Tight-binding molecular dynamics is a semi-empirical method that has been used successfully in describing the properites of covalent-bonded semiconductor materials. This approach is based on the semi-empirical tight-binding model for electronic effects (quantum mechanical) and classical molecular dynamics for atoms (classical). This work focuses on a system- aticalreview and a specific implementation of the tight-binding molecular dynamics method, using recently developed molecular dynamic simulated annealing (Car-Parrinello) and density-matrix renormalization algorithm. The above methods scales as N2 and N, respectively, in comparison with the standard diagonalization method that scales as N3, where N is the numbers of atoms in the system....
Results of a molecular-dynamics computer simulation are presented for atomic relaxations and relaxat...
textWe have developed continuous random network (CRN) model based Metropolis Monte Carlo simulation ...
It is widely accepted in the materials modeling community that defect-free realistic networks of amo...
We present the results of over 90 tight-binding molecular-dynamics simulations of collisions between...
A recently developed non-conventional tight-binding method was applied in combination with molecular...
In this work we implement a tight-binding calculation of the energy bands of silicon. This tradition...
By using tight-binding molecular dynamics with Fermi operator expansion, we study vacancy defects in...
This work deals with the atomistic description of condensed matter via its band structure and the ac...
We have developed a tight-binding molecular dynamics (TBMD) approach for simulating the Si-H bonds i...
Tight-binding or linear combination of atomic orbitals is a method for computing the electronic stru...
Although over the past years huge progress has been made in silicon research and silicon can be rega...
Molecular dynamics (MD) is used to understand the properties of materials by following the time evol...
International audienceWe investigate the feasibility of improving the semi-empirical density functio...
A hybrid density-functional-theory and molecular-dynamics simulation scheme was proposed [Ogata, Com...
Vacancies and self-interstitial defects in silicon are here investigated by means of semi-empirical ...
Results of a molecular-dynamics computer simulation are presented for atomic relaxations and relaxat...
textWe have developed continuous random network (CRN) model based Metropolis Monte Carlo simulation ...
It is widely accepted in the materials modeling community that defect-free realistic networks of amo...
We present the results of over 90 tight-binding molecular-dynamics simulations of collisions between...
A recently developed non-conventional tight-binding method was applied in combination with molecular...
In this work we implement a tight-binding calculation of the energy bands of silicon. This tradition...
By using tight-binding molecular dynamics with Fermi operator expansion, we study vacancy defects in...
This work deals with the atomistic description of condensed matter via its band structure and the ac...
We have developed a tight-binding molecular dynamics (TBMD) approach for simulating the Si-H bonds i...
Tight-binding or linear combination of atomic orbitals is a method for computing the electronic stru...
Although over the past years huge progress has been made in silicon research and silicon can be rega...
Molecular dynamics (MD) is used to understand the properties of materials by following the time evol...
International audienceWe investigate the feasibility of improving the semi-empirical density functio...
A hybrid density-functional-theory and molecular-dynamics simulation scheme was proposed [Ogata, Com...
Vacancies and self-interstitial defects in silicon are here investigated by means of semi-empirical ...
Results of a molecular-dynamics computer simulation are presented for atomic relaxations and relaxat...
textWe have developed continuous random network (CRN) model based Metropolis Monte Carlo simulation ...
It is widely accepted in the materials modeling community that defect-free realistic networks of amo...