Effective Polymer Dynamics of D-Dimensional Black Hole Interiors
arXiv:0902.1746 · doi:10.1103/PhysRevD.80.044031
Abstract
We consider two different effective polymerization schemes applied to D-dimensional, spherically symmetric black hole interiors. It is shown that polymerization of the generalized area variable alone leads to a complete, regular, single-horizon spacetime in which the classical singularity is replaced by a bounce. The bounce radius is independent of rescalings of the homogeneous internal coordinate, but does depend on the arbitrary fiducial cell size. The model is therefore necessarily incomplete. It nonetheless has many interesting features: After the bounce, the interior region asymptotes to an infinitely expanding Kantowski-Sachs spacetime. If the solution is analytically continued across the horizon, the black hole exterior exhibits asymptotically vanishing quantum-corrections due to the polymerization. In all spacetime dimensions except four, the fall-off is too slow to guarantee invariance under Poincare transformations in the exterior asymptotic region. Hence the four-dimensional solution stands out as the only example which satisfies the criteria for asymptotic flatness. In this case it is possible to calculate the quantum-corrected temperature and entropy. We also show that polymerization of both phase space variables, the area and the conformal mode of the metric, generically leads to a multiple horizon solution which is reminiscent of polymerized mini-superspace models of spherically symmetric black holes in Loop Quantum Gravity.
14 pages, 4 figures. Added discussion about the dependency on auxiliary structures. Matches with the published version
References in corpus (39)
- Quantum Nature of the Big Bang: Improved dynamics
- Evanescent Black Holes
- Dilaton Gravity in Two Dimensions
- Logarithmic Corrections to Black Hole Entropy from the Cardy Formula
- General Logarithmic Corrections to Black Hole Entropy
- Quantum geometry and the Schwarzschild singularity
- Geometrodynamics of Schwarzschild Black Holes
- The Endpoint of Hawking Evaporation
- Loop quantum cosmology of k=1 FRW models
- Quantum gravity, shadow states, and quantum mechanics
- Loop quantum black hole
- Essential and inessential features of Hawking radiation
- Loop Quantum Dynamics of the Schwarzschild Interior
- Exact Dirac Quantization of All 2-D Dilaton Gravity Theories
- Polymer Quantum Mechanics and its Continuum Limit
- Loop quantum cosmology and the k = - 1 RW model
- Black holes in loop quantum gravity: the complete space-time
- Observables for Two-Dimensional Black Holes
- Is loop quantization in cosmology unique?
- A geometric perspective on singularity resolution and uniqueness in loop quantum cosmology
- Complementarity of representations in quantum mechanics
- Evaporation of Two Dimensional Black Holes
- Universe Generation from Black Hole Interiors
- Black hole interior from loop quantum gravity
- A comment on black hole entropy or does Nature abhor a logarithm?
- Loop quantization of spherically symmetric midi-superspaces : the interior problem
- High-Order Corrections to the Entropy and Area of Quantum Black Holes
- Complete, Single-Horizon Quantum Corrected Black Hole Spacetime
- Quantum gravity and the Coulomb potential
- Polymer quantization, singularity resolution and the 1/r^2 potential
- Stability of the Schwarzschild Interior in Loop Quantum Gravity
- Semiclassical states for quantum cosmology
- Numerical techniques for solving the quantum constraint equation of generic lattice-refined models in loop quantum cosmology
- Quantum deformations of Schwarzschild and Schwarzschild-de Sitter spacetimes
- A follow-up to 'Does Nature abhor a logarithm?' (and apparently she doesn't)
- Local Approach to Hawking Radiation
- Transgressing the horizons: Time operator in two-dimensional dilaton gravity
- Loop quantum gravity and Planck-size black hole entropy
- On The Black Hole Interior Spacetime
Cited by in corpus (31)
- Spinning Loop Black Holes
- Investigating Loop Quantum Gravity with EHT Observational Effects of Rotating Black holes
- Quantization of Midisuperspace Models
- Scalar Perturbations and Stability of a Loop Quantum Corrected Kruskal Black Hole
- Observational predictions of LQG motivated polymerized black holes and constraints from Sgr A* and M87*
- Mass Inflation in the Loop Black Hole
- New 2D dilaton gravity for nonsingular black holes
- Primordial regular black holes as all the dark matter. II. Non-time-radial-symmetric and loop quantum gravity-inspired metrics
- Dynamical Surface Gravity in Spherically Symmetric Black Hole Formation
- Scalar Perturbations of a Single-Horizon Regular Black Hole
- Quantum Corrected Spherical Collapse: A Phenomenological Framework
- Validity of the WKB Approximation in Calculating the Asymptotic Quasinormal Modes of Black Holes
- Polymeric Quantization and Black Hole Thermodynamics
- Gravitational collapse of quantum matter
- Loop Quantum Gravity motivated multihorizon rotating black holes
- Polymer quantization of the Einstein-Rosen wormhole throat
- Asymptotic flatness and Hawking quasilocal mass
- Statistical Thermodynamics of Polymer Quantum Systems
- Modelling the Evaporation of Non-singular Black Holes
- Highly Damped Quasinormal Modes and the Small Scale Structure of Quantum Corrected Black Hole Exteriors
- Light deflection and gravitational lensing effects inspired by loop quantum gravity
- Stability of self-dual black holes
- Classical polymerization of the Schwarzschild metric
- Quantum dynamics of the Einstein-Rosen wormhole throat
- Primordial regular black holes as all the dark matter. III. Covariant canonical quantum gravity models
- Singularities of regular black holes and the monodromy method for asymptotic quasinormal modes
- Scalar Quasi-Normal Modes of a Loop Quantum Black Hole
- Gravitational and electromagnetic radiation from an electrically charged black hole in general nonlinear electrodynamics
- High Overtone Quasinormal Modes of Analog Black Holes and the Small Scale Structure of the Background Fluid
- Pulsation of black holes
- LQG inspired spacetimes as solutions of the Einstein equations