Detecting and Classifying Low Probability of Intercept Radar, 1±Ç

¾ÕÇ¥Áö
Artech House, 2004 - 455ÆäÀÌÁö
The drive is on to devise LPI radar systems that evade hostile detection as well as develop non-cooperative intercept devices that outsmart enemy LPI radar. Based on the author's own design experience, this comprehensive, hands-on book gives you the latest design and development techniques to innovate new LPI radar systems and discover new ways to intercept enemy LPI radar. and help you visually identify waveform parameters. Filled with more than 500 equations that provide rigorous mathematical detail, this book can be used by both entry-level and seasoned engineers. Besides thoroughly treating LPI radar theory and intercept signal processing, this book includes such real-world applications as anti-ship cruise missile LPI seeker solutions. The CD-ROM contains MATLAB code that you can use on the job to evaluate complex LPI radar-receiver interactions.
 

¼±ÅÃµÈ ÆäÀÌÁö

¸ñÂ÷

LPI Technology and Applications
37
Ambiguity Analysis of LPI Waveforms
59
FMCW Radar
73
Phase Shift Keying Techniques
113
Frequency Shift Keying Techniques
169
Strategies for Intercepting LPI Radar Signals
209
WignerVille Distribution Analysis of LPI Radar
221
Problems
261
FPWVD Results for P1 P2 P3 and P4 Codes
363
G PWVD Results for Polytime Codes T22 T32
373
H QMFB Results for FMCW with AF 500 Hz
385
JQMFB Results for Frank Signal with N 16
391
K QMFB Results for P1 P2 P3 and P4
395
LQMFB Results for T22 T32 and T42
411
Cyclostationary Processing Results with FMCW
419
O Cyclostationary Processing Results for P1 P2 P3
427

LPI Radar Analysis Using Quadrature Mirror Filtering
263
Cyclostationary Spectral Analysis for Detection
305
Concluding Remarks
339
B Generating PAF Plots Using the LPIT Files
347
PWVD for FMCW with AF 500 Hz
355
P Cyclostationary Processing Results for T22 T32
435
List of Acronyms
443
Index
449
ÀúÀÛ±Ç

±âŸ ÃâÆÇº» - ¸ðµÎ º¸±â

ÀÚÁÖ ³ª¿À´Â ´Ü¾î ¹× ±¸¹®

Àαâ Àο뱸

xviii ÆäÀÌÁö - It is hoped that this will lead to a better understanding of the underlying

ÀÌ Ã¥À» ÂüÁ¶ÇÑ ÀÚ·á

ÀúÀÚ Á¤º¸ (2004)

Phillip E. Pace received his Ph.D. in Electrical and Computer Engineering from the University of Cincinnati, and his M.S.E.E. from Ohio University. Pace is a professor at the Naval Postgraduate School in Monterey, California, and was previously a design specialist with General Dynamics Corporation. He is a senior member of the IEEE Circuits and Systems Society, a member of SPIE, and chairman of the U.S. Navys Threat Simulator Validation Working Group.

µµ¼­ ¹®ÇåÁ¤º¸