Quantum Physics Background
It may sound rather strange, but having understood the reasons for such a considerable influence of the pyramid on a matter, we should turn to the inspection of the fundamental construction of Nature. A theoretical physicist who works tightly with condensed matter experimentalists understands that all the phenomena observed by his colleagues are caused by the microstructure of specimens studied. In other words, the phenomena should be contained – in more or less explicit form – in structural blocks of specimens. The blocks include atoms/molecules and special kinds of bonds between them.
Just the same takes place in quantum mechanics and generally in quantum physics; we may say that the phenomena which we study should reflect the properties of structural blocks of real space. A detailed analysis of the fundamentals of quantum physics carried out recently by the author has shown that a vague vacuum of quantum physics and an empty space of general relativity should make way for a single substrate. Indeed, the models of grand unification of all physical interactions based on experimental results allow the calculation of evolutions of three constants (electromagnetic a
e-m, weak a w and strong a s as functions of distance r that parts interacting particles. All the constants come together at 10^{-28} cm, Figure 1.
Moreover, high-energy physics proposes an abstract "superparticle" whose different states are quarks, electron, muon, neutrino, and others. Thus taking into account these two facts, one may suggest that just those superparticles form a world substrate, which shares both discrete and continual properties. The substrate may be thought of as the degenerate space net. So, the space net is simulated as a tessellation of balls, or superparticles, or elementary cells, which are the primary blocks of Nature.
A local deformation of the space net, i.e., a stable change of the initial volume of a superparticle in the degenerate space net, is associated with the creation of a particle in it. Unstable deformations constitute spatial excitations, or quasi-particles, called "inertons." When the particle begins to move it experiences friction-striking superparticles. Owing to the interaction with coming superparticles, the particle emits and then absorbs elementary excitations, i.e. inertons. Once the particle is in motion between fluctuating superparticles, inertons migrate as typical quasi-particles, i.e., they carry bits of space deformation hopping from superparticle to superparticle by relay mechanism.
The particle oscillates along the trajectory, i.e., its velocity v changes periodically from v to zero along the particle's de Broglie wavelength l . With such motion, inertons, which accompany the moving particle, oscillate in the surrounding of the particle. Oscillations of a cloud of inertons are specified by amplitude L = l c/v where c is the velocity of light. Note that the value L indicates the cloud size distribution in the vicinity of the particle.
Thus, inertons surrounding a moving particle make up a substructure of the matter waves, which so far have only been treated in the framework of the wave probabilistic formalism and, therefore, any physical interpretation of the y -function has not been taken into account. Meanwhile experiments conducted by my colleagues and me provided rigorous support for the submicroscopic approach to quantum mechanics.
Summarizing we may infer that just the inerton field,
