CSCCathodeLCTProcessor Class Reference

#include <CSCCathodeLCTProcessor.h>

Public Types
enum	{ MAX_CLCT_BINS = 16 }
enum	{ NUM_PATTERN_STRIPS = 26 }
enum	{ NUM_PATTERN_HALFSTRIPS = 42 }
enum	{ MAX_CFEBS = 5 }
enum	CLCT_INDICES {   CLCT_PATTERN, CLCT_BEND, CLCT_STRIP, CLCT_BX,   CLCT_STRIP_TYPE, CLCT_QUALITY, CLCT_CFEB }

Public Member Functions
void	clear ()
	CSCCathodeLCTProcessor (unsigned endcap, unsigned station, unsigned sector, unsigned subsector, unsigned chamber, const edm::ParameterSet &conf, const edm::ParameterSet &comm, const edm::ParameterSet &ctmb)
	CSCCathodeLCTProcessor ()
std::vector< CSCCLCTDigi >	getCLCTs ()
bool	getDigis (const CSCComparatorDigiCollection *compdc)
void	getDigis (const CSCComparatorDigiCollection *compdc, const CSCDetId &id)
std::vector< int >	preTriggerBXs () const
std::vector< CSCCLCTDigi >	readoutCLCTs ()
std::vector< CSCCLCTDigi >	run (const CSCComparatorDigiCollection *compdc)
void	run (const std::vector< int > halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const std::vector< int > distrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS])
void	setConfigParameters (const CSCDBL1TPParameters *conf)
void	setRing (unsigned r)

Static Public Member Functions
static void	distripStagger (int stag_triad[CSCConstants::MAX_NUM_STRIPS], int stag_time[CSCConstants::MAX_NUM_STRIPS], int stag_digi[CSCConstants::MAX_NUM_STRIPS], int i_distrip, bool debug=false)

Public Attributes
CSCCLCTDigi	bestCLCT [MAX_CLCT_BINS]
CSCCLCTDigi	secondCLCT [MAX_CLCT_BINS]

Static Public Attributes
static const int	pattern [CSCConstants::NUM_CLCT_PATTERNS_PRE_TMB07][NUM_PATTERN_STRIPS+1]
static const int	pattern2007 [CSCConstants::NUM_CLCT_PATTERNS][NUM_PATTERN_HALFSTRIPS+2]
static const int	pattern2007_offset [NUM_PATTERN_HALFSTRIPS]
static const int	pre_hit_pattern [2][NUM_PATTERN_STRIPS]

Private Member Functions
void	checkConfigParameters ()
void	dumpConfigParams () const
void	dumpDigis (const std::vector< int > strip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int stripType, const int nStrips) const
std::vector< CSCCLCTDigi >	findLCTs (const std::vector< int > strip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], int stripType)
std::vector< CSCCLCTDigi >	findLCTs (const std::vector< int > halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const std::vector< int > distrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS])
std::vector< CSCCLCTDigi >	findLCTs (const std::vector< int > halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS])
std::vector< CSCCLCTDigi >	findLCTsSLHC (const std::vector< int > halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS])
int	findNumLayersHit (std::vector< int > stripsHit[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS])
void	getKeyStripData (const std::vector< int > strip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], int keystrip_data[CSCConstants::NUM_HALF_STRIPS][7], int nStrips, int first_bx, int &best_strip, int stripType)
void	getKeyStripData (const unsigned int h_pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const unsigned int d_pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], int keystrip_data[2][7], const int first_bx)
void	getPattern (int pattern_num, int strip_value[NUM_PATTERN_STRIPS], int bx_time, int &quality, int &bend)
void	getPattern (unsigned int pattern_num, const int strip_value[NUM_PATTERN_STRIPS], unsigned int &quality, unsigned int &bend)
bool	hitIsGood (int hitTime, int BX)
void	latchLCTs (const unsigned int pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], int keyStrip[MAX_CFEBS], unsigned int nhits[MAX_CFEBS], const int stripType, const int nStrips, const int bx_time)
void	markBusyKeys (const int best_hstrip, const int best_patid, int quality[CSCConstants::NUM_HALF_STRIPS])
bool	preTrigger (const std::vector< int > strip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int stripType, const int nStrips, int &first_bx)
bool	preTrigger (const std::vector< int > strip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], unsigned int pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int stripType, const int nStrips, const int start_bx, int &first_bx)
bool	preTrigger (const unsigned int pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int start_bx, int &first_bx)
bool	preTrigLookUp (const unsigned int pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int stripType, const int nStrips, const unsigned int bx_time)
void	printPatterns ()
void	priorityEncode (const int h_keyStrip[MAX_CFEBS], const unsigned int h_nhits[MAX_CFEBS], const int d_keyStrip[MAX_CFEBS], const unsigned int d_nhits[MAX_CFEBS], int keystrip_data[2][7])
bool	ptnFinding (const unsigned int pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int nStrips, const unsigned int bx_time)
void	pulseExtension (const std::vector< int > time[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int nStrips, unsigned int pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS])
void	readComparatorDigis (std::vector< int >halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], std::vector< int > distrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS])
void	readComparatorDigis (std::vector< int > halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS])
void	setDefaultConfigParameters ()
void	testDistripStagger ()
void	testLCTs ()
void	testPatterns ()

Private Attributes
unsigned int	best_pid [CSCConstants::NUM_HALF_STRIPS]
unsigned int	clct_state_machine_zone
std::vector< CSCComparatorDigi >	digiV [CSCConstants::NUM_LAYERS]
bool	disableME1a
unsigned int	drift_delay
bool	dynamic_state_machine_zone
int	early_tbins
unsigned int	fifo_pretrig
unsigned int	fifo_tbins
int	first_bx_corrected [CSCConstants::NUM_HALF_STRIPS]
bool	gangedME1a
unsigned int	hit_persist
int	infoV
bool	isME11
bool	isMTCC
bool	ispretrig [CSCConstants::NUM_HALF_STRIPS]
bool	isSLHC
bool	isTMB07
unsigned int	min_separation
unsigned int	nhits [CSCConstants::NUM_HALF_STRIPS]
unsigned int	nplanes_hit_pattern
unsigned int	nplanes_hit_pretrig
int	numStrips
unsigned int	pid_thresh_pretrig
unsigned int	pretrig_trig_zone
bool	readout_earliest_2
bool	smartME1aME1b
int	stagger [CSCConstants::NUM_LAYERS]
int	start_bx_shift
unsigned int	theChamber
const unsigned	theEndcap
std::vector< int >	thePreTriggerBXs
unsigned int	theRing
const unsigned	theSector
const unsigned	theStation
const unsigned	theSubsector
const unsigned	theTrigChamber
unsigned int	tmb_l1a_window_size
bool	use_corrected_bx
bool	use_dead_time_zoning

Static Private Attributes
static const int	cfeb_strips [2] = { 8, 32}
static const unsigned int	def_drift_delay = 2
static const unsigned int	def_fifo_pretrig = 7
static const unsigned int	def_fifo_tbins = 12
static const unsigned int	def_hit_persist = 6
static const unsigned int	def_min_separation = 10
static const unsigned int	def_nplanes_hit_pattern = 4
static const unsigned int	def_nplanes_hit_pretrig = 2
static const unsigned int	def_pid_thresh_pretrig = 2
static const unsigned int	def_tmb_l1a_window_size = 7

Detailed Description

This class simulates the functionality of the cathode LCT card. It is run by the MotherBoard and returns up to two CathodeLCTs. It can be run either in a test mode, where it is passed arrays of halfstrip and distrip times, or in normal mode where it determines the time and comparator information from the comparator digis.

The CathodeLCTs come in distrip and halfstrip flavors; they are sorted (from best to worst) as follows: 6/6H, 5/6H, 6/6D, 4/6H, 5/6D, 4/6D.

Date

May 2001 Removed the card boundaries. Changed the Pretrigger to emulate the hardware electronic logic. Also changed the keylayer to be the 4th layer in a chamber instead of the 3rd layer from the interaction region. The code is a more realistic simulation of hardware LCT logic now. -Jason Mumford.

Author

Benn Tannenbaum UCLA 13 July 1999 benn@.nosp@m.phys.nosp@m.ics.u.nosp@m.cla..nosp@m.edu Numerous later improvements by Jason Mumford and Slava Valuev (see cvs in ORCA). Porting from ORCA by S. Valuev (Slava.nosp@m..Val.nosp@m.uev@c.nosp@m.ern..nosp@m.ch), May 2006.

Definition at line 36 of file CSCCathodeLCTProcessor.h.

Member Enumeration Documentation

anonymous enum

Maximum number of time bins.

Enumerator
MAX_CLCT_BINS

Definition at line 69 of file CSCCathodeLCTProcessor.h.

{MAX_CLCT_BINS = 16};

anonymous enum

Pre-defined patterns.

Enumerator
NUM_PATTERN_STRIPS

Definition at line 96 of file CSCCathodeLCTProcessor.h.

{NUM_PATTERN_STRIPS = 26};

anonymous enum

Enumerator
NUM_PATTERN_HALFSTRIPS

Definition at line 100 of file CSCCathodeLCTProcessor.h.

{NUM_PATTERN_HALFSTRIPS = 42};

anonymous enum

Maximum number of cathode front-end boards (move to CSCConstants?).

Enumerator
MAX_CFEBS

Definition at line 105 of file CSCCathodeLCTProcessor.h.

{MAX_CFEBS = 5};

enum CSCCathodeLCTProcessor::CLCT_INDICES

Enumerator
CLCT_PATTERN
CLCT_BEND
CLCT_STRIP
CLCT_BX
CLCT_STRIP_TYPE
CLCT_QUALITY
CLCT_CFEB

Definition at line 109 of file CSCCathodeLCTProcessor.h.

                    {CLCT_PATTERN, CLCT_BEND, CLCT_STRIP, CLCT_BX,
             CLCT_STRIP_TYPE, CLCT_QUALITY, CLCT_CFEB};

Constructor & Destructor Documentation

CSCCathodeLCTProcessor::CSCCathodeLCTProcessor	(	unsigned	endcap,
		unsigned	station,
		unsigned	sector,
		unsigned	subsector,
		unsigned	chamber,
		const edm::ParameterSet &	conf,
		const edm::ParameterSet &	comm,
		const edm::ParameterSet &	ctmb
	)

Normal constructor.

Definition at line 236 of file CSCCathodeLCTProcessor.cc.

References CSCTriggerNumbering::chamberFromTriggerLabels(), checkConfigParameters(), clct_state_machine_zone, disableME1a, drift_delay, dumpConfigParams(), dynamic_state_machine_zone, early_tbins, fifo_pretrig, fifo_tbins, gangedME1a, edm::ParameterSet::getParameter(), edm::ParameterSet::getUntrackedParameter(), hit_persist, infoV, isME11, isMTCC, isSLHC, isTMB07, min_separation, nplanes_hit_pattern, nplanes_hit_pretrig, CSCConstants::NUM_LAYERS, numStrips, pid_thresh_pretrig, pretrig_trig_zone, readout_earliest_2, CSCTriggerNumbering::ringFromTriggerLabels(), smartME1aME1b, stagger, start_bx_shift, theChamber, theRing, theSector, theStation, theSubsector, theTrigChamber, tmb_l1a_window_size, use_corrected_bx, and use_dead_time_zoning.

                                                        :
             theEndcap(endcap), theStation(station), theSector(sector),
                     theSubsector(subsector), theTrigChamber(chamber) {
  static std::atomic<bool> config_dumped{false};

  // CLCT configuration parameters.
  fifo_tbins   = conf.getParameter<unsigned int>("clctFifoTbins");
  hit_persist  = conf.getParameter<unsigned int>("clctHitPersist");
  drift_delay  = conf.getParameter<unsigned int>("clctDriftDelay");
  nplanes_hit_pretrig =
    conf.getParameter<unsigned int>("clctNplanesHitPretrig");
  nplanes_hit_pattern =
    conf.getParameter<unsigned int>("clctNplanesHitPattern");

  // Not used yet.
  fifo_pretrig = conf.getParameter<unsigned int>("clctFifoPretrig");

  // Defines pre-2007 version of the CLCT algorithm used in test beams and
  // MTCC.
  isMTCC       = comm.getParameter<bool>("isMTCC");

  // TMB07 firmware used since 2007: switch and config. parameters.
  isTMB07      = comm.getParameter<bool>("isTMB07");

  // Flag for SLHC studies
  isSLHC       = comm.getUntrackedParameter<bool>("isSLHC",false);

  // special configuration parameters for ME11 treatment
  smartME1aME1b = comm.getUntrackedParameter<bool>("smartME1aME1b",false);
  disableME1a = comm.getUntrackedParameter<bool>("disableME1a",false);
  gangedME1a = comm.getUntrackedParameter<bool>("gangedME1a",true);

  if (isSLHC && !smartME1aME1b) edm::LogError("L1CSCTPEmulatorConfigError")
    << "+++ SLHC upgrade configuration is used (isSLHC=True) but smartME1aME1b=False!\n"
    << "Only smartME1aME1b algorithm is so far supported for upgrade! +++\n";

  if (isTMB07) {
    pid_thresh_pretrig =
      conf.getParameter<unsigned int>("clctPidThreshPretrig");
    min_separation    =
      conf.getParameter<unsigned int>("clctMinSeparation");

    start_bx_shift = conf.getUntrackedParameter<int>("clctStartBxShift",0);
  }

  if (smartME1aME1b) {
    // use of localized dead-time zones
    use_dead_time_zoning = 
      conf.getUntrackedParameter<bool>("useDeadTimeZoning",true);
    clct_state_machine_zone = 
      conf.getUntrackedParameter<unsigned int>("clctStateMachineZone",8);
    dynamic_state_machine_zone = 
      conf.getUntrackedParameter<bool>("useDynamicStateMachineZone",true);

    // how far away may trigger happen from pretrigger
    pretrig_trig_zone = 
      conf.getUntrackedParameter<unsigned int>("clctPretriggerTriggerZone",5);

    // whether to calculate bx as corrected_bx instead of pretrigger one
    use_corrected_bx = conf.getUntrackedParameter<bool>("clctUseCorrectedBx",false);
  }
  
  // Motherboard parameters: common for all configurations.
  tmb_l1a_window_size = // Common to CLCT and TMB
    ctmb.getParameter<unsigned int>("tmbL1aWindowSize");

  // separate handle for early time bins
  early_tbins = ctmb.getUntrackedParameter<int>("tmbEarlyTbins",-1);
  static int fpga_latency = 3;
  if (early_tbins<0) early_tbins  = fifo_pretrig - fpga_latency;

  // wether to readout only the earliest two LCTs in readout window
  readout_earliest_2 = ctmb.getUntrackedParameter<bool>("tmbReadoutEarliest2",0);

  // Verbosity level, set to 0 (no print) by default.
  infoV        = conf.getUntrackedParameter<int>("verbosity", 0);

  // Check and print configuration parameters.
  checkConfigParameters();
  if ((infoV > 0 || isSLHC) && !config_dumped) {
    //std::cerr<<"**** CLCT constructor parameters dump ****"<<std::endl;
    dumpConfigParams();
    config_dumped = true;
  }

  numStrips = 0; // Will be set later.
  // Provisional, but should be OK for all stations except ME1.
  for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++) {
    if ((i_layer+1)%2 == 0) stagger[i_layer] = 0;
    else                    stagger[i_layer] = 1;
  }

  theRing = CSCTriggerNumbering::ringFromTriggerLabels(theStation, theTrigChamber);

  theChamber = CSCTriggerNumbering::chamberFromTriggerLabels(theSector, theSubsector,
                                                             theStation, theTrigChamber);

  // trigger numbering doesn't distinguish between ME1a and ME1b chambers:
  isME11 = (theStation == 1 && theRing == 1);

  //if (theStation==1 && theRing==2) infoV = 3;

  //if (theStation == 2 && theSector == 1 &&
  //    theRing == 1 &&
  //    theChamber == 1) {
  //  testPatterns();
  //  testLCTs();
  //  printPatterns();
  //}
}

CSCCathodeLCTProcessor::CSCCathodeLCTProcessor

(

)

Default constructor. Used for testing.

Definition at line 358 of file CSCCathodeLCTProcessor.cc.

References checkConfigParameters(), clct_state_machine_zone, disableME1a, dumpConfigParams(), early_tbins, gangedME1a, infoV, isME11, isMTCC, isTMB07, CSCConstants::MAX_NUM_STRIPS, CSCConstants::NUM_LAYERS, numStrips, CSCTriggerNumbering::ringFromTriggerLabels(), setDefaultConfigParameters(), smartME1aME1b, stagger, start_bx_shift, theRing, theStation, theTrigChamber, and use_dead_time_zoning.

                                               :
             theEndcap(1), theStation(1), theSector(1),
                     theSubsector(1), theTrigChamber(1) {
  // constructor for debugging.
  static std::atomic<bool> config_dumped{false};

  // CLCT configuration parameters.
  setDefaultConfigParameters();
  infoV =  2;
  isMTCC  = false;
  isTMB07 = true;

  smartME1aME1b = false;
  disableME1a = false;
  gangedME1a = true;

  early_tbins = 4;

  start_bx_shift = 0;
  use_dead_time_zoning = 1;
  clct_state_machine_zone = 8;
  
  // Check and print configuration parameters.
  checkConfigParameters();
  if (!config_dumped) {
    //std::cerr<<"**** CLCT default constructor parameters dump ****"<<std::endl;
    dumpConfigParams();
    config_dumped = true;
  }

  numStrips = CSCConstants::MAX_NUM_STRIPS;
  // Should be OK for all stations except ME1.
  for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++) {
    if ((i_layer+1)%2 == 0) stagger[i_layer] = 0;
    else                    stagger[i_layer] = 1;
  }
  
  theRing = CSCTriggerNumbering::ringFromTriggerLabels(theStation, theTrigChamber);
  isME11 = (theStation == 1 && theRing == 1);
}

Member Function Documentation

void CSCCathodeLCTProcessor::checkConfigParameters ( )

private

Make sure that the parameter values are within the allowed range.

Definition at line 446 of file CSCCathodeLCTProcessor.cc.

References def_drift_delay, def_fifo_pretrig, def_fifo_tbins, def_hit_persist, def_min_separation, def_nplanes_hit_pattern, def_nplanes_hit_pretrig, def_pid_thresh_pretrig, def_tmb_l1a_window_size, drift_delay, fifo_pretrig, fifo_tbins, hit_persist, infoV, isTMB07, min_separation, nplanes_hit_pattern, nplanes_hit_pretrig, CSCConstants::NUM_HALF_STRIPS, pid_thresh_pretrig, and tmb_l1a_window_size.

Referenced by CSCCathodeLCTProcessor(), and setConfigParameters().

                                                   {
  // Make sure that the parameter values are within the allowed range.

  // Max expected values.
  static const unsigned int max_fifo_tbins   = 1 << 5;
  static const unsigned int max_fifo_pretrig = 1 << 5;
  static const unsigned int max_hit_persist  = 1 << 4;
  static const unsigned int max_drift_delay  = 1 << 2;
  static const unsigned int max_nplanes_hit_pretrig = 1 << 3;
  static const unsigned int max_nplanes_hit_pattern = 1 << 3;
  static const unsigned int max_pid_thresh_pretrig  = 1 << 4;
  static const unsigned int max_min_separation = CSCConstants::NUM_HALF_STRIPS;
  static const unsigned int max_tmb_l1a_window_size = 1 << 4;

  // Checks.
  if (fifo_tbins >= max_fifo_tbins) {
    if (infoV >= 0) edm::LogError("L1CSCTPEmulatorConfigError")
      << "+++ Value of fifo_tbins, " << fifo_tbins
      << ", exceeds max allowed, " << max_fifo_tbins-1 << " +++\n"
      << "+++ Try to proceed with the default value, fifo_tbins="
      << def_fifo_tbins << " +++\n";
    fifo_tbins = def_fifo_tbins;
  }
  if (fifo_pretrig >= max_fifo_pretrig) {
    if (infoV >= 0) edm::LogError("L1CSCTPEmulatorConfigError")
      << "+++ Value of fifo_pretrig, " << fifo_pretrig
      << ", exceeds max allowed, " << max_fifo_pretrig-1 << " +++\n"
      << "+++ Try to proceed with the default value, fifo_pretrig="
      << def_fifo_pretrig << " +++\n";
    fifo_pretrig = def_fifo_pretrig;
  }
  if (hit_persist >= max_hit_persist) {
    if (infoV >= 0) edm::LogError("L1CSCTPEmulatorConfigError")
      << "+++ Value of hit_persist, " << hit_persist
      << ", exceeds max allowed, " << max_hit_persist-1 << " +++\n"
      << "+++ Try to proceed with the default value, hit_persist="
      << def_hit_persist << " +++\n";
    hit_persist = def_hit_persist;
  }
  if (drift_delay >= max_drift_delay) {
    if (infoV >= 0) edm::LogError("L1CSCTPEmulatorConfigError")
      << "+++ Value of drift_delay, " << drift_delay
      << ", exceeds max allowed, " << max_drift_delay-1 << " +++\n"
      << "+++ Try to proceed with the default value, drift_delay="
      << def_drift_delay << " +++\n";
    drift_delay = def_drift_delay;
  }
  if (nplanes_hit_pretrig >= max_nplanes_hit_pretrig) {
    if (infoV >= 0) edm::LogError("L1CSCTPEmulatorConfigError")
      << "+++ Value of nplanes_hit_pretrig, " << nplanes_hit_pretrig
      << ", exceeds max allowed, " << max_nplanes_hit_pretrig-1 << " +++\n"
      << "+++ Try to proceed with the default value, nplanes_hit_pretrig="
      << def_nplanes_hit_pretrig << " +++\n";
    nplanes_hit_pretrig = def_nplanes_hit_pretrig;
  }
  if (nplanes_hit_pattern >= max_nplanes_hit_pattern) {
    if (infoV >= 0) edm::LogError("L1CSCTPEmulatorConfigError")
      << "+++ Value of nplanes_hit_pattern, " << nplanes_hit_pattern
      << ", exceeds max allowed, " << max_nplanes_hit_pattern-1 << " +++\n"
      << "+++ Try to proceed with the default value, nplanes_hit_pattern="
      << def_nplanes_hit_pattern << " +++\n";
    nplanes_hit_pattern = def_nplanes_hit_pattern;
  }

  if (isTMB07) {
    if (pid_thresh_pretrig >= max_pid_thresh_pretrig) {
      if (infoV >= 0) edm::LogError("L1CSCTPEmulatorConfigError")
    << "+++ Value of pid_thresh_pretrig, " << pid_thresh_pretrig
    << ", exceeds max allowed, " << max_pid_thresh_pretrig-1 << " +++\n"
    << "+++ Try to proceed with the default value, pid_thresh_pretrig="
    << def_pid_thresh_pretrig << " +++\n";
      pid_thresh_pretrig = def_pid_thresh_pretrig;
    }
    if (min_separation >= max_min_separation) {
      if (infoV >= 0) edm::LogError("L1CSCTPEmulatorConfigError")
    << "+++ Value of min_separation, " << min_separation
    << ", exceeds max allowed, " << max_min_separation-1 << " +++\n"
    << "+++ Try to proceed with the default value, min_separation="
    << def_min_separation << " +++\n";
      min_separation = def_min_separation;
    }
  }
  
  if (tmb_l1a_window_size >= max_tmb_l1a_window_size) {
    if (infoV > 0) edm::LogError("L1CSCTPEmulatorConfigError")
      << "+++ Value of tmb_l1a_window_size, " << tmb_l1a_window_size
      << ", exceeds max allowed, " << max_tmb_l1a_window_size-1 << " +++\n"
      << "+++ Try to proceed with the default value, tmb_l1a_window_size="
      << def_tmb_l1a_window_size << " +++\n";
    tmb_l1a_window_size = def_tmb_l1a_window_size;
  }
}

void CSCCathodeLCTProcessor::clear

(

void

)

Clears the LCT containers.

Definition at line 539 of file CSCCathodeLCTProcessor.cc.

References bestCLCT, CSCCLCTDigi::clear(), MAX_CLCT_BINS, secondCLCT, and thePreTriggerBXs.

Referenced by CSCMotherboardME11::clear(), and CSCMotherboard::clear().

                                   {
  thePreTriggerBXs.clear();
  for (int bx = 0; bx < MAX_CLCT_BINS; bx++) {
    bestCLCT[bx].clear();
    secondCLCT[bx].clear();
  }
}

void CSCCathodeLCTProcessor::distripStagger ( int  stag_triad[CSCConstants::MAX_NUM_STRIPS], int  stag_time[CSCConstants::MAX_NUM_STRIPS], int  stag_digi[CSCConstants::MAX_NUM_STRIPS], int  i_distrip, bool  debug = false  )

static

Definition at line 1052 of file CSCCathodeLCTProcessor.cc.

References LogDebug.

Referenced by readComparatorDigis(), and testDistripStagger().

                                            {
  // Author: Jason Mumford (mumford@physics.ucla.edu)
  // This routine takes care of the stagger situation where there is a hit
  // on the right half-strip of a di-strip.  If there is a stagger, then
  // we must associate that distrip with the next distrip. The situation
  // gets more complicated if the next distrip also has a hit on its right
  // half-strip.  One could imagine a whole chain of these in which case
  // we need to go into this routine recursively.  The formula is that
  // while this condition is satisfied, we enquire the next distrip,
  // until we have a hit on any other halfstrip (or triad!=3).  Then we
  // must compare the 2 different bx times and take the smallest one.
  // Afterwards, we must cycle out of the routine assigning the bx times
  // to the one strip over.

  // Used only for pre-TMB07 firmware.

  if (i_strip >= CSCConstants::MAX_NUM_STRIPS) {
    if (debug) edm::LogWarning("L1CSCTPEmulatorWrongInput")
      << "+++ Found wrong strip number = " << i_strip
      << "; cannot apply distrip staggering... +++\n";
    return;
  }

  if (debug)
    LogDebug("CSCCathodeLCTProcessor")
      << " Enter distripStagger: i_strip = " << i_strip
      << " stag_triad[i_strip] = "   << stag_triad[i_strip]
      << " stag_time[i_strip] =  "   << stag_time[i_strip]
      << " stag_triad[i_strip+2] = " << stag_triad[i_strip+2]
      << " stag_time[i_strip+2] = "  << stag_time[i_strip+2];

  // So if the next distrip has a stagger hit, go into the routine again
  // for the next distrip.
  if (i_strip+2 < CSCConstants::MAX_NUM_STRIPS && stag_triad[i_strip+2] == 1)
    distripStagger(stag_triad, stag_time, stag_digi, i_strip+2);

  // When we have reached a distrip that does not have a staggered hit,
  // if it has a hit, we compare the bx times of the
  // staggered distrip with the non-staggered distrip and we take the
  // smallest of the two and assign it to the shifted distrip time.
  if (stag_time[i_strip+2] >= 0) {
    if (stag_time[i_strip] < stag_time[i_strip+2]) {
      stag_time[i_strip+2] = stag_time[i_strip];
      stag_digi[i_strip+2] = stag_digi[i_strip];
    }
  }
  // If the next distrip did not have a hit, then we merely assign the
  // shifted time to the time associated with the staggered distrip.
  else {
    stag_time[i_strip+2] = stag_time[i_strip];
    stag_digi[i_strip+2] = stag_digi[i_strip];
  }

  // Then to prevent previous staggers from being overwritten, we assign
  // the unshifted time to -999, and then mark the triads that were shifted
  // so that we don't go into the routine ever again (such as when making
  // the next loop over strips).
  stag_time[i_strip]  = -999;
  stag_triad[i_strip] =    4;
  stag_digi[i_strip]  = -999;

  if (debug)
    LogDebug("CSCCathodeLCTProcessor")
      << " Exit  distripStagger: i_strip = " << i_strip
      << " stag_triad[i_strip] = "   << stag_triad[i_strip]
      << " stag_time[i_strip] = "    << stag_time[i_strip]
      << " stag_triad[i_strip+2] = " << stag_triad[i_strip+2]
      << " stag_time[i_strip+2] = "  << stag_time[i_strip+2];
}

void CSCCathodeLCTProcessor::dumpConfigParams ( ) const

private

Dump CLCT configuration parameters.

Definition at line 2741 of file CSCCathodeLCTProcessor.cc.

References drift_delay, fifo_pretrig, fifo_tbins, hit_persist, isTMB07, LogDebug, min_separation, nplanes_hit_pattern, nplanes_hit_pretrig, and pid_thresh_pretrig.

Referenced by CSCCathodeLCTProcessor(), run(), and setConfigParameters().

                                                    {
  std::ostringstream strm;
  strm << "\n";
  strm << "++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++\n";
  strm << "+                  CLCT configuration parameters:                  +\n";
  strm << "++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++\n";
  strm << " fifo_tbins   [total number of time bins in DAQ readout] = "
       << fifo_tbins << "\n";
  strm << " fifo_pretrig [start time of cathode raw hits in DAQ readout] = "
       << fifo_pretrig << "\n";
  strm << " hit_persist  [duration of signal pulse, in 25 ns bins] = "
       << hit_persist << "\n";
  strm << " drift_delay  [time after pre-trigger before TMB latches LCTs] = "
       << drift_delay << "\n";
  strm << " nplanes_hit_pretrig [min. number of layers hit for pre-trigger] = "
       << nplanes_hit_pretrig << "\n";
  strm << " nplanes_hit_pattern [min. number of layers hit for trigger] = "
       << nplanes_hit_pattern << "\n";
  if (isTMB07) {
    strm << " pid_thresh_pretrig [lower threshold on pattern id] = "
     << pid_thresh_pretrig << "\n";
    strm << " min_separation     [region of busy key strips] = "
     << min_separation << "\n";
  }
  strm << "++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++\n";
  LogDebug("CSCCathodeLCTProcessor") << strm.str();
  //std::cerr<<strm.str()<<std::endl;
}

void CSCCathodeLCTProcessor::dumpDigis ( const std::vector< int >  strip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int  stripType, const int  nStrips  ) const

private

Dump digis on half-strips and di-strips.

Definition at line 2771 of file CSCCathodeLCTProcessor.cc.

References cfeb_strips, relativeConstraints::empty, LogDebug, LogTrace, CSCConstants::NUM_LAYERS, theChamber, theEndcap, theRing, and theStation.

Referenced by findLCTs(), and findLCTsSLHC().

{
  LogDebug("CSCCathodeLCTProcessor")
    << "ME" << ((theEndcap == 1) ? "+" : "-")
    << theStation << "/" << theRing << "/" << theChamber
    << " strip type " << stripType << " nStrips " << nStrips;

  std::ostringstream strstrm;
  for (int i_strip = 0; i_strip < nStrips; i_strip++) {
    if (i_strip%10 == 0) {
      if (i_strip < 100) strstrm << i_strip/10;
      else               strstrm << (i_strip-100)/10;
    }
    else                 strstrm << " ";
    if ((i_strip+1)%cfeb_strips[stripType] == 0) strstrm << " ";
  }
  strstrm << "\n";
  for (int i_strip = 0; i_strip < nStrips; i_strip++) {
    strstrm << i_strip%10;
    if ((i_strip+1)%cfeb_strips[stripType] == 0) strstrm << " ";
  }
  for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++) {
    strstrm << "\n";
    for (int i_strip = 0; i_strip < nStrips; i_strip++) {
      if (!strip[i_layer][i_strip].empty()) {
    std::vector<int> bx_times = strip[i_layer][i_strip];
    // Dump only the first in time.
    strstrm << std::hex << bx_times[0] << std::dec;
      }
      else {
    strstrm << "-";
      }
      if ((i_strip+1)%cfeb_strips[stripType] == 0) strstrm << " ";
    }
  }
  LogTrace("CSCCathodeLCTProcessor") << strstrm.str();
}

std::vector< CSCCLCTDigi > CSCCathodeLCTProcessor::findLCTs ( const std::vector< int >  strip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], int  stripType  )

private

Definition at line 1135 of file CSCCathodeLCTProcessor.cc.

References funct::abs(), CLCT_BEND, CLCT_BX, CLCT_CFEB, CLCT_PATTERN, CLCT_QUALITY, CLCT_STRIP, CLCT_STRIP_TYPE, dumpDigis(), getKeyStripData(), infoV, j, LogTrace, nplanes_hit_pattern, CSCConstants::NUM_HALF_STRIPS, numStrips, and preTrigger().

Referenced by run(), and testPatterns().

{
  int j;
  int best_strip = 0;
  int first_bx = 999;
  const int max_lct_num = 2;
  const int adjacent_strips = 2;
  // Distrip, halfstrip pattern threshold.
  const unsigned int ptrn_thrsh[2] = {nplanes_hit_pattern, nplanes_hit_pattern};
  int highest_quality = 0;

  int keystrip_data[CSCConstants::NUM_HALF_STRIPS][7];
  int final_lcts[max_lct_num];

  std::vector <CSCCLCTDigi> lctList;

  int nStrips = 0;
  if (stripType == 1)      nStrips = 2*numStrips + 1;
  else if (stripType == 0) nStrips = numStrips/2 + 1;

  if (infoV > 1) dumpDigis(strip, stripType, nStrips);

  // Send data to a pretrigger so that we don't excessively look at data
  // that won't give an LCT. If there is a pretrigger, then get all quality
  // and bend for all keystrips.
  if (preTrigger(strip, stripType, nStrips, first_bx)){
    getKeyStripData(strip, keystrip_data, nStrips, first_bx, best_strip, stripType);

    /* Set all final_lcts to impossible key_strip numbers */
    for (j = 0; j < max_lct_num; j++)
      final_lcts[j] = -999;

    // Now take the keystrip with the best quality, and do a search over the
    // rest of the strips for the next highest quality.  Do the search over a 
    // range excluding a certain number of keystrips adjacent to the original
    // best key_strip.
    final_lcts[0] = best_strip;

    for (int key_strip = 0; key_strip < (nStrips-stripType); key_strip++){
      // If indexed strip does not fall within excluded range, then continue
      if (abs(best_strip - key_strip) > adjacent_strips){
    // Match with highest quality
    if (keystrip_data[key_strip][CLCT_QUALITY] > highest_quality){
      highest_quality = keystrip_data[key_strip][CLCT_QUALITY];
      final_lcts[1] = key_strip;
    }
      }
    }

    for (j = 0; j < max_lct_num; j++){
      // Only report LCTs if the number of layers hit is greater than or
      // equal to the (variable) valid pattern threshold ptrn_thrsh.
      int keystrip = final_lcts[j];
      if (keystrip >= 0 &&
      keystrip_data[keystrip][CLCT_QUALITY] >= static_cast<int>(ptrn_thrsh[stripType])) {
        // assign the stripType here. 1 = halfstrip, 0 = distrip.
        keystrip_data[keystrip][CLCT_STRIP_TYPE] = stripType;
    // Now make the LCT words for the 2 highest, and store them in a list
    int theHalfStrip = (keystrip_data[keystrip][CLCT_STRIP_TYPE] ?
                keystrip_data[keystrip][CLCT_STRIP] :
                4*keystrip_data[keystrip][CLCT_STRIP]);
    keystrip_data[keystrip][CLCT_CFEB] = theHalfStrip/32;
    int halfstrip_in_cfeb =
      theHalfStrip - 32*keystrip_data[keystrip][CLCT_CFEB];

    CSCCLCTDigi thisLCT(1, keystrip_data[keystrip][CLCT_QUALITY],
                keystrip_data[keystrip][CLCT_PATTERN],
                keystrip_data[keystrip][CLCT_STRIP_TYPE],
                keystrip_data[keystrip][CLCT_BEND],
                halfstrip_in_cfeb,
                keystrip_data[keystrip][CLCT_CFEB],
                keystrip_data[keystrip][CLCT_BX]);
    if (infoV > 2) {
      char stripType =
        (keystrip_data[keystrip][CLCT_STRIP_TYPE] == 0) ? 'D' : 'H';
      char bend =
        (keystrip_data[keystrip][CLCT_BEND] == 0) ? 'L' : 'R';
      LogTrace("CSCCathodeLCTProcessor")
        << " Raw Find: "
        << "Key Strip: "  << std::setw(3)
        << keystrip_data[keystrip][CLCT_STRIP]
        << " Pattern: "   << std::setw(2)
        << keystrip_data[keystrip][CLCT_PATTERN]
        << " Bend: "      << std::setw(1) << bend
        << " Quality: "   << std::setw(1)
        << keystrip_data[keystrip][CLCT_QUALITY]
        << " stripType: " << std::setw(1) << stripType
        << " BX: "        << std::setw(1)
        << keystrip_data[keystrip][CLCT_BX];
    }
    lctList.push_back(thisLCT);
      }
    }
  }

  return lctList;
} // findLCTs -- idealized version for MC studies.

std::vector< CSCCLCTDigi > CSCCathodeLCTProcessor::findLCTs ( const std::vector< int >  halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const std::vector< int >  distrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS]  )

private

Definition at line 1430 of file CSCCathodeLCTProcessor.cc.

References CLCT_BEND, CLCT_BX, CLCT_CFEB, CLCT_PATTERN, CLCT_QUALITY, CLCT_STRIP, CLCT_STRIP_TYPE, drift_delay, dumpDigis(), getKeyStripData(), infoV, latchLCTs(), LogTrace, MAX_CFEBS, CSCConstants::NUM_DI_STRIPS, CSCConstants::NUM_HALF_STRIPS, CSCConstants::NUM_LAYERS, numStrips, preTrigger(), and priorityEncode().

                                                                                    {
  std::vector <CSCCLCTDigi> lctList;
  int _bx[2] = {999, 999};
  int first_bx = 999;

  const int nhStrips = 2*numStrips + 1;
  const int ndStrips = numStrips/2 + 1;

  if (infoV > 1) {
    dumpDigis(halfstrip, 1, nhStrips);
    dumpDigis(distrip,   0, ndStrips);
  }

  // Test beam version of TMB pretrigger and LCT sorting
  int h_keyStrip[MAX_CFEBS];       // one key per CFEB
  unsigned int h_nhits[MAX_CFEBS]; // number of hits in envelope for each key
  int d_keyStrip[MAX_CFEBS];       // one key per CFEB
  unsigned int d_nhits[MAX_CFEBS]; // number of hits in envelope for each key
  int keystrip_data[2][7];    // 2 possible LCTs per CSC x 7 LCT quantities
  unsigned int h_pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS]; // simulate digital one-shot
  unsigned int d_pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS]; // simulate digital one-shot
  bool pre_trig[2] = {false, false};

  // All half-strip and di-strip pattern envelopes are evaluated
  // simultaneously, on every clock cycle.
  pre_trig[0] = preTrigger(halfstrip, h_pulse, 1, nhStrips, 0, _bx[0]);
  pre_trig[1] = preTrigger(  distrip, d_pulse, 0, ndStrips, 0, _bx[1]);

  // If any of 200 half-strip and di-strip envelopes has enough layers hit in
  // it, TMB will pre-trigger.
  if (pre_trig[0] || pre_trig[1]) {
    first_bx = (_bx[0] < _bx[1]) ? _bx[0] : _bx[1];
    if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
      << "half bx " << _bx[0] << " di bx " << _bx[1] << " first " << first_bx
      << "\n ..... waiting drift delay ..... ";

    // Empirically-found trick allowing to dramatically improve agreement
    // with MTCC-II data.
    // The trick is to ignore hits in a few first time bins when latching
    // hits for priority encode envelopes.  For MTCC-II, we need to ignore
    // hits in time bins 0-3 inclusively.
    //
    // Firmware configuration has been fixed for most of 2007 runs, so
    // this trick should NOT be used when emulating 2007 trigger.
    /*
    int max_bx = 4;
    for (int ilayer = 0; ilayer < CSCConstants::NUM_LAYERS; ilayer++) {
      for (int istrip = 0; istrip < CSCConstants::NUM_HALF_STRIPS; istrip++) {
    for (int bx = 0; bx < max_bx; bx++) {
      if (((h_pulse[ilayer][istrip] >> bx) & 1) == 1) {
        h_pulse[ilayer][istrip] = 0;
      }
    }
      }
      for (int istrip = 0; istrip < CSCConstants::NUM_DI_STRIPS; istrip++) {
    for (int bx = 0; bx < max_bx; bx++) {
      if (((d_pulse[ilayer][istrip] >> bx) & 1) == 1) {
        d_pulse[ilayer][istrip] = 0;
      }
    }
      }
    }
    */

    // TMB latches LCTs drift_delay clocks after pretrigger.
    int latch_bx = first_bx + drift_delay;
    latchLCTs(h_pulse, h_keyStrip, h_nhits, 1, CSCConstants::NUM_HALF_STRIPS,
          latch_bx);
    latchLCTs(d_pulse, d_keyStrip, d_nhits, 0,   CSCConstants::NUM_DI_STRIPS,
          latch_bx);

    if (infoV > 1) {
      LogTrace("CSCCathodeLCTProcessor")
    << "...............................\n"
    << "Final halfstrip hits and keys (after drift delay) ...";
      for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) {
    LogTrace("CSCCathodeLCTProcessor")
      << "cfeb " << icfeb << " key: " << h_keyStrip[icfeb]
      << " hits " << h_nhits[icfeb];
      }
      LogTrace("CSCCathodeLCTProcessor")
    << "Final distrip hits and keys (after drift delay) ...";
      for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) {
    LogTrace("CSCCathodeLCTProcessor")
      << "cfeb " << icfeb << " key: " << d_keyStrip[icfeb]
      << " hits " << d_nhits[icfeb];
      }
    }
    priorityEncode(h_keyStrip, h_nhits, d_keyStrip, d_nhits, keystrip_data);
    getKeyStripData(h_pulse, d_pulse, keystrip_data, first_bx);

    for (int ilct = 0; ilct < 2; ilct++) {
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "found lcts: ilct " << ilct
    << "  key strip " << keystrip_data[ilct][CLCT_STRIP];
      if (keystrip_data[ilct][CLCT_STRIP] != -1) {
    int halfstrip_in_cfeb = 0;
    if (keystrip_data[ilct][CLCT_STRIP_TYPE] == 0)
      halfstrip_in_cfeb = 4*keystrip_data[ilct][CLCT_STRIP] -
                             32*keystrip_data[ilct][CLCT_CFEB];
    else
      halfstrip_in_cfeb = keystrip_data[ilct][CLCT_STRIP] -
                         32*keystrip_data[ilct][CLCT_CFEB];

    CSCCLCTDigi thisLCT(1, keystrip_data[ilct][CLCT_QUALITY],
                keystrip_data[ilct][CLCT_PATTERN],
                keystrip_data[ilct][CLCT_STRIP_TYPE],
                keystrip_data[ilct][CLCT_BEND],
                halfstrip_in_cfeb,
                keystrip_data[ilct][CLCT_CFEB],
                keystrip_data[ilct][CLCT_BX]);
    lctList.push_back(thisLCT);
      }
    }
  }

  return lctList;

} // findLCTs -- pre-2007 version.

std::vector< CSCCLCTDigi > CSCCathodeLCTProcessor::findLCTs ( const std::vector< int >  halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS] )

private

Definition at line 2039 of file CSCCathodeLCTProcessor.cc.

References best_pid, cfeb_strips, CLCT_BEND, CLCT_BX, CLCT_CFEB, CLCT_PATTERN, CLCT_QUALITY, CLCT_STRIP, CLCT_STRIP_TYPE, drift_delay, dumpDigis(), fifo_tbins, infoV, CSCConstants::KEY_CLCT_LAYER, LogTrace, markBusyKeys(), nhits, nplanes_hit_pattern, CSCConstants::NUM_HALF_STRIPS, CSCConstants::NUM_LAYERS, NUM_PATTERN_HALFSTRIPS, numStrips, pattern2007, preTrigger(), ptnFinding(), pulseExtension(), stagger, start_bx_shift, and thePreTriggerBXs.

                                                                                                                                           {
  std::vector<CSCCLCTDigi> lctList;

  // Max. number of half-strips for this chamber.
  const int maxHalfStrips = 2*numStrips + 1;

  if (infoV > 1) dumpDigis(halfstrip, 1, maxHalfStrips);

  // Test beam version of TMB pretrigger and LCT sorting
  enum {max_lcts = 2};
  // 2 possible LCTs per CSC x 7 LCT quantities
  int keystrip_data[max_lcts][7] = {{0}};
  unsigned int pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS];

  // Fire half-strip one-shots for hit_persist bx's (4 bx's by default).
  pulseExtension(halfstrip, maxHalfStrips, pulse);

  unsigned int start_bx = start_bx_shift;
  // Stop drift_delay bx's short of fifo_tbins since at later bx's we will
  // not have a full set of hits to start pattern search anyway.
  unsigned int stop_bx  = fifo_tbins - drift_delay;
  // Allow for more than one pass over the hits in the time window.
  while (start_bx < stop_bx) {
    // All half-strip pattern envelopes are evaluated simultaneously, on every
    // clock cycle.
    int first_bx = 999;
    bool pre_trig = preTrigger(pulse, start_bx, first_bx);

    // If any of half-strip envelopes has enough layers hit in it, TMB
    // will pre-trigger.
    if (pre_trig) {
      thePreTriggerBXs.push_back(first_bx);
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "..... pretrigger at bx = " << first_bx
    << "; waiting drift delay .....";

      // TMB latches LCTs drift_delay clocks after pretrigger.
      int latch_bx = first_bx + drift_delay;
      bool hits_in_time = ptnFinding(pulse, maxHalfStrips, latch_bx);
      if (infoV > 1) {
    if (hits_in_time) {
      for (int hstrip = stagger[CSCConstants::KEY_CLCT_LAYER-1];
           hstrip < maxHalfStrips; hstrip++) {
        if (nhits[hstrip] > 0) {
          LogTrace("CSCCathodeLCTProcessor")
        << " bx = " << std::setw(2) << latch_bx << " --->"
        << " halfstrip = " << std::setw(3) << hstrip
        << " best pid = "  << std::setw(2) << best_pid[hstrip]
        << " nhits = "     << nhits[hstrip];
        }
      }
    }
      }
      // The pattern finder runs continuously, so another pre-trigger
      // could occur already at the next bx.
      start_bx = first_bx + 1;

      // Quality for sorting.
      int quality[CSCConstants::NUM_HALF_STRIPS];
      int best_halfstrip[max_lcts], best_quality[max_lcts];
      for (int ilct = 0; ilct < max_lcts; ilct++) {
    best_halfstrip[ilct] = -1;
    best_quality[ilct]   =  0;
      }

      // Calculate quality from pattern id and number of hits, and
      // simultaneously select best-quality LCT.
      if (hits_in_time) {
    for (int hstrip = stagger[CSCConstants::KEY_CLCT_LAYER-1];
         hstrip < maxHalfStrips; hstrip++) {
      // The bend-direction bit pid[0] is ignored (left and right
      // bends have equal quality).
      quality[hstrip] = (best_pid[hstrip] & 14) | (nhits[hstrip] << 5);
      if (quality[hstrip] > best_quality[0]) {
        best_halfstrip[0] = hstrip;
        best_quality[0]   = quality[hstrip];
      }
      if (infoV > 1 && quality[hstrip] > 0) {
        LogTrace("CSCCathodeLCTProcessor")
          << " 1st CLCT: halfstrip = " << std::setw(3) << hstrip
          << " quality = "             << std::setw(3) << quality[hstrip]
          << " best halfstrip = " << std::setw(3) << best_halfstrip[0]
          << " best quality = "   << std::setw(3) << best_quality[0];
      }
    }
      }

      // If 1st best CLCT is found, look for the 2nd best.
      if (best_halfstrip[0] >= 0) {
    // Mark keys near best CLCT as busy by setting their quality to
    // zero, and repeat the search.
    markBusyKeys(best_halfstrip[0], best_pid[best_halfstrip[0]], quality);

        for (int hstrip = stagger[CSCConstants::KEY_CLCT_LAYER-1];
       hstrip < maxHalfStrips; hstrip++) {
      if (quality[hstrip] > best_quality[1]) {
        best_halfstrip[1] = hstrip;
        best_quality[1]   = quality[hstrip];
      }
      if (infoV > 1 && quality[hstrip] > 0) {
        LogTrace("CSCCathodeLCTProcessor")
          << " 2nd CLCT: halfstrip = " << std::setw(3) << hstrip
          << " quality = "             << std::setw(3) << quality[hstrip]
          << " best halfstrip = " << std::setw(3) << best_halfstrip[1]
          << " best quality = "   << std::setw(3) << best_quality[1];
      }
    }

    // Pattern finder.
    bool ptn_trig = false;
    for (int ilct = 0; ilct < max_lcts; ilct++) {
      int best_hs = best_halfstrip[ilct];
      if (best_hs >= 0 && nhits[best_hs] >= nplanes_hit_pattern) {
        ptn_trig = true;
        keystrip_data[ilct][CLCT_PATTERN]    = best_pid[best_hs];
        keystrip_data[ilct][CLCT_BEND]       =
          pattern2007[best_pid[best_hs]][NUM_PATTERN_HALFSTRIPS];
        // Remove stagger if any.
        keystrip_data[ilct][CLCT_STRIP]      =
          best_hs - stagger[CSCConstants::KEY_CLCT_LAYER-1];
        keystrip_data[ilct][CLCT_BX]         = first_bx;
        keystrip_data[ilct][CLCT_STRIP_TYPE] = 1;           // obsolete
        keystrip_data[ilct][CLCT_QUALITY]    = nhits[best_hs];
        keystrip_data[ilct][CLCT_CFEB]       =
          keystrip_data[ilct][CLCT_STRIP]/cfeb_strips[1];
        int halfstrip_in_cfeb = keystrip_data[ilct][CLCT_STRIP] -
          cfeb_strips[1]*keystrip_data[ilct][CLCT_CFEB];

        if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
          << " Final selection: ilct " << ilct
          << " key halfstrip " << keystrip_data[ilct][CLCT_STRIP]
          << " quality "       << keystrip_data[ilct][CLCT_QUALITY]
          << " pattern "       << keystrip_data[ilct][CLCT_PATTERN]
          << " bx "            << keystrip_data[ilct][CLCT_BX];

        CSCCLCTDigi thisLCT(1, keystrip_data[ilct][CLCT_QUALITY],
                keystrip_data[ilct][CLCT_PATTERN],
                keystrip_data[ilct][CLCT_STRIP_TYPE],
                keystrip_data[ilct][CLCT_BEND],
                halfstrip_in_cfeb,
                keystrip_data[ilct][CLCT_CFEB],
                keystrip_data[ilct][CLCT_BX]);
        lctList.push_back(thisLCT);
      }
    }

    if (ptn_trig) {
      // Once there was a trigger, CLCT pre-trigger state machine
      // checks the number of hits that lie on a pattern template
      // at every bx, and waits for it to drop below threshold.
      // The search for CLCTs resumes only when the number of hits
      // drops below threshold.
      start_bx = fifo_tbins;
      // Stop checking drift_delay bx's short of fifo_tbins since
      // at later bx's we won't have a full set of hits for a
      // pattern search anyway.
      unsigned int stop_time = fifo_tbins - drift_delay;
      for (unsigned int bx = latch_bx + 1; bx < stop_time; bx++) {
        bool return_to_idle = true;
        bool hits_in_time = ptnFinding(pulse, maxHalfStrips, bx);
        if (hits_in_time) {
          for (int hstrip = stagger[CSCConstants::KEY_CLCT_LAYER-1];
           hstrip < maxHalfStrips; hstrip++) {
        if (nhits[hstrip] >= nplanes_hit_pattern) {
          if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
            << " State machine busy at bx = " << bx;
          return_to_idle = false;
          break;
        }
          }
        }
        if (return_to_idle) {
          if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
        << " State machine returns to idle state at bx = " << bx;
          start_bx = bx;
          break;
        }
      }
    }
      }
    }
    else {
      start_bx = first_bx + 1; // no dead time
    }
  }

  return lctList;
} // findLCTs -- TMB-07 version.

std::vector< CSCCLCTDigi > CSCCathodeLCTProcessor::findLCTsSLHC ( const std::vector< int >  halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS] )

private

Definition at line 2477 of file CSCCathodeLCTProcessor.cc.

References best_pid, cfeb_strips, CLCT_BEND, CLCT_BX, CLCT_CFEB, CLCT_PATTERN, CLCT_QUALITY, clct_state_machine_zone, CLCT_STRIP, CLCT_STRIP_TYPE, drift_delay, dumpDigis(), dynamic_state_machine_zone, fifo_tbins, first_bx_corrected, i, infoV, ispretrig, j, CSCConstants::KEY_CLCT_LAYER, LogTrace, markBusyKeys(), MAX_CLCT_BINS, nhits, nplanes_hit_pattern, CSCConstants::NUM_HALF_STRIPS, CSCConstants::NUM_LAYERS, NUM_PATTERN_HALFSTRIPS, numStrips, pattern2007, pretrig_trig_zone, preTrigger(), ptnFinding(), pulseExtension(), CSCCLCTDigi::setFullBX(), stagger, start_bx_shift, and use_corrected_bx.

Referenced by run().

{
  std::vector<CSCCLCTDigi> lctList;

  // Max. number of half-strips for this chamber.
  const int maxHalfStrips = 2 * numStrips + 1;

  if (infoV > 1) dumpDigis(halfstrip, 1, maxHalfStrips);

  enum { max_lcts = 2 };

  // keeps dead-time zones around key halfstrips of triggered CLCTs
  bool busyMap[CSCConstants::NUM_HALF_STRIPS][MAX_CLCT_BINS];
  for (int i = 0; i < CSCConstants::NUM_HALF_STRIPS; i++)
    for (int j = 0; j < MAX_CLCT_BINS; j++)
      busyMap[i][j] = false;

  std::vector<CSCCLCTDigi> lctListBX;

  unsigned int pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS];

  // Fire half-strip one-shots for hit_persist bx's (4 bx's by default).
  pulseExtension(halfstrip, maxHalfStrips, pulse);

  unsigned int start_bx = start_bx_shift;
  // Stop drift_delay bx's short of fifo_tbins since at later bx's we will
  // not have a full set of hits to start pattern search anyway.
  unsigned int stop_bx = fifo_tbins - drift_delay;

  // Allow for more than one pass over the hits in the time window.
  // Do search in every BX
  while (start_bx < stop_bx)
  {
    lctListBX.clear();

    // All half-strip pattern envelopes are evaluated simultaneously, on every clock cycle.
    int first_bx = 999;
    bool pre_trig = preTrigger(pulse, start_bx, first_bx);

    // If any of half-strip envelopes has enough layers hit in it, TMB
    // will pre-trigger.
    if (pre_trig)
    {
      if (infoV > 1)
        LogTrace("CSCCathodeLCTProcessor") << "..... pretrigger at bx = " << first_bx << "; waiting drift delay .....";

      // TMB latches LCTs drift_delay clocks after pretrigger.
      int latch_bx = first_bx + drift_delay;
      bool hits_in_time = ptnFinding(pulse, maxHalfStrips, latch_bx);
      if (infoV > 1)
      {
        if (hits_in_time)
        {
          for (int hstrip = stagger[CSCConstants::KEY_CLCT_LAYER - 1]; hstrip < maxHalfStrips; hstrip++)
          {
            if (nhits[hstrip] > 0)
            {
              LogTrace("CSCCathodeLCTProcessor") << " bx = " << std::setw(2) << latch_bx << " --->" << " halfstrip = "
                  << std::setw(3) << hstrip << " best pid = " << std::setw(2) << best_pid[hstrip] << " nhits = " << nhits[hstrip];
            }
          }
        }
      }
      // The pattern finder runs continuously, so another pre-trigger
      // could occur already at the next bx.
      start_bx = first_bx + 1;

      // 2 possible LCTs per CSC x 7 LCT quantities per BX
      int keystrip_data[max_lcts][7] = {{0}};

      // Quality for sorting.
      int quality[CSCConstants::NUM_HALF_STRIPS];
      int best_halfstrip[max_lcts], best_quality[max_lcts];
      for (int ilct = 0; ilct < max_lcts; ilct++)
      {
        best_halfstrip[ilct] = -1;
        best_quality[ilct] = 0;
      }

      bool pretrig_zone[CSCConstants::NUM_HALF_STRIPS];

      // Calculate quality from pattern id and number of hits, and
      // simultaneously select best-quality LCT.
      if (hits_in_time)
      {
        // first, mark half-strip zones around pretriggers
        // that happened at the current first_bx
        for (int hstrip = 0; hstrip < CSCConstants::NUM_HALF_STRIPS; hstrip++)
          pretrig_zone[hstrip] = 0;
        for (int hstrip = 0; hstrip < CSCConstants::NUM_HALF_STRIPS; hstrip++)
        {
          if (ispretrig[hstrip])
          {
            int min_hs = hstrip - pretrig_trig_zone;
            int max_hs = hstrip + pretrig_trig_zone;
            if (min_hs < 0)
              min_hs = 0;
            if (max_hs > CSCConstants::NUM_HALF_STRIPS - 1)
              max_hs = CSCConstants::NUM_HALF_STRIPS - 1;
            for (int hs = min_hs; hs <= max_hs; hs++)
              pretrig_zone[hs] = 1;
            if (infoV > 1)
              LogTrace("CSCCathodeLCTProcessor") << " marked pretrigger halfstrip zone [" << min_hs << "," << max_hs << "]";
          }
        }

        for (int hstrip = stagger[CSCConstants::KEY_CLCT_LAYER - 1]; hstrip < maxHalfStrips; hstrip++)
        {
          // The bend-direction bit pid[0] is ignored (left and right bends have equal quality).
          quality[hstrip] = (best_pid[hstrip] & 14) | (nhits[hstrip] << 5);
          // do not consider halfstrips:
          //   - out of pretrigger-trigger zones
          //   - in busy zones from previous trigger
          if (quality[hstrip] > best_quality[0] &&
              pretrig_zone[hstrip] &&
              !busyMap[hstrip][first_bx] )
          {
            best_halfstrip[0] = hstrip;
            best_quality[0] = quality[hstrip];
            if (infoV > 1)
            {
              LogTrace("CSCCathodeLCTProcessor") << " 1st CLCT: halfstrip = " << std::setw(3) << hstrip << " quality = "
                  << std::setw(3) << quality[hstrip] << " best halfstrip = " << std::setw(3) << best_halfstrip[0]
                  << " best quality = " << std::setw(3) << best_quality[0];
            }
          }
        }
      }

      // If 1st best CLCT is found, look for the 2nd best.
      if (best_halfstrip[0] >= 0)
      {
        // Mark keys near best CLCT as busy by setting their quality to zero, and repeat the search.
        markBusyKeys(best_halfstrip[0], best_pid[best_halfstrip[0]], quality);

        for (int hstrip = stagger[CSCConstants::KEY_CLCT_LAYER - 1]; hstrip < maxHalfStrips; hstrip++)
        {
          if (quality[hstrip] > best_quality[1] &&
              pretrig_zone[hstrip] &&
              !busyMap[hstrip][first_bx] )
          {
            best_halfstrip[1] = hstrip;
            best_quality[1] = quality[hstrip];
            if (infoV > 1)
            {
              LogTrace("CSCCathodeLCTProcessor") << " 2nd CLCT: halfstrip = " << std::setw(3) << hstrip << " quality = "
                  << std::setw(3) << quality[hstrip] << " best halfstrip = " << std::setw(3) << best_halfstrip[1]
                  << " best quality = " << std::setw(3) << best_quality[1];
            }
          }
        }

        // Pattern finder.
        bool ptn_trig = false;
        for (int ilct = 0; ilct < max_lcts; ilct++)
        {
          int best_hs = best_halfstrip[ilct];
          if (best_hs >= 0 && nhits[best_hs] >= nplanes_hit_pattern)
          {
            int bx  = first_bx;
            int fbx = first_bx_corrected[best_hs];
            if (use_corrected_bx) {
              bx  = fbx;
              fbx = first_bx;
            }
            ptn_trig = true;
            keystrip_data[ilct][CLCT_PATTERN] = best_pid[best_hs];
            keystrip_data[ilct][CLCT_BEND] = pattern2007[best_pid[best_hs]][NUM_PATTERN_HALFSTRIPS];
            // Remove stagger if any.
            keystrip_data[ilct][CLCT_STRIP] = best_hs - stagger[CSCConstants::KEY_CLCT_LAYER - 1];
            keystrip_data[ilct][CLCT_BX] = bx;
            keystrip_data[ilct][CLCT_STRIP_TYPE] = 1; // obsolete
            keystrip_data[ilct][CLCT_QUALITY] = nhits[best_hs];
            keystrip_data[ilct][CLCT_CFEB] = keystrip_data[ilct][CLCT_STRIP] / cfeb_strips[1];
            int halfstrip_in_cfeb = keystrip_data[ilct][CLCT_STRIP] - cfeb_strips[1] * keystrip_data[ilct][CLCT_CFEB];

            if (infoV > 1)
              LogTrace("CSCCathodeLCTProcessor") << " Final selection: ilct " << ilct << " key halfstrip "
                  << keystrip_data[ilct][CLCT_STRIP] << " quality " << keystrip_data[ilct][CLCT_QUALITY] << " pattern "
                  << keystrip_data[ilct][CLCT_PATTERN] << " bx " << keystrip_data[ilct][CLCT_BX];

            CSCCLCTDigi thisLCT(1, keystrip_data[ilct][CLCT_QUALITY], keystrip_data[ilct][CLCT_PATTERN],
                keystrip_data[ilct][CLCT_STRIP_TYPE], keystrip_data[ilct][CLCT_BEND], halfstrip_in_cfeb,
                keystrip_data[ilct][CLCT_CFEB], keystrip_data[ilct][CLCT_BX]);
            thisLCT.setFullBX(fbx);
            lctList.push_back(thisLCT);
            lctListBX.push_back(thisLCT);
          }
        }

        // state-machine
        if (ptn_trig)
        {
          // Once there was a trigger, CLCT pre-trigger state machine checks the number of hits
          // that lie on a key halfstrip pattern template at every bx, and waits for it to drop below threshold.
          // During that time no CLCTs could be found with its key halfstrip in the area of
          // [clct_key-clct_state_machine_zone, clct_key+clct_state_machine_zone]
          // starting from first_bx+1.
          // The search for CLCTs resumes only when the number of hits on key halfstrip drops below threshold.
          for (unsigned int ilct = 0; ilct < lctListBX.size(); ilct++)
          {
            int key_hstrip = lctListBX[ilct].getKeyStrip() + stagger[CSCConstants::KEY_CLCT_LAYER - 1];

            int delta_hs = clct_state_machine_zone;
            if (dynamic_state_machine_zone)
              delta_hs = pattern2007[lctListBX[ilct].getPattern()][NUM_PATTERN_HALFSTRIPS + 1] - 1;

            int min_hstrip = key_hstrip - delta_hs;
            int max_hstrip = key_hstrip + delta_hs;

            if (min_hstrip < stagger[CSCConstants::KEY_CLCT_LAYER - 1])
              min_hstrip = stagger[CSCConstants::KEY_CLCT_LAYER - 1];
            if (max_hstrip > maxHalfStrips)
              max_hstrip = maxHalfStrips;

            if (infoV > 2)
              LogTrace("CSCCathodeLCTProcessor") << " marking post-trigger zone after bx=" << lctListBX[ilct].getBX() << " ["
                  << min_hstrip << "," << max_hstrip << "]";

            // Stop checking drift_delay bx's short of fifo_tbins since
            // at later bx's we won't have a full set of hits for a
            // pattern search anyway.
            //int stop_time = fifo_tbins - drift_delay;
            // -- no, need to extend busyMap over fifo_tbins - drift_delay
            for (size_t bx = first_bx + 1; bx < fifo_tbins; bx++)
            {
              bool busy_bx = false;
              if (bx <= (size_t)latch_bx)
                busy_bx = true; // always busy before drift time
              if (!busy_bx)
              {
                bool hits_in_time = ptnFinding(pulse, maxHalfStrips, bx);
                if (hits_in_time && nhits[key_hstrip] >= nplanes_hit_pattern)
                  busy_bx = true;
                if (infoV > 2)
                  LogTrace("CSCCathodeLCTProcessor") << "  at bx=" << bx << " hits_in_time=" << hits_in_time << " nhits="
                      << nhits[key_hstrip];
              }
              if (infoV > 2)
                LogTrace("CSCCathodeLCTProcessor") << "  at bx=" << bx << " busy=" << busy_bx;
              if (busy_bx)
                for (int hstrip = min_hstrip; hstrip <= max_hstrip; hstrip++)
                  busyMap[hstrip][bx] = true;
              else
                break;
            }
          }
        } // if (ptn_trig)
      }
    }
    else
    {
      start_bx = first_bx + 1; // no dead time
    }
  }

  return lctList;
} // findLCTs -- SLHC version.

int CSCCathodeLCTProcessor::findNumLayersHit ( std::vector< int >  stripsHit[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS] )

private

Definition at line 3137 of file CSCCathodeLCTProcessor.cc.

References relativeConstraints::empty, CSCConstants::NUM_LAYERS, and contentValuesFiles::number.

Referenced by testPatterns().

                                                                          {
  int number = 0;
  for (int layer = 0; layer < CSCConstants::NUM_LAYERS; layer++) {
    if ((!stripsHit[layer][ 9].empty()) || 
        (!stripsHit[layer][10].empty()) ||
    (!stripsHit[layer][11].empty()) ) number++;
  }
  return number;
}

std::vector< CSCCLCTDigi > CSCCathodeLCTProcessor::getCLCTs

(

)

Returns vector of all found CLCTs, if any.

Definition at line 2892 of file CSCCathodeLCTProcessor.cc.

References bestCLCT, MAX_CLCT_BINS, and secondCLCT.

Referenced by readoutCLCTs(), and run().

                                                        {
  std::vector<CSCCLCTDigi> tmpV;
  for (int bx = 0; bx < MAX_CLCT_BINS; bx++) {
    if (bestCLCT[bx].isValid())   tmpV.push_back(bestCLCT[bx]);
    if (secondCLCT[bx].isValid()) tmpV.push_back(secondCLCT[bx]);
  }
  return tmpV;
}

bool CSCCathodeLCTProcessor::getDigis

(

const CSCComparatorDigiCollection *

compdc

)

Access routines to comparator digis.

Definition at line 756 of file CSCCathodeLCTProcessor.cc.

References cond::rpcobgas::detid, digiV, disableME1a, relativeConstraints::empty, infoV, LogTrace, CSCConstants::NUM_LAYERS, smartME1aME1b, theChamber, theEndcap, theRing, theSector, theStation, theSubsector, and theTrigChamber.

Referenced by run().

                                                                               {
  bool noDigis = true;

  // Loop over layers and save comparator digis on each one into digiV[layer].
  for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++) {
    digiV[i_layer].clear();
    
    CSCDetId detid(theEndcap, theStation, theRing, theChamber, i_layer+1);
    getDigis(compdc, detid);

    // If this is ME1/1, fetch digis in corresponding ME1/A (ring=4) as well.
    if (theStation == 1 && theRing == 1 && !disableME1a && !smartME1aME1b) {
      CSCDetId detid_me1a(theEndcap, theStation, 4, theChamber, i_layer+1);
      getDigis(compdc, detid_me1a);
    }

    if (!digiV[i_layer].empty()) {
      noDigis = false;
      if (infoV > 1) {
    LogTrace("CSCCathodeLCTProcessor")
      << "found " << digiV[i_layer].size()
      << " comparator digi(s) in layer " << i_layer << " of ME"
      << ((theEndcap == 1) ? "+" : "-") << theStation << "/" << theRing
      << "/" << theChamber << " (trig. sector " << theSector
      << " subsector " << theSubsector << " id " << theTrigChamber << ")";
      }
    }
  }

  return noDigis;
}

void CSCCathodeLCTProcessor::getDigis	(	const CSCComparatorDigiCollection *	compdc,
		const CSCDetId &	id
	)

Definition at line 788 of file CSCCathodeLCTProcessor.cc.

References digiV, disableME1a, relativeConstraints::ring, and smartME1aME1b.

                                          {
  bool me1a = (id.station() == 1) && (id.ring() == 4);
  const CSCComparatorDigiCollection::Range rcompd = compdc->get(id);
  for (CSCComparatorDigiCollection::const_iterator digiIt = rcompd.first;
       digiIt != rcompd.second; ++digiIt) {
    if (me1a && digiIt->getStrip() <= 16 && !disableME1a && !smartME1aME1b) {
      // Move ME1/A comparators from CFEB=0 to CFEB=4 if this has not
      // been done already.
      CSCComparatorDigi digi_corr(digiIt->getStrip()+64,
                  digiIt->getComparator(),
                  digiIt->getTimeBinWord());
      digiV[id.layer()-1].push_back(digi_corr);
    }
    else {
      digiV[id.layer()-1].push_back(*digiIt);
    }
  }
}

void CSCCathodeLCTProcessor::getKeyStripData ( const std::vector< int >  strip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], int  keystrip_data[CSCConstants::NUM_HALF_STRIPS][7], int  nStrips, int  first_bx, int &  best_strip, int  stripType  )

private

Definition at line 1297 of file CSCCathodeLCTProcessor.cc.

References CLCT_BEND, CLCT_BX, CLCT_PATTERN, CLCT_QUALITY, CLCT_STRIP, drift_delay, getPattern(), i, infoV, LogTrace, CSCConstants::NUM_CLCT_PATTERNS_PRE_TMB07, NUM_PATTERN_STRIPS, and pre_hit_pattern.

Referenced by findLCTs().

                                                                   {
  int lct_pattern[NUM_PATTERN_STRIPS];
  int key_strip, this_layer, this_strip;
  int quality, best_quality;
  int bend = 0;
  int highest_quality = 0;
  bool nullPattern;

  for (key_strip = 0; key_strip < nStrips; key_strip++)
    for (int i = 0; i < 7; i++)
      keystrip_data[key_strip][i] = 0;

  // Now we need to look at all the keystrips and take the best pattern
  // for each.  There are multiple patterns available for each keystrip.

  for (key_strip = 0; key_strip < (nStrips-stripType); key_strip++){
    nullPattern = true;
    for (int pattern_strip = 0; pattern_strip < NUM_PATTERN_STRIPS; pattern_strip++){
      this_layer = pre_hit_pattern[0][pattern_strip];
      this_strip = pre_hit_pattern[1][pattern_strip] + key_strip;
      // This conditional statement prevents us from looking at strips
      // that don't exist along the chamber boundaries.
      if ((this_strip >= 0 && this_strip < nStrips) &&
      !strip[this_layer][this_strip].empty()) {
    if (nullPattern) nullPattern = false;
    std::vector<int> bx_times = strip[this_layer][this_strip];
    lct_pattern[pattern_strip] = bx_times[0];
      }
      else
    lct_pattern[pattern_strip] = -999;
      }
    // do the rest only if there is at least one DIGI in the pattern for
    // this keystrip
    if (nullPattern) continue;

    // Initialize best_quality to zero so that we can look for best pattern
    // within a keystrip.
    best_quality = 0;

    // Loop over all possible patterns.
    // Loop in reverse order, in order to give priority to a straighter
    // pattern (larger pattern_num) in case of equal qualities.
    // Exclude pattern 0 since it is not defined.
    for (int pattern_num = CSCConstants::NUM_CLCT_PATTERNS_PRE_TMB07-1; pattern_num > 0; pattern_num--) {
      // Get the pattern quality from lct_pattern.
      // TMB latches LCTs drift_delay clocks after pretrigger.
      int latch_bx = first_bx + drift_delay;
      getPattern(pattern_num, lct_pattern, latch_bx, quality, bend);
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "Key_strip " << key_strip << " quality of pattern_num "
    << pattern_num << ": " << quality;
      if (quality > best_quality){
    // Store the best pattern, quality, etc., for each key_strip.
    keystrip_data[key_strip][CLCT_PATTERN] = pattern_num;
    keystrip_data[key_strip][CLCT_BEND]    = bend;
    keystrip_data[key_strip][CLCT_STRIP]   = key_strip;
    keystrip_data[key_strip][CLCT_BX]      = first_bx;
    // keystrip_data[key_strip][CLCT_STRIP_TYPE] = stripType; //assign the stripType elsewhere
    keystrip_data[key_strip][CLCT_QUALITY] = quality;
    if (quality > highest_quality){
      // Keep track of which strip had the highest quality.
      // highest_quality refers to the overall highest quality for all
      // key strips. This is different than best_quality which refers
      // to the best quality in a keystrip from different patterns.
      best_strip = key_strip;
      highest_quality = quality;
    }
    best_quality = quality;
      }
    }
  }
} // getKeyStripData -- idealized version for MC studies.

void CSCCathodeLCTProcessor::getKeyStripData ( const unsigned int  h_pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const unsigned int  d_pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], int  keystrip_data[2][7], const int  first_bx  )

private

Definition at line 1885 of file CSCCathodeLCTProcessor.cc.

References CLCT_BEND, CLCT_BX, CLCT_PATTERN, CLCT_QUALITY, CLCT_STRIP, CLCT_STRIP_TYPE, drift_delay, getPattern(), infoV, LogTrace, nplanes_hit_pattern, CSCConstants::NUM_CLCT_PATTERNS_PRE_TMB07, CSCConstants::NUM_DI_STRIPS, NUM_PATTERN_STRIPS, pre_hit_pattern, and TrackValidation_HighPurity_cff::valid.

                                                     {

  int lct_pattern[NUM_PATTERN_STRIPS];
  int this_layer, this_strip;
  unsigned int quality = 0, bend = 0;
  unsigned int best_quality, best_pattern;
  bool valid[2] = {false,false};

  // Time at which TMB latches LCTs.
  int latch_bx = first_bx + drift_delay;

  // Look at keystrips determined from priorityEncode and find their best
  // pattern based on number of hits matching that pattern (quality).  Also
  // find bend angle.  There are multiple patterns available for each keystrip.

  if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "...............getKeyStripData....................";

  for (int ilct = 0; ilct < 2; ilct++) {
    if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
      << "lct " << ilct << " keystrip " << keystrip_data[ilct][CLCT_STRIP]
      << " type " << keystrip_data[ilct][CLCT_STRIP_TYPE];
    if (keystrip_data[ilct][CLCT_STRIP] == -1) {// flag set in priorityEncode()
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "no lct at ilct " << ilct;
      continue;
    }
    for (int pattern_strip = 0; pattern_strip < NUM_PATTERN_STRIPS;
     pattern_strip++) {
      lct_pattern[pattern_strip] = -999;
      this_layer = pre_hit_pattern[0][pattern_strip];
      this_strip = pre_hit_pattern[1][pattern_strip] +
    keystrip_data[ilct][CLCT_STRIP];
      // This conditional statement prevents us from looking at strips
      // that don't exist along the chamber boundaries.
      if (keystrip_data[ilct][CLCT_STRIP_TYPE] == 1) {
    if (this_strip >= 0 && this_strip < CSCConstants::NUM_HALF_STRIPS) {
      // Now look at one-shots in bx where TMB latches the LCTs
      if (((h_pulse[this_layer][this_strip] >> latch_bx) & 1) == 1)
        lct_pattern[pattern_strip] = 1;
    }
      }
      else {
    if (this_strip >= 0 && this_strip < CSCConstants::NUM_DI_STRIPS) {
      // Now look at one-shots in bx where TMB latches the LCTs
      if (((d_pulse[this_layer][this_strip] >> latch_bx) & 1) == 1)
        lct_pattern[pattern_strip] = 1;
    }
      }
    }

    // Find best pattern and quality associated with key by looping over all 
    // possible patterns
    best_quality = 0;
    best_pattern = 0;

    for (unsigned int pattern_num = 0;
     pattern_num < CSCConstants::NUM_CLCT_PATTERNS_PRE_TMB07; pattern_num++) {
      getPattern(pattern_num, lct_pattern, quality, bend);
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
      << "pattern " << pattern_num << " quality " << quality
      << " bend " << bend;
      // Number of layers hit matching a pattern template is compared
      // to nplanes_hit_pattern.  The threshold is the same for both half- and
      // di-strip patterns.
      if (quality >= nplanes_hit_pattern) {
    // If the number of matches is the same for two pattern templates,
    // the higher pattern-template number is selected.
    if ((quality == best_quality && pattern_num > best_pattern) ||
        (quality >  best_quality)) {
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
        << "valid = true at quality " << quality
        << "  thresh " << nplanes_hit_pattern;
      valid[ilct] = true;
      keystrip_data[ilct][CLCT_PATTERN]    = pattern_num;
      keystrip_data[ilct][CLCT_BEND]       = bend;
      keystrip_data[ilct][CLCT_BX]         = first_bx;
      //keystrip_data[ilct][CLCT_STRIP_TYPE] = stripType;
      keystrip_data[ilct][CLCT_QUALITY]    = quality;
      best_quality = quality;
      best_pattern = pattern_num;
    }
      }
    }

    if (!valid[ilct]) {
      keystrip_data[ilct][CLCT_STRIP] = -1;  // delete lct
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "lct " << ilct << " not over threshold: deleting";
    }
    else {
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "\n" << "--------- final LCT: " << ilct << " -------------\n"
    << " key strip "   << keystrip_data[ilct][CLCT_STRIP]
    << " pattern_num " << keystrip_data[ilct][CLCT_PATTERN]
    << " quality "     << keystrip_data[ilct][CLCT_QUALITY]
    << " bend "        << keystrip_data[ilct][CLCT_BEND]
    << " bx "          << keystrip_data[ilct][CLCT_BX]
    << " type "        << keystrip_data[ilct][CLCT_STRIP_TYPE] << "\n";
    }
  } // end loop over lcts
} // getKeyStripData -- pre-2007 version.

void CSCCathodeLCTProcessor::getPattern ( int  pattern_num, int  strip_value[NUM_PATTERN_STRIPS], int  bx_time, int &  quality, int &  bend  )

private

Definition at line 1374 of file CSCCathodeLCTProcessor.cc.

References hitIsGood(), CSCConstants::NUM_LAYERS, NUM_PATTERN_STRIPS, and pattern.

Referenced by getKeyStripData(), and testPatterns().

                               {
  // This function takes strip values and bx_time to find out which hits fall
  // within a certain pattern.  Quality, and bend are then calculated based on
  // which strip pattern and how many layers were hit within the pattern.
  int layers_hit = 0;
  bool hit_layer[CSCConstants::NUM_LAYERS];

  // Clear hit_layer array to keep track of number of layers hit.
  for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++)
    hit_layer[i_layer] = false;

  // Loop over all designated patterns.
  for (int strip_num = 0; strip_num < NUM_PATTERN_STRIPS; strip_num++){
    if (hitIsGood(strip_value[strip_num], bx_time)){
      for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++){
    // Loop over layer and see if corresponding strip is on same layer
    // If so then increment number of hits.
    if (i_layer == pattern[pattern_num][strip_num]){
      // If layer has no hits, then increment number of layers hit.
      if (hit_layer[i_layer] == false){
        layers_hit++;
        hit_layer[i_layer] = true;
      }
    }
      }
    }
  }
  // Get bend value from pattern.
  bend = pattern[pattern_num][NUM_PATTERN_STRIPS];
  quality = layers_hit;
} // getPattern -- idealized version for MC studies.

void CSCCathodeLCTProcessor::getPattern ( unsigned int  pattern_num, const int  strip_value[NUM_PATTERN_STRIPS], unsigned int &  quality, unsigned int &  bend  )

private

Definition at line 1993 of file CSCCathodeLCTProcessor.cc.

References CSCConstants::NUM_LAYERS, NUM_PATTERN_STRIPS, and pattern.

                                                        {

  // This function takes strip "one-shots" at the correct bx to find out
  // which hits fall within a certain pattern.  Quality and bend are then
  // calculated based on which strip pattern and how many layers were hit
  // within the pattern.

  unsigned int layers_hit = 0;
  bool hit_layer[CSCConstants::NUM_LAYERS];

  // Clear hit_layer array to keep track of number of layers hit.
  for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++)
    hit_layer[i_layer] = false;

  // Loop over all designated patterns.
  for (int strip_num = 0; strip_num < NUM_PATTERN_STRIPS; strip_num++){
    if (strip_value[strip_num] == 1){
      for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++){
    // Loop over layer and see if corresponding strip is on same layer
    // If so then increment number of hits.
    if (i_layer == pattern[pattern_num][strip_num]){
      // If layer has no hits, then increment number of layers hit.
      if (hit_layer[i_layer] == false){
        layers_hit++;
        hit_layer[i_layer] = true;
      }
    }
      }
    }
  }
  // Get bend value from pattern.
  bend = pattern[pattern_num][NUM_PATTERN_STRIPS];
  quality = layers_hit;

} // getPattern -- pre-2007 version.

bool CSCCathodeLCTProcessor::hitIsGood ( int  hitTime, int  BX  )

private

Definition at line 1410 of file CSCCathodeLCTProcessor.cc.

References dt, and hit_persist.

Referenced by getPattern().

                                                          {
  // Find out if hit time is good.  Hit should have occurred no more than
  // hit_persist clocks before the latching time.
  int dt = BX - hitTime;
  if (dt >= 0 && dt <= static_cast<int>(hit_persist)) {return true;}
  else {return false;}
} // hitIsGood -- idealized version for MC studies.

void CSCCathodeLCTProcessor::latchLCTs ( const unsigned int  pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], int  keyStrip[MAX_CFEBS], unsigned int  nhits[MAX_CFEBS], const int  stripType, const int  nStrips, const int  bx_time  )

private

Definition at line 1649 of file CSCCathodeLCTProcessor.cc.

References cfeb_strips, infoV, LogTrace, MAX_CFEBS, CSCConstants::NUM_LAYERS, NUM_PATTERN_STRIPS, and pre_hit_pattern.

Referenced by findLCTs().

                                                                  {

  bool hit_layer[CSCConstants::NUM_LAYERS];
  int key_strip, this_layer, this_strip;
  int layers_hit, prev_hits;

  for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) {
    keyStrip[icfeb] = -1;
    n_hits[icfeb]   =  0;
  }

  if (stripType != 0 && stripType != 1) {
    if (infoV >= 0) edm::LogWarning("L1CSCTPEmulatorWrongInput")
      << "+++ latchLCTs: stripType = " << stripType
      << " does not correspond to half-strip/di-strip patterns! +++\n";
    return;
  }

  for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) { // loop over CFEBs
    prev_hits = 0;
    // Loop over (di-/half-)strips in CFEB.
    for (int istrip = 0; istrip < cfeb_strips[stripType]; istrip++) {
      // Calculate candidate key.
      key_strip = icfeb*cfeb_strips[stripType] + istrip;
      layers_hit = 0;
      for (int ilayer = 0; ilayer < CSCConstants::NUM_LAYERS; ilayer++)
    hit_layer[ilayer] = false;

      // Loop over strips in pretrigger pattern mask and look for hits.
      for (int pstrip = 0; pstrip < NUM_PATTERN_STRIPS; pstrip++) {
    this_layer = pre_hit_pattern[0][pstrip];
    this_strip = pre_hit_pattern[1][pstrip]+key_strip;

    if (this_strip >= 0 && this_strip < nStrips) {
      // Determine if "one shot" is high at this bx_time
      if (((pulse[this_layer][this_strip] >> bx_time) & 1) == 1) {
        if (hit_layer[this_layer] == false) {
          hit_layer[this_layer] = true;
          layers_hit++;                  // number of layers hit
        }
      }
    }
      } // end loop over strips in pretrigger pattern
      if (infoV > 1) {
    if (layers_hit > 0) LogTrace("CSCCathodeLCTProcessor")
      << "cfeb: " << icfeb << "  key_strip: " << key_strip
      << "  n_hits: " << layers_hit;
      }
      // If two or more keys have an equal number of hits, the lower number
      // key is taken.  Hence, replace the previous key only if this key has
      // more hits.
      if (layers_hit > prev_hits) {
    prev_hits = layers_hit;
    keyStrip[icfeb] = key_strip;  // key with highest hits is LCT key strip
    n_hits[icfeb] = layers_hit;   // corresponding hits in envelope
      }
    }  // end loop over candidate key strips in cfeb
  }  // end loop over cfebs
} // latchLCTs -- pre-2007 version.

void CSCCathodeLCTProcessor::markBusyKeys ( const int  best_hstrip, const int  best_patid, int  quality[CSCConstants::NUM_HALF_STRIPS]  )

private

Definition at line 2453 of file CSCCathodeLCTProcessor.cc.

References min_separation.

Referenced by findLCTs(), and findLCTsSLHC().

                                                                          {
  int nspan = min_separation;
  int pspan = min_separation;

  // if dynamic spacing is enabled, separation is defined by pattern width
  //if (dynamic_spacing)
  //  nspan = pspan = pattern2007[best_patid][NUM_PATTERN_HALFSTRIPS+1]-1;

  for (int hstrip = best_hstrip-nspan; hstrip <= best_hstrip+pspan; hstrip++) {
    if (hstrip >= 0 && hstrip < CSCConstants::NUM_HALF_STRIPS) {
      quality[hstrip] = 0;
    }
  }
} // markBusyKeys -- TMB-07 version.

bool CSCCathodeLCTProcessor::preTrigger ( const std::vector< int >  strip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int  stripType, const int  nStrips, int &  first_bx  )

private

Definition at line 1235 of file CSCCathodeLCTProcessor.cc.

References fifo_tbins, nplanes_hit_pretrig, CSCConstants::NUM_HALF_STRIPS, CSCConstants::NUM_LAYERS, NUM_PATTERN_STRIPS, pre_hit_pattern, and pulseExtension().

Referenced by findLCTs(), and findLCTsSLHC().

{
  static const int hs_thresh = nplanes_hit_pretrig;
  static const int ds_thresh = nplanes_hit_pretrig;

  unsigned int pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS];
  int i_layer, i_strip, this_layer, this_strip;
  int hits, layers_hit;
  bool hit_layer[CSCConstants::NUM_LAYERS];

  const int pre_trigger_layer_min = (stripType == 1) ? hs_thresh : ds_thresh;

  // Fire half-strip/di-strip one-shots for hit_persist bx's (6 bx's by
  // default).
  pulseExtension(strip, nStrips, pulse);

  // Now do a loop over different bunch-crossing times.
  for (unsigned int bx_time = 0; bx_time < fifo_tbins; bx_time++) {
    // For any given bunch-crossing, start at the lowest keystrip and look for
    // the number of separate layers in the pattern for that keystrip that have
    // pulses at that bunch-crossing time.  Do the same for the next keystrip, 
    // etc.  Then do the entire process again for the next bunch-crossing, etc
    // until you find a pre-trigger.
    for (int key_strip = 0; key_strip < nStrips; key_strip++){
      // Clear variables
      hits = 0;
      layers_hit = 0;
      for (i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++)
    hit_layer[i_layer] = false;
      // Loop over pattern strips and look for hits.
      for (i_strip = 0; i_strip < NUM_PATTERN_STRIPS; i_strip++){
    this_layer = pre_hit_pattern[0][i_strip];
    this_strip = pre_hit_pattern[1][i_strip]+key_strip;
    if (this_strip >= 0 && this_strip < nStrips) {
      // Perform bit operation to see if pulse is 1 at a certain bx_time.
      if (((pulse[this_layer][this_strip] >> bx_time) & 1) == 1) {
        hits++;
        // Store number of layers hit.
        if (hit_layer[this_layer] == false) {
          hit_layer[this_layer] = true;
          layers_hit++;

          // Look if number of layers hit is greater or equal than some
          // pre-defined threshold.
          if (layers_hit >= pre_trigger_layer_min) {
        first_bx = bx_time;
        return true;
          }
        }
      }
    }
      }
    }
  }
  // If the pretrigger was never satisfied, then return false.
  return false;
} // preTrigger -- idealized version for MC studies.

bool CSCCathodeLCTProcessor::preTrigger ( const std::vector< int >  strip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], unsigned int  pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int  stripType, const int  nStrips, const int  start_bx, int &  first_bx  )

private

Definition at line 1554 of file CSCCathodeLCTProcessor.cc.

References fifo_tbins, infoV, LogTrace, preTrigLookUp(), and pulseExtension().

                                                       {
  if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "....................PreTrigger...........................";

  if (start_bx == 0) {
    // Fire one-shots for hit_persist bx's (6 bx's by default).
    pulseExtension(strip, nStrips, pulse);
  }

  bool pre_trig = false;
  // Now do a loop over bx times to see (if/when) track goes over threshold
  for (unsigned int bx_time = start_bx; bx_time < fifo_tbins; bx_time++) {
    // For any given bunch-crossing, start at the lowest keystrip and look for
    // the number of separate layers in the pattern for that keystrip that have
    // pulses at that bunch-crossing time.  Do the same for the next keystrip, 
    // etc.  Then do the entire process again for the next bunch-crossing, etc
    // until you find a pre-trigger.
    pre_trig = preTrigLookUp(pulse, stripType, nStrips, bx_time);
    if (pre_trig) {
      first_bx = bx_time; // bx at time of pretrigger
      return true;
    }
  } // end loop over bx times

  if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "no pretrigger for strip type " << stripType << ", returning \n";
  first_bx = fifo_tbins;
  return false;
} // preTrigger -- pre-2007 version.

bool CSCCathodeLCTProcessor::preTrigger ( const unsigned int  pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int  start_bx, int &  first_bx  )

private

Definition at line 2278 of file CSCCathodeLCTProcessor.cc.

References best_pid, fifo_tbins, infoV, ispretrig, CSCConstants::KEY_CLCT_LAYER, LogTrace, nhits, nplanes_hit_pretrig, numStrips, pid_thresh_pretrig, ptnFinding(), and stagger.

                                                       {
  if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "....................PreTrigger...........................";

  // Max. number of half-strips for this chamber.
  const int nStrips = 2*numStrips + 1;

  bool pre_trig = false;
  // Now do a loop over bx times to see (if/when) track goes over threshold
  for (unsigned int bx_time = start_bx; bx_time < fifo_tbins; bx_time++) {
    // For any given bunch-crossing, start at the lowest keystrip and look for
    // the number of separate layers in the pattern for that keystrip that have
    // pulses at that bunch-crossing time.  Do the same for the next keystrip, 
    // etc.  Then do the entire process again for the next bunch-crossing, etc
    // until you find a pre-trigger.
    bool hits_in_time = ptnFinding(pulse, nStrips, bx_time);
    if (hits_in_time) {
      for (int hstrip = stagger[CSCConstants::KEY_CLCT_LAYER-1];
       hstrip < nStrips; hstrip++) {
    if (infoV > 1) {
      if (nhits[hstrip] > 0) {
        LogTrace("CSCCathodeLCTProcessor")
          << " bx = " << std::setw(2) << bx_time << " --->"
          << " halfstrip = " << std::setw(3) << hstrip
          << " best pid = "  << std::setw(2) << best_pid[hstrip]
          << " nhits = "     << nhits[hstrip];
      }
    }
    ispretrig[hstrip] = 0;
    if (nhits[hstrip]    >= nplanes_hit_pretrig &&
        best_pid[hstrip] >= pid_thresh_pretrig) {
      pre_trig = true;
      ispretrig[hstrip] = 1;
    }
      }

      if (pre_trig) {
    first_bx = bx_time; // bx at time of pretrigger
    return true;
      }
    }
  } // end loop over bx times

  if (infoV > 1) LogTrace("CSCCathodeLCTProcessor") <<
           "no pretrigger, returning \n";
  first_bx = fifo_tbins;
  return false;
} // preTrigger -- TMB-07 version.

std::vector<int> CSCCathodeLCTProcessor::preTriggerBXs ( ) const

inline

Definition at line 83 of file CSCCathodeLCTProcessor.h.

References thePreTriggerBXs.

Referenced by CSCTriggerPrimitivesBuilder::build().

{return thePreTriggerBXs;}

bool CSCCathodeLCTProcessor::preTrigLookUp ( const unsigned int  pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int  stripType, const int  nStrips, const unsigned int  bx_time  )

private

Definition at line 1590 of file CSCCathodeLCTProcessor.cc.

References cfeb_strips, infoV, LogTrace, MAX_CFEBS, nplanes_hit_pretrig, CSCConstants::NUM_LAYERS, NUM_PATTERN_STRIPS, and pre_hit_pattern.

Referenced by preTrigger().

                                   {
  static const int hs_thresh = nplanes_hit_pretrig;
  static const int ds_thresh = nplanes_hit_pretrig;

  bool hit_layer[CSCConstants::NUM_LAYERS];
  int key_strip, this_layer, this_strip, layers_hit;

  // Layers hit threshold for pretrigger
  const int pre_trigger_layer_min = (stripType == 1) ? hs_thresh : ds_thresh;

  if (stripType != 0 && stripType != 1) {
    if (infoV >= 0) edm::LogWarning("L1CSCTPEmulatorWrongInput")
      << "+++ preTrigLookUp: stripType = " << stripType
      << " does not correspond to half-strip/di-strip patterns! +++\n";
    return false;
  }

  for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) { // loop over cfebs
    // Loop over (di-/half-)strips in CFEB.
    for (int istrip = 0; istrip < cfeb_strips[stripType]; istrip++) {
      // Calculate candidate key.
      key_strip = icfeb*cfeb_strips[stripType] + istrip;
      layers_hit = 0;
      for (int ilayer = 0; ilayer < CSCConstants::NUM_LAYERS; ilayer++)
    hit_layer[ilayer] = false;

      // Loop over strips in pretrigger pattern mask and look for hits.
      for (int pstrip = 0; pstrip < NUM_PATTERN_STRIPS; pstrip++) {
    this_layer = pre_hit_pattern[0][pstrip];
    this_strip = pre_hit_pattern[1][pstrip]+key_strip;

    if (this_strip >= 0 && this_strip < nStrips) {
      // Determine if "one shot" is high at this bx_time
      if (((pulse[this_layer][this_strip] >> bx_time) & 1) == 1) {
        if (hit_layer[this_layer] == false) {
          hit_layer[this_layer] = true;
          layers_hit++;                  // determines number of layers hit
          if (layers_hit >= pre_trigger_layer_min) {
        if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
          << "pretrigger at bx: " << bx_time
          << ", cfeb " << icfeb << ", returning";
        return true;
          }
        }
      }
    }
      } // end loop over strips in pretrigger pattern
    } // end loop over candidate key strips in cfeb
  } // end loop over cfebs, if pretrigger is found, stop looking and return

  return false;

} // preTrigLookUp -- pre-2007 version.

void CSCCathodeLCTProcessor::printPatterns ( )

private

Definition at line 2999 of file CSCCathodeLCTProcessor.cc.

References gather_cfg::cout, isTMB07, CSCConstants::KEY_CLCT_LAYER, CSCConstants::KEY_CLCT_LAYER_PRE_TMB07, CSCConstants::NUM_CLCT_PATTERNS_PRE_TMB07, CSCConstants::NUM_LAYERS, NUM_PATTERN_STRIPS, and pattern.

                                           {
  // @@
  std::cout<<" Printing patterns for Cathode LCT"<<std::endl;
  std::cout<<"       ";
  for (int patternNum = 0; patternNum < CSCConstants::NUM_CLCT_PATTERNS_PRE_TMB07; patternNum++) {
    std::cout<<" Pattern "<<patternNum<<" ";
  }
  std::cout<<std::endl;
  std::cout<<" Layer ";
  for (int patternNum = 0; patternNum < CSCConstants::NUM_CLCT_PATTERNS_PRE_TMB07; patternNum++) {
    std::cout<<"   Bend "<<(pattern[patternNum][NUM_PATTERN_STRIPS]==0 ? "L": "R")<<"  ";
  }
  std::cout<<std::endl;
  for (int layer = 0; layer < CSCConstants::NUM_LAYERS; layer++) {
    for (int patternNum = 0; patternNum < CSCConstants::NUM_CLCT_PATTERNS_PRE_TMB07; patternNum++) {
      if (patternNum == 0) std::cout<<"   "<<layer<<"       ";
      if ((isTMB07  && layer != CSCConstants::KEY_CLCT_LAYER-1) ||
      (!isTMB07 && layer != CSCConstants::KEY_CLCT_LAYER_PRE_TMB07-1)) {//that old counting from 1 vs 0 thing.
        int minStrip =0;
    if ((isTMB07  && layer < CSCConstants::KEY_CLCT_LAYER-1) ||
        (!isTMB07 && layer < CSCConstants::KEY_CLCT_LAYER_PRE_TMB07-1)) {
      minStrip = 3*layer;
    } else {
      minStrip = 3*layer - 2;// since on the key layer we only have 1 strip
    }
        for (int strip = minStrip; strip < minStrip + 3; strip++) {
      if (layer == pattern[patternNum][strip]) {
        std::cout<<"X";
      } else {
        std::cout<<"_";
      }
    }
      } else {// on the key layer we always have a hit, right?
    std::cout<<" X ";
      }
      std::cout<<"        ";
    }
    std::cout<<std::endl;
  }
}

void CSCCathodeLCTProcessor::priorityEncode ( const int  h_keyStrip[MAX_CFEBS], const unsigned int  h_nhits[MAX_CFEBS], const int  d_keyStrip[MAX_CFEBS], const unsigned int  d_nhits[MAX_CFEBS], int  keystrip_data[2][7]  )

private

Definition at line 1714 of file CSCCathodeLCTProcessor.cc.

References cfeb_strips, CLCT_CFEB, CLCT_STRIP, CLCT_STRIP_TYPE, infoV, j, combine::key, LogTrace, MAX_CFEBS, and nplanes_hit_pretrig.

Referenced by findLCTs().

                             {
  static const unsigned int hs_thresh = nplanes_hit_pretrig;
  //static const unsigned int ds_thresh = nplanes_hit_pretrig;

  int ihits[2]; // hold hits for sorting
  int cfebs[2]; // holds CFEB numbers corresponding to highest hits
  const int nlcts = 2;
  int key_strip[MAX_CFEBS], key_phits[MAX_CFEBS], strip_type[MAX_CFEBS];

  // initialize arrays
  for (int ilct = 0; ilct < nlcts; ilct++) {
    for (int j = 0; j < 7; j++) keystrip_data[ilct][j] = -1;
    ihits[ilct] = 0;
    cfebs[ilct] = -1;
  }
  for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) {
    key_strip[icfeb]  = -1;
    key_phits[icfeb]  = -1;
    strip_type[icfeb] = -1;
  }

  if (infoV > 1) {
    LogTrace("CSCCathodeLCTProcessor")
      << ".....................PriorityEncode.......................";
    std::ostringstream strstrm;
    strstrm << "hkeys:";
    for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) {
      strstrm << std::setw(4) << h_keyStrip[icfeb];
    }
    strstrm << "\ndkeys:";
    for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) {
      strstrm << std::setw(4) << d_keyStrip[icfeb];
    }
    LogTrace("CSCCathodeLCTProcessor") << strstrm.str();
  }

  // Loop over CFEBs and determine better of half- or di- strip pattern.
  // If select halfstrip, promote it by adding an extra bit to its hits.
  for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) {
    if (h_keyStrip[icfeb] != -1 && d_keyStrip[icfeb] != -1) {
      if (h_nhits[icfeb] >= hs_thresh) {
    key_strip[icfeb] = h_keyStrip[icfeb];
    key_phits[icfeb] = h_nhits[icfeb] + 8; // halfstrip promotion
    strip_type[icfeb]= 1;
      }
      // For di-strip envelope there is no requirement that the number of
      // layers hit is >= ds_thresh!!!
      // else if (d_nhits[icfeb] >= ds_thresh) {
      else {
    key_strip[icfeb] = d_keyStrip[icfeb];
    key_phits[icfeb] = d_nhits[icfeb];
    strip_type[icfeb]= 0;
      }
    }
    else if (h_keyStrip[icfeb] != -1) {
      if (h_nhits[icfeb] >= hs_thresh) {
    key_strip[icfeb] = h_keyStrip[icfeb];
    key_phits[icfeb] = h_nhits[icfeb] + 8; // halfstrip promotion
    strip_type[icfeb]= 1;
      }
    }
    else if (d_keyStrip[icfeb] != -1) {
      // if (d_nhits[icfeb] >= ds_thresh) {
    key_strip[icfeb] = d_keyStrip[icfeb];
    key_phits[icfeb] = d_nhits[icfeb];
    strip_type[icfeb]= 0;
      // }
    }
    if (infoV > 1 && strip_type[icfeb] != -1) {
      if (strip_type[icfeb] == 0)
    LogTrace("CSCCathodeLCTProcessor")
      << "  taking distrip pattern on cfeb " << icfeb;
      else if (strip_type[icfeb] == 1)
    LogTrace("CSCCathodeLCTProcessor")
      << "  taking halfstrip pattern on cfeb " << icfeb;
      LogTrace("CSCCathodeLCTProcessor")
    << "     cfeb " << icfeb << " key " << key_strip[icfeb]
    << " hits " << key_phits[icfeb] << " type " << strip_type[icfeb];
    }
  }

  // Remove duplicate LCTs at boundaries -- it is possilbe to have key[0]
  // be the higher of the two key strips, take this into account, but
  // preserve rank of lcts.
  int key[MAX_CFEBS];
  int loedge, hiedge;

  if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "...... Remove Duplicates ......";
  for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) {
    if(strip_type[icfeb] == 0) key[icfeb] = key_strip[icfeb]*4;
    else                       key[icfeb] = key_strip[icfeb];
  }
  for (int icfeb = 0; icfeb < MAX_CFEBS-1; icfeb++) {
    if (key[icfeb] >= 0 && key[icfeb+1] >= 0) {
      loedge = cfeb_strips[1]*(icfeb*8+7)/8;
      hiedge = cfeb_strips[1]*(icfeb*8+9)/8 - 1;
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "  key 1: " << key[icfeb] << "  key 2: " << key[icfeb+1]
    << "  low edge:  " << loedge << "  high edge: " << hiedge;
      if (key[icfeb] >= loedge && key[icfeb+1] <= hiedge) {
    if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
      << "Duplicate LCTs found at boundary of CFEB " << icfeb << " ...";
    if (key_phits[icfeb+1] > key_phits[icfeb]) {
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor") 
        << "   deleting LCT on CFEB " << icfeb;
      key_strip[icfeb] = -1;
      key_phits[icfeb] = -1;
    }
    else {
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
        << "   deleting LCT on CFEB " << icfeb+1;
      key_strip[icfeb+1] = -1;
      key_phits[icfeb+1] = -1;
    }
      }
    }
  }

  // Now loop over CFEBs and pick best two lcts based on no. hits in envelope.
  // In case of equal quality, select the one on lower-numbered CFEBs.
  if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "\n...... Select best LCTs  ......";
  for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) {
    if (key_phits[icfeb] > ihits[0]) {
      ihits[1] = ihits[0];
      cfebs[1] = cfebs[0];
      ihits[0] = key_phits[icfeb];
      cfebs[0] = icfeb;
      if (infoV > 1) {
    std::ostringstream strstrm;
    for (int icfeb = 0; icfeb < MAX_CFEBS; icfeb++) {
      strstrm << std::setw(4) << strip_type[icfeb];
    }
    LogTrace("CSCCathodeLCTProcessor")
      << "strip_type" << strstrm.str()
      << "\n best: ihits " << ihits[0] << " cfeb " << cfebs[0]
      << " strip_type " << ((cfebs[0] >= 0) ? strip_type[cfebs[0]] : -1)
      << "\n next: ihits " << ihits[1] << " cfeb " << cfebs[1]
      << " strip_type " << ((cfebs[1] >= 0) ? strip_type[cfebs[1]] : -1);
      }
    }
    else if (key_phits[icfeb] > ihits[1]) {
      ihits[1] = key_phits[icfeb];
      cfebs[1] = icfeb;
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "\n next: ihits " << ihits[1] << " cfeb " << cfebs[1]
    << " strip_type " << ((cfebs[1] >= 0) ? strip_type[cfebs[1]] : -1);
    }
  }

  // fill lct data array key strip with 2 highest hit lcts (if they exist)
  int jlct = 0;
  for (int ilct = 0; ilct < nlcts; ilct++) {
    if (cfebs[ilct] != -1) {
      keystrip_data[jlct][CLCT_CFEB]       = cfebs[ilct];
      keystrip_data[jlct][CLCT_STRIP]      = key_strip[cfebs[ilct]];
      keystrip_data[jlct][CLCT_STRIP_TYPE] = strip_type[cfebs[ilct]];
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "filling key: " << key_strip[cfebs[ilct]]
    << " type: " << strip_type[cfebs[ilct]];
      jlct++;
    }
  }
} // priorityEncode -- pre-2007 version.

bool CSCCathodeLCTProcessor::ptnFinding ( const unsigned int  pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int  nStrips, const unsigned int  bx_time  )

private

Definition at line 2331 of file CSCCathodeLCTProcessor.cc.

References best_pid, fifo_tbins, first_bx_corrected, hit_persist, infoV, CSCConstants::KEY_CLCT_LAYER, LogTrace, nhits, nplanes_hit_pretrig, CSCConstants::NUM_CLCT_PATTERNS, CSCConstants::NUM_LAYERS, NUM_PATTERN_HALFSTRIPS, pattern2007, pattern2007_offset, sysUtil::pid, pid_thresh_pretrig, and stagger.

Referenced by findLCTs(), findLCTsSLHC(), and preTrigger().

{
  if (bx_time >= fifo_tbins) return false;

  // This loop is a quick check of a number of layers hit at bx_time: since
  // most of the time it is 0, this check helps to speed-up the execution
  // substantially.
  unsigned int layers_hit = 0;
  for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++)
  {
    for (int i_hstrip = 0; i_hstrip < nStrips; i_hstrip++)
    {
      if (((pulse[i_layer][i_hstrip] >> bx_time) & 1) == 1)
      {
    layers_hit++;
    break;
      }
    }
  }
  if (layers_hit < nplanes_hit_pretrig) return false;

  for (int key_hstrip = 0; key_hstrip < nStrips; key_hstrip++)
  {
    best_pid[key_hstrip] = 0;
    nhits[key_hstrip] = 0;
    first_bx_corrected[key_hstrip] = -999;
  }

  // Loop over candidate key strips.
  bool hit_layer[CSCConstants::NUM_LAYERS];
  for (int key_hstrip = stagger[CSCConstants::KEY_CLCT_LAYER - 1]; key_hstrip < nStrips; key_hstrip++)
  {
    // Loop over patterns and look for hits matching each pattern.
    for (unsigned int pid = CSCConstants::NUM_CLCT_PATTERNS - 1; pid >= pid_thresh_pretrig; pid--)
    {
      layers_hit = 0;
      for (int ilayer = 0; ilayer < CSCConstants::NUM_LAYERS; ilayer++)
    hit_layer[ilayer] = false;

      double num_pattern_hits=0., times_sum=0.;
      std::multiset<int> mset_for_median;
      mset_for_median.clear();

      // Loop over halfstrips in trigger pattern mask and calculate the
      // "absolute" halfstrip number for each.
      for (int strip_num = 0; strip_num < NUM_PATTERN_HALFSTRIPS; strip_num++)
      {
    int this_layer = pattern2007[pid][strip_num];
        if (this_layer >= 0 && this_layer < CSCConstants::NUM_LAYERS)
        {
      int this_strip = pattern2007_offset[strip_num] + key_hstrip;
      if (this_strip >= 0 && this_strip < nStrips) {
        if (infoV > 3) LogTrace("CSCCathodeLCTProcessor")
          << " In ptnFinding: key_strip = " << key_hstrip
          << " pid = " << pid << " strip_num = " << strip_num
          << " layer = " << this_layer << " strip = " << this_strip;
        // Determine if "one shot" is high at this bx_time
            if (((pulse[this_layer][this_strip] >> bx_time) & 1) == 1)
            {
              if (hit_layer[this_layer] == false)
              {
        hit_layer[this_layer] = true;
        layers_hit++;     // determines number of layers hit
          }

              // find at what bx did pulse on this halsfstrip&layer have started
              // use hit_pesrist constraint on how far back we can go
              int first_bx_layer = bx_time;
              for (unsigned int dbx = 0; dbx < hit_persist; dbx++)
              {
                if (((pulse[this_layer][this_strip] >> (first_bx_layer - 1)) & 1) == 1)
                  first_bx_layer--;
                else
                  break;
              }
              times_sum += (double) first_bx_layer;
              num_pattern_hits += 1.;
              mset_for_median.insert(first_bx_layer);
              if (infoV > 2)
                LogTrace("CSCCathodeLCTProcessor") << " 1st bx in layer: " << first_bx_layer << " sum bx: " << times_sum
                    << " #pat. hits: " << num_pattern_hits;
        }
      }
    }
      } // end loop over strips in pretrigger pattern

      if (layers_hit > nhits[key_hstrip])
      {
    best_pid[key_hstrip] = pid;
    nhits[key_hstrip] = layers_hit;

        // calculate median
        const int sz = mset_for_median.size();
        if (sz>0){
          std::multiset<int>::iterator im = mset_for_median.begin();
          if (sz>1) std::advance(im,sz/2-1);
          if (sz==1) first_bx_corrected[key_hstrip] = *im;
          else if ((sz % 2) == 1) first_bx_corrected[key_hstrip] = *(++im);
          else first_bx_corrected[key_hstrip] = ((*im) + (*(++im)))/2;

          if (infoV > 1) {
            char bxs[300]="";
            for (im = mset_for_median.begin(); im != mset_for_median.end(); im++)
              sprintf(bxs,"%s %d", bxs, *im);
            LogTrace("CSCCathodeLCTProcessor")
              <<"bx="<<bx_time<<" bx_cor="<< first_bx_corrected[key_hstrip]<<"  bxset="<<bxs;
          }
        }

    // Do not loop over the other (worse) patterns if max. numbers of
    // hits is found.
    if (nhits[key_hstrip] == CSCConstants::NUM_LAYERS) break;
      }
    } // end loop over pid
  } // end loop over candidate key strips
  return true;
} // ptnFinding -- TMB-07 version.

void CSCCathodeLCTProcessor::pulseExtension ( const std::vector< int >  time[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], const int  nStrips, unsigned int  pulse[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS]  )

private

Definition at line 2230 of file CSCCathodeLCTProcessor.cc.

References hit_persist, i, infoV, CSCConstants::NUM_LAYERS, findQualityFiles::size, start_bx_shift, and cond::rpcobgas::time.

Referenced by findLCTs(), findLCTsSLHC(), and preTrigger().

                                                                          {

  static const unsigned int bits_in_pulse = 8*sizeof(pulse[0][0]);

  // Clear pulse array.  This array will be used as a bit representation of
  // hit times.  For example: if strip[1][2] has a value of 3, then 1 shifted
  // left 3 will be bit pattern of pulse[1][2].  This would make the pattern
  // look like 0000000000001000.  Then add on additional bits to signify
  // the duration of a signal (hit_persist, formerly bx_width) to simulate
  // the TMB's drift delay.  So for the same pulse[1][2] with a hit_persist
  // of 3 would look like 0000000000111000.  This is similating the digital
  // one-shot in the TMB.
  for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++)
    for (int i_strip = 0; i_strip < nStrips; i_strip++)
      pulse[i_layer][i_strip] = 0;

  // Loop over all layers and halfstrips.
  for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++) {
    for (int i_strip = 0; i_strip < nStrips; i_strip++) {
      // If there is a hit, simulate digital one-shot persistence starting
      // in the bx of the initial hit.  Fill this into pulse[][].
      if (time[i_layer][i_strip].size() > 0) {
    std::vector<int> bx_times = time[i_layer][i_strip];
    for (unsigned int i = 0; i < bx_times.size(); i++) {
      // Check that min and max times are within the allowed range.
      if (bx_times[i] < 0 || bx_times[i] + hit_persist >= bits_in_pulse) {
        if (infoV > 0) edm::LogWarning("L1CSCTPEmulatorOutOfTimeDigi")
          << "+++ BX time of comparator digi (halfstrip = " << i_strip
          << " layer = " << i_layer << ") bx = " << bx_times[i]
          << " is not within the range (0-" << bits_in_pulse
          << "] allowed for pulse extension.  Skip this digi! +++\n";
        continue;
      }
      if (bx_times[i] >= start_bx_shift) {
        for (unsigned int bx = bx_times[i]; bx < bx_times[i] + hit_persist; ++bx)
              pulse[i_layer][i_strip] = pulse[i_layer][i_strip] | (1 << bx);
          }
    }
      }
    }
  }
} // pulseExtension.

void CSCCathodeLCTProcessor::readComparatorDigis ( std::vector< int >  halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS], std::vector< int >  distrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS]  )

private

Definition at line 906 of file CSCCathodeLCTProcessor.cc.

References AlCaHLTBitMon_QueryRunRegistry::comp, digiV, distripStagger(), fifo_tbins, CSCComparatorDigi::getComparator(), CSCComparatorDigi::getStrip(), CSCComparatorDigi::getTimeBin(), i, infoV, isTMB07, j, LogTrace, CSCConstants::MAX_NUM_STRIPS, CSCConstants::NUM_LAYERS, numStrips, stagger, testDistripStagger(), and cond::rpcobgas::time.

Referenced by run().

                                                                               {
  // Two-argument version for pre-TMB07 (halfstrip and distrips) firmware.
  // Takes the comparator & time info and stuffs it into halfstrip and (and
  // possibly distrip) vector.

  int time[CSCConstants::NUM_LAYERS][CSCConstants::MAX_NUM_STRIPS];
  int comp[CSCConstants::NUM_LAYERS][CSCConstants::MAX_NUM_STRIPS];
  int digiNum[CSCConstants::NUM_LAYERS][CSCConstants::MAX_NUM_STRIPS];
  for (int i = 0; i < CSCConstants::NUM_LAYERS; i++){
    for (int j = 0; j < CSCConstants::MAX_NUM_STRIPS; j++) {
      time[i][j]    = -999;
      comp[i][j]    =    0;
      digiNum[i][j] = -999;
    }
  }

  for (int i = 0; i < CSCConstants::NUM_LAYERS; i++) {
    std::vector <CSCComparatorDigi> layerDigiV = digiV[i];
    for (unsigned int j = 0; j < layerDigiV.size(); j++) {
      // Get one digi at a time for the layer.  -Jm
      CSCComparatorDigi thisDigi = layerDigiV[j];

      // Dump raw digi info
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
    << "Comparator digi: comparator = " << thisDigi.getComparator()
    << " strip #" << thisDigi.getStrip()
    << " time bin = " << thisDigi.getTimeBin();

      // Get comparator: 0/1 for left/right halfstrip for each comparator
      // that fired.
      int thisComparator = thisDigi.getComparator();
      if (thisComparator != 0 && thisComparator != 1) {
    if (infoV >= 0) edm::LogWarning("L1CSCTPEmulatorWrongInput")
      << "+++ Comparator digi with wrong comparator value: digi #" << j
      << ", comparator = " << thisComparator << "; skipping it... +++\n";
    continue;
      }

      // Get strip number.
      int thisStrip = thisDigi.getStrip() - 1; // count from 0
      if (thisStrip < 0 || thisStrip >= numStrips) {
    if (infoV >= 0) edm::LogWarning("L1CSCTPEmulatorWrongInput")
      << "+++ Comparator digi with wrong strip number: digi #" << j
      << ", strip = " << thisStrip
      << ", max strips = " << numStrips << "; skipping it... +++\n";
    continue;
      }

      // Get Bx of this Digi and check that it is within the bounds
      int thisDigiBx = thisDigi.getTimeBin();

      // Total number of time bins in DAQ readout is given by fifo_tbins,
      // which thus determines the maximum length of time interval.
      if (thisDigiBx >= 0 && thisDigiBx < static_cast<int>(fifo_tbins)) {

    // If there is more than one hit in the same strip, pick one
    // which occurred earlier.
    // In reality, the second hit on the same distrip is ignored only
    // during the number of clocks defined by the "hit_persist" 
    // parameter (i.e., 6 bx's by default).  So if one simulates
    // a large number of bx's in a crowded environment, this
    // approximation here may not be sufficiently good.
    if (time[i][thisStrip] == -999 || time[i][thisStrip] > thisDigiBx) {
      digiNum[i][thisStrip] = j;
      time[i][thisStrip]    = thisDigiBx;
      comp[i][thisStrip]    = thisComparator;
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
        << "Comp digi: layer " << i+1
        << " digi #"           << j+1
        << " strip "           << thisStrip
        << " halfstrip "       << 2*thisStrip + comp[i][thisStrip] + stagger[i]
        << " distrip "         << thisStrip/2 + // [0-39]
          ((thisStrip%2 == 1 && comp[i][thisStrip] == 1 && stagger[i] == 1) ? 1 : 0)
        << " time "            <<    time[i][thisStrip]
        << " comparator "      <<    comp[i][thisStrip]
        << " stagger "         << stagger[i];
    }
      }
      else {
    if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
      << "+++ Skipping comparator digi: strip = " << thisStrip
      << ", layer = " << i+1 << ", bx = " << thisDigiBx << " +++";
      }
    }
  }

  // Take the comparator & time info and stuff it into half- and di-strip
  // arrays.
  for (int i = 0; i < CSCConstants::NUM_LAYERS; i++) {
    // Use the comparator info to setup the halfstrips and distrips.  -BT
    // This loop is only for halfstrips.
    for (int j = 0; j < CSCConstants::MAX_NUM_STRIPS; j++) {
      if (time[i][j] >= 0) {
    int i_halfstrip = 2*j + comp[i][j] + stagger[i];
    // 2*j    : convert strip to 1/2 strip
    // comp   : comparator output
    // stagger: stagger for this layer
    if (i_halfstrip >= 2*numStrips + 1) {
      if (infoV >= 0) edm::LogWarning("L1CSCTPEmulatorWrongInput")
        << "+++ Found wrong halfstrip number = " << i_halfstrip
        << "; skipping this digi... +++\n";
      continue;
    }
    halfstrip[i][i_halfstrip].push_back(time[i][j]);
      }
    }

    // There are no di-strips in the 2007 version of the TMB firmware.
    if (!isTMB07) {
      // This loop is only for distrips.  We have to separate the routines
      // because triad and time arrays can be changed by the distripStagger
      // routine which could mess up the halfstrips.
      static std::atomic<int> test_iteration{0};
      for (int j = 0; j < CSCConstants::MAX_NUM_STRIPS; j++){
    if (time[i][j] >= 0) {
      int i_distrip = j/2;
      if (j%2 == 1 && comp[i][j] == 1 && stagger[i] == 1) {
        // @@ Needs to be checked.
        bool stagger_debug = (infoV > 2);
        distripStagger(comp[i], time[i], digiNum[i], j, stagger_debug);
      }
      // comp[i][j] == 1    : hit on right half-strip.
      // stagger[i] == 1    : half-strips are shifted by 1.
      // if these conditions are met add 1; otherwise add 0.
      // So if there is a hit on the far right half-strip, and the
      // half-strips have been staggered to the right, then the di-strip
      // would actually correspond to the next highest di-strip.  -JM
      if (infoV > 2 && test_iteration == 1) {
        testDistripStagger();
        test_iteration++;
      }
      if (i_distrip >= numStrips/2 + 1) {
        if (infoV >= 0) edm::LogWarning("L1CSCTPEmulatorWrongInput")
          << "+++ Found wrong distrip number = " << i_distrip
          << "; skipping this digi... +++\n";
        continue;
      }
      distrip[i][i_distrip].push_back(time[i][j]);
    }
      }
    }
  }
}

void CSCCathodeLCTProcessor::readComparatorDigis ( std::vector< int >  halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS] )

private

Definition at line 808 of file CSCCathodeLCTProcessor.cc.

References begin, digiV, fifo_tbins, hit_persist, i, infoV, LogTrace, CSCConstants::NUM_LAYERS, numStrips, and stagger.

                                                                                       {
  // Single-argument version for TMB07 (halfstrip-only) firmware.
  // Takes the comparator & time info and stuffs it into halfstrip vector.
  // Multiple hits on the same strip are allowed.

  for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++) {
    int i_digi = 0; // digi counter, for dumps.
    for (std::vector<CSCComparatorDigi>::iterator pld = digiV[i_layer].begin();
     pld != digiV[i_layer].end(); pld++, i_digi++) {
      // Dump raw digi info.
      if (infoV > 1) {
    std::ostringstream strstrm;
    strstrm << "Comparator digi: comparator = " << pld->getComparator()
        << " strip #" << pld->getStrip()
        << " time bins on:";
    std::vector<int> bx_times = pld->getTimeBinsOn();
    for (unsigned int tbin = 0; tbin < bx_times.size(); tbin++)
      strstrm << " " << bx_times[tbin];
    LogTrace("CSCCathodeLCTProcessor") << strstrm.str();
      }

      // Get comparator: 0/1 for left/right halfstrip for each comparator
      // that fired.
      int thisComparator = pld->getComparator();
      if (thisComparator != 0 && thisComparator != 1) {
    if (infoV >= 0) edm::LogWarning("L1CSCTPEmulatorWrongInput")
      << "+++ Found comparator digi with wrong comparator value = "
      << thisComparator << "; skipping it... +++\n";
    continue;
      }

      // Get strip number.
      int thisStrip = pld->getStrip() - 1; // count from 0
      if (thisStrip < 0 || thisStrip >= numStrips) {
    if (infoV >= 0) edm::LogWarning("L1CSCTPEmulatorWrongInput")
      << "+++ Found comparator digi with wrong strip number = "
      << thisStrip
      << " (max strips = " << numStrips << "); skipping it... +++\n";
    continue;
      }
      // 2*strip: convert strip to 1/2 strip
      // comp   : comparator output
      // stagger: stagger for this layer
      int thisHalfstrip = 2*thisStrip + thisComparator + stagger[i_layer];
      if (thisHalfstrip >= 2*numStrips + 1) {
    if (infoV >= 0) edm::LogWarning("L1CSCTPEmulatorWrongInput")
      << "+++ Found wrong halfstrip number = " << thisHalfstrip
      << "; skipping this digi... +++\n";
    continue;
      }

      // Get bx times on this digi and check that they are within the bounds.
      std::vector<int> bx_times = pld->getTimeBinsOn();
      for (unsigned int i = 0; i < bx_times.size(); i++) {
    // Total number of time bins in DAQ readout is given by fifo_tbins,
    // which thus determines the maximum length of time interval.
    //
    // In TMB07 version, better data-emulator agreement is
    // achieved when hits in the first 2 time bins are excluded.
    // As of May 2009, the reasons for this are not fully
    // understood yet (the work is on-going).
    if (bx_times[i] > 1 && bx_times[i] < static_cast<int>(fifo_tbins)) {

      if (i == 0 || (i > 0 && bx_times[i]-bx_times[i-1] >=
             static_cast<int>(hit_persist))) {
        // A later hit on the same strip is ignored during the
        // number of clocks defined by the "hit_persist" parameter
        // (i.e., 6 bx's by default).
        if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
          << "Comp digi: layer " << i_layer+1
          << " digi #"           << i_digi+1
          << " strip "           << thisStrip
          << " halfstrip "       << thisHalfstrip
          << " distrip "         << thisStrip/2 + // [0-39]
                 ((thisStrip%2 == 1 && thisComparator == 1 && stagger[i_layer] == 1) ? 1 : 0)
          << " time "            << bx_times[i]
          << " comparator "      << thisComparator
          << " stagger "         << stagger[i_layer];
        halfstrip[i_layer][thisHalfstrip].push_back(bx_times[i]);
      }
      else if (i > 0) {
        if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
          << " Skipping comparator digi: strip = " << thisStrip
          << ", layer = " << i_layer+1 << ", bx = " << bx_times[i]
          << ", bx of previous hit = " << bx_times[i-1];
      }
    }
    else {
      if (infoV > 1) LogTrace("CSCCathodeLCTProcessor")
        << "+++ Skipping comparator digi: strip = " << thisStrip
        << ", layer = " << i_layer+1 << ", bx = " << bx_times[i] << " +++";
    }
      }
    }
  }
}

std::vector< CSCCLCTDigi > CSCCathodeLCTProcessor::readoutCLCTs

(

)

Returns vector of CLCTs in the read-out time window, if any.

Definition at line 2811 of file CSCCathodeLCTProcessor.cc.

References early_tbins, getCLCTs(), infoV, LogDebug, MAX_CLCT_BINS, readout_earliest_2, and tmb_l1a_window_size.

Referenced by CSCTriggerPrimitivesBuilder::build().

                                                            {
  std::vector<CSCCLCTDigi> tmpV;

  // The start time of the L1A*CLCT coincidence window should be
  // related to the fifo_pretrig parameter, but I am not completely
  // sure how.  For now, just choose it such that the window is
  // centered at bx=7.  This may need further tweaking if the value of
  // tmb_l1a_window_size changes.
  // static int fpga_latency = 3;
  // static int early_tbins  = fifo_pretrig - fpga_latency;
  // static int early_tbins = 4;
  
  // The number of CLCT bins in the read-out is given by the
  // tmb_l1a_window_size parameter, but made even by setting the LSB
  // of tmb_l1a_window_size to 0.
  //
  static std::atomic<int> lct_bins; 
    lct_bins = (tmb_l1a_window_size%2 == 0) ? tmb_l1a_window_size : tmb_l1a_window_size-1;
  static std::atomic<int> late_tbins;
    late_tbins = early_tbins + lct_bins;

  static std::atomic<int> ifois{0};
  if (ifois == 0) {
    if (infoV >= 0 && early_tbins < 0) {
      edm::LogWarning("L1CSCTPEmulatorSuspiciousParameters")
    << "+++ early_tbins = " << early_tbins
    << "; in-time CLCTs are not getting read-out!!! +++" << "\n";
    }

    if (late_tbins > MAX_CLCT_BINS-1) {
      if (infoV >= 0) edm::LogWarning("L1CSCTPEmulatorSuspiciousParameters")
    << "+++ Allowed range of time bins, [0-" << late_tbins
    << "] exceeds max allowed, " << MAX_CLCT_BINS-1 << " +++\n"
    << "+++ Set late_tbins to max allowed +++\n";
      late_tbins = MAX_CLCT_BINS-1;
    }
    ifois = 1;
  }

  // Start from the vector of all found CLCTs and select those within
  // the CLCT*L1A coincidence window.
  int bx_readout = -1;
  std::vector<CSCCLCTDigi> all_lcts = getCLCTs();
  for (std::vector <CSCCLCTDigi>::const_iterator plct = all_lcts.begin();
       plct != all_lcts.end(); plct++) {
    if (!plct->isValid()) continue;

    int bx = (*plct).getBX();
    // Skip CLCTs found too early relative to L1Accept.
    if (bx <= early_tbins) {
      if (infoV > 1) LogDebug("CSCCathodeLCTProcessor")
    << " Do not report CLCT on key halfstrip " << plct->getKeyStrip()
    << ": found at bx " << bx << ", whereas the earliest allowed bx is "
    << early_tbins+1;
      continue;
    }

    // Skip CLCTs found too late relative to L1Accept.
    if (bx > late_tbins) {
      if (infoV > 1) LogDebug("CSCCathodeLCTProcessor")
    << " Do not report CLCT on key halfstrip " << plct->getKeyStrip()
    << ": found at bx " << bx << ", whereas the latest allowed bx is "
    << late_tbins;
      continue;
    }

    // If (readout_earliest_2) take only CLCTs in the earliest bx in the read-out window:
    // in digi->raw step, LCTs have to be packed into the TMB header, and
    // currently there is room just for two.
    if (readout_earliest_2) {
      if (bx_readout == -1 || bx == bx_readout) {
        tmpV.push_back(*plct);
        if (bx_readout == -1) bx_readout = bx;
      }
    }
    else tmpV.push_back(*plct);
  }
  return tmpV;
}

std::vector< CSCCLCTDigi > CSCCathodeLCTProcessor::run

(

const CSCComparatorDigiCollection *

compdc

)

Runs the LCT processor code. Called in normal running – gets info from a collection of comparator digis.

Definition at line 548 of file CSCCathodeLCTProcessor.cc.

References CSCTriggerGeomManager::chamber(), disableME1a, dumpConfigParams(), relativeConstraints::empty, gangedME1a, CSCLayer::geometry(), CSCTriggerGeometry::get(), getCLCTs(), getDigis(), infoV, isME11, isSLHC, isTMB07, CSCChamber::layer(), CSCConstants::MAX_NUM_STRIPS, nplanes_hit_pretrig, CSCConstants::NUM_HALF_STRIPS, CSCConstants::NUM_LAYERS, CSCLayerGeometry::numberOfStrips(), numStrips, readComparatorDigis(), smartME1aME1b, CSCLayerGeometry::stagger(), stagger, theChamber, theEndcap, theRing, theSector, theStation, theSubsector, and theTrigChamber.

Referenced by CSCMotherboardME11::run(), and CSCMotherboard::run().

                                                                     {
  // This is the version of the run() function that is called when running
  // over the entire detector.  It gets the comparator & timing info from the
  // comparator digis and then passes them on to another run() function.

  // clear(); // redundant; called by L1MuCSCMotherboard.

  static std::atomic<bool> config_dumped{false};
  if ((infoV > 0 || isSLHC) && !config_dumped) {
    //std::cerr<<"**** CLCT run parameters dump ****"<<std::endl;
    dumpConfigParams();
    config_dumped = true;
  }

  // Get the number of strips and stagger of layers for the given chamber.
  // Do it only once per chamber.
  if (numStrips == 0) {
    CSCTriggerGeomManager* theGeom = CSCTriggerGeometry::get();
    CSCChamber* chamber = theGeom->chamber(theEndcap, theStation, theSector,
                          theSubsector, theTrigChamber);
    if (chamber) {
      numStrips = chamber->layer(1)->geometry()->numberOfStrips();
      // ME1/a is known to the readout hardware as strips 65-80 of ME1/1.
      // Still need to decide whether we do any special adjustments to
      // reconstruct LCTs in this region (3:1 ganged strips); for now, we
      // simply allow for hits in ME1/a and apply standard reconstruction
      // to them.
      // For SLHC ME1/1 is set to have 4 CFEBs in ME1/b and 3 CFEBs in ME1/a
      if (isME11) {
    if (!smartME1aME1b && !disableME1a && theRing == 1 ) numStrips = 80;
    if (!smartME1aME1b &&  disableME1a && theRing == 1 ) numStrips = 64;
    if ( smartME1aME1b && !disableME1a && theRing == 1 ) numStrips = 64;
    if ( smartME1aME1b && !disableME1a && theRing == 4 ) {
      if (gangedME1a) numStrips = 16;
      else numStrips = 48;
    }
      }

      if (numStrips > CSCConstants::MAX_NUM_STRIPS) {
    if (infoV >= 0) edm::LogError("L1CSCTPEmulatorSetupError")
      << "+++ Number of strips, " << numStrips
      << " found in ME" << ((theEndcap == 1) ? "+" : "-")
      << theStation << "/" << theRing << "/" << theChamber
      << " (sector " << theSector << " subsector " << theSubsector
      << " trig id. " << theTrigChamber << ")"
      << " exceeds max expected, " << CSCConstants::MAX_NUM_STRIPS
      << " +++\n" 
      << "+++ CSC geometry looks garbled; no emulation possible +++\n";
    numStrips = -1;
      }
      // The strips for a given layer may be offset from the adjacent layers.
      // This was done in order to improve resolution.  We need to find the
      // 'staggering' for each layer and make necessary conversions in our
      // arrays.  -JM
      // In the TMB-07 firmware, half-strips in odd layers (layers are
      // counted as ly0-ly5) are shifted by -1 half-strip, whereas in
      // the previous firmware versions half-strips in even layers
      // were shifted by +1 half-strip.  This difference is due to a
      // change from ly3 to ly2 in the choice of the key layer, and
      // the intention to keep half-strips in the key layer unchanged.
      // In the emulator, we use the old way for both cases, to avoid
      // negative half-strip numbers.  This will necessitate a
      // subtraction of 1 half-strip for TMB-07 later on. -SV.
      for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++) {
    stagger[i_layer] =
      (chamber->layer(i_layer+1)->geometry()->stagger() + 1) / 2;
      }
    }
    else {
      if (infoV >= 0) edm::LogError("L1CSCTPEmulatorConfigError")
    << " ME" << ((theEndcap == 1) ? "+" : "-")
        << theStation << "/" << theRing << "/" << theChamber
    << " (sector " << theSector << " subsector " << theSubsector
    << " trig id. " << theTrigChamber << ")"
    << " is not defined in current geometry! +++\n"
    << "+++ CSC geometry looks garbled; no emulation possible +++\n";
      numStrips = -1;
    }
  }

  if (numStrips < 0) {
    if (infoV >= 0) edm::LogError("L1CSCTPEmulatorConfigError")
      << " ME" << ((theEndcap == 1) ? "+" : "-")
      << theStation << "/" << theRing << "/" << theChamber
      << " (sector " << theSector << " subsector " << theSubsector
      << " trig id. " << theTrigChamber << "):"
      << " numStrips = " << numStrips << "; CLCT emulation skipped! +++";
    std::vector<CSCCLCTDigi> emptyV;
    return emptyV;
  }

  // Get comparator digis in this chamber.
  bool noDigis = getDigis(compdc);

  if (!noDigis) {
    // Get halfstrip (and possibly distrip) times from comparator digis.
    std::vector<int>
      halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS];
    std::vector<int>
      distrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS];
    if (isTMB07) { // TMB07 (latest) version: halfstrips only.
      readComparatorDigis(halfstrip);
    }
    else { // Earlier versions: halfstrips and distrips.
      readComparatorDigis(halfstrip, distrip);
    }

    // Pass arrays of halfstrips and distrips on to another run() doing the
    // LCT search.
    // If the number of layers containing digis is smaller than that
    // required to trigger, quit right away.  (If LCT-based digi suppression
    // is implemented one day, this condition will have to be changed
    // to the number of planes required to pre-trigger.)
    unsigned int layersHit = 0;
    for (int i_layer = 0; i_layer < CSCConstants::NUM_LAYERS; i_layer++) {
      for (int i_hstrip = 0; i_hstrip < CSCConstants::NUM_HALF_STRIPS;
       i_hstrip++) {
    if (!halfstrip[i_layer][i_hstrip].empty()) {layersHit++; break;}
      }
    }
    // Run the algorithm only if the probability for the pre-trigger
    // to fire is not null.  (Pre-trigger decisions are used for the
    // strip read-out conditions in DigiToRaw.)
    if (layersHit >= nplanes_hit_pretrig) run(halfstrip, distrip);
  }

  // Return vector of CLCTs.
  std::vector<CSCCLCTDigi> tmpV = getCLCTs();
  return tmpV;
}

void CSCCathodeLCTProcessor::run	(	const std::vector< int >	halfstrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS],
		const std::vector< int >	distrip[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS]
	)

Called in test mode and by the run(compdc) function; does the actual LCT finding.

Definition at line 679 of file CSCCathodeLCTProcessor.cc.

References bestCLCT, findLCTs(), findLCTsSLHC(), i, infoV, isME11, isMTCC, isSLHC, isTMB07, LogDebug, MAX_CLCT_BINS, secondCLCT, CSCCLCTDigi::setTrknmb(), smartME1aME1b, python.multivaluedict::sort(), theChamber, theEndcap, theRing, theSector, theStation, theSubsector, theTrigChamber, and use_dead_time_zoning.

                                                                                     {
  // This version of the run() function can either be called in a standalone
  // test, being passed the halfstrip and distrip times, or called by the 
  // run() function above.  It uses the findLCTs() method to find vectors
  // of LCT candidates. These candidates are sorted and the best two per bx
  // are returned.
  std::vector<CSCCLCTDigi> LCTlist;

  if (isTMB07) {
    // Upgrade version for ME11 with better dead-time handling
    if (isSLHC && smartME1aME1b && isME11 && use_dead_time_zoning) LCTlist = findLCTsSLHC(halfstrip);
    // TMB07 version of the CLCT algorithm.
    else LCTlist = findLCTs(halfstrip);
  }
  else if (isMTCC) { // MTCC version.
    LCTlist = findLCTs(halfstrip, distrip);
  }
  else { // Idealized algorithm of many years ago.
    std::vector<CSCCLCTDigi> halfStripLCTs = findLCTs(halfstrip, 1);
    std::vector<CSCCLCTDigi> diStripLCTs   = findLCTs(distrip,   0);
    // Put all the candidates into a single vector and sort them.
    for (unsigned int i = 0; i < halfStripLCTs.size(); i++)
      LCTlist.push_back(halfStripLCTs[i]);
    for (unsigned int i = 0; i < diStripLCTs.size(); i++)
      LCTlist.push_back(diStripLCTs[i]);
  }

  // LCT sorting.
  if (LCTlist.size() > 1)
    sort(LCTlist.begin(), LCTlist.end(), std::greater<CSCCLCTDigi>());

  // Take the best two candidates per bx.
  for (std::vector<CSCCLCTDigi>::const_iterator plct = LCTlist.begin();
       plct != LCTlist.end(); plct++) {
    int bx = plct->getBX();
    if (bx >= MAX_CLCT_BINS) {
      if (infoV > 0) edm::LogWarning("L1CSCTPEmulatorOutOfTimeCLCT")
    << "+++ Bx of CLCT candidate, " << bx << ", exceeds max allowed, "
    << MAX_CLCT_BINS-1 << "; skipping it... +++\n";
      continue;
    }

    if (!bestCLCT[bx].isValid()) bestCLCT[bx] = *plct;
    else if (!secondCLCT[bx].isValid()) {
      // Ignore CLCT if it is the same as the best (i.e. if the same
      // CLCT was found in both half- and di-strip pattern search).
      // This can never happen in the test beam and MTCC
      // implementations.
      if (!isMTCC && !isTMB07 && *plct == bestCLCT[bx]) continue;
      secondCLCT[bx] = *plct;
    }
  }

  for (int bx = 0; bx < MAX_CLCT_BINS; bx++) {
    if (bestCLCT[bx].isValid()) {
      bestCLCT[bx].setTrknmb(1);
      if (infoV > 0) LogDebug("CSCCathodeLCTProcessor")
    << bestCLCT[bx] << " found in ME" << ((theEndcap == 1) ? "+" : "-")
        << theStation << "/" << theRing << "/" << theChamber
    << " (sector " << theSector << " subsector " << theSubsector
    << " trig id. " << theTrigChamber << ")" << "\n";
    }
    if (secondCLCT[bx].isValid()) {
      secondCLCT[bx].setTrknmb(2);
      if (infoV > 0) LogDebug("CSCCathodeLCTProcessor")
    << secondCLCT[bx] << " found in ME" << ((theEndcap == 1) ? "+" : "-")
        << theStation << "/" << theRing << "/" << theChamber
    << " (sector " << theSector << " subsector " << theSubsector
    << " trig id. " << theTrigChamber << ")" << "\n";
    }
  }
  // Now that we have our best CLCTs, they get correlated with the best
  // ALCTs and then get sent to the MotherBoard.  -JM
}

void CSCCathodeLCTProcessor::setConfigParameters

(

const CSCDBL1TPParameters *

conf

)

Sets configuration parameters obtained via EventSetup mechanism.

Definition at line 421 of file CSCCathodeLCTProcessor.cc.

References checkConfigParameters(), CSCDBL1TPParameters::clctDriftDelay(), CSCDBL1TPParameters::clctFifoPretrig(), CSCDBL1TPParameters::clctFifoTbins(), CSCDBL1TPParameters::clctHitPersist(), CSCDBL1TPParameters::clctMinSeparation(), CSCDBL1TPParameters::clctNplanesHitPattern(), CSCDBL1TPParameters::clctNplanesHitPretrig(), CSCDBL1TPParameters::clctPidThreshPretrig(), drift_delay, dumpConfigParams(), fifo_pretrig, fifo_tbins, hit_persist, isTMB07, min_separation, nplanes_hit_pattern, nplanes_hit_pretrig, and pid_thresh_pretrig.

Referenced by CSCMotherboardME11::setConfigParameters(), and CSCMotherboard::setConfigParameters().

                                                                                {
  static std::atomic<bool> config_dumped{false};

  fifo_tbins   = conf->clctFifoTbins();
  fifo_pretrig = conf->clctFifoPretrig();
  hit_persist  = conf->clctHitPersist();
  drift_delay  = conf->clctDriftDelay();
  nplanes_hit_pretrig = conf->clctNplanesHitPretrig();
  nplanes_hit_pattern = conf->clctNplanesHitPattern();

  // TMB07 parameters.
  if (isTMB07) {
    pid_thresh_pretrig = conf->clctPidThreshPretrig();
    min_separation     = conf->clctMinSeparation();
  }

  // Check and print configuration parameters.
  checkConfigParameters();
  if (!config_dumped) {
    //std::cerr<<"**** CLCT setConfigParams parameters dump ****"<<std::endl;
    dumpConfigParams();
    config_dumped = true;
  }
}

void CSCCathodeLCTProcessor::setDefaultConfigParameters ( )

private

Set default values for configuration parameters.

Definition at line 399 of file CSCCathodeLCTProcessor.cc.

References def_drift_delay, def_fifo_pretrig, def_fifo_tbins, def_hit_persist, def_min_separation, def_nplanes_hit_pattern, def_nplanes_hit_pretrig, def_pid_thresh_pretrig, def_tmb_l1a_window_size, drift_delay, fifo_pretrig, fifo_tbins, hit_persist, isMTCC, isTMB07, min_separation, nplanes_hit_pattern, nplanes_hit_pretrig, pid_thresh_pretrig, and tmb_l1a_window_size.

Referenced by CSCCathodeLCTProcessor().

                                                        {
  // Set default values for configuration parameters.
  fifo_tbins   = def_fifo_tbins;
  fifo_pretrig = def_fifo_pretrig;
  hit_persist  = def_hit_persist;
  drift_delay  = def_drift_delay;
  nplanes_hit_pretrig = def_nplanes_hit_pretrig;
  nplanes_hit_pattern = def_nplanes_hit_pattern;

  isMTCC = false;

  // New TMB07 parameters.
  isTMB07 = true;
  if (isTMB07) {
    pid_thresh_pretrig = def_pid_thresh_pretrig;
    min_separation     = def_min_separation;
  }

  tmb_l1a_window_size = def_tmb_l1a_window_size;
}

void CSCCathodeLCTProcessor::setRing ( unsigned  r )

inline

Set ring number Has to be done for upgrade ME1a!

Definition at line 93 of file CSCCathodeLCTProcessor.h.

References alignCSCRings::r, and theRing.

Referenced by CSCMotherboardME11::CSCMotherboardME11().

{theRing = r;}

void CSCCathodeLCTProcessor::testDistripStagger ( )

private

Definition at line 2905 of file CSCCathodeLCTProcessor.cc.

References gather_cfg::cout, debug, distripStagger(), i, and CSCConstants::NUM_DI_STRIPS.

Referenced by readComparatorDigis().

                                                {
  // Author: Jason Mumford (mumford@physics.ucla.edu)
  // This routine tests the distripStagger routine.
  // @@
  bool debug = true;
  int test_triad[CSCConstants::NUM_DI_STRIPS], test_time[CSCConstants::NUM_DI_STRIPS];
  int test_digi[CSCConstants::NUM_DI_STRIPS];
  int distrip = 0;
  test_triad[distrip] = 3;    //After routine, I expect 4
  test_triad[distrip+1] = 3;  //                        4
  test_triad[distrip+2] = 3;  //                        4 
  test_triad[distrip+3] = 3;  //                        4
  test_triad[distrip+4] = 3;  //                        4
  test_triad[distrip+5] = 3;  //                        4
  test_triad[distrip+6] = 3;  //                        4
  test_triad[distrip+7] = 3;  //                        4
  test_triad[distrip+8] = 3;  //                        4
  test_triad[distrip+9] = 3;  //                        4
  test_triad[distrip+10] = 2;  //                       2

  test_time[distrip] = 4;     //      ""      ""        0
  test_time[distrip+1] = 10;  //                        4
  test_time[distrip+2] = 2;   //                        10
  test_time[distrip+3] = 0;   //                        2
  test_time[distrip+4] = 6;   //                        2
  test_time[distrip+5] = 8;   //                        2
  test_time[distrip+6] = 10;   //                        2
  test_time[distrip+7] = 1;   //                        2
  test_time[distrip+8] = 8;   //                        2
  test_time[distrip+9] = 5;   //                        2
  test_time[distrip+10] = 6;   //                        2

  std::cout << "\n ------------------------------------------------- \n";
  std::cout << "!!!!!!Testing distripStagger routine!!!!!!" << std::endl;
  std::cout << "Values before distripStagger routine:" << std::endl;
  for (int i=distrip; i<distrip+11; i++){
    test_digi[i] = 999;
    std::cout << "test_triad[" << i << "] = " << test_triad[i];
    std::cout << "   test_time[" << i << "] = " << test_time[i] << std::endl;
  }
  distripStagger(test_triad, test_time, test_digi, distrip, debug);
  std::cout << "Values after distripStagger routine:" << std::endl;
  for (int i=distrip; i<distrip+11; i++){
    std::cout << "test_triad[" << i << "] = " << test_triad[i];
    std::cout << "   test_time[" << i << "] = " << test_time[i] << std::endl;
  }
  std::cout << "\n ------------------------------------------------- \n \n";
}

void CSCCathodeLCTProcessor::testLCTs ( )

private

Definition at line 2954 of file CSCCathodeLCTProcessor.cc.

References CSCCLCTDigi::getBend(), CSCCLCTDigi::getBX(), CSCCLCTDigi::getCFEB(), CSCCLCTDigi::getKeyStrip(), CSCCLCTDigi::getPattern(), CSCCLCTDigi::getQuality(), CSCCLCTDigi::getStripType(), LogTrace, and MAX_CFEBS.

                                      {
  // test to make sure what goes into an LCT is what comes out.
  for (int ptn = 0; ptn < 8; ptn++) {
    for (int bend = 0; bend < 2; bend++) {
      for (int cfeb = 0; cfeb < MAX_CFEBS; cfeb++) {
    for (int key_strip = 0; key_strip < 32; key_strip++) {
      for (int bx = 0; bx < 7; bx++) {
        for (int stripType = 0; stripType < 2; stripType++) {
          for (int quality = 3; quality < 6; quality++) {
        CSCCLCTDigi thisLCT(1, quality, ptn, stripType, bend,
                    key_strip, cfeb, bx);
        if (ptn != thisLCT.getPattern())
          LogTrace("CSCCathodeLCTProcessor")
            << "pattern mismatch: " << ptn << " "
            << thisLCT.getPattern();
        if (bend != thisLCT.getBend())
          LogTrace("CSCCathodeLCTProcessor")
            << "bend mismatch: " << bend << " " << thisLCT.getBend();
        if (cfeb != thisLCT.getCFEB()) 
          LogTrace("CSCCathodeLCTProcessor")
            << "cfeb mismatch: " << cfeb << " " << thisLCT.getCFEB();
        if (key_strip != thisLCT.getKeyStrip())
          LogTrace("CSCCathodeLCTProcessor")
            << "strip mismatch: " << key_strip << " "
            << thisLCT.getKeyStrip();
        if (bx != thisLCT.getBX())
          LogTrace("CSCCathodeLCTProcessor")
            << "bx mismatch: " << bx << " " << thisLCT.getBX();
        if (stripType != thisLCT.getStripType())
          LogTrace("CSCCathodeLCTProcessor")
            << "Strip Type mismatch: " << stripType << " "
            << thisLCT.getStripType();
        if (quality != thisLCT.getQuality())
          LogTrace("CSCCathodeLCTProcessor")
            << "quality mismatch: " << quality << " "
            << thisLCT.getQuality();
          }
        }
      }
    }
      }
    }
  }
}

void CSCCathodeLCTProcessor::testPatterns ( )

private

Definition at line 3040 of file CSCCathodeLCTProcessor.cc.

References gather_cfg::cout, relativeConstraints::empty, findLCTs(), findNumLayersHit(), getPattern(), isTMB07, CSCConstants::KEY_CLCT_LAYER, CSCConstants::KEY_CLCT_LAYER_PRE_TMB07, CSCConstants::NUM_HALF_STRIPS, CSCConstants::NUM_LAYERS, convertSQLitetoXML_cfg::output, pattern, and python.entryComment::results.

                                          {
//generate all possible combinations of hits in a given area and see what we find.
// Benn Tannenbaum 21 June 2001
  
  //there are 16 strips in our uber-pattern, each of which can be on or off.
  // 2^16 = 65536
  for (int possibleHits = 0; possibleHits < 65536; possibleHits++) {
    std::vector<int> stripsHit[CSCConstants::NUM_LAYERS][CSCConstants::NUM_HALF_STRIPS];
    //assign one bit to each strip in an array. I'll start centered around strip 10.
    stripsHit[0][ 9].push_back(( possibleHits &     1 ) != 0);     // 2^0
    stripsHit[0][10].push_back(( possibleHits &     2 ) != 0);     // 2^1
    stripsHit[0][11].push_back(( possibleHits &     4 ) != 0);     // 2^2
    stripsHit[1][ 9].push_back(( possibleHits &     8 ) != 0);     // 2^3
    stripsHit[1][10].push_back(( possibleHits &    16 ) != 0);     // 2^4
    stripsHit[1][11].push_back(( possibleHits &    32 ) != 0);     // 2^5
    stripsHit[2][ 9].push_back(( possibleHits &    64 ) != 0);     // 2^6
    stripsHit[2][10].push_back(( possibleHits &   128 ) != 0);     // 2^7
    stripsHit[2][11].push_back(( possibleHits &   256 ) != 0);     // 2^8
    stripsHit[3][10].push_back(( possibleHits &   512 ) != 0);     // 2^9
    stripsHit[4][ 9].push_back(( possibleHits &  1024 ) != 0);     // 2^10
    stripsHit[4][10].push_back(( possibleHits &  2048 ) != 0);     // 2^11
    stripsHit[4][11].push_back(( possibleHits &  4096 ) != 0);     // 2^12
    stripsHit[5][ 9].push_back(( possibleHits &  8192 ) != 0);     // 2^13
    stripsHit[5][10].push_back(( possibleHits & 16384 ) != 0);     // 2^14
    stripsHit[5][11].push_back(( possibleHits & 32768 ) != 0);     // 2^15
    int numLayersHit = findNumLayersHit(stripsHit);
    std::vector <CSCCLCTDigi> results = findLCTs(stripsHit, 1);
// print out whatever we find-- but only ones where 4 or more layers are hit
// OR ones where we find something
// key: X    a hit there and was used to find pattern
//      x    a hit not involved in pattern
//      _    empty strip
//      o    a hit was there, but no pattern was found
    if (numLayersHit > 3 || results.size() > 0) {
      std::cout<<"Input "<<possibleHits<<"/"<< 65536 <<" # Found Patterns "<<results.size()<<std::endl<<" ";
      for (int layer = 0; layer < CSCConstants::NUM_LAYERS; layer++) {
    if ((isTMB07  && layer != CSCConstants::KEY_CLCT_LAYER - 1) || 
        (!isTMB07 && layer != CSCConstants::KEY_CLCT_LAYER_PRE_TMB07 - 1)) {
      for (int strip = 9; strip < 12; strip++) {
        if (!stripsHit[layer][strip].empty()) {
          if (results.size() > 0) {
            int thePatternStrip = strip - (results[0].getKeyStrip() - 2) + 3*layer;
        if ((isTMB07 && layer>=CSCConstants::KEY_CLCT_LAYER) ||
            (!isTMB07 && layer>=CSCConstants::KEY_CLCT_LAYER_PRE_TMB07))
          thePatternStrip -= 2;

            if (pattern[results[0].getPattern()][thePatternStrip] == layer)
        {
          std::cout<<"X";
        } else {
          std::cout<<"x";
        }
              } else {
            std::cout<<"o";
              }
        } else {
          std::cout<<"_";
        }
      }
      std::cout<<"   ";
      for (unsigned int output = 0; output < results.size(); output++) {
        int minStrip;
        if ((isTMB07 && layer < CSCConstants::KEY_CLCT_LAYER-1) ||
        (!isTMB07 && layer < CSCConstants::KEY_CLCT_LAYER_PRE_TMB07-1))  {
          minStrip = 3*layer;
        } else {
          minStrip = 3*layer - 2;// since on the key layer we only have 1 strip
        }
            for (int strip = minStrip; strip < minStrip + 3; strip++) {
          if (layer == pattern[results[output].getPattern()][strip]) {
        std::cout<<"X";
          } else {
        std::cout<<"_";
          }
        }
        std::cout<<"  ";
          }
    } else {
          if (!stripsHit[layer][10].empty()) {
        std::cout<<" X ";
      } else {
        std::cout<<" _ ";
      }
      for (unsigned int output = 0; output < results.size(); output++)
        std::cout<<"    X   ";
    }
    if (layer < static_cast<int>(results.size()) ) {
      std::cout<<results[layer];
      std::cout<<" ";
    } else {
      std::cout<<" "<<std::endl<<" ";
    }
      }
    }
  }
}

Member Data Documentation

unsigned int CSCCathodeLCTProcessor::best_pid[CSCConstants::NUM_HALF_STRIPS]

private

Definition at line 256 of file CSCCathodeLCTProcessor.h.

Referenced by findLCTs(), findLCTsSLHC(), preTrigger(), and ptnFinding().

CSCCLCTDigi CSCCathodeLCTProcessor::bestCLCT[MAX_CLCT_BINS]

Best LCT in this chamber, as found by the processor.

Definition at line 72 of file CSCCathodeLCTProcessor.h.

Referenced by clear(), getCLCTs(), CSCMotherboardME11::run(), CSCMotherboard::run(), and run().

const int CSCCathodeLCTProcessor::cfeb_strips = { 8, 32}

staticprivate

Number of di-strips/half-strips per CFEB.

Definition at line 191 of file CSCCathodeLCTProcessor.h.

Referenced by dumpDigis(), findLCTs(), findLCTsSLHC(), latchLCTs(), preTrigLookUp(), and priorityEncode().

unsigned int CSCCathodeLCTProcessor::clct_state_machine_zone

private

Definition at line 164 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), and findLCTsSLHC().

const unsigned int CSCCathodeLCTProcessor::def_drift_delay = 2

staticprivate

Definition at line 178 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), and setDefaultConfigParameters().

const unsigned int CSCCathodeLCTProcessor::def_fifo_pretrig = 7

staticprivate

Definition at line 177 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), and setDefaultConfigParameters().

const unsigned int CSCCathodeLCTProcessor::def_fifo_tbins = 12

staticprivate

Default values of configuration parameters.

Definition at line 177 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), and setDefaultConfigParameters().

const unsigned int CSCCathodeLCTProcessor::def_hit_persist = 6

staticprivate

Definition at line 178 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), and setDefaultConfigParameters().

const unsigned int CSCCathodeLCTProcessor::def_min_separation = 10

staticprivate

Definition at line 181 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), and setDefaultConfigParameters().

const unsigned int CSCCathodeLCTProcessor::def_nplanes_hit_pattern = 4

staticprivate

Definition at line 180 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), and setDefaultConfigParameters().

const unsigned int CSCCathodeLCTProcessor::def_nplanes_hit_pretrig = 2

staticprivate

Definition at line 179 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), and setDefaultConfigParameters().

const unsigned int CSCCathodeLCTProcessor::def_pid_thresh_pretrig = 2

staticprivate

Definition at line 181 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), and setDefaultConfigParameters().

const unsigned int CSCCathodeLCTProcessor::def_tmb_l1a_window_size = 7

staticprivate

Definition at line 182 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), and setDefaultConfigParameters().

std::vector<CSCComparatorDigi> CSCCathodeLCTProcessor::digiV[CSCConstants::NUM_LAYERS]

private

Definition at line 134 of file CSCCathodeLCTProcessor.h.

Referenced by getDigis(), and readComparatorDigis().

bool CSCCathodeLCTProcessor::disableME1a

private

Definition at line 157 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), getDigis(), and run().

unsigned int CSCCathodeLCTProcessor::drift_delay

private

Definition at line 148 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), CSCCathodeLCTProcessor(), dumpConfigParams(), findLCTs(), findLCTsSLHC(), getKeyStripData(), setConfigParameters(), and setDefaultConfigParameters().

bool CSCCathodeLCTProcessor::dynamic_state_machine_zone

private

Definition at line 165 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), and findLCTsSLHC().

int CSCCathodeLCTProcessor::early_tbins

private

VK: separate handle for early time bins

Definition at line 160 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), and readoutCLCTs().

unsigned int CSCCathodeLCTProcessor::fifo_pretrig

private

Definition at line 147 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), CSCCathodeLCTProcessor(), dumpConfigParams(), setConfigParameters(), and setDefaultConfigParameters().

unsigned int CSCCathodeLCTProcessor::fifo_tbins

private

Configuration parameters.

Definition at line 147 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), CSCCathodeLCTProcessor(), dumpConfigParams(), findLCTs(), findLCTsSLHC(), preTrigger(), ptnFinding(), readComparatorDigis(), setConfigParameters(), and setDefaultConfigParameters().

int CSCCathodeLCTProcessor::first_bx_corrected[CSCConstants::NUM_HALF_STRIPS]

private

Definition at line 258 of file CSCCathodeLCTProcessor.h.

Referenced by findLCTsSLHC(), and ptnFinding().

bool CSCCathodeLCTProcessor::gangedME1a

private

Definition at line 157 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), and run().

unsigned int CSCCathodeLCTProcessor::hit_persist

private

Definition at line 148 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), CSCCathodeLCTProcessor(), dumpConfigParams(), hitIsGood(), ptnFinding(), pulseExtension(), readComparatorDigis(), setConfigParameters(), and setDefaultConfigParameters().

int CSCCathodeLCTProcessor::infoV

private

Verbosity level: 0: no print (default). 1: print only CLCTs found. 2: info at every step of the algorithm. 3: add special-purpose prints.

Definition at line 117 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), CSCCathodeLCTProcessor(), findLCTs(), findLCTsSLHC(), getDigis(), getKeyStripData(), latchLCTs(), preTrigger(), preTrigLookUp(), priorityEncode(), ptnFinding(), pulseExtension(), readComparatorDigis(), readoutCLCTs(), and run().

bool CSCCathodeLCTProcessor::isME11

private

Definition at line 129 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), and run().

bool CSCCathodeLCTProcessor::isMTCC

private

Flag for "real" - not idealized - version of the algorithm.

Definition at line 138 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), run(), and setDefaultConfigParameters().

bool CSCCathodeLCTProcessor::ispretrig[CSCConstants::NUM_HALF_STRIPS]

private

Definition at line 265 of file CSCCathodeLCTProcessor.h.

Referenced by findLCTsSLHC(), and preTrigger().

bool CSCCathodeLCTProcessor::isSLHC

private

Flag for SLHC studies.

Definition at line 144 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), and run().

bool CSCCathodeLCTProcessor::isTMB07

private

Flag for 2007 firmware version.

Definition at line 141 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), CSCCathodeLCTProcessor(), dumpConfigParams(), printPatterns(), readComparatorDigis(), run(), setConfigParameters(), setDefaultConfigParameters(), and testPatterns().

unsigned int CSCCathodeLCTProcessor::min_separation

private

Definition at line 150 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), CSCCathodeLCTProcessor(), dumpConfigParams(), markBusyKeys(), setConfigParameters(), and setDefaultConfigParameters().

unsigned int CSCCathodeLCTProcessor::nhits[CSCConstants::NUM_HALF_STRIPS]

private

Definition at line 257 of file CSCCathodeLCTProcessor.h.

Referenced by findLCTs(), findLCTsSLHC(), preTrigger(), and ptnFinding().

unsigned int CSCCathodeLCTProcessor::nplanes_hit_pattern

private

Definition at line 149 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), CSCCathodeLCTProcessor(), dumpConfigParams(), findLCTs(), findLCTsSLHC(), getKeyStripData(), setConfigParameters(), and setDefaultConfigParameters().

unsigned int CSCCathodeLCTProcessor::nplanes_hit_pretrig

private

Definition at line 149 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), CSCCathodeLCTProcessor(), dumpConfigParams(), preTrigger(), preTrigLookUp(), priorityEncode(), ptnFinding(), run(), setConfigParameters(), and setDefaultConfigParameters().

int CSCCathodeLCTProcessor::numStrips

private

Definition at line 131 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), findLCTs(), findLCTsSLHC(), preTrigger(), readComparatorDigis(), and run().

const int CSCCathodeLCTProcessor::pattern

static

Definition at line 98 of file CSCCathodeLCTProcessor.h.

Referenced by getPattern(), printPatterns(), and testPatterns().

const int CSCCathodeLCTProcessor::pattern2007

static

Definition at line 102 of file CSCCathodeLCTProcessor.h.

Referenced by findLCTs(), findLCTsSLHC(), and ptnFinding().

const int CSCCathodeLCTProcessor::pattern2007_offset

static

Initial value:

=
  {  -5,  -4,  -3,  -2,  -1,   0,   1,   2,   3,   4,   5,
                    -2,  -1,   0,   1,   2,
                               0,
                    -2,  -1,   0,   1,   2,
          -4,  -3,  -2,  -1,   0,   1,   2,   3,   4,
     -5,  -4,  -3,  -2,  -1,   0,   1,   2,   3,   4,   5 }

Definition at line 101 of file CSCCathodeLCTProcessor.h.

Referenced by ptnFinding().

unsigned int CSCCathodeLCTProcessor::pid_thresh_pretrig

private

Definition at line 150 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), CSCCathodeLCTProcessor(), dumpConfigParams(), preTrigger(), ptnFinding(), setConfigParameters(), and setDefaultConfigParameters().

const int CSCCathodeLCTProcessor::pre_hit_pattern

static

Initial value:

= {
  { 999,  0,  0,  0,  999,
    999,  1,  1,  1,  999,
    999,  2,  2,  2,  999,
              3,                
    999,  4,  4,  4,  999,
    999,  5,  5,  5,  999},
  
  { 999, -1,  0,  1,  999,
    999, -1,  0,  1,  999,
    999, -1,  0,  1,  999,
              0,                
    999, -1,  0,  1,  999,
    999, -1,  0,  1,  999}
}

Definition at line 97 of file CSCCathodeLCTProcessor.h.

Referenced by getKeyStripData(), latchLCTs(), preTrigger(), and preTrigLookUp().

unsigned int CSCCathodeLCTProcessor::pretrig_trig_zone

private

VK: allow triggers only in +-pretrig_trig_zone around pretriggers

Definition at line 168 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), and findLCTsSLHC().

bool CSCCathodeLCTProcessor::readout_earliest_2

private

VK: whether to readout only the earliest two LCTs in readout window

Definition at line 174 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), and readoutCLCTs().

CSCCLCTDigi CSCCathodeLCTProcessor::secondCLCT[MAX_CLCT_BINS]

Second best LCT in this chamber, as found by the processor.

Definition at line 75 of file CSCCathodeLCTProcessor.h.

Referenced by clear(), getCLCTs(), CSCMotherboardME11::run(), CSCMotherboard::run(), and run().

bool CSCCathodeLCTProcessor::smartME1aME1b

private

VK: special configuration parameters for ME1a treatment

Definition at line 157 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), getDigis(), and run().

int CSCCathodeLCTProcessor::stagger[CSCConstants::NUM_LAYERS]

private

Definition at line 132 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), findLCTs(), findLCTsSLHC(), preTrigger(), ptnFinding(), readComparatorDigis(), and run().

int CSCCathodeLCTProcessor::start_bx_shift

private

VK: some quick and dirty fix to reduce CLCT deadtime

Definition at line 154 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), findLCTs(), findLCTsSLHC(), and pulseExtension().

unsigned int CSCCathodeLCTProcessor::theChamber

private

Definition at line 128 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), dumpDigis(), getDigis(), and run().

const unsigned CSCCathodeLCTProcessor::theEndcap

private

Chamber id (trigger-type labels).

Definition at line 120 of file CSCCathodeLCTProcessor.h.

Referenced by dumpDigis(), getDigis(), and run().

std::vector<int> CSCCathodeLCTProcessor::thePreTriggerBXs

private

Definition at line 135 of file CSCCathodeLCTProcessor.h.

Referenced by clear(), findLCTs(), and preTriggerBXs().

unsigned int CSCCathodeLCTProcessor::theRing

private

Definition at line 127 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), dumpDigis(), getDigis(), run(), and setRing().

const unsigned CSCCathodeLCTProcessor::theSector

private

Definition at line 122 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), getDigis(), and run().

const unsigned CSCCathodeLCTProcessor::theStation

private

Definition at line 121 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), dumpDigis(), getDigis(), and run().

const unsigned CSCCathodeLCTProcessor::theSubsector

private

Definition at line 123 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), getDigis(), and run().

const unsigned CSCCathodeLCTProcessor::theTrigChamber

private

Definition at line 124 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), getDigis(), and run().

unsigned int CSCCathodeLCTProcessor::tmb_l1a_window_size

private

Definition at line 151 of file CSCCathodeLCTProcessor.h.

Referenced by checkConfigParameters(), CSCCathodeLCTProcessor(), readoutCLCTs(), and setDefaultConfigParameters().

bool CSCCathodeLCTProcessor::use_corrected_bx

private

VK: whether to use corrected_bx instead of pretrigger BX

Definition at line 171 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), and findLCTsSLHC().

bool CSCCathodeLCTProcessor::use_dead_time_zoning

private

VK: use of localized dead-time zones

Definition at line 163 of file CSCCathodeLCTProcessor.h.

Referenced by CSCCathodeLCTProcessor(), and run().