Uni-Chotometrics Book Resources

Uni-Chotometrics Book Resources

Illustration 2:

Illustration 7: Oscillating Tuning Circuit Animation

Once you have finished Chapter 7, take this opportunity to review the resonant tuned circuit animation again, to get a glimpse into understanding how radiant energy can become orbital. Similar to this tuned circuit example, the radiant energy is separated: one portion is the field (what we call the waveform), and the other portion in motion becomes what we call a “particle.”

As the C - Capacitor discharges completely, the i - Current will stop, and the separated portion of the electricity that has been pulled into the B - Magnetic Field around the coils will return to the coil, ready to push the electron flow (i) to the other plate of the capacitor.

As the i - Current (electrons) then builds up on the other capacitor plate, the charge creates a dielectric polarization between the plates of the capacitor, stored as an E - Electric Field potential, in the dielectric material. Once the capacitor is in a state of full charge, the electron motion (i) stops again.

The charge imbalance in the capacitor seeks to rebalance by moving electrons towards the other positive plate that is lacking in electrons. This cannot happen through the dielectric, so the E - Electric field moves the electrons back to the other plate along the wire conductor. In its path lies the L - Induction Coil, which will again separate and displace some of the electricity as a field around the coil. And the cycle repeats again...

An animation of a resonant tuned circuit illustrating the timing and sequence of the electrons' travel, resulting in the charge/discharge of the capacitor, and magnetic field creation and subsequent collapse by the induction coil. The oscillations are slowed down; in an actual tuned circuit the charge oscillates back and forth thousands to billions of times per second.

Illustration 8: Rotating Ball on Möbius Band Animation

An animation illustrating the 180 phase shift of an object rotated on the single edge of a Möbius band. The object travels twice around the mobius band (720 degrees) before returning to its original state.

Click the Controls dropdown to interact with the animation. Pinch to zoom, drag to orient Band.

Illustration 9: Interlocked Möbius Bands Orbital Tracks Animation

Two interlocked Möbius bands and their edge tracks, modeling electron orbital tracks of a hydrogen atom.

Click the Controls dropdown to interact with the animation. Pinch to zoom, drag to orient Band.

Illustration 10: Space to Matter - Extended EM Spectrum (according to Uni-Chotometrics)

Illustration 15: Corpus Callosum Animation

Rotating brain animation highlighting the Corpus Callosum, the thick bridge of white matter connecting the two cerebral hemispheres of the brain.

Illustration 16: Striatum Animation

Rotating brain animation highlighting the Striatum regions of the brain, the center of the human brain.

Illustration 17: Thalamus Animation

Rotating brain animation highlighting the Thalamus region in the lower brain.