"Thermally Induced Ordered Room-Temperature Superconductivity"

We propose a novel theory of room-temperature superconductivity based on thermal ordering under extreme fusion conditions. Unlike conventional approaches that treat high temperature as a disruptive force, our hypothesis posits that thermal energy at fusion scales (>10⁷ K) acts as the primary ordering force, forcing atomic systems into perfectly ordered states with global electronic coherence. Through transient quenching, the superconducting phase formed in fusion environments can be preserved to room temperature and atmospheric pressure. Using four complementary computational modules—high-temperature structural evolution, pressure-temperature coupling, magnetic field effects, and critical temperature prediction—we demonstrate: (1) 99.2% structural order retention at 50,000 K; (2) +9.4% order enhancement and 0% thermal expansion at 100 GPa; (3) 60.8% electron spin alignment at 10 kT; and (4) predicted critical temperature Tc = 353.37 K (exceeding room temperature 300 K by 53 K). Our results suggest that fusion-processed materials may achieve stable room-temperature superconductivity, with potential applications in energy transmission, quantum computing, and fusion power.