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 …

The material choice, layer thickness, and twist angle widely enrich the family of van der
Waals heterostructures (vdWHs), providing multiple degrees of freedom to engineer their …

Graphene's zero-bandgap energy band structure limits its electrical applications but gives it
superior optical and optoelectronic properties. In twisted bilayer graphene (TwBLG), a …

The understanding of interactions between electrons and phonons in atomically thin
heterostructures is crucial for the engineering of novel two-dimensional devices. Electron …

Misorientation of two layers of bilayer graphene leaves distinct signatures in the electronic
properties and the phonon modes. The effect on the thermal conductivity has received the …

Graphene has nearly become an area that is experiencing rapid growth. The observation of
moiré patterns in mechanically stacked graphene layers has triggered rapid progress in …

We observe distinct interlayer shear mode Raman spectra for trilayer graphene with ABA
and ABC stacking order. There are two rigid-plane shear-mode phonon branches in trilayer …

Using a Green's function approach, we study phonon-mediated superconducting pairing
symmetries that may arise in bilayer graphene where the monolayers are displaced in-plane …

Van der Waals layered materials with well-defined twist angles between the crystal lattices
of individual layers have attracted increasing attention due to the emergence of unexpected …

Twisted bilayer graphene is a fascinating system due to the possibility of tuning the
electronic and optical properties by controlling the twisting angle θ between the layers. The …