THE RELATIVISTIC QUANTUM GRAVITY

IN UNIFIED RELATIVISTIC QUANTUM GRAVITY THEORY: Dark energy arises naturally from the mass and distribution of gravitons, offering a quantum explanation for cosmic acceleration. Planck’s constant, Newton’s gravitational constant, and the cosmological constant emerge naturally from graviton dynamics. Gravity is modified at both short and long ranges through Yukawa-type corrections, predicting measurable deviations from Newtonian laws — providing new explanations for galactic rotation curves, cosmic structure formation, and lensing effects without requiring dark matter. Black holes are redefined: their temperature, luminosity, entropy, and lifetime derive directly from the quantum structure of spacetime, governed by graviton properties. The holographic principle emerges as a natural property of graviton dynamics: the information content of a region of space scales not with its volume, but with its surface area. The time-dependent Schrödinger equation is recovered as a limiting case of gravitational quantum evolution, connecting ordinary quantum mechanics to the dynamics of spacetime itself. A modified Heisenberg uncertainty principle introduces a fundamental minimum length, reshaping quantum behavior at the Planck scale. The Wheeler–DeWitt equation, often called the "wavefunction of the universe," finds its foundation in URQG’s framework, linking the geometry of the universe to its quantum state without external assumptions.