Raw RINEX validation of distance-structured correlations in GNSS atomic clocks. Detects exponential decay signatures (λ≈1-4 km) in 539 stations using SPP with broadcast ephemerides, eliminating processing artifact hypothesis. Shows E-W>N-S anisotropy, CMB alignment, orbital coupling. TEP-GNSS Paper 3.

25-year analysis of 165.2M GNSS clock measurements revealing persistent velocity-dependent correlations, orbital coupling (r=-0.888), 18.6-year lunar nutation detection, and CMB frame alignment, confirming decadal stability of TEP signatures

Multi-center analysis of 62.7M GNSS clock measurements revealing distance-structured correlations with exponential decay (λ = 3,330-4,549 km), consistent with screened scalar field predictions from the Temporal Equivalence Principle

RBH-1 runaway black hole as Temporal Topology soliton candidate. Explains 650 km/s velocity discontinuity with cold gas via metric shock. TEP calibration: R_T≈7.8×10⁷ km from GNSS. Alternative to shock physics cooling problem

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

hi_class cosmological constraints on the Temporal Equivalence Principle: CMB, supernova, and Jordan-frame consistency tests.

Independent optical test of the Temporal Equivalence Principle using 11 years of LAGEOS satellite laser ranging data, revealing distance-structured correlations and spectral signatures consistent with conformal scalar field coupling

Universal critical density ρ_T ≈ 20 g/cm³ from R ∝ M^(1/3) scaling. GNSS-calibrated (L_c ≈ 4200 km), validated across SPARC galaxies, Milky Way, magnetars. Temporal Topology screening reconciles galactic dynamics with GR tests. TEP Paper 6.

Reinterprets dark matter observations as phantom mass from temporal shear in gravitational lensing. Conformal metric coupling creates temporal composite images, generating gravitational shear signatures. Resolves strong lensing time delays and core-cusp problem. TEP Paper 4.

Empirical synthesis of 25.3 years GNSS timing data (165.2M pairs) revealing distance-structured correlations (λT=4,201±1,967 km) with TEP signatures: EW/NS anisotropy, orbital coupling (r=-0.888), CMB alignment (18.2°), planetary responses, nutation couplings

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 TEP observable response coefficient κ_MSP

Temporal Equivalence Principle: A conformal-time framework unifying gravitational, cosmological, and quantum observables across precision experiments.

🕰️ Analyze 25 years of GNSS clock data to uncover correlations, ensuring reliable timekeeping across global networks.

Temporal Equivalence Principle: Synchronization Holonomy in Pulsar Scintillation

Multi-GNSS clock correlation analysis (GPS, GLONASS, Galileo, BeiDou) for Temporal Equivalence Principle tests using MGEX data, 2025–2026.

Temporal Equivalence Principle: Lunar Laser Ranging and the Nordtvedt Effect

Temporal Equivalence Principle: Temporal Shear in the Earth Flyby Anomaly

Gravitational lensing and time-delay cosmography tests of the Temporal Equivalence Principle using COSMOGRAIL, SH0ES, and H0LiCOW data.

Paper 27: Temporal Equivalence Principle: Temporal Horizon Cosmology and the Absence of a Physical Big Bang Singularity

🔭 Validate the Temporal Equivalence Principle by analyzing 11 years of Satellite Laser Ranging data for precise optical tests.