Development of a 20 MeV Dielectric-Loaded Test Accelerator
Author(s) -
Steven H. Gold,
Allen K. Kinkead,
Wei Gai,
John Power,
R. Konecny,
Chunguang Jing,
Jidong Long,
Sami Tantawi,
C. Nantista,
Ralph W. Bruce,
A. W. Fliflet,
M. Lombardi,
David Lewis
Publication year - 2006
Publication title -
aip conference proceedings
Language(s) - English
Resource type - Conference proceedings
SCImago Journal Rank - 0.177
H-Index - 75
eISSN - 1551-7616
pISSN - 0094-243X
DOI - 10.1063/1.2409145
Subject(s) - linear particle accelerator , particle accelerator , injector , pulsed power , national laboratory , physics , beam (structure) , nuclear engineering , dielectric , nuclear physics , amplifier , power (physics) , electrical engineering , engineering physics , optics , engineering , optoelectronics , cmos , quantum mechanics , thermodynamics
This paper presents a progress report on a joint project by the Naval Research Laboratory (NRL) and Argonne National Laboratory (ANL), in collaboration with the Stanford Linear Accelerator Center (SLAC), to develop a dielectric-loaded test accelerator in the magnicon facility at NRL. The accelerator will be powered by an experimental 11.424-GHz magnicon amplifier that presently produces 25 MW of output power in a ~250-ns pulse at up to 10 Hz. The accelerator will include a 5-MeV electron injector originally developed at the Tsinghua University in Beijing, China, and can incorporate DLA structures up to 0.5 m in length. The DLA structures are being developed by ANL, and shorter test structures fabricated from a variety of dielectric materials have undergone testing at NRL at gradients up to ~8 MV/m. SLAC has developed components to distribute the power from the two magnicon output arms to the injector and to the DLA accelerating structure with separate control of the power ratio and relative phase. RWBruce Associates, Inc., working with NRL, has investigated means to join short ceramic sections into a continuous accelerator tube by a brazing process using an intense 83-GHz beam. The installation and testing of the first dielectric-loaded test accelerator, including injector, DLA test structure, and spectrometer, should take place within the next year.
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