Superfluidity of dipolar magnetoexcitons in doped double-layered - lattice in a strong magnetic field
arXiv:2005.03207 · doi:10.1103/PhysRevB.102.155408
Abstract
We predict the occurrence of Bose-Einstein condensation and superfluidity of dipolar magnetoexcitons for a pair of quasi-two-dimensional spatially separated - layers. We have solved a two-body problem for an electron and a hole for the model Hamiltonian for the - double layer in a magnetic field. The energy dispersion of collective excitations, the spectrum of sound velocity, and the effective magnetic mass of magnetoexcitons are obtained in the integer quantum Hall regime for high magnetic fields. The superfluid density and the temperature of the Kosterlitz-Thouless phase transition are probed as functions of the excitonic density, magnetic field, and the inter-layer separation.
References in corpus (30)
- Bose-Einstein Condensation of Excitons in Bilayer Electron Systems
- Evidence of high-temperature exciton condensation in 2D atomic double layers
- High-temperature superfluidity with indirect excitons in van der Waals heterostructures
- From dia- to paramagnetic orbital susceptibility of Dirac cones
- High Temperature Superfluidity in Double Bilayer Graphene
- Infrared Reflectance Spectrum of BN Calculated from First Principles
- Theory of Two-Dimensional Spatially Indirect Equilibrium Exciton Condensates
- Excitations from Filled Landau Levels in Graphene
- Hall quantization and optical conductivity evolution with variable Berry phase in - model
- Analytical Expression for the RKKY Interaction in Doped Graphene
- Magnetic properties of the - model: magneto-optical conductivity and the Hofstadter butterfly
- High-temperature superfuidity of the two-component Bose gas in a TMDC bilayer
- Photoinduced valley and electron-hole symmetry breaking in - lattice: The role of a variable Berry phase
- Magnetotransport properties of the -T model
- Floquet topological phase transition in - lattice
- Bose-Einstein condensation and Superfluidity of magnetoexcitons in Graphene
- Valley-polarized magnetoconductivity and particle-hole symmetry breaking in a periodically modulated - lattice
- Towards superfluidity of dipolar excitons in a TMDC double layer
- Frequency dependent magneto-optical conductivity in the generalized model
- Superfluidity of Dipolar Excitons in a Black Phosphorene Double Layer
- Evidence from quantum Monte Carlo of large gap superfluidity and BCS-BEC crossover in double electron-hole layers
- Dynamics of a quasiparticle in the -T model: Role of pseudospin polarization and transverse magnetic field on \textbf{\textit{zitterbewegung}}
- Superfluidity of dipole excitons in two layers of gapped graphene
- Influence of Disorder on Electron-Hole Pair Condensation in Graphene Bilayers
- RKKY interaction in a doped pseudospin-1 fermion system at finite temperature
- Interaction potential between dynamic dipoles: polarized excitons in strong magnetic fields
- Experimental conditions for observation of electron-hole superfluidity in GaAs heterostructures
- Interplay of Lorentz-Berry forces in position-momentum spaces for valley-dependent impurity scattering in alpha-T3 lattices
- High temperature electron-hole superfluidity with strong anisotropic gaps in double phosphorene monolayers
- A doping-dependent switch from one- to two-component superfluidity at temperature above 100K in coupled electron-hole Van der Waals heterostructures