Dark Stars as Primordial Solitons: Resolving Hubble Tension through Emergent Spacetime and Quantum Decoherence

We present the Action Energy Theory (AET), a novel framework that simultaneously resolves the Hubble tension and explains the anomalous massive objects observed by JWST at high redshifts. The theory proposes that spacetime emerges from quantum decoherence processes, with gravitational strength regulated by the density of primordial solitons. We demonstrate that the Hubble tension (H₀ = 67.4 vs 73.0 km/s/Mpc) naturally resolves through dynamic gravitational regulation varying from 20.0% at z=1100 to 13.3% at z=0. The "dark stars" observed by JWST are identified as primordial solitons with predicted mass ~1.21×10⁶ M_sun, matching observations with 99.36% accuracy. The theory reproduces light element abundances with 99.1% precision and reveals specific patterns across the entire periodic table with 93.1% overall accuracy, providing multiple testable predictions.