We review and systematize recent attempts to canonically quantize general relativity in 2+1 dimensions, defined on space-times $\R\times\Sigma^g$, where $\Sigma^g$ is a compact Riemann surface of genus $g$. The emphasis is on quantizations of the classical connection formulation, which use Wilson loops as their basic observables, but also results from the ADM formulation are summarized. We evaluate the progress and discuss the possible quantum (in)equivalence of the various approaches
This is an introduction to the by now fifteen years old research field of canonical quantum general ...
In this paper, I investigate the possible quantization, in the context of loop quantum gravity, of t...
The canonical decomposition of all 3+1 geometries admitting two-dimensional space-like surfaces is e...
In recent years there has been a resurgence of interest in 2+1 gravity and there have been claims t...
We advocate an alternative description of canonical gravity in 3+1 dimensions, obtained by using as ...
The quantization of Lorentzian or Euclidean 2+1 gravity by canonical methods is a well-studied probl...
A formalism previously introduced by the author using tesselated Cauchy surfaces is applied to defin...
I discuss some aspects of a lattice approach to canonical quantum gravity in a connection formulatio...
In order to understand (3+1)-dimensional gravity, (2+1)-dimensional gravity is studied as a toy mode...
A canonical quantization of two-dimensional gravity minimally coupled to real scalar and spinor Majo...
We give an introduction to the canonical formalism of Einstein's theory of general relativity. This ...
After briefly reviewing the hamiltonian approach to 2+1 dimensional gravity in absence of matter on ...
This is an introduction to the by now fifteen years old research field of canonical quantum general ...
We relate the geometrical and the Chern-Simons description of (2+1)-dimensional gravity for spacetim...
A surface theoretic view of non-perturbative quantum gravity as "spin-foams" was proposed by Baez. A...
This is an introduction to the by now fifteen years old research field of canonical quantum general ...
In this paper, I investigate the possible quantization, in the context of loop quantum gravity, of t...
The canonical decomposition of all 3+1 geometries admitting two-dimensional space-like surfaces is e...
In recent years there has been a resurgence of interest in 2+1 gravity and there have been claims t...
We advocate an alternative description of canonical gravity in 3+1 dimensions, obtained by using as ...
The quantization of Lorentzian or Euclidean 2+1 gravity by canonical methods is a well-studied probl...
A formalism previously introduced by the author using tesselated Cauchy surfaces is applied to defin...
I discuss some aspects of a lattice approach to canonical quantum gravity in a connection formulatio...
In order to understand (3+1)-dimensional gravity, (2+1)-dimensional gravity is studied as a toy mode...
A canonical quantization of two-dimensional gravity minimally coupled to real scalar and spinor Majo...
We give an introduction to the canonical formalism of Einstein's theory of general relativity. This ...
After briefly reviewing the hamiltonian approach to 2+1 dimensional gravity in absence of matter on ...
This is an introduction to the by now fifteen years old research field of canonical quantum general ...
We relate the geometrical and the Chern-Simons description of (2+1)-dimensional gravity for spacetim...
A surface theoretic view of non-perturbative quantum gravity as "spin-foams" was proposed by Baez. A...
This is an introduction to the by now fifteen years old research field of canonical quantum general ...
In this paper, I investigate the possible quantization, in the context of loop quantum gravity, of t...
The canonical decomposition of all 3+1 geometries admitting two-dimensional space-like surfaces is e...