Comparison between BFEM data and G4 simulation October 18, 2001 Balloon Analysis VRVS meeting T. Mizuno, H. Mizushima, Y. Fukazawa, and T. Kamae

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Presentation transcript:

Comparison between BFEM data and G4 simulation October 18, 2001 Balloon Analysis VRVS meeting T. Mizuno, H. Mizushima, Y. Fukazawa, and T. Kamae

Main purpose of this work is to construct reliable Cosmic-Ray generator and BFEM simulator. In order to do this, we have been constructing cosmic-ray generators and running Geant4 simulator. We regard that major components of cosmic-ray particles are CR proton, electron, positron, gamma, and muon, and constructed their generators. For proton and electron generator, see LAT-TD (and note that electron spectrum are now extrapolated down to 10MeV with E^-1). We are also preparing a description for others. We have not reach goal. We need to improve the simulator and generators by comparing BFEM data and simulation results (L1T rate, neutron event rate, hit distribution in TKR). Overview of this study

Distribution of Top-most hit layer BFEM data vs. G4 simulationContribution of each component observed L1T rate = ~500Hz Proton positron electron gamma Calorimeter   Top of TKR muon(plus) muon(minus) simulated L1T rate = ~560Hz proton:~205Hz electron:~95Hz positron:~60Hz gamma:~105Hz muon:~90Hz

Distribution of Hit Frequency BFEM data vs. G4 simulation Contribution of each component Slight deviation is seen in layer 0-5 and proton electron gamma positron muon(plus) muon(minus)

Distribution of Hit Frequency for neutral events BFEM data vs. G4 simulation Contribution of each component proton electron gamma positron muon(plus) observed = ~50Hz simulated = 67Hz proton:~4Hz electron:~12Hz positron:~7Hz gamma:~40Hz muon:~4Hz gamma-ray is dominant in layer 15 or higher, and in this region, simulation overestimates hit frequency. We may need to adjust gamma-ray flux or angular distribution.

Summary We plan to construct reliable CR generators and simulator. We have constructed CR proton, electron, positron, gamma, and muon generators. Observed data and simulation show good agreement in L1T rate (500Hz vs. 560Hz) There exists a slight difference in hit distribution in TKR. Neutral event rate of simulation is larger than that of real data. Future plan Adjust CR generator, especially gamma-ray flux and angular dependence. Combine two CR particles and see the effect. Update simulator (support structure for BFEM). Apply proton/muon cuts to both real data and simulation data, and adjust proton (muon) flux in generator.