A three-dimensional ray-tracing code dedicated to x-ray laser amplification simulation

被引:6
|
作者
Temporal, M [1 ]
Jacquemot, S [1 ]
Bonnet, L [1 ]
Decoster, A [1 ]
机构
[1] CEA, DAM Ile France, F-91680 Bruyeres Le Chatel, France
关键词
D O I
10.1063/1.1353187
中图分类号
O35 [流体力学]; O53 [等离子体物理学];
学科分类号
070204 ; 080103 ; 080704 ;
摘要
A three-dimensional (3D) ray-tracing code has been developed to simulate the x-ray intensity produced in recent experiments where a silver target was driven by two laser beams. The code is used as a postprocessor of a detailed atomic physics code, which provides emissivities and opacities for inverted transitions. The hydrodynamics of the plasma is calculated with a 1D1/2 hydrocode where transverse profiles of temperature and density follow a self-similar solution. The 3D ray-tracing code accounts for progressive target illumination and calculates the x-ray laser output by solving the eikonal equation. Once 3D paths are determined, a steady-state transport solution is used to calculate the output intensity. The ray-tracing package is discussed first, then the present 3D results are compared with 2D calculations, as well as with collected experimental data. (C) 2001 American Institute of Physics.
引用
收藏
页码:1363 / 1370
页数:8
相关论文
共 50 条
  • [21] Inverse ray-tracing method for nondestructive mapping of three-dimensional surfaces
    Kelson, I. (kelson@post.tau.ac.il), 1600, American Institute of Physics Inc. (95):
  • [22] Simulation of tree point cloud based on the ray-tracing algorithm and three-dimensional tree model
    Li, Yaxin
    Wang, Pei
    Sun, Jingqian
    Gan, Xiaozheng
    BIOSYSTEMS ENGINEERING, 2020, 200 (200) : 259 - 271
  • [23] McXtrace: a modern ray-tracing package for x-ray instrumentation
    Knudsen, Erik B.
    Prodi, Andrea
    Willendrup, Peter
    Lefmann, Kim
    Baltser, Jana
    Gundlach, Carsten
    del Rio, Manuel Sanchez
    Ferrero, Claudio
    Feidenhans'l, Robert
    ADVANCES IN COMPUTATIONAL METHODS FOR X-RAY OPTICS II, 2011, 8141
  • [24] RAY-TRACING THE CONVEX CURVED CRYSTAL X-RAY SPECTROGRAPH
    KASTNER, SO
    APPLIED OPTICS, 1979, 18 (03): : 374 - 377
  • [25] BRIGHT: the three-dimensional X-ray crystal Bragg diffraction code
    Nan-Shun Huang
    Kai Li
    Hai-Xiao Deng
    Nuclear Science and Techniques, 2019, 30
  • [26] X-ray enabled MOCASSIN: A three-dimensional code for photoionized media
    Ercolano, Barbara
    Young, Peter R.
    Drake, Jeremy J.
    Raymond, John C.
    ASTROPHYSICAL JOURNAL SUPPLEMENT SERIES, 2008, 175 (02): : 534 - 542
  • [27] BRIGHT: the three-dimensional X-ray crystal Bragg diffraction code
    Huang, Nan-Shun
    Li, Kai
    Deng, Hai-Xiao
    NUCLEAR SCIENCE AND TECHNIQUES, 2019, 30 (03)
  • [28] BRIGHT:the three-dimensional X-ray crystal Bragg diffraction code
    Nan-Shun Huang
    Kai Li
    Hai-Xiao Deng
    NuclearScienceandTechniques, 2019, 30 (03) : 3 - 11
  • [29] Ray-tracing simulations of a bent crystal X-ray optics for imaging using laser-plasma X-ray sources
    Labate, L
    Galimberti, M
    Giulietti, A
    Giulietti, D
    Gizzi, LA
    Köster, P
    Laville, S
    Tomassini, P
    LASER AND PARTICLE BEAMS, 2004, 22 (03) : 253 - 259
  • [30] A hybrid method for X-ray optics simulation: combining geometric ray-tracing and wavefront propagation
    Shi, Xianbo
    Reininger, Ruben
    del Rio, Manuel Sanchez
    Assoufid, Lahsen
    JOURNAL OF SYNCHROTRON RADIATION, 2014, 21 : 669 - 678