| 8.7 |
What structures do atoms create under strong chemical fusion?
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Given what have now discussed, we now
know that only BASES and BONDS form more complex structures we call molecules
according to their classification and strength under the Hydro Helio Atomic
Matrix. We also know that the most common atomic elements in the Universe are
also the simplest. |
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Principally there are six classifications
of geometric structures formed under strong chemical fusion: |
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| Matrices |
(geometric bonding of same atoms under pressure) |
| Pairs |
(pair, either core or hydrogen bonding) |
| Tri |
(groups of three atoms, either core or hydrogen bonding) |
| Quads
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(groups of four atoms, either core or hydrogen bonding)
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| Pentas |
(groups of five atoms, either core of hydrogen bonding) |
| Hexas |
(groups of six atoms, either core of hydrogen bonding) |
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| 8.7.1
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Pairs |
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The simplest molecular structure in the
Universe are pairs. Thanks to the Hydro-Helio Atomic Matrix, we can quickly see
that : |
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| BOND |
atoms are the most active "seekers" of relationships, not only to
stabilize themselves, but to enact the creation laws;
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| BASES |
have strong latent potential, therefore enabling them to use some
of their electron attraction potential and share electrons with Bonds.
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| BASES and BONDS
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will either form pairs with others of their kind, or with an
opposite to form a more stable structure (e.g. a Base with a Bond). We call these
two types of pairing: Hydro Bonding, or Core Bonding.
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Hydro Bonding |
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The most active Bond seeking Hydro bonding (funnily
enough) is Hydrogen itself. Hydrogen will seek bonding relationships with
either large Bonds or Bases to form stable relationships (most often triplet
structures where two Hydrogen bonding sites are available).
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Core Bonding |
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The simplest and most abundant paired molecules for
core bonding are the Carbon-based atoms of Carbon, Nitrogen and Oxygen. All
three elements have the same core structure and at the same time are the most
abundant, apart from Hydrogen, Helium, Beryllium etc. |
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| 8.7.2 |
Tri shapes |
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Tri shapes are when three atoms come together to form
a triad structure. Again, the two types of simple triad structures are either
Hydrogen Bonding or Core Bonding.
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Again, the most common tri molecules are from the
Hydrogen, Carbon, Nitrogen and Oxygen family, the most stable Tri's being
Carbon with itself, CO2, NH2, H2O, NCO, NO2 |
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| 8.7.3 |
Quads |
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Quads are when four atoms come together to form bonds,
either via hydrogen or core. Quads are essential building blocks for more
complex molecules ( to be discussed later in this chapter) |
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| 8.7.4 |
Pentas |
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Pentas are structures of five atoms configured under
core or hydrogen bonds, either in a cross, or a five-side geometric shape. The
stability of the Penta five sided shape of carbon atoms is a superior geometric
platform, seen as the base for many key molecules to life ( e.g. DNA, connection
between fats and as essential components to Amino Acids ( which will be
discussed further into this chapter).
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| 8.7.5 |
Hexas |
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Hexas are the most complex shapes that are formed under Strong Chemical Fusion
and come in cross shapes and six-sided close packed rings (such as Benzene).
Hexas are fundamental switches and platforms for a host of vital molecules,
including DNA and several Amino Acids. |
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| 8.7.6 |
Matrices- Geometrically stable closed packed structures- (Crystals)
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Unlike Bonds, Base atomic structures can form a third type of structure based
on geometrically stable closed pack relationships. Close packed means, that the
bonds are at a maximum core to core to core relationship.
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Core to core to core bonds between Bases can extend to
quite large geometric structures, usually in either one or two geometric
shapes: Cubic crystals (e.g. perfect gemstones); or Tetra-Hexagonal (e.g. metals).
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Almost all metal atoms form into close packed structures, as do a great many
combinations of paired atoms.
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