If
you agree the logic in Section A, you can proceed further. Else it will not be
interesting.
In
order to establish density changes in the material layers of a body, the first
thing we need to do is to equate the material in layer to number of small 2nd
order bodies which have layered structure or the individual atoms and molecules
with material layers around them.
In
first case, in order to have 2nd order bodies in a layer we need to
establish the existence of material clouds with a proper density layered
structure within them. Several of these clouds do exist in each layer around
the celestial body. We can assume these clouds at varying scales to completely
fill the layer. Inside each cloud, density may increase towards center at least
with a minute magnitude. If we assume these kind of cloud bodies in each layer
they also behave in the same manner as the 2nd order bodies such as c1’, c2’ explained in section A, while the 1st
order body travelling towards high density areas. As the c1’ and c2’ do, some of these cloud bodies will go into high dense layer by losing
their outer layer material. Some of the clouds may leave their mother body and merge
into 0(zero) order body’s layer. We will look into this aspect of what
determines a body to follow or to leave it mother body in upcoming posts.
In second case we need to have layers around atoms
and molecules, with an outer layer whose density is equal to density of its environment.
At
this point we need to look back into what does we mean by material layer.
Earlier in Part 1, it was discussed widely. Most of the celestial objects in
solar system don’t have atmospheric layers and are having hard solid layers in
which atoms were chemically bonded strongly. And above all the atmospheric
layers and material in within the systems like solar system were affected by
heat, radiation and electromagnetic fields.
While
exploring Earth atmospheric layers in Part 1, we have seen the layers inside
Earth and above atmospheric layers where atoms no longer act like gases. There
we observe very low densities such as 16 hydrogen atoms/cc. So the material
layers could be in solid, fluid and gaseous states and the fourth state where
it is no longer act like gas. In solids atoms are very close with strong
chemical bonds. In liquids atoms or molecules are loosely bond and they slide
past each other. In gases, the atoms and molecules freely move and collide each
other. In the space above atmosphere, atoms and molecules no longer act like
gases. A lot of free space is available and even though the particles are on
move they hardly collide with each other. We know inter planetary space,
interstellar space, space between galactic arms and inter galactic space too is
filled with different kinds of particle clouds and space dust. As we have seen
density at this space was shown with number of hydrogen atoms per cubic centimeter or meter. Eg. Galactic spiral arm is with 1 × 10−22 kg/m3 i.e., 1 hydrogen (H) atom for every 16 cubic centimeters(cc), which means no space in
Universe left emptied. It may be 1 H atom per 16 cc or 1H atom per 100 cc but
existence of matter was there at every space in the Universe. The counter
argument is this. 1 H atom occupies very less space, i.e, less than 0.00001 cc.
It is negligible space in 16 cc or 100 cc. What is the left out space of one H
atom is filled with? Is it not empty space?
What
is the purpose of existence of empty space? How certain quantity of space comes
in to existence without being occupied? We know the smallest particles in the
universe up to protons, neutrons and electrons. And the existence of sub atomic
particles such as quarks also was proved. Electrons, neutrinos kind of
particles and the photons in electromagnetic spectrum may occupy some space but
those particle sizes are infinitesimally small. There is large quantity of
extra space is left after counting the space for these all kind of particles. How
can we explain the existence of extra space? Is there any link between dark energy
and this left out space? These are the questions with no simple answer. Even
within the atoms, there is a lot of space left unoccupied. What explains this unoccupied
space? Is it really empty or is there anything other than these known particles
occupy this space or is the reason for this space? These are the questions need
to be searched thoroughly.
Put
aside these questions for a little while and let us see the celestial bodies,
their layers and the materials inside those layers. We may expand the thought
procedure on this as shown in the following points.
1.
It is clear from section A that the number of
celestial bodies increase in outer layer of the mother body when which travels
towards inner layers or high density layers of its mother body
2.
We should not stop thinking only the big
celestial bodies but it is equally important to see whether the density of
outer layer material within the celestial body increases when it is moving to
high density layers
3.
If we able to equate each particle of the
material layer to a celestial body then we don’t require a special section to
prove density increase. As the number of celestial bodies increases, the
density of material layer too increases
4.
Equate atoms to the celestial bodies with
revamping the definition of density
a.
In order to equate small particles such as
hydrogen, helium and oxygen atoms or molecules, we need to prove that these
particles too have material layers around them with decreasing density from
their centre to outer layers
b.
Once ‘material layers for atoms’ concept comes
into picture the concept of ‘material’ and ‘material density’ drastically
changes
c.
The material in atomic layers would have no
experimental proof in near future though the celestial bodies in atomic layers
already have a proof in the form of orbiting electrons. Here the electrons,
protons and neutrons etc., are the child bodies for the atom.
d.
If atoms do have layers and float inside the
layer of a celestial body- then atom’s outer layer should have the same density
feature as that of the layer density where it floats
e.
The density of the layer as per the conventional
definition is determined by the number of atoms per cubic meter space. The same
definition will not fit to define the density inside layers of atom.
f.
We need to revamp the definition of density in
such case. If the word ‘density’ is confined to smaller meaning, we should
either expand it or invent a new word to explain the properties of layers
around different celestial bodies of varying sizes.
g.
When atoms or celestial bodies are floating in
mother layer, neighboring atoms come in contact at their outer layer, when all
the atoms or celestial bodies come in contact with their outer layers touching
each other; at that layer all these atoms do have similar density feature or
value for that layer. Their outer layers may form as one big common layer for
all those particles. We can assign a value for this layer and we can call it as
‘density field value’ of the outer layer.
h.
For a celestial body outer layer the density is
directly proportional to the ‘density field value’ of that layer. Here, the ‘density
field value’ of the mother body layer equates the ‘density field value’ of the
child bodies’ outer layer.
i.
This ‘density field value’ overcomes the
limitation of ‘density’ concept.
5.
It is hard to prove the atoms do have material
layers with particles smaller than electrons. It is equally hard to disprove.
We are in preoccupied state of mind that the Universe is empty space with certain
pockets of material in it. We can also explain the universe with the concept of
‘there is no space unoccupied’ in the universe. At various levels, the universe
is occupied with materials with different size particles.
Any way now we got an opportunity to move with great idea which has the potential to explain some untold truths about the Universe. The assumptions which are hard to prove or disprove, if they help us to move forward, we can go little far with that assumption and if it serves the purpose, one day we may get a chance to come back and look at that assumption to get more clarity on that. On that day we may able to prove that assumption as truth.
So for now we move with the idea of 'varying density field' around each material body, whether it is a big celestial body like Galaxy or a small sub atomic particle like electron. Each layer around material body is filled with still smaller material particles with outermost layer of the same density as this layer has. With this definition of material body, let us see how much progress we can make in 'search for the Origin of the Universe'.
Any way now we got an opportunity to move with great idea which has the potential to explain some untold truths about the Universe. The assumptions which are hard to prove or disprove, if they help us to move forward, we can go little far with that assumption and if it serves the purpose, one day we may get a chance to come back and look at that assumption to get more clarity on that. On that day we may able to prove that assumption as truth.
So for now we move with the idea of 'varying density field' around each material body, whether it is a big celestial body like Galaxy or a small sub atomic particle like electron. Each layer around material body is filled with still smaller material particles with outermost layer of the same density as this layer has. With this definition of material body, let us see how much progress we can make in 'search for the Origin of the Universe'.
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