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Development of our laser fusion integration simulation.

Authors :
Jinghong Li
Chuanlei Zhai
Shuanggui Li
Xin Li
Wudi Zheng
Heng Yong
Qinghong Zeng
Xudeng Hang
Jin Qi
Rong Yang
Juan Cheng
Peng Song
Peijun Gu
Aiqing Zhang
Hengbin An
Xiaowen Xu
Hong Guo
Xiaolin Cao
Zeyao Mo
Wenbing Pei
Source :
EPJ Web of Conferences; 2013, Issue 59, p1-4, 4p
Publication Year :
2013

Abstract

In the target design of the Inertial Confinement Fusion (ICF) program, it is common practice to apply radiation hydrodynamics code to study the key physical processes happening in ICF process, such as hohlraum physics, radiation drive symmetry, capsule implosion physics in the radiation-drive approach of ICF. Recently, many efforts have been done to develop our 2D integrated simulation capability of laser fusion with a variety of optional physical models and numerical methods. In order to effectively integrate the existing codes and to facilitate the development of new codes, we are developing an object-oriented structured-mesh parallel code-supporting infrastructure, called JASMIN. Based on two-dimensional three-temperature hohlraum physics code LARED-H and two-dimensional multi-group radiative transfer code LARED-R, we develop a new generation two-dimensional laser fusion code under the JASMIN infrastructure, which enable us to simulate the whole process of laser fusion from the laser beams' entrance into the hohlraum to the end of implosion. In this paper, we will give a brief description of our new-generation two-dimensional laser fusion code, named LARED-Integration, especially in its physical models, and present some simulation results of holhraum. [ABSTRACT FROM AUTHOR]

Details

Language :
English
ISSN :
21016275
Issue :
59
Database :
Complementary Index
Journal :
EPJ Web of Conferences
Publication Type :
Conference
Accession number :
93333464
Full Text :
https://doi.org/10.1051/epjconf/20135906002