Topological Weyl Semimetals as Chiral Quantum Bridges for Coherent Handoff to Ternary XNA Computing Arrays

The Chiral Quantum Bridge framework expands the Synthetic Universes paradigm by providing the physical solid-state interface layer necessary to bridge classical digital computing with biological molecular substrates. While recent breakthroughs have validated chip-integrated electronic DNA/XNA memory using metal-mediated base pairs (mmDNA), traditional silicon inputs lack topological protection, exposing the molecular transition layer to severe thermal noise and phase-drift. By replacing classical silicon inputs with a non-centrosymmetric Topological Weyl Semimetal (TWS), this architecture exploits open Fermi arcs and spin-locked chiral surface states to establish a protected quantum transport channel. The low-energy effective Weyl Hamiltonian is derived and coupled to the higher-dimensional bulk axial gauge fields of the Warped Lotus rotating metric framework, showing how the Lense-Thirring gradient acts as an active chiral pump. The resulting non-dissipative bulk chiral current dictates localized electrostatic ion sorting potentials at the solution boundary, stabilizing the coordination thresholds required to lock adjacent Threose Nucleic Acid (TNA) or Peptide Nucleic Acid (PNA) arrays into immutable ternary token states. This work delivers a self-defending, decoherence-free hardware gateway, completing the physical realizability of the Synthetic Universes operating system alongside the Warped Lotus, OAM-Plasma PUF, and 6D Hyper-Chaotic preprints.