Strong electronic correlations pose one of the biggest challenges to solid state theory.
Recently developed methods that address this problem by starting with the local, eminently …

We review recent developments in electronic structure calculations that go beyond state-of-
the-art methods such as density functional theory (DFT) and dynamical mean field theory …

We present and implement a self-consistent D Γ A approach for multiorbital models and ab
initio materials calculations. It is applied to the one-band Hubbard model at various …

While defects such as oxygen vacancies in correlated materials can modify their electronic
properties dramatically, understanding the microscopic origin of electronic correlations in …

Strongly correlated physics arises due to electron-electron scattering within partially-filled
orbitals, and in this perspective, organic molecules in open-shell configuration are good …

We study the role of electronic spin and valley symmetry in the quantum interference (QI)
patterns of the transmission function in graphene quantum junctions. In particular, we link it …

Realizing the promises of molecular electronic devices requires an understanding of
transport on the nanoscale. Here, we consider a Su-Schrieffer-Heeger model for semi …

Nanostructures with open shell transition metal or molecular constituents host often strong
electronic correlations and are highly sensitive to atomistic material details. This tutorial …

We investigate the stability of destructive quantum interference (DQI) in electron transport
through graphene nanostructures connected to source and drain electrodes. The fingerprint …

The magnetic properties of zigzag graphene nanoflakes (ZGNFs) are investigated within the
framework of inhomogeneous dynamical mean-field theory. At half-filling and for realistic …