A broad review of fundamental electronic properties of two-dimensional graphene with the
emphasis on density and temperature-dependent carrier transport in doped or gated …

Quantum chaos is generally referred to as the study of quantum manifestations or
fingerprints of nonlinear dynamical and chaotic behaviors in the corresponding classical …

Although graphene has the longest mean free path of carriers of any known electronic
material, very few novel devices have been reported to harness this extraordinary property …

We present exact analytical solutions for the zero-energy modes of two-dimensional
massless Dirac fermions fully confined within a smooth one-dimensional potential V (x) …

We investigate the magnetotransport in large area graphene Hall bars epitaxially grown on
silicon carbide. In the intermediate field regime between weak localization and Landau …

Graphene's high mobility and two-dimensional nature make it an attractive material for field-
effect transistors. Previous efforts in this area have used bulk gate dielectric materials such …

Monolayers of group 6 transition metal dichalcogenides are promising candidates for future
spin-, valley-, and charge-based applications. Quantum transport in these materials reflects …

We analyze the inelastic electron-electron scattering in undoped graphene within the
Keldysh diagrammatic approach. We demonstrate that finite temperature strongly affects the …

Graphene provides a fascinating testbed for new physics and exciting opportunities for
future applications based on quantum phenomena. To understand the coherent flow of …

The development of chaos theory has fundamentally changed our understanding of a large
variety of nonlinear dynamical phenomena. The question of what chaos can do to a …