Particle Physics

Page 1

Page 2

In the previous section we covered the fundamental properties of the void. We showed how the electron and its antiparticle the were created when the light particle, the photon, had reached a critical value and split into two electrically charged particles. It was also shown that neutrinos are included as an obvious part of the electron's nature and that these have mass as well as a weak charge. This page is a further study and deep dive into other electron associated aspects.
 

Electric fields
 

The image on the right shows how a shift among the Nol of the void has occurred (read part 1 about Nol). An area of ​​Nolites has thereby been formed in the left of the image and an area of ​​Nilites has been formed on the right. No electric fields are yet visible, but they arise as soon as the displacement has taken place. The void is dynamic and immediately adapts to the new situation. In the case of the area of ​​Nolites, the Nol in the immediate surroundings will try to escape outwards to regain as much as possible the ideal state of the void.

In the case of the area with Nilites, the surrounding Nol will instead be drawn in towards the center in order to regain the ideal distance between all the Nol in the void. In neither case will the equalization succeed completely and the result will be a "disturbance" in the ideal vacuum field. The area where Nol is denser than normal has created a positive electric field and the area where Nol is in deficit has created a negative electric field. The fields will not cease to exist until the opposing areas meet and neutralize each other. The electron and the antiparticle the positron have a corresponding effect on the void. According to the definition in part 1, it is the electron that forms a "hole" in vacuum with negative mass and as a consequence; negative charge.
 

Vacuum geometry

Why then does the electron have the mass it does? It is inherently true that the electron and positron were created at a certain energy, when the photon reached its critical point (see Part 1). But this alone cannot explain why the electron retains its mass and remains a stable particle. Theoretically, free Nolites and Nilites should over time "shrink" electrons and positrons and cause them to fade out, but this does not seem to happen in nature. The explanation lies in the spherical shape of the naked electron. The electron's free Nolites have the exact number corresponding to a perfect geometric shape in three dimensions. If Nolites are added to or removed from this number, the electron will immediately regain the perfect shape by regulating the difference against the void.

This ability of the vacuum to reward symmetrical shapes is what I call Vacuum geometry. It is this phenomenon that causes elementary particles to appear at very specific energy levels. I intend to show in later dissertations how the electron in turn divides into quarks. Even these quarks must then each correspond to a perfect geometric shape. In the case of the photon, a stable form is not possible because its mass continuously changes from a minimum to a maximum and back again. One must assume that the photon still retains its energy in the encounter with free Nolites and Nilites. Probably a Nol/Nil pair formation takes place, one particle "repairs" the resulting damage while the other is ejected.
 

The electron as a wave

An electron moving in vacuum does not always consist of the same Nilites. The movement itself occurs when the electron "picks up" Nil from the vacuum in the direction of travel and emits the same number of Nil in the "exit direction", i.e. backwards. If we instead study the vacuum Nol when the electron passes by, we will find that they move in the opposite direction compared to the electron's direction of travel. The positron consequently acquires opposite properties, it borrows Nol in the direction of travel and emits the same number of Nol backwards. The electron and the positron move in vacuum without energy loss, i.e. vacuum lacks "syrup characteristics". The inherent "inertia" of matter has nothing to do with the movement itself, but is an effect of standing gravitational waves around particles (more on this later).
 

The magnetic condition of the electron
 

Electrons and positrons in motion behave as if they were small magnets. The phenomenon is an effect of the 'spin' of the particles and the Nol/Nil units of the void. The picture shows a positron moving from left to right. Point A shows a Nol in vacuum which is dragged in a curve along to point B.

In Part 1 we touched on the nature of the spin and noted that it was strongest in the center of the particle and decreased in strength outwards. What happens in our example is that the Nol of the vacuum, due to the direction of the spin, will be shifted a bit forward while being pushed down in a u-curve. This compression of Nol downwards, forms what is the positron's magnetic plus pole, the corresponding thinning of the space's Nol forms the positron's magnetic minus pole. We can immediately state here that if an electron or a positron is at rest in relation to the vacuum, no magnetic moment arises, a continuous forward motion is required.
 

Gravitation on the particle level
 

Light is usually described as a transverse wave movement. However, the corresponding longitudinal wave motion is just as common, it flows through the cosmos in all directions. The waves are similar to sound waves, but instead of air as a medium, the longitudinal waves (G-waves) move in the vacuum. The fact that science has not been able to register these waves is because the speed is many times faster than the speed of light! The G-waves actually emanate from the center of all beings. Here, physics is rapidly approaching the spiritual realm. G-waves occur within seven frequency ranges, in reality corresponding to certain levels of existence.

Counting from the bottom, these levels are; the particle level, the cell level, the human level, the planet/sun level, the galaxy level, the galaxy cluster level and the hyperspace level (the latter being a thoroughly spiritualized existence). The frequency range we usually associate with gravity is found at the level known as the planet/sun level. At the particle level, so-called standing waves occur around a particle (see image above right). This phenomenon is usually called interference, waves from outside and waves that are reflected back form an interference pattern.
 

The 'excited' state of the electron
 

Elementary school physics teaches us that electrons supplied with energy, jump to more energetic orbits (in the atom). When they then jump back, the excess energy is emitted in the form of a light quantum, a photon. Where was the energy then when the electron was in its energy-rich (excited) state? We can understand this if a model is introduced where a single photon can attach to a charged particle and form so-called 'bound light'.

Consider the image above on the right. We see there a single photon whose wave pattern lies in an elliptical orbit around an electron, marked as a white dot. The photon's positive pole must constantly face the negative electron in order for the photon to remain in its orbit. But the point is that the photon's electric and magnetic fields change direction at half the wavelength. If the photon wants to remain in orbit, it needs to "flip over" and rotate 180 degrees. This occurs at the turning point 'tp', when it is furthest from the electron. All matter has a constant quantity of bound light, which can be described as the light body of matter.

An electron moving around an atomic nucleus describes an elliptical path. When the electron is closest to the heavier nucleus, a shift occurs whereby the direction of movement changes slightly. In this way, the electron will move in "rosette orbits" around the nucleus. An ordinary electron moves quickly and in tight orbits around the nucleus, but if a photon binds to the electron, it suddenly becomes heavier and loses some of its speed. The electron cannot maintain its previous trajectory with preserved stability, but enters a larger ellipse that is further from the nucleus. When the photon is eventually emitted, the electron regains its original trajectory.
 
 

Disclaimer:

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

◄ To the menu: Particle Physics

 The content of astromantra.se is exclusively my own material if nothing else stated.
 Publications and other content may be copied for yourself or other parties.
 Selling content to third parties is not allowed. The author. JRSN