• DocumentCode
    1974710
  • Title

    Superlattice crystal accelerator: acceleration beyond GeV/m

  • Author

    Bogacz, S.A.

  • Author_Institution
    Accel. Phys. Dept., Fermi Nat. Accel. Lab., Batavia, IL, USA
  • fYear
    1993
  • fDate
    17-20 May 1993
  • Firstpage
    2587
  • Abstract
    Here, an idea of using a visible light wave to accelerate relativistic particles via the inverse FEL mechanism is explored. A strain modulated crystal structure the superlattice, plays the role of a microscopic undulator providing very strong ponderomotive coupling between the beam and the light wave. Purely classical treatment of relativistic protons channeling through a superlattice is performed in a self consistent fashion involving the Maxwell wave equation for the accelerating electromagnetic field and the relativistic Boltzmann equation for the protons. It yields the accelerating efficiency in terms of the negative gain coefficient for the amplitude of the electromagnetic wave-the rate the energy is extracted from the light by the beam. Presented analytic formalism allows one to find the acceleration rate in a simple closed form, which is further evaluated for a model beam-optical cavity system to verify feasibility of this scheme
  • Keywords
    linear accelerators; proton accelerators; superlattices; wigglers; Maxwell wave equation; accelerating efficiency; accelerating electromagnetic field; channeling; inverse FEL mechanism; microscopic undulator; negative gain coefficient; optical cavity system; ponderomotive coupling; relativistic Boltzmann equation; relativistic particles; relativistic protons; strain modulated crystal structure; superlattice crystal accelerator; visible light wave; Acceleration; Capacitive sensors; Microscopy; Optical coupling; Optical modulation; Partial differential equations; Particle accelerators; Protons; Superlattices; Undulators;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Particle Accelerator Conference, 1993., Proceedings of the 1993
  • Conference_Location
    Washington, DC
  • Print_ISBN
    0-7803-1203-1
  • Type

    conf

  • DOI
    10.1109/PAC.1993.309395
  • Filename
    309395