Files
OpenFOAM-12/tutorials/modules/multiphaseEuler/titaniaSynthesis/constant/phaseProperties
Henry Weller cec0359871 solvers::multiphaseEuler: New solver module for Euler-Euler multiphase simulations
executed with foamRun for single region simulations of foamMultiRun for
multi-region simulations.  Replaces multiphaseEulerFoam and all the
corresponding tutorials have been updated and moved to
tutorials/modules/multiphaseEuler.

Class
    Foam::solvers::multiphaseEuler

Description
    Solver module for a system of any number of compressible fluid phases with a
    common pressure, but otherwise separate properties. The type of phase model
    is run time selectable and can optionally represent multiple species and
    in-phase reactions. The phase system is also run time selectable and can
    optionally represent different types of momentum, heat and mass transfer.

    Uses the flexible PIMPLE (PISO-SIMPLE) solution for time-resolved and
    pseudo-transient and steady simulations.

    Optional fvModels and fvConstraints are provided to enhance the simulation
    in many ways including adding various sources, Lagrangian
    particles, surface film etc. and constraining or limiting the solution.

SourceFiles
    multiphaseEuler.C

See also
    Foam::solvers::compressibleVoF
    Foam::solvers::fluidSolver
    Foam::solvers::incompressibleFluid
2022-11-03 14:49:56 +00:00

202 lines
5.1 KiB
C++

/*--------------------------------*- C++ -*----------------------------------*\
========= |
\\ / F ield | OpenFOAM: The Open Source CFD Toolbox
\\ / O peration | Website: https://openfoam.org
\\ / A nd | Version: dev
\\/ M anipulation |
\*---------------------------------------------------------------------------*/
FoamFile
{
format ascii;
class dictionary;
location "constant";
object phaseProperties;
}
// * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * //
type populationBalanceMultiphaseSystem;
phases (particles vapor);
populationBalances (aggregates);
particles
{
type multicomponentPhaseModel;
diameterModel velocityGroup;
velocityGroupCoeffs
{
populationBalance aggregates;
shapeModel fractal;
fractalCoeffs
{
sinteringModel KochFriedlander;
KochFriedlanderCoeffs
{
Cs 8.3e24;
n 4.0;
m 1.0;
Ta 3700.0;
}
}
sizeGroups
(
f01{dSph 4.000E-10; value 1.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f02{dSph 5.769E-10; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f03{dSph 8.320E-10; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f04{dSph 1.200E-09; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f05{dSph 1.731E-09; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f06{dSph 2.496E-09; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f07{dSph 3.600E-09; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f08{dSph 5.192E-09; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f09{dSph 7.488E-09; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f10{dSph 1.080E-08; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f11{dSph 1.558E-08; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f12{dSph 2.246E-08; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f13{dSph 3.240E-08; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f14{dSph 4.673E-08; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f15{dSph 6.739E-08; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f16{dSph 9.720E-08; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f17{dSph 1.402E-07; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f18{dSph 2.022E-07; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f19{dSph 2.916E-07; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f20{dSph 4.206E-07; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f21{dSph 6.066E-07; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f22{dSph 8.748E-07; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f23{dSph 1.262E-06; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f24{dSph 1.820E-06; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f25{dSph 2.624E-06; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f26{dSph 3.785E-06; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f27{dSph 5.459E-06; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f28{dSph 7.873E-06; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
f29{dSph 1.136E-05; value 0.0; kappa 1.5E+10; Df 1.8; alphaC 1;}
);
}
residualAlpha 1e-15;
}
vapor
{
type reactingPhaseModel;
diameterModel none;
residualAlpha 1e-5;
}
populationBalanceCoeffs
{
aggregates
{
continuousPhase vapor;
coalescenceModels
(
DahnekeInterpolation
{
sigma 340e-12;
}
);
binaryBreakupModels
();
breakupModels
();
driftModels
();
nucleationModels
(
reactionDriven
{
nucleationDiameter 4E-10;
velocityGroup particles;
reactingPhase vapor;
dmdtf phaseTransfer:dmidtf;
specie TiO2;
}
);
}
}
blending
{
default
{
type continuous;
phase vapor;
}
}
interfaceCompression
{}
surfaceTension
{}
drag
{
particles_dispersedIn_vapor
{
type timeScaleFiltered;
minRelaxTime 1e-4;
dragModel
{
type aerosolDrag;
sigma 340e-12;
}
}
}
virtualMass
{}
heatTransfer
{
particles_dispersedIn_vapor
{
type timeScaleFiltered;
minRelaxTime 1e-4;
heatTransferModel
{
type constantNu;
Nu 1;
}
}
}
phaseTransfer
{
particles_dispersedIn_vapor
{
type reactionDriven;
reactingPhase vapor;
targetPhase particles;
species (TiO2);
}
}
lift
{}
wallLubrication
{}
turbulentDispersion
{}
interfaceCompression
{}
// ************************************************************************* //