TSD: ENTANGLED SPIN TAUTOMERY - Hydrodynamic-Topological Unification via Quantum Lattice Deconvolution

Summary: TSD (Entangled Spin Tautomery)This paper presents the TSD (Entangled Spin Tautomery) framework, a unified approach to fundamental physics bridging quantum fluid dynamics and non-orientable topology. The work documents how phenomenal reality emerges from the deconvolution of a 4D discrete lattice through a phase transition governed by the -s Transition Matrix. Key Technical Contributions:- Vacuum Catastrophe Resolution: Calculation of dark energy density via topological decimation.- Mass Derivation: Geometric derivation of the proton-to-electron mass ratio (6π⁵ ≈ 1836.15).- Black Hole Physics: Identification of the event horizon as a topological inversion node where entropy obeys the 1/4 phase constant.- Cosmological Implications: The model provides a theoretical basis for observed CMB anomalies in the l=20-30 multipoles. Author:Lead author Ennio Zunino (ORCID: 0000-0003-2145-0273) holds a PhD in Chemistry (University of Genoa) and brings expertise in molecular systems and tautomery. File 2: Appendix_B_Technical_Addendum Technical integration and research roadmap. This document addresses formal questions regarding spectral geometry, the graph Laplacian on 4D simplicial complexes, and the -s operator necessity. It outlines open research paths for formal integration with General Relativity File 3: Appendix_C_ The Half-Integer Spin Hamiltonian / Analysis of Topological Rigidity in the TSD Model This document certifies the structural necessity of a non-orientable geometry for the coherence of the TSD Model. It demonstrates that adopting a standard spherical symmetry Hamiltonian nullifies the resolution properties of modern physics paradoxes. Notes on the Research Approach: "This work does not stem from a pretense of providing a definitive solution, but rather from a desire to share a cross-disciplinary intuition. The TSD model proposes a topological architecture that appears to reconcile fundamental constants through non-orientable geometry. It is offered to the physics community as an open Research Roadmap for formal verification and mathematical collaboration