Page 145 - Spirit and Mind. Vol 1

Nicolai Levashov. Spirit and mind. Vol.1

are inorganic atoms, molecules and ions. Additionally, photons are of varying
wavelength (λ) and frequency (f), representing every color of the spectrum and
therefore form their own characteristic pattern of atoms and molecules according to
their respective wavelengths. Thus, the photon's wavefront alters the dimensionality
level at the point of penetration, at distance λ/4 from the top of the wave, while the
cell's microspace dimensionality remains the same as it was before the arrival of the
wavefront.

At distance λ/2 from the top of the wave, the microspace dimensionality
decreases by an amount commensurate with the wave's amplitude. That is, a photon
moving within a light-sensitive cell creates a dimensionality gradient which enables

those molecules, atoms and ions commensurate with its wavelength to generate new
chemical compounds. At the same time, the photon itself is absorbed (see Fig. 13).

This process unfolding inside the light-sensitive cell leads to a surplus of ions.
Further, the qualitative structure and the number of surplus ions are determined by
the wavelength of the photon absorbed. Following these events, the initial (and usual)
dimensionality of the cell returns. During the period of cell "disturbance" the cell is
unable to absorb other photons; for this reason the light-sensitive retina is incapable
of "seeing" the twenty-fifth frame...

The color signals, which are produced by the photons' varying wavelengths,

become an ionic code, which starts its journey to the occipital and temporal cerebral
cortex via the neurons of their optic zones through a series of specialized cells. The
ionic code (really a redistribution of the ions) reaches the light-sensitive cells through

synapses (contact zones), triggering a forced redistribution of ions inside the bipolar
cells.

In turn, the bipolar cells transfer their altered qualitative state to the ganglion
cells, following which the resulting electrochemical redistribution is transmitted
along the optic nerve fibers to the occipital and temporal cerebral cortex via the

neurons of its optic zones. Thus, through the axon bundles which make up the optic
nerve, a signal in the form of ionic redistribution (ionic coding) reaches the neuronal
bodies of the brain. (See Fig. 71).

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