Materials such as graphene and topological insulators host massless Dirac fermions that
enable the study of relativistic quantum phenomena. Single quantum dots and coupled …

Twist-controlled moiré superlattices (MSs) have emerged as a versatile platform for realizing
artificial systems with complex electronic spectra. The combination of Bernal-stacked bilayer …

The presence of two sublattices in hexagonal graphene brings two energetically degenerate
extremes in the conduction and valence bands, which are identified by the valley quantum …

We investigate the proximity spin-orbit and exchange couplings in ABA and ABC trilayer
graphene encapsulated within monolayers of semiconducting transition-metal …

Tetralayer graphene has recently become a new addition to the family of few-layer
graphenes with versatile electronic properties. This material can be realized in three …

Atomically thin materials offer multiple opportunities for layer-by-layer control of their
electronic properties. While monolayer graphene (MLG) is a zero-gap system, Bernal …

Graphene, a Dirac semimetal, exhibits the simplest lattice configuration and band structure
in the world of two-dimensional materials. Due to its remarkable brevity and tunability …

Topologically protected flat surface bands make thin films of rhombohedral graphite an
appealing platform for searching for strongly correlated states of 2D electrons. In this work …

The properties of spin and valley transport of piezotronics valley transistor is studied based
on a normal/ferromagnetic/normal (NFN) structure of monolayer (ML) transition metal …

Strongly correlated states commonly emerge in twisted bilayer graphene (TBG) with “magic-
angle”(1.1°), where the electron–electron (ee) interaction U becomes prominent relative to …