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By uniting field theories and quantum mechanics German physicist
Burkhard Heim designed a six-dimensional space,
containing characteristics of both of these sections of our world at
the same time.
Heim shows that different patterns of cyclic internal
condensations are born from internal characteristics of this
space, which can run circularly. These are so-called
Protosimplexes – the simplest dynamic
structures of our world. A mathematical description of these dynamic arrangements supplies the mass spectrum of all ponderable elementary particles. All masses observed so far are included in this mass spectrum. |
Thereby Heim's quantum field theory explains existence and mass characteristics of elementary particles by geometrical characteristics of six-dimensional physical space. Therefore a particle in space does not exist in space but it is space (space which is condensing cyclically in all six dimensions.)
Correctly you would have to say space is electroning around, protoning ...
| Except γ, the reduced Planck constant h-bar, ε0, μ0 in the Heim theory no further calibration factors are used. |
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Most detailed explanation of elementary particles' interior life
is given by Illobrand von Ludwiger in Brand, Illo; Die einheitliche 6-dimensionale Quanten-Geometrodynamik nach Burkhard Heim , particularly pp. 292-297 (uniform 6-dimensional quantum geodynamics of Burkhard Heim) Brand, Illo; Die innere Struktur elementarer Subkonstituenten der Materie, particularly S. 378-384 (Internal structure of elementary sub constituents of matter), "Protosimplexes are quanta of metric deformation.
Because of the 6 coordinates there are six different Protosimplexes
which can step into internal correlation forming 'basic processes
of flow'. A Protosimplex still has no material characteristics.
Only if several Protosimplexes step into interrelation or exchange
processes they will show material characteristics, i.e. inertia will
appear. from "Die einheitliche
6-dimensionale Quanten-Geometrodynamik nach Burkhard Heim",
p. 294 |
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The figure on the left shows the density of
protosimplexes inside of an elementary particle.
There are 4 zones with different densities:
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When I told to Heim in 1996 that the Berlin group wanted to call itself 'Protosimplex' he was very pleased because – as he said – "this is the simplest thing existing in the whole world".