void ControlWindows::endStep()
{
m_spiedino->stop();
m_counterino->stop();
disconnect( &m_clock, SIGNAL(timeout(QPrivateSignal)) , this, SLOT(update()));
m_cache.append("#Duty: ").append( QString::number(m_duty ) ).append('\n');
m_cache.append("#Conteggi: ").append( QString::number(m_counterino->getCount() ) ).append('\n');
m_cache.append("#time[millis] rawMeasure\n");
const Spiedino::AcquireData *bufferAcquireData=m_spiedino->getAcquireCache();
for( unsigned int i=0; i < bufferAcquireData->time.size(); ++i){
m_cache.append( QString::number(bufferAcquireData->time.at(i) ) ).append(' ')
.append( QString::number(bufferAcquireData->rawMeasure.at(i) ) ).append('\n') ;
}
m_duty+=m_dutyStep;
m_spiedino->clearAcquireCache();
m_counterino->clear();
if( m_duty >256 ){
emit endOfSet();
return;
}
startStep();
}
void checkIn(int recdPoints)
{
totalParticles = totalParticles + recdPoints;
chkinCounter++;
if(chkinCounter == 64)
{
CkPrintf("Stage %d Total CheckIns : %d with %d particles. \n",stage,chkinCounter,totalParticles);
startStep();
}
};
main(CkArgMsg *m)
{
delete m;
CkPrintf("%d Random points(x,y) between 0 and 1 being generated. On Total PEs: [%d] \n", TOTAL_PARTICLES, CkNumPes());
mainProxy = thisProxy;
pointsProxy = CProxy_points::ckNew(8,8);
stage = 0;
totalParticles = 0;
startStep();
};
void ControlWindows::start()
{
m_ui->horizontalLayout->setEnabled(false); // FIXME fare una funzione più precisa
m_DeltaT = m_ui->spinIntegrationTime->value();
m_dutyStep=m_ui->spinDutyStep->value();
m_pol=m_ui->doubleSpinOutPol->value();
m_timer.setInterval(m_DeltaT*1000);
m_duty=0;
m_spiedino->setDuty(m_duty);
m_counterino->clear();
startStep();
}
void shiftPoints()
{
int i; //Generate random doubles between (-1/800 to 1/800)
double shiftX = (((double)rand()/(double)RAND_MAX)/400 - (1.0/800.0));
double shiftY = (((double)rand()/(double)RAND_MAX)/400 - (1.0/800.0));
double tempX,tempY;
for(i = 0;i<count;i++)
{
tempX = valuesX[i];
tempY = valuesY[i];
valuesX[i] = valuesX[i]+shiftX;
valuesY[i] = valuesY[i]+shiftY;
if(valuesX[i] < 0.0) //Adjustments done to ensure that the coordinates lie within [0,1].
valuesX[i] = 0.0 - valuesX[i];
else if(valuesX[i] > 1.0)
valuesX[i] = tempX;
if(valuesY[i] < 0.0)
valuesY[i] = 0.0 - valuesY[i];
else if(valuesY[i] > 1.0)
valuesY[i] = tempY;
}
startStep();
};
void pdp::ThickeningDetector::run()
{
struct StepInfo {
float realPercent;
ThickeningDetectionStep* step;
StepInfo(ThickeningDetectionStep* step) : step(step) {};
};
typedef std::list<StepInfo> StepList;
StepList steps;
// Add your steps here in a similar way.
//using threshold to detect the lungs
//the first and end slices containing a large enough amount of lungs are found
LungsDetection* startEnd = new LungsDetection("detect start and end of the lungs");
startEnd->setInputStepName("Original Lung CT");
steps.push_back(startEnd);
OtsuStep* otsu = new OtsuStep("detect start and end of the lungs");
otsu->setInputStepName("Lungs");
steps.push_back(otsu);
//EMClassification* emClassifier = new EMClassification("detect start and end of the lungs");
//emClassifier->setInputStepName("Otsu");
//steps.push_back(emClassifier);
//contourExtractor<double>* contour = new contourExtractor<double>("Extracting contours");
// contour->setInputStepName("Lungs");
// steps.push_back(contour);
// convexHull* convex = new convexHull("Computing the convex hull");
// steps.push_back(convex);
//
//thickeningsIdentification* thickIdent = new thickeningsIdentification("Identifying 3d thicks");
// steps.push_back(thickIdent);
//visualizeData<double>* visualize = new visualizeData<double>("Visualizing data");
// steps.push_back(visualize);
// Done adding steps, let's go!
// Normalize the progress percents.
float totalPercent = 0.0f;
for(StepList::iterator iStep = steps.begin() ; iStep != steps.end() ; ++iStep) {
totalPercent += iStep->step->relativePercent();
}
for(StepList::iterator iStep = steps.begin() ; iStep != steps.end() ; ++iStep) {
iStep->realPercent = iStep->step->relativePercent() / totalPercent;
}
// Execute the steps.
for(StepList::iterator iStep = steps.begin() ; iStep != steps.end() ; ++iStep) {
QObject::connect(iStep->step, SIGNAL(stepProgress(float)),
this, SLOT(onStepProgress(float)));
emit startStep(iStep->step->name(), iStep->realPercent);
//! \todo exceptionhandling
iStep->step->work(m_input, m_output);
emit stepDone();
// Cleanup
QObject::disconnect(iStep->step, SIGNAL(stepProgress(float)),
this, SLOT(onStepProgress(float)));
delete iStep->step;
}
this->exit();
}