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foam-extend4.1-coherent-io/tutorials/incompressible/simpleFoam/mixingPlaneAxial/constant/polyMesh/blockMeshDict.m4
2015-05-18 09:54:33 +02:00

269 lines
6.4 KiB
C++

/*--------------------------------*- C++ -*----------------------------------*\
| ========= | |
| \\ / F ield | foam-extend: Open Source CFD |
| \\ / O peration | Version: 3.2 |
| \\ / A nd | Web: http://www.foam-extend.org |
| \\/ M anipulation | |
\*---------------------------------------------------------------------------*/
FoamFile
{
version 2.0;
format ascii;
class dictionary;
object blockMeshDict;
}
// * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * //
//process this file using: m4 -P blockMeshDict.m4 > blockMeshDict
//m4 definitions -----------------------------
m4_changecom(//)m4_changequote([,])
m4_define(calc, [m4_esyscmd(perl -e 'printf ($1)')])
m4_define(pi, 3.14159265358979323844)
m4_define(rad, [calc($1*pi/180.0)])
m4_define(VCOUNT, 0)
m4_define(vlabel, [[// ]Vertex $1 = VCOUNT m4_define($1, VCOUNT)m4_define([VCOUNT], m4_incr(VCOUNT))])
//Geometry -----------------------------------
// 2 planes levels
m4_define(zA, 0.0)
m4_define(zB, 0.1)
// Angle span for inner block
m4_define(angleB, rad( 60.0))
m4_define(angleD, rad( 150.0))
// Angle span for outer block
m4_define(angleA, rad( 5.0))
m4_define(angleC, rad(41.0))
// Radial dimensions
m4_define(r1, 1.0)
m4_define(r2, 2.0)
m4_define(r3, 3.0)
// Mesh parameters
m4_define(nCells, 5)
m4_define(BLOCKSIZE_UPSTREAM, 25 17 1)
m4_define(BLOCKSIZE_DOWNSTREAM, 25 27 1)
m4_define(grading, 1.0)
// * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * //
convertToMeters 1;
vertices
(
//Plane A:
//Bottom of curved block
(calc(r1*cos(angleB)) calc(r1*sin(angleB)) zA) vlabel(A0)
(calc(r2*cos(angleB)) calc(r2*sin(angleB)) zA) vlabel(A1)
(calc(r1*cos(angleD)) calc(r1*sin(angleD)) zA) vlabel(A2)
(calc(r2*cos(angleD)) calc(r2*sin(angleD)) zA) vlabel(A3)
//Plane B:
//Top of curved block
(calc(r1*cos(angleB)) calc(r1*sin(angleB)) zB) vlabel(B0)
(calc(r2*cos(angleB)) calc(r2*sin(angleB)) zB) vlabel(B1)
(calc(r1*cos(angleD)) calc(r1*sin(angleD)) zB) vlabel(B2)
(calc(r2*cos(angleD)) calc(r2*sin(angleD)) zB) vlabel(B3)
//Plane A: Bottom of straight block
(calc(r2*cos(angleA)) calc(r2*sin(angleA)) zA) vlabel(B4)
(calc(r3*cos(angleA)) calc(r3*sin(angleA)) zA) vlabel(B5)
(calc(r2*cos(angleC)) calc(r2*sin(angleC)) zA) vlabel(B6)
(calc(r3*cos(angleC)) calc(r3*sin(angleC)) zA) vlabel(B7)
//Plane B: Top of straight block
(calc(r2*cos(angleA)) calc(r2*sin(angleA)) zB) vlabel(C0)
(calc(r3*cos(angleA)) calc(r3*sin(angleA)) zB) vlabel(C1)
(calc(r2*cos(angleC)) calc(r2*sin(angleC)) zB) vlabel(C2)
(calc(r3*cos(angleC)) calc(r3*sin(angleC)) zB) vlabel(C3)
);
blocks
(
hex ( A0 A1 A3 A2 B0 B1 B3 B2 ) (BLOCKSIZE_UPSTREAM) simpleGrading (1 1 grading)
hex ( B4 B5 B7 B6 C0 C1 C3 C2 ) (BLOCKSIZE_DOWNSTREAM) simpleGrading (1 1 grading)
);
edges
(
// --- PLANE A: Bottom of curved block
arc A0 A2 (calc(r1*cos((angleB+angleD)/2)) calc(r1*sin((angleB+angleD)/2)) zA)
arc A1 A3 (calc(r2*cos((angleB+angleD)/2)) calc(r2*sin((angleB+angleD)/2)) zA)
// --- PLANE B: Top of curved block
arc B0 B2 (calc(r1*cos((angleB+angleD)/2)) calc(r1*sin((angleB+angleD)/2)) zB)
arc B1 B3 (calc(r2*cos((angleB+angleD)/2)) calc(r2*sin((angleB+angleD)/2)) zB)
// --- PLANE A: Bottom of straight block
arc B4 B6 (calc(r2*cos((angleA+angleC)/2)) calc(r2*sin((angleA+angleC)/2)) zA)
arc B5 B7 (calc(r3*cos((angleA+angleC)/2)) calc(r3*sin((angleA+angleC)/2)) zA)
// --- PLANE B: Top of straight block
arc C0 C2 (calc(r2*cos((angleA+angleC)/2)) calc(r2*sin((angleA+angleC)/2)) zB)
arc C1 C3 (calc(r3*cos((angleA+angleC)/2)) calc(r3*sin((angleA+angleC)/2)) zB)
);
boundary
(
outflow
{
type patch;
faces
(
(B5 B7 C3 C1)
);
}
inflow
{
type patch;
faces
(
(A0 B0 B2 A2)
);
}
upstreamPerio1
{
type cyclicGgi;
shadowPatch upstreamPerio2;
zone upstreamPerio1Zone;
bridgeOverlap false;
rotationAxis (0 0 1);
rotationAngle 36;
separationOffset (0 0 0);
faces
(
(B4 B5 C1 C0)
);
}
upstreamPerio2
{
type cyclicGgi;
shadowPatch upstreamPerio1;
zone upstreamPerio2Zone;
bridgeOverlap false;
rotationAxis (0 0 1);
rotationAngle -36;
separationOffset (0 0 0);
faces
(
(B6 C2 C3 B7)
);
}
upstreamMixingPlanePatch
{
type mixingPlane;
shadowPatch downstreamMixingPlanePatch;
zone upstreamMixingPlaneZone;
ribbonPatch
{
discretisation bothPatches;
sweepAxis Theta;
stackAxis Z;
}
coordinateSystem
{
type cylindrical;
origin (0 0 0);
axis (0 0 1);
direction (1 1 0);
}
faces
(
(B4 C0 C2 B6)
);
}
downstreamMixingPlanePatch
{
type mixingPlane;
shadowPatch upstreamMixingPlanePatch;
zone downstreamMixingPlaneZone;
coordinateSystem
{
type cylindrical;
origin (0 0 0);
axis (0 0 1);
direction (1 1 0);
}
faces
(
(A1 A3 B3 B1)
);
}
downstreamWall
{
type symmetryPlane;
faces
(
(A0 A2 A3 A1)
(B0 B1 B3 B2)
);
}
upstreamWall
{
type symmetryPlane;
faces
(
(C1 C3 C2 C0)
(B4 B6 B7 B5)
);
}
downstreamPerio1
{
type cyclicGgi;
shadowPatch downstreamPerio2;
zone downstreamPerio1Zone;
bridgeOverlap false;
rotationAxis (0 0 1);
rotationAngle 90;
separationOffset (0 0 0);
faces
(
(A0 A1 B1 B0)
);
}
downstreamPerio2
{
type cyclicGgi;
shadowPatch downstreamPerio1;
zone downstreamPerio2Zone;
bridgeOverlap false;
rotationAxis (0 0 1);
rotationAngle -90;
separationOffset (0 0 0);
faces
(
(A2 B2 B3 A3)
);
}
);
mergePatchPairs
(
);