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

Baikal-GVD Experiment

NázevTitle
Baikal-GVD ExperimentBaikal-GVD Experiment
Druh výsledkuResult type
Článek v časopiseJournal article
AutořiAuthors
A. V. Avrorin, A. D. Avrorin, V. M. Aynutdinov, R. Bannasch, L. Fajt, I. Štekl, F. Šimkovic
Klíčová slovaKeywords
neutrino telescope, astrophysical neutrino
DOIDOI
10.1134/S1063778820060046
Časopis / citaceJournal / citation
Physics of Atomic Nuclei 83(6), 916-921 (2020) · ISSN 1063-7788
RokYear
2020
JazykLanguage
eng
ZáznamyRecords
ProjektProject
Inženýrské aplikace fyziky mikrosvětaEngineering applications of microworld physics
CitovánoCited by
17 (INSPIRE-HEP)
2021: 62022: 12023: 42024: 22025: 22026: 2
Citace ke staženíDownload citation
TXT · BibTeX

AbstraktAbstract

Baikal-GVD is a deep-underwater neutrino detector of cubic-kilometer scale. It is designed to detect astrophysical neutrinos up to multi-PeV energies and beyond. The deployment of this facility began in spring 2015. Since April 2020, the detector includes seven clusters, each consisting of eight strings carrying in total 288 optical modules located at depths of 750 to 1275 m. By the end of the first phase of construction of the detector in 2024, it is planned to deploy 15 clusters, whereby an effective volume of 0.75 km for detecting high-energy cascades would be reached. The design and status of the Baikal-GVD detector are described in the present article along with selected results of data analysis.

Baikal-GVD is a deep-underwater neutrino detector of cubic-kilometer scale. It is designed to detect astrophysical neutrinos up to multi-PeV energies and beyond. The deployment of this facility began in spring 2015. Since April 2020, the detector includes seven clusters, each consisting of eight strings carrying in total 288 optical modules located at depths of 750 to 1275 m. By the end of the first phase of construction of the detector in 2024, it is planned to deploy 15 clusters, whereby an effective volume of 0.75 km for detecting high-energy cascades would be reached. The design and status of the Baikal-GVD detector are described in the present article along with selected results of data analysis.

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