Some ideas for catalyst searches seem in order at this point.

Back in the 1950's, when I was a kid, and long before Buckyballs were discovered, I used a high voltage neon sign transformer discharge under carbon tetrachloride to create very chunky and hard (for carbon), but very light, granules of black material. It was like coal cinders. It probably had Bucky balls and nanotubes mixed with miscellaneous other things, including some attached Cl and metal atoms. I of course had no idea that the lightweight black hard stuff might contain very special carbon structures. I have since wondered though, after the Buckyball announcement, etc.

I would just touch a metal wire to a metal plate, or draw it across, to draw short arcs. The arcs popped like sparging steam. I thought the material creation rate was surprisingly fast, given the low current involved. Chlorine gas evolves, but that is a small problem to handle. I just used a long plastic rod with a big alligator clip on the end to manipulate the wire. I did this in my small bedroom, with no ventilation, when my parents were not aware of what I was doing. Not such a great approach. At least three modes of harm at once!

This might have been creating a metal loaded carbon catalyst, similar to what Les Case used, and patented in WO 97/43768 (20 November 1997). His claims included catalysts Pd, Pt, Rh, Ru, Ir, Re, Ni, Ti, and the rare earths. His support media included carbon, graphite, silica, alumina, kieselguhy, zeolite, and clay.

At any rate, this technique, using Pt, and maybe even Pd and/or Ni, wire and plate, or just wires, might produce something of interest, either to use directly, or to load using chlorides It should not take long to create a few ml. Making large amounts would make a simple automation of the process worthwhile.

The neon sign transformer used was 7500 V at 30 mA. The various metals specified by Case in his patent would be worthy of testing as electrode material.

Also, mu metal might be worth testing to see the effect in H2 (protium) vs D2. The reason for this was discussed in the vortex thread "Cu isotopes, nanopores, mu metal, deflation fusion" here:

http://www.mail-archive.com/vortex-l@eskimo.com/msg44662.html

and here:

http://www.mtaonline.net/~hheffner/NiProtonRiddle.pdf

A mu metal wire source of possible interest is here:

http://www.bloc kemf.com/catalog/product_info.php? cPath=763&products_id=5101

http://tiny   url.com/3smxtlb

(space added to avoid censoring)

When using mu metal the use of a strong magnetic field in addition is obviously implied.

In all cases, use of HF HV stimulation is possibly useful, given the small metal particles enclosed in dielectric or semiconducting support material permits inducement of strong surface currents and charges having a high volume density. Microwave stimulation might be effective.

I've written much here about the prospective use of nanopore material, zeolites and clays as prospective loaded nanoparticle isolation materials to permit formation of large gradient fields and surface charges.

Best regards,

Horace Heffner
http://www.mtaonline.net/~hheffner/




Reply via email to