Characterization of laser propagation through turbulent media by quantifiers based on the wavelet transform

The propagation of a laser beam through turbulent media is modeled as a fractional Brownian motion (fBm). Time series corresponding to the center position of the laser spot (coordinates x and y) after traveling across air in turbulent motion, with different strength, are analyzed by the wavelet theo...

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Detalles Bibliográficos
Publicado:	2004
Materias:	Fractional Brownian Motion Hurst Exponent Laser Propagation Signal Entropy Time-Frequency Signal Analysis Turbulence Wavelet Analysis Characterization Entropy Fractals Time series analysis Turbulent flow Wavelet transforms Fractional brownian motion Hurst exponent Laser propagation Signal entropy Time-frquency signal analysis Wavelet analysis Lasers
Acceso en línea:	https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_0218348X_v12_n2_p223_Zunino http://hdl.handle.net/20.500.12110/paper_0218348X_v12_n2_p223_Zunino
Aporte de:	Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA) de Universidad de Buenos Aires

id	paper:paper_0218348X_v12_n2_p223_Zunino
record_format	dspace
spelling	paper:paper_0218348X_v12_n2_p223_Zunino2023-06-08T15:21:34Z Characterization of laser propagation through turbulent media by quantifiers based on the wavelet transform Fractional Brownian Motion Hurst Exponent Laser Propagation Signal Entropy Time-Frequency Signal Analysis Turbulence Wavelet Analysis Characterization Entropy Fractals Time series analysis Turbulent flow Wavelet transforms Fractional brownian motion Hurst exponent Laser propagation Signal entropy Time-frquency signal analysis Wavelet analysis Lasers The propagation of a laser beam through turbulent media is modeled as a fractional Brownian motion (fBm). Time series corresponding to the center position of the laser spot (coordinates x and y) after traveling across air in turbulent motion, with different strength, are analyzed by the wavelet theory. Two quantifiers are calculated, the Hurst exponent, H, and the mean Normalized Total Wavelet Entropy, S̃WT. It is verified that both quantifiers give complementary information about the turbulence. 2004 https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_0218348X_v12_n2_p223_Zunino http://hdl.handle.net/20.500.12110/paper_0218348X_v12_n2_p223_Zunino
institution	Universidad de Buenos Aires
institution_str	I-28
repository_str	R-134
collection	Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic	Fractional Brownian Motion Hurst Exponent Laser Propagation Signal Entropy Time-Frequency Signal Analysis Turbulence Wavelet Analysis Characterization Entropy Fractals Time series analysis Turbulent flow Wavelet transforms Fractional brownian motion Hurst exponent Laser propagation Signal entropy Time-frquency signal analysis Wavelet analysis Lasers
spellingShingle	Fractional Brownian Motion Hurst Exponent Laser Propagation Signal Entropy Time-Frequency Signal Analysis Turbulence Wavelet Analysis Characterization Entropy Fractals Time series analysis Turbulent flow Wavelet transforms Fractional brownian motion Hurst exponent Laser propagation Signal entropy Time-frquency signal analysis Wavelet analysis Lasers Characterization of laser propagation through turbulent media by quantifiers based on the wavelet transform
topic_facet	Fractional Brownian Motion Hurst Exponent Laser Propagation Signal Entropy Time-Frequency Signal Analysis Turbulence Wavelet Analysis Characterization Entropy Fractals Time series analysis Turbulent flow Wavelet transforms Fractional brownian motion Hurst exponent Laser propagation Signal entropy Time-frquency signal analysis Wavelet analysis Lasers
description	The propagation of a laser beam through turbulent media is modeled as a fractional Brownian motion (fBm). Time series corresponding to the center position of the laser spot (coordinates x and y) after traveling across air in turbulent motion, with different strength, are analyzed by the wavelet theory. Two quantifiers are calculated, the Hurst exponent, H, and the mean Normalized Total Wavelet Entropy, S̃WT. It is verified that both quantifiers give complementary information about the turbulence.
title	Characterization of laser propagation through turbulent media by quantifiers based on the wavelet transform
title_short	Characterization of laser propagation through turbulent media by quantifiers based on the wavelet transform
title_full	Characterization of laser propagation through turbulent media by quantifiers based on the wavelet transform
title_fullStr	Characterization of laser propagation through turbulent media by quantifiers based on the wavelet transform
title_full_unstemmed	Characterization of laser propagation through turbulent media by quantifiers based on the wavelet transform
title_sort	characterization of laser propagation through turbulent media by quantifiers based on the wavelet transform
publishDate	2004
url	https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_0218348X_v12_n2_p223_Zunino http://hdl.handle.net/20.500.12110/paper_0218348X_v12_n2_p223_Zunino
_version_	1768546580886978560

Characterization of laser propagation through turbulent media by quantifiers based on the wavelet transform

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