bool solidShapesFromURDFString(const std::string & urdf_string,
const std::string & urdf_filename,
const Model & model,
const std::string urdfGeometryType,
iDynTree::ModelSolidShapes & output)
{
if (urdfGeometryType != "visual" && urdfGeometryType != "collision")
{
std::cerr << "[ERROR] unknown urdfGeometryType " << urdfGeometryType << std::endl;
return false;
}
ModelLoader loader;
ModelParserOptions options;
options.originalFilename = urdf_filename;
loader.setParsingOptions(options);
bool ok = loader.loadModelFromString(urdf_string);
if (ok && urdfGeometryType == "visual")
{
output = loader.model().visualSolidShapes();
}
if (ok && urdfGeometryType == "collision")
{
output = loader.model().collisionSolidShapes();
}
return ok;
}
bool solidShapesFromURDF(const std::string & urdf_filename,
const Model & model,
const std::string urdfGeometryType,
ModelSolidShapes & output)
{
if (urdfGeometryType != "visual" && urdfGeometryType != "collision")
{
std::cerr << "[ERROR] unknown urdfGeometryType " << urdfGeometryType << std::endl;
return false;
}
ModelLoader loader;
bool ok = loader.loadModelFromFile(urdf_filename);
if (ok && urdfGeometryType == "visual")
{
output = loader.model().visualSolidShapes();
}
if (ok && urdfGeometryType == "collision")
{
output = loader.model().collisionSolidShapes();
}
return ok;
}
void Obj::load(string filename)
{
this->name = filename;
ModelLoader m;
m.load_obj(filename, this);
}
SensorsList getSensors(const std::string& fileName)
{
ModelLoader loader;
bool ok = loader.loadModelFromFile(fileName);
// Load model
ASSERT_IS_TRUE(ok);
SensorsList sensorList = loader.sensors();
return sensorList;
}
Model getModel(const std::string& fileName)
{
ModelLoader loader;
bool ok = loader.loadModelFromFile(fileName);
// Load model
ASSERT_IS_TRUE(ok);
Model model = loader.model();
return model;
}
void Object::readFromFile(const char *filename) {
ModelLoader loader = *new ModelLoader();
loader.read_from_file(filename);
vertices_counter = loader.vertexs_counter;
indices_counter = loader.indexes_counter;
vertices_array = loader.vertexes_out;
indices_array = loader.indexes;
}
Object::Object()
{
try
{
position = { { 0., 0., 0. }, 0., 0., -1, 0, 0, false };
scale = .1f;
ModelLoader modelLoader;
model = modelLoader.ReadModel("resources\\objects\\Captain America.obj", "resources\\objects\\Captain America.mtl");
if (!model)
{
throw "Can't load player's geometry";
}
else
{
boundingBox.isShowing = false;
calculateSizes();
glGenBuffers(1, &tid);
glBindBuffer(GL_ARRAY_BUFFER, tid);
glBufferData(GL_ARRAY_BUFFER, model->UV_vertices.size()*sizeof(float), NULL, GL_STATIC_DRAW);
glBufferSubData(GL_ARRAY_BUFFER, 0, model->UV_vertices.size()*sizeof(float), &model->UV_vertices[0]);
glBindBuffer(GL_ARRAY_BUFFER, 0);
glGenBuffers(1, &nid);
glBindBuffer(GL_ARRAY_BUFFER, nid);
glBufferData(GL_ARRAY_BUFFER, model->normals.size()*sizeof(float), NULL, GL_STATIC_DRAW);
glBufferSubData(GL_ARRAY_BUFFER, 0, model->normals.size()*sizeof(float), &model->normals[0]);
glBindBuffer(GL_ARRAY_BUFFER, 0);
glGenBuffers(1, &vid);
glBindBuffer(GL_ARRAY_BUFFER, vid);
glBufferData(GL_ARRAY_BUFFER, model->vertices.size()*sizeof(float), NULL, GL_STATIC_DRAW);
glBufferSubData(GL_ARRAY_BUFFER, 0, model->vertices.size()*sizeof(float), &model->vertices[0]);
glBindBuffer(GL_ARRAY_BUFFER, 0);
glGenBuffers(1, &bbvid);
glBindBuffer(GL_ARRAY_BUFFER, bbvid);
glBufferData(GL_ARRAY_BUFFER, 72 * sizeof(float), NULL, GL_STATIC_DRAW);
glBufferSubData(GL_ARRAY_BUFFER, 0, 72 * sizeof(float), &boundingBox.coords[0]);
glBindBuffer(GL_ARRAY_BUFFER, 0);
}
}
catch (const char* error)
{
model = NULL;
std::cout << error << std::endl;
}
}
bool Model :: Load(std :: string name,ModelLoader &loader,Texture &tex)
{
// attempt to load the file
if(!loader.Load(name))
return false;
// do we have to clean up?
if(frames)
this->Clear();
// get the model information
int modelframes=loader.GetNumFrames();
int nummeshes=loader.GetNumMeshes();
float modelfps=(float)loader.GetFPS();
// tidy up the values
if(modelframes<=0)
return false;
if(modelfps==0.0f)
modelfps=1.0f;
// and setup our model
if(!this->Setup(modelframes,modelfps))
return false;
// now set up the frames
for(int ct=0; ct<numframes; ct++)
{
// setup the frame
if(!frames[ct].Setup(nummeshes))
{
this->Clear();
return false;
}
// add the meshes
for(int ct2=0; ct2<nummeshes; ct2++)
{
Mesh msh; // temporary mesh
// get the mesh
if(!loader.Get(ct,ct2,&tex,&msh))
return false;
// and set it to the frame
frames[ct].SetMesh(ct2,msh);
}
}
// success
return true;
}
Scene* makeScene(){
ModelLoader loader;
Object* o = loader.load("teapot.obj", true);
o->setDrawMode( GL_TRIANGLES );// Render mode: triangluar mesh
o->glSetTexture(0, "test0.png");// Texture
o->glSetTexture(1, pSkyTech->getTexture() ); // Environment map.
o->glSetTexture(2, pShadowTarget->getColorTexture() ); // Blurred shadows-only image. for soft-shadows.
o->glSetTexture(3, pShadowsHV->getColorTexture() );
o->glSetTexture(0, new Texture( GL_TEXTURE_2D, pCube->getTexture() ) );
Scene* sc = new Scene();
sc->addObject(o);
return sc;
}
//----------------------------------------------------------------------------------
//
//----------------------------------------------------------------------------------
void EffectImplemented::UnloadResources()
{
Setting* loader = GetSetting();
TextureLoader* textureLoader = loader->GetTextureLoader();
if( textureLoader != NULL )
{
for( int32_t ind = 0; ind < m_ImageCount; ind++ )
{
textureLoader->Unload( m_pImages[ind] );
m_pImages[ind] = NULL;
}
for (int32_t ind = 0; ind < m_normalImageCount; ind++)
{
textureLoader->Unload(m_normalImages[ind]);
m_normalImages[ind] = NULL;
}
for (int32_t ind = 0; ind < m_distortionImageCount; ind++)
{
textureLoader->Unload(m_distortionImages[ind]);
m_distortionImages[ind] = NULL;
}
}
SoundLoader* soundLoader = loader->GetSoundLoader();
if( soundLoader != NULL )
{
for( int32_t ind = 0; ind < m_WaveCount; ind++ )
{
soundLoader->Unload( m_pWaves[ind] );
m_pWaves[ind] = NULL;
}
}
{
ModelLoader* modelLoader = loader->GetModelLoader();
if( modelLoader != NULL )
{
for( int32_t ind = 0; ind < m_modelCount; ind++ )
{
modelLoader->Unload( m_pModels[ind] );
m_pModels[ind] = NULL;
}
}
}
}
// Carga un ResourceMesh y guarda una referencia a este
ResourceMesh* ResourceManager::loadMesh(const char* filePath)
{
ResourceMesh* mesh = NULL;
ModelLoader* modelLoader = new ModelLoader();
mesh = modelLoader->loadOBJ(filePath);
// Si hay algun problema con el modelo cargamos uno de error por defecto
if (mesh == NULL)
{
mesh = modelLoader->loadOBJ(Resources::MESH_ERROR);
}
mesh->fileName = filePath; //guardamos el filePath
return mesh;
}
void MyGLWindow::InitModels()
{
Chrono chrono;
// load models
ModelLoader modelLoader;
chrono.start();
_actorLib["Tank"] = modelLoader.LoadFromFile("./data/model/stankbot/models/stankbot.dae");
_actorLib["Tank"]->SetShaderProgram(_shaderProgLib["defaultShader"]);
std::cout << "Load stankbot (ms) : " << chrono.ellapsed() << std::endl;
chrono.start();
_actorLib["Dragon"] = modelLoader.LoadFromFile("./data/model/dragon_vrip_res3.ply");
_actorLib["Dragon"]->SetShaderProgram(_shaderProgLib["defaultShader"]);
std::cout << "Load dragon (ms) : " << chrono.ellapsed() << std::endl;
}
TexturedModel::TexturedModel(Model model, std::vector<glm::vec2> uvs, GLuint textureID) {
this->setVaoID(model.getVaoID());
this->setVerticesVboID(model.getVerticesVboID());
this->setVertexCount(model.getVertexCount());
this->setScale(model.getScale());
this->setPosition(model.getPosition());
this->setTextured(true);
ModelLoader modelLoader = ModelLoader();
GLfloat *uvsTemp = &uvs[0].x;
int uvsSize = uvs.size() * 2 * sizeof(GLfloat);
this->uvVboID = modelLoader.storeData(2, uvsTemp, uvsSize);
this->setColor(false);
this->setColorsVboID(model.getColorsVboID());
}
/* Asking user if he would like to save his model */
void saveResults(NNModel* model){
cout << endl << "Would you like to save this model? (Press y/n)";
/* Wait for y or n click*/
char key = ' ';
do{
key = _getch();
} while ((key != 'n') && (key != 'y'));
/* Saving model if needed */
if (key == 'y'){
cout << endl << endl << endl;
string fileName;
cout << "--Enter file name: "; cin >> fileName;
ModelLoader m;
m.saveModel(model, (char*)fileName.c_str());
}
GLWidget::GLWidget(const QGLFormat & format, QWidget * parent) : QGLWidget(format, parent),
mShaderProgram(this),
mViewMatrix(),
mProjectionMatrix(){
float ratio = float(geometry().width())/float(geometry().height());
mProjectionMatrix.perspective(60, ratio, .1, 100); // ortho(-5,5,-5,5,-5,5);//Orthogonal projection
mViewMatrix.translate(0.0,0.0,-10.0);
ModelLoader* loader = ModelFactory::getModelLoader("models/monkey.obj");
if(loader != NULL){
objTest = (StaticModel*)loader->loadModel();
}
objTest->mModelMatrix.translate(0,0,0);
delete loader;
manip = new SphereManipulator("cube manipulator", objTest);
this->grabKeyboard();
}
void display()
{
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);
glLoadIdentity();
gluLookAt( 0,0,30, 0,0,0, 0,1,0);
glPushMatrix();
glRotatef(g_rotation,0,1,0);
g_rotation += 0.5f;
obj.draw();
glPopMatrix();
glutSwapBuffers();
}
void LightSources::loadModel(QString ex_path)
{
ModelLoader model;
bool res = model.loadObjectFromFile(ex_path.toStdString());//ex_path.toStdString());
if (res) {
// Frage zu erwartende Array-Laeangen ab
vboLength = model.lengthOfVBO();
iboLength = model.lengthOfIndexArray();
// Generiere VBO und Index-Array
vboData = new GLfloat[vboLength];
indexData = new GLuint[iboLength];
model.genVBO(vboData,0,true,true);
model.genIndexArray(indexData);
}
vbo = new QOpenGLBuffer(QOpenGLBuffer::VertexBuffer);
ibo = new QOpenGLBuffer(QOpenGLBuffer::IndexBuffer);
vbo->create();
vbo->bind();
vbo->setUsagePattern(QOpenGLBuffer::StaticDraw);
vbo->allocate(vboData, sizeof(GLfloat) * vboLength); // modelloader
vbo->release();
ibo->create();
ibo->bind();
ibo->setUsagePattern(QOpenGLBuffer::StaticDraw);
ibo->allocate(indexData, sizeof(GLuint) * iboLength); // modelloader
ibo->release();
}
void MyGLWidget::loadModel()
{
// Lade Model aus Datei:
ModelLoader model ;
bool res = model.loadObjectFromFile("P3_models/sphere_low.obj");
// Wenn erfolgreich, generiere VBO und Index-Array
if (res) {
// Frage zu erwartende Array-Längen ab
//vboLength = model.lengthOfSimpleVBO();
vboLength = model.lengthOfVBO(0,false,true);
iboLength = model.lengthOfIndexArray();
// Generiere VBO und Index-Array
vboData = new GLfloat[vboLength];
indexData = new GLuint[iboLength];
//model.genSimpleVBO(vboData);
model.genVBO(vboData,0,false,true); // With textures
model.genIndexArray(indexData);
}
else {
// Modell konnte nicht geladen werden
assert(0) ;
}
}
void trainingMode(){
/* ********************* Interface part **********************/
/* ********************* **** ************** **** **********************/
cout << endl << endl;
cout << " ================== Training mode =============" << endl;
cout << " == Enter number of training examples: "; cin >> numTrainingExamples;
cout << " == Enter number of LBFGS iterations: " ; cin >> numLbfgsIterations;
cout << " == Enter lambda: " ; cin >> lambda;
/* Checking if input is valid */
if (numTrainingExamples > 40000) numTrainingExamples = 40000;
if (numTrainingExamples <= 0) numTrainingExamples = 150;
if (numLbfgsIterations < 1) numLbfgsIterations = 5;
/* Reading model */
//NNModel* model = readModel();
ModelLoader l;
NNModel* model = l.loadModel("modelL56.nn");
trainModel(model);
}
BasicModel::BasicModel(ID3D11Device* device, const ModelLoader& modelLoader) :
texture_(device, "red-ball-graphics/src/main/resources/seafloor.dds"),
samplerState_(device),
vertexCount_(modelLoader.indices()->size())
{
assert(vertexCount_ > 0);
D3D11_BUFFER_DESC vertexBufferDesc;
ZeroMemory(&vertexBufferDesc, sizeof(vertexBufferDesc));
vertexBufferDesc.BindFlags = D3D11_BIND_VERTEX_BUFFER;
vertexBufferDesc.ByteWidth = modelLoader.vertices()->size() * sizeof(Vertex);
vertexBufferDesc.Usage = D3D11_USAGE_DEFAULT;
D3D11_SUBRESOURCE_DATA vertexBufferData;
ZeroMemory(&vertexBufferData, sizeof(vertexBufferData));
vertexBufferData.pSysMem = &modelLoader.vertices()->front();
check(
device->CreateBuffer(&vertexBufferDesc, &vertexBufferData, &vertexBuffer_.get()),
"CreateBuffer failed for vertex buffer"
);
D3D11_BUFFER_DESC indexBufferDesc;
ZeroMemory(&indexBufferDesc, sizeof(indexBufferDesc));
indexBufferDesc.BindFlags = D3D11_BIND_INDEX_BUFFER;
indexBufferDesc.ByteWidth = modelLoader.indices()->size() * sizeof(unsigned long);
indexBufferDesc.Usage = D3D11_USAGE_DEFAULT;
D3D11_SUBRESOURCE_DATA indexBufferData;
ZeroMemory(&indexBufferData, sizeof(indexBufferData));
indexBufferData.pSysMem = &modelLoader.indices()->front();
check(
device->CreateBuffer(&indexBufferDesc, &indexBufferData, &indexBuffer_.get()),
"CreateBuffer failed for index buffer"
);
}
int main(int argc, char** argv) {
init(argc, argv, "JointUpdateNode");
NodeHandle nh;
// get the filenames
nh.param(string("joint_offsets_filename_suffix"), jointOffsetsFilename,
string("calibration_joint_offsets.xacro"));
nh.param(string("camera_transform_filename_suffix"),
cameraTransformFilename,
string("calibration_camera_transform.xacro"));
nh.param(string("urdf_filename_suffix"), urdfFilename,
string("robot_model_calibrated.xml"));
nh.param(string("marker_transforms_filename_suffix"),
markerTransformsFilename,
string("calibration_marker_transformations.xacro"));
nh.param(string("camera_intrnsics_filename"), cameraIntrnsicsFilename,
string("nao_bottom_640x480.yaml"));
ModelLoader modelLoader;
modelLoader.initializeFromRos();
urdf::Model model;
modelLoader.getUrdfModel(model);
// get the robot name and prepend to the filenames
string filePrefix = model.getName();
jointOffsetsFilename = filePrefix + "_" + jointOffsetsFilename;
cameraTransformFilename = filePrefix + "_" + cameraTransformFilename;
urdfFilename = filePrefix + "_" + urdfFilename;
markerTransformsFilename = filePrefix + "_" + markerTransformsFilename;
Subscriber sub = nh.subscribe("/onlineCalibration/calibration_result",
1, resultCb);
spin();
return 0;
}
int main(int argc, char **argv)
{
// set window values
win.width = 640;
win.height = 480;
win.title = "OBJ Viewer Service";
win.field_of_view_angle = 45;
win.z_near = 1.0f;
win.z_far = 500.0f;
// initialize and run program
glutInit(&argc, argv);
glutInitDisplayMode(GLUT_RGB | GLUT_SINGLE | GLUT_DEPTH );
glutInitWindowSize(win.width,win.height);
glutCreateWindow(win.title.c_str());
glutDisplayFunc(display);
glutIdleFunc( display );
glutKeyboardFunc( keyboard );
initialize();
obj.loadFromFile("../models", "neuron.obj");
glutMainLoop();
return 0;
}
//----------------------------------------------------------------------------------
//
//----------------------------------------------------------------------------------
void EffectImplemented::ReloadResources( const EFK_CHAR* materialPath )
{
UnloadResources();
const EFK_CHAR* matPath = materialPath != NULL ? materialPath : m_materialPath.c_str();
Setting* loader = GetSetting();
{
TextureLoader* textureLoader = loader->GetTextureLoader();
if( textureLoader != NULL )
{
for( int32_t ind = 0; ind < m_ImageCount; ind++ )
{
EFK_CHAR fullPath[512];
PathCombine( fullPath, matPath, m_ImagePaths[ ind ] );
m_pImages[ind] = textureLoader->Load( fullPath, TextureType::Color );
}
}
}
{
TextureLoader* textureLoader = loader->GetTextureLoader();
if (textureLoader != NULL)
{
for (int32_t ind = 0; ind < m_normalImageCount; ind++)
{
EFK_CHAR fullPath[512];
PathCombine(fullPath, matPath, m_normalImagePaths[ind]);
m_normalImages[ind] = textureLoader->Load(fullPath, TextureType::Normal);
}
}
}
{
TextureLoader* textureLoader = loader->GetTextureLoader();
if (textureLoader != NULL)
{
for (int32_t ind = 0; ind < m_distortionImageCount; ind++)
{
EFK_CHAR fullPath[512];
PathCombine(fullPath, matPath, m_distortionImagePaths[ind]);
m_distortionImages[ind] = textureLoader->Load(fullPath, TextureType::Distortion);
}
}
}
{
SoundLoader* soundLoader = loader->GetSoundLoader();
if( soundLoader != NULL )
{
for( int32_t ind = 0; ind < m_WaveCount; ind++ )
{
EFK_CHAR fullPath[512];
PathCombine( fullPath, matPath, m_WavePaths[ ind ] );
m_pWaves[ind] = soundLoader->Load( fullPath );
}
}
}
{
ModelLoader* modelLoader = loader->GetModelLoader();
if( modelLoader != NULL )
{
for( int32_t ind = 0; ind < m_modelCount; ind++ )
{
EFK_CHAR fullPath[512];
PathCombine( fullPath, matPath, m_modelPaths[ ind ] );
m_pModels[ind] = modelLoader->Load( fullPath );
}
}
}
}
int main(int argc, char** argv)
{
if (argc == 3 && strncmp(argv[1], "--convert", 9) == 0)
{
Configuration* config = new IniConfig(argv[2]);
Heightmap* map = new Heightmap(config->getFloatValue("terrain","spacing"));
if (map->loadFromImage(config->getValue("terrain","heightmap").c_str()))
{
std::cout << "Generating Terrain.." << std::endl;
TerrainGenerator(map, config->getIntValue("terrain","chunksize"), config->getValue("out","filename").c_str());
std::cout << "..done" << std::endl;
std::cout.flush();
}
else
std::cout << "Generation failed." << std::endl;
return 0;
}
if (argc == 4 && strncmp(argv[1], "--load", 6) == 0)
{
int id = atoi(argv[3]);
TerrainFileReader* reader = new TerrainFileReader();
reader->openFile(argv[2]);
TerrainChunk* tc = reader->readId(id);
if (tc == NULL || tc->getInfo()->getQuadId() != id)
{
std::cout << "Got ID" << tc->getInfo()->getQuadId()
<< " instead of " << id << std::endl;
return 1;
}
else
{
std::cout << "Successfully got Terrainchunk " << id << std::endl;
std::cout << "Spacing of Heightmap is "
<< tc->getHeightmap()->getSpacing() << " where origin is "
<< tc->getOrigin().x << "," << tc->getOrigin().y << " and center at "
<< tc->getCenter().x << "," << tc->getCenter().y << std::endl;
}
reader->closeFile();
delete tc;
delete reader;
}
if (argc != 2 || strncmp(argv[1], "--run", 5) != 0)
{
std::cout << "Usage of '" << argv[0] << "'" <<std::endl;
std::cout << "\nAvailable Parameter:"
<< "\n\t--convert terrain.desc"
<< "\n\t--load terrain.terr chunkid(=0)"
<< "\n\t--run" << std::endl;
return 1;
}
int width, height;
Configuration * win_config = new IniConfig("config.ini");
WindowHints* hints = new WindowHints();
hints->Fullscreen = win_config->getBooleanValue("Window","fullscreen");
hints->Width = win_config->getIntValue("Window","width");
hints->Height = win_config->getIntValue("Window","height");
GraphicsSystem* GSystem = new GraphicsSystem(GraphicsSystem::PROFILE_GL3,
hints);
if (GSystem->isError())
return -1;
GraphicsContext* grctx = GSystem->getGraphicsContext();
Window* win = GSystem->getWindow();
TextureManager* tmgr = new TextureManager(grctx);
ModelLoader* mmgr = new ModelLoader(grctx, tmgr);
TerrainManager* terrmgr = new TerrainManager(grctx);
Model* mdl, *mdl2;
Camera* cam = new Camera();
win->getSize(&width, &height);
cam->setScreen(width,height);
cam->setupLens(65.0f, 1.0f, 1000.0f);
if ((mdl = mmgr->loadAsset("Resources/Models/ant01.ms3d")) == NULL)
std::cerr << "Could not load Model" << std::endl;
if ((mdl2 = mmgr->loadAsset("Resources/Models/dwarf1.ms3d")) == NULL)
std::cerr << "Could not load Model" << std::endl;
ModelAnimationController mdlanictrl(mdl), mdlanictrl2(mdl2);
mdlanictrl.addAnimation("idle", 52, 67, 0.25f, true);
mdlanictrl.addAnimation("die", 30, 49, 0.25f, false);
mdlanictrl2.addAnimation("begin_walk", 1, 2, 0.25f, false, "walk");
mdlanictrl2.addAnimation("walk", 2, 14, 0.25f, true);
mdlanictrl2.addAnimation("jump", 28, 40, 0.5f, false, "begin_walk");
mdlanictrl2.addAnimation("idle", 292, 325, 0.25f, false, "idle2");
mdlanictrl2.addAnimation("idle2", 327, 360, 0.25f, true);
mdlanictrl2.addAnimation("die", 230, 251, 0.25f, false);
std::cout << "Using DesktopMode: " << width << "x" << height << std::endl;
win->setTitle("Xng?! -> Yeah!");
Shader* sh = grctx->createShader();
if (!sh->loadFromFile("Shader/Animation.vs", "Shader/Animation.fs"))
return 1;
Shader* tsh = grctx->createShader();
if (!tsh->loadFromFile("Shader/Terrain.vs", "Shader/Terrain.fs"))
return 1;
Timer* t = new Timer();
double frames = 0;
grctx->setClearColor(glm::vec4(1.0f, 0.5f, 0.25f, 1.0f));
t->start();
Terrain* terr = terrmgr->loadAsset("Resources/terrain/terrain.terr");
terr->setDetail(0.05f,cam);
glm::mat4 mdlm = glm::scale(
glm::translate(glm::mat4(1.0f), glm::vec3(5.0f, -5.0f, -20.0f)),
glm::vec3(0.5f));
glm::mat4 mdlm2 = glm::scale(
glm::translate(glm::mat4(1.0f), glm::vec3(-5.0f, -5.0f, -20.0f)),
glm::vec3(0.18f));
mdlm = glm::rotate(mdlm, 180.0f, glm::vec3(0.0f, 1.0f, 0.0f));
mdlm2 = glm::rotate(mdlm2, 180.0f, glm::vec3(0.0f, 1.0f, 0.0f));
glm::vec3 cam_pos = glm::vec3(0.0f,0.0f,0.0f);
glm::quat cam_orient = glm::quat();
float speed = 0.0f;
float deltaTime = 0;
float second = t->getMilli();
float lastTime = second;
while (win->isOpen())
{
second = t->getMilli();
deltaTime = second - lastTime;
lastTime = second;
if (glfwGetKey(GLFW_KEY_ESC))
break;
if (glfwGetKey(GLFW_KEY_SPACE))
mdlanictrl2.setActiveAnimation("jump");
if (glfwGetKey('W'))
mdlanictrl2.setActiveAnimation("begin_walk");
if (glfwGetKey('S'))
mdlanictrl2.setActiveAnimation("idle");
if (glfwGetKey('F'))
mdlanictrl.setActiveAnimation("die");
if (glfwGetKey('G'))
mdlanictrl2.setActiveAnimation("die");
if (glfwGetKey('A'))
mdlm2 = glm::rotate(mdlm2, -0.3f, glm::vec3(0.0f, 1.0f, 0.0f));
if (glfwGetKey('D'))
mdlm2 = glm::rotate(mdlm2, 0.3f, glm::vec3(0.0f, 1.0f, 0.0f));
if( glfwGetKey(GLFW_KEY_LSHIFT) || glfwGetKey(GLFW_KEY_RSHIFT))
speed = 1.0f;
else speed = 0.1f;
if (glfwGetKey('I'))
cam_pos += glm::cross(cam->getUpVector(),cam->getRightVector()) * speed * deltaTime;
if (glfwGetKey('K'))
cam_pos -= glm::cross(cam->getUpVector(),cam->getRightVector()) * speed * deltaTime;
if (glfwGetKey('J'))
cam_pos -= cam->getRightVector() * speed * deltaTime;
if (glfwGetKey('L'))
cam_pos += cam->getRightVector() * speed * deltaTime;
if (glfwGetKey('O'))
cam_pos += cam->getUpVector() * speed * deltaTime;
if (glfwGetKey('P'))
cam_pos -= cam->getUpVector() * speed * deltaTime;
if(glfwGetKey(GLFW_KEY_LEFT))
cam_orient = glm::rotate(cam_orient,speed * deltaTime,glm::vec3(0.0f,1.0f,0.0f));
if(glfwGetKey(GLFW_KEY_RIGHT))
cam_orient =glm::rotate(cam_orient,-speed * deltaTime,glm::vec3(0.0f,1.0f,0.0f));
if(glfwGetKey(GLFW_KEY_UP))
cam_orient = glm::rotate(cam_orient,speed * deltaTime,glm::vec3(1.0f,0.0f,0.0f));
if(glfwGetKey(GLFW_KEY_DOWN))
cam_orient = glm::rotate(cam_orient,-speed * deltaTime,glm::vec3(1.0f,0.0f,0.0f));
cam_pos.y = terr->getHeightAt(cam_pos.x,cam_pos.z) + 5;
cam->setPosition(cam_pos);
cam->setOrientation(cam_orient);
mdlanictrl.update(deltaTime);
mdlanictrl2.update(deltaTime);
grctx->clearDisplay();
grctx->setShader(sh);
grctx->setProjectionMatrix(cam->getLens());
grctx->setViewMatrix(cam->getView());
grctx->setModelMatrix(&mdlm);
for (int i = 0; i < mdl->getNumMeshes(); i++)
{
grctx->setMesh(mdl->getMesh(i));
grctx->setMaterial(mdl->getMaterial(mdl->getMesh(i)->getMaterialId()));
grctx->setBoneTransformation(mdlanictrl.getBoneTransformation(), mdlanictrl.getNumBones());
grctx->draw();
}
grctx->setModelMatrix(&mdlm2);
for (int i = 0; i < mdl2->getNumMeshes(); i++)
{
grctx->setMesh(mdl2->getMesh(i));
grctx->setMaterial(mdl2->getMaterial(mdl2->getMesh(i)->getMaterialId()));
grctx->setBoneTransformation(mdlanictrl2.getBoneTransformation(), mdlanictrl2.getNumBones());
grctx->draw();
}
grctx->setShader(tsh);
grctx->setProjectionMatrix(cam->getLens());
grctx->setViewMatrix(cam->getView());
terr->selectNodes(cam);
grctx->swapBuffers();
frames++;
}
t->end();
delete sh;
mmgr->removeAsset("Resources/Models/dwarf1.ms3d");
mmgr->removeAsset("Resources/Models/ant01.ms3d");
std::cout << "TpF: " << t->getLastMilli() / frames << " mspf was " << frames
<< " Frames in " << t->getLastMilli() << "ms or "
<< frames / t->getLastSecond() << "fps" << std::endl;
delete mmgr;
delete tmgr;
delete t;
delete GSystem;
return 0;
}
int main()
{
// Create and initialize window.
setErrorCallbackAndInit(error_callback);
GraphicsWindow* window = new GraphicsWindow(1200,800,"Test Window",NULL,NULL,key_callback);
window->makeContextCurrent();
// Initalize glew.
initGlew();
// Create and initialize Camera
FreeCamera* camera = new FreeCamera(45.0f, 16.0f/9.0f,
0.0f, 0.0f,
0.1f, 10000.0f,
0.0004f, 3.0f,
glm::vec3(0,0,-50),
glm::vec3(0,1,0),
glm::vec3(0,0,0),
true);
camera->setViewport(window->getWindowWidth(),window->getWindowHeight(),0.5f,0.5f);
// Load accumulation shader for accumulating all the transparent matrials, as well as their alphas.
GLSLProgram* defaultShader = new GLSLProgram();
defaultShader->initShaderProgram("Vert.glsl","","","","Frag.glsl");
// Load screen filling quad shader.
GLSLProgram* screenFillingQuadShader = new GLSLProgram();
screenFillingQuadShader->initShaderProgram("screenFillingQuadVert.glsl","","","","screenFillingQuadFrag.glsl");
// Load accumulation shader for accumulating all the transparent matrials, as well as their alphas.
GLSLProgram* accumTransparencyRevealageShader = new GLSLProgram();
accumTransparencyRevealageShader->initShaderProgram("AccumTransparencyRevealageVert.glsl","","","","AccumTransparencyRevealageFrag.glsl");
// Load Weighted Average shader, which will be used for final compositing (a variation of screen filling quad shader using multiple textures).
GLSLProgram* newOITCoverageShader = new GLSLProgram();
newOITCoverageShader->initShaderProgram("NewOITCoverageVert.glsl","","","","NewOITCoverageFrag.glsl");
// Create screen filling quad.
Quad* screenFillingQuad = new Quad(glm::vec3(-1.0,1.0,0), glm::vec3(-1.0,-1.0,0), glm::vec3(1.0,-1.0,0), glm::vec3(1.0,1.0,0), glm::vec3(0), 0, 0, 0);
screenFillingQuad->initQuad();
screenFillingQuad->setGLSLProgram(*newOITCoverageShader);
TextureManager::GetInstance().loadTexture("../Content/Textures/Particle_Smoke/smoke_particle_red_base.png");
TextureManager::GetInstance().loadTexture("../Content/Textures/Particle_Smoke/smoke_particle_grey_base_2.png");
TextureManager::GetInstance().loadTexture("../Content/Textures/Particle_Smoke/smoke_particle_grey_base_3.png");
Quad* quad1 = new Quad(glm::vec3(100+100,100+100,-1), glm::vec3(100+100,-100+100,-1), glm::vec3(-100+100,-100+100,-1), glm::vec3(-100+100,100+100,-1), glm::vec3(0), 10, 10, 0);
quad1->initQuad();
quad1->initDefaultTexture(255,0,0,89);
quad1->setTexture(TextureManager::GetInstance().getTextureHandle("../Content/Textures/Particle_Smoke/smoke_particle_grey_base_3.png"));
Quad* quad2 = new Quad(glm::vec3(100+100,100+100,-20), glm::vec3(100+100,-100+100,-20), glm::vec3(-100+100,-100+100,-20), glm::vec3(-100+100,100+100,-20), glm::vec3(0), 10, 10, 0);
quad2->initQuad();
quad2->initDefaultTexture(0,255,0,89);
quad2->setTexture(TextureManager::GetInstance().getTextureHandle("../Content/Textures/Particle_Smoke/smoke_particle_grey_base_2.png"));
Quad* quad3 = new Quad(glm::vec3(100+100,100+100,20), glm::vec3(100+100,-100+100,20), glm::vec3(-100+100,-100+100,20), glm::vec3(-100+100,100+100,20), glm::vec3(0), 10, 10, 0);
quad3->initQuad();
quad3->initDefaultTexture(0,0,255,89);
quad3->setTexture(TextureManager::GetInstance().getTextureHandle("../Content/Textures/Particle_Smoke/smoke_particle_red_base.png"));
Quad* quad4 = new Quad(glm::vec3(100+100,100+100,-40), glm::vec3(100+100,-100+100,-40), glm::vec3(-100+100,-100+100,-40), glm::vec3(-100+100,100+100,-40), glm::vec3(0), 10, 10, 0);
quad4->initQuad();
quad4->initDefaultTexture(255,0,127,50);
Quad* quad5 = new Quad(glm::vec3(100+100,100+100,40), glm::vec3(100+100,-100+100,40), glm::vec3(-100+100,-100+100,40), glm::vec3(-100+100,100+100,40), glm::vec3(0), 10, 10, 0);
quad5->initQuad();
quad5->initDefaultTexture(255,127,0,50);
ModelLoader* modelImporter = new ModelLoader();
modelImporter->importModel("../Content/Models/crytek-sponza/sponza.obj", processFlagsOnModelImport);
// Create and initialize model
Model* model = new Model(glm::vec3(0,0,0), "../Content/Models/crytek-sponza/");
model->loadModel(modelImporter->getScene());
// Create framebuffers
std::vector<unsigned int> activeColorAttachmentsOpaque;
std::vector<unsigned int> activeColorAttachmentsTransparent;
Framebuffer* opaqueFrameBuffer = new Framebuffer(window->getWindowWidth(),window->getWindowHeight());
activeColorAttachmentsOpaque.push_back(0);
opaqueFrameBuffer->setColorAttachment(0);
//frameBuffer->setDepthAttachment();
opaqueFrameBuffer->setDepthStencilTexture();
opaqueFrameBuffer->unbind();
Framebuffer* accumFrameBuffer = new Framebuffer(window->getWindowWidth(),window->getWindowHeight());
activeColorAttachmentsTransparent.push_back(0);
activeColorAttachmentsTransparent.push_back(1);
accumFrameBuffer->setColorAttachment(0);
accumFrameBuffer->setColorAttachment(1);
//frameBuffer->setDepthAttachment();
accumFrameBuffer->setDepthStencilTexture();
accumFrameBuffer->unbind();
// Additional textures to pass for the second transparency render pass.
std::vector<GLuint> additionalTextureHandles;
additionalTextureHandles.push_back(accumFrameBuffer->getColorAttachment(0));
additionalTextureHandles.push_back(accumFrameBuffer->getColorAttachment(1));
std::vector<GLuint> opaqueTextureHandle;
opaqueTextureHandle.push_back(opaqueFrameBuffer->getColorAttachment(0));
// Move this to "GraphicsWindow"
glfwSetCursorPos(window->getWindowHandle(), (double) (window->getWindowWidth()/2.0), (double) (window->getWindowHeight()/2.0));
// Move this to "Camera"
//glClearColor(0.4f,0.6f,0.94f,0.0f);
glClearColor(0.0f,0.0f,0.0f,0.0f);
const float clearColorWhite = 1.0f;
const float clearColorBlack = 0.0f;
// Sampler
GLuint sampler = 0;
glGenSamplers(1, &sampler);
glSamplerParameteri(sampler, GL_TEXTURE_WRAP_S, GL_REPEAT);
glSamplerParameteri(sampler, GL_TEXTURE_WRAP_T, GL_REPEAT);
glSamplerParameteri(sampler, GL_TEXTURE_MAG_FILTER, GL_NEAREST);
glSamplerParameteri(sampler, GL_TEXTURE_MIN_FILTER, GL_NEAREST);
check_gl_error();
// Render Loop
while(!window->shouldClose())
{
//glClearColor(0.0f,0.0f,0.0f,0.0f);
glClear(GL_COLOR_BUFFER_BIT|GL_DEPTH_BUFFER_BIT);
glEnable(GL_DEPTH_TEST);
glDepthFunc(GL_LEQUAL);
glEnable(GL_CULL_FACE);
glCullFace(GL_BACK);
// Update camera
camera->camControll(window->getWindowHandle());
camera->update();
// Update shader uniforms
model->getCurrentGLSLProgram()->use();
model->getCurrentGLSLProgram()->setUniform("lightPosition", camera->getCamPos());
model->getCurrentGLSLProgram()->setUniform("camPosition", camera->getCamPos());
model->getCurrentGLSLProgram()->setUniform("viewMatrix", camera->getVMatrix());
model->getCurrentGLSLProgram()->setUniform("normalMatrix", camera->getTranspInvMVMatrix()); // Change this!
model->getCurrentGLSLProgram()->setUniform("VPMatrix", camera->getVPMatrix());
opaqueFrameBuffer->clean();
opaqueFrameBuffer->bind();
opaqueFrameBuffer->bindForRenderPass(activeColorAttachmentsOpaque);
model->renderOpaque();
//quad4->render();
//quad5->render();
//opaqueFrameBuffer->unbind();
//// Blitting the opaque scene depth to propperly depth test the transparen against it.
//opaqueFrameBuffer->bindForReading();
//accumFrameBuffer->bindForWriting();
//glBlitFramebuffer(0, 0, window->getWindowWidth(), window->getWindowHeight(), 0, 0, window->getWindowWidth(), window->getWindowHeight(),
// GL_DEPTH_BUFFER_BIT, GL_NEAREST);
//opaqueFrameBuffer->unbind();
//_______________________________________________________________________________________________________________________________________________________________________________
// Acuumulation pass
accumTransparencyRevealageShader->use();
accumTransparencyRevealageShader->setUniform("VPMatrix", camera->getVPMatrix());
model->setGLSLProgram(accumTransparencyRevealageShader);
quad1->setGLSLProgram(*accumTransparencyRevealageShader);
quad2->setGLSLProgram(*accumTransparencyRevealageShader);
quad3->setGLSLProgram(*accumTransparencyRevealageShader);
quad4->setGLSLProgram(*accumTransparencyRevealageShader);
quad5->setGLSLProgram(*accumTransparencyRevealageShader);
accumFrameBuffer->clean();
accumFrameBuffer->bind();
accumFrameBuffer->bindForRenderPass(activeColorAttachmentsTransparent);
accumFrameBuffer->cleanColorAttachment(1,clearColorWhite);
opaqueFrameBuffer->unbind();
// Blitting the opaque scene depth to propperly depth test the transparen against it.
opaqueFrameBuffer->bindForReading();
accumFrameBuffer->bindForWriting();
glBlitFramebuffer(0, 0, window->getWindowWidth(), window->getWindowHeight(), 0, 0, window->getWindowWidth(), window->getWindowHeight(),
GL_DEPTH_BUFFER_BIT, GL_NEAREST);
opaqueFrameBuffer->unbind();
accumFrameBuffer->bind();
accumFrameBuffer->bindForRenderPass(activeColorAttachmentsTransparent);
glEnable(GL_BLEND);
glBlendFunci(0, GL_ONE, GL_ONE);
glBlendFunci(1, GL_ZERO, GL_ONE_MINUS_SRC_ALPHA);
//glEnable(GL_DEPTH_TEST);
glDepthMask(GL_FALSE);
glDisable(GL_CULL_FACE);
model->renderTransparent();
quad1->render();
quad2->render();
quad3->render();
//quad4->render();
//quad5->render();
accumFrameBuffer->unbind();
model->setGLSLProgram(defaultShader);
quad1->setGLSLProgram(*defaultShader);
quad2->setGLSLProgram(*defaultShader);
quad3->setGLSLProgram(*defaultShader);
quad4->setGLSLProgram(*defaultShader);
quad5->setGLSLProgram(*defaultShader);
glDisable(GL_BLEND);
//glEnable(GL_DEPTH_TEST);
glDepthMask(GL_TRUE);
glEnable(GL_CULL_FACE);
glCullFace(GL_BACK);
//_______________________________________________________________________________________________________________________________________________________________________________
// Final compositing pass
//screenFillingQuad->setGLSLProgram(*screenFillingQuadShader);
//screenFillingQuad->getCurrentShaderProgram()->use();
//screenFillingQuad->renderWithAdditionalTextures(opaqueTextureHandle,sampler);
newOITCoverageShader->use();
glDepthMask(GL_FALSE);
glEnable(GL_BLEND);
glBlendFunc(GL_ONE_MINUS_SRC_ALPHA, GL_SRC_ALPHA);
screenFillingQuad->renderWithAdditionalTextures(additionalTextureHandles,sampler);
glDepthMask(GL_TRUE);
glDisable(GL_BLEND);
//_______________________________________________________________________________________________________________________________________________________________________________
// For debug!
//screenFillingQuad->setGLSLProgram(*screenFillingQuadShader);
//screenFillingQuad->getCurrentShaderProgram()->use();
//screenFillingQuad->setTexture(opaqueFrameBuffer->getColorAttachment(0));
//screenFillingQuad->render();
accumFrameBuffer->clean();
window->swapBuffers();
glfwPollEvents();
check_gl_error();
}
glfwTerminate();
window->release();
return 0;
}
Model::Model(ID3D11Device* device, TextureManager& texMgr, const std::string& modelFilename, const std::string& texturePath)
{
//std::vector<M3dMaterial> mats;
std::vector<MaterialLoader> mats;
//M3DLoader m3dLoader;
//m3dLoader.LoadM3d(modelFilename, Vertices, Indices, Subsets, mats);
ModelLoader loader;
loader.Load(modelFilename, Vertices, Indices, Subsets, mats, SkinnedData);
ModelMesh.SetVertices(device, &Vertices[0], Vertices.size());
ModelMesh.SetIndices(device, &Indices[0], Indices.size());
ModelMesh.SetSubsetTable(Subsets);
SubsetCount = mats.size();
TPM = mats[0].DiffuseMapNames.size();
for(UINT i = 0; i < SubsetCount; ++i)
{
Mat.push_back(mats[i].Mat);
for (int j = 0; j < mats[i].DiffuseMapNames.size(); ++j)
{
if (mats[i].DiffuseMapNames[j] != "")
{
ID3D11ShaderResourceView* diffuseMapSRV = texMgr.CreateTexture(texturePath + mats[i].DiffuseMapNames[j]);
if (diffuseMapSRV)
DiffuseMapSRV.push_back(diffuseMapSRV);
}
}
for (int j = 0; j < mats[i].NormalMapNames.size(); ++j)
{
if (mats[i].NormalMapNames[j] != "")
{
ID3D11ShaderResourceView* normalMapSRV = texMgr.CreateTexture(texturePath + mats[i].NormalMapNames[j]);
if (normalMapSRV)
NormalMapSRV.push_back(normalMapSRV);
}
}
/*
if (mats[i].DiffuseMapName != "")
{
ID3D11ShaderResourceView* diffuseMapSRV = texMgr.CreateTexture(texturePath + mats[i].DiffuseMapName);
if (diffuseMapSRV)
DiffuseMapSRV.push_back(diffuseMapSRV);
}
if (mats[i].NormalMapName != "")
{
ID3D11ShaderResourceView* normalMapSRV = texMgr.CreateTexture(texturePath + mats[i].NormalMapName);
if (normalMapSRV)
NormalMapSRV.push_back(normalMapSRV);
}*/
}
m_BoneBoxes = SkinnedData.CreateBoneBoxes(Vertices);
if (m_BoneBoxes.size() == 0)
{
//BoundingSphere::CreateFromPoints(m_BoundingSphere, Vertices.size(), &Vertices[0].Pos, sizeof(Vertex::PosNormalTexTanSkinned));
BoundingBox AABB;
BoundingBox::CreateFromPoints(AABB, Vertices.size(), &Vertices[0].Pos, sizeof(Vertex::PosNormalTexTanSkinned));
BoundingOrientedBox::CreateFromBoundingBox(m_BoundingOrientedBox, AABB);
XMFLOAT3 Extents = m_BoundingOrientedBox.Extents;
m_SmallestRadiusInBox = ( Extents.x > Extents.z ) ? Extents.z : Extents.x;
BoundingSphere::CreateFromBoundingBox(m_BoundingSphere, m_BoundingOrientedBox);
}
else
{
AnimationClip* AC = SkinnedData.GetAnimation("ALL");
if (AC)
{
UINT numKeyFrames = AC->BoneAnimations[0].Keyframes.size();
std::vector<XMFLOAT3> bigBoxPoints;
m_SmallestRadiusInBox = 99999;
for (int i = 0; i < numKeyFrames; ++i)
{
float time = AC->BoneAnimations[0].Keyframes[i].TimePos;
std::vector<XMFLOAT4X4> FinalTransforms(AC->BoneAnimations.size());
SkinnedData.GetFinalTransforms("ALL", time, FinalTransforms);
std::vector<DirectX::BoundingOrientedBox> tempboxes(m_BoneBoxes.size());
for (int i = 0; i < m_BoneBoxes.size(); ++i)
{
m_BoneBoxes[i].Transform(tempboxes[i], XMLoadFloat4x4(&FinalTransforms[i]));
}
std::vector<XMFLOAT3> points;
for (int i = 0; i < tempboxes.size(); ++i)
{
XMFLOAT3 corners[BoundingOrientedBox::CORNER_COUNT];
tempboxes[i].GetCorners(&corners[0]);
for each (XMFLOAT3 point in corners)
{
points.push_back(point);
bigBoxPoints.push_back(point);
}
}
BoundingBox AABB;
BoundingBox::CreateFromPoints(AABB, points.size(), &points[0], sizeof(XMFLOAT3));
XMFLOAT3 Extents = AABB.Extents;
m_SmallestRadiusInBox = min(m_SmallestRadiusInBox, min(min(Extents.x, Extents.z), Extents.y));
}
BoundingBox AABB;
BoundingBox::CreateFromPoints(AABB, bigBoxPoints.size(), &bigBoxPoints[0], sizeof(XMFLOAT3));
BoundingOrientedBox::CreateFromBoundingBox(m_BoundingOrientedBox, AABB);
BoundingSphere::CreateFromBoundingBox(m_BoundingSphere, m_BoundingOrientedBox);
}
//m_SmallestRadiusInBox = 10;
/*
BoundingSphere::CreateFromBoundingBox(m_BoundingSphere, m_BoundingOrientedBox);
BoundingOrientedBox::CreateFromBoundingBox(m_BoundingOrientedBox, AABB);
BoundingSphere::CreateFromBoundingBox(m_BoundingSphere, m_BoundingOrientedBox);
*/
}
void GeometryReader::run() {
DependencyManager::get<StatTracker>()->decrementStat("PendingProcessing");
CounterStat counter("Processing");
PROFILE_RANGE_EX(resource_parse_geometry, "GeometryReader::run", 0xFF00FF00, 0, { { "url", _url.toString() } });
auto originalPriority = QThread::currentThread()->priority();
if (originalPriority == QThread::InheritPriority) {
originalPriority = QThread::NormalPriority;
}
QThread::currentThread()->setPriority(QThread::LowPriority);
Finally setPriorityBackToNormal([originalPriority]() {
QThread::currentThread()->setPriority(originalPriority);
});
if (!_resource.data()) {
return;
}
try {
if (_data.isEmpty()) {
throw QString("reply is NULL");
}
// Ensure the resource has not been deleted
auto resource = _resource.toStrongRef();
if (!resource) {
qCWarning(modelnetworking) << "Abandoning load of" << _url << "; could not get strong ref";
return;
}
if (_url.path().isEmpty()) {
throw QString("url is invalid");
}
HFMModel::Pointer hfmModel;
QVariantHash serializerMapping = _mapping.second;
serializerMapping["combineParts"] = _combineParts;
serializerMapping["deduplicateIndices"] = true;
if (_url.path().toLower().endsWith(".gz")) {
QByteArray uncompressedData;
if (!gunzip(_data, uncompressedData)) {
throw QString("failed to decompress .gz model");
}
// Strip the compression extension from the path, so the loader can infer the file type from what remains.
// This is okay because we don't expect the serializer to be able to read the contents of a compressed model file.
auto strippedUrl = _url;
strippedUrl.setPath(_url.path().left(_url.path().size() - 3));
hfmModel = _modelLoader.load(uncompressedData, serializerMapping, strippedUrl, "");
} else {
hfmModel = _modelLoader.load(_data, serializerMapping, _url, _webMediaType.toStdString());
}
if (!hfmModel) {
throw QString("unsupported format");
}
if (hfmModel->meshes.empty() || hfmModel->joints.empty()) {
throw QString("empty geometry, possibly due to an unsupported model version");
}
// Add scripts to hfmModel
if (!serializerMapping.value(SCRIPT_FIELD).isNull()) {
QVariantList scripts = serializerMapping.values(SCRIPT_FIELD);
for (auto &script : scripts) {
hfmModel->scripts.push_back(script.toString());
}
}
// Do processing on the model
baker::Baker modelBaker(hfmModel, _mapping.second, _mapping.first);
modelBaker.run();
auto processedHFMModel = modelBaker.getHFMModel();
auto materialMapping = modelBaker.getMaterialMapping();
QMetaObject::invokeMethod(resource.data(), "setGeometryDefinition",
Q_ARG(HFMModel::Pointer, processedHFMModel), Q_ARG(MaterialMapping, materialMapping));
} catch (const std::exception&) {
auto resource = _resource.toStrongRef();
if (resource) {
QMetaObject::invokeMethod(resource.data(), "finishedLoading",
Q_ARG(bool, false));
}
} catch (QString& e) {
qCWarning(modelnetworking) << "Exception while loading model --" << e;
auto resource = _resource.toStrongRef();
if (resource) {
QMetaObject::invokeMethod(resource.data(), "finishedLoading",
Q_ARG(bool, false));
}
}
}
void testFwdKinConsistency(std::string modelFilePath)
{
std::cout << "Testing " << modelFilePath << std::endl;
// Load iDynTree model and compute a default traversal
ModelLoader loader;
loader.loadModelFromFile(modelFilePath);
iDynTree::Model model = loader.model();
iDynTree::Traversal traversal;
model.computeFullTreeTraversal(traversal);
// Load KDL tree
KDL::Tree tree;
treeFromUrdfFile(modelFilePath,tree);
KDL::CoDyCo::UndirectedTree undirected_tree(tree);
KDL::CoDyCo::Traversal kdl_traversal;
undirected_tree.compute_traversal(kdl_traversal);
// A KDL::Tree only supports 0 and 1 DOFs joints, and
// KDL::Tree::getNrOfJoints does not count the 0 dof joints, so
// it is actually equivalent to iDynTree::Model::getNrOfDOFs
ASSERT_EQUAL_DOUBLE(tree.getNrOfJoints(),model.getNrOfDOFs());
// Input : joint positions and base position with respect to world
iDynTree::FreeFloatingPos baseJntPos(model);
iDynTree::FreeFloatingVel baseJntVel(model);
iDynTree::FreeFloatingAcc baseJntAcc(model);
baseJntPos.worldBasePos() = getRandomTransform();
baseJntVel.baseVel() = getRandomTwist();
baseJntAcc.baseAcc() = getRandomTwist();
for(unsigned int jnt=0; jnt < baseJntPos.getNrOfPosCoords(); jnt++)
{
baseJntPos.jointPos()(jnt) = getRandomDouble();
baseJntVel.jointVel()(jnt) = getRandomDouble();
baseJntAcc.jointAcc()(jnt) = getRandomDouble();
}
// Build a map between KDL joints and iDynTree joints because we are not sure
// that the joint indices will match
std::vector<int> kdl2idyntree_joints;
kdl2idyntree_joints.resize(undirected_tree.getNrOfDOFs());
for(unsigned int dofIndex=0; dofIndex < undirected_tree.getNrOfDOFs(); dofIndex++)
{
std::string dofName = undirected_tree.getJunction(dofIndex)->getName();
int idyntreeJointIndex = model.getJointIndex(dofName);
kdl2idyntree_joints[dofIndex] = idyntreeJointIndex;
}
KDL::JntArray jntKDL(undirected_tree.getNrOfDOFs());
KDL::JntArray jntVelKDL(undirected_tree.getNrOfDOFs());
KDL::JntArray jntAccKDL(undirected_tree.getNrOfDOFs());
KDL::Frame worldBaseKDL;
KDL::Twist baseVelKDL;
KDL::Twist baseAccKDL;
ToKDL(baseJntPos,worldBaseKDL,jntKDL,kdl2idyntree_joints);
ToKDL(baseJntVel,baseVelKDL,jntVelKDL,kdl2idyntree_joints);
ToKDL(baseJntAcc,baseAccKDL,jntAccKDL,kdl2idyntree_joints);
// Output : link (for iDynTree) or frame positions with respect to world
std::vector<KDL::Frame> framePositions(undirected_tree.getNrOfLinks());
iDynTree::LinkPositions linkPositions(model);
// Build a map between KDL links and iDynTree links because we are not sure
// that the link indices will match
std::vector<int> idynTree2KDL_links;
idynTree2KDL_links.resize(model.getNrOfLinks());
for(unsigned int linkIndex=0; linkIndex < model.getNrOfLinks(); linkIndex++)
{
std::string linkName = model.getLinkName(linkIndex);
int kdlLinkIndex = undirected_tree.getLink(linkName)->getLinkIndex();
idynTree2KDL_links[linkIndex] = kdlLinkIndex;
}
// Compute position forward kinematics with old KDL code and with the new iDynTree code
KDL::CoDyCo::getFramesLoop(undirected_tree,
jntKDL,
kdl_traversal,
framePositions,
worldBaseKDL);
ForwardPositionKinematics(model,traversal,baseJntPos,linkPositions);
// Check results
for(unsigned int travEl = 0; travEl < traversal.getNrOfVisitedLinks(); travEl++)
{
LinkIndex linkIndex = traversal.getLink(travEl)->getIndex();
ASSERT_EQUAL_TRANSFORM_TOL(linkPositions(linkIndex),ToiDynTree(framePositions[idynTree2KDL_links[linkIndex]]),1e-1);
}
// Compution velocity & acceleration kinematics
std::vector<KDL::Twist> kdlLinkVel(undirected_tree.getNrOfLinks());
std::vector<KDL::Twist> kdlLinkAcc(undirected_tree.getNrOfLinks());
KDL::CoDyCo::rneaKinematicLoop(undirected_tree,jntKDL,jntVelKDL,jntAccKDL,kdl_traversal,
baseVelKDL,baseAccKDL,kdlLinkVel,kdlLinkAcc);
iDynTree::LinkVelArray linksVels(model);
iDynTree::LinkAccArray linksAcc(model);
ForwardVelAccKinematics(model,traversal,baseJntPos,baseJntVel,baseJntAcc,linksVels,linksAcc);
// Check results
for(unsigned int travEl = 0; travEl < traversal.getNrOfVisitedLinks(); travEl++)
{
LinkIndex linkIndex = traversal.getLink(travEl)->getIndex();
ASSERT_EQUAL_VECTOR(linksVels(linkIndex).asVector(),
ToiDynTree(kdlLinkVel[idynTree2KDL_links[linkIndex]]).asVector());
ASSERT_EQUAL_VECTOR(linksAcc(linkIndex).asVector(),
ToiDynTree(kdlLinkAcc[idynTree2KDL_links[linkIndex]]).asVector());
}
// Compute position, velocity and acceleration
LinkPositions linksPos_check(model);
iDynTree::LinkVelArray linksVels_check(model);
iDynTree::LinkAccArray linksAcc_check(model);
ForwardPosVelAccKinematics(model,traversal,baseJntPos, baseJntVel, baseJntAcc,
linksPos_check,linksVels_check,linksAcc_check);
for(unsigned int travEl = 0; travEl < traversal.getNrOfVisitedLinks(); travEl++)
{
LinkIndex linkIndex = traversal.getLink(travEl)->getIndex();
ASSERT_EQUAL_TRANSFORM(linkPositions(linkIndex),
linksPos_check(linkIndex));
ASSERT_EQUAL_VECTOR(linksVels(linkIndex).asVector(),
linksVels_check(linkIndex).asVector());
ASSERT_EQUAL_VECTOR(linksAcc(linkIndex).asVector(),
linksAcc(linkIndex).asVector());
}
// Compute torques (i.e. inverse dynamics)
LinkNetExternalWrenches fExt(model);
LinkInternalWrenches f(model);
FreeFloatingGeneralizedTorques baseWrenchJointTorques(model);
KDL::JntArray jntTorques(model.getNrOfDOFs());
KDL::Wrench baseWrench;
std::vector<KDL::Wrench> fExtKDL(undirected_tree.getNrOfLinks());
std::vector<KDL::Wrench> fKDL(undirected_tree.getNrOfLinks());
// First set to zero all the fExtKDL, fKDL wrenches : then
// the following loop will set the one that correspond to "real"
// iDynTree links to the same value we used in iDynTree
for(unsigned int linkKDL = 0; linkKDL < undirected_tree.getNrOfLinks(); linkKDL++)
{
fKDL[linkKDL] = KDL::Wrench::Zero();
fExtKDL[linkKDL] = KDL::Wrench::Zero();
}
for(unsigned int link = 0; link < model.getNrOfLinks(); link++ )
{
fExt(link) = getRandomWrench();
fExtKDL[idynTree2KDL_links[link]] = ToKDL(fExt(link));
fKDL[idynTree2KDL_links[link]] = KDL::Wrench::Zero();
}
bool ok = RNEADynamicPhase(model,traversal,
baseJntPos.jointPos(),
linksVels,linksAcc,fExt,f,baseWrenchJointTorques);
int retVal = KDL::CoDyCo::rneaDynamicLoop(undirected_tree,jntKDL,kdl_traversal,
kdlLinkVel,kdlLinkAcc,
fExtKDL,fKDL,jntTorques,baseWrench);
ASSERT_EQUAL_DOUBLE(ok,true);
ASSERT_EQUAL_DOUBLE(retVal,0);
/***
* This check is commented out because KDL::CoDyCo::rneaDynamicLoop returned
* a reverse baseWrench.. still need to be investigated.
* (The - is necessary for consistency with the mass matrix..)
*
*/
//ASSERT_EQUAL_VECTOR(baseWrenchJointTorques.baseWrench().asVector(),
// ToiDynTree(baseWrench).asVector());
for(int link = 0; link < model.getNrOfLinks(); link++ )
{
ASSERT_EQUAL_VECTOR(f(link).asVector(),ToiDynTree(fKDL[idynTree2KDL_links[link]]).asVector());
}
for(int dof = 0; dof < model.getNrOfDOFs(); dof++ )
{
ASSERT_EQUAL_DOUBLE(jntTorques(dof),baseWrenchJointTorques.jointTorques()(kdl2idyntree_joints[dof]));
}
// Check mass matrix
iDynTree::FreeFloatingMassMatrix massMatrix(model);
iDynTree::LinkInertias crbis(model);
ok = CompositeRigidBodyAlgorithm(model,traversal,
baseJntPos.jointPos(),
crbis,massMatrix);
KDL::CoDyCo::FloatingJntSpaceInertiaMatrix massMatrixKDL(undirected_tree.getNrOfDOFs()+6);
std::vector<KDL::RigidBodyInertia> Ic(undirected_tree.getNrOfLinks());
retVal = KDL::CoDyCo::crba_floating_base_loop(undirected_tree,kdl_traversal,jntKDL,Ic,massMatrixKDL);
ASSERT_IS_TRUE(ok);
ASSERT_EQUAL_DOUBLE_TOL(retVal,0,1e-8);
// Check composite rigid body inertias
for(int link = 0; link < model.getNrOfLinks(); link++ )
{
ASSERT_EQUAL_MATRIX(crbis(link).asMatrix(),ToiDynTree(Ic[idynTree2KDL_links[link]]).asMatrix());
}
std::cerr << "iDynTree " << massMatrix.toString() << std::endl;
std::cerr << "massMatrix " << massMatrixKDL.data << std::endl;
// Check CRBA algorithm
for(int ii=0; ii < model.getNrOfDOFs()+6; ii++ )
{
for( int jj=0; jj < model.getNrOfDOFs()+6; jj++ )
{
int idyntreeII = kdl2idyntreeFloatingDOFMapping(ii,kdl2idyntree_joints);
int idyntreeJJ = kdl2idyntreeFloatingDOFMapping(jj,kdl2idyntree_joints);
ASSERT_EQUAL_DOUBLE_TOL(massMatrix(idyntreeII,idyntreeJJ),massMatrixKDL(ii,jj),1e-8);
}
}
return;
}
void MyGLWidget::loadModel()
{
// Lade die Modelle aus den Dateien in Datenstrukturen
ModelLoader * model ;
model = new ModelLoader() ;
// Frosch
bool res = model->loadObjectFromFile("Models/baby.obj");
// Wenn erfolgreich, generiere VBO und Index-Array
if (res) {
// Frage zu erwartende Array-Längen ab
vboLength[0] = model->lengthOfVBO(0,false,true);
iboLength[0] = model->lengthOfIndexArray();
// Generiere VBO und Index-Array
vboData[0] = new GLfloat[vboLength[0]];
indexData[0] = new GLuint[iboLength[0]];
//model->genSimpleVBO(vboData[0]);
model->genVBO(vboData[0],0,false,true);
model->genIndexArray(indexData[0]);
}
else {
// Modell konnte nicht geladen werden
assert(0) ;
}
delete model ;
// Planet
model = new ModelLoader() ;
//res = model->loadObjectFromFile("Models/sombrero.obj");
res = model->loadObjectFromFile("Models/sphere_low.obj");
// Wenn erfolgreich, generiere VBO und Index-Array
if (res) {
// Frage zu erwartende Array-Längen ab
vboLength[1] = model->lengthOfVBO(0,false,true);
iboLength[1] = model->lengthOfIndexArray();
// Generiere VBO und Index-Array
vboData[1] = new GLfloat[vboLength[1]];
indexData[1] = new GLuint[iboLength[1]];
model->genVBO(vboData[1],0,false,true);
model->genIndexArray(indexData[1]);
}
else {
// Modell konnte nicht geladen werden
assert(0) ;
}
delete model ;
// Sombrero
model = new ModelLoader() ;
res = model->loadObjectFromFile("Models/sombrero.obj");
// Wenn erfolgreich, generiere VBO und Index-Array
if (res) {
// Frage zu erwartende Array-Längen ab
vboLength[2] = model->lengthOfVBO(0,false,true);
iboLength[2] = model->lengthOfIndexArray();
// Generiere VBO und Index-Array
vboData[2] = new GLfloat[vboLength[2]];
indexData[2] = new GLuint[iboLength[2]];
model->genVBO(vboData[2],0,false,true);
model->genIndexArray(indexData[2]);
}
else {
// Modell konnte nicht geladen werden
assert(0) ;
}
delete model ;
// Sombrero
model = new ModelLoader() ;
res = model->loadObjectFromFile("Models/sword.obj");
// Wenn erfolgreich, generiere VBO und Index-Array
if (res) {
// Frage zu erwartende Array-Längen ab
vboLength[3] = model->lengthOfVBO(0,false,true);
iboLength[3] = model->lengthOfIndexArray();
// Generiere VBO und Index-Array
vboData[3] = new GLfloat[vboLength[3]];
indexData[3] = new GLuint[iboLength[3]];
model->genVBO(vboData[3],0,false,true);
model->genIndexArray(indexData[3]);
}
else {
// Modell konnte nicht geladen werden
assert(0) ;
}
delete model ;
// Sombrero
model = new ModelLoader() ;
//res = model->loadObjectFromFile("Models/vikinghelmet.obj");
res = model->loadObjectFromFile("Models/Porygon.obj");
// Wenn erfolgreich, generiere VBO und Index-Array
if (res) {
// Frage zu erwartende Array-Längen ab
vboLength[4] = model->lengthOfVBO(0,false,true);
iboLength[4] = model->lengthOfIndexArray();
// Generiere VBO und Index-Array
vboData[4] = new GLfloat[vboLength[4]];
indexData[4] = new GLuint[iboLength[4]];
model->genVBO(vboData[4],0,false,true);
model->genIndexArray(indexData[4]);
}
else {
// Modell konnte nicht geladen werden
assert(0) ;
}
delete model ;
}
int PASCAL WinMain(HINSTANCE hInstance, HINSTANCE /*hPrevInstance*/,
LPSTR lpCmdLine, int nCmdShow)
{
ModelLoader* modelLoader;
bool screenSaver = isScreenSaver();
int retValue;
STARTUPINFO startupInfo;
bool fromConsole = false;
//HMODULE hThumbs = LoadLibrary("LDViewThumbs.dll");
//if (hThumbs != NULL)
//{
// PFNDLLREGISTERSERVER pDllRegisterServer =
// (PFNDLLREGISTERSERVER)GetProcAddress(hThumbs, "DllRegisterServer");
// CoInitialize(NULL);
// if (pDllRegisterServer != NULL)
// {
// pDllRegisterServer();
// }
//}
memset(&startupInfo, 0, sizeof(startupInfo));
startupInfo.cb = sizeof(startupInfo);
GetStartupInfo(&startupInfo);
if (startupInfo.lpTitle != NULL &&
stringHasCaseInsensitivePrefix(startupInfo.lpTitle, "command line ")
&& strcasestr(startupInfo.lpTitle, "ldview") != NULL)
{
runningWithConsole();
fromConsole = true;
}
#ifdef _DEBUG
int _debugFlag = _CrtSetDbgFlag(_CRTDBG_REPORT_FLAG);
_debugFlag |= _CRTDBG_LEAK_CHECK_DF;
_CrtSetDbgFlag(_debugFlag);
_CrtSetReportMode(_CRT_WARN, _CRTDBG_MODE_DEBUG);
if (!fromConsole)
{
createConsole();
}
// MessageBox(NULL, "Attach a debugger now...", "Debug", MB_OK);
#endif // _DEBUG
bool udok = setupUserDefaults(lpCmdLine, screenSaver,
isRemovableDrive(hInstance));
setupLocalStrings();
if (TCUserDefaults::boolForKey(DEBUG_COMMAND_LINE_KEY, false, false))
{
std::string message = "Command Line:\n";
message += lpCmdLine;
MessageBox(NULL, message.c_str(), "LDView", MB_OK);
}
if (!udok && !TCUserDefaults::longForKey("IniFailureShown", 0, 0))
{
UCCHAR message[2048];
UCSTR iniPath = mbstoucstring(TCUserDefaults::getIniPath());
sucprintf(message, COUNT_OF(message),
TCLocalStrings::get(_UC("IniFailure")), iniPath);
CUIWindow::messageBoxUC(NULL, message, _UC("LDView"), MB_OK);
delete iniPath;
TCUserDefaults::setLongForKey(1, "IniFailureShown", false);
}
if (screenSaver)
{
if (strncasecmp(lpCmdLine, "/p", 2) == 0 ||
strncasecmp(lpCmdLine, "-p", 2) == 0 ||
strncasecmp(lpCmdLine, "p", 1) == 0)
{
// preview mode
return doPreview(hInstance, lpCmdLine);
}
if (strncasecmp(lpCmdLine, "/c", 2) == 0 ||
strncasecmp(lpCmdLine, "-c", 2) == 0 ||
strncasecmp(lpCmdLine, "c", 1) == 0 ||
strlen(lpCmdLine) == 0)
{
SSConfigure *configure;
configure = new SSConfigure(hInstance);
#ifdef _DEBUG
_CrtSetReportMode(_CRT_WARN, _CRTDBG_MODE_DEBUG);
createConsole();
#endif // _DEBUG
configure->run();
// configure mode
return 1;
}
// This shouldn't be necessary, but I've received a report of a whole
// bunch of copies of the LDView screensaver running at once. This
// might not fix things entirely, but it will at least prevent it
// from launching multiple times concurrently.
CreateMutex(NULL, FALSE, "LDView Screensaver");
if (GetLastError() == ERROR_ALREADY_EXISTS)
{
return 0;
}
}
#ifdef _LOG_PERFORMANCE
LARGE_INTEGER frequency;
if (QueryPerformanceFrequency(&frequency))
{
debugPrintf("Frequency: %I64d\n", frequency.QuadPart);
}
#endif // _LOG_PERFORMANCE
OleInitialize(NULL);
//Win7JumpListStuff();
modelLoader = new ModelLoader(CUIWindow::getLanguageModule(), nCmdShow,
screenSaver);
retValue = mainLoop();
modelLoader->release();
return retValue;
} // WinMain