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Three factors will determine the quality of the colloidal silver that you make. The first is the water that you use. It must be distilled to a high degree of purity. You will need to check that the water you are using is pure enough. The distilled water sold in grocery stores in 1-gallon containers will generally be good enough. You will still need some way to check it. That can be done with a conductivity meter or by some method included in the design and function of whatever generator we use.
The second factor is the purity of the silver that we use. We want silver ions and preferably no other metals. We want to make a solution containing silver ions, as they are proven to benefit significantly. Many different metals can do us great harm. We must take every precaution to avoid taking toxic metals into our bodies. That is why we use only 9999 silver wire and insist on a certificate of analysis showing the present impurities. In the case of the highest quality silver, the most significant contamination will be copper, which is not bad in small amounts. That will be the case with silver that comes directly from silver ore. If you buy silver without an assay certificate, it could contain scraps from manufacturing facilities that alloy silver with any other metals. So it's not just a matter of it being 9999, but what is the nature of the additional .01%. When we make colloidal silver, the result is a liquid solution with silver in parts per million (PPM). It makes no sense to try to economize on this. If we consider making colloidal silver at a strength of 10 PPM, for example, 1 ounce of silver wire could theoretically make 100,000 ounces or 1500 gallons of colloidal silver.
The third factor is the amount of time that we allow the process. Hydrogen will appear at the cathode (the negatively charged electrode, where electrons enter the water), and oxygen will appear at the anode (the positively charged electrode). In the days of the 3 9 V battery and silver coins method, we would wait until we saw a cloud. We were told that pieces of silver had formed in the water and stopped the process soon after. In reality, the cloud was created by hydrogen and oxygen microbubbles which meant that the process was in a runaway mode. If you were lucky, disconnecting the batteries at that point would perhaps get you a five PPM colloidal silver solution. It would not keep its strength very long as the larger particles quickly collide with and absorb the silver ions. A few of us promoted using current limitations to prevent the runaway condition. Some of us noted that the higher resistance we used, the better results we obtained in higher PPM and stability. Many of us tried every conceivable method of stirring to allow the use of a higher current to speed up the process. All of my efforts in this direction failed. I could not get around the fact that for a given surface area of silver anode only a certain amount of current was allowed. There is a region surrounding the anode called the Nernst diffusion area. That region will only allow a specific density of ions to exist before they agglomerate into larger particles. So for those with your setups for making colloidal silver, try reducing the current and allowing more time, and let us know the results.
The second factor is the purity of the silver that we use. We want silver ions and preferably no other metals. We want to make a solution containing silver ions, as they are proven to benefit significantly. Many different metals can do us great harm. We must take every precaution to avoid taking toxic metals into our bodies. That is why we use only 9999 silver wire and insist on a certificate of analysis showing the present impurities. In the case of the highest quality silver, the most significant contamination will be copper, which is not bad in small amounts. That will be the case with silver that comes directly from silver ore. If you buy silver without an assay certificate, it could contain scraps from manufacturing facilities that alloy silver with any other metals. So it's not just a matter of it being 9999, but what is the nature of the additional .01%. When we make colloidal silver, the result is a liquid solution with silver in parts per million (PPM). It makes no sense to try to economize on this. If we consider making colloidal silver at a strength of 10 PPM, for example, 1 ounce of silver wire could theoretically make 100,000 ounces or 1500 gallons of colloidal silver.
The third factor is the amount of time that we allow the process. Hydrogen will appear at the cathode (the negatively charged electrode, where electrons enter the water), and oxygen will appear at the anode (the positively charged electrode). In the days of the 3 9 V battery and silver coins method, we would wait until we saw a cloud. We were told that pieces of silver had formed in the water and stopped the process soon after. In reality, the cloud was created by hydrogen and oxygen microbubbles which meant that the process was in a runaway mode. If you were lucky, disconnecting the batteries at that point would perhaps get you a five PPM colloidal silver solution. It would not keep its strength very long as the larger particles quickly collide with and absorb the silver ions. A few of us promoted using current limitations to prevent the runaway condition. Some of us noted that the higher resistance we used, the better results we obtained in higher PPM and stability. Many of us tried every conceivable method of stirring to allow the use of a higher current to speed up the process. All of my efforts in this direction failed. I could not get around the fact that for a given surface area of silver anode only a certain amount of current was allowed. There is a region surrounding the anode called the Nernst diffusion area. That region will only allow a specific density of ions to exist before they agglomerate into larger particles. So for those with your setups for making colloidal silver, try reducing the current and allowing more time, and let us know the results.