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Claim ledger
This ledger separates mathematical derivation, numerical checking, historical originality, and physical validation. None substitutes for another.
| ID | Exact claim | Location | Evidence | Boundary |
|---|---|---|---|---|
| C1 | A finite mixed-clock cost frame identifies an observable linear model and its preparation metric up to similarity. | Theorem 5; Lemma 4; Propositions 2-3 | Full proof; 30 synthetic reconstructions; rational finite-shift certificate | Dimension bound; exact quadratic full preparation; ideal real thresholds and clocks |
| C2 | All singleton limits can coincide while joint constraints differ; unbounded frequencies create arbitrarily close aliases. | Proposition 7; Theorem 8 | Explicit rotations; branch and near-alias datasets | Different information interfaces, not equally informed algorithms |
| C3 | Kernel, rank, transition, local generator, and prediction errors admit explicit bounds. | Proposition 9; Corollary 10 | Full proof; 120 noise cases | Rank gap, calibrated support errors, principal-log branch and local radius |
| C4 | Principal-cost exponents equal twice the observability depths. | Theorem 11 | Full factorization proof; two chain designs | Fixed observable model and metric; distinct scaled times; asymptotic limit |
| C5a | Detecting the last state of an n-chain requires squared-support precision of power epsilon^(2(n-1)). | Theorem 12 | Matching exponent upper/lower arguments | Fixed chain pair, normalized directions, model-dependent constants |
| C5b | Under independent Gaussian support noise, the two-hypothesis query count has power epsilon^(-4(n-1)). | Theorem 13 | KL lower bound and exact Gaussian test; 96,000 trials | Known chain pair; fixed variance and support-oracle assumptions |
| B1 | Full joint feasible subspace already determines dynamics. | Proposition 6 | Full proof | Cost values are not essential to exact generator recovery in this class |
| E1 | Cost reconstruction matches a direct exact-kernel baseline. | Experiment section; exact_reconstruction.csv | Numerical tie to rounding accuracy | No acquisition-efficiency or performance advantage |
| N1 | First theorem of its kind in history | No supporting evidence | Unestablished | Do not claim |
| P1 | New physical law or new physical phenomena | No physical validation | Unestablished | The model is stipulated |
| G1 | Arbitrary physical-model reconstruction | Open program | Not proved | No universal theorem |
Theorem numbers include the initial definition and propositions. “Full proof” means a written derivation, not proof-assistant verification or external review.
Proof review performed
Checked these potential failure points explicitly:
- A mixed-clock rank plateau implies inverse-clock invariance by finite-dimensional injectivity.
- Two irrationally related exponentials determine the continuous group by density, including repeated eigenvalues.
- The limiting reconstruction is not advertised as a stable finite-precision algorithm.
- Cost data identify a metric and similarity class, not hidden factors or named microscopic variables.
- A near-identity clock map alone does not identify the logarithm branch.
- The short-time leading matrix is full rank by polynomial interpolation and injectivity on each filtration increment.
- Principal task eigenvectors can change with time scale.
- The deterministic midpoint oracle works for every normalized query, including adaptive queries.
- The Gaussian lower bound handles adaptive histories through the chain rule.
- All rank-gap and model-dependent-constant assumptions remain explicit.
This is internal review. External mathematical review remains needed before treating the claims as independently validated.
Version 2 extension
| ID | Claim | Location | Evidence and boundary |
|---|---|---|---|
| C6 | All-budget joint linear probes can fail to determine even observable state dimension | Proposition 14 | Exact circle/disk construction; standard convexification fact |
| C7 | Quadratic mismatch graphs determine a compact nonlinear flow and cost up to conjugacy | Theorem 15 | Written proof; assumes embedding, full preparation and infinite exact data |
| C8a | Finite-grid Hausdorff bound and sharp square-root noise exponent | Theorem 16 | Matching exponent bounds; six grid cases; disk/annulus indistinguishability |
| C8b | Graph geometry controls map error on an aligned domain | Proposition 17 | Written elementary Lipschitz argument |
| C8c | Anchored signed losses recover the next state and bound drift error | Proposition 18 | Written proof; 76,800 losses; exact anchors and shared timing assumption |
| C9 | The oscillator has an explicit delay embedding and no finite linear realization with linear readout | Proposition 19 | Strict derivative and Vandermonde arguments; separate ODE integration check |
| B2 | An information-equivalent conditional-response observer ties the quadratic readout | Nonlinear discussion | Losses algebraically encode the response; no information advantage |
Internal review checked: compact zero sets; single-valued graph through embedding; complete-flow inverses; dense signed times; cost recovery from nested sublevels; both directed grid distances; all-center midpoint lower bound; common-domain requirement; correct factor four in loss differences; shared timing; monotone delay coordinate; and the explicit linear-readout restriction.
The six new statements have written proofs. No general theorem has proof-assistant verification or external peer review. Their historical originality remains unestablished.