Quantum Relativity: Unifying Gravity and Quantum Mechanics

General Relativity and Quantum Mechanics represent the cornerstones of modern physics butremain incompatible in extreme curvature regimes, such as inside black holes or during the earlystages of the universe.In this study, we present a novel theory of Quantum Relativity, grounded in the discrete quantization of spacetime curvature. Within this framework, spacetime adopts a discrete structure, andall fundamental forces—gravity, electromagnetism, and the strong and weak nuclear forces—emergefrom quantum geometry, eliminating the need for additional fundamental fields.Key predictions of the model include:The replacement of the Big Bang with a quantum Big Bounce, derived from a modified Friedmannequation, resolving cosmological singularities. A variable speed of light, leading to measurable effects in gravitational wave signals and cosmic microwave background observations. A geometricorigin of mass, with the Higgs field emerging as a manifestation of quantum spacetime curvature.A proposed link between spacetime stability and the Riemann Hypothesis, suggesting a connection between the distribution of prime numbers and the quantum structure of spacetime. Thesepredictions have been validated through numerical simulations and comparisons with existing astrophysical data, demonstrating consistency with current observational evidence. The model alsooffers a novel perspective on the fractal nature of spacetime and the influence of wavefunction agein shaping cosmological anomalies.