Published October 23, 2026 | Version v1
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• Non-Linear Quantum Lattice Field-Refraction and Triadic Voltage Calibration in Monolayer MoS₂ Computing Architecture

Description

Abstract

This manuscript outlines the operational formulations for a 54-bit Triple-Triple-Engine (TTE) general-purpose processor core utilizing an optimized 1.95 nm three-monolayer Molybdenum Disulfide (MoS₂) ballistic transport channel. To eliminate the dielectric gate breakdown thresholds and severe Joule heating bottlenecks native to conventional 1.2V sub-nanometer silicon architectures, we implement a ratiometric high-voltage step-down network topology. By mapping a 270V DC macro-distribution baseline (MIL-STD-704F compliant) down to a localized 162V DC CPU Main Rail, the system enforces a fixed 3.0V signal strength per bit-lane and a balanced 54V potential difference per atomic layer. Managed by a hardwired asynchronous supervisor (Core 4), the module processes extreme current density spikes with zero localized contact resistance across a three-stage quantum ohmic interface, maintaining a continuous 300.1 K environmental baseline under maximum execution load.

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Identifiers

Other
mos2
Other
defect-engineering
Other
ternary-logic
Other
quantum-admittance
Other
ballistic-transport
Other
mil-std-704f

References

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