The interaction of a relativistic electron with a dense plasma is studied in the context of inertial fusion fast ignition. Expressions for the electron stopping power and deflection are given and implemented in a three-dimensional (3D) Monte Carlo code. Electron range and penetration depth are computed as functions of the electron energy and plasma parameters; approximate expressions are also proposed. Conditions for fast ignition are studied by including the 3D Monte Carlo code in a 2D hydrodynamic code. The required beam energy is determined as a function of mean electron energy for monoenergetic and exponential energy distributions and a uniform initial deuterium–tritium plasma with a density of 300 g cm^(−3). A simple model is shown to ...
We have studied energy distribution of fast electrons passing through a highly compressed core plasm...
In recent years, several schemes for laser-driven fast ignition (FI) of inertial confinement fusion ...
We have studied energy distribution of fast electrons passing through a highly compressed core plasm...
One of the most crucial steps for a fast ignition scenario is the energy deposition into the highly ...
The controlled production of a local hot spot in supercompressed deuterium + tritium fuel is examine...
In the fast ignition scheme,a relativistic electron beam is considered to be the most suitable sourc...
We report on kinetic simulations of the transport of laser-produced relativistic electron beams (REB...
We present some recent work studying the propagation of the relativistic electron beams in dense tar...
International audienceWe describe the development of a 3D Monte-Carlo model to study hot-electron tr...
A kinetic model describing the energy deposition of fast electrons is established by considering bot...
This thesis looks at the effects that electron-ion Coulomb collisions have on fast electron transpo...
In recent years, several schemes for laser-driven fast ignition (FI) of inertial confinement fusion ...
A kinetic model describing the energy deposition of fast electrons is established by considering bot...
In the fast ignition scheme, in order to deliver enough energy (10kJ) into the pellet in lOps, the i...
In recent years, several schemes for laser-driven fast ignition (FI) of inertial confinement fusion ...
We have studied energy distribution of fast electrons passing through a highly compressed core plasm...
In recent years, several schemes for laser-driven fast ignition (FI) of inertial confinement fusion ...
We have studied energy distribution of fast electrons passing through a highly compressed core plasm...
One of the most crucial steps for a fast ignition scenario is the energy deposition into the highly ...
The controlled production of a local hot spot in supercompressed deuterium + tritium fuel is examine...
In the fast ignition scheme,a relativistic electron beam is considered to be the most suitable sourc...
We report on kinetic simulations of the transport of laser-produced relativistic electron beams (REB...
We present some recent work studying the propagation of the relativistic electron beams in dense tar...
International audienceWe describe the development of a 3D Monte-Carlo model to study hot-electron tr...
A kinetic model describing the energy deposition of fast electrons is established by considering bot...
This thesis looks at the effects that electron-ion Coulomb collisions have on fast electron transpo...
In recent years, several schemes for laser-driven fast ignition (FI) of inertial confinement fusion ...
A kinetic model describing the energy deposition of fast electrons is established by considering bot...
In the fast ignition scheme, in order to deliver enough energy (10kJ) into the pellet in lOps, the i...
In recent years, several schemes for laser-driven fast ignition (FI) of inertial confinement fusion ...
We have studied energy distribution of fast electrons passing through a highly compressed core plasm...
In recent years, several schemes for laser-driven fast ignition (FI) of inertial confinement fusion ...
We have studied energy distribution of fast electrons passing through a highly compressed core plasm...