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A greater explanation of heat and cold |
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The concepts of heat and cold are as
fundamental to science as energy and forces. Rather than taking you on an
extended journey, we will get to the heart of the matter. The definition of
heat and cold used by science incorrectly describes actual behaviour. In
science, the attributes of heat are increased vibration and increased movement.
Expansion is also attributed. |
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However, under the laws of conservation
of motion, increased vibration and spin, must accompany a slowing of motion in
form with direction. |
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Therefore Heat is a corrupted term that
denotes incorrect characteristics. The word Het is used to denote similarities
to the concept of heat, but with correct attributes attached. |
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| 6.17.1
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The definition of Het |
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Example (1) The equator and sunshine. |
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Common observation tells us that it is hotter at the
equator than at the poles. We understand this because the energy from the sun
and the angle of the planet rotation makes the equator the most direct location
for sunlight to reach the Earth. But why does this make the equator hotter? And
what is actually happening when the temperature rises? |
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Historically, we answer this by observing that
sunlight, or put it in understandable language, very fast vibrating and small
particles hit the surface of the Earth and cause a reaction. Historically, we
observe this reaction to be described as high vibration and high motion. But is
this correct? |
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We have already learned in previous chapters that an
increase in vibration and spin MUST be accompanied by a slowing of motion. So
where does expansion come into play. |
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The answer lies in our misinterpretation of what is
actually changing when we say something is heating up. We know that sunlight,
which is very small particular traveling at high vibrations hits the Earth
surface, what we forget is that they don't suddenly "cease to exist." They
interact and combine. What is more, the density of the given volume of space
and surface of the Earth where this occurs actually increases as more matter
from the sun arrives. |
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Therefore things expand at the Equator in heat, as
more particles are added to their form. This is entirely consistent with slower
motion. |
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Example (2)- An atomic explosion |
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Another example showing the wrong characteristics
being attributed to the definition of heat is the signature pattern of an
atomic explosion. |
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The initial reaction- very high vibrations and
separation of complex form is associated with a slower rate of motion, which
accelerates as particles from the device separate and expand outwards,
interacting with other particles until finally with increased volume, the
levels of vibration/spin reduce. |
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If current sciences definition of heat was correct,
then the fastest motion of particles involved in a nuclear device would be at
the centre of the device at the moment of interaction of plutonium. |
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Photos of Nagasaki and Hiroshima showed incredibly
that at the centre where the bomb exploded, some buildings were essentially still
standing. If current science philosophy were correct, this could not happen. |
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Example (3) - Hot air versus cold air |
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In meteorology, we already ascribe a characteristic of
higher density to hot air- that its "pressure" is higher than cold air. Science
in this was has already admitted that a feature of heat is higher density on
one hand, yet on another hand says this is because of increased motion. How can
two opposite concepts be correct? Isn't density when there is more matter per
volume measurement and increased motion a feature of less density, more freedom
to move? |
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An example of the interaction to create HET |
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Say 3 particles in 1 volume of space exist. Say then
that 5 particles of waves of light arrive into this space creating an increase
in density to over 8 in 1. This increase in density creates higher vibrations,
which when combined with density means there is greater HET. |
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| 6.17.2 |
Col |
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Similar to the problems of the current scientific
meaning of heat, cold is also incorrectly ascribed characteristics by science
that contravene the laws of conservation of motion. As vibration/spin rates of
particles slow, there is greater potential for motion in form. |
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Definition of Col |
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As there are less particles per unit volume, rate of
vibration decreases and rate of motion increases. |
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The word Col is used to denote from the contemporary
definition of cold which is incorrectly defined. |
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The features of Col can be described by two naturally
occurring phenomena- when there is less sunlight ( there are less particles per
unit volume in the atmosphere), the pressure of the atmosphere falls and we
know it is Coller. |
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Another feature is the expansion of ice, which is a
frozen form of water. If the current scientific definition of cold were true,
the volume taken up by water molecules should shrink ( because science
currently ascribes slower motion, slower vibrations to slower motion).
Vibrations and spin do slow down, but motion increases, under a stable form
causing a "strong expansion" in the volume per unit that can be taken up by say
water molecules. Ice is simply water molecules slowing spin/vibration rates as
they move away from each other- Increasing volume |
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An example of the working of Col |
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8 particles are in a volume area of space. 5 particles
leave that space, resulting in a lowering of vibration and spin and therefore
increased motion in the same amount of space. The lessening of particles lowers
the rate of vibration and increases motion in form with direction. |
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