Topological dyonic Taub-Bolt/NUT-AdS: Thermodynamics and first law
arXiv:2007.10489 · doi:10.1103/PhysRevD.101.124011
Abstract
Motivated by the absence of Misner string in the Euclidean Taub-Bolt/NUT solutions with flat horizons, we present a new treatment for studying the thermodynamics of these spactimes. This treatment is based on introducing a new charge, (where is the nut charge and is some constant) and its conjugate thermodynamic potential . Upon identifying one of the spatial coordinates, the boundary of these solutions contains two annulus-like surfaces in addition to the constant-r surface. For these solutions, we show that these annuli surfaces receive electric, magnetic and mass/energy fluxes, therefore, they have nontrivial contributions to these conserved charges. Calculating these conserved charges we find, , and , where , , are electric charge, magnetic charge and mass in the case, while and are the electric and magnetic potentials. The calculated thermodynamic quantities obey the first law of thermodynamics while the entropy is the area of the horizon. Furthermore, all these quantities obey Smarr's relation. We show the consistency of these results through calculating the Hamiltonian and its variation which reproduces the first law.
arXiv comment22 pages, one figure
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Cited by in corpus (13)
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- Thermodynamics of Taub-NUT and Plebanski Solutions
- Consistent mass formulas for the four-dimensional dyonic NUT-charged spacetimes
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- Fermionic and Bosonic Greybody Factors as well as Quasinormal Modes for Charged Taub NUT Black Holes
- Gravitational Dyonic Amplitude at One-Loop and its Inconsistency with the Classical Impulse
- Consistent mass formulas for higher even-dimensional Taub-NUT spacetimes and their AdS counterparts
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- Revisiting mass formulas of the four-dimensional Reissner-Nordström-NUT-AdS solutions in a different metric form
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- Dyonic Taub-NUT-AdS Spaces: Phase Structures of all Horizon Geometries
- Conformal scalar NUT-like dyons in conformal electrodynamics
- Dyonic Taub-NUT-AdS Black Branes: Thermodynamics and Phase Diagrams