High-quality colloidal solutions and their production process

We always work with the high-voltage electrolysis process. This is clearly superior to the high-voltage plasma process and the low-voltage electrolysis process in terms of results.

A comparison of the common processes for the production of colloids

Incorrectly popularized is the high-voltage plasma process. Here, the electrodes are clamped under water with the tips at right angles and a few millimeters apart. By applying approx. 10,000 - 20,000 volts, a plasma arc forms under water only between the electrode tips (similar to a welding arc). In this process colloids can be produced in a few seconds to minutes. Due to the much too high energy, the particles are so large that a red coloration results in the case of gold. Germanium electrodes would be shattered.

Colloids produced by the high-voltage plasma process are comparatively weakly effective.
However, this is a favorable, because fast production method. Shortcoming: It is not possible to measure how many ppm were dissolved in the colloid. The data would be rough estimates and pure marketing.
These colloids also do not have a very long shelf life and thus continue to lose effectiveness.

Detectable colloid size exclusively with the high-voltage electrolysis process

Voltages of 2,000 - 3,000 volts are required for germanium. For gold, 500 - 800 volts are required to bring a "healthy current" to the electrodes. The required voltages also depend on the electrode surface, i.e. the size of the electrodes. The generators are optimally calibrated to produce the smallest possible particle size with an optimum charge. We are rewarded with an extremely small particle size - proven by scanning tunneling microscopy/mass spectrometry by Graz University of Technology.

Widespread but only conditionally applicable: the low-voltage process

And then there is the completely unsuitable low-voltage process: Neither gold nor germanium can be produced in the low-voltage process (up to 60 volts). The minimum current strengths to enable the application of Faraday's laws are not achieved.
Some manufacturers actually advertise low-voltage production and an alleged "characteristic ruby-red" coloration. However, the fact is: one does not produce colloidal gold here - not even after months - nor can a red coloration be produced. Colored water is sold there. The dye used can also be detected by simply equipped laboratories.