A highly unconventional superconducting state with a spin-singlet $ d_ {x^ 2-y^ 2}\pm {\rm i}
d_ {xy} $-wave, or chiral d-wave symmetry has recently been suggested to emerge from …

This article reviews the rich magneto-electronic properties of multilayer graphene systems.
Multilayer graphenes are built from graphene sheets attracting one another by van der …

Many physical phenomena can be understood by single-particle physics; that is, treating
particles as non-interacting entities. When this fails, many-body interactions lead to …

The generalized Peierls tight-binding model is developed to study multilayer graphenes. For
an N-layer system, there are N groups of conduction and valence Landau levels. Each …

ABC-stacked trilayer graphene (TLG) was predicted to exhibit novel many-body phenomena
due to the existence of almost dispersionless flat bands near the charge neutrality point …

This book provides a synthesis of up to date research on the optical properties of graphene,
drawing from both experimental and theoretical research. The focus is primarily on …

The copresence of multiple Dirac bands in few-layer graphene leads to a rich phase
diagram in the quantum Hall regime. Using transport measurements, we map the phase …

Rhombohedral multilayer graphene (RnG) featuring partially flat bands has emerged as an
important platform to probe strong Coulomb correlation effects. Theoretical consideration of …

The quantum Hall effect has recently been generalized from transport of conserved charges
to include transport of other approximately conserved-state variables, including spin and …

ABA-stacked trilayer graphene (TLG), the simplest system consisting of both monolayerlike
and bilayerlike Dirac fermions, is expected to exhibit many interesting broken-symmetry …