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Acceleration of particles in plasmas

The accelerating fields in radio-frequency accelerators are limited to roughly 100 MV/m due to material breakdown which occurs on the walls of the structure. In contrast, a plasma, being already ionized, can support electric fields in excess of 100 GV/m. Such high accelerating gradients hold the pro...

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Autor principal: Faure, Jérôme
Lenguaje:eng
Publicado: 2007
Materias:
Acceso en línea:http://cds.cern.ch/record/996151
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author Faure, Jérôme
author_facet Faure, Jérôme
author_sort Faure, Jérôme
collection CERN
description The accelerating fields in radio-frequency accelerators are limited to roughly 100 MV/m due to material breakdown which occurs on the walls of the structure. In contrast, a plasma, being already ionized, can support electric fields in excess of 100 GV/m. Such high accelerating gradients hold the promise of compact particle accelerators. Plasma acceleration has been an emerging and fast growing field of research in the past two decades. In this series of lectures, we will review the principles of plasma acceleration. We will see how relativistic plasma waves can be excited using an ultra-intense laser or using a particle beam. We will see how these plasma waves can be used to accelerate electrons to high energy in short distances. Throughout the lectures, we will also review recent experimental results. Current laser-plasma experiments throughout the world have shown that monoenergetic electron beams from 100 MeV to 1 GeV can be obtained in distances ranging from the millimetre to the centimetre. Experiments at SLAC (Stanford) have witnessed energy gains of tens of GeV in a distance of a metre.
id cern-996151
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2007
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spelling cern-9961512022-11-03T08:16:21Zhttp://cds.cern.ch/record/996151engFaure, JérômeAcceleration of particles in plasmasAccelerators and Storage RingsThe accelerating fields in radio-frequency accelerators are limited to roughly 100 MV/m due to material breakdown which occurs on the walls of the structure. In contrast, a plasma, being already ionized, can support electric fields in excess of 100 GV/m. Such high accelerating gradients hold the promise of compact particle accelerators. Plasma acceleration has been an emerging and fast growing field of research in the past two decades. In this series of lectures, we will review the principles of plasma acceleration. We will see how relativistic plasma waves can be excited using an ultra-intense laser or using a particle beam. We will see how these plasma waves can be used to accelerate electrons to high energy in short distances. Throughout the lectures, we will also review recent experimental results. Current laser-plasma experiments throughout the world have shown that monoenergetic electron beams from 100 MeV to 1 GeV can be obtained in distances ranging from the millimetre to the centimetre. Experiments at SLAC (Stanford) have witnessed energy gains of tens of GeV in a distance of a metre.oai:cds.cern.ch:9961512007-05-21
spellingShingle Accelerators and Storage Rings
Faure, Jérôme
Acceleration of particles in plasmas
title Acceleration of particles in plasmas
title_full Acceleration of particles in plasmas
title_fullStr Acceleration of particles in plasmas
title_full_unstemmed Acceleration of particles in plasmas
title_short Acceleration of particles in plasmas
title_sort acceleration of particles in plasmas
topic Accelerators and Storage Rings
url http://cds.cern.ch/record/996151
work_keys_str_mv AT faurejerome accelerationofparticlesinplasmas