Enriched Crystal Scintillators for 2β Experiments
The investigation of 2β decay is an important issue in modern physics, allowing the test of the Standard Model of elementary particles and the study of the nature and properties of neutrinos. The crystal scintillators, especially made of isotopically-enriched materials, are powerful detectors for 2β...
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doaj-bd24ad0b44204baf8b3a08e2290bdf7d2021-03-10T00:04:27ZengMDPI AGPhysics2624-81742021-03-013910311910.3390/physics3010009Enriched Crystal Scintillators for 2β ExperimentsOksana G. Polischuk0Institute for Nuclear Research of NASU, 03028 Kyiv, UkraineThe investigation of 2β decay is an important issue in modern physics, allowing the test of the Standard Model of elementary particles and the study of the nature and properties of neutrinos. The crystal scintillators, especially made of isotopically-enriched materials, are powerful detectors for 2β decay experiments thanks to the high radiopurity level and the possibility to realize the calorimetric “source = detector” approach with a high detection efficiency. For the moment, the 2ν2β processes have been observed at the level of 10<sup>19</sup>–10<sup>24</sup> years with enriched crystals; the sensitivity to the 0ν mode have reached the level of 10<sup>24</sup>–10<sup>26</sup> years in some decay channels for different nuclides allowing one to calculate the upper limits on the effective mass of the Majorana neutrino at the level of 0.1–0.6 eV. The paper is intended to be a review on the latest results to investigate 2β processes with crystal scintillators enriched in <sup>48</sup>Ca, <sup>106</sup>Cd, and <sup>116</sup>Cd.https://www.mdpi.com/2624-8174/3/1/9enriched crystalsscintillatorsdouble beta decay |
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DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Oksana G. Polischuk |
spellingShingle |
Oksana G. Polischuk Enriched Crystal Scintillators for 2β Experiments Physics enriched crystals scintillators double beta decay |
author_facet |
Oksana G. Polischuk |
author_sort |
Oksana G. Polischuk |
title |
Enriched Crystal Scintillators for 2β Experiments |
title_short |
Enriched Crystal Scintillators for 2β Experiments |
title_full |
Enriched Crystal Scintillators for 2β Experiments |
title_fullStr |
Enriched Crystal Scintillators for 2β Experiments |
title_full_unstemmed |
Enriched Crystal Scintillators for 2β Experiments |
title_sort |
enriched crystal scintillators for 2β experiments |
publisher |
MDPI AG |
series |
Physics |
issn |
2624-8174 |
publishDate |
2021-03-01 |
description |
The investigation of 2β decay is an important issue in modern physics, allowing the test of the Standard Model of elementary particles and the study of the nature and properties of neutrinos. The crystal scintillators, especially made of isotopically-enriched materials, are powerful detectors for 2β decay experiments thanks to the high radiopurity level and the possibility to realize the calorimetric “source = detector” approach with a high detection efficiency. For the moment, the 2ν2β processes have been observed at the level of 10<sup>19</sup>–10<sup>24</sup> years with enriched crystals; the sensitivity to the 0ν mode have reached the level of 10<sup>24</sup>–10<sup>26</sup> years in some decay channels for different nuclides allowing one to calculate the upper limits on the effective mass of the Majorana neutrino at the level of 0.1–0.6 eV. The paper is intended to be a review on the latest results to investigate 2β processes with crystal scintillators enriched in <sup>48</sup>Ca, <sup>106</sup>Cd, and <sup>116</sup>Cd. |
topic |
enriched crystals scintillators double beta decay |
url |
https://www.mdpi.com/2624-8174/3/1/9 |
work_keys_str_mv |
AT oksanagpolischuk enrichedcrystalscintillatorsfor2bexperiments |
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