We show that atomistic first-principles calculations based on real-time propagation within
time-dependent density functional theory are capable of accurately describing electronic …

We use first-principles calculations to uncover and explain a new type of anomalous low-
velocity stopping effect in proton-irradiated graphene. We attribute a shoulder feature that …

In ion irradiation processes, electronic stopping power describes the energy transfer rate
from the irradiating ion to the target material's electrons. Due to the scarcity and significant …

The electronic stopping power is an observable property that quantifies the ability of swift
ions to penetrate matter to transfer energy to the electron cloud. The recent literature has …

The electronic stopping power of protons and He ions traveling along the channeling and off-
channeling trajectories in indium is reported based on time-dependent density functional …

We investigate the effect of the electronic stopping power on defect production due to ion
irradiation of cubic silicon carbide using molecular dynamics simulations. We simulate 20 …

The direction and impact parameter dependence of electronic stopping power, along with its
velocity threshold behavior, is investigated in a prototypical small-band-gap semiconductor …

The electronic stopping power of palladium (Pd) for protons is investigated based on time-
dependent density functional theory combined with Ehrenfest molecular dynamics …

The electronic stopping power of protons traveling along the channeling and off-channeling
trajectories in platinum (Pt) is reported based on time-dependent density functional theory …

A combined nonequilibrium Green functions–Ehrenfest dynamics approach is developed
that allows for a time-dependent study of the energy loss of a charged particle penetrating a …