We study the hydrodynamics of flow in a porous medium modeling the grain filling in filters. Using the lattice approximation, we derive the structure of the current in porous media and obtain the transverse diffusion coefficient D which proves to be proportional to the diameter d of the grains as constituents of the medium. We consider the axially-symmetric stationary flow in a cylindrical filter and show that the vertical velocity takes its maximal value at the wall, this effect being known as the "near-wall" one. We analyze the solution to the Euler equation with the modified Darcy force, which depends not only on the velocity but also on the gradient of the pressure included in the Darcy coefficient. Finally, within the scope of the pert...
Abstract: The methods of non-equilibrium thermodynamics receive relations Stefan-Maxwell f...
International audienceIn this paper, we investigate the nonlinear deviation of the Darcy law in the ...
Darcy’s law has long been used to describe the flow in porous media. Despite the progress that took ...
We study the hydrodynamics of flow in a porous medium modeling the grain filling in filters. Using t...
We study the hydrodynamics of flow in a porous medium modeling the grain filling in filters. Using t...
We study the hydrodynamics of flow in a porous medium modeling the grain filling in filters. Using t...
We study the hydrodynamics of flow in a porous medium modeling the grain filling in filters. Using t...
The liquid flow in a porous medium is considered for the axially-symmetric case. The generalization ...
We study the filtration process in porous media and compare the filtration coefficients for two poss...
Motivated by modelling the spreading of a two-dimensional particle-laden gravity current on a porous...
This theoretical paper focuses on the single-phase fluid flow through a granular porous medium. The ...
Good separation of microscale with macroscale leads to the existence of a macroscale description of ...
Traditionally, multiphase flow in porous media is described by the so-called extended Darcy’s Law, w...
Motivated by modelling the spreading of a two-dimensional particle-laden gravity current on a porous...
International audienceThis work is concerned with deriving a macroscopic filtration law for describi...
Abstract: The methods of non-equilibrium thermodynamics receive relations Stefan-Maxwell f...
International audienceIn this paper, we investigate the nonlinear deviation of the Darcy law in the ...
Darcy’s law has long been used to describe the flow in porous media. Despite the progress that took ...
We study the hydrodynamics of flow in a porous medium modeling the grain filling in filters. Using t...
We study the hydrodynamics of flow in a porous medium modeling the grain filling in filters. Using t...
We study the hydrodynamics of flow in a porous medium modeling the grain filling in filters. Using t...
We study the hydrodynamics of flow in a porous medium modeling the grain filling in filters. Using t...
The liquid flow in a porous medium is considered for the axially-symmetric case. The generalization ...
We study the filtration process in porous media and compare the filtration coefficients for two poss...
Motivated by modelling the spreading of a two-dimensional particle-laden gravity current on a porous...
This theoretical paper focuses on the single-phase fluid flow through a granular porous medium. The ...
Good separation of microscale with macroscale leads to the existence of a macroscale description of ...
Traditionally, multiphase flow in porous media is described by the so-called extended Darcy’s Law, w...
Motivated by modelling the spreading of a two-dimensional particle-laden gravity current on a porous...
International audienceThis work is concerned with deriving a macroscopic filtration law for describi...
Abstract: The methods of non-equilibrium thermodynamics receive relations Stefan-Maxwell f...
International audienceIn this paper, we investigate the nonlinear deviation of the Darcy law in the ...
Darcy’s law has long been used to describe the flow in porous media. Despite the progress that took ...