We provide a mathematically self-contained interpretation of the temporal double-slit experiment reported by Tirole et al. (Nature Physics 19, 999, 2023). In that work, two ultrafast pump pulses create time-varying reflectivity modulations in a thin ITO film, producing clear spectral oscillations whose period is inversely proportional to slit separation and whose visibility decay probes an effective rise time of 1–10 fs. Here we show that these features emerge directly as the default outcome of Dirichlet-energy minimization on a pre-geometric lattice of scalar entropy densities. Local temperature spikes in two brief windows modulate the entropic bond stiffness wij=[1+(Si−Sj)2/(Ti(t)Tj(t))]−3 w_{ij} = [1 + (S_i - S_j)^2/(T_i(t)T_j(t))]^{-3} wij=[1+(Si−Sj)2/(Ti(t)Tj(t))]−3 (β=3 \beta = 3 β=3 fixed). The resulting time-dependent reflection coefficient r(t) r(t) r(t) is derived analytically in the continuum mean-field limit and evaluated numerically on a 3D lattice patch. Fourier analysis reproduces the measured inverse period scaling. After rescaling the power spectrum by (Δf)2 (\Delta f)^2 (Δf)2, the visibility envelope is flat in the sharp-ramp limit, matching the Heaviside asymptotic reported by Tirole et al. The red/blue asymmetry arises automatically from the phase integral term. All results follow strictly from the lattice affinity formula and local temperature modulation; no additional parameters or fine-tuning are required. This note is deliberately standalone and focuses solely on providing a minimal ontological account of the Tirole data.
We provide a mathematically self-contained interpretation of the temporal double-slit experiment reported by Tirole et al. (Nature Physics 19, 999, 2023). In that work, two ultrafast pump pulses create time-varying reflectivity modulations in a thin ITO film, producing clear spectral oscillations whose period is inversely proportional to slit separation and whose visibility decay probes an effective rise time of 1–10 fs. Here we show that these features emerge directly as the default outcome of Dirichlet-energy minimization on a pre-geometric lattice of scalar entropy densities. Local temperature spikes in two brief windows modulate the entropic bond stiffness wij=[1+(Si−Sj)2/(Ti(t)Tj(t))]−3 w_{ij} = [1 + (S_i - S_j)^2/(T_i(t)T_j(t))]^{-3} wij=[1+(Si−Sj)2/(Ti(t)Tj(t))]−3 (β=3 \beta = 3 β=3 fixed). The resulting time-dependent reflection coefficient r(t) r(t) r(t) is derived analytically in the continuum mean-field limit and evaluated numerically on a 3D lattice patch. Fourier analysis reproduces the measured inverse period scaling. After rescaling the power spectrum by (Δf)2 (\Delta f)^2 (Δf)2, the visibility envelope is flat in the sharp-ramp limit, matching the Heaviside asymptotic reported by Tirole et al. The red/blue asymmetry arises automatically from the phase integral term. All results follow strictly from the lattice affinity formula and local temperature modulation; no additional parameters or fine-tuning are required. This note is deliberately standalone and focuses solely on providing a minimal ontological account of the Tirole data.
We propose that the double-slit interference pattern is not a mysterious quantum phenomenon requiring special postulates. It is instead the straightforward, almost inevitable outcome when a localized entropy-density gradient packet propagates through a sparse region of the pre-geometric lattice, where residual primordial bonds remain active and couple both paths sub-locally. Non-interference occurs only when a measurement apparatus partitions those primordial bonds. This perspective follows directly from the single scalar ontology developed in The Entropic Universe (EUT I and II). Interference emerges as the default behavior of lattice energy minimization; the loss of interference requires an additional physical process (local partitioning of the primordial layer). The explanation unifies the double-slit with entanglement, retrocausality, and black-hole information preservation without introducing new equations or entities. A simple schematic illustrates the role of emergent spatial paths versus sub-local primordial bonds. The paper is intended as an accessible companion piece to the main EUT papers.
This paper integrates two complementary contributions of the New Subquantum Informational Mechanics (NMSI) framework: (I) the formal derivation of Maxwell's equations as an emergent limit of the NMSI Lagrangian, via identification of the electromagnetic field with the phase gradient of the Riemann Oscillatory Network (RON), and (II) quantitative predictions directly falsifiable on the ITO-ENZ experimental platform of the temporal double-slit experiment by Tirole et al. (Nature Physics, 2023). We demonstrate that Maxwell's equations are recovered exactly when gradients of the background informational fields are negligible, while systematic deviations arise in ENZ amplification regimes where the informational rigidity kappa(i,Phi) and the axionic coupling xi(i,Phi) become detectable. We provide: (a) complete functional dependencies of the surplus coefficients beta and epsilon with asymptotic scalings and orders of magnitude derived from NMSI parameters; (b) the ENZ amplification mechanism that renders the prediction principally testable; (c) an effective phenomenology independent of ontological assumptions; (d) direct extraction protocols with explicit chi-squared statistical criteria; (e) systematic exclusion of conventional alternatives; and (f) predictions that cannot be mimicked by any local Maxwell model. These results constitute the first complete falsification architecture for NMSI on a well-controlled tabletop platform.
This paper presents a deterministic, pre-geometric formulation of the Charge-entanglement Ontology in which all physical phenomena emerge from a single primitive: charge asymmetry (photon dipole pairs). The necessary absence created by any charge configuration (the Alpha Void) generates reclamation pressure that propagates as waves chasing both poles of every dipole. A free photon survives by riding the crest of its own reclamation wave at the speed of gravity c — the maximum speed at which coherent information can propagate while maintaining phase stability. Gravitational lensing is shown to be the deterministic deflection of photons following paths of least total accumulated Greer Tax while surfing modified reclamation waves in regions of high dipole stacking. The double-slit interference pattern arises from real classical ripples in the reclamation landscape excited by the slits, providing a fully mechanical explanation of the wave function without invoking probability or collapse. The framework reproduces all standard weak-field predictions of general relativity and quantum optics while offering a clear ontological foundation: temporal resistance is identified as the propagation speed of the Void’s reclamation pressure, and the critical locking efficiency βcrit(n)=1−1/n2 marks the transition from radiation (must surf at c) to stable matter (can stand still). Special attention is given to delayed-choice and post-absorption interference. This work forms part of a broader program aiming to derive all of physics from charge alone, eliminating the need for separate spacetime geometry or probabilistic postulates.
Traditional condensed matter physics relies heavily on spatial periodicity to classify states of matter using crystal lattices and momentum space. In recent years, the paradigm has expanded to include temporal dimensions, notably through the theoretical and experimental exploration of discrete time crystals. However, searching strictly for discrete time crystals imposes rigid constraints on phase rigidity and symmetry breaking. In this paper, we propose a broader and more fundamental paradigm: Quantum Material Temporal Lattice Spectroscopy (QMTLS). Rather than seeking an isolated time crystal phase, QMTLS focuses on identifying internal temporal structures characterized by periodic sequences t_n = nT formed spontaneously or under driving within quantum materials. We formalize the theoretical foundation of temporal lattices in condensed matter, define the spectral density function S(omega) containing discrete temporal lattice peaks, and outline the microscopic mechanisms driving these phenomena. By avoiding traditional experimental validation sections and focusing on rigorous theoretical foundations, this framework opens a promising pathway toward discovering novel non-equilibrium states of matter with potential profound implications for fundamental physics.
The double-slit experiment is traditionally treated as a static demonstration of interference arising from coherent superposition, with the positions of source, apertures, and detector held fixed. In this work, we report a previously undocumented operational regime of the double-slit experiment involving dynamic, plane-dependent occlusion. Using the human eye and a mobile-phone camera as detectors, we demonstrate that a laterally moving opaque barrier produces qualitatively different interference extinction depending on whether it is introduced before or after the slit plane. When the occluder is positioned between the source and the slits, interference fringes disappear in the intuitive direction of occluder motion, consistent with reduced illumination of the apertures. In contrast, when the occluder is positioned between the slits and the detector, fringe extinction propagates in the opposite direction, proceeding fringe-by-fringe from the opposing slit edge. This direction-reversed, fringe-resolved extinction is robust, reproducible, independent of slit orientation, dependent on the focal plane of observation, and observable with both eye-based and camera-based detection. The effect is absent for a single opaque edge, confirming that it requires a structured multi-path interference field. Although fully compatible with classical wave and Fourier optics, there exists no prior (to our knowledge) experiment that explicitly isolates, demonstrates, or describes this behavior within the context of the double-slit experiment. The novelty of this work lies in the experimental isolation and interpretation of a regime in which interference evolution is governed by angular-mode accessibility rather than by spatial shadowing. We further interpret the observations in terms of entropic energy and information density. Here, “entropic energy” is used in an informational–optical sense, referring to the constrained accessibility of field configurations, not to thermodynamic entropy production. Dark interference fringes correspond to regions of low entropic energy and low information density, where local energy flux is minimized and phase relationships are maximally constrained. Post-aperture occlusion preferentially suppresses angular propagation modes associated with these low-entropy nodes, causing extinction to originate from dark fringes rather than from bright regions or geometric boundaries. We designate this behavior the Angular-Mode Occlusion Reversal (AMOR) effect. The results clarify the non-shadow nature of diffraction, highlight the operational nonequivalence of pre- and post-aperture occlusion, and expose an under-described experimental regime of the double-slit experiment that bridges classical optics with interaction-centric interpretations of interference. The present work does not propose new physical laws, but experimentally isolates a previously undocumented operational regime inherent to established scalar wave and Fourier optics.