Structural Resolution of the Goldbach Conjecture: ADEC-SE-CS Framework, MANPG Operator, and Asymptotic Validation
Structural Resolution of the Goldbach Conjecture: ADEC-SE-CS Framework, MANPG Operator, and Asymptotic Validation Revision Description (Version 2.0.0) This release constitutes the definitive consolidation of the ADEC-SE-CS framework, strengthening the rigor of the original structural proof through the integration of advanced mathematical analysis and large-scale computational validation. Key Updates and Integrations: Refinement of Informative Metrics: Formal correction and distinction between the global mass ratio R(n) (relative to the entire numerical field) and the aggregated Goldbach ratio R(G) (specific to decomposition pairs). It is demonstrated that both parameters independently converge to Anchor 3, eliminating prior definitional ambiguities and securing the coherence of the Symmetry Lattice. Formalization of Operators: Introduction of the MANPG Operator as the dynamic evolution of the ADEC prototype. The implementation details are based on temporal shift logic and phase synchronization. Asymptotic Validation and "Anchor" Analysis: Inclusion of formal proofs regarding the system's asymptotic limits (informative mass ratio R(G) → 3 and sustainability coefficient sigma → 2). Experimental Evidence and Phase Transitions: Integration of results from massive simulations (up to n = 10^8). Graphical mapping confirms the transition toward a laminar stability regime at the Calm Point (Psi_sigma). Hardware Resolution and Bitmasking: Description of the operational protocol via Entropic Writing (SE), which allows for instantaneous deterministic decomposition through positional architecture. Theoretical In-depth Analysis: Modeling of the vibratory nature of numbers, defining Goldbach's decomposition as a Specular Resonance phenomenon and the prime number as a state of "Harmonic Silence". The treatise is now supported by reproducible and verifiable datasets via Google Colab notebooks and the interactive applications cited in the bibliography.
Authors
- Gianluca Remigio Pisano
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2025-12-22
- DOI
- https://doi.org/10.5281/zenodo.18057335
- Primary Topic
- Analytic Number Theory Research
- Type
- article
- Field-Weighted Citation Impact
- 0.00