Complementary recovery in holographic codes is shown to be equivalent to preservation of Connes cocycle flow, and this holds for AdS Klein-Gordon fields in boundary diamonds and bulk wedges.
The infinite-dimensional HaPPY code: entanglement wedge reconstruction and dynamics
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abstract
We construct an infinite-dimensional analog of the HaPPY code as a growing series of stabilizer codes defined respective to their Hilbert spaces. The Hilbert spaces are related by isometric maps, which we define explicitly. We construct a Hamiltonian that is compatible with the infinite-dimensional HaPPY code and further study the stabilizer of our code, which has an inherent fractal structure. We use this result to study the dynamics of the code and map a nontrivial bulk Hamiltonian to the boundary. We find that the image of the mapping is scale invariant, but does not create any long-range entanglement in the boundary, therefore failing to reproduce the features of a CFT. This result shows the limits of the HaPPY code as a model of the AdS/CFT correspondence, but also hints that the relevance of quantum error correction in quantum gravity may not be limited to the CFT context.
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Algebraic approach to spacetime bulk reconstruction
Complementary recovery in holographic codes is shown to be equivalent to preservation of Connes cocycle flow, and this holds for AdS Klein-Gordon fields in boundary diamonds and bulk wedges.