ÚTEFČVUT Ústav technické a experimentální fyziky ČVUT v PrazeInstitute of Experimental and Applied Physics, CTU in Prague

Results from Reconstructing a Neutrino in the Track Channel at the Deep-Water BAIKAL-GVD Telescope

NázevTitle
Results from Reconstructing a Neutrino in the Track Channel at the Deep-Water BAIKAL-GVD TelescopeResults from Reconstructing a Neutrino in the Track Channel at the Deep-Water BAIKAL-GVD Telescope
Druh výsledkuResult type
Článek v časopiseJournal article
AutořiAuthors
A.V. Avrorin, A.D. Avrorin, V.M. Aynutdinov, V.A. Allakhverdyan, L. Fajt, F. Šimkovic, I. Štekl
Klíčová slovaKeywords
neutrino telescope, neutrino, cosmic ray, astrophysics
ExperimentCollaboration
Baikal-GVD
DOIDOI
10.3103/S1062873823702726
Časopis / citaceJournal / citation
Bulletin of the Russian Academy of Sciences: Physics 87(7), 925-928 (2023) · ISSN 1062-8738
RokYear
2023
JazykLanguage
eng
ZáznamyRecords
ProjektProject
Institucionální podpora na rozvoj výzkumné org.Institucionální podpora na rozvoj výzkumné org.; Inženýrské aplikace fyziky mikrosvětaEngineering applications of microworld physics
Citace ke staženíDownload citation
TXT · BibTeX

AbstraktAbstract

Abstract: Baikal-GVD is a 1 km3 scale neutrino telescope now under construction in Lake Baikal. The sensitive volume of the detector is currently around 0.5 km3. Muons form through the exchange of W-bosons in the interaction between muon- and partial tau-neutrinos near the telescope. The muons then propagate to great distances in the lake’s water. Reconstructing their trajectory allows us to obtain the most accurate estimate of the direction of neutrinos at telescopes of this type. Angular resolution can be as good as 0.5° for fairly long muon tracks. The current state of affairs in analyzing track events at the Baikal-GVD is discussed.

Abstract: Baikal-GVD is a 1 km3 scale neutrino telescope now under construction in Lake Baikal. The sensitive volume of the detector is currently around 0.5 km3. Muons form through the exchange of W-bosons in the interaction between muon- and partial tau-neutrinos near the telescope. The muons then propagate to great distances in the lake’s water. Reconstructing their trajectory allows us to obtain the most accurate estimate of the direction of neutrinos at telescopes of this type. Angular resolution can be as good as 0.5° for fairly long muon tracks. The current state of affairs in analyzing track events at the Baikal-GVD is discussed.

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