Resonance-Based Interpretation of Radioactive Decay and Nuclear Stability

This study presents a resonance-based theoretical framework for the interpretation of radioactive decay and nuclear stability, extending the Simita-law perspective to the microscopic nuclear scale. Radioactive decay is interpreted not as an energy loss mechanism, but as a phase-correction process through which the nucleus restores synchronization with its surrounding spacetime informational field. The framework introduces the concept of resonance-density balance as a criterion for nuclear stability and discusses how informational self-compensation may contribute to the emergence and persistence of higher-order atomic structures. The model does not propose external control or modification of decay processes, but offers an interpretative extension compatible with established nuclear physics. This work forms part of the theoretical archive of the Simita project and is intended for foundational research and academic discussion.