This class contains data for ECLSimHit's and provides several relevant conversion functions for better event display. More...

#include <EclData.h>

Public Types
enum	EclSubsystem { ALL , BARR , FORW , BACKW }
	Subsystems of ECL: ALL all subsystems BARR barrel only FORW forward endcap only BACKW backward endcap only. More...

Public Member Functions
	EclData ()
	Default constructor.

	EclData (const EclData &data)
	Copy constructor.

EclData &	operator= (const EclData &other)
	Assignment operator: utilizes copy constructor.

TTree *	getTree ()
	Returns data contained in EclDisplay.

int *	getEventCounts ()
	Returns array of event counts per crystal[getCrystalsCount()].

int *	getEventCountsPerCrystal ()
	Alias for GetEventCounts()

int	getEventCountsMax ()

float *	getEnergySums ()
	Get array of total energy for each channel in the specified time and event range.

float *	getEnergySumPerCrystal ()
	Alias for GetEnergySums()

float	getEnergySumsMax ()

float	getEnergyTotal ()

bool	isCrystalInSubsystem (int crystal, EclSubsystem subsys)

int	getTimeRangeMin ()
	Return min time in time range.

int	getTimeRangeMax ()
	Return max time in time range.

void	setTimeRange (int time_min, int time_max, bool do_update=true)
	Display only events in the specified time range.

int	getEventRangeMin ()
	Return min event number to display.

int	getEventRangeMax ()
	Return max event number to display.

void	setEventRange (int ev_min, int ev_max, bool do_update=true)
	Sets event range to (ev_min, ev_max)

void	setEnergyThreshold (int en_min, int en_max, bool do_update=true)
	Sets energy range to (en_min, en_max).

int	getTimeMin ()

int	getTimeMax ()

int	getLastEventId ()

int	getChannel (int phi_id, int theta_id)
	Converts (phi_id, theta_id) pair to ECL CellId.

int	getPhiId (int ch)
	ECL CellId -> phi_id.

int	getThetaId (int ch)
	ECL CellId -> theta_id.

void	excludeChannel (int ch, bool do_update=false)
	Excludes specific channel from the count of events and energy.

void	includeChannel (int ch, bool do_update=false)
	Includes specific channel in the count of events and energy.

void	loadRootFile (const char *path)
	Load root file containing ECLCalDigit data from the specified path.

void	update (bool reset_event_ranges=false)
	Update time_min, time_max, event_counts and energy_sums.

int	addEvent (ECLCalDigit *event, int evtn)
	Add ECLDigit event to inner TTree (m_tree).

void	fillEnergyHistogram (TH1F *hist, int energy_min, int energy_max, EclSubsystem subsys)
	Fill energy per channel histogram for the specified EclSubsystem (Barrel, forward endcap, backward endcap, all of them).

void	fillEnergySumHistogram (TH1F *hist, int energy_min, int energy_max, EclSubsystem subsys)
	Fill energy per event histogram for the specified EclSubsystem (Barrel, forward endcap, backward endcap, all of them).

void	fillTimeHistogram (TH1F *hist, int time_min, int time_max, EclSubsystem subsys)
	Fill time histogram for the specified EclSubsystem (Barrel, forward endcap, backward endcap, all of them).

Static Public Member Functions
static int	getCrystalCount ()
	Get number of crystals in ECL.

Private Member Functions
void	cloneFrom (const EclData &other)
	Clone attributes from other EclData.

void	initVariables ()
	Initialization of arrays.

void	initEventRanges ()
	Set initial values for time and event range.

Private Attributes
TTree *	m_tree
	Tree with loaded events.

int	m_branch_ch
	Tree channel field.

double	m_branch_energy
	Tree energy branch.

double	m_branch_time
	Tree time branch.

int	m_branch_evtn
	Tree event number branch.

int *	m_event_counts
	Number of events for each crystal.

int	m_event_count_max
	Max value in event_counts array.

float *	m_energy_sums
	Sum of energies of every event captured by crystal (MeV).

float	m_energy_sums_max
	Max value in m_energy_sums array.

float	m_energy_total
	Total energy for last displayed range of events.

int	m_last_event_id
	Id of the event with max recorded event number (evtn).

int	m_time_max
	Maximum possible time.

int	m_time_range_min
	Time range (min) for display.

int	m_time_range_max
	Time range (max) for display.

int	m_ev_range_min
	Events from ev_range_min will be counted in energy_sums and event_counts.

int	m_ev_range_max
	Events up to ev_range_max will be counted in energy_sums and event_counts.

int	m_en_range_min
	Lower boundary of energy threshold.

int	m_en_range_max
	Upper boundary of energy threshold.

std::set< int >	m_excluded_ch
	Channels which are filtered out from the count of events and energy.

std::vector< int >	m_event_entry
	This vector holds the position of each entry which starts an event.

Static Private Attributes
static const int	ring_start_id [70]
	First crystal id in the beginning of i-th ECL ring.

Detailed Description

This class contains data for ECLSimHit's and provides several relevant conversion functions for better event display.

Definition at line 31 of file EclData.h.

Member Enumeration Documentation

◆ EclSubsystem

enum EclSubsystem

Subsystems of ECL: ALL all subsystems BARR barrel only FORW forward endcap only BACKW backward endcap only.

Definition at line 98 of file EclData.h.

98{ALL, BARR, FORW, BACKW};

Constructor & Destructor Documentation

◆ EclData() [1/2]

EclData ( )

Default constructor.

Definition at line 41 of file EclData.cc.

{
  m_tree = new TTree("tree", "tree");
  m_tree->Branch("ch", &m_branch_ch, "ch/I");
  m_tree->Branch("energy", &m_branch_energy, "energy/D");
  m_tree->Branch("time", &m_branch_time, "time/D");
  m_tree->Branch("evtn", &m_branch_evtn, "evtn/I");
 
  initVariables();
  initEventRanges();
}

◆ EclData() [2/2]

EclData ( const EclData & data )

Copy constructor.

Resets m_excluded_ch upon copy.

Definition at line 53 of file EclData.cc.

{
  initVariables();
  initEventRanges();
 
  cloneFrom(data);
}

◆ ~EclData()

~EclData ( )

Definition at line 72 of file EclData.cc.

{
  delete m_event_counts;
  delete m_energy_sums;
  delete m_tree;
}

Member Function Documentation

◆ addEvent()

int addEvent	(	ECLCalDigit *	event,
		int	evtn
	)

Add ECLDigit event to inner TTree (m_tree).

Parameters

event	ECLDigit event
evtn	Number of event.

Returns: If ECLDigit contains incorrect data, negative values are returned. Otherwise, return value is 0.

Definition at line 428 of file EclData.cc.

{
  if (event->getEnergy() <= 0 || event->getCellId() <= 0) {
    return -1;
  }
 
  m_branch_ch     = event->getCellId();
  m_branch_energy = event->getEnergy() * 1e3; // To MeV
  m_branch_time   = event->getTime();
  m_branch_evtn   = _evtn;
 
  if (m_time_max < m_branch_time) m_time_max = m_branch_time;
  if (m_last_event_id < _evtn) {
    m_last_event_id = _evtn;
    m_event_entry.push_back(m_tree->GetEntries());
  }
 
  B2DEBUG(200, "Added event #" << _evtn << ", ch:" << m_branch_ch
          << ", energy:" << m_branch_energy << ", time:" << m_branch_time);
 
  m_tree->Fill();
 
  return 0;
}

◆ cloneFrom()

void cloneFrom ( const EclData & other )

private

Clone attributes from other EclData.

Definition at line 79 of file EclData.cc.

{
  m_tree = other.m_tree->CloneTree();
 
  m_tree = new TTree("tree", "tree");
  m_tree->Branch("ch", &m_branch_ch, "ch/I");
  m_tree->Branch("energy", &m_branch_energy, "energy/I");
  m_tree->Branch("time", &m_branch_time, "time/I");
  m_tree->Branch("evtn", &m_branch_evtn, "evtn/I");
 
  m_last_event_id = other.m_last_event_id;
  m_time_max = other.m_time_max;
  // m_excluded_ch is not copied.
  m_excluded_ch.clear();
 
  m_event_count_max = other.m_event_count_max;
  m_energy_total = other.m_energy_total;
 
  for (int i = 0; i < getCrystalCount() + 1; i++) {
    m_event_counts[i] = other.m_event_counts[i];
    m_energy_sums[i] = other.m_energy_sums[i];
  }
 
  // TODO: Vectors surely can be copied in more simple way.
  for (unsigned int i = 0; i < other.m_event_entry.size(); i++) {
    m_event_entry.push_back(other.m_event_entry[i]);
  }
 
  m_en_range_min = other.m_en_range_min;
  m_en_range_max = other.m_en_range_max;
 
  m_time_range_min = other.m_time_range_min;
  m_time_range_max = other.m_time_range_max;
 
  m_ev_range_min = other.m_ev_range_min;
  m_ev_range_max = other.m_ev_range_max;
}

◆ excludeChannel()

void excludeChannel	(	int	ch,
		bool	do_update = `false`
	)

Excludes specific channel from the count of events and energy.

Definition at line 298 of file EclData.cc.

{
  m_excluded_ch.insert(_ch);
  if (do_update)
    update();
}

◆ fillEnergyHistogram()

void fillEnergyHistogram	(	TH1F *	hist,
		int	energy_min,
		int	energy_max,
		EclSubsystem	subsys
	)

Fill energy per channel histogram for the specified EclSubsystem (Barrel, forward endcap, backward endcap, all of them).

Definition at line 453 of file EclData.cc.

{
  int start, end;
 
  if (m_ev_range_min < 0)
    return;
  if (m_ev_range_min > m_last_event_id || m_ev_range_min > m_ev_range_max)
    return;
 
  start = m_event_entry[m_ev_range_min];
  if (m_ev_range_max < m_last_event_id)
    end = m_event_entry[m_ev_range_max + 1];
  else
    end = m_tree->GetEntries();
 
  for (int i = start; i < end; i++) {
    m_tree->GetEntry(i);
    if (isCrystalInSubsystem(m_branch_ch, subsys)) {
      if (m_branch_energy >= energy_min && m_branch_energy <= energy_max)
        hist->Fill(m_branch_energy);
    }
  }
}

◆ fillEnergySumHistogram()

void fillEnergySumHistogram	(	TH1F *	hist,
		int	energy_min,
		int	energy_max,
		EclData::EclSubsystem	subsys
	)

Fill energy per event histogram for the specified EclSubsystem (Barrel, forward endcap, backward endcap, all of them).

Definition at line 477 of file EclData.cc.

{
  int start, end;
 
  if (m_ev_range_min < 0)
    return;
  if (m_ev_range_min > m_last_event_id || m_ev_range_min > m_ev_range_max)
    return;
 
  start = m_event_entry[m_ev_range_min];
  if (m_ev_range_max < m_last_event_id)
    end = m_event_entry[m_ev_range_max + 1];
  else
    end = m_tree->GetEntries();
 
  m_tree->GetEntry(start);
  int cur_evtn = m_branch_evtn;
  int energy_sum = 0;
 
  for (int i = start; i < end; i++) {
    m_tree->GetEntry(i);
 
    // After reading all of the data from event cur_evtn,
    // save the sum in histogram.
    if (m_branch_evtn > cur_evtn) {
      if (energy_sum > 0) hist->Fill(energy_sum);
      energy_sum = 0;
      cur_evtn = m_branch_evtn;
    }
 
    if (isCrystalInSubsystem(m_branch_ch, subsys)) {
      if (m_branch_energy >= energy_min && m_branch_energy <= energy_max)
        energy_sum += m_branch_energy;
    }
  }
 
  // Add last selected event.
  if (energy_sum > 0) hist->Fill(energy_sum);
}

◆ fillTimeHistogram()

void fillTimeHistogram	(	TH1F *	hist,
		int	time_min,
		int	time_max,
		EclData::EclSubsystem	subsys
	)

Fill time histogram for the specified EclSubsystem (Barrel, forward endcap, backward endcap, all of them).

Definition at line 517 of file EclData.cc.

{
  int start, end;
 
  if (m_ev_range_min < 0)
    return;
  if (m_ev_range_min > m_last_event_id || m_ev_range_min > m_ev_range_max)
    return;
 
  start = m_event_entry[m_ev_range_min];
  if (m_ev_range_max < m_last_event_id)
    end = m_event_entry[m_ev_range_max + 1];
  else
    end = m_tree->GetEntries();
 
  for (int i = start; i < end; i++) {
    m_tree->GetEntry(i);
 
    if (m_en_range_max >= 0)
      if (m_branch_energy < m_en_range_min || m_branch_energy > m_en_range_max)
        continue;
 
    if (isCrystalInSubsystem(m_branch_ch, subsys)) {
      if (m_branch_time >= time_min && m_branch_time <= time_max)
        hist->Fill(m_branch_time);
    }
  }
}

◆ getChannel()

int getChannel	(	int	phi_id,
		int	theta_id
	)

Converts (phi_id, theta_id) pair to ECL CellId.

Definition at line 273 of file EclData.cc.

{
  return ring_start_id[theta_id] + phi_id;
}

◆ getCrystalCount()

int getCrystalCount ( )

static

Get number of crystals in ECL.

Definition at line 148 of file EclData.cc.

{
  return ECLElementNumbers::c_NCrystals;
}

◆ getEnergySumPerCrystal()

float * getEnergySumPerCrystal ( )

Alias for GetEnergySums()

Definition at line 178 of file EclData.cc.

{
  return getEnergySums();
}

◆ getEnergySums()

float * getEnergySums ( )

Get array of total energy for each channel in the specified time and event range.

Definition at line 173 of file EclData.cc.

{
  return m_energy_sums;
}

◆ getEnergySumsMax()

float getEnergySumsMax ( )

Returns: Maximum value in array of energy sums.

Definition at line 183 of file EclData.cc.

{
  return m_energy_sums_max;
}

◆ getEnergyTotal()

float getEnergyTotal ( )

Returns: Get total energy in currently set range of time and/or events.

Definition at line 188 of file EclData.cc.

{
  return m_energy_total;
}

◆ getEventCounts()

int * getEventCounts ( )

Returns array of event counts per crystal[getCrystalsCount()].

Definition at line 158 of file EclData.cc.

{
  return m_event_counts;
}

◆ getEventCountsMax()

int getEventCountsMax ( )

Returns: Maximum value in array of event counts.

Definition at line 168 of file EclData.cc.

{
  return m_event_count_max;
}

◆ getEventCountsPerCrystal()

int * getEventCountsPerCrystal ( )

Alias for GetEventCounts()

Definition at line 163 of file EclData.cc.

{
  return getEventCounts();
}

◆ getEventRangeMax()

int getEventRangeMax ( )

Return max event number to display.

Definition at line 233 of file EclData.cc.

{
  return m_ev_range_max;
}

◆ getEventRangeMin()

int getEventRangeMin ( )

Return min event number to display.

Definition at line 229 of file EclData.cc.

{
  return m_ev_range_min;
}

◆ getLastEventId()

int getLastEventId ( )

Returns: Id of the last event.

Definition at line 268 of file EclData.cc.

{
  return m_last_event_id;
}

◆ getPhiId()

int getPhiId ( int ch )

ECL CellId -> phi_id.

Definition at line 278 of file EclData.cc.

{
  for (int i = 0; i < 69; i++) {
    if (_ch < ring_start_id[i + 1])
      return _ch - ring_start_id[i];
  }
 
  return -1;
}

◆ getThetaId()

int getThetaId ( int ch )

ECL CellId -> theta_id.

Definition at line 288 of file EclData.cc.

{
  for (int i = 0; i < 69; i++) {
    if (_ch < ring_start_id[i + 1])
      return i;
  }
 
  return -1;
}

◆ getTimeMax()

int getTimeMax ( )

Returns: Time of the last event in TTrees.

Definition at line 263 of file EclData.cc.

{
  return m_time_max;
}

◆ getTimeMin()

int getTimeMin ( )

Returns: Time of the first event in TTree.

Definition at line 259 of file EclData.cc.

{
  return m_time_range_min;
}

◆ getTimeRangeMax()

int getTimeRangeMax ( )

Return max time in time range.

Definition at line 213 of file EclData.cc.

{
  return m_time_range_max;
}

◆ getTimeRangeMin()

int getTimeRangeMin ( )

Return min time in time range.

Definition at line 209 of file EclData.cc.

{
  return m_time_range_min;
}

◆ getTree()

TTree * getTree ( )

Returns data contained in EclDisplay.

Definition at line 153 of file EclData.cc.

{
  return m_tree;
}

◆ includeChannel()

void includeChannel	(	int	ch,
		bool	do_update = `false`
	)

Includes specific channel in the count of events and energy.

Definition at line 305 of file EclData.cc.

{
  m_excluded_ch.erase(_ch);
  if (do_update)
    update();
}

◆ initEventRanges()

void initEventRanges ( )

private

Set initial values for time and event range.

Definition at line 136 of file EclData.cc.

{
  m_en_range_min = 0;
  m_en_range_max = -1;
 
  m_time_range_min = -2048;
  m_time_range_max = m_time_max;
 
  m_ev_range_min = 0;
  m_ev_range_max = m_last_event_id;
}

◆ initVariables()

void initVariables ( )

private

Initialization of arrays.

Definition at line 117 of file EclData.cc.

{
  // Setting
  m_branch_energy = m_branch_ch = m_branch_time = m_branch_evtn = 0;
 
  m_event_counts = new int[getCrystalCount() + 1];
  m_energy_sums = new float[getCrystalCount() + 1];
 
  m_event_count_max = 0;
  m_energy_sums_max = 0;
  m_energy_total = 0;
 
  m_last_event_id = -1;
 
  m_time_max = 0;
 
  m_excluded_ch.clear();
}

◆ isCrystalInSubsystem()

bool isCrystalInSubsystem	(	int	crystal,
		EclData::EclSubsystem	subsys
	)

Parameters

crystal	crystal number
subsys	ID of the ECL subsystem.

Returns: Whether crystal is in barrel or forward/backward endcap.

Definition at line 193 of file EclData.cc.

{
  switch (subsys) {
    case ALL:
      return true;
    case BARR:
      return ECLElementNumbers::isBarrel(crystal);
    case FORW:
      return ECLElementNumbers::isForward(crystal);
    case BACKW:
      return ECLElementNumbers::isBackward(crystal);
    default:
      return false;
  }
}

◆ loadRootFile()

void loadRootFile ( const char * path )

Load root file containing ECLCalDigit data from the specified path.

Definition at line 312 of file EclData.cc.

{
  // TODO: Move this process to some new reset() method.
  m_excluded_ch.clear();
  m_event_entry.clear();
  m_tree->Reset();
  m_last_event_id = -1;
  m_en_range_max = -1;
  m_time_max = 0;
 
  TFile* file = new TFile(path, "READ");
  TTree* tree = 0;
  file->GetObject("tree", tree);
  long nentries = tree->GetEntries();
 
  tree->SetBranchAddress("ECLCalDigits.m_CellId", &m_branch_ch);
  tree->SetBranchAddress("ECLCalDigits.m_Energy", &m_branch_energy);
  tree->SetBranchAddress("ECLCalDigits.m_Time", &m_branch_time);
 
  TLeaf* leafCellId;
  TLeaf* leafEnergy;
  TLeaf* leafTimeFit;
 
  leafCellId  = tree->GetLeaf("ECLCalDigits.m_CellId");
  leafEnergy  = tree->GetLeaf("ECLCalDigits.m_Energy");
  leafTimeFit = tree->GetLeaf("ECLCalDigits.m_Time");
 
  for (long i = 0; i < nentries; i++) {
    tree->GetEntry(i);
 
    const int len = leafCellId->GetLen();
 
    if (len > 0) {
      m_last_event_id++;
      m_branch_evtn = m_last_event_id;
 
      m_event_entry.push_back(m_tree->GetEntries());
    }
 
    for (int j = 0; j < len; j++) {
      m_branch_ch     = leafCellId ->GetTypedValue<int>(j);
      m_branch_energy = leafEnergy ->GetTypedValue<double>(j) * 1e3;
      m_branch_time   = leafTimeFit->GetTypedValue<double>(j);
 
      if (m_time_max < m_branch_time) m_time_max = m_branch_time;
 
      B2DEBUG(10, "Added event ECLCalDigits for crystal " << m_branch_ch);
 
      // TODO: Add energy cut.
      m_tree->Fill();
    }
  }
 
  update(true);
}

◆ operator=()

EclData & operator= ( const EclData & other )

Assignment operator: utilizes copy constructor.

Definition at line 61 of file EclData.cc.

{
  if (this != &other) { // self-assignment check
    initVariables();
    initEventRanges();
 
    cloneFrom(other);
  }
  return *this;
}

◆ setEnergyThreshold()

void setEnergyThreshold	(	int	en_min,
		int	en_max,
		bool	do_update = `true`
	)

Sets energy range to (en_min, en_max).

Parameters

en_min	minimal energy
en_max	maximal energy
do_update	Immediately update sums of energy and event count for each channel.

Definition at line 248 of file EclData.cc.

{
  if (en_min == m_en_range_min && en_max == m_en_range_max)
    return;
 
  m_en_range_min = en_min;
  m_en_range_max = en_max;
  if (do_update)
    update();
}

◆ setEventRange()

void setEventRange	(	int	ev_min,
		int	ev_max,
		bool	do_update = `true`
	)

Sets event range to (ev_min, ev_max)

Parameters

ev_min	minimal event number
ev_max	maximal event number
do_update	Immediately update sums of energy and event count for each channel.

Definition at line 237 of file EclData.cc.

{
  if (ev_min == m_ev_range_min && ev_max == m_ev_range_max)
    return;
 
  m_ev_range_min = ev_min;
  m_ev_range_max = ev_max;
  if (do_update)
    update();
}

◆ setTimeRange()

void setTimeRange	(	int	time_min,
		int	time_max,
		bool	do_update = `true`
	)

Display only events in the specified time range.

This method currently can't be called from the GUI.

Definition at line 218 of file EclData.cc.

{
  if (m_time_range_min == time_min && m_time_range_max == time_max)
    return;
 
  m_time_range_min = time_min;
  m_time_range_max = time_max;
  if (do_update)
    update();
}

◆ update()

void update ( bool reset_event_ranges = false )

Update time_min, time_max, event_counts and energy_sums.

Definition at line 368 of file EclData.cc.

{
  int start, end;
 
  if (reset_event_ranges) initEventRanges();
 
  if (m_ev_range_min < 0)
    return;
  if (m_ev_range_min > m_last_event_id || m_ev_range_min > m_ev_range_max)
    return;
 
  start = m_event_entry[m_ev_range_min];
  if (m_ev_range_max < m_last_event_id)
    end = m_event_entry[m_ev_range_max + 1];
  else
    end = m_tree->GetEntries();
 
  for (int i = 1; i <= getCrystalCount(); i++) {
    m_event_counts[i] = 0;
    m_energy_sums[i] = 0;
  }
  m_event_count_max = 0;
  m_energy_sums_max = 0;
  m_energy_total = 0;
 
  for (int i = start; i < end; i++) {
    m_tree->GetEntry(i);
 
    if (m_excluded_ch.count(m_branch_ch) > 0) continue;
 
    if (m_branch_ch >= 1 && m_branch_ch <= getCrystalCount()) {
      // Check if current time belongs to time_range, set by user.
      if (m_time_range_max >= 0)
        if (m_branch_time < m_time_range_min || m_branch_time > m_time_range_max)
          continue;
 
      if (m_en_range_max >= 0)
        if (m_branch_energy < m_en_range_min || m_branch_energy > m_en_range_max)
          continue;
 
      m_event_counts[m_branch_ch]++;
      if (m_event_count_max < m_event_counts[m_branch_ch])
        m_event_count_max = m_event_counts[m_branch_ch];
 
      m_energy_sums[m_branch_ch] += m_branch_energy;
      m_energy_total += m_branch_energy;
 
      if (m_energy_sums_max < m_energy_sums[m_branch_ch])
        m_energy_sums_max = m_energy_sums[m_branch_ch];
    }
  }
 
  if (m_time_range_max < 0)
    m_time_range_max = m_time_max;
  if (m_ev_range_max < 0)
    m_ev_range_max = m_last_event_id;
 
  B2DEBUG(250, end - start << " events handled.");
}

Member Data Documentation

◆ m_branch_ch

int m_branch_ch

private

Tree channel field.

Definition at line 36 of file EclData.h.

◆ m_branch_energy

double m_branch_energy

private

Tree energy branch.

Definition at line 38 of file EclData.h.

◆ m_branch_evtn

int m_branch_evtn

private

Tree event number branch.

Definition at line 42 of file EclData.h.

◆ m_branch_time

double m_branch_time

private

Tree time branch.

Definition at line 40 of file EclData.h.

◆ m_en_range_max

int m_en_range_max

private

Upper boundary of energy threshold.

Definition at line 79 of file EclData.h.

◆ m_en_range_min

int m_en_range_min

private

Lower boundary of energy threshold.

Definition at line 77 of file EclData.h.

◆ m_energy_sums

float* m_energy_sums

private

Sum of energies of every event captured by crystal (MeV).

Definition at line 49 of file EclData.h.

◆ m_energy_sums_max

float m_energy_sums_max

private

Max value in m_energy_sums array.

Definition at line 51 of file EclData.h.

◆ m_energy_total

float m_energy_total

private

Total energy for last displayed range of events.

Definition at line 53 of file EclData.h.

◆ m_ev_range_max

int m_ev_range_max

private

Events up to ev_range_max will be counted in energy_sums and event_counts.

Setting time ranges means EclData will filter out excluded events in most of the data acquisition methods.

Definition at line 74 of file EclData.h.

◆ m_ev_range_min

int m_ev_range_min

private

Events from ev_range_min will be counted in energy_sums and event_counts.

Setting time ranges means EclData will filter out excluded events in most of the data acquisition methods.

Definition at line 70 of file EclData.h.

◆ m_event_count_max

int m_event_count_max

private

Max value in event_counts array.

Definition at line 47 of file EclData.h.

◆ m_event_counts

int* m_event_counts

private

Number of events for each crystal.

Definition at line 45 of file EclData.h.

◆ m_event_entry

std::vector<int> m_event_entry

private

This vector holds the position of each entry which starts an event.

Definition at line 84 of file EclData.h.

◆ m_excluded_ch

std::set<int> m_excluded_ch

private

Channels which are filtered out from the count of events and energy.

Definition at line 82 of file EclData.h.

◆ m_last_event_id

int m_last_event_id

private

Id of the event with max recorded event number (evtn).

Definition at line 56 of file EclData.h.

◆ m_time_max

int m_time_max

private

Maximum possible time.

Definition at line 59 of file EclData.h.

◆ m_time_range_max

int m_time_range_max

private

Time range (max) for display.

Setting time ranges means EclData will filter out excluded events in most of the data acquisition methods.

Definition at line 65 of file EclData.h.

◆ m_time_range_min

int m_time_range_min

private

Time range (min) for display.

Setting time ranges means EclData will filter out excluded events in most of the data acquisition methods.

Definition at line 62 of file EclData.h.

◆ m_tree

TTree* m_tree

private

Tree with loaded events.

Definition at line 34 of file EclData.h.

◆ ring_start_id

const int ring_start_id

staticprivate

Initial value:

= {
  
  1,    49,   97,   161,  225,  289,  385,  481,  577,  673,
  769,  865,  1009,
  
  1153, 1297, 1441, 1585, 1729, 1873, 2017, 2161, 2305, 2449,
  2593, 2737, 2881, 3025, 3169, 3313, 3457, 3601, 3745, 3889,
  4033, 4177, 4321, 4465, 4609, 4753, 4897, 5041, 5185, 5329,
  5473, 5617, 5761, 5905, 6049, 6193, 6337, 6481, 6625, 6769,
  6913, 7057, 7201, 7345, 7489, 7633,
  
  7777, 7921, 8065, 8161, 8257, 8353, 8449, 8545, 8609, 8673,
  
  EclData::getCrystalCount() + 1
}

First crystal id in the beginning of i-th ECL ring.

Taken from basf2/ecl/data/ecl_channels_map (two last columns)

Definition at line 89 of file EclData.h.

The documentation for this class was generated from the following files:

ecl/modules/eclDisplay/include/EclData.h
ecl/modules/eclDisplay/src/EclData.cc

Public Types

Public Member Functions

Static Public Member Functions

Private Member Functions

Private Attributes

Static Private Attributes

Detailed Description

Member Enumeration Documentation

◆ EclSubsystem

Constructor & Destructor Documentation

◆ EclData() [1/2]

◆ EclData() [2/2]

◆ ~EclData()

Member Function Documentation

◆ addEvent()

◆ cloneFrom()

◆ excludeChannel()

◆ fillEnergyHistogram()

◆ fillEnergySumHistogram()

◆ fillTimeHistogram()

◆ getChannel()

◆ getCrystalCount()

◆ getEnergySumPerCrystal()

◆ getEnergySums()

◆ getEnergySumsMax()

◆ getEnergyTotal()

◆ getEventCounts()

◆ getEventCountsMax()

◆ getEventCountsPerCrystal()

◆ getEventRangeMax()

◆ getEventRangeMin()

◆ getLastEventId()

◆ getPhiId()

◆ getThetaId()

◆ getTimeMax()

◆ getTimeMin()

◆ getTimeRangeMax()

◆ getTimeRangeMin()

◆ getTree()

◆ includeChannel()

◆ initEventRanges()

◆ initVariables()

◆ isCrystalInSubsystem()

◆ loadRootFile()

◆ operator=()

◆ setEnergyThreshold()

◆ setEventRange()

◆ setTimeRange()

◆ update()

Member Data Documentation

◆ m_branch_ch

◆ m_branch_energy

◆ m_branch_evtn

◆ m_branch_time

◆ m_en_range_max

◆ m_en_range_min

◆ m_energy_sums

◆ m_energy_sums_max

◆ m_energy_total

◆ m_ev_range_max

◆ m_ev_range_min

◆ m_event_count_max

◆ m_event_counts

◆ m_event_entry

◆ m_excluded_ch

◆ m_last_event_id

◆ m_time_max

◆ m_time_range_max

◆ m_time_range_min

◆ m_tree

◆ ring_start_id