Tone Theory and Direct Measurement of the Wigner Wavefunction
Anthony SANTANA
Published Sep 23, 2026• 0 citations
Abstract
Abstract This paper presents a physical re-derivation and mechanical reconciliation of non-equilibrium spread-ing processes and wavefront velocities over a continuous fluid medium. Under the Tension-OptimizedNewtonian Entropy [TONE] framework, the coupled differential equations governing total density andnet directional current are mapped directly onto the deterministic trajectory tracking vectors of an elasticmaterial substrate canvas. By tracking the time-dependent evolution of continuous wavepackets througha three-phase progression—comprising a linear momentum change basis, a cumulative potential stateledger, and a dynamic equilibrium equalization endpoint—we eliminate abstract probability fogs andnon-local superposition operators. Microscopic directional scattering fluctuations and localized multi-body decay collisions are shown to be structural tracking variables that naturally cancel out to absolutenet-zero across an isolated sub-manifold area via the Law of Large Numbers. This real-space geomet-ric containment model demonstrates how continuous macroscopic thermodynamic decay profiles emergefrom discrete, whole-number kinetic steps within a strictly conserved Hamiltonian system, validatinguniversal rough-surface interface growth metrics without point-like coordinate singularities. PACS Numbers: 05.60.Gg, 05.40.Jc, 47.10.ad, 02.50.EyKeywords: TONE Framework, Wavefront Propagation, Run-and-Tumble Dynamics, Coagulation, Decoag-ulation, Linear Stability, Geometric ContainmentCopyright Notice: Copyright Pending © 2026 Anthony Santana. All Rights Reserved.DOI: 10.5281/zenodo.22919984
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- 10.5281/zenodo.22919983
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