Joint Sequential use of the Reassigned Smoothed Pseudo Wigner-Ville Distribution and the Hough Transform vs. the Reassigned Smoothed Pseudo Wigner-Ville Distribution for Detecting Low Probability of Intercept Frequency Shift Keying Radar Signals in High Noise Environments
Digital intercept receivers have moved away from Fourier-based analysis techniques, towards classical time-frequency analysis techniques, for the purpose of analyzing low probability of intercept radar signals. This paper presents the novel approach of detecting low probability of intercept frequency shift keying radar signals through utilization and direct comparison of the joint sequential use of the Reassigned Smoothed Pseudo Wigner Ville Distribution and the Hough Transform versus the Reassigned Smoothed Pseudo Wigner Ville Distribution. Frequency shift keying signals were analyzed. The following metrics were used for evaluation: percent detection, and lowest signal-to-noise ratio for signal detection. Experimental results demonstrate that overall, the joint sequential use of the Reassigned Smoothed Pseudo Wigner Ville Distribution and the Hough Transform produced more accurate detection metrics than the Reassigned Smoothed Pseudo Wigner Ville Distribution.
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Joint Sequential use of the Reassigned Smoothed Pseudo Wigner-Ville Distribution and the Hough Transform vs. the Reassigned Smoothed Pseudo Wigner-Ville Distribution for Detecting Low Probability of Intercept Frequency Shift Keying Radar Signals in High Noise Environments
Daniel StevensAir Force Research Laboratory
Solomon Stevens<p>Northwest Missouri State University</p>