Quantum Cosmic Heredity: Resolving Early High-Redshift Galaxy Formation Tensions, Dark Matter, and Baryon Asymmetry via Bimetric Bounce Geometry and Topological Seeding

High-redshift deep-field observations from the James Webb Space Telescope (JWST) revealing mature, chemically enriched galaxies at z > 10 (t ≲ 300–400 Myr) introduce significant structural tension with standard ΛCDM hierarchical accretion timescales. We present the Quantum Cosmic Heredity (QCH) framework, a cosmological model that replaces the classical singularity with a non-singular Planck-density bounce governed by a ghost-free Hassan-Rosen bimetric action. Ingested mass-energy from a parent manifold M_A funnels into a shared interior metric domain Ω_core until reaching the critical saturation threshold ρ_crit ≈ 5.15 × 10⁹⁶ kg/m³. At saturation, repulsive quantum geometry pressure halts gravitational collapse (H = 0) and initiates a brief super-inflationary outflow (N_super = (1/6)ln(2) ≈ 0.1155 e-folds) into child manifold M_B. The inherited topological entanglement matrix E(k) provides pre-baked spatial density potential wells that bypass thermodynamic gas-cooling bottlenecks without requiring anomalous stellar initial mass functions. Furthermore, QCH formulates Dark Matter as an effective trans-membrane stress-energy tensor T_μν^(leak) sourced by metric coupling across the singular horizon boundary, naturally producing flat galactic rotation curves without elementary WIMP/axion species. Horizon chiral filtration breaks matter-antimatter symmetry during core collapse, while non-local ER=EPR quantum state transitions link local particle annihilation to galactic 511 keV line signatures and high-energy gamma-ray polarimetric birefringence. Finally, stochastic phase randomization guarantees that while structural density bounds are inherited, each child universe realizes a unique, non-deterministic spatial layout, with exact structural recurrence governed ergodically across infinite multiverse sampling.