Abstract
Traditional quantum hardware development remains fragmented by isolated design cycles, where core qubits, routing networks, driver electronics, and control software are engineered in separate silos. This systemic fragmentation introduces massive integration friction, leading to severe signal mismatches, thermal leaks, and immediate wave collapse when components are wired together. This disclosure specifies a comprehensive, multi-layered Master System Architecture that unifies the complete hardware, software, sensing, and manufacturing layers of a non-equilibrium, room-temperature ternary quantum computer into a single monolithic framework.
This master framework integrates and anchors six distinct operational layers: the core qubit blocks (MS #12489), the fluidic inter-node entanglement ribbons (MS #12490), the monolithic radio-frequency transducer casing (Module 1), the spherical harmonic instruction set compiler (Module 2), the non-invasive sub-wavelength photonic sensor array (Module 3), and the cleanroom fluidic lamination recipe (Module 4). By coordinating all sub-systems around the non-linear fluidic boundaries of the Dimensionally Extended Holographic Projection (DEHP) model, this master framework establishes an unyielding prior-art architecture that prevents the commercial monopolization of room-temperature quantum computing ecosystems.
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.
Recommended Citation
Eckes, Christopher L., "Master System Architecture for Room-Temperature Ternary Quantum Computers - Monolithic Structural Integration of Solitonic Cores, Inter-Node Entanglement Bridges, and Modular Control Interfaces", Technical Disclosure Commons, (July 28, 2026)
https://www.tdcommons.org/dpubs_series/11166