LoadEventPreNexus.cpp

#include <algorithm>
#include <sstream>
#include <stdexcept>
#include <functional>
#include <iostream>
#include <Poco/File.h>
#include <Poco/Path.h>
#include <set>
#include <vector>
#include <boost/timer.hpp>
#include "MantidAPI/FileFinder.h"
#include "MantidAPI/LoadAlgorithmFactory.h"
#include "MantidDataHandling/LoadEventPreNexus.h"
#include "MantidDataObjects/EventWorkspace.h"
#include "MantidDataObjects/EventList.h"
#include "MantidKernel/ArrayProperty.h"
#include "MantidKernel/FileValidator.h"
#include "MantidKernel/DateAndTime.h"
#include "MantidKernel/Glob.h"
#include "MantidAPI/FileProperty.h"
#include "MantidKernel/ConfigService.h"
#include "MantidKernel/BinaryFile.h"
#include "MantidKernel/System.h"
#include "MantidKernel/TimeSeriesProperty.h"
#include "MantidKernel/UnitFactory.h"
#include "MantidDataHandling/LoadInstrumentHelper.h"
#include "MantidKernel/DateAndTime.h"
#include "MantidGeometry/IDetector.h"

namespace Mantid
{
namespace DataHandling
{
// Register the algorithm into the AlgorithmFactory
DECLARE_ALGORITHM(LoadEventPreNexus)
DECLARE_LOADALGORITHM(LoadEventPreNexus)

/// Sets documentation strings for this algorithm
void LoadEventPreNexus::initDocs()
{
  this->setWikiSummary("Loads SNS raw neutron event data format and stores it in a [[workspace]] ([[EventWorkspace]] class). ");
  this->setOptionalMessage("Loads SNS raw neutron event data format and stores it in a workspace (EventWorkspace class).");
}


using namespace Kernel;
using namespace API;
using namespace Geometry;
using boost::posix_time::ptime;
using boost::posix_time::time_duration;
using DataObjects::EventList;
using DataObjects::EventWorkspace;
using DataObjects::EventWorkspace_sptr;
using DataObjects::TofEvent;
using std::cout;
using std::endl;
using std::ifstream;
using std::runtime_error;
using std::stringstream;
using std::string;
using std::vector;

// constants for locating the parameters to use in execution
static const string EVENT_PARAM("EventFilename");
static const string PULSEID_PARAM("PulseidFilename");
static const string MAP_PARAM("MappingFilename");
static const string PID_PARAM("SpectrumList");
static const string PARALLEL_PARAM("UseParallelProcessing");
static const string BLOCK_SIZE_PARAM("LoadingBlockSize");
static const string OUT_PARAM("OutputWorkspace");

static const string PULSE_EXT("pulseid.dat");
static const string EVENT_EXT("event.dat");

/// Default number of items to read in from any of the files.
static const size_t DEFAULT_BLOCK_SIZE = 1000000; // 100,000
/// All pixel ids with matching this mask are errors.
static const PixelType ERROR_PID = 0x80000000;
/// The maximum possible tof as native type
static const uint32_t MAX_TOF_UINT32 = std::numeric_limits<uint32_t>::max();

/// Conversion factor between 100 nanoseconds and 1 microsecond.
static const double TOF_CONVERSION = .1;
/// Conversion factor between picoColumbs and microAmp*hours
static const double CURRENT_CONVERSION = 1.e-6 / 3600.;

LoadEventPreNexus::LoadEventPreNexus() : Mantid::API::IDataFileChecker()
{
  this->eventfile = NULL;
  this->max_events = 0;
}

LoadEventPreNexus::~LoadEventPreNexus()
{
  if (this->eventfile)
    delete this->eventfile;
}

/**
 * Returns the name of the property to be considered as the Filename for Load
 * @returns A character string containing the file property's name
 */
const char * LoadEventPreNexus::filePropertyName() const
{
  return EVENT_PARAM.c_str();
}

/**
 * Do a quick file type check by looking at the first 100 bytes of the file 
 *  @param filePath :: path of the file including name.
 *  @param nread :: no.of bytes read
 *  @param header :: The first 100 bytes of the file as a union
 *  @return true if the given file is of type which can be loaded by this algorithm
 */
bool LoadEventPreNexus::quickFileCheck(const std::string& filePath,size_t,const file_header&)
{
  std::string ext = extension(filePath);
  return (ext.rfind("dat") != std::string::npos);
}

/**
 * Checks the file by opening it and reading few lines 
 *  @param filePath :: name of the file inluding its path
 *  @return an integer value how much this algorithm can load the file 
 */
int LoadEventPreNexus::fileCheck(const std::string& filePath)
{
  int confidence(0);
  try
  {
    // If this looks like a binary file where the exact file length is a multiple
    // of the DasEvent struct then we're probably okay.
    // NOTE: Putting this on the stack gives a segfault on Windows when for some reason
    // the BinaryFile destructor is called twice! I'm sure there is something I don't understand there
    // but heap allocation seems to work so go for that.
    BinaryFile<DasEvent> *event_file = new BinaryFile<DasEvent>(filePath);
    confidence = 80;
    delete event_file;
  }
  catch(std::runtime_error &)
  {
    // This BinaryFile constructor throws if the file does not contain an
    // exact multiple of the sizeof(DasEvent) objects.
  }
  return confidence;
}


//-----------------------------------------------------------------------------
/** Initialize the algorithm */
void LoadEventPreNexus::init()
{
  // which files to use
  this->declareProperty(new FileProperty(EVENT_PARAM, "", FileProperty::Load, EVENT_EXT),
                        "A preNeXus neutron event file");
  this->declareProperty(new FileProperty(PULSEID_PARAM, "", FileProperty::OptionalLoad, PULSE_EXT),
                        "A preNeXus pulseid file. Used only if specified.");
  this->declareProperty(new FileProperty(MAP_PARAM, "", FileProperty::OptionalLoad, ".dat"),
                        "TS mapping file converting detector id to pixel id. Used only if specified.");

  // which pixels to load
  this->declareProperty(new ArrayProperty<int64_t>(PID_PARAM),
                        "A list of individual spectra (pixel IDs) to read. Only used if set.");

  // how many events to process
  this->declareProperty(new PropertyWithValue<int>("NumberOfEvents", 0, Direction::Input),
          "Number of events to read from the file.");

#ifdef LOADEVENTPRENEXUS_ALLOW_PARALLEL
  //Parallel processing
  this->declareProperty(new PropertyWithValue<bool>(PARALLEL_PARAM, true, Direction::Input) );

  //Loading block size
  this->declareProperty(new PropertyWithValue<int>(BLOCK_SIZE_PARAM, 500000, Direction::Input) );
#endif

  // the output workspace name
  this->declareProperty(new WorkspaceProperty<IEventWorkspace>(OUT_PARAM,"",Direction::Output));

}

//-----------------------------------------------------------------------------
static string generatePulseidName(string eventfile)
{
  size_t start;
  string ending;

  // normal ending
  ending = "neutron_event.dat";
  start = eventfile.find(ending);
  if (start != string::npos)
    return eventfile.replace(start, ending.size(), "pulseid.dat");

  // split up event files - yes this is copy and pasted code
  ending = "neutron0_event.dat";
  start = eventfile.find(ending);
  if (start != string::npos)
    return eventfile.replace(start, ending.size(), "pulseid0.dat");

  ending = "neutron1_event.dat";
  start = eventfile.find(ending);
  if (start != string::npos)
    return eventfile.replace(start, ending.size(), "pulseid1.dat");

  return "";
}

//-----------------------------------------------------------------------------
static string generateMappingfileName(EventWorkspace_sptr &wksp)
{//
  // get the name of the mapping file as set in the parameter files
  std::vector<string> temp = wksp->getInstrument()->getStringParameter("TS_mapping_file");
  if (temp.empty())
    return "";
  string mapping = temp[0];

  // Try to get it from the data directories
  string dataversion = Mantid::API::FileFinder::Instance().getFullPath(mapping);
  if (!dataversion.empty())
    return dataversion;

  // get a list of all proposal directories
  string instrument = wksp->getInstrument()->getName();
  Poco::File base("/SNS/" + instrument + "/");
  if (!base.exists())
    return "";
  vector<string> dirs; // poco won't let me reuse temp
  base.list(dirs);

  // check all of the proposals for the mapping file in the canonical place
  const string CAL("_CAL");
  vector<string> files;
  for (size_t i = 0; i < dirs.size(); ++i) {
    if (dirs[i].compare(dirs[i].length() - CAL.length(), CAL.length(), CAL) == 0) {
      if (Poco::File(base.path() + "/" + dirs[i] + "/calibrations/" + mapping).exists())
        files.push_back(base.path() + "/" + dirs[i] + "/calibrations/" + mapping);
    }
  }

  if (files.empty())
    return "";
  else if (files.size() == 1)
    return files[0];
  else // just assume that the last one is the right one, this should never be fired
    return *(files.rbegin());
}

//-----------------------------------------------------------------------------
/** Execute the algorithm */
void LoadEventPreNexus::exec()
{
  // what spectra (pixel ID's) to load
  this->spectra_list = this->getProperty(PID_PARAM);

  // the event file is needed in case the pulseid fileanme is empty
  string event_filename = this->getPropertyValue(EVENT_PARAM);
  string pulseid_filename = this->getPropertyValue(PULSEID_PARAM);
  bool throwError = true;
  if (pulseid_filename.empty())
  {
    pulseid_filename = generatePulseidName(event_filename);
    if (!pulseid_filename.empty())
    {
      if (Poco::File(pulseid_filename).exists())
      {
        this->g_log.information() << "Found pulseid file " << pulseid_filename << std::endl;
        throwError = false;
      }
      else
      {
        pulseid_filename = "";
      }

    }
  }

  this->readPulseidFile(pulseid_filename, throwError);

  this->openEventFile(event_filename);

  // prep the output workspace
  EventWorkspace_sptr localWorkspace = EventWorkspace_sptr(new EventWorkspace());
  //Make sure to initialize.
  //   We can use dummy numbers for arguments, for event workspace it doesn't matter
  localWorkspace->initialize(1,1,1);

  // Set the units
  localWorkspace->getAxis(0)->unit() = UnitFactory::Instance().create("TOF");
  localWorkspace->setYUnit("Counts");
  // TODO localWorkspace->setTitle(title);

  // Add the run_start property
  // Use the first pulse as the run_start time.
  if (pulsetimes.size() > 0)
  {
    // add the start of the run as a ISO8601 date/time string. The start = the first pulse.
    // (this is used in LoadInstrumentHelper to find the right instrument file to use).
    localWorkspace->mutableRun().addProperty("run_start", pulsetimes[0].to_ISO8601_string(), true );
  }

  //Get the instrument!
  this->runLoadInstrument(event_filename, localWorkspace);

  // load the mapping file
  string mapping_filename = this->getPropertyValue(MAP_PARAM);
  if (mapping_filename.empty()) {
    mapping_filename = generateMappingfileName(localWorkspace);
    if (!mapping_filename.empty())
      this->g_log.information() << "Found mapping file \"" << mapping_filename << "\"" << std::endl;
  }
  this->loadPixelMap(mapping_filename);

  //Process the events into pixels
  this->procEvents(localWorkspace);

  //Save output
  this->setProperty<IEventWorkspace_sptr>(OUT_PARAM, localWorkspace);

  // Clear any large vectors to free up memory.
  this->pulsetimes.clear();
  this->event_indices.clear();
  this->proton_charge.clear();
  this->spectraLoadMap.clear();
}



//-----------------------------------------------------------------------------
/** Load the instrument geometry File
 *  @param eventfilename :: Used to pick the instrument.
 *  @param localWorkspace :: MatrixWorkspace in which to put the instrument geometry
 */
void LoadEventPreNexus::runLoadInstrument(const std::string &eventfilename, MatrixWorkspace_sptr localWorkspace)
{
  // determine the instrument parameter file
  string instrument = Poco::Path(eventfilename).getFileName();
  size_t pos = instrument.rfind("_"); // get rid of 'event.dat'
  pos = instrument.rfind("_", pos-1); // get rid of 'neutron'
  pos = instrument.rfind("_", pos-1); // get rid of the run number
  instrument = instrument.substr(0, pos);

  // do the actual work
  IAlgorithm_sptr loadInst= createSubAlgorithm("LoadInstrument");

  // Now execute the sub-algorithm. Catch and log any error, but don't stop.
  loadInst->setPropertyValue("InstrumentName", instrument);
  loadInst->setProperty<MatrixWorkspace_sptr> ("Workspace", localWorkspace);
  loadInst->executeAsSubAlg();

  // Populate the instrument parameters in this workspace - this works around a bug
  localWorkspace->populateInstrumentParameters();
}



//-----------------------------------------------------------------------------
/** Turn a pixel id into a "corrected" pixelid and period.
 *
 */
void LoadEventPreNexus::fixPixelId(PixelType &pixel, uint32_t &period) const
{
  if (!this->using_mapping_file) { // nothing to do here
    period = 0;
    return;
  }

  PixelType unmapped_pid = pixel % this->numpixel;
  period = (pixel - unmapped_pid) / this->numpixel;
  pixel = this->pixelmap[unmapped_pid];
}

//-----------------------------------------------------------------------------
/** Special function to reduce the number of loaded events.
 *
 */
void LoadEventPreNexus::setMaxEventsToLoad(std::size_t max_events_to_load)
{
  this->max_events = max_events_to_load;
}


//-----------------------------------------------------------------------------
/** Process the event file properly.
 * @param workspace :: EventWorkspace to write to.
 */
void LoadEventPreNexus::procEvents(DataObjects::EventWorkspace_sptr & workspace)
{
  // do the actual loading
  this->num_error_events = 0;
  this->num_good_events = 0;
  this->num_ignored_events = 0;

  //Default values in the case of no parallel
  parallelProcessing = false;
  loadBlockSize = Mantid::Kernel::DEFAULT_BLOCK_SIZE;

  shortest_tof = static_cast<double>(MAX_TOF_UINT32) * TOF_CONVERSION;
  longest_tof = 0.;

  //Initialize progress reporting.
  Progress prog(this,0.0,1.0,static_cast<int>(this->num_events/loadBlockSize));

  //Allocate the buffer
  DasEvent * event_buffer = new DasEvent[loadBlockSize];

  // We want to pad out empty pixels.
  detid2det_map detector_map;
  workspace->getInstrument()->getDetectors(detector_map);

  // determine maximum pixel id
  detid2det_map::iterator it;
  detid_t detid_max = 0; // seems like a safe lower bound
  for (it = detector_map.begin(); it != detector_map.end(); it++)
    if (it->first > detid_max)
      detid_max = it->first;

  // Pad all the pixels
  this->pixel_to_wkspindex.reserve(detid_max+1); //starting at zero up to and including detid_max
  this->pixel_to_wkspindex.assign(detid_max+1, 0);
  size_t workspaceIndex = 0;
  for (it = detector_map.begin(); it != detector_map.end(); it++)
  {
    if (!it->second->isMonitor())
    {
      this->pixel_to_wkspindex[it->first] = workspaceIndex;
      EventList & spec = workspace->getOrAddEventList(workspaceIndex);
      spec.addDetectorID(it->first);
      // Match the spectrum number and detector ID
      spec.setSpectrumNo(it->first);
      workspaceIndex += 1;
    }
  }
  workspace->doneAddingEventLists();

  //For slight speed up
  loadOnlySomeSpectra = (this->spectra_list.size() > 0);

  //Turn the spectra list into a map, for speed of access
  for (std::vector<int64_t>::iterator it = spectra_list.begin(); it != spectra_list.end(); it++)
    spectraLoadMap[*it] = true;


  while (eventfile->getOffset() < this->num_events)
  {
    //Offset into the file before loading this new block
    size_t fileOffset = eventfile->getOffset();

    //Load a block into the buffer directly, up to loadBlockSize elements
    size_t current_event_buffer_size = eventfile->loadBlock(event_buffer, loadBlockSize);

    //This processes the events
    procEventsLinear(workspace, event_buffer, current_event_buffer_size, fileOffset);

    //Report progress
    prog.report("Load Event PreNeXus");
  }

  //Clean up the buffers
  delete [] event_buffer;

  //finalize loading
  workspace->doneAddingEventLists();
  if(loadOnlySomeSpectra)
    workspace->deleteEmptyLists();

  this->setProtonCharge(workspace);

  //Make sure the MRU is cleared
  workspace->clearMRU();

  //Now, create a default X-vector for histogramming, with just 2 bins.
  Kernel::cow_ptr<MantidVec> axis;
  MantidVec& xRef = axis.access();
  xRef.resize(2);
  xRef[0] = shortest_tof - 1; //Just to make sure the bins hold it all
  xRef[1] = longest_tof + 1;
  workspace->setAllX(axis);
  this->pixel_to_wkspindex.clear();

  g_log.information() << "Read " << this->num_good_events << " events + "
      << this->num_error_events << " errors"
      << ". Shortest TOF: " << shortest_tof << " microsec; longest TOF: "
      << longest_tof << " microsec." << std::endl;

}

//-----------------------------------------------------------------------------
/** Linear-version of the procedure to process the event file properly.
 * @param workspace :: EventWorkspace to write to.
 * @param event_buffer :: The buffer containing the DAS events
 * @param current_event_buffer_size :: The length of the given DAS buffer
 * @param fileOffset :: Value for an offset into the binary file
 */
void LoadEventPreNexus::procEventsLinear(DataObjects::EventWorkspace_sptr & workspace, DasEvent * event_buffer,
    size_t current_event_buffer_size, size_t fileOffset)
{
  DasEvent temp;
  uint32_t period;

  //Starting pulse time
  DateAndTime pulsetime;
  int64_t pulse_i = 0;
  int64_t numPulses = static_cast<int64_t>(this->pulsetimes.size());
  if (static_cast<int64_t>(event_indices.size()) < numPulses)
  {
    g_log.warning() << "Event_indices vector is smaller than the pulsetimes array.\n";
    numPulses = static_cast<int64_t>(event_indices.size());
  }

  // process the individual events
  for (size_t i = 0; i < current_event_buffer_size; i++)
  {
    temp = *(event_buffer + i);
    PixelType pid = temp.pid;

    if ((pid & ERROR_PID) == ERROR_PID) // marked as bad
    {
      this->num_error_events++;
      continue;
    }

    //Covert the pixel ID from DAS pixel to our pixel ID
    this->fixPixelId(pid, period);

    //Now check if this pid we want to load.
    if (loadOnlySomeSpectra)
    {
      std::map<int64_t, bool>::iterator it;
      it = spectraLoadMap.find(pid);
      if (it == spectraLoadMap.end())
      {
        //Pixel ID was not found, so the event is being ignored.
        this->num_ignored_events++;
        continue;
      }
    }

    // work with the good guys

    //Find the pulse time for this event index
    if (pulse_i < numPulses-1)
    {
      //This is the total offset into the file
      size_t total_i = i + fileOffset;
      //Go through event_index until you find where the index increases to encompass the current index. Your pulse = the one before.
      while (!((total_i >= event_indices[pulse_i]) && (total_i < event_indices[pulse_i+1])) )
      {
        pulse_i++;
        if (pulse_i >= (numPulses-1))
          break;
      }

      //if (pulsetimes[pulse_i] != pulsetime)    std::cout << pulse_i << " at " << pulsetimes[pulse_i] << "\n";

      //Save the pulse time at this index for creating those events
      pulsetime = pulsetimes[pulse_i];
    }

    double tof = static_cast<double>(temp.tof) * TOF_CONVERSION;
    TofEvent event;
    event = TofEvent(tof, pulsetime);

    //Find the overall max/min tof
    if (tof < shortest_tof)
      shortest_tof = tof;
    if (tof > longest_tof)
      longest_tof = tof;

    //The addEventQuickly method does not clear the cache, making things slightly faster.
    workspace->getEventList(this->pixel_to_wkspindex[pid]).addEventQuickly(event);

    // TODO work with period
    this->num_good_events++;

  }//for each event
}

//-----------------------------------------------------------------------------
/// Comparator for sorting dasevent lists
bool intermediatePixelIDComp(IntermediateEvent x, IntermediateEvent y)
{
  return (x.pid < y.pid);
}

//-----------------------------------------------------------------------------
/**
 * Add a sample environment log for the proton chage (charge of the pulse in picoCoulombs)
 * and set the scalar value (total proton charge, microAmps*hours, on the sample)
 *
 * @param workspace :: Event workspace to set the proton charge on
 */
void LoadEventPreNexus::setProtonCharge(DataObjects::EventWorkspace_sptr & workspace)
{
  if (this->proton_charge.empty()) // nothing to do
    return;

  Run& run = workspace->mutableRun();

  //Add the proton charge entries.
  TimeSeriesProperty<double>* log = new TimeSeriesProperty<double>("proton_charge");
  log->setUnits("picoCoulombs");
  size_t num = this->proton_charge.size();
  for (size_t i = 0; i < num; i++)
  {
    //Add the time and associated charge to the log
    log->addValue(this->pulsetimes[i], this->proton_charge[i]);
  }

  /// TODO set the units for the log
  run.addLogData(log);
  double integ = run.integrateProtonCharge();
  //run.setProtonCharge(this->proton_charge_tot); //This is now redundant
  this->g_log.information() << "Total proton charge of " << integ << " microAmp*hours found by integrating.\n";

}

//-----------------------------------------------------------------------------
/** Load a pixel mapping file
 * @param filename :: Path to file.
 */
void LoadEventPreNexus::loadPixelMap(const std::string &filename)
{
  this->using_mapping_file = false;
  this->pixelmap.clear();

  // check that there is a mapping file
  if (filename.empty()) {
    this->g_log.information("NOT using a mapping file");
    return;
  }

  // actually deal with the file
  this->g_log.debug("Using mapping file \"" + filename + "\"");

  //Open the file; will throw if there is any problem
  BinaryFile<PixelType> pixelmapFile(filename);
  PixelType max_pid = static_cast<PixelType>(pixelmapFile.getNumElements());
  //Load all the data
  pixelmapFile.loadAllInto( this->pixelmap );

  //Check for funky file
  if (std::find_if(pixelmap.begin(), pixelmap.end(), std::bind2nd(std::greater<PixelType>(), max_pid))
          != pixelmap.end())
  {
    this->g_log.warning("Pixel id in mapping file was out of bounds. Loading without mapping file");
    this->numpixel = 0;
    this->pixelmap.clear();
    this->using_mapping_file = false;
    return;
  }

  //If we got here, the mapping file was loaded correctly and we'll use it
  this->using_mapping_file = true;
  //Let's assume that the # of pixels in the instrument matches the mapping file length.
  this->numpixel = static_cast<uint32_t>(pixelmapFile.getNumElements());
}


//-----------------------------------------------------------------------------
/** Open an event file
 * @param filename :: file to open.
 */
void LoadEventPreNexus::openEventFile(const std::string &filename)
{
  //Open the file
  this->eventfile = new BinaryFile<DasEvent>(filename);
  this->num_events = eventfile->getNumElements();

  // determine if we should truncate the event list by the parameter list
  int numeventsparam = this->getProperty("NumberOfEvents");
  if (numeventsparam > 0)
    this->setMaxEventsToLoad(static_cast<size_t>(numeventsparam));

  //Limit the # of events to load?
  if (this->max_events > 0)
    this->num_events = this->max_events;

  this->g_log.information()<< "Reading " <<  this->num_events << " event records\n";

}

//-----------------------------------------------------------------------------
/** Read a pulse ID file
 * @param filename :: file to load.
 * @param throwError :: Flag to trigger error throwing instead of just logging
 */
void LoadEventPreNexus::readPulseidFile(const std::string &filename, const bool throwError)
{
  this->proton_charge_tot = 0.;
  this->num_pulses = 0;

  // jump out early if there isn't a filename
  if (filename.empty()) {
    this->g_log.information("NOT using a pulseid file");
    return;
  }

  std::vector<Pulse> * pulses;

  // set up for reading
  //Open the file; will throw if there is any problem
  try {
    BinaryFile<Pulse> pulseFile(filename);

    //Get the # of pulse
    this->num_pulses = pulseFile.getNumElements();
    this->g_log.information() << "Using pulseid file \"" << filename << "\", with " << num_pulses
        << " pulses.\n";

    //Load all the data
    pulses = pulseFile.loadAll();
  } catch (runtime_error &e) {
    if (throwError)
    {
      throw;
    }
    else
    {
      this->g_log.information() << "Encountered error in pulseidfile (ignoring file): " << e.what() << "\n";
      return;
    }
  }

  double temp;
  for (std::vector<Pulse>::iterator it = pulses->begin(); it != pulses->end(); it++)
  {
    this->pulsetimes.push_back( DateAndTime( (int64_t) (*it).seconds, (int64_t) (*it).nanoseconds));
    this->event_indices.push_back((*it).event_index);
    temp = (*it).pCurrent;
    this->proton_charge.push_back(temp);
    if (temp < 0.)
      this->g_log.warning("Individiual proton charge < 0 being ignored");
    else
      this->proton_charge_tot += temp;
  }

  this->proton_charge_tot = this->proton_charge_tot * CURRENT_CONVERSION;

  //Clear the vector
  delete pulses;

}

} // namespace DataHandling
} // namespace Mantid