Discrete Gravity on Random Tensor Network and Holographic Rényi Entropy
arXiv:1705.01964 · doi:10.1007/JHEP11(2017)148
Abstract
In this paper we apply the discrete gravity and Regge calculus to tensor networks and Anti-de Sitter/conformal field theory (AdS/CFT) correspondence. We construct the boundary many-body quantum state using random tensor networks as the holographic mapping, applied to the Wheeler-deWitt wave function of bulk Euclidean discrete gravity in 3 dimensions. The entanglement Rényi entropy of is shown to holographically relate to the on-shell action of Einstein gravity on a branch cover bulk manifold. The resulting Rényi entropy of approximates with high precision the Rényi entropy of ground state in 2-dimensional conformal field theory (CFT). In particular it reproduces the correct dependence. Our results develop the framework of realizing the AdS/CFT correspondence on random tensor networks, and provide a new proposal to approximate CFT ground state.
8+2 pages, 10 figures, presentation improved, references added
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- Entanglement Features of Random Hamiltonian Dynamics
- Ryu-Takayanagi Formula for Symmetric Random Tensor Networks
- Holographic duality between local Hamiltonians from random tensor networks
- Quantum error correction and entanglement spectrum in tensor networks
- Tensor chain and constraints in tensor networks
- Random Invariant Tensors