Topological Synchronization of Electron Torus Eversion in a Hard Intermetallic Silicoboride Matrix: A Path to Ambient Superconductivity

This paper presents a novel frequency-geometric approach to modeling ambient-temperature superconductivity. Within the proposed model, an electron is treated as a dynamic wave packet undergoing continuous topological torus eversion (torus eversion), stabilized by a balance of coupled frequency harmonics (19 and 31). We demonstrate that by matching the real-world crystal lattice parameters with these specific inner frequencies, it is possible to fully eliminate wave resistance and phase dissipation during charge transport. Based on these geometric constraints, a novel bulk, all-weather intermetallic compound is proposed and calculated: Y0.85Cu0.15B2Si2. Maxwell-London electrodynamic simulations confirm that the high density of quantum carriers (n_s ≈ 3.12 * 10^28 m^-3) combined with a strong covalent Si-B network provides an exceptional thermodynamic critical magnetic field (B_c ≈ 154.2 T) and rapid Meissner screening (lambda_L ≈ 12.15 nm). Synthesis pathways via Spark Plasma Sintering (SPS) and industrial implications are discussed.