The Encapsulated Cosmos: Hydrodynamic Vortex Shell, Tensile Network Geometry, and Instantaneous Matter Condensation

This paper completes the Fractal Mirror Transition (FMT) cosmological framework by defining the macro-dynamics of the post-bounce expansion sector through the lens of relativistic hydrodynamics and discrete topological kinematics. We fundamentally redefine the primordial Planckian lattice not as a static geometric construct, but as a dynamic, highly interconnected tensor network composed of counter-rotating octahedral pixels. In the ultra-dense regime of gravitational collapse, the complete restoration of electroweak symmetry strips fundamental fields of their rest mass (mf → 0), transforming the infalling system into a coherent, ultra-relativistic fluid flux. As the local energy density approaches the Planck scale, relativistic constraints force the counter-rotating lattice interfaces to a kinematic limit (vlocal → c), initiating absolute topological frustration designated as Planckian Lattice Locking. This mechanical freeze triggers a quantum analogue of a hydraulic shock—a global hydro-impact of the vacuum fabric—forcing a non-singular CPT-metric inversion and a deterministic topological ricochet. We demonstrate that the primordial energy ejected through the resulting traversable White Hole throat is physically encapsulated within a coherently expanding envelope of quantum vortices. As the universe cools past the electroweak threshold (T < Tc), the recovering Higgs VEV forces gauge fields to condense instantaneously along the pre-established tensile axes of this vortex shell, suppressing post-Big Bang thermodynamic turbulence. This non-inflationary blueprint minimizes cosmological entropy from the outset, providing a definitive geometric explanation for the immediate emergence of mature, massive galactic structures at high redshifts (z > 10) recently observed by the James Webb Space Telescope (JWST).