The problem of the gravitational field of a point mass taking into account the mass of the field itself.
Serg Upstart

 SIMPLE SOLUTIONS TO THE COMPLEX MYSTERIES OF THE UNIVERSE

serg.upstart@gmail.com    RUSSIAN      

      Thank You


Use of materials of this site on other Internet resources and in printed publications is possible only with the consent of the author and with the obligatory reference to the source


1. 1. Introduction.



2. How time slows down.



3. AN ERROR IN THE GENERAL THEORY OF RELATIVITY.



4. Mach Principle vs of The Strong Equivalence Principle.


5. The cause of the big Bang or how the universe came into being.



6. Planck's constant and wave impedance of vacuum.




7. An experiment to test the validity of the Mach principle

8. On the physical meaning of the Schwarzschild radius

9. General Relativity and the Law of Conservation of Energy.


10. An experiment to test the quantum theory of gravity in which everyone can participate.



11. How the rest mass changes in the gravitational field.


12. Why the universe expands where there is no gravity.



13. The fall of the apple and the LC oscillatory circuit in the reference frame of the remote observer.



14. There are no black holes, supplement.



15. Absolute clock.

Яндекс.Метрика
5. The problem of the gravitational field of a point mass taking into account the mass of the field itself.


Consider the problem of the gravitational field of a point mass, taking into account the mass of the field itself. It is known that the energy density of the gravitational field is W=-g^2/G. That is, the density of the gravitational
the fields are negative and equal to-g^2/Gc^2. We write down Gauss's theorem for the gravitational field of a point mass





From here you can write a differential equation for the gravitational field strength, or the acceleration of free fall.




The solution to this equation is as follows





This formula can be written as follows



where



Schwarzschild radius.

For r>2Gm/r^2, an asymptotic approximation of Bessel functions can be used





and get the classical formula of Newton's law of gravity



If we assume that the mass of the gravitational field is not negative, but positive, that is, the density of the gravitational field is g^2/c^2
then the differential equation for the point mass field will take the form



And his decision will be



In it, the negative argument of the square root extraction function occurs three times, that is, for the positive mass of the gravitational field of the point mass
the differential equation has no solution.