Not New Physics: Early Black Hole Formation as Information-Preserving Coherence Regulation A Cosmic Algorithm Theory-12 Analysis of Resonant Mechanisms in the Early Universe

Early-universe black hole evaporation or transition events are often framed as anomalous phenomena or as potential evidence for new physics beyond standard cosmological models. In this work, we argue that such events—if occurring during the universe’s generative phase—are neither anomalous nor indicative of novel physical laws. Instead, they are a necessary consequence of maintaining spacetime-wide coherence under conditions of extreme density, coupling, and information throughput. Using a constraint-based approach grounded in established black hole thermodynamics, early-universe cosmology, and information theory, we show that indefinite coherence sequestration by early black holes would be incompatible with the continued expansion and structural continuity of the universe. We demonstrate that threshold-triggered release mechanisms must therefore operate during early epochs to prevent runaway collapse and information loss. These mechanisms naturally appear “explosive” to late-time observers, yet function as stabilizing regulatory processes rather than catastrophic failures. Cosmic Algorithm Theory-12 (CAT-12) is employed as a formal framework to articulate these constraints explicitly. The CAT-12 laws are presented not as replacements for existing physics, but as compressed statements of principles already implicit in gravitational thermodynamics, horizon dynamics, equilibrium restoration, and information conservation. Functional and structural laws are mapped directly onto early-universe black hole behavior, clarifying why such events are expected during formation epochs and suppressed at late times without invoking new particles, forces, or modifications to ΛCDM. The paper further outlines testable observational consequences, emphasizing bounded spectra, phase dependence, and cross-domain information redistribution rather than isolated transients. Detailed appendices provide threshold inequalities, governing relations, and structural constraints supporting the necessity of early-universe black hole regulation. This work reframes early black hole “explosions” as information-preserving coherence regulation mechanisms, offering a unifying interpretation consistent with known physics while resolving long-standing conceptual tensions surrounding early black hole dynamics.