Charged rotating hairy black holes in AdS5 × S5: unveiling their secrets
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Peer-reviewed
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Abstract
Using a mix of analytical and numerical methods, we construct new rotating, charged “hairy” black hole solutions of D = 5, N$$ \mathcal{N} $$= 8 gauged supergravity that are dual, via the AdS/CFT correspondence, to thermal states in D = 4, N$$ \mathcal{N} $$ = 4 SYM at finite chemical and angular potential, thereby complementing and extending the results of [1, 2–3]. These solutions uplift to asymptotically AdS5 × S5 solutions of Type IIB supergravity with equal angular momenta along AdS5 (J = J1 = J2) and S5 (Q = Q1 = Q2 = Q3). As we lower the mass E at fixed Q and J, the known Cvetič-Lü-Pope (CLP) black holes are unstable to scalar condensation and the hairy black holes constructed here emerge as novel solutions associated to the instability. In the region of phase space where the CLP and hairy black holes coexist, the hairy black holes dominate the microcanonical ensemble and, therefore, describe a new thermodynamic phase of SYM. The hairy black holes extend beyond the CLP extremality surface all the way to the BPS surface, defined by E = 3Q + 2J/L. Through a combination of analytical and numerical techniques, we argue that the BPS limit of the hairy black holes is a singular, horizonless solution, and not a new two-parameter family of BPS black holes that extend the known one-parameter Gutowski-Reall (GR) black hole solution, in contradiction with the conjectures of [1, 2]. To further support our conclusions, we perform a near-horizon analysis of the BPS equations and argue that they do not admit any regular solutions with an horizon.
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Acknowledgements: We would like to thank Diksha Jain and Shiraz Minwalla for many useful conversations. The authors acknowledge the use of the IRIDIS High Performance Computing Facility, and associated support services at the University of Southampton, in the completion of this work. O.C.D. acknowledges financial support from the STFC “Particle Physics Grants Panel (PPGP) 2020” Grant No. ST/X000583/1. P.M. and J.E.S.’s work have been partially supported by STFC consolidated grant ST/T000694/1. P.M. is supported by the European Research Council (ERC) under the European Union’s Horizon 2020 research and innovation programme (grant agreement No 852386).
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1029-8479

