DocumentCode
408760
Title
Commissioning of the superconducting ECR ion source VENUS
Author
Leitner, D. ; Abbott, S.R. ; Dwinell, R.D. ; Leitner, M. ; Taylor, C. ; Lyneis, C.M.
Author_Institution
Lawrence Berkeley Nat. Lab., CA, USA
Volume
1
fYear
2003
fDate
12-16 May 2003
Firstpage
86
Abstract
VENUS (Versatile ECR ion source for NUclear Science) is a next generation superconducting ECR ion source, designed to produce high current, high charge state ions for the 88-Inch Cyclotron at the Lawrence Berkeley National Laboratory. VENUS also serves as the prototype ion source for the RIA (Rare Isotope Accelerator) front end. The magnetic confinement configuration consists of three superconducting axial coils and six superconducting radial coils in a sextupole configuration. The nominal design fields of the axial magnets are 4T at injection and 3T at extraction; the nominal radial design field strength at the plasma chamber wall is 2T, making VENUS the world most powerful ECR plasma confinement structure. The magnetic field strength has been designed for optimum operation at 28 GHz. The four-year VENUS project has recently achieved two major milestones: The first plasma was ignited in June, the first mass-analyzed high charge state ion beam was extracted in September of 2002. The paper describes the ongoing commissioning. Initial results including first emittance measurements are presented.
Keywords
commissioning; ion sources; particle beam injection; plasma radiofrequency heating; superconducting coils; superconducting magnets; 28 GHz; VENUS ion source; commissioning; high charge state ions; high current; ion beam transport system; magnetic confinement configuration; next generation ion source; plasma heating power densities; sextupole configuration; superconducting ECR ion source; superconducting axial coils; superconducting radial coils; versatile ECR ion source; Cyclotrons; Ion sources; Laboratories; Nuclear and plasma sciences; Plasma accelerators; Plasma confinement; Plasma measurements; Superconducting coils; Superconducting magnets; Venus;
fLanguage
English
Publisher
ieee
Conference_Titel
Particle Accelerator Conference, 2003. PAC 2003. Proceedings of the
ISSN
1063-3928
Print_ISBN
0-7803-7738-9
Type
conf
DOI
10.1109/PAC.2003.1288847
Filename
1288847
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