Field-Space Levels
To date, the Field-Space-mechanical model has been considered in terms of a 6-dimensional field-space. However, there are particles that can only arise if additional spatial dimensions are permitted in order to satisfy the geometric requirement. A field-space plane has hitherto been recognised as the plane of intersection between the particle-field and the wave-field – the dimensional plane . Lifting a particle away from this plane results in the coupling to the particle-field being severed, rendering the particle invisible.
If all three bundle functions that interact with the particle-field are affected, it is conceivable that at least three spatial planes exist on a higher field-space plane with a higher energy level. The transition can be described by a period T of sinusoidal periodicity. By exciting the system with a suitable coupling frequency, it becomes possible, for a limited time, to trigger relativistic effects without having to move the object itself. This mechanism is based on the fact that space-time resembles a moving energy or an electromagnetic oscillation. The representation of moving energy without vectorial intrinsic motion is ensured by the rotational mechanisms between the bundle fions and the rotation of the surrounding sphere.
There is a repulsive barrier between two field-space planes, preventing the attractively interacting planes from collapsing into one another. One field-space plane can approach another, thereby triggering new physical relationships.
The diagram illustrates the mechanism of field-space displacement within the wave-field. In the particle-field, the momentum decreases and the field weakens as the displacement occurs, until it disappears from the phase of visible matter. At the exact mirror-image location of the displacement, the particle also exists as its full-fledged antiparticle. The locations with energy levels 1 to 3 are the states that can be artificially excited for a limited time. Overcoming the repulsive region at the location with level 4 in order to reach the higher field-space level is only possible naturally, once the surrounding matter at the lower field-space level is oscillating largely in unison with the higher level.
The relativistic formula that equates space-time and energy is:
Changes between field-space levels can occur naturally when the majority of the matter present within a finite spatial segment – such as that of a planet – resonates at the higher frequency of the higher field-space level. The repulsive region between the field-space levels accelerates the transition, similar to the tunnel effect in quantum mechanics.
The deviation angle β describes the shift towards an optimal field exchange parallel to the dimensional plane D56 relative to the point of contact with the particle-field. As this angle increases, the strong interaction decreases and transitions into the weak interaction, until it eventually reaches zero. This range, 0 ≤ β ≤ 90°, is technically accessible. Beyond this range lies the natural path for a change in field-space plane.
The simulation shows the transition of an object from a lower level to a higher level. The object’s field passes through various stages, which result trigonometrically from the change in direction. The red border indicates that the field is determined exclusively by the current field-space level. As soon as excitation occurs in the next field-space level, the field mixes proportionally with the higher level. This process is highlighted in blue. The deviation angle β is shown on the left to enable the progression to be classified mathematically:
β = 0° → current level
β = 90° .→ exactly symmetrical field direction; an object no longer reacts to the surrounding field
β = 180° → repulsive transition
β = 270° → exactly symmetrical on the side of the higher level
β = 360° → reaching the higher field space level
