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AND HADRONIC SHOWER SIMULATION WITH FLUKA

FLUKA 1 is a multipurpose transport Monte Carlo code, able to treat hadron–hadron, hadron–nucleus, nucleus–nucleus, electromagnetic, μ and neutrino interactions up to 10000 TeV. Charged particle transport (handled in magnetic field too) includes all relevant processes. FLUKA is developed by implementing or including original and well tested microscopic models and its performances are optimized comparing to particle production data at single interaction level. No tuning whatsoever is performed on “integral” data, such as calorimeter resolutions, thick target yields, etc. Results in complex cases, as well as scaling laws and properties, come forth naturally from the underlying physical models and the basic conservation laws are fulfilled a priori. Whenever possible analytical sampling is preferred to rejection techniques, in order to optimize speed, while, in order to maintain a high degree of accuracy, lookup tables have been privileged with respect to analytical approximation. Energy is conserved in each process within the computer accuracy. Here we review, also by means of application examples, some of the FLUKA features which are interesting for calorimetry.