Gorde:
| Egile nagusia: | |
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| Formatua: | Recurso digital |
| Hizkuntza: | ingelesa |
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Zenodo
2026
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| Gaiak: | |
| Sarrera elektronikoa: | https://doi.org/10.5281/zenodo.19660929 |
| Etiketak: |
Etiketa erantsi
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Aurkibidea:
- <p> </p> <p>Dual verification method:</p> <ol> <li> (SAC) Standard Academic Core "traditional" verification.</li> <li> (ARK) Agnostic Replication Kit "Computational" verification.</li> </ol> <p> </p> <p> </p> <p>Overview<br>This Zenodo deposit bundles a validator‑grade mathematical resolution of the Erdős‑Sós conjecture (SAC‑01) with a complete Agnostic Replication Kit (ARK 2.0) and twelve supplemental governance, tooling, and replication packages. The core analytic contribution proves, in the dense graph limit (graphon) topology, that for any finite tree \(T_k\) the homomorphism density \(t(T_k,W)\) is minimized by the constant (quasirandom) graphon; consequently, a dense, tree‑free extremal limit cannot exist. The deposit pairs the formal analytic proof with high‑precision numerical verification (Arb interval arithmetic), persistent homology corroboration, formal Lean 4 artifacts, and governance‑grade attestation (Merkle anchoring and gate predicates) so institutional reviewers can reproduce, audit, and seal the result without exposure to operational secrets.</p> <p> </p> <p>• Resolve: present the continuous variational proof and formal lemmas that yield the contradiction resolving the conjecture in the dense regime.<br>• Validate: provide orthogonal numeric and topological evidence that discrete approximations and limit arguments align with the analytic floor.<br>• Seal: supply governance artifacts and automated gate predicates that enable a reproducible, auditable finality workflow.<br>• Replicate: give step‑by‑step replication instructions, environment specifications, and programmatic endpoints so independent reviewers can reproduce the numeric and topological checks bit‑for‑bit.</p> <p><br>---</p> <p>How the corpus is organized for publication (five SAC‑01 packages plus twelve supplemental packages)</p> <p>The Five SAC‑01 Core Packages (primary scholarly artifacts)</p> <p>1. SAC‑01 Standard Academic Core Record — Analytic proof and lemmas• Contains the formal statement, definitions in graphon language, Lemma 2.1 (quasirandom minimum / Sidorenko positivity), Lemma 2.2 (correlation surplus), and Theorem 3.1 (global stability and contradiction).<br>• Role: Resolve — provides the rigorous continuous variational argument that yields the contradiction needed to settle the conjecture in the dense regime.</p> <p>2. SAC‑01 Appendix A Numerical Verification — Discrete homomorphism counts and interval‑arithmetic tables• Contains large‑scale adjacency experiments for path and star families, observed densities vs. quasirandom floor, and error‑term analyses.<br>• Role: Validate — supplies empirical evidence (with Arb 2.23.0 interval arithmetic and 128‑bit precision) that discrete approximations match the analytic floor.</p> <p>3. SAC‑01 Formal Simulation Data Assembly — Gradient‑descent and perturbation experiments in graphon space• Documents the quasirandom baseline, structural perturbation trials, and null‑density extremal tests showing descent algorithms cannot reach \(t=0\) under \(\rho>0\).<br>• Role: Validate — demonstrates numerical stability of the analytic inequalities across millions of perturbations.</p> <p>4. SAC‑01 Topological Persistence Diagram Assembly — Persistent homology filtrations and bottleneck analyses• Provides Vietoris‑Rips filtrations, Betti‑0 persistence diagrams showing early birth and infinite persistence of tree features, and bottleneck distances to the quasirandom baseline.<br>• Role: Corroborate — supplies independent topological evidence that tree embeddings are forced by density.</p> <p>5. SAC‑01 Executive Integration and Simulation Assembly — Synthesis, executive summary, and integrated simulation outputs• Consolidates analytic, numeric, and topological evidence into a single narrative and supplies the integrated simulation assembly (SAC‑01‑SIM‑FINAL).<br>• Role: Resolve + Seal — provides the narrative and integrated outputs that feed the ARK sealing workflow.</p> <p> </p> <p>---</p> <p>The Twelve Supplemental Packages (governance, tooling, and replication infrastructure)</p> <p>1. SAC‑02 Lexicon Bridge — Mapping traditional discrete primitives to AOF/ARK primitives• Explains translation of average degree, edge distribution, and tree order into AOF operators and substrates; documents the conceptual bridge that lets reviewers interpret ARK artifacts in classical combinatorial terms.<br>• Role: Enable replication by making the AOF vocabulary transparent to mathematicians.</p> <p>2. ARK Common Toolchain and Environment (CTE) — Lean 4 formalization, Arb interval arithmetic, runtime perimeters• Specifies required software (Lean 4, Arb 2.23.0), precision standards (128‑bit IEEE <a>754‑2019</a>), and language/runtime constraints.<br>• Role: Enable replication by standardizing the computational environment.</p> <p>3. Tool Registry and Reference List — Master index of modules, manifolds, and operators• Catalogues OP_NOBLE_SHV, ALG_LAM_UGC, MOD‑ERD‑H, and substrate IDs (M1‑6D‑HW, MAN_HW_5D, GRD_HYP_5).<br>• Role: Validate that reviewers can locate and instantiate each logical component.</p> <p>4. Reviewer Packet (Full) — Formalization logs, Merkle anchors, and audit checklist• Contains Lean 4 proof logs, SHA‑256 Merkle chain anchors, DOI metadata, and a multi‑role reviewer checklist.<br>• Role: Seal — provides the “paper trail” for institutional audit and attestation.</p> <p>5. One‑Page Reviewer Packet — Concise final‑seal checklist and gate predicates• A compact, gate‑oriented summary for rapid governance triage.<br>• Role: Seal — used by governance panels to trigger Merkle sealing.</p> <p>6. Common Toolchain and Environment API Documentation — S_Kernel endpoints and operator invocation spec• Programmatic interface descriptions (JSON‑RPC endpoints, required headers, gate preconditions).<br>• Role: Enable replication for automated verification pipelines.</p> <p>7. Application Atlas — Registry mapping of operators to functional roles• Maps OP_NOBLE_SHV to divergence cleaning, MOD‑KTT‑TREE to ordinal mapping, etc.<br>• Role: Resolve by documenting how each operator implements a proof step.</p> <p>8. Emergency Logic Core (ELC) Package — Monitoring, recovery, and fail‑closed logic• Describes ELC triggers (phase drift, logic‑mass thresholds), recovery actions, and safety gates.<br>• Role: Validate by ensuring numerical runs remain within validator‑grade perimeters.</p> <p>9. Failure Mode and Effects Analysis (FMEA) — Risk analysis and mitigation strategies• Enumerates spectral gap collapse, solenoidal drift, Jacobian distortion, and corresponding mitigations.<br>• Role: Validate + Seal by documenting how to detect and remediate anomalies during replication.</p> <p>10. Replication Guide — Step‑by‑step procedural manual for ARK execution• Concrete sequence: substrate initialization, frequency lock, operator application, Banach iteration, Sobolev injection, gate checks, Merkle sealing.<br>• Role: Enable replication as the operational playbook for reviewers.</p> <p>11. Troubleshooting Manual — Stall and recovery protocols• Practical recovery actions (phase‑lock reset, Sobolev injection, energy boost) and thresholds for safe freeze.<br>• Role: Enable replication by giving reviewers deterministic recovery steps.</p> <p>12. API and Programmatic Seal Interface — Programmatic gate checks and Merkle sealing endpoints• Defines the terminal predicates (GATE‑AZUMA‑HOEFFDING, ATIYAH‑SINGER‑HANDSHAKE, GATE_SCHWARZSCHILD_SEAL) that must be satisfied before the package is marked SEALED/RESTING.<br>• Role: Seal by automating the final attestation and Merkle anchoring.</p> <p> </p> <p>---</p> <p>How the packages interlink to Resolve, Validate, Seal, and Enable replication</p> <p>• Resolve (analytic core)• The SAC‑01 Standard Academic Core Record supplies the formal proof. The Application Atlas and SAC‑02 Lexicon Bridge translate the proof into AOF/ARK primitives so reviewers from both combinatorics and systems backgrounds can interpret the same steps.</p> <p>• Validate (numerics, topology, and tooling)• Appendix A, Formal Simulation Data Assembly, and Topological Persistence Diagrams provide orthogonal validations: discrete counting, gradient‑based graphon perturbations, and persistent homology. The CTE ensures all numeric checks use Arb 2.23.0 and 128‑bit precision so results are bit‑reproducible. The Tool Registry maps each numeric routine to the operator that implements the corresponding analytic inequality.</p> <p>• Seal (governance and attestation)• The Reviewer Packet, One‑Page Packet, FMEA, and ELC define the governance gates and safety invariants. Once all gate predicates (probabilistic bounds, index handshake, logic‑density threshold) report TRUE, the API Seal Interface triggers the Merkle chain anchor and marks the package SEALED / RESTING. The deposit includes the Merkle root and DOI for immutable provenance.</p> <p>• Enable replication (procedures and programmatic interfaces)• The Replication Guide, API Documentation, and CTE give step‑by‑step instructions and programmatic endpoints so an institutional reviewer can instantiate the environment, run the Banach iteration engine, execute OP_NOBLE_SHV, and reproduce the numeric and topological outputs. The Troubleshooting Manual and FMEA provide deterministic recovery steps if runs deviate from validator perimeters.</p> <p> </p> <p>---</p>