We have performed experiments and modeling to evaluate a proposed merging beamlet approach for use in a compact high-brightness Heavy Ion Fusion injector. We used an RF plasma source to produce the initial beamlets. An extraction current density of 100 mA/cm{sup 2} was achieved, and the thermal temperature of the ions was below 1 eV. An array of converging beamlets was used to produce a beam with the envelope radius, convergence, and ellipticity matched to an electrostatic quadrupole channel. Experimental results were in good quantitative agreement with computer simulations and have demonstrated the feasibility of this concept. The size of a driver-scale injector system using this approach will be several times smaller than one designed usi...
Heavy ion fusion (HIF) drivers require large currents and bright beams. In this paper we review the...
Significant experimental and theoretical progress in the U.S heavy-ion fusion (HIF) program is repor...
In order for volume sources to deliver the current (e.g., 0.8 A of Ar{sup +} per module) and brightn...
To provide a compact high-brightness heavy-ion beam source for Heavy Ion Fusion (HIF), we have been ...
To provide a compact high-brightness heavy-ion beam source for Heavy Ion Fusion (HIF), we have been ...
In Heavy-Fusion and in other applications, there is a need for high brightness sources with both hig...
For heavy ion fusion (HIF) induction linac drivers, a typical injector requires total beam current o...
Using curved electrodes in the injector, an array of converging beamlets can produce a beam with the...
In a new approach to develop high current beams for heavy ion fusion, beam current at about 0.5 ampe...
The overall purpose of these experiments is to contribute to the development of ion injector technol...
A multi-beamlet approach to a high current ion injector, whereby a large number of beamlets are acce...
The US Heavy Ion Fusion Virtual National Laboratory is continuing research into ion sources and inje...
The Source Injector Program for the US Heavy Ion Fusion Virtual National Laboratory is currently exp...
Presently the Heavy Ion Fusion Virtual National Laboratory is researching ion sources and injector c...
Heavy ion fusion (HIF) drivers require large currents and bright beams. In this paper we review the...
Heavy ion fusion (HIF) drivers require large currents and bright beams. In this paper we review the...
Significant experimental and theoretical progress in the U.S heavy-ion fusion (HIF) program is repor...
In order for volume sources to deliver the current (e.g., 0.8 A of Ar{sup +} per module) and brightn...
To provide a compact high-brightness heavy-ion beam source for Heavy Ion Fusion (HIF), we have been ...
To provide a compact high-brightness heavy-ion beam source for Heavy Ion Fusion (HIF), we have been ...
In Heavy-Fusion and in other applications, there is a need for high brightness sources with both hig...
For heavy ion fusion (HIF) induction linac drivers, a typical injector requires total beam current o...
Using curved electrodes in the injector, an array of converging beamlets can produce a beam with the...
In a new approach to develop high current beams for heavy ion fusion, beam current at about 0.5 ampe...
The overall purpose of these experiments is to contribute to the development of ion injector technol...
A multi-beamlet approach to a high current ion injector, whereby a large number of beamlets are acce...
The US Heavy Ion Fusion Virtual National Laboratory is continuing research into ion sources and inje...
The Source Injector Program for the US Heavy Ion Fusion Virtual National Laboratory is currently exp...
Presently the Heavy Ion Fusion Virtual National Laboratory is researching ion sources and injector c...
Heavy ion fusion (HIF) drivers require large currents and bright beams. In this paper we review the...
Heavy ion fusion (HIF) drivers require large currents and bright beams. In this paper we review the...
Significant experimental and theoretical progress in the U.S heavy-ion fusion (HIF) program is repor...
In order for volume sources to deliver the current (e.g., 0.8 A of Ar{sup +} per module) and brightn...