International Scoping Study (ISS) for a future neutrino factory and Super-Beam facility. Detectors and flux instrumentation for future neutrino facilities

This report summarises the conclusions from the detector group of the International Scoping Study of a future Neutrino Factory and Super-Beam neutrino facility. The baseline detector options for each possible neutrino beam are defined as follows: A very massive (Megaton) water Cherenkov detector is...

Full description

Bibliographic Details
Main Authors: Abe, T, Aihara, H, Oulos, C, Ankowski, A, Badertscher, A, Battistoni, G, Blondel, A, Bouchez, J, Bross, A, Bueno, A, Camilleri, L, Campagne, J, Cazes, A, Cervera-Villanueva, A, De Lellis, G, Di Capua, F, Ellis, M, Ereditato, A, Esposito, L, Fukushima, C, Gschwendtner, E, Gomez-Cadenas, J, Iwasaki, M, Kaneyuki, K, Karadzhov, Y
Format: Journal article
Language:English
Published: 2009
Description
Summary:This report summarises the conclusions from the detector group of the International Scoping Study of a future Neutrino Factory and Super-Beam neutrino facility. The baseline detector options for each possible neutrino beam are defined as follows: A very massive (Megaton) water Cherenkov detector is the baseline option for a sub-GeV Beta Beam and Super Beam facility. There are a number of possibilities for either a Beta Beam or Super Beam (SB) medium energy facility between 1-5 GeV. These include a totally active scintillating detector (TASD), a liquid argon TPC or a water Cherenkov detector. A 100 kton magnetized iron neutrino detector (MIND) is the baseline to detect the wrong sign muon final states (golden channel) at a high energy (20-50 GeV) neutrino factory from muon decay. A 10 kton hybrid neutrino magnetic emulsion cloud chamber detector for wrong sign tau detection (silver channel) is a possible complement to MIND, if one needs to resolve degeneracies that appear in the δ- θ13 parameter space. © 2009 IOP Publishing Ltd and SISSA.