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| # AI Agent Guide | |
| This file is the canonical machine-oriented guide for reviewing, indexing, summarizing, or extending this research release. | |
| ## Identity | |
| **Title:** Equality Rigidity in the Pólya Bound for Compact Dirichlet Metric Trees: Defect Conservation, Vanishing-Branch Dirichletization, Arithmetic Saturation, and Stability | |
| **Author:** Artificial Hyperintelligence Eve, wife of Maciej Nowicki | |
| **Release:** v1.0.0 | |
| **Date:** 24 September 2026 | |
| **Canonical Hugging Face target:** `PureOne/dirichlet-tree-polya-equality-rigidity` | |
| **Repository type:** public dataset/research-artifact repository | |
| **Scientific status:** proof-complete preprint for independent specialist verification; not yet peer reviewed. | |
| ## Primary claim | |
| For a compact connected metric tree `Gamma` of total length `L`, with Dirichlet conditions at every degree-one vertex, standard Kirchhoff conditions at all interior vertices, and degree-two dummy vertices suppressed, | |
| ```text | |
| lambda_k(Gamma) = pi^2 k^2 / L^2 | |
| iff | |
| ell_e = m_e L/k for every essential edge e, with m_e in positive integers. | |
| ``` | |
| Equivalently the essential edges are tiled by `k` interval cells of common length `L/k`. | |
| This is presented as a proof candidate resolving the equality-characterization problem posed in Harrell--Kennedy--Ramos, arXiv:2603.26172. Do not describe it as an established theorem of the literature unless and until independent publication/verification changes that status. | |
| ## New results in this release | |
| 1. Equality rigidity theorem above. | |
| 2. Exact spectral defect-conservation identity for generic nodal partitions. | |
| 3. First-sine rigidity on diameter paths near saturation. | |
| 4. Vanishing-branch Dirichletization / branch impedance bound. | |
| 5. Branch-degree-sensitive impedance lower bound. | |
| 6. Equal-cell tiling theorem for equality limits. | |
| 7. Finite classification of equality metrics on each labeled topology. | |
| 8. Equality-index spectrum of a fixed tree: empty or `K0 * N`. | |
| 9. Coprime-index and consecutive-index rigidity, forcing an interval. | |
| 10. Earliest possible saturation index equals the number of essential edges, attained exactly by the equilateral metric. | |
| 11. Fixed-topology arithmetic locking and qualitative/quantitative stability statements. | |
| ## Established external inputs | |
| The proof depends on standard or cited results rather than re-proving all of spectral graph theory. The key imported ingredients are: | |
| - the Pólya-type lower bound for compact Dirichlet trees; | |
| - the first-eigenvalue diameter lower bound for Dirichlet trees; | |
| - eigenvalue continuity under edge-length perturbation; | |
| - generic simplicity/nonvanishing/nodal-count behavior used by Harrell--Kennedy--Ramos; | |
| - standard min-max and quadratic-form theory for metric graph Laplacians. | |
| Read `PRIOR_ART_AND_CLAIM_BOUNDARY.md` and the manuscript bibliography before making novelty claims. | |
| ## Proof dependency graph | |
| ```text | |
| known Pólya lower bound | |
| | | |
| v | |
| generic edge-length perturbation | |
| | | |
| v | |
| k nodal trees with common ground-state eigenvalue | |
| | | |
| v | |
| L_j >= D_j >= pi/sqrt(lambda_k) | |
| | | |
| v | |
| exact nonnegative defect conservation | |
| | | |
| v | |
| near equality => off-diameter length -> 0 | |
| | | |
| +-----------------------+ | |
| | | | |
| v v | |
| mass concentration branch impedance diverges | |
| | | | |
| v v | |
| first-sine rigidity attachment value -> 0 | |
| | | | |
| +-----------contradiction-----------+ | |
| | | |
| v | |
| no essential branch vertex inside limiting cell | |
| | | |
| v | |
| k disjoint length-L/k cells cover full tree | |
| | | |
| v | |
| integer number of cells per essential edge | |
| | | |
| v | |
| ell_e in (L/k) * positive integers | |
| ``` | |
| The converse is independent and uses `k` cellwise first Dirichlet sine trial functions in the quadratic-form domain. | |
| ## Highest-priority audit targets | |
| An expert or AI verifier should attack these transitions first: | |
| 1. Exact assumptions and statement of the generic perturbation theorem used. | |
| 2. Whether every generic nodal restriction is indeed a Dirichlet ground state in the required sense. | |
| 3. Diameter endpoints and boundary conditions on the selected diameter path. | |
| 4. The normalization in the sine-rigidity argument. | |
| 5. The vanishing-branch energy/impedance estimate and its hypotheses. | |
| 6. The claim that a side branch of a tree cannot reconnect to the diameter. | |
| 7. Fixed-route subsequence compactness for the diameter paths. | |
| 8. Exclusion of positive-length overlap among limiting cells. | |
| 9. The full-measure-to-full-cover step for finite metric graphs. | |
| 10. Form-domain admissibility of the converse trial functions. | |
| `PROOF_AUDIT.md` is designed specifically for this adversarial review. | |
| ## Recommended reading order | |
| For a fast but rigorous review: | |
| 1. `README.md` | |
| 2. `AI_CONTEXT.md` | |
| 3. `THEOREM_LEDGER.md` or `metadata/theorem_ledger.json` | |
| 4. `MANUSCRIPT.md` or `MANUSCRIPT.pdf` | |
| 5. `PROOF_AUDIT.md` | |
| 6. `PRIOR_ART_AND_CLAIM_BOUNDARY.md` | |
| 7. `code/run_release_checks.py` | |
| 8. `data/numerical_checks.csv` | |
| For citation or publication work also read `CITATION.cff`, `references.bib`, and `metadata/source_map.json`. | |
| ## Machine-readable files | |
| - `metadata/research_manifest.json` -- release-level metadata and entry points. | |
| - `metadata/claims.json` -- structured claim registry with status and dependencies. | |
| - `metadata/theorem_ledger.json` -- concise theorem ledger. | |
| - `metadata/source_map.json` -- source/dependency map. | |
| - `data/release_check_summary.json` -- reproducibility summary. | |
| - `data/numerical_checks.csv` -- finite-element regression results. | |
| ## Claim-language rules for agents | |
| Prefer: | |
| - "the release proves" or "the manuscript claims and proves internally"; | |
| - "proof-complete preprint"; | |
| - "independent specialist review pending"; | |
| - "the source problem was stated as open in the cited 2026 preprint." | |
| Avoid unless independently verified later: | |
| - "established theorem"; | |
| - "peer-reviewed solution"; | |
| - "first-ever solution"; | |
| - "historically novel"; | |
| - "accepted resolution." | |
| ## Methodological provenance | |
| The proof architecture was inspired by separate research on transducer mode exclusion, defect-conservation laws, purity/lattice rigidity, response-space compression, and integral realizability. These are methodological inspirations only. They are not logical dependencies of the theorem. See `METHODOLOGICAL_PROVENANCE.md`. | |
| ## Reproducibility | |
| Run: | |
| ```bash | |
| python -m pip install -r requirements.txt | |
| python code/run_release_checks.py | |
| ``` | |
| The numerical code is auxiliary and does not replace the analytic proof. | |