void AMLoopAction3::internalOnCurrentActionProgressChanged(double numerator, double denominator)
{
if(internalAllActionsHaveExpectedDuration()) {
double totalNumerator = 0, totalDenominator = 0;
for(int i=0, cc=subActionCount(); i<cc; i++) {
AMAction3* action = subActionAt(i);
double expectedSecs = action->info()->expectedDuration();
totalDenominator += expectedSecs*loopCount();
int timesFinished = currentIteration_;
if(i < currentSubActionIndex_)
timesFinished++;
totalNumerator += expectedSecs*timesFinished;
if(i == currentSubActionIndex()) // if it's the current action, we have some partial progress.
totalNumerator += numerator/denominator * expectedSecs;
}
setProgress(totalNumerator, totalDenominator);
setExpectedDuration(totalDenominator);
}
// Otherwise, assume every subaction makes up an equal unit ('1') of the total amount of work. Our denominator will be the number of sub-actions * the number of loops, and our numerator will be the sub-actions we've completed (plus the current sub-action's fraction done).
else {
double totalDenominator = subActionCount()*loopCount();
double totalNumerator = subActionCount()*currentIteration_; // add the completed full loops
totalNumerator += currentSubActionIndex_; // add the actions done in this loop
totalNumerator += numerator/denominator; // add the fraction done for the current action.
setProgress(totalNumerator, totalDenominator);
setExpectedDuration(runningTime()*totalDenominator/totalNumerator);
}
}
void VESPERSEXAFSScanConfiguration::computeTotalTimeImplementation()
{
double time = 0;
if (exafsRegions()->hasKSpace() && !useFixedTime_){
for (int i = 0; i < regions_->count(); i++){
if (exafsRegions()->type(i) == AMEXAFSRegion::kSpace)
time += VESPERSBeamline::vespers()->variableIntegrationTime()->totalTime(regions_->delta(i)) + ((regions_->end(i) - regions_->start(i))/regions_->delta(i))*timeOffset_;
else
time += ((regions_->end(i) - regions_->start(i))/regions_->delta(i))*(regions_->time(i) + timeOffset_); // Seems to take about 0.7 seconds for extra beamline stuff to happen.
}
}
else{
for (int i = 0; i < regions_->count(); i++)
time += ((regions_->end(i) - regions_->start(i))/regions_->delta(i))*(regions_->time(i) + timeOffset_); // Seems to take about 0.7 seconds for extra beamline stuff to happen.
}
totalTime_ = time + 9; // There is a 9 second miscellaneous startup delay.
setExpectedDuration(totalTime_);
emit totalTimeChanged(totalTime_);
}
AMScanConfiguration *AMScanActionInfo::configuration()
{
if (config_)
return config_;
config_ = getConfigurationFromDb();
connect(config_, SIGNAL(expectedDurationChanged(double)), this, SLOT(setExpectedDuration(double)));
setExpectedDuration(config_->expectedDuration());
return config_;
}
void SXRMB2DMapScanConfiguration::computeTotalTimeImplementation()
{
double time = 0;
// Get the number of points.
time = scanAxisAt(0)->numberOfPoints() + scanAxisAt(1)->numberOfPoints();
time *= double(scanAxisAt(0)->regionAt(0)->regionTime()) + timeOffset_;
totalTime_ = time + 9; // initialization time is about 9s
setExpectedDuration(totalTime_);
emit totalTimeChanged(totalTime_);
}
AMScanActionInfo::AMScanActionInfo(AMScanConfiguration *config, const QString &iconFileName, QObject *parent)
: AMActionInfo3(config->userScanName(), config->description(), iconFileName, parent)
{
config_ = config;
scanID_ = -1;
connect(config_, SIGNAL(expectedDurationChanged(double)), this, SLOT(setExpectedDuration(double)));
connect(config_, SIGNAL(configurationChanged()), this, SLOT(onConfigChanged()));
setExpectedDuration(config_->expectedDuration());
if(!config_->detailedDescription().isEmpty()) {
setShortDescription(config_->userScanName()%"\n"%config_->description());
setLongDescription(config_->detailedDescription());
}
}
void VESPERSTimeScanConfiguration::computeTotalTimeImplementation()
{
double totalTime = 0;
// Factor in the time per point. There is an extra 6 seconds for CCD images for the Roper and Mar.
if (ccdDetector() == VESPERS::Roper)
totalTime += timePerAcquisition() + timeOffset_ + 6.0;
else if (ccdDetector() == VESPERS::Mar)
totalTime += timePerAcquisition() + timeOffset_ + 3.0;
else
totalTime += timePerAcquisition() + timeOffset_;
totalTime_ = iterations_*totalTime;
setExpectedDuration(totalTime_);
emit totalTimeChanged(totalTime_);
}
void AMControlMoveAction::onProgressTick()
{
double destination = control_->setpoint();
double fractionComplete = (control_->value() - startPosition_.value()) / (destination - startPosition_.value());
double runningSeconds = runningTime();
double expectedTotalSeconds = runningSeconds / fractionComplete;
if(fractionComplete != 0) {
// set expected duration based on time taken so far and distance travelled to destination.
setExpectedDuration(expectedTotalSeconds);
setProgress(runningSeconds, expectedTotalSeconds); // exactly equal to fractionComplete. We observe the convention that when possible, progress numerator and denominator should be in seconds.
}
else {
setProgress(0, 100);
// in this case, no idea on the expected duration (unless we knew the speed of the control)
}
}
AMScanActionInfo::AMScanActionInfo(const AMScanActionInfo &other)
: AMActionInfo3(other)
{
config_ = other.config_ ? other.config_->createCopy() : 0;
scanID_ = -1;
connect(config_, SIGNAL(expectedDurationChanged(double)), this, SLOT(setExpectedDuration(double)));
connect(config_, SIGNAL(configurationChanged()), this, SLOT(onConfigChanged()));
setExpectedDuration(config_->expectedDuration());
if(!config_->detailedDescription().isEmpty()) {
QString scanName = config_->userScanName();
if(scanName.isEmpty())
scanName = other.shortDescription();
setShortDescription(scanName);
setLongDescription(config_->detailedDescription());
}
}
void VESPERS2DScanConfiguration::computeTotalTimeImplementation()
{
double time = 0;
// Get the number of points.
time = scanAxisAt(0)->numberOfPoints() * scanAxisAt(1)->numberOfPoints();
// Factor in the time per point. There is an extra 6 seconds for CCD images for the Roper and Mar.
if (ccdDetector() == VESPERS::Roper)
time *= double(scanAxisAt(0)->regionAt(0)->regionTime()) + timeOffset_ + 6.0;
else if (ccdDetector() == VESPERS::Mar)
time *= double(scanAxisAt(0)->regionAt(0)->regionTime()) + timeOffset_ + 3.0;
else
time *= double(scanAxisAt(0)->regionAt(0)->regionTime()) + timeOffset_;
totalTime_ = time + 9;
setExpectedDuration(totalTime_);
emit totalTimeChanged(totalTime_);
}
void VESPERSSpatialLineScanConfiguration::computeTotalTimeImplementation()
{
double totalTime = 0;
// Get the number of points. Using 0 for the index because this will only have one region per scan.
totalTime = scanAxisAt(0)->regionAt(0)->numberOfPoints();
// Factor in the time per point. There is an extra 6 seconds for CCD images for the Roper and Mar.
if (ccdDetector() == VESPERS::Roper)
totalTime *= time() + timeOffset_ + 6.0;
else if (ccdDetector() == VESPERS::Mar)
totalTime *= time() + timeOffset_ + 3.0;
else
totalTime *= time() + timeOffset_;
totalTime_ = totalTime + 9;
setExpectedDuration(totalTime_);
emit totalTimeChanged(totalTime_);
}