static void
send_pending_removes (EDataBookView *view)
{
EDataBookViewPrivate *priv = view->priv;
if (priv->removes->len == 0)
return;
e_gdbus_book_view_emit_contacts_removed (view->priv->gdbus_object, (const gchar * const *) priv->removes->data);
reset_array (priv->removes);
}
static void
send_pending_removes (EDataCalView *view)
{
EDataCalViewPrivate *priv = view->priv;
if (priv->removes->len == 0)
return;
/* TODO: send ECalComponentIds as a list of pairs */
e_gdbus_cal_view_emit_objects_removed (view->priv->gdbus_object, (const gchar * const *) priv->removes->data);
reset_array (priv->removes);
}
static void
e_data_book_view_finalize (GObject *object)
{
EDataBookView *book_view = E_DATA_BOOK_VIEW (object);
EDataBookViewPrivate *priv = book_view->priv;
reset_array (priv->adds);
reset_array (priv->changes);
reset_array (priv->removes);
g_array_free (priv->adds, TRUE);
g_array_free (priv->changes, TRUE);
g_array_free (priv->removes, TRUE);
g_free (priv->card_query);
g_mutex_free (priv->pending_mutex);
g_hash_table_destroy (priv->ids);
G_OBJECT_CLASS (e_data_book_view_parent_class)->finalize (object);
}
int main()
{
reset_array(al_result_1, RESULT_SIZE);
reset_array(al_result_2, RESULT_SIZE);
int last_city, taxi_max;
scanf("%d%d", &last_city, &taxi_max);
scanf("%d", &ticket_prizes[0].middle);
for(int i = 0; i < last_city; i++)
scanf("%d%d%d", &ticket_prizes[i].left, &ticket_prizes[i + 1].middle, &ticket_prizes[i].right);
//dla n = 1 potrafimy policzyć(jesteśmy w 1 mieście, uciekliśmy z miasta nr 0
al_result_1[0][1] = ticket_prizes[0].left;
al_result_1[1][0] = ticket_prizes[0].middle + ticket_prizes[0].right;
for(int n = 2; n <= last_city; n++)
{
for(int i = 0; i <= std::min(n - 1, taxi_max) ; i++)
for(int j = 0; j <= std::min(n - 1, last_city); j++)
propagate(n - 1, al_result_1, al_result_2, i, j);
array_from_to(al_result_2, al_result_1, n + 1);
reset_array(al_result_2, n + 1);
}
// Dla parzystej liczby taksówek musimy jeszcze dodać koszt ostatniej taksówki, bo jesteśmy po złej stronie
// Zrobimy to tylko dla kolumny o indeksie równym last_city/2, bo w tej kolumnie jest wynik
for(int i = 0; i <= taxi_max; i +=2)
al_result_1[i][last_city/2] += ticket_prizes[last_city].middle;
//Szukamy minimum w tej kolumnie;
long min = INFINITY;
// Szukamy minimum w tej kolumnie z limitem na liczbę taksówek, jednak parzyste wiersze zostały
// zwiększone o jedną taksówkę, więc dla parzystych k nie rozważamy ostatniego wiersza
if(taxi_max % 2 == 0)
--taxi_max;
for(int i = 0; i <= taxi_max; i++)
if(min > al_result_1[i][last_city/2])
min = al_result_1[i][last_city/2];
printf("%ld\n", min);
return 0;
}
boost::shared_ptr< Base<EncodingT> > IDiaSourceFilePtrInterpreter<EncodingT>::get_checksum(boost::shared_ptr< Base<EncodingT> >& cbData, boost::shared_ptr< Base<EncodingT> >& pcbData, boost::shared_ptr< Base<EncodingT> >& data)
{
boost::shared_ptr< Base<EncodingT> > res(new Numeric<EncodingT>());
unsigned long nativeCbData;
unsigned long nativePcbData;
std::vector< unsigned char > nativeData;
if (check_numeric(cbData, nativeCbData) &&
check_numeric(pcbData, nativePcbData) &&
check_array(data, nativeData, check_numeric<EncodingT, unsigned char>))
{
res.reset(new Numeric<EncodingT>(value()->get_checksum(nativeCbData, &nativePcbData, nativeData.data())));
reset_numeric(cbData, nativeCbData);
reset_numeric(pcbData, nativePcbData);
reset_array(data, nativeData, reset_numeric<EncodingT, unsigned char>);
}
return res;
}
int main(void) {
// testing
const int size = 5;
int fst_arr[] = {1, 2, 3, 4, 5};
int snd_arr[] = {5, 4, 3, 2, 1};
int res[size];
array_sum(fst_arr, snd_arr, res, size);
// output result
print_array(fst_arr, size);
print_array(snd_arr, size);
print_array(res, size);
// allocate an array from heap
int* dynamic = (int*) malloc (sizeof(int) * size);
int i;
for (i = 0; i < size; ++i) dynamic[i] = i;
print_array(dynamic, size);
// delete a value in a staticly declared array
delete_shift(fst_arr, 2, size);
print_array(fst_arr, size - 1);
// delete a value in a dynamicly allocated array
delete_realloc(dynamic, 1, size);
print_array(dynamic, size - 1);
// free memory
free(dynamic);
reset_array(fst_arr, size);
print_array(fst_arr, size);
inverse(snd_arr, size);
print_array(snd_arr, size);
square(res, size);
print_array(res, size);
return 0;
}
void PtrFreeScene :: translate_geometry_qbvh(const lux_ext_mesh_list_t& meshs) {
lux_defined_meshs_t defined_meshs(PtrFreeScene::mesh_ptr_compare);
Mesh new_mesh;
Mesh current_mesh;
std::vector<Point> tmp_vertexes;
std::vector<Normal> tmp_normals;
std::vector<Spectrum> tmp_colors;
std::vector<UV> tmp_uvs;
std::vector<Triangle> tmp_triangles;
std::vector<Mesh> tmp_mesh_descs;
for(lux_ext_mesh_list_t::const_iterator it = meshs.begin(); it != meshs.end(); ++it) {
const luxrays::ExtMesh* mesh = *it;
bool is_existing_instance;
if (mesh->GetType() == luxrays::TYPE_EXT_TRIANGLE_INSTANCE) {
const luxrays::ExtInstanceTriangleMesh* imesh = static_cast<const luxrays::ExtInstanceTriangleMesh*>(mesh);
// check if is one of the already done meshes
lux_defined_meshs_t::iterator it = defined_meshs.find(imesh->GetExtTriangleMesh());
if (it == defined_meshs.end()) {
// it is a new one
current_mesh = new_mesh;
new_mesh.verts_offset += imesh->GetTotalVertexCount();
new_mesh.tris_offset += imesh->GetTotalTriangleCount();
is_existing_instance = false;
const uint index = tmp_mesh_descs.size();
defined_meshs[imesh->GetExtTriangleMesh()] = index;
} else {
// it is not a new one
current_mesh = tmp_mesh_descs[it->second];
is_existing_instance = true;
}
current_mesh.trans = imesh->GetTransformation().GetMatrix().m;
current_mesh.inv_trans = imesh->GetInvTransformation().GetMatrix().m;
mesh = imesh->GetExtTriangleMesh();
} else {
// not a luxrays::TYPE_EXT_TRIANGLE_INSTANCE
current_mesh = new_mesh;
new_mesh.verts_offset += mesh->GetTotalVertexCount();
new_mesh.tris_offset += mesh->GetTotalTriangleCount();
if (mesh->HasColors()) {
new_mesh.colors_offset += mesh->GetTotalVertexCount();
current_mesh.has_colors = true;
} else {
current_mesh.has_colors = false;
}
is_existing_instance = false;
}
tmp_mesh_descs.push_back(current_mesh);
if (!is_existing_instance) {
assert(mesh->GetType() == luxrays::TYPE_EXT_TRIANGLE);
// translate mesh normals and colors
uint offset = tmp_normals.size();
tmp_normals.resize(offset + mesh->GetTotalVertexCount());
for(uint j = 0; j < mesh->GetTotalVertexCount(); ++j)
tmp_normals[offset + j] = Normal(mesh->GetNormal(j));
if (mesh->HasColors()) {
offset = tmp_colors.size();
tmp_colors.resize(offset + mesh->GetTotalVertexCount());
for(uint j = 0; j < mesh->GetTotalVertexCount(); ++j)
tmp_colors[offset + j] = Spectrum(mesh->GetColor(j));
}
// translate vertex uvs
if (original_scene->texMapCache->GetSize()) {
// TODO: should check if the only texture map is used for infintelight
offset = tmp_uvs.size();
tmp_uvs.resize(offset + mesh->GetTotalVertexCount());
if (mesh->HasUVs())
for(uint j = 0; j < mesh->GetTotalVertexCount(); ++j)
tmp_uvs[offset + j] = UV(mesh->GetUV(j));
else
for(uint j = 0; j < mesh->GetTotalVertexCount(); ++j)
tmp_uvs[offset + j] = UV(0.f, 0.f);
}
// translate meshrverticener size, the content is expanded by inserting at the end as many elements as needed to reach a size of n. If val is specified, the new elements are initialized as copies of val, otherwise, they are value-initialized.s
offset = tmp_vertexes.size();
tmp_vertexes.resize(offset + mesh->GetTotalVertexCount());
for(uint j = 0; j < mesh->GetTotalVertexCount(); ++j)
tmp_vertexes[offset + j] = Point(mesh->GetVertex(j));
// translate mesh indices
offset = tmp_triangles.size();
const luxrays::Triangle *mtris = mesh->GetTriangles();
tmp_triangles.resize(offset + mesh->GetTotalTriangleCount());
for(uint j = 0; j < mesh->GetTotalTriangleCount(); ++j)
tmp_triangles[offset + j] = Triangle(mtris[j]);
}
}
this->vertex_count = tmp_vertexes.size();
this->normals_count = tmp_normals.size();
this->colors_count = tmp_colors.size();
this->uvs_count = tmp_uvs.size();
this->triangles_count = tmp_triangles.size();
this->mesh_descs_count = tmp_mesh_descs.size();
reset_array(this->vertexes, this->vertex_count);
reset_array(this->normals, this->normals_count);
reset_array(this->colors, this->colors_count);
reset_array(this->uvs, this->uvs_count);
reset_array(this->triangles, this->triangles_count);
reset_array(this->mesh_descs, this->mesh_descs_count);
memcpy(vertexes, &tmp_vertexes[0], sizeof(Point) * this->vertex_count);
memcpy(normals, &tmp_normals[0], sizeof(Normal) * this->normals_count);
memcpy(colors, &tmp_colors[0], sizeof(Spectrum) * this->colors_count);
memcpy(uvs, &tmp_uvs[0], sizeof(UV) * this->uvs_count);
memcpy(triangles, &tmp_triangles[0], sizeof(Triangle) * this->triangles_count);
memcpy(mesh_descs, &tmp_mesh_descs[0], sizeof(Mesh) * this->mesh_descs_count);
}
void PtrFreeScene :: compile_texture_maps() {
delete_array(tex_maps);
delete_array(rgb_tex);
delete_array(alpha_tex);
delete_array(mesh_texs);
delete_array(bump_map);
delete_array(bump_map_scales);
delete_array(normal_map);
this->tex_maps_count = 0;
// translate mesh texture maps
std::vector<luxrays::TextureMap*> tms;
original_scene->texMapCache->GetTexMaps(tms);
// compute amount of RAM to allocate
//uint rgb_tex_size = 0;
//uint alpha_tex_size = 0;
this->rgb_tex_count = 0;
this->alpha_tex_count = 0;
for(uint i = 0; i < tms.size(); ++i) {
luxrays::TextureMap* tm = tms[i];
const uint pixel_count = tm->GetWidth() * tm->GetHeight();
this->rgb_tex_count += pixel_count;
if (tm->HasAlpha())
this->alpha_tex_count += pixel_count;
}
// allocate texture map
if ((this->rgb_tex_count > 0) || (this->alpha_tex_count) > 0) {
this->tex_maps_count = tms.size();
reset_array(this->tex_maps, this->tex_maps_count);
//tex_maps.resize(tms.size());
if (this->rgb_tex_count > 0) {
uint rgb_offset = 0;
//rgb_tex.resize(rgb_tex_size);
reset_array(this->rgb_tex, this->rgb_tex_count);
for(uint i = 0; i < tms.size(); ++i) {
luxrays::TextureMap* tm = tms[i];
const uint pixel_count = tm->GetWidth() * tm->GetHeight();
// TODO memcpy safe?
memcpy(&rgb_tex[rgb_offset], tm->GetPixels(), pixel_count * sizeof(Spectrum));
this->tex_maps[i].rgb_offset = rgb_offset;
rgb_offset += pixel_count;
}
}
if (this->alpha_tex_count > 0) {
uint alpha_offset = 0;
//alpha_tex.resize(alpha_tex_size);
reset_array(this->alpha_tex, this->alpha_tex_count);
for(uint i = 0; i < tms.size(); ++i) {
luxrays::TextureMap* tm = tms[i];
const uint pixel_count = tm->GetWidth() * tm->GetHeight();
if (tm->HasAlpha()) {
memcpy(&alpha_tex[alpha_offset], tm->GetAlphas(), pixel_count * sizeof(float));
this->tex_maps[i].alpha_offset = alpha_offset;
alpha_offset += pixel_count;
} else {
this->tex_maps[i].alpha_offset = PPM_NONE;
}
}
}
// translate texture map description
for(uint i = 0; i < tms.size(); ++i) {
luxrays::TextureMap* tm = tms[i];
this->tex_maps[i].width = tm->GetWidth();
this->tex_maps[i].height = tm->GetHeight();
}
// translate mesh texture indexes
//const uint mesh_count = mesh_mats.size();
//mesh_texs.resize(mesh_count);
reset_array(this->mesh_texs, this->mesh_materials_count);
for(uint i = 0; i < this->mesh_materials_count; ++i) {
luxrays::TexMapInstance* t = original_scene->objectTexMaps[i];
if (t) { // look for the index
uint index = 0;
for(uint j = 0; j < tms.size(); ++j) {
if (t->GetTexMap() == tms[j]) {
index = j;
break;
}
}
this->mesh_texs[i] = index;
} else {
this->mesh_texs[i] = PPM_NONE;
}
}
// translate mesh bump map indexes
bool has_bump_mapping = false;
//bump_map.resize(mesh_count);
reset_array(this->bump_map, this->mesh_materials_count);
for(uint i = 0; i < this->mesh_materials_count; ++i) {
luxrays::BumpMapInstance* bm = original_scene->objectBumpMaps[i];
if (bm) { // look for the index
uint index = 0;
for(uint j = 0; j < tms.size(); ++j) {
if (bm->GetTexMap() == tms[j]) {
index = j;
break;
}
}
this->bump_map[i] = index;
has_bump_mapping = true;
} else {
this->bump_map[i] = PPM_NONE;
}
}
if (has_bump_mapping) {
//bump_map_scales.resize(mesh_count);
reset_array(this->bump_map_scales, this->mesh_materials_count);
for(uint i = 0; i < mesh_count; ++i) {
luxrays::BumpMapInstance* bm = original_scene->objectBumpMaps[i];
if (bm)
this->bump_map_scales[i] = bm->GetScale();
else
this->bump_map_scales[i] = 1.f;
}
}
// translate mesh normal map indices
//unused? bool has_normal_mapping = false;
//normal_map.resize(mesh_count);
reset_array(this->normal_map, this->mesh_materials_count);
for(uint i = 0; i < mesh_count; ++i) {
luxrays::NormalMapInstance* nm = original_scene->objectNormalMaps[i];
if (nm) { // look for the index
uint index = 0;
for(uint j = 0; j < tms.size(); ++j) {
if (nm->GetTexMap() == tms[j]) {
index = j;
break;
}
}
this->normal_map[i] = index;
//has_normal_mapping = true;
} else {
this->normal_map[i] = PPM_NONE;
}
}
}
}
void PtrFreeScene :: compile_materials() {
// reset all materials to false
//compiled_materials.resize(ppm::MAT_NULL);
this->compiled_materials_count = ppm::MAT_MAX;
reset_array(this->compiled_materials, this->compiled_materials_count);
for(uint i = 0; i < ppm::MAT_MAX; ++i)
this->compiled_materials[i] = false;
this->materials_count = original_scene->materials.size();
//materials.resize(materials_count);
reset_array(this->materials, this->materials_count);
memset(this->materials, 0, sizeof(ppm::Material)*this->materials_count);
for(uint i = 0; i < materials_count; ++i) {
const luxrays::Material* orig_m = original_scene->materials[i];
ppm::Material* m = &materials[i];
switch(orig_m->GetType()) {
case luxrays::MATTE: {
compiled_materials[ppm::MAT_MATTE] = true;
const luxrays::MatteMaterial* mm = static_cast<const luxrays::MatteMaterial*>(orig_m);
m->diffuse = mm->IsDiffuse();
m->specular = mm->IsSpecular();
m->type = ppm::MAT_MATTE;
m->param.matte.kd.r = mm->GetKd().r;
m->param.matte.kd.g = mm->GetKd().g;
m->param.matte.kd.b = mm->GetKd().b;
break;
}
case luxrays::AREALIGHT: {
compiled_materials[ppm::MAT_AREALIGHT] = true;
const luxrays::AreaLightMaterial* alm = static_cast<const luxrays::AreaLightMaterial*>(orig_m);
m->diffuse = alm->IsDiffuse();
m->specular = alm->IsSpecular();
m->type = ppm::MAT_AREALIGHT;
m->param.area_light.gain.r = alm->GetGain().r;
m->param.area_light.gain.g = alm->GetGain().g;
m->param.area_light.gain.b = alm->GetGain().b;
break;
}
case luxrays::MIRROR: {
compiled_materials[ppm::MAT_MIRROR] = true;
const luxrays::MirrorMaterial* mm = static_cast<const luxrays::MirrorMaterial*>(orig_m);
m->type = ppm::MAT_MIRROR;
m->param.mirror.kr.r = mm->GetKr().r;
m->param.mirror.kr.g = mm->GetKr().g;
m->param.mirror.kr.b = mm->GetKr().b;
m->param.mirror.specular_bounce = mm->HasSpecularBounceEnabled();
break;
}
case luxrays::GLASS: {
compiled_materials[ppm::MAT_GLASS] = true;
const luxrays::GlassMaterial* gm = static_cast<const luxrays::GlassMaterial*>(orig_m);
m->diffuse = gm->IsDiffuse();
m->specular = gm->IsSpecular();
m->type = ppm::MAT_GLASS;
m->param.glass.refl.r = gm->GetKrefl().r;
m->param.glass.refl.g = gm->GetKrefl().g;
m->param.glass.refl.b = gm->GetKrefl().b;
m->param.glass.refrct.r = gm->GetKrefrct().r;
m->param.glass.refrct.g = gm->GetKrefrct().g;
m->param.glass.refrct.b = gm->GetKrefrct().b;
m->param.glass.outside_ior = gm->GetOutsideIOR();
m->param.glass.ior = gm->GetIOR();
m->param.glass.R0 = gm->GetR0();
m->param.glass.reflection_specular_bounce = gm->HasReflSpecularBounceEnabled();
m->param.glass.transmission_specular_bounce = gm->HasRefrctSpecularBounceEnabled();
break;
}
case luxrays::MATTEMIRROR: {
compiled_materials[ppm::MAT_MATTEMIRROR] = true;
const luxrays::MatteMirrorMaterial *mmm = static_cast<const luxrays::MatteMirrorMaterial*>(orig_m);
m->diffuse = mmm->IsDiffuse();
m->specular = mmm->IsSpecular();
m->type = ppm::MAT_MATTEMIRROR;
m->param.matte_mirror.matte.kd.r = mmm->GetMatte().GetKd().r;
m->param.matte_mirror.matte.kd.g = mmm->GetMatte().GetKd().g;
m->param.matte_mirror.matte.kd.b = mmm->GetMatte().GetKd().b;
m->param.matte_mirror.mirror.kr.r = mmm->GetMirror().GetKr().r;
m->param.matte_mirror.mirror.kr.g = mmm->GetMirror().GetKr().g;
m->param.matte_mirror.mirror.kr.b = mmm->GetMirror().GetKr().b;
m->param.matte_mirror.mirror.specular_bounce = mmm->GetMirror().HasSpecularBounceEnabled();
m->param.matte_mirror.matte_filter = mmm->GetMatteFilter();
m->param.matte_mirror.tot_filter = mmm->GetTotFilter();
m->param.matte_mirror.matte_pdf = mmm->GetMattePdf();
m->param.matte_mirror.mirror_pdf = mmm->GetMirrorPdf();
break;
}
case luxrays::METAL: {
compiled_materials[ppm::MAT_METAL] = true;
const luxrays::MetalMaterial* mm = static_cast<const luxrays::MetalMaterial*>(orig_m);
m->diffuse = mm->IsDiffuse();
m->specular = mm->IsSpecular();
m->type = ppm::MAT_METAL;
m->param.metal.kr.r = mm->GetKr().r;
m->param.metal.kr.g = mm->GetKr().g;
m->param.metal.kr.b = mm->GetKr().b;
m->param.metal.exp = mm->GetExp();
m->param.metal.specular_bounce = mm->HasSpecularBounceEnabled();
break;
}
case luxrays::MATTEMETAL: {
compiled_materials[ppm::MAT_MATTEMETAL] = true;
const luxrays::MatteMetalMaterial* mmm = static_cast<const luxrays::MatteMetalMaterial*>(orig_m);
m->diffuse = mmm->IsDiffuse();
m->specular = mmm->IsSpecular();
m->type = ppm::MAT_MATTEMETAL;
m->param.matte_metal.matte.kd.r = mmm->GetMatte().GetKd().r;
m->param.matte_metal.matte.kd.g = mmm->GetMatte().GetKd().g;
m->param.matte_metal.matte.kd.b = mmm->GetMatte().GetKd().b;
m->param.matte_metal.metal.kr.r = mmm->GetMetal().GetKr().r;
m->param.matte_metal.metal.kr.g = mmm->GetMetal().GetKr().g;
m->param.matte_metal.metal.kr.b = mmm->GetMetal().GetKr().b;
m->param.matte_metal.metal.exp = mmm->GetMetal().GetExp();
m->param.matte_metal.metal.specular_bounce = mmm->GetMetal().HasSpecularBounceEnabled();
m->param.matte_metal.matte_filter = mmm->GetMatteFilter();
m->param.matte_metal.tot_filter = mmm->GetTotFilter();
m->param.matte_metal.matte_pdf = mmm->GetMattePdf();
m->param.matte_metal.metal_pdf = mmm->GetMetalPdf();
break;
}
case luxrays::ALLOY: {
compiled_materials[ppm::MAT_ALLOY] = true;
const luxrays::AlloyMaterial* am = static_cast<const luxrays::AlloyMaterial*>(orig_m);
m->diffuse = am->IsDiffuse();
m->specular = am->IsSpecular();
m->type = ppm::MAT_ALLOY;
m->param.alloy.refl.r = am->GetKrefl().r;
m->param.alloy.refl.g = am->GetKrefl().g;
m->param.alloy.refl.b = am->GetKrefl().b;
m->param.alloy.diff.r = am->GetKd().r;
m->param.alloy.diff.g = am->GetKd().g;
m->param.alloy.diff.b = am->GetKd().b;
m->param.alloy.exp = am->GetExp();
m->param.alloy.R0 = am->GetR0();
m->param.alloy.specular_bounce = am->HasSpecularBounceEnabled();
break;
}
case luxrays::ARCHGLASS: {
compiled_materials[ppm::MAT_ARCHGLASS] = true;
const luxrays::ArchGlassMaterial* agm = static_cast<const luxrays::ArchGlassMaterial*>(orig_m);
m->diffuse = agm->IsDiffuse();
m->specular = agm->IsSpecular();
m->type = ppm::MAT_ARCHGLASS;
m->param.arch_glass.refl.r = agm->GetKrefl().r;
m->param.arch_glass.refl.g = agm->GetKrefl().g;
m->param.arch_glass.refl.b = agm->GetKrefl().b;
m->param.arch_glass.refrct.r = agm->GetKrefrct().r;
m->param.arch_glass.refrct.g = agm->GetKrefrct().g;
m->param.arch_glass.refrct.b = agm->GetKrefrct().b;
m->param.arch_glass.trans_filter = agm->GetTransFilter();
m->param.arch_glass.tot_filter = agm->GetTotFilter();
m->param.arch_glass.refl_pdf = agm->GetReflPdf();
m->param.arch_glass.trans_pdf = agm->GetTransPdf();
break;
}
default: /* MATTE */ {
compiled_materials[ppm::MAT_MATTE] = true;
m->type = ppm::MAT_MATTE;
m->param.matte.kd.r = 0.75f;
m->param.matte.kd.g = 0.75f;
m->param.matte.kd.b = 0.75f;
break;
}
}
}
// translate mesh material indexes
this->mesh_materials_count = original_scene->objectMaterials.size();
//mesh_mats.resize(mesh_coutlt);
reset_array(this->mesh_materials, this->mesh_materials_count);
for(uint i = 0; i < this->mesh_materials_count; ++i) {
const luxrays::Material* m = original_scene->objectMaterials[i];
// look for the index
uint index = 0;
for(uint j = 0; j < materials_count; ++j) {
if (m == original_scene->materials[j]) {
index = j;
break;
}
}
this->mesh_materials[i] = index;
}
}
