the proof is right in the study already done into the mystery of the steel.
http://www.nytimes.com/2002/02/02/n...e-steel-debris-taken.html?src=pm&pagewanted=2 Mystery is exposed, February 2, 2002.
Which contains this:
External Quote:
The compounds, called eutectics, have a lower melting point than ordinary steel and could have caused structural members to erode quickly in the fires. (Source: Journal of Metals)(pg. B2)
Not much consideration is made of the fact that the tower had considerable
potential energy to lose. A proportion of this manifested itself as
heat at the base of the collapse area. (You will find the heat calculations in another thread on this site). This heat was NOT created by combusting anything.
Allowing for energy loss by ALL other means this STILL amounted to the equivalent of
melting 400 tons of steel, a significant proportion of that would have been concentrated at the
base of the wreckage pile by kinetic energy transfer. Furthermore, this heat couldn't escape easily (it was insulated by wallboard!) and the time taken before the pile was cleared was
MONTHS (I don't recall exactly how long, tbh).
Hot water-fed corrosion would not reflect the intensity of lead-acid battery conditions (a shorted battery can destroy itself in seconds), but over that length of time at raised temperatures it would certainly be equivalent.
The conditions mentioned in
http://www.fema.gov/media-library-data/20130726-1512-20490-8452/403_apc.pdf are
exactly what I have been talking about. They were to be found in the collapse wreckage - not just briefly (and dryly) in the combustion of six acres of office furniture.
Edit: This link on "steam reforming" is also apropos:
External Quote:
Steam reforming
Hydrogen can be prepared in several different ways, but economically the most important processes involve removal of hydrogen from hydrocarbons. Commercial bulk hydrogen is usually produced by the
steam reforming of
natural gas. At high temperatures (1000–1400 K, 700–1100 °C or 1300–2000 °F), steam (water vapor) reacts with
methane to yield
carbon monoxide and H2. This reaction is favored at low pressures
and a bit further down the page:
External Quote:
Thermochemical
There are more than 200 thermochemical cycles which can be used for
water splitting, around a dozen of these cycles such as the
iron oxide cycle,
cerium(IV) oxide–cerium(III) oxide cycle,
zinc zinc-oxide cycle,
sulfur-iodine cycle,
copper-chlorine cycle and
hybrid sulfur cycle are under research and in testing phase
to produce hydrogen and oxygen from water and heat without using electricity. A number of laboratories (including in France, Germany, Greece, Japan, and the USA) are developing thermochemical methods to produce hydrogen from solar energy and water.
Anaerobic corrosion
Under anaerobic conditions,
iron and
steel alloys are slowly oxidized by the protons of water
concomitantly reduced in molecular hydrogen (H2). The
anaerobic corrosion of iron leads first to the formation of
ferrous hydroxide (
green rust) and can be described by the following reaction:
Fe + 2 H2O → Fe(OH)2 + H2 In its turn, under anaerobic conditions, the
ferrous hydroxide (Fe(OH)2) can be oxidized by the protons of water to form
magnetite and molecular hydrogen. This process is described by the
Schikorr reaction: 3 Fe(OH)2 → Fe3O4 + 2 H2O + H2 (
ferrous hydroxide → magnetite + water + hydrogen)
The well crystallized magnetite (Fe3O4) is thermodynamically more stable than the ferrous hydroxide (Fe(OH)2). This process occurs during the anaerobic corrosion of
iron and
steel in
oxygen-free groundwater and in reducing
soils below the
water table.
http://en.wikipedia.org/wiki/Hydrogen#Steam_reforming
But you might well consider this:
External Quote:
Discovery and use
Main article:
Timeline of hydrogen technologies
In 1671,
Robert Boyle discovered and described the reaction between
iron filings and dilute
acids, which results in the production of hydrogen gas. In 1766,
Henry Cavendish was the first to recognize hydrogen gas as a discrete substance, by naming the gas from a
metal-acid reaction "flammable air". He speculated that "flammable air" was in fact identical to the hypothetical substance called "
phlogiston" and further finding in 1781 that the gas produces water when burned. He is usually given credit for its discovery as an element. In 1783,
Antoine Lavoisier gave the element the name hydrogen (from the Greek ὕδρω hydro meaning water and γενῆς genes meaning creator) when he and
Laplace reproduced Cavendish's finding that water is produced when hydrogen is burned.


Antoine-Laurent de Lavoisier
Lavoisier produced hydrogen for his experiments on mass conservation by reacting a flux of
steam with metallic iron through an incandescent iron tube heated in a fire.
But in this case the steel was rendered hot by being violently and repeatedly mechanically-worked for a few brief seconds by the transfer of kinetic (impact) energy from
above, and not by external fire, before it had water poured on it from
above. The hydrogen atmosphere generated would favor rapid anaerobic corrosion as mentioned
above, with all the "Pandora's Box" variations that might occur when you crush a hundred one-acre offices into small fragments and add them to the mix.
http://en.wikipedia.org/wiki/Hydrogen#Steam_reforming
As usual, @CubeRadio has another agenda and finds himself incapable of facing up to my replies.
The terms of NIST didn't cover what happened once the buildings fell down. This makes it possible for one to imagine that what happened 'down below' actually happened 'up above', and forget everything one ever knew about rusting. If one knew anything about it in the first place.