Quenches from antipodally entangled crosscap states yield a delayed linear decrease and revivals of entanglement in integrable systems, while chaotic systems show constant entropy and a vanishing mutual information.
Quasiparticle Picture for Entanglement Hamiltonians in Higher Dimensions
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abstract
We employ the quasiparticle picture of entanglement evolution to obtain an effective description for the out-of-equilibrium Entanglement Hamiltonian at the hydrodynamical scale following quantum quenches in free fermionic systems in two or more spatial dimensions. Specifically, we begin by applying dimensional reduction techniques in cases where the geometry permits, building directly on established results from one-dimensional systems. Subsequently, we generalize the analysis to encompass a wider range of geometries. We obtain analytical expressions for the entanglement Hamiltonian valid at the ballistic scale, which reproduce the known quasiparticle picture predictions for the Renyi entropies and full counting statistics. We also numerically validate the results with excellent precision by considering quantum quenches from several initial configurations.
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Quench dynamics of entanglement from crosscap states
Quenches from antipodally entangled crosscap states yield a delayed linear decrease and revivals of entanglement in integrable systems, while chaotic systems show constant entropy and a vanishing mutual information.