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Correntropy: Properties and Applications in Non-Gaussian Signal Processing

IEEE Transactions on Signal Processing · 2007 · Vol. 55(11) · pp. 5286–5298
Weifeng LiuPuskal P. PokharelJosé C. Prı́ncipe

Abstract

The optimality of second-order statistics depends heavily on the assumption of Gaussianity. In this paper, we elucidate further the probabilistic and geometric meaning of the recently defined correntropy function as a localized similarity measure. A close relationship between correntropy and M-estimation is established. Connections and differences between correntropy and kernel methods are presented. As such correntropy has vastly different properties compared with second-order statistics that can be very useful in non-Gaussian signal processing, especially in the impulsive noise environment. Examples are presented to illustrate the technique.

Blind Source Separation TechniquesAdvanced Adaptive Filtering TechniquesSpeech and Audio ProcessingSignal processingProbabilistic logicComputer sciencePattern recognition (psychology)GaussianArtificial intelligenceGaussian noiseKernel (algebra)Higher-order statisticsSimilarity (geometry)
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References
Theory of reproducing kernels
Transactions of the American Mathematical Society · 1950 · 5,387 citations
Nonlinear Component Analysis as a Kernel Eigenvalue Problem
Neural Computation · 1998 · 8,015 citations
Fast and robust fixed-point algorithms for independent component analysis
IEEE Transactions on Neural Networks · 1999 · 6,288 citations
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