Graphite is a perfect anode and has dominated the anode materials since the birth of lithium
ion batteries, benefiting from its incomparable balance of relatively low cost, abundance …

Rhombohedral-stacked multilayer graphene hosts a pair of flat bands touching at zero
energy, which should give rise to correlated electron phenomena that can be tuned further …

When electrons are confined in a two-dimensional (2D) system, typical quantum–
mechanical phenomena such as Landau quantization can be detected. Graphene systems …

Bilayer graphene has been predicted to host a moiré miniband with flat dispersion if the
layers are stacked at specific twist angles known as the'magic angles',. Recently, twisted …

We propose a novel mechanism of flat band formation based on the relative biasing of only
one sublattice against other sublattices in a honeycomb lattice bilayer. The mechanism …

Two-dimensional (2D) materials have recently been the focus of extensive research. By
following a similar trend as graphene, other 2D materials, including transition metal …

We consider the Z 2 topology of the Dirac lines, ie, lines of band contacts, on an example of
graphite. Four lines—three with topological charge ${N} _ {1}= 1$ each and one with ${N} …

Twisted layers of atomically thin two-dimensional materials support a broad range of
quantum materials with engineered optical and transport properties. Transition metal …

The crystallographic stacking order in multilayer graphene plays an important role in
determining its electronic structure. In trilayer graphene, rhombohedral stacking (ABC) is …

We investigate the occurrence of magnetic and charge density wave instabilities in
rhombohedral-stacked multilayer (three to eight layers) graphene by first principles …