Perhaps it could be more than just housing the nanoparticles because of the
very strong electrostatic field created within the zeolite cavities and the
oscillation of the cavity.

http://pubs.acs.org/doi/abs/10.1021/j100558a022

http://youtu.be/2L-lKozWjSA


On Tue, Oct 7, 2014 at 10:01 AM, Bob Higgins <[email protected]>
wrote:

> I am not a chemist, but have some familiarity with materials science.  You
> can take this with an appropriate grain-of-salt.
>
> Zirconia would not, itself, be a catalyst.  I specifically mentioned
> zirconium - the metal.  Nano-Zr could be a catalyst that would have a high
> sintering temperature as a nano material because it melts at such a high
> temperature (1855C) in bulk that its sintering and melting temperature at
> nano scale would be high (sintering probably near 600-700C and melting at
> 900-1000C).
>
> Most catalysts are not fully oxidized metal oxides - they are partially
> reduced metal oxides.  The best catalysts have nano-scale features and
> partial oxidation.  These catalysts are usually (but not always) formed as
> fully oxidized metal features and subsequently processed to partly reduce
> the metal oxides.  Reduction of small particles actually sharpens their
> features.  The partial reduction sets up electrochemical behavior at the
> catalyst site that makes it active.  Partly oxidized metals will not
> readily sinter - or at least not until much higher temperature.
>
> In the case of zeolites, I understand that the zeolite material is not
> LENR active itself.  Zeolites have porous micro-scale gas permeable cells
> which are used to "house" nano-scale activated materials inside the cell.
> The zeolite cell prevents the nanoparticles housed inside adjacent cells
> from sintering at temperatures above where the nano-particles themselves
> would have sintered.  Zeolite encapsulated LENR powder can be nano-scale
> and still operate at a temperature that would otherwise sinter powders of
> that scale.  I don't think the zeolite itself otherwise contributes to the
> LENR.
>
> I would be happy to have someone with greater chemical background
> straighten me out if these understandings are wrong.
>
> Bob Higgins
>
> On Mon, Oct 6, 2014 at 10:22 PM, Eric Walker <[email protected]>
> wrote:
>
>> On Mon, Oct 6, 2014 at 6:54 PM, Jones Beene <[email protected]> wrote:
>>
>> Miley's zirconia reactor came to mind since Bob mentioned zirconia at the
>>> same time I was writing a piece on perovskites.
>>
>>
>> Does anyone know where George Miley's recent engine project is at?  I
>> noticed a patent in the article which I had not seen before [1]:
>>
>> Techniques to form dislocation cores along an interface of a multilayer
>>> thin film structure are described. The loading and/or deloading of isotopes
>>> of hydrogen are also described in association with core formation. The
>>> described techniques can provide be applied to superconductive structure
>>> formation, x-ray and charged particle generation, nuclear reaction
>>> processes, and/or inertial confinement fusion targets.
>>
>>
>> In the LENR device describe in the original article (which may or may not
>> be related to this patent), the substrate ("fuel") is zirconium dioxide, a
>> high-k dielectric.  What I like about dielectrics is that I suspect they
>> provide a good basis for arcing at the microscopic level.  The same
>> consideration applies to zeolites.
>>
>> Eric
>>
>>
>> [1]
>> http://www.google.com/patents/US8227020?dq=%22Low+Energy+Nuclear+Reaction%22&ei=qEROUKH4JsjSrQHKmIGoBw#v=onepage&q&f=false
>>
>>
>

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