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/home/kapf/tycho_docu/sweep_y.c File Reference
#include <stdio.h>
#include <stdlib.h>
#include <math.h>
#include "variables_global.h"
#include "prototypes.h"

Go to the source code of this file.

Functions

double max_sweep_y (double a, double b)
int sweep_y (int x, int y, int z, int flag)

Function Documentation

double max_sweep_y ( double  a,
double  b 
)
inline

Inline function to calculate the maximum of two doubles

Definition at line 21 of file sweep_y.c.

Referenced by sweep_y().

{
double tmp;
if (a < b) tmp = b;
if (a == b)tmp = b;
if (a > b) tmp = a;
return tmp;
}
int sweep_y ( int  x,
int  y,
int  z,
int  flag 
)

The sweeping in all three directions (if 3D). This routine does the y-sweep and is parallelized using OpenMP for shared memory machines.

Definition at line 35 of file sweep_y.c.

References advection, boundary::back, bound, dimension, dom, DOM_FLUID, DOM_SOLID, boundary::front, Gamma, inflow_density, inflow_velocity, init_ppm(), boundary::left, marker, max_sweep_y(), obstacle_density, obstacle_temperature, ppm_free(), ppm_step(), pre, pressure_on_solid, rho, rho_visc, boundary::right, small, smallp, viscosity_on_off, vx, vx_visc, vy, vy_visc, vz, vz_visc, with_obstacles, x, y, z, zdy, and zya.

Referenced by hydro_sweeps().

{
int i, j, k, n, nmin, nmax;
// direction setter 0==x, 1==y, 2==z
int direction = 1;
//1D variables
double *rho_1D, *pre_1D, *eng_1D, *vx_1D, *vy_1D, *vz_1D, *marker_1D;
//1D variables for viscosity
double *rhodown, *rhoup, *rhofront, *rhoback;
double *vxdown, *vxup, *vxfront, *vxback;
double *vydown, *vyup, *vyfront, *vyback;
double *vzdown, *vzup, *vzfront, *vzback;
//for pressure calculations on the solid
double *pressure_solid_1D;
double *xa, *dx;
double *dx0, *xa0;
double *a_coef, *ai_coef, *b_coef, *bi_coef, *c_coef, *ci_coef;
double *d_x;
double *diffa;
//parabola
double *da, *ar;
double *pl, *p6, *rl, *r6;
double *u6, *ul, *vl, *v6;
double *wl, *w6, *el, *e6;
double *ql, *q6, *dp, *du;
double *dv, *dw, *dq, *de;
double *scratch1, *scratch2, *scratch3;
double *dr, *deltaa;
//for states
double *plft, *prgh, *ulft, *urgh, *rlft, *rrgh, *Cdtdx, *fCdtdx;
// for flattening
double *steep, *flat;
double **para;
//riemann solver
double *clft, *crgh, *plfti, *prghi, *pmid, *pmold, *wlft, *wrgh, *zlft, *zrgh;
double *umidl, *umidr, *umid;
//evolve
double *dm, *dtbdm, *upmid, *xa1, *xa2, *xa3;
double *vx_1D_old;
double *dvol, *dvol0, *dvol1;
//remap
double *delta;
double *fluxr, *fluxu, *fluxv, *fluxw, *fluxe, *fluxq;
double *dm0;
double *e_int_1D;
dom_state state, state_next;
#ifdef _OPENMP
#pragma omp parallel default(none) \
private(i, j, k, n, nmin, nmax, state, state_next, rho_1D, pre_1D,\
eng_1D, vx_1D, vy_1D, vz_1D, marker_1D, \
pressure_solid_1D, dx0, xa0, xa, dx, \
a_coef, ai_coef, b_coef, bi_coef, c_coef, ci_coef, \
d_x, diffa, da, ar, pl, p6, rl, r6, \
u6, ul, vl, v6, wl, w6, \
el, e6, ql, q6, dp, du, dr, deltaa, \
dv, dw, dq, de, scratch1, scratch2, scratch3, \
plft, prgh, ulft, urgh, rlft, rrgh, Cdtdx, fCdtdx, \
steep, flat, para, clft, crgh, plfti, prghi, pmid, \
pmold, wlft, wrgh, zlft, zrgh, umidl, umidr, umid, \
dm, dtbdm, upmid, xa1, xa2, xa3, vx_1D_old, \
dvol, dvol0, dvol1, delta, fluxr, fluxu, fluxv, \
fluxw, fluxe, fluxq, dm0, e_int_1D, rhodown, rhoup, \
rhofront, rhoback, vxdown, vxup, vxfront, vxback, \
vydown, vyup, vyfront, vyback, vzdown, vzup, vzfront, \
vzback) \
shared(x, y, z, rho, dom, \
pre, vx, vy, vz, marker, zya, zdy, \
pressure_on_solid, smallp, smallr, small, Gamma, max_array_length, flag, \
direction, obstacle_density, obstacle_temperature, advection, with_obstacles, \
viscosity_on_off, bound, inflow_density, inflow_velocity, dimension, \
rho_visc, vx_visc, vy_visc, vz_visc)
{
#endif
//==============================================================================
init_ppm(&rho_1D, &pre_1D, &eng_1D, &vx_1D, &vy_1D, &vz_1D, &marker_1D, &dx0, &xa0, &xa, &dx,
&a_coef, &ai_coef, &b_coef, &bi_coef, &c_coef, &ci_coef, &d_x, &da, &ar,
&dp, &dr, &du, &pl, &p6, &rl, &r6, &ul, &u6, &vl, &v6, &wl, &w6, &el, &e6, &ql,
&q6, &deltaa, &dv, &dw, &dq, &de, &scratch1, &scratch2, &scratch3, &diffa,
&plft, &prgh, &ulft, &urgh, &rlft, &rrgh, &Cdtdx, &fCdtdx, &clft, &crgh,
&plfti, &prghi, &pmid, &pmold, &wlft, &wrgh, &zlft, &zrgh, &umidl, &umidr,
&umid, &dm, &dtbdm, &upmid, &xa1, &xa2, &xa3, &vx_1D_old, &e_int_1D, &dvol,
&dvol0, &dvol1, &delta, &fluxr, &fluxu, &fluxv, &fluxw, &fluxe, &fluxq,
&dm0, &steep, &flat, &para, &pressure_solid_1D, &rhodown, &rhoup, &rhofront,
&rhoback, &vxdown, &vxup, &vxfront, &vxback, &vydown, &vyup, &vyfront,
&vyback, &vzdown, &vzup, &vzfront, &vzback, dimension);
//==============================================================================
for (k = 0; k < z; k++) {
#ifdef _OPENMP
#pragma omp for schedule(static)
#endif
for (i = 0; i < x; i++) {
int lefter;
nmin = 0;
nmax = 0;
lefter = 0;
for (j = 0; j < y; j++) {
n = j + 6 - nmin;
xa[n] = zya[j];
dx[n] = zdy[j];
xa0[n] = zya[j];
dx0[n] = zdy[j];
// Copy parts of a line from 3D domain into 1D domain
if (dom[i][j][k] == 0) {
state = DOM_FLUID;
rho_1D[n] = rho[i][j][k];
pre_1D[n] = pre[i][j][k];
vx_1D[n] = vy[i][j][k];
vy_1D[n] = vz[i][j][k];
vz_1D[n] = vx[i][j][k];
if (advection == 1) marker_1D[n] = marker[i][j][k];
if (with_obstacles == 1) pressure_solid_1D[n] = pressure_on_solid[i][j][k];
pre_1D[n] = max_sweep_y(smallp, pre_1D[n]);
eng_1D[n] = pre_1D[n] / (rho_1D[n] * Gamma) + 0.5 * ((pow(vx_1D[n], 2))+(pow(vy_1D[n], 2))+(pow(vz_1D[n], 2)));
// if viscosity is set on
if (viscosity_on_off == 1) {
if (dimension > 1) {
//====================================================
//first the i-1 case no obstacle
if ((i > 0) && (dom[i - 1][j][k] == 0) && (i < x - 1)) {
rhodown[n] = rho[i - 1][j][k];
vxdown[n] = vy[i - 1][j][k];
vydown[n] = vz[i - 1][j][k];
vzdown[n] = vx[i - 1][j][k];
}
if ((i > 0) && (dom[i - 1][j][k] != 0) && (i < x - 1)) {
rhodown[n] = 0.0;
vxdown[n] = 0.0;
vydown[n] = 0.0;
vzdown[n] = 0.0;
}
//at j==0 no obstacle is checked before entering viscosity part
if (i == 0) {
if (bound.left == 0) rhodown[n] = rho_visc[i][j][k];
if (bound.left == 1) rhodown[n] = rho_visc[i][j][k];
if (bound.left == 2) rhodown[n] = small;
if (bound.left == 3) rhodown[n] = rho_visc[i][j][k];
if (bound.left == 4) rhodown[n] = inflow_density;
if (bound.left == 5) rhodown[n] = rho_visc[x - 1][j][k];
if (bound.left == 0) vxdown[n] = vy_visc[i][j][k];
if (bound.left == 1) vxdown[n] = -vy_visc[i][j][k];
if (bound.left == 2) vxdown[n] = small;
if (bound.left == 3) vxdown[n] = vy_visc[i][j][k];
if (bound.left == 4) vxdown[n] = 0.0;
if (bound.left == 5) vxdown[n] = vy_visc[x - 1][j][k];
if (bound.left == 0) vydown[n] = vz_visc[i][j][k];
if (bound.left == 1) vydown[n] = -vz_visc[i][j][k];
if (bound.left == 2) vydown[n] = small;
if (bound.left == 3) {
if (vy_visc[i][j][k] > 0.0) vydown[n] = small;
if (vy_visc[i][j][k] <= 0.0) vydown[n] = vz_visc[i][j][k];
}
if (bound.left == 4) vydown[n] = 0.0;
if (bound.left == 5) vydown[n] = vz_visc[x - 1][j][k];
if (bound.left == 0) vzdown[n] = vx_visc[i][j][k];
if (bound.left == 1) vzdown[n] = -vx_visc[i][j][k];
if (bound.left == 2) vzdown[n] = small;
if (bound.left == 3) vzdown[n] = vx_visc[i][j][k];
if (bound.left == 4) vzdown[n] = inflow_velocity;
if (bound.left == 5) vzdown[n] = vz_visc[x - 1][j][k];
rhoup[n] = rho_visc[i + 1][j][k];
vxup[n] = vx_visc[i + 1][j][k];
vyup[n] = vy_visc[i + 1][j][k];
vzup[n] = vz_visc[i + 1][j][k];
}
//====================================================
//====================================================
//now the case j = y - 1 no obstacle
if ((i < x - 1) && (dom[i + 1][j][k] == 0) && (i > 0)) {
rhoup[n] = rho_visc[i + 1][j][k];
vxup[n] = vy_visc[i + 1][j][k];
vyup[n] = vz_visc[i + 1][j][k];
vzup[n] = vx_visc[i + 1 ][j][k];
}
if ((i < x - 1) && (dom[i + 1][j][k] != 0) && (i > 0)) {
rhoup[n] = 0.0;
vxup[n] = 0.0;
vyup[n] = 0.0;
vzup[n] = 0.0;
}
//at j==0 no obstacle is checked before entering viscosity part
if (i == x - 1) {
if (bound.right == 0) rhoup[n] = rho_visc[i][j][k];
if (bound.right == 1) rhoup[n] = rho_visc[i][j][k];
if (bound.right == 2) rhoup[n] = small;
if (bound.right == 3) rhoup[n] = rho_visc[i][j][k];
if (bound.right == 4) rhoup[n] = inflow_density;
if (bound.right == 5) rhoup[n] = rho_visc[0][j][k];
if (bound.right == 0) vxup[n] = vy_visc[i][j][k];
if (bound.right == 1) vxup[n] = -vy_visc[i][j][k];
if (bound.right == 2) vxup[n] = small;
if (bound.right == 3) vxup[n] = vy_visc[i][j][k];
if (bound.right == 4) vxup[n] = 0.0;
if (bound.right == 5) vxup[n] = vx_visc[0][j][k];
if (bound.right == 0) vyup[n] = vz_visc[i][j][k];
if (bound.right == 1) vyup[n] = -vz_visc[i][j][k];
if (bound.right == 2) vyup[n] = small;
if (bound.right == 3) {
if (vy_visc[i][j][k] < 0.0) vyup[n] = small;
if (vy_visc[i][j][k] >= 0.0) vyup[n] = vz_visc[i][j][k];
}
if (bound.right == 4) vyup[n] = 0.0;
if (bound.right == 5) vyup[n] = vz_visc[0][j][k];
if (bound.right == 0) vzup[n] = vx_visc[i][j][k];
if (bound.right == 1) vzup[n] = -vx_visc[i][j][k];
if (bound.right == 2) vzup[n] = small;
if (bound.right == 3) vzup[n] = vx_visc[i][j][k];
if (bound.right == 4) vzup[n] = inflow_velocity;
if (bound.right == 5) vzup[n] = vx_visc[0][j][k];
rhodown[n] = rho_visc[i - 1][j][k];
vxdown[n] = vx_visc[i - 1][j][k];
vydown[n] = vy_visc[i - 1][j][k];
vzdown[n] = vz_visc[i - 1][j][k];
}
//====================================================
}
if (dimension > 2) {
//====================================================
//now the k > 0 case no obstacle
if ((k > 0) && (dom[i][j][k - 1] == 0) && (k < z - 1)) {
rhofront[n] = rho_visc[i][j][k - 1];
vxfront[n] = vy_visc[i][j][k - 1];
vyfront[n] = vz_visc[i][j][k - 1];
vzfront[n] = vx_visc[i][j][k - 1];
}
if ((k > 0) && (dom[i][j][k - 1] != 0) && (k < z - 1)) {
rhofront[n] = 0.0;
vxfront[n] = 0.0;
vyfront[n] = 0.0;
vzfront[n] = 0.0;
}
//at k == 0 no obstacle is check-1ed before entering viscosity part
if (k == 0) {
if (bound.front == 0) rhofront[n] = rho_visc[i][j][k];
if (bound.front == 1) rhofront[n] = rho_visc[i][j][k];
if (bound.front == 2) rhofront[n] = small;
if (bound.front == 3) rhofront[n] = rho_visc[i][j][k];
if (bound.front == 4) rhofront[n] = inflow_density;
if (bound.front == 5) rhofront[n] = rho_visc[i][j][z - 1];
if (bound.front == 0) vxfront[n] = vy_visc[i][j][k];
if (bound.front == 1) vxfront[n] = -vy_visc[i][j][k];
if (bound.front == 2) vxfront[n] = small;
if (bound.front == 3) vxfront[n] = vy_visc[i][j][k];
if (bound.front == 4) vxfront[n] = 0.0;
if (bound.front == 5) vxfront[n] = vy_visc[i][j][z - 1];
if (bound.front == 0) vyfront[n] = vz_visc[i][j][k];
if (bound.front == 1) vyfront[n] = -vz_visc[i][j][k];
if (bound.front == 2) vyfront[n] = small;
if (bound.front == 3) vyfront[n] = vz_visc[i][j][k];
if (bound.front == 4) vyfront[n] = 0.0;
if (bound.front == 5) vyfront[n] = vz_visc[i][j][z - 1];
if (bound.front == 0) vzfront[n] = vx_visc[i][j][k];
if (bound.front == 1) vzfront[n] = -vx_visc[i][j][k];
if (bound.front == 2) vzfront[n] = small;
if (bound.front == 3) {
if (vz_visc[i][j][k] > 0.0) vzfront[n] = small;
if (vz_visc[i][j][k] <= 0.0) vzfront[n] = vx_visc[i][j][k];
}
if (bound.front == 4) vzfront[n] = inflow_velocity;
if (bound.front == 5) vzfront[n] = vx_visc[i][j][z - 1];
rhoback[n] = rho_visc[i][j][k + 1];
vxback[n] = vx_visc[i][j][k + 1];
vyback[n] = vy_visc[i][j][k + 1];
vzback[n] = vz_visc[i][j][k + 1];
}
//====================================================
//====================================================
//now the k < z-1 case no obstacle
if ((k < z - 1) && (dom[i][j][k + 1] == 0) && (k > 0)) {
rhoback[n] = rho_visc[i][j][k + 1];
vxback[n] = vy_visc[i][j][k + 1];
vyback[n] = vz_visc[i][j][k + 1];
vzback[n] = vx_visc[i][j][k + 1];
}
if ((k < z - 1) && (dom[i][j][k + 1] != 0) && (k > 0)) {
rhoback[n] = 0.0;
vxback[n] = 0.0;
vyback[n] = 0.0;
vzback[n] = 0.0;
}
//at k == z - 1 no obstacle is check-1ed before entering viscosity part
if (k == z - 1) {
if (bound.back == 0) rhoback[n] = rho_visc[i][j][k];
if (bound.back == 1) rhoback[n] = rho_visc[i][j][k];
if (bound.back == 2) rhoback[n] = small;
if (bound.back == 3) rhoback[n] = rho_visc[i][j][k];
if (bound.back == 4) rhoback[n] = inflow_density;
if (bound.back == 5) rhoback[n] = rho_visc[i][j][0];
if (bound.back == 0) vxback[n] = vy_visc[i][j][k];
if (bound.back == 1) vxback[n] = -vy_visc[i][j][k];
if (bound.back == 2) vxback[n] = small;
if (bound.back == 3) vxback[n] = vy_visc[i][j][k];
if (bound.back == 4) vxback[n] = 0.0;
if (bound.back == 5) vxback[n] = vy_visc[i][j][0];
if (bound.back == 0) vyback[n] = vz_visc[i][j][k];
if (bound.back == 1) vyback[n] = -vz_visc[i][j][k];
if (bound.back == 2) vyback[n] = small;
if (bound.back == 3) vyback[n] = vz_visc[i][j][k];
if (bound.back == 4) vyback[n] = 0.0;
if (bound.back == 5) vyback[n] = vz_visc[i][j][0];
if (bound.back == 0) vzback[n] = vx_visc[i][j][k];
if (bound.back == 1) vzback[n] = -vx_visc[i][j][k];
if (bound.back == 2) vzback[n] = small;
if (bound.back == 3) {
if (vz_visc[i][j][k] < 0.0) vzback[n] = small;
if (vz_visc[i][j][k] >= 0.0) vzback[n] = vx_visc[i][j][k];
}
if (bound.back == 4) vzback[n] = inflow_velocity;
if (bound.back == 5) vzback[n] = vx_visc[i][j][0];
rhofront[n] = rho_visc[i][j][k - 1];
vxfront[n] = vx_visc[i][j][k - 1];
vyfront[n] = vy_visc[i][j][k - 1];
vzfront[n] = vz_visc[i][j][k - 1];
}
//====================================================
}
}
} else if (dom[i][j][k] == 1) {
state = DOM_SOLID;
rho_1D[n] = obstacle_density;
pre_1D[n] = obstacle_temperature;
vx_1D[n] = 0.0;
vy_1D[n] = 0.0;
vz_1D[n] = 0.0;
if (advection == 1) marker_1D[n] = 0.0;
if (with_obstacles == 1) pressure_solid_1D[n] = 0.0;
pre_1D[n] = 0.0;
eng_1D[n] = 0.0;
}
if (j < y - 1) {
state_next = (dom[i][j + 1][k] == 0) ? DOM_FLUID : DOM_SOLID;
} else {
state_next = (state == DOM_FLUID) ? DOM_SOLID : DOM_FLUID;
}
if (state != state_next) {
if (state == DOM_FLUID) {
//*checks if we are at the most left or most right part of the domain
int bound_checker;
int jj;
int nminy2 = 6;
int nmaxy2 = (nmax - nmin) + 6;
//if the most left boundary is reached bound_checker is 0
//if the most right boundary is reached bound_checker is 0
if ((nmin == 0) || (nmax == (y - 1))) {
bound_checker = 0;
}
//Now we consider an obstacle in the row
if ((nmax - nmin) != (y - 1)) {
bound_checker = 1;
//is the left boundary at the edge of the computational domain
//lefter = 1
if (nmin == 0) lefter = 1;
//is the right boundary at the edge of the computational domain
//lefter =2;
if (nmax == (y - 1)) lefter = 2;
//if there is an obstacle left and right than
//lefter = 3
if ((nmin != 0) && (nmax != (y - 1))) lefter = 3;
}
ppm_step(i, j, k, direction, flag, nminy2, nmaxy2, a_coef, ai_coef, b_coef, bi_coef, c_coef, ci_coef,
d_x, diffa, da, ar, pl, p6, rl, r6, u6, ul, vl, v6, wl, w6, el,
e6, ql, q6, dp, du, dr, dv, dw, dq, de, scratch1, scratch2, scratch3,
plft, prgh, ulft, urgh, rlft, rrgh, Cdtdx, fCdtdx, steep, flat,
para, clft, crgh, plfti, prghi, pmid, pmold, wlft, wrgh, zlft,
zrgh, umidl, umidr, umid, dm, dtbdm, upmid, xa1, xa2, xa3,
vx_1D_old, dvol, dvol0, dvol1, delta, fluxr, fluxu, fluxv,
fluxw, fluxe, fluxq, dm0, e_int_1D, rho_1D, pre_1D, eng_1D,
vx_1D, vy_1D, vz_1D, marker_1D, pressure_solid_1D, dx0, xa0,
xa, dx, bound_checker, lefter, rhodown, rhoup, rhofront,
rhoback, vxdown, vxup, vxfront, vxback, vydown, vyup, vyfront,
vyback, vzdown, vzup, vzfront, vzback, viscosity_on_off, dimension);
//put the solution back into the 3D arrays
for (jj = nmin; jj <= nmax; jj++) {
n = jj + 6 - nmin;
rho[i][jj][k] = rho_1D[n];
pre[i][jj][k] = pre_1D[n];
vy[i][jj][k] = vx_1D[n];
vz[i][jj][k] = vy_1D[n];
vx[i][jj][k] = vz_1D[n];
if (advection == 1) marker[i][jj][k] = marker_1D[n];
//for the pressure on the obstacle calculation
if (with_obstacles == 1) pressure_on_solid[i][jj][k] = pressure_solid_1D[n];
}
} else if (state == DOM_SOLID) {
nmin = nmax + 1;
}
}
nmax++;
}
}
}
//free section
ppm_free(&rho_1D, &pre_1D, &eng_1D, &vx_1D, &vy_1D, &vz_1D, &marker_1D,
&pressure_solid_1D, &dx0, &xa0, &xa, &dx, &a_coef, &ai_coef,
&b_coef, &bi_coef, &c_coef, &ci_coef, &d_x, &da, &ar,
&dp, &dr, &du, &pl, &p6, &rl, &r6, &ul, &u6, &vl, &v6, &wl, &w6, &el, &e6, &ql,
&q6, &deltaa, &dv, &dw, &dq, &de, &scratch1, &scratch2, &scratch3, &diffa,
&plft, &prgh, &ulft, &urgh, &rlft, &rrgh, &Cdtdx, &fCdtdx, &clft, &crgh,
&plfti, &prghi, &pmid, &pmold, &wlft, &wrgh, &zlft, &zrgh, &umidl, &umidr,
&umid, &dm, &dtbdm, &upmid, &xa1, &xa2, &xa3, &vx_1D_old, &e_int_1D, &dvol,
&dvol0, &dvol1, &delta, &fluxr, &fluxu, &fluxv, &fluxw, &fluxe, &fluxq,
&dm0, &steep, &flat, &para, &rhodown, &rhoup, &rhofront,
&rhoback, &vxdown, &vxup, &vxfront, &vxback, &vydown, &vyup, &vyfront,
&vyback, &vzdown, &vzup, &vzfront, &vzback, dimension);
#ifdef _OPENMP
}
#endif
return 0;
}
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