Rapid Binary Gage Function to Extract a Pulsed Signal Buried in Noise

<p/> <p>The type of signal studied in this paper is a periodic pulse, with the pulse length short compared to the period, and the signal is buried in noise. If standard techniques such as the fast Fourier transform are used to study the signal, the data record needs to be very long. Addi...

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Main Authors: Bagaria William J, Fahey Richard P, Garcia Sonia MF, Ratcliffe Colin
Format: Article
Language:English
Published: SpringerOpen 2004-01-01
Series:EURASIP Journal on Advances in Signal Processing
Subjects:
Online Access:http://dx.doi.org/10.1155/S111086570440701X
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author Bagaria William J
Fahey Richard P
Garcia Sonia MF
Ratcliffe Colin
author_facet Bagaria William J
Fahey Richard P
Garcia Sonia MF
Ratcliffe Colin
author_sort Bagaria William J
collection DOAJ
description <p/> <p>The type of signal studied in this paper is a periodic pulse, with the pulse length short compared to the period, and the signal is buried in noise. If standard techniques such as the fast Fourier transform are used to study the signal, the data record needs to be very long. Additionally, there would be a very large number of calculations. The rapid binary gage function was developed to quickly determine the period of the signal, and the start time of the first pulse in the data. Once these two parameters are determined, the pulsed signal can be recovered using a standard data folding and adding technique.</p>
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spelling doaj.art-e5992b2244f34a71a2437cdbe1ca5ad52022-12-22T03:45:31ZengSpringerOpenEURASIP Journal on Advances in Signal Processing1687-61721687-61802004-01-01200413429289Rapid Binary Gage Function to Extract a Pulsed Signal Buried in NoiseBagaria William JFahey Richard PGarcia Sonia MFRatcliffe Colin<p/> <p>The type of signal studied in this paper is a periodic pulse, with the pulse length short compared to the period, and the signal is buried in noise. If standard techniques such as the fast Fourier transform are used to study the signal, the data record needs to be very long. Additionally, there would be a very large number of calculations. The rapid binary gage function was developed to quickly determine the period of the signal, and the start time of the first pulse in the data. Once these two parameters are determined, the pulsed signal can be recovered using a standard data folding and adding technique.</p>http://dx.doi.org/10.1155/S111086570440701Xrapid binary gage functionsignalpulsed signalnoise
spellingShingle Bagaria William J
Fahey Richard P
Garcia Sonia MF
Ratcliffe Colin
Rapid Binary Gage Function to Extract a Pulsed Signal Buried in Noise
EURASIP Journal on Advances in Signal Processing
rapid binary gage function
signal
pulsed signal
noise
title Rapid Binary Gage Function to Extract a Pulsed Signal Buried in Noise
title_full Rapid Binary Gage Function to Extract a Pulsed Signal Buried in Noise
title_fullStr Rapid Binary Gage Function to Extract a Pulsed Signal Buried in Noise
title_full_unstemmed Rapid Binary Gage Function to Extract a Pulsed Signal Buried in Noise
title_short Rapid Binary Gage Function to Extract a Pulsed Signal Buried in Noise
title_sort rapid binary gage function to extract a pulsed signal buried in noise
topic rapid binary gage function
signal
pulsed signal
noise
url http://dx.doi.org/10.1155/S111086570440701X
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AT garciasoniamf rapidbinarygagefunctiontoextractapulsedsignalburiedinnoise
AT ratcliffecolin rapidbinarygagefunctiontoextractapulsedsignalburiedinnoise