The ENUBET Project. A high precision narrow-band neutrino beam
- Brunetti, G.
- Acerbi, F.
- Ballerini, G.
- Bonesini, M.
- Branca, A.
- Brizzolari, C.
- Capelli, S.
- Carturan, S.
- Catanesi, M.G.
- Cecchini, S.
- Charitonidis, N.
- Cindolo, F.
- Collazuol, G.
- Conti, E.
- Dal Corso, F.
- Delogu, C.
- de Rosa, G.
- Falcone, A.
- Goddard, B.
- Gola, A.
- Jollet, C.
- Kain, V.
- Klicek, B.
- Kudenko, Y.
- Laveder, M.
- Longhin, A.
- Ludovici, L.
- Lutsenko, E.
- Magaletti, L.
- Mandrioli, G.
- Margotti, A.
- Mascagna, V.
- Mauri, N.
- Meazza, L.
- Meregaglia, A.
- Mezzetto, M.
- Paoloni, A.
- Pari, M.
- Parozzi, E.
- Pasqualini, L.
- Paternoster, G.
- Patrizii, L.
- Pozzato, M.
- Prest, M.
- Pupilli, F.
- Radicioni, E.
- Riccio, C.
- Ruggieri, A.C.
- Scian, C.
- Sirri, G.
- Soldani, M.
- Stipcevic, M.
- Tenti, M.
- Terranova, F.
- Torti, M.
- Vallazza, E.
- Velotti, F.
- Vesco, M.
- Votano, L.
DOIAbstract
International audienceThe knowledge of initial flux, energy and flavor of neutrino beams is currently the main limitation for a precise measurement of neutrino cross sections. The ENUBET project is studying a facility based on a narrow band neutrino beam capable of constraining the neutrino fluxes normalization through the monitoring of the associated charged leptons in an instrumented decay tunnel. In particular, the identification of large-angle positrons from $K_{e3}$ decays at single particle level can potentially reduce the $\nu_{e}$ flux uncertainty at the level of 1%.The ENUBET Collaboration presented at EPS-HEP2019 the advances in the design and simulation of the hadron beam line, the performance of positron tagger prototypes tested...
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