deletions | additions       diff --git a/section_Computational_and_Theoretical_Details__1.tex b/section_Computational_and_Theoretical_Details__1.tex  index 726a894..4dd48c8 100644  --- a/section_Computational_and_Theoretical_Details__1.tex  +++ b/section_Computational_and_Theoretical_Details__1.tex 
...
\section{Computational and Theoretical Details}  %In this work we employed the formalism of TDDFT coupled with Ehrenfest molecular dynamics (EMD) \cite{Gross_1996,Calvayrac_2000,Mason_2007,Alonso_2008,Andrade_2009} to simulate the collision processes between the target electrons and the ion (proton).   %Within the TDDFT-EMD method, the dynamics of the electrons are treated quantum mechanically described by TDDFT and the nuclei are point particles treated classically using EMD.  %We used this method to calculate most microscopic quantities along the process (forces, electronic density, charges, etc), in particular, we report the calculation of $S_\text{e}$ that can be directly compared with experiments.   %We compared our results with those contained in \textsc{SRIM} database for the case of proton in $\mathrm{Cu}$.  During the course of the simulation, we monitor the energy transferred to the electrons of the target due to a constant velocity moving proton.   %At the time scales of the simulations, the large mass of the proton guarantees a change in its velocity that is relatively small.