Page 33 - Spirit and Mind. Vol 1

Nicolai Levashov. Spirit and mind. Vol.1

Interaction can occur between the waves' and atoms' self-dimensionality only
when the distance between the atoms approximates the wavelength. The impact of the
same wave on the dimensionality level of other atoms would not be the same: one
atom's dimensionality level may increase, while another's may decrease or remain the
same. Therefore, interaction requires atoms to have similar dimensionality levels.

This is precisely what leads to the dimensionality balance required for the
combining of atoms (see Fig. 13). If the wavelength significantly exceeds the
distance between atoms, there is minimal or no change in the atoms' dimensionality

gradient. Rather, there is a synchronous change in the self-dimensionality level of all
the atoms, while the initial qualitative difference between the atomic dimensionality
levels remains the same.

The amplitude of the waves determines the amount of change in space
dimensionality caused by these waves as they pass through a particular medium. For
the various atoms to exert different degrees of influence upon the medium, they must
themselves have dimensionality levels that differ from one another. It is precisely the
amplitude of the waves which serves this function during wave

propagation. The distance between atoms in liquid as opposed to a solid medium lies
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within the range of 10 to 10 meters.
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Consequently, a spectrum of waves from ultraviolet to infrared is absorbed and
emitted during chemical reactions in a liquid medium. That is, in this new
combination of atoms, absorption or emission of heat or visible light occurs (endo-or
exothermic reactions) because only those waves meet the necessary conditions.

Thus, transverse waves, ranging from infrared to gamma represent
microscopic fluctuations of dimensionality arising during nuclear and

thermonuclear reactions. The amplitude of waves in a chemical reaction is
determined by the difference between the dimensionality level of the atoms existing
before the reaction and the dimensionality level of the molecules resulting after the
reaction.

It is no accident that radiation emits packets — quanta.
Every quantum of radiation is a result of a single process of atomic
transformation. Therefore, upon completion of this process, waves are no longer
generated. Radiation emission occurs within a thousandth of a second and then

ceases. Consequently, radiation is also absorbed in quanta (packets).

In nature, there exist longitudinal waves of space dimensionality fluctuation.
What are these waves and how do they manifest?
A powerful flow of radiation arises from thermonuclear reactions of the sun.
The largest portion consists of waves in the visible spectrum. The upper layer of the

planetary surface absorbs this solar emission as it reaches the planetary surface.

When photons of light are absorbed en masse by surface layer atoms in a given
area, the dimensionality level of this layer increases by a specific value of ΔL. This
value corresponds to the amplitude of waves absorbed by the planetary surface layer
(infrared, visible and ultraviolet solar radiation).

As a result, the dimensionality gradient between atmospheric and planetary
surface levels in the absorption zone decreases by a value of ΔL. Concomitantly, the

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