Practical Guige to Free Energy Devices

HHO production at around 16 amps looks impressive as shown here just before the whole container is obscured
by the HHO bubbles coming off the coils:
At full power, the cell draws 18 amps when powered through a Pulse-Width Modulator manufactured by the
”HHO Powercell” company using a battery of around 12.5 volts. That 225 watts produces a gas output rate which
needs to be measured. In my opinion, the gas output pipe needs to be much larger with an inner diameter of
perhaps 15 millimetres as a small pipe hinders the escaping gas. If you don’t believe that, then try blowing
through a length of 6 millimetre diameter plastic pipe and see how hard that is to do.
Nevertheless, this is a simple, basic electrolyser with just two electrodes, although, possibly because the Pulse-
Width Modulator is feeding it a good quality square wave signal, the small bubble size suggests that there is an
efficiency gain which makes it perform better than would be expected. A single cell like this will find it hard to
escape from the basic fact that 1.24 volts is all that is used in water electrolysis and even with the voltage drop
across stainless steel you really do not want more than 2-volts between the plates. In other words, only 2-volts of
the battery’s 12-volts can actually make gas and so, the vast majority of that 225 watts goes to make heat and not
gas. The situation for 1, 2 or 3 single cells is like this:
It is probable that HHO production at 225 watts would be doubled if two of these cells are connected in series,
that is, connected in a chain. The performance would probably be tripled at that same 18 amps of current, if three
of these cells are connected in series across the voltage source. If that is done, then ideally, each cell needs to
be inside its own separate container. Adam suggests that the coil produces a magnetic field which boosts the
production of HHO, and considering the effect of the magnets in the Shigeta Hasebe cell, he may well be right.
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