Thermodynamic stability of asymptotically anti-de Sitter rotating black holes in higher dimensions
arXiv:1403.1507 · doi:10.1088/0264-9381/31/16/165011
Abstract
Conditions for thermodynamic stability of asymptotically anti-de Sitter rotating black holes in D-dimensions are determined. Local thermodynamic stability requires not only positivity conditions on the specific heat and the moment of inertia tensor but it is also necessary that the adiabatic compressibility be positive. It is shown that, in the absence of a cosmological constant, neither rotation nor charge is sufficient to ensure full local thermodynamic stability of a black hole. Thermodynamic stability properties of anti-de Sitter Myers-Perry black holes are investigated for both singly spinning and multi-spinning black holes. Simple expressions are obtained for the specific heat and moment of inertia tensor in any dimension. An analytic expression is obtained for the boundary of the region of parameter space in which such space-times are thermodynamically stable.
30 pages, 3 figures. References added, minor typos corrected in v3
References in corpus (7)
- Black Hole Enthalpy and an Entropy Inequality for the Thermodynamic Volume
- An instability of higher-dimensional rotating black holes
- Stability of naked singularities and algebraically special modes
- Multi-black rings and the phase diagram of higher-dimensional black holes
- The volume of stationary black holes and the meaning of the surface gravity
- Classical and thermodynamic stability of black holes
- Thermodynamic black di-rings
Cited by in corpus (11)
- Effects of dark energy on P-V criticality of charged AdS black holes
- Black holes and Boyle's law -- the thermodynamics of the cosmological constant
- Universal criticality of thermodynamic geometry for boundary conformal field theories in gauge/gravity duality
- Thermodynamic schemes of charged BTZ-like black holes in arbitrary dimensions
- Analytic Electrically Charged Black Holes in -ModMax Theory
- On Thermodynamic Stability of Black Holes. Part I: Classical Stability
- Nonlinearly Charged Black Hole Chemistry with Massive Gravitons in the Grand Canonical Ensemble
- Thermodynamic geometry and phase transition of spinning AdS black holes
- Testing black holes with cosmological constant in Einstein-bumblebee gravity through the black hole shadow using EHT data and deflection angle
- On Thermodynamic Stability of Black Holes. Part II: AdS Family of Solutions
- Phase structures of the black D-D-brane system in various ensembles II: electrical and thermodynamic stability