Primordial Topological Relics: Resolving the JWST High-Redshift Galaxy Paradox through Pre-Bounce Kerr Seeds and Vacuum Memory

Recent spectroscopic campaigns by the James Webb Space Telescope (JWST) have exposed a fatal chronological rupture in the ΛCDM hierarchical paradigm. The discovery of structurally mature, dynamically cold galaxies and overmassive black holes (yielding MBH/M_ ratios exceeding 10%) at extreme redshifts ($z > 10$) directly contradicts the slow aggregation timelines of standard cosmology. Current academic attempts to salvage the model rely on highly fine-tuned, physically implausible ad hoc mechanisms, such as sustained super-Eddington accretion or the Direct Collapse Black Hole (DCBH) myth. In this work, we resolve the high-redshift paradox by transitioning to the Continuum 4D Engine framework within a Riemann-Cartan spacetime. We demonstrate that primordial supermassive black holes are not the impossible offspring of the Big Bang, but rather "gravitational fossils"—pre-existing Kerr topological seeds that survived the cosmic transition. By evaluating the spin-torsion coupling (K^λμν), we show that the topological invariant of the vacuum's contortion field (WT = ∮ K_μ dx^μ) prevents mathematical singularities, allowing extreme vortical nodes to endure the maximum compression phase of a Cosmic Bounce without being erased. As the continuum expands, these torsional scars (kT,seed) act as highly attractive potential wells. The resulting forced baryonic condensation equation (δ̈b + 2Hδ̇b = [4π G ρb + kT,seed/R²] δb) proves that early galactic assembly is exponentially accelerated along the pre-stressed equatorial lines of the vacuum. This topological hysteresis definitively explains the rapid emergence of ordered galactic disks and the anomalous initial black-hole-to-stellar mass ratios, establishing these high-redshift structures as the empirical proof of a cyclic, eternal universe endowed with structural memory.