On the stability of general relativistic geometric thin disks
arXiv:gr-qc/0409110 · doi:10.1103/PhysRevD.70.084015
Abstract
The stability of general relativistic thin disks is investigated under a general first order perturbation of the energy momentum tensor. In particular, we consider temporal, radial and azimuthal "test matter" perturbations of the quantities involved on the plane . We study the thin disks generated by applying the "displace, cut and reflect" method, usually known as the image method, to the Schwarzschild metric in isotropic coordinates and to the Chazy-Curzon metric and the Zipoy-Voorhees metric (-metric) in Weyl coordinates. In the case of the isotropic Schwarzschild thin disk, where a radial pressure is present to support the gravitational attraction, the disk is stable and the perturbation favors the formation of rings. Also, we found the expected result that the thin disk models generated by the Chazy-Curzon and Zipoy-Voorhees metric with only azimuthal pressure are not stable under a general first order perturbation
11 pages, RevTex. Phys Rev D (in press)
References in corpus (3)
Cited by in corpus (17)
- Relativistic Models of Galaxies
- Conformastatic disk-haloes in Einstein-Maxwell gravity
- Finite axisymmetric charged dust disks in conformastatic spacetimes
- Analytical Potential-Density Pairs for Flat Rings and Toroidal Structures
- Weyl conformastatic perihelion advance of small body objects
- Stability of general relativistic static thick disks: the isotropic Schwarzschild thick disk
- Vertical stability of circular orbits in relativistic razor-thin disks
- An infinite family of magnetized Morgan-Morgan relativistic thin disks
- Numerical self-consistent stellar models of thin disks
- Self-gravitating razor-thin disks around black holes via multi-hole seeds
- Orbit classification in a disk galaxy model with a pseudo-Newtonian central black hole
- Stability aspects of relativistic thin magnetized disks
- Stability of general relativistic Miyamoto-Nagai galaxies
- Relativistic ring models
- Rotating relativistic thin disks as sources of charged and magnetized Kerr-NUT spacetimes
- Relativistic Static Thin Disks of Polarized Matter
- On the Influence of the Mass Definition in the Stability of Axisymmetric Relativistic Thin Disks