Locally Rotationally Symmetric Spacetimes in Einstein-Cartan Theory and Their Classification
arXiv:2507.01840 · doi:10.1103/9m6d-rgv3
Abstract
We present the complete set of covariant equations that govern the locally rotationally symmetric torsion spacetimes sourced by Weyssenhoff fluid in Einstein-Cartan-Sciama-Kibble gravity. Using these equations, we can explore in detail the peculiar relationship between conformal structure and torsion. We develop a comprehensive scheme to categorize these torsional spacetimes into distinct classes. We explicitly analyze the properties of each class and obtain novel analytical solutions to the gravitational field equations.
arXiv comment19 pages
References in corpus (16)
- GW170817: Observation of Gravitational Waves from a Binary Neutron Star Inspiral
- f(T) teleparallel gravity and cosmology
- Phantom cosmologies
- A covariant approach for perturbations of rotationally symmetric spacetimes
- Covariant Perturbations of Schwarzschild Black Holes
- The Covariant Approach to LRS Perfect Fluid Spacetime Geometries
- The physics of neutron stars
- The Viability of Phantom Dark Energy: A Brief Review
- Scalar field and electromagnetic perturbations on Locally Rotationally Symmetric spacetimes
- The covariant Tolman-Oppenheimer-Volkoff equations II: The anisotropic case
- The covariant Tolman-Oppenheimer-Volkoff equations I: The isotropic case
- Static compact objects in Einstein-Cartan theory
- Singularity theorems and the inclusion of torsion in affine theories of gravity
- On anisotropic two-fluid stellar objects in General Relativity
- Toward Singularity Theorems with Torsion
- Junction conditions for LRS spacetimes in the covariant formalism