The Graviton Wave Model: A Quantum Wave Framework for Gravity, Cosmology, and Baryogenesis

The Graviton Wave Model: A Quantum WaveFramework for Gravity, Cosmology, and Baryogenesis AbstractGeneral relativity struggles to align with quantum mechanics and explain cosmicphenomena like dark energy and the matter-antimatter imbalance. The GravitonWave Model (GWM) proposes gravity as a repulsive wave field perturbed by matter,producing an apparent attraction that matches Newtonian predictions without curvingspacetime. Masses create gradients in the wave potential, driving objects towardregions of lower potential, mimicking gravitational pull. A scalar field, denoted ϕ andwith a mass around 20 GeV, drives cosmic expansion in low-density regions, acting asdark energy, and enhances clustering near dense structures, resembling dark matter. Inthe early universe, the evaporation of primordial black holes (PBHs) couples with thescalar field ϕ, producing matter-antimatter imbalances through CP violation, whichaccounts for the universe’s baryon asymmetry. This predicts a detectable 20 GeVscalar particle at the Large Hadron Collider (LHC). Consistent with Planck 2018(Planck Collaboration et al., 2018) and DESI 2024 (DESI Collaboration et al., 2024),the GWM offers a quantum-compatible framework for gravity, testable through LHCexperiments and cosmological observations.