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Optical calibration of the SNO+ detector in the water phase with deployed sources

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Optical calibration of the SNO+ detector in the water phase with deployed sources. / SNO+ Collaboration ; Kormos, L. L.; O'Keeffe, H. M.
In: Journal of Instrumentation, Vol. 16, No. 10, P10021, 19.10.2021.

Research output: Contribution to Journal/MagazineJournal articlepeer-review

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SNO+ Collaboration, Kormos LL, O'Keeffe HM. Optical calibration of the SNO+ detector in the water phase with deployed sources. Journal of Instrumentation. 2021 Oct 19;16(10):P10021. doi: 10.1088/1748-0221/16/10/P10021

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SNO+ Collaboration ; Kormos, L. L. ; O'Keeffe, H. M. / Optical calibration of the SNO+ detector in the water phase with deployed sources. In: Journal of Instrumentation. 2021 ; Vol. 16, No. 10.

Bibtex

@article{81f828d82d0f48028241616e76807f20,
title = "Optical calibration of the SNO+ detector in the water phase with deployed sources",
abstract = " SNO+ is a large-scale liquid scintillator experiment with the primary goal of searching for neutrinoless double beta decay, and is located approximately 2 km underground in SNOLAB, Sudbury, Canada. The detector acquired data for two years as a pure water Cherenkov detector, starting in May 2017. During this period, the optical properties of the detector were measured in situ using a deployed light diffusing sphere, with the goal of improving the detector model and the energy response systematic uncertainties. The measured parameters included the water attenuation coefficients, effective attenuation coefficients for the acrylic vessel, and the angular response of the photomultiplier tubes and their surrounding light concentrators, all across different wavelengths. The calibrated detector model was validated using a deployed tagged gamma source, which showed a 0.6% variation in energy scale across the primary target volume. ",
keywords = "physics.ins-det, hep-ex, nucl-ex",
author = "{SNO+ Collaboration} and S. Andringa and M. Askins and Auty, {D. J.} and F. Bar{\~a}o and N. Barros and R. Bayes and Beier, {E. W.} and A. Bialek and Biller, {S. D.} and E. Blucher and M. Boulay and E. Caden and Callaghan, {E. J.} and J. Caravaca and O. Chkvorets and B. Cleveland and D. Cookman and J. Corning and C. Deluce and Depatie, {M. M.} and Lodovico, {F. Di} and J. Dittmer and E. Falk and N. Fatemighomi and V. Fischer and R. Ford and K. Frankiewicz and A. Gaur and K. Gilje and Gonz{\'a}lez-Reina, {O. I.} and D. Gooding and C. Grant and Hallin, {A. L.} and D. Hallman and J. Hartnell and Heintzelman, {W. J.} and Helmer, {R. L.} and R. Hunt-Stokes and In{\'a}cio, {A. S.} and Jillings, {C. J.} and T. Kaptanoglu and P. Khaghani and Klein, {J. R.} and Kormos, {L. L.} and B. Krar and C. Kraus and Krauss, {C. B.} and T. Kroupov{\'a} and I. Lam and O'Keeffe, {H. M.}",
note = "This is an author-created, un-copyedited version of an article accepted for publication/published in Journal of Instrumentation. IOP Publishing Ltd is not responsible for any errors or omissions in this version of the manuscript or any version derived from it. The Version of Record is available online at doi:10.1088/1748-0221/16/10/P10021",
year = "2021",
month = oct,
day = "19",
doi = "10.1088/1748-0221/16/10/P10021",
language = "English",
volume = "16",
journal = "Journal of Instrumentation",
issn = "1748-0221",
publisher = "Institute of Physics Publishing",
number = "10",

}

RIS

TY - JOUR

T1 - Optical calibration of the SNO+ detector in the water phase with deployed sources

AU - SNO+ Collaboration

AU - Andringa, S.

AU - Askins, M.

AU - Auty, D. J.

AU - Barão, F.

AU - Barros, N.

AU - Bayes, R.

AU - Beier, E. W.

AU - Bialek, A.

AU - Biller, S. D.

AU - Blucher, E.

AU - Boulay, M.

AU - Caden, E.

AU - Callaghan, E. J.

AU - Caravaca, J.

AU - Chkvorets, O.

AU - Cleveland, B.

AU - Cookman, D.

AU - Corning, J.

AU - Deluce, C.

AU - Depatie, M. M.

AU - Lodovico, F. Di

AU - Dittmer, J.

AU - Falk, E.

AU - Fatemighomi, N.

AU - Fischer, V.

AU - Ford, R.

AU - Frankiewicz, K.

AU - Gaur, A.

AU - Gilje, K.

AU - González-Reina, O. I.

AU - Gooding, D.

AU - Grant, C.

AU - Hallin, A. L.

AU - Hallman, D.

AU - Hartnell, J.

AU - Heintzelman, W. J.

AU - Helmer, R. L.

AU - Hunt-Stokes, R.

AU - Inácio, A. S.

AU - Jillings, C. J.

AU - Kaptanoglu, T.

AU - Khaghani, P.

AU - Klein, J. R.

AU - Kormos, L. L.

AU - Krar, B.

AU - Kraus, C.

AU - Krauss, C. B.

AU - Kroupová, T.

AU - Lam, I.

AU - O'Keeffe, H. M.

N1 - This is an author-created, un-copyedited version of an article accepted for publication/published in Journal of Instrumentation. IOP Publishing Ltd is not responsible for any errors or omissions in this version of the manuscript or any version derived from it. The Version of Record is available online at doi:10.1088/1748-0221/16/10/P10021

PY - 2021/10/19

Y1 - 2021/10/19

N2 - SNO+ is a large-scale liquid scintillator experiment with the primary goal of searching for neutrinoless double beta decay, and is located approximately 2 km underground in SNOLAB, Sudbury, Canada. The detector acquired data for two years as a pure water Cherenkov detector, starting in May 2017. During this period, the optical properties of the detector were measured in situ using a deployed light diffusing sphere, with the goal of improving the detector model and the energy response systematic uncertainties. The measured parameters included the water attenuation coefficients, effective attenuation coefficients for the acrylic vessel, and the angular response of the photomultiplier tubes and their surrounding light concentrators, all across different wavelengths. The calibrated detector model was validated using a deployed tagged gamma source, which showed a 0.6% variation in energy scale across the primary target volume.

AB - SNO+ is a large-scale liquid scintillator experiment with the primary goal of searching for neutrinoless double beta decay, and is located approximately 2 km underground in SNOLAB, Sudbury, Canada. The detector acquired data for two years as a pure water Cherenkov detector, starting in May 2017. During this period, the optical properties of the detector were measured in situ using a deployed light diffusing sphere, with the goal of improving the detector model and the energy response systematic uncertainties. The measured parameters included the water attenuation coefficients, effective attenuation coefficients for the acrylic vessel, and the angular response of the photomultiplier tubes and their surrounding light concentrators, all across different wavelengths. The calibrated detector model was validated using a deployed tagged gamma source, which showed a 0.6% variation in energy scale across the primary target volume.

KW - physics.ins-det

KW - hep-ex

KW - nucl-ex

U2 - 10.1088/1748-0221/16/10/P10021

DO - 10.1088/1748-0221/16/10/P10021

M3 - Journal article

VL - 16

JO - Journal of Instrumentation

JF - Journal of Instrumentation

SN - 1748-0221

IS - 10

M1 - P10021

ER -