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Open Journal of Microphysics

Basic Quantum Magnetic Interaction Based on Detailed Gauss Meter Measurements

Bhekuzulu Khumalo

Published Dec 28, 2021• 2 citations
Publisher

Abstract

Understanding that the magnetic phenomenon is both a particle, khumalon, that organizes itself into a wave formation to travel through a medium, this paper shows proof of this in detail. It can only be doing this because it is traveling through some medium. This paper is about observing relationships that are a result of different polarized magnetic phenomenon forced into relationships. The magnet shows it does not behave differently from other particles; when they have relationships with their “anti” particle, annihilation takes place. Two magnets will always be like a collider, but because the magnetic phenomenon is already unstable and of low energy allows us to see things otherwise difficult with particles of higher energy. Isaac Newton is truly needed in explaining this phenomenon. The magnetic phenomenon adheres to the first two laws of everything. All data can be found on figshare.com, to share.

DOI
10.4236/ojm.2022.121001

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Understanding that the magnetic phenomenon is both a particle, khumalon, that organizes itself into a wave formation to travel through a medium, this paper shows proof of this in detail. It can only be doing this because it is traveling through some medium. This paper is about observing relationships that are a result of different polarized magnetic phenomenon forced into relationships. The magnet shows it does not behave differently from other particles; when they have relationships with their “anti” particle, annihilation takes place. Two magnets will always be like a collider, but because the magnetic phenomenon is already unstable and of low energy allows us to see things otherwise difficult with particles of higher energy. Isaac Newton is truly needed in explaining this phenomenon. The magnetic phenomenon adheres to the first two laws of everything. All data can be found on figshare.com, to share.
The question of what magnetism is vital to quantum physics. We know what all other quantum phenomenon is, but we did not know what magnetism is. It is not enough to say it is a force because of a charge. That force must be something, for consistencies sake it had to be tested. This paper was written in order to confirm the results that were received in the experiments that took place that led to the paper “Magnetism: Insights from the Thomas Young Experiment” where it was concluded the magnetic phenomenon is both a particle and a wave. Will different interference patterns confirm a khumalon and wave like behaviour? The khumalon is the name of the particle associated with magnetic phenomenon. This paper concludes by confirming what was discovered in mentioned paper. Magnetism organizes into a wave no matter the interference. Understanding this reality, it allows us to understand what is happening with simple magnetic interactions. When like poles meet because they can not occupy the same space they push each other. Opposite poles are antiparticles to each other and annihilate each other. South pole scientifically speaking is not attracted to the north pole, the reason why the magnets slam each other is because they are closing a magnetic vacuum caused by the particles annihilating each other. We can now start theorizing on why a lodestone attracts iron because we now know we are dealing with a particle.
Paramagnetism could be explained by assuming that all spins are independent. To explain the phenomenon of permanent magnetization or ferromagnetism therefore, one must take into account the interaction between spins. In ferromagnets there must therefore be another force that tends to align the elementary magnets or spins. The mechanism for this alignment force was discovered by Heisenberg in 1928. It is quantum mechanical in origin and is called the exchange force. It is a subtle interplay between the Pauli principle and the Coulomb potential. The one-dimensional Ising model behaves therefore as a paramagnet! When Ising first derived this result, he conjectured that the higher-dimensional analogues would probably behave in the same way. The Ising model becomes equivalent to a contour model. The lines on the dual lattice separate into connected pieces which are either closed curves or curves which begin and end at the boundary of the lattice. These curves are called contours.
The principles of Thomas Young’s double slit experiment are used to find out further the nature of magnetism. This paper shows that not only can magnetism be defined as a wave but it allows us to understand the nature of all waves and concept of polarization in quantum mechanics. A wave pattern results from the interactions. It is something else before it organizes into a wave formation. In all, because of the nature of magnetic phenomenon, it must be studied at close range with the double slit experiment. This gives an incredibly unique insight. All data is available at figshare.com to share.
If you are superstitious, a black cat in your path is bad karma, even if you stay away. Similarly, in quantum physics, particles can feel the effect of a magnetic field without ever having direct contact with it. So far, scientists have shown that this mental quantum effect is not just for magnetic fields, but also for gravity—and it's no superstition. Usually, in order to feel the effect of a magnetic field, a particle must pass through it. In 1959, however, physicists Yakir Aharonov and David Bohm predicted that in a specific scenario, conventional wisdom would fail. The magnetic field at the cylindrical site can affect particles - such as electrons - that cannot enter the cylinder. In this scenario, the electrons do not have a clear location, but exist in "superpositions", quantum states characterized by the possibilities of the particle occurring in two different locations. Each broken particle simultaneously takes two different paths around the magnetic cylinder. Although the magnetic field never touches the electrons and thus exerts no force on them, the magnetic field changes the pattern in which the particles are at the end of this excursion, as confirmed by several experiments (SN: 3/ 1/86). In the new analysis, the same unusual physics is at play for the gravitational field, the physicists reported in January. 14 Science. "Every time I look at this analysis, I think, 'It's amazing that nature works this way,'" said physicist Mark Kasevich of Stanford University. Kasevich and colleagues released rubidium atoms in a 10-meter-high vacuum chamber, hit them with lasers to place them in quantum superpositions along two different trajectories, and watched the atoms fall. In particular, particles do not exist in a zone without a gravitational field. Instead, the analysis was designed to allow researchers to examine the effects of gravitational forces and show the impressive Aharonov-Bohm effect. The study not only shows a popular effect in physics in a new environment, but also shows the potential of studying the subtle effects of gravitational systems. For example, researchers tried to use this type of method to better measure Newton's gravitational constant G, which expresses the force of gravity, and is now known to be less accurate than other fundamental constants of nature (SN: 8/29/18 ). An important feature in this test is called interference. In quantum physics, atoms and other particles behave like waves that add and subtract, like two ripples in the ocean coming together to form a larger wave. At the end of the atoms' flight, scientists reconnect the two paths of the atoms so that their waves interfere and measure where the atoms end up. Arrival locations are particularly susceptible to adjustments that change where the crests and troughs of the waves hit, known as phase shifts. On top of the vacuum chamber, the scientists placed a piece of tungsten weighing 1.25 kilograms. To isolate the Aharonov-Bohm effect, the researchers performed the same analysis with and without this mass and for two different sets of ejected atoms, one flying close to the mass and the other further down. Each of these two sets of atoms is divided into superpositions, with one orbit closer to the mass than the other, separated by about 25 centimeters. https://zenodo.org/record/6891716 https://zenodo.org/record/6891957 https://zenodo.org/record/6891970 https://zenodo.org/record/6892510 https://zenodo.org/record/6892556 https://zenodo.org/record/6892623 https://zenodo.org/record/6892698 The group is surrounded by additional layers of atoms with superpositions separated by small distances. Comparing how the different sets of atoms interact, with and without the tungsten mass, induces a phase transition that is not due to gravity. Instead, this enhancement comes from time dilation, which is part of Einstein's theory of gravity, the general theory of relativity, which causes time to flow more slowly for a massive object. The two theories underlying this analysis, general relativity and quantum mechanics, do not work well together. Scientists don't know how to piece it together to describe reality. So for physicists, says Guglielmo Tino of the University of Florence, who was not involved in the new study, "to test gravity with a quantum sensor, I think that's one of the ... major challenges of today."