4.8 Article

Absolute ν Mass Measurement with the DUNE Experiment

期刊

PHYSICAL REVIEW LETTERS
卷 129, 期 12, 页码 -

出版社

AMER PHYSICAL SOC
DOI: 10.1103/PhysRevLett.129.121802

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资金

  1. MCIN/AEI of Spain [PID2020-113644GB-I00]
  2. Generalitat Valenciana of Spain [PROMETEO/2019/083, PROMETEO/2021/087, CDEIGENT/2020/003]
  3. European Union [H2020-MSCA-ITN-2019/860881-HIDDeN]

向作者/读者索取更多资源

The time of flight delay in the supernova neutrino signal is a unique tool for setting model-independent constraints on the absolute neutrino mass. We derive a new mass sensitivity achievable at the future DUNE far detector from a future supernova collapse in our galactic neighborhood, finding a sub-eV reach under favorable scenarios. These values are competitive with those expected for laboratory direct neutrino mass searches.
Time of flight delay in the supernova neutrino signal offers a unique tool to set model-independent constraints on the absolute neutrino mass. The presence of a sharp time structure during a first emission phase, the so-called neutronization burst in the electron neutrino flavor time distribution, makes this channel a very powerful one. Large liquid argon underground detectors will provide precision measurements of the time dependence of the electron neutrino fluxes. We derive here a new v mass sensitivity attainable at the future DUNE far detector from a future supernova collapse in our galactic neighborhood, finding a sub-eV reach under favorable scenarios. These values are competitive with those expected for laboratory direct neutrino mass searches.

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