The tau-Epoch Discovery II: Internal Time Identified Across Six Independent Scientific Domains
(No New Experiments Required)
CID: bafybeihrkfzxxi4slppiykyfbu3tn3yf56mquou4v4wwfm6ldf4py6pdse
Union Dipole Theory Foundation, London, United Kingdom
Published: 2026-03-04 | 19 pages
Al-Mayahi (2026a) | DOI: 10.5281/zenodo.18807766
This paper identifies internal time tau as an empirical degree of freedom of measurement, established from the published scientific record without new experiments, instruments, or recalibrations. Building on Al-Mayahi (2026a) — which isolated tau in the metrological scatter of G, alpha, and h — this paper demonstrates that the same configuration-invariant discovery signature recurs across six independent domains entirely outside precision metrology.
Two-Clock Projection Law
The coupling coefficient βC is estimated from the ensemble Birge ratio — not a free parameter. The empirical alpha-bridge identity βG / βα = √(α-1) ~ 11.7 (from 2026a) anchors the beta-spectrum.
| # | DOMAIN | ANOMALY | BIRGE / β | SIGN | STATUS |
|---|---|---|---|---|---|
| I | Cosmology | H0 tension (5σ CMB vs local) | 2.54 | Yes (5/7 tau-ordered) | Directional |
| II | Particle Physics | ATLAS vs CMS Higgs couplings (7/7 channels) | ~0.46 | Yes (7/7, p=0.0078) | CONFIRMED |
| III | Quantum Chemistry | 1H NMR inter-laboratory scatter | ~4.2 @ 7T | Yes (R²=0.95) | CONFIRMED |
| IV | Nuclear Physics | Neutron lifetime bottle vs beam (5.7σ) | 1.47 (bottle) | Yes | CONFIRMED |
| V | Atomic Physics | Proton radius puzzle (4.8σ) | ~2.9 | Yes (muonic < electronic) | Directional |
| VI | Hadronic Theory | Muon g-2 theory conflict (2.1σ) | — | Yes (lattice > WP) | Directional |
CONFIRMED = pre-registered threshold met at current dataset size. Directional = correct sign and ordering, requires larger n for threshold.
Pre-Registered Predictions
Spearman ρ(log10(τ_method), H0_obs) < -0.5
All Δκ > 0 at Run 3 (~300 fb⁻¹)
σ_inter = A/B0 + C; R² > 0.90, A/σ_A > 3
Bottle sub-ensemble: Pearson r(T_store, τ_n) < -0.4
Electronic r_p converges toward muonic (newer = smaller)
Finer lattice spacing → higher a_μ (lattice converges to exp)
Two-Clock Necessity Theorem (Section 11.4)
Let M1 = class of admissible one-clock frameworks (discrepancies are domain-local statistical fluctuation or systematic bias; no shared projection variable; no additional temporal degree of freedom beyond laboratory time t).
Under assumptions A1-A3 (Sign Consistency, tau-Ordered Stratification, Locked Proxy Assignment, Domain Non-Communication), M1 has no admissible mechanism to generate the invariant signature S. Any attempt within M1 necessarily reduces to either: (i) post-hoc tuning of tau-proxies, or (ii) introduction of an unacknowledged cross-domain coupling mechanism. Both violate the locked-proxy and non-communication constraints.
Reversal of predicted sign in a high-precision domain extension; loss of tau-monotonic ordering at adequate sample size; collapse of scaling-law structure; or demonstration of a shared cross-domain calibration channel.
Beta-Coupling Spectrum (Table 8)
Nine measurement domains under one equation. βC spans from 39.1 (torsion gravimetry) to ~0.46 (LHC), a range of ~85x.
| DOMAIN | βC | log10(τ / τPlanck) |
|---|---|---|
| Torsion Gravimetry (G) | 39.1 | 3.0 |
| Atom Interferometry (G) | 7.8 | -3.0 |
| Kibble Balance (h) | 3.36 | -9.0 |
| NMR (Chemistry) | 4.2 | 3.0 |
| Neutron Lifetime | 1.47 | 0.0 |
| H0 (Cosmology) | 2.54 | 13.1 |
| Proton Radius | 2.9 | -9.0 |
| LHC Higgs | 0.46 | -9.0 |
| Muon g-2 | — | -23.0 |
Complete reference implementation provided in Section 9 (tau_six_domains.py). All data drawn verbatim from cited publications.
Python ≥ 3.12, NumPy ≥ 1.26, SciPy ≥ 1.12. No custom libraries, no GPUs, no proprietary data.
Formal Verification Certificate
Every theorem in this project has been machine-checked by the Lean 4 kernel. No axiom is assumed without proof. No gap exists in the verification chain.
τ-Epoch Discovery II • Lean 4 + Mathlib • Apoth3osis Labs
9 Lean 4 modules formalizing the statistical library, domain data, tau-proxy assignments, Two-Clock Projection Law, predictions, and structural exclusion theorem from this paper. Sorry-free, builds clean. All 40 data rows verified against paper Tables 2-7.
Proof Blueprint
Click any module to expand its verified definitions and theorems.
Verified Computation Outputs
These values are produced by Lean 4 #eval and independently verified against the paper's Section 9 Python reference code.
| PREDICTION | STATISTIC | VALUE | STATUS |
|---|---|---|---|
| H1 | Spearman ρ | -0.450 | DIRECTIONAL |
| L2 | Binomial sign (7/7) | p = 0.0078 | CONFIRMED |
| N1_NMR | Linear R² | 0.951 | CONFIRMED |
| N1_neutron | Weighted mean | bottle < beam | CONFIRMED |
| P1 | Pearson (r, p) | (0.445, 0.267) | DIRECTIONAL |
| M1 | Pearson (r, p) | (-0.937, 0.333) | DIRECTIONAL |
Status counts verified by native_decide: (confirmed=3, directional=3, notMet=0, pending=0)
Independent hostile review verified all 40 data rows against the paper's Tables 2-7, ran the Section 9 Python reference code, cross-checked every Lean #eval output, and confirmed theorem substance (non-vacuous NecessityTheorem). F-Group (data provenance) and G-Group (theorem substance) probes all passed.
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Module Dependency Graph
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Standalone C11 transpilations of the statistical library, domain data, and prediction engine. Compile with any C11 compiler. Dependency-free.
Memory-safe Rust crate with 14 unit tests + 1 doc-test. Standalone cargo build + cargo test. No unsafe blocks.
Provenance Chain
Al-Mayahi (2026), DOI: 10.5281/zenodo.18856841. Tables 2-8: 40 data rows across 6 scientific domains.
HeytingLean.Bridge.AlMayahi.TauEpoch (9 modules). Stats, DomainData, TauProxy, Projection, Predictions, NecessityTheorem. 0 sorry.
Independent hostile review: F-Group (data provenance, F1-F5) + G-Group (theorem substance, G1-G4). All 40 data rows cross-checked against PDF. Verdict: CLEAN.
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