Acousto-Electrodynamic Consensus Computing: Resolving Ternary Logic via Triphasic Plasma-Waveguides in a Low-Pressure Differential Array

This paper outlines a concrete experimental apparatus for a non-contact analog computing architecture that bypasses rigid binary silicon gates through physical gradients, chiral symmetry, and electrohydrodynamic coupling. Operating within a sealed borosilicate vacuum chamber maintained at $10^{-2}\\text{ Torr}$ and continuously ionized via an Americium-241 alpha source, the system utilizes acoustic standing waves to modulate local electrical capacitance and charge density. Mechanical stability is enforced via bimetallic thermal stabilization strips within a kinematic Maxwell mount. Computation is executed through a 42-node triphasic consensus engine—comprising three independent 13-node arrays anchored to a Central Reference Triad—driven by Reverse-PWM bitstreams and read stroboscopically via a Phase-Locked Loop (PLL). By bridging historical balanced ternary frameworks (Fowler, Brusentsov, and DSSP stack execution) with precise analog voltage control principles pioneered in early vacuum-tube computing and electronic sound synthesis (drawing from Turing-era hardware lineage and Wendy Carlos's precision analog tuning paradigms), this paper provides a fully reproducible physical blueprint for alternative radix computing. Ultimately, a piano tuner is the one job that, near as we can tell on our computational horizon, will always require a human, and that is fundamentally what our architecture is based on.