I will leave the chemistry for others, but MM's  basic points correspond
with my experiences with an old Robey device as opposed to the Silvergen
constant current/stirring model.  

The Robey made the brew very quickly, with a characteristic large cloud
produced in the final moments before shut off.   The brew always had a
high TE and often a yellow color.  These characteristics correspond with
high particulate content.  

The Silvergen characteristically produces a very low TE, colorless brew,
over a period of perhaps four hours, as opposed to 20-30 minutes for the
Robey.  


JBB



Mike Monett wrote:
> 
> url: http://escribe.com/health/thesilverlist/m60880.html
> Re: CS>Bob Beck Interview
> From: Mike Monett (view other messages by this author)
> Date: Tue, 1 Jul 2003 17:25:55
> 
>   Well, maybe I figured it out. The OH(-) ion is the only thing around
>   that can react with the Ag(+) silver ion.
> 
>   So I  searched for AgOH. Sure enough, this is silver  hydroxide. The
>   equations are as follows:
> 
>   Water dissociates  to H+ and OH- ions to a very  small  extent. This
>   can be represented as:
> 
>   H2O <--> H(+) + OH(-)
> 
>   The concentration of hydrogen ions in aqueous solutions is pH:
> 
>   pH = -log[H+] = - logarithm in base 10 of [H+]
> 
>   A neutral solution has a pH of 7.
> 
>   During silver electrolysis, we apply current to the cell.
> 
>   At the anode:
> 
>   Ag(s) - e --> Ag(+)
> 
>   At the cathode:
> 
>   2H(+) + 2e --> H2(g)
> 
>   The silver ions form an invisible cloud around both electrodes.
> 
>   In the ion cloud:
> 
>   Ag(+) + OH(-) --> AgOH        (silver hydroxide)
> 
>   The silver hydroxide dissociates to form silver oxide particles:
> 
>   2AgOH --> Ag2O + H2O          (silver oxide)
> 
>   The silver ions leave the anode and drift towards the  cathode. This
>   means the ion density around the anode is less than the cathode.
> 
>   Since the  ion  cloud is most dense at the cathode,  the  mist forms
>   there first, later followed by mist forming around the anode.
> 
>   This shows particle formation is a function of cloud density.
> 
>   The particles have less tendency to form when the ion cloud  is less
>   dense. This is a function of the voltage applied to the cell and the
>   current density at the electrodes.
> 
>   This is  why  I  can achieve much  higher  ion  concentration  at 87
>   uA/sq.in. than previously at 1.4 mA/sq.in.
> 
> Best Regards,
> 
> Mike Monett
> 
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