The Non-Local Memory of Spacetime: Quantum Entanglement and Gravity as Residual Artifacts of Dark Sector Deceleration

We extend the variational model of conformal metric modulation by formalizing the quantum-mechanical counterparts of dark sector deceleration within nanometric interaction cavities. While localized baryonic condensation generates a macroscopic stress tensor experienced as gravitational curvature, we demonstrate that quantum entanglement emerges as a non-local residual memory of the hidden sector’s (Sₚ) primordial, undecelerated informational velocity (v₁ ≫ c). Utilizing a non-Markovian regime governed by a generalized Nakajima-Zwanzig master equation, we model how ultra-ordered architectures structurally insulate endogenous quantum states from environmental phononic decoherence at 310 K. By mapping the transition through modified Bogoliubov transformations, we establish that gravity and quantum non-locality are not separate fundamental forces, but complementary geometric artifacts derived from the structural braking of pure information congealing into the Standard Model framework.