Some behavioral characteristics of electrons arranged in a dodecahedron: build-up of gravitational attraction through free magnetic energy.
- THE BUILDUP OF GRAVITATIONAL ATTRACTION THROUGH FREE MAGNETIC ENERGY
An illustration of the forming of the dodecahedron was:
Before the encounter, all 12 electrons are moving at relativistic speeds. After the encounter and forming the dodecahedral arrangement, their (kinetic rest) speed becomes zero relative to the speed of light.
Each electron within the dodecahedron accumulates kinetic energy based on its motion, quantified as ½mV², where V represents the speed differential relative to the speed of light. The relativistic speed of a bare electron is its inherent speed at which it formed into the electron. This characteristic of kinetic energy is not recognized within The kinetic energy loading is equivalent to the transformation of free electric energy into free magnetic energy through the reduction of the frequency of the electron system. The addition to the magnetic manifestation of the electron is a Δhf. This is counterintuitive because, in conventional science, we assume that an electron’s natural rest speed is unknown.
Tests conducted near 0 Kelvin show that electrons still possess speed. This increase in the magnetic manifestation of each electron reflects surface inflation for the electron and volume inflation for the dodecahedron.
Per illustration:
Electron inflation
Dodecahedron arrangement in a simplified animation:
Regular science identifies the additional free magnetic manifestation as mass manifestation.
2. OSCILLATION WITHOUT SPINOR ROTATION
Another characteristic is that the electrons in the dodecahedron arrangement continue to oscillate at approximately a frequency of 10¹⁴ Hz.
In two animations:
The arrangement of the dodecahedron does not permit electrons to undergo spinor rotations.
3. ELECTROMAGNETIC NEUTRAL BEHAVIOR
To the outside world, a single dodecahedron does not show any noticeable electrical characteristics or exhibit ½ spin behavior. In summary, such a dodecahedron behaves like dark matter, demonstrating mass-related properties such as gravitational attraction and inertia only.
4. NATURAL REST SPEED ZERO, INERTIA CAPABILITY
The following observation pertains to the potential breach of the speed of light by the entities involved, including their electromagnetic manifestations. For example: on each face of the dodecahedron, there is a photon that orbits at the speed of light. That means that whenever a dodecahedron accelerates in a certain direction, then the resultant speed of one or more of its photons could surpass the speed of light.
That is not possible.
The rest speed of the dodecahedron, which consists of twelve electrons, is zero in relation to the speed of light at the moment this structure emerges. This occurs while the electrons that make up the dodecahedron are still propagating at relativistic speeds during the moment they lock into the newly formed construct. In other words, the dodecahedron’s intrinsic speed is zero when compared to the speed of light.
However, we know that we can accelerate an object.
That triggers the question: what prevents any of such photons from exceeding the speed of light while being accelerated?
The dodecahedron arrangement limits the electrons to make spinor rotations.
In illustration:
When a dodecahedron accelerates from its natural rest state—which is zero relative to the speed of light—it requires additional compensating circular vibrations within its structure to prevent over-speeding. These vibrations are a complex set that rearranges the internal manifestations of the dodecahedron as necessary to avoid excessive acceleration. The mentioned circular vibrations are sensitive to direction and require an external energy input. The inertial behavior we observe in daily life results from the energy necessary during acceleration. As the dodecahedron accelerates, this system of vibrational compensation stores energy as kinetic energy within the dodecahedral structure.
When a dodecahedron is created by twelve electrons moving at relativistic speeds, it must immediately generate the necessary compensating circular vibrations to prevent exceeding the speed of light. This energy is drawn from the free energy of the constituent electrons. Once the dodecahedron reaches its rest speed, the kinetic energy will be dissipated into the surrounding environment whenever possible.
At this stage, some of the magnetic manifestations aimed at balancing the original free electrical energy of the electrons are no longer needed. As a result, the energy that has dissipated outside the dodecahedron is now expressed within it as free magnetic monopolar energy. In conventional science, this phenomenon is referred to as mass and gravitational attraction.
It is impressive that the configuration of electrons arranged in the spatial form of a dodecahedron has the speed of light as a reference for accommodating any acceleration in any direction. The dodecahedron construct stores acceleration against inertia by introducing compensating vibrations. This stored energy is reversible and aligns with the axis of speed variation, regardless of the dodecahedron’s rotation over time. This self-adjusting system preserves the history of acceleration.
5. INTERFERENCE CAPABILITY WITH OTHER DODECAHEDRONS
While a single dodecahedron acts in effect as ‘black matter’ and shows little or no interaction with the outside world, it is conceivably feasible that a dodecahedron may interact with yet another single dodecahedron.