Paul trap simulator experiment to model intense-beam propagation in alternating-gradient transport systems

Erik P. Gilson; Ronald C. Davidson; Philip C. Efthimion; Richard Majeski

doi:10.1103/PhysRevLett.92.155002

Paul trap simulator experiment to model intense-beam propagation in alternating-gradient transport systems

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Abstract

The role of a Paul trap simulator experiment (PTSX) in simulating the propagation of intense charged particle beams over great distances through magnetic alternating-gradient (AG) transport systems by making use of the similarity between the transverse dynamics of particles in the two systems was described. The related theoretical analyses and experimental results that examined the effects of varying the amount of injected plasma on the density profile and temperature of the trapped plasms were presented. The results obtained were compared with a global radial force-balance model. The long-time confinement behavior of cesium ions in PTSX was also described.

Original language	English (US)
Article number	155002
Pages (from-to)	155002-1-155002-4
Journal	Physical review letters
Volume	92
Issue number	15
DOIs	https://doi.org/10.1103/PhysRevLett.92.155002
State	Published - Apr 16 2004

All Science Journal Classification (ASJC) codes

General Physics and Astronomy

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10.1103/PhysRevLett.92.155002

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title = "Paul trap simulator experiment to model intense-beam propagation in alternating-gradient transport systems",

abstract = "The role of a Paul trap simulator experiment (PTSX) in simulating the propagation of intense charged particle beams over great distances through magnetic alternating-gradient (AG) transport systems by making use of the similarity between the transverse dynamics of particles in the two systems was described. The related theoretical analyses and experimental results that examined the effects of varying the amount of injected plasma on the density profile and temperature of the trapped plasms were presented. The results obtained were compared with a global radial force-balance model. The long-time confinement behavior of cesium ions in PTSX was also described.",

author = "Gilson, \{Erik P.\} and Davidson, \{Ronald C.\} and Efthimion, \{Philip C.\} and Richard Majeski",

year = "2004",

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doi = "10.1103/PhysRevLett.92.155002",

language = "English (US)",

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AU - Gilson, Erik P.

AU - Davidson, Ronald C.

AU - Efthimion, Philip C.

AU - Majeski, Richard

PY - 2004/4/16

Y1 - 2004/4/16

N2 - The role of a Paul trap simulator experiment (PTSX) in simulating the propagation of intense charged particle beams over great distances through magnetic alternating-gradient (AG) transport systems by making use of the similarity between the transverse dynamics of particles in the two systems was described. The related theoretical analyses and experimental results that examined the effects of varying the amount of injected plasma on the density profile and temperature of the trapped plasms were presented. The results obtained were compared with a global radial force-balance model. The long-time confinement behavior of cesium ions in PTSX was also described.

AB - The role of a Paul trap simulator experiment (PTSX) in simulating the propagation of intense charged particle beams over great distances through magnetic alternating-gradient (AG) transport systems by making use of the similarity between the transverse dynamics of particles in the two systems was described. The related theoretical analyses and experimental results that examined the effects of varying the amount of injected plasma on the density profile and temperature of the trapped plasms were presented. The results obtained were compared with a global radial force-balance model. The long-time confinement behavior of cesium ions in PTSX was also described.

UR - https://www.scopus.com/pages/publications/2542452333

UR - https://www.scopus.com/pages/publications/2542452333#tab=citedBy

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SP - 155002-1-155002-4

JO - Physical review letters

JF - Physical review letters

IS - 15

M1 - 155002

ER -

Paul trap simulator experiment to model intense-beam propagation in alternating-gradient transport systems

Abstract

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