This slide is a trail CHT analysis for relatively complex bodies with chtMultiRegionFoam which is an solver of OpenFOAM. Two methods to make mesh are explained.
This document summarizes the steps to perform conjugate heat transfer (CHT) coupling between OpenFOAM and CalculiX using preCICE. The example problem models heat transfer in a heat exchanger with an inner fluid, outer fluid and solid. OpenFOAM is used to simulate the inner and outer fluids while CalculiX simulates the solid. PrecICE is configured to exchange temperature and heat flux boundary condition data between the solvers at mesh interfaces. The workflow involves creating meshes in OpenFOAM and CalculiX, setting up coupling configuration files, and running the coupled simulation over multiple timesteps.
This document summarizes the steps to perform conjugate heat transfer (CHT) coupling between OpenFOAM and CalculiX using preCICE. The example problem models heat transfer in a heat exchanger with an inner fluid, outer fluid and solid. OpenFOAM is used to simulate the inner and outer fluids while CalculiX simulates the solid. PrecICE is configured to exchange temperature and heat flux boundary condition data between the solvers at mesh interfaces. The workflow involves creating meshes in OpenFOAM and CalculiX, setting up coupling configuration files, and running the coupled simulation over multiple timesteps.
This slide is about multiphaseEulerFoam which is a CFD solver of OpenFOAM and can analyze multiphase flows. The theory and differences with multiphaseInterFoam are explained.
Tutorial to set up a case for chtMultiRegionFoam in OpenFOAM 2.0.0ARPIT SINGHAL
This document provides a tutorial for setting up a case for the OpenFOAM solver chtMultiRegionFoam. It describes dividing the computational domain into multiple regions with different material properties, defining the regions by selecting cells, splitting the mesh according to the defined regions, and the necessary files and folders for a chtMultiRegionFoam case. Key steps include declaring the regions and their properties, defining cell sets and zones to divide the domain, running utilities to split the mesh and modify files for each region.
This slide is describing how to set up the OpenFOAM simulations including rotating geometries.
The SRF (Single Rotating Frame) is covered and MRF (Multiple Reference Frame).will be covered in it.
This slide is about multiphaseEulerFoam which is a CFD solver of OpenFOAM and can analyze multiphase flows. The theory and differences with multiphaseInterFoam are explained.
Tutorial to set up a case for chtMultiRegionFoam in OpenFOAM 2.0.0ARPIT SINGHAL
This document provides a tutorial for setting up a case for the OpenFOAM solver chtMultiRegionFoam. It describes dividing the computational domain into multiple regions with different material properties, defining the regions by selecting cells, splitting the mesh according to the defined regions, and the necessary files and folders for a chtMultiRegionFoam case. Key steps include declaring the regions and their properties, defining cell sets and zones to divide the domain, running utilities to split the mesh and modify files for each region.
This slide is describing how to set up the OpenFOAM simulations including rotating geometries.
The SRF (Single Rotating Frame) is covered and MRF (Multiple Reference Frame).will be covered in it.
FMU4FOAM is a FMU library of OpenFoam for combined with other solver like OpenModelica. This slide introduce FMU4FOAM outline and report executing the TempControlledFrange.
An individual conducted simulations of a milk crown using the interFoam solver in OpenFOAM on their personal computer. Parameters such as liquid film thickness, droplet velocity, mesh size, and computational domain geometry were varied in the simulations. While a mesh resolution of 0.025mm or finer was needed, the 10GB memory of the personal computer limited simulations to around 8 million cells. Further refinement of the model is still required to fully capture the formation of a milk crown, as only small droplets were observed upon collision in the simulations conducted.
moveEngineTopoChangerMesh is one of solvers in OpenFOAM. This slide is an instruction to use the solver for Kyoto Univ. engine of which piston face isn't flat.
13. /system/heater/changeDictionary
2021/1/31 13
T
{
internalField uniform 300;
boundaryField
{
".*"
{
type zeroGradient;
value uniform 300;
}
"heater_to_.*"
{
type compressible::turbulentTemperatureCoupledBaffleMixed;
Tnbr T;
kappaMethod solidThermo;
value uniform 300;
}
heaterW
{
type fixedGradient;
gradient uniform 500;
value uniform 300;
}
}
}
14. Allrun.pre
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#!/bin/sh
cd "${0%/*}" || exit # Run from this directory
. ${WM_PROJECT_DIR:?}/bin/tools/RunFunctions # Tutorial run functions
#------------------------------------------------------------------------------
# Restore initial fields
restore0Dir ←0フォルダ生成
cp -r ./model/polyMesh ./constant/polyMesh ←メッシュデータの複製
runApplication splitMeshRegions -cellZones –overwrite ←領域分割
# Remove fluid fields from solid regions (important for post-processing) ←solid領域での流体ファイル削除
for region in $(foamListRegions solid)
do
rm -f 0/$region/{nut,alphat,epsilon,k,U,p_rgh}
rm -f processor*/0/$region/{nut,alphat,epsilon,k,U,p_rgh}
done
# ChangeDictionary ←0フォルダファイルの書換
for region in $(foamListRegions)
do
runApplication -s $region changeDictionary -region $region
done