Relativistic Viscous Fluid Description of Microscopic Black Hole Wind
arXiv:astro-ph/0008222 · doi:10.1103/PhysRevLett.86.1670
Abstract
Microscopic black holes explode with their temperature varying inversely as their mass. Such explosions would lead to the highest temperatures in the present universe, all the way to the Planck energy. Whether or not a quasi-stationary shell of matter undergoing radial hydrodynamic expansion surrounds such black holes is been controversial. In this paper relativistic viscous fluid equations are applied to the problem. It is shown that a self-consistent picture emerges of a fluid just marginally kept in local thermal equilibrium; viscosity is a crucial element of the dynamics.
11 pages, revtex
References in corpus (2)
Cited by in corpus (12)
- New cosmological constraints on primordial black holes
- Constraints on Primordial Black Holes
- Do Evaporating Black Holes Form Photospheres?
- High Temperature Matter and Gamma Ray Spectra from Microscopic Black Holes
- Stable TeV - Black Hole Remnants at the LHC: Discovery through Di-Jet Suppression, Mono-Jet Emission and a Supersonic Boom in the Quark-Gluon Plasma
- Chiral Phase Transitions around Black Holes
- Antimatter from Microscopic Black Holes
- Deconfinement transition and Black Holes
- High Temperature Matter and Neutrino Spectra from Microscopic Black Holes
- From (p)reheating to nucleosynthesis
- Corrections to Hawking Radiation from Asteroid Mass Primordial Black Holes: I. Formalism of Dissipative Interactions in Quantum Electrodynamics
- Correction to black hole radiation due to pair annihilation