Particle Physics

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It's a breathtaking journey to go far down into the smallest of the smallest and visit one of our most common particles, the electron. In order to get close to the electron, we have to let go of the scientific criteria that determine what such a particle is and how it should be perceived. We do not turn our backs on science, instead we add the concepts of intuition and mysticism. We are viewing the electron from its own perspective, to grasp its nature.

The structure of the void

To begin with, we must free ourselves from the idle image of elementary particles as bounded objects in an absolute void. The void itself has a structure, a geometry, even though we first cleaned out matter, light and gravity. What remains is a dynamic vacuum in which matter and wave formations can emerge. I choose to call the tangible units that define the void 'Nol', the formless surroundings of the units I call 'Nil'. A Nol is truly "atomos", indivisible, and thus constitutes a lower limit of the cosmos. The units of vacuum are a defined limit to how small something can be.

The image on the right shows the units of the void in two dimensions. In three dimensions, the pattern is similar to what is called "cubic close packing" but without tight packing, because the Nol units are quite sparse in relation to each other. The ideal distance can be defined thus; "the seventh step is the return." In other words, you can say that five tightly packed Nol (in theory) can be pushed between two existing Nol.

The ideal distance is an important principle because in its extension it shows the infinite extent of the universe and is a basis in the understanding of electric fields.
 

The seven spatial fields

Even here I have to throw in a 'saving clause' about the void because there are no less than seven different voids (space fields). But I will continue to talk only about the simplest of them. Briefly, I can mention that the next space field consists of combinations of Nol in patterns that create larger but more transparent Nol. Higher spatial fields are combinations of transparent Nol and so on (the seventh spatial field exists in a spiritualized form beyond this world). Each spatial field consists of its own Nol category and the ideal distances are the same for each spatial field. Which space field you live in is important when it comes to "matter's degree of transparency". You just mustn't confuse Nol with matter because Nol are not particles, they are the units of the void. Matter appears, as we shall show, when Nol in a spatial field regroup.

Furthermore, what has to be ephasised here is that Nol (of any kind) are not 'dense', they don't occupy space and have no 'image'. They do not interfere with each other, still, they certainly RELATE to each other, it's sort of a mystery. Nol are formless and shapeless 'ideas', like TAO.
 

The dual nature of light

Light can be described as a wave movement in a vacuum while at the same time being a particle.

The illustration above can be read as a sequence in time, for example from left to right. The light particle, the "photon", has here been frozen in its movement at regular intervals. The negative (white) pole consists of vacuum where Nol is in deficit compared to the ideal void. The positive (black) pole consists of vacuum where Nol is in excess compared to the ideal void.

The poles are not stationary, they are attracted to each other and decrease and increase respectively in size so that an oscillation (light wave) is formed. The white and black poles show the electric moments of the photon. In relation to the surroundings, they cancel each other out and the photon is therefore electrically neutral. We will describe the nature of electric fields in detail further on.

The reason why the poles do not engulf each other and disappear lies in another aspect of the nature of photons called "spin". The individual photon has a kind of rotation, and what rotates within the circumference of the photon are the Nol units. Spin can be likened to a vortex motion where Nol at the center of a particle moves rapidly in circular orbits. Out towards the periphery, the speed decreases proportionally but by definition never becomes exactly equal to zero. One can therefore speak of the photon as having a "spin field". This field oscillates in a plane that is at a 90 degree angle to the electric field. When the electric field is at its minimum, the spin field, or as you normally say "the magnetic field", is at its strongest. An "electromagnetic wave motion".
 

The critical point of the light wave
 

The photon have a critical point, a threshold energy (1.02 MeV) where the wave function itself can no longer hold together. A division of the photon's poles takes place and we have obtained the particle e- and the antiparticle e+. These particles have opposite mass and opposite charge. According to my own definition, the electron (e-) has negative mass and negative charge, the other particle (the positron) has positive mass and positive charge (but it might be the other way around).

 
 We may never determine through scientific experiments whether the electron is a "hole" or an "excess" in a vacuum. The electron and its antiparticle behave exactly the same in the reaction with light and gravity. The important thing is that we can agree on a common definition. I suggest for simplicity that negative mass is equated with negative charge. The concept of "negative matter" may possibly create perplexity in some minds because established science only recognizes that positive matter exists. For example, it is claimed that the matter that exists is a remnant after "The Big Bang" when matter and antimatter annihilated each other. I'm not mincing words here: This is a silly myth that should be thrown into the trash as soon as possible!
 

The mysterious neutrino
 

At the same moment the electron and the positron finally split from each other, two new particle pairs arise from the dividing energy. Each of the two particle pairs consists of a neutrino Ve and the antineutrino anti-Ve. The reason these particle pairs are formed is that the total energy strives for an even distribution in three planes. In the image to the right, plane A can stand for "forward/backward" while B stands for "right/left". Planet C, finally, stands for the "up/down" dimension. When all three of these planes are represented by a pair of particles, the distribution is symmetric. In the example, the plane B can represent the particles e- and e+.

The neutrino and its antiparticle are like tiny copies of the positron and the electron. In scientific circles, there has been disagreement on the question of whether neutrinos have mass or not. But in my view, they not only have mass but also a weak electric charge. It is in fact neutrinos and antineutrinos that account for the so-called 'electroweak force', a property that allows quarks within heavier particles to stick together. When the photon split, the electron/positron pair each took over part of the photon's spin. For example, the spin of the electron is usually defined as ½. The same applies to the two particle pairs Ve and anti-Ve, they are similarly considered to have spin ½. Particles with unified spin do not want to coincide at the same energy level, but I will try to show how the electron solves this by keeping its neutrinos in different "energy shells".
 

The 'naked electron'
 

Here in the image on the right we see the naked electron, denoted 'ne', surrounded by its two neutrinos in different orbits or energy shells. The neutrinos describe a kind of bound rotation, because the three particles always lie in line with each other due to the electrical repulsion between the neutrinos. The positive weak charge of neutrinos, on the other hand, attracts the negative electron. The opposite spin ratio between the electron and the neutrinos means that the latter are not drawn into the electron (unified spin in the case of particles of different matter). The rules for energy shells state that only one particle with spin can be in a shell at a time. Two particles with unified spin in the same shell lead to the decay of the parent particle.

We have only examined the electron here. The antiparticle (the positron) works the same way, but is of course positively charged and surrounded by two antineutrinos. A bare electron or positron never exists in the free state. If a neutrino is knocked out, a new pair (Ve and anti-Ve) immediately creates out of vacuum, the unwanted neutrino is emitted and the other is retained. In a thin layer near the surface of the naked electron, a cloud of small particles is seen. They are called 'nolites' and are units from the nol of the void that have broken away and now exist as free particles.

The opposite, individual "Nol holes" in vacuum are called 'Nilites'. Both exist in abundant quantities in the infinite cosmos, but they also constantly annihilate each other by Nolites occasionally "tumbling down" Nil holes. Nolites and Nilites are the smallest units that can properly be called particles. We should remind again that the Nol and Nil of the void are not particles because they are part of the vacuum fabric. Nolites seek out the absolute outer rim of the electron, Nilites seek out the positron in the same way. However, it is not a question of any quantum order, the number of Nolites around an electron is constantly changing.

Disclaimer:

The information in this article is that of the
author and should not be confused with
conventional scientific views.

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