Analysis of accretion disk around a black hole in dRGT massive gravity
arXiv:2203.05190 · doi:10.1140/epjc/s10052-022-10153-y
Abstract
We show the analysis of a thin accretion disk around a static and spherically symmetric black hole in dRGT massive gravity. We present the accretion disk analysis in a gravitational theory with a nonzero graviton mass. Also, we study the event horizons of the black hole and we calculate the equations of motion and effective potential. In the following, we obtain the specific energy, specific angular momentum, and angular velocity of the particles which move in circular orbits. In addition, we plot the effective potentials for two cases and we show the locations of stable circular orbits. At last, we show the possibility of constraining the parameter space of dRGT massive gravity by the astrophysical gamma-ray bursts.
References in corpus (18)
- Resummation of Massive Gravity
- The Physics of Gamma-Ray Bursts and Relativistic Jets
- Thermodynamics of Black Holes in Massive Gravity
- P-V criticality in the extended phase space of black holes in massive gravity
- Thin accretion disks in stationary axisymmetric wormhole spacetimes
- Exact Schwarzschild-de Sitter black holes in a family of massive gravity models
- Electromagnetic signatures of thin accretion disks in wormhole geometries
- Complete analytic solution of the geodesic equation in Schwarzschild--(anti) de Sitter space--times
- Geodesics of electrically and magnetically charged test particles in the Reissner-Nordström space-time: analytical solutions
- Analytic solutions of the geodesic equation in higher dimensional static spherically symmetric space-times
- Accretion disk onto boson stars: a way to supplant black holes candidates
- A class of charged black hole solutions in massive (bi)gravity
- Hawking-Page transition in holographic massive gravity
- Gravitational wave echoes from black holes in massive gravity
- Black Hole Thermodynamics and Massive Gravity
- Testing the existence of regions of stable orbits at small radii around black hole candidates
- General relativistic rotational energy extraction from black holes-accretion disk systems
- Magnetic fields in the accretion disks for various inner boundary conditions