An extension of the nonadiabatic quantum molecular dynamics approach is presented to account for electron-nuclear correlations in the dynamics of atomic many-body systems. The method combines electron dynamics described within time-dependent density-functional or Hartree-Fock theory with trajectory-surface-hopping dynamics for the nuclei, allowing us to take into account explicitly a possible external laser field. As a case study, a model system of H++H collisions is considered where full quantum-mechanical calculations are available for comparison. For this benchmark system the extended surface-hopping scheme exactly reproduces the full quantum results. Future applications are briefly outlined
Trajectory-based approaches to excited-state, nonadiabatic dynamics are promising simulation techniq...
Coupled quantum electron–nuclear dynamics is often associated with the Born–Huang expansion of the m...
Trajectory-based mixed, quantum-classical approaches to coupled electron-nuclear dynamics suffer fro...
An extension of the nonadiabatic quantum molecular dynamics approach is presented to account for ele...
An extension of the nonadiabatic quantum molecular dynamics approach is presented to account for ele...
An extension of the nonadiabatic quantum molecular dynamics approach is presented to account for ele...
An extension of the nonadiabatic quantum molecular dynamics approach is presented to account for ele...
The non-adiabatic quantum molecular dynamics (NA-QMD) method couples self-consistently classical nuc...
The non-adiabatic quantum molecular dynamics (NA-QMD) method couples self-consistently classical nuc...
Description of correct electron-nuclear couplings is crucial in modeling of nonadiabatic dynamics. W...
Photoinduced excitation and relaxation of organic molecules (C2H4 and CH2NH+2) are investigated by m...
Advances in coherent light sources and development of pump-probe techniques in recent decades have o...
Coupled quantum electron-nuclear dynamics is oftenassociatedwith the Born-Huang expansion of the mol...
Description of correct electron–nuclear couplings is crucial in modeling of nonadiabatic dynamics. W...
A general formalism of the so-called non-adiabatic quantum molecular dynamics is presented, which ap...
Trajectory-based approaches to excited-state, nonadiabatic dynamics are promising simulation techniq...
Coupled quantum electron–nuclear dynamics is often associated with the Born–Huang expansion of the m...
Trajectory-based mixed, quantum-classical approaches to coupled electron-nuclear dynamics suffer fro...
An extension of the nonadiabatic quantum molecular dynamics approach is presented to account for ele...
An extension of the nonadiabatic quantum molecular dynamics approach is presented to account for ele...
An extension of the nonadiabatic quantum molecular dynamics approach is presented to account for ele...
An extension of the nonadiabatic quantum molecular dynamics approach is presented to account for ele...
The non-adiabatic quantum molecular dynamics (NA-QMD) method couples self-consistently classical nuc...
The non-adiabatic quantum molecular dynamics (NA-QMD) method couples self-consistently classical nuc...
Description of correct electron-nuclear couplings is crucial in modeling of nonadiabatic dynamics. W...
Photoinduced excitation and relaxation of organic molecules (C2H4 and CH2NH+2) are investigated by m...
Advances in coherent light sources and development of pump-probe techniques in recent decades have o...
Coupled quantum electron-nuclear dynamics is oftenassociatedwith the Born-Huang expansion of the mol...
Description of correct electron–nuclear couplings is crucial in modeling of nonadiabatic dynamics. W...
A general formalism of the so-called non-adiabatic quantum molecular dynamics is presented, which ap...
Trajectory-based approaches to excited-state, nonadiabatic dynamics are promising simulation techniq...
Coupled quantum electron–nuclear dynamics is often associated with the Born–Huang expansion of the m...
Trajectory-based mixed, quantum-classical approaches to coupled electron-nuclear dynamics suffer fro...