A Quantized Metric Correction via Accumulated Spacetime Entropy in a High Density Dark Matter Halo.

The Quantum Memory Matrix (QMM) framework proposes that spacetime at the Planck scale (lp ≈ 1.616 × 10−35 m) acts as a discrete, local quantum information reservoir which preserves physical field interactions while remaining unitary. This model utilizes the QMM mechanism to address the black hole information paradox and explores its broad cosmological implications across macroscopic scales. In this paper, we formalize the macroscopic feedback of accumulated QMM entropy within dense galactic environments, demonstrating that the aggregate informational state density (SQMM) generates an effective, non-local stress-energy tensor. By modifying the standard, spherically symmetric Schwarzschild metric around astrophysical structures embedded in high-density dark matter environments, this model yields a distinct Planck-suppressed anomalous signature in gravitational lensing profiles and a non-thermal modulation in secondary Hawking radiation. We provide a concrete, falsifiable framework for verifying discrete spacetime information models through upcoming microarcsecond astronomy observation suites .