Thermodynamics of Photon Gas with an Invariant Energy Scale
arXiv:1002.0192 · doi:10.1103/PhysRevD.81.085039
Abstract
Quantum Gravity framework motivates us to find new theories in which an observer independent finite energy upper bound (preferably Planck Energy) exists. We have studied the modifications in the thermodynamical properties of a photon gas in such a scenario where we have an invariant energy scale. We show that the density of states and the entropy in such a framework are less than the corresponding quantities in Einstein's Special Relativity (SR) theory. This result can be interpreted as a consequence of the deformed Lorentz symmetry present in the particular model we have considered.
17 pages, 3 figure files, some addition in text as well as in references, the scaling of figures have been modified
References in corpus (4)
Cited by in corpus (13)
- Photon Gas Thermodynamics in Doubly Special Relativity
- Conformal Invariance in noncommutative geometry and mutually interacting Snyder Particles
- Spacetime singularity resolution in Snyder noncommutative space
- Thermostatistics of the Polymeric Ideal Gas
- Noncommutative spaces and covariant formulation of statistical mechanics
- Effects of a Maximal Energy Scale in Thermodynamics for Photon Gas and Construction of Path Integral
- Linear-Quadratic GUP and Thermodynamic Dimensional Reduction
- Photon gas thermodynamics in dS and AdS momentum spaces
- Thermal effects of a photon gas with a deformed Heisenberg algebra
- Quantum Information Measures in Quartic and Symmetric Potentials using perturbative approach
- Dimensional Phenomenology in Polymeric Quantization Framework
- Topics in Noncommutative Gauge Theories and Deformed Relativistic Theories
- Quantum gravity phenomenology and the blackbody radiation