Channeling acceleration in crystals and nanostructures and studies of solid plasmas: new opportunities

Plasma wakefield acceleration (PWFA) has shown illustrious progress and resulted in an impressive demonstration of tens of GeV particle acceleration in meter-long single structures. To reach even higher energies in the 1 TeV to 10 TeV range, a promising scheme is channeling acceleration in solid-den...

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Bibliographic Details
Published in:Journal of instrumentation 2023-11, Vol.18 (11), p.P11008
Main Authors: Gilljohann, Max F., Mankovska, Yuliia, San Miguel Claveria, Pablo, Sytov, Alexei, Bandiera, Laura, Ariniello, Robert, Davoine, Xavier, Ekerfelt, Henrik, Fiuza, Frederico, Gremillet, Laurent, Knetsch, Alexander, Martinez, Bertrand, Matheron, Aimé, Piekarz, Henryk, Storey, Doug, Taborek, Peter, Tajima, Toshiki, Shiltsev, Vladimir, Corde, Sébastien
Format: Article
Language:English
Subjects:
Accelerator Physics
Channeling
Dynamic structural analysis
High Temperature Superconductors (HTS)
Magnetohydrodynamic stability
Nanostructure
PARTICLE ACCELERATORS
Physics
Plasmas (physics)
Rapid cycling magnets
Superconducting accelerator magnets
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Summary:Plasma wakefield acceleration (PWFA) has shown illustrious progress and resulted in an impressive demonstration of tens of GeV particle acceleration in meter-long single structures. To reach even higher energies in the 1 TeV to 10 TeV range, a promising scheme is channeling acceleration in solid-density plasmas within crystals or nanostructures. The E336 experiment studies the beam-nanotarget interaction with the highly compressed electron bunches available at the FACET-II accelerator. These studies furthermore involve an in-depth research on dynamics of beam-plasma instabilities in ultra-dense plasma, its development and suppression in structured media like carbon nanotubes and crystals, and its potential use to transversely modulate the electron bunch.
ISSN:1748-0221
1748-0221
DOI:10.1088/1748-0221/18/11/P11008