International audienceThis paper analyses the GW method for finite electronic systems. In a first step, we provide a mathematical framework for the usual one-body operators that appear naturally in many-body perturbation theory. We then discuss the GW equations which construct an approximation of the one-body Green's function, and give a rigorous mathematical formulation of these equations. Finally, we study the well-posedness of the GW0 equations, proving the existence of a unique solution to these equations in a perturbative regime
We summarize the MOLGW code that implements density-functional theory and many-body perturbation the...
We present a benchmark study of gas phase geometry optimizations in the excited states of carbon mon...
A method to implement the many-body Green function formalism in the GW approximation for infinite no...
The GW-method is a Green’s function based approach from the field of many body perturbation theory. ...
The GW-method is a Green’s function based approach from the field of many body perturbation theory. ...
The GW approximation in electronic structure theory has become a widespread tool for predicting elec...
International audienceSeveral widely used methods for the calculation of band structures and photo e...
International audienceMany-body Green's function perturbation theories, such as the GW and Bethe-Sal...
11 pages, 4 figuresUsing the simple (symmetric) Hubbard dimer, we analyze some important features of...
Using the simple (symmetric) Hubbard dimer, we analyze some important features of the GW approximati...
The GW approximation of many-body perturbation theory is an accurate method for computing electron a...
Quasi-particle energies are important in predicting molecular ionization energies and bulk band stru...
Electronic excitations lie at the origin of most of the commonly measured spectra. However, the firs...
In this contribution we describe our G0W0 implementation in the quantum chemistry package TURBOMOLE....
We summarize the MOLGW code that implements density-functional theory and many-body perturbation the...
We present a benchmark study of gas phase geometry optimizations in the excited states of carbon mon...
A method to implement the many-body Green function formalism in the GW approximation for infinite no...
The GW-method is a Green’s function based approach from the field of many body perturbation theory. ...
The GW-method is a Green’s function based approach from the field of many body perturbation theory. ...
The GW approximation in electronic structure theory has become a widespread tool for predicting elec...
International audienceSeveral widely used methods for the calculation of band structures and photo e...
International audienceMany-body Green's function perturbation theories, such as the GW and Bethe-Sal...
11 pages, 4 figuresUsing the simple (symmetric) Hubbard dimer, we analyze some important features of...
Using the simple (symmetric) Hubbard dimer, we analyze some important features of the GW approximati...
The GW approximation of many-body perturbation theory is an accurate method for computing electron a...
Quasi-particle energies are important in predicting molecular ionization energies and bulk band stru...
Electronic excitations lie at the origin of most of the commonly measured spectra. However, the firs...
In this contribution we describe our G0W0 implementation in the quantum chemistry package TURBOMOLE....
We summarize the MOLGW code that implements density-functional theory and many-body perturbation the...
We present a benchmark study of gas phase geometry optimizations in the excited states of carbon mon...
A method to implement the many-body Green function formalism in the GW approximation for infinite no...