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Telescope-based cavity for negative ion beam neutralization in future fusion reactors

机译:基于望远镜的腔对于未来融合反应器中的负离子束中和

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In future fusion reactors, heating system efficiency is of the utmost importance. Photo-neutralization substantially increases the neutral beam injector (NBI) efficiency with respect to the foreseen system in the International Thermonuclear Experimental Reactor (ITER) based on a gaseous target. In this paper, we propose a telescope-based configuration to be used in the NBI photo-neutralizer cavity of the demonstration power plant (DEMO) project. This configuration greatly reduces the total length of the cavity, which likely solves overcrowding issues in a fusion reactor environment. Brought to a tabletop experiment, this cavity configuration is tested: a 4 mm beam width is obtained within a similar or equal to 1.5 m length cavity. The equivalent cavity g factor is measured to be 0.038(3), thus confirming the cavity stability. (c) 2018 Optical Society of America
机译:在未来的融合反应堆中,加热系统效率至关重要。 基于气态靶标在国际热核实验反应器(ITER)中,光中和基本上增加了中性光束喷射器(NBI)效率。 在本文中,我们提出了一种基于望远镜的配置,用于演示发电厂(演示)项目的NBI光中性器腔。 这种配置大大降低了腔的总长度,这可能解决了融合反应堆环境中的过度拥挤问题。 达到桌面实验,测试了该腔配置:在类似于或等于1.5米的腔内获得4mm的光束宽度。 等效腔G因子测量为0.038(3),从而确认腔稳定性。 (c)2018年光学学会

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