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Added definitions of AC_GEN_STR and AC_GEN_ID to host_memory.h and .cc since they are no longer available from astaroth.h

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This commit is contained in:
jpekkila
2019-07-22 19:49:29 +03:00
parent f74df5339f
commit 074eae0bae
2 changed files with 127 additions and 115 deletions
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240
src/standalone/model/host_memory.cc
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@@ -30,7 +30,9 @@
#include "core/errchk.h"
#define AC_GEN_STR(X) #X
const char* init_type_names[] = {AC_FOR_INIT_TYPES(AC_GEN_STR)};
#undef AC_GEN_STR
#define XORIG (AcReal(.5) * mesh->info.int_params[AC_nx] * mesh->info.real_params[AC_dsx])
#define YORIG (AcReal(.5) * mesh->info.int_params[AC_ny] * mesh->info.real_params[AC_dsy])
@@ -43,14 +45,14 @@ static uint64_t ac_rand_next = 1;
static int32_t
ac_rand(void)
{
ac_rand_next = ac_rand_next * 1103515245 + 12345;
return (uint32_t)(ac_rand_next/65536) % 32768;
ac_rand_next = ac_rand_next * 1103515245 + 12345;
return (uint32_t)(ac_rand_next/65536) % 32768;
}
static void
ac_srand(const uint32_t seed)
{
ac_rand_next = seed;
ac_rand_next = seed;
}
*/
@@ -70,15 +72,13 @@ acmesh_create(const AcMeshInfo& mesh_info)
}
static void
vertex_buffer_set(const VertexBufferHandle& key, const AcReal& val,
AcMesh* mesh)
vertex_buffer_set(const VertexBufferHandle& key, const AcReal& val, AcMesh* mesh)
{
const int n = AC_VTXBUF_SIZE(mesh->info);
for (int i = 0; i < n; ++i)
mesh->vertex_buffer[key][i] = val;
}
/** Inits all fields to 1. Setting the mesh to zero is problematic because some fields are supposed
to be > 0 and the results would vary widely, which leads to loss of precision in the
computations */
@@ -95,13 +95,12 @@ randr(void)
return AcReal(rand()) / AcReal(RAND_MAX);
}
void
lnrho_step(AcMesh* mesh)
{
const int mx = mesh->info.int_params[AC_mx];
const int my = mesh->info.int_params[AC_my];
const int mz = mesh->info.int_params[AC_mz];
const int mx = mesh->info.int_params[AC_mx];
const int my = mesh->info.int_params[AC_my];
const int mz = mesh->info.int_params[AC_mz];
// const int nx_min = mesh->info.int_params[AC_nx_min];
// const int nx_max = mesh->info.int_params[AC_nx_max];
@@ -116,22 +115,23 @@ lnrho_step(AcMesh* mesh)
// const AcReal xmax = DX * (nx_max - nx_min) ;
// const AcReal zmax = DZ * (nz_max - nz_min) ;
// const AcReal lnrho1 = (AcReal) -1.0; // TODO mesh->info.real_params[AC_lnrho1];
const AcReal lnrho2 = (AcReal) 0.0; // TODO mesh->info.real_params[AC_lnrho2];
// const AcReal rho1 = (AcReal) exp(lnrho1);
// const AcReal lnrho1 = (AcReal) -1.0; // TODO mesh->info.real_params[AC_lnrho1];
const AcReal lnrho2 = (AcReal)0.0; // TODO mesh->info.real_params[AC_lnrho2];
// const AcReal rho1 = (AcReal) exp(lnrho1);
// const AcReal rho2 = (AcReal) exp(lnrho2);
// const AcReal k_pert = (AcReal) 1.0; //mesh->info.real_params[AC_k_pert]; //Wamenumber of the perturbation
// const AcReal k_pert = 4.0; //mesh->info.real_params[AC_k_pert]; //Wamenumber of the perturbation
//const AcReal ampl_pert = xmax/10.0; // xmax/mesh->info.real_params[AC_pert]; //Amplitude of the perturbation
// const AcReal ampl_pert = (AcReal) 0.0;//xmax/20.0; // xmax/mesh->info.real_params[AC_pert]; //Amplitude of the perturbation
// const AcReal two_pi = (AcReal) 6.28318531;
// const AcReal k_pert = (AcReal) 1.0; //mesh->info.real_params[AC_k_pert]; //Wamenumber of
// the perturbation const AcReal k_pert = 4.0; //mesh->info.real_params[AC_k_pert];
// //Wamenumber of the perturbation
// const AcReal ampl_pert = xmax/10.0; // xmax/mesh->info.real_params[AC_pert]; //Amplitude of
// the perturbation
// const AcReal ampl_pert = (AcReal) 0.0;//xmax/20.0; // xmax/mesh->info.real_params[AC_pert];
// //Amplitude of the perturbation const AcReal two_pi = (AcReal) 6.28318531;
// const AcReal xorig = mesh->info.real_params[AC_xorig];
// const AcReal zorig = mesh->info.real_params[AC_zorig];
// const AcReal trans = mesh->info.real_params[AC_trans];
// AcReal xx, zz, tanhprof, cosz_wave;
for (int k = 0; k < mz; k++) {
@@ -139,21 +139,19 @@ lnrho_step(AcMesh* mesh)
for (int i = 0; i < mx; i++) {
int idx = i + j * mx + k * mx * my;
// zz = DZ * AcReal(k) - zorig; // Not used
// cosz_wave = ampl_pert*AcReal(cos(k_pert*((zz/zmax)*two_pi))); // Not used
// cosz_wave = ampl_pert*AcReal(cos(k_pert*((zz/zmax)*two_pi))); // Not used
// xx = DX * AcReal(i) - xorig + cosz_wave; //ADD WAVE TODO // Not used
// tanhprof = AcReal(0.5)*((rho2+rho1) + (rho2-rho1)*AcReal(tanh(xx/trans))); // Not used
// Commented out the step function initial codition.
//mesh->vertex_buffer[VTXBUF_LNRHO][idx] = log(tanhprof);
// tanhprof = AcReal(0.5)*((rho2+rho1) + (rho2-rho1)*AcReal(tanh(xx/trans))); // Not
// used Commented out the step function initial codition.
// mesh->vertex_buffer[VTXBUF_LNRHO][idx] = log(tanhprof);
mesh->vertex_buffer[VTXBUF_LNRHO][idx] = lnrho2;
}
}
}
}
}
// This is the initial condition type for the infalling vedge in the pseudodisk
// model.
// model.
void
inflow_vedge(AcMesh* mesh)
{
@@ -170,7 +168,7 @@ inflow_vedge(AcMesh* mesh)
// const double DX = mesh->info.real_params[AC_dsx];
// const double DY = mesh->info.real_params[AC_dsy];
const double DZ = mesh->info.real_params[AC_dsz];
const double DZ = mesh->info.real_params[AC_dsz];
const double AMPL_UU = mesh->info.real_params[AC_ampl_uu];
const double ANGL_UU = mesh->info.real_params[AC_angl_uu];
@@ -184,30 +182,33 @@ inflow_vedge(AcMesh* mesh)
// const AcReal zmax = AcReal(DZ * (nz_max - nz_min));
// const AcReal gaussr = zmax / AcReal(4.0);
//for (int k = nz_min; k < nz_max; k++) {
// for (int k = nz_min; k < nz_max; k++) {
// for (int j = ny_min; j < ny_max; j++) {
// for (int i = nx_min; i < nx_max; i++) {
for (int k = 0; k < mz; k++) {
for (int j = 0; j < my; j++) {
for (int i = 0; i < mx; i++) {
int idx = i + j * mx + k * mx * my;
zz = DZ * double(k) - zorig;
//mesh->vertex_buffer[VTXBUF_UUX][idx] = -AMPL_UU*cos(ANGL_UU);
mesh->vertex_buffer[VTXBUF_UUX][idx] = AcReal(-AMPL_UU*cos(ANGL_UU)*fabs(tanh(zz/trans)));
zz = DZ * double(k) - zorig;
// mesh->vertex_buffer[VTXBUF_UUX][idx] = -AMPL_UU*cos(ANGL_UU);
mesh->vertex_buffer[VTXBUF_UUX][idx] = AcReal(-AMPL_UU * cos(ANGL_UU) *
fabs(tanh(zz / trans)));
mesh->vertex_buffer[VTXBUF_UUY][idx] = AcReal(0.0);
mesh->vertex_buffer[VTXBUF_UUZ][idx] = AcReal(-AMPL_UU*sin(ANGL_UU)*tanh(zz/trans));
mesh->vertex_buffer[VTXBUF_UUZ][idx] = AcReal(-AMPL_UU * sin(ANGL_UU) *
tanh(zz / trans));
//Variarion to density
//AcReal rho = exp(mesh->vertex_buffer[VTXBUF_LNRHO][idx]);
//NO GAUSSIAN//rho = rho*exp(-(zz/gaussr)*(zz/gaussr));
//mesh->vertex_buffer[VTXBUF_LNRHO][idx] = log(rho + (range*rho) * (randr() - AcReal(-0.5)));
// Variarion to density
// AcReal rho = exp(mesh->vertex_buffer[VTXBUF_LNRHO][idx]);
// NO GAUSSIAN//rho = rho*exp(-(zz/gaussr)*(zz/gaussr));
// mesh->vertex_buffer[VTXBUF_LNRHO][idx] = log(rho + (range*rho) * (randr() -
// AcReal(-0.5)));
}
}
}
}
// This is the initial condition type for the infalling vedge in the pseudodisk
// model.
// model.
void
inflow_vedge_freefall(AcMesh* mesh)
{
@@ -222,13 +223,13 @@ inflow_vedge_freefall(AcMesh* mesh)
// const int nz_min = mesh->info.int_params[AC_nz_min];
// const int nz_max = mesh->info.int_params[AC_nz_max];
const double DX = mesh->info.real_params[AC_dsx];
const double DX = mesh->info.real_params[AC_dsx];
// const double DY = mesh->info.real_params[AC_dsy];
const double DZ = mesh->info.real_params[AC_dsz];
const double DZ = mesh->info.real_params[AC_dsz];
// const double AMPL_UU = mesh->info.real_params[AC_ampl_uu];
const double ANGL_UU = mesh->info.real_params[AC_angl_uu];
const double SQ2GM = mesh->info.real_params[AC_sq2GM_star];
const double SQ2GM = mesh->info.real_params[AC_sq2GM_star];
// const double GM = mesh->info.real_params[AC_GM_star];
// const double M_star = mesh->info.real_params[AC_M_star];
// const double G_CONST = mesh->info.real_params[AC_G_CONST];
@@ -255,46 +256,51 @@ inflow_vedge_freefall(AcMesh* mesh)
for (int j = 0; j < my; j++) {
for (int i = 0; i < mx; i++) {
int idx = i + j * mx + k * mx * my;
xx = DX * double(i) - xorig;
zz = DZ * double(k) - zorig;
xx = DX * double(i) - xorig;
zz = DZ * double(k) - zorig;
delx = xx - star_pos_x;
delx = xx - star_pos_x;
delz = zz - star_pos_z;
//TODO: Figure out isthis needed. Now a placeholder.
//tanhz = fabs(tanh(zz/trans));
// TODO: Figure out isthis needed. Now a placeholder.
// tanhz = fabs(tanh(zz/trans));
tanhz = 1.0;
RR = sqrt(delx*delx + delz*delz);
veltot = SQ2GM/sqrt(RR); //Free fall velocity
//Normal velocity components
u_x = - veltot*(delx/RR);
u_z = - veltot*(delz/RR);
RR = sqrt(delx * delx + delz * delz);
veltot = SQ2GM / sqrt(RR); // Free fall velocity
//printf("star_pos_z %e, zz %e, delz %e, RR %e\n", star_pos_z, zz, delz, RR);
// Normal velocity components
u_x = -veltot * (delx / RR);
u_z = -veltot * (delz / RR);
//printf("unit_length = %e, unit_density = %e, unit_velocity = %e,\n M_star = %e, G_CONST = %e, GM = %e, SQ2GM = %e, \n RR = %e, u_x = %e, u_z %e\n",
// unit_length, unit_density,
// printf("star_pos_z %e, zz %e, delz %e, RR %e\n", star_pos_z, zz, delz, RR);
// printf("unit_length = %e, unit_density = %e, unit_velocity = %e,\n M_star = %e,
// G_CONST = %e, GM = %e, SQ2GM = %e, \n RR = %e, u_x = %e, u_z %e\n",
// unit_length, unit_density,
// unit_velocity, M_star, G_CONST, GM, SQ2GM, RR, u_x, u_z);
//printf("%e\n", unit_length*unit_length*unit_length);
// printf("%e\n", unit_length*unit_length*unit_length);
//Here including an angel tilt due to pseudodisk
// Here including an angel tilt due to pseudodisk
if (delz >= 0.0) {
mesh->vertex_buffer[VTXBUF_UUX][idx] = AcReal((u_x*cos(ANGL_UU) - u_z*sin(ANGL_UU))*tanhz);
mesh->vertex_buffer[VTXBUF_UUX][idx] = AcReal(
(u_x * cos(ANGL_UU) - u_z * sin(ANGL_UU)) * tanhz);
mesh->vertex_buffer[VTXBUF_UUY][idx] = AcReal(0.0);
mesh->vertex_buffer[VTXBUF_UUZ][idx] = AcReal((u_x*sin(ANGL_UU) + u_z*cos(ANGL_UU))*tanhz);
} else {
mesh->vertex_buffer[VTXBUF_UUX][idx] = AcReal((u_x*cos(ANGL_UU) + u_z*sin(ANGL_UU))*tanhz);
mesh->vertex_buffer[VTXBUF_UUZ][idx] = AcReal(
(u_x * sin(ANGL_UU) + u_z * cos(ANGL_UU)) * tanhz);
}
else {
mesh->vertex_buffer[VTXBUF_UUX][idx] = AcReal(
(u_x * cos(ANGL_UU) + u_z * sin(ANGL_UU)) * tanhz);
mesh->vertex_buffer[VTXBUF_UUY][idx] = AcReal(0.0);
mesh->vertex_buffer[VTXBUF_UUZ][idx] = AcReal((-u_x*sin(ANGL_UU) + u_z*cos(ANGL_UU))*tanhz);
mesh->vertex_buffer[VTXBUF_UUZ][idx] = AcReal(
(-u_x * sin(ANGL_UU) + u_z * cos(ANGL_UU)) * tanhz);
}
}
}
}
}
// Only x-direction free fall
// Only x-direction free fall
void
inflow_freefall_x(AcMesh* mesh)
{
@@ -302,7 +308,7 @@ inflow_freefall_x(AcMesh* mesh)
const int my = mesh->info.int_params[AC_my];
const int mz = mesh->info.int_params[AC_mz];
const double DX = mesh->info.real_params[AC_dsx];
const double DX = mesh->info.real_params[AC_dsx];
const double SQ2GM = mesh->info.real_params[AC_sq2GM_star];
// const double G_CONST = mesh->info.real_params[AC_G_CONST];
@@ -320,37 +326,37 @@ inflow_freefall_x(AcMesh* mesh)
for (int j = 0; j < my; j++) {
for (int i = 0; i < mx; i++) {
int idx = i + j * mx + k * mx * my;
xx = DX * double(i) - xorig;
xx = DX * double(i) - xorig;
delx = xx - star_pos_x;
RR = fabs(delx);
veltot = SQ2GM/sqrt(RR); //Free fall velocity
veltot = SQ2GM / sqrt(RR); // Free fall velocity
if (isinf(veltot) == 1) printf("xx %e star_pos_x %e delz %e RR %e veltot %e\n",xx, star_pos_x, delx, RR, veltot);
if (isinf(veltot) == 1)
printf("xx %e star_pos_x %e delz %e RR %e veltot %e\n", xx, star_pos_x, delx,
RR, veltot);
//Normal velocity components
// u_x = - veltot; // Not used
// Normal velocity components
// u_x = - veltot; // Not used
//Freefall condition
//mesh->vertex_buffer[VTXBUF_UUX][idx] = u_x;
//mesh->vertex_buffer[VTXBUF_UUY][idx] = 0.0;
//mesh->vertex_buffer[VTXBUF_UUZ][idx] = 0.0;
// Freefall condition
// mesh->vertex_buffer[VTXBUF_UUX][idx] = u_x;
// mesh->vertex_buffer[VTXBUF_UUY][idx] = 0.0;
// mesh->vertex_buffer[VTXBUF_UUZ][idx] = 0.0;
//Starting with steady state
mesh->vertex_buffer[VTXBUF_UUX][idx] = 0.0;
// Starting with steady state
mesh->vertex_buffer[VTXBUF_UUX][idx] = 0.0;
mesh->vertex_buffer[VTXBUF_UUY][idx] = 0.0;
mesh->vertex_buffer[VTXBUF_UUZ][idx] = 0.0;
mesh->vertex_buffer[VTXBUF_UUZ][idx] = 0.0;
mesh->vertex_buffer[VTXBUF_LNRHO][idx] = AcReal(ampl_lnrho);
mesh->vertex_buffer[VTXBUF_LNRHO][idx] = AcReal(ampl_lnrho);
}
}
}
}
void
gaussian_radial_explosion(AcMesh* mesh)
{
@@ -368,11 +374,11 @@ gaussian_radial_explosion(AcMesh* mesh)
const int nz_min = mesh->info.int_params[AC_nz_min];
const int nz_max = mesh->info.int_params[AC_nz_max];
const double DX = mesh->info.real_params[AC_dsx];
const double DY = mesh->info.real_params[AC_dsy];
const double DZ = mesh->info.real_params[AC_dsz];
const double DX = mesh->info.real_params[AC_dsx];
const double DY = mesh->info.real_params[AC_dsy];
const double DZ = mesh->info.real_params[AC_dsz];
const double xorig = double(XORIG) - 0.000001;
const double xorig = double(XORIG) - 0.000001;
const double yorig = double(YORIG) - 0.000001;
const double zorig = double(ZORIG) - 0.000001;
@@ -447,8 +453,7 @@ gaussian_radial_explosion(AcMesh* mesh)
//+-
yy_abs = -yy;
phi = 2.0 * M_PI - atan(yy_abs / xx);
if (phi < (3.0 * M_PI) / 2.0 ||
phi > (2.0 * M_PI + 1e-6)) {
if (phi < (3.0 * M_PI) / 2.0 || phi > (2.0 * M_PI + 1e-6)) {
printf("Explosion PHI WRONG +-: xx = %.3f, yy "
"= %.3f, phi = %.3e/PI, M_PI = %.3e\n",
xx, yy, phi / M_PI, M_PI);
@@ -459,23 +464,20 @@ gaussian_radial_explosion(AcMesh* mesh)
yy_abs = -yy;
xx_abs = -xx;
phi = M_PI + atan(yy_abs / xx_abs);
if (phi < M_PI ||
phi > ((3.0 * M_PI) / 2.0 + 1e-6)) {
if (phi < M_PI || phi > ((3.0 * M_PI) / 2.0 + 1e-6)) {
printf("Explosion PHI WRONG --: xx = %.3f, yy "
"= %.3f, xx_abs = %.3f, yy_abs = %.3f, "
"phi = %.3e, (3.0*M_PI)/2.0 = %.3e\n",
xx, yy, xx_abs, yy_abs, phi,
(3.0 * M_PI) / 2.0);
xx, yy, xx_abs, yy_abs, phi, (3.0 * M_PI) / 2.0);
}
}
else {
//++
phi = atan(yy / xx);
if (phi < 0 || phi > M_PI / 2.0) {
printf(
"Explosion PHI WRONG --: xx = %.3f, yy = "
"%.3f, phi = %.3e, (3.0*M_PI)/2.0 = %.3e\n",
xx, yy, phi, (3.0 * M_PI) / 2.0);
printf("Explosion PHI WRONG --: xx = %.3f, yy = "
"%.3f, phi = %.3e, (3.0*M_PI)/2.0 = %.3e\n",
xx, yy, phi, (3.0 * M_PI) / 2.0);
}
}
}
@@ -502,8 +504,8 @@ gaussian_radial_explosion(AcMesh* mesh)
// the exact centre coordinates uu_radial = AMPL_UU*exp(
// -pow((rr - 4.0*WIDTH_UU),2.0) / (2.0*pow(WIDTH_UU, 2.0))
// ); //TODO: Parametrize the peak location.
uu_radial = AMPL_UU * exp(-pow((rr - UU_SHELL_R), 2.0) /
(2.0 * pow(WIDTH_UU, 2.0)));
uu_radial = AMPL_UU *
exp(-pow((rr - UU_SHELL_R), 2.0) / (2.0 * pow(WIDTH_UU, 2.0)));
}
else {
uu_radial = 0.0; // TODO: There will be a discontinuity in
@@ -537,7 +539,6 @@ acmesh_init_to(const InitType& init_type, AcMesh* mesh)
{
srand(123456789);
const int n = AC_VTXBUF_SIZE(mesh->info);
const int mx = mesh->info.int_params[AC_mx];
@@ -563,7 +564,7 @@ acmesh_init_to(const InitType& init_type, AcMesh* mesh)
}
case INIT_TYPE_GAUSSIAN_RADIAL_EXPL:
acmesh_clear(mesh);
//acmesh_init_to(INIT_TYPE_RANDOM, mesh);
// acmesh_init_to(INIT_TYPE_RANDOM, mesh);
gaussian_radial_explosion(mesh);
break;
@@ -573,21 +574,22 @@ acmesh_init_to(const InitType& init_type, AcMesh* mesh)
for (int k = 0; k < mz; k++) {
for (int j = 0; j < my; j++) {
for (int i = 0; i < mx; i++) {
int idx = i + j * mx + k * mx * my;
mesh->vertex_buffer[VTXBUF_UUX][idx] = 2*AcReal(sin(j * AcReal(M_PI) / mx)) - 1;
int idx = i + j * mx + k * mx * my;
mesh->vertex_buffer[VTXBUF_UUX][idx] = 2 * AcReal(sin(j * AcReal(M_PI) / mx)) -
1;
}
}
}
break;
case INIT_TYPE_VEDGE:
case INIT_TYPE_VEDGE:
acmesh_clear(mesh);
inflow_vedge_freefall(mesh);
break;
case INIT_TYPE_VEDGEX:
case INIT_TYPE_VEDGEX:
acmesh_clear(mesh);
inflow_freefall_x(mesh);
break;
case INIT_TYPE_RAYLEIGH_TAYLOR:
case INIT_TYPE_RAYLEIGH_TAYLOR:
acmesh_clear(mesh);
inflow_freefall_x(mesh);
lnrho_step(mesh);
@@ -627,9 +629,15 @@ acmesh_init_to(const InitType& init_type, AcMesh* mesh)
const AcReal ky_uu = 8.;
const AcReal kz_uu = 8.;
mesh->vertex_buffer[VTXBUF_UUX][idx] = ampl_uu * (ABC_A * (AcReal)sin(kz_uu * zz) + ABC_C * (AcReal)cos(ky_uu * yy));
mesh->vertex_buffer[VTXBUF_UUY][idx] = ampl_uu * (ABC_B * (AcReal)sin(kx_uu * xx) + ABC_A * (AcReal)cos(kz_uu * zz));
mesh->vertex_buffer[VTXBUF_UUZ][idx] = ampl_uu * (ABC_C * (AcReal)sin(ky_uu * yy) + ABC_B * (AcReal)cos(kx_uu * xx));
mesh->vertex_buffer[VTXBUF_UUX][idx] = ampl_uu *
(ABC_A * (AcReal)sin(kz_uu * zz) +
ABC_C * (AcReal)cos(ky_uu * yy));
mesh->vertex_buffer[VTXBUF_UUY][idx] = ampl_uu *
(ABC_B * (AcReal)sin(kx_uu * xx) +
ABC_A * (AcReal)cos(kz_uu * zz));
mesh->vertex_buffer[VTXBUF_UUZ][idx] = ampl_uu *
(ABC_C * (AcReal)sin(ky_uu * yy) +
ABC_B * (AcReal)cos(kx_uu * xx));
}
}
}
@@ -637,20 +645,23 @@ acmesh_init_to(const InitType& init_type, AcMesh* mesh)
}
case INIT_TYPE_RAYLEIGH_BENARD: {
acmesh_init_to(INIT_TYPE_RANDOM, mesh);
#if LTEMPERATURE
#if LTEMPERATURE
vertex_buffer_set(VTXBUF_LNRHO, 1, mesh);
const AcReal range = AcReal(0.9);
for (int k = nz_min; k < nz_max; k++) {
for (int j = ny_min; j < ny_max; j++) {
for (int i = nx_min; i < nx_max; i++) {
const int idx = i + j * mx + k * mx * my;
mesh->vertex_buffer[VTXBUF_TEMPERATURE][idx] = (range * (k - nz_min)) / mesh->info.int_params[AC_nz] + 0.1;
const int idx = i + j * mx + k * mx * my;
mesh->vertex_buffer[VTXBUF_TEMPERATURE][idx] = (range * (k - nz_min)) /
mesh->info
.int_params[AC_nz] +
0.1;
}
}
}
#else
#else
WARNING("INIT_TYPE_RAYLEIGH_BERNARD called even though VTXBUF_TEMPERATURE is not used");
#endif
#endif
break;
}
default:
@@ -688,12 +699,11 @@ acmesh_destroy(AcMesh* mesh)
free(mesh);
}
ModelMesh*
modelmesh_create(const AcMeshInfo& mesh_info)
{
ModelMesh* mesh = (ModelMesh*)malloc(sizeof(*mesh));
mesh->info = mesh_info;
mesh->info = mesh_info;
const size_t bytes = AC_VTXBUF_SIZE(mesh->info) * sizeof(mesh->vertex_buffer[0][0]);
for (int i = 0; i < NUM_VTXBUF_HANDLES; ++i) {

2
src/standalone/model/host_memory.h
View File

@@ -40,7 +40,9 @@
FUNC(INIT_TYPE_RAYLEIGH_BENARD)
// clang-format on
#define AC_GEN_ID(X) X
typedef enum { AC_FOR_INIT_TYPES(AC_GEN_ID), NUM_INIT_TYPES } InitType;
#undef AC_GEN_ID
extern const char* init_type_names[]; // Defined in host_memory.cc