Photon Model
The universal constants from cosmology suggest that these quantities can be scaled to quantized subspaces of the universal photon field. This photon model is a relativistic result from the theory of relativity of Field-Space-Mechanics. In this model, photons are hollow body vibrations that are described in a 6-digit vector for the six possible spatial dimensions with four parameters.
In the wave-field, the photon exhibits the same dynamics with regard to space-time and field deformation as the universe. These deformations are described by the field propagation velocities V4 and V5 . An oscillation can be represented mathematically as a rotation.
The following relationship applies:
c² = V4² + V52
Simulation:
The 6-digit vector denotes the spatial dimension of the field-space. 1-3 stand for the particle-field and 4-6 for the wave-field.
The field body corresponds to a wave character with three dimensions in the particle-field, while its field emission resembles a momentum character. “X” means that one of these dimensions is spanned for rotation, while “/” means that no dimension is spanned at this location.
The geometric propagation of a field in the particle-field behaves like a longitudinal wave, while its field body corresponds to a transverse wave. The field forces transmitted via the dimensional plane D56 are therefore perceived as a rigid body in the particle-field. The photon, with its 2-dimensional momentum, is registered in the particle-field merely as a point particle, which it is not in fact. The wave-particle duality of photons and particles in the particle-field can be traced back to its self-interaction with its own 2-dimensional field in the dimensional plane D56 from the wave-field.
Particles are given a mass m and an inertia when they move through a field that opposes their movement. Each photon has its own relativistic inertial motion during an oscillation in space-time. Depending on the frequency, the periodic inertial motion requires a certain inertial force for its dynamic change.
Force equation - Photon
It should be noted that this equation must be adjusted for cases where an object, such as the Earth, has a wavelength that exceeds its own field radius (Earth: approx. 5 cm). Detailed information can be found in the script.
F(t) – relativistic force
G – gravitational constant
m – mass of an object
r – field radius
k – angular frequency
t – nominal time
c – maximum speed
Energy formula
The space-time behaviour of any electromagnetic wave is the same as that of the universe. Thus, the results of cosmology are scalable to the microcosm.
E – energy
{m k} – mass-time constant
h – Planck’s constant
λ – wavelength
f – frequency
Angular momentum
Lø_ particle-field – average angular momentum in the particle-field
{λ r} = constant
Relativistic energy increase
The relativistic energy increase applies across the entire gravitational potential of an electromagnetic wave in space-time. Mass is an invariant quantity. Relativistic energy is modelled in the form of additional work in a deformed space-time. Energy-space-time equivalence applies. This model includes Einstein’s mass-energy equivalence as a special case at the location of the inertial system.
Eobj(t) – relativistic energy increase of an object
The animation shows an example of how the periodic inertial motion of a field body behaves in the wave-field. In this case, the hollow body vibration is not represented as a sphere, but as a mathematical rotation. The wave-field modulates the (kt) electromagnetic hollow body vibration in space-time. The relativistic fields in the wave-field deform space-time in the particle-field. A transition or field exchange takes place via the dimensional plane D56. The amplitude of the relativistic field in the wave-field corresponds to the wave peak in the particle-field. Gravitational waves originate from this mechanism.
The field exchange generates forces that make the fields appear as condensed, discrete matter. This is illustrated by blue spheres that oscillate in parallel with the waves.