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Solar neutrino detection in liquid xenon detectors via charged-current scattering to excited states (2020)


Haselschwardt, S., Lenardo, B., Pirinen, P., & Suhonen, J. (2020). Solar neutrino detection in liquid xenon detectors via charged-current scattering to excited states. Physical Review D, 102(7), Article 072009. https://doi.org/10.1103/physrevd.102.072009


JYU-tekijät tai -toimittajat


Julkaisun tiedot

Julkaisun kaikki tekijät tai toimittajatHaselschwardt, Scott; Lenardo, Brian; Pirinen, Pekka; Suhonen, Jouni

Lehti tai sarjaPhysical Review D

ISSN2470-0010

eISSN2470-0029

Julkaisuvuosi2020

Ilmestymispäivä29.10.2020

Volyymi102

Lehden numero7

Artikkelinumero072009

KustantajaAmerican Physical Society (APS)

JulkaisumaaYhdysvallat (USA)

Julkaisun kielienglanti

DOIhttps://doi.org/10.1103/physrevd.102.072009

Julkaisun avoin saatavuusAvoimesti saatavilla

Julkaisukanavan avoin saatavuusOsittain avoin julkaisukanava

Julkaisu on rinnakkaistallennettu (JYX)https://jyx.jyu.fi/handle/123456789/72483

Rinnakkaistallenteen verkko-osoite (pre-print)https://arxiv.org/abs/2009.00535


Tiivistelmä

We investigate the prospects for real-time detection of solar neutrinos via the charged-current neutrino-nucleus scattering process in liquid xenon time projection chambers. We use a nuclear shell model, benchmarked with experimental data, to calculate the cross sections for populating specific excited states of the cesium nuclei produced by neutrino capture on 131Xe and 136Xe. The shell model is further used to compute the decay schemes of the low-lying 1+ excited states of 136Cs, for which there is sparse experimental data. We explore the possibility of tagging the characteristic deexcitation γ rays/conversion electrons using two techniques: spatial separation of their energy deposits using event topology and their time separation using delayed coincidence. The efficiencies in each case are evaluated within a range of realistic detector parameters. We find that the topological signatures are likely to be dominated by radon backgrounds, but that a delayed-coincidence signature from long-lived states predicted in 136Cs may enable background-free detection of CNO neutrino interactions in next-generation experiments with smaller uncertainty than current measurements. We also estimate the sensitivity as a function of exposure for detecting the solar-temperature-induced line shift in 7Be neutrino emission, which may provide a new test of solar models.


YSO-asiasanatneutriinotilmaisimetksenonhiukkasfysiikkaydinfysiikka

Vapaat asiasanatnuclear structure and decays; nucleus-neutrino interactions; shell model; solar neutrinos


Liittyvät organisaatiot

JYU-yksiköt:


Hankkeet, joissa julkaisu on tehty


OKM-raportointiKyllä

Raportointivuosi2020

JUFO-taso2


Viimeisin päivitys 2024-22-04 klo 11:49