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If the strong nuclear force is indeed the field to be associated with a 3D
Euclidean space-time X3 and bosons and fermions are
mutually dual
then the bosons of the electromagnetic field must be the dual of the fermions of
the strong nuclear field, i.e., a photon is just another variation of a quark.
| |
x1 |
x2 |
x3 |
t |
|
|
1 |
e |
e |
v |
- |
photons |
|
2 |
e |
v |
e |
- |
|
3 |
v |
e |
e |
- |
| 4 |
e |
e |
- |
v |
up/charm/top
quarks? |
| 5 |
e |
- |
e |
v |
| 6 |
- |
e |
e |
v |
| 7 |
v |
e |
- |
e |
down/strange/bottom
quarks? |
| 8 |
v |
- |
e |
e |
| 9 |
- |
v |
e |
e |
| 10 |
e |
v |
- |
e |
| 11 |
e |
- |
v |
e |
| 12 |
- |
e |
v |
e |
|
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Dimension table for 3-dimensional particles
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The table on the left
shows a possible ordering of such 3D particles in a 4D world. Each 3D particle has
speed c in the
proper time dimension of its own
rest frame. This dimension is indicated by the letter “v” ("velocity" dimension).
The other two dimensions are indicated by “e” (“existence” dimensions).
The quarks rotate in 4D, which may be the background of their Cabibbo mixing.
Charge is determined
by the number of existence dimensions in our 3D space. Each existence dimensions
represents 1/3 unit of charge (positive or negative).
In fact, charge only becomes "real" and measurable charge once the
three "e" dimensions come together. That's why photons show no
"real" charge.
Mass (energy) is determined by
the velocity dimensions. The total mass of a compound particle may ultimately be determined by the sum
of all velocities of all sub-particles, sub-sub-particles and so on.
A 3D quark may on its turn be a bound state of yet more fundamental 2D particles
(W, Z, neutrino's?).
Quark combinations must always lead to a compound particle consisting of all four dimensions.
Possible examples:
2 x "4" + "9" = 2u + d = proton
"4" + 2 x "9" = u + 2d = neutron
"4" + anti-"8" = u + anti-d = anti-p+
How to imagine such 3-dimensional particles
and the dimensions that they consist of? The picture on the right and the
animations below try to visualize this.
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Conceptual overview of
elementary particles and
the dimensions that they consist of |
A basic property of the model is that all dimensions are orthogonal
in every point and closed.
The model has some similarities with p-branes in stringtheories. It starts with a simple model for a particle with zero "e"
dimensions and 1 "v" dimension. That results in the yellow circle in
the top right corner of the picture. The actual particle is a
zero-dimensional point, moving around in the circle with velocity c,
like in the first animation. That circle represents the proper time dimension for the particle.
The next step is the red horn torus below the yellow circle.
This represents a particle with 1 "e" dimension and 1 "v"
dimension (note that a sphere does not fulfill the model's requirement on
orthogonal dimensions). The actual particle is a 1D
circle, orientated like the yellow circle in the previous model. It moves along the surface of the horn torus, in the direction
orthogonal to the circle, with velocity c (second
animation). The circle thus
shrinks and stretches depending on it's position on the surface. Once its
passes the center of the horn torus, it's diameter will be instantly zero,
while the diameter will reach it's maximum when the circle passes the outer
edge of the horn torus. The surface of the horn torus represents the proper
time dimension for the particle.
Finally, we can visualize a particle with 2 "e"
dimensions and 1 "v" dimension (e.g. a quark). This is shown in the
combination of the red horn torus with the blue balls. A single instance of the
pair-of-blue-balls is drawn here; the complete model actually consists of an
infinite number of blue-ball-pairs with growing diameter that together represent the third (proper
time) dimension. The torus now represents
the actual 2D particle, while it moves along the surface of the blue balls
with velocity c. The net effect is that the torus inflates
until it reaches an infinite size when it reaches the top of the blue ball,
and then begins to deflate again until it reaches the point where the two
blue balls touch. It's size is zero then. After that, the whole cycle
repeats itself. The
"infinite" size that the torus reaches at a certain instant, is a result of
the fact that we cannot observe the higher dimensional space that the whole
construction is embedded in. For an observer with 4D spatial
vision, the size would always remain finite, like we always observe the size of the moving circle as finite in the
previous model.
Note that the way that this model would really show itself to us totally
depends on the actual dimensions that play the roles of "e" and "v"
. The description of the third model in fact applies to a photon (because all 3 dimensions
exist in our 3D space). The instants of zero size correlate with the moment of absorption or emission of the photon by a
charged particle while the intermediate states represent it's journey
between emission and absorption. The instant of infinite (undefined) size allows
the change of its path towards another charged particle (the
animation actually shows a scene where the photon is emitted and absorbed by the
same charged particle). The surface of the horn torus reflects the quantummechanical probability spread of the photon's position in space. At the
moment of absorption (read: measurement) this probability instantly converts to
100% at the position of the absorbing particle.
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