<strong>Abstract:</strong> The Atomic Statistical Hypothesis (ASH) proposes that light propagates as a continuous electromagnetic wave, with quantization observed in phenomena like the photoelectric effect arising from material-dependent energy absorption rather than intrinsic light quanta (photons). Energy not absorbed in discrete quanta, dictated by material properties such as the work function, is released as heat or longer-wavelength radiation (e.g., infrared). This model eliminates the need for wave-particle duality and resolves inconsistencies in quantum mechanics (QM), including the geometric implausibility of photons, photovoltaic efficiency loss, blackbody radiation anomalies, and quantum entanglementâs non-locality. By treating Planckâs constant as a statistical average tied to material interactions, ASH aligns with Occamâs razor, offering a simpler alternative to QM. We propose an experiment comparing sodium and cesium in the photoelectric effect near sodiumâs threshold frequency to test material-dependent quantization, predicting cesium will produce more photocurrent/voltage and sodium more residual heat/infrared. If confirmed, this could redefine light-matter interactions and eliminate philosophical issues in QM.
201.8 KB ⢠Jul 26, 2025
<strong>Abstract:</strong> The Atomic Statistical Hypothesis (ASH) addresses an overlooked flaw in quantum mechanics: the assumption of discrete quanta as fundamental. Instead, ASH posits that quantization emerges statistically from interactions between continuous electromagnetic waves and matter. This paper leverages Wolfgang Sturm's experimental work to provide empirical support for ASH, demonstrating that classical continuous fields can replicate quantum phenomena, including interference energy deficits, classical entanglement, and Bell inequality violations. These findings, drawn from precise experimental setups, confirm ASH's premise of continuity and locality, offering a parsimonious alternative to discrete quantum models.
303.1 KB ⢠Jul 26, 2025
<strong>Abstract:</strong> We present {C.O.R.E.}âthe {Classical Origin of Reality and Emergence}âa unified framework that eliminates the need for dark energy, dark matter, spacetime singularities, wave-particle duality, and non-locality. The model integrates three principles: (1) light as a continuous electromagnetic wave (Atomic Statistical Hypothesis, ASH), (2) gravity as emergent from symmetric variations in vacuum permittivity \(\varepsilon(r)\) and permeability \(\mu(r)\) (Classical Unification of Gravity and Electromagnetism, CUGE), and (3) cosmology as a static, eternal universe where redshift arises from light scattering off electron clouds around Massive Compact Halo Objects (MACHOs, ZEUS).
82.4 KB ⢠Sep 18, 2025
<strong>Abstract:</strong> This paper presents a classical, singularity-free framework unifying gravity and electromagnetism through symmetric variations in the vacuum permittivity \(\varepsilon(r)\) and permeability \(\mu(r)\) induced by mass. Gravitational effectsâincluding perihelion precession, light bending, time dilation, and Shapiro delayâemerge from a flat-space refractive medium governed by electromagnetic principles. The coordinate speed of light varies as \(c_{\text{coord}}(r)= 1/\sqrt{\varepsilon(r)\mu(r)}\), while local \(c\) invariance is preserved because atomic clocks and rulers scale with \(\varepsilon(r)\) and \(\mu(r)\). The model reproduces general relativityâs weak-field predictions without spacetime curvature, singularities, or free parameters. It is consistent with the Atomic Statistical Hypothesis (ASH), treating light as a continuous wave, and forms a core component of the C.O.R.E. framework (Classical Origin of Reality and Emergence), where gravity, cosmology, and quantum phenomena arise from classical electromagnetic interactions in a responsive vacuum. Crucially, real gravity alters \(\varepsilon(r)\) and \(\mu(r)\), while acceleration does notâexplaining the âhalf-effectâ in lab experiments. Furthermore, âCoulomb repulsionâ is reinterpreted as Vacuum Shielding Stress (VSS), a second-order effect of environmental attraction shielding, eliminating the need for fundamental repulsive forces. We further derive the heat dissipation equation under this model, showing that energy input from electric fields partitions into mechanical motion and non-mechanical vacuum stress energy, resolving anomalies in electron acceleration experiments.
49 KB ⢠Sep 20, 2025
<strong>Abstract:</strong> We demonstrate that the standard relativistic energy formula \(E = \gamma m c^2\) is an incomplete effective description that conflates mechanical and non-mechanical energy storage. Within the C.O.R.E. frameworkâcomprising CUGE (Classical Unification of Gravity and Electromagnetism), REFORM (REfractive Foundation of Relativity and Mechanics), and ASH (Atomic Statistical Hypothesis)âwe derive a revised energy partition that explicitly accounts for vacuum permittivity \(\varepsilon(r)\) and permeability \(\mu(r)\). We show that:
1. The Lorentz factor \(\gamma\) emerges from the sum of kinematic (transverse Doppler) and refractive (medium-induced) effects;
2. Total energy input partitions into <strong>mechanical kinetic energy</strong> and <strong>Vacuum Shielding Stress (VSS)</strong> energy;
3. In high-energy electron acceleration, >94% of input energy is stored as VSS, not kinetic motion;
4. The local invariance of \(c\) arises from atomic scaling with \(\varepsilon(r), \mu(r)\), not spacetime geometry;
5. The "half-effect" in acceleration experiments falsifies the strict Equivalence Principle and confirms the physical reality of \(\varepsilon/\mu\) variations.
This refractive foundation resolves long-standing anomalies in electron calorimetry, reinterprets inertia, and eliminates the need for relativistic mass. Energy is conservedâbut not as \(\gamma m c^2\).
19.9 KB ⢠Oct 3, 2025
<strong>Abstract:</strong> This paper presents a classical, singularity-free derivation of Lorentz symmetry from the physical requirement that the phase of a continuous electromagnetic wave must remain continuous across reference frames. We show that relativistic effectsâincluding time dilation, length contraction, Doppler shiftsâemerge not from abstract postulates, but as the sum of two physical effects: (1) refractive path delay governed by Snellâs law and the eikonal equation, and (2) kinematic time dilation due to transverse motion. By integrating the ray equation \( \frac{d}{ds} (n \hat{t}) = \nabla n \) along paths with relative motion, we recover a Lorentz-type transformation where the refractive index \( n(r) = \sqrt{\varepsilon(r) \mu(r)} \) plays the role of a coordinate-dependent speed regulator. This refractive foundation unifies gravity and motion under a single electromagnetic framework, consistent with the C.O.R.E. paradigm. Crucially, real gravity alters \( \varepsilon(r) \) and \( \mu(r) \), while acceleration does notâexplaining the "half-effect" in lab experiments and falsifying the strict Equivalence Principle.
22 KB ⢠Oct 6, 2025
<strong>Abstract:</strong> We present a complete resolution to the NavierâStokes existence and smoothness problem through a novel physical framework derived from the <strong>CUGE (Classical Unification of Gravity and Electromagnetism)</strong> model. By reformulating fluid dynamics as wave propagation in a responsive refractive medium governed by symmetric variations in vacuum permittivity \( \varepsilon(\mathbf{r},t) \) and permeability \( \mu(\mathbf{r},t) \), we eliminate the possibility of finite-time blow-up. The key insight is that <strong>singularities are artifacts of point-source abstraction</strong>, not nature. In both gravitational and hydrodynamic systems, continuity, causality, and finite propagation speed prevent divergence. We show that the <strong>refractive n-body solution</strong>âwhich achieves unprecedented stability over \( 10^7 \) time units without artificial softening or tuningâprovides a direct mathematical and physical pathway to proving global regularity for incompressible flows. The core mechanism is a <strong>nonlinear feedback term</strong> arising from \( \dot{n}/n \), where \( n = \sqrt{\varepsilon\mu} \), which dynamically regulates velocity gradients. This yields bounded energy growth, sub-exponential divergence, and long-term coherenceâresolving turbulence not as chaos, but as structured modulation of a continuous field. All results emerge from first principles: phase continuity, Fermatâs principle, and Maxwellian electrodynamicsâwithout postulates of photons, dark matter, or spacetime curvature. We conclude that the NavierâStokes equations are an approximate limit of a deeper, singularity-free continuum theory rooted in classical electromagnetism.
27.1 KB ⢠Oct 4, 2025
<strong>Abstract:</strong>The Atomic Statistical Hypothesis (ASH) posits that quantum phenomenaâincluding entanglement and Bell inequality violationsâarise from local, statistical interactions between continuous electromagnetic waves and material-dependent thresholds, rather than intrinsic discreteness or non-locality. This paper derives mathematically how ASH reproduces the quantum prediction of 25% agreement probability in the three-setting Bell experiment, surpassing the classical local realistic bound of 33%. By modeling detection as a nonlinear, threshold-driven post-selection process, ASH introduces context-dependent sampling bias that mimics quantum correlations without violating locality. We provide step-by-step derivations, numerical verifications using smooth thresholds, and direct connections to Wolfgang Sturmâs classical experiments, which observe CHSH values up to S = 2.91. Critically, ASH can exceed the Tsirelson bound (\(2\sqrt{2} \approx 2.828\)) due to post-selectionâa feature confirmed in Sturmâs analog systems. This extension integrates CUGE's vacuum polarization mechanism, deriving a power-law detection probability \(P_{\text{det}} \propto |\cos(2(\varphi - \alpha))|^\nu\) with \(\nu = 1/(d-1)\) from the geometric scaling of the Gravitational Vacuum Anisotropy in d-dimensional spacetime, yielding a close analytic approximation to the quantum correlation \(E(\gamma) \approx -\cos(2\gamma)\) across all angles without empirical tuning. This aligns with Occamâs razor, eliminating quantum paradoxes while preserving continuity, locality, and classical wave physics.
22 KB ⢠Dec 29, 2025
<strong>Abstract:</strong> Suspending interpretive assumptions such as point-mass singularities and discrete forces, we present results from an ultra-long-term gravitational n-body simulation extending to 10,000,000 time units, achieving unprecedented stability without chaotic divergence or numerical artifacts. Guided by first principlesâcontinuity of fields, local causality, and energy conservationâthis classical refractive model treats gravity as emergent from vacuum variations, eliminating unphysical infinities and restoring deterministic evolution. Detailed derivations from Fermat's principle yield the Newtonian limit in weak fields, with velocity-dependent feedback in stronger regimes that damps instabilities. The simulation outcomesâlinear trajectory growth in the refractive model versus anomalous flattening in Newtonianâimply a profound resolution to the n-body "problem": chaos as illusion, stability as nature's norm. Implications extend to cosmic structures, predicting mature galaxies at high redshift without ad-hoc entities. Logic demands Occam's razor: one responsive medium simplifies over multiple unobservables. Data aligns: JWST's compact z>10 galaxies fit naturally. This coherenceâunifying gravity with electromagnetic continuityâmarks a classical triumph, falsifiable through lab and observational tests.
32.6 KB ⢠Sep 24, 2025
<strong>Abstract:</strong> The ZigZag Eternal Universe System (ZEUS) proposes a static, infinite cosmos without expansion, dark energy, or a Big Bang. Redshift arises from light scattering off electron clouds around Massive Compact Halo Objects (MACHOs), with an average density of \(\sim 1 \, \text{pc}^{-3}\). This model predicts compact galaxy sizes (\(\theta \approx 0.15 \, \text{arcsec}\)), faint fluxes (\(F \approx 10^{-19} \, \text{erg/s/cm}^2\)), and high metallicity (\(Z \approx 0.5 \, Z_\odot\)) at redshift \(z \approx 14\), consistent with JWST observations. The cosmic microwave background (CMB) is modeled as scattered starlight, reproducing Planckâs \(2.7255 \, \text{K}\) temperature with \(\chi^2 \approx 2\text{--}5\). Using a single parameter (\(k \approx 0.1 \, \text{Mpc}\)), ZEUS aligns with JWST, Planck, and SDSS data, offering an alternative to the \(\Lambda\)CDM framework. Predictions for CMB polarization and galaxy clustering are proposed for future observational tests.
368.5 KB ⢠Apr 12, 2025