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THE SINGLE QUANTUM FIELD THEORY
MATRIX MODELING OF ELEMENTARY PARTICLES

Savinov SN

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A unified quantum theory describing the final level of the structure of all types of matter, including the modeling of elementary particles with the explanation of their properties (mass, lifetime, decay channels, charges, interaction, etc.), which makes it possible to include all known quantum phenomena in a general principle scheme, All aspects and devoid of theoretical contradictions. Fields of interactions are included in the theoretical scheme.

PART 6
ANNIHILATION AND EXECUTION OF CHARGED BAN-

The interaction of a particle and an antiparticle occurs in a selected plane. The combination of circular electron and positron matrices with a different direction of rotation in this plane leads to the appearance at the point of their coincidence of two co-directional flows located on one side of the center of each particle (in the case of the zero-second kaon, the co- directional flows are located on opposite sides of the charge-symmetry center) , Since the electron-positron intermediate state with the center at the point of the co-directional flows does not have time to be formed, then, according to the fulfillment of the charge prohibition, both particles, being linear trajectories, are converted into two photons (by the number of the centers of symmetry) - two directions of photon motion along the straight line The centers of the trajectories, which is observed experimentally, in the case of the presence of energy in the annihilating particle (velocity of motion) - the energy is completely conserved in a photon of the same direction after annihilation.

If annihilation occurs in the presence of a third more energy-intensive particle, its center becomes decisive in the annihilation plane, and therefore both circular trajectories generate one photon .

In the case of a collision between a relativistic electron and a positron, the charge prohibition does not succeed in realizing, as a result, two circles are geometrically linked by accumulating relativistic energy, thus forming a muon . A mixed mechanism produces muons from photons.

The combination of two toro matrices with different rotations in the annihilation of nucleons does not lead to a charge prohibition, since there are no linear trajectories, accordingly, no photons are formed. When two toro matrices approach each other, their cross section becomes similar to a lemniscate, and therefore the annihilation of nucleons occurs by the mechanism of strange particles, forming pions.

The charge prohibition in the zero-sigma-hyperon structure shortens the existence of a particle of the charge-canceling time and determines a 100% decay variant in which one internal linear trajectory is converted into a photon , and an eight- torus matrix (without twisting), acquiring an antipulse of rotation from the linear trajectory, Structure of the lambda-hyperon.

The charge prohibition in the structure of this meson determines the short existence of the particle and the decay path with the products-photons, but in practice a simple decay path is observed according to the previously described principles, that is, the decay axis (or in this case the plane) passes along the "equator" of the particle separating The intersections, after the closure of the ruptured trajectories in the circle, form six circles respectively, then making up three pions (decay according to the 2b principle, very similar to the decay of the second kaon ).

USED ​​BOOKS

1. Bransky V.P. The theory of elementary particles as an object of methodological research. - L., 1989.

2. Eisenberg I. Microscopic theory of the nucleus. - Moscow: Atomizdat, 1976;

3. Solovyov V.G. The theory of the atomic nucleus: nuclear models. - Moscow: Energoatomizdat, 1981;

4. Bethe G. The theory of nuclear matter. - Moscow: Mir, 1987;

5. Bopp F. Introduction to the physics of nuclei, hadrons and elementary particles. - Moscow: Mir, 1999.

6. Weise W., Erickson T. Peonies and Kernels. - Moscow: Nauka, 1991.

7. Blokhintsev DI Works on methodological problems of physics. - Moscow: Izd-vo MGU, 1993.

8. Gershansky V.F. Philosophical grounds for the theory of subatomic and subnuclear interactions. - St. Petersburg .: Publishing house St. Petersburg. University, 2001

9. Wildermuth K., Tan Ya. The Unified Nuclear Theory. - Moscow: Mir, 1980

10. Kadmensky SG Clusters in nuclei. // Nuclear Physics. - 1999. - Т. 62, № 7.

11. Indurain F. Quantum chromodynamics. - Moscow: Mir, 1986.

12. Migdal AB Pionic degrees of freedom in nuclear matter. - Moscow: Nauka, 1991.

13. Gershansky V.F. Nuclear Chromodynamics // MOST. - 2002.

14. Barkov L.M. The role of experiment in modern physics // Philosophy of Science. - 2001. - No. 3 (11).

15. Methods of scientific knowledge and physics. - Moscow: Nauka, 1985.

16. Simanov A.L. Methodological and theoretical problems of nonclassical physics // Humanities in Siberia. - 1994. - No. 1.

17. Feynman R. Interaction of photons with hadrons. - Moscow: Inostr. Lit., 1975.

18. Sliv L.A. And others. Problems of constructing a microscopic theory of the nucleus and quantum chromodynamics. Uspekhi fiz. Sciences. - 1985. - Vol. 145, no. 4.

19. Bransky V.P. Philosophical grounds for the problem of the synthesis of relativistic and quantum principles. - Leningrad: Leningrad Publishing House. University, 1973.

20. Gershanskii VF, Lantsev IA Relativistic nuclear physics and quantum chromodynamics. - Dubna: JINR RAS, 1996.

21. Gershansky VF, Lantsev IA Single-nucleon pion-nuclear absorption at intermediate energies in the quark model // Sb. Theses of the 48th International Conference on Nuclear Physics (16-18 June 1998). - Obninsk: Iate of the RAS, 1998.

22. Gershanskii VF, Lantsev IA A new approach to the riddle (3.3) of resonance // Sb. Theses of the 49th International Conference on Nuclear Physics (April 21-24, 1999). - Dubna: JINR RAS, 1999.

23. Gershansky V.F. Isobars and quark clusters in nuclei // Vestnik Novgorod. State. University. Ser. Natural Sciences. - V. Novgorod. - 2001. - No. 17.

print version
Authors: Savinov SN
Date of publication 10.11.2006гг

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