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This paper establishes the first explicit holographic duality for GHZ states by introducing a non-manifold geometry called the booklet wormhole. By incorporating multiple topologies into the gravitational path integral, this construction successfully bypasses conventional entropy inequalities that typically exclude such quantum systems. The result provides a rigorous framework for studying maximally entangled states within classical gravity duals without relying on perturbative approximations.
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The holographic dual of the GHZ state

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2508.17898v2 Announce Type: replace-cross Abstract: Current holographic research mostly focuses on a subset of quantum systems with a classical gravity dual. Although the precise boundary of this subset remains unknown, certain constraints are recognized; for instance, holographic entropies obey inequalities that are violated by general quantum states such as the GHZ states. This paper, however, proposes a gravity dual for the GHZ states -- a non-manifold geometry termed the booklet wormhole. We demonstrate an exact match for all entropy properties with the GHZ state, as well as the identity of the Euclidean partition functions for both systems. The booklet wormhole circumvents the conventional holographic entropy inequalities because different topologies are inevitably included in the gravitational path integral, even in the large-$N$ limit. This provides the first explicit holographic duality with a non-perturbative quantum effect. Remarkably, the construction is simple, and the dual state is maximally entangled, making it ideal for gedanken experiments.

Abstract:Current holographic research mostly focuses on a subset of quantum systems with a classical gravity dual. Although the precise boundary of this subset remains unknown, certain constraints are recognized; for instance, holographic entropies obey inequalities that are violated by general quantum states such as the GHZ states. This paper, however, proposes a gravity dual for the GHZ states -- a non-manifold geometry termed the booklet wormhole. We demonstrate an exact match for all entropy properties with the GHZ state, as well as the identity of the Euclidean partition functions for both systems. The booklet wormhole circumvents the conventional holographic entropy inequalities because different topologies are inevitably included in the gravitational path integral, even in the large-$N$ limit. This provides the first explicit holographic duality with a non-perturbative quantum effect. Remarkably, the construction is simple, and the dual state is maximally entangled, making it ideal for gedanken experiments.

10 pages, 11 figures. Fixed a logical error regarding the Euclidean action; improved narrative flow

arXiv:2508.17898 [hep-th]

(or arXiv:2508.17898v2 [hep-th] for this version)

https://doi.org/10.48550/arXiv.2508.17898 Focus to learn more arXiv-issued DOI via DataCite

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