#include "AltroConfig.h"

AltroConfig::AltroConfig(int32_t configType, uint32_t debuglevel) {
  //
  // Constructor
  //
  fdebuglevel = debuglevel;
  fconfigType = configType;
  
  fPm = new Mapping();
}

AltroConfig::~AltroConfig() {
  //
  // Destructor
  //
  delete fPm;
  fPm = NULL;
}

uint32_t AltroConfig::getState(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
			       uint32_t fec, uint32_t altro) {
  //
  // ALTRO is enabled/disabled
  //
  uint32_t retval = 1;
  return retval;
}

uint32_t AltroConfig::getState(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
			       uint32_t fec, uint32_t altro, uint32_t channel) {
  //
  // channel is on/off
  //
  uint32_t retval = 1;
  if ( (fconfigType == fTPC.HI1Run()) || (fconfigType == fTPC.HI2Run()     ) ||
       (fconfigType == fTPC.HI3Run()) || (fconfigType == fTPC.HI4Run()     ) ||
       (fconfigType == fTPC.HI5Run()) || (fconfigType == fTPC.HI6Run()     ) ||
       (fconfigType == fTPC.HI7Run()) || (fconfigType == fTPC.ppRun()      ) ||
       (fconfigType == fTPC.pp2Run()) || (fconfigType == fTPC.pp3Run()     ) ||
       (fconfigType == fTPC.pp4Run()) || (fconfigType == fTPC.playbackRun()) ) {
    // noisy region
    if ( (rcu==0) && (branch==0) && (fec==8) && (altro==3) ) retval = 0;
  }
  return retval;
}

uint32_t AltroConfig::getK1(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
			    uint32_t fec, uint32_t altro, uint32_t channel) {
  //
  // Tail Cancellation parameter for single channel (16 bit).
  //
  uint32_t retval = 0;
  if ( (fconfigType == fTPC.HI1Run()) || (fconfigType == fTPC.HI2Run()) ||
       (fconfigType == fTPC.HI3Run()) || (fconfigType == fTPC.HI4Run()) ||
       (fconfigType == fTPC.pedestalFilterRun()) ) {
    if (rcu < 2) retval = 64386;  // IROC
    else         retval = 63675;  // OROC
  }
  return retval;
}

uint32_t AltroConfig::getK2(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
			    uint32_t fec, uint32_t altro, uint32_t channel) {
  //
  // Tail Cancellation parameter for single channel (16 bit).
  //
  uint32_t retval = 0;
  if ( (fconfigType == fTPC.HI1Run()) || (fconfigType == fTPC.HI2Run()) ||
       (fconfigType == fTPC.HI3Run()) || (fconfigType == fTPC.HI4Run()) ||
       (fconfigType == fTPC.pedestalFilterRun()) ) {
    if (rcu < 2) retval = 65184;  // IROC
    else         retval = 65355;  // OROC
  }
  return retval;
}

uint32_t AltroConfig::getK3(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
			    uint32_t fec, uint32_t altro, uint32_t channel) {
  //
  // Tail Cancellation parameter for single channel (16 bit).
  //
  uint32_t retval = 0;
  if ( (fconfigType == fTPC.HI1Run()) || (fconfigType == fTPC.HI2Run()) ||
       (fconfigType == fTPC.HI3Run()) || (fconfigType == fTPC.HI4Run()) ||
       (fconfigType == fTPC.pedestalFilterRun()) ) {
    if (rcu < 2) retval = 77;   // IROC
    else         retval = 218;  // OROC
  }
  return retval;
}

uint32_t AltroConfig::getL1(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
			    uint32_t fec, uint32_t altro, uint32_t channel) {
  //
  // Tail Cancellation parameter for single channel (16 bit).
  //
  uint32_t retval = 0;
  if ( (fconfigType == fTPC.HI1Run()) || (fconfigType == fTPC.HI2Run()) ||
       (fconfigType == fTPC.HI3Run()) || (fconfigType == fTPC.HI4Run()) ||
       (fconfigType == fTPC.pedestalFilterRun()) ) {
    if (rcu < 2) retval = 64675;  // IROC
    else         retval = 63917;  // OROC
  }
  return retval;
}

uint32_t AltroConfig::getL2(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
			    uint32_t fec, uint32_t altro, uint32_t channel) {
  //
  // Tail Cancellation parameter for single channel (16 bit).
  //
  uint32_t retval = 0;
  if ( (fconfigType == fTPC.HI1Run()) || (fconfigType == fTPC.HI2Run()) ||
       (fconfigType == fTPC.HI3Run()) || (fconfigType == fTPC.HI4Run()) ||
       (fconfigType == fTPC.pedestalFilterRun()) ) {
    if (rcu < 2) retval = 64950;  // IROC
    else         retval = 65263;  // OROC
  }
  return retval;
}

uint32_t AltroConfig::getL3(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
			    uint32_t fec, uint32_t altro, uint32_t channel) {
  //
  // Tail Cancellation parameter for single channel  (16 bit).
  //
  uint32_t retval = 0;
  if ( (fconfigType == fTPC.HI1Run()) || (fconfigType == fTPC.HI2Run()) ||
       (fconfigType == fTPC.HI3Run()) || (fconfigType == fTPC.HI4Run()) ||
       (fconfigType == fTPC.pedestalFilterRun()) ) {
    if (rcu < 2) retval = 0;  // IROC
    else         retval = 0;  // OROC
  }
  return retval;
}

uint32_t AltroConfig::getFPED(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
			      uint32_t fec, uint32_t altro, uint32_t channel) {
  //
  // Fixed pedestal parameter for single channel (10 bit).
  //
  uint32_t retval = 0; // Values are updated regularily from pedestal runs
  return retval;
}

uint32_t AltroConfig::getZSTHR_OFFSET(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				      uint32_t fec, uint32_t altro) {
  //
  // Zero suppression offset for this chip.
  //
  uint32_t retval = 0;
  // Dec. 2007: black events have offset of 50. ZS events should have no offset
  if (fconfigType == fTPC.blackFpedRun())   retval = 50;
  if (fconfigType == fTPC.blackPedMemRun()) retval = 50;
  if (fconfigType == fTPC.blackVpedRun())   retval = 50;
  return retval;
}

uint32_t AltroConfig::getZSTHR_ZS_THR(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				      uint32_t fec, uint32_t altro) {
  //
  // Zero Suppression threshold for this chip. Usually later updated by noise data
  //
  uint32_t retval = 0;
  if (fconfigType == fTPC.Test())                      retval = 3;
  if (fconfigType == fTPC.zeroSuppressionFpedRun())    retval = 3;
  if (fconfigType == fTPC.zeroSuppressionVpedRun())    retval = 3;
  if (fconfigType == fTPC.zeroSuppressionPedMemRun())  retval = 3;
  if (fconfigType == fTPC.ppRun())                     retval = 3;
  if (fconfigType == fTPC.pp2Run())                    retval = 3;
  if (fconfigType == fTPC.pp3Run())                    retval = 3;
  if (fconfigType == fTPC.pp4Run())                    retval = 3;
  if (fconfigType == fTPC.HI1Run())                    retval = 3;
  if (fconfigType == fTPC.HI2Run())                    retval = 3;
  if (fconfigType == fTPC.HI3Run())                    retval = 3;
  if (fconfigType == fTPC.HI4Run())                    retval = 3;
  if (fconfigType == fTPC.HI5Run())                    retval = 3;
  if (fconfigType == fTPC.HI6Run())                    retval = 3;
  if (fconfigType == fTPC.HI7Run())                    retval = 3;
  if (fconfigType == fTPC.laserRun())                  retval = 3;
  if (fconfigType == fTPC.pulserRun())                 retval = 3;
  if (fconfigType == fTPC.playbackRun())               retval = 3;
  return retval;
}


uint32_t AltroConfig::getBCTHR_THR_HI(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				      uint32_t fec, uint32_t altro) {
  //
  // Upper threshold for second baseline correction filter (10 bit).
  //
  uint32_t retval = 0;
  if (fconfigType == fTPC.Test())                      retval = 3;
  if (fconfigType == fTPC.zeroSuppressionFpedRun())    retval = 3;
  if (fconfigType == fTPC.zeroSuppressionVpedRun())    retval = 3;
  if (fconfigType == fTPC.zeroSuppressionPedMemRun())  retval = 3;
  if (fconfigType == fTPC.ppRun())                     retval = 3;
  if (fconfigType == fTPC.pp2Run())                    retval = 3;
  if (fconfigType == fTPC.pp3Run())                    retval = 3;
  if (fconfigType == fTPC.pp4Run())                    retval = 3;
  if (fconfigType == fTPC.HI1Run())                    retval = 3;
  if (fconfigType == fTPC.HI2Run())                    retval = 3;
  if (fconfigType == fTPC.HI3Run())                    retval = 3;
  if (fconfigType == fTPC.HI4Run())                    retval = 3;
  if (fconfigType == fTPC.HI5Run())                    retval = 3;
  if (fconfigType == fTPC.HI6Run())                    retval = 3;
  if (fconfigType == fTPC.HI7Run())                    retval = 3;
  if (fconfigType == fTPC.laserRun())                  retval = 3;
  if (fconfigType == fTPC.pulserRun())                 retval = 3;
  if (fconfigType == fTPC.playbackRun())               retval = 3;
  return retval;
}

uint32_t AltroConfig::getBCTHR_THR_LOW(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				       uint32_t fec, uint32_t altro) {
  //
  // Lower Threshold for second baseline correction filter (10 bit).
  //
  uint32_t retval = 0;
  if (fconfigType == fTPC.Test())                      retval = 3;
  if (fconfigType == fTPC.zeroSuppressionFpedRun())    retval = 3;
  if (fconfigType == fTPC.zeroSuppressionVpedRun())    retval = 3;
  if (fconfigType == fTPC.zeroSuppressionPedMemRun())  retval = 3;
  if (fconfigType == fTPC.ppRun())                     retval = 3;
  if (fconfigType == fTPC.pp2Run())                    retval = 3;
  if (fconfigType == fTPC.pp3Run())                    retval = 3;
  if (fconfigType == fTPC.pp4Run())                    retval = 3;
  if (fconfigType == fTPC.HI1Run())                    retval = 3;
  if (fconfigType == fTPC.HI2Run())                    retval = 3;
  if (fconfigType == fTPC.HI3Run())                    retval = 3;
  if (fconfigType == fTPC.HI4Run())                    retval = 3;
  if (fconfigType == fTPC.HI5Run())                    retval = 3;
  if (fconfigType == fTPC.HI6Run())                    retval = 3;
  if (fconfigType == fTPC.HI7Run())                    retval = 3;
  if (fconfigType == fTPC.laserRun())                  retval = 3;
  if (fconfigType == fTPC.pulserRun())                 retval = 3;
  if (fconfigType == fTPC.playbackRun())               retval = 3;
  return retval;
}

uint32_t AltroConfig::getTRCFG_ACQ_START(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
					 uint32_t fec, uint32_t altro) {
  //
  // Start of Aquisition Window. To minimise noise caused by the digital
  // processing, this parameter is set differently for all ALTROs in four
  // different groups, except for the simplest pedestal run configuration.
  // We can also cut out the gating grid pulses here!
  // 
  int retval = 0;
  int minval = 48;  // minimum time bin

  // Default: desyncronise ALTROs
  if ( (altro == 0) || (altro == 2) ) retval = 0;
  if ( (altro == 1) || (altro == 3) ) retval = 1;
  if ( (altro == 4) || (altro == 6) ) retval = 2;
  if ( (altro == 5) || (altro == 7) ) retval = 3;

  // All ALTROs atart at same time
  if (fconfigType == fTPC.pedestalNonDesyncdRun()) retval = 0;
  if (fconfigType == fTPC.readbackRun())           retval = 0;

  // setup with FPED subtraction
  if ( (fconfigType == fTPC.ppRun())       || (fconfigType == fTPC.laserRun())            ||
       (fconfigType == fTPC.pulserRun())   || (fconfigType == fTPC.pp4Run())              ||
       (fconfigType == fTPC.HI1Run())      || (fconfigType == fTPC.HI2Run())              ||
       (fconfigType == fTPC.HI3Run())      || (fconfigType == fTPC.HI4Run())              ||
       (fconfigType == fTPC.HI5Run())      || (fconfigType == fTPC.HI6Run())              ||
       (fconfigType == fTPC.playbackRun()) || (fconfigType == fTPC.pedestalFilterRun()) ) {
    // cut gating grid signal and desyncronise ALTROs
    if ( (altro == 0) || (altro == 2) ) retval = minval+0;
    if ( (altro == 1) || (altro == 3) ) retval = minval+1;
    if ( (altro == 4) || (altro == 6) ) retval = minval+2;
    if ( (altro == 5) || (altro == 7) ) retval = minval+3;
  }

  if ( (fconfigType == fTPC.pp3Run()) || (fconfigType == fTPC.HI7Run()) ) {
    fPm->SetTimeBinLength(0.1); // in mus
    retval = (int)(fPm->GetMinDriftTime(fPm->GetMaxRadialDistance(branch, fec, altro, rcu)));
    retval -= ((retval-minval)%4 + 4);
    if ( retval < minval ) retval = minval;
    // Desyncronise ALTROs
    if ( (altro == 1) || (altro == 3) ) retval += 1;
    if ( (altro == 4) || (altro == 6) ) retval += 2;
    if ( (altro == 5) || (altro == 7) ) retval += 3;
    // cut gating grid closing pulse
    if ( retval > 980 ) retval = 980;
  }
  return (uint32_t)retval;
}

uint32_t AltroConfig::getTRCFG_ACQ_END(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				       uint32_t fec, uint32_t altro) {
  //
  // End of Aquisition Window
  // We can also cut out the gating grid pulses here!
  //
  uint32_t retval = 980;
  return retval;
}

uint32_t AltroConfig::getDPCFG_BC1_MODE(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
					uint32_t fec, uint32_t altro) {
  //
  // The data path configuration. Most important ones:
  //    0: din - FPED         (Fixed pedestals)
  //    1: din - Ped(t)       (Pedestal Memory)
  //    4: din - FPED - VPED
  //   10: Ped(t) - FPED      (Pedestal memory minus fixed pedestal)
  //
  uint32_t retval = faltro.DIN_FPD;

  if (fconfigType == fTPC.Test())                     retval = faltro.FT_FPD;
  if (fconfigType == fTPC.blackVpedRun())             retval = faltro.DIN_VPD_FPD;
  if (fconfigType == fTPC.zeroSuppressionVpedRun())   retval = faltro.DIN_VPD_FPD;
  if (fconfigType == fTPC.blackPedMemRun())           retval = faltro.DIN_FT;
  if (fconfigType == fTPC.zeroSuppressionPedMemRun()) retval = faltro.DIN_FT;
  if (fconfigType == fTPC.pp2Run())                   retval = faltro.DIN_FT;
  if (fconfigType == fTPC.playbackRun())              retval = faltro.FT_FPD;

  return retval;
}

uint32_t AltroConfig::getDPCFG_BC1_POL(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				       uint32_t fec, uint32_t altro) {
  //
  // Polarity. If set to 1, ADC data is inverted.
  //
  uint32_t retval = 0;
  return retval;
}

uint32_t AltroConfig::getDPCFG_BC2_PRE(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				       uint32_t fec, uint32_t altro) {
  //
  // Presamples to be excluded from 2nd baseline correction (0 ... 3). 
  //
  uint32_t retval = 0;
  if (fconfigType == fTPC.HI1Run()) retval = 1;
  if (fconfigType == fTPC.HI2Run()) retval = 1;
  if (fconfigType == fTPC.HI3Run()) retval = 1;
  if (fconfigType == fTPC.HI4Run()) retval = 1;
  if (fconfigType == fTPC.HI5Run()) retval = 1;
  if (fconfigType == fTPC.HI6Run()) retval = 1;
  if (fconfigType == fTPC.HI7Run()) retval = 1;
  return retval;
}

uint32_t AltroConfig::getDPCFG_BC2_POST(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
					uint32_t fec, uint32_t altro) {
  //
  // Postsamples to be excluded from 2nd baseline correction (0 ... 15). 
  //
  uint32_t retval = 0;
  if (fconfigType == fTPC.HI1Run()) retval = 3;
  if (fconfigType == fTPC.HI2Run()) retval = 3;
  if (fconfigType == fTPC.HI3Run()) retval = 3;
  if (fconfigType == fTPC.HI4Run()) retval = 3;
  if (fconfigType == fTPC.HI5Run()) retval = 3;
  if (fconfigType == fTPC.HI6Run()) retval = 3;
  if (fconfigType == fTPC.HI7Run()) retval = 3;
  return retval;
}

uint32_t AltroConfig::getDPCFG_BC2_EN(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				      uint32_t fec, uint32_t altro) {
  //
  // Enable/Disable 2nd baseline correction. 
  //
  uint32_t retval = 0;
  if (fconfigType == fTPC.HI2Run()) retval = 1;
  if (fconfigType == fTPC.HI4Run()) retval = 1;
  if (fconfigType == fTPC.HI5Run()) retval = 1;
  if (fconfigType == fTPC.HI6Run()) retval = 1;
  if (fconfigType == fTPC.HI7Run()) retval = 1;
  return retval;
}

uint32_t AltroConfig::getDPCFG_ZS_GF(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				     uint32_t fec, uint32_t altro) {
  //
  // Glitch Filter Configuration for Zero Suppression. To reduce the noise sensitivity,
  // the glitch filter checks for a consecutive number of samples above threshold, confirming
  // the existence of a real pulse. The minimum sequence of samples above the threshold (MINSEQ)
  // which defines a pulse can vary from 1 to 3.
  //
  uint32_t retval = 0;
  if (fconfigType == fTPC.ppRun())       retval = 2;
  if (fconfigType == fTPC.pp2Run())      retval = 2;
  if (fconfigType == fTPC.pp3Run())      retval = 2;
  if (fconfigType == fTPC.pp4Run())      retval = 2;
  if (fconfigType == fTPC.HI1Run())      retval = 2;
  if (fconfigType == fTPC.HI2Run())      retval = 2;
  if (fconfigType == fTPC.HI3Run())      retval = 2;
  if (fconfigType == fTPC.HI4Run())      retval = 2;
  if (fconfigType == fTPC.HI5Run())      retval = 2;
  if (fconfigType == fTPC.HI6Run())      retval = 2;
  if (fconfigType == fTPC.HI7Run())      retval = 2;
  if (fconfigType == fTPC.laserRun())    retval = 2;
  if (fconfigType == fTPC.pulserRun())   retval = 2;
  if (fconfigType == fTPC.playbackRun()) retval = 2;
  return retval;
}

uint32_t AltroConfig::getDPCFG_ZS_PRE(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				      uint32_t fec, uint32_t altro) {
  //
  // Presamples to be excluded from zero suppression. Maximum is 3.
  //
  uint32_t retval = 0;

  if (fconfigType == fTPC.zeroSuppressionFpedRun())   retval = 3;
  if (fconfigType == fTPC.zeroSuppressionVpedRun())   retval = 3;
  if (fconfigType == fTPC.zeroSuppressionPedMemRun()) retval = 3;
  return retval;
}

uint32_t AltroConfig::getDPCFG_ZS_POST(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				       uint32_t fec, uint32_t altro) {
  //
  // Postsamples to be excluded from zero suppression. Maximum is 7.
  //
  uint32_t retval = 0;

  if (fconfigType == fTPC.zeroSuppressionFpedRun())   retval = 7;
  if (fconfigType == fTPC.zeroSuppressionVpedRun())   retval = 7;
  if (fconfigType == fTPC.zeroSuppressionPedMemRun()) retval = 7;
  return retval;
}

uint32_t AltroConfig::getDPCFG_ZS_EN(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				     uint32_t fec, uint32_t altro) {
  //
  // Zero Suppression enabled if set to 1.
  //
  uint32_t retval = 0;
  if (fconfigType == fTPC.Test())                     retval = 1;
  if (fconfigType == fTPC.zeroSuppressionFpedRun())   retval = 1;
  if (fconfigType == fTPC.zeroSuppressionVpedRun())   retval = 1;
  if (fconfigType == fTPC.zeroSuppressionPedMemRun()) retval = 1;
  if (fconfigType == fTPC.ppRun())                    retval = 1;
  if (fconfigType == fTPC.pp2Run())                   retval = 1;
  if (fconfigType == fTPC.pp3Run())                   retval = 1;
  if (fconfigType == fTPC.pp4Run())                   retval = 1;
  if (fconfigType == fTPC.HI1Run())                   retval = 1;
  if (fconfigType == fTPC.HI2Run())                   retval = 1;
  if (fconfigType == fTPC.HI3Run())                   retval = 1;
  if (fconfigType == fTPC.HI4Run())                   retval = 1;
  if (fconfigType == fTPC.HI5Run())                   retval = 1;
  if (fconfigType == fTPC.HI6Run())                   retval = 1;
  if (fconfigType == fTPC.HI7Run())                   retval = 1;
  if (fconfigType == fTPC.laserRun())                 retval = 1;
  if (fconfigType == fTPC.pulserRun())                retval = 1;
  if (fconfigType == fTPC.playbackRun())              retval = 1;
  return retval;
}

uint32_t AltroConfig::getDPCF2_PTRG(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				    uint32_t fec, uint32_t altro) {
  //
  // The number of pre-trigger samples.
  //
  uint32_t retval = 0;
  if (fconfigType == fTPC.pedestalNonDesyncdRun()) retval = 15;
  return retval;
}

uint32_t AltroConfig::getDPCF2_BUF(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				   uint32_t fec, uint32_t altro) {
  //
  // The number of buffers in the data memory (0 -> 4 buffers; 1 -> 8 buffers).
  //
  uint32_t retval = 0;
  return retval;
}

uint32_t AltroConfig::getDPCF2_FLT_EN(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				      uint32_t fec, uint32_t altro) {
  //
  // Enable the digital filter (tail cancellation).
  //
  uint32_t retval = 0;
  if (fconfigType == fTPC.HI1Run())            retval = 1;
  if (fconfigType == fTPC.HI2Run())            retval = 1;
  if (fconfigType == fTPC.HI3Run())            retval = 1;
  if (fconfigType == fTPC.HI4Run())            retval = 1;
  if (fconfigType == fTPC.pedestalFilterRun()) retval = 1;
  return retval;
}

uint32_t AltroConfig::getDPCF2_PWSV(uint32_t side, uint32_t sector, uint32_t rcu, uint32_t branch,
				    uint32_t fec, uint32_t altro) {
  //
  // Power save mode on/off. When set, data processing is stopped outside trigger windows.
  // This may reduce the power consumption dramatically under certain data path
  // configurations.
  //
  uint32_t retval = 0;
  if (fconfigType == fTPC.HI1Run())            retval = 1;
  if (fconfigType == fTPC.HI2Run())            retval = 1;
  if (fconfigType == fTPC.HI3Run())            retval = 1;
  if (fconfigType == fTPC.HI4Run())            retval = 1;
  if (fconfigType == fTPC.HI5Run())            retval = 1;
  if (fconfigType == fTPC.HI6Run())            retval = 1;
  if (fconfigType == fTPC.HI7Run())            retval = 1;
  if (fconfigType == fTPC.pedestalFilterRun()) retval = 1;
  return retval;
}

uint32_t AltroConfig::getState() {
  return getState(0,0,0,0,0,0,0);
}

uint32_t AltroConfig::getK1() {
  return getK1(0,0,0,0,0,0,0);
}

uint32_t AltroConfig::getK2() {
  return getK2(0,0,0,0,0,0,0);
}

uint32_t AltroConfig::getK3() {
  return getK3(0,0,0,0,0,0,0);
}

uint32_t AltroConfig::getL1() {
  return getL1(0,0,0,0,0,0,0);
}

uint32_t AltroConfig::getL2() {
  return getL2(0,0,0,0,0,0,0);
}

uint32_t AltroConfig::getL3() {
  return getL3(0,0,0,0,0,0,0);
}

uint32_t AltroConfig::getFPED() {
  return getFPED(0,0,0,0,0,0,0);
}

uint32_t AltroConfig::getZSTHR_OFFSET() {
  return getZSTHR_OFFSET(0,0,0,0,0,0);
}

uint32_t AltroConfig::getZSTHR_ZS_THR() {
  return getZSTHR_ZS_THR(0,0,0,0,0,0);
}

uint32_t AltroConfig::getBCTHR_THR_HI() {
  return getBCTHR_THR_HI(0,0,0,0,0,0);
}

uint32_t AltroConfig::getBCTHR_THR_LOW() {
  return getBCTHR_THR_LOW(0,0,0,0,0,0);
}

uint32_t AltroConfig::getTRCFG_ACQ_START() {
  return getTRCFG_ACQ_START(0,0,0,0,0,0);
}

uint32_t AltroConfig::getTRCFG_ACQ_END() {
  return getTRCFG_ACQ_END(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCFG_BC1_MODE() {
  return getDPCFG_BC1_MODE(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCFG_BC1_POL() {
  return getDPCFG_BC1_POL(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCFG_BC2_PRE() {
  return getDPCFG_BC2_PRE(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCFG_BC2_POST() {
  return getDPCFG_BC2_POST(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCFG_BC2_EN() {
  return getDPCFG_BC2_EN(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCFG_ZS_GF() {
  return getDPCFG_ZS_GF(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCFG_ZS_POST() {
  return getDPCFG_ZS_POST(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCFG_ZS_PRE() {
  return getDPCFG_ZS_PRE(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCFG_ZS_EN() {
  return getDPCFG_ZS_EN(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCF2_PTRG() {
  return getDPCF2_PTRG(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCF2_BUF() {
  return getDPCF2_BUF(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCF2_FLT_EN() {
  return getDPCF2_FLT_EN(0,0,0,0,0,0);
}

uint32_t AltroConfig::getDPCF2_PWSV() {
  return getDPCF2_PWSV(0,0,0,0,0,0);
}