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Stand-alone accelerator system based on SRF quarter-wave resonators
by
Agustsson, R
, Berry, R
, Kutsaev, S V
, Conway, Z A
, Chao, D
in
Accelerators
/ Complex systems
/ Industrial applications
/ Liquid helium
/ Niobium
/ Physics
/ Resonators
/ Superconductivity
2019
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Stand-alone accelerator system based on SRF quarter-wave resonators
by
Agustsson, R
, Berry, R
, Kutsaev, S V
, Conway, Z A
, Chao, D
in
Accelerators
/ Complex systems
/ Industrial applications
/ Liquid helium
/ Niobium
/ Physics
/ Resonators
/ Superconductivity
2019
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Stand-alone accelerator system based on SRF quarter-wave resonators
Journal Article
Stand-alone accelerator system based on SRF quarter-wave resonators
2019
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Overview
Superconducting accelerators are large and complex systems requiring a central refrigerator and distributed transfer systems to supply 2-4 K liquid helium. Stand-alone, cryocooler-based systems are of interest both to scientific facilities and for industrial applications, as they do not require large cryogenic infrastructure and trained specialists for operation. Presented here is our approach to the challenge of using low-power commercially avail-able cryocoolers to operate niobium superconducting resonators at 4.4 K with high accelerating voltages and several watts of heating. Engineering and design results from RadiaBeam Systems, collaborating with Argonne National Laboratory, for a stand-alone liquid-cooled cryomodule with 10 Watts of 4.4 K cooling capacity housing a 72.75 MHz quarter-wave resonator operating at 2 MV for synchronous ions travelling at 7.7% of speed of light will be discussed.
Publisher
IOP Publishing
Subject
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