Computational Validation of Informational Anchoring in TAGC-LQG-RG Theory: Black Hole Remnants and Dynamical Cosmological Constant

This research data package provides the computational validation and formal audit for the TAGC-LQG-RG theoretical framework, specifically addressing the evolution of black holes as frozen informational phases. Central to this framework is the postulation of a universal informational threshold, $\kappa_c = 2.04$, representing a critical limit in Kolmogorov complexity where the renormalization group flow of spacetime is arrested. The included numerical models demonstrate that black hole evaporation is not a divergent process leading to a singularity, but a structured informational relaxation towards a stable remnant. We show that a stable remnant mass of $M_{rem} \approx 0.714 \, M_P$ emerges as a robust fixed point, independent of initial mass scales or specific decoherence rates. Furthermore, the framework establishes a direct dynamical link between the irreversible erasure of quantum information at the horizon and the evolution of the cosmological constant $\Lambda(z)$, providing falsifiable predictions for dark energy density. This validation pack includes the core simulation scripts (tagc_bh_dynamics.py) and a comprehensive integrity audit (audit_report.txt) verifying the scale-invariance and numerical stability of the proposed remnants. This work serves as the technical validation for the broader TAGC-LQG-RG ecosystem, integrating previous foundations on informational spacetime and the spectral hierarchy of fundamental forces.