Chaotic Compressive Spectrum Sensing Based on Chebyshev Map for Cognitive Radio Networks

Recently, the chaotic compressive sensing paradigm has been widely used in many areas, due to its ability to reduce data acquisition time with high security. For cognitive radio networks (CRNs), this mechanism aims at detecting the spectrum holes based on few measurements taken from the original spa...

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Main Authors: Salma Benazzouza, Mohammed Ridouani, Fatima Salahdine, Aawatif Hayar
Format: Article
Language:English
Published: MDPI AG 2021-03-01
Series:Symmetry
Subjects:
Online Access:https://www.mdpi.com/2073-8994/13/3/429
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author Salma Benazzouza
Mohammed Ridouani
Fatima Salahdine
Aawatif Hayar
author_facet Salma Benazzouza
Mohammed Ridouani
Fatima Salahdine
Aawatif Hayar
author_sort Salma Benazzouza
collection DOAJ
description Recently, the chaotic compressive sensing paradigm has been widely used in many areas, due to its ability to reduce data acquisition time with high security. For cognitive radio networks (CRNs), this mechanism aims at detecting the spectrum holes based on few measurements taken from the original sparse signal. To ensure a high performance of the acquisition and recovery process, the choice of a suitable sensing matrix and the appropriate recovery algorithm should be done carefully. In this paper, a new chaotic compressive spectrum sensing (CSS) solution is proposed for cooperative CRNs based on the Chebyshev sensing matrix and the Bayesian recovery via Laplace prior. The chaotic sensing matrix is used first to acquire and compress the high-dimensional signal, which can be an interesting topic to be published in symmetry journal, especially in the data-compression subsection. Moreover, this type of matrix provides reliable and secure spectrum detection as opposed to random sensing matrix, since any small change in the initial parameters generates a different sensing matrix. For the recovery process, unlike the convex and greedy algorithms, Bayesian models are fast, require less measurement, and deal with uncertainty. Numerical simulations prove that the proposed combination is highly efficient, since the Bayesian algorithm with the Chebyshev sensing matrix provides superior performances, with compressive measurements. Technically, this number can be reduced to 20% of the length and still provides a substantial performance.
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spelling doaj.art-4ba5c7d499244cc08cc49aa73145064c2023-12-03T12:53:46ZengMDPI AGSymmetry2073-89942021-03-0113342910.3390/sym13030429Chaotic Compressive Spectrum Sensing Based on Chebyshev Map for Cognitive Radio NetworksSalma Benazzouza0Mohammed Ridouani1Fatima Salahdine2Aawatif Hayar3RITM Laboratory, CED Engineering Sciences, Hassan II University, Casablanca 20000, MoroccoRITM Laboratory, CED Engineering Sciences, Hassan II University, Casablanca 20000, MoroccoDepartment of Electrical and Computer Engineering, The University of North Carolina at Charlotte, Charlotte, NC 28223, USARITM Laboratory, CED Engineering Sciences, Hassan II University, Casablanca 20000, MoroccoRecently, the chaotic compressive sensing paradigm has been widely used in many areas, due to its ability to reduce data acquisition time with high security. For cognitive radio networks (CRNs), this mechanism aims at detecting the spectrum holes based on few measurements taken from the original sparse signal. To ensure a high performance of the acquisition and recovery process, the choice of a suitable sensing matrix and the appropriate recovery algorithm should be done carefully. In this paper, a new chaotic compressive spectrum sensing (CSS) solution is proposed for cooperative CRNs based on the Chebyshev sensing matrix and the Bayesian recovery via Laplace prior. The chaotic sensing matrix is used first to acquire and compress the high-dimensional signal, which can be an interesting topic to be published in symmetry journal, especially in the data-compression subsection. Moreover, this type of matrix provides reliable and secure spectrum detection as opposed to random sensing matrix, since any small change in the initial parameters generates a different sensing matrix. For the recovery process, unlike the convex and greedy algorithms, Bayesian models are fast, require less measurement, and deal with uncertainty. Numerical simulations prove that the proposed combination is highly efficient, since the Bayesian algorithm with the Chebyshev sensing matrix provides superior performances, with compressive measurements. Technically, this number can be reduced to 20% of the length and still provides a substantial performance.https://www.mdpi.com/2073-8994/13/3/429compressive sensingchaotic sensing matricesChebyshev mapBayesian modelsspectrum sensingcognitive radio networks
spellingShingle Salma Benazzouza
Mohammed Ridouani
Fatima Salahdine
Aawatif Hayar
Chaotic Compressive Spectrum Sensing Based on Chebyshev Map for Cognitive Radio Networks
Symmetry
compressive sensing
chaotic sensing matrices
Chebyshev map
Bayesian models
spectrum sensing
cognitive radio networks
title Chaotic Compressive Spectrum Sensing Based on Chebyshev Map for Cognitive Radio Networks
title_full Chaotic Compressive Spectrum Sensing Based on Chebyshev Map for Cognitive Radio Networks
title_fullStr Chaotic Compressive Spectrum Sensing Based on Chebyshev Map for Cognitive Radio Networks
title_full_unstemmed Chaotic Compressive Spectrum Sensing Based on Chebyshev Map for Cognitive Radio Networks
title_short Chaotic Compressive Spectrum Sensing Based on Chebyshev Map for Cognitive Radio Networks
title_sort chaotic compressive spectrum sensing based on chebyshev map for cognitive radio networks
topic compressive sensing
chaotic sensing matrices
Chebyshev map
Bayesian models
spectrum sensing
cognitive radio networks
url https://www.mdpi.com/2073-8994/13/3/429
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AT mohammedridouani chaoticcompressivespectrumsensingbasedonchebyshevmapforcognitiveradionetworks
AT fatimasalahdine chaoticcompressivespectrumsensingbasedonchebyshevmapforcognitiveradionetworks
AT aawatifhayar chaoticcompressivespectrumsensingbasedonchebyshevmapforcognitiveradionetworks