Good point. Embrittlement could indeed be coupled to UHD.

On Wed, Jan 20, 2016 at 3:40 PM, Jones Beene <[email protected]> wrote:

> Typically, in the production of iron, hematite is reduced using coke or
> coal… almost never with hydrogen. That is because there are known problems
> with hydrogen, besides cost.
>
>
>
> The main reason for using carbon is that coal and coke is extremely cheap
> – and it takes a lot of it, but hydrogen when present tends to cause
> “hydrogen embrittlement” in iron, which could be related to UDH. In fact,
> coke is used instead of coal because it has no hydrogen content.
>
>
>
> Embrittlement, in severe cases is related to long time exposure to
> hydrogen, and this could indicate that some of the damage is being caused
> by UDH, as it densifies and penetrates. IOW, any hydrogen exposure to iron
> causes problems – and the longer the exposure, the worse the problem.
>
>
>
> *From:* Teslaalset
>
>
>
> Ø  wouldn't that have caused numeral problems at traditional production
> of magnetite using 3Fe2O3 + H2 → 2Fe3O4 +H2O, assuming UDH can be made in
> a similar manner ? Holmlid indicated in one of his papers that UDH can be
> formed as well using Shell 105 catalyst.
>
> The “leap of faith” and it is large… is that in a matrix of iron-oxide,
> loaded with pressurized deuterium which is absorbed (and is bosonic) there
> will be an continuous oscillation and change in volume of the nanopores,
> when hematite changes to magnetite and back again – and this oscillation will
> create shock waves which are comparable at that small geometry, to what
> Holmlid sees with laser pulses. These would occur at IR frequencies in a
> heated pressure vessel, which is also magnetized. Because of the IR,
> there could be a plasmonic effect.
>
> The nano shock waves would be combined with large changes in local
> magnetism, as the phase shifts from ferromagnetic ordering to 
> antiferromagnetic
> rapidly. There is likely to be a contribution from DCE – the dynamical
> Casimir effect.
>
>

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