//! Because of metadata overrides we don't know the true hierarchy until all pieces have been loaded
void CAssParser::BuildPieceHierarchy(S3DModel* model)
{
//! Loop through all pieces and create missing hierarchy info
for (ModelPieceMap::const_iterator it = model->pieces.begin(); it != model->pieces.end(); ++it) {
S3DModelPiece* piece = it->second;
if (piece->name == "root") {
piece->parent = NULL;
assert(model->GetRootPiece() == NULL);
model->SetRootPiece(piece); // FIXME what if called multiple times?
continue;
}
if (piece->parentName != "") {
if ((piece->parent = model->FindPiece(piece->parentName)) == NULL) {
LOG_SL(LOG_SECTION_PIECE, L_ERROR,
"Missing piece '%s' declared as parent of '%s'.",
piece->parentName.c_str(), piece->name.c_str());
} else {
piece->parent->children.push_back(piece);
}
continue;
}
//! A piece with no parent that isn't the root (orphan)
if ((piece->parent = model->FindPiece("root")) == NULL) {
LOG_SL(LOG_SECTION_PIECE, L_ERROR, "Missing root piece");
} else {
piece->parent->children.push_back(piece);
}
}
}
// Because of metadata overrides we don't know the true hierarchy until all pieces have been loaded
void CAssParser::BuildPieceHierarchy(S3DModel* model)
{
// Loop through all pieces and create missing hierarchy info
for (ModelPieceMap::const_iterator it = model->pieceMap.begin(); it != model->pieceMap.end(); ++it) {
SAssPiece* piece = static_cast<SAssPiece*>(it->second);
if (piece == model->GetRootPiece()) {
assert(piece->parent == NULL);
assert(model->GetRootPiece() == piece);
continue;
}
if (!piece->parentName.empty()) {
if ((piece->parent = model->FindPiece(piece->parentName)) == NULL) {
LOG_SL(LOG_SECTION_PIECE, L_ERROR,
"Missing piece '%s' declared as parent of '%s'.",
piece->parentName.c_str(), piece->name.c_str());
} else {
piece->parent->children.push_back(piece);
}
continue;
}
// a piece with no named parent that isn't the root (orphan)
// link these to the root piece if it exists (which it should)
if ((piece->parent = model->GetRootPiece()) == NULL) {
LOG_SL(LOG_SECTION_PIECE, L_ERROR, "Missing root piece");
} else {
piece->parent->children.push_back(piece);
}
}
}
SAssPiece* CAssParser::LoadPiece(
S3DModel* model,
const aiNode* pieceNode,
const aiScene* scene,
const LuaTable& modelTable,
ModelPieceMap& pieceMap,
ParentNameMap& parentMap
) {
++model->numPieces;
SAssPiece* piece = new SAssPiece();
if (pieceNode->mParent == nullptr) {
// set the model's root piece ASAP, needed later
assert(pieceNode == scene->mRootNode);
assert(model->GetRootPiece() == nullptr);
model->SetRootPiece(piece);
}
SetPieceName(piece, model, pieceNode, pieceMap);
LOG_SL(LOG_SECTION_PIECE, L_INFO, "Converting node '%s' to piece '%s' (%d meshes).", pieceNode->mName.data, piece->name.c_str(), pieceNode->mNumMeshes);
// Load additional piece properties from metadata
const LuaTable& pieceTable = modelTable.SubTable("pieces").SubTable(piece->name);
if (pieceTable.IsValid()) {
LOG_SL(LOG_SECTION_PIECE, L_INFO, "Found metadata for piece '%s'", piece->name.c_str());
}
LoadPieceTransformations(piece, model, pieceNode, pieceTable);
LoadPieceGeometry(piece, pieceNode, scene);
SetPieceParentName(piece, model, pieceNode, pieceTable, parentMap);
{
// operator[] creates an empty string if piece is not in map
const auto parentNameIt = parentMap.find(piece);
const std::string& parentName = (parentNameIt != parentMap.end())? (parentNameIt->second).c_str(): "[null]";
// Verbose logging of piece properties
LOG_SL(LOG_SECTION_PIECE, L_INFO, "Loaded model piece: %s with %d meshes", piece->name.c_str(), pieceNode->mNumMeshes);
LOG_SL(LOG_SECTION_PIECE, L_INFO, "piece->name: %s", piece->name.c_str());
LOG_SL(LOG_SECTION_PIECE, L_INFO, "piece->parent: %s", parentName.c_str());
}
// Recursively process all child pieces
for (unsigned int i = 0; i < pieceNode->mNumChildren; ++i) {
LoadPiece(model, pieceNode->mChildren[i], scene, modelTable, pieceMap, parentMap);
}
pieceMap[piece->name] = piece;
return piece;
}
SAssPiece* CAssParser::LoadPiece(
S3DModel* model,
const aiNode* pieceNode,
const aiScene* scene,
const LuaTable& modelTable
) {
++model->numPieces;
SAssPiece* piece = new SAssPiece();
if (pieceNode->mParent == NULL) {
// set the model's root piece ASAP, needed later
assert(pieceNode == scene->mRootNode);
assert(model->GetRootPiece() == NULL);
model->SetRootPiece(piece);
}
SetPieceName(piece, model, pieceNode);
LOG_SL(LOG_SECTION_PIECE, L_INFO, "Converting node '%s' to piece '%s' (%d meshes).", pieceNode->mName.data, piece->name.c_str(), pieceNode->mNumMeshes);
// Load additional piece properties from metadata
const LuaTable& pieceTable = modelTable.SubTable("pieces").SubTable(piece->name);
if (pieceTable.IsValid()) {
LOG_SL(LOG_SECTION_PIECE, L_INFO, "Found metadata for piece '%s'", piece->name.c_str());
}
// Load transforms
LoadPieceTransformations(piece, model, pieceNode, pieceTable);
if (SetModelRadiusAndHeight(model, piece, pieceNode, pieceTable))
return NULL;
LoadPieceGeometry(piece, pieceNode, scene);
SetPieceParentName(piece, model, pieceNode, pieceTable);
// Verbose logging of piece properties
LOG_SL(LOG_SECTION_PIECE, L_INFO, "Loaded model piece: %s with %d meshes", piece->name.c_str(), pieceNode->mNumMeshes);
LOG_SL(LOG_SECTION_PIECE, L_INFO, "piece->name: %s", piece->name.c_str());
LOG_SL(LOG_SECTION_PIECE, L_INFO, "piece->parent: %s", piece->parentName.c_str());
// Recursively process all child pieces
for (unsigned int i = 0; i < pieceNode->mNumChildren; ++i) {
LoadPiece(model, pieceNode->mChildren[i], scene, modelTable);
}
model->pieceMap[piece->name] = piece;
return piece;
}
bool CArchiveScanner::CheckCompression(const IArchive* ar,const std::string& fullName, std::string& error)
{
if (!ar->CheckForSolid())
return true;
for (unsigned fid = 0; fid != ar->NumFiles(); ++fid) {
std::string name;
int size;
ar->FileInfo(fid, name, size);
const std::string lowerName = StringToLower(name);
const auto metaFileClass = CArchiveScanner::GetMetaFileClass(lowerName);
if ((metaFileClass == 0) || ar->HasLowReadingCost(fid))
continue;
// is a meta-file and not cheap to read
if (metaFileClass == 1) {
// 1st class
error = "Unpacking/reading cost for meta file " + name
+ " is too high, please repack the archive (make sure to use a non-solid algorithm, if applicable)";
return false;
} else if (metaFileClass == 2) {
// 2nd class
LOG_SL(LOG_SECTION_ARCHIVESCANNER, L_WARNING,
"Archive %s: The cost for reading a 2nd-class meta-file is too high: %s",
fullName.c_str(), name.c_str());
}
}
return true;
}
bool CArchiveScanner::CheckCompression(const IArchive* ar, const std::string& fullName, std::string& error)
{
if (!ar->CheckForSolid())
return true;
for (unsigned fid = 0; fid != ar->NumFiles(); ++fid) {
if (ar->HasLowReadingCost(fid))
continue;
const std::pair<std::string, int>& info = ar->FileInfo(fid);
switch (GetMetaFileClass(StringToLower(info.first))) {
case 1: {
error += "reading primary meta-file " + info.first + " too expensive; ";
error += "please repack this archive with non-solid compression";
return false;
} break;
case 2: {
LOG_SL(LOG_SECTION_ARCHIVESCANNER, L_WARNING, "Archive %s: reading secondary meta-file %s too expensive", fullName.c_str(), info.first.c_str());
} break;
case 0:
default: {
continue;
} break;
}
}
return true;
}
std::string CArchiveScanner::MapNameToMapFile(const std::string& s) const
{
// Convert map name to map archive
for (std::map<std::string, ArchiveInfo>::const_iterator aii = archiveInfos.begin(); aii != archiveInfos.end(); ++aii) {
if (s == aii->second.archiveData.GetNameVersioned()) {
return aii->second.archiveData.GetMapFile();
}
}
LOG_SL(LOG_SECTION_ARCHIVESCANNER, L_WARNING, "map file of %s not found", s.c_str());
return s;
}
void CWordCompletion::AddWord(const std::string& word, bool startOfLine,
bool unitName, bool miniMap)
{
if (!word.empty()) {
if (words.find(word) != words.end()) {
LOG_SL("WordCompletion", L_DEBUG,
"Tried to add already present word: %s", word.c_str());
return;
}
words[word] = WordProperties(startOfLine, unitName, miniMap);
}
}
std::string CArchiveScanner::MapNameToMapFile(const std::string& s) const
{
// Convert map name to map archive
const auto pred = [&s](const decltype(archiveInfos)::value_type& p) { return ((p.second).archiveData.GetNameVersioned() == s); };
const auto iter = std::find_if(archiveInfos.cbegin(), archiveInfos.cend(), pred);
if (iter != archiveInfos.cend())
return ((iter->second).archiveData.GetMapFile());
LOG_SL(LOG_SECTION_ARCHIVESCANNER, L_WARNING, "map file of %s not found", s.c_str());
return s;
}
// Because of metadata overrides we don't know the true hierarchy until all pieces have been loaded
void CAssParser::BuildPieceHierarchy(S3DModel* model, ModelPieceMap& pieceMap, const ParentNameMap& parentMap)
{
const char* fmt1 = "Missing piece '%s' declared as parent of '%s'.";
const char* fmt2 = "Missing root piece (parent of orphan '%s')";
// Loop through all pieces and create missing hierarchy info
for (auto it = pieceMap.cbegin(); it != pieceMap.cend(); ++it) {
SAssPiece* piece = static_cast<SAssPiece*>(it->second);
if (piece == model->GetRootPiece()) {
assert(piece->parent == nullptr);
assert(model->GetRootPiece() == piece);
continue;
}
const auto parentNameIt = parentMap.find(piece);
if (parentNameIt != parentMap.end()) {
const std::string& parentName = parentNameIt->second;
const auto pieceIt = pieceMap.find(parentName);
if (pieceIt != pieceMap.end()) {
piece->parent = pieceIt->second;
piece->parent->children.push_back(piece);
} else {
LOG_SL(LOG_SECTION_PIECE, L_ERROR, fmt1, parentName.c_str(), piece->name.c_str());
}
continue;
}
// a piece with no named parent that isn't the root (orphan)
// link these to the root piece if it exists (which it should)
if ((piece->parent = model->GetRootPiece()) == nullptr) {
LOG_SL(LOG_SECTION_PIECE, L_ERROR, fmt2, piece->name.c_str());
} else {
piece->parent->children.push_back(piece);
}
}
}
unsigned int CArchiveScanner::GetSingleArchiveChecksum(const std::string& name) const
{
std::string lcname = FileSystem::GetFilename(name);
StringToLowerInPlace(lcname);
std::map<std::string, ArchiveInfo>::const_iterator aii = archiveInfos.find(lcname);
if (aii == archiveInfos.end()) {
LOG_SL(LOG_SECTION_ARCHIVESCANNER, L_WARNING, "%s checksum: not found (0)", name.c_str());
return 0;
}
LOG_S(LOG_SECTION_ARCHIVESCANNER,"%s checksum: %d/%u", name.c_str(), aii->second.checksum, aii->second.checksum);
return aii->second.checksum;
}
unsigned int CArchiveScanner::GetSingleArchiveChecksum(const std::string& filePath)
{
ComputeChecksumForArchive(filePath);
const std::string lcname = std::move(StringToLower(FileSystem::GetFilename(filePath)));
const auto aii = archiveInfos.find(lcname);
if (aii == archiveInfos.end()) {
LOG_SL(LOG_SECTION_ARCHIVESCANNER, L_WARNING, "%s checksum: not found (0)", filePath.c_str());
return 0;
}
LOG_S(LOG_SECTION_ARCHIVESCANNER,"%s checksum: %d/%u", filePath.c_str(), aii->second.checksum, aii->second.checksum);
return aii->second.checksum;
}
void write(const char* message) {
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "Assimp: %s", message);
}
void gmlPrintCallChainWarning(const char *func) {
LOG_SL("Threading", L_ERROR, "Invalid attempt (%d/%d) to invoke LuaUI (%s) from another Lua environment, "
"certain widgets require LuaThreadingModel > %d to work properly with multithreading", gmlCallChainWarning, GML_MAX_CALL_CHAIN_WARNINGS, func, (int)MT_LUA_SINGLE_BATCH);
}
void SAssPiece::DrawForList() const
{
if (isEmpty)
return;
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Compiling piece %s", name.c_str());
vboAttributes.Bind(GL_ARRAY_BUFFER);
glEnableClientState(GL_VERTEX_ARRAY);
glVertexPointer(3, GL_FLOAT, sizeof(SAssVertex), vboAttributes.GetPtr(offsetof(SAssVertex, pos)));
glEnableClientState(GL_NORMAL_ARRAY);
glNormalPointer(GL_FLOAT, sizeof(SAssVertex), vboAttributes.GetPtr(offsetof(SAssVertex, normal)));
glClientActiveTexture(GL_TEXTURE0);
glEnableClientState(GL_TEXTURE_COORD_ARRAY);
glTexCoordPointer(2, GL_FLOAT, sizeof(SAssVertex), vboAttributes.GetPtr(offsetof(SAssVertex, texCoord)));
glClientActiveTexture(GL_TEXTURE1);
glEnableClientState(GL_TEXTURE_COORD_ARRAY);
glTexCoordPointer(2, GL_FLOAT, sizeof(SAssVertex), vboAttributes.GetPtr(offsetof(SAssVertex, texCoord)));
if (hasTexCoord2) {
glClientActiveTexture(GL_TEXTURE2);
glEnableClientState(GL_TEXTURE_COORD_ARRAY);
glTexCoordPointer(2, GL_FLOAT, sizeof(SAssVertex), vboAttributes.GetPtr(offsetof(SAssVertex, texCoord2)));
}
glClientActiveTexture(GL_TEXTURE5);
glEnableClientState(GL_TEXTURE_COORD_ARRAY);
glTexCoordPointer(3, GL_FLOAT, sizeof(SAssVertex), vboAttributes.GetPtr(offsetof(SAssVertex, sTangent)));
glClientActiveTexture(GL_TEXTURE6);
glEnableClientState(GL_TEXTURE_COORD_ARRAY);
glTexCoordPointer(3, GL_FLOAT, sizeof(SAssVertex), vboAttributes.GetPtr(offsetof(SAssVertex, tTangent)));
vboAttributes.Unbind();
vboIndices.Bind(GL_ELEMENT_ARRAY_BUFFER);
/*
* since aiProcess_SortByPType is being used,
* we're sure we'll get only 1 type here,
* so combination check isn't needed, also
* anything more complex than triangles is
* being split thanks to aiProcess_Triangulate
*/
glDrawRangeElements(GL_TRIANGLES, 0, vertices.size() - 1, vertexDrawIndices.size(), GL_UNSIGNED_INT, vboIndices.GetPtr());
vboIndices.Unbind();
glClientActiveTexture(GL_TEXTURE6);
glDisableClientState(GL_TEXTURE_COORD_ARRAY);
glClientActiveTexture(GL_TEXTURE5);
glDisableClientState(GL_TEXTURE_COORD_ARRAY);
glClientActiveTexture(GL_TEXTURE2);
glDisableClientState(GL_TEXTURE_COORD_ARRAY);
glClientActiveTexture(GL_TEXTURE1);
glDisableClientState(GL_TEXTURE_COORD_ARRAY);
glClientActiveTexture(GL_TEXTURE0);
glDisableClientState(GL_TEXTURE_COORD_ARRAY);
glDisableClientState(GL_VERTEX_ARRAY);
glDisableClientState(GL_NORMAL_ARRAY);
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Completed compiling piece %s",
name.c_str());
}
SAssPiece* CAssParser::LoadPiece(SAssModel* model, aiNode* node, const LuaTable& metaTable)
{
// Create new piece
++model->numPieces;
SAssPiece* piece = new SAssPiece;
piece->type = MODELTYPE_OTHER;
piece->node = node;
piece->isEmpty = (node->mNumMeshes == 0);
if (node->mParent) {
piece->name = std::string(node->mName.data);
} else {
//FIXME is this really smart?
piece->name = "root"; //! The real model root
}
// find a new name if none given or if a piece with the same name already exists
if (piece->name.empty()) {
piece->name = "piece";
}
ModelPieceMap::const_iterator it = model->pieces.find(piece->name);
if (it != model->pieces.end()) {
char buf[64];
int i = 0;
while (it != model->pieces.end()) {
SNPRINTF(buf, 64, "%s%02i", piece->name.c_str(), i++);
it = model->pieces.find(buf);
}
piece->name = buf;
}
LOG_S(LOG_SECTION_PIECE, "Converting node '%s' to piece '%s' (%d meshes).",
node->mName.data, piece->name.c_str(), node->mNumMeshes);
// Load additional piece properties from metadata
const LuaTable& pieceTable = metaTable.SubTable("pieces").SubTable(piece->name);
if (pieceTable.IsValid()) {
LOG_S(LOG_SECTION_PIECE, "Found metadata for piece '%s'",
piece->name.c_str());
}
// Load transforms
LoadPieceTransformations(model, piece, pieceTable);
// Update piece min/max extents
for (unsigned meshListIndex = 0; meshListIndex < node->mNumMeshes; meshListIndex++) {
const unsigned int meshIndex = node->mMeshes[meshListIndex];
const SAssModel::MinMax& minmax = model->mesh_minmax[meshIndex];
piece->mins = std::min(piece->mins, minmax.mins);
piece->maxs = std::max(piece->maxs, minmax.maxs);
}
// Check if piece is special (ie, used to set Spring model properties)
if (strcmp(node->mName.data, "SpringHeight") == 0) {
// Set the model height to this nodes Z value
if (!metaTable.KeyExists("height")) {
model->height = piece->offset.z;
LOG_S(LOG_SECTION_MODEL,
"Model height of %f set by special node 'SpringHeight'",
model->height);
}
--model->numPieces;
delete piece;
return NULL;
}
if (strcmp(node->mName.data, "SpringRadius") == 0) {
if (!metaTable.KeyExists("midpos")) {
model->relMidPos = piece->scaleRotMatrix.Mul(piece->offset);
LOG_S(LOG_SECTION_MODEL,
"Model midpos of (%f,%f,%f) set by special node 'SpringRadius'",
model->relMidPos.x, model->relMidPos.y, model->relMidPos.z);
}
if (!metaTable.KeyExists("radius")) {
if (piece->maxs.x <= 0.00001f) {
aiVector3D _scale, _offset;
aiQuaternion _rotate;
piece->node->mTransformation.Decompose(_scale,_rotate,_offset);
model->radius = aiVectorToFloat3(_scale).x; // the blender import script only sets the scale property
} else {
model->radius = piece->maxs.x; // use the transformed mesh extents
}
LOG_S(LOG_SECTION_MODEL,
"Model radius of %f set by special node 'SpringRadius'",
model->radius);
}
--model->numPieces;
delete piece;
return NULL;
}
//! Get vertex data from node meshes
for (unsigned meshListIndex = 0; meshListIndex < node->mNumMeshes; ++meshListIndex) {
unsigned int meshIndex = node->mMeshes[meshListIndex];
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Fetching mesh %d from scene",
meshIndex);
const aiMesh* mesh = model->scene->mMeshes[meshIndex];
std::vector<unsigned> mesh_vertex_mapping;
// extract vertex data
LOG_SL(LOG_SECTION_PIECE, L_DEBUG,
"Processing vertices for mesh %d (%d vertices)",
meshIndex, mesh->mNumVertices);
LOG_SL(LOG_SECTION_PIECE, L_DEBUG,
"Normals: %s Tangents/Bitangents: %s TexCoords: %s",
(mesh->HasNormals() ? "Y" : "N"),
(mesh->HasTangentsAndBitangents() ? "Y" : "N"),
(mesh->HasTextureCoords(0) ? "Y" : "N"));
piece->vertices.reserve(piece->vertices.size() + mesh->mNumVertices);
for (unsigned vertexIndex = 0; vertexIndex < mesh->mNumVertices; ++vertexIndex) {
SAssVertex vertex;
// vertex coordinates
const aiVector3D& aiVertex = mesh->mVertices[vertexIndex];
vertex.pos = aiVectorToFloat3(aiVertex);
// vertex normal
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Fetching normal for vertex %d",
vertexIndex);
const aiVector3D& aiNormal = mesh->mNormals[vertexIndex];
if (!IS_QNAN(aiNormal)) {
vertex.normal = aiVectorToFloat3(aiNormal);
}
// vertex tangent, x is positive in texture axis
if (mesh->HasTangentsAndBitangents()) {
LOG_SL(LOG_SECTION_PIECE, L_DEBUG,
"Fetching tangent for vertex %d", vertexIndex );
const aiVector3D& aiTangent = mesh->mTangents[vertexIndex];
const aiVector3D& aiBitangent = mesh->mBitangents[vertexIndex];
vertex.sTangent = aiVectorToFloat3(aiTangent);
vertex.tTangent = aiVectorToFloat3(aiBitangent);
}
// vertex texcoords
if (mesh->HasTextureCoords(0)) {
vertex.texCoord.x = mesh->mTextureCoords[0][vertexIndex].x;
vertex.texCoord.y = mesh->mTextureCoords[0][vertexIndex].y;
}
if (mesh->HasTextureCoords(1)) {
piece->hasTexCoord2 = true,
vertex.texCoord2.x = mesh->mTextureCoords[1][vertexIndex].x;
vertex.texCoord2.y = mesh->mTextureCoords[1][vertexIndex].y;
}
mesh_vertex_mapping.push_back(piece->vertices.size());
piece->vertices.push_back(vertex);
}
// extract face data
LOG_SL(LOG_SECTION_PIECE, L_DEBUG,
"Processing faces for mesh %d (%d faces)",
meshIndex, mesh->mNumFaces);
/*
* since aiProcess_SortByPType is being used,
* we're sure we'll get only 1 type here,
* so combination check isn't needed, also
* anything more complex than triangles is
* being split thanks to aiProcess_Triangulate
*/
piece->vertexDrawIndices.reserve(piece->vertexDrawIndices.size() + mesh->mNumFaces * 3);
for (unsigned faceIndex = 0; faceIndex < mesh->mNumFaces; ++faceIndex) {
const aiFace& face = mesh->mFaces[faceIndex];
// some models contain lines (mNumIndices == 2)
// we cannot render those (esp. they would need to be called in a 2nd drawcall)
if (face.mNumIndices != 3)
continue;
for (unsigned vertexListID = 0; vertexListID < face.mNumIndices; ++vertexListID) {
const unsigned int vertexFaceIdx = face.mIndices[vertexListID];
const unsigned int vertexDrawIdx = mesh_vertex_mapping[vertexFaceIdx];
piece->vertexDrawIndices.push_back(vertexDrawIdx);
}
}
}
piece->isEmpty = piece->vertices.empty();
//! Get parent name from metadata or model
if (pieceTable.KeyExists("parent")) {
piece->parentName = pieceTable.GetString("parent", "");
} else if (node->mParent) {
if (node->mParent->mParent) {
piece->parentName = std::string(node->mParent->mName.data);
} else { // my parent is the root, which gets renamed
piece->parentName = "root";
}
} else {
piece->parentName = "";
}
LOG_S(LOG_SECTION_PIECE, "Loaded model piece: %s with %d meshes",
piece->name.c_str(), node->mNumMeshes);
// Verbose logging of piece properties
LOG_S(LOG_SECTION_PIECE, "piece->name: %s", piece->name.c_str());
LOG_S(LOG_SECTION_PIECE, "piece->parent: %s", piece->parentName.c_str());
// Recursively process all child pieces
for (unsigned int i = 0; i < node->mNumChildren; ++i) {
LoadPiece(model, node->mChildren[i], metaTable);
}
model->pieces[piece->name] = piece;
return piece;
}
S3DModel* CAssParser::Load(const std::string& modelFilePath)
{
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Loading model: %s", modelFilePath.c_str());
const std::string& modelPath = FileSystem::GetDirectory(modelFilePath);
const std::string& modelName = FileSystem::GetBasename(modelFilePath);
// Load the lua metafile. This contains properties unique to Spring models and must return a table
std::string metaFileName = modelFilePath + ".lua";
if (!CFileHandler::FileExists(metaFileName, SPRING_VFS_ZIP)) {
// Try again without the model file extension
metaFileName = modelPath + '/' + modelName + ".lua";
}
if (!CFileHandler::FileExists(metaFileName, SPRING_VFS_ZIP)) {
LOG_SL(LOG_SECTION_MODEL, L_INFO, "No meta-file '%s'. Using defaults.", metaFileName.c_str());
}
LuaParser metaFileParser(metaFileName, SPRING_VFS_MOD_BASE, SPRING_VFS_ZIP);
if (!metaFileParser.Execute()) {
LOG_SL(LOG_SECTION_MODEL, L_INFO, "'%s': %s. Using defaults.", metaFileName.c_str(), metaFileParser.GetErrorLog().c_str());
}
// Get the (root-level) model table
const LuaTable& modelTable = metaFileParser.GetRoot();
if (!modelTable.IsValid()) {
LOG_SL(LOG_SECTION_MODEL, L_INFO, "No valid model metadata in '%s' or no meta-file", metaFileName.c_str());
}
// Create a model importer instance
Assimp::Importer importer;
// Give the importer an IO class that handles Spring's VFS
importer.SetIOHandler(new AssVFSSystem());
// Speed-up processing by skipping things we don't need
importer.SetPropertyInteger(AI_CONFIG_PP_RVC_FLAGS, ASS_IMPORTER_OPTIONS);
#ifndef BITMAP_NO_OPENGL
{
importer.SetPropertyInteger(AI_CONFIG_PP_SLM_VERTEX_LIMIT, maxVertices);
importer.SetPropertyInteger(AI_CONFIG_PP_SLM_TRIANGLE_LIMIT, maxIndices / 3);
}
#endif
// Read the model file to build a scene object
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Importing model file: %s", modelFilePath.c_str());
const aiScene* scene = nullptr;
{
// ASSIMP spams many SIGFPEs atm in normal & tangent generation
ScopedDisableFpuExceptions fe;
scene = importer.ReadFile(modelFilePath, ASS_POSTPROCESS_OPTIONS);
}
if (scene != nullptr) {
LOG_SL(LOG_SECTION_MODEL, L_INFO,
"Processing scene for model: %s (%d meshes / %d materials / %d textures)",
modelFilePath.c_str(), scene->mNumMeshes, scene->mNumMaterials,
scene->mNumTextures);
} else {
throw content_error("[AssimpParser] Model Import: " + std::string(importer.GetErrorString()));
}
ModelPieceMap pieceMap;
ParentNameMap parentMap;
S3DModel* model = new S3DModel();
model->name = modelFilePath;
model->type = MODELTYPE_ASS;
// Load textures
FindTextures(model, scene, modelTable, modelPath, modelName);
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Loading textures. Tex1: '%s' Tex2: '%s'", model->texs[0].c_str(), model->texs[1].c_str());
texturehandlerS3O->PreloadTexture(model, modelTable.GetBool("fliptextures", true), modelTable.GetBool("invertteamcolor", true));
// Load all pieces in the model
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Loading pieces from root node '%s'", scene->mRootNode->mName.data);
LoadPiece(model, scene->mRootNode, scene, modelTable, pieceMap, parentMap);
// Update piece hierarchy based on metadata
BuildPieceHierarchy(model, pieceMap, parentMap);
CalculateModelProperties(model, modelTable);
// Verbose logging of model properties
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->name: %s", model->name.c_str());
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->numobjects: %d", model->numPieces);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->radius: %f", model->radius);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->height: %f", model->height);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->mins: (%f,%f,%f)", model->mins[0], model->mins[1], model->mins[2]);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->maxs: (%f,%f,%f)", model->maxs[0], model->maxs[1], model->maxs[2]);
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Model %s Imported.", model->name.c_str());
return model;
}
bool CAssParser::SetModelRadiusAndHeight(
S3DModel* model,
const SAssPiece* piece,
const aiNode* pieceNode,
const LuaTable& pieceTable
) {
// check if this piece is "special" (ie, used to set Spring model properties)
// if so, extract them and then remove the piece from the hierarchy entirely
//
if (piece->name == "SpringHeight") {
// set the model height to this node's Y-value (FIXME: 'y' is Assimp/Blender-specific)
if (!pieceTable.KeyExists("height")) {
model->height = piece->offset.y;
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Model height of %f set by special node 'SpringHeight'", model->height);
}
--model->numPieces;
delete piece;
return true;
}
if (piece->name == "SpringRadius") {
if (!pieceTable.KeyExists("midpos")) {
CMatrix44f scaleRotMat;
piece->ComposeTransform(scaleRotMat, ZeroVector, ZeroVector, piece->scales);
// NOTE:
// this makes little sense because the "SpringRadius"
// piece can be placed anywhere within the hierarchy
model->relMidPos = scaleRotMat.Mul(piece->offset);
LOG_SL(LOG_SECTION_MODEL, L_INFO,
"Model midpos of (%f,%f,%f) set by special node 'SpringRadius'",
model->relMidPos.x, model->relMidPos.y, model->relMidPos.z);
}
if (!pieceTable.KeyExists("radius")) {
if (true || piece->maxs.x <= 0.00001f) {
// scales have been set at this point
// the Blender import script only sets the scale property [?]
//
// model->radius = piece->scales.Length();
model->radius = piece->scales.x;
} else {
// FIXME:
// geometry bounds are calculated by LoadPieceGeometry
// which is called after SetModelRadiusAndHeight -> can
// not take this branch yet
// use the transformed mesh extents (FIXME: the bounds are NOT
// actually transformed but derived from raw vertex positions!)
//
// model->radius = ((piece->maxs - piece->mins) * 0.5f).Length();
model->radius = piece->maxs.x;
}
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Model radius of %f set by special node 'SpringRadius'", model->radius);
}
--model->numPieces;
delete piece;
return true;
}
return false;
}
S3DModel* CAssParser::Load(const std::string& modelFilePath)
{
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Loading model: %s", modelFilePath.c_str());
const std::string& modelPath = FileSystem::GetDirectory(modelFilePath);
const std::string& modelName = FileSystem::GetBasename(modelFilePath);
// Load the lua metafile. This contains properties unique to Spring models and must return a table
std::string metaFileName = modelFilePath + ".lua";
if (!CFileHandler::FileExists(metaFileName, SPRING_VFS_ZIP)) {
// Try again without the model file extension
metaFileName = modelPath + '/' + modelName + ".lua";
}
if (!CFileHandler::FileExists(metaFileName, SPRING_VFS_ZIP)) {
LOG_SL(LOG_SECTION_MODEL, L_INFO, "No meta-file '%s'. Using defaults.", metaFileName.c_str());
}
LuaParser metaFileParser(metaFileName, SPRING_VFS_MOD_BASE, SPRING_VFS_ZIP);
if (!metaFileParser.Execute()) {
LOG_SL(LOG_SECTION_MODEL, L_ERROR, "'%s': %s. Using defaults.", metaFileName.c_str(), metaFileParser.GetErrorLog().c_str());
}
// Get the (root-level) model table
const LuaTable& modelTable = metaFileParser.GetRoot();
if (!modelTable.IsValid()) {
LOG_SL(LOG_SECTION_MODEL, L_INFO, "No valid model metadata in '%s' or no meta-file", metaFileName.c_str());
}
// Create a model importer instance
Assimp::Importer importer;
// Create a logger for debugging model loading issues
Assimp::DefaultLogger::create("", Assimp::Logger::VERBOSE);
Assimp::DefaultLogger::get()->attachStream(new AssLogStream(), ASS_LOGGING_OPTIONS);
// Give the importer an IO class that handles Spring's VFS
importer.SetIOHandler(new AssVFSSystem());
// Speed-up processing by skipping things we don't need
importer.SetPropertyInteger(AI_CONFIG_PP_RVC_FLAGS, ASS_IMPORTER_OPTIONS);
#ifndef BITMAP_NO_OPENGL
{
// Optimize VBO-Mesh sizes/ranges
GLint maxIndices = 1024;
GLint maxVertices = 1024;
// FIXME returns non-optimal data, at best compute it ourselves (pre-TL cache size!)
glGetIntegerv(GL_MAX_ELEMENTS_INDICES, &maxIndices);
glGetIntegerv(GL_MAX_ELEMENTS_VERTICES, &maxVertices);
importer.SetPropertyInteger(AI_CONFIG_PP_SLM_VERTEX_LIMIT, maxVertices);
importer.SetPropertyInteger(AI_CONFIG_PP_SLM_TRIANGLE_LIMIT, maxIndices / 3);
}
#endif
// Read the model file to build a scene object
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Importing model file: %s", modelFilePath.c_str());
const aiScene* scene;
{
// ASSIMP spams many SIGFPEs atm in normal & tangent generation
ScopedDisableFpuExceptions fe;
scene = importer.ReadFile(modelFilePath, ASS_POSTPROCESS_OPTIONS);
}
if (scene != NULL) {
LOG_SL(LOG_SECTION_MODEL, L_INFO,
"Processing scene for model: %s (%d meshes / %d materials / %d textures)",
modelFilePath.c_str(), scene->mNumMeshes, scene->mNumMaterials,
scene->mNumTextures);
} else {
throw content_error("[AssimpParser] Model Import: " + std::string(importer.GetErrorString()));
}
S3DModel* model = new S3DModel();
model->name = modelFilePath;
model->type = MODELTYPE_ASS;
// Load textures
FindTextures(model, scene, modelTable, modelPath, modelName);
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Loading textures. Tex1: '%s' Tex2: '%s'", model->tex1.c_str(), model->tex2.c_str());
texturehandlerS3O->LoadS3OTexture(model);
// Load all pieces in the model
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Loading pieces from root node '%s'", scene->mRootNode->mName.data);
LoadPiece(model, scene->mRootNode, scene, modelTable);
// Update piece hierarchy based on metadata
BuildPieceHierarchy(model);
CalculateModelProperties(model, modelTable);
// Verbose logging of model properties
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->name: %s", model->name.c_str());
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->numobjects: %d", model->numPieces);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->radius: %f", model->radius);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->height: %f", model->height);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->drawRadius: %f", model->drawRadius);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->mins: (%f,%f,%f)", model->mins[0], model->mins[1], model->mins[2]);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->maxs: (%f,%f,%f)", model->maxs[0], model->maxs[1], model->maxs[2]);
LOG_SL(LOG_SECTION_MODEL, L_INFO, "Model %s Imported.", model->name.c_str());
return model;
}
void CAssParser::LoadPieceTransformations(
SAssPiece* piece,
const S3DModel* model,
const aiNode* pieceNode,
const LuaTable& pieceTable
) {
aiVector3D aiScaleVec, aiTransVec;
aiQuaternion aiRotateQuat;
// process transforms
pieceNode->mTransformation.Decompose(aiScaleVec, aiRotateQuat, aiTransVec);
// metadata-scaling
piece->scales = pieceTable.GetFloat3("scale", aiVectorToFloat3(aiScaleVec));
piece->scales.x = pieceTable.GetFloat("scalex", piece->scales.x);
piece->scales.y = pieceTable.GetFloat("scaley", piece->scales.y);
piece->scales.z = pieceTable.GetFloat("scalez", piece->scales.z);
if (piece->scales.x != piece->scales.y || piece->scales.y != piece->scales.z) {
// LOG_SL(LOG_SECTION_MODEL, L_WARNING, "Spring doesn't support non-uniform scaling");
piece->scales.y = piece->scales.x;
piece->scales.z = piece->scales.x;
}
// metadata-translation
piece->offset = pieceTable.GetFloat3("offset", aiVectorToFloat3(aiTransVec));
piece->offset.x = pieceTable.GetFloat("offsetx", piece->offset.x);
piece->offset.y = pieceTable.GetFloat("offsety", piece->offset.y);
piece->offset.z = pieceTable.GetFloat("offsetz", piece->offset.z);
// metadata-rotation
// NOTE:
// these rotations are "pre-scripting" but "post-modelling"
// together with the (baked) aiRotateQuad they determine the
// model's pose *before* any animations execute
//
// float3 rotAngles = pieceTable.GetFloat3("rotate", aiQuaternionToRadianAngles(aiRotateQuat) * RADTODEG);
float3 pieceRotAngles = pieceTable.GetFloat3("rotate", ZeroVector);
pieceRotAngles.x = pieceTable.GetFloat("rotatex", pieceRotAngles.x);
pieceRotAngles.y = pieceTable.GetFloat("rotatey", pieceRotAngles.y);
pieceRotAngles.z = pieceTable.GetFloat("rotatez", pieceRotAngles.z);
pieceRotAngles *= DEGTORAD;
LOG_SL(LOG_SECTION_PIECE, L_INFO,
"(%d:%s) Assimp offset (%f,%f,%f), rotate (%f,%f,%f,%f), scale (%f,%f,%f)",
model->numPieces, piece->name.c_str(),
aiTransVec.x, aiTransVec.y, aiTransVec.z,
aiRotateQuat.w, aiRotateQuat.x, aiRotateQuat.y, aiRotateQuat.z,
aiScaleVec.x, aiScaleVec.y, aiScaleVec.z
);
LOG_SL(LOG_SECTION_PIECE, L_INFO,
"(%d:%s) Relative offset (%f,%f,%f), rotate (%f,%f,%f), scale (%f,%f,%f)",
model->numPieces, piece->name.c_str(),
piece->offset.x, piece->offset.y, piece->offset.z,
pieceRotAngles.x, pieceRotAngles.y, pieceRotAngles.z,
piece->scales.x, piece->scales.y, piece->scales.z
);
// NOTE:
// at least collada (.dae) files generated by Blender represent
// a coordinate-system that differs from the "standard" formats
// (3DO, S3O, ...) for which existing tools at least have prior
// knowledge of Spring's expectations --> let the user override
// the ROOT rotational transform and the rotation-axis mapping
// used by animation scripts (but re-modelling/re-exporting is
// always preferred!) even though AssImp should convert models
// to its own system which matches that of Spring
//
// .dae : x=Rgt, y=-Fwd, z= Up, as=(-1, -1, 1), am=AXIS_XZY (if Z_UP)
// .dae : x=Rgt, y=-Fwd, z= Up, as=(-1, -1, 1), am=AXIS_XZY (if Y_UP) [!?]
// .blend: ????
piece->bakedRotMatrix = aiMatrixToMatrix(aiMatrix4x4t<float>(aiRotateQuat.GetMatrix()));
if (piece == model->GetRootPiece()) {
const float3 xaxis = pieceTable.GetFloat3("xaxis", piece->bakedRotMatrix.GetX());
const float3 yaxis = pieceTable.GetFloat3("yaxis", piece->bakedRotMatrix.GetY());
const float3 zaxis = pieceTable.GetFloat3("zaxis", piece->bakedRotMatrix.GetZ());
if (math::fabs(xaxis.SqLength() - yaxis.SqLength()) < 0.01f && math::fabs(yaxis.SqLength() - zaxis.SqLength()) < 0.01f) {
piece->bakedRotMatrix = CMatrix44f(ZeroVector, xaxis, yaxis, zaxis);
}
}
piece->rotAxisSigns = pieceTable.GetFloat3("rotAxisSigns", float3(-OnesVector));
piece->axisMapType = AxisMappingType(pieceTable.GetInt("rotAxisMap", AXIS_MAPPING_XYZ));
// construct 'baked' part of the piece-space matrix
// AssImp order is translate * rotate * scale * v;
// we leave the translation and scale parts out and
// put those in <offset> and <scales> --> transform
// is just R instead of T * R * S
//
// note: for all non-AssImp models this is identity!
//
piece->ComposeRotation(piece->bakedRotMatrix, pieceRotAngles);
piece->SetHasIdentityRotation(piece->bakedRotMatrix.IsIdentity() == 0);
assert(piece->bakedRotMatrix.IsOrthoNormal() == 0);
}
SAssPiece* CAssParser::LoadPiece(SAssModel* model, aiNode* node, const LuaTable& metaTable)
{
//! Create new piece
++model->numPieces;
SAssPiece* piece = new SAssPiece;
piece->type = MODELTYPE_OTHER;
piece->node = node;
piece->model = model;
piece->isEmpty = (node->mNumMeshes == 0);
if (node->mParent) {
piece->name = std::string(node->mName.data);
} else {
//FIXME is this really smart?
piece->name = "root"; //! The real model root
}
//! find a new name if none given or if a piece with the same name already exists
if (piece->name.empty()) {
piece->name = "piece";
}
ModelPieceMap::const_iterator it = model->pieces.find(piece->name);
if (it != model->pieces.end()) {
char buf[64];
int i = 0;
while (it != model->pieces.end()) {
SNPRINTF(buf, 64, "%s%02i", piece->name.c_str(), i++);
it = model->pieces.find(buf);
}
piece->name = buf;
}
LOG_S(LOG_SECTION_PIECE, "Converting node '%s' to piece '%s' (%d meshes).",
node->mName.data, piece->name.c_str(), node->mNumMeshes);
//! Load additional piece properties from metadata
const LuaTable& pieceTable = metaTable.SubTable("pieces").SubTable(piece->name);
if (pieceTable.IsValid()) {
LOG_S(LOG_SECTION_PIECE, "Found metadata for piece '%s'",
piece->name.c_str());
}
//! Load transforms
LoadPieceTransformations(piece, pieceTable);
//! Update piece min/max extents
for (unsigned meshListIndex = 0; meshListIndex < node->mNumMeshes; meshListIndex++) {
unsigned int meshIndex = node->mMeshes[meshListIndex];
SAssModel::MinMax& minmax = model->mesh_minmax[meshIndex];
piece->mins.x = std::min(piece->mins.x, minmax.mins.x);
piece->mins.y = std::min(piece->mins.y, minmax.mins.y);
piece->mins.z = std::min(piece->mins.z, minmax.mins.z);
piece->maxs.x = std::max(piece->maxs.x, minmax.maxs.x);
piece->maxs.y = std::max(piece->maxs.y, minmax.maxs.y);
piece->maxs.z = std::max(piece->maxs.z, minmax.maxs.z);
}
//! Check if piece is special (ie, used to set Spring model properties)
if (strcmp(node->mName.data, "SpringHeight") == 0) {
//! Set the model height to this nodes Z value
if (!metaTable.KeyExists("height")) {
model->height = piece->offset.z;
LOG_S(LOG_SECTION_MODEL,
"Model height of %f set by special node 'SpringHeight'",
model->height);
}
--model->numPieces;
delete piece;
return NULL;
}
if (strcmp(node->mName.data, "SpringRadius") == 0) {
if (!metaTable.KeyExists("midpos")) {
model->relMidPos = float3(piece->offset.x, piece->offset.z, piece->offset.y); //! Y and Z are swapped because this piece isn't rotated
LOG_S(LOG_SECTION_MODEL,
"Model midpos of (%f,%f,%f) set by special node 'SpringRadius'",
model->relMidPos.x, model->relMidPos.y, model->relMidPos.z);
}
if (!metaTable.KeyExists("radius")) {
if (piece->maxs.x <= 0.00001f) {
model->radius = piece->scale.x; //! the blender import script only sets the scale property
} else {
model->radius = piece->maxs.x; //! use the transformed mesh extents
}
LOG_S(LOG_SECTION_MODEL,
"Model radius of %f set by special node 'SpringRadius'",
model->radius);
}
--model->numPieces;
delete piece;
return NULL;
}
//! Get vertex data from node meshes
for (unsigned meshListIndex = 0; meshListIndex < node->mNumMeshes; ++meshListIndex) {
unsigned int meshIndex = node->mMeshes[meshListIndex];
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Fetching mesh %d from scene",
meshIndex);
aiMesh* mesh = model->scene->mMeshes[meshIndex];
std::vector<unsigned> mesh_vertex_mapping;
//! extract vertex data
LOG_SL(LOG_SECTION_PIECE, L_DEBUG,
"Processing vertices for mesh %d (%d vertices)",
meshIndex, mesh->mNumVertices);
LOG_SL(LOG_SECTION_PIECE, L_DEBUG,
"Normals: %s Tangents/Bitangents: %s TexCoords: %s",
(mesh->HasNormals() ? "Y" : "N"),
(mesh->HasTangentsAndBitangents() ? "Y" : "N"),
(mesh->HasTextureCoords(0) ? "Y" : "N"));
// FIXME add piece->vertices.reserve()
for (unsigned vertexIndex= 0; vertexIndex < mesh->mNumVertices; ++vertexIndex) {
SAssVertex vertex;
//! vertex coordinates
//LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Fetching vertex %d from mesh", vertexIndex);
const aiVector3D& aiVertex = mesh->mVertices[vertexIndex];
vertex.pos.x = aiVertex.x;
vertex.pos.y = aiVertex.y;
vertex.pos.z = aiVertex.z;
//LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "vertex position %d: %f %f %f", vertexIndex, vertex.pos.x, vertex.pos.y, vertex.pos.z);
//! vertex normal
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Fetching normal for vertex %d",
vertexIndex);
const aiVector3D& aiNormal = mesh->mNormals[vertexIndex];
vertex.hasNormal = !IS_QNAN(aiNormal);
if (vertex.hasNormal) {
vertex.normal.x = aiNormal.x;
vertex.normal.y = aiNormal.y;
vertex.normal.z = aiNormal.z;
//LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "vertex normal %d: %f %f %f",vertexIndex, vertex.normal.x, vertex.normal.y,vertex.normal.z);
}
//! vertex tangent, x is positive in texture axis
if (mesh->HasTangentsAndBitangents()) {
LOG_SL(LOG_SECTION_PIECE, L_DEBUG,
"Fetching tangent for vertex %d", vertexIndex );
const aiVector3D& aiTangent = mesh->mTangents[vertexIndex];
const aiVector3D& aiBitangent = mesh->mBitangents[vertexIndex];
vertex.hasTangent = !IS_QNAN(aiBitangent) && !IS_QNAN(aiTangent);
const float3 tangent(aiTangent.x, aiTangent.y, aiTangent.z);
//LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "vertex tangent %d: %f %f %f",vertexIndex, tangent.x, tangent.y,tangent.z);
piece->sTangents.push_back(tangent);
const float3 bitangent(aiBitangent.x, aiBitangent.y, aiBitangent.z);
//LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "vertex bitangent %d: %f %f %f",vertexIndex, bitangent.x, bitangent.y,bitangent.z);
piece->tTangents.push_back(bitangent);
}
//! vertex texcoords
if (mesh->HasTextureCoords(0)) {
vertex.textureX = mesh->mTextureCoords[0][vertexIndex].x;
vertex.textureY = mesh->mTextureCoords[0][vertexIndex].y;
//LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "vertex texcoords %d: %f %f", vertexIndex, vertex.textureX, vertex.textureY);
}
mesh_vertex_mapping.push_back(piece->vertices.size());
piece->vertices.push_back(vertex);
}
//! extract face data
// FIXME add piece->vertexDrawOrder.reserve()
LOG_SL(LOG_SECTION_PIECE, L_DEBUG,
"Processing faces for mesh %d (%d faces)",
meshIndex, mesh->mNumFaces);
for (unsigned faceIndex = 0; faceIndex < mesh->mNumFaces; ++faceIndex) {
const aiFace& face = mesh->mFaces[faceIndex];
//! get the vertex belonging to the mesh
for (unsigned vertexListID = 0; vertexListID < face.mNumIndices; ++vertexListID) {
unsigned int vertexID = mesh_vertex_mapping[face.mIndices[vertexListID]];
//LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "face %d vertex %d", faceIndex, vertexID);
piece->vertexDrawOrder.push_back(vertexID);
}
}
}
//! collision volume for piece (not sure about these coords)
// FIXME add metatable tags for this!!!!
const float3 cvScales = piece->maxs - piece->mins;
const float3 cvOffset = (piece->maxs - piece->offset) + (piece->mins - piece->offset);
//const float3 cvOffset(piece->offset.x, piece->offset.y, piece->offset.z);
piece->colvol = new CollisionVolume("box", cvScales, cvOffset, CollisionVolume::COLVOL_HITTEST_CONT);
//! Get parent name from metadata or model
if (pieceTable.KeyExists("parent")) {
piece->parentName = pieceTable.GetString("parent", "");
} else if (node->mParent) {
if (node->mParent->mParent) {
piece->parentName = std::string(node->mParent->mName.data);
} else { //! my parent is the root, which gets renamed
piece->parentName = "root";
}
} else {
piece->parentName = "";
}
LOG_S(LOG_SECTION_PIECE, "Loaded model piece: %s with %d meshes",
piece->name.c_str(), node->mNumMeshes);
//! Verbose logging of piece properties
LOG_S(LOG_SECTION_PIECE, "piece->name: %s", piece->name.c_str());
LOG_S(LOG_SECTION_PIECE, "piece->parent: %s", piece->parentName.c_str());
//! Recursively process all child pieces
for (unsigned int i = 0; i < node->mNumChildren; ++i) {
LoadPiece(model, node->mChildren[i], metaTable);
}
model->pieces[piece->name] = piece;
return piece;
}
void CAssParser::LoadPieceGeometry(SAssPiece* piece, const aiNode* pieceNode, const aiScene* scene)
{
// Get vertex data from node meshes
for (unsigned meshListIndex = 0; meshListIndex < pieceNode->mNumMeshes; ++meshListIndex) {
const unsigned int meshIndex = pieceNode->mMeshes[meshListIndex];
const aiMesh* mesh = scene->mMeshes[meshIndex];
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Fetching mesh %d from scene", meshIndex);
LOG_SL(LOG_SECTION_PIECE, L_DEBUG,
"Processing vertices for mesh %d (%d vertices)",
meshIndex, mesh->mNumVertices);
LOG_SL(LOG_SECTION_PIECE, L_DEBUG,
"Normals: %s Tangents/Bitangents: %s TexCoords: %s",
(mesh->HasNormals() ? "Y" : "N"),
(mesh->HasTangentsAndBitangents() ? "Y" : "N"),
(mesh->HasTextureCoords(0) ? "Y" : "N"));
piece->vertices.reserve(piece->vertices.size() + mesh->mNumVertices);
piece->vertexDrawIndices.reserve(piece->vertexDrawIndices.size() + mesh->mNumFaces * 3);
std::vector<unsigned> mesh_vertex_mapping;
// extract vertex data per mesh
for (unsigned vertexIndex = 0; vertexIndex < mesh->mNumVertices; ++vertexIndex) {
const aiVector3D& aiVertex = mesh->mVertices[vertexIndex];
SAssVertex vertex;
// vertex coordinates
vertex.pos = aiVectorToFloat3(aiVertex);
// update piece min/max extents
piece->mins = float3::min(piece->mins, vertex.pos);
piece->maxs = float3::max(piece->maxs, vertex.pos);
// vertex normal
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Fetching normal for vertex %d", vertexIndex);
const aiVector3D& aiNormal = mesh->mNormals[vertexIndex];
if (!IS_QNAN(aiNormal)) {
vertex.normal = aiVectorToFloat3(aiNormal);
}
// vertex tangent, x is positive in texture axis
if (mesh->HasTangentsAndBitangents()) {
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Fetching tangent for vertex %d", vertexIndex);
const aiVector3D& aiTangent = mesh->mTangents[vertexIndex];
const aiVector3D& aiBitangent = mesh->mBitangents[vertexIndex];
vertex.sTangent = aiVectorToFloat3(aiTangent);
vertex.tTangent = aiVectorToFloat3(aiBitangent);
}
// vertex tex-coords per channel
for (unsigned int uvChanIndex = 0; uvChanIndex < NUM_MODEL_UVCHANNS; uvChanIndex++) {
if (!mesh->HasTextureCoords(uvChanIndex))
break;
piece->SetNumTexCoorChannels(uvChanIndex + 1);
vertex.texCoords[uvChanIndex].x = mesh->mTextureCoords[uvChanIndex][vertexIndex].x;
vertex.texCoords[uvChanIndex].y = mesh->mTextureCoords[uvChanIndex][vertexIndex].y;
}
mesh_vertex_mapping.push_back(piece->vertices.size());
piece->vertices.push_back(vertex);
}
// extract face data
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Processing faces for mesh %d (%d faces)", meshIndex, mesh->mNumFaces);
/*
* since aiProcess_SortByPType is being used,
* we're sure we'll get only 1 type here,
* so combination check isn't needed, also
* anything more complex than triangles is
* being split thanks to aiProcess_Triangulate
*/
for (unsigned faceIndex = 0; faceIndex < mesh->mNumFaces; ++faceIndex) {
const aiFace& face = mesh->mFaces[faceIndex];
// some models contain lines (mNumIndices == 2) which
// we cannot render and they would need a 2nd drawcall)
if (face.mNumIndices != 3)
continue;
for (unsigned vertexListID = 0; vertexListID < face.mNumIndices; ++vertexListID) {
const unsigned int vertexFaceIdx = face.mIndices[vertexListID];
const unsigned int vertexDrawIdx = mesh_vertex_mapping[vertexFaceIdx];
piece->vertexDrawIndices.push_back(vertexDrawIdx);
}
}
}
piece->SetHasGeometryData(!piece->vertices.empty());
}
void SAssPiece::DrawForList() const
{
if (isEmpty) {
return;
}
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Compiling piece %s", name.c_str());
//! Add GL commands to the pieces displaylist
const SAssVertex* sAssV = &vertices[0];
//! pass the tangents as 3D texture coordinates
//! (array elements are float3's, which are 12
//! bytes in size and each represent a single
//! xyz triple)
//! TODO: test if we have this many texunits
//! (if not, could only send the s-tangents)?
if (!sTangents.empty()) {
glClientActiveTexture(GL_TEXTURE5);
glEnableClientState(GL_TEXTURE_COORD_ARRAY);
glTexCoordPointer(3, GL_FLOAT, sizeof(float3), &sTangents[0].x);
}
if (!tTangents.empty()) {
glClientActiveTexture(GL_TEXTURE6);
glEnableClientState(GL_TEXTURE_COORD_ARRAY);
glTexCoordPointer(3, GL_FLOAT, sizeof(float3), &tTangents[0].x);
}
glClientActiveTexture(GL_TEXTURE0);
glEnableClientState(GL_TEXTURE_COORD_ARRAY);
glTexCoordPointer(2, GL_FLOAT, sizeof(SAssVertex), &sAssV->textureX);
glEnableClientState(GL_VERTEX_ARRAY);
glVertexPointer(3, GL_FLOAT, sizeof(SAssVertex), &sAssV->pos.x);
glEnableClientState(GL_NORMAL_ARRAY);
glNormalPointer(GL_FLOAT, sizeof(SAssVertex), &sAssV->normal.x);
/*
* since aiProcess_SortByPType is being used,
* we're sure we'll get only 1 type here,
* so combination check isn't needed, also
* anything more complex than triangles is
* being split thanks to aiProcess_Triangulate
*/
glDrawElements(GL_TRIANGLES, vertexDrawOrder.size(), GL_UNSIGNED_INT, &vertexDrawOrder[0]);
if (!sTangents.empty()) {
glClientActiveTexture(GL_TEXTURE6);
glDisableClientState(GL_TEXTURE_COORD_ARRAY);
}
if (!tTangents.empty()) {
glClientActiveTexture(GL_TEXTURE5);
glDisableClientState(GL_TEXTURE_COORD_ARRAY);
}
glClientActiveTexture(GL_TEXTURE0);
glDisableClientState(GL_TEXTURE_COORD_ARRAY);
glDisableClientState(GL_VERTEX_ARRAY);
glDisableClientState(GL_NORMAL_ARRAY);
LOG_SL(LOG_SECTION_PIECE, L_DEBUG, "Completed compiling piece %s",
name.c_str());
}
S3DModel* CAssParser::Load(const std::string& modelFilePath)
{
LOG_S(LOG_SECTION_MODEL, "Loading model: %s", modelFilePath.c_str() );
const std::string modelPath = FileSystem::GetDirectory(modelFilePath);
const std::string modelName = FileSystem::GetBasename(modelFilePath);
//! LOAD METADATA
//! Load the lua metafile. This contains properties unique to Spring models and must return a table
std::string metaFileName = modelFilePath + ".lua";
if (!CFileHandler::FileExists(metaFileName, SPRING_VFS_ZIP)) {
//! Try again without the model file extension
metaFileName = modelPath + '/' + modelName + ".lua";
}
LuaParser metaFileParser(metaFileName, SPRING_VFS_MOD_BASE, SPRING_VFS_ZIP);
if (!CFileHandler::FileExists(metaFileName, SPRING_VFS_ZIP)) {
LOG_S(LOG_SECTION_MODEL, "No meta-file '%s'. Using defaults.", metaFileName.c_str());
} else if (!metaFileParser.Execute()) {
LOG_SL(LOG_SECTION_MODEL, L_ERROR, "'%s': %s. Using defaults.", metaFileName.c_str(), metaFileParser.GetErrorLog().c_str());
}
//! Get the (root-level) model table
const LuaTable& metaTable = metaFileParser.GetRoot();
if (metaTable.IsValid()) {
LOG_S(LOG_SECTION_MODEL, "Found valid model metadata in '%s'", metaFileName.c_str());
}
//! LOAD MODEL DATA
//! Create a model importer instance
Assimp::Importer importer;
//! Create a logger for debugging model loading issues
Assimp::DefaultLogger::create("",Assimp::Logger::VERBOSE);
const unsigned int severity = Assimp::Logger::Debugging|Assimp::Logger::Info|Assimp::Logger::Err|Assimp::Logger::Warn;
Assimp::DefaultLogger::get()->attachStream( new AssLogStream(), severity );
//! Give the importer an IO class that handles Spring's VFS
importer.SetIOHandler( new AssVFSSystem() );
//! Speed-up processing by skipping things we don't need
importer.SetPropertyInteger(AI_CONFIG_PP_RVC_FLAGS, aiComponent_CAMERAS|aiComponent_LIGHTS|aiComponent_TEXTURES|aiComponent_ANIMATIONS);
#ifndef BITMAP_NO_OPENGL
//! Optimize VBO-Mesh sizes/ranges
GLint maxIndices = 1024;
GLint maxVertices = 1024;
glGetIntegerv(GL_MAX_ELEMENTS_INDICES, &maxIndices);
glGetIntegerv(GL_MAX_ELEMENTS_VERTICES, &maxVertices); //FIXME returns not optimal data, at best compute it ourself! (pre-TL cache size!)
importer.SetPropertyInteger(AI_CONFIG_PP_SLM_VERTEX_LIMIT, maxVertices);
importer.SetPropertyInteger(AI_CONFIG_PP_SLM_TRIANGLE_LIMIT, maxIndices/3);
#endif
//! Read the model file to build a scene object
LOG_S(LOG_SECTION_MODEL, "Importing model file: %s", modelFilePath.c_str() );
const aiScene* scene = importer.ReadFile( modelFilePath, ASS_POSTPROCESS_OPTIONS );
if (scene != NULL) {
LOG_S(LOG_SECTION_MODEL,
"Processing scene for model: %s (%d meshes / %d materials / %d textures)",
modelFilePath.c_str(), scene->mNumMeshes, scene->mNumMaterials,
scene->mNumTextures );
} else {
LOG_SL(LOG_SECTION_MODEL, L_ERROR, "Model Import: %s",
importer.GetErrorString());
}
SAssModel* model = new SAssModel;
model->name = modelFilePath;
model->type = MODELTYPE_ASS;
model->scene = scene;
//model->meta = &metaTable;
//! Gather per mesh info
CalculatePerMeshMinMax(model);
//! Assign textures
//! The S3O texture handler uses two textures.
//! The first contains diffuse color (RGB) and teamcolor (A)
//! The second contains glow (R), reflectivity (G) and 1-bit Alpha (A).
if (metaTable.KeyExists("tex1")) {
model->tex1 = metaTable.GetString("tex1", "default.png");
} else {
//! Search for a texture
std::vector<std::string> files = CFileHandler::FindFiles("unittextures/", modelName + ".*");
for(std::vector<std::string>::iterator fi = files.begin(); fi != files.end(); ++fi) {
model->tex1 = FileSystem::GetFilename(*fi);
break; //! there can be only one!
}
}
if (metaTable.KeyExists("tex2")) {
model->tex2 = metaTable.GetString("tex2", "");
} else {
//! Search for a texture
std::vector<std::string> files = CFileHandler::FindFiles("unittextures/", modelName + "2.*");
for(std::vector<std::string>::iterator fi = files.begin(); fi != files.end(); ++fi) {
model->tex2 = FileSystem::GetFilename(*fi);
break; //! there can be only one!
}
}
model->flipTexY = metaTable.GetBool("fliptextures", true); //! Flip texture upside down
model->invertTexAlpha = metaTable.GetBool("invertteamcolor", true); //! Reverse teamcolor levels
//! Load textures
LOG_S(LOG_SECTION_MODEL, "Loading textures. Tex1: '%s' Tex2: '%s'",
model->tex1.c_str(), model->tex2.c_str());
texturehandlerS3O->LoadS3OTexture(model);
//! Load all pieces in the model
LOG_S(LOG_SECTION_MODEL, "Loading pieces from root node '%s'",
scene->mRootNode->mName.data);
LoadPiece(model, scene->mRootNode, metaTable);
//! Update piece hierarchy based on metadata
BuildPieceHierarchy( model );
//! Simplified dimensions used for rough calculations
model->radius = metaTable.GetFloat("radius", model->radius);
model->height = metaTable.GetFloat("height", model->height);
model->relMidPos = metaTable.GetFloat3("midpos", model->relMidPos);
model->mins = metaTable.GetFloat3("mins", model->mins);
model->maxs = metaTable.GetFloat3("maxs", model->maxs);
//! Calculate model dimensions if not set
if (!metaTable.KeyExists("mins") || !metaTable.KeyExists("maxs")) CalculateMinMax( model->rootPiece );
if (model->radius < 0.0001f) CalculateRadius( model );
if (model->height < 0.0001f) CalculateHeight( model );
//! Verbose logging of model properties
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->name: %s", model->name.c_str());
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->numobjects: %d", model->numPieces);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->radius: %f", model->radius);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->height: %f", model->height);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->mins: (%f,%f,%f)", model->mins[0], model->mins[1], model->mins[2]);
LOG_SL(LOG_SECTION_MODEL, L_DEBUG, "model->maxs: (%f,%f,%f)", model->maxs[0], model->maxs[1], model->maxs[2]);
LOG_S(LOG_SECTION_MODEL, "Model %s Imported.", model->name.c_str());
return model;
}
void CArchiveScanner::ScanArchive(const std::string& fullName, bool doChecksum)
{
const std::string fn = FileSystem::GetFilename(fullName);
const std::string fpath = FileSystem::GetDirectory(fullName);
const std::string lcfn = StringToLower(fn);
// Cache variables
std::map<std::string, ArchiveInfo>::iterator aii;
bool cached = false;
// Stat file
struct stat info = {0};
int statfailed = stat(fullName.c_str(), &info);
// If stat fails, assume the archive is not broken nor cached
if (!statfailed) {
// Determine whether this archive has earlier be found to be broken
std::map<std::string, BrokenArchive>::iterator bai = brokenArchives.find(lcfn);
if (bai != brokenArchives.end()) {
if ((unsigned)info.st_mtime == bai->second.modified && fpath == bai->second.path) {
bai->second.updated = true;
return;
}
}
// Determine whether to rely on the cached info or not
if ((aii = archiveInfos.find(lcfn)) != archiveInfos.end()) {
// This archive may have been obsoleted, do not process it if so
if (aii->second.replaced.length() > 0) {
return;
}
if ((unsigned)info.st_mtime == aii->second.modified && fpath == aii->second.path) {
cached = true;
aii->second.updated = true;
}
// If we are here, we could have invalid info in the cache
// Force a reread if it is a directory archive (.sdd), as
// st_mtime only reflects changes to the directory itself,
// not the contents.
if (!cached) {
archiveInfos.erase(aii);
}
}
}
// Time to parse the info we are interested in
if (cached) {
// If cached is true, aii will point to the archive
if (doChecksum && (aii->second.checksum == 0))
aii->second.checksum = GetCRC(fullName);
} else {
IArchive* ar = archiveLoader.OpenArchive(fullName);
if (!ar || !ar->IsOpen()) {
LOG("Unable to open archive: %s", fullName.c_str());
return;
}
ArchiveInfo ai;
std::string error;
std::string mapfile;
const bool hasModinfo = ar->FileExists("modinfo.lua");
const bool hasMapinfo = ar->FileExists("mapinfo.lua");
// check for smf/sm3 and if the uncompression of important files is too costy
for (unsigned fid = 0; fid != ar->NumFiles(); ++fid) {
std::string name;
int size;
ar->FileInfo(fid, name, size);
const std::string lowerName = StringToLower(name);
const std::string ext = FileSystem::GetExtension(lowerName);
if ((ext == "smf") || (ext == "sm3")) {
mapfile = name;
}
const unsigned char metaFileClass = GetMetaFileClass(lowerName);
if ((metaFileClass != 0) && !(ar->HasLowReadingCost(fid))) {
// is a meta-file and not cheap to read
if (metaFileClass == 1) {
// 1st class
error = "Unpacking/reading cost for meta file " + name
+ " is too high, please repack the archive (make sure to use a non-solid algorithm, if applicable)";
break;
} else if (metaFileClass == 2) {
// 2nd class
LOG_SL(LOG_SECTION_ARCHIVESCANNER, L_WARNING,
"Archive %s: The cost for reading a 2nd-class meta-file is too high: %s",
fullName.c_str(), name.c_str());
}
}
}
/*
if (!error.empty()) {
// we already have an error, no further evaluation required
}
*/
if (hasMapinfo || !mapfile.empty()) {
// it is a map
if (hasMapinfo) {
ScanArchiveLua(ar, "mapinfo.lua", ai, error);
} else if (hasModinfo) {
// backwards-compat for modinfo.lua in maps
ScanArchiveLua(ar, "modinfo.lua", ai, error);
}
if (ai.archiveData.GetName().empty()) {
// FIXME The name will never be empty, if version is set (see HACK in ArchiveData)
ai.archiveData.SetInfoItemValueString("name_pure", FileSystem::GetBasename(mapfile));
ai.archiveData.SetInfoItemValueString("name", FileSystem::GetBasename(mapfile));
}
if (ai.archiveData.GetMapFile().empty()) {
ai.archiveData.SetInfoItemValueString("mapfile", mapfile);
}
AddDependency(ai.archiveData.GetDependencies(), "Map Helper v1");
ai.archiveData.SetInfoItemValueInteger("modType", modtype::map);
LOG_S(LOG_SECTION_ARCHIVESCANNER, "Found new map: %s",
ai.archiveData.GetNameVersioned().c_str());
} else if (hasModinfo) {
// it is a mod
ScanArchiveLua(ar, "modinfo.lua", ai, error);
if (ai.archiveData.GetModType() == modtype::primary) {
AddDependency(ai.archiveData.GetDependencies(), "Spring content v1");
}
LOG_S(LOG_SECTION_ARCHIVESCANNER, "Found new game: %s",
ai.archiveData.GetNameVersioned().c_str());
} else {
// neither a map nor a mod: error
error = "missing modinfo.lua/mapinfo.lua";
}
delete ar;
if (!error.empty()) {
// for some reason, the archive is marked as broken
LOG_L(L_WARNING, "Failed to scan %s (%s)",
fullName.c_str(), error.c_str());
// record it as broken, so we don't need to look inside everytime
BrokenArchive ba;
ba.path = fpath;
ba.modified = info.st_mtime;
ba.updated = true;
ba.problem = error;
brokenArchives[lcfn] = ba;
return;
}
ai.path = fpath;
ai.modified = info.st_mtime;
ai.origName = fn;
ai.updated = true;
// Optionally calculate a checksum for the file
// To prevent reading all files in all directory (.sdd) archives
// every time this function is called, directory archive checksums
// are calculated on the fly.
if (doChecksum) {
ai.checksum = GetCRC(fullName);
} else {
ai.checksum = 0;
}
archiveInfos[lcfn] = ai;
}
}