Deterministic Macroscopic Phase-Locking in Carbon Nanotube Field-Effect Transistors: A Conservative Electrodynamic Architecture

The continuation of sub-nanometer CMOS scaling is obstructed by extreme thermal dissi-pation. Historically, this thermal barrier has been attributed to the intrinsic thermodynamiccost of information erasure governed by Landauer’s Principle (E = kB T ln 2). However,this framework erroneously conflates human logical interpretation with the statistical me-chanics of multiparticle fermionic ensembles. We demonstrate that thermal dissipation innanoscale logic is not an informational necessity but a purely mechanical artifact of mul-tiparticle fermionic scattering (Ω > 1). This paper introduces a deterministic computingarchitecture utilizing a (10,10) armchair Carbon Nanotube Field-Effect Transistor (C-FET).By injecting phase-locked h/2e Cooper pairs, the charge carriers condense into a singular,macroscopic zero-entropy hydrodynamic wave (Ω = 1). Utilizing Bohmian quantum hydro-dynamics, we prove that this macroscopic wave propagates exclusively along the internal π-orbital boundary of the carbon lattice, governed by the intrinsic topological invariant λp = h.Because the incremental change in available microstates remains strictly zero (δΩ = 0), thearchitecture executes logic with perfect energy conservation (δEdissipated = 0), providing arigorously deterministic foundation for post-Moore’s Law computation.