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Scintillation Light in SBND: Simulation, Reconstruction, and Expected Performance of the Photon Detection System

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Scintillation Light in SBND: Simulation, Reconstruction, and Expected Performance of the Photon Detection System. / SBND Collaboration ; Blake, A.; Brailsford, D. et al.
In: European Physical Journal C: Particles and Fields, Vol. 84, 1046, 10.10.2024.

Research output: Contribution to Journal/MagazineJournal articlepeer-review

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SBND Collaboration, Blake A, Brailsford D, Coackley R, Lay H, McCusker B et al. Scintillation Light in SBND: Simulation, Reconstruction, and Expected Performance of the Photon Detection System. European Physical Journal C: Particles and Fields. 2024 Oct 10;84:1046. doi: 10.1140/epjc/s10052-024-13306-3

Author

SBND Collaboration ; Blake, A. ; Brailsford, D. et al. / Scintillation Light in SBND : Simulation, Reconstruction, and Expected Performance of the Photon Detection System. In: European Physical Journal C: Particles and Fields. 2024 ; Vol. 84.

Bibtex

@article{5de16f49db4b4a71940db54d01503f19,
title = "Scintillation Light in SBND: Simulation, Reconstruction, and Expected Performance of the Photon Detection System",
abstract = "SBND is the near detector of the Short-Baseline Neutrino program at Fermilab. Its location near to the Booster Neutrino Beam source and relatively large mass will allow the study of neutrino interactions on argon with unprecedented statistics. This paper describes the expected performance of the SBND photon detection system, using a simulated sample of beam neutrinos and cosmogenic particles. Its design is a dual readout concept combining a system of 120 photomultiplier tubes, used for triggering, with a system of 192 X-ARAPUCA devices, located behind the anode wire planes. Furthermore, covering the cathode plane with highly-reflective panels coated with a wavelength-shifting compound recovers part of the light emitted towards the cathode, where no optical detectors exist. We show how this new design provides a high light yield and a more uniform detection efficiency, an excellent timing resolution and an independent 3D-position reconstruction using only the scintillation light. Finally, the whole reconstruction chain is applied to recover the temporal structure of the beam spill, which is resolved with a resolution on the order of nanoseconds. ",
keywords = "physics.ins-det, hep-ex",
author = "{SBND Collaboration} and P. Abratenko and R. Acciarri and C. Adams and L. Aliaga-Soplin and O. Alterkait and R. Alvarez-Garrote and C. Andreopoulos and A. Antonakis and L. Arellano and J. Asaadi and W. Badgett and S. Balasubramanian and V. Basque and A. Beever and B. Behera and E. Belchior and M. Betancourt and A. Bhat and M. Bishai and A. Blake and B. Bogart and J. Bogenschuetz and D. Brailsford and A. Brandt and S. Brickner and A. Bueno and L. Camilleri and D. Caratelli and D. Carber and B. Carlson and M. Carneiro and R. Castillo and F. Cavanna and H. Chen and S. Chung and Cicala, {M. F.} and R. Coackley and Crespo-Anad{\'o}n, {J. I.} and C. Cuesta and O. Dalager and R. Darby and Tutto, {M. Del} and Benedetto, {V. Di} and Z. Djurcic and K. Duffy and H. Lay and B. McCusker and J. Nowak and P. Ratoff",
year = "2024",
month = oct,
day = "10",
doi = "10.1140/epjc/s10052-024-13306-3",
language = "English",
volume = "84",
journal = "European Physical Journal C: Particles and Fields",
issn = "1434-6044",
publisher = "SPRINGER",

}

RIS

TY - JOUR

T1 - Scintillation Light in SBND

T2 - Simulation, Reconstruction, and Expected Performance of the Photon Detection System

AU - SBND Collaboration

AU - Abratenko, P.

AU - Acciarri, R.

AU - Adams, C.

AU - Aliaga-Soplin, L.

AU - Alterkait, O.

AU - Alvarez-Garrote, R.

AU - Andreopoulos, C.

AU - Antonakis, A.

AU - Arellano, L.

AU - Asaadi, J.

AU - Badgett, W.

AU - Balasubramanian, S.

AU - Basque, V.

AU - Beever, A.

AU - Behera, B.

AU - Belchior, E.

AU - Betancourt, M.

AU - Bhat, A.

AU - Bishai, M.

AU - Blake, A.

AU - Bogart, B.

AU - Bogenschuetz, J.

AU - Brailsford, D.

AU - Brandt, A.

AU - Brickner, S.

AU - Bueno, A.

AU - Camilleri, L.

AU - Caratelli, D.

AU - Carber, D.

AU - Carlson, B.

AU - Carneiro, M.

AU - Castillo, R.

AU - Cavanna, F.

AU - Chen, H.

AU - Chung, S.

AU - Cicala, M. F.

AU - Coackley, R.

AU - Crespo-Anadón, J. I.

AU - Cuesta, C.

AU - Dalager, O.

AU - Darby, R.

AU - Tutto, M. Del

AU - Benedetto, V. Di

AU - Djurcic, Z.

AU - Duffy, K.

AU - Lay, H.

AU - McCusker, B.

AU - Nowak, J.

AU - Ratoff, P.

PY - 2024/10/10

Y1 - 2024/10/10

N2 - SBND is the near detector of the Short-Baseline Neutrino program at Fermilab. Its location near to the Booster Neutrino Beam source and relatively large mass will allow the study of neutrino interactions on argon with unprecedented statistics. This paper describes the expected performance of the SBND photon detection system, using a simulated sample of beam neutrinos and cosmogenic particles. Its design is a dual readout concept combining a system of 120 photomultiplier tubes, used for triggering, with a system of 192 X-ARAPUCA devices, located behind the anode wire planes. Furthermore, covering the cathode plane with highly-reflective panels coated with a wavelength-shifting compound recovers part of the light emitted towards the cathode, where no optical detectors exist. We show how this new design provides a high light yield and a more uniform detection efficiency, an excellent timing resolution and an independent 3D-position reconstruction using only the scintillation light. Finally, the whole reconstruction chain is applied to recover the temporal structure of the beam spill, which is resolved with a resolution on the order of nanoseconds.

AB - SBND is the near detector of the Short-Baseline Neutrino program at Fermilab. Its location near to the Booster Neutrino Beam source and relatively large mass will allow the study of neutrino interactions on argon with unprecedented statistics. This paper describes the expected performance of the SBND photon detection system, using a simulated sample of beam neutrinos and cosmogenic particles. Its design is a dual readout concept combining a system of 120 photomultiplier tubes, used for triggering, with a system of 192 X-ARAPUCA devices, located behind the anode wire planes. Furthermore, covering the cathode plane with highly-reflective panels coated with a wavelength-shifting compound recovers part of the light emitted towards the cathode, where no optical detectors exist. We show how this new design provides a high light yield and a more uniform detection efficiency, an excellent timing resolution and an independent 3D-position reconstruction using only the scintillation light. Finally, the whole reconstruction chain is applied to recover the temporal structure of the beam spill, which is resolved with a resolution on the order of nanoseconds.

KW - physics.ins-det

KW - hep-ex

U2 - 10.1140/epjc/s10052-024-13306-3

DO - 10.1140/epjc/s10052-024-13306-3

M3 - Journal article

VL - 84

JO - European Physical Journal C: Particles and Fields

JF - European Physical Journal C: Particles and Fields

SN - 1434-6044

M1 - 1046

ER -