Emergent Spacetime Manifolds from Non-Equilibrium Thermoinformational Dissipation and Quantum Entanglement Networks

This work formulates a mathematically rigorous, background-independent framework in which classical pseudo-Riemannian spacetime metrics emerge dynamically as coarse-grained hydrodynamic limits of an underlying quantum information process. Modeling the universe as an open, non-equilibrium thermodynamic engine operating between a high-density primordial informational source and an absolute infrared thermal sink, the study couples Landauer's principle of information erasure to non-equilibrium statistical mechanics to derive an effective gravitational action and modified field equations containing a dissipation-entanglement coupling tensor. Furthermore, it demonstrates that the Raychaudhuri equation receives a non-singular quantum informodynamic correction that eliminates black hole singularities as boundary buffer overflow phenomena, and concludes by providing explicit, falsifiable predictions for low-multipole CMB B-mode power spectra modifications