ATOMS GETTING CLOSE AND GETTING AWAY FROM EACH OTHER

We have already dealt with the question before, but there are many loose ends left dangling. Let's look at the phenomena one by ane and maybe we can incorporate the theoretical philosophy into practical life. Let's look at some practical examples for this! Those that are actually close to the problems of everyday life.

Bendig.

BENDING

The evenly arranged atoms are located essentially at the same distance from each other in our theoretical model. I say theoretical because several effects are exerted even on a body at rest from the environment. Its temperature is not evenly the same since the side which gets more light will be the warmer one. If it is warmer then that side will also stretch. The atoms at the bottom are under more pressure than the ones at the top. This thing causes all kinds fo dilations which we cannot ignore.

So, if we bend our body now, the atoms on the convex side will get more separated from each other, and they will clump togeother, approach each other on the concave side. It obviously follows from this that where they get farther from oeach other (get less dense) they will cool down there because it can absorb further light quanta from the environment, whereas, wherever they get closer to each other light will get pressed out of them. The light that leaves it will carry the material's characteristics as well. The reason is that the light emitted by the nucleons (nuclei) are modulated by the circulatory rhythm and at the same time the cyclic dispersion of the electrons falling in their path. That's how the spectra emerge. This can easily be verified with an infrared spectral analysis.

During the bending, the atoms of the crystal lattice (or molecule) due to mechanical constraint forces, get dislocated from their earlier original wave-positions, and if there are still any other potential holes with a retaining force then they will try to stay in those. If there is no dislocation error, a micro fracture will occur in the grid. The atom gets torn out of its company providing the binding force. In the grid of rigid, hard materials the bonds are harder, while for example, a rubber rod can take a lot of bending. Here the bonds are looser, weaker, yet with a more distantly reaching effect.

The light in the material which is also involved in the whole thing - since it is in an almost indispensable symbiosis with the nucleons - does not get pressed out of the the elastic materials to such an extent and thus keeps its elastic state for a long time because it can return to its original position. We can also see that a large part of the plastics age because they slowly lose the plasticizer materials and thereby (as they lose atoms and therefore they lose wave-generating systems in comparison to their initial state) their original bonds which were formed in a freshly manufactured state break down. For every material sublimates to some extent. That's why we smell their scent. This odor characteristic of the material is intensified during all kinds of material processing. Because when this happens the material loss is increased.

 ELONGATION

 It can be seen well when stretching any material, though heavily dependent on the kind of material used, yet there is a linear phase in which the substance extends proportionally, then reaches the elastic limit at point E, and then shortly thereafter flows at point F and here it suddenly begins to disproportionately stretch. By then it has been irreversibly deformed. Here the material's atoms are torn away suddenly from each other, because the interferences surrounding each atom are by this time are no longer sufficient to keep the atoms of the material together.

The principle can be freely applied during all mechanical interventions. Rhythmic load exacerbates the material much more intensely, than static loads because it speeds up the rate at which the light keeps getting pushed out by many times. A good example of this is the air humidifier ultrasonic equipment, creating a vapor-like fume from the water. There is also a mechanical effect here which tears the water droplets out of the water and it indeed leaves the surface of water eventually. This is not sublimation in the traditional sense and it is not steam eather. Water will leave the surface of the water in the forom of liquid spray.

All material sets are held together by material waves and energy waves generated by their atoms because the essential waves exert an attractive and and also a repulsive effect. The longitudinal type waves coming one after the other have definite water-type interfaces, separators, which always have a repulsive effect and among them is a very complicated dual, triple-fractured, time system essence which has an attractive effect. It also moves away from the material at light speed, but has a suctioning effect due to its negative time system. These waves are generated in many boiling points, and thus create very complicated interferences and co-effects in the space around the atom. These forces are either attractive or repulsive depending on what kind of wave zone passes through a given point. Yes, but there are so many forces exerted on this ominous point, as many wave sources' spaces reach it. This point in these wave spaces is elsewhere each time, and moves in different directions in each case because the time system of each such wave-generator always defines it at an other location each time. Of course, by point I do not mean the blasé point from our geometrical studies but the wave source itself which is the physical point. At the beginning of these series we have already agreed that nothing else exists in the Universe than these weird dynamic points and all other things get imaginated into the world they create according to their unique laws.

It has already been mentioned before, but we have received many questions regarding this, so I try to shed light on my thougths written on gases from other angles as well. Their laws are similar to the laws of solids, yet, they are not the same. Both are compressible as opposed to the uncompressible behavior of fluids which is the state of matter between solid and gas. But when any material is pressed together, it becomes warm. When the light pressed out from them has left the scene, they will take on the ambient temperature. The interesting thing is that all material changes due to this, let's say it gets tired. Pushing the light out of them will make them different. It does not regenerate so easily because light can only be forced back into the nucleons only at a much higher temperature (melting). When this happens a completely destroyed rusty iron will again turn into a useful material which will keep up the acquired youth for a long time. *

It is important to know that in the case of inbalanced isotope elements, that these can be converted into harmless elements with a little logic. This is already donein practice. New material is created with neutron irradiation from the radiant material. But we can also get rid of the unpleasant radiant waste through cavitation anihilation. I also know practical examples for this. Another sensible implementation of the same thing was published in a sensational Hungarian patent where they put the unpleasant material into plasma state where it was partially anhilated, partly was decomposed into its forming elements which were then no longer dangerous. A similar phenomenon takes place in the lightning tunnel, when this happens. It's only similar since the artificial process uses much smaller electric current, and much less voltage

UNIVERSUM UNIVERSITAS  20 September 2003  ALL RIGHTS RESERVED

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Translation © Varga Péter 11 January 2018 (email: vargatranslation@gmail.com)