FSUDAQ/DAQ/Obsolete/DigitizerPHA.cpp
2022-10-31 15:00:04 -04:00

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#include "DigitizerPHA.h"
DigitizerPHA::DigitizerPHA(){
DPPType = V1730_DPP_PHA_CODE;
}
DigitizerPHA::DigitizerPHA(int boardID, int portID, bool verbose){
Initalization();
DPPType = V1730_DPP_PHA_CODE;
OpenDigitizer(boardID, portID, true, verbose);
}
DigitizerPHA::~DigitizerPHA(){
}
int DigitizerPHA::ProgramBoard(){
ret = CAEN_DGTZ_Reset(handle);
printf("======== program board PHA\n");
ret = CAEN_DGTZ_WriteRegister(handle, Register::DPP::RecordLength_G + 0x7000, 625);
ret = CAEN_DGTZ_WriteRegister(handle, Register::DPP::BoardConfiguration, 0x4E8115);
//TODO change to write register
ret = CAEN_DGTZ_SetAcquisitionMode(handle, CAEN_DGTZ_SW_CONTROLLED); /// software command
ret |= CAEN_DGTZ_SetIOLevel(handle, CAEN_DGTZ_IOLevel_NIM);
ret |= CAEN_DGTZ_SetExtTriggerInputMode(handle, CAEN_DGTZ_TRGMODE_ACQ_ONLY);
ret = CAEN_DGTZ_SetChannelEnableMask(handle, 0xFFFF);
//ret = CAEN_DGTZ_SetNumEventsPerAggregate(handle, 0);
ret = CAEN_DGTZ_SetRunSynchronizationMode(handle, CAEN_DGTZ_RUN_SYNC_Disabled);
if( ret != 0 ) { printf("==== set board error.\n"); return 0;}
printf("======== program Channels PHA\n");
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::PHA::DecayTime + 0x7000 , 5000 );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::PHA::TrapezoidFlatTop + 0x7000 , 0x62 );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::PHA::TrapezoidRiseTime + 0x7000 , 6 );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::PHA::PeakingTime + 0x7000 , 6 );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::PHA::RCCR2SmoothingFactor + 0x7000 , 4 );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::PHA::InputRiseTime + 0x7000 , 6 );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::PHA::TriggerThreshold + 0x7000 , 1000 );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::PHA::PeakHoldOff + 0x7000 , 0x3E );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::PHA::TriggerHoldOffWidth + 0x7000 , 0x3E );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::PHA::RiseTimeValidationWindow + 0x7000 , 0x0 );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::ChannelDCOffset + 0x7000 , 0xEEEE );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::PreTrigger + 0x7000 , 124 );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::InputDynamicRange + 0x7000 , 0x0 );
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::NumberEventsPerAggregate_G + 0x7000, 100);
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::AggregateOrganization, 0);
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::MaxAggregatePerBlockTransfer, 40);
ret |= CAEN_DGTZ_WriteRegister(handle, Register::DPP::DPPAlgorithmControl + 0x7000, 0xe30200f);
if( ret != 0 ) { printf("==== set channels error.\n"); return 0;}
printf("End of program board and channels\n");
return ret;
}
void DigitizerPHA::SetSetting(Setting::PHA settingName, float value, int ch){
unsigned int input = 0;
switch(settingName){
/// board setting
case Setting::PHA::AutoDataFlush_board_bool: input = value; SetBits(Register::DPP::BoardConfiguration, input, 1, 0); break;
case Setting::PHA::DualTrace_board_bool: input = value; SetBits(Register::DPP::BoardConfiguration, input, 1, 11); break;
case Setting::PHA::AnalogProbe1_board_2bit: input = value; SetBits(Register::DPP::BoardConfiguration, input, 2, 12); break;
case Setting::PHA::AnalogProbe2_board_2bit: input = value; SetBits(Register::DPP::BoardConfiguration, input, 2, 14); break;
case Setting::PHA::WavefromRecording_board_bool: input = value; SetBits(Register::DPP::BoardConfiguration, input, 1, 16); break;
case Setting::PHA::EnableExtra2Word_board_bool: input = value; SetBits(Register::DPP::BoardConfiguration, input, 1, 17); break;
case Setting::PHA::EnergyRecording_board_bool: input = value; SetBits(Register::DPP::BoardConfiguration, input, 1, 19); break;
case Setting::PHA::VirtualProbe_board_4bit: input = value; SetBits(Register::DPP::BoardConfiguration, input, 1, 20); break;
/// DPP Algorithm Control 1
case Setting::PHA::TrapazoidRescaling_5bit: input = value; SetBits(Register::DPP::DPPAlgorithmControl, input, 5, 0, ch); break;
case Setting::PHA::WaveformDecimation_2bit: input = value; SetBits(Register::DPP::DPPAlgorithmControl, input, 2, 8, ch); break;
case Setting::PHA::WaveformDecimationGain_2bit: input = value; SetBits(Register::DPP::DPPAlgorithmControl, input, 2, 10, ch); break;
case Setting::PHA::PeakSampling_2bit: input = value; SetBits(Register::DPP::DPPAlgorithmControl, input, 2, 12, ch); break;
case Setting::PHA::PulsePolarity_bool: input = value; SetBits(Register::DPP::DPPAlgorithmControl, input, 1, 16, ch); break;
case Setting::PHA::TriggerMode_2bit: input = value; SetBits(Register::DPP::DPPAlgorithmControl, input, 2, 18, ch); break;
case Setting::PHA::BaselineSampling_3bit: input = value; SetBits(Register::DPP::DPPAlgorithmControl, input, 3, 20, ch); break;
case Setting::PHA::DisableSelfTrigger_bool: input = value; SetBits(Register::DPP::DPPAlgorithmControl, input, 1, 24, ch); break;
case Setting::PHA::RolloverFlag_bool: input = value; SetBits(Register::DPP::DPPAlgorithmControl, input, 1, 26, ch); break;
case Setting::PHA::PileupFlag_bool: input = value; SetBits(Register::DPP::DPPAlgorithmControl, input, 1, 27, ch); break;
/// DPP Algorithm Control 2
case Setting::PHA::LocalShapedTrigger_bool: input = value; SetBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 1, 2, ch); break;
case Setting::PHA::LocalShapedTriggerMode_2bit: input = value; SetBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 2, 0, ch); break;
case Setting::PHA::LocalTriggerValidation_bool: input = value; SetBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 1, 6, ch); break;
case Setting::PHA::LocalTriggerValidationMode_2bit: input = value; SetBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 2, 4, ch); break;
case Setting::PHA::Extra2WordOption_3bit: input = value; SetBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 3, 8, ch); break;
case Setting::PHA::VetoSource_2bit: input = value; SetBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 2, 14, ch); break;
case Setting::PHA::TriggerCounterRateStep_2bit: input = value; SetBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 2, 16, ch); break;
case Setting::PHA::BaselineCalculationWhenACQOFF_bool: input = value; SetBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 1, 18, ch); break;
case Setting::PHA::TagCorrelatedEvents_bool: input = value; SetBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 1, 19, ch); break;
case Setting::PHA::BaselineRestoreOptimization_bool: input = value; SetBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 1, 29, ch); break;
/// ACQ control
case Setting::PHA::StartStopMode_2bit: input = value; SetBits(Register::DPP::AcquisitionControl, input, 2, 0); break;
case Setting::PHA::StartStopACQ_bool: input = value; SetBits(Register::DPP::AcquisitionControl, input, 1, 2); break;
case Setting::PHA::PLLClockSource_bool: input = value; SetBits(Register::DPP::AcquisitionControl, input, 1, 6); break;
case Setting::PHA::VetoInForTRGOUT_bool: input = value; SetBits(Register::DPP::AcquisitionControl, input, 1, 12); break;
/// Global Trigger Mask
case Setting::PHA::GlobalTrgMask_8bit: input = value; SetBits(Register::DPP::GlobalTriggerMask, input, 8, 0); break;
case Setting::PHA::GlobalTrgMajorityCoincienceWindow_4bit: input = value; SetBits(Register::DPP::GlobalTriggerMask, input, 4, 20); break;
case Setting::PHA::GlobalTrgMajorityLevel_3bit: input = value; SetBits(Register::DPP::GlobalTriggerMask, input, 3, 24); break;
case Setting::PHA::GlobalTrgExternalTrigger_bool: input = value; SetBits(Register::DPP::GlobalTriggerMask, input, 1, 30); break;
case Setting::PHA::GlobalTrgSoftwareTrigger_bool: input = value; SetBits(Register::DPP::GlobalTriggerMask, input, 1, 31); break;
/// Front Panel TRG-OUT Mask
case Setting::PHA::FrontTRGOUTMask_8bit: input = value; SetBits(Register::DPP::FrontPanelTRGOUTEnableMask, input, 8, 0); break;
case Setting::PHA::FrontTRGOUTLogic_2bit: input = value; SetBits(Register::DPP::FrontPanelTRGOUTEnableMask, input, 2, 8); break;
case Setting::PHA::FrontTRGOUTMajorityLevel_3bit: input = value; SetBits(Register::DPP::FrontPanelTRGOUTEnableMask, input, 3, 10); break;
case Setting::PHA::FrontTRGOUTExternalTrigger_bool: input = value; SetBits(Register::DPP::FrontPanelTRGOUTEnableMask, input, 1, 30); break;
case Setting::PHA::FrontTRGOUTSoftwareTrigger_bool: input = value; SetBits(Register::DPP::FrontPanelTRGOUTEnableMask, input, 1, 31); break;
/// Front Plane I/O
case Setting::PHA::FrontPanelIO_LEMO_bool: input = value; SetBits(Register::DPP::FrontPanelIOControl, input, 1, 0); break;
case Setting::PHA::FrontPanelIO_TRGOUT_bool: input = value; SetBits(Register::DPP::FrontPanelIOControl, input, 1, 1); break;
case Setting::PHA::FrontPanelIO_TRGINCtrl_bool: input = value; SetBits(Register::DPP::FrontPanelIOControl, input, 1, 10); break;
case Setting::PHA::FrontPanelIO_TRGINtoMezzanines_bool: input = value; SetBits(Register::DPP::FrontPanelIOControl, input, 1, 11); break;
case Setting::PHA::FrontPanelIO_TRGOUTmode_6bit: input = value; SetBits(Register::DPP::FrontPanelIOControl, input, 6, 14); break;
/// Trigger Validation Mask
case Setting::PHA::TriggerValidationMask_8bit: input = value; SetBits(Register::DPP::TriggerValidationMask, input, 8, 0); break;
case Setting::PHA::TriggerValidationOperation_2bit: input = value; SetBits(Register::DPP::TriggerValidationMask, input, 2, 8); break;
case Setting::PHA::TriggerValidationMajority_3bit: input = value; SetBits(Register::DPP::TriggerValidationMask, input, 3, 10); break;
case Setting::PHA::TriggerValidationExternalTrigger_bool: input = value; SetBits(Register::DPP::TriggerValidationMask, input, 1, 30); break;
case Setting::PHA::TriggerValidationSoftwareTrigger_bool: input = value; SetBits(Register::DPP::TriggerValidationMask, input, 1, 31); break;
/// Registers
case Setting::PHA::RecordLength_G_ns: input = value / 8 / ch2ns; WriteRegister(Register::DPP::RecordLength_G, input, ch) ; break;
case Setting::PHA::PreTriggerLength_ns: input = value / 4 / ch2ns; WriteRegister(Register::DPP::PreTrigger, input, ch) ; break;
case Setting::PHA::InputDynamicRange_bool: input = value; WriteRegister(Register::DPP::InputDynamicRange, input, ch) ; break;
case Setting::PHA::DCOffset_precentage: input = (1.0 - value) * 0xFFFF; WriteRegister(Register::DPP::ChannelDCOffset, input, ch) ; break;
case Setting::PHA::EventPreAggregate_G_max1023: input = value; WriteRegister(Register::DPP::NumberEventsPerAggregate_G, input, ch) ; break;
case Setting::PHA::AggregateOrganization_board_3bit: input = value; WriteRegister(Register::DPP::AggregateOrganization , input, ch) ; break;
case Setting::PHA::MaxAggregatePerBlockTransfer_board_10bit: input = value; WriteRegister(Register::DPP::MaxAggregatePerBlockTransfer, input, ch) ; break;
case Setting::PHA::VetoWidth_ns:{
unsigned int input = 0 ;
if( value <= 4 * ch2ns ){
input = 0;
}else if( 4 * ch2ns < value && value <= 1000 * ch2ns ){
input = 1;
}else if(1000 * ch2ns < value && value <= 262000 * ch2ns){
input = 2;
}else{
input = 3;
}
WriteRegister(Register::DPP::VetoWidth, input, ch) ;
break;
}
case Setting::PHA::TriggerThreshold_LSD: input = value; WriteRegister(Register::DPP::PHA::TriggerThreshold , input, ch); break;
case Setting::PHA::TriggerHoldOffWidth_ns: input = value / 4/ ch2ns; WriteRegister(Register::DPP::PHA::TriggerHoldOffWidth , input, ch); break;
case Setting::PHA::TriggerSmoothingFactor_5bit: input = value; WriteRegister(Register::DPP::PHA::RCCR2SmoothingFactor , input, ch); break;
case Setting::PHA::TriggerOutputWidth_ns: input = value / 4/ ch2ns; WriteRegister(Register::DPP::PHA::ShapedTriggerWidth , input, ch); break;
case Setting::PHA::InputRiseTime_ns: input = value / 4/ ch2ns; WriteRegister(Register::DPP::PHA::InputRiseTime , input, ch); break;
case Setting::PHA::TrapezoidRiseTime_ns: input = value / 4/ ch2ns; WriteRegister(Register::DPP::PHA::TrapezoidRiseTime, input, ch); break;
case Setting::PHA::TrapezoidFlatTop_ns: input = value / 4/ ch2ns; WriteRegister(Register::DPP::PHA::TrapezoidFlatTop, input, ch); break;
case Setting::PHA::DecayTime_ns: input = value / 4/ ch2ns; WriteRegister(Register::DPP::PHA::DecayTime, input, ch); break;
case Setting::PHA::PeakingTime_ns: input = value / 4/ ch2ns; WriteRegister(Register::DPP::PHA::PeakingTime, input, ch); break;
case Setting::PHA::PeakingHoldOff_ns: input = value / 4/ ch2ns; WriteRegister(Register::DPP::PHA::PeakHoldOff, input, ch); break;
case Setting::PHA::EnergyFineGain_16bit: input = value; WriteRegister(Register::DPP::PHA::FineGain, input, ch); break;
case Setting::PHA::RiseTimeValidationWindow_ns: input = value / ch2ns; WriteRegister(Register::DPP::PHA::RiseTimeValidationWindow, input, ch); break;
/// Others
case Setting::PHA::FanSpeedControl_bool: input = value; WriteRegister(Register::DPP::FanSpeedControl, input); break;
case Setting::PHA::RunStartStopDelay_8bit: input = value; WriteRegister(Register::DPP::RunStartStopDelay, input); break;
case Setting::PHA::DisableExternalTrigger_bool: input = value; WriteRegister(Register::DPP::DisableExternalTrigger, input); break;
case Setting::PHA::ExtendedVetoDelay_16bit: input = value; WriteRegister(Register::DPP::ExtendedVetoDelay, input); break;
case Setting::PHA::AnalogMonitorMode_3bit: input = value; WriteRegister(Register::DPP::AnalogMonitorMode, input); break;
case Setting::PHA::BufferOccupancyGain_4bit: input = value; WriteRegister(Register::DPP::BufferOccupancyGain, input); break;
}
ErrorMsg("PHA-" + std::to_string(settingName) );
}
double DigitizerPHA::GetSetting(Setting::PHA settingName, int ch){
double value = 0;
unsigned int temp;
switch(settingName){
/// board setting
case Setting::PHA::AutoDataFlush_board_bool: temp = ReadBits(Register::DPP::BoardConfiguration, 1, 0); value = temp; break;
case Setting::PHA::DecimateWaveForm_board_bool: temp = ReadBits(Register::DPP::BoardConfiguration, 1, 1); value = temp; break;
case Setting::PHA::TriggerPropapation_board_bool: temp = ReadBits(Register::DPP::BoardConfiguration, 1, 2); value = temp; break;
case Setting::PHA::DualTrace_board_bool: temp = ReadBits(Register::DPP::BoardConfiguration, 1, 11); value = temp; break;
case Setting::PHA::AnalogProbe1_board_2bit: temp = ReadBits(Register::DPP::BoardConfiguration, 2, 12); value = temp; break;
case Setting::PHA::AnalogProbe2_board_2bit: temp = ReadBits(Register::DPP::BoardConfiguration, 2, 14); value = temp; break;
case Setting::PHA::WavefromRecording_board_bool: temp = ReadBits(Register::DPP::BoardConfiguration, 1, 16); value = temp; break;
case Setting::PHA::EnableExtra2Word_board_bool: temp = ReadBits(Register::DPP::BoardConfiguration, 1, 17); value = temp; break;
case Setting::PHA::EnergyRecording_board_bool: temp = ReadBits(Register::DPP::BoardConfiguration, 1, 19); value = temp; break;
case Setting::PHA::VirtualProbe_board_4bit: temp = ReadBits(Register::DPP::BoardConfiguration, 4, 20); value = temp; break;
/// DPP Algorithm Control 1
case Setting::PHA::TrapazoidRescaling_5bit: temp = ReadBits(Register::DPP::DPPAlgorithmControl, 5, 0, ch); value = temp; break;
case Setting::PHA::WaveformDecimation_2bit: temp = ReadBits(Register::DPP::DPPAlgorithmControl, 2, 8, ch); value = temp; break;
case Setting::PHA::WaveformDecimationGain_2bit: temp = ReadBits(Register::DPP::DPPAlgorithmControl, 2, 10, ch); value = temp; break;
case Setting::PHA::PeakSampling_2bit: temp = ReadBits(Register::DPP::DPPAlgorithmControl, 2, 12, ch); value = pow(4, temp); break;
case Setting::PHA::PulsePolarity_bool: temp = ReadBits(Register::DPP::DPPAlgorithmControl, 1, 16, ch); value = temp; break;
case Setting::PHA::TriggerMode_2bit: temp = ReadBits(Register::DPP::DPPAlgorithmControl, 2, 18, ch); value = temp; break;
case Setting::PHA::BaselineSampling_3bit: temp = ReadBits(Register::DPP::DPPAlgorithmControl, 3, 20, ch); value = pow(4, 1 + temp); break;
case Setting::PHA::DisableSelfTrigger_bool: temp = ReadBits(Register::DPP::DPPAlgorithmControl, 1, 24, ch); value = temp; break;
case Setting::PHA::RolloverFlag_bool: temp = ReadBits(Register::DPP::DPPAlgorithmControl, 1, 26, ch); value = temp; break;
case Setting::PHA::PileupFlag_bool: temp = ReadBits(Register::DPP::DPPAlgorithmControl, 1, 27, ch); value = temp; break;
/// DPP Algorithm Control 2
case Setting::PHA::LocalShapedTriggerMode_2bit: temp = ReadBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 2, 0, ch); value = temp; break;
case Setting::PHA::LocalShapedTrigger_bool: temp = ReadBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 1, 2, ch); value = temp; break;
case Setting::PHA::LocalTriggerValidationMode_2bit: temp = ReadBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 2, 4, ch); value = temp; break;
case Setting::PHA::LocalTriggerValidation_bool: temp = ReadBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 1, 6, ch); value = temp; break;
case Setting::PHA::Extra2WordOption_3bit: temp = ReadBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 3, 8, ch); value = temp; break;
case Setting::PHA::VetoSource_2bit: temp = ReadBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 2, 14, ch); value = temp; break;
case Setting::PHA::TriggerCounterRateStep_2bit: temp = ReadBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 1, 16, ch); value = temp; break;
case Setting::PHA::BaselineCalculationWhenACQOFF_bool: temp = ReadBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 1, 18, ch); value = temp; break;
case Setting::PHA::TagCorrelatedEvents_bool: temp = ReadBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 1, 19, ch); value = temp; break;
case Setting::PHA::BaselineRestoreOptimization_bool: temp = ReadBits(Register::DPP::PHA::DPPAlgorithmControl2_G, 1, 29, ch); value = temp; break;
/// ACQ control
case Setting::PHA::StartStopMode_2bit: temp = ReadBits(Register::DPP::AcquisitionControl, 2, 0); value = temp; break;
case Setting::PHA::StartStopACQ_bool: temp = ReadBits(Register::DPP::AcquisitionControl, 1, 2); value = temp; break;
case Setting::PHA::PLLClockSource_bool: temp = ReadBits(Register::DPP::AcquisitionControl, 1, 6); value = temp; break;
case Setting::PHA::VetoInForTRGOUT_bool: temp = ReadBits(Register::DPP::AcquisitionControl, 1, 12); value = temp; break;
/// Global Trigger Mask
case Setting::PHA::GlobalTrgMask_8bit: temp = ReadBits(Register::DPP::GlobalTriggerMask, 8, 0); value = temp; break;
case Setting::PHA::GlobalTrgMajorityCoincienceWindow_4bit: temp = ReadBits(Register::DPP::GlobalTriggerMask, 4, 20); value = temp; break;
case Setting::PHA::GlobalTrgMajorityLevel_3bit: temp = ReadBits(Register::DPP::GlobalTriggerMask, 3, 24); value = temp; break;
case Setting::PHA::GlobalTrgExternalTrigger_bool: temp = ReadBits(Register::DPP::GlobalTriggerMask, 1, 30); value = temp; break;
case Setting::PHA::GlobalTrgSoftwareTrigger_bool: temp = ReadBits(Register::DPP::GlobalTriggerMask, 1, 31); value = temp; break;
/// Front Panel TRG-OUT Mask
case Setting::PHA::FrontTRGOUTMask_8bit: temp = ReadBits(Register::DPP::FrontPanelTRGOUTEnableMask, 8, 0); value = temp; break;
case Setting::PHA::FrontTRGOUTLogic_2bit: temp = ReadBits(Register::DPP::FrontPanelTRGOUTEnableMask, 2, 8); value = temp; break;
case Setting::PHA::FrontTRGOUTMajorityLevel_3bit: temp = ReadBits(Register::DPP::FrontPanelTRGOUTEnableMask, 3, 10); value = temp; break;
case Setting::PHA::FrontTRGOUTExternalTrigger_bool: temp = ReadBits(Register::DPP::FrontPanelTRGOUTEnableMask, 1, 30); value = temp; break;
case Setting::PHA::FrontTRGOUTSoftwareTrigger_bool: temp = ReadBits(Register::DPP::FrontPanelTRGOUTEnableMask, 1, 31); value = temp; break;
/// Front Plane I/O
case Setting::PHA::FrontPanelIO_LEMO_bool: temp = ReadBits(Register::DPP::FrontPanelIOControl, 1, 0); value = temp; break;
case Setting::PHA::FrontPanelIO_TRGOUT_bool: temp = ReadBits(Register::DPP::FrontPanelIOControl, 1, 1); value = temp; break;
case Setting::PHA::FrontPanelIO_TRGINCtrl_bool: temp = ReadBits(Register::DPP::FrontPanelIOControl, 1, 10); value = temp; break;
case Setting::PHA::FrontPanelIO_TRGINtoMezzanines_bool: temp = ReadBits(Register::DPP::FrontPanelIOControl, 1, 11); value = temp; break;
case Setting::PHA::FrontPanelIO_TRGOUTmode_6bit: temp = ReadBits(Register::DPP::FrontPanelIOControl, 6, 14); value = temp; break;
/// Trigger Validation Mask
case Setting::PHA::TriggerValidationMask_8bit: temp = ReadBits(Register::DPP::TriggerValidationMask, 8, 0); value = temp; break;
case Setting::PHA::TriggerValidationOperation_2bit: temp = ReadBits(Register::DPP::TriggerValidationMask, 2, 8); value = temp; break;
case Setting::PHA::TriggerValidationMajority_3bit: temp = ReadBits(Register::DPP::TriggerValidationMask, 3, 10); value = temp; break;
case Setting::PHA::TriggerValidationExternalTrigger_bool: temp = ReadBits(Register::DPP::TriggerValidationMask, 1, 30); value = temp; break;
case Setting::PHA::TriggerValidationSoftwareTrigger_bool: temp = ReadBits(Register::DPP::TriggerValidationMask, 1, 31); value = temp; break;
/// Registers
case Setting::PHA::RecordLength_G_ns: temp = ReadRegister(Register::DPP::RecordLength_G , ch); value = temp * 8 * ch2ns;break;
case Setting::PHA::PreTriggerLength_ns: temp = ReadRegister(Register::DPP::PreTrigger , ch); value = temp * 4 * ch2ns;break;
case Setting::PHA::InputDynamicRange_bool: temp = ReadRegister(Register::DPP::InputDynamicRange , ch); value = temp;break;
case Setting::PHA::DCOffset_precentage: temp = ReadRegister(Register::DPP::ChannelDCOffset , ch); value = 1.0 - temp * 1.0 / 0xFFFF ;break;
case Setting::PHA::EventPreAggregate_G_max1023: temp = ReadRegister(Register::DPP::NumberEventsPerAggregate_G , ch); value = temp; break;
case Setting::PHA::VetoWidth_ns: {
temp = ReadRegister(Register::DPP::VetoWidth , ch);
switch( temp) {
case 0 : value = 4 * ch2ns; break; ///ns
case 1 : value = 1000 * ch2ns; break; ///ns
case 2 : value = 262000 * ch2ns; break; ///ns
case 3 : value = 66000000 * ch2ns; break; ///ns
default : value = temp; break; /// bit
}
break;
}
case Setting::PHA::AggregateOrganization_board_3bit:{
temp = ReadRegister(Register::DPP::AggregateOrganization , ch);
value = ((temp & 0x007) < 2 ? 0 : (int)pow(2, temp & 7));
break;
}
case Setting::PHA::MaxAggregatePerBlockTransfer_board_10bit: temp = ReadRegister(Register::DPP::MaxAggregatePerBlockTransfer , ch); value = temp; break;
case Setting::PHA::TriggerThreshold_LSD: temp = ReadRegister(Register::DPP::PHA::TriggerThreshold , ch); value = temp; break;
case Setting::PHA::TriggerHoldOffWidth_ns: temp = ReadRegister(Register::DPP::PHA::TriggerHoldOffWidth , ch); value = temp * 4 * ch2ns; break;
case Setting::PHA::TriggerSmoothingFactor_5bit: temp = ReadRegister(Register::DPP::PHA::RCCR2SmoothingFactor , ch); value = (temp & 0x1f) * 2 * ch2ns;break;
case Setting::PHA::TriggerOutputWidth_ns: temp = ReadRegister(Register::DPP::PHA::ShapedTriggerWidth , ch); value = temp * 4 * ch2ns; break;
case Setting::PHA::InputRiseTime_ns: temp = ReadRegister(Register::DPP::PHA::InputRiseTime , ch); value = temp * 4 * ch2ns; break;
case Setting::PHA::TrapezoidRiseTime_ns: temp = ReadRegister(Register::DPP::PHA::TrapezoidRiseTime , ch); value = temp * 4 * ch2ns; break;
case Setting::PHA::TrapezoidFlatTop_ns: temp = ReadRegister(Register::DPP::PHA::TrapezoidFlatTop , ch); value = temp * 4 * ch2ns; break;
case Setting::PHA::DecayTime_ns: temp = ReadRegister(Register::DPP::PHA::DecayTime , ch); value = temp * 4 * ch2ns; break;
case Setting::PHA::PeakingTime_ns: temp = ReadRegister(Register::DPP::PHA::PeakingTime , ch); value = temp * 4 * ch2ns; break;
case Setting::PHA::PeakingHoldOff_ns: temp = ReadRegister(Register::DPP::PHA::PeakHoldOff , ch); value = temp * 4 * ch2ns; break;
case Setting::PHA::EnergyFineGain_16bit: temp = ReadRegister(Register::DPP::PHA::FineGain , ch); value = temp; break;
case Setting::PHA::RiseTimeValidationWindow_ns: temp = ReadRegister(Register::DPP::PHA::RiseTimeValidationWindow , ch); value = temp * ch2ns; break;
/// Others
case Setting::PHA::FanSpeedControl_bool: temp = ReadRegister(Register::DPP::FanSpeedControl); value = temp & 0x8; break;
case Setting::PHA::RunStartStopDelay_8bit: temp = ReadRegister(Register::DPP::RunStartStopDelay); value = temp & 0xFF; break;
case Setting::PHA::DisableExternalTrigger_bool: temp = ReadRegister(Register::DPP::DisableExternalTrigger); value = temp & 0x1; break;
case Setting::PHA::ExtendedVetoDelay_16bit: temp = ReadRegister(Register::DPP::ExtendedVetoDelay); value = temp & 0xffff; break;
case Setting::PHA::AnalogMonitorMode_3bit: temp = ReadRegister(Register::DPP::AnalogMonitorMode); value = temp & 0x7; break;
case Setting::PHA::BufferOccupancyGain_4bit: temp = ReadRegister(Register::DPP::BufferOccupancyGain); value = temp & 0xf; break;
/// AMC Firmware Revisiion
case Setting::PHA::AMCFirmwareNumber_readOnly_8bit: temp = ReadBits(Register::DPP::AMCFirmwareRevision, 7, 0); value = temp; break;
case Setting::PHA::AMCDPPcode_readOnly_8bit: temp = ReadBits(Register::DPP::AMCFirmwareRevision, 8, 8); value = temp; break;
case Setting::PHA::AMCBuildDay_readOnly_8bit: temp = ReadBits(Register::DPP::AMCFirmwareRevision, 8, 16); value = temp; break;
case Setting::PHA::AMCBuildMonth_readOnly_4bits: temp = ReadBits(Register::DPP::AMCFirmwareRevision, 4, 24); value = temp; break;
case Setting::PHA::AMCBuildYear_readOnly_4bits: temp = ReadBits(Register::DPP::AMCFirmwareRevision, 4, 28); value = temp; break;
/// ACQ Status
case Setting::PHA::ACQStatus_readOnly_bool: temp = ReadBits(Register::DPP::AcquisitionStatus, 1, 2); value = temp; break;
case Setting::PHA::ACQEventReady_readOnly_bool: temp = ReadBits(Register::DPP::AcquisitionStatus, 1, 3); value = temp; break;
case Setting::PHA::ACQEventFull_readOnly_bool: temp = ReadBits(Register::DPP::AcquisitionStatus, 1, 4); value = temp; break;
case Setting::PHA::ACQClockSource_readOnly_bool: temp = ReadBits(Register::DPP::AcquisitionStatus, 1, 5); value = temp; break;
case Setting::PHA::ACQPLLLock_readOnly_bool: temp = ReadBits(Register::DPP::AcquisitionStatus, 1, 7); value = temp; break;
case Setting::PHA::ACQBoardReady_readOnly_bool: temp = ReadBits(Register::DPP::AcquisitionStatus, 1, 8); value = temp; break;
case Setting::PHA::ACQ_S_IN_Statue_readOnly_bool: temp = ReadBits(Register::DPP::AcquisitionStatus, 1, 15); value = temp; break;
case Setting::PHA::ACQ_TRGIN_Status_readOnly_bool: temp = ReadBits(Register::DPP::AcquisitionStatus, 1, 16); value = temp; break;
case Setting::PHA::ACQChannelShutDownStatus_readOnly_bool: temp = ReadBits(Register::DPP::AcquisitionStatus, 1, 19); value = temp; break;
case Setting::PHA::ACQTenmperatureStatus_readOnly_4bit: temp = ReadBits(Register::DPP::AcquisitionStatus, 4, 20); value = temp; break;
}
return value;
}
void DigitizerPHA::AutoSetTrapezoidRescalingAndFindGate(double gain, int ch){
int startCh = 0;
int endCh = MaxNChannels;
if( ch >= 0 ){
startCh = ch;
endCh = ch;
}
for( int i = startCh ; i <= endCh; i++){
double riseTime = ReadRegister(Register::DPP::PHA::TrapezoidRiseTime, i) * 4 * ch2ns;
double flatTop = ReadRegister(Register::DPP::PHA::TrapezoidFlatTop, i) * 4 * ch2ns;
unsigned int shift = (unsigned int ) ( log(riseTime * flatTop ) / log(2.0)) ;
SetTrapezoidRescaling(shift, i);
double haha = 0xFFFF * gain * (pow(2, shift) / riseTime / flatTop);
unsigned int fineGain = (unsigned int) (haha);
if( fineGain > 0xFFFF ){
SetEnergyFineGain(0xFFFF, i);
}else{
SetEnergyFineGain(fineGain, i);
}
}
ErrorMsg("PHA-AutoSetTrapezoidRescalingAndFindGate");
}
void DigitizerPHA::PrintBoardConfiguration(){
if( !isConnected ) return;
uint32_t value = PrintRegister(Register::DPP::BoardConfiguration, "Board Configuration");
printf(" Bit[ 0] = %d = Auto Data Flush \n", value & 0x1);
printf(" Bit[ 1] = %d = Decimated waveform \n", (value >> 1) & 0x1 );
printf(" Bit[ 2] = %d = Trigger propagation \n", (value >> 2) & 0x1 );
printf(" Bit[ 3:10] = %d = must be 001 0001 0 = 22 \n", (value >> 3) & 0xFF );
printf(" Bit[ 11] = %d = Dual Trace \n", (value >> 11) & 0x1 );
printf(" Bit[12:13] = %d = Analog probe 1 : ",((value >> 12) & 0x3 ));
switch ( ((value >> 12) & 0x3 ) ){
case 0 : printf("input\n"); break;
case 1 : printf("RC-CR (1st derivative)\n");break;
case 2 : printf("RC-CR2 (2nd derivative)\n"); break;
case 3 : printf("Trapezoid \n"); break;
}
printf(" Bit[14:15] = %d = Analog probe 2 : ", ((value >> 14) & 0x3 ));
switch ( ((value >> 14) & 0x3 ) ){
case 0 : printf("input\n"); break;
case 1 : printf("Threshold\n"); break;
case 2 : printf("Trapezoid - Baseline\n"); break;
case 3 : printf("baseline.\n"); break;
}
printf(" Bit[ 16] = %d = WaveForm Recording \n",((value >> 16) & 0x1 ) );
printf(" Bit[ 17] = %d = Extras 2 word enable \n", ((value >> 17) & 0x1 ));
printf(" Bit[ 18] = %d = Record Time Stamp \n", ((value >> 18) & 0x1 ));
printf(" Bit[ 19] = %d = Record Energy \n", ((value >> 19) & 0x1 ));
printf(" Bit[20:23] = %d = Digital Virtual probe 1 : ", ((value >> 20) & 0x7 ));
switch (((value >> 20) & 0xF )) {
case 0: printf("Peaking, shows where the energy is calculated; \n"); break;
case 1: printf("”Armed”, digital input showing where the RCCR2 crosses the Threshold\n"); break;
case 2: printf("”Peak Run”, starts with the trigger and last for the whole event\n");break;
case 3: printf("”Pileup”, shows where a pileup event occurred\n");break;
case 4: printf("”Peaking”, shows where the energy is calculated\n");break;
case 5: printf("”TRG Validation Win”, digital input showing the trigger validation acceptance window TVAW\n");break;
case 6: printf("”Baseline freeze”, shows where the algorithm stops calculating the baseline and its value is frozen\n");break;
case 7: printf("”TRG Holdoff”, shows the trigger holdoff parameter\n");break;
case 8: printf("”TRG Validation”, shows the trigger validation signal TRG_VAL \n");break;
case 9: printf("”Acq Busy”, this is 1 when the board is busy (saturated input signal or full memory board) or there is a veto\n");break;
case 10: printf("”Zero Cross. Win.”, shows the RT Discrimination Width\n");break;
case 11: printf("”Ext TRG”, shows the external trigger, when available\n");break;
case 12: printf("”Busy”, shows when the memory board is full.\n");break;
}
printf(" Bit[26:28] = %d = Digital Virtual probe 2 : ", ((value >> 26) & 0x7 ));
if( ((value >> 26) & 0x7 ) == 0 ) {
printf("Trigger\n");
}else{
printf("Reserved\n");
}
}
void DigitizerPHA::PrintACQControl(){
if( !isConnected ) return;
uint32_t value = PrintRegister(Register::AcquisitionControl, "ACQ COntrol");
///==== Start Stop Mode
printf(" Bit[1:0] = %d = Start/Stop Mode (", value & 0x3);
switch (value & 0x3){
case 0 : printf("Software controlled)\n"); break;
case 1 : printf("S-IN controlled)\n"); break;
case 2 : printf("1st trigger controlled)\n"); break;
case 3 : printf("LVDS controlled)\n"); break;
}
///==== ACQ Start/Arm
printf(" Bit[ 2] = %d = Start/Arm (%s)\n", value & 0x4, (value & 0x4) == 0 ? "STOP" : "RUN" );
printf(" Bit[ 6] = %d = PLL Ref. Clock (%s)\n", value & 0x40, (value & 0x40) == 0 ? "Internal" : "External" );
printf(" Bit[ 8] = %d = LVDS I/O Busy Enable (%s)\n", value & 0x100, (value & 0x100) == 0 ? "Disabled" : "Enabled" );
printf(" Bit[ 8] = %d = LVDS I/O Veto Enable (%s)\n", value & 0x200, (value & 0x200) == 0 ? "Disabled" : "Enabled" );
printf(" Bit[ 12] = %d = Veto-in as veto for TRG-OUT (%s)\n", value & 0x1000, (value & 0x1000) == 0 ? "not used" : "used" );
}
void DigitizerPHA::PrintGlobalTriggerMask(){
if( !isConnected ) return;
uint32_t value = PrintRegister(Register::DPP::GlobalTriggerMask, "Global Trigger Mask");
printf(" Bit[ 7:0] = 0x%x = Enabled Paired Channel\n", value & 0xff );
printf(" Bit[23:20] = %.0f ns = Majority Coincidence Window\n", (( value >> 20 ) & 0xf) * 4 * ch2ns );
printf(" Bit[26:24] = %d = Majority Level\n", (( value >> 24 ) & 0x7) );
printf(" Bit[ 29] = %d = LVDS Trigger(%s)\n", (( value >> 29 ) & 0x1), (( value >> 29 ) & 0x1) == 0 ? "disabled" : "enabled" );
printf(" Bit[ 30] = %d = External Trigger(%s)\n", (( value >> 30 ) & 0x1), (( value >> 30 ) & 0x1) == 0 ? "disabled" : "enabled" );
printf(" Bit[ 31] = %d = Software Trigger(%s)\n", (( value >> 31 ) & 0x1), (( value >> 31 ) & 0x1) == 0 ? "disabled" : "enabled" );
}
void DigitizerPHA::PrintFrontPanelTRIGOUTEnableMask(){
if( !isConnected ) return;
uint32_t value = PrintRegister(Register::DPP::FrontPanelTRGOUTEnableMask, "Front Panel TRG-OUT Mask");
printf(" Bit[ 7:0] = 0x%x = Enabled Paired Channel\n", value & 0xff );
printf(" Bit[ 9:8] = %d = TRG-OUT Logic (", (value >> 8) & 0x3 );
switch ( ( value>>8) & 0x3 ){
case 0 : printf("OR)\n"); break;
case 1 : printf("AND)\n"); break;
case 2 : printf("MAjority)\n"); break;
}
printf(" Bit[12:10] = %d = Majority Level\n", (value >> 10) & 0x7 );
printf(" Bit[ 29] = %d = LVDS Trigger(%s)\n", (( value >> 29 ) & 0x1), (( value >> 29 ) & 0x1) == 0 ? "disabled" : "enabled" );
printf(" Bit[ 30] = %d = External Trigger(%s)\n", (( value >> 30 ) & 0x1), (( value >> 30 ) & 0x1) == 0 ? "disabled" : "enabled" );
printf(" Bit[ 31] = %d = Software Trigger(%s)\n", (( value >> 31 ) & 0x1), (( value >> 31 ) & 0x1) == 0 ? "disabled" : "enabled" );
}
void DigitizerPHA::PrintFrontPanelIOControl(){
if( !isConnected ) return;
uint32_t value = PrintRegister(Register::DPP::FrontPanelIOControl, "Front Panel I/O Control");
printf(" Bit[ 0] = %d = LEMO I/O (%s)\n", value & 0x1, (value & 0x1) == 0 ? "NIM" : "TTL" );
printf(" Bit[ 1] = %d = TRG-OUT (%s)\n", (value >> 1) & 0x1, ((value >> 1) & 0x1) == 0 ? "enabled" : "high impedance" );
printf(" Bit[ 2] = %d = LVDS I/O [3:0] (%s)\n", (value >> 2) & 0x1, ((value >> 2) & 0x1) == 0 ? "input" : "output" );
printf(" Bit[ 3] = %d = LVDS I/O [7:4] (%s)\n", (value >> 3) & 0x1, ((value >> 3) & 0x1) == 0 ? "input" : "output" );
printf(" Bit[ 4] = %d = LVDS I/O [11:8] (%s)\n", (value >> 4) & 0x1, ((value >> 4) & 0x1) == 0 ? "input" : "output" );
printf(" Bit[ 5] = %d = LVDS I/O [15:12] (%s)\n", (value >> 5) & 0x1, ((value >> 5) & 0x1) == 0 ? "input" : "output" );
printf(" Bit[ 7:6] = %d = LVDS I/O Signal Config (", (value >> 6) & 0x3);
switch ((value >> 6) & 0x3){
case 0 : printf("general pupose)\n"); break;
case 1 : printf("programmed)\n"); break;
case 2 : printf("pattern mode)\n"); break;
}
printf(" Bit[ 8] = %d = LVDS I/O feature (%s)\n", (value >> 8) & 0x1, ((value >> 8) & 0x1) == 0? "old" : "new" );
printf(" Bit[ 9] = %d = LVDS I/O Latch Mode (%s)\n", (value >> 9) & 0x1, ((value >> 9) & 0x1) == 0? "global trigger" : "external trigger" );
printf(" Bit[ 10] = %d = TRG-IN control (%s)\n", (value >> 10) & 0x1, ((value >> 10) & 0x1) == 0? "trigger sync with the edge of TRG-IN" : "triger sync with whole TRG-IN");
printf(" Bit[ 11] = %d = TRG-IN to Mezzanines (%s)\n", (value >> 11) & 0x1, ((value >> 11) & 0x1) == 0? "by motherboard" : "directly to mezzanine");
printf(" Bit[ 14] = %d = Force TRG-OUT(%s)\n", (value >> 14) & 0x1, ((value >> 14) & 0x1) == 0? "0" : "1");
printf(" Bit[ 15] = %d = TRG-OUT mode(%s)\n", (value >> 15) & 0x1, ((value >> 15) & 0x1) == 0? "internal" : "Forced");
printf(" Bit[17:16] = %d = TRG-OUT mode(", (value >> 16) & 0x3);
switch ((value >> 16) & 0x3) {
case 0 : printf("Trigger)\n"); break;
case 1 : printf("Motherboard Probe)\n"); break;
case 2 : printf("Channel Probe)\n"); break;
case 3 : printf("S-IN)\n"); break;
}
printf(" Bit[19:18] = %d = Motherboard Probe(", (value >> 18) & 0x3);
switch ((value >> 18) & 0x3) {
case 0 : printf("RUN)\n"); break;
case 1 : printf("Clock)\n"); break;
case 2 : printf("Clock Phase)\n"); break;
case 3 : printf("BUSY/UNLOCK)\n"); break;
}
printf(" Bit[22:21] = %d = Patten Configure(%s)", (value >> 21) & 0x3, ((value >> 21) & 0x3) == 0 ? "default" : "Reserved");
}
void DigitizerPHA::PrintTriggerValidationMask(){
if( !isConnected ) return;
uint32_t value = PrintRegister(Register::DPP::TriggerValidationMask, "Trigger Validation Mask");
printf(" Bit[ 7:0] = 0x%x = Enabled Paired Channel\n", value & 0xff );
printf(" Bit[ 9:8] = %d = Operation (\n", (value >> 8) & 0x3 );
switch ( (value >> 8) & 0x3 ) {
case 0 : printf("OR)\n"); break;
case 1 : printf("AND)\n"); break;
case 2 : printf("Majority)\n"); break;
case 3 : printf("Reserved)\n"); break;
}
printf(" Bit[12:10] = %d = Majority Level\n", (value >> 10) & 0x7 );
printf(" Bit[ 28] = %d = LVDS I/O Global Trigger(%s)\n", (value >> 28) & 0x1, ((value >> 28) & 0x1) == 0 ? "disabled" : "enabled" );
printf(" Bit[ 29] = %d = LVDS I/O individual Trigger(%s)\n", (value >> 29) & 0x1, ((value >> 29) & 0x1) == 0 ? "disabled" : "enabled" );
printf(" Bit[ 30] = %d = External Trigger(%s)\n", (value >> 30) & 0x1, ((value >> 30) & 0x1) == 0 ? "disabled" : "enabled" );
printf(" Bit[ 31] = %d = Software Trigger(%s)\n", (value >> 31) & 0x1, ((value >> 31) & 0x1) == 0 ? "disabled" : "enabled" );
}
void DigitizerPHA::PrintBoardInfoRegister(){
if( !isConnected ) return;
uint32_t value = PrintRegister(Register::DPP::BoardInfo, "Board Info");
printf(" Bit[ 7:0] = %d = Digitizer Family Code ", value & 0xff );
switch ( value & 0xff ) {
case 0x0E : printf("( 725 family )\n"); break;
case 0x0B : printf("( 730 family )\n"); break;
}
printf(" Bit[ 15:8] = %d = Channel Memory Code ", (value >> 8 ) & 0xff );
switch ( (value >> 8 )& 0xff ) {
case 0x01 : printf("( 640 kSample per channel)\n"); break;
case 0x08 : printf("( 5.12 MSample per channel)\n"); break;
}
printf(" Bit[23:16] = %d = Channel Number ", (value >> 16 ) & 0xff );
switch ( (value >> 16 )& 0xff ) {
case 0x10 : printf("( 16 Channel )\n"); break;
case 0x08 : printf("( 8 Channel )\n"); break;
}
}
void DigitizerPHA::PrintBoardFailureState(){
if( !isConnected ) return;
uint32_t value = PrintRegister(Register::DPP::BoardFailureStatus, "Board Failure State");
printf(" Bit[4] = %d = PLL Lock Loss (%s)\n", (value >> 4) & 0x1, ( (value >> 4) & 0x1 ) == 0 ? "no error" : "Lock Loss");
printf(" Bit[5] = %d = Temperature Failure (%s)\n", (value >> 5) & 0x1, ( (value >> 5) & 0x1 ) == 0 ? "no error" : "over heat");
printf(" Bit[6] = %d = ADC Power Down (%s)\n", (value >> 6) & 0x1, ( (value >> 6) & 0x1 ) == 0 ? "no error" : "down");
}
void DigitizerPHA::PrintReadoutControl(){
if( !isConnected ) return;
uint32_t value = PrintRegister(Register::DPP::ReadoutControl, "Readout Control");
printf(" Bit[2:0] = %d = VME Interrupt Level %s\n", value & 0x3, ( value & 0x3 ) == 0 ? "(disabled)" : "");
printf(" Bit[ 3] = %d = Optical Link Interrupt (%s)\n", (value >> 3) & 0x1, ( (value >> 3) & 0x1 ) == 0 ? "disabled" : "enabled");
printf(" Bit[ 4] = %d = VME Bus Error / Event Aligned Readout (%s)\n", (value >> 4) & 0x1, ((value >> 4) & 0x1) == 0 ? "disabled" : "enabled") ;
printf(" Bit[ 5] = %d = VME Align64 Mode (%s)\n", (value >> 5) & 0x1, ((value >> 5) & 0x1) == 0 ? "disabled" : "enabled") ;
printf(" Bit[ 6] = %d = VME Base Address Relocation (%s)\n", (value >> 6) & 0x1, ((value >> 6) & 0x1) == 0 ? "disabled" : "enabled") ;
printf(" Bit[ 7] = %d = Interrupt Release Mode (%s)\n", (value >> 7) & 0x1, ((value >> 7) & 0x1) == 0 ? "Release On Register Access" : "Release On Acknowledge") ;
printf(" Bit[ 8] = %d = Extended Block Transfer Space (%s)\n", (value >> 8) & 0x1, ((value >> 8) & 0x1) == 0 ? "Release On Register Access" : "Release On Acknowledge") ;
}
void DigitizerPHA::PrintReadoutStatu(){
if( !isConnected ) return;
uint32_t value = PrintRegister(Register::DPP::ReadoutStatus, "Readout Status");
printf(" Bit[0] = %d = Event Ready (%s)\n", value & 0x1, (value & 0x1) == 0? "no date" : "ready");
printf(" Bit[2] = %d = Bus Error (%s)\n", (value >> 2) & 0x1, ((value >> 2) & 0x1) == 0? "no error" : "error occurred");
printf(" Bit[3] = %d = VME FIFO Flag (%s)\n", (value >> 3) & 0x1, ((value >> 3) & 0x1) == 0? "not empty" : "empty");
}
void DigitizerPHA::PrintChannelSettingFromDigitizer(int ch){
if( !isConnected ) return;
printf("\e[33m================================================\n");
printf("================ Setting for channel %d \n", ch);
printf("================================================\e[0m\n");
///DPP algorithm Control
uint32_t * value = new uint32_t[NChannel];
CAEN_DGTZ_ReadRegister(handle, Register::DPP::DPPAlgorithmControl + (ch << 8), value);
printf(" 32 28 24 20 16 12 8 4 0\n");
printf(" | | | | | | | | |\n");
cout <<" DPP algorithm Control : 0b" << bitset<32>(value[0]);
printf(" = 0x%x\n", value[0]);
int trapRescaling = int(value[0]) & 0x1f ;
int polarity = int(value[0] >> 16) & 0x1; /// in bit[16]
int baseline = int(value[0] >> 20) & 0x7; /// in bit[22:20]
int NsPeak = int(value[0] >> 12) & 0x3; /// in bit[13:12]
int rollOver = int(value[0] >> 26) & 0x1;
int pileUp = int(value[0] >> 27) & 0x1;
///DPP algorithm Control 2
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::DPPAlgorithmControl2_G + (ch << 8), value);
cout <<" DPP algorithm Control 2: 0b" << bitset<32>(value[0]) ;
printf(" = 0x%x\n", value[0]);
int extras2WordOption = int(value[0] >> 8) & 0x3;
string extra2WordOptStr = "";
switch (extras2WordOption){
case 0 : extra2WordOptStr = "[0:15] Baseline *4 [16:31] Extended Time Stamp"; break;
case 2 : extra2WordOptStr = "[0:9] Fine Time Stamp [10:15] Reserved [16:31] Extended Time Stamp"; break;
case 4 : extra2WordOptStr = "[0:15] Total Trigger Counter [16:31] Lost Trigger Counter"; break;
case 5 : extra2WordOptStr = "[0:15] Event After the Zero Crossing [16:31] Event Before the Zero Crossing"; break;
default: extra2WordOptStr = "Reserved"; break;
}
printf(" ch2ns : %.0f ns\n", ch2ns);
printf("==========----- input \n");
CAEN_DGTZ_ReadRegister(handle, Register::DPP::RecordLength_G + (ch << 8), value); printf("%24s %5d samples = %5.0f ns \n", "Record Length", ((value[0] * 8) & MaxRecordLength), ((value[0] * 8) & MaxRecordLength) * ch2ns); ///Record length
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PreTrigger + (ch << 8), value); printf("%24s %5d samples = %5.0f ns \n", "Pre-tigger", value[0] * 4, value[0] * 4 * ch2ns); ///Pre-trigger
printf("%24s %5.0f samples, DPP-[20:22]\n", "baseline mean", pow(4, 1 + baseline)); ///Ns baseline
CAEN_DGTZ_ReadRegister(handle, Register::DPP::ChannelDCOffset + (ch << 8), value); printf("%24s %.2f %% \n", "DC offset", 100.0 - value[0] * 100./ 0xFFFF); ///DC offset
CAEN_DGTZ_ReadRegister(handle, Register::DPP::InputDynamicRange + (ch << 8), value); printf("%24s %.1f Vpp \n", "input Dynamic", value[0] == 0 ? 2 : 0.5); ///InputDynamic
printf("%24s %s, DPP-[16]\n", "polarity", polarity == 0 ? "Positive" : "negative"); ///Polarity
printf("==========----- discriminator \n");
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::TriggerThreshold + (ch << 8), value); printf("%24s %4d LSB\n", "Threshold", value[0]); ///Threshold
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::TriggerHoldOffWidth + (ch << 8), value); printf("%24s %4d samples, %5.0f ns \n", "trigger hold off", value[0], value[0] * 4 * ch2ns); ///Trigger Hold off
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::RCCR2SmoothingFactor + (ch << 8), value); printf("%24s %4d samples, %5.0f ns \n", "Fast Dis. smoothing", (value[0] & 0x1f) * 2, (value[0] & 0x1f) * 2 * ch2ns ); ///Fast Discriminator smoothing
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::ShapedTriggerWidth + (ch << 8), value); printf("%24s %4d samples, %5.0f ns \n", "Fast Dis. output width", value[0], value[0] * 4 * ch2ns); ///Fast Dis. output width
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::InputRiseTime + (ch << 8), value); printf("%24s %4d samples, %5.0f ns \n", "Input rise time ", value[0], value[0] * 4 * ch2ns); ///Input rise time
printf("==========----- Trapezoid \n");
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::TrapezoidRiseTime + (ch << 8), value); printf("%24s %4d samples, %5.0f ns \n", "Trap. rise time", value[0], value[0] * 4 * ch2ns); ///Trap. rise time, 2 for 1 ch to 2ns
int riseTime = value[0] * 4 * ch2ns;
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::TrapezoidFlatTop + (ch << 8), value); printf("%24s %4d samples, %5.0f ns \n", "Trap. flat time", value[0], value[0] * 4 * ch2ns); ///Trap. flat time
int flatTopTime = value[0] * 4 * ch2ns;
double shift = log(riseTime * flatTopTime ) / log(2) - 2;
printf("%24s %4d bit =? %.1f = Ceil( Log(rise [ns] x decay [ns])/Log(2) ), DPP-[0:5]\n", "Trap. Rescaling", trapRescaling, shift ); ///Trap. Rescaling Factor
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::DecayTime + (ch << 8), value); printf("%24s %4d samples, %5.0f ns \n", "Decay time", value[0], value[0] * 4 * ch2ns); ///Trap. pole zero
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::PeakingTime + (ch << 8), value); printf("%24s %4d samples, %5.0f ns = %.2f %% of FlatTop\n", "Peaking time", value[0], value[0] * 4 * ch2ns, value[0] * 400. * ch2ns / flatTopTime ); ///Peaking time
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::PeakHoldOff + (ch << 8), value); printf("%24s %4d samples, %5.0f ns \n", "Peak hole off", value[0], value[0] * 4 *ch2ns ); ///Peak hold off
printf("%24s %4.0f samples, DPP-[12:13]\n", "Peak mean", pow(4, NsPeak)); ///Ns peak
printf("==========----- Other \n");
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::FineGain + (ch << 8), value); printf("%24s %d = 0x%x\n", "Energy fine gain", value[0], value[0]); ///Energy fine gain
CAEN_DGTZ_ReadRegister(handle, Register::DPP::ChannelADCTemperature + (ch << 8), value); printf("%24s %d C\n", "Temperature", value[0]); ///Temperature
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::RiseTimeValidationWindow + (ch << 8), value); printf("%24s %.0f ns \n", "RiseTime Vaild Win.", value[0] * ch2ns);
CAEN_DGTZ_ReadRegister(handle, Register::DPP::PHA::ChannelStopAcquisition + (ch << 8), value); printf("%24s %d = %s \n", "Stop Acq bit", value[0] & 1 , (value[0] & 1 ) == 0 ? "Run" : "Stop");
CAEN_DGTZ_ReadRegister(handle, Register::DPP::ChannelStatus + (ch << 8), value); printf("%24s 0x%x \n", "Status bit", (value[0] & 0xff) );
CAEN_DGTZ_ReadRegister(handle, Register::DPP::AMCFirmwareRevision + (ch << 8), value); printf("%24s 0x%x \n", "AMC firmware rev.", value[0] );
CAEN_DGTZ_ReadRegister(handle, Register::DPP::VetoWidth + (ch << 8), value); printf("%24s 0x%x \n", "VetoWidth bit", value[0] );
printf("%24s %d = %s\n", "RollOverFlag, DPP-[26]", rollOver, rollOver ? "enable" : "disable" );
printf("%24s %d = %s\n", "Pile-upFlag, DPP-[27]", pileUp, pileUp ? "enable" : "disable" );
printf("%24s %d, %s \n", "Extra2 opt, DPP2-[8:10]", extras2WordOption, extra2WordOptStr.c_str());
printf("========= events storage and transfer\n");
CAEN_DGTZ_ReadRegister(handle, Register::DPP::NumberEventsPerAggregate_G + (ch << 8), value); printf("%24s %d \n", "Event Aggregate", value[0] & 0x3FF);
CAEN_DGTZ_ReadRegister(handle, Register::DPP::AggregateOrganization, value); printf("%24s %d \n", "Buffer Division", ((value[0] & 0x007) < 2 ? 0 : (int)pow(2, value[0] & 7)));
CAEN_DGTZ_ReadRegister(handle, Register::DPP::MaxAggregatePerBlockTransfer , value); printf("%24s %d \n", "Num of Agg. / ReadData", value[0] & 0x1FF);
printf("========================================= end of ch-%d\n", ch);
}