.1 Periodicity of the PAF; 3.3.2 Peak and Integrated Side Lobe Levels; 3.4 Frank Phase Modulation Example; 3.4.1 Transmitted Waveform; 3.4.2 Simulation Results; 3.5 Reducing the Doppler Side Lobes; References; Problems; Chapter 4 FMCW Radar; 4.1 Advantages of FMCW; 4.2 Single Antenna LPI Radar for Target Detection; 4.3 Transmitted Waveform Design; 4.3.1 Triangular Waveform.
  • 4.3.2 Waveform Spectrum4.3.3 Generating Linear FM Waveforms; 4.4 Receiver-Transmitter Isolation; 4.4.1 Transmission Line Basics; 4.4.2 Single Antenna Isolation Using a Circulator; 4.4.3 Single Antenna Isolation Using a Reflected Power Canceler; 4.5 The Received Signal; 4.6 LPI Search Mode Processing; 4.7 Track Mode Processing Techniques; 4.8 Effect of Sweep Nonlinearities; 4.9 Moving Target Indication Filtering; 4.10 Matched Receiver Response; 4.11 Mismatched Receiver Response; 4.12 PANDORA FMCW Radar; 4.13 Electronic Attack Considerations; 4.14 Technology Trends for FMCW Emitters; References.
  • ProblemsChapter 5 Phase Shift Keying Techniques; 5.1 Introduction; 5.2 The Transmitted Signal; 5.3 Binary Phase Codes; 5.4 Polyphase Codes; 5.5 Polyphase Barker Codes; 5.6 Frank Code; 5.7 P1 Code; 5.8 P2 Code; 5.9 P3 Code; 5.10 P4 Code; 5.11 Polytime Codes; 5.11.1 T1(n) Code; 5.11.2 T2(n) Code; 5.11.3 T3(n) Code; 5.11.4 T4(n) Code; 5.12 Omnidirectional LPI Radar; 5.13 Summary; References; Problems; Chapter 6 Frequency Shift KeyingTechniques; 6.1 Advantages of the FSK Radar; 6.2 Description of the FSK CW Signal; 6.3 Range Computation in FSK Radar; 6.4 Costas Codes.