The Collective Entanglement Disruption (CED) hypothesis introduces the concept that gravity induces quantum decoherence, altering quantum systems' evolution.
CED extends beyond traditional models by considering the influence of spacetime curvature and gravitational time dilation on quantum coherence.
The theory proposes gravity as a universal decoherence field disrupting quantum entanglement mimicking dark matter's effects.
The Photon-Centric Model redefines photons as active agents shaping reality and spacetime structure, potentially explaining dark matter distribution without new particles.
CED and the Photon-Centric Model offer insights into dark matter's quantum-gravitational nature, interacting primarily through gravity and photon-mediated effects.
These models make testable predictions aligning with recent data, such as varying quantum decoherence rates with spacetime curvature.
Observing high-photon-density environments can provide evidence for the Photon-Centric Model's correlation with dark matter distribution.
Experimental validation through quantum optics and astrophysical observations could reshape our understanding of dark matter and the cosmos.
If accurate, these theories could revolutionize quantum mechanics and challenge the traditional view of spacetime as a passive background.
Challenges include defining the gravity-decoherence mechanism and developing the mathematical framework for photon-induced spacetime geometry.