Calorimeter ECAL (tungsten silicon) HCAL (tile, iron - scintillator)

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Calorimeter ECAL (tungsten silicon) HCAL (tile, iron - scintillator) Vasiliy Morgunov DESY, Hamburg and ITEP, Moscow Workshop, Padova - May 00 Vasiliy Morgunov Padova, - May 00

Calorimeter parameters ECAL W-0. G-0. Si-0.0 G-0. cm ECAL W-0. G-0. Si-0.0 G-0. cm HCAL Fe-.0 Sc-0. Gap-0. cm ECAL ECAL HCAL Density.07.70.3 g=cm 3 X0 0.939 0.. cm Lambda 0..07.3 cm Vasiliy Morgunov Padova, - May 00

Calorimeter geometry Vasiliy Morgunov Padova, - May 00

Calorimeter geometry Vasiliy Morgunov Padova, - May 00

Calorimeter geometry Vasiliy Morgunov Padova, - May 00

Calorimeter geometry fine structure sectors Vasiliy Morgunov Padova, - May 00

Calorimeter geometry fine structure sectors Vasiliy Morgunov Padova, - May 00

JE T ffl e + e! qμq PITHYA events with fixed energy and fixed initial parton direction. ffl Four flavours u; d; c and b, five energies (,, 0, 0, 0 GeV) per parton 00 events of each. ffl Heavy mesons and fi -lepton decays made by PITHYA. ffl No any cuts at the PITHYA level. ffl Every initial (for GEANT) particle was separated in two hemispheres in q and μq momentum directions. ffl Only one part of e + e event was used as one of GEANT input event. ffl Magnetic field in the detector 3 Tesla, so for energy collection all calorimeter was used (no cuts in hemispheres). ffl There was no any spatial or cluster reconstruction procedure used sampling weighted energy sum ONLY. ffl Suggestions are: very good jet cluster finding and jet reconstruction procedures. ffl There were runs with separate particles as : e; fl; ß ; p; n; K 0 L, that are the jet components (,, 3,,, 0, 0, 0 GeV; 00 events of each) Vasiliy Morgunov Padova, - May 00

Event sample b-quark 0 GeV Vasiliy Morgunov Padova, - May 00

Event sample b-quark 0 GeV Vasiliy Morgunov Padova, - May 00

Particles impact points u-quark 0 GeV 00/0/03. cm 0 0 0-0 -0-0 -0-0 0 0 0 0 cm Unfolded calorimeter surface Vasiliy Morgunov Padova, - May 00

CPU time Time per one event processing in seconds Energy (GeV) 0 0 0 b 37..9.3.. c 3..0... d 7. 7....7 u 3.. 9...7 Vasiliy Morgunov Padova, - May 00

Particle reconstructed energy 00/0/0 7.3 E reconstr./e beam.3.. Reconstructed energy vs Beam kinetic energy...0 0.9 0.9 Beam kinetic energy (GeV) Vasiliy Morgunov Padova, - May 00

Jet reconstructed energy 00/0/0. E reconstructed / E initial..07.0 Reconstructed energy vs initial parton energy.0 0.97 0.9 0.9 0.9 Parton initial energy (GeV) Vasiliy Morgunov Padova, - May 00

Jet reconstructed energy 00/0/03.0 E reconstructed / E initial..07.0 Reconstructed energy vs initial parton energy.0 0.97 0.9 0.9 0.9 - sectors Parton initial energy (GeV) Vasiliy Morgunov Padova, - May 00

Sqare root of E - law? 00/0/7. Sigma(E)/E % Energy resolution for c-quark 0 0 0.0 0. 0. 0. 0. 0.3 0.3 0. 0. 0. /sqrt(e) Vasiliy Morgunov Padova, - May 00

Particle energy resolution Sigma(E)/E % 3 Energy resolution 00/0/0 7.3 0 0 0. 0. 0. 0. /sqrt(e) Vasiliy Morgunov Padova, - May 00

Jet energy resolution Sigma(E)/E % Energy resolution 00/0/0. 0 0 0.0 0. 0. 0. 0. 0.3 0.3 0. /sqrt(e) Vasiliy Morgunov Padova, - May 00

Jet energy resolution Sigma(E)/E % Energy resolution 00/0/03.0 - sectors 0 0 0.0 0. 0. 0. 0. 0.3 0.3 0. /sqrt(e) Vasiliy Morgunov Padova, - May 00

Energy resolution 00/0/0.00 Resolution vs Energy Energy resolution (GeV) - Reconstructed energy (GeV) Vasiliy Morgunov Padova, - May 00

Particle energy resolution Resolution vs Energy 00/0/0 7.3 Resolution (GeV) - Particle kinetic energy (GeV) Vasiliy Morgunov Padova, - May 00

Jet energy resolution Resolution vs Energy 00/0/0. Energy resolution (GeV) 9 7 3 Reconstructed parton energy (GeV) Vasiliy Morgunov Padova, - May 00

Jet energy resolution Resolution vs Energy 00/0/03.0 Energy resolution (GeV) 9 7 3 Reconstructed parton energy (GeV) - sectors Vasiliy Morgunov Padova, - May 00

Calorimeter structures with different number of sectors sectors 3 layers for HCAL are allowed sectors 3 layers for HCAL are allowed sectors 3 layers for HCAL are allowed sectors 3 layers for HCAL are allowed Vasiliy Morgunov Padova, - May 00

At 0 degree of ffi 00/0/9 7. Calorimeter nuclear depth vs polar angle Nuclear absortion length 9 Phi 0 degree 7 sectors sectors sectors sectors 0 0 70 0 90 Theta (degree) Vasiliy Morgunov Padova, - May 00

Nuclear absortion length Critical cut at 90 degree of Calorimeter nuclear depth vs azimutal angle...9 sectors Theta 90 degree 00/0/9 7.. sectors.7.. sectors..3. sectors 0 0 0 0 Phi (degree) Vasiliy Morgunov Padova, - May 00

Histogram sample 0 7 0 ID Entries Mean RMS Energy resolution for c-quark 3 77 9. 7..7 / Constant 0. Mean 9.3 Sigma.3 0 7 0 ID Entries Mean RMS 00/0/7. 3 73 9.3.3.0 / Constant 9.3 Mean 99.97 Sigma.3 0 0 0 0 0 E (GeV) 0 0 0 E (GeV) 0 7 0 ID Entries Mean RMS 3 70 9.7.9.9 / Constant 9. Mean 0.00 Sigma 3.3 0 7 0 ID Entries Mean RMS 3 77...3 / Constant 77. Mean.7 Sigma.3 0 E (GeV) 0 E (GeV) ID Entries Mean RMS 3 3 9..3 3. / Constant.9 Mean 9.3 Sigma.33 0 E (GeV) Vasiliy Morgunov Padova, - May 00

Energy leakage u-quark 0 GeV 00/0/.7 3 Energy leakage distribution ID Entries Mean RMS 99..09 0. 7.. 7.. Energy leakage (GeV) 00/0/03. Leakage (%) 7 Average energy leakage after calorimeter 3 0 0 0 7 0 0 7 0 Parton energy (GeV) Vasiliy Morgunov Padova, - May 00

Spectrum of neutral hadrons Spectrumes of neutral hadrons in initial events 00/0/03.7 0 0 0 E (GeV) 0 0 0 E (GeV) 0 0 0 E (GeV) 0 0 0 E (GeV) Initial parton energy = 0GeV Vasiliy Morgunov Padova, - May 00

Leakage Calorimeter energy correlation Number of neutral hadrons per parton (0GeV ) K 0 L n b 0.9 0. c 0.9 0.990 Remark: e = : e = : d 0.3. u 0.9.0 00/0/03.0 0 0 Leakage energy VS energy in calorimeter 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 sectors Vasiliy Morgunov Padova, - May 00

Leakage Calorimeter energy correlation 00/0/03.0 0 0 Leakage energy VS energy in calorimeter 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 sectors Vasiliy Morgunov Padova, - May 00

Leakage Calorimeter energy correlation 00/0/03.0 00/0/03.0 0 70 0 Leakage energy VS energy in calorimeter 0 70 0 3 Leakage energy VS energy in calorimeter 3 0 0 0 0 0 70 0 0 70 0 3 3 0 0 0 0 00/0/03.0 00/0/03.0 Leakage energy VS energy in calorimeter 7 3 Leakage energy VS energy in calorimeter 7 3 7.. 7.. 7 3 7 3 -sectors Vasiliy Morgunov Padova, - May 00

Leakage Calorimeter energy correlation 00/0/03.0 00/0/03.0 0 70 0 Leakage energy VS energy in calorimeter 0 70 0 3 Leakage energy VS energy in calorimeter 3 0 0 0 0 0 70 0 0 70 0 3 3 0 0 0 0 00/0/03.0 00/0/03.0 Leakage energy VS energy in calorimeter 7 3 Leakage energy VS energy in calorimeter 7 3 7.. 7.. 7 3 7 3 sectors Vasiliy Morgunov Padova, - May 00

Leakage numericaly Percentage of events with a leakage more then % of energy -sectors Energy [GeV] 0 0 0 b.9 7.3. 7. 3.0 c 9. 7...3. d. 9.9. 9.7. u. 9.9... in average 7..7.7 9.. -sectors Energy [GeV] 0 0 0 b.0 3....3 c. 3.3.0.7.3 d.3 9.7 3. 3.9.7 u.7 3..3 3.9. in average. 3.. 3.7.7 Vasiliy Morgunov Padova, - May 00

Leakage correlation 00/0/9.0 Sum of Energy in last seven layers VS Energy leakage. 7.. 7... 7.. 7... 7.. 7... 7.. 7.. V. Korbel proposal checking Vasiliy Morgunov Padova, - May 00

ECAL HCAL energy correlation 00/0/9.0 00/0/9.0 Energy in ECAL VS energy in HCAL Energy in ECAL VS energy in HCAL 0 7 0 0 7 0 0 7 0 0 7 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 7 0 0 7 0 0 7 0 0 7 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 00/0/9.0 00/0/9.0 70 0 Energy in ECAL VS energy in HCAL 70 0 Energy in ECAL VS energy in HCAL 70 0 70 0 Vasiliy Morgunov Padova, - May 00

Proposal Anti-coincidence trigger for SUSY missing E T Calorimeter with 0 % efficiency outside the magnet vessel. Vasiliy Morgunov Padova, - May 00