Abstract

The double conversion of the neutrino helicity νL→νR→νL\nu_L \to \nu_R \to \nu_L has been analyzed for supernova conditions, where the first stage is due to the interaction of the neutrino magnetic moment with plasma electrons and protons in the supernova core, and the second stage, due to the resonance spin flip of the neutrino in the magnetic field of the supernova envelope. It is shown that, in the presence of the neutrino magnetic moment in the range 10−13μB<μν<10−12μB10^{-13} \mu_{\rm B} < \mu_\nu < 10^{-12} \mu_{\rm B} and a magnetic field of ∼1013\sim 10^{13} G between the neutrinosphere and the shock-stagnation region, an additional energy of about 105110^{51} erg, which is sufficient for a supernova explosion, can be injected into this region during a typical shock-stagnation time.Comment: 10 pages, LaTeX, 4 EPS figures, accepted to JETP Letter

    Similar works

    Full text

    thumbnail-image

    Available Versions

    Last time updated on 23/11/2020