Abstract
Standard solid-state quantum computing architectures are fundamentally constrained by room-temperature thermal decoherence, where ambient phononic scattering modes (\(k_B T \approx 25.7\text{ meV}\)) rapidly collapse localized quantum states. This white paper formalizes the system architecture for SPEC-376, establishing the Non-Equilibrium Topological Floquet Condensate (NETFC). The NETFC architecture achieves room-temperature stability by embedding a singular, localized trinary SU(3) rEckesbit quantum router matrix within the periodic spatial density modulation of a macroscopic exciton-polariton supersolid fluid. To bridge the 1000x spatial scale discrepancy between the sub-nanometer anthracene host crystal grid (0.84 nm) and the micrometer cavity wave pitch (1500 nm), a SPEC-356 Moiré superlattice is implemented with a strict twist angle configuration of exactly θ = 0.032°. This engineering layout allows the collective light-matter fluid to mechanically damp ambient lattice vibrations, lowering the required high-frequency optical driving power by six orders of magnitude. We present the exact system master equations, provide programmatic validation criteria, and catalog the underlying syntactic mathematical equivalences.
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.
Recommended Citation
Eckes, Christopher L., "SPEC-376: The Non-Equilibrium Topological Floquet Condensate (NETFC): A Unified Paradigm for Low-Power Room-Temperature Trinary Quantum Computing", Technical Disclosure Commons, (November 05, 2026)
https://www.tdcommons.org/dpubs_series/12760