static void gfs_source_darcy_class_init (GfsSourceGenericClass * klass)
{
/* define new methods and overload inherited methods here */
GFS_EVENT_CLASS (klass)->event = gfs_source_darcy_event;
printf("\ndarcy init\n");
GTS_OBJECT_CLASS (klass)->read = gfs_source_darcy_read;
printf("\ndarcy read\n");
GTS_OBJECT_CLASS (klass)->write = gfs_source_darcy_write;
printf("\ndarcy written\n");
GTS_OBJECT_CLASS (klass)->destroy = gfs_source_darcy_destroy;
}
static void gfs_init_wave_write (GtsObject * o, FILE * fp)
{
(* GTS_OBJECT_CLASS (gfs_init_wave_class ())->parent_class->write) (o, fp);
gfs_function_write (GFS_INIT_WAVE (o)->d, fp);
gfs_function_write (GFS_INIT_WAVE (o)->hs, fp);
}
static void wave_read (GtsObject ** o, GtsFile * fp)
{
(* GTS_OBJECT_CLASS (gfs_wave_class ())->parent_class->read) (o, fp);
if (fp->type == GTS_ERROR)
return;
GfsWave * wave = GFS_WAVE (*o);
if (fp->type == '{') {
GtsFileVariable var[] = {
{GTS_UINT, "nk", TRUE, &wave->nk},
{GTS_UINT, "ntheta", TRUE, &wave->ntheta},
{GTS_DOUBLE, "alpha_s", TRUE, &wave->alpha_s},
{GTS_NONE}
};
gts_file_assign_variables (fp, var);
if (fp->type == GTS_ERROR)
return;
}
GfsDomain * domain = GFS_DOMAIN (wave);
guint ik, ith;
wave->F = gfs_matrix_new (wave->nk, wave->ntheta, sizeof (GfsVariable *));
for (ik = 0; ik < wave->nk; ik++)
for (ith = 0; ith < wave->ntheta; ith++) {
gchar * name = g_strdup_printf ("F%d_%d", ik, ith);
gchar * description = g_strdup_printf ("Action density for f = %g Hz and theta = %g degrees",
frequency (ik), theta (ith, wave->ntheta)*180./M_PI);
wave->F[ik][ith] = gfs_domain_get_or_add_variable (domain, name, description);
g_assert (wave->F[ik][ith]);
g_free (name);
g_free (description);
}
}
static void refine_solid_destroy (GtsObject * object)
{
gfs_domain_remove_derived_variable (GFS_DOMAIN (gfs_object_simulation (object)),
"SolidCurvature");
(* GTS_OBJECT_CLASS (gfs_refine_solid_class ())->parent_class->destroy) (object);
}
/**
* gts_object_class_check_cast:
* @klass: a #GtsObjectClass.
* @from: a #GtsObjectClass.
*
* Returns: @klass while emitting warnings if @klass is not derived from
* @from.
*/
gpointer gts_object_class_check_cast (gpointer klass,
gpointer from)
{
if (!klass) {
g_warning ("invalid cast from (NULL) pointer to `%s'",
GTS_OBJECT_CLASS (from)->info.name);
return klass;
}
if (!gts_object_class_is_from_class (klass, from)) {
g_warning ("invalid cast from `%s' to `%s'",
GTS_OBJECT_CLASS (klass)->info.name,
GTS_OBJECT_CLASS (from)->info.name);
return klass;
}
return klass;
}
static void gfs_map_projection_write (GtsObject * o, FILE * fp)
{
(* GTS_OBJECT_CLASS (gfs_map_projection_class ())->parent_class->write) (o, fp);
GfsMapProjection * map = GFS_MAP_PROJECTION (o);
fprintf (fp, " { lon = %.8g lat = %.8g angle = %g }",
map->lon, map->lat, map->angle);
}
static void edge_clone (GtsObject * clone, GtsObject * object)
{
(* GTS_OBJECT_CLASS (gts_edge_class ())->parent_class->clone) (clone,
object);
GTS_SEGMENT (clone)->v1 = GTS_SEGMENT (clone)->v2 = NULL;
GTS_EDGE (clone)->triangles = NULL;
}
static void output_spectra_destroy ( GtsObject * o )
{
if (GFS_OUTPUT_SPECTRA (o)->cgd)
gts_object_destroy (GTS_OBJECT (GFS_OUTPUT_SPECTRA (o)->cgd));
(* GTS_OBJECT_CLASS (gfs_output_spectra_class ())->parent_class->destroy) (o);
}
GtsVertexClass*
pygts_parent_vertex_class(void)
{
static GtsVertexClass *klass = NULL;
GtsObjectClass *super = NULL;
if (klass == NULL) {
super = GTS_OBJECT_CLASS(gts_vertex_class());
GtsObjectClassInfo pygts_parent_vertex_info = {
"PygtsParentVertex",
sizeof(PygtsParentVertex),
sizeof(GtsVertexClass),
(GtsObjectClassInitFunc)(super->info.class_init_func),
(GtsObjectInitFunc)(super->info.object_init_func),
(GtsArgSetFunc) NULL,
(GtsArgGetFunc) NULL
};
klass = (GtsVertexClass*)gts_object_class_new(gts_object_class(),
&pygts_parent_vertex_info);
}
return klass;
}
static void gfs_init_wave_destroy (GtsObject * object)
{
gts_object_destroy (GTS_OBJECT (GFS_INIT_WAVE (object)->d));
gts_object_destroy (GTS_OBJECT (GFS_INIT_WAVE (object)->hs));
(* GTS_OBJECT_CLASS (gfs_init_wave_class ())->parent_class->destroy) (object);
}
static void output_spectra_write (GtsObject * o, FILE * fp)
{
(* GTS_OBJECT_CLASS (gfs_output_spectra_class ())->parent_class->write) (o, fp);
GfsOutputSpectra * v = GFS_OUTPUT_SPECTRA (o);
fprintf (fp, " %s { x = %g y = %g z = %g Lx = %g Ly = %g Lz = %g } %d",
v->v->name, v->pos.x, v->pos.y, v->pos.z, v->L.x, v->L.y, v->L.z, v->level);
}
GfsRefine * gfs_refine_new (GfsRefineClass * klass)
{
GfsRefine * object;
object = GFS_REFINE (gts_object_new (GTS_OBJECT_CLASS (klass)));
return object;
}
static void refine_surface_destroy (GtsObject * object)
{
GfsRefineSurface * d = GFS_REFINE_SURFACE (object);
gts_object_destroy (GTS_OBJECT (d->surface));
(* GTS_OBJECT_CLASS (gfs_refine_surface_class ())->parent_class->destroy) (object);
}
static void refine_surface_read (GtsObject ** o, GtsFile * fp)
{
(* GTS_OBJECT_CLASS (gfs_refine_surface_class ())->parent_class->read) (o, fp);
if (fp->type == GTS_ERROR)
return;
gfs_generic_surface_read (GFS_REFINE_SURFACE (*o)->surface, gfs_object_simulation (*o), fp);
}
static void exception_destroy (GtsObject * object)
{
GtsException * e = GTS_EXCEPTION (object);
g_free (e->message); e->message = NULL;
(* GTS_OBJECT_CLASS (gts_exception_class ())->parent_class->destroy) (object);
}
/**
* gts_bb_tree_triangle_distance:
* @tree: a bounding box tree.
* @t: a #GtsTriangle.
* @distance: a #GtsBBoxDistFunc.
* @delta: spatial scale of the sampling to be used.
* @range: a #GtsRange to be filled with the results.
*
* Given a triangle @t, points are sampled regularly on its surface
* using @delta as increment. The distance from each of these points
* to the closest object of @tree is computed using @distance and the
* gts_bb_tree_point_distance() function. The fields of @range are
* filled with the number of points sampled, the minimum, average and
* maximum value and the standard deviation.
*/
void gts_bb_tree_triangle_distance (GNode * tree,
GtsTriangle * t,
GtsBBoxDistFunc distance,
gdouble delta,
GtsRange * range)
{
GtsPoint * p1, * p2, * p3, * p;
GtsVector p1p2, p1p3;
gdouble l1, t1, dt1;
guint i, n1;
g_return_if_fail (tree != NULL);
g_return_if_fail (t != NULL);
g_return_if_fail (distance != NULL);
g_return_if_fail (delta > 0.);
g_return_if_fail (range != NULL);
gts_triangle_vertices (t,
(GtsVertex **) &p1,
(GtsVertex **) &p2,
(GtsVertex **) &p3);
gts_vector_init (p1p2, p1, p2);
gts_vector_init (p1p3, p1, p3);
gts_range_init (range);
p = GTS_POINT (gts_object_new (GTS_OBJECT_CLASS (gts_point_class ())));
l1 = sqrt (gts_vector_scalar (p1p2, p1p2));
n1 = l1/delta + 1;
dt1 = 1.0/(gdouble) n1;
t1 = 0.0;
for (i = 0; i <= n1; i++, t1 += dt1) {
gdouble t2 = 1. - t1;
gdouble x = t2*p1p3[0];
gdouble y = t2*p1p3[1];
gdouble z = t2*p1p3[2];
gdouble l2 = sqrt (x*x + y*y + z*z);
guint j, n2 = (guint) (l2/delta + 1);
gdouble dt2 = t2/(gdouble) n2;
x = t2*p1->x + t1*p2->x;
y = t2*p1->y + t1*p2->y;
z = t2*p1->z + t1*p2->z;
t2 = 0.0;
for (j = 0; j <= n2; j++, t2 += dt2) {
p->x = x + t2*p1p3[0];
p->y = y + t2*p1p3[1];
p->z = z + t2*p1p3[2];
gts_range_add_value (range,
gts_bb_tree_point_distance (tree, p, distance, NULL));
}
}
gts_object_destroy (GTS_OBJECT (p));
gts_range_update (range);
}
static gboolean output_spectra_event (GfsEvent * event,
GfsSimulation * sim)
{
if ((* GFS_EVENT_CLASS (GTS_OBJECT_CLASS (gfs_output_spectra_class ())->parent_class)->event)
(event, sim)) {
GfsDomain * domain = GFS_DOMAIN (sim);
GfsOutputSpectra * v = GFS_OUTPUT_SPECTRA (event);
fftw_plan p;
Datawrite data;
data.fp = GFS_OUTPUT (event)->file->fp;
data.L = v->L;
data.kmax = init_kmax(v->L);
data.dir1 = v->dir[0];
data.dir2 = v->dir[1];
fill_cartesian_matrix( v->cgd, v->v, domain);
switch (v->Ndim) {
case 1: {
data.n1 = ( v->cgd->n[v->dir[0]] / 2 ) + 1;
data.out = fftw_malloc( sizeof(fftw_complex)*data.n1 );
p = fftw_plan_dft_r2c_1d( v->cgd->n[v->dir[0]], v->cgd->v, data.out, FFTW_ESTIMATE);
fftw_execute(p);
write_spectra_1D ( &data );
break;
}
case 2: {
data.n1 = v->cgd->n[v->dir[0]];
data.n2 = ( v->cgd->n[v->dir[1]] / 2 ) + 1;
data.out = fftw_malloc( sizeof(fftw_complex)*v->cgd->n[v->dir[0]]*data.n2 );
p = fftw_plan_dft_r2c_2d( v->cgd->n[v->dir[0]], v->cgd->n[v->dir[1]],
v->cgd->v, data.out, FFTW_ESTIMATE);
fftw_execute(p);
write_spectra_2D ( &data );
break;
}
case 3: {
data.n1 = v->cgd->n[0];
data.n2 = v->cgd->n[1];
data.n3 = ( v->cgd->n[2] / 2 ) + 1;
data.out = fftw_malloc( sizeof(fftw_complex)*v->cgd->n[0]*v->cgd->n[1]*data.n3 );
p = fftw_plan_dft_r2c_3d( v->cgd->n[0], v->cgd->n[1], v->cgd->n[2],
v->cgd->v, data.out, FFTW_ESTIMATE);
fftw_execute(p);
write_spectra_3D ( &data );
break;
}
default:
g_assert_not_reached ();
}
fftw_destroy_plan(p);
fftw_free ( data.out );
return TRUE;
}
return FALSE;
}
static void gfs_source_darcy_write (GtsObject * o, FILE * fp)
{
GfsSourceDarcy * s = GFS_SOURCE_DARCY (o);
(* GTS_OBJECT_CLASS (gfs_source_darcy_class ())->parent_class->write) (o, fp);
gfs_function_write (s->darcycoeff, fp);
if (s->forchhicoeff)
gfs_function_write (s->forchhicoeff, fp);
}
static gboolean gfs_init_stokes_wave_event (GfsEvent * event, GfsSimulation * sim)
{
if ((* GFS_EVENT_CLASS (GTS_OBJECT_CLASS (gfs_init_stokes_wave_class ())->parent_class)->event)
(event, sim)) {
GfsVariable ** velocity = gfs_domain_velocity (GFS_DOMAIN (sim));
GfsVariable * t = gfs_variable_from_name (GFS_DOMAIN (sim)->variables, "T");
g_assert (velocity);
g_assert (t);
gfs_domain_cell_traverse (GFS_DOMAIN (sim), FTT_PRE_ORDER, FTT_TRAVERSE_LEAFS, -1,
(FttCellTraverseFunc) init_velocity, velocity);
GfsSurface * surface = GFS_SURFACE (gts_object_new (GTS_OBJECT_CLASS (gfs_surface_class ())));
surface->f = gfs_function_spatial_new (gfs_function_spatial_class (), stokes_height);
gfs_object_simulation_set (surface->f, sim);
gfs_domain_init_fraction (GFS_DOMAIN (sim), GFS_GENERIC_SURFACE (surface), t);
gts_object_destroy (GTS_OBJECT (surface));
return TRUE;
}
return FALSE;
}
static void refine_distance_destroy (GtsObject * object)
{
GfsRefineDistance * d = GFS_REFINE_DISTANCE (object);
if (d->stree)
gts_bb_tree_destroy (d->stree, TRUE);
gfs_domain_remove_derived_variable (GFS_DOMAIN (gfs_object_simulation (object)), "Distance");
(* GTS_OBJECT_CLASS (gfs_refine_distance_class ())->parent_class->destroy) (object);
}
static void list_face_destroy (GtsObject * object)
{
ListFace * f = LIST_FACE (object);
if (f->heap) {
gts_eheap_remove (f->heap, f->pair);
f->heap = NULL;
}
(* GTS_OBJECT_CLASS (list_face_class ())->parent_class->destroy)
(object);
}
/**
* gts_triangle_new:
* @klass: a #GtsTriangleClass.
* @e1: a #GtsEdge.
* @e2: another #GtsEdge touching @e1.
* @e3: another #GtsEdge touching both @e1 and @e2.
*
* Returns: a new #GtsTriangle having @e1, @e2 and @e3 as edges.
*/
GtsTriangle * gts_triangle_new (GtsTriangleClass * klass,
GtsEdge * e1,
GtsEdge * e2,
GtsEdge * e3)
{
GtsTriangle * t;
t = GTS_TRIANGLE (gts_object_new (GTS_OBJECT_CLASS (klass)));
gts_triangle_set (t, e1, e2, e3);
return t;
}
/**
* gts_hsplit_new:
* @klass: a #GtsHSplitClass.
* @vs: a #GtsSplit.
*
* Returns: a new #GtsHSplit, hierarchical extension of @vs.
*/
GtsHSplit * gts_hsplit_new (GtsHSplitClass * klass, GtsSplit * vs)
{
GtsHSplit * hs;
g_return_val_if_fail (vs != NULL, NULL);
hs = GTS_HSPLIT (gts_object_new (GTS_OBJECT_CLASS (klass)));
memcpy (hs, vs, sizeof (GtsSplit));
GTS_OBJECT (hs)->reserved = NULL;
return hs;
}
/**
* gts_object_check_cast:
* @object: a #GtsObject.
* @klass: a #GtsObjectClass.
*
* Returns: @object while emitting warnings if @object is not of class @klass.
*/
gpointer gts_object_check_cast (gpointer object,
gpointer klass)
{
if (!object) {
g_warning ("invalid cast from (NULL) pointer to `%s'",
GTS_OBJECT_CLASS (klass)->info.name);
return object;
}
if (!((GtsObject *) object)->klass) {
g_warning ("invalid unclassed pointer in cast to `%s'",
GTS_OBJECT_CLASS (klass)->info.name);
return object;
}
if (!gts_object_is_from_class (object, klass)) {
g_warning ("invalid cast from `%s' to `%s'",
((GtsObject *) object)->klass->info.name,
GTS_OBJECT_CLASS (klass)->info.name);
return object;
}
return object;
}
static void wave_write (GtsObject * o, FILE * fp)
{
(* GTS_OBJECT_CLASS (gfs_wave_class ())->parent_class->write) (o, fp);
GfsWave * wave = GFS_WAVE (o);
fprintf (fp, " {\n"
" nk = %d\n"
" ntheta = %d\n"
" alpha_s = %g\n"
"}",
wave->nk, wave->ntheta, wave->alpha_s);
}
/**
* gts_bbox_new:
* @klass: a #GtsBBoxClass.
* @bounded: the object to be bounded.
* @x1: x-coordinate of the lower left corner.
* @y1: y-coordinate of the lower left corner.
* @z1: z-coordinate of the lower left corner.
* @x2: x-coordinate of the upper right corner.
* @y2: y-coordinate of the upper right corner.
* @z2: z-coordinate of the upper right corner.
*
* Returns: a new #GtsBBox.
*/
GtsBBox * gts_bbox_new (GtsBBoxClass * klass,
gpointer bounded,
gdouble x1, gdouble y1, gdouble z1,
gdouble x2, gdouble y2, gdouble z2)
{
GtsBBox * bbox;
g_return_val_if_fail (klass != NULL, NULL);
bbox = GTS_BBOX (gts_object_new (GTS_OBJECT_CLASS (klass)));
gts_bbox_set (bbox, bounded, x1, y1, z1, x2, y2, z2);
return bbox;
}
static void refine_solid_read (GtsObject ** o, GtsFile * fp)
{
GfsRefineSolid * refine = GFS_REFINE_SOLID (*o);
GfsDerivedVariableInfo v = { "SolidCurvature", "curvature of the solid boundary",
solid_curvature };
refine->v = gfs_domain_add_derived_variable (GFS_DOMAIN (gfs_object_simulation (*o)), v);
if (!refine->v) {
gts_file_error (fp, "derived variable `SolidCurvature' already defined");
return;
}
(* GTS_OBJECT_CLASS (gfs_refine_solid_class ())->parent_class->read) (o, fp);
}
static void gfs_porous_write (GtsObject * o, FILE * fp)
{
/* call write method of parent */
(* GTS_OBJECT_CLASS (gfs_porous_class ())->parent_class->write)(o, fp);
/* do object specific write here */
GfsPorous * por = GFS_POROUS (o);
fputs (" {\n"
" porosity =", fp);
gfs_function_write (por->porosity, fp);
fputs ("\n K =", fp);
gfs_function_write (por->K, fp);
fputs("}\n ", fp);
}
static void edge_destroy (GtsObject * object)
{
GtsEdge * edge = GTS_EDGE (object);
GSList * i;
i = edge->triangles;
while (i) {
GSList * next = i->next;
gts_object_destroy (i->data);
i = next;
}
g_assert (edge->triangles == NULL);
(* GTS_OBJECT_CLASS (gts_edge_class ())->parent_class->destroy) (object);
}
static void gfs_skew_symmetric_read (GtsObject ** o, GtsFile * fp)
{
(* GTS_OBJECT_CLASS (gfs_skew_symmetric_class ())->parent_class->read) (o, fp);
if (fp->type == GTS_ERROR)
return;
if (fp->type != '{')
return;
GtsFileVariable var[] = {
{GTS_DOUBLE, "beta", TRUE, &GFS_SKEW_SYMMETRIC (*o)->beta},
{GTS_NONE}
};
gts_file_assign_variables (fp, var);
}
