Tone Theory and 3D Photoemission Orbit Tomography with UV
Anthony SANTANA
Published Sep 1, 2026• 0 citations
Abstract
Abstract Standard quantum measurement models explain the sudden appearance of localized electronicsignatures by invoking non-local wavefunction collapse during an external observation event. Thispaper analyzes the finite space-time boundaries of 3D photoemission orbital tomography to demon-strate that a femtosecond extreme ultraviolet pulse provides insufficient duration for an abstractprobability cloud to collapse across a Minkowski three-space area. We map the physical, sub-˚Angstr¨om geometry of frontier molecular orbitals directly onto the Tension-Optimized NewtonianEntropy (TONE) framework to substitute non-deterministic states with real-wave fluid transportprofiles. The sparse spatial data collected on hemispherical momentum shells reveals the true geo-metric tangencies of localized wave packets vibrating elastically against a discrete surface Planckianmesh. By proving that the required spatial transformation time exceeds the physical duration ofthe high-harmonic generation pulse, this framework rules out non-local probability abstractions,regularizes the reconstruction gap, and establishes a falsifiable, scale-dependent alternative based oncontinuous macro-fluid conservation rules. Keywords: TONE Theory, Photoemission Orbital Tomography, Wavefunction Collapse, Tangencies,Minkowski Space-Time, Fluid Manifold Substrate.PACS: 33.60.+q, 03.65.Ta, 79.60.Jv, 47.10.adCopyright: Copyright Pending © 2026DOI: 10.5281/zenodo.22237223
- DOI
- 10.5281/zenodo.22237222
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