Here, we present a review about the quantization of spherically-symmetric spacetimes adopting loop quantum gravity techniques. Several models that have been studied so far share similar properties: the resolution of the classical singularity and some of them an intrinsic discretization of the geometry. We also explain the extension to Reissner–Nordström black holes. Besides, we review how quantum test fields on these quantum geometries allow us to study phenomena, like the Casimir effect or Hawking radiation. Finally, we briefly describe a recent proposal that incorporates spherically-symmetric matter, discussing its relevance for the understanding of black hole evolution
International audienceLoop quantum gravity is a non-perturbative quantization of General Relativity ...
Based on spherically symmetric reduction of loop quantum gravity, quantization of the portion interi...
We quantize spherically symmetric vacuum gravity without gauge fixing the diffeomorphism constraint....
We review recent developments in the treatment of spherically symmetric black holes in loop quantum ...
We study the quantization of spherically symmetric vacuum spacetimes within loop quantum gravity. In...
We continue our investigation of an improved quantization scheme for spherically symmetric loop quan...
We summarize recent results concerning the quantization of the complete extension of the Schwarzschi...
The problem of finding the quantum theory of the gravitational field, and thus understanding what is...
We introduce quantum field theory on quantum space-times techniques to characterize the quantum vacu...
Black Holes have always played a central role in investigations of quantum gravity. This includes bo...
International audienceThis is a review of results on black hole physics in the context of loop quant...
We study the \u27improved dynamics\u27 for the treatment of spherically symmetric space-times in loo...
We continue the study of spherically symmetric vacuum space-times in loop quantum gravity by treatin...
General relativity successfully describes space–times at scales that we can observe and probe today,...
General relativity successfully describes space–times at scales that we can observe and probe today,...
International audienceLoop quantum gravity is a non-perturbative quantization of General Relativity ...
Based on spherically symmetric reduction of loop quantum gravity, quantization of the portion interi...
We quantize spherically symmetric vacuum gravity without gauge fixing the diffeomorphism constraint....
We review recent developments in the treatment of spherically symmetric black holes in loop quantum ...
We study the quantization of spherically symmetric vacuum spacetimes within loop quantum gravity. In...
We continue our investigation of an improved quantization scheme for spherically symmetric loop quan...
We summarize recent results concerning the quantization of the complete extension of the Schwarzschi...
The problem of finding the quantum theory of the gravitational field, and thus understanding what is...
We introduce quantum field theory on quantum space-times techniques to characterize the quantum vacu...
Black Holes have always played a central role in investigations of quantum gravity. This includes bo...
International audienceThis is a review of results on black hole physics in the context of loop quant...
We study the \u27improved dynamics\u27 for the treatment of spherically symmetric space-times in loo...
We continue the study of spherically symmetric vacuum space-times in loop quantum gravity by treatin...
General relativity successfully describes space–times at scales that we can observe and probe today,...
General relativity successfully describes space–times at scales that we can observe and probe today,...
International audienceLoop quantum gravity is a non-perturbative quantization of General Relativity ...
Based on spherically symmetric reduction of loop quantum gravity, quantization of the portion interi...
We quantize spherically symmetric vacuum gravity without gauge fixing the diffeomorphism constraint....