# Gas Destabilization Process

[![image-1729960689754.png](https://stanslegacy.com/uploads/images/gallery/2024-10/scaled-1680-/dmamtcwtGzMDRJnB-image-1729960689754.png)](https://stanslegacy.com/uploads/images/gallery/2024-10/dmamtcwtGzMDRJnB-image-1729960689754.png)Placement of a pulse-voltage potential across the **Excitor-Array** (ER) of **Gas Resonant Cavity** (t) while inhibiting or preventing electron flow within the **Voltage Intensifier Circuit** (AA) causes the Gas Atom of **Argon** (Ar) to become an positive charged ion by pulling away orbital electrons from the gas molecule or gas atom, as illustrated in Figure 1-5.

The stationary **"positive"** **electrical** **voltage-field** (E3) attracts the negative charged electrons from the Gas Atom.

At the same time, the stationary **"Negative"** **electrical voltage field** (E4) attracts the positive charged nucleus of the **gas atom** (s).

<p class="callout info">Once the negative electrically charged electrons are dislodged from the gas atom, the gas atom becomes destabilized…having missing electrons.</p>

Dislodging electrons from the gas atom by way of voltage stimulation is hereinafter called **"The Gas Destabilization Process."**

<p class="callout success">Attenuating and adjusting the **"pulse-voltage-amplitude"** with respect to the **"pulse voltage frequency,"** now, regulates **"The Electron Extraction Process."**</p>