Complex Correntropy Applied to a Compressive Sensing Problem in an Impulsive Noise Environment

Correntropy is a similarity function capable of extracting high-order statistical information from data. It has been used in different kinds of applications as a cost function to overcome traditional methods in non-Gaussian noise environments. One of the recent applications of correntropy was in the...

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Main Authors: Joao P. F. Guimaraes, Felipe B. Da Silva, Aluisio I. R. Fontes, Ricardo Von Borries, Allan De M. Martins
Format: Article
Language:English
Published: IEEE 2019-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/8871128/
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author Joao P. F. Guimaraes
Felipe B. Da Silva
Aluisio I. R. Fontes
Ricardo Von Borries
Allan De M. Martins
author_facet Joao P. F. Guimaraes
Felipe B. Da Silva
Aluisio I. R. Fontes
Ricardo Von Borries
Allan De M. Martins
author_sort Joao P. F. Guimaraes
collection DOAJ
description Correntropy is a similarity function capable of extracting high-order statistical information from data. It has been used in different kinds of applications as a cost function to overcome traditional methods in non-Gaussian noise environments. One of the recent applications of correntropy was in the theory of compressive sensing, which takes advantage of sparsity in a transformed domain to reconstruct the signal from a few measurements. Recently, an algorithm called &#x2113;<sub>0</sub>-MCC was introduced. It applies the Maximum Correntropy Criterion (MCC) in order to deal with a non-Gaussian noise environment in a compressive sensing problem. However, because correntropy was only defined for real-valued data, it was not possible to apply the &#x2113;<sub>0</sub>-MCC algorithm in a straightforward way to compressive sensing problems dealing with complex-valued measurements. This paper presents a generalization of the &#x2113;<sub>0</sub>-MCC algorithm to complex-valued measurements. Simulations show that the proposed algorithm can outperform traditional minimization algorithms such as Nesterov's algorithm (NESTA) and the &#x2113;<sub>0</sub>-Least Mean Square (&#x2113;<sub>0</sub>-LMS) in the presence of non-Gaussian noise.
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spelling doaj.art-e20ee33c52bb4abf801889f8259cecc92022-12-21T23:06:20ZengIEEEIEEE Access2169-35362019-01-01715165215166010.1109/ACCESS.2019.29477648871128Complex Correntropy Applied to a Compressive Sensing Problem in an Impulsive Noise EnvironmentJoao P. F. Guimaraes0https://orcid.org/0000-0002-5503-4246Felipe B. Da Silva1Aluisio I. R. Fontes2https://orcid.org/0000-0002-1888-3505Ricardo Von Borries3Allan De M. Martins4Department of Information, Federal Institute of Rio Grande do Norte, Jo&#x00E3;o C&#x00E2;mara, BrazilDepartment of Electrical and Computer Engineering, The University of Texas at El Paso, El Paso, TX, USADepartment of Information, Federal Institute of Rio Grande do Norte, Pau dos Ferros, BrazilDepartment of Electrical and Computer Engineering, The University of Texas at El Paso, El Paso, TX, USADept. of Electr. Eng., Fed. Univ. of Rio Grande do Norte, Natal, BrazilCorrentropy is a similarity function capable of extracting high-order statistical information from data. It has been used in different kinds of applications as a cost function to overcome traditional methods in non-Gaussian noise environments. One of the recent applications of correntropy was in the theory of compressive sensing, which takes advantage of sparsity in a transformed domain to reconstruct the signal from a few measurements. Recently, an algorithm called &#x2113;<sub>0</sub>-MCC was introduced. It applies the Maximum Correntropy Criterion (MCC) in order to deal with a non-Gaussian noise environment in a compressive sensing problem. However, because correntropy was only defined for real-valued data, it was not possible to apply the &#x2113;<sub>0</sub>-MCC algorithm in a straightforward way to compressive sensing problems dealing with complex-valued measurements. This paper presents a generalization of the &#x2113;<sub>0</sub>-MCC algorithm to complex-valued measurements. Simulations show that the proposed algorithm can outperform traditional minimization algorithms such as Nesterov's algorithm (NESTA) and the &#x2113;<sub>0</sub>-Least Mean Square (&#x2113;<sub>0</sub>-LMS) in the presence of non-Gaussian noise.https://ieeexplore.ieee.org/document/8871128/Complex correntropycomplex-valued datacompressive sensingl₀–approximation
spellingShingle Joao P. F. Guimaraes
Felipe B. Da Silva
Aluisio I. R. Fontes
Ricardo Von Borries
Allan De M. Martins
Complex Correntropy Applied to a Compressive Sensing Problem in an Impulsive Noise Environment
IEEE Access
Complex correntropy
complex-valued data
compressive sensing
l₀–approximation
title Complex Correntropy Applied to a Compressive Sensing Problem in an Impulsive Noise Environment
title_full Complex Correntropy Applied to a Compressive Sensing Problem in an Impulsive Noise Environment
title_fullStr Complex Correntropy Applied to a Compressive Sensing Problem in an Impulsive Noise Environment
title_full_unstemmed Complex Correntropy Applied to a Compressive Sensing Problem in an Impulsive Noise Environment
title_short Complex Correntropy Applied to a Compressive Sensing Problem in an Impulsive Noise Environment
title_sort complex correntropy applied to a compressive sensing problem in an impulsive noise environment
topic Complex correntropy
complex-valued data
compressive sensing
l₀–approximation
url https://ieeexplore.ieee.org/document/8871128/
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