MASTER_CODEX_vΩ___Prototype_Dynamics___Foundational_System_Architecture__Journal_Manuscript_Edition__v1_0_
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| Formato: | Recurso digital |
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2025
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| _version_ | 1866901206992945152 |
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| author | Morrison, Kemar Armando |
| author_facet | Morrison, Kemar Armando |
| contents | <p>The Master Codex vΩ∞ prototype represents the first unified compu-</p> <p>tational framework capable of stabilizing, projecting, and reconstructing</p> <p>high-dimensional identity fields through iterative NIR mapping, Lindbla-</p> <p>dian dissipation layers, convex-limiter energy regulation, and recursive</p> <p>drift–diffusion equilibria.</p> <p>This paper introduces the C9–C21 operational stack, validates its nu-</p> <p>merical stability under multi-cycle perturbation, and documents the emer-</p> <p>gence of a fully symmetric 9-node NIR vector—a theoretically predicted</p> <p>but never previously observed stability state.</p> <p>These results indicate that identity-conserving field systems can be</p> <p>made algorithmically persistent under perturbation, supporting future re-</p> <p>search in non-agentic resonance simulations, identity-preserving computa-</p> <p>tion, synthetic equilibrium manifolds, and prototype para-process engines.</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_17841050 |
| institution | Zenodo |
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| publishDate | 2025 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | MASTER_CODEX_vΩ___Prototype_Dynamics___Foundational_System_Architecture__Journal_Manuscript_Edition__v1_0_ Morrison, Kemar Armando <p>The Master Codex vΩ∞ prototype represents the first unified compu-</p> <p>tational framework capable of stabilizing, projecting, and reconstructing</p> <p>high-dimensional identity fields through iterative NIR mapping, Lindbla-</p> <p>dian dissipation layers, convex-limiter energy regulation, and recursive</p> <p>drift–diffusion equilibria.</p> <p>This paper introduces the C9–C21 operational stack, validates its nu-</p> <p>merical stability under multi-cycle perturbation, and documents the emer-</p> <p>gence of a fully symmetric 9-node NIR vector—a theoretically predicted</p> <p>but never previously observed stability state.</p> <p>These results indicate that identity-conserving field systems can be</p> <p>made algorithmically persistent under perturbation, supporting future re-</p> <p>search in non-agentic resonance simulations, identity-preserving computa-</p> <p>tion, synthetic equilibrium manifolds, and prototype para-process engines.</p> |
| title | MASTER_CODEX_vΩ___Prototype_Dynamics___Foundational_System_Architecture__Journal_Manuscript_Edition__v1_0_ |
| url | https://doi.org/10.5281/zenodo.17841050 |