tep

Temporal Equivalence Principle: Suppressed Density Scaling in Globular Cluster Pulsars — Globular cluster pulsar spin-down anomaly: 197 cluster vs 346 field pulsars show 0.40 dex residual (8.3σ). Suppressed density scaling (Γ=0.39±0.08 vs Newtonian Γ=0.72, 4.1σ) tests the TEP observable response coefficient κ_MSP.

Temporal Equivalence Principle: Native hi_class Conformal Implementation, Linear Perturbation Closure, and CMB Acoustic Peak Preservation — hi_class cosmological constraints on TEP: CMB, supernova, and Jordan-frame consistency tests with native conformal Boltzmann solver implementation.

The Cepheid Bias: Resolving the Hubble Tension — Environment-dependent Cepheid clock bias under TEP. Generative clock-aware model across 37 SH0ES hosts yields H0 = 66.65 ± 1.58 km/s/Mpc, consistent with Planck at 0.45σ. M31 and OGLE-IV differential tests confirm the predicted sign.

Klein–Gordon and Dirac limits of dynamical proper-time phase transport: spin holonomy and antimatter as geometric orientations.

Temporal Equivalence Principle: Temporal Shear in the Earth Flyby Anomaly — Analysis of Earth gravity-assist flyby anomalies as a signature of temporal shear in the conformal metric, with reproducible orbital data pipeline.

Temporal Equivalence Principle: Temporal Shear Recovery in Gaia DR3 Wide Binaries — Gaia DR3 wide binaries (341,315 systems) show Temporal Shear recovery at R_s=2,646±182 AU (Δχ²=14,845 vs Newtonian), with environmental ordering confirmed (p<10⁻⁴).

Temporal Equivalence Principle: Black Holes and the Temporal Horizon — Develops the strong-field consequence of TEP: a black hole is a temporal well—a regular spatial region where proper time differs radically from the exterior, without central singularity or absolute event horizon. Features 50-step reproducible pipeline and direct EHT constraints.

Global Time Echoes: MGEX Multi-GNSS Clock Replication, 2025–2026 — Multi-GNSS clock correlation analysis (GPS, GLONASS, Galileo, BeiDou) confirming TEP signatures across constellations using MGEX data.

Temporal Equivalence Principle: A Blind-Prediction Residual Test in Multiply-Imaged Supernovae — Gravitational lensing and time-delay cosmography tests of TEP using COSMOGRAIL, SH0ES, and H0LiCOW data, with blind-prediction residual analysis of multiply-imaged supernovae.

Temporal Equivalence Principle: Lunar Laser Ranging and the Nordtvedt Effect — Lunar laser ranging constraints on the Nordtvedt effect and temporal shear in the Earth-Moon system, with 50+ year dataset analysis.

Temporal Equivalence Principle: A Unified Resolution to the JWST High-Redshift Anomalies — JWST high-redshift anomalies unified via TEP. SUSPENSE kinematic comparison (N=15) shows R_ML predicts spectral age (ρ=+0.556, p=0.032) beyond stellar mass. Large-sample photometry (N=1,283) and nested Bayesian comparison (ln BF=+64.1) favour TEP.

Temporal Equivalence Principle: Dynamical Proper Time and the Illusion of Primordial Deuterium — TEP challenge to primordial deuterium: Q1009+2956 reanalysis shows ordinary-H embedding differs from true D by only 0.0011σ. Derives temporal-transport cosmology, helium-4 equilibrium attractor, and global opacity theorem.

Deterministic, local-only engineering evidence from git history — not a skill score