How to directly observe Landau levels in driven-dissipative strained honeycomb lattices
arXiv:1504.04014 · doi:10.1088/2053-1583/2/3/034015
Abstract
We study the driven-dissipative steady-state of a coherently-driven Bose field in a honeycomb lattice geometry. In the presence of a suitable spatial modulation of the hopping amplitudes, a valley-dependent artificial magnetic field appears and the low-energy eigenmodes have the form of relativistic Landau levels. We show how the main properties of the Landau levels can be extracted by observing the peaks in the absorption spectrum of the system and the corresponding spatial intensity distribution. Finally, quantitative predictions for realistic lattices based on photonic or microwave technologies are discussed.
Special Issue Article: Focus on Artificial Graphene
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- Chiral quantum optics in the bulk of photonic quantum Hall systems
- Strain and pseudo-magnetic fields in optical lattices from density-assisted tunneling
- Spin-orbit coupling in a hexagonal ring of pendula
- Multi-orbital tight binding model for cavity-polariton lattices
- Effective magnetic field induced by inhomogeneous Fermi velocity in strained honeycomb structures
- Landau levels in curved space realized in strained graphene
- Topological phonons in arrays of ultracold dipolar particles
- Non-Hermitian reshaping of high-order Landau modes
- Topological Superfluid Responses of Superconducting Dirac Semimetals
- Microcavity polaritons for topological photonics
- Superfluid Stiffness and Josephson Quantum Capacitance: Adiabatic Approach and Topological Effects
- Quantized valley Hall response from local bulk density variations