We consider the evolution of the light elements (Li, Be, and B) incorp
orating the effects of their production by both neutrino process and c
osmic-ray nucleosynthesis. We test the viability of the neutrino proce
ss to resolve the long standing problem of the B-11/B-10 isotopic rati
o which amounts to 4 at the time of the formation of the solar system.
This hypothesis may be ultimately constrained by the B/Be ratio obser
ved in halo stars. Though we are able to obtain a solar isotopic ratio
B-11/B-10 approximately 4, the current paucity of data at low metalli
city prevents us from making a definitive conclusion regarding the res
olution of this problem. We show, however, that neutrino process nucle
osynthesis leads to a relatively model independent prediction that the
B/Be elemental ratio is large (>50) at low metallicities ([Fe/H] < -3
.0), if Be is produced as a secondary element (as is the case in the c
onventional scenario of galactic cosmic-ray nucleosynthesis).