Varying Newton constant and black hole to white hole quantum tunneling
arXiv:2003.10331 · doi:10.3390/universe6090133
Abstract
The thermodynamics of black holes is discussed for the case, when the Newton constant is not a constant, but is the thermodynamic variable. This gives for the first law of the Schwarzschild black hole thermodynamics: , where the gravitational coupling , is the black hole mass, is the area of horizon, and is Hawking temperature. From this first law it follows that the dimensionless quantity is the adiabatic invariant, which in principle can be quantized if to follow the Bekenstein conjecture. From the Euclidean action for the black hole it follows that and serve as dynamically conjugate variables. This allows us to calculate the quantum tunneling from the black hole to the white hole, and determine the temperature and entropy of the white hole.
5 pages, no figures, revised after referee report, new section is added
References in corpus (10)
- Black hole and Hawking radiation by type-II Weyl fermions
- Black hole spectroscopy via adiabatic invariance
- The inner Cauchy horizon of axisymmetric and stationary black holes with surrounding matter
- Thermodynamics and Spectroscopy of Schwarzschild black hole surrounded by Quintessence
- Mutiny at the white-hole district
- Bouncing compact objects I: Quantum extension of the Oppenheimer-Snyder collapse
- Black and White Holes at Material Junctions
- Quantization of area for event and Cauchy horizons of the Kerr-Newman black hole
- f(R) Cosmology from q-Theory
- Finite Action Principle Revisited
Cited by in corpus (9)
- Statistical Mechanics of Systems with Negative Temperature
- Losing the trace to find dynamical Newton or Planck constants
- Black hole thermodynamics is extensive with variable Newton constant
- Thermodynamics for higher dimensional rotating black holes with variable Newton constant
- Macroscopic quantum tunneling: from quantum vortices to black holes and Universe
- Thermodynamics and decay of de Sitter vacuum
- He Universe 2020
- From black hole to white hole via the intermediate static state
- Negative temperature: further extensions