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�� Copyright � by Anatoli Bedritsky, 1984-2024

�� https://shila.org.il

Initial Universe

Author: Anatoli Bedritsky

3.10.2024

Abstract

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�� In the article it is open the principle of formation of elementary particles from initial particles of ether. The essence of the Big Bang is open. �

1. Big Bang

�The beginning of formation of our Universe is the Big Bang. It is the most probable that the Big Bang resulted from collision of two Universal Bodies. The Universal Body is formed at the end of life of this Universe. The surface of this Body has extreme density; therefore, the Universal Body moves in infinite ethereal space with a velocity limit under the influence of an ethereal stream behind it, but with limited velocity limit because of ethereal braking. As a result of the collision of the Universes of Bodies they broke up to separate mats of ether. The mats are moved in different directions and collided with mats of ether of infinite space, therefore surrounding ether became denser. The movement of mats in different directions was also because the Universal Body were formed of stars in which there are rarefied cavities, where there was an impulsation of different particles that led to explosion in these parts. Thus, as a result of the Big Bang all matter of our Universe represented the separate mats moving diversely with a different speed and colliding among themselves.

�� In different places of infinite space, the condition of development of matter can differ, but on a basis consist of mats and emptiness. The different parts of infinite space which are in other stages of development represent the different Universes. The matter of our Universe changes or otherwise develops. This development of the matter of the Universe in infinite space happens under physical laws which are invariable.

�� 2. Formation of Polymats

The ether of the initial Universe had considerably bigger density, than at space ether now, because various matter of our Universe could be created only on the basis of mats of ether. As mats of ether have chaotic arrangement in space relatively to each other, therefore at collision each other they change the direction of motion chaotically depending on conditions of their collision. Because of the chaotic motion of mats of ether, the density of ether can be unequal in space.��

�As mats of ether had chaotic cases of collision with each other, mats of rather dense ether could approach each other till contact with formation of a dense group of mats which cannot disperse. So, if only two or three mats are grouped, the mats of these group can disperse at collision with other mats. But, if a group of 4 mats or more was created, then mats of such group cannot disperse even at collision with other mats of ether, because these mats to a certain extent are closing each other, i.e. they have no free access for removal from the dense group. A set of mats, which are in contact with each other, and not able to disperse, represent particles - polymats.

Because in the initial Universe the density of ether was increased, the polymats had frequent collisions with mats of ether and had small velocity of motion, at which there were good conditions for connection of mats of ether. In the process of formation of polymats and increasing of their mass the density of ether decreased, and then the conditions of formation of polymats worsened. At some density of ether, the formation of polymats is stopped. Thus, in the ether of our Universe, polymats were formed. The polymats having the largest mass are called boundary polymats. Polymats have spherical shapes, as the joint of mats happened from the different sides with identical randomness.

�� 3. Formation of Neutrons. Electry-plasma and Neutry-swarm.

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�� The early Universe consisted of mats of ether and polymats, representing rarefied plasma. Polymats of boundary mass had dimensions commensurable with average distance between mats of ether. At collision of mats of ether with polymats, the polymats can change the direction and velocity of motion. At formation of polymats they can approach more often with each other. When several polymats are approaching each other, the strength of impulsation of the ether between them is less than outside and polymats are pushed to each other, forming a dense group of polymats. Other polymats also can join this group of polymats. But small polymats leave this group of polymats, bacause for them it is easier to pass between mats of ether. But only the boundary polymats having the largest mass remain in the group of polymats in contact with each other, forming a dense particle. But the increasing mass of particles is not boundless. If the dimensions of particles are repeatedly more than average distance between mats of ether, behind a moving particle an ethereal stream is formed, which increases the velocity of motion of the particle. At the big velocity of motion of polymats is worse the conditions of their accession to particles. Thus, the mass of particles is limited, and they represent a dense particle - proton.

�� The polymats, having a little smaller mass than at boundary polymats and having smaller dimensions than average distance between mats of ether, form a rarefied plasma around proton. These polymats are called electries (one electry), and the plasma is called electry-plasma, as electrons consist of such polymats. If separate electry leaves from electry-plasma they are pushed back by the mats of surrounding ether having a bigger impulse because of much bigger velocity of motion.

�� Polymats, bigger than initial polymats, but considerably smaller than electries and boundary polymats, have such dimensions and respectively velocity and an impulse, what they at approaching to proton are pushed to the proton by mats of surrounding ether. �The polymats form a swarm around the electry-plasma. These polymats are called neutries (one neutry) and they form neutry-swarm, as neutrinos consist of such polymats. The protons having electry-plasma and neutry-swarm are neutrons. (See fig. 5).

A diagram of a diagram of a structure

AI-generated content may be incorrect.

�Neutrons at collisions with each other change the direction and velocity of motion. At noncentral collisions the neutrons get rotation. The direction of rotation of particles can change at the subsequent collisions. Depending on the direction of rotation concerning the direction of motion they are called particles or antiparticles. The particles are characterised by right rotation concerning the direction of motion of the screw at twisting, but the antiparticles is characterised by left rotation. The protons, positrons and neutrinos are particles. The antiprotons, the electrons and the antineutrinoes are antiparticles.

�� Elementary particles (neutrons, protons, electrons and neutrino) cannot directly be formed of ether in the form of a ethereal whirlwind as separate mats of ether move rectilinearly and will leave the ethereal whirlwind, therefore ethereal whirlwinds cannot exist. Mats of ether can form stable particles only in the form of polymats, where mats are condensed to each other. Polymats have no rotation.

�� 2.4. Decay of Neutron on Proton, Electron and Neutrino ��

�� In the early Universe, which had a big density of ether, because of frequent chaotic collisions of ether mats with change of the direction of motion of mats, there the density of ether in different places of the Universe differed. As the velocity of distribution of ether is small in comparison with the average velocity of motion of separate mats of ether then the density of ether in different parts of the Universe can differ.

�� If ether in a part of early Universe was more dense, then in this place of the Universe the polymats and neutrons were to a large extent formed. Neutrons move rectilinearly through ether and change the direction of motion only at collision with each other. At motion of neutrons in place, where is lowered density of ether, there is decreased the ethereal resistance and the protons increase the velocity limit of motion. Then the force of collision of a neutron with ether mats opposite to the motion of a neutron increases and the force of collision of the neutron with ether mats behind the motion is decreasing. In this case the counter mats of ether push away the polymats of the neuytry-swarm and electry-plasma from the proton (neutron basis). The pushed small polymats (neutry) form a rarefied particle - neutrino. And the pushed polymats electry under the influence of surrounding ether are in contact to each other, forming a dense plasma particle - electron. The neutrino and electron increase the velocity of motion and move away in the opposite direction from the motion of the proton. The rest of neutron consisting of polymats of boundary mass represents a proton. Disintegration of a neutron is shown in fig.6.

A diagram of a solar system

AI-generated content may be incorrect. ��

If a neutron before disintegration had rotation around the movement line, then the form of it the proton, the electron and an antineutrino continue the direction of rotation around the line of their movement.

�� The mass of a neutron is equal 1,008 664 916 06(40) a. e. m. The mass of a proton is equal 1.007,276,466 812(90) a. e. m. The mass of an atomic nucleus of hydrogen is equal 1.00723 a. e. m. The mass of an electron is equal 5,4858026�10-4 a. e. m.

�� Elementary particles (neutrons, protons, electrons and neutrino) cannot directly be formed of ether in the form of an ethereal whirlwind as separate mats of ether move rectilinearly and will leave the ethereal whirlwind. Mats of ether can form stable particles only in the form of polymats where mats are condensed to each other in contact.

�� Conclusion

1. The ether of the early Universe had a bigger density than space ether now, because then all matter was in the form of ether.

2. Because of frequent collisions of mats of each other, the ether slowly extends in space. Therefore, in different parts of infinite space there is different density of ether could be formed.

3. The areas of ethereal space, in which there was big density of ether, polymats are formed.� At formation of big number of polymats, the density of ether is decreasing and formation of polymats stops. The mass of polymats is limited to boundary mass.

4. At approaching several polymats of boundary mass the force of impulsation of ether between them is less, than outside and polymats are pushed to each other, forming a dense particle - a proton, at which mass is limited.

5. The polymats having smaller mass than boundary polymats at collision with a proton form an electry-plasma around the proton. Polymats of small mass form a neutry-swarm around proton. Such protons are called neutrons.

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�� References

1. Anatoli Bedritsky �Ether Theory of Construction of Matter of Universe�, Moscow,� OOO �Lenand�, 2013, ISBN978-5-9710-0593-3 (in Russian).

2. Anatoli Bedritsky �Real Theoretical Physics�, Moscow,� OOO �Lenand�, 2018, ISBN978-5-9710-3897-9 (in Russian).

3. Anatoli Bedritsky �New Theoretical Physics�. Published 1994 by A. Bedritsky in Netanya, Israel. Written in English. LC Classifications: QC20. B4 1994. Open Library OL936258M. LC Control Number 95237985