We present a new approach to density functional theory, which does not require the calculation of Kohn-Sham orbitals. The computational workload required by our method-which is based on the calculation of selected elements of the Green's function-scales linearly with the volume of the system, thus opening the way to first-principles calculations for very large systems. Some of the problems which still hinder the achievement of this goal are discussed, and possible solutions are outlined. As an application, we calculate the charge density of a model silicon supercell containing 64 atoms slightly displaced at random from equilibrium
Density functional (DF) theory has proved to be a powerful way to determine the ground state energy ...
We present GW calculations of molecules, ordered and disordered solids and interfaces, which employ ...
One of the great challenges of modern condensed matter theory is to develop reliable and practical m...
We formulate the Kohn-Sham density functional theory in terms of nonorthogonal, localized orbitals. ...
In the past decade, developments of computational technology around density functional theory (DFT) ...
Algorithms for treating large molecules are developed and implemented within the DeFT density functi...
A method for the solution of the self-consistent Kohn-Sham equations using Gaussian-type orbitals is...
Simulations of materials from first principles have improved drastically over the last few decades, ...
This is the author accepted manuscript. The final version is available from IOP at http://dx.doi.org...
We develop a method in which the electronic densities of small fragments determined by Kohn-Sham den...
Kohn-Sham density functional theory (DFT) is a powerful, well-established tool for the study of cond...
We propose an efficient way to calculate the electronic structure of large systems by combining a la...
Development of new materials needs better understanding of the behavior of materials at nanoscale wh...
Simulations of materials from first-principles have improved drastically over the last decades, bene...
Abstract State-of-the-art treatment of nuclei and electrons in materials uses ab initio molecular dy...
Density functional (DF) theory has proved to be a powerful way to determine the ground state energy ...
We present GW calculations of molecules, ordered and disordered solids and interfaces, which employ ...
One of the great challenges of modern condensed matter theory is to develop reliable and practical m...
We formulate the Kohn-Sham density functional theory in terms of nonorthogonal, localized orbitals. ...
In the past decade, developments of computational technology around density functional theory (DFT) ...
Algorithms for treating large molecules are developed and implemented within the DeFT density functi...
A method for the solution of the self-consistent Kohn-Sham equations using Gaussian-type orbitals is...
Simulations of materials from first principles have improved drastically over the last few decades, ...
This is the author accepted manuscript. The final version is available from IOP at http://dx.doi.org...
We develop a method in which the electronic densities of small fragments determined by Kohn-Sham den...
Kohn-Sham density functional theory (DFT) is a powerful, well-established tool for the study of cond...
We propose an efficient way to calculate the electronic structure of large systems by combining a la...
Development of new materials needs better understanding of the behavior of materials at nanoscale wh...
Simulations of materials from first-principles have improved drastically over the last decades, bene...
Abstract State-of-the-art treatment of nuclei and electrons in materials uses ab initio molecular dy...
Density functional (DF) theory has proved to be a powerful way to determine the ground state energy ...
We present GW calculations of molecules, ordered and disordered solids and interfaces, which employ ...
One of the great challenges of modern condensed matter theory is to develop reliable and practical m...