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Quantum entanglement of particles on a ring with fractional statistics

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arxiv 0906.0536 v1 pith:WF4TF6T7 submitted 2009-06-02 quant-ph

Quantum entanglement of particles on a ring with fractional statistics

classification quant-ph
keywords entanglementanyonicentropyinteractionparameterstatisticalphaseproperties
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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In this paper we investigate the von Neumann entropy in the ground state of one-dimensional anyonic systems with the repulsive interaction. Based on the Bethe-ansatz method, the entanglement properties for the arbitrary statistical parameter ($0\leq\kappa\leq1$) are obtained from the one-particle reduced density matrix in the full interacting regime. It is shown that the entanglement entropy increases with the increase in the interaction strength and statistical parameter. The statistic parameter affects the entanglement properties from two aspects: renormalizing of the effective interaction strength and introducing an additional anyonic phase. We also evaluate the entanglement entropy of hard-core anyons for different statistical parameters in order to clarify solely the effect induced by the anyonic phase.

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