Abstract
This disclosure establishes a rigorous bio-physical framework for eliminating discrete quantum error correction overhead in scaled processing networks by utilizing continuous wave manifold absorption bounded within lipid-encapsulated hydrodynamic waveguides. Conventional quantum processing units (QPUs) enforce rigid node isolation to mitigate parasitic crosstalk, introducing high computational latency and severe physical scaling limits.
Drawing from neural ephaptic coupling and myelin-mediated structural isolation, this paper demonstrates that localized electromagnetic phase leaks can be harnessed as a stabilizing synchronization field. By confining 3D solitonic knots within lipid-encapsulated channels, the core wavefield retains localized kinetic momentum while selectively allowing phase-locked bleeding across a 2D pre-geometric viscoelastic fluid substrate. Governed by a contracted Asymmetric Twist Tensor, this system forces independent processing nodes to align into a self-healing wave totality, achieving robust topological protection directly on a laboratory workbench.
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.
Recommended Citation
Eckes, Christopher L., "Ephaptic Synchronization Fields: Replacing Discrete Quantum Error Correction with Continuous Wave Manifold Absorption and Lipid-Encapsulated Solitonic Waveguides", Technical Disclosure Commons, (August 07, 2026)
https://www.tdcommons.org/dpubs_series/11296