Quantitative single shot and spatially resolved plasma wakefield diagnostics

Diagnosing plasma conditions can give great advantages in optimizing plasma wakefield accelerator experiments. One possible method is that of photon acceleration. By propagating a laser probe pulse through a plasma wakefield and extracting the imposed frequency modulation, one can obtain an image of...

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Main Authors: Muhammad Firmansyah Kasim, James Holloway, Luke Ceurvorst, Matthew C. Levy, Naren Ratan, James Sadler, Robert Bingham, Philip N. Burrows, Raoul Trines, Matthew Wing, Peter Norreys
Format: Article
Language:English
Published: American Physical Society 2015-08-01
Series:Physical Review Special Topics. Accelerators and Beams
Online Access:http://doi.org/10.1103/PhysRevSTAB.18.081302
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spelling doaj-876c6f850573403ea0ef483ec66d031d2020-11-25T00:35:44ZengAmerican Physical SocietyPhysical Review Special Topics. Accelerators and Beams1098-44022015-08-0118808130210.1103/PhysRevSTAB.18.081302Quantitative single shot and spatially resolved plasma wakefield diagnosticsMuhammad Firmansyah KasimJames HollowayLuke CeurvorstMatthew C. LevyNaren RatanJames SadlerRobert BinghamPhilip N. BurrowsRaoul TrinesMatthew WingPeter NorreysDiagnosing plasma conditions can give great advantages in optimizing plasma wakefield accelerator experiments. One possible method is that of photon acceleration. By propagating a laser probe pulse through a plasma wakefield and extracting the imposed frequency modulation, one can obtain an image of the density modulation of the wakefield. In order to diagnose the wakefield parameters at a chosen point in the plasma, the probe pulse crosses the plasma at oblique angles relative to the wakefield. In this paper, mathematical expressions relating the frequency modulation of the laser pulse and the wakefield density profile of the plasma for oblique crossing angles are derived. Multidimensional particle-in-cell simulation results presented in this paper confirm that the frequency modulation profiles and the density modulation profiles agree to within 10%. Limitations to the accuracy of the measurement are discussed in this paper. This technique opens new possibilities to quantitatively diagnose the plasma wakefield density at known positions within the plasma column.http://doi.org/10.1103/PhysRevSTAB.18.081302
collection DOAJ
language English
format Article
sources DOAJ
author Muhammad Firmansyah Kasim
James Holloway
Luke Ceurvorst
Matthew C. Levy
Naren Ratan
James Sadler
Robert Bingham
Philip N. Burrows
Raoul Trines
Matthew Wing
Peter Norreys
spellingShingle Muhammad Firmansyah Kasim
James Holloway
Luke Ceurvorst
Matthew C. Levy
Naren Ratan
James Sadler
Robert Bingham
Philip N. Burrows
Raoul Trines
Matthew Wing
Peter Norreys
Quantitative single shot and spatially resolved plasma wakefield diagnostics
Physical Review Special Topics. Accelerators and Beams
author_facet Muhammad Firmansyah Kasim
James Holloway
Luke Ceurvorst
Matthew C. Levy
Naren Ratan
James Sadler
Robert Bingham
Philip N. Burrows
Raoul Trines
Matthew Wing
Peter Norreys
author_sort Muhammad Firmansyah Kasim
title Quantitative single shot and spatially resolved plasma wakefield diagnostics
title_short Quantitative single shot and spatially resolved plasma wakefield diagnostics
title_full Quantitative single shot and spatially resolved plasma wakefield diagnostics
title_fullStr Quantitative single shot and spatially resolved plasma wakefield diagnostics
title_full_unstemmed Quantitative single shot and spatially resolved plasma wakefield diagnostics
title_sort quantitative single shot and spatially resolved plasma wakefield diagnostics
publisher American Physical Society
series Physical Review Special Topics. Accelerators and Beams
issn 1098-4402
publishDate 2015-08-01
description Diagnosing plasma conditions can give great advantages in optimizing plasma wakefield accelerator experiments. One possible method is that of photon acceleration. By propagating a laser probe pulse through a plasma wakefield and extracting the imposed frequency modulation, one can obtain an image of the density modulation of the wakefield. In order to diagnose the wakefield parameters at a chosen point in the plasma, the probe pulse crosses the plasma at oblique angles relative to the wakefield. In this paper, mathematical expressions relating the frequency modulation of the laser pulse and the wakefield density profile of the plasma for oblique crossing angles are derived. Multidimensional particle-in-cell simulation results presented in this paper confirm that the frequency modulation profiles and the density modulation profiles agree to within 10%. Limitations to the accuracy of the measurement are discussed in this paper. This technique opens new possibilities to quantitatively diagnose the plasma wakefield density at known positions within the plasma column.
url http://doi.org/10.1103/PhysRevSTAB.18.081302
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