The long fascination that antiferromagnetic materials has exerted on the scientific community
over about a century has been entirely renewed recently with the discovery of several …

Time-reversal symmetric topological insulators are generically robust with respect to weak
local interaction unless symmetry-breaking transitions take place. Using dynamical mean …

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 …

We study the coherent nonequilibrium dynamics of interacting two-dimensional systems
after a quench from a trivial to a topological Chern insulator phase. While the many-body …

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

A topological insulator doped with random magnetic impurities is studied. The system is
modeled by the Kane-Mele model with a random spin exchange between conduction …

We study by a consistent mean-field scheme the role on the single-and two-particle
properties of a local electron-electron repulsion in the Bernevig, Hughes, and Zhang model …

The impact of Coulomb interaction on the electronic properties of a quantum spin Hall
insulator is studied using quantum cluster methods, disentangling local from nonlocal …

We propose an effective model for the study of the interplay between correlation and
topology by decorating the Kane-Mele model with a set of localized interacting orbitals …