The GW method and the Bethe–Salpeter equation (BSE) have exhibited excellent
performance in computing charged and neutral electronic excitations in materials of various …

The GW approximation has recently gained increasing attention as a viable method for the
computation of deep core-level binding energies as measured by X-ray photoelectron …

We present algorithmic and implementation details for the fully self-consistent finite-
temperature GW method in Gaussian Bloch orbitals for solids. Our implementation is based …

We present a quantitatively accurate machine-learning (ML) model for the computational
prediction of core–electron binding energies, from which X-ray photoelectron spectroscopy …

We use the GW100 benchmark set to systematically judge the quality of several perturbation
theories against high-level quantum chemistry methods. First of all, we revisit the reference …

The GW-Bethe–Salpeter equation (BSE) method is promising for calculating the low-lying
excitonic states of molecular systems. However, so far it has only been applied to rather …

We present an implementation of the GW space–time approach that allows cubic-scaling all-
electron calculations with standard Gaussian basis sets without exploiting any localization or …

In recent years, the GW method has emerged as a reliable tool for computing core-level
binding energies. The contour deformation (CD) technique has been established as an …

Many-body perturbation theory methods, such as the G 0 W 0 approximation, are able to
accurately predict quasiparticle (QP) properties of several classes of materials. However, the …

The GW method is widely used for calculating the electronic band structure of materials. The
high computational cost of GW algorithms prohibits their application to many systems of …