Building upon the five foundational monographs of the Covariant Bitemporal Geometrodynamics (CBG) series (Papers I–V), this treatise formulates the formal variational closure (Cycle III) of the 5-dimensional geometric model on the manifold M3,2 = (Rₜ₁ x S^1ₜ₂) x Sigma_3 with signature (-,-,+,+,+) and integer dimensions (d_t, d_s, D) = (2, 3, 5) (N_Cartan = 30, D_config = 17, Phi_infinity = 2.40287 x 10^-4). First, we expand the stationary variation delta S_JV = 0 of the 5D Master Action across all metric, holonomic, Schutz–Clebsch fluid, and Spin(3,2) = Sp(4,R) spinorial sectors to formulate the Zero-Sum Field Operator Identity XiAB[M3,2] = 0, demonstrating how the total canonical Hamiltonian density vanishes identically on any spatial-fiber Cauchy hypersurface Sigma_3 x S^1ₜ₂ through the exact cancellation between gravitational-holonomic curvature and informational-fermionic stress-energy. Second, we analyze the extreme ultraviolet (UV) and infrared (IR) boundary regimes of the manifold, showing that the asymptotic sub-Planckian radius of the secondary temporal fiber Rt2,infinity = Phi_infinity * L_P = 3.8836 x 10^-39 m (circumference Lt2,infinity = 2.4402 x 10^-38 m) acts as a smooth geometric regulator below the Planck length L_P = 1.6163 x 10^-35 m, linked to the macroscopic Hubble horizon scale rH,0 = 1.373 x 10^26 m via an exact UV/IR reciprocity across the mesoscopic bounce fulcrum lambda_micro = sqrt(L_P * rH,0) = 47.11 um (D_bounce = (2*pi/17) * lambda_micro = 17.41 um). Third, we examine the secular Casimir stability conditions of the compactified fiber Sigma_3 x S^1ₜ₂ and the geometric interpretation of dimensional SI units (c, hbar, G, k_B, e) as natural conversion factors within the M3,2 formalism.
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Manuel Jiménez Velasco (2026) studied this question.
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