The FLUKA Monte Carlo simulation of the magnetic spectrometer of the FOOT experiment

Dong, Y.; Valle, S. M.; Battistoni, G.; Mattei, I.; Finck, C.; Patera, V.; Alexandrov, A.; Alpat, B.; Ambrosi, G.; Argiro, S.; Barbanera, M.; Bartosik, N.; Bisogni, M. G.; Boccia, V.; Cavanna, F.; Cerello, P.; Ciarrocchi, E.; De Gregorio, A.; De Lellis, G.; Di Crescenzo, A.; Di Ruzza, B.; Donetti, M.; Durante, M.; Faccini, R.; Ferrero, V.; Fiorina, E.; Francesconi, M.; Franchini, M.; Franciosini, G.; Galati, G.; Galli, L.; Ionica, M.; Iuliano, A.; Kanxheri, K.; Kraan, A. C.; La Tessa, C.; Lauria, A.; Lopez Torres, E.; Magi, M.; Manna, A.; Marafini, M.; Massa, M.; Massimi, C.; Mengarelli, A.; Mereghetti, A.; Minniti, T.; Moggi, A.; Montesi, M. C.; Morone, M. C.; Morrocchi, M.; Pastrone, N.; Peverini, F.; Pennazio, F.; Pisanti, C.; Placidi, P.; Pullia, M.; Ramello, L.; Reidel, C.; Ridolfi, R.; Sabatini, L.; Salvi, L.; Sanelli, C.; Sarti, A.; Sato, O.; Savazzi, S.; Scavarda, L.; Schiavi, A.; Schuy, C.; Scifoni, E.; Servoli, L.; Silvestre, G.; Sitta, M.; Spighi, R.; Spiriti, E.; Tioukov, V.; Tomassini, S.; Tommasino, F.; Toppi, M.; Trigilio, A.; Traini, G.; Ubaldi, G.; Valetti, A.; Vanstalle, M.; Villa, M.; Weber, U.; Zarrella, R.; Zoccoli, A.; Muraro, S.

doi:10.1016/j.cpc.2024.109398

The FOOT experiment of INFN is devoted to the measurement of the nuclear fragmentation double differential cross sections useful for the improvement of calculation models adopted in hadrontherapy and radioprotection. A detailed Monte Carlo simulation of the FOOT magnetic spectrometer has been implemented in order to optimize the design and to guide data analysis. This task has been accomplished by means of the FLUKA Monte Carlo code. The input files of the FLUKA simulations are created from the software framework of the experiment, in order to have a consistent generation and description of geometry and materials in both simulation and data analysis. In addition, this ensures the possibility of processing both simulated and real data with the same data analysis procedures. Databases containing specific parameters describing the setup employed in each different data taking campaign are used. A customized event-by-event output of the Monte Carlo code has been developed. It can be read out by the general software framework of FOOT, enabling access to the generation history of all particles in the same event. This output structure therefore gives the possibility to perform a detailed analysis and study of all relevant processes, allowing the detailed tracking reconstruction of all individual particles. Examples of results are presented.

The FLUKA Monte Carlo simulation of the magnetic spectrometer of the FOOT experiment / Dong, Y.; Valle, S. M.; Battistoni, G.; Mattei, I.; Finck, C.; Patera, V.; Alexandrov, A.; Alpat, B.; Ambrosi, G.; Argiro, S.; Barbanera, M.; Bartosik, N.; Bisogni, M. G.; Boccia, V.; Cavanna, F.; Cerello, P.; Ciarrocchi, E.; De Gregorio, A.; De Lellis, G.; Di Crescenzo, A.; Di Ruzza, B.; Donetti, M.; Durante, M.; Faccini, R.; Ferrero, V.; Fiorina, E.; Francesconi, M.; Franchini, M.; Franciosini, G.; Galati, G.; Galli, L.; Ionica, M.; Iuliano, A.; Kanxheri, K.; Kraan, A. C.; La Tessa, C.; Lauria, A.; Lopez Torres, E.; Magi, M.; Manna, A.; Marafini, M.; Massa, M.; Massimi, C.; Mengarelli, A.; Mereghetti, A.; Minniti, T.; Moggi, A.; Montesi, M. C.; Morone, M. C.; Morrocchi, M.; Pastrone, N.; Peverini, F.; Pennazio, F.; Pisanti, C.; Placidi, P.; Pullia, M.; Ramello, L.; Reidel, C.; Ridolfi, R.; Sabatini, L.; Salvi, L.; Sanelli, C.; Sarti, A.; Sato, O.; Savazzi, S.; Scavarda, L.; Schiavi, A.; Schuy, C.; Scifoni, E.; Servoli, L.; Silvestre, G.; Sitta, M.; Spighi, R.; Spiriti, E.; Tioukov, V.; Tomassini, S.; Tommasino, F.; Toppi, M.; Trigilio, A.; Traini, G.; Ubaldi, G.; Valetti, A.; Vanstalle, M.; Villa, M.; Weber, U.; Zarrella, R.; Zoccoli, A.; Muraro, S.. - In: COMPUTER PHYSICS COMMUNICATIONS. - ISSN 0010-4655. - 307:(2025), pp. 1-18. [10.1016/j.cpc.2024.109398]