Non-Thermal Corrections to Hawking Radiation Versus the Information Paradox
arXiv:1509.04645 · doi:10.1002/prop.201500096
Abstract
We provide a model-independent argument indicating that for a black hole of entropy N the non-thermal deviations from Hawking radiation, per each emission time, are of order 1/N, as opposed to exp(-N). This fact abolishes the standard a priory basis for the information paradox.
5 pages, Latex
References in corpus (3)
Cited by in corpus (32)
- Quantum Break-Time of de Sitter
- Generalized Uncertainty Principle and Corpuscular Gravity
- Black Hole Metamorphosis and Stabilization by Memory Burden
- Dark Matter and Global Symmetries
- Primordial Black Holes
- Entropy Bound and Unitarity of Scattering Amplitudes
- Islands in Linear Dilaton Black Holes
- Nonlocal star as a blackhole mimicker
- Gravitational Black Hole Hair from Event Horizon Supertranslations
- Regular black holes from semi-classical down to Planckian size
- Geometric model of black hole quantum -portrait, extradimensions and thermodynamics
- Skyrmion Black Hole Hair: Conservation of Baryon Number by Black Holes and Observable Manifestations
- The Quantum Black Hole as a Hydrogen Atom: Microstates Without Strings Attached
- Induced Gravitational Waves probing Primordial Black Hole Dark Matter with Memory Burden
- Information retrieval from black holes
- Quantum-induced trans-Planckian energy near horizon
- Beyond Hawking evaporation of black holes formed by dark matter in compact stars
- Black-Hole-Like Saturons in Gross-Neveu
- Hawking radiation is corpuscular
- Black Hole Evaporation, Quantum Hair and Supertranslations
- Bounds on Quantum Information Storage and Retrieval
- Photons in a Ball
- Modeling black hole evaporative mass evolution via radiation from moving mirrors
- Echoes from corpuscular black holes
- Total spectral distributions from Hawking radiation
- Topological Origin of Chiral Symmetry Breaking in QCD and in Gravity
- From Schwinger Balls to Black Holes
- Similarities in the evaporation of saturated solitons and black holes
- On the assumptions leading to the information loss paradox
- Black Holes Evaporate Non-Thermally
- Evaporation/Hadronization Correspondence
- The curious case of operators with spectral density increasing as