Actualization Dynamics II: Informational Gauge Structure, Topological Defects, and Holographic Redundancy extends the foundational variational framework introduced in Part I to investigate the emergence of the Standard Model and the dark sector. By identifying physical laws as the stability requirements of a self-correcting hyperbolic code, this work demonstrates that standard gauge symmetries arise naturally as connections on protected logical sub-bundles over a geometric manifold. Utilizing specific geometric constraints of the tiling, the manuscript provides a first-principles derivation of the physical-to-logical bit ratio required to preserve the stability of the substrate and maintain the ability to reconstruct the manifold. This structural redundancy identifies the non-luminous informational overhead as a primary constituent of the stress-energy of the system, offering a candidate origin for observed dark matter effects without the necessity of additional particle species. The work concludes by formulating a correspondence between the three generations of fermions and distinct topological classes within the stabilizer complex, effectively bridging the gap between discrete informational substrates and macroscopic physical phenomena.
Cory Keller (Sun,) studied this question.