Geometrical measurements in three-dimensional quantum gravity
John W. Barrett

TL;DR
This paper introduces a set of geometrically interpretable observables for 3D quantum gravity, linking spin network evaluations to measurable distances in a topological quantum field theory.
Contribution
It presents a novel framework for measuring distances in 3D quantum gravity using spin networks and Fourier transforms, with clear geometrical interpretations.
Findings
Spectra and probabilities with geometric meaning
Observables related to relativistic spin networks
Framework applicable to positive cosmological constant
Abstract
A set of observables is described for the topological quantum field theory which describes quantum gravity in three space-time dimensions with positive signature and positive cosmological constant. The simplest examples measure the distances between points, giving spectra and probabilities which have a geometrical interpretation. The observables are related to the evaluation of relativistic spin networks by a Fourier transform.
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