In addition, if certain exceptions are made due to the property of the action of the magnetic field, in particular, and in statics, then the laws for them will be similar to Coulomb’s laws (15—16), and also in a certain field will be a consequence of the field geometry condition, which is initially assumed by the theorem of Mr. Andre Marie Ampere on the circulation of the magnetic field (17).
However, all these parameters were given only for a general view, but if we turn to specific examples, then first of all it is worth giving a definition of the magnetic induction vector of a straight wire with a known current and a known distance from it is determined by (19).
It is important to note that in order to determine the magnetic induction vector, it is necessary to determine the magnetic permeability of the medium – this is the parameter demonstrating the ability of a material to conduct a magnetic field. Practically the same can be said about such an object as a solenoid – a real electromagnet consisting of a spiral wire and a core. And this small superficial description of the elements of electromagnetism leads to a description of their action on charges.
Where thus, if a free charge enters a magnetic field, then it falls under the influence of a magnetic induction force under the action of a certain Lorentz force (20), under the action of which, taking into account the created centrifugal force (21), the charge begins its rotation with a radius (22).
Moreover, there is also a relativistic form of writing the same formula (23—24).
But these charges, when rotating, again create an alternating electric field, which creates an alternating magnetic field – a parasitic one, and it, in turn, is a new electric one. That is, in this case, the situation with the electromagnetic repeats itself, which requires more detailed consideration.
When one charge enters a magnetic field, a magnetic field acts, but when most of the charges in the conductor begin to fall into such a specific field, the Ampere force (25—27) already acts, which symbolizes the force vector formed by all the conductors in the magnetic field.
As a result, you can get a similar picture of the general description of phenomena.
Conclusion
As a result of this general analysis, it can be said that the application and development of electromagnetism can lead to the improvement of a wide variety of fields of science, even the newest ones, both theoretically and practically. And moreover, each of these innovations improves all these ideas more and more!
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