Energy conditions for Inhomogeneous EOS and its Thermodynamics analysis with the resolution on finite time future singularity problems
arXiv:2111.01535 · doi:10.1142/S0219887821501310
Abstract
In this paper we study two different cases of inhomogeneous EOS of the form p_d = ω(t)ρ_d+w_1 f(H, t) . We derive the energy density of dark fluid and dark matter component for both the cases. Further we calculate the evolution of energy density, gravitational constant and cosmological constant. We also explore the finite time singularity and thermodynamic stability conditions for the two cases of EOS. Finally, we discuss the thermodynamics of inhomogeneous EOS with the derivation of internal energy, Temperature and entropy and also show that all the stability conditions are satisfied for the two cases of EOS
28 pages, 26 figures
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- Multiple fluid theory of cosmic evolution and its thermodynamic analysis
- Study of Einstein Equivalence Principle with Sagnac Effect in Lorentz and Galilean Frame
- Condensed body mass accretion with DBI-essence dark energy and its reconstruction with f(Q) gravity