Neural Network Based Approach to Recognition of Meteor Tracks in the Mini-EUSO Telescope Data

Zotov, Mikhail, Anzhiganov, Dmitry, Kryazhenkov, Aleksandr, Barghini, Dario, Battisti, Matteo, Belov, Alexander, Bertaina, Mario, Bianciotto, Marta, Bisconti, Francesca, Blaksley, Carl, Blin, Sylvie, Cambiè, Giorgio, Capel, Francesca, Casolino, Marco, Ebisuzaki, Toshikazu, Eser, Johannes, Fenu, Francesco, Franceschi, Massimo Alberto, Golzio, Alessio, Gorodetzky, Philippe, Kajino, Fumiyoshi, Kasuga, Hiroshi, Klimov, Pavel, Manfrin, Massimiliano, Marcelli, Laura, Miyamoto, Hiroko, Murashov, Alexey, Napolitano, Tommaso, Ohmori, Hiroshi, Olinto, Angela, Parizot, Etienne, Picozza, Piergiorgio, Piotrowski, Lech Wiktor, Plebaniak, Zbigniew, Prévôt, Guillaume, Reali, Enzo, Ricci, Marco, Romoli, Giulia, Sakaki, Naoto, Shinozaki, Kenji, De La Taille, Christophe, Takizawa, Yoshiyuki, Vrábel, Michal, Wiencke, Lawrence

arXiv.org Artificial Intelligence 

The JEM-EUSO (Joint Exploratory Missions for Extreme Universe Space Observatory) collaboration is developing a program of studying ultra-high energy cosmic rays (UHECRs) with a wide angle telescope from a low Earth orbit [1, 2, 3]. The idea is based on the possibility to register fluorescence and Cherenkov radiation in the ultraviolet (UV) range that is emitted during development of extensive air showers generated by primary particles hitting the atmosphere [4]. There are several benefits of this technique in comparison with ground-based experiments: (i) it can provide a huge exposure necessary for collecting sufficient statistics of these extremely rare events; (ii) the celestial sphere can be observed almost uniformly, which is important for anisotropy studies; and (iii) the whole sky can be observed with one instrument. It became clear at early stages of the development of the JEM-EUSO program that an orbital telescope aimed at studying UHECRs can serve as a tool for exploring other phenomena that manifest themselves in the UV range in the nocturnal atmosphere of Earth [5]. It was demonstrated by TUS, the world's first orbital fluorescence telescope aimed for testing the technique of studying UHECRs from space, that such an instrument can provide data on transient luminous events, thunderstorm activity, meteors, anthropogenic illumination of different kinds, and other types of signals [6, 7].