DocumentCode
971808
Title
Optimization of Superconducting Focusing Quadrupoles for the High Current Experiment
Author
Sabbi, GianLuca ; Gourlay, Steve ; Gung, Chen-Yu ; Hafalia, Ray ; Lietzke, Alan ; Martovetsky, Nicolai ; Mattafirri, Sara ; Meinke, Rainer ; Minervini, Joseph ; Schultz, Joel ; Seidl, Peter
Author_Institution
Lawrence Berkeley Nat. Lab., CA
Volume
16
Issue
2
fYear
2006
fDate
6/1/2006 12:00:00 AM
Firstpage
301
Lastpage
304
Abstract
The Heavy Ion Fusion (HIF) program is progressing through a series of physics and technology demonstrations leading to an inertial fusion power plant. The High Current Experiment (HCX) at Lawrence Berkeley National Laboratory is exploring the physics of intense beams with high line-charge density. Superconducting focusing quadrupoles were developed for magnetic transport studies at the HCX. A baseline design was selected following several pre-series models. Optimization of the baseline design led to the development of a first prototype that achieved a conductor-limited gradient of 132 T/m in a 70 mm bore, without training, with measured field errors at the 0.1% level. Based on these results, the magnet geometry and fabrication procedures were adjusted to improve the field quality. These modifications were implemented in a second prototype. In this paper, the optimized design is presented and comparisons between the design harmonics and magnetic measurements performed on the new prototype are discussed
Keywords
ion accelerators; particle beam focusing; superconducting magnets; HCX; Lawrence Berkeley National Laboratory; baseline design; conductor-limited gradient; design harmonics; heavy ion accelerator; heavy ion fusion program; high current experiment; high line-charge density; inertial fusion power plant; magnet geometry; magnetic measurements; magnetic transport; preseries models; prototype; superconducting focusing quadrupoles; Boring; Design optimization; Fabrication; Geometry; Laboratories; Magnetic field measurement; Physics; Power generation; Prototypes; Superconducting magnets; Heavy ion accelerator; inertial fusion energy; superconducting accelerator quadrupole;
fLanguage
English
Journal_Title
Applied Superconductivity, IEEE Transactions on
Publisher
ieee
ISSN
1051-8223
Type
jour
DOI
10.1109/TASC.2005.869689
Filename
1642849
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