Neutrino Process Nucleosynthesis and the B/B Ratio
arXiv:astro-ph/9309018 · doi:10.1086/173922
Abstract
We consider the evolution of the light elements ( and ) incorporating the effects of their production by both neutrino process and cosmic-ray nucleosynthesis. We test the viability of the neutrino process to resolve the long standing problem of the B/B isotopic ratio which amounts to 4 at the time of the formation of the solar system. This hypothesis may be ultimately constrained by the ratio observed in halo stars. Though we are able to obtain a solar isotopic ratio , the current paucity of data at low metallicity prevents us from making a definitive conclusion regarding the resolution of this problem. We show however, that neutrino process nucleosynthesis leads to a relatively model independent prediction that the elemental ratio is large ( 50) at low metallicities (), if is produced as a secondary element (as is the case in the conventional scenario of galactic cosmic-ray nucleosynthesis).
arXiv comment14 pages, LaTeX
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