论文标题

基于重离子梁的惯性限制融合能

Toward inertial confinement fusion energy based on heavy ion beam

论文作者

Kawata, S., Okamura, M., Horioka, K., Deutsch, C., Karino, T., Hoffmann, D. H. H., Zhao, Y., Ikeda, S., Kanesue, T., Ogoyski, A. I.

论文摘要

重离子惯性融合(HIF)能源将是确保我们未来能源的有前途的能源之一,以维持我们的人类生命几个世纪及以后的生活。重离子束(HIB)具有显着的优选特征,可以释放惯性限制融合中的融合能:在粒子加速器中,HIB的HIB hibs的HIB hibs的高驱动效率约为30-40%,Hib离子在材料内部存放能量。因此,对融合目标能量增益的需求相对较低,用1GW电力的标准能量输出操作HIF融合反应器约为50-70。 HIF反应器的操作频率约为10〜15 Hz左右。几个MJ Hibs照亮了融合燃料目标,并且燃料目标被浸泡到大约一千倍的固体密度。然后点燃并燃烧DT燃料。根据材料,HIB离子沉积范围约为0.5-1 mm。因此,燃料目标材料中出现了相对较大的密度尺度长度。较大的密度梯度尺度长度有助于降低雷利 - 泰勒(R-T)的生长速度。 HIF物理学的关键优点在文章中介绍了我们光明的未来能源。

Heavy ion inertial fusion (HIF) energy would be one of promising energy resources securing our future energy in order to sustain our human life for centuries and beyond. The heavy ion beam (HIB) has remarkable preferable features to release the fusion energy in inertial confinement fusion: in particle accelerators HIBs are generated with a high driver efficiency of ~ 30-40%, and the HIB ions deposit their energy inside of materials. Therefore, a requirement for the fusion target energy gain is relatively low, that would be ~50-70 to operate a HIF fusion reactor with the standard energy output of 1GW of electricity. The HIF reactor operation frequency would be ~10~15 Hz or so. Several-MJ HIBs illuminate a fusion fuel target, and the fuel target is imploded to about a thousand times of the solid density. Then the DT fuel is ignited and burned. The HIB ion deposition range would be ~0.5-1 mm or so depending on the material. Therefore, a relatively large density-scale length appears in the fuel target material. The large density-gradient-scale length helps to reduce the Rayleigh-Taylor (R-T) growth rate. The key merits in HIF physics are presented in the article toward our bright future energy resource.

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