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 …

This article reviews the theoretical and experimental work related to the electronic properties
of bilayer graphene systems. Three types of bilayer stackings are discussed: the AA, AB, and …

We present a theory of phonon-mediated superconductivity in near magic angle twisted
bilayer graphene. Using a microscopic model for phonon coupling to moiré band electrons …

We identify states favored by Coulomb interactions projected onto the Wannier basis of the
four narrow bands of the “magic angle” twisted bilayer graphene. At the filling of 2 …

A wide range of materials, like d-wave superconductors, graphene, and topological
insulators, share a fundamental similarity: their low-energy fermionic excitations behave as …

At very high do** levels the van Hove singularity in the π* band of graphene becomes
occupied and exotic ground states possibly emerge, driven by many-body interactions …

Understanding Dirac-like fermions has become an imperative in modern condensed matter
sciences: All across the research frontier, from graphene to high T c superconductors to the …

High-pressure chemistry is known to inspire the creation of unexpected new classes of
compounds with exceptional properties. Here, we employ the laser-heated diamond anvil …

Flat electronic bands can accommodate a plethora of interaction-driven quantum phases,
since kinetic energy is quenched therein and electronic interactions therefore prevail …

We performed a detailed microscopic analysis of the interlayer magnetic couplings for
bilayer CrI 3. As a first step toward understanding recent experimental observations and …