Andere Kunden interessierten sich auch für
![Multiphase Simulations of a Lyocell Process]( "Multiphase Simulations of a Lyocell Process")
Multiphase Simulations of a Lyocell Process42,99 €![Multiphase Flow Dynamics 5]( "Multiphase Flow Dynamics 5")
Multiphase Flow Dynamics 5148,99 €![Multiphase Flow Dynamics 4]( "Multiphase Flow Dynamics 4")
Multiphase Flow Dynamics 474,99 €![Multiphase Flow Dynamics 4]( "Multiphase Flow Dynamics 4")
Multiphase Flow Dynamics 4156,99 €![Multiphase Flow Dynamics 2]( "Multiphase Flow Dynamics 2")
Multiphase Flow Dynamics 274,99 €![Multiphase reacting flows: modelling and simulation]( "Multiphase reacting flows: modelling and simulation")
Multiphase reacting flows: modelling and simulation74,99 €![CFD simulation of multicomponent gas flow through porous media]( "CFD simulation of multicomponent gas flow through porous media")
CFD simulation of multicomponent gas flow through porous media42,95 €
Diffuse interface (D.I.) model for muliphase flows.- Phase separation of viscous ternary liquid mixtures.- Dewetting and decomposing films of simple and complex liquids.- Phase-field models.
Multiphase flows are typically described assuming that the different phases are separated by a sharp interface, with appropriate boundary conditions. This approach breaks down whenever the lengthscale of the phenomenon that is being studied is comparable with the real interface thickness, as it happens, for example, in the coalescence and breakup of bubbles and drops, the wetting and dewetting of solid surfaces and, in general, im micro-devices. The diffuse interface model resolves these problems by assuming that all quantities can vary continuously, so that interfaces have a non-zero thickness, i.e. they are "diffuse". The contributions in this book review the theory and describe some relevant applications of the diffuse interface model for one-component, two-phase fluids and for liquid binary mixtures, to model multiphase flows in confined geometries.
Multiphase flows are typically described assuming that the different phases are separated by a sharp interface, with appropriate boundary conditions. This approach breaks down whenever the lengthscale of the phenomenon that is being studied is comparable with the real interface thickness, as it happens, for example, in the coalescence and breakup of bubbles and drops, the wetting and dewetting of solid surfaces and, in general, im micro-devices. The diffuse interface model resolves these problems by assuming that all quantities can vary continuously, so that interfaces have a non-zero thickness, i.e. they are "diffuse". The contributions in this book review the theory and describe some relevant applications of the diffuse interface model for one-component, two-phase fluids and for liquid binary mixtures, to model multiphase flows in confined geometries.