ModelEntitySP LightEntityFactory::createLightEntity(const string& name, const LightSP& light, const vector<AnimationStackSP>& allAnimStacks)
{
ModelFactory modelFactory;
ModelSP model = modelFactory.createModel(name, BoundingSphere(Point4(), Light::getDebugRadius()), light, allAnimStacks);
ModelEntitySP modelEntity = ModelEntitySP(new ModelEntity(name, model, 1.0f, 1.0f, 1.0f));
return modelEntity;
}
int main(int argc, const char * argv[]) {
ModelFactory modelFactory;
teapot = modelFactory.BuildModel("teapot.obj");
std::cout << teapot.m_Info.vertCount << std::endl;
if (!glfwInit())
exit(EXIT_FAILURE);
glfwWindowHint(GLFW_CONTEXT_VERSION_MAJOR, GL_VERSION_MAJOR);
glfwWindowHint(GLFW_CONTEXT_VERSION_MINOR, GL_VERSION_MINOR);
glfwWindowHint(GLFW_OPENGL_FORWARD_COMPAT, GL_TRUE);
glfwWindowHint(GLFW_OPENGL_PROFILE, GLFW_OPENGL_CORE_PROFILE);
glfwWindowHint(GLFW_SAMPLES, 8);
GLFWwindow* window = glfwCreateWindow(WIN_WIDTH, WIN_HEIGHT, WIN_TITLE, NULL, NULL);
gScreenWidth = WIN_WIDTH;
gScreenHeight = WIN_HEIGHT;
if (!window) {
glfwTerminate();
exit(EXIT_FAILURE);
}
glfwMakeContextCurrent(window);
glfwSwapInterval(1);
glInit();
std::cout << glGetString(GL_RENDERER) << std::endl;
std::cout << glGetString(GL_VERSION) << std::endl;
glfwSetKeyCallback(window, KeyCallback);
glfwSetWindowSizeCallback(window, ResizeCallback);
while (!glfwWindowShouldClose(window)) {
glLoop();
glfwPollEvents();
glfwSwapBuffers(window);
}
glShutdown();
glfwDestroyWindow(window);
glfwTerminate();
return 0;
}
ModelEntitySP PrimitiveEntityFactory::createCubePrimitiveEntity(const string& name, float scaleX, float scaleY, float scaleZ, const SurfaceMaterialSP& surfaceMaterial, const vector<AnimationStackSP>& allAnimStacks) const
{
ModelFactory modelFactory;
GLUSshape shape;
float halfExtend = 0.5f;
glusCreateCubef(&shape, halfExtend);
BoundingSphere boundingSphere;
boundingSphere.setRadius(glusLengthf(halfExtend, halfExtend, halfExtend));
return ModelEntitySP(new ModelEntity(name, modelFactory.createModel(name, boundingSphere, shape, surfaceMaterial, allAnimStacks), scaleX, scaleY, scaleZ));
}
ModelEntitySP PrimitiveEntityFactory::createDomePrimitiveEntity(const string& name, float scaleX, float scaleY, float scaleZ, const SurfaceMaterialSP& surfaceMaterial) const
{
ModelFactory modelFactory;
GLUSshape shape;
float radius = 0.5f;
uint32_t numberSlices = 32;
glusCreateDomef(&shape, radius, numberSlices);
BoundingSphere boundingSphere;
boundingSphere.setRadius(radius);
return ModelEntitySP(new ModelEntity(name, modelFactory.createModel(name, boundingSphere, shape, surfaceMaterial), scaleX, scaleY, scaleZ));
}
ModelEntitySP PrimitiveEntityFactory::createConePrimitiveEntity(const string& name, float scaleX, float scaleY, float scaleZ, const SurfaceMaterialSP& surfaceMaterial) const
{
ModelFactory modelFactory;
GLUSshape shape;
float halfExtend = 0.5f;
float radius = 0.5f;
uint32_t numberSlices = 32;
uint32_t numberStacks = 32;
glusCreateConef(&shape, halfExtend, radius, numberSlices, numberStacks);
BoundingSphere boundingSphere;
boundingSphere.setRadius(glusLengthf(halfExtend, radius, 0.0f));
return ModelEntitySP(new ModelEntity(name, modelFactory.createModel(name, boundingSphere, shape, surfaceMaterial), scaleX, scaleY, scaleZ));
}
ModelEntitySP PrimitiveEntityFactory::createTorusPrimitiveEntity(const string& name, float scaleX, float scaleY, float scaleZ, const SurfaceMaterialSP& surfaceMaterial, const vector<AnimationStackSP>& allAnimStacks) const
{
ModelFactory modelFactory;
GLUSshape shape;
float innerRadius = 0.25f;
float outerRadius = 0.5f;
uint32_t numberSlices = 32;
uint32_t numberStacks = 32;
glusCreateTorusf(&shape, innerRadius, outerRadius, numberSlices, numberStacks);
BoundingSphere boundingSphere;
boundingSphere.setRadius(outerRadius);
return ModelEntitySP(new ModelEntity(name, modelFactory.createModel(name, boundingSphere, shape, surfaceMaterial, allAnimStacks), scaleX, scaleY, scaleZ));
}
// Choose a random number up to INT_MAX - 1, not INT_MAX,
// because MbRandom adds 1 internally, causing an overflow
MCMC::MCMC(Random& seeder, Settings& settings, ModelFactory& modelFactory) :
_random(seeder.uniformInteger(0, INT_MAX - 1))
{
_model = modelFactory.createModel(_random, settings);
}
void CreatePrismRectangle(SimpleTree& _rRoot, const Matrix44& _rTransformation)
{
Entity* pPrismRectangle = new Entity();
ModelFactory* pFactory = ModelFactory::getInstance();
SimpleTree* pRootNode = new SimpleTree;
pRootNode->setTransformation(_rTransformation);
_rRoot.addChild(pRootNode);
//Model* pSquare = pFactory->createSquareMesh(5.0f, Vector4(1.0f, 1.0f, 0.0f, 1.0f), true);
Model* pSquare = pFactory->createBoxMesh(5.0f, 5.0f, 0.1f, Vector4(1.0f, 1.0f, 0.0f, 1.0f), true);
pSquare->setMaterial(CreatePrismRectangleModelMaterial());
pPrismRectangle->addComponent(pSquare);
pSquare->setEntity(pPrismRectangle);
SimpleTree* pSquareNode = new SimpleTree;
//getTranslation3(pSquareNode->getTransformation()).Y() = 5.0f;
getTranslation3(pSquareNode->getTransformation()).Y() = 4.9f;
pSquareNode->setModel(pSquare);
pRootNode->addChild(pSquareNode);
Body* pSquareBody = PhysicsFactory::getInstance()->createBody(CreateObstacleBodyMaterial(), pSquare,
pSquareNode->getAbsoluteTransformation(), false);
//static_cast<BulletBody*>(pSquareBody)->setNode(pSquareNode);
static_cast<PhysXBody*>(pSquareBody)->setNode(pSquareNode);
pPrismRectangle->addComponent(pSquareBody);
pSquareBody->setEntity(pPrismRectangle);
Model* pPrism0 = pFactory->createPrismMesh(5.0f, Vector4(1.0f, 0.0f, 0.0f, 1.0f));
pPrism0->setMaterial(CreatePrismRectangleModelMaterial());
pPrismRectangle->addComponent(pPrism0);
pPrism0->setEntity(pPrismRectangle);
SimpleTree* pPrism0Node = new SimpleTree;
rotate(pPrism0Node->getTransformation(), Math::PI, Vector4(0.0f, 1.0f, 0.0f, 1.0f));
getTranslation3(pPrism0Node->getTransformation()).Z() = 10.0f;
pPrism0Node->setModel(pPrism0);
pRootNode->addChild(pPrism0Node);
Body* pPrism0Body = PhysicsFactory::getInstance()->createBody(CreateObstacleBodyMaterial(), pPrism0,
pPrism0Node->getAbsoluteTransformation(), false);
//static_cast<BulletBody*>(pPrism0Body)->setNode(pPrism0Node);
static_cast<PhysXBody*>(pPrism0Body)->setNode(pPrism0Node);
pPrismRectangle->addComponent(pPrism0Body);
pPrism0Body->setEntity(pPrismRectangle);
Model* pPrism1 = pFactory->createPrismMesh(5.0f, Vector4(1.0f, 0.0f, 0.0f, 1.0f));
pPrism1->setMaterial(CreatePrismRectangleModelMaterial());
pPrismRectangle->addComponent(pPrism1);
pPrism1->setEntity(pPrismRectangle);
SimpleTree* pPrism1Node = new SimpleTree;
getTranslation3(pPrism1Node->getTransformation()).Z() = -10.0f;
pPrism1Node->setModel(pPrism1);
pRootNode->addChild(pPrism1Node);
Body* pPrism1Body = PhysicsFactory::getInstance()->createBody(CreateObstacleBodyMaterial(), pPrism1,
pPrism1Node->getAbsoluteTransformation(), false);
//static_cast<BulletBody*>(pPrism1Body)->setNode(pPrism1Node);
static_cast<PhysXBody*>(pPrism1Body)->setNode(pPrism1Node);
pPrismRectangle->addComponent(pPrism1Body);
pPrism1Body->setEntity(pPrismRectangle);
GazEngine::addEntity(pPrismRectangle);
}
int main(int argc, char** argv)
{
/* Necessary if MPI support is enabled during compilation. */
#ifdef _MPI
MPI_Init(&argc, &argv);
int rank;
MPI_Comm_rank(MPI_COMM_WORLD, &rank);
#else
/* In our MPI implementation the process with rank 0 is the master. */
int rank = 0;
#endif
try {
if(argc != 3){
/* Print usage and exit. */
if (rank == 0) std::cout << "\nusage: " << argv[0] << " ModelConf.conf MonteCarlo.conf\n" << std::endl;
return EXIT_SUCCESS;
}
/* Define the model configuration file. */
/* Here it is passed as the first argument to the executable. The */
/* model configuration file provides the values with errors for the */
/* mandatory model parameters, as well as the list of observables, */
/* observables2D, correlated Gaussian observables. */
/* See documentation for details. */
std::string ModelConf = argv[1];
/* Define the Monte Carlo configuration file. */
/* Here it is passed as the second argument to the executable. The */
/* Monte Carlo configuration file provides the parameters used in the */
/* Monte Carlo run. See documentation for details. */
std::string MCMCConf = argv[2];
/* Define the ROOT output file (w/o extension, empty string will set it to MCout) */
std::string FileOut = "";
/* Define the optional job tag. */
std::string JobTag = "";
/* Create objects of the classes ModelFactory and ThObsFactory */
ThObsFactory ThObsF;
ModelFactory ModelF;
myModel my_model;
/* register user-defined model named ModelName defined in class ModelClass using the following syntax: */
ModelF.addModelToFactory("myModel", boost::factory<myModel*>() );
/* register user-defined ThObservable named ThObsName defined in class ThObsClass using the following syntax: */
ThObsF.addObsToFactory("BIN1", boost::bind(boost::factory<yield*>(), _1, 1) );
ThObsF.addObsToFactory("BIN2", boost::bind(boost::factory<yield*>(), _1, 2) );
ThObsF.addObsToFactory("BIN3", boost::bind(boost::factory<yield*>(), _1, 3) );
ThObsF.addObsToFactory("BIN4", boost::bind(boost::factory<yield*>(), _1, 4) );
ThObsF.addObsToFactory("BIN5", boost::bind(boost::factory<yield*>(), _1, 5) );
ThObsF.addObsToFactory("BIN6", boost::bind(boost::factory<yield*>(), _1, 6) );
ThObsF.addObsToFactory("C_3", boost::factory<C_3*>() );
ThObsF.addObsToFactory("C_4", boost::factory<C_4*>() );
/* Create an object of the class MonteCarlo. */
MonteCarlo MC(ModelF, ThObsF, ModelConf, MCMCConf, FileOut, JobTag);
/* Do a test run if you wish to see the values of the observables */
/* and the correlated Gaussian observables defined in the model */
/* configuration file computed with the central value of the mandatory */
/* parameters defined in the same file. */
// MC.TestRun(rank);
/* Initiate the Mote Carlo run. */
MC.Run(rank);
/* Necessary if MPI support is enabled during compilation. */
#ifdef _MPI
MPI_Finalize();
#endif
return EXIT_SUCCESS;
} catch (const std::runtime_error& e) {
std::cerr << e.what() << std::endl;
return EXIT_FAILURE;
}
}
