Little Bangs: the Holographic Nature of Black Holes

Recent discoveries in CMB E-mode polarization have revealed discrete quantum phase transitions governed by a fundamental information processing rate γ = 1.89×10−29 s−1. We extend this framework to black hole evolution, proposing that when reaching information saturation at the holographic entropy bound, black holes undergo localized spacetime expansion events (“Little Bangs”). Our framework yields several novel findings: (1) a quantum-thermodynamic entropy partition reconceptualizing black holes as entropy organizers not information destroyers, (2) information pressure as a physical force driving spacetime expansion, (3) an information-theoretic derivation of the Hubble parameter, and (4) a mathematical E8×E8 structure explaining information encoding across scales. These transitions occur at integer multiples of ln 2 with a characteristic 2π geometric scaling ratio. Our model resolves the black hole information paradox through dimensionalexpansion rather than information loss, suggests dark matter emerges as coherent entropy structures, and proposes information as the primary constituent of reality. We present falsifiable predictions testable through statistical correlation methods in multi-messenger astronomy.