Experimental studies of self-focused, high-current electron-beam propagation phenomena are compared with the results of computational modeling. The model includes the radial structure of the beam-plasma system, a full electromagnetic field description, primary and secondary gas ionization processes, and a linear theory of the hose-like distortions. Good agreement between the experimental results and the computations strengthens the premise that hose instability is the principal limitation to propagation at high pressure
Recently, the propagation of an electron beam through an ion channel with periodically varying ion d...
Recent experiments demonstrate an efficient transformation of a high intensity laser pulse into a re...
Experiments have been performed demonstrating efficient transport (up to 76% instantaneous current t...
The propagation of an intense relativistic electron beam through a gas that is self-ionized by the b...
Conditions for the stable propagation of a pinched electron beam in low pressure gas (p approximatel...
A simple model is adopted to study the hose instability of an intense relativistic electron beam in ...
Stability properties of the resistive hose instability are investigated for a self-pinched dichromat...
The E157 experiment is designed to demonstrate high-gradient Plasma Wake Field Acceleration over a s...
Electron beam propagation in a fully ionized plasma has been studied using a one-dimensional particl...
The growth of the resistive hose instability for intense proton beams is examined using three-dimens...
An innovative target design was used to perform the first studies of the propagation of very high cu...
Current models predict the hose instability to crucially limit the applicability of plasma-wakefield...
Current models predict the hose instability to crucially limit the applicability of plasma-wakefield...
The ion-hose instability is a transverse electrostatic instability which occurs on electron beams in...
The plasma current induced by a high-current electron beam generates electron-ion streaming instabil...
Recently, the propagation of an electron beam through an ion channel with periodically varying ion d...
Recent experiments demonstrate an efficient transformation of a high intensity laser pulse into a re...
Experiments have been performed demonstrating efficient transport (up to 76% instantaneous current t...
The propagation of an intense relativistic electron beam through a gas that is self-ionized by the b...
Conditions for the stable propagation of a pinched electron beam in low pressure gas (p approximatel...
A simple model is adopted to study the hose instability of an intense relativistic electron beam in ...
Stability properties of the resistive hose instability are investigated for a self-pinched dichromat...
The E157 experiment is designed to demonstrate high-gradient Plasma Wake Field Acceleration over a s...
Electron beam propagation in a fully ionized plasma has been studied using a one-dimensional particl...
The growth of the resistive hose instability for intense proton beams is examined using three-dimens...
An innovative target design was used to perform the first studies of the propagation of very high cu...
Current models predict the hose instability to crucially limit the applicability of plasma-wakefield...
Current models predict the hose instability to crucially limit the applicability of plasma-wakefield...
The ion-hose instability is a transverse electrostatic instability which occurs on electron beams in...
The plasma current induced by a high-current electron beam generates electron-ion streaming instabil...
Recently, the propagation of an electron beam through an ion channel with periodically varying ion d...
Recent experiments demonstrate an efficient transformation of a high intensity laser pulse into a re...
Experiments have been performed demonstrating efficient transport (up to 76% instantaneous current t...