you are here: > UCA > 8. Matter- molecules
 
8.5
A greater explanation of strong chemical fusion
  Under weak nuclear fusion, we saw that Proton core structures are strongly attracted to forming relationships under certain temperatures. This gave rise to the Hydro-Helio Atomics Matrix. We also saw that in the process, ergon particles are attracted to forming inner orbits around strong Proton cores, explaining why most heavier (larger) elements in the Hydro-Helio Matrix are more magnetic and electrically conductive.
  We know that structures such as Carbon, Oxygen and Hydrogen then form more complex structures (molecules). We shall now explain how and why these structures do this.
8.5.1 The latent potential for electrons to orbit
  As we explained, elements over a certain size and configuration have Positrons and other sub atomic particles located in orbit paths, within the overall structure. Because they are where they are, these sub atomic particles effectively double and in some cases triple the strength of their "perceived" personalities.
  According to the rules of Orbit (Chapter 6), these inner electrons/positrons are strong enough to attract "same family" electrons to orbit (under the right conditions). At the back of Chapter 7, we showed the latent potential for electron orbit and magnetons for each and every element of the Hydro-Helio Atomic Matrix.
  Importantly, we were able to show that electron orbit of atomic structures is not without reason and that if no family members are present in a structure, then electrons will not orbit. We also noted that this has never been fully comprehended in contemporary scientific models such as the idea of Ions and Valency.
8.5.2 Unfulfilled latent potential and fulfilled latent potential
  From the Hydro-Helio Atomic Matrix we are able to see that certain elements have a strong latent potential to attract electrons, such as Carbon.
  When the latent potential is unfulfilled, we can define that an atom as being in an Ionic state ( i.e. it has less electrons orbiting than its potential permits). All elements are Ionic above a certain temperature that does not allow stable electron orbits.
8.5.3 Important fact about hydrogen
  It is both an important and as yet undiscovered fact about hydrogen, in that Hydrogen formed from Proton cores have no natural attraction to electrons! In fact hydrogen made from Protons is the only elements in the Universe that are purely and naturally neutral to electrons.
  This is because Hydrogen with a Proton at its core have no structures within it that are of the same family group of electrons/magnetons/positrons to attract the energis particles to orbit.
  In contrast, Hydrogen with a Protoactive core, is very attractive to electrons as the Protoactive is by definition the largest family member of the electron/magneton/positron family. It also happens to be radioactive ( i.e. will break apart under certain conditions).
  Radioactive Hydrogen is more abundant than neutral Hydrogen. However Radioactive Hydrogen principally bonds under weak nuclear fusion to form many of the heavier elements of the Hydro-Helio Atomic Matrix. This leaves the humbler neutral Hydrogen in apparent greater numbers.
  As Hydrogen exchange is the foundation of weak chemical fusion, the difference between radioactive Hydrogen and electrically Neutral hydrogen is of critical importance. Understanding the difference, allows a massively simplified understanding of the world of molecules and chemical reactions, with significantly improved accuracy.
8.5.4 Not forgetting the strength and rules of Proton cores
  Under weak nuclear fusion, cores of different strengths form the elements we have discussed. Importantly, we see the rules of Orbit applying to core structures of the same family. In other words, only cores of the same family type combine.
  While we have now identified that most atomic structures have latent potential to attract electrons to orbit, we must not forget that it is principally atomic structures that determine what atomic structures can and will form relationships with other structures.
8.5.5 Definition of strong chemical fusion
  We are now ready to define strong chemical fusion.
  Strong chemical fusion is when atoms form 3-dimensional structures with other atoms of the same nuclei family via the co-dependence of hydrogen, hydroactive and ergon exchange.
  Determining the shapes of molecules
  Contrary to everything you may have learned until now, with the knowledge of a few key rules all the possible molecular shapes in the Universe may be determined, including:
 
Their 3 dimensional shape; o The temperature at which they bond;
How they behave; o Other molecules that are related; o Bonding strength;
Energis particle behaviour as a molecule.
  All this information may be determined without having to see a molecule, or even study a molecule in a laboratory. In other words, we can make entire sense of the world of molecules, through understanding the Hydro-Helio Atomics Matrix as well as the rules of strong chemical fusion bonding.
8.5.6 A major challenge to our contemporary understanding
  What we are discussing is natural personality groups justifying the reason certain elements bond with one another way before we even consider how many outer and inner Hydrogen/hydroactives in their structure and how many ergons (not simply electrons) these elements have in their shells.
  How is this possible? For what we have just discussed is completely contrary to everything ever written about molecular chemistry and biological sciences.
  Let us re-cap part of the atomic structure table we discussed in chapter 7:
 
  Element P ID
Core
Mid
Outer
CP
MP
OP
CM
MM
OM
M
 Hydrogen
1
 H    
1
1
1
 Helium
2
 He    
2
4
4
 Lithium
3
 Li  
2
1
4
3
7
 Beryllium
4
 Be  
3
1
6
3
9
 Boron
5
 B  
4
1
8
3
11
 Carbon
6
 C  
4
2
8
4
12
 Nitrogen
7
 N  
6
1
12
2
14
 Oxygen
8
 O  
6
2
12
4
16
 Fluorine
9
 F  
8
1
16
3
19
 Neon
10
 Ne  
6
4
12
8
20
  Looking at the beauty and the simplicity of design of mother nature UCA, we can now consider the personality of two vitally important elements for life:
  Oxygen is super attractive to Hydrogen, because Oxygen has four Hydrogen in stable attractive orbits. Because of its core structure, the two outer Hydrogen provide good bonding partners. Hydrogen bonds either 2:1 or 2:2 (HO, or H2O)
  Carbon is super attractive to Hydrogen, Oxygen and to a lesser extend Nitrogen. 8 times out of 10, Carbon will want to form bonds with Hydrogen, because they're the simplest.
  And with this powerful knowledge we can go on and describe with precision how and why these atomic structures will bond the way they do under the right conditions.  
8.5.7 Electrons are but one the means by which atoms form bonds, electrons are not the end in itself  
  What we are able to therefore say is that electrons are but one of the ergon particles that hold together relationships between particles. That magnetrons, gravitons, electron neutrinos, also play and important part to play in the relationships between atomic nuclei.  
  Electrons are merely the largest collection of ergon particles. They are not the sole basis upon which molecules relate. Electrons come and go, but we see atomic relationships having greater depth and complexity than simply the number of electrons or electron exchange.  
  This is crucial in understanding the limited influence that electrons ultimately play in the overall desires of atoms to make more complex structures. Atomic structures will build their relationships regardless of the minor variances in electron counts.  
  When we consider electrons in the future, we should consider attaching the word tolerance- that all atomic structures have a certain tolerance to an abundance or extreme shortage of electrons. (It is not perfect 1 extra electron or minus 1 electron theory.)  
     
     
 
 

Copyright © 2010 UCADIA. All rights reserved.