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Detecting chaos in particle accelerators through the frequency map analysis method

The motion of beams in particle accelerators is dominated by a plethora of non-linear effects which can enhance chaotic motion and limit their performance. The application of advanced non-linear dynamics methods for detecting and correcting these effects and thereby increasing the region of beam sta...

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Autor principal: Papaphilippou, Yannis
Lenguaje:eng
Publicado: 2014
Materias:
Acceso en línea:https://dx.doi.org/10.1063/1.4884495
http://cds.cern.ch/record/1708155
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author Papaphilippou, Yannis
author_facet Papaphilippou, Yannis
author_sort Papaphilippou, Yannis
collection CERN
description The motion of beams in particle accelerators is dominated by a plethora of non-linear effects which can enhance chaotic motion and limit their performance. The application of advanced non-linear dynamics methods for detecting and correcting these effects and thereby increasing the region of beam stability plays an essential role during the accelerator design phase but also their operation. After describing the nature of non-linear effects and their impact on performance parameters of different particle accelerator categories, the theory of non-linear particle motion is outlined. The recent developments on the methods employed for the analysis of chaotic beam motion are detailed. In particular, the ability of the frequency map analysis method to detect chaotic motion and guide the correction of non-linear effects is demonstrated in particle tracking simulations but also experimental data.
id cern-1708155
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2014
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spelling cern-17081552021-05-03T20:17:55Zdoi:10.1063/1.4884495http://cds.cern.ch/record/1708155engPapaphilippou, YannisDetecting chaos in particle accelerators through the frequency map analysis methodnlin.CDThe motion of beams in particle accelerators is dominated by a plethora of non-linear effects which can enhance chaotic motion and limit their performance. The application of advanced non-linear dynamics methods for detecting and correcting these effects and thereby increasing the region of beam stability plays an essential role during the accelerator design phase but also their operation. After describing the nature of non-linear effects and their impact on performance parameters of different particle accelerator categories, the theory of non-linear particle motion is outlined. The recent developments on the methods employed for the analysis of chaotic beam motion are detailed. In particular, the ability of the frequency map analysis method to detect chaotic motion and guide the correction of non-linear effects is demonstrated in particle tracking simulations but also experimental data.The motion of beams in particle accelerators is dominated by a plethora of non-linear effects, which can enhance chaotic motion and limit their performance. The application of advanced non-linear dynamics methods for detecting and correcting these effects and thereby increasing the region of beam stability plays an essential role during the accelerator design phase but also their operation. After describing the nature of non-linear effects and their impact on performance parameters of different particle accelerator categories, the theory of non-linear particle motion is outlined. The recent developments on the methods employed for the analysis of chaotic beam motion are detailed. In particular, the ability of the frequency map analysis method to detect chaotic motion and guide the correction of non-linear effects is demonstrated in particle tracking simulations but also experimental data.The motion of beams in particle accelerators is dominated by a plethora of non-linear effects which can enhance chaotic motion and limit their performance. The application of advanced non-linear dynamics methods for detecting and correcting these effects and thereby increasing the region of beam stability plays an essential role during the accelerator design phase but also their operation. After describing the nature of non-linear effects and their impact on performance parameters of different particle accelerator categories, the theory of non-linear particle motion is outlined. The recent developments on the methods employed for the analysis of chaotic beam motion are detailed. In particular, the ability of the frequency map analysis method to detect chaotic motion and guide the correction of non-linear effects is demonstrated in particle tracking simulations but also experimental data.arXiv:1406.1545oai:cds.cern.ch:17081552014-06-05
spellingShingle nlin.CD
Papaphilippou, Yannis
Detecting chaos in particle accelerators through the frequency map analysis method
title Detecting chaos in particle accelerators through the frequency map analysis method
title_full Detecting chaos in particle accelerators through the frequency map analysis method
title_fullStr Detecting chaos in particle accelerators through the frequency map analysis method
title_full_unstemmed Detecting chaos in particle accelerators through the frequency map analysis method
title_short Detecting chaos in particle accelerators through the frequency map analysis method
title_sort detecting chaos in particle accelerators through the frequency map analysis method
topic nlin.CD
url https://dx.doi.org/10.1063/1.4884495
http://cds.cern.ch/record/1708155
work_keys_str_mv AT papaphilippouyannis detectingchaosinparticleacceleratorsthroughthefrequencymapanalysismethod