Latent heat and the Fourier law
arXiv:1603.04769 · doi:10.1016/j.physleta.2016.03.025
Abstract
We present computer simulations run with a stochastic cellular automaton which describes particle systems connected to reservoirs which keep two different densities at the endpoints. We fix the parameters so that there is a phase transition (of the van der Waals type) and observe that if the densities at the boundaries are metastable then, after a transient, the system reaches an apparently stationary regime where the current flows from the reservoir with smaller density to the one with larger density.
References in corpus (1)
Cited by in corpus (12)
- Microscopic models for uphill diffusion
- Fick and Fokker--Planck diffusion law in inhomogeneous media
- Non-equilibrium 2D Ising model with stationary uphill diffusion
- Stationary uphill currents in locally perturbed Zero Range Processes
- Particle models with self sustained current
- A lattice model approach to the morphology formation from ternary mixtures during the evaporation of one component
- Deterministic model of battery, uphill currents and non-equilibrium phase transitions
- Deterministic reversible model of non-equilibrium phase transitions and stochastic counterpart
- Uphill in reaction-diffusion multi-species interacting particles systems
- A note on Fick's law with phase transitions
- Emergence of stationary uphill currents in 2D Ising models: the role of reservoirs and boundary conditions
- Uphill migration in coupled driven particle systems