| 12.13 |
Atomic substitution and performance of polymers
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In Chapter 7 (Atomics) we discussed a
by-product of each and every level of matter having unique perception- that is
the existence of differently constructed particles exhibiting similar
characteristics- i.e. creators and destructive attractors. |
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In the case of Hydrogen, we saw "creator"
Hydrogen made from protons and Neutrons and "destructive attractor" Hydrogen
made from combinations of protoactives and neutroactives. The result being
that at the atomic level, proto-active Hydrogen is substituted throughout the
elements listed in the Hydro-Helio matrix. |
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Apart from seeing the continuation of a
fundamental rule of UCA throughout the universe (unique awareness), we see this
results in the breakdown of certain atomic structures and the influence of
ergons. |
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| 12.5.1
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Atomic substitution at the molecular level |
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Given the general common behavioral traits between Hydrogen (1), Oxygen (6)
and Nitrogen (7) and then the commonalities between Carbon 96) and Iron (26),
it is possible for other elements showing similar characteristics to be
substituted at a Molecular level of perception- e.g. Chlorine (17), Fluorine (9),
Bromide (35). |
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What we are saying is that an over exposure to these heavier elements in high
quantities during a growth phase of certain cell types would naturally lead to
molecular deformities as these structures are misinterpreted at a molecular
level. |
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Just as we sometimes misinterpret people
or things for being positive to find out later that they were a negative
influence, molecules perceive size and behaviour characteristics on a general
"face" value. There simply isn't time or the depth of perception for molecules
to perceive all levels of structure of atoms, just as we would never truly
converse or relate to other people if we did not operate on some level of
assumed "trust" in what we see is what it is. |
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| 12.5.2 |
Molecular substitution and defects at more complex
polymer molecular levels
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Apart from obvious substitutions between Oxygen and
Bromine, Silicon and Aluminum, we see substitution occurring with Nitrogen and
Fluorine, Chlorine and Silver. |
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This means these defects at a molecular level will be
reflected in defects at a complex polymer level (e.g. proteins, polypeptides and
cell structures- however not at DNA ( as will be discussed). |
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The level of seriousness of defect depends upon the
substance that has been substituted and the period of growth. |
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At a fast growth level of immune systems and blood
systems, the presence of heavier elements substituting Oxygen may result in
respiratory or even blood-oxygen defects (e.g. Asthma and Leukemia). These may
gradually pass as the body is promoted into a re-growth phase at adolescence. |
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| 12.5.3 |
The importance of understanding chemical substitution
for combating disease in the future
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As defects in our bodily function result in the
eventual failure 9deat) of cellular life, the understanding of origin of
defects presents a major area to properly investigate. Combined with a solid
understanding of the nature of biologic code (DNA), humans in the future will
be able to cure a range of potentially fatal diseases. |
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