Dear Peter,
                My posit wasn't very clear but what I was trying to suggest is 
that these sites under discussion are only poor cousins to what could be 
accomplished in a vacuum where the geometry is unlimited. My premise is that 
without vacuum  the changes in energy density will heat any ambient gases and 
make the metal plastic hot such that the stiction forces are relieved by either 
melting closed or growing whiskers perpendicular to the surfaces. If we could 
prevent this "damage" we would have far more reactive sites.
Fran


From: Peter Gluck [mailto:[email protected]]
Sent: Wednesday, June 15, 2011 2:42 PM
To: [email protected]
Subject: Re: EXTERNAL: Re: [Vo]:Ahern in Next Big Future

Dear Fran,

We are thinking differently. In this case Piantelli obtains his nanoNi by a 
physical method method, Molecular Beam Epitaxy with the desired morphology and 
the active sites have to be made free, cleaned. . Not the case of partially 
damaged  sites.

There are many physical and chemical processes of making nanoNI- perhaps Rossi 
has found a better one.

Vacuum mills is an excellent idea in principle- how high a vacuum can be 
achieved and maintained?

Alloys opens a new dimension, it is possible some will work better even than 
Ni- but only experiment can say.

Re Cleaning I give you an example from my practice. Some acrylic monomers are 
extremely sensible to the presence of Sulphur compunds, even under 1 ppm. To 
determine analytically S is an ordeal. The engineers add a spoon of copper salt 
to the batch and S is fixed, harmless. Radical solution.



On Wed, Jun 15, 2011 at 8:33 PM, Roarty, Francis X 
<[email protected]<mailto:[email protected]>> wrote:
Peter,
                The repeated cleaning cycles used by Piantelli seems like a  
limited method  of partially salvaging damaged   sites.  I would suggest 
instead  to  mill the powder inside a vacuum chamber where even the small 
amount of ambient gases left from the original ore can outgas while the 
geometry is being reduced.  Much smaller geometry should be achieved in vacuum 
without heating of the metal from the reacting gases. The obvious difficulty is 
collecting the pristine millings while still under vacuum and alloying them by 
spin melt or sputtering with the inner reac tor wall surface.  Perhaps the 
external cooling system should be already running and kept running to keep the 
smallest geometry of the forming alloys from collapsing due to the stiction 
forces?  I don't think pristine nano powder  should require pressure loading of 
hydrogen and could even operate with the powder still under partial vacuum.

Fran

From: Peter Gl uck [mailto:[email protected]<mailto:[email protected]>]
Sent: Wednesday, June 15, 2011 10:18 AM
To: [email protected]<mailto:[email protected]>
Subject: EXTERNAL: Re: [Vo]:Ahern in Next Big Future

Yessir! have discussed this with Brian. I have concluded long time ago that CF 
is not reproducible because the active sites are covered with other gases from 
air (as polar as worse) that destroy their activity. For Ni-H I know how does 
the Piantelli Cell work, a lot is in his 2 patents WO1995/20816 and especially, 
WO 2010/58288 please see how drastically- high vacuum, high temperature, many 
cycles is nanoNi cleaned. Piantelli says the presence of
foreign(not hydrogen) gas molecules inhibits the process.

We don't know much about what is Rossi doing, is his system more tolerant to 
air and its impurities. Strem menos has told in one of his interviews how it 
was discovered that the system (which?) works only after deep degassing.

I believe that clean metal surface- is a sine qua non condition for a working 
material/setup. This is a simple,
cut-the-Gordian-Knot type idea. If it works, OK if not you can test all those 
conditions and ideas you describe, that are based on bright theories.
Peter

On Wed, Jun 15, 2011 at 4:22 PM, Roarty, Francis X 
<[email protected]<mailto:[email protected]>> wrote:




--
Dr. Peter Gluck
Cluj, Romania
http://egooutpeters.blogspot.com

Reply via email to