Electrodynamic Genesis of Cosmic Structures: A Discrete Hexagonal Lattice Framework for In Situ Star and Planetary Evolution

Abstract Standard astrophysical paradigms rely predominantly on gravitational collapse, random accretion, and core stellar nucleosynthesis to model the formation and evolution of stars and planetary bodies. However, these models struggle to account for rapid formation timelines, persistent filamentary networks, binary pairing symmetry, and structural morphologies observed by modern instruments such as the Herschel Space Observatory. This paper presents an alternative, mathematically rigorous framework integrating plasma cosmology, Bennett (Z-pinch) electrodynamics, and a discrete hexagonal lattice stabilized by a Mod 9 invariant. By replacing weak gravitational attraction with high-efficiency electromagnetic Z-pinch mechanics and incorporating the 5184 frequency threshold (72^2), the 3I pulse sequence (8\text{-}13\text{-}8\text{-}5\text{-}13\text{-}8), and a 7-cycle periodic break, we formulate a deterministic model of in situ stellar and planetary growth.