Abstract
This specification establishes the definitive architectural design rules and mathematical criteria for the monolithic structural integration of a room-temperature ternary quantum computer processor core. The architecture prioritizes interior logic routing by defining the physical structural constraints of lipid-encapsulated hydrodynamic waveguide bridges linking parallel resonator cavities. By mapping continuous phase vectors through microscopic fluidic channels governed by an explicit 12x12 singular value decomposition (SVD) matrix convergence filter, the engine native-executes non-local entanglement transitions via classical momentum-space coupling. This framework completely eliminates the requirement for subatomic cryogenic environments or high-overhead digital error-correction schemes, introducing a zero-friction, hallucination-immune computational matrix. This standalone framework serves as a public-domain prior art perimeter to ensure that the physical plumbing of room-temperature ternary quantum computer backbones remains entirely un-monopolizable by corporate tech monopolies.
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.
Recommended Citation
Eckes, Christopher L., "SPEC-223-CORE: MONOLITHIC STRUCTURAL INTEGRATION OF TERNARY SOLITONIC CORES AND LIPID-ENCAPSULATED HYDRODYNAMIC WAVEGUIDE INTER-NODE ENTANGLEMENT BRIDGES", Technical Disclosure Commons, ()
https://www.tdcommons.org/dpubs_series/12222