Understanding the large-scale physics is crucial for the spin foam approach to quantum gravity. We tackle this challenge from a statistical physics perspective using simplified, yet feature-rich models. In particular, this allows us to explicitly answer whether broken symmetries will be restored by renormalization: We observe a weak phase transition in both Migdal-Kadanoff and tensor network renormalization. In this work we give a concise presentation of the concepts, results and promises of this new direction of research
We show how Feynman amplitudes of standard QFT on flat and homogeneous space can naturally be recast...
We study the behavior of holonomy spin foam partition functions, a form of lattice gauge gravity, on...
In this article a dynamical formulation of the spin foam models of gravity and BF theory is presente...
Understanding the large-scale physics is crucial for the spin foam approach to quantum gravity. We t...
We undertake first steps in making a class of discrete models of quantum gravity, spin foams, access...
So far spin foam models are hardly understood beyond a few of their basic building blocks. To make p...
Spin foams are models of quantum gravity and therefore quantum space time. A key open issue is to de...
5 pages, talk given at the 10th Marcel Grossmann meeting, Rio de Janeiro, July 2003We give an introd...
While the use of spin networks has greatly improved our understanding of the kinematical aspects of...
AbstractWe report on the numerical analysis of the area correlations in spin foam gravity on a singl...
La gravité quantique à boucles a fourni un cadre d’étude particulièrement bien adapté aux théories d...
Any approach to pure quantum gravity must eventually face the question of coupling quantum matter to...
Local flatness is a property shared by all the spin foam models. It ensures that the theory's fundam...
In loop quantum gravity we now have a clear picture of the quantum geometry of space, thanks in part...
The study of correlation effects in topological phases of matter can benefit from a multidisciplinar...
We show how Feynman amplitudes of standard QFT on flat and homogeneous space can naturally be recast...
We study the behavior of holonomy spin foam partition functions, a form of lattice gauge gravity, on...
In this article a dynamical formulation of the spin foam models of gravity and BF theory is presente...
Understanding the large-scale physics is crucial for the spin foam approach to quantum gravity. We t...
We undertake first steps in making a class of discrete models of quantum gravity, spin foams, access...
So far spin foam models are hardly understood beyond a few of their basic building blocks. To make p...
Spin foams are models of quantum gravity and therefore quantum space time. A key open issue is to de...
5 pages, talk given at the 10th Marcel Grossmann meeting, Rio de Janeiro, July 2003We give an introd...
While the use of spin networks has greatly improved our understanding of the kinematical aspects of...
AbstractWe report on the numerical analysis of the area correlations in spin foam gravity on a singl...
La gravité quantique à boucles a fourni un cadre d’étude particulièrement bien adapté aux théories d...
Any approach to pure quantum gravity must eventually face the question of coupling quantum matter to...
Local flatness is a property shared by all the spin foam models. It ensures that the theory's fundam...
In loop quantum gravity we now have a clear picture of the quantum geometry of space, thanks in part...
The study of correlation effects in topological phases of matter can benefit from a multidisciplinar...
We show how Feynman amplitudes of standard QFT on flat and homogeneous space can naturally be recast...
We study the behavior of holonomy spin foam partition functions, a form of lattice gauge gravity, on...
In this article a dynamical formulation of the spin foam models of gravity and BF theory is presente...