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The Sciencetech

Intermediate Intensity Electrical Observer Effect

Sultan Sultan, Omama

Published Jul 26, 2021• 0 citations
OpenAlex

Abstract

The inspection of the dual nature of the electron is proposed, with modifications in initial double-slit experiment, such as introduction of intermediate-intensity of electrical field. We are mindful of mysterious nature of the quantum particles, exceptionally electrons. The particle maneuvers as wave, but upon observation, the wave-function of the electron is collapsed. An interference pattern ceases to be observed, which limits us to what we can measure and what we cannot, with current detection methods, in which photons are utilized as detector. In the original procedure, a source of high-intensity light (photons) is used to measure the position of the electrons, which leads to the collapse of the wave-function. An investigation is proposed, to observe the effects of the intermediate-intensity electric field on the nature of electron. Keywords: double-slit experiment, quantum duality, measurements, QED, electron

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The inspection of the dual nature of the electron is proposed, with modifications in initial double-slit experiment, such as introduction of intermediate-intensity of electrical field. We are mindful of mysterious nature of the quantum particles, exceptionally electrons. The particle maneuvers as wave, but upon observation, the wave-function of the electron is collapsed. An interference pattern ceases to be observed, which limits us to what we can measure and what we cannot, with current detection methods, in which photons are utilized as detector. In the original procedure, a source of high-intensity light (photons) is used to measure the position of the electrons, which leads to the collapse of the wave-function. An investigation is proposed, to observe the effects of the intermediate-intensity electric field on the nature of electron. Keywords: double-slit experiment, quantum duality, measurements, QED, electron
The study of the dual nature of the electron is proposed, with alterations in initial double-slit experiment. We are aware of mysterious nature of the quantum particles, particularly electrons. The particle behaves as wave, but upon observation, the wave-function of the electron is collapsed. No longer is an interference pattern observed, which in a sense, limits us and binds us to what we can measure and what we cannot, with current detection methods. In the double slit experiment, a source of high-intensity light is used to measure the position of the electrons, which leads to the collapse of the wave-function. An investigation is proposed to observe the effects of the low-intensity electric field on the duality of electron.
With significant appraisals to the Original Double-Slit experiment, an audit of nature of electron is drafted. Electron has been proven to demonstrate unpredictable nature. It should behave as a particle, but it shows variations in behaviour when it is passed through two slits. In the experiment, photons (high-intensity light) are utilized as a detector, due to which interference pattern effectuates after detection. The wave-function is collapsed. A contemporary model is proposed, in which magnetic field of low-intensity is applied to canvass ever-changing nature of electron.
I decipher the quantum duality of the electron in Young’s Double-Slit Experiment. Hypothesis intends to decode the interaction of knocked-electrons with the observer and perturbative disappearance of the interference pattern. Hypothesis is based on Bohr’s Atomic Model, and the theoretical concepts of Quantization of electron. The hypothesis proposes a universal field, similar to Higg’s field, that conserves the potential energy of electrons through interaction with knocked-electrons, utilizing phenomena of pair-production. The hypothesis provides comprehensive theoretical and mathematical solutions to possibly elaborate, in a broader context, why electrons exhibit duality and the role of the observer in Young’s Double-Slit experiment through the introduction of universal field (SM-Field). The interactions between photons and knocked-electrons have been discussed. Through using the Schrodinger wave equation (SWE), a mathematical model has been derived, that is used to explain the role of the observer, and duality of the electron by using SM-field as a supplement. The prime objective of the proposed hypothesis is to understand the dual nature of the electron by presenting a mathematical and theoretical modal not just to decode the duality of the electron but also to decode the role of the observer when measuring the position of electrons
This work proposes a novel variation of the double-slit experiment in which two different types of quantum particles — for example, electrons and photons — pass simultaneously through a shared double-slit apparatus. The primary objective is to test the hypothesis that the act of measurement may not only collapse the wave function of the observed particle, but could also influence the interference pattern of an unmeasured, co-propagating particle of a different type. In the proposed configuration, photons and electrons are emitted in synchrony and directed through the same set of slits. Immediately after the slits, a path-detecting measurement apparatus is applied only to one type of particle (e.g., photons), while the interference pattern of the other type (e.g., electrons) is recorded on a distant screen. The experiment is designed to explore whether the destruction of coherence through measurement is strictly local, or whether it can propagate to other particles through a shared medium, entangled fields, or an unknown interaction. If the unmeasured particle continues to display interference, this would support the locality of measurement effects. Conversely, if interference vanishes for both, it could indicate a more global or field-level decoherence process. This investigation aims to contribute new insights into the nature of quantum measurement, the role of observation, and the interdependence of coherent systems involving distinct particle species.
This paper offers a strictly deterministic and causal resolution to the iconic Double-Slit Experiment, eradicating the need for the mysticism inherent in the "observer effect" and classical wave-particle duality. Using the Quantum Diffusion (QD) framework, it is shown that the particle does not possess a dual nature, but is invariably a topological perturbation (tensor wave) of the 12-dimensional subspace 𝐹μν. The interference pattern arises from the flow of this perturbation through channels of high spatial diffusivity 𝐷. Furthermore, it is shown that the "wavefunction collapse" induced by a detector is not a product of conscious observation, but rather of the physical injection of gauge asymmetry and electromagnetic friction into the slits, which drastically alters the local diffusivity gradient, destroying the geometric coherence of the tensor wave and forcing a localized trajectory.
Abstract We demonstrate that the interference effects observed in the double-slit experiment can be explained by our recently developed theory of critical relativistic nonlinear fields. Within this framework, there is no mysterious “duality” at all as particles are just field resonances highly localized in space-time that occur as critical transitions in waves initially of infinite spatial and temporal extent. As such, observed wave-like interference effects of ’particles’ in not mysterious, but rather expected.