Topological correlations and breaking of fermionic antisymmetry of electrons in FQHE
arXiv:2011.10123
Abstract
Highly nonlocal interparticle correlations in quantum Hall states of 2D charged system exposed to the perpendicular strong magnetic field are detailed by application of the commensurability condition upon path-integral quantization approach and examined by Monte-Carlo Metropolis simulations in perfect consistence with exact diagonalization of the Coulomb interaction in small models and with experimental data. In this way refined filling rate hierarchy in the lowest Landau level fully explains the experimentally collected features for FQHE at filling ratios predicted by the conventional composite fermion model as well as for those beyond the composite fermion model but also visible in the experiment. The trial wave functions for FQHE states are proposed using a systematic topological method revealing the different symmetry for different correlated states depending on filling fraction. A violation of fermionic antisymmetry for 2D electrons is evidenced for some filling rates related to specific correlations in FQHE.
References in corpus (21)
- Electronic Properties of Graphene in a Strong Magnetic Field
- Multicomponent fractional quantum Hall effect in graphene
- Electron correlation in the second Landau level; a competition between many, nearly degenerate quantum phases
- Fractional Quantum Hall Effect of Composite Fermions
- Nonconventional odd denominator fractional quantum Hall states in the second Landau level
- Unconventional Sequence of Fractional Quantum Hall States in Suspended Graphene
- Electron-Hole Asymmetric Integer and Fractional Quantum Hall Effect in Bilayer Graphene
- Composite Fermions and Broken Symmetries in Graphene
- Fractional Quantum Hall Phase Transitions and Four-flux Composite Fermions in Graphene
- Monte Carlo simulation method for Laughlin-like states in a disk geometry
- Characterizing Neutral Modes of Fractional States in the Second Landau Level
- Fractional Quantum Hall States of Clustered Composite Fermions
- Fractional Quantum Hall Effect in Graphene: Quantitative Comparison between Theory and Experiment
- Fractional Quantum Hall Effect at Landau Level Filling nu=4/11
- Enigmatic 4/11 State: A Prototype for Unconventional Fractional Quantum Hall Effect
- Observation of Incompressibility at and
- The Composite Fermion Hierarchy: Condensed States of Composite Fermion Excitations?
- Robust fractional quantum Hall effect and composite fermions in the Landau level in bilayer graphene
- Mixed States of Composite Fermions Carrying Two and Four Vortices
- New Physics in High Landau Levels
- Anomalous Gap Reversal of the and Fractional Quantum Hall States