A kinetic model for the study of capillary flows in devices with microscale geometry is presented. The model is based on the Enskog-Vlasov kinetic equation and provides a reasonable description of both fluid-fluid and fluid-wall interactions. Numerical solutions are obtained by an extension of the classical Direct Simulation Monte Carlo (DSMC) to dense fluids. The equilibrium properties of liquid menisci between two hydrophilic walls are investigated and the validity of the Laplace-Kelvin equation at the microscale is assessed. The dynamical process which leads to the meniscus breakage is clarified
Evaporation processes are a common feature in micro and nanofluidics where aqueous solutions are emp...
[[abstract]]This paper describes a new method and an analytical model for characterizing the surface...
In this paper we describe an experimental method and an analytical model for characterizing the surf...
A kinetic model for the study of capillary flows in devices with microscale geometry is presented. T...
A kinetic model for the study of capillary flows in devices with microscale geometry is presented. T...
A kinetic model for the study of capillary flows in devices with microscale geometry is presented. T...
A kinetic model for the study of capillary flows in micromechanical devices has been presented. The ...
A kinetic model for the study of capillary flows in micromechanical devices has been presented. The ...
A kinetic model for the study of capillary flows in micromechanical devices has been presented. The ...
A kinetic model for the study of capillary flows in micromechanical devices has been presented. The ...
The dynamic evolution of an incompressible liquid meniscus inside a microcapillary is investigated, ...
International audienceMany microfluidics devices, coating processes or diphasic flows involve the mo...
Evaporation processes are a common feature in micro and nanofluidics where aqueous solutions are emp...
Evaporation processes are a common feature in micro and nanofluidics where aqueous solutions are emp...
Evaporation processes are a common feature in micro and nanofluidics where aqueous solutions are emp...
Evaporation processes are a common feature in micro and nanofluidics where aqueous solutions are emp...
[[abstract]]This paper describes a new method and an analytical model for characterizing the surface...
In this paper we describe an experimental method and an analytical model for characterizing the surf...
A kinetic model for the study of capillary flows in devices with microscale geometry is presented. T...
A kinetic model for the study of capillary flows in devices with microscale geometry is presented. T...
A kinetic model for the study of capillary flows in devices with microscale geometry is presented. T...
A kinetic model for the study of capillary flows in micromechanical devices has been presented. The ...
A kinetic model for the study of capillary flows in micromechanical devices has been presented. The ...
A kinetic model for the study of capillary flows in micromechanical devices has been presented. The ...
A kinetic model for the study of capillary flows in micromechanical devices has been presented. The ...
The dynamic evolution of an incompressible liquid meniscus inside a microcapillary is investigated, ...
International audienceMany microfluidics devices, coating processes or diphasic flows involve the mo...
Evaporation processes are a common feature in micro and nanofluidics where aqueous solutions are emp...
Evaporation processes are a common feature in micro and nanofluidics where aqueous solutions are emp...
Evaporation processes are a common feature in micro and nanofluidics where aqueous solutions are emp...
Evaporation processes are a common feature in micro and nanofluidics where aqueous solutions are emp...
[[abstract]]This paper describes a new method and an analytical model for characterizing the surface...
In this paper we describe an experimental method and an analytical model for characterizing the surf...