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Detection Potential of the KM3NeT Detector for High-Energy Neutrinos from the Fermi Bubbles

S. Adrian-Martinez,M. Ageron,J. A. Aguilar,F. Aharonian,S. Aiello,A. Albert,M. Alexandri,F. Ameli, E. G. Anassontzis,M. Anghinolfi,G. Anton,S. Anvar,M. Ardid,A. Assis Jesus,J-J Aubert, R. Bakke,A. E. Ball,G. Barbarino,E. Barbarito,F. Barbato,B. Baret, M. de Bel,A. Belias,N. Bellou,E. Berbee,A. Berkien, A. Bersani,V. Bertin,S. Beurthey,S. Biagi,C. Bigongiari,B. Bigourdan,M. Billault,R. de Boer,H. Boer Rookhuizen,M. Bonori,M. Borghini, H. M. Bou-Cabo,B. Bouhadef,G. Bourlis,M. Bouwhuis,S. Bradbury, A. Brown, F. Bruni,J. Brunner,M. Brunoldi,J. Busto,G. Cacopardo,L. Caillat,D. Calvo Diaz-Aldagalan,A. Calzas, M. Canals,A. Capone,J. Carr,E. Castorina,S. Cecchini,A. Ceres,R. Cereseto,Th. Chaleil,F. Chateau,T. Chiarusi,D. Choqueuse,P. E. Christopoulou,G. Chronis,O. Ciaffoni, M. Circella,R. Cocimano,F. Cohen,F. Colijn,R. Coniglione, M. Cordelli,A. Cosquer, M. Costa,P. Coyle, J. Craig, A. Creusot,C. Curtil,A. D'Amico,G. Damy, R. De Asmundis,G. De Bonis,G. Decock,P. Decowski,E. Delagnes,G. De Rosa, C. Distefano,C. Donzaud,D. Dornic,Q. Dorosti-Hasankiadeh, J. Drogou,D. Drouhin,F. Druillole,L. Drury,D. Durand,G. A. Durand,T. Eberl,U. Emanuele,A. Enzenhoefer,J-P Ernenwein,S. Escoffier, V. Espinosa,G. Etiope,P. Favali,D. Felea,M. Ferri,S. Ferry,V. Flaminio,F. Folger,A. Fotiou,U. Fritsch,D. Gajanana,R. Garaguso,G. P. Gasparini,F. Gasparoni,V. Gautard,F. Gensolen,K. Geyer,G. Giacomelli,I. Gialas,V. Giordano,J. Giraud,N. Gizani,A. Gleixner,C. Gojak,J. P. Gomez-Gonzalez,K. Graf,D. Grasso, A. Grimaldi,R. Groenewegen,Z. Guede,G. Guillard,F. Guilloux,R. Habel,G. Hallewell,H. van Haren,J. van Heerwaarden, A. Heijboer,E. Heine,J. J. Hernandez-Rey,B. Herold,T. Hillebrand, M. van de Hoek,J. Hogenbirk,J. Hoessl,C. C. Hsu,M. Imbesi, A. Jamieson,P. Jansweijer, M. de Jong,F. Jouvenot,M. Kadler,N. Kalantar-Nayestanaki,O. Kalekin,A. Kappes,M. Karolak,U. F. Katz,O. Kavatsyuk,P. Keller, Y. Kiskiras, R. Klein,H. Kok,H. Kontoyiannis,P. Kooijman,J. Koopstra,C. Kopper,A. Korporaal,P. Koske,A. Kouchner,S. Koutsoukos,I. Kreykenbohm,V. Kulikovskiy,M. Laan, C. La Fratta,P. Lagier,R. Lahmann,P. Lamare,G. Larosa,D. Lattuada, A. Leisos,D. Lenis,E. Leonora,H. Le Provost,G. Lim,C. D. Llorens,J. Lloret, H. Loehner,D. Lo Presti,P. Lotrus,F. Louis, F. Lucarelli,V. Lykousis,D. Malyshev,S. Mangano,E. C. Marcoulaki, A. Margiotta,G. Marinaro,A. Marinelli,O. Maris,E. Markopoulos,C. Markou,J. A. Martinez-Mora, A. Martini,J. Marvaldi,R. Masullo,G. Maurin, P. Migliozzi,E. Migneco,S. Minutoli,A. Miraglia,C. M. Mollo,M. Mongelli,E. Monmarthe, M. Morganti,S. Mos,H. Motz,Y. Moudden,G. Mul,P. Musico,M. Musumeci,Ch Naumann,M. Neff,C. Nicolaou,A. Orlando,D. Palioselitis, K. Papageorgiou,A. Papaikonomou,R. Papaleo, I. A. Papazoglou,G. E. Pavalas,H. Z. Peek,J. Perkin,P. Piattelli,V. Popa,T. Pradier,E. Presani,I. G. Priede,A. Psallidas,C. Rabouille,C. Racca,A. Radu, N. Randazzo,P. A. Rapidis, P. Razis,D. Real, C. Reed,S. Reito,L. K. Resvanis, G. Riccobene,R. Richter,K. Roensch,J. Rolin,J. Rose,J. Roux,A. Rovelli, A. Russo, G. V. Russo,F. Salesa, D. Samtleben, P. Sapienza, J-W Schmelling,J. Schmid,J. Schnabel,K. Schroeder,J-P Schuller,F. Schussler,D. Sciliberto,M. Sedita,T. Seitz,R. Shanidze,F. Simeone,I. Siotis, V. Sipala,C. Sollima,S. Sparnocchia,A. Spies,M. Spurio, T. Staller,S. Stavrakakis,G. Stavropoulos,J. Steijger, Th. Stolarczyk,D. Stransky, M. Taiuti, A. Taylor, L. Thompson,P. Timmer,D. Tonoiu,S. Toscano,C. Touramanis,L. Trasatti,P. Traverso, A. Trovato,A. Tsirigotis,S. Tzamarias,E. Tzamariudaki,F. Urbano,B. Vallage,V. Van Elewyck,G. Vannoni,M. Vecchi,P. Vernin,S. Viola,D. Vivolo, S. Wagner,P. Werneke,R. J. White,G. Wijnker,J. Wilms,E. de Wolf,H. Yepes, V. Zhukov,E. Zonca,J. D. Zornoza,J. Zuniga

Astroparticle physics(2012)

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Abstract
A recent analysis of the Fermi Large Area Telescope data provided evidence for a high-intensity emission of high-energy gamma rays with a E-2 spectrum from two large areas, spanning 50 above and below the Galactic centre (the "Fermi bubbles"). A hadronic mechanism was proposed for this gamma-ray emission making the Fermi bubbles promising source candidates of high-energy neutrino emission. In this work Monte Carlo simulations regarding the detectability of high-energy neutrinos from the Fermi bubbles with the future multi-km(3) neutrino telescope KM3NeT in the Mediterranean Sea are presented. Under the hypothesis that the gamma-ray emission is completely due to hadronic processes, the results indicate that neutrinos from the bubbles could be discovered in about one year of operation, for a neutrino spectrum with a cutoff at 100 TeV and a detector with about 6 km(3) of instrumented volume. The effect of a possible lower cutoff is also considered. (C) 2012 Elsevier B.V. All rights reserved.
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Key words
Neutrino telescope,Fermi Bubbles,KM3NeT
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