Tone Theory and Wave Mechanics
Anthony SANTANA
Published Aug 9, 2026• 0 citations
Abstract
Abstract This paper explores wave mechanics within the Tone Theory framework, establishing a purelyclassical, deterministic continuum model over a Planckian porous surface manifold. By treating spacenot as an empty vacuum but as a physical, multi-layered material substrate, we eliminate the non-causal abstractions of quantum mechanics. Part I establishes the foundational wave-topology laws,deriving the absolute 1:1 surface line integral match of flat 2D photon waves and the mechanical profileof the substrate’s zero-permittivity fabric. Moving through this spatial baseline, Part II provides asystematic re-derivation of fundamental wave equations, replacing probability fogs with Magellaniccoordinate pore circumnavigations, Madelung hydrodynamic invariants, non-linear boundary couplingtensors, and explicit 2 × 2 double-slit division matrices. Finally, the framework resolves the unboundedenergy states recorded during ultra-fast wavepacket cutting, proving via Fourier continuous transformsthat the quantum vacuum “infinite particle swarm” is a classical mathematical projection constraint ofa step-function discontinuity—unveiling it as a trailing wake of physical substrate cavitation shockwavesbalancing the global ledger under strict Newtonian conservation. PACS Codes: 03.65.Ta, 47.10.ad, 42.50.Xa, 03.50.De, 47.55.dpKeywords: Tone Theory, Planckian Porous Manifold, Substrate Cavitation, Madelung Hydrodynamics,Double-Slit Matrix, Non-Linear Coupling Tensor, Wavefront Reconstruction, Zero-Permittivity FabricCopyright © 2026 Anthony Santana. All Rights Reserved. Copyright Pending.DOI: 10.5281/zenodo.21864863
- DOI
- 10.5281/zenodo.21864862
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