Matthew S. Foster

Slow imbalance relaxation and thermoelectric transport in graphene

We compute the electronic component

Enhanced Thermoelectric Power in Graphene: Violation of the Mott Relation by Inelastic Scattering

(\ensuremath{\kappa})

Quantum quench in a p + i p superfluid: Winding numbers and topological states far from equilibrium

of the thermal conductivity and the thermoelectric power

Topological protection, disorder, and interactions: Survival at the surface of three-dimensional topological superconductors

(\ensuremath{\alpha})

Termination of typical wave-function multifractal spectra at the Anderson metal-insulator transition: Field theory description using the functional renormalization group

of monolayer graphene within the hydrodynamic regime, taking into account the slow rate of carrier population imbalance relaxation. Interband electron-hole generation and recombination processes are inefficient due to the nondecaying nature of the relativistic energy spectrum. As a result, a population imbalance of the conduction and valence bands [i.e., a nonequilibrium state with

Disorder-enhanced topological protection and universal quantum criticality in a spin-32topological superconductor

{\ensuremath{\mu}}_{e}+{\ensuremath{\mu}}_{h}\ensuremath{\ne}0

Transport coefficients of graphene: Interplay of impurity scattering, Coulomb interaction, and optical phonons

, where

Multifractal nature of the surface local density of states in three-dimensional topological insulators with magnetic and nonmagnetic disorder

{\ensuremath{\mu}}_{e}

Helical Quantum Edge Gears in 2D Topological Insulators

({\ensuremath{\mu}}_{h})