RE: [Vo]:Some questions about H(1) ultra dense hydrogen.

From: Stephen Cooke * If the two nuclei are separated by 2.3 pm I suppose the are rotating about their center of mass… Would those nuclei generate Bremsstrahlung radiation… Not the b-word, as usually defined; but if the pair, or the cluster, became destabilized, the result could be

Re: [Vo]:Some questions about H(1) ultra dense hydrogen.

If I understand right, this idea from Lawandy seems compatible with some recent posts by Ecco on Quantum Heat so I think you may have something there. It will be interesting to see where it goes. > On 23 May 2016, at 19:13, Jones Beene wrote: > > The answer to these

Re: [Vo]:Some questions about H(1) ultra dense hydrogen.

Thanks for pointing me towards these theories Jones Beene I will try to take a look at them. I have a few other questions about H(0) and D(0) to add to my earlier list if I may: If the two nuclei are separated by 2.3 pm I suppose the are rotating about their center of mass. Would those

RE: EXTERNAL: RE: [Vo]:Some questions about H(1) ultra dense hydrogen.

on hydrides. From: Jones Beene [mailto:jone...@pacbell.net] Sent: Monday, May 23, 2016 1:14 PM To: vortex-l@eskimo.com Subject: EXTERNAL: RE: [Vo]:Some questions about H(1) ultra dense hydrogen. The answer to these questions varies wildly, according to the theorist. There is little proof that can

RE: [Vo]:Some questions about H(1) ultra dense hydrogen.

The answer to these questions varies wildly, according to the theorist. There is little proof that can be called firm. The theory that appeals to me the most is not Holmlid's but the one of Lawandy. In that theory, there must be a dielectric support for UDH, which is always paired. A larger

RE: [Vo]:Some questions about H(1) ultra dense hydrogen.

Oops i meant H(0) of course From: stephen_coo...@hotmail.com To: vortex-l@eskimo.com Date: Mon, 23 May 2016 17:19:02 +0200 Subject: [Vo]:Some questions about H(1) ultra dense hydrogen. Some questions about H(1) ultra dense hydrogen: Is it possible for H(1) to exist as only one pair of atoms