Non-linearities in the electronic stopping power of light projectiles in bulk Al and LiF are addressed from first principles using time-evolving time-dependent density functional theory. In the case of Al, the agreement of the calculations with experiments for H and He projectiles is fair, but a recently observed transition for He from one value of the electronic friction coefficient to a higher value at v ~ 0.3 a.u. is not reproduced by the calculations. For LiF, better accuracy is obtained as compared with previously published simulations, albeit the threshold remains overestimated
Electronic stopping power of compounds was calculated by using the Thomas-Fermi-Dirac-Weizsäcker den...
The electronic stopping power for low-velocity ions (including protons and alpha particles) in the s...
International audienceWe report the \textit{ab initio} prediction of a negative Barkas coefficient i...
Using time-dependent density-functional theory we calculate from first principles the rate of energy...
The electronic stopping power for low-velocity ions (including protons, alpha-particles, and C4+) is...
In this paper, we show that atomistic first-principles calculations based on real-time propagation w...
The electronic stopping power is a fundamental quantity to many technological fields that use ion ir...
© 2015 American Physical Society. The direction and impact parameter dependence of electronic stoppi...
International audienceThe electronic stopping power is a crucial quantity for ion irradiation: it go...
Using time-dependent density functional theory we calculate from first-principles the rate of energy...
The electronic stopping power, which is the energy transfer from a charged particle travelling throu...
We have implemented a real-time time-dependent density-functional theory (RT-TDDFT) algorithm within...
Electronic stopping power of compounds was calculated by using the Thomas-Fermi-Dirac-Weizsäcker den...
The electronic stopping power for low-velocity ions (including protons and alpha particles) in the s...
International audienceWe report the \textit{ab initio} prediction of a negative Barkas coefficient i...
Using time-dependent density-functional theory we calculate from first principles the rate of energy...
The electronic stopping power for low-velocity ions (including protons, alpha-particles, and C4+) is...
In this paper, we show that atomistic first-principles calculations based on real-time propagation w...
The electronic stopping power is a fundamental quantity to many technological fields that use ion ir...
© 2015 American Physical Society. The direction and impact parameter dependence of electronic stoppi...
International audienceThe electronic stopping power is a crucial quantity for ion irradiation: it go...
Using time-dependent density functional theory we calculate from first-principles the rate of energy...
The electronic stopping power, which is the energy transfer from a charged particle travelling throu...
We have implemented a real-time time-dependent density-functional theory (RT-TDDFT) algorithm within...
Electronic stopping power of compounds was calculated by using the Thomas-Fermi-Dirac-Weizsäcker den...
The electronic stopping power for low-velocity ions (including protons and alpha particles) in the s...
International audienceWe report the \textit{ab initio} prediction of a negative Barkas coefficient i...