Title:
Resonance and aspect matched adaptive radar (RADAR)
Personal Author:
Publication Information:
New Jersey, NJ. : World Scientific, 2012
Physical Description:
ix, 275 p. : ill. (some col.) ; 25 cm.
ISBN:
9789814329897
Available:*
Library | Item Barcode | Call Number | Material Type | Item Category 1 | Status |
---|---|---|---|---|---|
Searching... | 30000010283734 | QC451 B37 2012 | Open Access Book | Book | Searching... |
On Order
Summary
Summary
The book describes a new form of radar for which the target response is frequency, i.e., resonance-dependent. The book provides both prototype designs and empirical results collected from a variety of targets. The new form of radar, called RAMAR (Resonance and Aspect Matched Adaptive Radar) advances radar -- mere ranging and detection -- to the level of RF spectroscopy, and permits an advance of spectroscopic methods from optical, through infra-red and into the RF spectral range. The book will describe how a target's response can be a function of frequency components in the transmitted signal's envelope as well as the signal's carrier.
Table of Contents
Preface | p. v |
Introduction | p. 1 |
1 A Priori and A Posteriori Information Captures | p. 9 |
2 LTI versus LTV Systems | p. 19 |
3 Signal Envelope Match vs Carrier Match | p. 26 |
4 Target Modeling and Identification by Coherence Functions | p. 27 |
5 The WH Transform & WHWFs | p. 35 |
6 Treatment of Nonstationary Signals | p. 41 |
7 Carrier Frequency-Envelope Frequency (CFEF) Spectra | p. 43 |
8 Polarization | p. 44 |
Part 1 Ka-Band MAP Prototype | p. 45 |
1.1 Ka-Band MAP System | p. 45 |
1.2 Targets Addressed by the Ka-Band System | p. 45 |
1.3 Mie (Resonance), Optical & Rayleigh Scattering | p. 45 |
1.4 Return Signal SNR Enhancement | p. 48 |
1.5 Corner Reflector Tests | p. 49 |
1.6 Exclusive & Inclusive Optimum Transmit Signal Design for Target Aspect Independent Recognition | p. 50 |
1.7 Vehicle Targets | p. 59 |
1.8 Model Targets | p. 61 |
1.9 Nonlinear Combination of Separate Subcomponent Target Minor Resonances | p. 62 |
1.10 Target Identification | p. 66 |
1.10.1 Singular value decomposition | p. 75 |
1.10.2 Independent component analysis | p. 75 |
1.10.3 Aspect independence | p. 76 |
1.11 Selective Enhancement of Target Major & Minor Resonances | p. 77 |
1.12 Target Surface Detection | p. 79 |
1.13 Nonlocal Transformations: Wigner-Ville Distribution & Ambiguity Function | p. 82 |
1.13.1 Wigner-Ville distribution | p. 89 |
1.13.2 Ambiguity Function | p. 96 |
1.14 Nonlocal Transformations: Hilbert-Huang Transform | p. 110 |
1.15 Nonlocal Transformations: Quadratic Fractional Fourier Transform | p. 126 |
1.16 Weber-Hermite Transforms: Local & Global | p. 142 |
1.17 Radon Transform | p. 157 |
1.18 Frequency Decomposition: Independent Component Analysis, Matching Pursuit, Complexity Pursuit, Blind Source Separation | p. 169 |
Part 2 UHF-Band MAP Prototype | p. 179 |
2.0.0 ITU MAP System | p. 179 |
2.1.0 Ground Tests Through Foliage | p. 181 |
2.1.1 Target: Barrels | p. 182 |
2.1.2 Target: Roof Panels | p. 182 |
2.1.3 Target: Microwave Oven | p. 182 |
2.1.4 Targets: Trucks | p. 182 |
2.1.5 Target: Artillery Shell | p. 192 |
2.2.0 Anechoic Chamber Tests | p. 196 |
2.2.1 Target: Barrel Aspect Up: PRX | p. 197 |
2.2.2 Target: Barrel Aspect Side: PRX | p. 198 |
2.2.3 Target: Generator: PRX | p. 198 |
2.2.4 Target: Microwave Oven: PRX | p. 199 |
2.2.5 Target: Roof Panel: PRX | p. 199 |
2.2.6 Target: Truck: PRX | p. 206 |
2.2.7 Multiple-Window Spectra | p. 207 |
2.2.8 Target Linear Frequency Response Functions | p. 212 |
2.2.9 Carrier Frequency-Envelope Frequency (CFEF) Spectra | p. 215 |
2.3.0 Flight Tests of FOPEN RAMAR | p. 221 |
2.3.1 Target Detection Under Foliage | p. 229 |
2.3.2 Comparisons of the Results of the Anechoic Chamber Tests and the Flight Tests | p. 236 |
2.4.0 Summary and System Improvements | p. 242 |
Appendix | p. 245 |
References | p. 261 |
Glossary | p. 271 |
Index | p. 273 |