AbstractA procedure for performing Monte Carlo calculations of plasmas with an arbitrary level of degeneracy is outlined. It has possible applications in inertial confinement fusion and astrophysics. Degenerate particles are initialised according to the Fermi–Dirac distribution function, and scattering is via a Pauli blocked binary collision approximation. The algorithm is tested against degenerate electron–ion equilibration, and the degenerate resistivity transport coefficient from unmagnetised first order transport theory. The code is applied to the cold fuel shell and alpha particle equilibration problem of inertial confinement fusion
In plasma physics, the direct simulation of inter-particle Coulomb collisions is often necessary to ...
Abstract: The new direct simulation method of Monte-Carlo type (DSMC) for Coulomb collisio...
A Monte Carlo neutral transport routine, based on DEGAS2, has been coupled to the guiding center ion...
AbstractA procedure for performing Monte Carlo calculations of plasmas with an arbitrary level of de...
This paper explains how to obtain the distribution function of minority ions in tokamak plasmas usin...
This paper explains how to obtain the distribution function of minority ions in tokamak plasmas usin...
The transport of neutral atoms and molecules in the edge and divertor regions of fusion experiments ...
We propose and we justify a Monte-Carlo algorithm which solves a spatially homogeneous kin...
For tokamaks the Monte Carlo technique is a powerful method to study kinetic phenom-ena in plasmas...
International audienceWe describe the development of a 3D Monte-Carlo model to study hot-electron tr...
We present a new, for plasma physics, highly efficient multilevel Monte Carlo numer-ical method for ...
Neutral transport in the high density, low temperature plasma regime is examined using the DEGAS 2 M...
An algorithm is proposed to include Pauli exclusion principle in Monte Carlo simulations. This algor...
This presentation describes a hybrid computational method for Coulomb collisions in a plasma that co...
A Monte Carlo neutral transport routine, based on DEGAS2, has been coupled to the guiding center ion...
In plasma physics, the direct simulation of inter-particle Coulomb collisions is often necessary to ...
Abstract: The new direct simulation method of Monte-Carlo type (DSMC) for Coulomb collisio...
A Monte Carlo neutral transport routine, based on DEGAS2, has been coupled to the guiding center ion...
AbstractA procedure for performing Monte Carlo calculations of plasmas with an arbitrary level of de...
This paper explains how to obtain the distribution function of minority ions in tokamak plasmas usin...
This paper explains how to obtain the distribution function of minority ions in tokamak plasmas usin...
The transport of neutral atoms and molecules in the edge and divertor regions of fusion experiments ...
We propose and we justify a Monte-Carlo algorithm which solves a spatially homogeneous kin...
For tokamaks the Monte Carlo technique is a powerful method to study kinetic phenom-ena in plasmas...
International audienceWe describe the development of a 3D Monte-Carlo model to study hot-electron tr...
We present a new, for plasma physics, highly efficient multilevel Monte Carlo numer-ical method for ...
Neutral transport in the high density, low temperature plasma regime is examined using the DEGAS 2 M...
An algorithm is proposed to include Pauli exclusion principle in Monte Carlo simulations. This algor...
This presentation describes a hybrid computational method for Coulomb collisions in a plasma that co...
A Monte Carlo neutral transport routine, based on DEGAS2, has been coupled to the guiding center ion...
In plasma physics, the direct simulation of inter-particle Coulomb collisions is often necessary to ...
Abstract: The new direct simulation method of Monte-Carlo type (DSMC) for Coulomb collisio...
A Monte Carlo neutral transport routine, based on DEGAS2, has been coupled to the guiding center ion...