o2::aod::zdc Namespace Reference

Functions
	DECLARE_SOA_INDEX_COLUMN (BC, bc)
	DECLARE_SOA_COLUMN (EnergyZEM1, energyZEM1, float)
	BC index, to be used by both legacy and new table.
	DECLARE_SOA_COLUMN (EnergyZEM2, energyZEM2, float)
	DECLARE_SOA_COLUMN (EnergyCommonZNA, energyCommonZNA, float)
	DECLARE_SOA_COLUMN (EnergyCommonZNC, energyCommonZNC, float)
	DECLARE_SOA_COLUMN (EnergyCommonZPA, energyCommonZPA, float)
	DECLARE_SOA_COLUMN (EnergyCommonZPC, energyCommonZPC, float)
	DECLARE_SOA_COLUMN (EnergySectorZNA, energySectorZNA, float[4])
	DECLARE_SOA_COLUMN (EnergySectorZNC, energySectorZNC, float[4])
	DECLARE_SOA_COLUMN (EnergySectorZPA, energySectorZPA, float[4])
	DECLARE_SOA_COLUMN (EnergySectorZPC, energySectorZPC, float[4])
	DECLARE_SOA_COLUMN (TimeZEM1, timeZEM1, float)
	DECLARE_SOA_COLUMN (TimeZEM2, timeZEM2, float)
	DECLARE_SOA_COLUMN (TimeZNA, timeZNA, float)
	DECLARE_SOA_COLUMN (TimeZNC, timeZNC, float)
	DECLARE_SOA_COLUMN (TimeZPA, timeZPA, float)
	DECLARE_SOA_COLUMN (TimeZPC, timeZPC, float)
	DECLARE_SOA_COLUMN (Energy, energy, std::vector< float >)
	DECLARE_SOA_COLUMN (ChannelE, channelE, std::vector< uint8_t >)
	Energy of non-zero channels. The channel IDs are given in ChannelE (at the same index)
	DECLARE_SOA_COLUMN (Amplitude, amplitude, std::vector< float >)
	Channel IDs which have reconstructed energy. There are at maximum 26 channels.
	DECLARE_SOA_COLUMN (Time, time, std::vector< float >)
	Amplitudes of non-zero channels. The channel IDs are given in ChannelT (at the same index)
	DECLARE_SOA_COLUMN (ChannelT, channelT, std::vector< uint8_t >)
	Times of non-zero channels. The channel IDs are given in ChannelT (at the same index)
	DECLARE_SOA_DYNAMIC_COLUMN (DyEnergyZEM1, energyZEM1, [](gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto ne=channelE.size();auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZEM1) { thisenergy=energy[ie];break;} } return thisenergy;})
	Channel IDs which had non-zero amplitudes. There are at maximum 26 channels.
	DECLARE_SOA_DYNAMIC_COLUMN (DyEnergyZEM2, energyZEM2, [](gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZEM2) { thisenergy=energy[ie];break;} } return thisenergy;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyEnergyCommonZNA, energyCommonZNA, [](gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZNAC) { thisenergy=energy[ie];break;} } return thisenergy;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyEnergyCommonZNC, energyCommonZNC, [](gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZNCC) { thisenergy=energy[ie];break;} } return thisenergy;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyEnergyCommonZPA, energyCommonZPA, [](gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZPAC) { thisenergy=energy[ie];break;} } return thisenergy;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyEnergyCommonZPC, energyCommonZPC, [](gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZPCC) { thisenergy=energy[ie];break;} } return thisenergy;})
	for (uint64_t ie=0;ie< channelE.size();ie++)
	DECLARE_SOA_DYNAMIC_COLUMN (DyTimeZEM1, timeZEM1, [](gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZEM1) { thistime=time[ie];break;} } return thistime;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyTimeZEM2, timeZEM2, [](gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZEM2) { thistime=time[ie];break;} } return thistime;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyTimeZNA, timeZNA, [](gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZNAC) { thistime=time[ie];break;} } return thistime;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyTimeZNC, timeZNC, [](gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZNCC) { thistime=time[ie];break;} } return thistime;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyTimeZPA, timeZPA, [](gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZPAC) { thistime=time[ie];break;} } return thistime;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyTimeZPC, timeZPC, [](gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZPCC) { thistime=time[ie];break;} } return thistime;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyAmplitudeZEM1, amplitudeZEM1, [](gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZEM1) { thisamplitude=amplitude[ie];break;} } return thisamplitude;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyAmplitudeZEM2, amplitudeZEM2, [](gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZEM2) { thisamplitude=amplitude[ie];break;} } return thisamplitude;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyAmplitudeZNA, amplitudeZNA, [](gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZNAC) { thisamplitude=amplitude[ie];break;} } return thisamplitude;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyAmplitudeZNC, amplitudeZNC, [](gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZNCC) { thisamplitude=amplitude[ie];break;} } return thisamplitude;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyAmplitudeZPA, amplitudeZPA, [](gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZPAC) { thisamplitude=amplitude[ie];break;} } return thisamplitude;})
	DECLARE_SOA_DYNAMIC_COLUMN (DyAmplitudeZPC, amplitudeZPC, [](gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZPCC) { thisamplitude=amplitude[ie];break;} } return thisamplitude;})

Variables
gsl::span< const uint8_t >	channelE
return	thisenergy

Function Documentation

DECLARE_SOA_COLUMN() [1/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	Amplitude	,
		amplitude	,
		std::vector< float >
	)

Channel IDs which have reconstructed energy. There are at maximum 26 channels.

DECLARE_SOA_COLUMN() [2/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	ChannelE	,
		channelE	,
		std::vector< uint8_t >
	)

Energy of non-zero channels. The channel IDs are given in ChannelE (at the same index)

DECLARE_SOA_COLUMN() [3/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	ChannelT	,
		channelT	,
		std::vector< uint8_t >
	)

Times of non-zero channels. The channel IDs are given in ChannelT (at the same index)

DECLARE_SOA_COLUMN() [4/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	Energy	,
		energy	,
		std::vector< float >
	)

DECLARE_SOA_COLUMN() [5/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	EnergyCommonZNA	,
		energyCommonZNA	,
		float
	)

DECLARE_SOA_COLUMN() [6/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	EnergyCommonZNC	,
		energyCommonZNC	,
		float
	)

DECLARE_SOA_COLUMN() [7/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	EnergyCommonZPA	,
		energyCommonZPA	,
		float
	)

DECLARE_SOA_COLUMN() [8/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	EnergyCommonZPC	,
		energyCommonZPC	,
		float
	)

DECLARE_SOA_COLUMN() [9/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	EnergySectorZNA	,
		energySectorZNA	,
		float	[4]
	)

DECLARE_SOA_COLUMN() [10/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	EnergySectorZNC	,
		energySectorZNC	,
		float	[4]
	)

DECLARE_SOA_COLUMN() [11/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	EnergySectorZPA	,
		energySectorZPA	,
		float	[4]
	)

DECLARE_SOA_COLUMN() [12/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	EnergySectorZPC	,
		energySectorZPC	,
		float	[4]
	)

DECLARE_SOA_COLUMN() [13/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	EnergyZEM1	,
		energyZEM1	,
		float
	)

BC index, to be used by both legacy and new table.

DECLARE_SOA_COLUMN() [14/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	EnergyZEM2	,
		energyZEM2	,
		float
	)

DECLARE_SOA_COLUMN() [15/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	Time	,
		time	,
		std::vector< float >
	)

Amplitudes of non-zero channels. The channel IDs are given in ChannelT (at the same index)

DECLARE_SOA_COLUMN() [16/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	TimeZEM1	,
		timeZEM1	,
		float
	)

DECLARE_SOA_COLUMN() [17/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	TimeZEM2	,
		timeZEM2	,
		float
	)

DECLARE_SOA_COLUMN() [18/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	TimeZNA	,
		timeZNA	,
		float
	)

DECLARE_SOA_COLUMN() [19/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	TimeZNC	,
		timeZNC	,
		float
	)

DECLARE_SOA_COLUMN() [20/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	TimeZPA	,
		timeZPA	,
		float
	)

DECLARE_SOA_COLUMN() [21/21]

o2::aod::zdc::DECLARE_SOA_COLUMN	(	TimeZPC	,
		timeZPC	,
		float
	)

DECLARE_SOA_DYNAMIC_COLUMN() [1/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyAmplitudeZEM1	,
		amplitudeZEM1	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZEM1) { thisamplitude=amplitude[ie];break;} } return thisamplitude;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [2/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyAmplitudeZEM2	,
		amplitudeZEM2	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZEM2) { thisamplitude=amplitude[ie];break;} } return thisamplitude;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [3/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyAmplitudeZNA	,
		amplitudeZNA	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZNAC) { thisamplitude=amplitude[ie];break;} } return thisamplitude;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [4/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyAmplitudeZNC	,
		amplitudeZNC	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZNCC) { thisamplitude=amplitude[ie];break;} } return thisamplitude;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [5/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyAmplitudeZPA	,
		amplitudeZPA	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZPAC) { thisamplitude=amplitude[ie];break;} } return thisamplitude;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [6/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyAmplitudeZPC	,
		amplitudeZPC	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > amplitude) -> float { auto thisamplitude=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZPCC) { thisamplitude=amplitude[ie];break;} } return thisamplitude;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [7/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyEnergyCommonZNA	,
		energyCommonZNA	,
		[] (gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZNAC) { thisenergy=energy[ie];break;} } return thisenergy;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [8/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyEnergyCommonZNC	,
		energyCommonZNC	,
		[] (gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZNCC) { thisenergy=energy[ie];break;} } return thisenergy;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [9/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyEnergyCommonZPA	,
		energyCommonZPA	,
		[] (gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZPAC) { thisenergy=energy[ie];break;} } return thisenergy;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [10/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyEnergyCommonZPC	,
		energyCommonZPC	,
		[] (gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZPCC) { thisenergy=energy[ie];break;} } return thisenergy;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [11/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyEnergyZEM1	,
		energyZEM1	,
		[] (gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto ne=channelE.size();auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZEM1) { thisenergy=energy[ie];break;} } return thisenergy;}
	)

Channel IDs which had non-zero amplitudes. There are at maximum 26 channels.

DECLARE_SOA_DYNAMIC_COLUMN() [12/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyEnergyZEM2	,
		energyZEM2	,
		[] (gsl::span< const uint8_t > channelE, gsl::span< const float > energy) -> float { auto thisenergy=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelE.size();ie++) { if(channelE[ie]==o2::zdc::IdZEM2) { thisenergy=energy[ie];break;} } return thisenergy;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [13/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyTimeZEM1	,
		timeZEM1	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZEM1) { thistime=time[ie];break;} } return thistime;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [14/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyTimeZEM2	,
		timeZEM2	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZEM2) { thistime=time[ie];break;} } return thistime;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [15/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyTimeZNA	,
		timeZNA	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZNAC) { thistime=time[ie];break;} } return thistime;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [16/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyTimeZNC	,
		timeZNC	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZNCC) { thistime=time[ie];break;} } return thistime;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [17/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyTimeZPA	,
		timeZPA	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZPAC) { thistime=time[ie];break;} } return thistime;}
	)

DECLARE_SOA_DYNAMIC_COLUMN() [18/18]

o2::aod::zdc::DECLARE_SOA_DYNAMIC_COLUMN	(	DyTimeZPC	,
		timeZPC	,
		[] (gsl::span< const uint8_t > channelT, gsl::span< const float > time) -> float { auto thistime=-std::numeric_limits< float >::infinity();for(uint64_t ie=0;ie< channelT.size();ie++) { if(channelT[ie]==o2::zdc::IdZPCC) { thistime=time[ie];break;} } return thistime;}
	)

DECLARE_SOA_INDEX_COLUMN()

o2::aod::zdc::DECLARE_SOA_INDEX_COLUMN	(	BC	,
		bc
	)

for()

o2::aod::zdc::for

(

)

Definition at line 1239 of file AnalysisDataModel.h.

Variable Documentation

channelE

gsl::span< const uint8_t > o2::aod::zdc::channelE

Definition at line 1233 of file AnalysisDataModel.h.

thisenergy

return o2::aod::zdc::thisenergy

Definition at line 1249 of file AnalysisDataModel.h.