V2.We present a field-based reconstruction of the double-slit interference pattern using aneffective coherent background modulated by the slit geometry. In this approach, the interferencestructure is encoded in the boundary-induced modulation of the field rather thanattributed to self-interference of an individual particle. Explicit calculations in one and twodimensions show that the standard interference pattern emerges naturally from the propagationof the modulated field. We further discuss how which-path detection suppresses thecoherence terms of the effective field description, leading to the disappearance of interferencewithout invoking additional interpretational assumptions. The model is introduced asan effective description intended to clarify the physical content of the standard interferencecalculation and does not rely on a specific ontological interpretation.If you use this material or have questions, comments, or potential extensions, feel free to contact me at: fjmartinezsanchezact@gmail.com V 2.1 TAMC-FRANJAMAR: A retrospective and reproducible framework for the analysis of collective statistical behavior in multistation seismic networks https://doi.org/10.5281/zenodo.18519119
V2.We present a field-based reconstruction of the double-slit interference pattern using aneffective coherent background modulated by the slit geometry. In this approach, the interferencestructure is encoded in the boundary-induced modulation of the field rather thanattributed to self-interference of an individual particle. Explicit calculations in one and twodimensions show that the standard interference pattern emerges naturally from the propagationof the modulated field. We further discuss how which-path detection suppresses thecoherence terms of the effective field description, leading to the disappearance of interferencewithout invoking additional interpretational assumptions. The model is introduced asan effective description intended to clarify the physical content of the standard interferencecalculation and does not rely on a specific ontological interpretation.If you use this material or have questions, comments, or potential extensions, feel free to contact me at: fjmartinezsanchezact@gmail.com V 2.1 TAMC-FRANJAMAR: A retrospective and reproducible framework for the analysis of collective statistical behavior in multistation seismic networks https://doi.org/10.5281/zenodo.18519119
The double-slit experiment combines three observational facts: interference fringes in the coherent regime, position-resolved detections, and continuous fringe suppression under which-path resolution. Standard quantum mechanics accommodates all three through postulates without deriving them from deeper structure. This paper shows that the standard far-field interference law and the coherence-to-which-path transition follow as structural corollaries of results established in Quantum Mechanics as the Boundary Algebra of a Non-Invertible Projection (doi:10.5281/zenodo.19535588) and its companion (doi:10.5281/zenodo.19571321). Two results suffice for the algebraic derivation: the Born rule as the canonical quadratic measure on Im(Π), and the kernel spinor as the Hilbert quadrature of the boundary field. A third result — measurement irreversibility as a kinematic consequence of the projection geometry — belongs to the physical interpretation of measurement and temporal ordering within the same framework. The paper derives the Fraunhofer intensity law I(x) ∝ |Ψ₁ + Ψ₂|² and the detector-overlap formula with fringe visibility V = |γ|, within the standard Fraunhofer approximation and without additional postulates. It does not claim a first-principles derivation of the full boundary propagator or of single-event arrival statistics. A companion numerical simulation implements all three coherence regimes. A self-contained appendix summarises the three imported results in compact form.
Description:This preprint presents a coherent-field explanation of the double-slit experiment within the framework of the Total Coherent Theory (TCT). In this approach, physical excitations are modeled as local perturbations δΨ propagating over a structured and coherent vacuum field Ψ₀. The slits do not act on the particle itself; instead, they generate coherence modulations in the vacuum, producing two coherent pathways that naturally give rise to the interference pattern.The work includes explicit 1D and 2D calculations of vacuum modulation, Fresnel propagation, and intensity reconstruction. A detailed analysis of decoherence and measurement is also provided, showing that which-path detection corresponds to the destruction of vacuum coherence rather than the collapse of a particle wavefunction.The document offers a physically grounded resolution to wave–particle duality by treating interference as a property of the coherent vacuum structure. A Spanish summary is included at the end of the document. fjmartinezsanchezact@gmail.com Descripción:Este preprint presenta una explicación basada en campos coherentes del experimento de la doble rendija dentro del marco de la Teoría de Coherencia Total (TCT). En este enfoque, las excitaciones físicas se describen como perturbaciones locales δΨ que se propagan sobre un vacío estructurado y coherente Ψ₀. Las rendijas no actúan sobre la partícula, sino que modulan la coherencia del vacío y generan dos caminos coherentes que producen el patrón de interferencia.El trabajo incluye cálculos explícitos en 1D y 2D, propagación tipo Fresnel y reconstrucción de intensidades. También se desarrolla un análisis detallado de la decoherencia y la medición, mostrando que la detección del camino destruye la coherencia del vacío en lugar de colapsar la onda de la partícula.El texto ofrece una interpretación física clara del fenómeno de interferencia y una resolución coherente de la dualidad onda-partícula. Se incluye un resumen en español al final del documento. “This preprint is part of the general framework of the Total Coherent Theory (TCT).The foundational TCT manuscript is available at DOI.” https://doi.org/10.5281/zenodo.17709941
This paper develops a fully empirical, physics-grounded reinterpretation of the double-slit experiment using the same flux-ledger framework established in Modules A–D of the Zero Infinity Research Program. By expressing quantum interference in terms of probability current density, boundary flux, and environmental decoherence, the work shows that the double-slit phenomenon requires no mysteries, hidden forces, or nonlocal metaphysics. Instead, the interference pattern emerges naturally from: Conservation of probability current, Phase-coherent flux across an open boundary, and Loss of coherence encoded as a measurable entropy-flux term Ψ∞. The analysis re-derives the standard results—interference fringes, collapse under measurement, and decoherence scaling—from first principles while embedding them within the broader conservation trilogy: Φ∞ (boundary energy flux) Ψ∞ (entropy/memory flux) Π∞ (momentum flux) This connects quantum optics to the same flux-driven framework used to model black hole mergers, spacecraft recoil, comet polarization curves, and organic spectral coherence in earlier modules. The paper also integrates cross-disciplinary results from decoherence theory, Bohmian mechanics, optical coherence tomography, and open quantum systems, showing how each maps cleanly onto a boundary-flux formalism. The result is a physically rigorous, mathematically transparent, and conceptually unifying explanation of the double-slit experiment—one that preserves standard quantum mechanics while clarifying how and where interference information is stored, exported, and erased. This work extends the Zero Infinity Program into quantum foundations, offering a synthesis of classical wave mechanics, quantum probability current, thermodynamic export, and information flow across system boundaries.
This article presents a conceptual and experimentally illustrated reinterpretation of the double-slit experiment based on energetic coherence and Δφ-modulation within the Ilefos Model. Using a classical optical setup—including a 532 nm laser, multi-aperture plates, and photodiode detectors—the study investigates how interference patterns transform under different geometrical and observational conditions. Three coherence regimes are documented: (1) baseline interference, (2) complex multi-aperture diffraction, and (3) speckle-pattern coherence under polarization. The results demonstrate how small structural changes in the optical path lead to significant reorganizations of the field’s coherence distribution, supporting the hypothesis that measurement effects may be interpreted as field participation rather than particle-path detection. While the experiment operates in the classical regime (milliwatt intensities, not single photons), the illustrated coherence transitions align with the theoretical Δφ-framework describing how structured energy patterns respond to constraints and observation. This publication serves as a pilot study for future work involving higher-sensitivity detectors and single-photon sources, and provides a conceptual bridge between classical interference behavior and coherence-based interpretations of quantum measurement.
In electron and photon interference experiments, detectors often display fringe patterns and coarse banding whose detailed appearance varies with material, exposure history, coherence, flux, and vacuum conditions — raising questions about the assumption that detection screens are strictly passive recorders of incident intensity. Though previous experiments used every known rigorously controlled procedure to minimize surface interactions, the passivity of those surfaces has yet to be explicitly tested. This paper proposes a set of empirical tests to assess whether coherence-sensitive, detector-local dynamics — including charge redistribution, gradual structural deformation, local heating, reversible trap occupancy, and surface contamination — contribute measurably to observed interference patterns. Specifically, it introduces a speculative, classical mechanism — the Emergent Attractor Model (EAM) — in which mask-edge-seeded coherence correlations are amplified through a multi-field cascade of history-dependent processes on the detector surface, modulating local absorption probabilities over multiple timescales. The primary purpose of the model is to null test as many contributing variables as possible. In EAM, emergent attractors form on conductive surfaces under grazing incidence. A single surface (such as a mask edge) can generate visible fringes via self-organized lateral excitations. In double-slit configurations, both the mask edge and detector surface contribute, with the detector amplifying mask-seeded correlations through impact-driven multi-field feedback. The proposed model reproduces key features of both single- and double-slit patterns, including blurred envelopes with banding, high-contrast fringe trains, long-term evolution of pattern contrast, flux-dependent visibility, and vacuum/history effects, without invoking free-space wave interference at the screen. It offers a concrete, falsifiable framework for testing the Apparatus Passivity Assumption and exploring whether EAM-like dual-site effects are present in real systems. Several qualitative predictions and diagnostic experiments are outlined to probe material dependence, coherence sensitivity, exposure history, flux, vacuum conditions, and reset protocols. These tests aim not to revise quantum mechanics, but to clarify the role of the detector in shaping observed patterns — and to determine whether EAM-like effects are present in real systems. The surface is a physical object governed by condensed matter physics, and diagnosing its complexity might complement decades of existing work in quantum interference. EAM is one possible detector-side mechanism among many, and every null result could still be informative for understanding detector physics. We propose testing this speculative model so that it can be conclusively falsified. Regardless of the final outcome, the field wins. Correspondence: rauwolfa@gmail.com