Pressure and entropy of hard spheres in the weakly nonequilibrium heat-conduction steady state
arXiv:1612.07166 · doi:10.5488/CMP.19.43002
Abstract
Thermodynamic quantities of the hard-sphere system in the steady state with a small heat flux are calculated within the continuous media approach. Analytical expressions for pressure, internal energy, and entropy are found in the approximation of the fourth order in temperature gradients. It is shown that the gradient contributions to the internal energy depend on the volume, while the entropy satisfies the second law of thermodynamics for nonequilibrium processes. The calculations are performed for dimensions 3D, 2D, and 1D.
arXiv comment12 pages, 2 figures
References in corpus (8)
- Boundary effects in the stepwise structure of the Lyapunov spectra for quasi-one-dimensional systems
- Nonequilibrium Temperature and Thermometry in Heat-Conducting Phi-4 Models
- Probing local equilibrium in nonequilibrium fluids
- Dissipation and Entropy Production in Deterministic Heat Conduction of Quasi-one-dimensional Systems
- Scaling laws and bulk-boundary decoupling in heat flow
- Extended hydrodynamics from Enskog's equation: The bidimensional case
- Extended hydrodynamics from Enskog's equation for a two-dimensional system general formalism
- Local Nonequilibrium Configurational Entropy in Quasi-one-dimensional Heat Conduction