Multipartite entanglement in two-dimensional chiral topological liquids
arXiv:2301.07130 · doi:10.1103/PhysRevB.109.085108
Abstract
The multipartite entanglement structure for the ground states of two dimensional topological phases is an interesting albeit not well understood question. Utilizing the bulk-boundary correspondence, the calculation of tripartite entanglement in 2d topological phases can be reduced to that of the vertex state, defined by the boundary conditions at the interfaces between spatial regions. In this paper, we use the conformal interface technique to calculate entanglement measures in the vertex state, which include area law terms, corner contributions, and topological pieces, and a possible additional order one contribution. This explains our previous observation of the Markov gap in the 3-vertex state, and generalizes this result to the -vertex state, general rational conformal field theories, and more choices of subsystems. Finally, we support our prediction by numerical evidence, finding precise agreement.
arXiv comment22 pages, 7 figures
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- Anyon Quantum Dimensions from an Arbitrary Ground State Wave Function
- Multipartite Greenberger-Horne-Zeilinger Entanglement in Monitored Random Clifford Circuits
- (2+1)D topological phases with RT symmetry: many-body invariant, classification, and higher order edge modes
- Excited states from local effective Hamiltonians of matrix product states and their entanglement spectrum transition