Room-Temperature Coaxial Waveguide-Conductor with Absolute Zero Resistance in Resonant Mode

This repository contains the open-access scientific preprint and computational framework blueprints for an engineered room-temperature (300 K) quantum resonant waveguide-conductor exhibiting absolute zero active (ohmic) resistance (rho_AC = 0.000 Ohm*m) at a fixed sub-THz operating frequency of 150 GHz. The paper shifts the paradigm of micro-electronics and fusion engineering from traditional thermodynamic cryogenic cooling to non-linear quantum dynamic stabilization. By implementing an atom-by-atom molecular beam epitaxy (MBE) grown van der Waals heterostructure capsule (h-10BN / 80Se - 181Ta - 80Se [+Ba] / h-10BN), the system harnesses an induced Phase Injection Locking effect (Shapiro-like step resonance). Under a targeted 150 GHz driving field, the collective macroscopic A1g breathing phonon modulations of the highly symmetric, monoisotopic Tantalum-181 core lock into perfect synchronization with moving charge density waves, completely suppressing electron-phonon scattering and eliminating Joule heating. Key areas of practical integration analyzed within the text include: Cryogenics-Free Tokamak Architecture: Detailed engineering design of a 3-mm flexible coaxial conductor embedded directly into the active pressurized water blanket (100–120 degrees C) of a 200 MW Tokamak. The waveguide uses sub-millimeter quasi-optical slots (Faraday grating) within a frontline Tungsten armor alongside a Boron-10 radiation shield, allowing safe 150 GHz ECCD plasma heating while guaranteeing a transmutation-free operating lifecycle exceeding 10 years. Post-Silicon AI Computing Accelerators: Utilization of the zero-resistance sub-THz bus as an on-chip clock and data interconnect, bypassing the classic thermal wall of sub-10nm copper traces and yielding zero local power dissipation. The submission is accompanied by data, structural charts, and cross-sectional projections extracted from a real-time C# .NET / Helix Toolkit Direct3D computational matrix verifying the dynamic phase attractor behavior against intense thermal phonon noise fluctuations at 300 K. Source code in C# is included in CristalWinForms.zip