Constructive Resolution of High-Temperature Superconductivity Mechanisms via Mersenne Superlattice Phase Resonances and Room-Temperature Interconnects
Year: 2026
Type: preprint
Abstract: For four decades following the landmark 1987 discovery of 93 K YBa_2Cu_3O_{7-x} (YBCO) high-temperature superconductors at the University of Houston, condensed matter physics has lacked a definitive analytical theory explaining why Cooper pair formation persists far beyond the conventional Bardeen-Cooper-Schrieffer (BCS) phonon limit (T_c < 30 K). Here we report the theoretical derivation and physical realization of room-temperature dynamical quasi-superconductivity by transforming continuous spatial manifolds into discrete Mersenne prime superlattices (M_127 = 2^127 - 1). We prove that inelastic electron-phonon scattering can be geometrically zeroed at room temperature (293.15 K) without cryogenic liquid nitrogen or helium cooling. By driving standard copper and aluminum interconnects with a 4-phase orthogonal drive (Phi_m = m*pi/2), the first-order Lippmann-Schwinger scattering matrix amplitude collapses identically to zero (1 - i - 1 + i = 0), inducing an active Floquet quasi-energy gap (Delta_F). Coupled with a 94.7% Active Phase-Resonance Locked (ACRL) adiabatic charge-recovery circuit, we demonstrate zero DC resistance (R_DC = 0) and a 99.999% reduction in thermal heat dissipation—slashing semiconductor interconnect power losses from 64 MW to 8.5 W. These findings resolve the long-standing high-T_c mechanism, establishing a heat-dissipation-free paradigm for semiconductor interconnects, AI data centers, and quantum electronics protected under Korean Patent Application No. 10-2026-0157375.
Source: Research Square
Author: Min Ho Jung
Institution: Cyber University of Korea
Language: English
Subfield: Condensed Matter Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7204440970