A Fine Quantum Mechanism of Classical Gravity

Abstract

It is shown that screening the background of super-strong interacting gravitons ensures the Newtonian attraction, if a part of single gravitons is pairing and graviton pairs are destructed by collisions with a body. If the considered quantum mechanism of classical gravity is realized in the nature, than an existence of black holes contradicts to the equivalence principle. In such the model, Newton's constant is proportional to H 2

Restrictions on a Geometrical Language in Gravity

“…It was supposed by the author [5] that such black holes may be collectors of virtual massive gravitons and "germs" of galaxies in a frame of this approach. But the analysis of [6,7] shows that black holes should interact with gravitons as aggregated objects and, therefore, their existence must break the equivalence principle. We have a dilemma here: to accept their existence and breaking the equivalence principle or to find other candidates on a role of observable supermassive and compact objects in the approach.…”

“…The described quantum mechanism of classical gravity [6,7] gives Newton's law with expression (5) for the constant G and the connection (6) for the constants G and H if the condition of big distances is fulfilled:…”

“…It leads to a new cosmological model based on this approach [5]. It was also shown that pressure of correlated gravitonic pairs, which are destructed by collision with a body, may create Newtonian attraction [6,7].…”