void Fuji::Update()
{
MFDebug_Message("Fuji::Update()");
// Schedule another update
UpdateScheduler(kUpdateInterval, this);
MFSystem_RunFrame();
}
//--------------------------------------------------------------
void testApp::setup(){
// loading all the Paris data
// To create the input video block
for (int k = 1; k<= Nlast; k++){
ofImage auxImage;
auxImage.loadImage("ParisFrames/paris"+ofToString(k)+".jpg");
BlockDims.x = auxImage.width;
BlockDims.y = auxImage.height;
BlockDims.z = Nlast;
ofxCvColorImage AuxCVImage;
AuxCVImage.allocate(auxImage.width,auxImage.height);
AuxCVImage.setFromPixels(auxImage.getPixels(),auxImage.width,auxImage.height);
cv::Mat AuxMat(AuxCVImage.getCvImage());
TheFramesInput.push_back(AuxMat.clone());
}
//initial value
OutFramesN = BlockDims.z;
// vidGrabber.setVerbose(true);
// vidGrabber.initGrabber(Nx,Ny);
ofSetFrameRate(15);
inOp =50;
// the input grain list
UpdateScheduler();
//UpdateSchedulerUpDown(TheUf,1);
// GrainCamera = RotateAux(ofVec3f(0.0,0.0,-1.1* sqrt(BlockDims.x*BlockDims.x+BlockDims.y*BlockDims.y+
// BlockDims.z*BlockDims.z)/2.0), 85.0, 0.0,
// ofVec3f(BlockDims.x/2.0,BlockDims.y/2.0,BlockDims.z/2.0));
// GrainUpVector = ofVec3f(0.0,-1.0,0.0);
//side
// GrainCamera = ofVec3f(1.2*BlockDims.x,BlockDims.y/2.0,BlockDims.z/2.0);
//vertex
// GrainCamera = ofVec3f(BlockDims.x,0.0,0.0);
// corner
// GrainCamera = ofVec3f(BlockDims.x,BlockDims.y/2.0,0.0);
// corner side
// GrainCamera = ofVec3f(BlockDims.x,0.0,BlockDims.z/2);
// up
// GrainCamera = ofVec3f(BlockDims.x/2.0,0.0,BlockDims.z/2);
//GrainUpVector = ofVec3f(-1.0,0.0,0.0);
ScaleCorrectFactor =CalculateScalecorrect();
UpdateBool = true;
}
bool Fuji::Init(uint32_t argc, const char* argn[], const char* argv[])
{
MFDebug_Message("Fuji::Init()");
// Register the engine modules..
MFModule_RegisterModules();
// queue up the next update
UpdateScheduler(kUpdateInterval, this);
// Run one frame to kick off the init
MFSystem_RunFrame();
return true;
}
