DocumentCode
2429988
Title
Welter weight ion transport for diode generated ion beam inertial confinement fusion
Author
Peterson, R.R.
Author_Institution
Fusion Technol. Inst., Wisconsin Univ., Madison, WI, USA
fYear
1995
fDate
5-8 June 1995
Firstpage
287
Abstract
Summary form only given. The choice of ion species for ion beam inertial confinement fusion is driven by target design, ion beam transport and beam generation. An important question is whether heavy and light ion technologies and be extended into the welter weight regime of intermediate atomic weight. The target defines the total energy in the ion beams, the number of beams, and the temporal shape of the beams. Of the several possible methods of ion beam transport, self-pinched propagation is potentially the most attractive. This mode requires that the beam current is only partially neutralized by a background gas and uses the net current to generate a confining azimuthal magnetic field. The net current required is determined by the diode design. A formalism for comparing the beam generation and propagation has been constructed from known relations. Beam ions from Li to Cs are compared within this formalism. As the beam ion atomic number and energy increase, the anode surfaces in the diodes become smaller and the required neutralization fraction decreases. Higher than some atomic mass, the combined use of magnetically insulated diodes and self-pinched transport is no longer a useful concept and ion beam generation with a linear accelerator might be more attractive.
Keywords
beam handling techniques; fusion reactors; ion beams; particle beam diagnostics; plasma diodes; plasma inertial confinement; beam generation; beam propagation; confining azimuthal magnetic field; diode design; diode generated ion beam inertial confinement fusion; ion species; linear accelerator; magnetically insulated diodes; self-pinched propagation; self-pinched transport; target design; welter weight ion transport; Anodes; Atomic beams; Atomic measurements; Diodes; Fusion power generation; Inertial confinement; Ion beams; Magnetic fields; Optical propagation; Shape;
fLanguage
English
Publisher
ieee
Conference_Titel
Plasma Science, 1995. IEEE Conference Record - Abstracts., 1995 IEEE International Conference on
Conference_Location
Madison, WI, USA
ISSN
0730-9244
Print_ISBN
0-7803-2669-5
Type
conf
DOI
10.1109/PLASMA.1995.533539
Filename
533539
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