2020 roadmap on plasma accelerators

  • Félicie Albert
  • , M. E. Couprie
  • , Alexander Debus
  • , Mike C. Downer
  • , Jérôme Faure
  • , Alessandro Flacco
  • , Leonida A. Gizzi
  • , Thomas Grismayer
  • , Axel Huebl
  • , Chan Joshi
  • , M. Labat
  • , Wim P. Leemans
  • , Andreas R. Maier
  • , Stuart P.D. Mangles
  • , Paul Mason
  • , François Mathieu
  • , Patric Muggli
  • , Mamiko Nishiuchi
  • , Jens Osterhoff
  • , P. P. Rajeev
  • Ulrich Schramm, Jörg Schreiber, Alec G.R. Thomas, Jean Luc Vay, Marija Vranic, Karl Zeil

Research output: Contribution to journalArticlepeer-review

Abstract

Plasma-based accelerators use the strong electromagnetic fields that can be supported by plasmas to accelerate charged particles to high energies. Accelerating field structures in plasma can be generated by powerful laser pulses or charged particle beams. This research field has recently transitioned from involving a few small-scale efforts to the development of national and international networks of scientists supported by substantial investment in large-scale research infrastructure. In this New Journal of Physics 2020 Plasma Accelerator Roadmap, perspectives from experts in this field provide a summary overview of the field and insights into the research needs and developments for an international audience of scientists, including graduate students and researchers entering the field.

Original languageEnglish
Article number031101
JournalNew Journal of Physics
Volume23
Issue number3
DOIs
Publication statusPublished - 1 Mar 2021

Keywords

  • Free electron lasers
  • Laser wakefield acceleration
  • Laser-plasma interactions
  • Particle beams
  • Plasma accelerators
  • Strong field QED

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