Article Potential Experimental Demonstration of the Entanglement Velocity of 10 23 m·s -1 during Trans-Atlantic Excess Correlation of Paired Brain Activity
Nicolas Rouleau, Stanley A. Koren, Michael A. Persinger
Two separate approaches have suggested that the diffusivity parameter or diffusion velocity of ~10 23 m·s -1 may be the quantitative value for the latency for displays of excess correlation or the consequences of entanglement. We have shown that pairs of individuals separated by 6,000 km but sharing toroidal magnetic fields with changing angular velocities displayed clear excess correlations in specific theta and gamma frequency power values over the right caudal hemispheres. The effect occurred only during the component of the exposure that has revealed excess correlations in photon and pH reactions separated by non-local distances. The predicted latency for the entanglement effects over distances of 6,000 km would be ~10 -17 s while the time required for 1 orbit of an electron is ~10 -16 s. Specific values indicated that between 10 and 30 s would be required before the entanglement would emerge within the domain of electronic matter. Quantitative measurements of the indicator of excess correlation in brain activity during the optimal interval of magnetic field configuration indicated the emergence occurred between 20 and 30 s after the effector field (but not the primer field) had been activated around the cerebrums of both subjects. The effect was clear for all 5 pairs of subjects. The results suggest but do not prove that the latency for entanglement may display a real time value coupled to the velocity of a diffusivity term derived from the relationship between four-dimensional geometry and the weighted products of Gravity and the mass, width and duration of the universe.
Two separate approaches have suggested that the diffusivity parameter or diffusion velocity of ~10 23 m·s -1 may be the quantitative value for the latency for displays of excess correlation or the consequences of entanglement. We have shown that pairs of individuals separated by 6,000 km but sharing toroidal magnetic fields with changing angular velocities displayed clear excess correlations in specific theta and gamma frequency power values over the right caudal hemispheres. The effect occurred only during the component of the exposure that has revealed excess correlations in photon and pH reactions separated by non-local distances. The predicted latency for the entanglement effects over distances of 6,000 km would be ~10 -17 s while the time required for 1 orbit of an electron is ~10 -16 s. Specific values indicated that between 10 and 30 s would be required before the entanglement would emerge within the domain of electronic matter. Quantitative measurements of the indicator of excess correlation in brain activity during the optimal interval of magnetic field configuration indicated the emergence occurred between 20 and 30 s after the effector field (but not the primer field) had been activated around the cerebrums of both subjects. The effect was clear for all 5 pairs of subjects. The results suggest but do not prove that the latency for entanglement may display a real time value coupled to the velocity of a diffusivity term derived from the relationship between four-dimensional geometry and the weighted products of Gravity and the mass, width and duration of the universe.
To test if temporally-coupled diametric shifts in parity could be demonstrated for non-local distances between “random” events generated by electron tunnelling-based circuits, two REG (Random Event Generators) were each exposed within a circular array of solenoids separated by 10 m. Each circular array generated a patterned rotating magnetic field that has previously produced transient excess correlation and entanglement in photon reactions and alterations in pH in spring water. During a 30 min interval the REGs were exposed first to an accelerating group velocity embedded with a diminishing frequency/phase-modulated field (the primer) followed by a decelerating group velocity embedded with an increasing frequency/phase-modulated magnetic field (the effector). Only after exposures for about 4 min to the second (effector) condition that is known to manifest the effects of entanglement did the random numbers deviate significantly and by more than one standard deviation in an opposite direction to each other. The estimated increments of energy were between 10 -21 and 10 -20 J which is within the range of the energy derived from the universe’s total force per Planck’s voxel distributed over the distance of the hydrogen wavelength. These results indicate that excess correlation can be generated within “random”, quantum electronic processes whose spatial domains are similar to neuronal synapses at the macro-level by appropriate applications of weak, microTesla level, magnetic fields.
To test if temporally-coupled diametric shifts in parity could be demonstrated for non-local distances between “random” events generated by electron tunnelling-based circuits, two REG (Random Event Generators) were each exposed within a circular array of solenoids separated by 10 m. Each circular array generated a patterned rotating magnetic field that has previously produced transient excess correlation and entanglement in photon reactions and alterations in pH in spring water. During a 30 min interval the REGs were exposed first to an accelerating group velocity embedded with a diminishing frequency/phase-modulated field (the primer) followed by a decelerating group velocity embedded with an increasing frequency/phase-modulated magnetic field (the effector). Only after exposures for about 4 min to the second (effector) condition that is known to manifest the effects of entanglement did the random numbers deviate significantly and by more than one standard deviation in an opposite direction to each other. The estimated increments of energy were between 10-21 and 10-20 J which is within the range of the energy derived from the universe’s total force per Planck’s voxel distributed over the distance of the hydrogen wavelength. These results indicate that excess correlation can be generated within “random”, quantum electronic processes whose spatial domains are similar to neuronal synapses at the macro-level by appropriate applications of weak, microTesla level, magnetic fields.
If gravity and entanglement share a common origin in the temporal flow rate field τ(x), then gravitational tidal fields should produce measurable decoherence of entanglement. This paper derives the first quantitative prediction for this effect. We construct the dynamics of a Non-Separable Temporal Bubble (NSTB) — the shared temporal configuration of two entangled particles — in a Schwarzschild gravitational background. The bubble's internal coherence field satisfies a wave equation with a tidal potential proportional to the second derivative of the background τ-field. Linearization yields a visibility reduction for entanglement: ΔV = GM d² / (c² r³ f_intrinsic) where d is the spatial extent of the bubble (the separation between entangled particles), r the distance from the gravitating mass, and f_intrinsic the internal frequency set by the fractal-temporal hierarchy. The key signature is the tidal scaling ∝ d²/r³, which uniquely distinguishes NSTB from competing gravitational decoherence proposals: Penrose-Diósi predicts mass-dependent decoherence (different observable), Ralph-Pienaar predicts gradient scaling ∝ d/r² (different power law), and standard QFT in curved spacetime predicts no decoherence at all (zero). Any observed gravitational decoherence of entanglement with d²/r³ scaling would therefore constitute direct evidence for a shared origin of gravity and quantum correlations. For Earth-orbit experiments with optical photons (d ~ 400 km, f ~ 10¹⁴ Hz), the predicted effect is ΔV ~ 10⁻²⁷ — far below current sensitivity. Near a neutron star with microwave-frequency entanglement (d ~ 100 km, f ~ 10¹⁰ Hz), the effect grows to ~ 10⁻¹⁰, within conceivable reach of future space-based quantum networks. Three enhancement strategies are identified: stronger tidal fields, larger bubble separations, and lower-frequency entangled states. The prediction closes an open parameter problem from the companion entanglement paper (κ = 1, f_bubble = f_photon) and establishes a concrete, falsifiable target for the emerging field of gravitational quantum experiments.
Quantum entanglement presents a fundamental challenge to relativistic causality, as measurements on one particle instantaneously affect its entangled partner regard- less of spatial separation. We propose a complete theoretical framework—Dynamical Scalar Field Theory (DSFT)—in which entanglement is not a nonlocal correlation but a topological remnant of the pre-Big Bang Euclidean phase. In this framework, two entangled particles reside at a single point in the scalar field configuration space, connected by a static topological soliton (phase-locking filament) where the classi- cal time dimension remains frozen (Ω = 0). We derive the full Lagrangian from first principles, including non-minimal coupling to matter and curvature, and demon- strate that the decoherence process corresponds to a sudden geometric phase tran- sition (Ω : 0 → 1) occurring within ∆tjump = 85.2 ± 0.4 attoseconds—independent of spatial distance. Our numerical simulations yield precise predictions: a thermal pulse of power Pthermal = 2.36 × 10−4 W, an entropy jump ∆S = 1.46 × 10−22 J/K, and a high-frequency gravitational wave signature at f ∼ 106 Hz with strain ampli- tude h ∼ 10−38. These predictions align quantitatively with unexplained noise in superconducting qubits (IBM/Google) and attosecond time delays in photoionization experiments (Max Planck 2024). We propose a definitive experimental protocol us- ing Ramsey interferometry and TES bolometry to test the distance-independence of the decoherence time—a unique and falsifiable prediction of DSFT. This work estab- lishes entanglement as a manifestation of un-crystallized spacetime geometry, resolvable through attosecond and quantum thermodynamics experiments
This paper extends the stochastic electrodynamic framework of Paper 1 [3] to multiparticle systems, providing a physical derivation of quantum entanglement. When a highenergy gamma ray creates an electron-positron pair, both particles emerge from the same spacetime point and share a common electromagnetic quantum field. We propose that the electromagnetic vacuum retains a cross-correlation component S(12)E (x1, x2, ω) in their joint electromagnetic quantum field, arising from the common creation event. The spatial dependence of this cross-correlation—a sinc(ωr12/c) factor—is derived from the known two-point vacuum correlation function of the electromagnetic field, not postulated. This cross-correlation is identified as the physical carrier of quantum entanglement. The two particles undergo correlated Brownian motion in six-dimensional configuration space, each with diffusion coefficient D = ℏ/2m derived in [3]. Nelson’s stochastic mechanics in configuration space gives the two-particle Schrödinger equation. The foundational ergodicity assumption underlying Papers 1 and 2—that the coupled electron-vacuum system admits a unique stationary ergodic measure—is proved in the companion Paper 3 [5] via the Caldeira–Leggett model and the Ford–Kac–Mazur theorem. The EPR paradox is resolved: the instantaneous correlation upon measurement is a consequence of conditional probability applied to a joint stochastic process, not a physical signal. Bell inequality violations are derived explicitly: the cross-correlation is nonlocal in configuration space, bypassing Bell’s locality assumption while satisfying the no-signalling theorem. Decoherence arises naturally as disruption of S(12)E by environmental electromagnetic noise. Fermi and Bose statistics emerge as boundary conditions on the joint stochastic process in configuration space.
Two separate approaches have suggested that the diffusivity parameter or diffusion velocity of ~1023 m·s-1 may be the quantitative value for the latency for displays of excess correlation or the consequences of entanglement. We have shown that pairs of individuals separated by 6,000 km but sharing toroidal magnetic fields with changing angular velocities displayed clear excess correlations in specific theta and gamma frequency power values over the right caudal hemispheres. The effect occurred only during the component of the exposure that has revealed excess correlations in photon and pH reactions separated by non-local distances. The predicted latency for the entanglement effects over distances of 6,000 km would be ~10-17 s while the time required for 1 orbit of an electron is ~10-16 s. Specific values indicated that between 10 and 30 s would be required before the entanglement would emerge within the domain of electronic matter. Quantitative measurements of the indicator of excess correlation in brain activity during the optimal interval of magnetic field configuration indicated the emergence occurred between 20 and 30 s after the effector field (but not the primer field) had been activated around the cerebrums of both subjects. The effect was clear for all 5 pairs of subjects. The results suggest but do not prove that the latency for entanglement may display a real time value coupled to the velocity of a diffusivity term derived from the relationship between four-dimensional geometry and the weighted products of Gravity and the mass, width and duration of the universe.