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.

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

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

RBH-1 reinterpreted as a gravitational soliton. Explains 650 km/s velocity with cold gas via metric shock, not thermal. Calibrated from GNSS data. Paper 8 of the TEP series.

The Temporal Equivalence Principle: Suppressed Density Scaling in Globular Cluster Pulsars

Universal Critical Density: Unifying atomic, galactic, and compact object scales via gravitational solitons. Derives ρ_c ≈ 20 g/cm³ from GNSS clocks, validates across SPARC galaxies, magnetars, and Milky Way. TEP Paper 7.

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.

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

Covariant reformulation of relativity with dynamic time as a field and emergent light speed. Proposes two-metric geometry (gravitational + causal), synchronization holonomy as key observable, and falsifiable experimental tests. Addresses cosmological tensions while preserving local Lorentz invariance.

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

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

What Do Precision Tests of General Relativity Actually Measure? A methodological taxonomy showing why most precision tests constrain largely local, reciprocity-even observables within assumed frameworks. Proposes discriminating experiments. TEP Paper 10.

🌌 Explore dark matter dynamics with TEP-UCD, unifying atomic, galactic, and compact object scales through observed critical density patterns.