Abstract
This specification details the structural, mathematical, and spatial design of a macroscopic quantum processing chip matrix engineered by daisy-chaining billions of uncooled, room-temperature stable (300 K) rEckesbit cells. To scale individual cells without deploying physical transition-metal traces that induce destructive heat and catalytic collapse, this architecture implements a multi-layered, Twisted Moiré Superlattice Array using stacked sheets of monolayer isotopically pure hexagonal Boron Nitride (h-¹⁰BN) aligned to precise magic angles. This geometric configuration generates a flat-band electronic potential layout that encapsulates, matches, and protects individual rEckesbit cells across a continuous 2D surface area.
Inter-node data routing and multi-qubit logic entanglements are driven via an integrated network of sub-wavelength Surface Plasmon Polariton (SPP) Waveguides. When a phase-locked Ultrafast Topological Soliton Fiber Laser triggers an attosecond state transition (Node 0 to Node 1) within an addressable rEckesbit cell using a 500-attosecond pulse envelope, the localized displacement of the cell’s 3.1 Debye electric dipole couples directly to the adjacent plasmonic waveguide. The state data propagates across the superlattice array as a highly compressed electromagnetic wave-front at 99.2% of the speed of light, triggering a synchronized state shift at the target node. This full-stack system architecture yields a collective parallel processing bandwidth of 8.33 Exa-Ops per second on a desktop platform without cooling, successfully scaling the foundational fEckesbit root invention into a fabricable commercial computing core.
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.
Recommended Citation
Eckes, Christopher L., "CORE SPECIFICATION SPEC-356: MULTI-NODE MOIRÉ INTERCONNECT ARRAY ARCHITECTURE FOR THE PARALLEL SCALING OF rEckesbit PROCESSING MATRICES", Technical Disclosure Commons, ()
https://www.tdcommons.org/dpubs_series/12691