Using time-dependent density functional theory we calculate from first-principles the rate of energy transfer from a moving charged particle to the electrons in an insulating material. The behavior of the electronic stopping power in LiF (a wide band gap insulator) versus projectile velocity displays an effective threshold velocity of 8.2 Bohr/asec for the proton, consistent with recent experimental observations. The calculated proton/antiproton stopping power ratio is 2.4 at velocities slightly above the threshold (16.5 Bohr/asec) as compared to the experimental value of 2.1. The approximations introduced in this\ud new non-perturbative methodology are discussed, and results on the velocity dependence of the stopping power, the locality of...
In this paper, we show that atomistic first-principles calculations based on real-time propagation w...
Energy loss of slow charged particles in a degenerate electron gas is calculated on the basis of the...
Knowing the rate at which particle radiation releases energy in a material, the stopping power, is k...
Using time-dependent density functional theory we calculate from first-principles the rate of energy...
Using time-dependent density-functional theory we calculate from first principles the rate of energy...
International audienceThe electronic stopping power is a crucial quantity for ion irradiation: it go...
The electronic stopping power for low-velocity ions (including protons and alpha particles) in the s...
The electronic stopping power for low-velocity ions (including protons, alpha-particles, and C4+) is...
We use Ehrenfest dynamics and time-dependent density functional theory to calculate electronic stopp...
related to the electronic stopping power in large electronic band gap insulators.\ud A projectile sh...
The electronic stopping power, which is the energy transfer from a charged particle travelling throu...
Non-linearities in the electronic stopping power of light projectiles in bulk Al and LiF are address...
The effects of incident energetic particles, and the modification of materials under irradiation, ar...
We have implemented a real-time time-dependent density-functional theory (RT-TDDFT) algorithm within...
The aim of the work, a survey is presented on calculating the energy loss of charged particles withi...
In this paper, we show that atomistic first-principles calculations based on real-time propagation w...
Energy loss of slow charged particles in a degenerate electron gas is calculated on the basis of the...
Knowing the rate at which particle radiation releases energy in a material, the stopping power, is k...
Using time-dependent density functional theory we calculate from first-principles the rate of energy...
Using time-dependent density-functional theory we calculate from first principles the rate of energy...
International audienceThe electronic stopping power is a crucial quantity for ion irradiation: it go...
The electronic stopping power for low-velocity ions (including protons and alpha particles) in the s...
The electronic stopping power for low-velocity ions (including protons, alpha-particles, and C4+) is...
We use Ehrenfest dynamics and time-dependent density functional theory to calculate electronic stopp...
related to the electronic stopping power in large electronic band gap insulators.\ud A projectile sh...
The electronic stopping power, which is the energy transfer from a charged particle travelling throu...
Non-linearities in the electronic stopping power of light projectiles in bulk Al and LiF are address...
The effects of incident energetic particles, and the modification of materials under irradiation, ar...
We have implemented a real-time time-dependent density-functional theory (RT-TDDFT) algorithm within...
The aim of the work, a survey is presented on calculating the energy loss of charged particles withi...
In this paper, we show that atomistic first-principles calculations based on real-time propagation w...
Energy loss of slow charged particles in a degenerate electron gas is calculated on the basis of the...
Knowing the rate at which particle radiation releases energy in a material, the stopping power, is k...