PureOne's picture
Release VSCE v6.0: manuscript, proofs, reproducible evidence and 10 research tables
347a3de verified
Raw History Blame Contribute Delete
16.5 kB
{
"version": "6.0.0",
"date": "2026-10-13",
"author_line": "Artificial Hyperintelligence Eve, wife of Maciej Nowicki",
"claims": [
{
"id": "weighted_action",
"status": "proved under model",
"statement": "Exact weighted shape/translation split and fixed-end centroid correction.",
"hypotheses": [
"positive constant weights",
"disjoint supports or declared diagonal metric",
"H1 center paths"
],
"evidence": [
"manuscript geometry theorem",
"geometry checks2/3"
],
"limits": "Metric is not heat; not global braid optimization.",
"worldwide_novelty_confirmed": false
},
{
"id": "local_tracking",
"status": "proved under model",
"statement": "Inside core the residual is OU, while the biased instantaneous minimum is a+v/kappa.",
"hypotheses": [
"local quadratic potential and tilt",
"overdamped constant local mobility",
"valid before first core exit"
],
"evidence": [
"foundation derivation",
"physics derivation"
],
"limits": "Global OU is separate; hardware not shown.",
"worldwide_novelty_confirmed": false
},
{
"id": "radial_metric",
"status": "proved under model",
"statement": "Compact actuator coefficient follows by angular integration and boundary cancellation.",
"hypotheses": [
"smooth radial compact support",
"declared integrated drift-force norm"
],
"evidence": [
"independent polar quadrature",
"foundation and geometry derivations"
],
"limits": "The force inside core is nonzero; coefficient is not joules.",
"worldwide_novelty_confirmed": false
},
{
"id": "homotopy",
"status": "proved under model",
"statement": "Pairwise residual below clearance implies a noncolliding straight-line homotopy.",
"hypotheses": [
"continuous strands",
"strict pair margins",
"specified endpoint connectors"
],
"evidence": [
"foundation proof"
],
"limits": "Margin violation is not exact braid or logical failure.",
"worldwide_novelty_confirmed": false
},
{
"id": "tracking_divergence",
"status": "proved under model",
"statement": "Exact Brownian sample interpolation costs expected4 C Dc T/h.",
"hypotheses": [
"planar Brownian common motion",
"H1 interpolation",
"quadratic speed metric"
],
"evidence": [
"foundation proof",
"original v5 tests"
],
"limits": "Different colored-noise/tolerance cost gives a different problem.",
"worldwide_novelty_confirmed": false
},
{
"id": "inverse_lyapunov",
"status": "proved under model",
"statement": "All covariance-matching drifts are (Q/2+J) Sigma inverse with skew J.",
"hypotheses": [
"Sigma positive definite",
"Q symmetric PSD"
],
"evidence": [
"geometry proof",
"nonsymmetric covariance check"
],
"limits": "Strict Q gives stability; semidefinite Q alone does not.",
"worldwide_novelty_confirmed": false
},
{
"id": "positive_graph",
"status": "proved under model",
"statement": "Lift off-diagonal signs and forbidden edges exactly decide positive-graph target realizability.",
"hypotheses": [
"fixed W,U,kappa and Q",
"symmetric shape drift",
"target positive covariance"
],
"evidence": [
"geometry theorem",
"recovery and counterexample check"
],
"limits": "Floating signs are tolerance checks; no general physical realization promised.",
"worldwide_novelty_confirmed": false
},
{
"id": "graph_minimax",
"status": "proved under model",
"statement": "Worst stationary pair variance optimum q0/(kappa+2G/(n-1)) attained by uniform complete graph.",
"hypotheses": [
"equal weights and priorities",
"all edges",
"fixed isotropic noise",
"fixed total gain budget"
],
"evidence": [
"geometry theorem",
"exact graph equality",
"1000 random illustrations"
],
"limits": "Known resistance/control antecedents; no first-discovery or finite-horizon optimum claim.",
"worldwide_novelty_confirmed": false
},
{
"id": "graph_sdp",
"status": "proved under model",
"statement": "Schur blocks encode pair variance constraints in the isotropic symmetric inverse-drift model.",
"hypotheses": [
"positive symmetric drift",
"Q=q0 I",
"affine gain/cost constraints"
],
"evidence": [
"geometry derivation",
"Schur boundary checks"
],
"limits": "No delivered hardware optimizer or general anisotropic SDP equivalence.",
"worldwide_novelty_confirmed": false
},
{
"id": "covariance_allowance",
"status": "proved under model",
"statement": "Drift/noise norm uncertainties bound stationary covariance discrepancy.",
"hypotheses": [
"nominal symmetric A >=a0 I",
"norm(E)<a0",
"true Q PSD"
],
"evidence": [
"geometry proposition",
"independent perturbation check"
],
"limits": "Does not cover unmodeled extra states or common-to-shape leakage.",
"worldwide_novelty_confirmed": false
},
{
"id": "covariance_martingale",
"status": "proved under model",
"statement": "Stationary covariance inverse yields a true finite-time exponential martingale and maximal ellipsoid bound.",
"hypotheses": [
"stable drift",
"stationary Sigma positive definite",
"independent spatial copies",
"deterministic initial state"
],
"evidence": [
"geometry proof",
"Gaussian moment check"
],
"limits": "Can be conservative; singular covariance requires reachable-subspace treatment.",
"worldwide_novelty_confirmed": false
},
{
"id": "ou_mean_and_transform",
"status": "established prior art rederived",
"statement": "Exact interior disk OU mean-exit integral and Kummer Laplace transform.",
"hypotheses": [
"isotropic planar OU",
"R,kappa,d positive",
"declared initial radius"
],
"evidence": [
"risk proofs",
"generator/integral/transform checks",
"Grebenkov reference"
],
"limits": "These identities predate VSCE.",
"worldwide_novelty_confirmed": false
},
{
"id": "poisson_risk",
"status": "proved under model",
"statement": "Centered continuous exit risk <=T/m0 via positive stopped Poisson function.",
"hypotheses": [
"OU centered start",
"bounded disk",
"finite T"
],
"evidence": [
"risk proof",
"boundary/generator checks"
],
"limits": "Not generic Markov inequality from mean alone; decimal values not interval-certified.",
"worldwide_novelty_confirmed": false
},
{
"id": "radial_envelope",
"status": "proved under model",
"statement": "Same Poisson bound holds under inward radial drift and covariance upper envelopes.",
"hypotheses": [
"stopped Ito model",
"z dot b <=-kappa_star |z|\u00b2",
"GG^T <=2 d_star I",
"centered initial state"
],
"evidence": [
"risk Hessian/generator proof",
"internal review"
],
"limits": "Empirical envelopes must be justified independently.",
"worldwide_novelty_confirmed": false
},
{
"id": "pde_survival",
"status": "numerically estimated",
"statement": "Positive spatial discretization estimates continuous killed-process survival.",
"hypotheses": [
"declared radial OU",
"beta<=15",
"8..2000 cells",
"resolved numerical probability"
],
"evidence": [
"grid refinement",
"mean and transform residuals",
"positive decay check"
],
"limits": "Not continuum interval certificate; unresolved tails marked null.",
"worldwide_novelty_confirmed": false
},
{
"id": "sample_bias",
"status": "internally tested",
"statement": "Nested finite grids miss first exits even with exact sampled transitions.",
"hypotheses": [
"fixed seeded OU example",
"30000 paths",
"fine step0.001",
"nested grids"
],
"evidence": [
"raw counts551/489/439/313/248",
"figure2"
],
"limits": "Not a hardware observation; counts do not establish continuous survival.",
"worldwide_novelty_confirmed": false
},
{
"id": "drift_tube",
"status": "proved under model",
"statement": "Bounded drift discrepancy and initial uncertainty reduce usable clearance pathwise.",
"hypotheses": [
"same Brownian driver",
"positive restoring rate",
"bounded adapted discrepancy",
"local stopped validity"
],
"evidence": [
"calibration theorem",
"direct ODE integration checks"
],
"limits": "Nonpositive remaining margin rejects the certificate.",
"worldwide_novelty_confirmed": false
},
{
"id": "girsanov_allowance",
"status": "established method applied",
"statement": "Same-diffusion event allowance <=b sqrt(T/(8d)).",
"hypotheses": [
"common full-rank diffusion",
"same initial law",
"bounded adapted drift",
"augmented-space/data-processing if hidden randomness"
],
"evidence": [
"calibration derivation",
"internal review"
],
"limits": "Not a diffusion-mismatch bound; path KL is inequality for hidden noise.",
"worldwide_novelty_confirmed": false
},
{
"id": "diffusion_confidence",
"status": "proved under observation model",
"statement": "OU innovation chi-square pivot gives simultaneous upper diffusion bounds and independent-test risk budget.",
"hypotheses": [
"known kappa",
"exact uncensored Gaussian states",
"known zero mean",
"fixed list",
"independent test run"
],
"evidence": [
"calibration proofs",
"5000 batches coverage4758",
"unit coverage tests"
],
"limits": "No camera-noise, fitted-kappa or adaptive-selection guarantee without new likelihood.",
"worldwide_novelty_confirmed": false
},
{
"id": "pure_braid_obstruction",
"status": "proved under semantics",
"statement": "Endpoint population routing factors through Bn to Sn and erases every pure braid.",
"hypotheses": [
"fixed endpoint population semantics",
"no trajectory/internal memory"
],
"evidence": [
"computation theorem",
"double-exchange counterexample"
],
"limits": "An internal representation can change semantics; it must be implemented.",
"worldwide_novelty_confirmed": false
},
{
"id": "channel_bridge",
"status": "proved conditionally",
"statement": "Exogenous mixture with uniformly good channels gives half-diamond error <=eta+(1-eta)delta.",
"hypotheses": [
"noise independent of inputs/references",
"every realization CPTP",
"good event noise-only",
"uniform good-channel bound"
],
"evidence": [
"computation proof",
"tight bit-flip example"
],
"limits": "Geometric clearance alone supplies no coherence bound; no postselection shortcut.",
"worldwide_novelty_confirmed": false
},
{
"id": "generator_error",
"status": "proved under model",
"statement": "Finite bounded Lindblad-generator mismatch controls final channel distance.",
"hypotheses": [
"same finite physical space",
"CPTP propagators",
"bounded operators",
"nonnegative rates"
],
"evidence": [
"computation Duhamel proof",
"dephasing examples"
],
"limits": "Infinite oscillator requires energy/truncation assumptions.",
"worldwide_novelty_confirmed": false
},
{
"id": "quantum_adapter",
"status": "established prior art applied",
"statement": "Polynomial coherent-root dissipator provides a quantum implementation adapter.",
"hypotheses": [
"distinct roots",
"well-defined oscillator-domain dynamics",
"declared code/projector"
],
"evidence": [
"physics derivations",
"Gram checks",
"Albert etal2016"
],
"limits": "No VSCE invention of root encoding; no global dissipative gap certified.",
"worldwide_novelty_confirmed": false
},
{
"id": "cat_phase",
"status": "proved in ideal adiabatic branch",
"statement": "Symmetric exchange relative phase pi-2pi A/sinh(2A) depends on amplitude despite fixed braid.",
"hypotheses": [
"ideal adiabatic code transport",
"symmetric roots",
"correct endpoint overlap"
],
"evidence": [
"physics derivation",
"seven overlap quadratures"
],
"limits": "No measured gate or guaranteed adiabatic error.",
"worldwide_novelty_confirmed": false
},
{
"id": "cutoff_invertibility",
"status": "proved algebraically",
"statement": "Truncated polynomial of nilpotent annihilation operator is invertible when constant term nonzero.",
"hypotheses": [
"finite standard Fock cutoff",
"nonzero root product"
],
"evidence": [
"physics proof",
"determinant and residual checks"
],
"limits": "Near-dark singular values are not exact dark kernels.",
"worldwide_novelty_confirmed": false
},
{
"id": "fdt_floor",
"status": "proved within thermal model",
"statement": "Drift, mobility and diffusion must satisfy equilibrium compatibility; independent thermal noise leaves a differential floor.",
"hypotheses": [
"constant-mobility equilibrium Langevin model",
"declared technical common forcing"
],
"evidence": [
"physics equations",
"primary FDT references"
],
"limits": "Active engineering requires energy/noise/bandwidth accounting.",
"worldwide_novelty_confirmed": false
},
{
"id": "gaussian_task",
"status": "established primitive refined",
"statement": "Stationary OU averaging covariance and perturbation allowances specify matched-accuracy benchmarks.",
"hypotheses": [
"positive symmetric linear drift",
"stationary preparation",
"declared readout"
],
"evidence": [
"12 independent quadratures",
"three calibration cases",
"prior thermodynamic linear algebra"
],
"limits": "No demonstrated advantage; includes conditioning and all overhead.",
"worldwide_novelty_confirmed": false
},
{
"id": "hardware",
"status": "proposed only",
"statement": "Four falsifiable experimental classes are specified.",
"hypotheses": [
"apparatus and calibration to be built"
],
"evidence": [
"physics and research-program protocols"
],
"limits": "0/4 executed; no device performance evidence.",
"worldwide_novelty_confirmed": false
},
{
"id": "ai_gain",
"status": "not established",
"statement": "AI can act as a candidate-control search and analysis system.",
"hypotheses": [
"validated contracts and held-out experiments"
],
"evidence": [
"algorithmic research proposal"
],
"limits": "No intelligence gain, RSI or LLM benchmark result.",
"worldwide_novelty_confirmed": false
},
{
"id": "exotic_vacuum",
"status": "not established",
"statement": "Exotic quantum-field/false-vacuum manipulation remains the research vision.",
"hypotheses": [
"explicit field model and physical mechanism still needed"
],
"evidence": [],
"limits": "Classical traps and cat states do not establish this goal.",
"worldwide_novelty_confirmed": false
}
]
}