Electric transport and magnetic properties in multilayer graphene
arXiv:0711.2940 · doi:10.1103/PhysRevB.77.045429
Abstract
We discuss electric transport and orbital magnetism of multilayer graphenes in a weak-magnetic field using the matrix decomposition technique. At zero temperature, the minimum conductivity is given by that of the monolayer system multiplied by the layer number , independent of the interlayer hopping . When the interlayer hopping satisfies the condition with being collision time of impurity scattering, kinks and plateaux appear in the Fermi-energy (gate voltage) dependence of the conductivity and the Hall conductivity, respectively. These behaviors are interpreted as multiband effects. We also found that the Hall conductivity and the magnetic susceptibility take minimum value as a function of temperature, for certain value of the gate voltage. This behavior is explained by Fermi-energy dependence of these functions at zero temperature.
11 pages, 11 figures
References in corpus (16)
- Substrate-induced band gap opening in epitaxial graphene
- Unconventional Integer Quantum Hall effect in graphene
- Electronic states and Landau levels in graphene stacks
- Quantum transport of massless Dirac fermions in graphene
- Transport in Bilayer Graphene: Calculations within a self-consistent Born approximation
- Orbital diamagnetism in multilayer graphenes: Systematic study with the effective mass approximation
- On the minimal conductivity of graphene
- Two Dimensional Electron and Hole Gases at the Surface of Graphite
- Role of the trigonal warping on the minimal conductivity of bilayer graphene
- Phenomenological study of the electronic transport coefficients of graphene
- Anomalous Orbital Magnetism and Hall Effect of Massless Fermions in Two Dimension
- Diamagnetism in disordered graphene
- Notes on the minimal longitudinal dc conductivity of perfect bilayer graphene
- Universal temperature dependence of the magnetization of gapped spin chains
- Orbital Magnetism and Transport Phenomena in Two Dimensional Dirac Fermions in Weak Magnetic Field
- Diamagnetism of nodal fermions