Monotonic Ricci Flow Entropies, Parameterized Geometric Filters, and the Global Topological Stability of Closed 3-Manifolds

[Theoretical Research Manuscript / Millennium Prize Problem Framework]This paper presents a classically rigorous geometric formulation addressing the topological classification of closed, simply connected 3-manifolds (the Poincaré Conjecture) within a stabilized Ricci flow framework. We map the abstract regularized tracking properties of generalized trace-map recurrences into the peer-recognized structures of Hamilton's Ricci flow equations and Perelman's monotonic W-entropy functionals acting as scale-space Lyapunov trackers. By establishing that high-curvature singular degeneracies are structurally prevented from causing global entropy collapse, we demonstrate that a finite sequence of topological surgeries drives the long-time metric limit smoothly onto a space of uniform positive curvature, establishing complete homeomorphism to the 3-sphere S^3. Pipeline Disclosure: Core conceptual translation—mapping the relational trace-map stability tracking profiles onto the classical structures of Perelman's functional W-entropy, Hamilton's Ricci flow equations, and topological surgery invariants—was fully mapped and approved by the author. Initial structural outline and metric variation fields organized via Grok (xAI); differential geometry validation, conjugate heat flow trace checking, and production-ready LaTeX typesetting finalized via Gemini (Google).