Also remember that a BEC under magnetic field alignment has been known to
collapse/explode into a "Bosenova"

http://en.wikipedia.org/wiki/Bosenova

Stewart


On Sun, Feb 10, 2013 at 10:27 PM, Jones Beene <[email protected]> wrote:

>  It is an interesting question as to what percentage of the yield of
> “Mike” – if any - was due to BEC formation within the large flask of liquid
> deuterium. For some reason, this possibility never occurred to me before
> now - but it seems possible if not likely.****
>
> ** **
>
> Indeed, the extra yield from BECs could have been substantial. ****
>
> ** **
>
> BTW – the statement that Maxwellian distribution prohibits room
> temperature BECs is probably false in a time denominated progression where
> only a small percentage is necessary for fusion. It’s all statistics. But
> the skeptics mis-framed the argument.****
>
> ** **
>
> If BECs can form at all at room temperature - then at least for a useable
> portion of the population of deuterons, there should be transitory
> condensates of a few tens of molecules forming rapidly enough at room
> temperature for fusion - since the time required for fusion is extremely
> short. Even if only 10 deuterons in 10 billion condense together at any
> picosecond, the statistics could be such that there should always be a
> useable population to fuse. ****
>
> ** **
>
> This is above my pay grade, but I doubt seriously that MB distributions
> are prohibitory - IF the BEC will form at all at ambient. The logical error
> of skeptics here is the “all or nothing” error.****
>
> ** **
>
> Don’t forget that D nuclei inside a palladium lattice at full loading and
> 300 K are closer together than when in the deuterons are in liquid form. *
> ***
>
> ** **
>
> ** **
>
> *From:* David Roberson ****
>
> ** **
>
> Low temperatures initially?  Too bad it did not remain that way. ****
>
> ** **
>
> Actually, I was seeking evidence of a low energy reaction.  You did bring
> up an interesting point however.  How would you expect the BECs to
> influence the overall reaction in this particular case?  Could they have
> caused the yield to exceed expectations?  Would that also tend to generate
> nasty radioactive elements that do not normally occur in other designs?  We
> may be on to something that needs to be explored.****
>
> ** **
>
> I am attempting to get a handle on the equivalent pressure that would be
> required to force Ds to be in the proximity that they find themselves
> within if they share a hole within a metal matrix.  This must be enormous
> compared to the density they exhibit at room temperature.  Add this
> elevated pressure and laser cooling, or other methods that reduce the
> relative motion between them and something interesting might result.****
>
> ** **
>
> Then, of course there are random variations in the energy of Ds that
> naturally occur.  It makes me wonder if being trapped in a tiny cavity
> would tend to allow instantaneous cooling to occur under the right
> circumstances.****
>
> ** **
>
> Dave
>
> ****
>
> -----Original Message-----
> From: Jones Beene ****
>
>  ****
>
> This is why I ask whether or not fusion has been proven to occur with very
> low temperature deuterons.  I am not aware that anyone makes that claim and
> it would add support to the other theory if proven.****
>
>  ****
>
>  ****
>
> Yes – an early hydrogen bomb called “Mike” put millions of tons of
> radioactivity into the air in the fifties, creating untold numbers of
> health problems today - but that is probably not the answer you are looking
> for. Although the yield was surprising – so perhaps BECs were involved,
> come to think of it.****
>
>  ****
>
> BTW – “Mike” used liquid deuterium in a large thermos as the main fuel -
> with a small fission trigger. No tritium was needed. The output was over 10
> megatons of TNT – and that exceeded all of the explosives used in WW II,
> including the small fission bombs dropped on Japan - which were similar to
> Mike’s trigger. ****
>
>  ****
>
> About 95% of Mike’s energy came from the fusion of liquid deuterium at
> very low temperature - initially J****
>
>  ****
>
> Cough, cough…****
>

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