Object::~Object() {
if(mesh && scene->session && scene->session->params.interactive) {
if(mesh->mesh_type == Mesh::GLOBAL) scene->mesh_manager->tag_global_update();
else if(particle_id) {
std::string cur_name(mesh->name.c_str());
cur_name = cur_name + "__part___s__";
scene->server->deleteScatter(cur_name);
}
else {
std::string cur_name(name.c_str());
cur_name = cur_name + "__" + mesh->name.c_str() + "_s__";
scene->server->deleteScatter(cur_name);
}
}
} //~Object()
// static
void LLPanelNetwork::onClickSetDiskCache(void* user_data)
{
LLPanelNetwork* self = (LLPanelNetwork*)user_data;
std::string cur_name(gSavedSettings.getString("CacheLocation"));
std::string proposed_name(cur_name);
LLDirPicker& picker = LLDirPicker::instance();
if (! picker.getDir(&proposed_name ) )
{
return; //Canceled!
}
std::string dir_name = picker.getDirName();
if (!dir_name.empty() && dir_name != cur_name)
{
self->childSetText("disk_cache_location", dir_name);
LLNotifications::instance().add("CacheWillBeMoved");
gSavedSettings.setString("NewCacheLocation", dir_name);
}
else
{
std::string cache_location = gDirUtilp->getCacheDir();
self->childSetText("disk_cache_location", cache_location);
}
}
void LLFloaterPreference::onClickSetCache()
{
std::string cur_name(gSavedSettings.getString("CacheLocation"));
// std::string cur_top_folder(gDirUtilp->getBaseFileName(cur_name));
std::string proposed_name(cur_name);
LLDirPicker& picker = LLDirPicker::instance();
if (! picker.getDir(&proposed_name ) )
{
return; //Canceled!
}
std::string dir_name = picker.getDirName();
if (!dir_name.empty() && dir_name != cur_name)
{
std::string new_top_folder(gDirUtilp->getBaseFileName(dir_name));
LLNotificationsUtil::add("CacheWillBeMoved");
gSavedSettings.setString("NewCacheLocation", dir_name);
gSavedSettings.setString("NewCacheLocationTopFolder", new_top_folder);
}
else
{
std::string cache_location = gDirUtilp->getCacheDir();
gSavedSettings.setString("CacheLocation", cache_location);
std::string top_folder(gDirUtilp->getBaseFileName(cache_location));
gSavedSettings.setString("CacheLocationTopFolder", top_folder);
}
}
static std::vector<meshRenderRegion *> CreateRegions(JsonNode& json_obj,
const std::string& key,
glm::uint32 * indices_in,
glm::float32 * rest_pts_in,
glm::float32 * uvs_in)
{
std::vector<meshRenderRegion *> ret_regions;
JsonNode * base_obj = GetJSONNodeFromKey(json_obj, key);
for (JsonIterator it = JsonBegin(base_obj->value);
it != JsonEnd(base_obj->value);
++it)
{
JsonNode * cur_node = *it;
std::string cur_name(cur_node->key);
int cur_id = (int)GetJSONNodeFromKey(*cur_node, "id")->value.toNumber();
int cur_start_pt_index = (int)GetJSONNodeFromKey(*cur_node, "start_pt_index")->value.toNumber();
int cur_end_pt_index = (int)GetJSONNodeFromKey(*cur_node, "end_pt_index")->value.toNumber();
int cur_start_index = (int)GetJSONNodeFromKey(*cur_node, "start_index")->value.toNumber();
int cur_end_index = (int)GetJSONNodeFromKey(*cur_node, "end_index")->value.toNumber();
meshRenderRegion * new_region = new meshRenderRegion(indices_in,
rest_pts_in,
uvs_in,
cur_start_pt_index,
cur_end_pt_index,
cur_start_index,
cur_end_index);
new_region->setName(cur_name);
new_region->setTagId(cur_id);
// Read in weights
std::unordered_map<std::string, std::vector<float> >& weight_map =
new_region->getWeights();
JsonNode * weight_obj = GetJSONNodeFromKey(*cur_node, "weights");
for (JsonIterator w_it = JsonBegin(weight_obj->value);
w_it != JsonEnd(weight_obj->value);
++w_it)
{
JsonNode * w_node = *w_it;
const std::string& key(w_node->key);
std::vector<float> values = ReadFloatArray(*weight_obj, key);
weight_map[key] = values;
}
ret_regions.push_back(new_region);
}
return ret_regions;
}
static void FillDeformationCache(JsonNode& json_obj,
const std::string& key,
int start_time,
int end_time,
meshDisplacementCacheManager& cache_manager)
{
JsonNode * base_obj = GetJSONNodeFromKey(json_obj, key);
cache_manager.init(start_time, end_time);
for (JsonIterator it = JsonBegin(base_obj->value);
it != JsonEnd(base_obj->value);
++it)
{
JsonNode * cur_node = *it;
int cur_time = atoi(cur_node->key);
std::vector<meshDisplacementCache> cache_list;
for (JsonIterator mesh_it = JsonBegin(cur_node->value);
mesh_it != JsonEnd(cur_node->value);
++mesh_it)
{
JsonNode * mesh_node = *mesh_it;
std::string cur_name(mesh_node->key);
meshDisplacementCache cache_data(cur_name);
bool use_local_displacement = GetJSONNodeFromKey(*mesh_node, "use_local_displacements")->value.toBool();
bool use_post_displacement = GetJSONNodeFromKey(*mesh_node, "use_post_displacements")->value.toBool();
if(use_local_displacement) {
std::vector<glm::vec2> read_pts = ReadJSONPoints2DVector(*mesh_node, "local_displacements");
cache_data.setLocalDisplacements(read_pts);
}
if(use_post_displacement) {
std::vector<glm::vec2> read_pts = ReadJSONPoints2DVector(*mesh_node, "post_displacements");
cache_data.setPostDisplacements(read_pts);
}
cache_list.push_back(cache_data);
}
int set_index = cache_manager.getIndexByTime(cur_time);
cache_manager.getCacheTable()[set_index] = cache_list;
}
cache_manager.makeAllReady();
}
static void FillUVSwapCache(JsonNode& json_obj,
const std::string& key,
int start_time,
int end_time,
meshUVWarpCacheManager& cache_manager)
{
JsonNode * base_obj = GetJSONNodeFromKey(json_obj, key);
cache_manager.init(start_time, end_time);
for (JsonIterator it = JsonBegin(base_obj->value);
it != JsonEnd(base_obj->value);
++it)
{
JsonNode * cur_node = *it;
int cur_time = atoi(cur_node->key);
std::vector<meshUVWarpCache> cache_list;
for (JsonIterator uv_it = JsonBegin(cur_node->value);
uv_it != JsonEnd(cur_node->value);
++uv_it)
{
JsonNode * uv_node = *uv_it;
std::string cur_name(uv_node->key);
meshUVWarpCache cache_data(cur_name);
bool use_uv = GetJSONNodeFromKey(*uv_node, "enabled")->value.toBool();
cache_data.setEnabled(use_uv);
if(use_uv) {
glm::vec2 local_offset = ReadJSONVec2(*uv_node, "local_offset");
glm::vec2 global_offset = ReadJSONVec2(*uv_node, "global_offset");
glm::vec2 scale = ReadJSONVec2(*uv_node, "scale");
cache_data.setUvWarpLocalOffset(local_offset);
cache_data.setUvWarpGlobalOffset(global_offset);
cache_data.setUvWarpScale(scale);
}
cache_list.push_back(cache_data);
}
int set_index = cache_manager.getIndexByTime(cur_time);
cache_manager.getCacheTable()[set_index] = cache_list;
}
cache_manager.makeAllReady();
}
static void FillOpacityCache(JsonNode& json_obj,
const std::string& key,
int start_time,
int end_time,
meshOpacityCacheManager& cache_manager)
{
JsonNode * base_obj = GetJSONNodeFromKey(json_obj, key);
cache_manager.init(start_time, end_time);
if (base_obj == NULL)
{
return;
}
for (JsonIterator it = JsonBegin(base_obj->value);
it != JsonEnd(base_obj->value);
++it)
{
JsonNode * cur_node = *it;
int cur_time = atoi(cur_node->key);
std::vector<meshOpacityCache> cache_list;
for (JsonIterator uv_it = JsonBegin(cur_node->value);
uv_it != JsonEnd(cur_node->value);
++uv_it)
{
JsonNode * opacity_node = *uv_it;
std::string cur_name(opacity_node->key);
meshOpacityCache cache_data(cur_name);
float cur_opacity = (float)GetJSONNodeFromKey(*opacity_node, "opacity")->value.toNumber();
cache_data.setOpacity(cur_opacity);
cache_list.push_back(cache_data);
}
int set_index = cache_manager.getIndexByTime(cur_time);
cache_manager.getCacheTable()[set_index] = cache_list;
}
cache_manager.makeAllReady();
}
static void FillBoneCache(JsonNode& json_obj,
const std::string& key,
int start_time,
int end_time,
meshBoneCacheManager& cache_manager)
{
JsonNode * base_obj = GetJSONNodeFromKey(json_obj, key);
cache_manager.init(start_time, end_time);
for (JsonIterator it = JsonBegin(base_obj->value);
it != JsonEnd(base_obj->value);
++it)
{
JsonNode * cur_node = *it;
int cur_time = atoi(cur_node->key);
std::vector<meshBoneCache> cache_list;
for (JsonIterator bone_it = JsonBegin(cur_node->value);
bone_it != JsonEnd(cur_node->value);
++bone_it)
{
JsonNode * bone_node = *bone_it;
std::string cur_name(bone_node->key);
glm::vec4 cur_start_pt = ReadJSONVec4_2(*bone_node, "start_pt");
glm::vec4 cur_end_pt = ReadJSONVec4_2(*bone_node, "end_pt");
meshBoneCache cache_data(cur_name);
cache_data.setWorldStartPt(cur_start_pt);
cache_data.setWorldEndPt(cur_end_pt);
cache_list.push_back(cache_data);
}
int set_index = cache_manager.getIndexByTime(cur_time);
cache_manager.getCacheTable()[set_index] = cache_list;
}
cache_manager.makeAllReady();
}
void LLPanelEmerald::onClickSetHDDInclude(void* user_data)
{
LLPanelEmerald* self = (LLPanelEmerald*)user_data;
std::string cur_name(gSavedSettings.getString("EmeraldHDDIncludeLocation"));
std::string proposed_name(cur_name);
LLDirPicker& picker = LLDirPicker::instance();
if (! picker.getDir(&proposed_name ) )
{
return; //Canceled!
}
std::string dir_name = picker.getDirName();
if (!dir_name.empty() && dir_name != cur_name)
{
self->childSetText("include_location", dir_name);
gSavedSettings.setString("EmeraldHDDIncludeLocation", dir_name);
}
}
void LLPanelEmerald::onClickSetXed(void* user_data)
{
LLPanelEmerald* self = (LLPanelEmerald*)user_data;
std::string cur_name(gSavedSettings.getString("EmeraldLSLExternalEditor"));
LLFilePicker& picker = LLFilePicker::instance();
if (! picker.getOpenFile(LLFilePicker::FFLOAD_APP) )
{
return; //Canceled!
}
std::string file_name = picker.getFirstFile();
if (!file_name.empty() && file_name != cur_name)
{
self->childSetText("xed_location", file_name);
gSavedSettings.setString("EmeraldLSLExternalEditor", file_name);
} else {
//self->childSetText("xed_location", " ");
gSavedSettings.setString("EmeraldLSLExternalEditor", " ");
}
}
// static
void LLPanelNetwork::onClickSetSoundCache(void* user_data)
{
LLPanelNetwork* self = (LLPanelNetwork*)user_data;
std::string cur_name(gSavedSettings.getString("Emeraldmm_sndcacheloc"));
std::string proposed_name(cur_name);
LLDirPicker& picker = LLDirPicker::instance();
if (! picker.getDir(&proposed_name ) )
{
return; //Canceled!
}
std::string dir_name = picker.getDirName();
if (!dir_name.empty() && dir_name != cur_name)
{
self->childSetText("sound_cache_location", dir_name);
gSavedSettings.setString("Emeraldmm_sndcacheloc", dir_name);
}
else
{
self->childSetText("sound_cache_location",cur_name);
}
}
int Disp::readin(char *dirname)
{
/*
* in order to distinguish the topdir and following subdir,
* use a static variable, tricky method.
*/
static int open_cnt = 0;
open_cnt++;
DIR *dir = opendir(dirname);
if (NULL == dir) {
if (open_cnt == 1) {
//open topdir failed, should exit program.
cerr << "error when open topdir: " << dirname << endl;
exit(-1);
} else {
//open subdir failed, no matter, treat it as empty, set the _fail
_fail = 1;
cerr << "error when open dir: " << dirname << endl;
return FALSE;
}
}
struct dirent * entry = NULL;
while ((entry = readdir(dir)) != NULL)
{
if (strcmp(entry->d_name, ".") == 0 ||
strcmp(entry->d_name, "..") == 0)
{
continue;
}
struct stat fs;
mode_t type;
string cur_name(entry->d_name);
string path(_path);
string new_path = path + "/" + cur_name;
if (0 == stat(new_path.c_str(), &fs)) {
type = fs.st_mode;
}
if (S_ISDIR(type) || S_ISREG(type))
{
int level = _level + 1;
Disp * node = new Disp(new_path.c_str(), entry->d_name, type, level);
if (NULL == node) {
cerr << "malloc failed.\n";
return FALSE;
}
insert(node);
}
}
//close the current dir before go into the subdir
closedir(dir);
//after read the current dir, we go through the dirs in it
//so, looks like recursively.
My570ListElem *it = NULL;
Disp *dt = NULL;
int res = 0;
if (_child == NULL) {
return TRUE;
}
for (it = _child->First(); it != NULL; it = _child->Next(it))
{
dt = (Disp *)it->Obj();
if (S_ISDIR(dt->_type)) {
res = dt->readin();
if (res == FALSE) {
cerr << "error readin." << dt->_path << endl;
}
}
}
return TRUE;
}
static meshBone * CreateBones(JsonNode& json_obj,
const std::string& key)
{
meshBone * root_bone = NULL;
JsonNode * base_obj = GetJSONLevelNodeFromKey(json_obj, key);
std::map<int, std::pair<meshBone *, std::vector<int> > > bone_data;
std::set<int> child_set;
// layout bones
for (JsonIterator it = JsonBegin(base_obj->value);
it != JsonEnd(base_obj->value);
++it)
{
JsonNode * cur_node = *it;
std::string cur_name(cur_node->key);
int cur_id = (int)GetJSONNodeFromKey(*cur_node, "id")->value.toNumber();
glm::mat4 cur_parent_mat = ReadJSONMat4(*cur_node, "restParentMat");
glm::vec4 cur_local_rest_start_pt = ReadJSONVec4_2(*cur_node, "localRestStartPt");
glm::vec4 cur_local_rest_end_pt = ReadJSONVec4_2(*cur_node, "localRestEndPt");
std::vector<int> cur_children_ids = ReadIntArray(*cur_node, "children");
meshBone * new_bone = new meshBone(cur_name,
glm::vec4(0),
glm::vec4(0),
cur_parent_mat);
new_bone->getLocalRestStartPt() = cur_local_rest_start_pt;
new_bone->getLocalRestEndPt() = cur_local_rest_end_pt;
new_bone->calcRestData();
new_bone->setTagId(cur_id);
bone_data[cur_id] = std::make_pair(new_bone, cur_children_ids);
for(auto& cur_child_id : cur_children_ids) {
child_set.insert(cur_child_id);
}
}
// Find root
for(auto& cur_data : bone_data)
{
int cur_id = cur_data.first;
if(child_set.count(cur_id) <= 0) {
// not a child, so is root
root_bone = cur_data.second.first;
break;
}
}
// construct hierarchy
for(auto& cur_data : bone_data)
{
meshBone * cur_bone = cur_data.second.first;
const std::vector<int>& children_ids = cur_data.second.second;
for(auto& cur_child_id : children_ids)
{
meshBone * child_bone = bone_data[cur_child_id].first;
cur_bone->addChild(child_bone);
}
}
return root_bone;
}
//////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// Update all (already compiled) scene meshes on render-server (finally sends one LOAD_MESH packet for global mesh and one for each scattered mesh)
//////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
void MeshManager::server_update_mesh(::OctaneEngine::OctaneClient *server, Scene *scene, Progress& progress, uint32_t frame_idx, uint32_t total_frames) {
if(!need_update) return;
if(total_frames <= 1)
need_update = false;
progress.set_status("Loading Meshes to render-server", "");
uint64_t ulGlobalCnt = 0;
uint64_t ulLocalCnt = 0;
uint64_t ulLocalVdbCnt = 0;
bool global_update = false;
if(need_global_update) {
global_update = need_global_update;
need_global_update = false;
}
vector<Mesh*>::iterator it;
for(it = scene->meshes.begin(); it != scene->meshes.end(); ++it) {
Mesh *mesh = *it;
if(mesh->empty) {
if(mesh->need_update) mesh->need_update = false;
continue;
}
else if(scene->meshes_type == Mesh::GLOBAL || (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type == Mesh::GLOBAL)) {
if(mesh->vdb_regular_grid) ++ulLocalVdbCnt;
else if(total_frames <= 1 && (scene->first_frame || scene->anim_mode == FULL)) {
++ulGlobalCnt;
if(mesh->need_update && !global_update) global_update = true;
}
continue;
}
if(!mesh->need_update
|| (!scene->first_frame
&& (scene->anim_mode == CAM_ONLY
|| (scene->anim_mode == MOVABLE_PROXIES
&& scene->meshes_type != Mesh::RESHAPABLE_PROXY && (scene->meshes_type != Mesh::AS_IS || mesh->mesh_type != Mesh::RESHAPABLE_PROXY)))))
continue;
if(mesh->vdb_regular_grid) ++ulLocalVdbCnt;
else ++ulLocalCnt;
if(progress.get_cancel()) return;
}
bool interrupted = false;
if(ulLocalCnt) {
char **mesh_names = new char*[ulLocalCnt];
uint64_t *used_shaders_size = new uint64_t[ulLocalCnt];
uint64_t *used_objects_size = new uint64_t[ulLocalCnt];
vector<string> *shader_names = new vector<string>[ulLocalCnt];
vector<string> *object_names = new vector<string>[ulLocalCnt];
float3 **points = new float3*[ulLocalCnt];
uint64_t *points_size = new uint64_t[ulLocalCnt];
float3 **normals = new float3*[ulLocalCnt];
uint64_t *normals_size = new uint64_t[ulLocalCnt];
int **points_indices = new int*[ulLocalCnt];
int **normals_indices = new int*[ulLocalCnt];
uint64_t *points_indices_size = new uint64_t[ulLocalCnt];
uint64_t *normals_indices_size = new uint64_t[ulLocalCnt];
int **vert_per_poly = new int*[ulLocalCnt];
uint64_t *vert_per_poly_size = new uint64_t[ulLocalCnt];
int **poly_mat_index = new int*[ulLocalCnt];
int **poly_obj_index = new int*[ulLocalCnt];
float3 **uvs = new float3*[ulLocalCnt];
uint64_t *uvs_size = new uint64_t[ulLocalCnt];
int **uv_indices = new int*[ulLocalCnt];
uint64_t *uv_indices_size = new uint64_t[ulLocalCnt];
bool *open_subd_enable = new bool[ulLocalCnt];
int32_t *open_subd_scheme = new int32_t[ulLocalCnt];
int32_t *open_subd_level = new int32_t[ulLocalCnt];
float *open_subd_sharpness = new float[ulLocalCnt];
int32_t *open_subd_bound_interp = new int32_t[ulLocalCnt];
uint64_t *open_subd_crease_indices_cnt = new uint64_t[ulLocalCnt];
int **open_subd_crease_indices = new int*[ulLocalCnt];
float **open_subd_crease_sharpnesses = new float*[ulLocalCnt];
float *general_vis = new float[ulLocalCnt];
bool *cam_vis = new bool[ulLocalCnt];
bool *shadow_vis = new bool[ulLocalCnt];
int32_t *rand_color_seed = new int32_t[ulLocalCnt];
bool *reshapable = new bool[ulLocalCnt];
int32_t *layer_number = new int32_t[ulLocalCnt];
int32_t *baking_group_id = new int32_t[ulLocalCnt];
float *max_smooth_angle = new float[ulLocalCnt];
float3 **hair_points = new float3*[ulLocalCnt];
uint64_t *hair_points_size = new uint64_t[ulLocalCnt];
uint64_t *hair_ws_size = new uint64_t[ulLocalCnt];
int32_t **vert_per_hair = new int32_t*[ulLocalCnt];
uint64_t *vert_per_hair_size = new uint64_t[ulLocalCnt];
float **hair_thickness = new float*[ulLocalCnt];
int32_t **hair_mat_indices = new int32_t*[ulLocalCnt];
float2 **hair_uvs = new float2*[ulLocalCnt];
float2 **hair_ws = new float2*[ulLocalCnt];
int32_t *hair_interpolation = new int32_t[ulLocalCnt];
uint64_t i = 0;
vector<Mesh*>::iterator it;
for(it = scene->meshes.begin(); it != scene->meshes.end(); ++it) {
Mesh *mesh = *it;
if(mesh->vdb_regular_grid) continue;
if(mesh->empty || !mesh->need_update
|| (scene->meshes_type == Mesh::GLOBAL || (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type == Mesh::GLOBAL))
|| (!scene->first_frame
&& (scene->anim_mode == CAM_ONLY
|| (scene->anim_mode == MOVABLE_PROXIES
&& scene->meshes_type != Mesh::RESHAPABLE_PROXY && (scene->meshes_type != Mesh::AS_IS || mesh->mesh_type != Mesh::RESHAPABLE_PROXY))))) continue;
if(scene->meshes_type == Mesh::SCATTER || (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type == Mesh::SCATTER))
progress.set_status("Loading Meshes to render-server", string("Scatter: ") + mesh->nice_name.c_str());
else if(scene->meshes_type == Mesh::MOVABLE_PROXY || (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type == Mesh::MOVABLE_PROXY))
progress.set_status("Loading Meshes to render-server", string("Movable: ") + mesh->nice_name.c_str());
else if(scene->meshes_type == Mesh::RESHAPABLE_PROXY || (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type == Mesh::RESHAPABLE_PROXY))
progress.set_status("Loading Meshes to render-server", string("Reshapable: ") + mesh->nice_name.c_str());
used_shaders_size[i] = mesh->used_shaders.size();
for(size_t n=0; n<used_shaders_size[i]; ++n) {
shader_names[i].push_back(scene->shaders[mesh->used_shaders[n]]->name);
}
used_objects_size[i] = 1;
object_names[i].push_back("__" + mesh->name);
mesh_names[i] = (char*)mesh->name.c_str();
points[i] = &mesh->points[0];
points_size[i] = mesh->points.size();
normals[i] = &mesh->normals[0];
normals_size[i] = mesh->normals.size();
points_indices[i] = &mesh->points_indices[0];
normals_indices[i] = &mesh->points_indices[0];
points_indices_size[i] = mesh->points_indices.size();
normals_indices_size[i] = 0;//mesh->points_indices.size();
vert_per_poly[i] = &mesh->vert_per_poly[0];
vert_per_poly_size[i] = mesh->vert_per_poly.size();
poly_mat_index[i] = &mesh->poly_mat_index[0];
poly_obj_index[i] = &mesh->poly_obj_index[0];
uvs[i] = &mesh->uvs[0];
uvs_size[i] = mesh->uvs.size();
uv_indices[i] = &mesh->uv_indices[0];
uv_indices_size[i] = mesh->uv_indices.size();
open_subd_enable[i] = mesh->open_subd_enable;
open_subd_scheme[i] = mesh->open_subd_scheme;
open_subd_level[i] = mesh->open_subd_level;
open_subd_sharpness[i] = mesh->open_subd_sharpness;
open_subd_bound_interp[i] = mesh->open_subd_bound_interp;
open_subd_crease_indices_cnt[i] = mesh->open_subd_crease_indices.size() / 2;
if(open_subd_crease_indices_cnt[i]) {
open_subd_crease_indices[i] = &mesh->open_subd_crease_indices[0];
open_subd_crease_sharpnesses[i] = &mesh->open_subd_crease_sharpnesses[0];
}
else {
open_subd_crease_indices[i] = nullptr;
open_subd_crease_sharpnesses[i] = nullptr;
}
general_vis[i] = mesh->vis_general;
cam_vis[i] = mesh->vis_cam;
shadow_vis[i] = mesh->vis_shadow;
rand_color_seed[i] = mesh->rand_color_seed;
reshapable[i] = (scene->meshes_type == Mesh::RESHAPABLE_PROXY || (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type == Mesh::RESHAPABLE_PROXY));
layer_number[i] = (scene->kernel->oct_node->bLayersEnable ? mesh->layer_number : 1);
baking_group_id[i] = mesh->baking_group_id;
max_smooth_angle[i] = mesh->max_smooth_angle;
hair_points_size[i] = mesh->hair_points.size();
hair_ws_size[i] = mesh->hair_interpolation == (int32_t)::Octane::HairInterpolationType::HAIR_INTERP_NONE ? mesh->hair_ws.size() : 0;
hair_points[i] = hair_points_size[i] ? &mesh->hair_points[0] : 0;
vert_per_hair_size[i] = mesh->vert_per_hair.size();
vert_per_hair[i] = vert_per_hair_size[i] ? &mesh->vert_per_hair[0] : 0;
hair_thickness[i] = hair_points_size[i] ? &mesh->hair_thickness[0] : 0;
hair_mat_indices[i] = vert_per_hair_size[i] ? &mesh->hair_mat_indices[0] : 0;
hair_uvs[i] = vert_per_hair_size[i] ? &mesh->hair_uvs[0] : 0;
hair_ws[i] = hair_ws_size[i] ? &mesh->hair_ws[0] : 0;
hair_interpolation[i] = mesh->hair_interpolation == (int32_t)::Octane::HairInterpolationType::HAIR_INTERP_NONE ? (int32_t)::Octane::HairInterpolationType::HAIR_INTERP_DEFAULT : mesh->hair_interpolation;
if(mesh->need_update
&& (total_frames <= 1 || !reshapable[i]))
mesh->need_update = false;
if(progress.get_cancel()) {
interrupted = true;
break;
}
++i;
}
if(i && !interrupted) {
progress.set_status("Loading Meshes to render-server", "Transferring...");
server->uploadMesh(false, frame_idx, total_frames, ulLocalCnt, mesh_names,
used_shaders_size,
used_objects_size,
shader_names,
object_names,
(::OctaneEngine::float_3**)points,
points_size,
(::OctaneEngine::float_3**)normals,
normals_size,
points_indices,
normals_indices,
points_indices_size,
normals_indices_size,
vert_per_poly,
vert_per_poly_size,
poly_mat_index,
poly_obj_index,
(::OctaneEngine::float_3**)uvs,
uvs_size,
uv_indices,
uv_indices_size,
(::OctaneEngine::float_3**)hair_points, hair_points_size, hair_ws_size,
vert_per_hair, vert_per_hair_size,
hair_thickness, hair_mat_indices, (::OctaneEngine::float_2**)hair_uvs, (::OctaneEngine::float_2**)hair_ws, hair_interpolation,
open_subd_enable,
open_subd_scheme,
open_subd_level,
open_subd_sharpness,
open_subd_bound_interp,
open_subd_crease_indices_cnt,
open_subd_crease_indices,
open_subd_crease_sharpnesses,
layer_number,
baking_group_id,
general_vis,
cam_vis,
shadow_vis,
rand_color_seed,
reshapable,
max_smooth_angle);
}
delete[] mesh_names;
delete[] used_shaders_size;
delete[] used_objects_size;
delete[] shader_names;
delete[] object_names;
delete[] points;
delete[] points_size;
delete[] normals;
delete[] normals_size;
delete[] points_indices;
delete[] normals_indices;
delete[] points_indices_size;
delete[] normals_indices_size;
delete[] vert_per_poly;
delete[] vert_per_poly_size;
delete[] poly_mat_index;
delete[] poly_obj_index;
delete[] uvs;
delete[] uvs_size;
delete[] uv_indices;
delete[] uv_indices_size;
delete[] open_subd_enable;
delete[] open_subd_scheme;
delete[] open_subd_level;
delete[] open_subd_sharpness;
delete[] open_subd_bound_interp;
delete[] open_subd_crease_indices_cnt;
delete[] open_subd_crease_indices;
delete[] open_subd_crease_sharpnesses;
delete[] general_vis;
delete[] cam_vis;
delete[] shadow_vis;
delete[] rand_color_seed;
delete[] reshapable;
delete[] layer_number;
delete[] baking_group_id;
delete[] max_smooth_angle;
delete[] hair_interpolation;
delete[] hair_points_size;
delete[] hair_ws_size;
delete[] vert_per_hair_size;
delete[] hair_points;
delete[] vert_per_hair;
delete[] hair_thickness;
delete[] hair_mat_indices;
delete[] hair_uvs;
delete[] hair_ws;
}
if(ulLocalVdbCnt && !interrupted) {
uint64_t i = 0;
vector<Mesh*>::iterator it;
for(it = scene->meshes.begin(); it != scene->meshes.end(); ++it) {
Mesh *mesh = *it;
if(!mesh->vdb_regular_grid) continue;
if(mesh->empty || !mesh->need_update
//|| (scene->meshes_type == Mesh::GLOBAL || (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type == Mesh::GLOBAL))
|| (!scene->first_frame
&& (scene->anim_mode == CAM_ONLY
|| (scene->anim_mode == MOVABLE_PROXIES
&& scene->meshes_type != Mesh::RESHAPABLE_PROXY && (scene->meshes_type != Mesh::AS_IS || mesh->mesh_type != Mesh::RESHAPABLE_PROXY))))) continue;
if(scene->meshes_type == Mesh::SCATTER || scene->meshes_type == Mesh::GLOBAL || scene->meshes_type == Mesh::GLOBAL || (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type == Mesh::SCATTER))
progress.set_status("Loading Volumes to render-server", string("Scatter: ") + mesh->nice_name.c_str());
else if(scene->meshes_type == Mesh::MOVABLE_PROXY || (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type == Mesh::MOVABLE_PROXY))
progress.set_status("Loading Volumes to render-server", string("Movable: ") + mesh->nice_name.c_str());
else if(scene->meshes_type == Mesh::RESHAPABLE_PROXY || (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type == Mesh::RESHAPABLE_PROXY))
progress.set_status("Loading Volumes to render-server", string("Reshapable: ") + mesh->nice_name.c_str());
::OctaneEngine::OctaneVolume volume;
volume.sName = mesh->name;
volume.pfRegularGrid = mesh->vdb_regular_grid;
volume.iGridSize = mesh->vdb_grid_size;
volume.f3Resolution = {mesh->vdb_resolution.x, mesh->vdb_resolution.y, mesh->vdb_resolution.z};
volume.gridMatrix = mesh->vdb_grid_matrix;
volume.fISO = mesh->vdb_iso;
volume.iAbsorptionOffset = mesh->vdb_absorption_offset;
volume.fAbsorptionScale = mesh->vdb_absorption_scale;
volume.iEmissionOffset = mesh->vdb_emission_offset;
volume.fEmissionScale = mesh->vdb_emission_scale;
volume.iScatterOffset = mesh->vdb_scatter_offset;
volume.fScatterScale = mesh->vdb_scatter_scale;
volume.iVelocityOffsetX = mesh->vdb_velocity_x_offset;
volume.iVelocityOffsetY = mesh->vdb_velocity_y_offset;
volume.iVelocityOffsetZ = mesh->vdb_velocity_z_offset;
volume.fVelocityScale = mesh->vdb_velocity_scale;
volume.fGenVisibility = mesh->vis_general;
volume.bCamVisibility = mesh->vis_cam;
volume.bShadowVisibility = mesh->vis_shadow;
volume.iRandomColorSeed = mesh->rand_color_seed;
volume.iLayerNumber = (scene->kernel->oct_node->bLayersEnable ? mesh->layer_number : 1);
volume.iBakingGroupId = mesh->baking_group_id;
if(mesh->used_shaders.size())
volume.sMedium = scene->shaders[mesh->used_shaders[0]]->name;
if(mesh->need_update && (total_frames <= 1 || !(scene->meshes_type == Mesh::RESHAPABLE_PROXY || (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type == Mesh::RESHAPABLE_PROXY))))
mesh->need_update = false;
if(progress.get_cancel()) {
interrupted = true;
break;
}
++i;
progress.set_status("Loading Volumes to render-server", "Transferring...");
server->uploadVolume(&volume);
}
}
if(global_update && !interrupted) {
progress.set_status("Loading global Mesh to render-server", "");
uint64_t obj_cnt = 0;
for(map<std::string, vector<Object*> >::const_iterator obj_it = scene->objects.begin(); obj_it != scene->objects.end(); ++obj_it) {
Mesh* mesh = obj_it->second.size() > 0 ? obj_it->second[0]->mesh : 0;
if(mesh->vdb_regular_grid) continue;
if(!mesh || mesh->empty
|| (!scene->first_frame && scene->anim_mode != FULL)
|| (scene->meshes_type == Mesh::SCATTER || scene->meshes_type == Mesh::MOVABLE_PROXY || scene->meshes_type == Mesh::RESHAPABLE_PROXY)
|| (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type != Mesh::GLOBAL)) continue;
for(vector<Object*>::const_iterator it = obj_it->second.begin(); it != obj_it->second.end(); ++it) {
Object *mesh_object = *it;
if(!mesh_object->visibility) continue;
++obj_cnt;
}
}
char* name = "__global";
if(obj_cnt > 0) {
uint64_t *used_shaders_size = new uint64_t[obj_cnt];
uint64_t *used_objects_size = new uint64_t[obj_cnt];
vector<string> *shader_names = new vector<string>[obj_cnt];
vector<string> *object_names = new vector<string>[obj_cnt];
float3 **points = new float3*[obj_cnt];
for(int k = 0; k < obj_cnt; ++k) points[k] = 0;
uint64_t *points_size = new uint64_t[obj_cnt];
float3 **normals = new float3*[obj_cnt];
for(int k = 0; k < obj_cnt; ++k) normals[k] = 0;
uint64_t *normals_size = new uint64_t[obj_cnt];
int **points_indices = new int*[obj_cnt];
int **normals_indices = new int*[obj_cnt];
uint64_t *points_indices_size = new uint64_t[obj_cnt];
uint64_t *normals_indices_size = new uint64_t[obj_cnt];
int **vert_per_poly = new int*[obj_cnt];
uint64_t *vert_per_poly_size = new uint64_t[obj_cnt];
int **poly_mat_index = new int*[obj_cnt];
int **poly_obj_index = new int*[obj_cnt];
float3 **uvs = new float3*[obj_cnt];
uint64_t *uvs_size = new uint64_t[obj_cnt];
int **uv_indices = new int*[obj_cnt];
uint64_t *uv_indices_size = new uint64_t[obj_cnt];
bool *open_subd_enable = new bool[obj_cnt];
int32_t *open_subd_scheme = new int32_t[obj_cnt];
int32_t *open_subd_level = new int32_t[obj_cnt];
float *open_subd_sharpness = new float[obj_cnt];
int32_t *open_subd_bound_interp = new int32_t[obj_cnt];
uint64_t *open_subd_crease_indices_cnt = new uint64_t[obj_cnt];
int **open_subd_crease_indices = new int*[obj_cnt];
float **open_subd_crease_sharpnesses = new float*[obj_cnt];
float *general_vis = new float[obj_cnt];
bool *cam_vis = new bool[obj_cnt];
bool *shadow_vis = new bool[obj_cnt];
int32_t *rand_color_seed = new int32_t[obj_cnt];
bool *reshapable = new bool[obj_cnt];
int32_t *layer_number = new int32_t[obj_cnt];
int32_t *baking_group_id = new int32_t[obj_cnt];
float *max_smooth_angle = new float[obj_cnt];
float3 **hair_points = new float3*[obj_cnt];
uint64_t *hair_points_size = new uint64_t[obj_cnt];
uint64_t *hair_ws_size = new uint64_t[obj_cnt];
int32_t **vert_per_hair = new int32_t*[obj_cnt];
uint64_t *vert_per_hair_size = new uint64_t[obj_cnt];
float **hair_thickness = new float*[obj_cnt];
int32_t **hair_mat_indices = new int32_t*[obj_cnt];
float2 **hair_uvs = new float2*[obj_cnt];
int32_t *hair_interpolation = new int32_t[obj_cnt];
float2 **hair_ws = new float2*[obj_cnt];
obj_cnt = 0;
bool hair_present = false;
for(map<std::string, vector<Object*> >::const_iterator obj_it = scene->objects.begin(); obj_it != scene->objects.end(); ++obj_it) {
Mesh* mesh = obj_it->second.size() > 0 ? obj_it->second[0]->mesh : 0;
if(mesh->vdb_regular_grid) continue;
if(!mesh || mesh->empty
|| (!scene->first_frame && scene->anim_mode != FULL)
|| (scene->meshes_type == Mesh::SCATTER || scene->meshes_type == Mesh::MOVABLE_PROXY || scene->meshes_type == Mesh::RESHAPABLE_PROXY)
|| (scene->meshes_type == Mesh::AS_IS && mesh->mesh_type != oct::Mesh::GLOBAL)) continue;
for(vector<Object*>::const_iterator it = obj_it->second.begin(); it != obj_it->second.end(); ++it) {
Object *mesh_object = *it;
if(!mesh_object->visibility) continue;
Transform &tfm = mesh_object->tfm;
used_shaders_size[obj_cnt] = mesh_object->used_shaders.size();
for(size_t n=0; n<used_shaders_size[obj_cnt]; ++n) {
shader_names[obj_cnt].push_back(scene->shaders[mesh_object->used_shaders[n]]->name);
}
used_objects_size[obj_cnt] = 1;
object_names[obj_cnt].push_back("__" + mesh->name);
size_t points_cnt = mesh->points.size();
points[obj_cnt] = new float3[points_cnt];
float3 *p = &mesh->points[0];
for(size_t k=0; k<points_cnt; ++k) points[obj_cnt][k] = transform_point(&tfm, p[k]);
points_size[obj_cnt] = points_cnt;
size_t norm_cnt = mesh->normals.size();
normals[obj_cnt] = new float3[norm_cnt];
float3 *n = &mesh->normals[0];
for(size_t k=0; k<norm_cnt; ++k) normals[obj_cnt][k] = transform_direction(&tfm, n[k]);
normals_size[obj_cnt] = norm_cnt;
points_indices[obj_cnt] = &mesh->points_indices[0];
normals_indices[obj_cnt] = &mesh->points_indices[0];
points_indices_size[obj_cnt] = mesh->points_indices.size();
normals_indices_size[obj_cnt] = 0;
vert_per_poly[obj_cnt] = &mesh->vert_per_poly[0];
vert_per_poly_size[obj_cnt] = mesh->vert_per_poly.size();
poly_mat_index[obj_cnt] = &mesh->poly_mat_index[0];
poly_obj_index[obj_cnt] = &mesh->poly_obj_index[0];
uvs[obj_cnt] = &mesh->uvs[0];
uvs_size[obj_cnt] = mesh->uvs.size();
uv_indices[obj_cnt] = &mesh->uv_indices[0];
uv_indices_size[obj_cnt] = mesh->uv_indices.size();
open_subd_enable[obj_cnt] = mesh->open_subd_enable;
open_subd_scheme[obj_cnt] = mesh->open_subd_scheme;
open_subd_level[obj_cnt] = mesh->open_subd_level;
open_subd_sharpness[obj_cnt] = mesh->open_subd_sharpness;
open_subd_bound_interp[obj_cnt] = mesh->open_subd_bound_interp;
open_subd_crease_indices_cnt[obj_cnt] = mesh->open_subd_crease_indices.size() / 2;
if(open_subd_crease_indices_cnt[obj_cnt]) {
open_subd_crease_indices[obj_cnt] = &mesh->open_subd_crease_indices[0];
open_subd_crease_sharpnesses[obj_cnt] = &mesh->open_subd_crease_sharpnesses[0];
}
else {
open_subd_crease_indices[obj_cnt] = nullptr;
open_subd_crease_sharpnesses[obj_cnt] = nullptr;
}
general_vis[obj_cnt] = mesh->vis_general;
cam_vis[obj_cnt] = mesh->vis_cam;
shadow_vis[obj_cnt] = mesh->vis_shadow;
rand_color_seed[obj_cnt] = mesh->rand_color_seed;
reshapable[obj_cnt] = false;
layer_number[obj_cnt] = (scene->kernel->oct_node->bLayersEnable ? mesh->layer_number : 1);
baking_group_id[obj_cnt] = mesh->baking_group_id;
max_smooth_angle[obj_cnt] = mesh->max_smooth_angle;
hair_points_size[obj_cnt] = mesh->hair_points.size();
hair_ws_size[obj_cnt] = mesh->hair_interpolation == (int32_t)::Octane::HairInterpolationType::HAIR_INTERP_NONE ? mesh->hair_ws.size() : 0;
hair_points[obj_cnt] = hair_points_size[obj_cnt] ? &mesh->hair_points[0] : 0;
vert_per_hair_size[obj_cnt] = mesh->vert_per_hair.size();
vert_per_hair[obj_cnt] = vert_per_hair_size[obj_cnt] ? &mesh->vert_per_hair[0] : 0;
hair_thickness[obj_cnt] = hair_points_size[obj_cnt] ? &mesh->hair_thickness[0] : 0;
hair_mat_indices[obj_cnt] = vert_per_hair_size[obj_cnt] ? &mesh->hair_mat_indices[0] : 0;
hair_uvs[obj_cnt] = vert_per_hair_size[obj_cnt] ? &mesh->hair_uvs[0] : 0;
hair_interpolation[obj_cnt] = mesh->hair_interpolation == (int32_t)::Octane::HairInterpolationType::HAIR_INTERP_NONE ? (int32_t)::Octane::HairInterpolationType::HAIR_INTERP_DEFAULT : mesh->hair_interpolation;
hair_ws[obj_cnt] = hair_ws_size[obj_cnt] ? &mesh->hair_ws[0] : 0;
if(mesh->need_update) mesh->need_update = false;
if(progress.get_cancel()) {
interrupted = true;
break;
}
++obj_cnt;
if(!hair_present && mesh->hair_points.size()) hair_present = true;
}
}
if(obj_cnt && !interrupted) {
if(hair_present) fprintf(stderr, "Octane: WARNING: hair can't be rendered on \"Global\" mesh\n");
progress.set_status("Loading global Mesh to render-server", string("Transferring..."));
server->uploadMesh(true, frame_idx, total_frames, obj_cnt, &name,
used_shaders_size,
used_objects_size,
shader_names,
object_names,
(::OctaneEngine::float_3**)points,
points_size,
(::OctaneEngine::float_3**)normals,
normals_size,
points_indices,
normals_indices,
points_indices_size,
normals_indices_size,
vert_per_poly,
vert_per_poly_size,
poly_mat_index,
poly_obj_index,
(::OctaneEngine::float_3**)uvs,
uvs_size,
uv_indices,
uv_indices_size,
(::OctaneEngine::float_3**)hair_points, hair_points_size, hair_ws_size,
vert_per_hair, vert_per_hair_size,
hair_thickness, hair_mat_indices, (::OctaneEngine::float_2**)hair_uvs, (::OctaneEngine::float_2**)hair_ws, hair_interpolation,
open_subd_enable,
open_subd_scheme,
open_subd_level,
open_subd_sharpness,
open_subd_bound_interp,
open_subd_crease_indices_cnt,
open_subd_crease_indices,
open_subd_crease_sharpnesses,
layer_number,
baking_group_id,
general_vis,
cam_vis,
shadow_vis,
rand_color_seed,
reshapable,
max_smooth_angle);
server->uploadLayerMap(true, "__global_lm", name, static_cast< ::OctaneEngine::int32_t>(obj_cnt), layer_number, baking_group_id, general_vis, cam_vis, shadow_vis, static_cast< ::OctaneEngine::int32_t*>(rand_color_seed));
}
delete[] used_shaders_size;
delete[] used_objects_size;
delete[] shader_names;
delete[] object_names;
for(int k = 0; k < obj_cnt; ++k) {
if(points[k]) delete[] points[k];
}
delete[] points;
delete[] points_size;
for(int k = 0; k < obj_cnt; ++k) {
if(normals[k]) delete[] normals[k];
}
delete[] normals;
delete[] normals_size;
delete[] points_indices;
delete[] normals_indices;
delete[] points_indices_size;
delete[] normals_indices_size;
delete[] vert_per_poly;
delete[] vert_per_poly_size;
delete[] poly_mat_index;
delete[] poly_obj_index;
delete[] uvs;
delete[] uvs_size;
delete[] uv_indices;
delete[] uv_indices_size;
delete[] open_subd_enable;
delete[] open_subd_scheme;
delete[] open_subd_level;
delete[] open_subd_sharpness;
delete[] open_subd_bound_interp;
delete[] open_subd_crease_indices_cnt;
delete[] open_subd_crease_indices;
delete[] open_subd_crease_sharpnesses;
delete[] general_vis;
delete[] cam_vis;
delete[] shadow_vis;
delete[] rand_color_seed;
delete[] reshapable;
delete[] layer_number;
delete[] baking_group_id;
delete[] max_smooth_angle;
delete[] hair_points_size;
delete[] hair_ws_size;
delete[] vert_per_hair_size;
delete[] hair_points;
delete[] vert_per_hair;
delete[] hair_thickness;
delete[] hair_mat_indices;
delete[] hair_uvs;
delete[] hair_ws;
delete[] hair_interpolation;
}
else ulGlobalCnt = 0;
}
std::string cur_name("__global");
if(!ulGlobalCnt && scene->anim_mode == FULL) server->deleteMesh(true, cur_name);
//need_update = false;
} //server_update_mesh()
int
main(
int argc,
char **argv
)
try
{
if(
argc != 2
)
{
fcppt::io::cerr()
<< FCPPT_TEXT("Usage: ")
<< argv[0]
<< FCPPT_TEXT(" <dir1>\n");
return EXIT_FAILURE;
}
boost::filesystem::path const dir(
fcppt::from_std_string(
argv[1]
)
);
for(
boost::filesystem::recursive_directory_iterator dir_it(
dir
),
dir_end;
dir_it != dir_end;
++dir_it
)
{
if(
!needs_header(
dir_it->path()
)
)
continue;
boost::filesystem::path const header(
make_header(
dir_it->path()
)
);
fcppt::filesystem::ofstream file(
header,
std::ios_base::trunc
);
string_vector filenames;
if(
!file.is_open()
)
{
fcppt::io::cerr()
<< FCPPT_TEXT("Failed to open ")
<< header
<< FCPPT_TEXT('\n');
return EXIT_FAILURE;
}
for(
boost::filesystem::directory_iterator file_it(
dir_it->path()
),
file_end;
file_it != file_end;
++file_it
)
{
if(
file_it->path()
== header
)
continue;
if(
needs_header(
file_it->path()
)
)
filenames.push_back(
fcppt::filesystem::path_to_string(
make_header(
file_it->path()
)
)
);
else if(
!boost::filesystem::is_directory(
file_it->path()
)
)
filenames.push_back(
fcppt::filesystem::path_to_string(
file_it->path()
)
);
}
std::sort(
filenames.begin(),
filenames.end()
);
fcppt::string const include_guard_name(
make_include_guard(
header
)
);
file
<< FCPPT_TEXT("#ifndef ")
<< include_guard_name
<< FCPPT_TEXT("\n#define ")
<< include_guard_name
<< FCPPT_TEXT("\n\n");
for(
string_vector::const_iterator cur_name(
filenames.begin()
);
cur_name != filenames.end();
++cur_name
)
file
<< FCPPT_TEXT("#include <")
<< *cur_name
<< FCPPT_TEXT(">\n");
file
<< FCPPT_TEXT("\n#endif\n");
}
}
catch(
fcppt::exception const &_error
)
{
fcppt::io::cerr()
<< _error.string()
<< FCPPT_TEXT('\n');
return EXIT_FAILURE;
}
catch(
std::exception const &_error
)
{
std::cerr
<< _error.what()
<< '\n';
return EXIT_FAILURE;
}
void GUI_Prefs_Read(const char *app_name)
{
sPrefs.clear();
string pref_dir;
if (!GUI_GetPrefsDir(pref_dir)) return;
pref_dir += DIR_STR;
#if LIN
pref_dir += ".";
pref_dir += app_name;
#else
pref_dir += app_name;
#endif
pref_dir += ".prefs";
MFMemFile* f = MemFile_Open(pref_dir.c_str());
GUI_PrefSection_t * cur=NULL;
if(f)
{
const char * p = MemFile_GetBegin(f);
const char * e = MemFile_GetEnd(f);
while(p<e)
{
skip_space(p,e);
if(p<e && *p=='[')
{
++p;
const char * cs = p;
while(p<e && !is_eol(*p) && *p != ']')
++p;
string cur_name(cs,p);
cur=&sPrefs[cur_name];
}
else if(p<e && *p != '\r' && *p != '\n')
{
const char * ks = p;
while(p<e && !is_spc(*p) && !is_eol(*p) && *p != '=')
{
if (*p=='\\') ++p;
if(p<e) ++p;
}
const char * ke = p;
skip_space(p,e);
if(p<e && *p=='=')
{
++p;
skip_space(p,e);
if(p<e)
{
const char * vs = p;
while(p<e && !is_spc(*p) && !is_eol(*p) && *p != '=')
{
if (*p=='\\') ++p;
if(p<e) ++p;
}
const char * ve = p;
if(cur)
{
string key(ks,ke);
string val(vs,ve);
dequote(key);
dequote(val);
(*cur)[key] = val;
}
}
}
}
skip_eol(p,e);
}
MemFile_Close(f);
}
#if DEBUG_PREFS
for(GUI_Prefs_t::iterator s = sPrefs.begin(); s != sPrefs.end(); ++s)
{
printf("[%s]" CRLF, s->first.c_str());
for(GUI_PrefSection_t::iterator p = s->second.begin(); p != s->second.end(); ++p)
printf("'%s'='%s'" CRLF, p->first.c_str(), p->second.c_str());
}
#endif
}