Protective Neutrinos and Antineutrinos: The Neutrinic Model for Stable Coexistence of Matter and Antimatter

This article presents the Neutrinic Model, a theoretical framework in which neutrinos and antineutrinos play an active role in matter stability. Contrary to the traditional view, in which these particles are considered almost inert byproducts of weak interactions, the Neutrinic Model interprets neutrinos as protective shields for opposite charges within atomic nuclei, preventing annihilation between latent electrons and positrons. Based on this principle, beta decays, electron capture, and heavy lepton decays (muons and taus) are no longer regarded as extinction processes, but as internal reorganizations mediated by neutrino protection. The model also proposes the existence of transient neutral states (μ⁰, τ⁰) absorbed by nuclear matter, potentially explaining latent nuclear stability and the cosmic balance between matter and antimatter. Although still hypothetical, the Neutrinic Model provides a new perspective on latent matter-antimatter coexistence, suggesting that the balance of opposing forces is embedded within the fabric of nuclear particles. This approach may pave the way for new interpretations in nuclear physics and cosmology, offering testable hypotheses for future experimental investigations.