Composite fermion model for entanglement spectrum of fractional quantum Hall states
arXiv:1506.06741 · doi:10.1103/PhysRevB.92.115155
Abstract
We show that the entanglement spectrum associated with a certain class of strongly correlated many-body states --- the wave functions proposed by Laughlin and Jain to describe the fractional quantum Hall effect --- can be very well described in terms of a simple model of non-interacting (or weakly interacting) composite fermions.
6 pages, 2 figures
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Cited by in corpus (10)
- Quantum Hall Physics - hierarchies and CFT techniques
- Wavefunctionology: The Special Structure of Certain Fractional Quantum Hall Wavefunctions
- Thirty Years of Composite Fermions and Beyond
- Abelian topological order of and fractional quantum Hall states in lattice models
- Optimal free descriptions of many-body theories
- Search for exact local Hamiltonians for general fractional quantum Hall states
- Entanglement Action for the Real-Space Entanglement Spectra of Composite Fermion Wave Functions
- Generalized Gibbs Ensemble Description of Real Space Entanglement Spectra of (2+1)-dimensional Chiral Topological Systems with Symmetry
- Conformal field theory approach to parton fractional quantum Hall trial wave functions
- Unlocking new regimes in fractional quantum Hall effect with quaternions