基于生成对抗网络的融合物理设计

W. Xiong, Pan Liu, Zhangchun Tang, Yan Shi, Chencheng Liu, Fanyu Qu, Gaoyang Liu, Qiang Gao
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引用次数: 1

摘要

核聚变的物理设计是实现可控热核聚变的关键。核聚变的物理设计分为三个重要部分。这些是结构设计,材料特性和物理过程。这三个组成部分组成了结构设计文件、材料属性文件和物理工艺文件,这些文件被输入到配置操作中以生成对抗网络以确定最终的工艺参数。这些工艺参数可以用于聚变靶的物理设计和制造,也可以用于整个聚变实验。GAN获得的聚变物理模型输出能量高达300 MJ,增益高达30,中子产率为1017-1019,满足聚变点火的条件。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Physical design of fusion based on generative adversarial networks
The physical design of fusion is a key part of achieving controlled thermonuclear fusion. The physical design of fusion is divided into three important parts. These are the structural design, the material properties and the physical processes. These three components form a structural design file, a material properties file and a physical process file, which are fed into a configuration operation to generate an adversarial network to determine the final process parameters. The process parameters can be used for the physical design and fabrication of the fusion target as well as for the overall fusion experiments. The fusion physics model obtained by GAN has an output energy of up to 300 MJ, a gain of up to 30 and a neutron yield of 1017-1019, which meets the conditions for fusion ignition.
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