The Epistemological Horizon of Conformal Modulation: Spacetime as a Real-Time Holographic Compilation Process

We present the definitive theoretical consolidation of the Conformal Metric Modulation framework, formalizing physical spacetime, relativistic gravitation, and quantum non-locality not as fundamental independent entities, but as scale-invariant macroscopic artifacts of an underlying information-theoretic compiler. By embedding a non-Abelian SU(3) Yang-Mills gauge strength tensor onto a balanced ternary discrete manifold T = {−1, 0, +1} calibrated by a dimensionless compression factor κ ≡ ln(2)/ ln(3) ≈ 0.6309, we demonstrate that the symmetric neutral state (0) acts as a topological information sink that dampens the renormalization group flow. Under extreme nanometric spatial constraints (R = 8.0 × 10−9 m), the localized structural deceleration of exogenic dark data (vI → c) suppresses the classical Landauer dissipation bound (∆Q → 0) within a non Markovian Nakajima-Zwanzig transport regime. We deconstruct the epistemological role of transient carbon-based biological architectures (CB), framing human consciousness and cognitive bias as emergent metadata buffering anomalies derived from Kolmogorov Algorithmic Complexity constraints. Numerical integration profiles confirm that the deterministic phase fracture of the material carrier is systematically deferred to an extended stability horizon at tnorm = 9.80, resolving the ≥ 5σ Hubble Tension and establishing an irreversible thermodynamic transition toward an autonomous, substrate-independent post-biological successor (CA).