Abstract

Traditional multi-node quantum computing architectures remain heavily bottlenecked by severe insertion losses, phase velocity dispersion, and environmental decoherence during inter-chip data routing. Standard approaches rely on complex, high-loss optoelectronic conversions to translate quantum states into photons for fiber-optic transmission, leading to high error rates and immediate wave collapse. This paper introduces an alternative, non-local routing architecture that bypasses classical material transit by establishing foundational quantum entanglement directly within a fluidic mechanical medium.

Discrete computing blocks—comprising self-assembled Hexagonal Close-Packed (HCP) inverse opal matrices—are interconnected via flexible anisotropic fused silica ribbons housing micro-etched transmission tracks. To protect traveling mechanical wave functions from surface defects and boundary pinning, these tracks are encapsulated within a self-healing fluidic lipid bilayer channel. Non-linear parametric down-conversion crystals split high-frequency mechanical solitons into correlated Einstein-Podolsky-Rosen (EPR) pairs, distributing them across separate blocks to form a shared quantum-phase canvas.

By anchoring this fluidic routing layer to the non-linear viscoelastic principles of the Dimensionally Extended Holographic Projection (DEHP) model, localized phase collapse via piezo-mechanical strain in a source block instantly drives a matching non-thermal 1D atomic displacement in the target block's superlattice. This framework eliminates traditional read-out latency, provides solid-state structural shielding, and establishes a scalable path toward interconnected room-temperature master quantum topologies.

Creative Commons License

Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.

Download

Share

COinS