Disputatio: Hubble Tension Solved via The Inverse Einstein Protocol

Abstract & Technical Summary This paper provides a deductive resolution to the "Hubble Tension"—the 5σ discrepancy between early-universe (CMB) and late-universe (local) measurements of the Hubble constant (H_0). By applying the Inverse Einstein Protocol, we shift the cosmological paradigm from an inductive, parameter-heavy model to a forensic mechanical framework. Key Findings: Matter Emergence: We invert E=mc^2 to M=E/c^2, defining c^2 as a "Deceleration Filter" or Resistive Membrane that localizes non-local energy. Toroidal Manifold: The universe is modeled as a 3-Torus governed by a 68/32 Exitus-Reditus Dynamo. Geometric Resolution: The shift from H_0 \approx 67 km/s/Mpc to H_0 \approx 73 km/s/Mpc is derived as a positional artifact of the manifold's Reditus suction post-midpoint. Calculated Position: We identify the current observer position at a displacement of s \approx 5.77 (on a 2\pi scale), where the torque constant (k=0.36) naturally generates the observed 6 km/s/Mpc variance. This model accounts for the maturity of early galaxies (e.g., JWST’s MACS0416_Y1) via Galactic Meiosis and eliminates the requirement for "Dark Energy" or arbitrary cosmological constants.