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Subdimensional
Characteristics
There is a point within the microcosm at which the precepts of
classical mechanics seem to break down. In the realm of the very
very small it seems two elemental particles - bosons - can occupy
the same place at the same time. Some things can even occupy more
than one location, being partly in one location and the rest in
another. Things can move from one position to another without
traversing the space between. Louis Carroll couldn't have
imagined a world more curious, but in reality there is a very
simple explanation. It is the laws of nature as they apply to the
subdimensions.
Two independent entities cannot simultaneously occupy the same
space. Obviously that law only pertains to three dimensional
space because when
one entity comes into contact with another there IS a two
dimensional region - the area of contact - at which both entities
share a point or points in common. It is an area, a
two-dimensional derivative of a three-dimensional reality in
which the properties of two separate entities define a region
with its own distinct set of attributes. One side has the
qualities of one entity, the other side has the qualities of the
other entity - and there is no distance between the two
sides.
If you slap a third entity up against the common boundary of
the two already mentioned, a one-dimensional
'linear' derivative will be defined by three sets
of attributes. And if you cap the collection with a forth - a
truly NON-dimensional 'point' (no size -
only a location) will be defined by the properties of all four
independent entities.
If an entity is completely enveloped in an ethereal
environment (space), the qualitative value at the region shared
between that entity and the space in which it rests is governed
by the properties of the entity and the properties of the space
which surrounds it. If a particle of space is displaced by a
particle of material, then the condition of the entity at its
surface is REDEFINED (ditto the other particle, but we will
concentrate on the initial entity for now). That region of
surface area is no longer defined as 'entity in contact with
space', it is defined as 'entity in contact with
matter'. The properties which co-mingle within that region
have qualitative 'inertia' and both entities
struggle to maintain their state of being by dominating
the two-dimensional area they share at their periphery.
When a warm body comes into contact with a cold body, the warm
body cools and the cold body warms. In an isolated system this
process will continue until both bodies achieve the same
temperature. In effect, there is a battle going on in the region
of contact where each body strives to maintain its state of being
- its 'inertia' - as the condition at its surface
is dynamically redefined by its companion. The temperature at the
point of contact will obviously be the average between the two
bodies and for the warm body to maintain temperature at its
surface it would have to change its internal nature in such a way
as to supply heat while the cooler body would have to change its
nature in order to absorb heat. Each simply acts upon and reacts
to the other - changing and being changed - until their
temperatures level out and the temperature differential between
them is Ø. (There it is again. Zero. Nothing. Null. Do you
detect a pattern here?)
The phenomenon of change is driven by the dynamics of the
properties of two (or more) qualitative values in direct contact
with each other. Each changes its condition in such a way as to
minimize and eventually eliminate the differential between
them.
The phenomenon we call gravity may, indeed, be the explained
by this process of reciprocal alteration. Matter is condensed -
its density is measurable, space is ethereal - rarified to the
point its density is immeasurable. Is it possible that space,
itself, condenses somewhat when it comes into contact with
matter? And if two material objects are in proximity to each
other, would this not draw them together? Space condensation
would certainly act just like the 'space-warp' of
Einsteinian theory, but it's a much simpler concept to
ponder.
If the basic structure of fundamental elements includes a
nucleus from which they 'project' themselves into
three dimensional space, the effect of that sub-dimensional
feature could well explain some of the strange behaviour often
observed within the microcosm. A nucleus would be a true point -
just a location with no relative size. If, as it projects itself
into space, a feature of the nucleus were to change its relative
position - say rotate 90 degrees - no distance would be traversed
(and no time would lapse) because it has NO size, only the angle
of projection would change in an instantaneous movement. Such
morphing (rearranging the substructure) of internal conditions
may produce some of those weird and seemingly impossible effects
which puzzle contemporary particle physicists. Mass is simply a
property - a condition. With the ability to change instantly, a
portion of an entity's substructure which has the property of
'mass' may suddenly disappear and simultaneously reappear
elsewhere without any motion taking place. This would give rise
to the illusion that the 'mass' has no real location and
can only be given a probability of existing at any given
coordinate. The phenomenon of morphing could also give the
illusion that some sub-structural facet can be in in two
different states or locations simultaneously - i.e. 30% in one
location and 70% in another. Such phenomena have been observed in
the microcosm and particle physicists tend to attribute them to
the existence of extra dimensions.
E=mc2 is the simplified form
of an equation given to us by Albert Einstein to describe the
relationship between energy and mass. Translated into words, it
says the amount of change - or energy (E) - that we may expect a
material to be able to produce is directly proportional to
it's mass (m) and the square of the speed of light
(c2). It is certainly a very
useful formula; however, in order for it to work, the subject
must have the property of mass. But what about things which have
no mass - things like space, for example?
Motion of an ethereal substance through space would certainly
produce change - but would it require energy? The subject would
have to displace whatever lies in front of it and this change
would certainly take an instance of time (t). Mr. Einstein's
equation may be accurate, but it is incomplete. It addresses only
the special case of things which have the attribute of mass. I
wonder if an equation which addresses the phenomenon of change in
both material and ethereal substances might finally resolve the
issue of that pesky imaginary number:

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