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Parametric design studies of the FIRE/NSO

机译:火灾/ NSO的参数设计研究

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The FIRE/NSO (Fusion Ignition Research Experiment/Next-Step Option) is designed to be an inexpensive burning plasma experiment with alpha-dominated heating and pulses longer than particle confinement or current relaxation times. A new spreadsheet, FIRESALE, was constructed in order to ascertain the smallest and least expensive options that achieve this mission. The cost sensitivities of mission enhancement were also explored. Parametric variations of Ro, Bt, A, and qlim indicated that the present design of FIRE is close to the optimum for the "high-Q, long-burn" mission. Variations of physics assumptions indicated that performance will be more sensitive to the particle confinement/energy confinement ratio than to the H-factor of normalized beta. The FIRE/NSO design study is also meant to determine the impact of different magnet technologies. Performance differences between historic designs, scaled to a burning plasma experiment, were shown to be very large. Parametric studies of the impact of operational schedule on the tritium inventory and the initial costs of the auxiliary power and cryogenic refrigeration systems showed the possibility of significant cost reductions and easing of site requirements.
机译:Fire / NSO(融合点火研究实验/下一步选项)设计为廉价的燃烧等离子体实验,具有比粒子限制或电流弛豫时间长的α主导的加热和脉冲。建造了一个新的电子表格,以确定实现这一使命的最小和最便宜的选择。还探讨了使命增强的成本敏感性。 RO,BT,A和QLIM的参数变化表明,目前的火焰设计接近“高Q,长燃烧”任务的最佳选择。物理假设的变化表明,性能对粒子限制/能量限制比更敏感于标准化β的H因子。 Fire / NSO设计研究也意味着确定不同磁铁技术的影响。历史设计之间的性能差异,缩小到燃烧的等离子体实验,显示为非常大。参数研究对运营时间表对氚库存的影响以及辅助动力和低温制冷系统的初始成本显示出显着降低的可能性和现场要求的缓解。

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