> This structured form could provide some shielding to the gallium atoms, making them less likely to be converted via neutrinos to germanium. Instead of impacti

> This structured form could provide some shielding to the gallium atoms, making them less likely to be converted via neutrinos to germanium. Instead of impacting a nucleus at the expected rate, the overlapping orbital bonds and electron resonance might offer a form of shielding. This shielding could make the gallium atoms more stable and less reactive, thereby reducing their conversion to germanium. Might this be covered by this bit from the article? > Another proposed explanation was that physicists had miscalculated the probability of neutrinos from the source interacting with the gallium. But in September 2023, Haxton and his colleagues also ruled out this possibility. “You can’t get rid of the anomaly,” he said. Maybe they don't consider the scenario you outlined in their calculations, but I lack the training to understand the paper [0]. In addition, speaking more generally I'd be curious how your proposed mechanism would work physically. Given the size of the nucleus compared to that of the electron cloud, the fact that (known) neutrinos only interact via the weak interaction and gravity, and the range of the weak interaction, a big question to me is how big your proposed effect could have in this case, if any. [0]: https://arxiv.org/abs/2303.13623 https://arxiv.org/abs/2303.13623