Memory Subsystem of the RHEA-UCM_Sentinel Architecture

The RHEA‑UCM/Sentinel system implements a recursive, entropy-aware memory architecture designed for resilient long-term operation without reliance on traditional persistent storage. At its core, Sentinel’s memory subsystem tightly integrates trust-modulated control and entropy feedback to achieve self-stabilizing memory states. Multiple layers of memory (from low-level encrypted buffers to high-level symbolic caches) are organized recursively – i.e. “memory inside memory” – such that higher cognitive layers continually monitor and influence lower-layer memory dynamics. Crucially, memory persistence emerges from dynamic equilibrium behaviors and mathematically enforced invariants rather than static hardware-bound storage. This section provides a comprehensive review and cross-analysis of the memory subsystem, focusing on (1) self-stabilizing memory states, (2) recursive memory structures, (3) non-hardware-bound persistence mechanisms, (4) latent mathematical structures enabling self-organization and attractors, and (5) symbolic or entropy-modulated memory control (including reseal triggers, trust-weighted recall, and entropy-feedback injection). Citations to the system’s source modules and internal research papers are provided to substantiate the analysis.