/**
* Run new CompareWorkspaces algorithm as a child algorithm.
*
* Result string formatted the same way as before; "Success!" when workspaces
* match or a newline separated list of mismatch messages.
*
* @param group_compare Should output be formatted like group comparison?
* @return A string containing either successString() or mismatch messages
*/
std::string CheckWorkspacesMatch::runCompareWorkspaces(bool group_compare) {
// This algorithm produces a single result string
std::string result;
// Use new CompareWorkspaces algorithm to perform comparison
Algorithm_sptr compare = this->createChildAlgorithm("CompareWorkspaces");
compare->setRethrows(true);
compare->setLogging(false);
// Forward workspace properties
Workspace_sptr ws1 = getProperty("Workspace1");
Workspace_sptr ws2 = getProperty("Workspace2");
compare->setProperty("Workspace1", ws1);
compare->setProperty("Workspace2", ws2);
// Copy any other non-default properties
const std::vector<Property *> &allProps = this->getProperties();
auto propCount = allProps.size();
for (size_t i = 0; i < propCount; ++i) {
Property *prop = allProps[i];
const std::string &pname = prop->name();
if (!prop->isDefault() && pname != "Workspace1" && pname != "Workspace2" &&
pname != "Result")
compare->setPropertyValue(pname, prop->value());
}
// Execute comparison
compare->execute();
// Generate result string
if (!compare->getProperty("Result")) {
ITableWorkspace_sptr table = compare->getProperty("Messages");
auto rowcount = table->rowCount();
for (size_t i = 0; i < rowcount; ++i) {
result += table->cell<std::string>(i, 0);
// Emulate special case output format when comparing groups
if (group_compare &&
table->cell<std::string>(i, 0) !=
"Type mismatch. One workspace is a group, the other is not." &&
table->cell<std::string>(i, 0) != "GroupWorkspaces size mismatch.") {
result += ". Inputs=[" + table->cell<std::string>(i, 1) + "," +
table->cell<std::string>(i, 2) + "]";
}
if (i < (rowcount - 1))
result += "\n";
}
} else {
result = successString();
}
return result;
}
/**
* @brief CompareWorkspaces::processGroups
* @param groupOne
* @param groupTwo
*/
void CompareWorkspaces::processGroups(
boost::shared_ptr<const API::WorkspaceGroup> groupOne,
boost::shared_ptr<const API::WorkspaceGroup> groupTwo) {
// Check their sizes
const size_t totalNum = static_cast<size_t>(groupOne->getNumberOfEntries());
if (groupOne->getNumberOfEntries() != groupTwo->getNumberOfEntries()) {
recordMismatch("GroupWorkspaces size mismatch.");
return;
}
// See if there are any other properties that require setting
const std::vector<Property *> &allProps = this->getProperties();
std::vector<Property *> nonDefaultProps;
nonDefaultProps.reserve(allProps.size());
for (auto p : allProps) {
const std::string &propName = p->name();
// Skip those not set and the input workspaces
if (p->isDefault() || propName == "Workspace1" || propName == "Workspace2")
continue;
nonDefaultProps.push_back(p);
}
const size_t numNonDefault = nonDefaultProps.size();
const double progressFraction = 1.0 / static_cast<double>(totalNum);
std::vector<std::string> namesOne = groupOne->getNames();
std::vector<std::string> namesTwo = groupTwo->getNames();
for (size_t i = 0; i < totalNum; ++i) {
// We should use an algorithm for each so that the output properties are
// reset properly
Algorithm_sptr checker = this->createChildAlgorithm(
this->name(), progressFraction * static_cast<double>(i),
progressFraction * static_cast<double>(i + 1), false, this->version());
checker->setPropertyValue("Workspace1", namesOne[i]);
checker->setPropertyValue("Workspace2", namesTwo[i]);
for (size_t j = 0; j < numNonDefault; ++j) {
Property *p = nonDefaultProps[j];
checker->setPropertyValue(p->name(), p->value());
}
checker->execute();
bool success = checker->getProperty("Result");
if (!success) {
ITableWorkspace_sptr table = checker->getProperty("Messages");
recordMismatch(table->cell<std::string>(0, 0), namesOne[i], namesTwo[i]);
}
}
}
/** Add workspace2 to workspace1 by adding spectrum.
*/
MatrixWorkspace_sptr
AlignAndFocusPowder::conjoinWorkspaces(API::MatrixWorkspace_sptr ws1,
API::MatrixWorkspace_sptr ws2,
size_t offset) {
// Get information from ws1: maximum spectrum number, and store original
// spectrum Nos
size_t nspec1 = ws1->getNumberHistograms();
specnum_t maxspecNo1 = 0;
std::vector<specnum_t> origspecNos;
for (size_t i = 0; i < nspec1; ++i) {
specnum_t tmpspecNo = ws1->getSpectrum(i).getSpectrumNo();
origspecNos.push_back(tmpspecNo);
if (tmpspecNo > maxspecNo1)
maxspecNo1 = tmpspecNo;
}
g_log.information() << "[DBx536] Max spectrum number of ws1 = " << maxspecNo1
<< ", Offset = " << offset << ".\n";
size_t nspec2 = ws2->getNumberHistograms();
// Conjoin 2 workspaces
Algorithm_sptr alg = this->createChildAlgorithm("AppendSpectra");
alg->initialize();
;
alg->setProperty("InputWorkspace1", ws1);
alg->setProperty("InputWorkspace2", ws2);
alg->setProperty("OutputWorkspace", ws1);
alg->setProperty("ValidateInputs", false);
alg->executeAsChildAlg();
API::MatrixWorkspace_sptr outws = alg->getProperty("OutputWorkspace");
// FIXED : Restore the original spectrum Nos to spectra from ws1
for (size_t i = 0; i < nspec1; ++i) {
specnum_t tmpspecNo = outws->getSpectrum(i).getSpectrumNo();
outws->getSpectrum(i).setSpectrumNo(origspecNos[i]);
g_log.information() << "[DBx540] Conjoined spectrum " << i
<< ": restore spectrum number to "
<< outws->getSpectrum(i).getSpectrumNo()
<< " from spectrum number = " << tmpspecNo << ".\n";
}
// Rename spectrum number
if (offset >= 1) {
for (size_t i = 0; i < nspec2; ++i) {
specnum_t newspecid = maxspecNo1 + static_cast<specnum_t>((i) + offset);
outws->getSpectrum(nspec1 + i).setSpectrumNo(newspecid);
// ISpectrum* spec = outws->getSpectrum(nspec1+i);
// if (spec)
// spec->setSpectrumNo(3);
}
}
return outws;
}
/** Sum all detector pixels except monitors and masked detectors
* @param WS :: The workspace containing the spectrum to sum
* @return A Workspace2D containing the sum
*/
API::MatrixWorkspace_sptr CalculateTransmissionBeamSpreader::sumSpectra(API::MatrixWorkspace_sptr WS)
{
Algorithm_sptr childAlg = createSubAlgorithm("SumSpectra");
childAlg->setProperty<MatrixWorkspace_sptr>("InputWorkspace", WS);
childAlg->setProperty<bool>("IncludeMonitors", false);
childAlg->executeAsSubAlg();
return childAlg->getProperty("OutputWorkspace");
}
/** Extracts OutputWorkspace property from supplied algorithm is present.
*
* This methods executes the given algorithm and tries to extract the output workspace.
*
* @param algorithm :: Pointer to algorithm.
* @return MatrixWorkspace stored in algorithm's OutputWorkspace property.
*/
MatrixWorkspace_sptr PoldiTruncateData::getOutputWorkspace(Algorithm_sptr algorithm)
{
if(!algorithm || !algorithm->execute()) {
throw std::runtime_error("Workspace could not be retrieved successfully.");
}
MatrixWorkspace_sptr outputWorkspace = algorithm->getProperty("OutputWorkspace");
return outputWorkspace;
}
/** Uses 'Linear' as a subalgorithm to fit the log of the exponential curve expected for the transmission.
* @param WS :: The single-spectrum workspace to fit
* @return A workspace containing the fit
*/
API::MatrixWorkspace_sptr CalculateTransmissionBeamSpreader::fitToData(API::MatrixWorkspace_sptr WS)
{
g_log.information("Fitting the experimental transmission curve");
Algorithm_sptr childAlg = createSubAlgorithm("Linear",0.6,1.0);
childAlg->setProperty<MatrixWorkspace_sptr>("InputWorkspace", WS);
const double lambdaMin = getProperty("MinWavelength");
const double lambdaMax = getProperty("MaxWavelength");
childAlg->setProperty<double>("StartX",lambdaMin);
childAlg->setProperty<double>("EndX",lambdaMax);
childAlg->executeAsSubAlg();
std::string fitStatus = childAlg->getProperty("FitStatus");
if ( fitStatus != "success" )
{
g_log.error("Unable to successfully fit the data: " + fitStatus);
throw std::runtime_error("Unable to successfully fit the data");
}
// Only get to here if successful
MatrixWorkspace_sptr result = childAlg->getProperty("OutputWorkspace");
if (logFit)
{
// Need to transform back to 'unlogged'
double b = childAlg->getProperty("FitIntercept");
double m = childAlg->getProperty("FitSlope");
b = std::pow(10,b);
m = std::pow(10,m);
const MantidVec & X = result->readX(0);
MantidVec & Y = result->dataY(0);
MantidVec & E = result->dataE(0);
for (size_t i = 0; i < Y.size(); ++i)
{
Y[i] = b*(std::pow(m,0.5*(X[i]+X[i+1])));
E[i] = std::abs(E[i]*Y[i]);
}
}
return result;
}
void EstimatePDDetectorResolution::retrieveInstrumentParameters()
{
#if 0
// Call SolidAngle to get solid angles for all detectors
Algorithm_sptr calsolidangle = createChildAlgorithm("SolidAngle", -1, -1, true);
calsolidangle->initialize();
calsolidangle->setProperty("InputWorkspace", m_inputWS);
calsolidangle->execute();
if (!calsolidangle->isExecuted())
throw runtime_error("Unable to run solid angle. ");
m_solidangleWS = calsolidangle->getProperty("OutputWorkspace");
if (!m_solidangleWS)
throw runtime_error("Unable to get solid angle workspace from SolidAngle(). ");
size_t numspec = m_solidangleWS->getNumberHistograms();
for (size_t i = 0; i < numspec; ++i)
g_log.debug() << "[DB]: " << m_solidangleWS->readY(i)[0] << "\n";
#endif
// Calculate centre neutron velocity
Property* cwlproperty = m_inputWS->run().getProperty("LambdaRequest");
if (!cwlproperty)
throw runtime_error("Unable to locate property LambdaRequest as central wavelength. ");
TimeSeriesProperty<double>* cwltimeseries = dynamic_cast<TimeSeriesProperty<double>* >(cwlproperty);
if (!cwltimeseries)
throw runtime_error("LambdaReqeust is not a TimeSeriesProperty in double. ");
if (cwltimeseries->size() != 1)
throw runtime_error("LambdaRequest should contain 1 and only 1 entry. ");
double centrewavelength = cwltimeseries->nthValue(0);
string unit = cwltimeseries->units();
if (unit.compare("Angstrom") == 0)
centrewavelength *= 1.0E-10;
else
throw runtime_error("Unit is not recognized");
m_centreVelocity = PhysicalConstants::h/PhysicalConstants::NeutronMass/centrewavelength;
g_log.notice() << "Centre wavelength = " << centrewavelength << ", Centre neutron velocity = " << m_centreVelocity << "\n";
// Calcualte L1 sample to source
Instrument_const_sptr instrument = m_inputWS->getInstrument();
V3D samplepos = instrument->getSample()->getPos();
V3D sourcepos = instrument->getSource()->getPos();
m_L1 = samplepos.distance(sourcepos);
g_log.notice() << "L1 = " << m_L1 << "\n";
return;
}
/** Extracts a single spectrum from a Workspace2D into a new workspaces. Uses CropWorkspace to do this.
* @param WS :: The workspace containing the spectrum to extract
* @param index :: The workspace index of the spectrum to extract
* @return A Workspace2D containing the extracted spectrum
*/
API::MatrixWorkspace_sptr CalculateTransmissionBeamSpreader::extractSpectrum(API::MatrixWorkspace_sptr WS, const size_t index)
{
// Check that given spectra are monitors
if ( !WS->getDetector(index)->isMonitor() )
{
g_log.information("The Incident Beam Monitor UDET provided is not marked as a monitor");
}
Algorithm_sptr childAlg = createSubAlgorithm("ExtractSingleSpectrum",0.0,0.4);
childAlg->setProperty<MatrixWorkspace_sptr>("InputWorkspace", WS);
childAlg->setProperty<int>("WorkspaceIndex", static_cast<int>(index));
childAlg->executeAsSubAlg();
return childAlg->getProperty("OutputWorkspace");
}
/**
* Process the two groups together and set the result accordingly
* @param groupOne :: Input group 1
* @param groupTwo :: Input group 2
*/
void CheckWorkspacesMatch::processGroups(
boost::shared_ptr<const API::WorkspaceGroup> groupOne,
boost::shared_ptr<const API::WorkspaceGroup> groupTwo) {
// Check their sizes
const size_t totalNum = static_cast<size_t>(groupOne->getNumberOfEntries());
if (groupOne->getNumberOfEntries() != groupTwo->getNumberOfEntries()) {
this->result = "GroupWorkspaces size mismatch.";
return;
}
// See if there are any other properties that require setting
const std::vector<Property *> &allProps = this->getProperties();
std::vector<Property *> nonDefaultProps;
nonDefaultProps.reserve(allProps.size());
for (size_t i = 0; i < allProps.size(); ++i) {
Property *p = allProps[i];
const std::string &propName = p->name();
// Skip those not set and the input workspaces
if (p->isDefault() || propName == "Workspace1" || propName == "Workspace2")
continue;
nonDefaultProps.push_back(p);
}
const size_t numNonDefault = nonDefaultProps.size();
const double progressFraction = 1.0 / static_cast<double>(totalNum);
std::vector<std::string> namesOne = groupOne->getNames();
std::vector<std::string> namesTwo = groupTwo->getNames();
for (size_t i = 0; i < totalNum; ++i) {
// We should use an algorithm for each so that the output properties are
// reset properly
Algorithm_sptr checker = this->createChildAlgorithm(
this->name(), progressFraction * (double)i,
progressFraction * (double)(i + 1), false, this->version());
checker->setPropertyValue("Workspace1", namesOne[i]);
checker->setPropertyValue("Workspace2", namesTwo[i]);
for (size_t j = 0; j < numNonDefault; ++j) {
Property *p = nonDefaultProps[j];
checker->setPropertyValue(p->name(), p->value());
}
checker->execute();
std::string success = checker->getProperty("Result");
if (success != this->successString()) {
if (!this->result.empty())
this->result += "\n";
this->result +=
success + ". Inputs=[" + namesOne[i] + "," + namesTwo[i] + "]";
}
}
}
void SofQW::exec() {
// Find the approopriate algorithm
std::string method = this->getProperty("Method");
std::string child = "SofQW" + method;
// Setup and run
Algorithm_sptr childAlg = boost::dynamic_pointer_cast<Algorithm>(
createChildAlgorithm(child, 0.0, 1.0));
// This will add the Method property to the child algorithm but it will be
// ignored anyway...
childAlg->copyPropertiesFrom(*this);
childAlg->execute();
MatrixWorkspace_sptr outputWS = childAlg->getProperty("OutputWorkspace");
this->setProperty("OutputWorkspace", outputWS);
}
void SofQW::exec() {
// Find the approopriate algorithm
std::string method = this->getProperty("Method");
std::string child = "SofQW" + method;
// Setup and run
Algorithm_sptr childAlg = boost::dynamic_pointer_cast<Algorithm>(
createChildAlgorithm(child, 0.0, 1.0));
// This will add the Method property to the child algorithm but it will be
// ignored anyway...
childAlg->copyPropertiesFrom(*this);
childAlg->execute();
MatrixWorkspace_sptr outputWS = childAlg->getProperty("OutputWorkspace");
this->setProperty("OutputWorkspace", outputWS);
// Progress reports & cancellation
MatrixWorkspace_const_sptr inputWorkspace = getProperty("InputWorkspace");
const size_t nHistos = inputWorkspace->getNumberHistograms();
auto m_progress = make_unique<Progress>(this, 0.0, 1.0, nHistos);
m_progress->report("Creating output workspace");
}
/** Execute the algorithm.
*/
void LoadLiveData::exec() {
// The full, post-processed output workspace
m_outputWS = this->getProperty("OutputWorkspace");
// Validate inputs
if (this->hasPostProcessing()) {
if (this->getPropertyValue("AccumulationWorkspace").empty())
throw std::invalid_argument("Must specify the AccumulationWorkspace "
"parameter if using PostProcessing.");
// The accumulated but not post-processed output workspace
m_accumWS = this->getProperty("AccumulationWorkspace");
} else {
// No post-processing, so the accumulation and output are the same
m_accumWS = m_outputWS;
}
// Get or create the live listener
ILiveListener_sptr listener = this->getLiveListener();
// Do we need to reset the data?
bool dataReset = listener->dataReset();
// The listener returns a MatrixWorkspace containing the chunk of live data.
Workspace_sptr chunkWS;
bool dataNotYetGiven = true;
while (dataNotYetGiven) {
try {
chunkWS = listener->extractData();
dataNotYetGiven = false;
} catch (Exception::NotYet &ex) {
g_log.warning() << "The " << listener->name()
<< " is not ready to return data: " << ex.what() << "\n";
g_log.warning()
<< "Trying again in 10 seconds - cancel the algorithm to stop.\n";
const int tenSeconds = 40;
for (int i = 0; i < tenSeconds; ++i) {
Poco::Thread::sleep(10000 / tenSeconds); // 250 ms
this->interruption_point();
}
}
}
// TODO: Have the ILiveListener tell me exactly the time stamp
DateAndTime lastTimeStamp = DateAndTime::getCurrentTime();
this->setPropertyValue("LastTimeStamp", lastTimeStamp.toISO8601String());
// Now we process the chunk
Workspace_sptr processed = this->processChunk(chunkWS);
bool PreserveEvents = this->getProperty("PreserveEvents");
EventWorkspace_sptr processedEvent =
boost::dynamic_pointer_cast<EventWorkspace>(processed);
if (!PreserveEvents && processedEvent) {
// Convert the monitor workspace, if there is one and it's necessary
MatrixWorkspace_sptr monitorWS = processedEvent->monitorWorkspace();
auto monitorEventWS =
boost::dynamic_pointer_cast<EventWorkspace>(monitorWS);
if (monitorEventWS) {
auto monAlg = this->createChildAlgorithm("ConvertToMatrixWorkspace");
monAlg->setProperty("InputWorkspace", monitorEventWS);
monAlg->executeAsChildAlg();
if (!monAlg->isExecuted())
g_log.error(
"Failed to convert monitors from events to histogram form.");
monitorWS = monAlg->getProperty("OutputWorkspace");
}
// Now do the main workspace
Algorithm_sptr alg = this->createChildAlgorithm("ConvertToMatrixWorkspace");
alg->setProperty("InputWorkspace", processedEvent);
std::string outputName = "__anonymous_livedata_convert_" +
this->getPropertyValue("OutputWorkspace");
alg->setPropertyValue("OutputWorkspace", outputName);
alg->execute();
if (!alg->isExecuted())
throw std::runtime_error("Error when calling ConvertToMatrixWorkspace "
"(since PreserveEvents=False). See log.");
// Replace the "processed" workspace with the converted one.
MatrixWorkspace_sptr temp = alg->getProperty("OutputWorkspace");
if (monitorWS)
temp->setMonitorWorkspace(monitorWS); // Set back the monitor workspace
processed = temp;
}
// How do we accumulate the data?
std::string accum = this->getPropertyValue("AccumulationMethod");
// If the AccumulationWorkspace does not exist, we always replace the
// AccumulationWorkspace.
// Also, if the listener said we are resetting the data, then we clear out the
// old.
if (!m_accumWS || dataReset)
accum = "Replace";
g_log.notice() << "Performing the " << accum << " operation.\n";
// Perform the accumulation and set the AccumulationWorkspace workspace
if (accum == "Replace")
this->replaceChunk(processed);
else if (accum == "Append")
this->appendChunk(processed);
else
// Default to Add.
this->addChunk(processed);
// At this point, m_accumWS is set.
if (this->hasPostProcessing()) {
// ----------- Run post-processing -------------
this->runPostProcessing();
// Set both output workspaces
this->setProperty("AccumulationWorkspace", m_accumWS);
this->setProperty("OutputWorkspace", m_outputWS);
doSortEvents(m_outputWS);
} else {
// ----------- No post-processing -------------
m_outputWS = m_accumWS;
// We DO NOT set AccumulationWorkspace.
this->setProperty("OutputWorkspace", m_outputWS);
}
// Output group requires some additional handling
WorkspaceGroup_sptr out_gws =
boost::dynamic_pointer_cast<WorkspaceGroup>(m_outputWS);
if (out_gws) {
size_t n = static_cast<size_t>(out_gws->getNumberOfEntries());
for (size_t i = 0; i < n; ++i) {
auto ws = out_gws->getItem(i);
std::string itemName = ws->name();
std::string wsName =
getPropertyValue("OutputWorkspace") + "_" + std::to_string(i + 1);
if (wsName != itemName) {
if (AnalysisDataService::Instance().doesExist(itemName)) {
// replace the temporary name with the proper one
AnalysisDataService::Instance().rename(itemName, wsName);
}
} else {
// touch the workspace in the ADS to issue a notification to update the
// GUI
AnalysisDataService::Instance().addOrReplace(itemName, ws);
}
}
}
}
/*
Executes the underlying algorithm to create the MVP model.
@param factory : visualisation factory to use.
@param loadingProgressUpdate : Handler for GUI updates while algorithm
progresses.
@param drawingProgressUpdate : Handler for GUI updates while
vtkDataSetFactory::create occurs.
*/
vtkSmartPointer<vtkDataSet>
EventNexusLoadingPresenter::execute(vtkDataSetFactory *factory,
ProgressAction &loadingProgressUpdate,
ProgressAction &drawingProgressUpdate) {
using namespace Mantid::API;
using namespace Mantid::Geometry;
this->m_view->getLoadInMemory(); // TODO, nexus reader algorithm currently has
// no use of this.
if (this->shouldLoad()) {
Poco::NObserver<ProgressAction,
Mantid::API::Algorithm::ProgressNotification>
observer(loadingProgressUpdate, &ProgressAction::handler);
AnalysisDataService::Instance().remove("MD_EVENT_WS_ID");
Algorithm_sptr loadAlg =
AlgorithmManager::Instance().createUnmanaged("LoadEventNexus");
loadAlg->initialize();
loadAlg->setChild(true);
loadAlg->setPropertyValue("Filename", this->m_filename);
loadAlg->setPropertyValue("OutputWorkspace", "temp_ws");
loadAlg->addObserver(observer);
loadAlg->executeAsChildAlg();
loadAlg->removeObserver(observer);
Workspace_sptr temp = loadAlg->getProperty("OutputWorkspace");
IEventWorkspace_sptr tempWS =
boost::dynamic_pointer_cast<IEventWorkspace>(temp);
Algorithm_sptr convertAlg = AlgorithmManager::Instance().createUnmanaged(
"ConvertToDiffractionMDWorkspace", 1);
convertAlg->initialize();
convertAlg->setChild(true);
convertAlg->setProperty("InputWorkspace", tempWS);
convertAlg->setProperty<bool>("ClearInputWorkspace", false);
convertAlg->setProperty<bool>("LorentzCorrection", true);
convertAlg->setPropertyValue("OutputWorkspace", "converted_ws");
convertAlg->addObserver(observer);
convertAlg->executeAsChildAlg();
convertAlg->removeObserver(observer);
IMDEventWorkspace_sptr outWS = convertAlg->getProperty("OutputWorkspace");
AnalysisDataService::Instance().addOrReplace("MD_EVENT_WS_ID", outWS);
}
Workspace_sptr result =
AnalysisDataService::Instance().retrieve("MD_EVENT_WS_ID");
Mantid::API::IMDEventWorkspace_sptr eventWs =
boost::dynamic_pointer_cast<Mantid::API::IMDEventWorkspace>(result);
m_wsTypeName = eventWs->id();
factory->setRecursionDepth(this->m_view->getRecursionDepth());
auto visualDataSet = factory->oneStepCreate(
eventWs, drawingProgressUpdate); // HACK: progressUpdate should be
// argument for drawing!
this->extractMetadata(*eventWs);
this->appendMetadata(visualDataSet, eventWs->getName());
return visualDataSet;
}
bool ReflectometryReductionOneAuto::processGroups() {
// isPolarizationCorrectionOn is used to decide whether
// we should process our Transmission WorkspaceGroup members
// as individuals (not multiperiod) when PolarizationCorrection is off,
// or sum over all of the workspaces in the group
// and used that sum as our TransmissionWorkspace when PolarizationCorrection
// is on.
const bool isPolarizationCorrectionOn =
this->getPropertyValue("PolarizationAnalysis") !=
noPolarizationCorrectionMode();
// Get our input workspace group
auto group = AnalysisDataService::Instance().retrieveWS<WorkspaceGroup>(
getPropertyValue("InputWorkspace"));
// Get name of IvsQ workspace
const std::string outputIvsQ = this->getPropertyValue("OutputWorkspace");
// Get name of IvsLam workspace
const std::string outputIvsLam =
this->getPropertyValue("OutputWorkspaceWavelength");
// Create a copy of ourselves
Algorithm_sptr alg = this->createChildAlgorithm(
this->name(), -1, -1, this->isLogging(), this->version());
alg->setChild(false);
alg->setRethrows(true);
// Copy all the non-workspace properties over
std::vector<Property *> props = this->getProperties();
for (auto &prop : props) {
if (prop) {
IWorkspaceProperty *wsProp = dynamic_cast<IWorkspaceProperty *>(prop);
if (!wsProp)
alg->setPropertyValue(prop->name(), prop->value());
}
}
// Check if the transmission runs are groups or not
const std::string firstTrans = this->getPropertyValue("FirstTransmissionRun");
WorkspaceGroup_sptr firstTransG;
if (!firstTrans.empty()) {
auto firstTransWS =
AnalysisDataService::Instance().retrieveWS<Workspace>(firstTrans);
firstTransG = boost::dynamic_pointer_cast<WorkspaceGroup>(firstTransWS);
if (!firstTransG) {
// we only have one transmission workspace, so we use it as it is.
alg->setProperty("FirstTransmissionRun", firstTrans);
} else if (group->size() != firstTransG->size() &&
!isPolarizationCorrectionOn) {
// if they are not the same size then we cannot associate a transmission
// group workspace member with every input group workpspace member.
throw std::runtime_error("FirstTransmissionRun WorkspaceGroup must be "
"the same size as the InputWorkspace "
"WorkspaceGroup");
}
}
const std::string secondTrans =
this->getPropertyValue("SecondTransmissionRun");
WorkspaceGroup_sptr secondTransG;
if (!secondTrans.empty()) {
auto secondTransWS =
AnalysisDataService::Instance().retrieveWS<Workspace>(secondTrans);
secondTransG = boost::dynamic_pointer_cast<WorkspaceGroup>(secondTransWS);
if (!secondTransG)
// we only have one transmission workspace, so we use it as it is.
alg->setProperty("SecondTransmissionRun", secondTrans);
else if (group->size() != secondTransG->size() &&
!isPolarizationCorrectionOn) {
// if they are not the same size then we cannot associate a transmission
// group workspace member with every input group workpspace member.
throw std::runtime_error("SecondTransmissionRun WorkspaceGroup must be "
"the same size as the InputWorkspace "
"WorkspaceGroup");
}
}
std::vector<std::string> IvsQGroup, IvsLamGroup;
// Execute algorithm over each group member (or period, if this is
// multiperiod)
size_t numMembers = group->size();
for (size_t i = 0; i < numMembers; ++i) {
const std::string IvsQName =
outputIvsQ + "_" + boost::lexical_cast<std::string>(i + 1);
const std::string IvsLamName =
outputIvsLam + "_" + boost::lexical_cast<std::string>(i + 1);
// If our transmission run is a group and PolarizationCorrection is on
// then we sum our transmission group members.
//
// This is done inside of the for loop to avoid the wrong workspace being
// used when these arguments are passed through to the exec() method.
// If this is not set in the loop, exec() will fetch the first workspace
// from the specified Transmission Group workspace that the user entered.
if (firstTransG && isPolarizationCorrectionOn) {
auto firstTransmissionSum = sumOverTransmissionGroup(firstTransG);
alg->setProperty("FirstTransmissionRun", firstTransmissionSum);
}
if (secondTransG && isPolarizationCorrectionOn) {
auto secondTransmissionSum = sumOverTransmissionGroup(secondTransG);
alg->setProperty("SecondTransmissionRun", secondTransmissionSum);
}
// Otherwise, if polarization correction is off, we process them
// using one transmission group member at a time.
if (firstTransG && !isPolarizationCorrectionOn) // polarization off
alg->setProperty("FirstTransmissionRun", firstTransG->getItem(i)->name());
if (secondTransG && !isPolarizationCorrectionOn) // polarization off
alg->setProperty("SecondTransmissionRun",
secondTransG->getItem(i)->name());
alg->setProperty("InputWorkspace", group->getItem(i)->name());
alg->setProperty("OutputWorkspace", IvsQName);
alg->setProperty("OutputWorkspaceWavelength", IvsLamName);
alg->execute();
MatrixWorkspace_sptr tempFirstTransWS =
alg->getProperty("FirstTransmissionRun");
IvsQGroup.push_back(IvsQName);
IvsLamGroup.push_back(IvsLamName);
// We use the first group member for our thetaout value
if (i == 0)
this->setPropertyValue("ThetaOut", alg->getPropertyValue("ThetaOut"));
}
// Group the IvsQ and IvsLam workspaces
Algorithm_sptr groupAlg = this->createChildAlgorithm("GroupWorkspaces");
groupAlg->setChild(false);
groupAlg->setRethrows(true);
groupAlg->setProperty("InputWorkspaces", IvsLamGroup);
groupAlg->setProperty("OutputWorkspace", outputIvsLam);
groupAlg->execute();
groupAlg->setProperty("InputWorkspaces", IvsQGroup);
groupAlg->setProperty("OutputWorkspace", outputIvsQ);
groupAlg->execute();
// If this is a multiperiod workspace and we have polarization corrections
// enabled
if (isPolarizationCorrectionOn) {
if (group->isMultiperiod()) {
// Perform polarization correction over the IvsLam group
Algorithm_sptr polAlg =
this->createChildAlgorithm("PolarizationCorrection");
polAlg->setChild(false);
polAlg->setRethrows(true);
polAlg->setProperty("InputWorkspace", outputIvsLam);
polAlg->setProperty("OutputWorkspace", outputIvsLam);
polAlg->setProperty("PolarizationAnalysis",
this->getPropertyValue("PolarizationAnalysis"));
polAlg->setProperty("CPp", this->getPropertyValue(cppLabel()));
polAlg->setProperty("CRho", this->getPropertyValue(crhoLabel()));
polAlg->setProperty("CAp", this->getPropertyValue(cApLabel()));
polAlg->setProperty("CAlpha", this->getPropertyValue(cAlphaLabel()));
polAlg->execute();
// Now we've overwritten the IvsLam workspaces, we'll need to recalculate
// the IvsQ ones
alg->setProperty("FirstTransmissionRun", "");
alg->setProperty("SecondTransmissionRun", "");
for (size_t i = 0; i < numMembers; ++i) {
const std::string IvsQName =
outputIvsQ + "_" + boost::lexical_cast<std::string>(i + 1);
const std::string IvsLamName =
outputIvsLam + "_" + boost::lexical_cast<std::string>(i + 1);
alg->setProperty("InputWorkspace", IvsLamName);
alg->setProperty("OutputWorkspace", IvsQName);
alg->setProperty("CorrectionAlgorithm", "None");
alg->setProperty("OutputWorkspaceWavelength", IvsLamName);
alg->execute();
}
} else {
g_log.warning("Polarization corrections can only be performed on "
"multiperiod workspaces.");
}
}
// We finished successfully
this->setPropertyValue("OutputWorkspace", outputIvsQ);
this->setPropertyValue("OutputWorkspaceWavelength", outputIvsLam);
setExecuted(true);
notificationCenter().postNotification(
new FinishedNotification(this, isExecuted()));
return true;
}