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Book Publisher International (a part of SCIENCEDOMAIN International)

A Novel Approach to Duality of Electron

Sultan Muhammad, Miss Omama

Published Aug 6, 2021• 0 citations
Publisher

Abstract

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

DOI
10.9734/bpi/nupsr/v11/3123f

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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
I decipher quantum duality of electron in Young’s Double-Slit experiment. Hypothesis intends to decode interaction of knocked-electrons with observer, and perturbative disappearance of 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 electron 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 observer in Young’s Double-Slit experiment through introduction of universal field (SM Field). The interactions between photon and knocked-electrons have been discussed. Through using Schrodinger wave equation (SWE), a mathematical model has been derived, that is used to explain role of the observer, and duality of electron by using SM field as a supplement.
Abstract Young’s double-slit experiment played a crucial role in establishing the wave nature of light. In this chapter, the shocking result that incident electrons yield a similar interference pattern as that formed by light waves is described. It is shown that the only way the experimental results could be explained is via a wavefunction description of electrons. It is also shown that the interference fringes disappear if the which-path information becomes available. This is the essence of wave–particle duality. The first of the Einstein–Bohr debates on wave–particle duality and Bohr’s principle of complementarity in the double-slit experiment are also discussed. The counterintuitive notions of delayed choice and quantum eraser effects showing how the availability or erasure of information generated in the future can affect how the data in the present can be interpreted are presented. Quantum interference is responsible for novel phenomena like interaction-free measurement and counterfactual communication.
Young’s double-slit experiment played a crucial role in establishing the wave nature of light. In this chapter, the shocking result that incident electrons yield a similar interference pattern as that formed by light waves is described. It is shown that the only way the experimental results could be explained is via a wave function description of electrons. It is also shown that, in the same experiment, the interference fringes disappear if the which-path information becomes available. This is the essence of wave–particle duality. The first of the Einstein–Bohr debates on wave-particle duality and Bohr’s principle of complementarity in the double-slit experiment is also discussed. Also presented are the counterintuitive notions of delayed choice and quantum eraser effects showing how the availability or erasure of information generated in the future can affect how the data in the present can be interpreted.
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.