| Topic: |
Science > Physics |
| User: |
"Anders" |
| Date: |
12 Feb 2006 11:50:08 PM |
| Object: |
Time having four dimensions |
Hypothesis: Time has four dimensions. Motion of a particle in relation
to space is a four-dimensional motion created by time. Motion is
defined by (x, y, z, a), where x, y and z represent the direction of
the motion in three-dimensional space in the form of points on the
surface of a sphere with radius 1, and a is the timeline angle
representing the velocity of motion in relation to space.
Energy is motion. The more energy the faster the motion.
Velocity is c * sin(a), where c is the speed of light.
The simplest motions is a particle without mass travelling at a
timeline angle of 90 degrees and we can call this particle a momenton,
which basically is a photon with the frequency of 0 Hz. A momenton is a
movement in space in a straight line at the speed of light. If the
momenton is given more energy it can no longer travel in a straight
line since the maximum speed is c * sin(a), and therefore the extra
energy will create a vibration of the timeline angle, and the more
energy the faster the timeline angle will change. When a momenton
vibrates at the frequency of visible light we call it a photon. The
more energy the photon has, the higher is its frequency.
The simplest motion forward in time is called a momenton and its
relation back in time is called a graviton.
The motions of momentons and gravitons are the only motions there are.
A particle with mass is created when momentons form a circular motion
in space, such as a proton which consists of momentons moving around
like a tiny cloud/sphere in space. The proton will generate (send out)
gravitons in all directions because of the circular paths of the
momentons forming it.
Mass is generated by momentons forming circular paths.
A particle at rest in relation to space has a timeline angle of 0
degrees.
A particle travelling at the speed of light in relation to space has a
timeline angle of 90 degrees.
A particle with mass can never reach a timeline angle of 90 degrees
because that requires infinite energy, since mass is momentons
travelling in circular stable paths and therefore the mean value of
timeline angles for the particle with mass will always be < 90 degrees.
However, if a particle is given more energy, such as an excited atom,
then at a certain point a momenton will brake free in the form of a
photon emitted.
Momentons forming circular stable paths is what we call nuclear energy.
Momentons travelling at the speed of light in relation to space is
called electromagnetic energy. But the fundamental energy is always
only momentons/gravitons.
The momentum of a particle with mass m is c * sin(a) * m.
The acceleration/deceleration of a particle is the change of its
timeline angle.
Space is the linear expansion of the four dimensions of time. When
there is no motion, then there is no expansion in space. At the
beginning of the Big Bang space had not expanded. The expansion of
space in three dimensions from the Big Bang and forward is caused by
tiny quantum movements/fluctuations in space. Without these
fluctuations space would still remain only as a single point. Then
after the Big Bang the tiny fluctuations in the form of seemingly
random momentons/gravitons began to cluster in coherent formations in
the form of simple particles and so on.
al.
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| User: "Anders" |
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| Title: Re: Time having four dimensions |
13 Feb 2006 04:56:09 AM |
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How does time expand? We can start with a single point representing the
start of the Big Bang. The first quantum fluctuation is the ripping
apart of this point which creates the first momenton/graviton pair. The
momenton travels at the speed of light in one direction and the
graviton travels at the speed of light in the opposite direction. This
creates an expanding line where the momenton is the moving into the
future and the graviton moving into the past. This line represents the
first dimension of spacetime.
In the next step the line between the first momenton/graviton pair is
ripped apart by the next quantum fluctuation which creates a growing
polygon with four points represented by the two momenton/graviton pairs
moving in 90 degrees relative to each other. This creates the second
dimension of spacetime.
The next quantum fluctuation rips one (or more) of the four lines of
the polygon apart at an angle of 90 degrees in relation to the
two-dimensional polygon creating the third dimension of spacetime. Our
hypothesis is that time has only four dimensions, or rather, three
dimensions plus the very complex expansion of the multiple timelines.
Therefore, the expansion of space will be in three dimensions only. In
reality time may have virtually an infinite number of dimensions, but
in this model the hypothesis is that time only has three dimensions
plus the expansion of the multiple timelines.
As time continues to expand it creates an explosion of entangled
momenton/graviton pairs. This is what we call the Big Bang.
A momenton can move in three dimensions at an arbitrary angle in
relation to another momenton. The reason for this is that each quantum
fluctuation is always a perpendicular ripping apart of an expanding
line of a momentum/graviton pair, but that makes it possible for the
new momenton/graviton pair to move in any direction in a
two-dimensional plane, i.e. having an arbitrary angle between 0 and 360
degrees perpendicular to the line that is ripped apart.
What we have now is a mindbogglingly complex, expanding and entangled
web in three dimensions.
What we normally call empty space is no simple geometry but an utterly
complex geometry, which would perhaps be better to call a quantum soup.
When a cluster of momentons move in a circular well-defined pattern in
relation to the three-dimensional quantum soup they form a particle
with mass. Two particles with mass will create gravity between them
because in relation to the quantum soup they have well-formed patterns
of gravitons creating a mutually correlated "pull" into the past.
al.
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