The Fracturing

Episode 15 ended with the ionised gas having a real job: somewhere for the ejected electrons to go. This is where Meyer says they go — and it is his own running order. The chapter after Gas Processor in The Birth Of New Technology is Hydrogen Fracturing Process, and numeral (390), the step the gas processor hands off to, carries that name.

The claim

The Hydrogen Fracturing Process has the capability of releasing thermal explosive energy up to and beyond 2.5 million barrels of oil per gallon of water under controlled state

The chapter's own qualifier is "when equated in terms of atomic energy", and at Denver in 1997 he adds: "projected energy yield release is anywhere up to and beyond 2.5 million barrels… We don't need to get to that size, because we don't want to destroy the hydrogen and the oxygen process." It is the mass-energy slogan of the atomic age, quoted as a ceiling he says he will not reach.

do this to one gallon	barrels of oil
burn its hydrogen	0.0098
burn it as atoms (Langmuir, 1926)	0.032
fuse its natural deuterium	1.9
…burning the products too	8.9
fuse every hydrogen atom to helium	44,199
annihilate the gallon entirely	55,496,891

Usually misread. "Decreases the mass size of the combustible gas atoms" gets read as rest mass converted to energy, costed at 5,070 and 16,899 barrels, and the shortfall called "the wrong sign again". That is not his model. His model, stated in New Zealand 1989, Colorado Springs 1991 and Denver 1997, is muon-catalysed fusion:

they trick the hydrogen atom to accept the muon, and as a result now would reject its natural electron… then the muon would decay, and as a result of its decay, it now decreased mass, and as a result you had a higher energy yield

So the bar to compare his claim with is the star: 44,199 barrels, and he is 56× past it. The fusion road is closed, and for a specific reason: muon catalysis works because the muon is 207 times heavier than the electron and so orbits 207 times closer, letting nuclei tunnel. Meyer was removing electrons; nothing orbits closer. (In New Zealand he says the muon is "twice the mass size of electron" — the one number that hides the flaw.)

Where the extra heat could really come from

There are two ways to burn hydrogen, and they give different numbers.

molecules: H₂ + ½O₂ → H₂O(g)	242 kJ/mol
atoms: 2H + O → H₂O(g)	927 kJ/mol
more, by	3.8 ×
the extra, per molecule	7.1 eV
per gallon	144 MJ — 0.023 barrels

Usually miscosted. The standard objection is that preventing the water molecule from forming "removes the only source of the energy". That is right for molecular hydrogen and wrong for his fuel, which he describes throughout as atomic — "breaks down into its elemental components of hydrogen (2H) and oxygen (O)", "combustible gas atoms". Langmuir's atomic hydrogen torch (1926) runs on exactly this and reaches 3,400–4,000 °C. "Thermal explosive energy beyond normal gas burning levels" is a literal description of it. The catch is that the extra 685 kJ/mol is the electricity, coming back — which is what has to be measured, not argued about.

Three moments, not three mechanisms

Read as a contradiction, and it is not. Fails to unite (WFC 422DA), allowed to come together (In Summation) and retarded and slowed (Using Water As Fuel) are put side by side and the difference called "the indifference… the tell". Read against his own sequence — polarisation, energy priming, electron ejection, spark — they are before, at and during one event. Before the spark the ions must not recombine; at the spark they must; during the burn they must not do it all at once. That is a description of a fuel.

And the rocket analogy runs backwards. Frozen flow loss is the same physics with the opposite bookkeeping. In a rocket the dissociation is paid for by the propellant's own combustion heat, so unrecombined fragments are a loss. Here it is paid for electrically, upstream, so fragments that recombine in the cylinder give that input back. The total still does not close — the electricity cost more than the recombination returns — but "he found the same knob and turned it the same way" is wrong.

Does the sub-critical gas survive the journey?

This is the real objection, and almost nobody asks it.

processor → cylinder, through the manifold	~17 ms
O⁺ ion at 1 atm	ns to µs
free electron, before attaching to O₂	µs
singlet oxygen, O₂(a¹Δg), dry air	ms to s
ozone at 25 °C	tens of minutes

Ions cannot arrive. Ozone and metastable oxygen can — and those are precisely the species plasma-assisted combustion uses to shorten ignition delay and raise flame speed. His "sub-critical gas" cannot be what he thought it was, and can still be something.

The light: right colour, wrong quantity

The confident objection. 1.7 eV red LEDs cannot ionise oxygen (13.6 eV) — and that is usually where it stops. But the LEDs are not the ionisation source: Gas Processor says the gas is ionised by "high energy voltage fields (up to and beyond 2,000 volts)" between electrodes E3 and E4. The job the memo gives the light is different: "absorbed laser energy prevents electrons re-capture (atoms accepting electrons)" — which is photodetachment, and the thresholds are O₂⁻ 0.45 eV and O⁻ 1.46 eV. A 1.7 eV red photon clears both.

What fails is the flux. A 20 mA diode gives ~10¹⁶ photons/s; fifty of them into a few cm² give about five detachments per ion per second, against re-attachment in microseconds. Short by five or six orders — by quantity, not by colour. And the chapter already offers the fix: "led's light spectrum (extending from the visible into the Ultraviolet light region) can be selected".

The meter he built and nobody read

Figure 3-34 puts an "amp consuming device (390) (such as a light bulb 112)" in series between the resonant charging choke and the gas resonant cavity. If the electrons come out of the gas, the filament lights. Take the bulb out, put a milliammeter in its place, and the central claim of the chapter is settled in an afternoon.

What a builder should do

• Build the dilution. Non-combustible gas really does retard and control the burn (Non-combustible gas retards and controls combustion rate of Hydrogen Fracturing Process); Three Streams sized it.
• Build the processor. Two stainless tubes, 2,000 V, an LED array. Milliammeter where the bulb was; ozone monitor at the exit and at the manifold; pressure trace with the processor on and off; calorimeter on the gas against a wattmeter on the supply.
• Do not repeat the barrels. Not because it is rude, but because he declined the number himself at Denver, and quoting it loses you everything true he said along with it.