09. WHY SUBSTANCES ARE
CHARACTERIZED BY ONE OR ANOTHER COLOR?
Two processes cause the color coloration of
substances at normal temperature (or close to it) – reflection, coupled with
the emission. Under normal conditions all substances are just in a slightly
heated condition. The temperature that is typical for normal conditions or
close to it, inherent for surface layers of a celestial body of planetary type.
Thus,
on the surface of the planet we perceive the coloration of the substances due
to the reflection of the falling visible photons and of emission of the
accumulated solar visible photons that are punched out by particles falling on
the atoms. The emission of accumulated visible photons of all presented types
in response to bombardment by the falling on elements elementary particles
together with the reflected visible photons determines the color that this atom
will have in our perception.
Since
our visual analyzers are tuned on the perception only of visible photons, so
it's interesting for us the presence in the composition of atoms exactly this
species of elementary particles.
How
is it that the chemical elements are painted in certain colors?
As
we already know from chemistry, every chemical element has unique, peculiar to
it alone qualitative and quantitative characteristic. This characteristic
indicates the quality and quantity of all particles presented in the
composition of the element. And the Force Field of the element manifested
externally precisely corresponds to this characteristic. It means that above
the each particle in the composition of the surface layer we will perceive from
the side or the Field of Attraction, or the Field of Repulsion. And the
magnitude of these fields over each particle can have its own value different
from other.
For
what purpose is it said? In order to remind - where the chemical element
manifests outside the Field of Attraction, there is an accumulation of free
particles coming from the Sun. These solar particles accumulating on the
surface of the chemical elements contribute to the characteristics of visual
perception of this chemical element - i.e. whether the element will create
shine or coloration or other optical property. And if it's coloration, so in
which color will be painted the element? And what tone will be inherent to the
color - light or dark?
In
order for the color inherent in the element manifests outwards, it is necessary
that solar photons of a certain color accumulate on its surface.
It is the zones on the surface of the element where free particles accumulate
that will be responsible for the color of the atom.
And
also for how the tone of the chemical element will be light or dark. The more
such zones, the brighter will be the tone of the overall color. The less number
of these zones, the darker. It is explained very simply.
In
response to the bombardment of falling particles, the atom emits accumulated
solar photons. They determine the color of atom.
When
in the "light rays" emitted or reflected by a source of
"light" approximately the same percentage of visible photons of all
colors is contained, our visual analyzer does not distinguish between
individual colors - i.e. it does not define the prevalence of the visible
photons of some one color. Our brain just characterizes the color of this "light
ray" as "white", "light", probably due to the fact
that the total number of visible photons entering into the eye per unit of time
is large. As a result, approximately an equal number of visible photons of all
colors adds to the visible photons responsible for the color of this element.
This makes the light beam lighter.
In
our case, if we want to assess the color features of one or another chemical
element, we will be interested in the color of the solar visible photons
accumulated in the peripheral layers.
Any
atom (chemical element) is a planet of microscopic dimensions.
But remember the principle - "Both above and below."
There
is no biological life on this microscopic planet, as we have on Earth. However,
as in the Earth, in the center of any atom is a dense body - the core. And the
building material of this core are the complexes of simple elementary
particles. These are protons, neutrons and many other varieties of unstable
elementary particles, which scientists continue and continue to “discover”.
And
how could it be otherwise?
The
basis of protons, neutrons and other unstable conglomerates are fundamental
elementary particles of the Physical Plane (and not only, if we are talking
about biological objects).
At
least one stable (fundamental, indivisible) particle has joined or left the
atom - and immediately the “quality” of the conglomerate - an unstable particle
- changes.
Quality is the total mass / anti-mass, +charge / -charge, Attraction Field /
Repulsion Field, Matter / Spirit, mass / energy, etc.
Imagine
how many atoms can exist!
And
they exist!
Remember
the table of D. Mendeleev. Isotopes. Isobars ...
Some
atoms that contain more protons, neutrons (etc.) - lower periods, as well as a
smaller percentage of particles in the red part of the spectrum - the initial
groups of the table, have a larger Attraction Field, accumulate more solar
particles.
And
vice versa - atoms with less number of protons and other complex particles are
the upper periods, and with a larger percentage of particles in the red part of
the spectrum - the groups on the right side of the table have a smaller
Attraction Field and accumulate less solar particles.
Inert
gases contain a very large percentage of red photons in the composition of
protons and neutrons. Therefore, they weakly accumulate solar particles and
hardly enter into chemical reactions.
Photons
of different ranges of the frequency scale of electromagnetic waves have
different qualities - mass / anti-mass, charge, Force Field...
γ-rays, X-rays, ultraviolet radiation, optical
radiation, infrared radiation, electromagnetic terahertz radiation,
electromagnetic micro and radio waves... And this is only the Physical Plane...
There are also particles - (dash) - radiation of other Planes, higher than the
Physical - Astral, Mental, Buddhic, Atmic, Monadic.
The
heaviest particles tend to get closer to the surface (to the center of the
atom) - like all heavy substances on any planet or celestial body.
The
smaller the mass of the photon, the less it is attracted by the atom, and the
less it tends to its surface, and the worse it is retained in the composition
of the atom.
Thus,
the violet part of the visible spectrum is deposited on the atom in the first
place. Then blue photons. Then green, yellow, orange, and finally red. They are
above everyone else. And it is most difficult for them to stay in the
composition of the atom. And when heated, they are emitted first.
Look
at the flame of a burning candle or match. Its upper part is red, and the lower
part is violet, turning into blue above.
And
the halo around electrical appliances is the same - purple-blue colors are
closer to the light source, orange-red colors farthest.
So,
gradually, we bring you to the thought of the reasons for the coloration of
bodies, substances and atoms.
What
will be the Force Field of the atom in quality and magnitude, such color solar
photons will be accumulated on the surface of the atom. If the red ones are
held in the composition of the atom (the Field of Attraction is large) - the
color of the atom will be red. If the reds are not held and the orange do, then
the color is orange.
And
so on.
Moreover,
pay attention to an important fact!
The
photons of solar origin (of any range), accumulating inside the atom and on the
surface, change its Force Field!
Therefore,
in the course of chemical reactions substances often change their color.
Photons / electrons flew from one atom to another - and that's it! The Force Field of both atoms has changed!
This
means that the external perception has also changed - color, shine, black
color, white, transparency, etc.
That
is the whole explanation - in general terms - of the reasons for the coloring
of atoms in one color or another. And also their shine, etc. - i.e. other
optical characteristics.
Everything
else requires a more thorough approach and a specific analysis of each case.
We
really hope that the series of these books and these articles will attract the
attention of inquisitive minds who are able to think outside the box, but at
the same time respect logic and facts!
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If
a substance consists of atoms of the same type, then it is easiest to give
color assessment of a given substance. The visible photons prevailing at the
periphery of the elements of a given substance determine the main color line
that characterizes the given substance. Visible photons of another quality,
which are contained in the periphery of the atom in smaller quantity, give the
"main" color certain shades. As a result, the color of an atom of
some particular type is formed.
If
the composition of the substance contains chemical elements of different types,
then the main color becomes even more complicated.
As
a result, in the surrounding world we can observe not so many substances
painted in pure colors - i.e. in one of the colors of the rainbow (spectrum). Very
often we see a combination of complementary colors - orange, green and purple,
giving rise to colors that are very far from the six main ones.
Purposefully,
people have learned in large volumes to isolate or create a substance-dyes
having a pure color. It is for this reason that pure colors are most often
present in the coloring of industrial products and food packaging. And all our
everyday life, as a result, is decorated with all the colors of the rainbow.
