I thought a lot of the beneficial effects of water injection were due to the expansion ratio of water to water vapor (steam).
From what I recollect, the energy taken from the combustion to evaporate the water was far overwhelmed by the ~1800 to 1 expansion of the water's volume.
But back to the OP, sure, you can electrolyze water and keep the two gases in one collection container. But that mixture is highly
combustible explosive all by itself.
As a similar example, you can keep a mixture of hydrogen and chlorine in a glass flask, but it is so sensitive that even a flash of light will make them recombine explosively.
In the same way, you can keep acetylene and air in the same container as long as nothing ignites it... (a dangerous experiment, by the way.)
OP:
I am trying to figure what regular maintenance would be required on something like this even if it did work. Cleaning out the water chamber, checking for leaks, etc. You would to have a very flammable gas generated under the hood. I also don't know how much power would be required. Would a standard alternator be able to handle it?
They say, "and is why we see the results Without violating any Laws of Thermodynamics in the process (sorry guys - there is no free energy in what we are doing - just good physics)."
But. as has been pointed out, the energy involved in generating "Brown's Gas" --even if external household current is used* --must be counted in the complete energy expenditure budget. People forget that even headlights have a cost in miles per gallon. Anything you hang off the electrical system costs. As to whether a standard alternator would do it? Too dependent on other factors to figure an all-around answer.
Terry
* Even AC can be used if you're not going to bother separating the two gases. Each electrode will generate H on one half of the AC cycle, and then O on the other half. The two will then bubble up to the surface, pre-mixed. Incidentally, the lone Hs and the lone Os are called monatomic or "nascent" hydrogen and oxygen. But like most gases, one nascent H will seek out another nascent H to form a
molecule of H
2 and one nascent O will seek another nascent O to form a
molecule of O
2.
Similarly, we see N
2, Cl
2, etc. AFAIK, the only gases which don't form molecules under ordinary circumstances are the "Noble" gases --xenon, neon, radon, etc.