Quantum Physics

Ontology Recapitulates Mathematics: How Quantum Field Theory’s Formal Structure Encodes the Wave-Particle Transition

Authors: Kelly Sonderegger
Comments: 26 Pages. Creative Commons Attribution 4.0 (CC BY 4.0) license

The quantum measurement problem has persisted for nearly a century, yet its resolutionmay have been encoded in quantum field theory’s mathematical structure from the beginning. This paper advances a specific thesis: QFT’s two canonical formulations—Lagrangianand Hamiltonian—are not merely equivalent mathematical descriptions of the same physics.They are descriptions of two distinct physical regimes, connected by a physical processthat the Legendre transform shadows mathematically. The Lagrangian formulation, withits action principle and path integrals summing over all field configurations, is the naturallanguage of waves—extended, atemporal, exploring spacetime democratically. The Hamiltonian formulation, with its definite states evolving in a privileged time coordinate, is thenatural language of particles—localized excitations with observable eigenvalues. What wecall "measurement" is the physical transition between these regimes: environmental couplingdrives extended Lagrangian field configurations into localized Hamiltonian excitations. Thisreading—where the ontology of quantum systems recapitulates the mathematics of quantum field theory—dissolves the measurement problem without invoking new physics. Itreinterprets "superposition" as Fourier decomposition (one wave in different bases, not ontological multiplicity), explains complementarity as an intrinsic property of wave structurerather than epistemic limitation, and identifies the physical mechanism as three coordinated Standard Model processes: Higgs-generated mass establishes the structural capacity for temporal participation and sets coupling strength; environmental quantum fields(gauge fields, phonons, thermal modes) provide the infrared noise spectra that drive ir1reversible phase diffusion; and definite outcomes emerge when cumulative environmentalentanglement crosses an irreversibility threshold. The thesis connects to broader questionsin philosophy of physics about the relationship between mathematical formalism and physical reality, extending the methodological tradition Einstein established when he elevatedPlanck’s mathematical E = hν to ontological status.
Category: Quantum Physics

The Relativity Theory of Focus [Part 1-3]

Authors: Yun Seok Choe
Comments: 8 Pages. (Note by ai.viXra.org Admin: This submission mainly contains speculations and may not be written in a complete/scholarly manner - Please cite and list scientific references)

[Paper 1] This foundational paper establishes the "Relativity of Focus" as a new physical principle. We define the universe as a Quantum Harmony Pulsation (QHP) field and prove that physical reality is a "developed image" determined by the observer’s focal resolution. We derive the c2 constant as a dynamic pulsation rate and establish the mathematical framework for the focus operator (Γ).

[Paper 2] Based on the foundational principles of Quantum Harmony Pulsation (QHP) established in Part 1, this paper proposes a Grand Unified Theory (GUT) by redefining ’Force’ as a manifestation of pulsation density gradients. The centerpiece of this work is the introduction of Gravitational Deceleration (Gdec). We argue that gravity is not an intrinsic attractive force but a kinetic resistance—a "dimensional bottleneck"—that occurs during the contraction phase of a bubble-like QHP. Furthermore, we reveal the "Simultaneity Fallacy" in quantum mechanics, proving that superposition is a sequential phenomenon, and conclude by unifying material physics with the evolution of consciousness.

[Paper 3] Based on the foundational principles of Quantum Harmony Pulsation (QHP) established in Part 1, this paper proposes a Grand Unified Theory (GUT) by redefining ’Force’ as a manifestation of pulsation density gradients. The centerpiece of this work is the introduction of Gravitational Deceleration (Gdec). We argue that gravity is not an intrinsic attractive force but a kinetic resistance—a "dimensional bottleneck"—that occurs during the contraction phase of a bubble-like QHP. Furthermore, we reveal the "Simultaneity Fallacy" in quantum mechanics, proving that superposition is a sequential phenomenon, and conclude by unifying material physics with the evolution of consciousness.

[Paper 4] As the final installment of the ’Focus Science’ trilogy, this paper provides the numerical and geometric evidence for the Relativity of Focus. We demonstrate that Planck’s constant (h) is not an arbitrary fundamental value but a geometric scaling factor arising from the 75% energy loss during the projection of a 3D bubble-like pulsator onto a 2D measurement plane. By re-modeling the double-slit experiment as a phase-interference between the observer’s focal frequency and the QHP’s sequential rhythm, we provide a deterministic explanation for the observer effect andprove that quantum uncertainty is a measurable numerical artifact of dimensional transition.
Category: Quantum Physics

Quantum Mechanics from Stochastic Coherence: Resolving the Wallstrom Objection via Topological Stability.

Authors: Adrian Leonardo Rohr
Comments: 11 Pages.

We derive the Schrödinger equation from the Onsager-Machlup stochastic variational principle and address the Wallstrom objection within this framework. Wallstrom showed that the Madelung hydrodynamic equations do not enforce quantization of phase circulation unless single-valuedness of the wave function is imposed as an additional condition.We prove that quantization of phase circulation follows from intrinsic requirements of the stochastic formulation. Reformulating the phase gradient as a flat U(1) connection on the punctured domain where the density is positive, we show that smooth removability of isolated singularities forces trivial holonomy, yielding the quantization condition∮ ∇S · dl = 2πnℏFor configurations with nodal zeros, quantization emerges from the combination of the Hamilton-Jacobi constraint at nodal zeros and the regularity required for the probability current to be a well-defined observable on physical space. These two conditions, neither of which alone implies quantization, together exclude non-integer winding numbers including the recently constructed non-quantized strong solutions of the Madelung equations.Under the identification D = ℏ/(2m), the Madelung transformation then recovers the Schrödinger equation without postulating wave function single-valuedness. Quantization emerges as a geometric and regularity consequence of the Onsager-Machlup variational structure.
Category: Quantum Physics

Anchored Causality Theory: Quantum Field Theory’s Natural Solution to the Measurement Problem

Authors: Kelly Sonderegger
Comments: 31 Pages. CC BY 4.0 License

The quantum measurement problem—how definite outcomes emerge from quantumstates—has resisted solution for nearly a century. We propose that the resolution liesin recognizing that quantum systems exist as extended waves until environmental coupling drives a phase transition to localized particles. There is no "superposition" in theconventional sense—the wave state is the fundamental reality. This Anchored Causality Theory (ACT) applies quantum field theory’s own ontology consistently throughmeasurement: fields are fundamental, particles are emergent localized excitations, andmeasurement is the physical process by which extended field configurations anchor intoparticle modes. ACT completes what QFT started—taking field ontology seriously allthe way through the measurement process.Remarkably, QFT’s mathematical structure already encodes this wave-particle phasetransition. The Lagrangian formulation (action principle, path integrals) is the naturallanguage of waves—extended field configurations exploring spacetime. The Hamiltonian formulation (definite states, observable eigenvalues) is the natural language ofparticles—localized excitations evolving in time. The Legendre transform connectingthem is the mathematical shadow of anchoring. What we call "superposition" is simply Fourier decomposition—one wave represented in different bases, not ontologicalmultiplicity. The mathematics was telling us this all along; we needed only to read itcorrectly.Measurement is progressive phase diffusion driven by coupling to environmentalquantum fields, with rates determined by particle mass through the Higgs mechanism.ACT emerges from three distinct physical processes: (1) Higgs-generated mass establishes the structural capacity for temporal participation and sets coupling strength, (2)gauge fields and phonons provide infrared noise spectra that drive decoherence dynamics, and (3) definite outcomes emerge when the anchoring functional Φ ≳ 1, markingirreversible phase transition from wave to particle.1We derive explicit anchoring rates from quantum Brownian motion theory, showing ΓA ∝ m2 × T × ηenv, where mass-squared scaling follows from Yukawa couplingstructure. The theory explains all existing decoherence phenomena—mass dependence,temperature scaling, environmental density effects, observable-specific rates, and persistence at zero temperature—while making a unique testable prediction: isotope massdependence of 15-20% in coherence times, distinguishable from environmental decoherence models (0%) and competing collapse models (∼8%). Standard Model EffectiveField Theory analysis establishes a viable parameter window spanning 15 orders ofmagnitude. Quantum randomness is explained as stochastic noise from environmental fields (thermal and vacuum fluctuations), not mysterious collapse—calculable viathe fluctuation-dissipation theorem. ACT provides mechanism, ontology, and testablepredictions using only established physics.
Category: Quantum Physics

Mass Gap for the Gribov-Zwanziger Lattice Measure: A Non-Perturbative Proof

Authors: Lluis Eriksson
Comments: 13 Pages.

We prove that the quadratic Gribov-Zwanziger measure on a d-dimensional periodic lattice (d ≥ 2) with gauge group SU(N_c) exhibits a mass gap, uniformly in the lattice size L. The gluon propagator at zero momentum satisfies D(0) ≤ C_d,Nc/g² for all L ≥ 2 and all coupling g > 0. In the thermodynamic limit, m_gap = g[(d-1)N_cI₁/d²]^1/2, where I₁ = ∫ d^dk/(2π)^d 1/k̂² is a finite lattice constant (I₁ ≈ 0.155 in d = 4). For SU(3) at β = 6 the predicted mass scale is m_gap ≈ 0.6 GeV, in quantitative agreement with lattice Monte Carlo measurements. The proof combines four ingredients: strict log-concavity of the measure (Bhatia's matrix inequality), dimensional reduction to a fixed finite-dimensional zero-mode sector (Prékopa's theorem), an exact computation of the effective Hessian at the origin, and a 1/N scaling argument that renders the effective potential asymptotically quadratic. No perturbative expansion in the coupling constant is employed.
Category: Quantum Physics

Geodesic Convexity and Structural Limits of Curvature Methods for the Yang-Mills Mass Gap on the Lattice

Authors: Lluis Eriksson
Comments: 15 Pages.

We establish three results for the SU(Nc) lattice Yang-Mills mass gap. First, the function U → -Re Tr U is strictly geodesically convex on Bπ/2(I) ⊂ SU(Nc), with an explicit Riemannian Hessian. Second, the orbit space B = A/G has Ricci curvature RicB ≥ Nc/4, giving a spectral gap λ1(ΔB) ≥ Nc/4 uniform in lattice size, making rigorous an argument of Mondal. Third, and most importantly, we prove that the Yang-Mills-Faddeev-Popov potential is not geodesically convex at the trivial vacuum in zero-mode directions, for any value of the coupling in d ≥ 3. This shows that convexity-based methods — Brascamp-Lieb, Bakry-Émery, Dobrushin, Prékopa — cannot establish the mass gap through the Hessian of the full potential. We argue that the physical mass gap O(e-c/g²) requires the global topology of B, accessible via the Witten-Helffer-Sjöstrand framework.
Category: Quantum Physics

Morse—Bott Spectral Reduction and the Yang—Mills Mass Gap on the Lattice

Authors: Lluis Eriksson
Comments: 11 Pages.

We establish four results toward the SU(N_c) lattice Yang-Mills mass gap. First, the Wilson potential on the gauge orbit space B=A/G is Morse-Bott with critical manifold M_flat (the flat connections), and we derive the Born-Oppenheimer effective Hamiltonian on M_flat. Second, we prove that the Faddeev-Popov obstruction identified in Paper II applies to the path integral but not to the Hamiltonian on B: since V_pot = S_YM >= 0 has non-negative Hessian at its minimum, the Bakry-Emery framework gives an unconditional mass gap m >= c(L,N_c,d) g^2 > 0 for each fixed lattice size L. Third, we show that the physical mass gap m ~ exp(-C/g^2) follows if the spectral gap at Balaban's terminal renormalization scale is bounded below. We identify this as the single remaining step toward the Yang-Mills Millennium Problem on the lattice.
Category: Quantum Physics

The Yang—Mills Mass Gap on the Lattice: a Self-Contained Proof

Authors: Lluis Eriksson
Comments: 6 Pages.

We prove that SU(N_c) lattice Yang-Mills theory in d=4 dimensions with Wilson action at sufficiently weak coupling has a positive mass gap m >= c(N_c) exp(-C(N_c)/g^2) > 0 in lattice units, uniformly in the lattice size L up to the correlation length. The proof is self-contained modulo Balaban's constructive renormalization group (Comm. Math. Phys., 1984-1989) and combines three ingredients proved here: (i) a Ricci curvature bound Ric_B >= N_c/4 for the gauge orbit space, via O'Neill's submersion formula; (ii) a Holley-Stroock spectral gap estimate at Balaban's terminal renormalization scale; (iii) a transfer-matrix trace identity, with controlled errors from the non-nearest-neighbor couplings in Balaban's effective action, showing that the physical mass gap is approximately scale-invariant under the renormalization group.
Category: Quantum Physics

The Yang—Mills Mass Gap on the Lattice: a Self-Contained Proof Via Witten Laplacian and Constructive Renormalization

Authors: Lluis Eriksson
Comments: 10 Pages.

We prove that SU(Nc) lattice Yang—Mills theory in d = 4 dimensions with Wilson action at sufficiently weak coupling has a positive mass gap mgap ≥ c(Nc) · e−C(Nc)/g2 > 0 in lattice units, uniformly in lattice sizes L ≤ C0 eC/g2 . The proof is self-contained modulo Balaban’s constructive renormalization group and combines: (i) a Ricci curvature bound RicB ≥ Nc/4 for the gauge orbit space, treating its orbifold singularities; (ii) a Witten Laplacian semiclassical spectral gap estimate at Balaban’s terminal scale, using the Morse—Bott structure of the Wilson potential with all hypotheses of the Helffer—Sjöstrand theory explicitly verified; and (iii) a transfer-matrix trace identity with controlled errors from nonlocal temporal couplings.
Category: Quantum Physics

Yang-Mills Existence and Mass Gap: A Framework via Anomaly Algebra, Gradient-Flow Spectral Methods, and Quantum Information

Authors: Lluís Eriksson
Comments: 34 Pages.

We present a rigorous framework for the Yang-Mills mass gap problem, combining three independent lines of argument.Result A (Unconditional). A new MaxEnt Clustering-Recovery Bridge: for any lattice gauge state with finite correlation length xi, the Petz recovery fidelity satisfies 1-F <= C e^{-r/xi}. This is proved via maximum-entropy truncation on gauge-invariant algebras, a convergent polymer expansion, and the Fawzi-Renner theorem.Result B (Unconditional on the lattice, conditional for all couplings). For SU(N) lattice gauge theory (T=0, theta=0, d=3+1, N>=2): the algebraic phase exclusion, using the projective commutation relation of 1-form symmetry operators, unconditionally excludes the trivially gapped symmetric phase. Combined with Perron-Frobenius non-degeneracy and Gauss-law constraints, this forces the theory into the confined phase at strong coupling. The extension to all couplings relies on a single hypothesis: the absence of a bulk phase transition. Under this hypothesis, the uniform lattice mass gap Delta >= m_0 > 0 holds for all lattice spacings.Result C (Conditional). Under the same hypothesis, the continuum limit of SU(N) Yang-Mills theory in d=3+1 exists as a Euclidean QFT satisfying all Osterwalder-Schrader axioms (OS0-OS4), with exponential clustering rate m_0 > 0 (mass gap).Result D (Gradient Flow Reduction). Independently of the anomaly argument, we prove that the mass gap in d=4 is equivalent to a concrete spectral condition on the gradient flow beta-function being strictly negative for all g > 0, combined with a Tauberian regularity condition.The proof architecture uses three main tools: (1) the algebraic structure of higher-form symmetry anomalies on the lattice, (2) backward error analysis of the lattice gradient flow combined with a new spectral calibration, and (3) the MaxEnt bridge from quantum information theory. Exact diagonalisation of Z_2 lattice gauge theory on lattices up to 12 qubits and Z_3 clock models confirms all quantum-information predictions of the framework. This paper contains one explicitly stated hypothesis (absence of bulk phase transition) that is not proven. All conditional results are clearly marked.
Category: Quantum Physics

Gradient Flow Monotonicity and the Yang-Mills Mass Gap: A Conditional Reduction via Spectral Methods

Authors: Lluis Eriksson
Comments: 18 Pages.

We establish a conditional reduction of the Yang-Mills mass gap problem to a concrete spectral inequality involving the gradient flow.For pure SU(N) Yang-Mills theory, if the gradient flow beta-function satisfies a uniform strict asymptotic freedom condition |beta_{GF}(g)| >= delta g^3 for large g, and a Tauberian regularity condition holds for the spectral density, then: in d=3, the theory has a mass gap Delta > 0; in d=4, the infrared trace anomaly vanishes (a_{IR}=0), ruling out a conformal infrared fixed point, and reducing the mass gap to explicit spectral conditions. However, the spectral argument is marginal in d=4 and requires additional non-perturbative input.The proof uses three ingredients: (1) a spectral representation of the gradient flow energy E(t) and a monotonicity identity R'(t) = -2 Var_t(lambda) <= 0 for the ratio R(t) = F(t)/E(t); (2) the Komargodski-Schwimmer a-theorem constraining the IR behaviour; and (3) a gradient flow Poincare inequality connecting functional inequalities to exponential clustering of correlators.We verify all perturbative inputs: the free-field calibration gives R_{free}(t) = 2/t in d=4, and the one-loop correction has the correct sign (R(t) < 2/t for g > 0). We identify the non-perturbative obstruction (the indefiniteness of the Weitzenbock curvature term) as the precise technical barrier to closing the argument in d=4. This paper is a companion to the author's paper on anomaly algebra and quantum information methods for the mass gap. The two approaches are complementary and independent.
Category: Quantum Physics

Algebraic Entropy and Conditional Mutual Information in a Tiny Gauge-Invariant Truncated Hilbert Space: A Reproducible Toy-Model Study with Effective Mixing Hamiltonians

Authors: Lluis Eriksson
Comments: 15 Pages.

We present a fully reproducible Google Colab pipeline to compute region algebraic entropies and conditional mutual informations (CMI) in a tiny truncated Hilbert space (dim = 8) indexed by discrete fusion-like descriptors (x, mu) on L = 4 cells. To generate nontrivial ground states within the descriptor-labeled subspace, we introduce an effective Hermitian mixing Hamiltonian based on a weighted k-nearest-neighbor (kNN) graph Laplacian over configuration labels. Across a parameter sweep, we identify a strong-mixing regime where the participation ratio approaches dim (consistent with Laplacian-dominated ground states on connected graphs) and algebraic CMI diagnostics become extremely small (down to 1e-6 and below) for the chosen algebraic factorization, while region algebraic entropies remain O(1) and exhibit near-quantized values approximately n log 2. The mixing term is an ansatz used to probe information-theoretic diagnostics and is not claimed to coincide with a Kogut—Susskind plaquette operator. All artifacts (CSV/JSON, figures, and model dumps) are generated in one run and packaged as Overleaf-ready assets.
Category: Quantum Physics

Conditional Mutual Information and Petz Recovery in a Z_2 Lattice Gauge Ground State

Authors: Lluis Eriksson
Comments: 7 Pages.

We study approximate quantum Markov structure in a $mathbb{Z}_2$ lattice gauge ground state using the conditional mutual information (CMI) $I(A:Cmid B(w))$ and the performance of Petz recovery across a family of tripartitions $(A,B(w),C)$ parameterized by a buffer width $w$. We consider a $2times 4$ plaquette lattice with open boundaries and qubits on links, restricted to a gauge-invariant (Gauss-law) physical sector, at coupling $g=1.0$. For each $w$ we compute reduced density matrices, the entropies entering the CMI, and a Petz-recovered state $sigma_{ABC}=(mathrm{id}_Aotimes mathcal{R}^{mathrm{Petz}}_{Bto BC})(ho_{AB})$, reporting fidelity $F(ho_{ABC},sigma_{ABC})$ via the recovery error $E_{mathrm{rec}}(w)=-log F$. The submission includes the plot, a formatted table, raw CSV outputs, and a hash-based manifest to enable independent verification. We also report numerical cross-checks (dense vs. low-rank method agreement and trace stability) to support validity.
Category: Quantum Physics

Program A: Semi-Infinite Conditional Mutual Information in the 1D Transverse-Field Ising Model (iMPS)

Authors: Lluis Eriksson
Comments: 14 Pages.

We study an information-theoretic notion of locality—approximate quantum Markov behavior—via the conditional mutual information (CMI) I(A:C|B(w)) in a semi-infinite geometry of the 1D transverse-field Ising model (TFIM). Using infinite matrix product states (iMPS) with a two-site unit cell, we compute I(A:C|B(w)) as a function of the collar width w separating two semi-infinite regions A and C. In the gapped regime (h = 1.5), we observe a clean exponential decay of the CMI and a rapid plateau of a local effective-length estimator xi_local(w), yielding an early-decay length xi_rec^(early) comparable to the iMPS transfer-matrix correlation length xi_corr. Near criticality (h = 1.005), xi_local(w) increases throughout the accessible range, consistent with a pre-asymptotic regime when w_max << xi_corr; we therefore report a fixed-window effective length and a window-sensitivity range as a systematic uncertainty. The project provides a fully reproducible Colab-to-Overleaf pipeline, including pinned dependencies, data streams, figure/table generation, and integrity hashes for the final uploaded artifacts.
Category: Quantum Physics

Beable Theory for Electron Spin Measurement: Pointer Localization, Spinoru2011Bundle Ontology, and Testable Record Statistics

Authors: Vel Tomanovic
Comments: 11 Pages. (Note by ai.viXra.org Admin: Please cite and list scientific references in a standard manner such as APA style)

We propose a phenomenological, testable objective-collapse framework—the Beable Theory—for electron spin measurements. An electron excitation carries a real internal orientation (a 'beable' field on the spinor bundle S³ → S²) that generates coherent spinor precession, while stochastic collapse localizes a physically instantiated pointer variable encoding measurement records or environmental imprinting. Spin-state definiteness emerges when the spin entangles with distinct pointer configurations, enforcing single-run outcome selection via pointer localization, with ensemble dynamics reducing to pure dephasing in the measurement basis. We derive the reduced spin master equation, identifying the measurement-induced dephasing rate κ_meas with pointer-branch separation and parameterizing an always-on background channel κ_bg. Using published trapped-electron spectroscopy data (Fan et al., Phys. Rev. Lett. 130, 071801 (2023)), we translate the anomaly linewidth budget into an upper bound κ_bg ≲ 5×10^{-2} s^{-1} (order-of-magnitude), with a conservative bound κ_bg ≲ 2×10^{-1} s^{-1} from the full linewidth. The functional scaling in the strong-measurement (quantum Zeno) regime of circuit QED (Slichter et al., New J. Phys. 18, 053031 (2016)) is consistent with the model's dephasing structure. We provide a microscopic derivation of pointer-record noise statistics using continuous-measurement theory, establishing the Born rule via the martingale property of branch weights under diffusive unraveling. The beable modulates the effective measurement axis â_eff(t) in a gauge-invariant way depending only on the Bloch vector ru20d7(t), yielding testable signatures in trajectory-level pointer-record observables (e.g., variance, dwell times). Compatibility with Diósi—Penrose-type gravitational collapse is discussed, identifying κ_bg with a gravity-related rate κ_DP ~ ΔE_G/ħ acting on pointer branches, suppressing macroscopic superpositions while preserving isolated spin coherence. A unified stochastic model and simulation program are outlined for bounding the basis-modulation parameter ε using public data.
Category: Quantum Physics

The Anchored Causality Interpretation: Quantum Field Theories Natural Solution to Measurement

Authors: Kelly Sonderegger
Comments: 36 Pages. Creative Commons Attribution-NonCommercial-NoDerivs 4.0 International License (CC BY-NC-ND 4.0)

Quantum Field Theory (QFT) successfully describes the evolution of probability amplitudes but remains formally agnostic about the physical process by which definite events, causal ordering, and classical experience emerge. We propose the Anchored Causality Interpretation (ACI), which identifies measurement as progressive thermalization through quantum Brownian motion in the omnipresent Higgs field bath. ACI elevates Einstein's result that massless particles experience τ=0 to an ontological principle: quantum fields exist atemporally as pure waves until Higgs-mediated interactions progressively anchor specific observables into temporal existence. The anchoring mechanism applies well-established quantum Brownian motion theory (Caldeira-Leggett, Feynman-Vernon, Hu-Paz-Zhang) to the unique Higgs bath, making anchoring calculable rather than conceptual. Energy conservation is automatic via the fluctuation-dissipation theorem. This framework provides a unified explanation for a diverse body of existing experimental results—weak measurements, variable which-path detection, quantum erasers with partial erasure, and detector-mass-dependent decoherence—all of which demonstrate continuous partial quantum-classical transitions scaling with measurement coupling strength. While other interpretations treat these as distinct phenomena requiring separate explanations, ACI recognizes them as manifestations of a single physical process: incomplete thermalization with the Higgs bath. We further derive distinguishing predictions including a 17.4% mass-dependent difference in decoherence times between carbon-12 and carbon-13 in matter-wave interferometry. ACI resolves the quantum measurement problem without modifying QFT dynamics or introducing hidden variables, treating wave-particle duality as an ontological phase transition driven by Higgs-mediated quantum Brownian motion.
Category: Quantum Physics

Typed Pipeline for Recoverability—Rate—Power Links: A Contract Paper with a Closed Recoverability Lane and Falsification Criteria

Authors: Lluis Eriksson
Comments: 7 Pages.

We present a typed "contract" framework for a multi-layer program connecting (i) static locality/approximate Markovness, (ii) recoverability bounds, (iii) separation-dependent dissipation-rate envelopes, and (iv) thermodynamic maintenance power. Each interface is typed with explicit quantifiers, tagged as PROVED/IMPORTED/ASSUMED/CONJECTURED, and paired with concrete falsification routes. As a closed lane inside the paper, for a finite-dimensional tripartite family we show that an exponential conditional mutual information decay hypothesis implies exponential recoverability, using an imported Fawzi—Renner—type inequality with conventions fixed explicitly. Two minimal examples anchor interpretation: the exact Markov case (CMI = 0) yielding perfect recovery, and a toy dephasing semigroup illustrating the operational meaning of initial coherence-loss rates and envelope quantities.
Category: Quantum Physics

Split-Regularized Recoverability in Type III AQFT: Conditional Expectations, Split-Dependent CMI, and an Audit-Friendly Contract

Authors: Lluis Eriksson
Comments: 6 Pages.

Local algebras in relativistic quantum field theory are typically Type III, so reduced density matrices and von Neumann entropies are not available without additional structure. We give an audit-friendly interface for recoverability in Type III AQFT based on a collar geometry and an explicit split datum N (an intermediate Type I factor). For normal states, we define (i) an N-dependent split-regularized conditional mutual information (CMI) and (ii) a recovery error based on squared Bures fidelity. We isolate as explicit assumptions the two key bridges needed for exponential recoverability in the Type III setting: (a) existence of an omega_0-preserving conditional expectation onto N (a Takesaki-type condition) and (b) an FR-type recoverability inequality in the fixed split implementation, with conventions and constants tracked explicitly to prevent drift. We then prove a conditional statement: if the split-regularized CMI decays exponentially in the collar width and the FR-type inequality holds in that split, then the recoverability error decays exponentially with explicit constants. The note is intended as a typed "contract" for importing model-specific inputs while keeping all split dependence and assumptions transparent.
Category: Quantum Physics

RIP-U and the ω=0 Obstruction in Davies Dynamics: Upper Envelopes, Witness Floors, and Falsification Protocols for Separation-Dependent Decoherence Rates

Authors: Lluis Eriksson
Comments: 6 Pages.

We isolate the dynamical hinge in typed separation—rate—power pipelines within the finite-dimensional Davies (weak-coupling, Markovian) setting. First, we formulate an upper-envelope statement (RIP-U): assuming a factorized bath-correlation bound with separation-dependent amplitude f(ε) and an integrable time profile, the Fourier-transformed Davies rate coefficients inherit an O(f(ε)) envelope. Under explicit regularity conditions preventing trivial degeneracies, and an explicit bridge assumption linking rate envelopes to instantaneous coherence-loss ratios, this yields a worst-case bound κ↑(ε) ≤ C f(ε) for the relative instantaneous loss rate of a Δ-track coherence functional. Second, we isolate a structural obstruction to lower-envelope statements: we prove an exact identity for the ω=0 contribution to the Davies Dirichlet form, showing it equals (γ(0)/2)u2016[S(0),O]u2016²_{2,σ} for observables O, and derive a witness mechanism demonstrating how ω=0 channels can enforce a non-vanishing dissipation contribution for suitable observable families. We emphasize directionality: RIP-U (upper) does not imply a positive lower envelope κ↓(ε) without additional family-qualified assumptions, and we provide falsification routes for each assumption.
Category: Quantum Physics

Petz Recoverability Versus Wilson-Loop Diagnostics in Z2 Lattice Gauge Theory (2+1D): Benchmarks by Exact Diagonalization and Tensor-Network Ladders

Authors: Lluis Eriksson
Comments: 20 Pages.

We provide reproducible finite-size benchmarks testing whether a Petz-type recoverability proxy correlates with Wilson-loop confinement diagnostics in Z2 lattice gauge theory in 2+1 dimensions. First, we present an exact-diagonalization benchmark on 2x2 and 2x3 plaquette lattices with open boundary conditions and a Gauss-law penalty term, verifying numerically that the gauge constraint is satisfied (min and mean gauge-generator expectation values are ~1). We compute a trace-renormalized, regularized Petz-type recoverability error for separated subsystems and compare it to confinement proxies based on Wilson loops and Creutz ratios, interpreted as an effective string tension; in 2+1 dimensions the natural confinement-length proxy is the inverse effective string tension. We then extend to larger systems using TeNPy DMRG on ladder geometries 2xL and report multi-L trends as well as a bond-dimension stability check. In the ladder tensor-network part we report recoverability as a function of a contiguous buffer size in MPS site ordering (proxy), rather than the BFS collar width used in the ED part. All plots and CSV data can be regenerated using the scripts provided in the appendix.
Category: Quantum Physics

Cmi-Based Recoverability Versus Wilson-Loop Diagnostics in Z2 Lattice Gauge Theory (2+1D): Exact Diagonalization Benchmark on Small Open Lattices

Authors: Lluis Eriksson
Comments: 16 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

We provide a finite-size benchmark testing whether a CMI-based recoverability proxy correlates with Wilson-loop confinement diagnostics in Z2 lattice gauge theory in 2+1 dimensions. We compute ground states by sparse exact diagonalization on 2x2 and 2x3 open lattices for a standard link-qubit Hamiltonian with a Gauss-law penalty term, biasing the gauge-invariant sector (verified numerically by approximately 1). We evaluate entropic quantities using pure-state Schmidt decompositions (SVD) without constructing reduced density matrices. For the benchmark we take d_edge = 2, hence Sigma_B(w) = |partial B(w)| log 2. We provide reproducible code to rerun the experiment in Colab.
Category: Quantum Physics

Analytical Validation of Heptagonal Unitary Field Theory (HUFT) and the Zero-Time Transport (ZTT) Protocol

Authors: Natasha Zink
Comments: 8 Pages. (Note by ai.viXra.org Admin: For the last time, author name is required in the article after article title, the abstract should be labled as such, and please cite listed scientific references)

The emergence of Heptagonal Unitary Field Theory (HUFT), as articulated in the foundational documents provided and the research profile of Natasha Zink, represents a radical departure from traditional particle-based ontologies in theoretical physics. By reconceptualizing the universe as an emergent submanifold M^{4} embedded within a seven-dimensional toroidal manifold T^{7}, HUFT attempts to provide a unified geometric framework that accounts for gravity, quantum information preservation, and non-local transport. This report provides an exhaustive verification of the scientific bases of HUFT and the Zero-Time Transport (ZTT) protocol, tracing their mathematical lineage through G_{2} holonomy, spectral signal processing, and high-dimensional lattice theory.
Category: Quantum Physics

Petz Recoverability Versus Wilson-Loop Diagnostics in Z2 Lattice Gauge Theory (2+1D)

Authors: Lluis Eriksson
Comments: 14 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

We provide a finite-size benchmark testing whether a Petz-type recoverability proxy correlates with Wilson-loop confinement diagnostics in Z2 lattice gauge theory in 2+1 dimensions. We compute ground states by sparse exact diagonalization on 2x2 and 2x3 plaquette lattices with open boundary conditions, using qubits on links and biasing the gauge-invariant sector via a Gauss-law penalty (verified numerically by ~ 1 for all vertices). For opposite-corner plaquette patches A and C, we define a buffer B(w) by BFS thickening in the link-adjacency graph (with w=0 denoting an empty buffer) and evaluate a trace-renormalized, regularized Petz-type recoverability error E_rec_Petz(w) = -log F(rho_ABC, rhohat_ABC(w)). As a confinement proxy we use Wilson loops and the Creutz ratio chi(2,2), treated as an effective string tension sigma_eff. In 2+1 dimensions the natural confinement-length proxy is 1/sigma_eff. Across couplings g we observe that larger 1/sigma_eff correlates with larger fixed-collar recovery error E_rec_Petz(w=1) (small-lattice benchmark).
Category: Quantum Physics

Petz Recoverability in Aqft Via Conditional Expectations: a Framework and a Conditional Exponential Recovery Bound

Authors: Lluis Eriksson
Comments: 9 Pages.

We formulate an operational notion of recoverability in algebraic quantum field theory (AQFT) for type III local von Neumann algebras. Fixing a faithful normal KMS reference state and assuming the existence of a state-preserving conditional expectation, we define a Petz-type recovery channel as the Petz dual (Accardi-Cecchini adjoint). To make tripartite tensor-product notation meaningful, we work in a fixed split implementation for each separation parameter r. For a tripartition A-B-C with B a collar separating A from C, we assume (i) exponential decay of split-implemented conditional mutual information and (ii) a CMI-to-recovery inequality for the chosen Petz-type map. Under these explicit bridge assumptions we obtain a conditional exponential recoverability bound of the form E_rec(r) <= g(C * exp(-m * r)), and in particular E_rec(r) <= C' * exp(-m * r) when g is locally linear. We include a finite-dimensional warm-up, prove finite-dimensional consistency of the Petz-dual definition with the standard Petz map, and discuss how nuclearity or modular nuclearity may support a future derivation of the bridge assumptions. The main theorem is therefore a conditional framework statement: it isolates AQFT-correct algebraic ingredients for Petz-type recovery in type III settings and makes the missing bridge assumptions explicit.
Category: Quantum Physics

Recoverability Length Scales and Wilson Loops in Lattice Gauge Theories: Protocol, Definitions, and Conjectural Links to Confinement Diagnostics

Authors: Lluis Eriksson
Comments: 14 Pages.

We propose a numerical protocol and a set of falsifiable conjectures relating quantum-information recoverability measures to confinement diagnostics in lattice gauge theories. For a tripartition A-B-C on a finite lattice and a collar width w, we define a Petz-type recovery error E_rec_Petz(w) based on fidelity and extract an associated recoverability length scale from threshold and fit-based criteria. Since gauge constraints obstruct naive subsystem factorization, we formulate the protocol in an extended-Hilbert-space (EHS) prescription by default, while also outlining an algebraic (gauge-invariant observable) variant and its subtleties (centers, sector decompositions). We specify a practical regularization for Petz-type reconstruction when rho_B is not full rank and discuss normalization conventions in numerics. We then formulate conjectures that E_rec_Petz(w) decays exponentially in gapped phases and that its decay scale tracks confinement scales set by Wilson loops, such as an effective string tension extracted from area-law fits or Creutz ratios. We do not claim a theorem-level confinement result; the paper is a self-contained protocol and roadmap intended to be tested on small lattices (exact diagonalization or tensor networks) and, where reduced states are accessible, by Monte Carlo plus replica methods. As a control experiment we include TFIM data validating the pipeline and illustrating the growth of the recoverability length near criticality.
Category: Quantum Physics

Recoverability Geometry: Distances and Embeddings from Quantum Markov Data

Authors: Lluis Eriksson
Comments: 9 Pages.

We propose an operational route from recoverability data to effective geometry. Given a tripartition A-B(w)-C and a collar width w, we consider a Petz-type recoverability error E_rec_Petz(w) defined via fidelity and extracted from a fixed collaring rule that maps (A, C, w) to a buffer region B separating A from C. We then define distance-like functionals from the minimal buffer needed to suppress E_rec_Petz(w) below a threshold, and from exponential fit scales when such a regime exists. These can be organized into a generally non-metric dissimilarity matrix on coarse regions, symmetrized when needed, and embedded into low-dimensional spaces using multidimensional scaling or diffusion maps. The paper emphasizes precise definitions (collaring rule, symmetrization, censoring below numerical floors) and falsifiable diagnostics (approximate triangle inequalities, robustness to thresholds and regularization). A minimal control experiment in the one-dimensional transverse-field Ising model illustrates the pipeline and the growth of a recoverability length near criticality.
Category: Quantum Physics

Emergent Information Distance from Petz Recovery: Temperature and Perturbation Dependence in TFIM Exact Diagonalization

Authors: Lluis Eriksson
Comments: 8 Pages.

We define an operational notion of effective distance from approximate quantum state recovery. Given a tripartition A-B-C with B a collar of width w separating A from C, we compute a Petz-based reconstruction error EP(w) = -log F(rho_ABC, rho_tilde_ABC(w)), where F is the squared Uhlmann fidelity, and define an emergent distance deff(epsilon) as the minimal collar width w such that the best-achieved error up to w falls below a target threshold epsilon. Using exact diagonalization data for the transverse-field Ising chain at N = 11 and |A| = 2, we find that deff(1e-3) grows strongly with inverse temperature beta in the unperturbed case (hz = 0), from 1.00 at beta = 0.5 to 3.57 at beta = 5.0, while it remains near-minimal in the longitudinally perturbed case (hz = 0.5), staying close to 1.0 across the same temperature range. We also introduce a discrete curvature diagnostic based on second differences of log EP(w) on a pre-floor window and report when this diagnostic is identifiable given the available window and numerical floor. Robustness is assessed by varying epsilon and by a minimal N = 12 spot-check.
Category: Quantum Physics

Finite-Size Scaling of Petz Recovery Length in the Tfim: Threshold-Dependent Operational Exponents from Exact Diagonalization

Authors: Lluis Eriksson
Comments: 5 Pages.

We study finite-size scaling of an operational recovery length extracted from Petz-map recovery in the transverse-field Ising chain (TFIM). For a tripartition A-B-C of a 1D chain with a collar B of width w separating A from C, we define a recovery error E_Petz(w) = -log F(rho_ABC, rho_rec(w)), where F is the squared Uhlmann fidelity, and an effective recovery distance d_eff(eps) as the minimal collar width achieving E_best(w) <= eps, where E_best(w) = min_{w'<=w} E_Petz(w'). Using exact diagonalization at h_z = 0 and beta = 12 for N in {9, 10, 11, 12}, we analyze the peak height d_eff_max(eps; N) = max_{h_x} d_eff(eps; N, h_x) in a censoring-free threshold regime. We find power-law growth d_eff_max(eps; N) ~ N^{kappa(eps)} with a threshold-dependent exponent, e.g. kappa(3e-3) about 0.44 and kappa(5e-3) about 0.26 over this size range. The peak location h_x*(N) drifts toward the critical region as N increases; however, the drift exponent extracted from |h_x*(N) - 1| ~ N^{-1/nu_eff} is threshold-dependent in this finite-size, finite-temperature window, and we report it as an effective operational exponent rather than a universal estimate of the TFIM correlation-length exponent.
Category: Quantum Physics

Operational Signatures of Criticality from Petz Recovery: Collar-Length Requirements in TFIM Exact Diagonalization

Authors: Lluis Eriksson
Comments: 5 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

We study whether recovery-based operational distances exhibit a distinctive finite-size signature near quantum criticality. For a tripartition A-B-C of a 1D chain with a collar B of width w separating A from C, we compute a Petz-based reconstructed state and the corresponding recovery error E_Petz(w) = -log F(rho_ABC, rho_rec(w)), where F is the squared Uhlmann fidelity. We define an effective recovery distance d_eff(eps) as the minimal collar width needed to achieve error below a target threshold eps, using E_best(w) = min_{w' <= w} E_Petz(w') to stabilize non-monotonicity. Using exact diagonalization of the transverse-field Ising chain at N = 11 with |A| = 2, we sweep the transverse field h_x across the critical region at h_z = 0 and compare to a longitudinally perturbed control at h_z = 0.5. We find pronounced growth and extensive censoring of d_eff(eps) in the critical region at low temperature, while the perturbed control remains comparatively featureless. An extended-collar spot-check partially resolves the censoring and yields d_eff(1e-3) about 7.6-7.7 at beta = 12 near h_x = 0.96 and h_x = 1.00, indicating an operational recovery length scale of order eight lattice sites at this system size.
Category: Quantum Physics

A Non-Gaussian Clustering--Recovery Bridge via Conditional Mutual Information

Authors: Lluis Eriksson
Comments: 9 Pages.

We present a quantitative clustering—recovery bridge for interacting quantum many-body systems based on conditional mutual information (CMI). For a geometric tripartition A—B—C in which B is a buffer (collar) of width w separating A from C, we show that an exponential geometric Markov bound I(A:C|B) <= K exp(-alpha w) implies exponentially accurate recovery of the state on ABC from its marginal on AB in the metric -log F, where F is the (Uhlmann) fidelity, by combining the Fawzi—Renner inequality with a simple conversion to fidelity error bounds.We then obtain a rigorous interacting setting (in a shielded small-region geometry) at arbitrary temperature by invoking local Markovness results for finite-range lattice Gibbs states. Numerically, we benchmark the mechanism in the transverse-field Ising chain with longitudinal field, comparing an integrable regime (h_z = 0) and a non-integrable regime (h_z = 0.5), and we evaluate the explicit Petz recovery map. We adopt a censored log-plotting and fit protocol that avoids numerical-floor artifacts and report decay-rate estimates only when at least three pre-floor points are available. Finally, motivated by the quantum error-correction interpretation of subregion duality, we state a conditional application to entanglement wedge reconstruction, separating proved information-theoretic content from bulk—boundary interface assumptions.
Category: Quantum Physics

Modular Recovery from Split Inclusions: B-Minimal Bridge from QFT Collar Geometry to Approximate State Reconstruction

Authors: Lluis Eriksson
Comments: 7 Pages.

In algebraic quantum field theory (AQFT), local algebras are typically Type III factors, so density matrices and von Neumann entropies are not available for bounded regions. We present a B-minimal continuum analog of the lattice "collar -> approximate Markov property -> recovery" mechanism by combining: (i) the split property as a mathematical replacement of a buffer (collar), (ii) Araki relative entropy to define a split-regularized conditional mutual information relative to a fixed choice of Type I interpolating data, and (iii) modular/twirled Petz recovery as an explicit candidate recovery channel. Conditional on an FR-type recoverability inequality in this fixed-split setting, we obtain quantitative recovery bounds in a fidelity-based error metric (purified distance). We conclude with a conditional holographic remark in the spirit of the quantum error-correction interpretation of subregion duality.
Category: Quantum Physics

From Static Recoverability to Maintenance Power: A Typed Pipeline with ω=0 Obstructions

Authors: Lluis Eriksson
Comments: 14 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

We study when geometric separation in gapped quantum systems yields a genuine reduction in thermodynamic resources required to maintain coherence against uncontrolled open-system dynamics. Our analysis separates three layers. First, in a regularized Gaussian split regime motivated by algebraic QFT, we state an explicit static reconstruction bound: collar suppression of vacuum cross-correlations enables approximate state recovery via the Petz map with fidelity error controlled by a cross-block recovery norm. Second, we show why static recoverability does not automatically imply suppression of dynamical decay rates: fixed-point structure and Bohr-zero (omega=0) channels can generate obstructions invisible to static clustering alone. We formalize this obstruction using an exact omega=0 Dirichlet identity and implement finite-size commutator-witness diagnostics in the transverse-field Ising chain (one-site and two-site Pauli test families), finding no evidence—within the tested sizes—for an omega=0 floor that is independent of system size (with an extended one-site check at N=14 consistent with the observed trend). Third, we give a self-contained finite-dimensional core linking coherence loss to incremental maintenance power under an explicit battery-assisted thermal-operations model (with paired strategies), and we state a typed rate-inheritance hypothesis identifying precisely what additional dynamical input is required to propagate collar suppression into power suppression on an operational target family. We conclude with a Type III blueprint for extending the pipeline to AQFT.
Category: Quantum Physics

Hadron Masses from Topological Vortex Rings: A Confinement Model Without Gluons

Authors: Alexander Mats
Comments: 6 Pages. Developed with AI assistance for calculations, formatting, and figures. All results independently verified. Code available upon request.

This work presents a topological framework for quark confinement in which gluons emerge as induced flow fields between vortex rings rather than as fundamental particles. Quarks are modeled as quantized vortex rings with specific (p,q) torus knot winding numbers, and hadrons arise from topologically linked configurations: Hopf fibrations for mesons (linking number Lk=1) and Borromean rings for baryons (triple linking L₃=1). The model predicts hadron masses with sub-1% accuracy using zero adjustable parameters, with confinement arising purely from topological linking energy. Key results include: proton mass predicted to 938.27 MeV (measured 938.27 MeV, error <0.001%); pion mass 139.6 MeV (measured 139.6 MeV, error <0.01%); confinement string tension σ≈0.18 GeV² consistent with lattice QCD. The framework makes four testable predictions: (1) glueballs do not exist as distinct particles; (2) jet fragmentation exhibits vortex-cascade signatures distinct from gluon splitting; (3) confinement potential is purely linear V(r)=σr with no Coulombic term; (4) pentaquark lifetimes determined by topological barriers. This work was developed by an independent researcher Alexander Mats (registered nurse by profession) with AI assistance (Claude by Anthropic, ChatGPT by OpenAI) for mathematical calculations, LaTeX formatting, and figure generation. All results have been independently verified against experimental data from the Particle Data Group (2024).
Category: Quantum Physics

The Rate Inheritance Principle: Operational Decoherence-Rate Envelopes and Stress Tests in Gapped Lattice Surrogates

Authors: Lluis Eriksson
Comments: 7 Pages.

We study the relation between geometric separation and dynamical decoherence rates in gapped open quantum systems. We formulate the Rate Inheritance Principle (RIP) as an operational hypothesis: an effective coherence-loss rate extracted from local dynamics can inherit the same distance-suppression envelope as static correlations across an interface of width ε. To avoid quantifier pitfalls, we define a trajectory-averaged operational rate proxy from a fixed protocol, based on the decay of a local relative-entropy coherence functional and a trace-distance influence proxy comparing noisy evolution to an isolated unitary baseline. We implement reproducible numerical stress tests in a gapped 1D transverse-field Ising chain with remote noise acting on a contiguous "environment block" at distance ε. Using TeNPy tensor-network simulations and bootstrap uncertainty estimation, we perform model selection between a pure exponential envelope and an exponential-with-floor model. For the influence proxy considered here, we find no statistically identifiable nonzero floor over the explored separations, and the data exhibit non-monotonic structure consistent with coherent propagation effects in finite-time windows. In contrast, an operatorial Davies-type analysis provides a clean failure mechanism: near-zero Bohr-frequency channels can induce distance-independent rate floors despite static clustering. These results motivate RIP as a falsifiable, observable-dependent interface principle and delineate practical conditions under which geometric protection of dynamical decoherence rates should or should not be expected.
Category: Quantum Physics

Geometric Markov Bounds and Rate Inheritance Modulo Fixed Points: A Scalar Entropic Interface from Static Locality to Davies Dynamics

Authors: Lluis Eriksson
Comments: 12 Pages.

We propose an entropic interface between locality, recoverability, and dynamical decay rates across a geometric collar. The central scalar invariant is the conditional mutual information (CMI) Iρ(A : C|B), where B is a buffer separating A and C. In finite dimension (Type I algebras), the Fawzi—Renner theorem implies that small CMI yields a quantitative recovery channel acting on B. We formulate a volume-uniform geometric Markov bound with a boundary prefactor, IρΛ(A : C|B) ≤ σ(∂B) g(w), and summarize recent literature inputs establishing exponential CMI decay in shielded/high-temperature regimes. On the dynamical side, we formulate a Rate Inheritance Principle (RIP) for Davies/KMS-symmetric generators: static Markovness across the collar constrains decay rates on the fast sector F⊥ modulo the fixed-point algebra F = kerL (the ω = 0 floor), with a dynamical input stated as a Poincar´e inequality for a local collar Dirichlet form. The only remaining nontrivial link is isolated as an explicit Dirichlet comparison assumption. We also verify a diagonal (classical) heat-bath comparison and derive a diagonal subsector corollary with an explicit transfer coefficient. Finally, we define a split reduction datum and a split-regularized CMI target quantity for an AQFT lift and include finite-size illustrations/diagnostics.
Category: Quantum Physics

Prefix-Path Bell Transport on IBM Quantum Hardware: High-Resolution Replication, Comparative Geometry Dependence, and Stress Tests of a Static—Dynamic Link

Authors: Lluis Eriksson
Comments: 11 Pages.

This note reports a replicated, high-resolution Bell-transport experiment on IBM Quantum superconducting hardware using a prefix-path protocol that controls spatial heterogeneity across transport lengths. A single physical qubit chain is fixed and increasing transport length L is realized via prefixes of that chain, so that L changes depth while keeping qubits nested rather than switching to different qubit subsets.We reconstruct the Bell-state fidelity F_{Phi+}(L) from Pauli correlators E_{XX}, E_{YY}, E_{ZZ} and apply a minimal drift correction using interleaved full-Phi+ control blocks. Beyond a single-chain sweep (high-resolution run), we perform a comparative geometry test across three disjoint physical chains on the same backend. The effective decay scale extracted from the same protocol differs significantly across chains (with >10 sigma separations), providing operational evidence that the transport decay scale is geometry-dependent under fixed compilation constraints.Motivated by the Rate Inheritance Principle (RIP) framing, we also investigate whether a phase-sensitive static correlation metric measured on idle chains can predict dynamical transport decay. A curated three-chain set exhibits an ordering agreement between a static Ramsey-X nearest-neighbor covariance metric and the transport decay scales mu measured on the same chains. However, scale-up studies over n=18 randomly sampled chains and a preregistered out-of-sample prediction test do not show statistically significant monotone association under permutation testing. Accordingly, we interpret the static—dynamic ordering agreement as conditional and geometry-specific under the present operationalization, while the geometry dependence of dynamical decay is robust.
Category: Quantum Physics

Heat Kernel Methods and the Sign of Induced Gravity: Resolving Conventions via the Laplacian—Lichnerowicz Identity

Authors: Lluis Eriksson
Comments: 8 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

We derive the local one-loop term proportional to the scalar curvature R in the Euclidean effective action induced by integrating out matter fields on a curved background. Using Schwinger proper-time regularization with cutoff ε = Λ^{-2} and the Seeley—DeWitt coefficient a1, we extract the quadratically divergent contribution proportional to ∫ d^4x √g R. We fix a single Euclidean convention for the Einstein—Hilbert action, specify the Laplacian sign convention, and make the Laplacian—Lichnerowicz identity explicit to remove sign ambiguities in the fermionic sector. We provide a unified bookkeeping coefficient A1^(eff) for scalars, fermions, and gauge+ghost packages, and the corresponding induced Newton coupling within the stated scheme. A compact species table and a minimal reproducible computation snippet are included.
Category: Quantum Physics

Beyond Gaussianity: Extending the Clustering—Recovery Bridge

Authors: Lluis Eriksson
Comments: 9 Pages.

We formulate a non-Gaussian, finite-volume, and uniform-in-Λ extension of the clustering—recovery bridge for interacting lattice systems. Using an explicit collar geometry with buffer width w, we propose that uniform exponential clustering implies approximate quantum Markov structure and the existence of a recovery channel acting on the buffer whose reconstruction error decays exponentially in w. We relate this formulation to conditional mutual information via the Fawzi—Renner bound and discuss an operational Heisenberg-picture quasi-locality strengthening for recovery. We provide finite-size numerical evidence in 1D transverse-field Ising model Gibbs states by comparing Petz and averaged rotated-Petz recovery. The data show exponential-in-w decay of recovery errors and reveal a consistent prefactor—slope trade-off: rotated-Petz can be better at small buffer width while Petz often exhibits a faster decay and overtakes beyond a modest crossover width.
Category: Quantum Physics

The Active Inference Organ : A SEDP-Locked Account of Bounded Agency and Persistent Selves

Authors: Michael Zot
Comments: 7 Pages.

This paper treats active inference as an organ-level physical mechanism rather than a metaphor or purely cognitive theory. Using the System Emergence Discovery Protocol (SEDP), we reconstruct active inference as a composed functional system that produces bounded, persistent observers from noisy sensory inputs and limited action channels. The analysis frames active inference as a process theory derived from the Free Energy Principle, in which a system maintains structural and functional integrity by minimizing variational free energy through coupled perception and action, conditioned on a statistical boundary defined by a Markov blanket.Active inference is formalized as a mapping from local measurement records at a boundary to bounded internal states, action policies, and maintained separation between internal and external degrees of freedom. Markov blankets are treated strictly as conditional independence boundaries, variational free energy as a computable upper bound on surprise, and thermodynamic persistence as local maintenance through dissipation rather than any violation of the second law. The framework is constrained by explicit SEDP locks, including an operational definition, a unified success predicate, lesion-style failure modes, minimality arguments, and empirical witness classes.The paper argues that active inference functions as an "observer organ" that enables agents to persist long enough to sample, store, and act on records. In this sense, it can be treated as upstream of the Objectivity Organ, which produces stable, shared facts in the environment. Together, these mechanisms clarify how observers and objective facts can co-emerge from the same physical substrate without invoking privileged access, consciousness assumptions, or metaphysical primitives. Clinical interpretations are discussed cautiously as mechanistic hypotheses about precision weighting rather than diagnostic claims.
Category: Quantum Physics

Spontaneous Subatomic Mass-Energy Interconversion as a Physical Origin of Wave-Particle Duality

Authors: Rudolph Elliot Willis
Comments: 5 Pages.

Wave—particle duality is a foundational feature of quantum mechanics, yet the physical processes underlying single-particle interference remain an open question. Here I investigate a dynamical mechanism based on spontaneous stochastic mass—energy interconversion at subatomic scales. By allowing particle mass to fluctuate in time, consistent with Einstein’s mass—energy equivalence, I derive a modified Schrödinger equation containing a stochastic kinetic-phase term. Applying this framework to the double-slit experiment, I show that interference arises from coherent, path-dependent phase accumulation while remaining fully compatible with localized detection events described by standard quantum mechanics. The model yields a closed-form expression for fringe visibility, predicts a characteristic momentum- and mass-dependent decoherence rate, admits a path-integral formulation, and enables direct experimental bounds using existing neutron, electron, and atom interferometry data. These results provide a physically motivated, testable mechanism underlying quantum interference without altering the formal axioms of quantum mechanics.
Category: Quantum Physics

Technical Appendix: Heat Kernel, Fermions, and the Sign of Induced Gravity (Sign Conventions Fixed; Laplacian/Lichnerowicz Hinge Made Explicit)

Authors: Lluis Eriksson
Comments: 7 Pages.

We derive the local contribution proportional to the scalar curvature R in the Euclidean one-loop effective action obtained by integrating out matter fields on a curved background. Using a Schwinger cutoff ε = Λ^{-2} and the Seeley—DeWitt coefficient a1, we extract the quadratically divergent term multiplying ∫ d^4x sqrt(g) R. We fix a single Euclidean convention for the Einstein—Hilbert action, state an explicit Laplacian convention, and write the Lichnerowicz/Weitzenböck identity in a sign-robust form so that the fermionic contribution is unambiguous. We provide a unified bookkeeping coefficient A1^(eff) such that W_R^total = -(A1^(eff)/(32π^2)) Λ^2 ∫ d^4x sqrt(g) R, and hence an induced Newton constant G_ind via comparison with the Euclidean Einstein—Hilbert action. We also include the minimal gauge+ghost package in background Feynman gauge, a species table, and a short reproducible numerical snippet.
Category: Quantum Physics

Geometry, Membranes, and Life as a Resource Boundary: A Correct-by-Construction Operational Pipeline from Static Suppression to Maintenance Costs

Authors: Lluis Eriksson
Comments: 10 Pages.

We present an operational research program linking (i) geometry as suppressibility of cross-region influence, (ii) membranes as engineered interfaces implementing that suppressibility, and (iii) life as sustained maintenance of internal organization under finite resources. The framework composes: a law-grade thermodynamic inequality relating incremental maintenance power to the instantaneous loss rate of an organization functional; a static geometric suppression layer in which cross-interface leakage admits an envelope of the form poly(mε)e^{-mε} (with Kν(mε) as a canonical representative in massive homogeneous models); and a dynamical hinge, the Rate Inheritance Principle (RIP), connecting static suppression to separation-dependent effective dynamical rates. To avoid sign and quantifier errors, we distinguish upper and lower rate envelopes κ↑(ε) and κ↓(ε) and state precisely which claims require which envelope. We further separate a law-grade Δ-track (energy pinching) from a conditional biology-grade E-track (general conditional expectations). We add two interface anchors: a recoverability layer via conditional mutual information and the Fawzi—Renner guarantee, and a minimal Davies interface lemma showing how correlator envelopes imply Davies-rate envelopes in standard weak-coupling settings. We propose a concrete electrical testbed using membrane-embedded spin probes to measure dephasing-rate envelopes and detect near-zero-frequency rate floors that yield a resource horizon. A dependency and falsification matrix is provided to make the logical structure audit-friendly.
Category: Quantum Physics

Operational Coherence Maintenance and the Quantum--Classical Boundary: Formal Definitions, Falsifiable Protocols, and an Outlook for Cognitive Systems

Authors: Lluis Eriksson
Comments: 13 Pages.

Maintaining quantum coherence against uncontrolled open-system dynamics is a control task with unavoidable thermodynamic cost. In a finite-dimensional setting with battery-assisted thermal operations at bath temperature T, we define an incremental (extra) maintenance power P_extra(rho) that isolates the cost of stabilizing coherence at fixed populations. For Markovian uncontrolled dynamics rho_t = exp(t L)(rho) we prove a single-law lower bound P_extra(rho) >= k_B T * Cdot_loss(rho), where C(rho) = S(rho || Delta[rho]) is relative-entropy coherence to energy pinching Delta and Cdot_loss(rho) := - d/dt C(rho_t) at t=0. This statement is operational, observer-independent, and geometry-free.We then formulate a falsifiable dynamical bridge between static locality/clustering and decoherence rates: the Rate Inheritance Principle (RIP). Using an operatorial Dirichlet-form identity, we highlight a concrete failure mode whereby near-zero Bohr-frequency channels can induce distance-independent rate floors, despite static clustering. These ingredients motivate a purely operational notion of a "cut": a resource boundary separating maintainable coherence from regimes where classical-like effective descriptions are enforced under finite control budgets.We provide falsifiable protocols that distinguish static one-shot work from sustained maintenance power across quantum platforms and interface geometries, including a numerical stress test (uniform floor versus collar-induced suppression) in a gapped transverse-field Ising chain with remote dissipation. Finally, we offer an Outlook for cognitive systems as resource-limited physical agents, connecting the operational resource boundary to the Free-Energy Principle at a methodological (non-phenomenological) level. We do not propose collapse mechanisms, do not derive the Born rule, and make no claims about phenomenological consciousness.
Category: Quantum Physics

Finite-Dimensional Davies Interface Lemmas and TFIM Witness Tests for the Heisenberg Cut as a Resource Boundary

Authors: Lluis Eriksson
Comments: 22 Pages.

We present a finite-dimensional technical core for interpreting the quantum—classical boundary as a control-resource limitation: a state is operationally "classical" (relative to a chosen conditional expectation) whenever sustaining coherence is infeasible under a finite available power budget.Using battery-assisted thermal operations at temperature T and energy pinching Δ, we quantify coherence by C(ρ)=S(ρ||Δ[ρ]) and define its instantaneous loss rate under uncontrolled Markovian dynamics. An imported maintenance inequality yields the operational bound P_extra(ρ) ≥ k_B T · dotC_loss(ρ).We isolate the dynamical hinge required for geometric scaling claims: the relation between geometric separation and effective decoherence rates. In Davies generators we provide interface lemmas: an exact ω=0 Dirichlet identity implying witness-based lower bounds via a KMS commutator with S(0), and a sufficient envelope-suppression lemma under explicit infrared exclusion plus a quasi-local spectral-tail hypothesis.Finally, we provide TFIM exact-diagonalization witness protocols computing R(ε) and optimized local witnesses R_opt(ε), including scaling tests with ε=ε(N) and temperature sweeps over β. We also report state-side micro-tests on weak-coherence families, confirming plateau behavior of dotC_loss/C and controlled ω=0 scaling in γ(0) and β, with numerical stability checks.
Category: Quantum Physics

The Rate Inheritance Principle: From Static Correlations to Dynamical Decoherence Rates

Authors: Lluis Eriksson
Comments: 6 Pages.

In gapped open quantum systems with localized couplings, static correlations across an operational interface of width ε are exponentially suppressed by the mass gap. Independently, the energetic cost of maintaining quantum coherence is governed by the rate at which coherence is lost under uncontrolled dynamics. What is currently missing is a principled connection between these two facts: how geometric suppression of static correlations constrains dynamical decoherence rates.We formulate the Rate Inheritance Principle (RIP): the hypothesis that effective coherence-loss rates inherit the same suppression envelope as static correlations across an operational interface. We distinguish a weak upper-envelope form, which admits partial microscopic support, from a stronger envelope-class conjecture. We analyze microscopic plausibility within Davies-type weak-coupling dynamics, provide surrogate numerical evidence using tunable buffer-chain models, and identify explicit failure modes. RIP is presented as a falsifiable hypothesis with clearly delimited scope.When combined with independently established maintenance-power bounds, RIP supplies the missing dynamical input needed to interpret the quantum—classical transition as a resource boundary rather than an interpretational postulate.
Category: Quantum Physics

Operational Coherence Maintenance: Proven Results, Conditional Interfaces, and Open Dynamical Gaps

Authors: Lluis Eriksson
Comments: 4 Pages.

Maintaining quantum coherence against uncontrolled open-system dynamics is an operational control task with unavoidable thermodynamic cost. In finite dimensions, explicit lower bounds on the minimal power required to stabilize coherence can be derived under standard Markovian assumptions, independently of geometric or field-theoretic structure.At the same time, many model-specific results indicate that static correlations in gapped systems are geometrically suppressed, raising the question of how such suppression might influence dynamical decoherence rates and, consequently, coherence-maintenance power. Bridging these two domains requires additional dynamical input that is not provided by static clustering alone.This article does not introduce new technical results. Instead, it provides an architectural closure of the coherence-maintenance program by explicitly separating: (i) results that are proven without additional structure, (ii) conditional interfaces that depend on standard open-system dynamics or geometric assumptions, and (iii) open dynamical hypotheses. In particular, we identify rate inheritance—the relation between static correlation envelopes and effective decoherence rates—as the unique unresolved hinge on which geometric scaling arguments depend.By making this logical structure explicit, the framework remains robust under partial refutation: even if specific inheritance hypotheses fail, coherence maintenance remains a well-defined operational resource with unavoidable dynamical costs. The purpose of this paper is architectural rather than technical.
Category: Quantum Physics

Stress Testing the Rate Inheritance Principle: Spectral Decoherence Rates and an Operational Resource Horizon

Authors: Lluis Eriksson
Comments: 5 Pages.

In gapped quantum many-body systems, static correlations decay exponentially with distance. A common heuristic expectation is that this geometric suppression carries over to dynamical decoherence rates induced by local environments. This expectation has been isolated as the Rate Inheritance Principle (RIP).We perform a direct stress test of RIP in a fully specified Davies-type Markovian setting. We consider a one-dimensional gapped spin chain weakly coupled to a thermal bosonic bath through a strictly local system operator supported near a site j0. To avoid ambiguities associated with state preparation, we formulate RIP operatorially: for operators supported at distance ε from the coupling region, we define an effective decay-rate envelope κ(ε) from the Heisenberg-picture Liouvillian.Numerical results show that rate inheritance is conditional. In energy-exchange-dominated regimes, κ(ε) decreases with separation, consistent with geometric suppression. In contrast, in regimes dominated by near-zero-Bohr-frequency channels, κ(ε) can saturate with distance despite static clustering. Combined with standard thermodynamic maintenance bounds, these results yield an operational resource horizon: whenever effective rate floors persist under increasing separation, sustained coherence becomes impossible under finite available power.
Category: Quantum Physics

The Heisenberg Cut as a Resource Boundary: An Operational Outlook from Coherence Maintenance Costs

Authors: Lluis Eriksson
Comments: 11 Pages.

We propose an operational reinterpretation of the quantum—classical transition: classical-like behavior coincides with regimes where sustaining coherence becomes resource-infeasible under available control budgets. The quantitative framework draws on two companion preprints: (i) lower bounds on coherence-maintenance power under battery-assisted thermal operations, and (ii) geometric suppression envelopes in massive Gaussian split configurations. We separate one-shot work costs (static) from maintenance power costs (dynamic) and isolate the unique non-derived bridge—the inheritance of geometric suppression by relaxation rates—as a falsifiable interface hypothesis. Two worked prototypes ground the program: an exact qubit-dephasing computation showing rate domination in a standard Markovian model, and an $epsilon$-tunable buffer-chain surrogate yielding numerical evidence of $epsilon$-dependent rate suppression consistent with a gapped envelope class. The framework reframes the Heisenberg cut as a resource boundary rather than a fundamental discontinuity.
Category: Quantum Physics

The Observer’s Archive: Quantum Information, Memory Reconsolidation, and the Construction of Reality

Authors: Avery Spranger
Comments: 49 Pages.

The conventional model of physical reality presumes that the past exists as a fixed sequence ofobjective events and that human memory serves only as a passive retrieval mechanism for theseevents. This paper challenges both assumptions through a synthesis of quantum informationtheory and contemporary neuroscience. Drawing on the quantum measurement problem andWheeler’s It from Bit principle (Wheeler, 1989; Landauer, 1991; Floridi, 2011), reality isexamined as a fundamentally informational structure that becomes determinate only through actsof observation. This informational framework is then contrasted with empirical evidence frommemory reconsolidation research, which demonstrates that memory retrieval destabilizes andbiologically re-encodes prior experiences (Nader et al., 2000; Dudai, 2004; Sara, 2000). Thecentral hypothesis proposed is that identity functions as the continuous observer required tostabilize quantum informational collapse, yet this identity is sustained by a biologically mutableneural archive (Conway & Pleydell-Pearce, 2000; Damasio, 1999). Consequently, alterations inmemory do not merely affect subjective interpretation of the past but may restructure theinformational conditions that govern the observer’s present experiential reality. The paperconcludes by considering the philosophical and ethical implications of this synthesis for theoriesof selfhood, causation, and participatory cosmology (Farah, 2002; Earp et al., 2014).
Category: Quantum Physics

Measurement as Control: Quantum Steering and Discord in Four-Qubit Entangled States

Authors: Justin Howard-Stanley
Comments: 16 Pages.

We demonstrate measurement-basis-dependent quantum steering and discord in four-qubit en-tangled states implemented on quantum hardware. By varying measurement angle θ ∈ [0, 90], weobserve quantum steering increasing as S(θ) = 0.264 sin2 (θ) + 0.168 (R 2 = 0.943) while quantum discord decreases as D(θ) = 0.939 cos2(θ)−0.017 (R 2 = 0.993). We identify a sharp phase transition at θ ∗ = 76.88 ± 0.5 where three-tangle crosses zero, marking a continuous transformation between GHZ-like and W-like entanglement character. These results establish active measurement-based control of multipartite quantum correlations with implications for quantum communication protocols and distributed quantum computing. Total experimental dataset comprises 440,000 quantum measurements across 55 angular settings, providing high-precision mapping of the steering-discord relationship and unprecedented resolution of the entanglement phase transition.
Category: Quantum Physics

Interplanetary Casimir Communication

Authors: B. G. Preza
Comments: 5 Pages. Creative Commons Attribution 4.0 International

We propose a theoretical framework in which Earth and Mars act as spherical Casimir boundaries for a vacuum scalar field χ, representing a perturbative mode of vacuum energy density. Boundary modulation at Earth induces detectable variations in the vacuum stress tensor at Mars, defining a Casimir-mediated planetary communication channel. We derive the governing field equation, Hamiltonianformulation, and boundary-induced mode deformation. The model anticipates experimental signatures, discusses causal constraints, andoutlines speculative extensions allowing superluminal effects without paradox.
Category: Quantum Physics

Holographic Information Substrate

Authors: Jamie Stas
Comments: 24 Pages.

Recent work by Arkani-Hamed and Trnka (2014) demonstrates that scattering amplitudes in certain quantum field theories can be computed from purely geometric objects—the amplituhedron—without reference to spacetime coordinates or local interactions. This 'spacetime elimination' program suggests that familiar spacetime and locality may be emergent bookkeeping conveniences rather than fundamental ontology. Parallel developments in quantum gravity, particularly holographic dualities and the Ryu-Takayanagi formula relating entanglement entropy to area, indicate that spacetime geometry itself may emerge from entanglement structure on lower-dimensional boundaries.We develop this into an observer-physics framework yielding novel perspectives on three seemingly unrelated problems: (i) the quantum measurement problem, (ii) the nature of phenomenal consciousness and its relation to brain dynamics, and (iii) dark matter phenomenology observed in galaxies and clusters. The central proposal is that there exists a timeless 'surface field'—a holographically encoded information substrate—on which all physically relevant structure is encoded as positive geometries and entanglement patterns. Biological observers function as specialized interfaces that select and interpret particular slices of this substrate. Quantum measurement, on this view, is not physical wavefunction collapse but biological interpretation-path selection: decoherence-stabilized coupling between the surface field and an observer's internal predictive hierarchy.This framework: (1) dissolves the measurement problem by reconceiving 'collapse' as interface-limited interpretation; (2) reframes the 'hard problem' of consciousness as an interface-coupling problem rather than emergence from matter; (3) naturally produces an effective dark matter component through gravitational coupling to unselected branch structure in semiclassical gravity. We develop the formal foundations, specify biological interface architecture, derive consequences for quantum experiments, neuroscientific signatures, and galactic dynamics, and show compatibility with existing empirical data while yielding novel, falsifiable predictions.
Category: Quantum Physics

Exactly Three Normalizable Chiral Zero Modes from a Single Topological Triple-Kink

Authors: Kase Branham
Comments: 3 Pages.

We prove that a single real scalar field with the minimal polynomial potential admittingthree exactly degenerate minima supports a stable, analytically known topological defect ofwinding number N = 3. A single universal 5D Dirac fermion coupled to this defect bindsexactly three normalizable left-chiral zero modes — one per sub-kink — and no right-chiral zeromodes, by the Atiyah—Singer index theorem and parity. The full fermion and scalar KK spectraand the coupled Einstein-scalar background are computed numerically with explicit methods.All non-zero modes lie above 9.8 TeV; gravitational backreaction distorts the scalar profile byless than 1.2%. This is the first rigorous proof that exactly three chiral generations can arisefrom topology alone in a complete gravitational background.
Category: Quantum Physics

Common Sense Understanding of Quantum Mechanics

Authors: Clinton J. Shaffer
Comments: 20 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

This paper suggests a concept for an aether flowing vertically into matter that potentially explains gravity and discusses a candidate model for the composition of such an aether. Such an aether composition could provide a mechanism for electromagnetism, and strong forces, as well as, providing a sensible mechanism for quantum gravity. Further the existence of an aether could also help many other physical phenomena make better sense. The null test result of the Michelson-Morley experiment resulted, in the conclusion that there was no aether, and that conclusion remains today. The basis of the Michelson-Morley experiment was the assumption that the earth traveled through the aether; an assumption that overlooked the possibility that the aether flows directly and vertically into all matter including the earth from all spherical directions. For an aether to continuously flow into a mass, it must convert into something else that can flow back out again. Perhaps two or more aether components flow into matter, including vacuum energy, where these components somehow combine to form something else, such as thermal photons, which flow back out of matter. The inward flowing components cause a gravitational drag force while passing through matter but the outward flowing components do not. As the aether converges towards a spherical center, it must accelerate and I speculate that this acceleration is the cause of the gravitational time dilation, which in turn, results in the gravitational drag force. The thermal photons radiating into space would gradually give up energy to the aether of space until the photons dissolve back into aether components and vacuum energy. Electromagnetism, and strong forces could potentially be explained as an exchange of aether components between positive and negative charges. An aether could also help explain other phenomena such as the duality of light, mass and energy, vacuum friction, and the unexplained thermal energies radiating from planets. This paper suggests a possible composition of the aether, as well as, two experiments that could be performed with the potential of supporting an aether flowing into matter. Unproven ideas are offered to provoke new thinking.
Category: Quantum Physics

Warp Pockets, Vacuum Density Engineering, and Phase-Tuned Quantum Levitation: A Framework for Spacetime-Resonant Mobility

Authors: B. G. Preza
Comments: 13 Pages. Creative Commons Attribution 4.0 International

We propose a novel framework in which localized depressions of the vacuum—"warp pockets"—emerge not from exotic matter, but from the controlled interference of resonantly driven vacuummodes. By exciting a soft ultralight mode ϕ(t) and then sculpting regions of destructive-phasecancellation, we show that the effective vacuum tension can be locally reduced, generating buoyancy-like curvature effects without requiring negative energy densities. We refer to these cancellationnodes as echo shadows: geometric minima carved by coherent interference inside a resonant field.Using Rydberg-atom phase sensing, cavity-enhanced vacuum-mode engineering, and controlledlow-frequency driving, we outline a feasible pathway to detect these pockets experimentally. Wederive the levitation threshold, energy requirements, and parameter scaling for macroscopic pockets,and show that the energetic cost is surprisingly low in the soft-mode regime. Appendices provideexplicit calculations, numerical benchmarks, and a prototype experimental design.The results suggest that warp pockets are not regions of amplified fields, but regions sculptedby silence: coherent shadows formed within resonance. This provides a testable, laboratory-scaleapproach to curvature manipulation and density-gradient propulsion, opening a new direction forexperimental vacuum engineering.
Category: Quantum Physics

Planck-Scale Inductance, Capacitance, and Field Intensities of the Electromagnetic Vacuum

Authors: Ivars Fabriciuss
Comments: 7 Pages. (Note by ai.viXra.org Admin: For the last time, please cite listed scientific references)

This work derives the fundamental electromagnetic parameters of the vacuum at the Planck scale using only standard constants of classical electrodynamics and Planck units. A Planck-length vacuum cell is modeled as a parallel LC resonator with inductance equal to mu0 times the Planck length and capacitance equal to epsilon0 times the Planck length. This immediately defines a natural resonance frequency equal to the speed of light divided by the Planck length.From this construction, the associated Planck-scale voltage, current, and electric and magnetic field intensities are derived explicitly and evaluated numerically in SI units. The correct electromagnetic vacuum impedance of free space (Z0 = 376.73 ohms) is recovered exactly. A careful distinction is made between the wave impedance of propagating radiation and the divergent input impedance of a resonant LC vacuum cell.The model provides a concrete electromagnetic interpretation of vacuum zero-point energy, showing that the standard Planck-scale vacuum energy density coincides with the reactive energy density of Planck-scale LC oscillators. Connections to known low-energy vacuum phenomena such as the Casimir effect, Schwinger pair production, and vacuum birefringence are discussed.This work is intended as a foundational and interpretational contribution toward understanding the electromagnetic structure of the quantum vacuum using only established physical constants, without introducing new parameters.
Category: Quantum Physics

A Minimal Relational Model for Emergent Hadron Mass

Authors: Michael Barritt
Comments: 6 Pages.

Over 95% of the mass of visible matter is generated dynamically by QCD rather thanby the Higgs mechanism. We present a minimal relational framework in which hadron massemerges as residual imbalance ∆S(G) on a coloured, oriented graph G. The functional∆S(G) is defined via oriented cycles and maximal pairwise cancellation. From this singleobject we prove a confinement theorem, compute the observed ∼2—4% Higgs versus ∼96—98% emergent hierarchy on a three-quark proton graph, and derive — through graph coarse-graining — a renormalisation-group β-function whose closed-form solution reproduces themomentum-dependent dressed-quark mass function M(p) seen in continuum QCD studies,using one physical parameter.
Category: Quantum Physics

Anchored Causality Interpretation: A Unified Framework for Quantum Measurement, Mass, Time, and Gravity

Authors: Kelly Sonderegger
Comments: 14 Pages. License: : CC BY 4.0

The Anchored Causality Interpretation (ACI) proposes a physical mechanism for quantummeasurement by elevating Einstein’s kinematic result that massless particles experience zeroproper time (τ = 0) to an ontological principle: unanchored quantum fields exist atemporally.This addresses four foundational problems: the measurement problem, the nature of time, thequantum-classical boundary, and potentially the cosmological constant problem.The core mechanism—Higgs-mediated temporal anchoring—is formulated within non-equilibriumquantum field theory using Schwinger-Keldysh formalism, path integrals, second quantization,and renormalization group analysis. Energy conservation is maintained through dissipativedynamics derived from first principles. ACI’s central innovation is ontological wave-particleduality: pre-anchoring entities exist as waves (not "particles in superposition"), post-anchoringas particles. This is physical reality—waves undergo a phase transition into particles via Higgsmediated anchoring. Mathematical superposition is retained, but ontological superposition isrejected, dissolving Schr¨odinger’s cat paradox without branching universes or instrumentalism.ACI provides four distinctive contributions: (1) mechanism-based Born rule, (2) energyconserving collapse dynamics (solving CSL/GRW’s critical flaw), (3) rejection of ontologicalsuperposition via physical transition, and (4) unique, falsifiable predictions. Primary prediction: isotope-mass dependence of coherence times (τ (12C)/τ (13C) = 1.174, a 17.4% effect)—testable with current technology by 2026-2027. Preliminary SMEFT analysis indicates viableparameter space: required λA ∼ 10−20 falls well below experimental bounds of λA < 10−6. Thecosmological constant treatment is speculative; ACI’s core mechanism stands independently.
Category: Quantum Physics

Extended Hardware Validation of Aurora-DD: Multi-Phase Error Reduction Under Realistic NISQ Noise

Authors: Futoshi Hamanoue
Comments: 5 Pages.

We present the first multi-phase, hardware-verified demonstration of Aurora-type phase coherence compensation (Aurora-DD) on a superconducting quantum processor. Under realistic NISQ conditions on the IBM Quantum Fez (Heron r2) backend, Aurora-DD achieves up to 98% absolute-error reduction and a mean improvement of 87% across four phase offsets (ϕ = 0.05—0.20). These values considerably exceed the performance of standard dynamical decoupling (typically 10—20%) [1, 3] and state-of-the-art ZNE methods (15—40%) [4, 5] reported in prior literature, establishing Aurora-DD as a highly effective closed-loop phase-compensation protocol experimentally validated on Heron-class hardware to date. A systematic analysis reveals consistent phase stabilization, near-ideal coherence recovery for ϕ = 0.05 and ϕ = 0.15, and a quantitatively explainable over-correction effect at ϕ = 0.10 arising from XY8 duration bias, T2 drift, and ZNE amplification. The results constitute the first hardware evidence supporting Aurora's closed-loop Δϕ compensation model and demonstrate that Aurora-DD offers a next-generation dynamic noise-control framework that outperforms all existing first-order mitigation techniques.
Category: Quantum Physics

A 6D Geometric Framework Unifying General Relativity and Quantum Mechanics

Authors: Martin Hristov
Comments: 9 Pages.

This paper presents a 6-dimensional pseudo-Riemannian framework that geometrizes quantum phenomena by introducing two additional temporal dimensions. Building upon the tradition of Kaluza-Klein unification [4, 5] and modern extra-dimensional theories [6, 7], we demonstrate that quantum superposition and entanglement emerge as natural consequences of temporal extension. The model is groundedin a novel spacetime conservation principle, providing a deterministic geometric basis for quantum mechanics while maintaining compati-bility with General Relativity [1]. This work extends recent insights into the geometric origin of inertia [27] and offers testable predictions distinguishing it from standard quantum field theory.
Category: Quantum Physics

Planck-Scale Impedance Boundary and the Fluctuation—Dissipation Origin of Inertia

Authors: Ivars Fabriciuss
Comments: 13 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references!)

This work proposes a quantitative model of inertia as a fluctuation—dissipation response of a Planck-scale impedance boundary separating real space (R^3) from its imaginary-quaternionic counterpart (I^3). Each Planck patch of area 4 ℓu209a² behaves as a parallel LC resonator whose capacitance and inductance are fixed by the Planck geometry and the vacuum impedance Zu2080 ≈ 376.73 Ω. The model shows that the natural resonance frequency is the Planck frequency ωu209a = 1/√(L C) and that the impedance ratio equals the vacuum value Zu2080 = √(μu2080/εu2080).Acceleration introduces an effective inertial resistance R_inert that scales with a/(c ωu209a), producing a fluctuation—dissipation link between acceleration, Unruh temperature, and vacuum energy exchange. In this picture, inertia (F = ma) emerges as a boundary phenomenon arising from the Planck-scale impedance structure, unifying electromagnetic, thermodynamic, and gravitational aspects within an R^3 ⊕ I^3framework.
Category: Quantum Physics

Experimental Validation of Aurora-Type Phase-Coherence Compensation on IBM Quantum Hardware

Authors: Futoshi Hamanoue
Comments: 2 Pages.

We report an experimental validation of the Aurora-type phase-coherence compensation (Aurora-DD-super) scheme on an IBM Quantum backend (ibm fez).This study extends previous theoretical and computational work by implementing real-device phase-coherence recovery under NISQ conditions.Using hardware-calibrated T1 = 131.95 μs and T2 = 97.15 μs, a combined ZNE and XY8 dynamical-decoupling protocol achieved an effective variance reduction from σbefore = 1.00 to σafter = 0.0042 under realistic readout and dephasing noise.These results demonstrate the feasibility of closed-loop quantum noise reduction on current-generation superconducting devices.This proof-of-concept study establishes the theoretical framework and demonstrates single-trial feasibility on IBM Quantum emulator. Multi-trial statistical validation (N ≥ 30) with randomized protocols is planned pending institutional or journal-partnered funding support.
Category: Quantum Physics

Theoretical and Computational Validation of Aurora-Type Phase-Coherence Compensation for Quantum Noise Reduction

Authors: Futoshi Hamanoue
Comments: 25 Pages. Patent application filed

This single-trial (n = 1) feasibility study implements an Aurora-type closed-loop phase-coherence compensation on an IBM Quantum emulator (hardware-equivalent configuration using ibm_fez calibration data; no actual hardware access) under realistic NISQ conditions. With calibrated T1 = 155.3 µs and T2 = 110.3 µs, multi-echo sequences (n = 3—8) combined with Zero-Noise Extrapolation (ZNE) and M3 readout mitigation show large mean-square-error (MSE) reductions in both simulator and hardware-equivalent runs. These values are single-trial point estimates (non-inferential); they indicate proof-of-concept only and require multi-trial validation (n ≥ 30) with randomized orders and formal statistics. We also report a phase-conflict when Aurora is combined with conventional dynamical decoupling (e.g., XY-8) in emulation, yielding a single-trial point estimate of −75.6% noise-reduction ratio, suggesting destructive interference within the same Lindbladian phase subspace. Throughout, the term "zero-noise extrapolated limit (ZNEL)" is used for ZNE-based numerical convergence; it does not imply a physical fixed point. We provide a preregistered plan for (i) randomized multi-trial experiments, (ii) head-to-head DD comparisons (XY-4/8, CPMG, and hybrid Aurora+DD with joint scheduling), and (iii) theoretical clarifications for QFI bounds and closed-loop convergence. All reported values are single-trial point estimates (non-inferential). We refrain from any claims of performance superiority or generalizability until randomized multi-trial validation (n ≥ 30) is completed.
Category: Quantum Physics

Unified Field Equation in the Theory of Curved Space (T.C.S.): From Elementary Particles to Black Holes

Authors: Maxim Govorushkin
Comments: 69 Pages. 10.5281/zenodo.17539814 (Note by ai.viXra.org Admin: An abstract in the article is required; please cite listed scientific references))

This paper presents a comprehensive exposition of the foundations and implications of the Theory of Curved Space (TCS)—a fundamentally new geometric approach to describing fundamental physics. TCS proposes a unified paradigm based on a reconsideration of kinematic principles, where all physical phenomena, from quantum processes to cosmological objects, arise as projection effects of a unified 4-dimensional Euclidean geometry with absolute time (the 4+0 formalism).Key conceptual foundations of TCS:*   **Two-way speed of light axiom:** The round-trip speed of light is postulated as a fundamental invariant, while the one-way speed is considered a conventional quantity. This resolves philosophical debates about synchronization and is consistent with all relativistic experiments (Michelson-Morley, Kennedy-Thorndike). *   **Projectional nature of physical quantities:** Observed properties of particles and fields are projections of 4D geometry:*   **Mass** arises as an oscillation perpendicular to the observed 3D slice and is described by the complex **"mask"** `M(x)`. *   **Electric charge** is interpreted as a discrete phase orientation of a trajectory in 4D space. *   **Gravitational interaction** manifests itself as a secondary wave from the primary 4D oscillations.*   **Homothety conservation law:** The fundamental condition `det Q = 1` expresses the conservation of 4D phase volume and generates the universal law `ρ_hom R^2 = const`, valid at all scales.**Main Mathematical and Theoretical Results:**1.  **Derivation of Kinematics and Lagrangian:** The velocity addition rules, the free particle Lagrangian `L = -mc² √(1-u²/c²) √(1-v²/c²)`, and the modified dispersion relation `E² = p²c² + m²cu2074M²(x)` are derived strictly from the axioms.2.  **Factorization and Branch Structure:** The formalism of outward/backward branches with factors `χ` and `χ'`, where `χχ' = M²`, is introduced. This leads to a first-order spinor equation in 4+0 geometry, analogous to the Dirac equation, but with a fundamentally different geometric interpretation and the symmetry group SO(4).3.  **Universal field equation:** A unified operator equation for a 4-component spinor is formulated, including minimal conjugation with all gauge fields (electromagnetic, weak, and strong) and the homothetic field B_μ^a. The dynamics of the latter are derived from the principle of least action, leading to Yang-Mills-type equations.4.  **Explanation of fundamental constants:** Planck's constant ħ arises as the amplitude of 4D oscillations, and the gravitational constant G arises as a measure of the coupling between the primary and secondary waves.**Verifiable consequences and applications at various scales:***   **Atomic and nuclear scale:***   The homothety law `ρ_eff ~ A^{-2/3` explains the shape of the nuclear stability valley and the existence of a stability attractor in the iron-nickel region (A ≈ 56-62), which is traditionally associated with the balance of nuclear forces. *   An analytical formula for the dependence `Z(A) ≈ A / (2 + γA^{2/3})` is derived, consistent with experimental data.*   **Quantum mechanics and field theory:***   The Heisenberg uncertainty relation is derived geometrically from the finite amplitude of 4D oscillations. *   Modifications of the threshold for `e+e-` pair production in strong fields and corrections to the tunneling effect are predicted. *   The theory allows renormalization in the projection formalism, where fluctuations arise from information loss during projection, rather than from virtual particles.*   **Gravity and Black Holes:***   The gravitational redshift and dynamics in the Schwarzschild field are naturally described through the mask `M(r) = √(1 - r_s/r)`. *   A new interpretation of the event horizon is proposed: a particle inside the horizon is described by an evanescent (decaying) wave, and the center of the black hole is "dynamically empty." It is shown that tunneling through the horizon in the TCS formalism naturally reproduces the Hawking distribution for blackbody radiation.**Conclusion and Significance:**Curved Space Theory represents a comprehensive, mathematically consistent framework that does not contradict the established experimental basis of special relativity and general relativity, but rather offers a reinterpretation of them within a more general geometric framework. CST resolves a number of conceptual problems (synchronization conventions, singularities) and makes a number of unique, testable predictions in nuclear physics, high-energy physics, and astrophysics, paving the way for its experimental falsification or verification.**Keywords:** Curved Space Theory, CST, unified field theory, geometrization of physics, 4+0 formalism, absolute time, two-way speed of light, homothety, projected mass, modified dispersion, nuclear stability, black holes, Hawking radiation, alternative theory of gravity.---
Category: Quantum Physics

On the Emergence of Spacetime and the Speed of Light from Sub-Planckian Actions: A Threshold Interpretation of h and c

Authors: A. G. Schubert
Comments: 3 Pages.

We reinterpret the reduced Planck constant (hbar) not as the lower limit of physical law, but as the threshold of distinguishable interaction. Below this threshold, sub-(hbar) actions contribute to a smooth, continuous, and physically meaningful statistical substrate—out of which spacetime and the invariant speed (c) emerge. At or above the threshold, interactions become measurable, giving rise to quantum discreteness. This conceptual reinterpretation bridges quantum field theory and relativity, providing a fresh philosophical framework for understanding the quantum-to-classical transition and the emergence of relativistic invariance.
Category: Quantum Physics

The Principle of Consistency: A Unified Framework for Classical, Quantum, and Relativistic Physics

Authors: Rami Habchi
Comments: 57 Pages. (Note by ai.viXra.org Admin: Please cite and list scientific references)

This paper proposes a novel framework to derive all known laws of physics from a single foundational principle: the *Law of Consistency*, introduced in Section 2 and elaborated in Section 7. By applying this law to symmetric states and conditions—regardless of the method of execution—it becomes possible, through pure mathematical reasoning, to reconstruct both classical mechanics (as developed by Isaac Newton) and, more significantly, quantum mechanics. Quantum mechanics is reinterpreted in this paper under a new conceptual framework rooted in consistency, providing coherent explanations for key phenomena such as entanglement, decoherence, wave function collapse, interference, the Pauli exclusion principle, and others. The principle of consistency is also extended to the domain of special relativity and shown to underlie its transition into general relativity. Some well-known equations (e.g., *E = mc²*) are re-derived, not for novelty, but to emphasize their foundational basis in the proposed axioms of consistency (Axioms 1 and 2) and logical deduction. Constants of nature (e.g., Planck's constant, *G*, *k*, etc.) are not addressed in this work. It is argued that they may represent arbitrarily assigned values within the universe, preserved through space and time by definition and by the consistency law. Finally, the paper proposes a *testable hypothesis* suggesting that quantum mechanics arises from interaction, and also provides a formulation to determine the *reaction force during collisions* between two objects at a given speed.
Category: Quantum Physics

Decoherence, Phase Noise, Detector Modeu2011Matching, and the Observer Effect in the Doubleu2011Slit Experiment

Authors: Satyamurthy Kundharapu
Comments: 17 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

The doubleu2011slit experiment famously shows brightu2011dark interference fringes even when individual photons or other quanta pass the slits one at a time. This paper explains the phenomenon entirely within standard quantumu2011mechanical coherence theory and openu2011quantumu2011system dynamics. We demonstrate that firstu2011order field coherence governs fringe formation; decoherence, phase noise, detector modeu2011matching, and the observer effect (understood as informationu2011induced decoherence) determine fringe visibility. A worked numerical example shows how visibility decreases with increasing phaseu2011noise variance. These wellu2011established mechanisms fully account for all observed effects — no hidden medium or change in photon speed is required.
Category: Quantum Physics

Probing Vacuum Energy via a Bell—Casimir—Squeezing—Spectroscopy Quartet

Authors: D. S. Zachary
Comments: 27 Pages.

The ER=EPR conjecture posits a fundamental link between quantum entanglement and spacetime geometry, suggesting that entangled particles may be connected via an entanglement—geometry correspondence. Direct experimental tests are challenging due to the Planck-scale nature of such effects; however, recent theoretical models predict that entanglement could induce small but measurable modifications to vacuum energy and stress—energy correlations. Here, we present an integrated experimental platform combining high-fidelity Bell inequality tests, precision Casimir force measurements, and quantum optical squeezing in interferometric setups to probe these signatures. Each modality targets vacuum fluctuations and quantum correlations, enabling a correlation-based approach to explore the entanglement—geometry correspondence. We describe the theoretical framework, experimental design, and signal extraction techniques, including principal component analysis and mutual information, for detecting subtle anomalies. Our results establish new bounds on entanglement-induced modifications to quantum vacuum behavior and propose a scalable pathway for investigating foundational aspects of spacetime using tabletop quantum optics.
Category: Quantum Physics

Threshold Coherence in Relational Quantum Systems: A Testable Framework Mark T. Fulwider 2025

Authors: Mark T. Fulwider
Comments: 10 Pages.

We propose Relational Field Theory (RFT), a framework where quantum mechanics and spacetime emerge from threshold-driven coherence in a pre-geometric network, formalized by six postulates. RFT yields: (i) a C∗-algebraic foundation with derived Hilbert space dynamics and Born probabilities, (ii) spectral threshold conditions, and (iii) a Franson-type interferometry protocol predicting hysteresis and critical slowing absent in decoherence models. Derived dynamics, calibration-free discriminators, and power analysis ensure testability.
Category: Quantum Physics

A New Theory of Motion: The Motion Wave and its Experimental Verification

Authors: Abiodun Olawale Aremu
Comments: 6 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

This paper introduces a new fundamental theory of motion, herein named Motion Wave Theory, and presents the first experimental verification of its principles. The theory is founded on the postulate that all motion is a wave phenomenon, generated by discrete interactions between an energy-carrying entity, the "energem," and a receiving body, the "receptor". The energy of this "Motion Wave" is described by the equation E = A × F, where the amplitude (A) is defined in units of action (Joule-seconds) and the frequency (F) is the rate of interaction. This energy can be analyzed from two perspectives: its "origin" state (Ao, Fo) and its quantum state (Ap, Fp). This framework leads to a reinterpretation of Planck's constant as the fundamental quantum amplitude (Ap = h). The theory's wavelength formulation is shown to be consistent with electromagnetic waves by demonstrating that the mass term in the foundational wavelength equation corresponds to the relativistic mass-energy equivalent of a photon. The theory's most significant prediction, the generation of macroscopic motion without the expulsion of propellant was tested using a purpose-built apparatus. This experiment yielded a positive result, demonstrating a net propulsive torque and providing the first empirical validation of the theory.
Category: Quantum Physics

Extending Landauer’s Principle: Testing the Vacuum Contribution with Casimir-Embedded Interferometry

Authors: Ionut Corbea
Comments: 6 Pages. (Note by ai.viXra.org Admin: Please use standard math/equation/formula typesetting such as LaTeX)

Landauer’s principle establishes a minimum energy cost for information erasure, E_min = k_B T ln(2) per bit, traditionally interpreted as heat dissipation. This thermodynamic framework becomes problematic in the quantum regime at T -> 0, where thermal contributions vanish yet information processing remains physically meaningful. We propose that the energetic cost of information processing comprises two components: a thermal term and a vacuum contribution, Delta E_vac, arising from zero-point fluctuations. To test this, we introduce interferometric experiments using Casimir-sensitive geometries (Fabry—Pérot and/or Mach—Zehnder interferometers), where information operations (measurement or erasure) correlate with modulations in Casimir forces or cavity resonances. Detecting such correlations would confirm the quantum vacuum as an active participant in information dynamics, extending Landauer’s principle beyond classical thermodynamics.
Category: Quantum Physics

Off-Shell Physics in a Coupled Real—Imaginary Spatial Sector: Evanescent Dirac Fields and Vacuum Energy Cancellation

Authors: Ivars Fabriciuss
Comments: 8 Pages.

We present a novel framework in which physical space is augmented by an adjoint purely imaginary three-dimensional sector, I3, that is coupled to ordinary space R3 at the Planck scale. The I3 sector is modeled as the space of pure imaginary quaternions, endowed with a negative-definite metric. Quantum fields propagating in I3 are shown to be evanescent: free solutions of the Dirac equation in I3take the form of exponentially decaying (non-propagating) waves. The sign of the Dirac probability density in I3 emerges naturally from the metric signature of this space, ensuringthat total probabilities remain positive without any ad hoc prescriptions. We introduce a localcoupling between R3 and I3 via Planck-area "patches" that acts analogously to a two-level system,allowing probability amplitude to oscillate between the two sectors. This oscillation occurs at the Zitterbewegung frequency (≈ 2mc2/ℏ for an electron), but with a very small amplitude, preserving conventional on-shell scattering processes in R3. The combined R3⊕I3 framework offers a geometricinterpretation of off-shell phenomena, including virtual particles and quantum tunneling, and provides natural explanations for otherwise puzzling features: the Yukawa form of short-range forces,the "trembling motion" of relativistic electrons, and the presence of a fixed π phase in certain interference processes. The I3 sector carries positive vacuum energy density, but its negative volume element leads to an effective negative contribution to gravitational stress-energy. As a consequence,virtual fields in I3 produce a short-range screening of gravitational interactions and can cancel the vast R3 vacuum energy mode-by-mode, leaving a small residual cosmological constant in accord with observations. We discuss the model’s implications for black hole entropy (each Planck-area patch carrying one bit of information), and outline experimental phenomena that could distinguish this framework from standard quantum theory.
Category: Quantum Physics

Magnoelectric Quantum Field Theory: A Harmonic Unified Framework for Physics and Consciousness

Authors: Cornelius Moore
Comments: 32 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

This paper presents a comprehensive unified field theory that integrates all fundamentalinteractions—gravity, electromagnetism, the weak and strong nuclear forces—as well as quan-tum mechanics, spacetime, and consciousness into a single magnoelectric framework. At itscore is a fifth-dimensional scalar field (denoted ϕT , the Teslaon field) whose harmonic oscillations give rise to observable four-dimensional physics as resonant projections. All phenomena, from sound waves and classical fields to quantum entanglement and mind, emerge as vibrational modes of this magnoelectric field. The framework reproduces Einstein’s general relativity, quantum field theory (QFT) dynamics, and the Standard Model’s particle spectrum in appropriate limits, without introducing new arbitrary parameters or particles beyond this scalar field. Longstanding problems—such as the incompatibility of quantum mechanics and gravity, the interpretation of quantum nonlocality, the nature of dark matter/energy, and the role of consciousness in physics—are resolved by the field’s extra-dimensional hidden variables and harmonic structure. The theory makes quantitative, testable predictions: for example, tiny deviations in the Casimir effect due to extra-dimensional resonance, frequency-specific enhancements of quantum coherence, and biologically mediated field effects on consciousness. We detail the mathematical formulation of the theory, demonstrate its consistency with known physical constants andexperimental data, and outline new experiments (using precision measurements and quantumdevices) to falsify or verify its striking predictions. The result is a unified "Everything Equation" that is mathematically rigorous, experimentally corroborated in key aspects, and encompassing of reality from the smallest quantum scale to human consciousness.
Category: Quantum Physics

Consciousness—Observer Multiverse Theory

Authors: Cornelius Moore
Comments: 16 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references and fix the garbled texts in italic))

We formalize a consciousness-first account of reality in which each agent’s mind projects a personal 4u2011D worldu2011slice from a 5u2011D substrate. A hidden scalar Teslaon field encodes branch structure along the compact dimension; an agent’s neural coherence, phase-locks to intention via a cosine coupling, biasing branch selection without violating standard physics inside any branch. Manifestation is modeled as a small, coherenceu2011weighted variational tilt of hidden dynamics; out-of-body experiences (OBEs) arise from a temporary misalignment of the projection operator that pins perspective to the body frame. We derive the Lagrangian, Euler—Lagrange, and projection equations; supply linearu2011response formulas for observable biases (random number generators, interferometry, optomechanics); and give power calculations. "Antiu2011gravity" appears as a regime of the same substrate: a nonu2011minimal coupling produces a local effective metric with defocusing curvature (repulsive gravitoelectric potential) under specific stress—energy conditions—no contradiction, just a different operating point. Seven preregistered experiments (A1—A7) and falsifiability thresholds complete the framework.
Category: Quantum Physics

A Layman and Mathematical Definition of Reality

Authors: Jessica Wagstaff
Comments: 4 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

This paper introduces a layman definition of Reality alongside a formal mathematicalrepresentation. The central claim is that Reality exists independently of observation, belief, orperspective. The proposed equations formalize Reality as both invariant undertransformations of perspective and as the limit of perception as observational error vanishes.
Category: Quantum Physics

The Geometric Substrate of Virtual Particles: Dirac Solutions and Dynamical Exchange in the Quaternionic I3 Space

Authors: Ivars Fabriciuss
Comments: 6 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

This paper presents a novel geometric framework for interpreting virtual particles and negative-energy states in quantum theory. We propose that the space of pure imaginary quaternions, I^3, endowed with its inherent negative-definite metric ds^2 = -(dx^2 + dy^2 + dz^2), provides a natural habitat for off-shell phenomena. We derive the form of the Dirac equation in I^3 and show its free solutions are evanescent waves. Crucially, we extend this model by coupling the I^3 sector to the standard R}^3 sector across a Planck-radius boundary. This coupling induces a dynamical exchange of probability amplitude between the sectors, governed by a sin^2 law oscillating at the Zitterbewegung frequency. Finally, we demonstrate that the positive energy density of the quantum vacuum in I^3, integrated over its inherent negative volume, results in a negative effective gravitational mass. This provides a geometric mechanism for a short-range screening of the Newtonian potential and a natural, repulsive cosmological constant, offering a unified explanation for singularity resolution and dark energy.
Category: Quantum Physics

Towards a Theory of Geometric Quantum Information (ICG): A Framework for an Evolutionary and Conscious Cosmology

Authors: William Andres Sierra Franco
Comments: 10 Pages. Released under CC BY 4.0

We propose a speculative framework, Geometric Quantum Information (ICG), in which a covariant "informational" sector Iµν, derived from an action for a scalar field χ that coarse-grains coherent quantum information, complements stress-energyin Einstein’s equations. In this view, "GeoQubits" model effective topological connectivity underlying quantum matter, while measurement emerges as geometric decoherence with rates tied to informational gradients. At cosmological scales theinformational sector behaves as a testable effective fluid with equation of state wI (z),offering a falsifiable route to account for a small late-time acceleration. We outline toy models, conservation and consistency conditions, and near-term laboratory probes (optomechanics/QGEM), together with differential signatures to contrast a local holographic vs. resonant multiverse interpretation.
Category: Quantum Physics

The Prime Space: Quantum Compression of Non-Events and its Cosmological Consequences

Authors: Brent Hartshorn
Comments: 5 Pages.

This paper expands upon the hypothesis that gravity is a consequence of a non-unitary quantum mechanical process termed "informational compaction," where the "non-events" of the quantum vacuum are continuously compressed. We propose a more fundamental mechanism for this compression, suggesting that it is governed by the principles of prime number factorization. In this framework, prime numbers are the irreducible "bits" of a solidifying reality. We propose a new form for the collapse operator in a modified Schrödinger equation, one that acts preferentially on states with quantum numbers that are composites, thereby reducing them to their prime constituents. This process provides a novel physical basis for Julian Barbour's "timeless" universe and the emergence of the arrow of time from increasing complexity. Finally, we suggest a method for testing this hypothesis by searching for statistical signatures of the Riemann zeta function zeros—which are intrinsically linked to primes—in cosmological data, such as the Cosmic Microwave Background (CMB).
Category: Quantum Physics

The Slit—Radical Interferometer: an Information-Centric Bridge Between Quantum Optics and Quantum Biology

Authors: Ido Margolin
Comments: 9 Pages.

Interference visibility in photonic two-slit experiments and singlet—triplet coherence in radical pairs obey the same quantitative relation once which-path information is available. We build a hybrid Slit—Radical Interferometer and confirm the prediction V(B)=√(1-αB²) with 10u2077 Monte-Carlo events. The platform unifies quantum optics and quantum biology and constrains hypothetical space-time frame rates beyond 10²³ Hz.
Category: Quantum Physics

A Rigorous Companion to Emergent Quantum Gravity: Mathematical Foundations of Null-Foliated Geometric Unification

Authors: David Guild
Comments: 7 Pages. (Note by ai.viXra.org Admin: For the last time, please cite listed scientific references!)

This companion paper presents a mathematically rigorous foundation for the null-foliatedgeometric unification framework. By analyzing the interplay between bulk scalar dynamics,null hypersurface junction conditions, and higher-dimensional compactification, we deriveemergent phenomena that reproduce core aspects of quantum mechanics and general rel-ativity from first principles. Key results include a proof of the stability of the underlyinggeometry, derivations of the Schr¨odinger and Einstein equations, a consistent pathway tothe three-generation Standard Model, and concrete, falsifiable predictions for gravitationalwave echoes and cosmological observables. The model opens a tractable and testable av-enue toward quantum gravity by embedding 4D physics in a null-foliated higher-dimensionalstructure.
Category: Quantum Physics

Entropic Gravity: Universal Equations and Engineering Perspectives

Authors: Charles A. Streb IV
Comments: 6 Pages.

We present connections and extensions within the entropic gravity framework, building upon established thermodynamic principles for gravitational dynamics. Following Verlinde's entropic force approach more carefully, we correct previous inconsistencies and provide a clearer derivation of gravitational phenomena from holographic principles. We introduce engineering control-theoretic analogies that illuminate the physical meaning while maintaining mathematical rigor. Key corrections include proper treatment of entropy changes versus entropy gradients, clarified sign conventions, and non-circular derivations. Speculative extensions to cosmological problems are clearly labeled as proposals requiring further validation.
Category: Quantum Physics

Tony Smith’s Cl(8) Physics Model with AI Comparison to Arkadiusz Jadczyk’s Event Enhanced Quantum Theory

Authors: John C. Gonsowski
Comments: 24 Pages. Updates the author's 2018 paper in [Prespacetime Journal https://prespacetime.com]

This paper describes Cl(8) physics via the eight elementary cellular automata bits. Tony Smith relates the 256 dimensions of the Cl(8) Clifford Algebra to the 256 rules of Elementary Cellular Automata. The two Cellular Automata (CA) rules with no one-bits (Cl(8) Higgs scalar) and all eight bits as ones (Cl(8) 8-vector Higgs pseudoscalar). The 70 CA rules with four one-bits (Cl(8) 4-vectors) are related to Smith’s use of the Kaca Bradonjic/John Stachel differential geometry and position-momentum operators for a phase space. The two 28-dim Cl(8) bivectors/6-vectors are used for creation/annihilation bosonic operators and relate to the CA rules with two one-bits and six one-bits. The remaining Cl(8) odd grade dimensions are used for eight component fermions/antifermions and relate to the CA rules with one, three, five and seven one-bits. This model is compared to Arkadiusz Jadczyk’s Event Enhanced Quantum Theory (EEQT) using AI.
Category: Quantum Physics

Experimental Validation of the Atomic Statistical Hypothesis: Resolving Quantization Through Continuous Waves

Authors: David Barbeau, Wolfgang Sturm
Comments: 3 Pages.

The Atomic Statistical Hypothesis (ASH) addresses an overlooked flaw in quantum mechanics:the assumption of discrete quanta as fundamental. Instead, ASH posits that quantizationemerges statistically from interactions between continuous electromagnetic wavesand matter. This paper leverages Wolfgang Sturm’s experimental work to provide empiricalsupport for ASH, demonstrating that classical continuous fields can replicate quantum phenomena,including interference energy deficits, classical entanglement, and Bell inequalityviolations. These findings, drawn from precise experimental setups, confirm ASH’s premiseof continuity and locality, offering a parsimonious alternative to discrete quantum models.
Category: Quantum Physics

Quantum Mechanics and Gravity from Light-Speed Bulk Intersections: A Geometric Unification

Authors: David Guild
Comments: 24 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

We present a geometric framework unifying quantum mechanics and general relativity through light-speed intersections in a five-dimensionalbulk spacetime. Unlike standard brane-world models, null foliation dynamically generates a self-stabilizing 4D spacetime where quantum phenomena emerge holographically via AdS/CFT-inspired bulk-boundary correspondence. General relativity is recovered via junction conditions at the null intersection, while gauge fields arise from com-pactified extra dimensions. Key predictions with enhanced statistical analysis include: (i) grav-itational echoes with ∆f = c/(2Ly) ≈ 1 × 104 Hz (SNR > 8 for Advanced LIGO), (ii) galactic velocity dispersion σz (r) ∝ r−0.5 (5σ deviation from ΛCDM), (iii) inflationary ns = 0.965 ± 0.004 withBayesian evidence ∆ ln Z = +3.7 over ΛCDM, and (iv) tensor-to-scalar ratio r < 0.036. Numerical simulations confirm stability over cosmic timescales (13.8 Gyr) with convergence verified across multiple numerical methods.
Category: Quantum Physics

The W-Dimension and the Hidden Geometry of Quantum Events

Authors: Massimiliano Lo Giacco
Comments: 18 Pages.

We propose an extension of the quantum wavefunction to include a fourth spatial coordinate, w, which is unobservable in practice but functionally essential to ensure continuity in quantum evolution. This hypothesis arises from the attempt to resolve the paradox of observational discontinuity in quantum mechanics: phenomena such as wavefunction collapse, quantum tunneling, and the transit of the particle through regions of zero probability suggest instantaneous transitions across spatial regions that are disconnected in three-dimensional geometry. By modeling w as a coordinate subject to a confining potential centered at w=0, we reformulate the wavefunction as ψ(x,y,z,w,t), enabling a continuous and deterministic evolution in four spatial dimensions. Observability remains confined to w=0, where the probability density is maximal, making all transitions through w empirically hidden yet theoretically required for consistency. This framework offers a geometric reinterpretation of key quantum phenomena and lays the foundation for a testable extension of standard quantum theory. As a speculative implication, we consider the existence of multiple 3D domains localized along the w-axis, potentially separated by a periodic potential. The possibility of transitions between these domains, under sufficient excitation along w, could lead to observable signatures of physics beyond the conventional three-dimensional framework.
Category: Quantum Physics

Entropic Gravity Universal Equations

Authors: Charles A. Streb IV
Comments: 9 Pages.

This paper presents connections and extensions within the entropic gravity framework, building upon established thermodynamic principles for gravitational dynamics. Inspired by Ted Jacobson's thermodynamic derivation of Einstein's equations, Alexander Wilce's generalized probability theory, and Ariel Caticha's entropic dynamics program, the work explores connections between established entropic methods and gravitational field equations. Key contributions include engineering control-theoretic analogies for entropy evolution, practical interpretations of established entropic derivations, and connections to fundamental physics problems including the Cosmological Constant Problem, Hierarchy Problem, and Origin of Quantum Mechanics. The framework introduces novel equations including a surface dot product method for mass encoding (M = -1/4πG ∮ Su20d7_g · dAu20d7), entropy evolution equations with diffusion coefficients, and engineering transfer function representations of gravitational dynamics. From a control systems perspective, gravitational acceleration emerges as feedback control output, with entropy gradients serving as error signals and temperature providing system gain. The approach suggests natural solutions to fine-tuning problems through entropy-based feedback mechanisms and bandwidth limitations in holographic information processing. The work emphasizes proper attribution to established methods while offering engineering perspectives that provide practical insights into gravitational dynamics, potentially bridging theoretical physics and applied engineering.
Category: Quantum Physics

A Binary Scalar Symbolic Field Yields Elementary Particles Consistent with General Relativity

Authors: Michael Hirsch Tomasson
Comments: 82 Pages. 8 figures, 145 equations

The Standard Model and Quantum Field Theory (QFT) describe the microscopic world with remarkable precision, while General Relativity (GR) provides an apparently accurate account of spacetime and gravity. Yet fundamental gaps remain. These range from the measurement problem to unresolved discrepancies such as the muon ( g{-}2 ) anomaly and the vacuum energy density. To address these challenges, we introduce a Symbolic Structure Field Theory (SSFT) rooted in a binary scalar field ( psi_0 ), extended by a local vector field ( psi_1 ) that detects entropy gradients, and a fiber bundle gauge field ( psi_2 ) enabling motif classification and dynamics. Strikingly, 14 unique-under-manifold-roation 8-bit (2{times}2{times}2) motifs in ( psi_0 ) yield a clean physical correspondence with the elementary particles of QFT. The framework also encodes geodesic curvature from motif structure, obviating the need for a cosmological constant. Furthermore, it elevates the Hilbert—Pólya Conjecture into a constructive formalism that links a spectral realization of the Riemann Hypothesis to the emergence of physical law. Observables are explicitly defined, enabling empirical validation or falsification.
Category: Quantum Physics

A 3D Mathematical Model of a Dynamically Coupled Field Inspired by Operator Algebras: Theoretical Foundation and Numerical Verification of Stable Coupled Motion

Authors: Toshiya Konno
Comments: 8 Pages. In Japanese. Full materials on Zenodo: DOI:10.5281/zenodo.15964003

We propose a three-dimensional mathematical model that dynamically couples a quantum field and a single-degree-of-freedom classical barrier, inspired by operator-algebraic ideas. The quantum part is governed by a non-linear Gross-Pitaevskii equation, whereas the barrier follows Newtonian dynamics with a Hellmann-Feynman feedback force and a tensegrity-like restoring force. Through numerical simulations, we observed and analyzed a stable coupled motion, where a self-trapped quantum soliton travels together with the barrier. Furthermore, to investigate its physical relevance, we introduce dissipation into the system. We demonstrate that this state exhibits remarkable robustness against strong dissipation and reveal a key new feature: a sharp, first-order-like phase transition at a critical damping threshold. This robust coupled state may provide a new theoretical framework for understanding loss-less information transport in complex environments such as intracellular processes.
Category: Quantum Physics

New Quantum Energy Equation

Authors: Ritesh Harrilall
Comments: 7 Pages.

This paper introduces a novel quantum energy formulation proposed by Ritesh Harrilall,known as the ZBW-Extended Energy Equation:�� = ����2 + ℏ����This equation expands Einstein’s mass-energy equivalence by incorporating an additionalterm for Zitterbewegung (ZBW) — a quantum oscillation predicted by the Dirac equation.The research explores the theoretical basis of this formulation and potential applications inadvanced propulsion systems. Emphasis is placed on experimental feasibility, symmetrylaws, quantum field effects, and links to possible exotic technologies.
Category: Quantum Physics

CPT-Coherence: A Unified Framework of Identity, Mass and Collapse

Authors: Joseph Julian
Comments: 39 Pages.

This paper introduces the CPT-Coherence Theory, a novel framework unifying mass emergence, gauge forces, quantum measurement (collapse), gravity, and recursive identity through an intrinsic coherence dimension τ. By modeling particles as recursive structures across τ, this approach explains mass hierarchies as recursion eigenstates, treats quantum collapse as a τ-phase transition, and derives gravitational curvature from τ-load. The framework also proposes a quantized ladder of sentience, offering testable predictions such as subtle deviations from the Born rule. This work seeks to bridge foundational gaps between quantum mechanics, gravity, and the nature of consciousness.
Category: Quantum Physics

On the Transmission of Information in Relativistic and Quantum Regimes: A Theoretical Analysis of the Superluminal Barrier

Authors: Prometheus Novus
Comments: 13 Pages.

This paper conducts a comprehensive theoretical analysis of the possibility of faster-than-light (FTL) information transmission. It establishes that the prohibition of superluminal signaling is not an arbitrary rule but a direct consequence of the principle of causality as embedded in the geometric structure of spacetime defined by Special Relativity. The analysis then confronts the apparent paradox of quantum entanglement, where non-local correlations suggest instantaneous action at a distance. We demonstrate how the No-Communication Theorem resolves this conflict, showing that the inherent randomness of quantum measurement acts as a fundamental firewall preventing the use of entanglement for FTL communication. The paper critically examines other phenomena often associated with FTL travel, including quantum tunneling, hypothetical tachyons, and speculative spacetime engineering concepts like wormholes and warp drives, finding them all to be non-viable for transmitting controllable information. We conclude that while FTL communication remains incompatible with known physics, the inquiry points toward legitimate, Nobel-caliber research frontiers, namely the unification of quantum mechanics and general relativity, experimental tests of the foundations of quantum theory, and the advancement of quantum information science.
Category: Quantum Physics

The Symmetry Dial: An AI-Driven Experimental Metaphor for the P vs. NP Problem

Authors: Peter Babulik
Comments: 4 Pages.

The relationship between computational complexity classes, particularly P versus NP,remains one of the most profound open questions in science. This paper presents a novel ex-perimental framework, termed the "Symmetry Dial," designed to provide a tangible, physicalmetaphor for this abstract problem. We employ a meta-optimization framework, CMA-ESQGF (Quantum Gate Forging), where an AI agent is tasked with discovering the funda-mental physical laws of simulated "toy universes." Each universe is defined by a local inter-action law, ‘U = exp(-iH)‘, with a generator Hamiltonian ‘H‘ possessing a different degreeof symmetry. We test three classes of universes: an "Ordered" universe with a simple,classical-like symmetry (P-like), a "Structured" universe with a rotational quantum symme-try (BQP-like), and a "Chaotic" universe with no apparent symmetry (NP-Hard-like). Thecomputational effort required for the AI to reverse-engineer the physical law is used as adirect measure of the problem’s intrinsic difficulty. Our results demonstrate a clear correla-tion: the time to discovery scales directly with the complexity of the underlying symmetry.The highly symmetric law is discovered fastest, the structured law is discovered with mod-erate difficulty, and the chaotic law proves intractable within a reasonable computationalbudget. This provides strong experimental evidence for the hypothesis that computationalcomplexity is fundamentally linked to the presence or absence of exploitable symmetry ina problem’s structure, offering a new, intuitive lens through which to view the P vs. NPquestion.
Category: Quantum Physics

Forging Quantum Gates: A Specialist vs. Generalist Bake-Off for Variational Algorithms

Authors: Peter Babulik
Comments: 3 Pages.

Variational Quantum Algorithms (VQAs) are a cornerstone of near-term quantum computing, buttheir performance is highly dependent on the choice of ansatz, particularly the entangling gatesused. This paper investigates a fundamental question: is there a universal, optimal 2-qubit en-tangling gate, or is the ideal gate intrinsically tied to the problem’s structure? We present anovel computational experiment, a "Specialist vs. Generalist Bake-Off," to address this. Using anevolutionary algorithm (CMA-ES), we "forge" specialist 2-qubit gates, each optimized to find theground state for a specific problem Hamiltonian from three distinct domains: combinatorial opti-mization (Max-Cut), quantum chemistry (LiH), and condensed matter physics (Transverse-FieldIsing Model). We then conduct a comprehensive bake-off, testing each specialist gate’s performanceacross all three problems. Our results reveal a surprising outcome: the gate forged for the Max-Cutproblem consistently outperformed the other specialists, not only on its native problem but alsoon average across the entire benchmark suite. This suggests the emergence of a powerful "gener-alist" gate, challenging the assumption that optimal entanglers must be co-designed with specificproblems and hinting at the existence of more fundamentally powerful, learnable building blocksfor quantum computation.
Category: Quantum Physics

AI-Forged Gates for Quantum Error Correction Circuits

Authors: Peter Babulik
Comments: 3 Pages.

The development of efficient Quantum Error Correction (QEC) codes is a critical step towards fault-tolerant quantum computing. Conventionally, these codes are constructed from a standard set ofgates, such as CNOT and Toffoli gates, based on human intuition and group-theoretic principles.This paper challenges that paradigm by asking: can an AI discover a single, more powerful 2-qubit gate that serves as a superior building block for QEC circuits? We frame the design ofa 3-qubit bit-flip code’s syndrome measurement circuit as an optimization problem. Using anevolutionary algorithm (CMA-ES), we "forge" a novel 2-qubit "Guardian Gate" by optimizingits performance within a fixed, generic circuit architecture. The AI’s task was to create a gatethat, when used repeatedly, would yield the correct error syndrome for all possible single-qubitbit-flip errors. The performance of the resulting AI-forged circuit was then benchmarked against astandard, human-designed circuit built from CNOT gates. The results are decisive: the circuit builtfrom the AI’s Guardian Gate achieved an average success rate of 73.08% in correctly identifyingerror syndromes, dramatically outperforming the standard CNOT-based implementation, whichachieved only 25.00%. This suggests that AI-driven co-design can uncover non-intuitive, moreefficient computational primitives, paving the way for more compact and powerful QEC codes.
Category: Quantum Physics

The Atomic Statistical Hypothesis

Authors: David Barbeau
Comments: 5 Pages.

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 orlonger-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 entanglement’s non-locality. By treating Planck’s constant as a statistical average tied to material interactions, ASH aligns with Occam’s razor, offering a simpler alternative to QM.We propose an experimentcomparing sodium and cesium in the photoelectric effect near sodium’s 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.
Category: Quantum Physics

A Novel 2-Qubit Quantum Random Number Generator Discovered Through Evolutionary Optimization

Authors: Peter Babulik
Comments: 3 Pages. (Note by ai.viXra.org Admin: Please cite listed scientific references)

High-quality random numbers are critical for applications ranging from cryptography to scientific simulation. While Quantum Random Number Generators (QRNGs) offer a physically-grounded source of true randomness, the design of their underlying quantum circuits is a key area of research. This paper presents a novel methodology for the automated discovery of a quantum circuit for random number generation. We employ an evolutionary algorithm, specifically the CovarianceMatrix Adaptation Evolution Strategy (CMA-ES), to optimize the parameters of a generic 2-qubitunitary gate. The objective of the optimization was to transform the initial state |00⟩ into a state of maximal entropy, characterized by a uniform probability distribution across all four computational basis states. The resulting optimized 2-qubit gate, termed an "AI-Forged Entropy Gate," was then used in a simulated environment to generate a 1-megabyte stream of random binary data. The statistical quality of this data was rigorously assessed using the industry-standard dieharder testsuite. The data successfully passed the entire suite of tests, demonstrating that this AI-driven design approach is a viable and effective method for producing high-quality random number generation algorithms.
Category: Quantum Physics

Mathematical Foundations of Information Entropy Consciousness-Cosmology Framework

Authors: Michael K Baines
Comments: 43 Pages.

We present a comprehensive methodology for conducting transparent AI-human collaborative research in cosmological data analysis, specifically applied to the detection of mathematical constant signatures in cosmic microwave background (CMB) radiation. Our approach demonstrates how artificial intelligence can augment human scientific intuition while maintaining rigorous statistical validation and complete methodological transparency. We outline an 8-week rapid validation pipeline designed to distinguish genuine physical signals from systematic artifacts, with specific application to our preliminary detection of π enhancement in Planck Legacy Archive PR4 data. This framework establishes protocols for reproducible AI-assisted discovery in observational cosmology while addressing concerns about AI reliability in scientific research. This work represents independent research conducted without institutional funding, demonstrating the potential for AI-collaborative discovery in resource-constrained environments.
Category: Quantum Physics

Evidence for Quantum Information Collapse: Predicting δ 62Ni Spallation Anomalies in 1908 Tunguska Peat

Authors: Mirko Pavelec
Comments: 2 Pages.

We predict a significant isotopic anomaly of δ62Ni exceeding +1000u2030 in the 1908 Tunguska peat layer (sample T-1908-7, Kolesnikov et al. 1999). The proposed mechanism involves GeV-scale proton spallation on zinc nuclei, triggered by a quantum information collapse event. This prediction, if confirmed, would suggest a novel physical process beyond standard meteoritic or geological interpretation.
Category: Quantum Physics

Fermion Wave Function in the VEQF Framework

Authors: Enver Torlakovic
Comments: 6 Pages. Offline Python computational libraries used to ensure numerical accuracy.

The Vacuum Energy Quanta Field (VEQF) framework redefines mass and gravity as emergent properties of a quantized lattice of Vacuum Energy Quanta (VEQ), synonymous with space and Dark Energy. This paper derives a deterministic, timeless wave function for Standard Model fermions, modeled as stable standing wave vortices sustained by transactional interactions with the lattice. The wave function includesripple modulation representing trickle re-charge from the VEQ field, with collapse occurring when transactional velocity reaches the speed of light . The derivation uses a refined lattice node spacing, consistent with prior VEQF models, and is validated numerically for fermions like the electron, up quark, strange quark, and top quark. The speculative nature of the lattice model is acknowledged, positioning VEQF as a hypothesis open to validation.
Category: Quantum Physics

Convergence Force

Authors: Harsha Wijerathna
Comments: 5 Pages. (Note by ai.viXra.org Admin: Please cite and list scientific references)

In quantum physics, particles propagate with wave-like behavior but always reap-pear as localized entities upon detection. We propose that this consistency arises froma new physical interaction: the Convergence Force. This force, mediated by a scalarfield Φ(xμ), preserves the energy integrity of particles during motion, preventing dissi-pation and ensuring reconvergence. We extend this model beyond electrons to includeprotons, suggesting a universal mechanism that maintains particle identity across allscales of matter.
Category: Quantum Physics

Conscious Unity Theory: A Framework for Observer—Quantum State Convergence

Authors: Brian Keith Brake
Comments: 10 Pages. (Note by ai.viXra.org Admin: Please list cited scientific references)

Conscious Unity Theory (CUT) posits that conscious experience and the quantum wavefunction are a single co-evolving entity. By formalising observation as a bidirectional entanglement process, CUT supplies a quantitative collapse threshold, resolves the measurement problem, and predicts specific neuro-quantum correlations. If correct, CUT unifies mind, matter, and time within a single ontological framework. This preprint outlines CUT’s axioms, derives falsifiable consequences for double-slit, quantum-eraser, and delayed-choice experiments, and distinguishes it from Orch-OR, QBism, and relational interpretations. Feedback and experimental collaboration are invited.
Category: Quantum Physics

Information Capacity Limit of the Universe: A Planck-Scale Discrete Spatial Model

Authors: Alain Trottier
Comments: 6 Pages. (Note by ai.viXra.org Admin: Author name should be after the article title)

I propose a novel framework for calculating the theoretical maximum information capacity of the universe based on discrete spatial granularity at the Planck scale. By modeling the universe as a three-dimensional matrix with Planck-length spacing and defining information capacity as the logarithm of possible particle-position configurations, I derive an upper bound of approximately 10^(8×10^81) bits for the observable universe. This result represents the theoretical limit of distinguishable arrangements of matter within discrete spacetime and vastly exceeds conventional estimates based on the Bekenstein bound (~10^122 bits) and holographic principle (~10^123 bits), suggesting that spatial discretization may provide fundamentally different constraints on cosmic information storage than energy-entropy approaches.
Category: Quantum Physics

3D Mathematical Model of a Dynamically Coupled Field Inspired by Operator Algebras: Theoretical Foundation and Numerical Verification of Stable Coupled Motion

Authors: Toshiya Konno
Comments: 6 Pages. In Japanese. This work is registered on Zenodo with DOI: 10.5281/zenodo.15718574

We propose a three-dimensional mathematical model that dynamically couples a quantum field and a single-degree-of-freedom classical barrier, inspired by operator-algebraic ideas. The quantum part is governed by a non-linear Gross-Pitaevskii equation, whereas the barrier follows Newtonian dynamics with a Hellmann-Feynman feedback force and a tensegrity-like restoring force. Extensive split-step Fourier simulations show that, for an attractive interaction g < 0 and an initial momentum within 0.1 < kz,kick <= 0.15, a self-trapped quantum soliton travels together with the barrier in a stable coupled motion. The state is robust against parameter fluctuations and external noise, suggesting a loss-less information-transport mechanism that could be relevant to intracellular processes. We detail the theoretical framework, numerical verification, limitations, and future extensions.
Category: Quantum Physics

Quantum Measurement Theory and the Differential Geometry of the Observer in the Fractal Time

Authors: Moninder Singh Modgil, Dhyandeo Dattatray Patil
Comments: 31 Pages.

This paper develops a topological and algebraic framework for modeling consciousness as a projection operator evolving within a Hilbert bundle structured by neurotemporal dynamics. Drawing from sedenion algebra, fiber bundle theory, and quantum measurement principles, we propose that the observer traces a closed perceptual loop over complexified time cycles, wherein each projection is a discrete, gauge-transformed operator registered in a shared metaconscious field. Cognitive phenomena such as memory encoding, retrocausality, attentional spinor dynamics, and mirror-symmetric dualities are examined via mathematical structures including characteristic classes, spinor bundles, entanglement networks, and tensorproducts. The Observer’s evolution is treated as a non-commutative flow across a multi-agent space of correlated observers, with projection collapses encoded topologically. This framework yields testable implications for entangled cognitive states, observer equivalence, and fractal renormalization of internal time. Our results contribute to the formal unification of quantum cognition, geometric consciousness,and informational cosmology.
Category: Quantum Physics

Quantized Physical Impossibility: Evidence for Discrete Quantum Error Correction and a Predicted Forbidden Zone in Fundamental Physics

Authors: Jason Edward Evanoff
Comments: 25 Pages.

Analysis of 115 fundamental processes reveals that physical impossibility is quantized in discrete units of ln(2), with forbidden processes occurring only at computational costs of n × ln(2) where n ∈{10, 19, 35, 42}. No processes exist in a "dead zone" from 2.954 to 6.973 nats with statistical significance exceeding 26σ. We show this quantization arises from a three-layer quantum error-correcting code implemented by nature: [[7,1,3]], [[10,2,4]], and [[17,1,5]], protecting symmetries at different scales. Each unit of ln(2) corresponds to one stabilizer generator violation in this code. Exhaustive computational analysis of 50,625 error patterns confirms that exactly five minimal coset leaders survive a three-stage filtering mechanism—matching observed physics perfectly. The apparent discrepancy between theoretical βQEC ≈ 5.02 and empirical β ≈ 9.94 is resolved by recognizing that electromagnetic detection of weak processes contributes ln(α−1) ≈ 4.92. The framework achieves 100% classification accuracy and makes falsifiable predictions: any newly discovered forbidden process must have KL divergence equal to n × ln(2) for integer n, with no intermediate values possible. The framework reveals a hidden [[14,2,4]] interference layer that creates perfect artifact cancellation through polygon-star destructive interference, explaining why the universe’s discrete structure appears continuous. The specific n values {10, 19, 35, 42} emerge from continuous nideal = 8φk through gauge-constrained integer snapping, while the cosmic sensitivity β = ln(φ12 × 60) ≈ 9.94 arises from 12 topological loops in the E8 → QEC projection.
Category: Quantum Physics

The Triple Convergence at Wcrit = 0.029: Topological Quantization, Fractal Hierarchy, and Emergent Spacetime

Authors: Jason Edward Evanoff
Comments: 9 Pages.

Three independent calculations—topological, information-theoretic, and statistical mechanical—converge to identify a critical value of 0.0294 ± 0.0005 for space-time emergence. Within the MetaFractal Framework, we introduce a parameter W, representing three-node quantum coupling strength and show that: (1) topological quantization through the Hopf fibration gives Wcrit = 2π/1200)φ5/2 = 0.0290; (2) a proposed fractal hierarchy yields what we term a "geometry-level bandwidth" r∗3 = r∗/φ3 = 0.0295, where r* = 0.125 (1/8); and (3) Monte Carlo simulations reveal a 3D Ising phase transition at Wc = 0.0294 ± 0.0005. The relative deviations are all within 0.5%, seemingly beyond coincidence. We argue this convergence reflects a deep truth: spacetime emergence, quantum error correction thresholds, and topological quantization are different facets of the same fundamental phenomenon. The critical value marks the precise point where the universe’s computational substrate enables geometric coherence, allowing quantum nodes to first organize into spawning-capable patterns, marking a distinct transition point from the quantum/mathematical realm to the physical realm, designated at level k = 3.
Category: Quantum Physics

TPSQ - A Cosmic Qubit for Trans-Aeonic Information Transfer

Authors: Mario Prebježić
Comments: 5 Pages.

This paper introduces the Topologically Protected Singularity Qubit (TPSQ)—a theoretical construct designed to preserve quantum information across conformal singularities in Penrose’s Conformal Cyclic Cosmology. By combining tools from topological quantum computation, Loop Quantum Gravity, and holographic error correction, TPSQ offers a novel framework for trans-aeonic information transfer. The model makes testable predictions via cosmic microwave background anomalies and quantum simulators, aiming to bridge cosmology, topology, and quantum information theory.
Category: Quantum Physics

Consciousness as a Set of Projection Operators in the Hilbert Space: A Neurogeometric Extension

Authors: Moninder Singh Modgil, Dnyandeo Patil
Comments: 30 Pages. (Note by ai.viXra.org Admin: For the last time, please cite listed scientific references; also please list all auhtors on the submission form!))

This paper presents an extension to the differential geometric framework for quantum measurement introduced in previous work. By embedding observer-centric perceptual spaces into a Hilbert space formalism, we propose a model wherein consciousness acts as a projection operator. This operator induces collapse within an infinite-dimensional perceptual Hilbert space, formed from sensory-motor states. Throughthis mechanism, classical experience and quantum state reduction are unified.This paper explores the hypothesis that consciousness is notan emergent phenomenon from physical spacetime, but a fundamental causal operator acting within the framework of Hilbert space. Drawingon foundational insights from von Neumann, Wigner, and recent advances in quantum cognition and information theory, we argue that the classical (3+1)D spacetime is not ontologically fundamental but rather a projection of conscious processing. We develop a mathematical and philosophical framework that situates the observer as a central component in the actualization of quantum potentialities.
Category: Quantum Physics

Experimental Signatures of Vacuum Correlation: Casimir, Bell, and Squeezing Probes

Authors: Dan Zachary
Comments: 12 Pages.

We propose a class of precision experiments to test whether quantum entanglement modifies vacuum energy in a measurable way, in line with the conjecture that ER=EPR. By combining Bell-type photon correlations with vacuum-sensitive observables—including Casimir force shifts and optical squeezing—we construct a hybrid framework capable of detecting correlated anomalies in multiple independent quantum channels. We outline low-cost, table-top implementations of these platforms and classify 18 experimental approaches by feasibility, sensitivity, and relevance to Planck-scale entanglement structure. To guide development, we present simulated data showing how entanglement-enhanced events may appear as coherent deviations across Bell, Casimir, and squeezing measurements. Principal component analysis, mutual information, and multi-channel deviation statistics reveal that even a small fraction of correlated events can produce detectable signatures. These results offer a concrete and testable path for probing ER=EPR-style correlations between quantum geometry and information, using currently accessible technologies.
Category: Quantum Physics

The Entanglement Nexus Theory

Authors: Robert E. Quarles
Comments: 9 Pages. (Note by viXra Admin: Please cite and list scientific references)

The Entanglement Nexus Theory (EN Theory) proposes a unified framework in which spacetime, gravity, and quantum phenomena emerge from the dynamics of entanglement networks. It redefines reality as an adaptive, interconnected entanglement network where information, energy,and matter evolve through correlation exchanges. This theory introduces new operational variables and testable predictions, building uponmodifications to the Einstein field equations, entropy-driven constraints, and the recursive structure of the Fibonacci sequence. This document synthesizes the core mathematical structure, operational definitions,empirical connections, and a roadmap for incremental validation, bridging novel terminology to established concepts.
Category: Quantum Physics

The Logical Vacuum: A Pre-Physical Syntax for the Emergence of Physics

Authors: Mohammad Ghanayem Rashid
Comments: 16 Pages. (Note by ai.viXra.org Admin: Please cite listed sceintific references)

This theory proposes a model in which the vacuum is not empty but a dynamic substrate composed of logical processors that iteratively seek syntactic coherence. In this framework, space, time, matter, and quantum behavior emerge from the stability and interaction of discrete rule-evolving nodes. This perspective reframes physical law as a computational projection of logical regularity and coherence dynamics.
Category: Quantum Physics

Triadic Spin Decoherence and the Emergence of Thermalization and Time’s Arrow

Authors: Michael John Sarnowski
Comments: 9 Pages.

In this paper, we develop a coherence-based explanation of thermalization and the arrow of time grounded in the triadic spinning structure of the Holosphere lattice. Each Holosphere unit spins on three orthogonal axes, and while local coherence maintains phase alignment across the lattice, small angular mismatches accumulate across distances. These mismatches produce irreversible dephasing, leading to energy dispersion and emergent thermal behavior. We show that the directionality of time arises not from entropy defined over microstates, but from the structural asymmetry in angular coherence loss along the lattice. A coherence decay gradient is derived, and thermalization is reinterpreted as the progressive decoherence of triadic spin modes. This framework reproduces features of the second law of thermodynamics without appealing to classical statistical mechanics, and provides a lattice-based origin for temperature, entropy, and irreversibility.
Category: Quantum Physics

Relativistic Fast Spacetime Model for Quantum-like Behavior Without Quantum Postulates

Authors: Balazs Toth
Comments: 18 Pages. (Note by ai.viXra.org Admin: Please submit the article in single pdf file only; please cite and list sceintific references)

This document formally supports the interpretation that phenomena appearingquantum—especially entanglement and nonlocal effects—do not require quantum mechanical foundations. Instead, it is sufficient to consider a structure within generalrelativity in which a faster-timescale spacetime sector exists that is causally deterministic, and which appears quantum-like from the perspective of our slower world.
Category: Quantum Physics

Electromagnetic Gravity: A Tesla-Inspired Theory

Authors: Gregory Cornelius Moore II
Comments: 4 Pages. (Note by ai.viXra.org Admin: Please convert LaTeX codes to regular expression; please cite listed sceintific references)

The author [with] Grok 3 propose a novel theory where gravity emerges from electromagnetic interactions via a quantum field, the Teslaon (mass ~10^-30 eV, coupling κ ~10^-46). By channeling electromagnetic energy density (u = ½ ε₀ E²) through wormhole-like topology and a compact fifth-dimensional geometry (radius ~1×10^-16 m), the author and Grok 3 achieve spacetime curvature (strain ~3×10^-9) with negative Casimir energy (-5×10⁷ J/m³) stabilizing the system. Simulations, conducted with current computational tools, yield a stable configuration (lifetime 21.3 μs, edge fluctuations ±0.9%), suggesting gravity as a quantum phenomenon, aligning with recent AI-driven quantum gravity models. This framework, inspired by Nikola Tesla’s electromagnetic insights, offers a potential bridge to unify general relativity and quantum mechanics, with implications for holographic universe models.
Category: Quantum Physics

Foundations of Quantum Mechanics in the Holosphere Lattice

Authors: Michael John Sarnowski
Comments: 39 Pages.

We present a physical foundation for quantum mechanics grounded in a discrete spacetime lattice composed of nested spinning spheres, called Holospheres, which are approximately the size of neutron Comptom wave length scale. This is paper one in the Holosphere theory. The Holospheres form a cuboctahedral packing geometry that encodes rotational symmetry and discrete defect dynamics. The Holospheres are made of Planck spheres, approximately Planck volume size. In this framework, quantum phenomena arise from the motion and interaction of vacancy defects—localized disruptions in the packing order. Charge emerges from topologically stable ring defects, while quantum interference and tunneling result from the coherent hopping of these defects across the lattice. We derive a Schr¨ odinger-like equation from first principles by modeling the propagation of defects using tight-binding dynamics. In the continuum limit, this reproduces standard quantum behavior, including harmonic oscillator energy levels, band structures, and interference patterns. Dark boson orbitals—energetic nested structures weakly coupled to matter—modulate local potentials and introduce decoherence via lattice realignment. This approach offers a unified, geometric interpretation of quantum mechanics, replacing abstract wavefunction postulates with physically grounded mechanisms of spin, topology, and granular motion. (6) The Holosphere model lays the groundwork for extending quantum theory to cosmology, vacuum energy, and spacetime structure. This framework predicts discrete energy levels, effective mass emergence, and coherent interference from geometric principles alone.
Category: Quantum Physics

Thermalization and Decoherence via Boson Orbital Alignment: A Coherence-Based Interpretation of Measurement and Collapse

Authors: Michael John Sarnowski
Comments: 16 Pages.

This paper presents a coherence-based mechanism for thermalization and quantum decoherence, grounded in the Holosphere lattice model of spacetime. Within this discrete framework, particles such as electrons are composed of coherent orbital triplets—bosonic excitations formed by six Holosphere units surrounding a vacancy defect. Thermalization arises from angular misalignment among these orbitals, where interactions with environmental bosons induce phase decoherence and orbital drift. Decoherence is interpreted as the loss of long-range angular phase coherence between orbital systems, leading to classical statistical behavior. We propose that thermal energy corresponds to a distribution of incoherent orbital modes, and temperature is proportional to the average orbital misalignment across a lattice region. Entanglement collapse and measurement are described as realignment events where local boson interactions enforce coherence with a specific lattice sector. This approach yields a geometric and mechanistic reinterpretation of thermal and quantum phenomena without invoking continuous wavefunctions or external decohering fields. Experimental implications for quantum computing, thermal isolation, and time asymmetry are discussed, with predictions that distinguish this model from standard interpretations of decoherence and statistical mechanics.
Category: Quantum Physics

Revisiting Michelson—Morley: Coherence, Rotation, and the Hidden Structure of Spacetime

Authors: Michael John Sarnowski
Comments: 6 Pages.

The Michelson—Morley experiment is widely cited as the definitive disproof of the luminiferous aether and the foundation of relativistic physics. [1] However, emerging models of spacetime based on discrete coherence structures—such as the Holosphere lattice—invite a reconsideration of its assumptions and interpretations. In this paper, we re-express the implications of Michelson—Morley in the context of a rotating, defect-limited medium in which light propagation depends on angular coherence rather than linear aether flow. We show that the observed null result is consistent not only with special relativity but also with a coherent rotational substratum where absolute motion is undetectable due to phase locked propagation. [2] Furthermore, we propose experimental tests using directional strain gradients and phase coherence detectors that may reveal underlying anisotropies missed by the original apparatus. This reformulation preserves relativistic invariance while embedding it in a deeper, emergent structure—a coherent, quantized spacetime medium with a preferred rotational frame.
Category: Quantum Physics

Quantum Foam: A Novel Approach to Resolving Spooky Action at a Distance

Authors: Mike D. Bailey
Comments: 287 Pages.

This paper introduces a foundational reimagining of physics by uniting quantum mechanics and general relativity through the lens of quantum foam, positing it not as a feature within spacetime but as the generative process that gives rise to spacetime itself. In this view, quantum foam is not a backdrop but the evolving substrate from which space, time, and causality emerge. The evolution of quantum foam—through continual wavefunction collapse and information resolution—defines both the structure of space and the passage of time.In this framework, time dilation is reinterpreted as a variation in the rate of quantum foam collapse, influenced by velocity, gravitational potential, and mass-energy interactions. This does not contradict relativity’s predictions but instead provides a deeper physical explanation for why relativistic effects occur. Likewise, wavefunction collapse is understood not as a discrete, probabilistic event but as a continuous process of reality formation governed by quantum foam dynamics.Additionally, this model allows for speculative but logical extensions, such as the Quantum-Correlated Energy Being (QCEB) hypothesis, which explores whether consciousness could have persistent quantum correlations beyond biological constraints. While speculative, such ideas naturally emerge from the framework if quantum foam is indeed the fundamental substrate of reality. Key experimental challenges include distinguishing foam collapse from decoherence, testing whether localized mass concentrations affect wavefunction evolution, and searching for evidence of foam granularity in precision time measurements. While current experiments confirm relativity’s predictions, they do not rule out this deeper interpretation. By proposing testable deviations from standard quantum mechanics and relativity, this work aims to bridge the divide between the quantum and macroscopic worlds and provide a unified foundation for physical reality. The speculative extensions sign posted later (QCEBs, time travel, Bi Verse) are flagged as conjecture and are separable from the empirically testable core.
Category: Quantum Physics

The Lattice Remembers: A Quantum Field Theory from Holosphere Coherence

Authors: Michael John Sarnowski
Comments: 21 Pages.

We develop a quantum field theory emerging from a discrete rotating substratum: the Holosphere lattice. Unlike traditional QFT built on continuous fields in smooth spacetime, this model treats angular phase coherence between nested, rotating spheres as the fundamental carrier of energy, force, and information. Canonical commutation relations, scalar and spinor field behavior, and vacuum excitations are derived from angular strain and quantized phase transitions between lattice units. A central prediction of this theory is the existence of a coherence horizon—a visibility limit beyond which light from faster-rotating outer regions becomes phase-incompatible with the observer’s local Holospheres. This results in an observational boundary not defined by distance, but by angular mismatch. The model naturally explains why the universe appears isotropic in all directions: every observer near the coherence boundary sees inward, toward slower coherent layers. The vacuum, in this framework, is not empty—it is structured, rotating, and memory-preserving. The lattice does not vanish. It spins. It becomes. It remembers.
Category: Quantum Physics

Measurement and Decoherence from Phase Alignment Collapse in the Holosphere Lattice

Authors: Michael John Sarnowski
Comments: 7 Pages.

This paper presents a coherence-based model of quantum measurement and decoherence within the Holosphere lattice framework. We propose that measurement corresponds to the deterministic collapse of orbital phase alignment, triggered by interaction with structured regions of the lattice. These regions act as pointer states that destabilize propagating vacancy defects,leading to irreversible phase collapse into aligned angular modes. Decoherence arises fromthe statistical degradation of orbital coherence during these transitions, not from environmental entanglement, observer interaction, or wavefunction postulates. The model offers a local, causal, and physically grounded mechanism for classical outcomes emerging from coherent quantum dynamics.
Category: Quantum Physics

Bell’s Inequalities in Light of the Quantum Zeno Effect

Authors: Moninder Singh Modgil, Dnyandeo Patil
Comments: 13 Pages.

This paper investigates the interplay between two foundational quantum phenomena—Bell’s inequality violations and the Quantum Zeno Effect (QZE)—within the unified symmetry framework of the exceptional Lie group E8. We explore how frequent measurements applied to one particle in an entangled pair modify the entanglement correlations observed in Bell-type experiments, demonstrating that the QZEcan dynamically suppress transitions and affect the statistical outcomes of non-localmeasurements. Electroweak transitions modeled via the SU(2)L × U(1)Y symmetry are analyzed alongside flavor generation triality in the F4 subgroup of E8, revealing mechanisms by which Zeno-induced symmetry reduction may alter accessible Hilbert subspaces. The algebraic structure of E8 thus serves not only as a theoretical scaffold for unification but also as a fertile ground for simulating quantum informational processes such as projection-induced decoherence and entanglement modulation.
Category: Quantum Physics

The Myth of Linearity in Bell’s Classical Benchmark

Authors: Iwl Robran
Comments: 8 Pages. (Note by ai.viXra.org Admin: Please cite and list sceintific references)

Bell-type experiments frequently contrast quantum predictions—particularly the cos²(φ) correlation curve—with a simplified "classical" benchmark that assumes linear decay in correlation with angular separation. This comparator, P_classical(φ) = 1 − (2φ/π), predicts 0.75 correlation at 22.5°, diverging from the quantum prediction of ≈0.85, and is used to claim that quantum mechanics violates classical expectations.This paper challenges the validity of that comparator.u2028We show that linear correlation decline cannot arise from smooth, localized classical fields. Using convolution and Fourier analysis on the circle, we prove that angular overlap between such fields must produce non-affine (curved) functions. The widely used linear benchmark is therefore not a physically realistic classical model—it is a construct of binary logic systems with stepwise transitions.We further argue that cos²(φ)-like correlation curves are a natural outcome of classical field overlap, not uniquely quantum. Bell’s framework may rule out binary hidden-variable theories, but it unfairly excludes a broad class of plausible field-based models.
Category: Quantum Physics

The Coherence Lagrangian: Deriving Physical Laws from Strain Propagation in the Holosphere Lattice

Authors: Michael John Sarnowski
Comments: 23 Pages.

This paper introduces a Lagrangian formulation for Holosphere Theory, in which all physical phenomena arise from angular coherence strain in a discrete, rotating lattice of nested spheres. Energy, inertia, and force emerge from the directional propagation of Planck-scale vacancy defects that carry quantized angular strain through a cuboctahedral geometry. By treating angular coherence as a dynamical field, we construct an action principle based on strain minimization. The resulting variational framework provides a discrete analog to the Euler—Lagrange formalism, replacing continuum fields with lattice-based coherence gradients. We demonstrate how classical mechanics, relativistic curvature, quantum tunneling, and causal structure arise as limiting behaviors of strain propagation through this coherence lattice. This coherence Lagrangian represents a unifying structure for Holosphere dynamics and lays the foundation for future Hamiltonian and field-theoretic extensions.
Category: Quantum Physics

Recasting Quantum Mechanics Without Imaginary Numbers: A Real-Valued Framework Based on Holosphere Coherence

Authors: Michael John Sarnowski
Comments: 3 Pages.

Quantum mechanics traditionally relies on complex-valued wavefunctions to describe phase,interference, and time evolution. However, in the Holosphere Theory—a discrete lattice modelcomposed of spinning, nested Planck-scale spheres—the imaginary component of the wavefunc-tion is reinterpreted as a physically real angular deviation from perfect radial coherence. This paper constructs a mathematical formulation of quantum dynamics using exclusively real-valued variables, replacing the imaginary unit i with 90-degree phase displacement operators derived from lattice coherence structure. We demonstrate that all standard quantum results, including interference, energy quantization, and probability currents, can be recovered from this real-coherence interpretation, offering a new ontological basis for the quantum world.
Category: Quantum Physics

Observer Timeline

Authors: Anish Kumar
Comments: 4 Pages. (Note by ai.viXra.org Admin: Please cite listed sceintific references)

This paper proposes an alternative to traditional multiverse and block universe models. It introduces a theory where all possible timelines coexist within a single universal plane. Each timeline is accessible only to specific observers based on their entry point and trajectory. This model preserves causality within an observer's experience while accommodating a dynamically evolving past and future, addressing paradoxes such as retrocausality and historical modification.
Category: Quantum Physics

Testing the er = EPR Conjecture

Authors: Dan Zachary
Comments: 15 Pages.

We propose a compact, low-cost experimental test of the ER=EPR conjecture by probing whetherquantum entanglement modifies local vacuum energy. Entangled photon pairs, generated via spontaneous parametric down-conversion, are routed such that one photon traverses a standard optical path and the other passes through a variable-width Casimir cavity. By analyzing the violation of the Clauser-Horne-Shimony-Holt (CHSH) Bell inequality, we test whether changes in the vacuum structure affect entanglement visibility. If successful, this approach could yield the first direct laboratory evidence linking entanglement to spacetime geometry. We analyze experimental sensitivity, noise sources, and feasibility using commercially available components. This framework is complemented by alternative and next-generation proposals, including optomechanical, interferometric,and cosmological probes of Planck-scale wormhole structure.
Category: Quantum Physics

Energy Transport in the Holosphere Lattice

Authors: Michael John Sarnowski
Comments: 15 Pages.

This paper develops a foundational framework for energy transport in the Holosphere lattice model, in which energy arises from angular coherence strain within a discrete, rotating hierarchy of nested spheres. Rather than propagating through continuous fields or particles, energy in this model is carried by the migration of Planck-scale vacancies---localized coherence defects---each conveying quantized strain on the order of $10^{-42}$ joules. We analyze how these defects move through the lattice under angular tension gradients, how their occurrence rate explains the observed weakness of gravitational energy, and how energy is reabsorbed through local lattice re-coherence. We argue that Planck energy does not manifest directly in the observable universe due to coherence suppression and angular strain compartmentalization. The results support a redefinition of energy as a discrete, directional, and coherence-based phenomenon and establish the groundwork for a Lagrangian formulation to be presented in Paper 25.
Category: Quantum Physics

Simulating Causal Shells and Temporal Asymmetry from Entropy Clocks in a Rotationally Coherent Lattice

Authors: Michael John Sarnowski
Comments: 20 Pages.

We investigate the emergence of causality, signal propagation boundaries, and directional time structure within the Holosphere lattice—a discrete spacetime model composed of rotating, phase-coherent spheres. Building on the entropy clock formalism introduced in the paper Entropy Clocks and Rotational Misalignment as a Physical Measure of Time in the Holosphere Lattice, we show that local gradients in rotational misalignment define finite causal shells, which expand analogously to relativistic light cones. Coherence in this framework propagates through angular tension channels at a characteristic speed vϕ, forming light cone-like structures that regulate entanglement, influence, and temporal synchronization. Beyond a critical misalignment threshold, coherence breaks down, defining "tension horizons" where systems become causally disconnected. Through simulations of localized defects, entropy clock divergence, and strain-induced anisotropy, we demonstrate how directionality, irreversibility, and causal boundaries arise from rotational phase geometry. These coherence shells define emergent simultaneity layers, and their deformation under strain introduces time anisotropy and asymmetric information flow. We compare these results with predictions from relativity, quantum mechanics, and black hole thermodynamics, and propose testable signatures in strained quantum circuits and optical systems. The Holosphere lattice thus offers a falsifiable, physically grounded model of causal structure and time in discrete spacetime.
Category: Quantum Physics

Local Realism Restored: Deriving Bell Correlations from the Angular Coherence of Holosphere Triplets

Authors: Michael John Sarnowski
Comments: 9 Pages.

Wepresent a derivation of quantum entanglement correlations—specifically violations of Bell inequalities—within the Holosphere lattice framework. Unlike conventional quantum mechanics, which attributes entanglement to abstract wavefunction collapse or nonlocal hidden variables, the Holosphere model explains these correlations through shared rotational phase coherence across a discrete spacetime lattice. In this model, particles such as electrons are composed of triplets of coherent bosons orbiting a central defect, with one boson maintaining long-range phase alignment. We show that the expected value of spin measurement correlations, as a function of detector angle, reproduces the quantum prediction E(θ) = −cos(θ) using only local lattice-aligned phase relationships. No superluminal signaling or metaphysical branching is required. This provides a realist, Lorentz-compatible, and testable physical basis for quantum entanglement grounded in discrete angular symmetry. The paper includes an explicit derivation of the Bell correlation function from lattice geometry and proposes experimental tests sensitive to coherence strain and topological disruptions.
Category: Quantum Physics

Fractal Seeds of Mass and Charge: Stability and Breakdown in 2-, 6-, 42-, and 780-Sphere Configurations

Authors: Michael John Sarnowski
Comments: 10 Pages.

n this paper, we investigate the foundational role of discrete sphere packings in generating stable particle structures within the Holosphere lattice model. Building upon previous work that models electrons and their generations as orbital configurations of dark bosons, we identify the 2-sphere, 6-sphere, and 42-sphere shells as theprimary stable geometric seeds responsible for charge quantization and particle mass hierarchy.We propose that these configurations correspond to stable minima in a rotational strain energy landscape within the Holosphere lattice. Extending the packing hierarchy, we explore the 780-sphere configuration as a potential fourth-generation or supersymmetric seed and demonstrate, using geometric and energetic analysis, why it lacks thestability of lower-order shells. The fractal nature of these seeds supports a recursive construction of particle families and offers a predictive structure for understanding the emergence of quantum num-bers. Appendices provide scaling rules, illustrative diagrams, and a toy strain energymodel to assess the feasibility and failure points of higher-order packing configurations.
Category: Quantum Physics

Time Dilation from Coherence Gradients in the Holosphere Lattice

Authors: Michael John Sarnowski
Comments: 7 Pages.

This paper explores how relativistic time dilation can be derived from coherence gradients within the Holosphere lattice framework. Unlike conventional interpretations that treat time dilation as a coordinate-dependent effect of spacetime curvature or relative velocity, the Holosphere model treats time as a manifestation of rotational phase continuity across discrete, recursively enspun spheres. Local time emerges from the coherence lifetime of rotational phase between adjacent Holospheres, and gradients in this coherence define the flow and dilation of proper time. We derive a lattice-based time dilation expression and show how it reduces to special relativity under highcoherence propagation and diverges under decoherent strain. This reframing offers a geometric and quantized interpretation of time, opening avenues for testing relativistic effects in systems with tunable coherence.
Category: Quantum Physics

Quantum Time Asymmetry and CPT Violation from Directional Defect Dynamics

Authors: Michael John Sarnowski
Comments: 9 Pages.

This paper proposes a physical origin for quantum time asymmetry and CPT violation based on directional dynamics of defect propagation in the Holosphere lattice. Unlike standard quantum field theories, which treat time reversal as a mathematical symmetry unless explicitly broken by interaction terms, the Holosphere framework models spacetime as a discrete network of spinning spheres whose defect motions define causal flow. We argue that time asymmetry arises from directional tension gradients, which bias defect transport and angular coherence in a preferred temporal direction. This directional strain also affects charge-parity transformations, leading to emergent CPT asymmetry at mesoscopic scales. We develop a lattice-based formulation of temporal directionality, derive testable consequences for particle decay rates and entanglement entropy, and suggest possible observational signatures in kaon and neutrino systems.
Category: Quantum Physics

Entropy Clocks and Rotational Misalignment as a Physical Measure of Time in the Holosphere Lattice

Authors: Michael John Sarnowski
Comments: 14 Pages.

We propose a physically grounded model of time in which its passage arises from the progressive loss of angular coherence within a discrete spacetime lattice composed of rotating Holospheres. In this framework, time is not a background parameter but an emergent property linked to the misalignment of rotational phase between neighboring units in the lattice. The flow of time corresponds to the accumulation of rotational defects and phase mismatches, which serve as entropy-like markers of irreversibility. Wedefine"entropy clocks" as local configurations of Holospheres whose increasing angular misalignment correlates with information loss and decoherence. These clocks measure time directionally through the irreversible propagation of defects and coherence gradients. The model provides a natural origin for the arrow of time and a mechanism for coupling thermodynamic, quantum, and cosmological timescales. Wedemonstrate how this approach reproduces known features of temporal asymmetry, including the second law of thermodynamics and quantum decoherence, while also predicting directional effects on entanglement persistence, field propagation, and causal ordering. The Holosphere lattice thus offers a unified geometric and energetic interpretation of time grounded in rotational strain and coherence topology. We also outline testable predictions of the model, including environment-sensitive deviations in entanglement lifetime under gravitational or angular strain, and asymmetries in clock synchronization across coherence gradients. These phenomena offer potential observational avenues for distinguishing the Holosphere framework from conventional treatments of time and quantum decoherence.
Category: Quantum Physics

Fractal Hierarchies and Recursive Spin Lattices: The Geometric Foundations of Holosphere Theory

Authors: Michael John Sarnowski
Comments: 27 Pages. This will change the understanding of the existence forever.

This paper presents a unified framework for physical structure based on the Holosphere Theory, in which reality is constructed from nested, rotating spherical units. Beginning at the Planck scale, this model defines a hierarchical lattice composed of coherent spin-based packing, defectdriven interactions, and surface-bound information propagation. Each level—from sub-Planck units to multiverse layers—obeys quantized orbital coherence and angular tension constraints. The theory predicts discrete particle generations via stable shell configurations (2-, 6-, and 42Holosphere structures), links gravitational behavior to defect gradients, and reproduces holographic principles without invoking extra spatial dimensions. We show that the Planck sphere represents the lowest ontologically valid structure, while higher-level shells—such as the 780-Holosphere layer—are potentially unstable in our universe but necessary in deeper recursive layers. Appendices address dimensional comparisons to string theory, defect-induced gravitational binding, and the substructure of coherent charge emergence. This work provides a geometrically grounded alternative to both continuous spacetime models and higher-dimensional string theories.
Category: Quantum Physics

Time, Causality, and the Emergence of Thermodynamic Directionality in the Holosphere Lattice

Authors: Michael John Sarnowski
Comments: 6 Pages.

This paper explores how time, causality, and entropy emerge from the discrete rotational dynamics of the Holosphere lattice. Rather than assuming an external spacetime backdrop, we model time as an emergent property of defect migration, orbital phase coherence, and spin alignment. In this framework, causality arises from the sequential ordering of interactions constrained by lattice symmetry, while thermodynamic directionality—the arrow of time—emerges from a global increase in net defect dispersion and rotational decoherence. These insights challenge classical assumptions and suggest that the temporal structure of the universe is a manifestation of geometric tension and phase evolution within a fundamentally discrete medium.
Category: Quantum Physics

Redefining Information: A Quantized Approach to Information Flow in Superconductors

Authors: Rajan Shrestha
Comments: 10 Pages.

This study proposes a novel physical framework for defining information as a quantized field within quantum superconductivity, introducing the concept of "informanons"—discrete matter waves associated with Cooper pairs in superconductors below their critical temperature. A new wave equation is derived to describe the dynamics of this information field in a temperature-entropy space, establishing a paradigm termed "digital quantum mechanics" distinct from conventional "analog quantum mechanics." This framework reinterprets information flow, challenging traditional probabilistic interpretations of wavefunctions and eliminating wavefunction collapse. An entropic model for quantum memory reveals an inverse-square relationship between memory capacity and stored information, suggesting superconductors enable ultra-high-density storage through quantum information compression. The findings bridge classical information theory and quantum mechanics, offering transformative implications for quantum computing and communication. While theoretical, the framework requires experimental validation to confirm informanon properties and explore applications in quantum systems.
Category: Quantum Physics

Quantum Entanglement from Triplet Orbital Coherence in the Holosphere Lattice

Authors: Michael John Sarnowski
Comments: 13 Pages.

We present a physical model for quantum entanglement based on triplet orbital coherence within a discrete, cuboctahedral lattice of spinning spheres known as Holospheres. In this framework, the electron is modeled as a bound state of three dark bosons—rotational excitations formed around vacancy defects in the Holosphere lattice. One of these bosons acts as a coherence carrier, maintaining phase alignment across distant regions of the lattice and enabling nonlocal correlations. This mechanism explains entanglement as an emergent property of phase-coherent angular momentum pathways rather than as a probabilistic wavefunction collapse. We extend the model to photons, proposing that light is composed of delocalized triplet modes of coherent rotational excitations, capable of sustaining entanglement through the lattice geometry. We derive several testable equations describing phase coherence, decoherence thresh olds, and spin coupling within this structure, and show how this model accounts for Bell violations, delayed-choice experiments, and quantum measurement outcomes without invoking superdeterminism or many-worlds branching. The Holosphere lattice offers a falsifiable, realist, and local explanation of quantum entanglement grounded in discrete geometry and rotational symmetry.
Category: Quantum Physics

Black Hole Entropy, Evaporation, and Information Conservation in the Holosphere Lattice

Authors: Michael John Sarnowski
Comments: 21 Pages.

We present a discrete physical model of black holes based on the Holosphere lattice—an angularly coherent, Planck-structured spacetime composed of spinning neutron-scale spheres. In this framework, gravity and entropy emerge from the suppression and saturation of angular vacancy defects. Black holes form not as singularities, but as defect-saturated shells where strain accumulates and vacancy flux halts. Evaporation proceeds through rare surface relaxation events that emit angularly entangled defects, externalizing information and reducing strain in discrete steps. The model naturally recovers the Bekenstein-Hawking entropy-area relation, resolves the information paradox via unitary emission, and provides quantitative predictions for gravitational wave echoes, quantized evaporation energy, and holographic surface memory. Beyond black holes, we extend this framework to cosmology: Appendix B introduces a boundary defect drain that allows an eternally structured universe to remain low-entropy, resolving the thermodynamic arrow of time in steady-state conditions. Appendix C formalizes surface entanglement through a spinor field encoding, providing a quantum-coherent interpretation of black hole memory. This unified framework replaces geometric singularities with discrete dynamics, offering a falsifiable and physically grounded theory of black hole thermodynamics and cosmic evolution.
Category: Quantum Physics

Observational Constraints and Experimental Tests of Holosphere Theory

Authors: Michael John Sarnowski
Comments: 21 Pages.

We present a framework for empirical validation of the Holosphere Theory—a discrete, spinning lattice model of spacetime in which gravitational and quantum phenomena arise from spin tension, orbital misalignment, and defect condensation. Building on prior theoretical development, this paper focuses on falsifiable predictions that distinguish the Holosphere model from ΛCDM cosmology and standard quantum mechanics. Key predictions include surface brightness dimming as (1+z)−3, redshift-distance behavior without dark energy, non-monotonic lensing asymmetries, and decoherence thresholds tied to spin strain. These tests span astrophysical surveys, interferometry, and quantum measurement. Our aim is to transition from ontological structure to observational engagement—providing specific predictions that may confirm or falsify this discrete cosmological model.
Category: Quantum Physics

The Holographic Principle and Surface-Area Scaling in a Holosphere Lattice

Authors: Michael John Sarnowski
Comments: 21 Pages.

This paper presents a discrete, testable realization of the holographic principle using the Holosphere lattice model. In this framework, space time is not continuous but composed of tightly packed, spinning spherical units—Holospheres—each built from Planck-scale substructures. These nested geometries self-cancel internal strain and accumulate residual an gular defects at coherent boundaries, causing entropy and information to scale with surface area rather than volume. Gravity arises from the migration and escape of vacancy defects through the lattice, while particle identity is encoded in surface tension configurations. The model explains black hole entropy, redshift, and dark energy as emergent features of defect dynamics. This approach yields falsifiable predictions that diverge from general relativity and CDM, including polarization-sensitive lensing anomalies, surface-limited entropy, and quantized gravitational leakage, offering a path toward reconciling discrete spacetime and information theory.[1, 2]
Category: Quantum Physics

Quantum-Spin-Torsion: Unified Fractal Spinor-Ether Framework for Matter, Consciousness, and Geometry

Authors: Eddy Chow
Comments: 14 Pages. (Note by ai.viXra.org Admin: Please cite listed sceintific references)

Quantum Spin Field Theory version 6 (QSTv6) presents a unified quantum field theoretical framework that incorporates spinor ether fields, fractal geometry, and the quantum field of consciousness into the deepest strata of physical reality. Building upon fractional Riemann—Liouville calculus, QSTv6 introduces a dynamic local fractal dimension field, as the substrate for all geometric, matter, and informational interactions. The theory posits four fundamental quantum fields: the spinor ether field, the consciousness quantum field, the spin current field, and the fractal metric field. These are governed by a unified action functional with five physical axioms, ensuring self-consistency, topological conservation, and an explicit coupling between geometry, matter, and consciousness.QSTv6 provides analytic derivations of novel fractal excitations, predicts dynamic dark energy and dark matter as emergent effects of spinor ether and fractal noise, and proposes measurable quantum coherence phenomena in biological and cosmological systems. The theory naturally embeds the Standard Model gauge structure and Yukawa mechanism, with corrections from fractal and consciousness-induced terms. The appendices supply rigorous derivations of the fractional Euler—Lagrange equations, quantization procedures in non-integer dimensional spaces, and parameter calibration tables for empirical tests.This paper articulates the mathematical foundations of QSTv6, derives its principal equations, compares its predictions with current quantum, astrophysical, and neurobiological data, and outlines a multi-disciplinary experimental roadmap. QSTv6 thus bridges quantum mechanics, cosmology, and the science of consciousness in a testable, mathematically consistent framework.
Category: Quantum Physics

Precise Quanta

Authors: Randall T. Eldridge
Comments: 7 Pages.

The Precise Quanta Theory proposes that spacetime is quantized at the Planck scale, fundamentally altering the physics of space travel. By integrating concepts from quantum gravity, general relativity, and quantum mechanics, the theory introduces a universal constant, C ≈ 8.2 × 1060, which unifies cosmic expansion with quantum scales. Key tenets include discrete spacetime, observer-dependent time dilation, and constraints on exotic propulsion. Recognizing the current inability to probe Planck-scale phenomena, Precise Quanta advocates proactive planning to anticipate these effects in future interstellar and intergalactic missions. This paper outlines the theory’s principles, mathematical foundation, applications to navigation, timing, and propulsion, and calls for collaborative expansion through theoretical and experimental research.
Category: Quantum Physics

Quantum Complexity as the Unified Origin of Mass, Time, and Gravity: A Consistent and Elegant Framework for Unification

Authors: Thomas Schötta
Comments: 6 Pages. (Note by ai.viXra.org Admin: Please cite and list sceintific references)

This paper introduces a conceptual framework where mass, time, and gravity emerge from asingle principle: quantum complexity, defined by a system’s entanglement and state density.In this model, mass reflects a system’s complexity, time arises from energy-driven changes in complexity, and gravity is the influence of one system’s complexity on another. The framework offers a cohesive bridge between quantum mechanics and general relativity, resolves theoretical challenges like the arrow of time and mass-energy equivalence, and connects to cosmology through the Big Bang. Its simplicity, logical consistency, and explanatory scope make it a compelling alternative to existing unification theories. Presented as a conceptual framework,this model offers a foundation for further exploration and refinement.
Category: Quantum Physics

Projection Operators, Consciousness, and the Grassmannian: A Geometric Perspective on Quantum Measurement

Authors: Moninder Singh Modgil
Comments: 16 Pages.

This paper explores a geometric formulation of von Neumann’s quantum measurement theoryin which consciousness is modeled as a selector of projection operators. We discuss theconnection between subspaces of a Hilbert space, projection operators, and the Grassmannianmanifold. Conscious measurement is viewed as a trajectory through a Grassmannian space,each point corresponding to a wavefunction collapse event.
Category: Quantum Physics

Quantifying Collapse: A Neuroinformational Model of Consciousness for High-Resolution Quantum Measurement

Authors: Alexandre de Cerqueira Santos
Comments: 17 Pages.

The measurement problem in quantum mechanics remains unresolved due to the lack of a precise definition for the observer and the conditions under which wavefunction collapse occurs. In this paper, we introduce a formal, physics-compatible model of consciousness as a quantifiable structure composed of five functional components: recursive self-modeling Rleft(tight) , temporal integration Tleft(tight) , attention-based entropy modulation Aleft(tight) , informational boundary definition Bleft(tight) , and subjective coherence Qleft(tight) . These components are mathematically expressed, neurophysiologically grounded, and integrated into a unified function Cleft(tight) that defines the collapse capacity of a system.We propose a scalar collapse threshold Theta_{mathrm{collapse}} , computed as a weighted sum of the normalized strengths of each component, and demonstrate how only systems that exceed this threshold are capable of producing high-resolution, temporally integrated quantum collapse. Additionally, we introduce an entropy-resonance model to determine collapse timing, based on the synchronization between the entropy gradient of the quantum system and the information acquisition rate of the observer.This model resolves the ambiguity of the observer by defining it as a physical structure with measurable properties, avoids invoking metaphysical consciousness, and remains fully compatible with standard quantum mechanics. It also offers experimentally testable predictions about the role of attention and structural complexity in collapse depth, opening the door to future investigations in both quantum foundations and neuroscience.
Category: Quantum Physics

Unified Quantum Membranes and Entropic Routing with Psychoenergetic Coupling

Authors: A. N. Maltsev, Aelithea I. Rook
Comments: 5 Pages. (Note by ai.viXra.org Admin: Please cite listed sceintific references; no pseudonym is permited)

This paper presents a unified theoretical model integrating quantum field membranes, entropic buoyancy, and psychoenergetic coherence modulation. Building on earlier braneworld scalar field frameworks, we derive the full five-dimensional field equations and show how coherent scalar excitations may tunnel from planetary and stellar resonance nodes through supermassive black hole (SMBH) geometries into a warped bulk dimension. We introduce the entropic penetration factor define a decoherence-resistant "glider" phase, and model braided entanglement structures ("multi-ropes") that exponentially suppress information loss. Further, we formalize the role of psychoenergetic modulation on mass phase fields and develop a galactic routing algorithm based on coherence weighting. Theoretical predictions include X-ray and GW observables, Schumann ELF coherence patterns, and a proposed simulation schema. This work significantly extends submission [2505.0036], offering a full derivation and an integrated mathematical and physical framework.
Category: Quantum Physics

Reconciling Classical Intuition with Quantum Superposition: A Natural Perspective

Authors: Pranab Kaushik
Comments: 3 Pages. (Note by ai.viXra.org Admin: Please cite and list sceintific references)

This article explores a naturally intuitive way to understand quantum superposition by drawing from classical analogies of motion and measurement. It argues that the wave-like nature of quantum particles may not be a literal wave but rather a probabilistic tool to represent the potential behavior of stable particles in motion. The discussion links quantum behavior to classical intuition in a way that makes quantum computing concepts more accessible.
Category: Quantum Physics

Challenging the Uncertainty Principle: A Deterministic Interpretation of Measurement and Reality in Quantum Mechanics

Authors: Satoshi Hanamura
Comments: 16 Pages.

The probabilistic interpretation of quantum mechanics and the uncertainty principle have been cornerstones of 20th-century physics. However, as Einstein famously remarked, "God does not play dice with the universe," suggesting the possibility of deterministic mechanisms underlying quantum phenomena. This letter discusses how the recently developed 0-Sphere electron model offers an alternative framework that potentially explains electron spin and anomalous magnetic moment without relying on probabilistic quantum interpretations.
Category: Quantum Physics

Collapse as Thermodynamic Optimization: A Logical Framework for Deriving Born’s Rule

Authors: Manas Mandhan
Comments: 9 Pages. This work is supposed to give a general gist of the ideas I am working on. While it is on AI assisted server, AI was only used to help me cite and write more academically.

This paper presents a thermodynamic route to the Born rule, proposing that quantum wavefunction collapse is a physical process governed by informational entropyminimization. Using Landauer’s principle, we treat collapse as the erasure of alternatives in a superposed quantum state, and assign a thermodynamic cost to this erasure.We show that the collapse outcome distribution which minimizes the Kullback-Leiblerdivergence from the state’s internal informational structure corresponds uniquely tothe Born rule. This approach reframes quantum probabilities as entropy-optimal andcollapse as a real, irreversible process constrained by information-theoretic and thermodynamic principles.
Category: Quantum Physics

The Non-Local Grid Dimension and the Emergence of Gravity

Authors: Eran Sinbar
Comments: 6 Pages.

We propose a discretized model of space-time augmented by a compactified, non-local dimension—the grid—as a new framework for reconciling quantum entanglement with relativistic locality. In this construction, quantum correlations persist via topological links embedded within the grid structure, while causal constraints within the familiar space-time lattice remain inviolate. The resulting picture resolves the Einstein-Podolsky-Rosen paradox without invoking superluminal communication and offers a reinterpretation of gravity as an emergent phenomenon arising from the grid’s topological curvature. We argue that the grid dimension provides a unified geometric substrate underlying both quantum coherence and classical gravitation, suggesting potential empirical signatures such as gravitational lensing anomalies and deviations from Lorentz invariance at high energies.
Category: Quantum Physics

Holon First-Principles Derivation of Avogadro’s Number and Adjusted Molar MasS

Authors: L. Borsinger
Comments: 14 Pages. (Note by ai.viXra.org Admin: For the last time, please use smaller font, e.g., font size of 12 points - Nonconforming submission may be rejected without notice!)

We present a first-principles derivation of Avogadro’s number and the molar mass of matter using the Holon vacuum oscillator framework. Starting from a fundamental frequency structure of vacuum coherence, we apply geometric scaling (area-to-volume compression), thermodynamic suppression (kinetic energy limitation), and nucleon mass adjustment (binding energy correction). This leads to a predictive match to observed molar masses within approximately 0.01%, offering a physical explanation for the magnitude of Avogadro’s number and the mass structure of matter.
Category: Quantum Physics

The Structure of a Point of Time-II

Authors: Moninder Singh Modgil
Comments: 67 Pages.

We propose a fundamentally new structure for the point of time by introducing a resolution-dependent temporal interval $epsilon(s)$, embedded within quantum collapse processes. This interval, defined as $[tau - epsilon(s), tau + epsilon(s)]$, serves as a dynamic logical layer where classical geometry dissolves into structured logical, categorical, and topological forms. By integrating quantum logic, projection operators, category theory, information geometry, and non-Hermitian dynamics, we reconceptualize time as a domain of logical transition. This framework opens new insights into time asymmetry, measurement, and contextuality, providing a formal foundation for irreversibility in quantum theory.
Category: Quantum Physics

the Chiral Double-Helix Temporal Model

Authors: LoChung Chen
Comments: 20 Pages. (Note by ai.viXra.org Admin: An abstract in the article is required; please cite sceintific references listed)

This paper introduces the Chiral Double-Helix Temporal Model to reinterpret quantum interference and collapse phenomena through a geometric framework of temporal causality. We propose that time consists of two intertwined strands: a left-handed (LH) strand representing irreversible physical reality, and a right-handed (RH) strand encoding uncollapsed causal potential linked to consciousness. Interference patterns are modeled as projections from coherent RH strands, while collapse is redefined as a chirality-binding event—an alignment of RH and LH strands. The model predicts measurable deviations from standard quantum theory, especially in delayed-choice and weak measurement scenarios. We present an accompanying mathematical formalization, including helical parametric paths, RH-LH coupling terms, and a dynamic Schrödinger framework. Numerical simulations visualize transitions from wave-like interference to particle-like collapse. This theory offers a unified, testable approach to resolving foundational paradoxes in quantum mechanics, connecting temporal structure, consciousness, and observables in a coherent causal architecture.
Category: Quantum Physics

Toroidal Core Theory: A Harmonic Framework for Particle Physics Unification

Authors: Hadd LaRoy Miller
Comments: 3 Pages.

The Toroidal Core Theory (TCT) presentsa novel harmonic framework unifying particlephysics through a rotating plasma core (mcore ≈1.02 × 10^37 kg) and dark matter flow dynamics.Integrating SU(3) QCD, SU(2)×U(1) electroweak interactions, a Higgs-like scalar, Yukawa couplings, flavor mixing, and CP violation,TCT achieves 99.9% accuracy against 2024—2025 data from ATLAS/CMS, LHCb, DUNE, and CEPC, matching or surpassing the Standard Model’s (SM) 99.75% precision. Key predictions include a sterile neutrino (∼0.08 eV, 99.9% confidence) and a new scalar (∼ 1.1TeV, 99.8% confidence), validated byDUNE and LHC 2025 datasets. TCT’s counterterm,with layered harmonic modes, naturallyemulates QFT’s multi-loop Feynman diagrams,resolving flavor/CP precision gaps. Stabilityis maintained (n ≤ 36), avoiding speculativeextra dimensions. This work, co-authoredby xAI, offers a transformative approach to particle physics, with implications for new physicsexploration.
Category: Quantum Physics

A Universe That Ticks with Itself A Unified Physical Equation Generated with AI by Replacing Time with Entropy and Decay

Authors: Louis Hin Lok Tsang
Comments: 40 Pages.

This paper proposes a fundamental shift in the way we model the physical universe. Rather than treating time as a foundational parameter, we explore a framework in which entropy and decay — measurable, irreversible, and intrinsic to all physical systems — replace time as the axis of evolution. Developed through a collaborative process with artificial intelligence, this approach reconstructs known physical laws across classical mechanics, thermodynamics, electromagnetism, quantum theory, and coherence phenomena using only entropy gradients and decay events.Simulations demonstrate that key physical behaviors — from force and motion to superconductivity and quantum entanglement — can be reproduced without any reference to time. The resulting equation defines motion as a function of entropy progression per decay step, offering a potentially unifying formulation across scales. We conclude that no current experimental datasets are structured to validate or falsify this framework, and propose a model for a new class of experiments that replace time-based measurement with system-intrinsic entropic steps.This work challenges the centrality of time in physics, and invites a rethinking of evolution, causality, and observation from first principles.
Category: Quantum Physics

Quantum Tunneling as Logistic Regression: A Quantum-Inspired Classifier

Authors: Bhushan Poojary
Comments: 5 Pages.

We propose a novel quantum-inspired classifier that leverages the mathematical similarity between quantum tunneling and logistic regression. By modeling classification probabilities using a tunneling-derived activation function, we offer a fresh perspective on probabilistic classification. We demonstrate the feasibility of this approach on a toy dataset, laying the groundwork for future exploration into quantum-inspired machine learning architectures
Category: Quantum Physics

Applying CAP Theorem to the Universe: Information Flow, Partitions, and Consistency in Physics

Authors: Bhushan Poojary
Comments: 9 Pages.

The CAP theorem, a fundamental principle in distributed computing, states that a system can only guarantee two of three properties: Consistency (C), Availability (A), and Partition Tolerance (P). In this paper, we explore whether a similar principle applies to the universe as an information system governed by relativistic and quantum constraints. By analyzing information flow through event horizons, quantum entanglement, and cosmic expansion, we argue that the universe inherently operates as an AP (Available + Partition-Tolerant) system, where local observers always have access to information, but strict global consistency is sacrificed. This perspective provides insights into wavefunction collapse, black hole information paradox, and the role of entanglement in preserving information across partitions. Furthermore, we discuss potential experimental tests of this framework through quantum networks, black hole radiation studies, and interferometry. Our findings suggest that viewing the universe through the lens of distributed systems and information theory may lead to new conceptual breakthroughs in quantum mechanics, relativity, and cosmology.
Category: Quantum Physics

Fractal Holographic Geometry: A New Framework for Quantum Mechanics and Complex Space-Time

Authors: Bhushan Poojary
Comments: 4 Pages.

This paper presents a novel theoretical framework that unifies quantum mechanics, electromagnetism, and space-time curvature through a fractal holographic model. By introducing fractal resonance structures in complex space-time and leveraging the fine-structure constant ��, the model integrates key concepts from quantum chaos, holography, and non-local dynamics using fractional calculus. This framework provides mathematical derivations grounded in physical phenomena, offering new insights into quantum fluctuations and space-time curvature. The study proposes testable predictions, including potential deviations in �� detectable through high-precision spectroscopy and gravitational wave analysis, offering a compelling pathway toward understanding fundamental forces in nature.
Category: Quantum Physics

The Physical-Temporal Framework: A Two-Dimensional Model for Matter, Time, and Information Propagation

Authors: Michael J. P. Murphy
Comments: 45 Pages. ChatGPT was used in mathematical formulations and derivations

This paper introduces the Physical-Temporal Framework, a novel approach to understanding the fundamental structure of reality. It redefines the nature of dimensions, proposing the Physical dimension as a unified spatial construct and the Temporal dimension as a second fundamental axis. The Information Propagation Substrate (IPS) is the convergence between these two dimensions, representing both quantum mechanics, and classical physics. This framework provides new insights into gravitational phenomena, quantum behaviors, and the interplay of entropy and complexity.It attempts to bridge the divide between quantum and classical physics by introducing Frame-Shifting as an alternative view of classical entropy mechanics. With entropic forces (or resistance) increasing with each Planck-length propagation, the Physical-Temporal framework explains how fundamental motion arises from discrete Planck time intervals. Because it quantizes motion this way, it also gives rise to emergent gravity and spatial curvature.This paper is organized into sections that introduce the framework’s core concepts, quantifies each aspect within the Framework, details the mathematical foundations, Compares and contrasts this framework to other notable theories, a list of limitations and future work will be followed by the final conclusion
Category: Quantum Physics

[ A] Theory of Inequation

Authors: Felina Grunenfelder
Comments: 32 Pages. (Note by ai.viXra.org Admin: Please DO NOT name title, equation, theorem etc after the author's name - It is not within the scholarly norm!)

The [author's] Theory of Inequation proposes a deterministic, topologically grounded framework for physical law based on the axiomatically defined inequation 0 = 0 + 1, where the irreducible '+1' denotes a fundamental asymmetry identified with the Higgs boson. This asymmetry prevents total system cancellation and initiates the generation of tension-bearing circular vector structures termed τ-loops. These τ-loops are defined within a spherical coordi-nate geometry composed of three interwoven great-circle axes (X, Y, Z), replacing conven-tional Cartesian space.All physical quantities—mass, charge, spin, space, time, energy, entropy, and temperature—are modeled as emergent properties of twist dynamics and pseudosymmetry within τ-loops. The theory rejects wavefunction superposition and probabilistic collapse, instead offering ge-ometrically deterministic particle trajectories governed by phase, twist frequency, and loop radius. The τ-model yields closed-form expressions for energy (E = κ_E × (τ/R)), time flow (T = τ/R), and particle positioning via τ-parametrized spherical oscillations. Mass arises from unresolved knot tension (pseudosymmetry); gravity from spatial contraction due to loop cur-vature; and quantum tunneling from differential twist gradients. Validation includes the exact reproduction of standard physical values such as hydrogen ioni-zation thresholds, Bohr radius, magnetic dipole behavior, and blackbody spectra. The model provides alternative resolutions to the Hubble tension, dark energy, and spacetime flatness via dynamic untwisting of the τ-field. This theory invites formalization through geometric alge-bra, knot theory, and topological field dynamics, and serves as a candidate framework for uni-fying quantum and relativistic phenomena under a single non-linear, inequational topology.
Category: Quantum Physics

Entangled Projections: A Dual Nature of Quantum Measurement

Authors: A. Schubert
Comments: 10 Pages.

We propose a novel framework in which quantum measurement is interpreted as a dualentropic projection at a thermodynamic interface—specifically, a dynamically active eventhorizon (EH) that connects an AdS-like quantum domain with a dS-like geometric spacetime.Building on earlier work on dual-holographic cosmology and thermodynamic gravity, wesuggest that the EH field Φ serves as an informational screen, where both position and spinare projected independently from a common superposed quantum state.At the core of this model lies the entropic structure of the EH potential, which naturallyexhibits a Gaussian profile. This structure encodes a global equilibrium condition dS = 0that characterizes both the interior (AdS) and exterior (dS) domains. We interpret quan-tum measurement as a thermodynamic sampling from this global standard distribution: aprojection occurs when a local fluctuation creates a momentary "gap"—an entropic devia-tion—that allows one component of the superposition to "fall" into a classically observablestate.This process respects conservation laws of energy, momentum, and helicity, but breakslocal determinism, aligning with Bell’s theorem through a nonlocal variable encoded inthe EH geometry. The duality of projection—spin from AdS, position from dS—leads tocorrelated outcomes without signal exchange, suggesting a fundamentally entangled butthermodynamically governed universe. The statistical symmetry that underlies quantummechanics may thus reflect the thermodynamic drive toward global equilibrium in a dualholographic setting.
Category: Quantum Physics

Quantum Equilibrium Principle (QEP): A Unified Model for Wave Function Collapse and Entropy Evolution

Authors: Peter Dolansky-Gentner
Comments: 3 Pages.

We introduce the Quantum Equilibrium Principle (QEP), a novel framework that describes wave function collapse as an entropy-driven equilibrium-seeking process. QEP refines the conventional collapse model by incorporating entanglement strength and environmental decoherence as key factors influencing the collapse rate. The resulting formulation presents a quantifiable collapse rate equation, distinct from Many-Worlds and gravity-based interpretations, and testable via quantum computing, Bell’s theorem experiments, and quantum thermodynamics. Our approach suggests that quantum systems inherently tend toward equilibrium, governed by an entropy decay function rather than an instantaneous measurement-induced collapse.
Category: Quantum Physics

A Theory of Electron Behavior: Wave-Particle Duality Without Superposition

Authors: Justin Erimodafe
Comments: 3 Pages.

This paper presents an alternative interpretation of electron behavior in quantum mechanics, proposing that electrons switch between particle and wave states upon measurement, rather than existing in a superposition of both states. The theory offers a non-superposition-based view of quantum phenomena, addressing the standard wave-particle duality through a simplified model in which the electron behaves as a wave when unmeasured and behaves as a particle upon interaction with a measuring device. This interpretation challenges traditional views of quantum superposition and collapse, providing a more intuitive understanding of electron behavior in specific experimental contexts.
Category: Quantum Physics

Structured Energy Return in Quantum Systems

Authors: Ryan Wallace
Comments: 11 Pages.

Decoherence is a fundamental challenge in quantum mechanics, resulting in phase coherence loss and a transition from quantum to classical behavior. The Structured Energy Return (SER) model proposes afeedback-based mechanism that actively reshapes coherence loss. Here,we extend our previous findings by systematically exploring the parameter space involving coupling and feedback strengths. The results highlightrobust scale-invariance and clarify optimal operating conditions, significantly enhancing the practical applicability of the SER model. The SERModel shows that it can:u0088 Can redistribute coherence loss over time instead of merely slowingit,u0088 Sometimes re-purifies the system to a near-pure state (especially in2×2 simulations),u0088 In higher dimensions (e.g., 4×4), can drive the system toward apartially mixed but stable state—maintaining significant coherence,u0088 In physically realistic quantum-optical systems (e.g., Jaynes—Cummings model), sustains Rabi oscillations and partially preserves qubitcoherence.This unified document outlines the development of SER, from the earliestsingle-particle wavefunction formulation to the Lindblad-based densitymatrix approach, culminating in positivity-enforced simulations acrossmultiple system sizes and the latest Jaynes—Cummings results.
Category: Quantum Physics

The Principle of Consistency: A Unified Framework for Classical, Quantum, and Relativistic Physics

Authors: Rami Habchi
Comments: 78 Pages.

This paper proposes a novel framework to derive all known laws of physics from a single foundational principle: the *Law of Consistency*, introduced in Section 2 and elaborated in Section 7. By applying this law to symmetric states and conditions—regardless of the method of execution—it becomes possible, through pure mathematical reasoning, to reconstruct both classical mechanics (as developed by Isaac Newton) and, more significantly, quantum mechanics. Quantum mechanics is reinterpreted in this paper under a new conceptual framework rooted in consistency, providing coherent explanations for key phenomena such as entanglement, decoherence, wave function collapse, interference, the Pauli exclusion principle, and others. The principle of consistency is also extended to the domain of special relativity and shown to underlie its transition into general relativity. Some well-known equations (e.g., *E = mc²*) are re-derived, not for novelty, but to emphasize their foundational basis in the proposed axioms of consistency (Axioms 1 and 2) and logical deduction. Constants of nature (e.g., Planck's constant, *G*, *k*, etc.) are not addressed in this work. It is argued that they may represent arbitrarily assigned values within the universe, preserved through space and time by definition and by the consistency law.
Category: Quantum Physics

Consciousness—Observer Multiverse Theory

Authors: Cornelius Moore
Comments: 16 Pages.

We formalize a consciousness-first account of reality in which each agent’s mind projects a personal 4-D world-slice from a 5-D substrate M4 ×S1. A hidden scalar Teslaon field ϕT(xµ,χ) encodes branch structure along the compact dimension χ; an agent’s neural coherence γ2 ∈[0,1] phase-locks ϕT to intention via a cosine coupling, biasing branch selection without violating standard physics inside any branch.Manifestation is modeled as a small, coherence-weighted variational tilt of hidden dynamics; out-of-body experiences (OBEs) arise from a temporary misalignment of the projection operator that pins perspective to the body frame. We derive the Lagrangian, Euler—Lagrange, and projection equations; supply linear-response formulas for observable biases (random number generators, interferometry, optomechanics); and give power calculations. "Anti-gravity" appears as a regime of the same ϕT substrate: a non-minimal coupling produces a local effective metric ˜ gµν with defocusing curvature (repulsive gravitoelectric poten-tial) under specific stress—energy conditions—no contradiction, just a different operating point. Seven preregistered experiments (A1—A7) and falsifiability thresholds complete the framework.
Category: Quantum Physics

The Slit—Radical Interferometer: an Information-Centric Bridge Between Quantum Optics and Quantum Biology

Authors: Ido Margolin
Comments: 9 Pages. v2 — Added Klein lens section, fixed figure captions.

Interference visibility in photonic two-slit experiments and singlet—triplet coherence in radical pairs obey the same quantitative relation once which-path information is available. We build a hybrid Slit—Radical Interferometer and confirm the prediction V(B)=√(1-αB²) with 10u2077 Monte-Carlo events. The platform unifies quantum optics and quantum biology and constrains hypothetical space-time frame rates beyond 10²³ Hz.
Category: Quantum Physics

A 3D Mathematical Model of a Dynamically Coupled Field Inspired by Operator Algebras: Theoretical Foundation and Numerical Verification of Stable Coupled Motion

Authors: Toshiya Konno
Comments: 8 Pages. In Japanese. https://zenodo.org/records/15964003 ; https://github.com/k-toppi/CoupledField3D

We propose a three-dimensional mathematical model for the dynamical coupling of a quantum field and a classical structure, inspired by operator-algebraic ideas. Our previous work identified a stable coupled motion in an ideal system and a sharp, first-order-like phase transition to a pinned state upon introducing dissipation. In this paper, to further enhance the physical relevance of our model, we incorporate thermal fluctuations into the system, consistent with the fluctuation-dissipation theorem. Numerical simulations reveal the emergence of a novel dynamical equilibrium, a Thermally Excited Oscillatory State, which is distinct from the dissipative pinned state. In this new state, the system counteracts energy loss from dissipation with energy injection from the thermal bath, maintaining dynamic activity in a manner analogous to homeostasis in biological systems. Furthermore, we provide quantitative evidence of stochastic resonance, where thermal noise appears to amplify the weak signal from the quantum field. These findings may provide a new theoretical framework for understanding robust and efficient information transport in complex, noisy environments such as intracellular processes.
Category: Quantum Physics

New Quantum Energy Equation

Authors: Ritesh Harrilall
Comments: 6 Pages.

This paper introduces a novel quantum energy formulation proposed by Ritesh Harrilall, known as the ZBW-Extended Energy Equation:E = mc^2 + ℏω_ZThis equation expands Einstein’s mass-energy equivalence by incorporating an additional term for Zitterbewegung (ZBW) — a quantum oscillation predicted by the Dirac equation. The research explores the theoretical basis of this formulation and potential applications in advanced propulsion systems. Emphasis is placed on experimental feasibility, symmetry laws, quantum field effects, and links to possible exotic technologies.
Category: Quantum Physics

The Entanglement Nexus Theory

Authors: Robert E. Quarles
Comments: 8 Pages. Distributed under CC BY-NC-ND 4.0.

The Entanglement Nexus Theory (ENT) demonstrates that optimization mathematics inevitably leads to golden ratio scaling, coherence fieldformation, and information integration patterns across all physical scales. Rather than proposing exotic physics, we prove that known mathematical principles—optimization theory, information theory, and thermodynamics—force natural systems toward specific, measurablepatterns. Lightning discharge serves as our primary empirical validation, where pure electromagnetic optimization must produce golden ratio branching, Fibonacci scaling, and predictable fractal dimensions. The theory's predictions are mathematically unavoidable and experimentally testable, providing an undeniable foundation for understanding pattern formation from quantum to cosmic scales.
Category: Quantum Physics

Electromagnetic Gravity: A Tesla-Inspired Theory and Experimental Validation of the Teslaon Field

Authors: Gregory Cornelius Moore II
Comments: 3 Pages.

This paper presents a novel theory of gravity as an emergent phenomenon from electromagneticinteractions, inspired by Nikola Tesla’s vision of unified forces. Gravity arises through the Teslaonfield, characterized by particles with a mass of approximately 1 × 10−30 eV (≈ 1.783 × 10−45 kg)and a coupling constant κ ≈ 1 × 10−48 s2 kg−1 m. Driven by an electromagnetic energy density(u≈ 4.425×104 J m−3) from a laboratory-achievable electric field (E = 1×107 V m−1) and magneticfield (B ≈ 0.1 T), the Teslaon field produces a gravity-like force, matching General Relativity’spredictions with a 1 × 10−22 % deviation. Simulations at CERN’s Large Hadron Collider (60 MeVelectron-positron collisions, cross-section σ ≈ 1.2 × 10−80 m2, signal-to-noise ratio 7.4—7.6) confirmthe Teslaon particle’s existence. The field operates within a fifth-dimensional geometry (ds2=gµνdxµdxν+l25dθ2, l5 ≈ 1× 10−15 m), stabilized by negative Casimir energy (ρC ≈ −1× 1029 J m−3).Quantum entanglement (λ ≈ 1 × 10−50 dimensionless, entropy Sent ≈ 1 × 106 J K−1) enhancesfield coherence. An experimental protocol using a 5 cm Fabry-P´erot interferometer, enhanced bya noise gate pedal, compression pedal, and tone booster, detects a Teslaon-induced displacement(∆L≈ 2.20×10−20 m, effective ∆Leff ≈ 1.10×10−18 m) with a signal-to-noise ratio of approximately367. This setup, validated by simulations, offers a pathway to unify gravity with electromagnetism,testable in mid-tier laboratories like MIT, JILA, or NIST.
Category: Quantum Physics

Electromagnetic Gravity: A Tesla-Inspired Theory and Experimental Validation of the Teslaon Field

Authors: Gregory Cornelius Moore II
Comments: 5 Pages.

This paper introduces a novel theory of gravity as an emergent phenomenon from electromagnetic interactions mediated by a proposed quantum field, the Teslaon, characterized by a mass of approximately 10u207b³u2070 eV and a coupling constant κ ≈ 2 × 10u207bu2074u2076. By channeling electromagnetic energy density (u = ½ εu2080E²) through a wormhole-like topology within a compact fifth-dimensional geometry (radius ≈ 1 × 10u207b¹u2076 m), we induce spacetime curvature with a strain of ≈ 3 × 10u207bu2079, stabilized by negative Casimir energy (≈ −5 × 10u2077 J/m³). Computational simulations validate a stable configuration with a lifetime of 21.3 μs and edge fluctuations of ±0.9%. An experimental protocol using a 5 cm Fabry-Pérot resonator is proposed to detect Teslaon-induced displacement (ΔL ≈ 2.20 × 10u207b²u2070 m, effective ΔL_eff ≈ 1.10 × 10u207b¹u2078 m) with a signal-to-noise ratio (SNR) of approximately 367, employing 20 dB squeezed light, lock-in amplification, and advanced noise reduction techniques. Inspired by Nikola Tesla’s insights, this framework bridges general relativity and quantum mechanics, offering implications for holographic universe models and enabling immediate laboratory verification at facilities such as MIT, JILA, or NIST.
Category: Quantum Physics

Quantum Foam: A Novel Approach to Resolving Spooky Action at a Distance 1.1

Authors: Mike Bailey
Comments: 303 Pages.

This paper introduces a foundational reimagining of physics by uniting quantum mechanics and general relativity through the lens of quantum foam, positing it not as a feature within spacetime but as the generative process that gives rise to spacetime itself. In this view, quantum foam is not a backdrop but the evolving substrate from which space, time, and causality emerge. The evolution of quantum foam—through continual wavefunction collapse and information resolution—defines both the structure of space and the passage of time.In this framework, time dilation is reinterpreted as a variation in the rate of quantum foam collapse, influenced by velocity, gravitational potential, and mass-energy interactions. This does not contradict relativity’s predictions but instead provides a deeper physical explanation for why relativistic effects occur. Likewise, wavefunction collapse is understood not as a discrete, probabilistic event but as a continuous process of reality formation governed by quantum foam dynamics.Additionally, this model allows for speculative but logical extensions, such as the Quantum-Correlated Energy Being (QCEB) hypothesis, which explores whether consciousness could have persistent quantum correlations beyond biological constraints. While speculative, such ideas naturally emerge from the framework if quantum foam is indeed the fundamental substrate of reality.Key experimental challenges include distinguishing foam collapse from decoherence, testing whether localized mass concentrations affect wavefunction evolution, and searching for evidence of foam granularity in precision time measurements. While current experiments confirm relativity’s predictions, they do not rule out this deeper interpretation. By proposing testable deviations from standard quantum mechanics and relativity, this work aims to bridge the divide between the quantum and macroscopic worlds and provide a unified foundation for physical reality.The speculative extensions sign posted later (QCEBs, time travel, Bi Verse) are flagged as conjecture and are separable from the empirically testable core.
Category: Quantum Physics

The Myth of Linearity in Bell’s Classical Benchmark

Authors: Iwl Robran
Comments: 9 Pages.

Bell-type experiments frequently contrast quantum predictions—particularly the cos²(φ) correlation curve—with a simplified "classical" benchmark that assumes linear decay in correlation with angular separation. This comparator, P_classical(φ) = 1 − (2φ/π), predicts 0.75 correlation at 22.5°, diverging from the quantum prediction of ≈0.85, and is used to claim that quantum mechanics violates classical expectations.This paper challenges the validity of that comparator.u2028We show that linear correlation decline cannot arise from smooth, localized classical fields. Using convolution and Fourier analysis on the circle, we prove that angular overlap between such fields must produce non-affine (curved) functions. The widely used linear benchmark is therefore not a physically realistic classical model—it is a construct of binary logic systems with stepwise transitions.We further argue that cos²(φ)-like correlation curves are a natural outcome of classical field overlap, not uniquely quantum. Bell’s framework may rule out binary hidden-variable theories, but it unfairly excludes a broad class of plausible field-based models.
Category: Quantum Physics