Page 273 - The Final Appeal to Mankind

«The Final Appeal to Mankind» by Nicolai Levashov

In general, conductors have unstable electron structures; they tend to keep
combining and dissociating. Their entire system is in motion – albeit this type of

motion is chaotic. Interestingly enough, however, electrons do not move inside a
conductor. The external (electromagnetic) field deforms the atom's microspace
curvature, increasing the electrons' instability and triggering their disintegration. This
results in the overflow of their constituent primary matters onto the etheric level,
where, still under the influence of the external field, they are forced to flow in a given
direction.

In the process of this forced overflow, the primary matters lose a portion of their
energy, which leads to a new fusion of primary matters in still another area of the atom's
microcosmic curvature – hence the synthesis of a new electron takes place.

Thus, the movement of electrons along a conductor is really a periodic back-and-
forth flow from physical to etheric and etheric to physical levels.

This also accounts for the so-called tunnel effect, which occurs when crystal lattices
of various types join together (as in the case of semiconductors), when correct external

conditions are present; i.e., when the distance between the point of disintegration and
the point of electron synthesis falls within the range of a fraction of a millimeter to
several millimeters. When this occurs, that particular interval marks the “still zone” –
where the flow of primary matters from physical to etheric levels does not occur.

The above condition arises when there is a marked difference between the electron
structures of the crystal lattices that make up a semiconductor (see F Fi ig g. . 1 14 48 8).

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