Nuclear dynamics is incorporated into an efficient density matrix formalism of electronic dynamics which has been applied to molecular systems containing thousands of atoms. The formalism for the combined dynamics of electrons and nuclei is derived from the Dirac–Frenkel variational principle. The single electron reduced density matrices and the Glauber coherent states are used for the electronic and nuclear degrees of freedom, respectively. The new formalism is applicable to simulate the dynamics of large molecular systems. As an illustration of its validity, the formalism is employed to calculate the electron and nuclei dynamics of hydrogen molecules.Published versio
A new formalism based on the equation of motion for the reduced single-electron density matrix has b...
We introduce the electron-nucleus mean-field configuration-interaction (EN-MFCI) approach. It consis...
We propose and implement an alternative approach to the original Car-Parrinello method where the den...
Nuclear dynamics is incorporated into an efficient density matrix formalism of electronic dynamics w...
The thesis introduces the concept of the adiabatic approximation in relation to the dynamics of the ...
In conventional mixed electron-nuclear molecular dynamics simulations, the molecular systems are alw...
Quantum molecular dynamics is the computer simulation of atomic many-body ensembles based on classic...
Because the molecular Hamiltonian contains only one-body and two-body operators, the two-electron re...
Methods for including quantum mechanical effects in molecular dynamics (MD) simulations are discusse...
This volume provides a comprehensive introduction to the theory of electronic motion in molecular pr...
We derive the basic formalism of density functional theory for time-dependent electron-nuclear syste...
The ab-initio molecular dynamics method proposed by Car and Parrinello (C-P) permits the simulation ...
Written in a clear pedagogic style, this book deals with the application of density matrix theory to...
38 pagesInternational audienceWe introduce the electron-nuclei general mean field configuration inte...
A novel density functional theory (DFT) code is described that implements Yang's divide-and-conquer ...
A new formalism based on the equation of motion for the reduced single-electron density matrix has b...
We introduce the electron-nucleus mean-field configuration-interaction (EN-MFCI) approach. It consis...
We propose and implement an alternative approach to the original Car-Parrinello method where the den...
Nuclear dynamics is incorporated into an efficient density matrix formalism of electronic dynamics w...
The thesis introduces the concept of the adiabatic approximation in relation to the dynamics of the ...
In conventional mixed electron-nuclear molecular dynamics simulations, the molecular systems are alw...
Quantum molecular dynamics is the computer simulation of atomic many-body ensembles based on classic...
Because the molecular Hamiltonian contains only one-body and two-body operators, the two-electron re...
Methods for including quantum mechanical effects in molecular dynamics (MD) simulations are discusse...
This volume provides a comprehensive introduction to the theory of electronic motion in molecular pr...
We derive the basic formalism of density functional theory for time-dependent electron-nuclear syste...
The ab-initio molecular dynamics method proposed by Car and Parrinello (C-P) permits the simulation ...
Written in a clear pedagogic style, this book deals with the application of density matrix theory to...
38 pagesInternational audienceWe introduce the electron-nuclei general mean field configuration inte...
A novel density functional theory (DFT) code is described that implements Yang's divide-and-conquer ...
A new formalism based on the equation of motion for the reduced single-electron density matrix has b...
We introduce the electron-nucleus mean-field configuration-interaction (EN-MFCI) approach. It consis...
We propose and implement an alternative approach to the original Car-Parrinello method where the den...