Holographic partition functions and phases for higher genus Riemann surfaces
arXiv:1601.00980 · doi:10.1088/0264-9381/33/12/125018
Abstract
We describe a numerical method to compute the action of Euclidean saddlepoints for the partition function of a two-dimensional holographic CFT on a Riemann surface of arbitrary genus, with constant curvature metric. We explicitly evaluate the action for the saddles for genus two and map out the phase structure of dominant bulk saddles in a two-dimensional subspace of the moduli space. We discuss spontaneous breaking of discrete symmetries, and show that the handlebody bulk saddles always dominate over certain non-handlebody solutions.
27 pp + appendix
References in corpus (6)
Cited by in corpus (21)
- Random Statistics of OPE Coefficients and Euclidean Wormholes
- Semiclassical 3D gravity as an average of large-c CFTs
- Summing over Geometries in String Theory
- Non-Gaussianities in the Statistical Distribution of Heavy OPE Coefficients and Wormholes
- Microcanonical Path Integrals and the Holography of small Black Hole Interiors
- Genus Two Partition Functions and Renyi Entropies of Large c CFTs
- Holographic Entropy Relations Repackaged
- Bag-of-gold spacetimes, Euclidean wormholes, and inflation from domain walls in AdS/CFT
- Reflected entropy in random tensor networks II: a topological index from the canonical purification
- Multiboundary wormholes and OPE statistics
- Handlebody phases and the polyhedrality of the holographic entropy cone
- Tensor Network Models of Multiboundary Wormholes
- Establishing strongly-coupled 3D AdS quantum gravity with Ising dual using all-genus partition functions
- Circuit Complexity in Topological Quantum Field Theory
- Phase transitions in 3D gravity and fractal dimension
- Restricted Maximin surfaces and HRT in generic black hole spacetimes
- Traversability of Multi-Boundary Wormholes
- The Torus Operator in Holography
- Classical Liouville Action and Uniformization of Orbifold Riemann Surfaces
- Numerical Methods for Handlebody Phases
- A universal sum over topologies in 3d gravity