We have calculated the electronic stopping power and the energy-loss straggling parameter of swift He, Li, B, and N ions moving through several oxides, namely SiO2, Al2O3, and ZrO2. The evaluation of these stopping magnitudes was done in the framework of the dielectric formalism. The target properties are described by means of a combination of Mermin-type energy-loss functions that characterize the response of valence-band electrons, together with generalized oscillator strengths to take into account the ionization of inner-shell electrons. We have considered the different charge states that the projectile can have, as a result of electron capture and loss processes, during its motion through the target. The electron density for each charge...
The self-consistent electron–ion potential V(r) is calculated for H+ ions in an electron gas system ...
In this paper we propose a nonperturbative approximation to electronic stopping power based on the c...
Electronic stopping of slow protons in ZnO, VO2 (metal and semiconductor phases), HfO2, and Ta2O5 wa...
We have calculated the electronic stopping power and the energy-loss straggling parameter of swift H...
We have evaluated the energy loss of protons when moving through several oxides (Al2O3, SiO2, and Zr...
We have calculated the stopping power of Al, Si, Ni and Cu for swift H and He ion beams. Furthermore...
We present theoretical calculations of the energy-loss straggling of C, Al, Si, and Cu targets for H...
The electronic energy loss of swift H and He ions in solid Ag is studied theoretically within the di...
The aim of the work, a survey is presented on calculating the energy loss of charged particles withi...
AbstractA formalism for the inelastic cross-section for electronic collisions of protons and heavier...
We have theoretically studied the electronic stopping cross section and the energy loss straggling o...
Understanding and predicting the energy loss of swift ions in metals is important for many applicati...
We have determined the electron stopping power (SP) and inelastic mean free path (IMFP) of (ZrO2)x(S...
We calculate the electronic energy loss of swift H+ and He+ ion beams in several solids with applica...
The electronic stopping power, S, of HfO2 films for proton and alpha particle beams has been measure...
The self-consistent electron–ion potential V(r) is calculated for H+ ions in an electron gas system ...
In this paper we propose a nonperturbative approximation to electronic stopping power based on the c...
Electronic stopping of slow protons in ZnO, VO2 (metal and semiconductor phases), HfO2, and Ta2O5 wa...
We have calculated the electronic stopping power and the energy-loss straggling parameter of swift H...
We have evaluated the energy loss of protons when moving through several oxides (Al2O3, SiO2, and Zr...
We have calculated the stopping power of Al, Si, Ni and Cu for swift H and He ion beams. Furthermore...
We present theoretical calculations of the energy-loss straggling of C, Al, Si, and Cu targets for H...
The electronic energy loss of swift H and He ions in solid Ag is studied theoretically within the di...
The aim of the work, a survey is presented on calculating the energy loss of charged particles withi...
AbstractA formalism for the inelastic cross-section for electronic collisions of protons and heavier...
We have theoretically studied the electronic stopping cross section and the energy loss straggling o...
Understanding and predicting the energy loss of swift ions in metals is important for many applicati...
We have determined the electron stopping power (SP) and inelastic mean free path (IMFP) of (ZrO2)x(S...
We calculate the electronic energy loss of swift H+ and He+ ion beams in several solids with applica...
The electronic stopping power, S, of HfO2 films for proton and alpha particle beams has been measure...
The self-consistent electron–ion potential V(r) is calculated for H+ ions in an electron gas system ...
In this paper we propose a nonperturbative approximation to electronic stopping power based on the c...
Electronic stopping of slow protons in ZnO, VO2 (metal and semiconductor phases), HfO2, and Ta2O5 wa...