Singularities and n-dimensional black holes in torsion theories
arXiv:1609.07814 · doi:10.1088/1475-7516/2017/04/021
Abstract
In this work we have studied the singular behaviour of gravitational theories with non symmetric connections. For this purpose we introduce a new criteria for the appearance of singularities based on the existence of black/white hole regions of arbitrary codimension defined inside a spacetime of arbitrary dimension. We discuss this prescription by increasing the complexity of the particular torsion theory under study. In this sense, we start with Teleparallel Gravity, then we analyse Einstein-Cartan theory, and finally dynamical torsion models.
11 pages, 0 figures, minor changes, references added. It matches the version published in JCAP
References in corpus (5)
- Singularity Theorems and Their Consequences
- The 1965 Penrose singularity theorem
- Model-independent limits and constraints on extended theories of gravity from cosmic reconstruction techniques
- Junction conditions in extended Teleparallel gravities
- New torsion black hole solutions in Poincaré gauge theory
Cited by in corpus (11)
- Revisiting the Stability of Quadratic Poincaré Gauge Gravity
- Fundamental Symmetries and Spacetime Geometries in Gauge Theories of Gravity: Prospects for Unified Field Theories
- New models with independent dynamical torsion and nonmetricity fields
- Cosmological reconstructed solutions in extended teleparallel gravity theories with a teleparallel Gauss-Bonnet term
- Birkhoff's theorem for stable torsion theories
- Imprints from a Riemann-Cartan space-time on the energy levels of Dirac spinors
- The cosmological principle in theories with torsion: The case of Einstein-Cartan-Dirac-Maxwell gravity
- Fermion dynamics in torsion theories
- Singularity theorems and the inclusion of torsion in affine theories of gravity
- Non-geodesic incompleteness in Poincaré gauge gravity
- A gravitational spin-orbit interaction in Poincaré gauge theory