ELECTROMAGNETIC STRUCTURE OF A MATTER

 

Boris F. Poltoratsky

 

poltor@yandex.ru

   

                        

            

It seems reasonable to say that the Maxwell electrodynamics not only gives the final solution of the problem of the unified field theory, but also allows to open the physics of natural connection between the world of continuous and the world of discrete processes in the nature. It changes the understanding of neutrino, Casimir's forces and gravity. It gives also the essentially new treatment of a matter structure from fundamental particles up to substance in the general meaning of this concept.

 

                         

1. It is known, that Maxwell has transmitted to us not only the theory of a new physical reality – an electromagnetic field theory [1], which he has issued in the form of the system of differential equations of a mathematical physics. He has also presented the example of their solution for an ideal flat wave. The example was clear and convincing. However such ideal waves are absent in the nature (see, for example, the theory of a partial coherence in [2]). Moreover, they cannot be created even artificially by means of a coherent laser radiation (see, for example, [3,4]). Therefore any attempt to use a specific solution of a problem of flat waves for search of other solutions of Maxwell equations or for their interpretation demands an extreme caution. For example, manipulations with a movable coordinates system, executed by H. Lorentz, are based on the hypothesis about the existence of the constant velocity of electromagnetic waves propagation. Undoubtedly, this hypothesis follows directly from a particular example of Maxwell. But generally it does not correspond to the facts, in other words this hypothesis is wrong. The matter is that, electromagnetic waves possess not only a translational, but also a rotational degree of freedom [5] (as spin at notorious "photons"). It is possible to be convinced of it if to consider evolutions of wave front in a natural light wave, by using, for example, the modern holography technique. But the process of rotation is better visible on an example of a distribution of electromagnetic waves in the closed toroidal dielectric wave-guide, which is illustrated in the Fig.1. Here the result of numerical experiment is presented in the form of the image of translucent isosurfaces of energy density of electrical and magnetic components (We and Wh) in various stages of a waves rotation (on angle j). The technique of the creation of such images is described in [5]. The stepwise arrangement of fields in the Fig.1 testifies that waves undergo the complex transformation at the rotation, and their group velocities of components are not equal among themselves.

 

 

 

Fig. 1   Transformation of the power density configuration of electrical (We) and magnetic (Wh) fields in rotating waves.

 

Otherwise isosurfaces could not diverge and converge again. Obviously, also their phase velocities differ very much. Rotating waves in spherical wave-guides and open nonlinear mediums have the same properties.  In [5] we not only have proved last property of electromagnetic waves by a direct numerical experiment, but also have shown theoretically (Appendix 2 in [5]), how Maxwell equations become nonlinear in conditions of the big energy density and mobility of the propagation medium.

Thus, the system of rotating waves is characterized by four real velocities, which are   changeable and not equal to each other. And in this situation any sense to connect system of coordinates with these velocities is absent completely. Probably it is more convenient (according to Maxwell and Hertz [6]) to use Galilee transformation and to leave velocities in the form of functions of coordinates and time.

It follows from these results that Lorentz transformations or a based on it theory of relativity are not so universal to replace with itself the doctrine of the Maxwell. Now we shall look, what will be result if go back to his original equations? In this case we should examine these equations, improving both the equations and methods of their solution. And in our computer century this problem seems quite solvable if we respect initial positions of Maxwell and Hertz. An all the more so, as the combination of the computer and analytical solution is always accessible, because the nonlinear zone is strongly limited spatially. Therefore each nonlinear dislocation can be surrounded by a spherical surface so that it contained the nonlinearity inside of her. Then each such internal area should be given to computers, but the external part of a space remains in an action sphere of usual mathematical methods. In particular, a great deal can be determined if to analyze in such a way features of already known solutions for electromagnetic spherical wave systems [7]. And these solutions assert: any spatial electromagnetic dislocations create variable fields in a medium. Amplitudes and phases of these have angular dependence, which is described by the associated Legendre polynomials (spherical harmonics). Their radial dependence unequivocally has the shape of linked cylindrical functions.

 

2. First we shall take advantage of a known radial dependence of fields, generated by dislocations. 

Let's begin with that we understand any inhomogeneity as dislocations in the medium, and it is more exact in properties of environment in which electromagnetic waves are spread. It can be an electron, a proton, a molecule, the fly, the person, etc. it is natural, it is such dislocations, some absorb, radiate, reradiate electromagnetic waves. The basic fact is radial dependence of amplitude a component of reradiated waves, which is illustrated in figure Fig.2.

Fig.2

On the basis of told it is possible to show [5], that if any dislocations have a circumrotatory degree of freedom (for example, they contains electromagnetic vortexes), we shall ascertain sequent incontestable facts:

-         Dislocations have the mechanical moment (spin).

-         Dislocations contain the strong stabilizing factor – the internal pressure preventing boundless compression (collapse).

-         The studying of dislocations properties is mated with the nonlinearity of a medium or field equations, because the nonlinearity is basically the general rule, but not the exception in nature (the beginning of a problem is investigated in [5]).

-         Nonlinear dislocations can have an electrical charge and the magnetic moment.

-         Nonlinear dislocations interact among themselves: zone character of a strong interaction appears on small distances, and averaging interactions on greater distances takes place, but it occurs around of a minimum of the general energy - it is already gravitation (interaction of constant charges and of moments is more convenient for considering separately).

The process of transition, for example dislocations pairs, from one steady state to another with the change of full energy is rather interesting, because its properties conduct us directly to the base of a quantum mechanics. Certainly, it can be investigated by direct calculations on powerful computers. But available analytical methods of an oscillations study in nonlinear systems exist, which are described in dozens textbooks. They give result, which shows that the exchange of energy with surrounding field through radiation or absorption always exists. Thus frequency of the first harmonic of the radiated or absorbed waves should be proportional to the difference of an initial and final energy. It is known, that Max Planck has already calculated coefficient of proportionality using experimental data. The highest harmonics, which exist at very greater amplitudes of processes, are responsible possibly for those energy surprises, which are attributed now to occurrence of a different sort a neutrino. And the origin of Casimir’s forces is explained likewise simply [5].

Thus, we see first two basic qualitative contributions, which the classical Maxwell electrodynamics brings into the base of theoretical physics. First, the unified field theory loses its urgency, because collective properties of nonlinear rotating dislocations in addition to usual electromagnetic properties (they interacts by electromagnetic forces) possess all known quantum properties of fundamental particles, including all nuances of a strong interaction, and, besides, these dislocations are subjected to the gravitation. Secondly, the electrodynamics establishes natural connection between the world of continuous and the world of discrete physical processes caused by a essentially simple nonlinear interference of usual electromagnetic waves, which always can be calculated with any degree of a accuracy.

 

3. Now we shall analyze spatially-angular aspects of interactions of nonlinear electromagnetic dislocations. As we have already noted, their group properties are defined by their interaction through linear region, where their own variable fields and fields of nearest particles are described by already mentioned spherical harmonics [5]. Mobile spatial field configurations are gained as a result. They are complex, but are understandable and determinate with the mathematical precision. Examples of the simplest of them are illustrated by isosurfaces on Fig.3. They correspond to polynomials P11, P32, P33 and are represented in coordinates of a field, i.e. can rotate [5].

Here only Er and Hq components are presented only. Their opposite phases are conditionally divided by dint of a paint color. Naturally, general picture more richly by components three times. The calculation is executed according to formulas out of [7].

   

Fig.3.  Configurations of type P11, P32, P33 for Er and Hq components of electric and magnetic fields in rotating waves.

 

Fig.3 shows, that the general disposition of fields has the shape of beams, which are starting from the center. And quantity of these beams increases according to indexes of polynomials, but irregularly.  Amplitudes and phases of fields inside of each of beams submit to the known law described by Bessel functions of a half-integer argument. They vary also in time under the periodic law. Therefore some relative (angular and remote) positions of dislocations are energetically more preferable, and others are forbidden, as unstable according to a principle of an energy minimum. So there are the strong quantum joints between separate dislocations. But results are not limited to it. Groups of connected dislocations (they can be presented as clusters) can interact with other groups or with separate dislocations by the same principle too. Continuing the same reasoning’s it is possible to understand easily spatial configurations from atoms up to molecules. For example, the even number of electrons in each closed electron shell of an atom it is possible to explain by a corresponding symmetry of attached Legendre polynomials. One of following stages of structurization of the matter is gas, liquids and solid bodies, which were investigated by Newton in details. The further circuit of similar considerations leads to creation of structure of a matter from electrons to genomes of living organisms.  

 

So, the main property of dislocations is interaction with the electromagnetic field, which is present always and everywhere at the world known to us. From here there is a simple explanation of the device of this world: its elements are only dislocations, and the electromagnetic field carries out all links between them. No other elements, and no other links in the nature are present. It follows from original Maxwell's electrodynamics.

 

4. Separately it is necessary to tell about mathematics. The existing differential and integral calculus is constructed for the mechanics of Newton and with his participation. It is quite suitable and for the description of a stationary state of substance when all Legendre polynomials and Bessel functions in spherical harmonics are calculated already. It is complex for execution, but basically it is possible. However the modularization process is inaccessible to such apparatus, as it includes big set of ramification operations (" if... , elseif... "). It is easy to guess - such problems are solved by computer mathematics, which operates not with formulas, but with numerical arrays and by dint of the not limited logic. Therefore results of calculations can be presented usually only in the tabulated or graphic shape. Habitual formulas lose the universality. It constricts the field for demonstrative manipulations with multi-storey symbols and for plays on not clear words. In essence computer technologies lead to a greater openness and clearness of physics, which draws near on these qualities to humanities. It is an unexpected by-effect from a computerization of a science.

 

The arguments presented above testify that the usual electrodynamics, constructed on all known results of set of a great number of the most convincing experiments, answers many (if not all) principle questions of a quantum mechanics and the theory of a substance structure. Therefore there are no reasons to reject the first conception. And there is no need in a monstrous heap of hypotheses and fantastic imageries, to which physicists of 20-th century have so got used. All follows logically and most naturally from the doctrine of Maxwell [1]. However other, new mathematics is necessary to the understanding and development of this yet revolutionary theory [5].  

 

Coming back to the initial concept of physics it is possible to ascertain: the modern theoretical physics has far departed from the EXPERIMENTAL beginning and now became obvious supersaturated by the most absurd REVELATIONS. As an example obviously false interpretation of Maxwell theory can serve. Such unnatural situation is kept is exclusively artificial through the monopolized means of the scientific information and an actual interdiction for the open discussions. I.e. it is a question no at all of mass error, but about forced introduction of error in the scientific environment. It any more no physics, but ethics, philosophy or somehow religion.

 

   

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References

  

1.       James Clerk Maxwell. Royal Society Transactions, v. CLV, 1864.

2.       M. Born, E. Wolf. Principles of optics. N-Y, Pergamon press, Chapters 10 and 11, 1964.

3.       B. F. Poltoratsky. JETP Let., v. 27, ¹. 7, s. 406, (1978).

4.       B. F. Poltoratsky. JTP, v. 49, ¹. 11, s. 2295, (1979).

5.       B. F. Poltoratsky. Fundamental particles in pictures without hypothesis. Moscow, «Sputnik+», 2007.

6.       Heinrich Hertz. Gesammelte Werke, Band II, s. 256-285. Leipzig, 1914.

7.       Andre Angot. Complements de Mathematiques. Paris, Chapter VII, 1957.