An unstructured-grid, radiation-hydrodynamics code is used to simulate implosions. Although most of the problems are spherically symmetric, they are run on 3D, unstructured grids in order to test the code�s ability to maintain spherical symmetry of the converging waves. Three problems, of increasing complexity, are presented. In the first, a cold, spherical, ideal gas bubble is imploded by an enclosing high pressure source. For the second, we add non-linear heat conduction and drive the implosion with twelve laser beams centered on the vertices of an icosahedron. In the third problem, a NIF capsule is driven with a Planckian radiation source
Capsule implosion experiments carried out on the Nova laser are simulated with the three-dimensional...
A new one-dimensional hydrodynamic code for simulation of experiments involving the creation of high...
The implosion of a family of reactor‐size targets for inertial confinement fusion (ICF) is studied a...
In recent years, there has been significant progress towards achieving ignition from controlled ther...
The calculation of the laser absorption is very important for implosion simulations to capture preci...
We have performed two-dimensional calculations of the implosions of thin-walled aluminum cylinders d...
We describe a parallel, 3D, unstructured grid finite element, hydrodynamic diffusion code for inerti...
We present test problems that can be used to check the hydrodynamic implementation in computer codes...
The effect of long scale-length irradiation non-uniformities on the implosion of two different direc...
We have recently been applying a powerful computational tool, direct numerical simulation (DNS), to ...
We present the simulations of two relevant hydrodynamical problems related to astrophysical phenomen...
AbstractWe present simulations of the implosion of a dense shell in two-dimensional (2D) spherical a...
Thesis (Ph. D.)--University of Rochester. Department of Physics and Astronomy, 2019.Hydrodynamic ins...
We present the results of a new radiation hydrodynamics code called Maartje. This code describes th...
Shock ignition is a recently proposed approach to inertial confinement thermonuclear fusion (ICF). A...
Capsule implosion experiments carried out on the Nova laser are simulated with the three-dimensional...
A new one-dimensional hydrodynamic code for simulation of experiments involving the creation of high...
The implosion of a family of reactor‐size targets for inertial confinement fusion (ICF) is studied a...
In recent years, there has been significant progress towards achieving ignition from controlled ther...
The calculation of the laser absorption is very important for implosion simulations to capture preci...
We have performed two-dimensional calculations of the implosions of thin-walled aluminum cylinders d...
We describe a parallel, 3D, unstructured grid finite element, hydrodynamic diffusion code for inerti...
We present test problems that can be used to check the hydrodynamic implementation in computer codes...
The effect of long scale-length irradiation non-uniformities on the implosion of two different direc...
We have recently been applying a powerful computational tool, direct numerical simulation (DNS), to ...
We present the simulations of two relevant hydrodynamical problems related to astrophysical phenomen...
AbstractWe present simulations of the implosion of a dense shell in two-dimensional (2D) spherical a...
Thesis (Ph. D.)--University of Rochester. Department of Physics and Astronomy, 2019.Hydrodynamic ins...
We present the results of a new radiation hydrodynamics code called Maartje. This code describes th...
Shock ignition is a recently proposed approach to inertial confinement thermonuclear fusion (ICF). A...
Capsule implosion experiments carried out on the Nova laser are simulated with the three-dimensional...
A new one-dimensional hydrodynamic code for simulation of experiments involving the creation of high...
The implosion of a family of reactor‐size targets for inertial confinement fusion (ICF) is studied a...