TY - JOUR
T1 - SOX
T2 - Short Distance Neutrino Oscillations with Borexino
AU - on behalf of the SOX Collaboration
AU - Bravo-Berguño, D.
AU - Agostini, M.
AU - Althenmüller, K.
AU - Bellini, G.
AU - Benziger, J.
AU - Berton, N.
AU - Bick, D.
AU - Bonfini, G.
AU - Caccianiga, B.
AU - Cadonati, L.
AU - Calaprice, F.
AU - Caminata, A.
AU - Cavalcante, P.
AU - Chavarria, A.
AU - Chepurnov, A.
AU - Cribier, M.
AU - D'Angelo, D.
AU - Davini, S.
AU - Derbin, A.
AU - di Noto, L.
AU - Durero, M.
AU - Empl, A.
AU - Etenko, A.
AU - Farinon, S.
AU - Fischer, V.
AU - Fomenko, K.
AU - Franco, D.
AU - Gabriele, F.
AU - Gaffiot, J.
AU - Galbiati, C.
AU - Gazzana, S.
AU - Ghiano, C.
AU - Giammarchi, M.
AU - Göger-Neff, M.
AU - Goretti, A.
AU - Grandi, L.
AU - Gromov, M.
AU - Hagner, C.
AU - Houdy,
AU - Hungerford, E.
AU - Ianni, Aldo
AU - Ianni, Andrea
AU - Jonquéres, N.
AU - Kobychev, V.
AU - Korablev, D.
AU - Korga, G.
AU - Kryn, D.
AU - Lasserre, T.
AU - Laubenstein, M.
AU - Lehnert, B.
N1 - Publisher Copyright:
© 2015.
PY - 2016/4/1
Y1 - 2016/4/1
N2 - The Borexino detector has convincingly shown its outstanding performance in the in the sub-MeV regime through its unprecedented accomplishments in the solar and geo-neutrinos detection, which make it the ideal tool to unambiguously test the long-standing issue of the existence of a sterile neutrino, as suggested by several anomalies: the outputs of the LSND and Miniboone experiments, the results of the source calibration of the two Gallium solar ν experiments, and the recently hinted reactor anomaly. The SOX project will exploit two sources, based on chromium and cerium, which deployed under the experiment will emit two intense beams of νe (Cr) and νe (Ce). Interacting in the active volume of the liquid scintillator, each beam would create a spatial wave pattern in case of oscillation of the νe (or νe) into the sterile state, which would be the smoking gun proving the existence of the new sterile member of the neutrino family. Otherwise, its absence will allow setting very stringent limit on its existence.
AB - The Borexino detector has convincingly shown its outstanding performance in the in the sub-MeV regime through its unprecedented accomplishments in the solar and geo-neutrinos detection, which make it the ideal tool to unambiguously test the long-standing issue of the existence of a sterile neutrino, as suggested by several anomalies: the outputs of the LSND and Miniboone experiments, the results of the source calibration of the two Gallium solar ν experiments, and the recently hinted reactor anomaly. The SOX project will exploit two sources, based on chromium and cerium, which deployed under the experiment will emit two intense beams of νe (Cr) and νe (Ce). Interacting in the active volume of the liquid scintillator, each beam would create a spatial wave pattern in case of oscillation of the νe (or νe) into the sterile state, which would be the smoking gun proving the existence of the new sterile member of the neutrino family. Otherwise, its absence will allow setting very stringent limit on its existence.
KW - Anomalous oscillations
KW - Borexino
KW - Cerium-144
KW - Chromium-51
KW - SOX
KW - Sterile neutrinos
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U2 - 10.1016/j.nuclphysbps.2015.09.283
DO - 10.1016/j.nuclphysbps.2015.09.283
M3 - Article
AN - SCOPUS:84973177489
SN - 2405-6014
VL - 273-275
SP - 1760
EP - 1764
JO - Nuclear and Particle Physics Proceedings
JF - Nuclear and Particle Physics Proceedings
ER -