Introduction to Radar AnalysisIntroduction to Radar Analysis outlines the fundamental principles and applications of radar as well as important mathematical derivations - serving as a reference for engineers, technical managers, and students. This comprehensive book divides into two parts: Chapters contain: Introduction to Radar Analysis acts as an essential stepping stone toward specialized topics - providing a clear, accessible framework of radar fundamentals as well as a thorough study of advanced topics and radar technology issues. |
Contents
Chapter | 1 |
Chapter | 3 |
Energy and Power Spectrum Densities | 7 |
Appendix | 13 |
Random Processes | 15 |
The Discrete Fourier Transform | 21 |
Problems | 27 |
Chapter 2 | 33 |
PROBABILITY OF DETECTION AND RADAR | 91 |
Chapter 9 | 108 |
CONTINUOUS WAVE AND PULSED RADARS | 117 |
Chapter 6 | 145 |
CLUTTER AND RADAR WAVE PROPAGATION | 185 |
MOVING TARGET INDICATOR MTI | 215 |
TARGET TRACKING RADAR SYSTEMS | 237 |
Chapter 10 | 267 |
Range Resolution | 39 |
Coherence | 51 |
Chapter 8 | 53 |
Problems | 59 |
RECEIVER NOISE | 61 |
SYNTHETIC APERTURE RADAR | 287 |
FOURIER TRANSFORM TABLE | 311 |
Bibliography | 317 |
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Common terms and phrases
ambiguity function antenna gain aperture Assume autocorrelation function azimuth bandwidth Barker code beam width clutter power coefficient Compute Consider corresponding CW radars defined delay line canceler denoted density detector Doppler frequency Doppler shift envelope detector equal false alarm follows Fourier series Fourier transform frequency modulation given grazing angle high PRF improvement factor impulse response integration jammer LFM waveform linear loss main lobe matched filter maximum modulation monopulse n₁ noise figure noise power normally phased array probability of detection pulse compression pulse width pulsed radar quadrature components R₁ radar ambiguity function radar cross radar equation radar receiver radar systems random variable range gate range resolution ratio received signal sample scan sequence shown in Fig side lobe signal x(t Substituting Eq Swerling T₁ t₂ target returns tion tracking axis transmit and receive unambiguous range voltage wave waveform wavelength zero