The Event-Density Theory

Key Achievements • Reproduced gravitational time dilation effects with high numerical accuracy, while reinterpreting them through event density rather than objective time dilation. • Explained frequency shifts in atomic clocks on satellites (GPS and beyond) with results consistent with operational corrections, showing that the model naturally incorporates both gravitational and kinematic contributions. • Recovered the numerical predictions for gravitational redshift, black-hole light deflection, and perihelion precession, but through a framework based on angular displacement and event density instead of spacetime curvature. • Accounted for gravitational waves as oscillations in event density (δα), providing the same strain values observed by LIGO/Virgo while offering a clearer physical interpretation compatible with quantization. • Explained discrete quantum energy levels in gravitational quantum wells, matching experimental results (≈1.4 peV) without requiring curved spacetime, thus bridging quantum mechanics and gravitation. • Integrated consistently with quantum mechanics by treating event density as a quantum-phase density, enabling direct interpretation of interference, decoherence, and phase shifts in gravitational environments. • Recovered black-hole entropy (Bekenstein–Hawking area law) from event counting on the Euclidean horizon, deriving the canonical 1/4 factor without parameter fitting. • Provided a reinterpretation of string vibrational spectra through variations in event density, avoiding the need for extra spatial dimensions while reproducing known gravitational redshift results. • Formulated an action principle for the event-density field, allowing the recovery of Newtonian gravity, relativistic limits, linear waves propagating at c, and a natural path toward quantization. • Proposed a consistent candidate for quantum gravity where quanta of δα replace the hypothetical graviton, preserving experimental correspondences while offering new, testable predictions (spectral broadening, cumulative dephasing). Taken together, these achievements indicate that the event-density framework not only reproduces the empirical successes of General Relativity and Quantum Mechanics but also provides a unifying interpretation that is more transparent and potentially more fundamental. The following chapters develop these achievements step by step, with detailed derivations, calculations, and comparisons to experimental data.