The (amazing) Super-Maze
arXiv:2211.14326 · doi:10.1007/JHEP03(2023)237
Abstract
The entropy of the three-charge NS5-F1-P black hole in Type IIA string theory comes from the breaking of F1 strings into little strings, which become independent momentum carriers. In M theory, the little strings correspond to strips of M2 brane that connect pairs of parallel M5 branes separated along the M-theory direction. We show that if one takes into account the backreaction of the M-theory little strings on the M5 branes one obtains a maze-like structure, to which one can add momentum waves. We also show that adding momentum waves to the little strings gives rise to a momentum-carrying brane configuration -- a super-maze -- which locally preserves 16 supercharges. We therefore expect the backreaction of the super-maze to give rise to a new class of horizonless black-hole microstate solutions, which preserve the rotational symmetry of the black-hole horizon and carry of its entropy.
29 pages, 7 figures, LaTeX
References in corpus (17)
- Habemus Superstratum! A constructive proof of the existence of superstrata
- Fuzzballs with internal excitations
- Mergers and Typical Black Hole Microstates
- Plumbing the Abyss: Black Ring Microstates
- The Foaming Three-Charge Black Hole
- Matching of correlators in AdS_3/CFT_2
- Spectral Flow, and the Spectrum of Multi-Center Solutions
- Black-Hole Entropy from Supergravity Superstrata States
- Early Scrambling and Capped BTZ Geometries
- Supercharged AdS Holography
- There and back again: A T-brane's tale
- New Superstrata from Three-Dimensional Supergravity
- AdS holography for non-BPS geometries
- Counting D1-D5-P Microstates in Supergravity
- Supersymmetry and Superstrata in Three Dimensions
- Resolving Black-Hole Microstructure with New Momentum Carriers
- Q-Balls Meet Fuzzballs: Non-BPS Microstate Geometries