10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct 2015 1 Tests of TASD and MIND prototypes at CERN.

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10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct Tests of TASD and MIND prototypes at CERN

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct Motivation AIDA integrated infrastructure program for neutrinos: beyond the state of the art ‘study of lepton identification and charge discrimination’ in view of neutrino factory with a a ~1m deep Totally Active Scintillator Detector (TASD). and a 50 ton prototype of a Magnetized Iron Neutrino Detector (Baby-MIND) The experimental program at CERN main aims are: 1. test of electron/positron charge separation vs momentum in TASD immersed in magnetic field.  a 0.9x0.9x0.9/  m 3 prototype with variable density  has been built to be inserted in the Morpurgo Magnet in the H8 beam line. 2. test of muon charge separation as function of momentum down to separation above 1 GeV/c in a suitable test beam.  a 2x3x1 m 3 Baby-MIND is under construction with 3cm iron plates magnetized at 1.5 T. Following this, further opportunities will be offered to use the Baby-MIND -- in the T2K beam line, the WAGASCI project has expressed strong interest to use baby- MIND for precision measurement of water to scintillator ratio of anti-neutrino cross-sections. We are planning to do this, which gives unique opportunity within a real neutrino beam.

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct Same batch as MINERvA at Fermilab -- 98% active PREAMBLE: EMR detector for MICE at RAL MeV/c 24 x-y modules (48 planes)   p/p ~3% at 200 MeV/c from range measurement at 200 MeV/c : 99% muon eff. with 2% e-> mu prob. 2015: MICE hall Step IV cooling expt and EMR MICE note 466, to appear in JINST electron  e p.h. range vs momentum meast.

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct TASD detector 9000 bars of 0.7 x 1.0 x 900 mm 3 manufactured & tested at INR with WLS (Kurarai Y11) fiber and custom designed connectors to MPPCs Assembled in 50 alternating x and y planes readout by 3000 Hammamatsu S C MPPC Will read out part of the detector (on beam path) Mechanical assembly allows for extensible design with air gaps between planes -- a cheap way to increase radiation length! These modules will also serve for 1st test of Baby-MIND construction ~ complete  50 modules in bdg 595 Light yield at INR (70 p.e. /mip)

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct Electronics The electronics is designed to adapt to the time structures of -- SPS test beam (typically 10 second slow spill every 0.5 to 1 minute) -- MICE beam ( 2 ms every 1 to 2.6 second) -- T2K fast extraction with 8 bunches separated by 580 ns every 2.6 to 1 seconds. In test beam mode, can record up to 10 4 events per spill -- or ~10 7 on a good day. In MICE or T2K mode, can record all data without dead time.

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct MPPCs Front-end board These electronics are proposed as common tool for neutrino platform experiments (ref. Y. Favre, Neutrino platform, )

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct TASD tests H8 Will expose TASD to electron or muon beam of 0.5 to 10 GeV For momenta lower than ~4 GeV this requires a degrader. He Ckov lead degrader B beam chambers + beam halo veto and trigger, not indicated Field map 0.7 T OK. TASD 1 or 2 trim coils

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct Baby-MIND charge separation for MINOS was not measured to better than ~1% due to anti-neutrino contamination and uncertainties in magnetic field close to the central coil.  requirement for test beam and a more homogeneous magnetic field Pure toroidal geometry is inadequate for e.g. muon filter behind LBNO Liquid Argon detector 40m 20m 10m BB I We settled on the requirements related to the WAGASCI experiment.

>2 ton target + more Magnetized MRD (Baby-MIND) Baby-MIND

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct T2K is proposing to run until 2025 with beam power progressively increasing up to 1.3 MW  3-4 s.d. evidence for CP violation is possible if the presently preferred point is correct. This requires systematic errors at 3% level. MR PS upgrade T2K T2HK (proposed) Workshop for Neutrino Programs with facilities in Japan (4-8 Aug-2015) T2K, PRL 112 (2014)

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct Since the main emphasis of T2K is now to measure the CP asymmetry, it is essential to be able to predict   e and    e appearance events for any set of osc. parameters. One of the dominant systematics : ND280 is mainly C n H 2n while far detector (SK) is Water. The large fraction of neutrino events (integrated 30%) in the antineutrino running requires charge separation of -- mostly high energy & forward -- muons.

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct The magnetic design has been elaborated in collaboration with CERN (A. Dudarev); Requirements in magnetic field (1.5 T), space and power consumption. 2015, A. Dudarev Both layouts are power efficient and provide homogeneous field. Latest one improves -- dead space in end plates -- sign symmetry between  + and  - 89% sign separation for muons entering front face of Baby-MIND (will improve further by fiducial cuts)

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct first part: measure direction before and after 9cm thick plate (maximizes low momentum resolution) another direction measurement in the back ensures good measurement for high momentum muons. reduced transverse size allows installation in ND280 pit. dedicated scintillators will be built

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct Baby-MIND tests Phase 1. will use the scintillators MPPCs, cables and electronics from TASD Phase 2. will use dedicated scintillators+ TASD MPPCs, cables and electronics H8 Will expose Baby-MIND to pion/muon beam of 0.5 to 10 GeV 1 or 2 trim coils beam chambers+ beam halo veto and trigger, not indicated. B1 B2

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct Requested beam test periods

10/20/2015 TASD and MIND prototype and tests at CERN SPSC Oct Conclusions We have built a 9000 channel extensible TASD to test the electron charge reconstruction of electrons in dense medium and magnetic field A Baby-MIND (60 tons) detector has been designed to test the muon charge separation with high precision and to extend it below 1 GeV, and construction has begun. This Baby-MIND is part of a measurement of water to scintillator cross-section ratio in the neutrino and antineutrino beam at T2K within the WAGASCI experiment in view of a reduction of systematic errors for T2K CP asymmetry measurements. Tests of these detectors in beams are requested at CERN in several steps TASD tests in the MORPURGO magnet using dedicated TASD scintillators and a set of MPPCs, connectors, and electronics Baby-MIND tests using the magnetized iron plates with the same detectors and electronics as the TASD tests above Baby-MIND tests using the final scintillator configuration to calibrate the charge separation and momentum measurement performance of the final detector.