Quantum corrections to critical phenomena in gravitational collapse
Patrick R Brady, Adrian C Ottewill
Abstract
We investigate conformally coupled quantum matter fields on spherically symmetric, continuously self-similar backgrounds. By exploiting the symmetry associated with the self-similarity the general structure of the renormalized quantum stress-energy tensor can be derived. As an immediate application we consider a combination of classical, and quantum perturbations about exactly critical collapse. Generalizing the standard argument which explains the scaling law for black hole mass, M |η-η*|β, we demonstrate the existence of a quantum mass gap when the classical critical exponent satisfies β≥ 0.5. When β< 0.5 our argument is inconclusive; the semi-classical approximation breaks down in the spacetime region of interest.
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