Agitated electrons are in a higher energy state, this is part of the way to free energy.
So how do you agitate electrons at normal atmosferic pressure?
I leave it with you.
Mike
Google AI response...
Copper electrons become agitated by electromagnetic radiation at various frequencies, but they are particularly responsive to the frequency of visible light and higher frequencies. At the lower end of the electromagnetic spectrum, electrons in copper are agitated by the alternating electric field associated with alternating current (AC) power, typically at 50 or 60 Hz. As the frequency increases, the electrons absorb more energy and exhibit more pronounced agitation.
Low Frequencies (e.g., AC power):
At 50 or 60 Hz, the electric field associated with AC power causes electrons to oscillate back and forth within the copper wire. This oscillation is a form of agitation, although the electrons don't gain a lot of energy at these frequencies.
Higher Frequencies (e.g., visible light):
When exposed to higher frequencies, such as those found in visible light, copper electrons can absorb energy and jump to higher energy levels within the atom. This is a more significant form of agitation, and it's why copper absorbs certain colors of light.
Radio Frequencies:
At radio frequencies, electrons can also be excited and oscillate, but the effect is less pronounced than at higher frequencies.
X-rays and Gamma Rays:
At very high frequencies, like those in X-rays and gamma rays, copper electrons can be completely ejected from the atom (photoelectric effect).
In essence, the degree of agitation in copper electrons increases as the frequency of the electromagnetic radiation increases. The electrons respond to the oscillating electric and magnetic fields, with the amplitude and energy of the oscillation determining the degree of agitation and the resulting effects.
With a structured hexagon winding for the six strands, a seventh strand in the centre could be used to agitate...
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Topic: Sine to Square (Read 57784 times)
