The thermodynamics of black holes in various dimensions are described in the presence of a negative cosmological constant which is treated as a thermodynamic variable, interpreted as a pressure in the equation of state. The black hole mass is then identified with the enthalpy, rather than the internal energy, and heat capacities are calculated at constant pressure not at constant volume. The Euclidean action is associated with a bridge equation for the Gibbs free energy and not the Helmholtz free energy. Quantum corrections to the enthalpy and the equation of state of the BTZ black hole are studied
When the cosmological constant, Ʌ, is interpreted as a thermodynamic variable in the study of black...
When the cosmological constant, Ʌ, is interpreted as a thermodynamic variable in the study of black...
The mass of a black hole is interpreted, in terms of thermodynamic potentials, as being the enthalpy...
The thermodynamics of black holes in various dimensions are described in the presence of a negative ...
The thermodynamics of black holes in various dimensions are described in the presence of a negative ...
The thermodynamics of black holes in various dimensions are described in the presence of a negative ...
In black hole thermodynamics a cosmological constant contributes a pressure to the equation of stat...
In black hole thermodynamics a cosmological constant contributes a pressure to the equation of stat...
In black hole thermodynamics a cosmological constant contributes a pressure to the equation of stat...
In black hole thermodynamics a cosmological constant contributes a pressure to the equation of stat...
Viewing the cosmological constant Λ<0 as an independent variable, we consider the thermodynamics of ...
The mass of a black hole is interpreted, in terms of thermodynamic potentials, as being the enthalp...
When the cosmological constant, Ʌ, is interpreted as a thermodynamic variable in the study of black...
The mass of a black hole is interpreted, in terms of thermodynamic potentials, as being the enthalp...
When the cosmological constant, Ʌ, is interpreted as a thermodynamic variable in the study of black...
When the cosmological constant, Ʌ, is interpreted as a thermodynamic variable in the study of black...
When the cosmological constant, Ʌ, is interpreted as a thermodynamic variable in the study of black...
The mass of a black hole is interpreted, in terms of thermodynamic potentials, as being the enthalpy...
The thermodynamics of black holes in various dimensions are described in the presence of a negative ...
The thermodynamics of black holes in various dimensions are described in the presence of a negative ...
The thermodynamics of black holes in various dimensions are described in the presence of a negative ...
In black hole thermodynamics a cosmological constant contributes a pressure to the equation of stat...
In black hole thermodynamics a cosmological constant contributes a pressure to the equation of stat...
In black hole thermodynamics a cosmological constant contributes a pressure to the equation of stat...
In black hole thermodynamics a cosmological constant contributes a pressure to the equation of stat...
Viewing the cosmological constant Λ<0 as an independent variable, we consider the thermodynamics of ...
The mass of a black hole is interpreted, in terms of thermodynamic potentials, as being the enthalp...
When the cosmological constant, Ʌ, is interpreted as a thermodynamic variable in the study of black...
The mass of a black hole is interpreted, in terms of thermodynamic potentials, as being the enthalp...
When the cosmological constant, Ʌ, is interpreted as a thermodynamic variable in the study of black...
When the cosmological constant, Ʌ, is interpreted as a thermodynamic variable in the study of black...
When the cosmological constant, Ʌ, is interpreted as a thermodynamic variable in the study of black...
The mass of a black hole is interpreted, in terms of thermodynamic potentials, as being the enthalpy...