High current Betatron

G. Barak, D. Chernon, A. Fisher, H. Ishizuka, N. Rostoker
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引用次数: 4

Abstract

In a conventional Betatron, space charge limits the electron current during injection. By adding a toroidal magnetic field and injecting electrons with the inductive charging method we expect to increase the current limit by a factor of 104–106. After the beam has been accelerated to high energy the toroidal field is no longer necessary and can be reduced to facilitate extraction of the beam. The effect of the toroidal magnetic field on space charge instabilities is investigated. An experimental Betatron has been constructed with a major radius of 40 cm and a minor radius of 5 cm. On the basis of previous experimental results with inductive charging the current limit should be a few kilo-amperes.
大电流感应加速器
在传统的电子加速器中,空间电荷限制了注入过程中的电子电流。通过增加环形磁场和用感应充电法注入电子,我们期望将电流极限提高104-106倍。当光束被加速到高能量后,环面场就不再需要了,可以减小以方便光束的提取。研究了环向磁场对空间电荷不稳定性的影响。一个试验性的电子加速器已建成,其主要半径为40厘米,次要半径为5厘米。在以往感应充电实验结果的基础上,电流极限应为几千安培。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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