Jones,

If the experimental outputs were properly measured, I am not as
pessimistic as you are.  Maybe the neutron generator could be removed in a
self-sustained mode, for example.  Also, the tritium could be used in an
after-burn fusion reactor.  Bubble formation might be increased with
nanoparticle seeding, etc.

In any case, if the results are correct, the peer-review process needs its
own review.

-- Lou Pagnucco

Jones Beene wrote:
> This is interesting - especially in that it validates Rusi Taleyarkhan
> claims.
>
> Shame on you Purdue !
>
> OTOH as of now - the device is grossly inefficient and the mention of
> having
> a route to self-power is ridiculous. It would take at least 10,000 linked
> reactors like this one to get near breakeven. Scale-up is a bitch, as they
> say.
>
> A Farnsworth Fusor is less complicated and can get as close to breakeven
> without the costly neutron source but it too is going nowhere.
>
>
>
> -----Original Message-----
> From: [email protected]
>
> I forgot to include the text description link:
>
> http://www.scribd.com/doc/137767342/Sonfusion
>
>> The following presentation from India describes (what appears to be) a
>> successful sonofusion experiment.
>>
>>  The essential apparatus involved are:
>>
>> - Pyrex flask.
>> - Deuterated acetone
>> - Vacuum pump.
>> - Piezoelectric crystal.
>> - Wave generator.
>> - Amplifier.
>> - Neutron generator.
>> - Neutron and gamma ray detector.
>> - Photomultiplier.
>> - Microphone and speaker.
>>
>> The neutron generator produces 6 microsecond bursts of 14.1 MeV neutrons
>> which collide with acetone to expel carbon and oxygen nuclei.
>>
>> The fusion appears to be conventional.
>>
>> 2.54 MeV neutrons are detected - the signature of D-D fusion.
>> Neutron arrivals are coincident with photons from bubble collapse.
>> Tritium is produced. See:
>>
>> SONOFUSION
>> http://www.scribd.com/doc/137766520/sonofusion
>>
>>
>>
>>
>>
>
>
>
>
>
>


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