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An infinity of black holes

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arxiv 2206.08944 v2 pith:EHSCXZPY submitted 2022-06-17 hep-th gr-qc

classification hep-thgr-qc
keywords blackholeholeslambdamaximallynumbersolutionsspheres
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abstract

In general relativity (without matter), there is typically a one parameter family of static, maximally symmetric black hole solutions labelled by their mass. We show that there are situations with many more black holes. We study asymptotically anti-de Sitter solutions in six and seven dimensions having a conformal boundary which is a product of spheres cross time. We show that the number of families of static, maximally symmetric black holes depends on the ratio, $\lambda$, of the radii of the boundary spheres. As $\lambda$ approaches a critical value, $\lambda_{c}$, the number of such families becomes infinite. In each family, we can take the size of the black hole to zero, obtaining an infinite number of static, maximally symmetric non-black hole solutions. We discuss several applications of these results, including Hawking-Page phase transitions and the phase diagram of dual field theories on a product of spheres, new positive energy conjectures, and more.

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  1. Upper bound of holographic entanglement entropy combinations

    hep-th 2025-05 conditional novelty 6.0 of 10

    The authors derive upper bounds for large families of holographic entanglement entropy combinations by fixing the connectivity of entanglement wedges and classifying gap regions.

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