> The detail which are either leaving out, or minimizing, is the 
> all-important issue of metal matrix confinement.

this is indeed one of the "conditions of CF experiments" I mentioned, I was 
trying not to be too specific as there are other such conditions e.g. 
circulation of a current.

> In this 'confinement situation", the deuteron's lone electron - which 
> you see as impeding the reaction -

You must have typed this in a hurry Jones, a/ a deuteron has no electron of 
course and b/ in "electron catalyzed fusion" the electron doesn't impede the 
reaction obviously :)

Michel

----- Original Message ----- 
From: "Jones Beene" <[EMAIL PROTECTED]>
To: <[email protected]>
Sent: Sunday, July 29, 2007 5:59 PM
Subject: Re: [Vo]:Re: Electron fugacity, deuteron fugacity, and applied fields


> Michel,
> 
>> This certainly occurs, I don't think anyone denies this, but the question 
>> is, at what rate, if it's e.g. once per century it's no use of course. Many 
>> CF researchers believe it occurs more often in the conditions of CF 
>> experiments, and your more recent developments aim at increasing the rate 
>> further, right?
> 
> The detail which are either leaving out, or minimizing, is the 
> all-important issue of metal matrix confinement.
> 
> Although one deuteron will easily fit into the interstitial space of an 
> FCC metal structure like Pd, this small space will accommodate two 
> (bound or unbound) deuterons, and that is presumably when the LENR 
> reaction is poised to occur with higher than QM probability.
> 
> In this 'confinement situation", the deuteron's lone electron - which 
> you see as impeding the reaction - may actually be pulled away by the Pd 
> electron cloud, so that the nucleus is effectively bare for a short time 
> (femptoseconds ??) and the statistical probability of the reaction then 
> relates to having both of them bare at the same instant.
> 
> However - there are two or more (arguable) alternatives to the simplest 
> model:
> 
>  D + e- + D -> He + e- + gamma
> 
> And one would be utilizing a temporary Cooper Pair (2e-)
> 
>  D + (2e-) + D -> He + e- + e-
> 
> It should be noted that Pd deuteride is a superconductor. It should be 
> noted that if the (2e-) is somehow 'degenerate' in the sense of lower 
> kinetic energy then some of the extra energy of the expected 24 MeV 
> excess - could go into bringing them up to ground state - and that is 
> why the gamma is seldom seen.
> 
> And the other situation would involve either a temporary or permanent 
> excursion of one (or both) deuterons to the below ground state condition.
> 
> Jones
>

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