Jed, a point of information, from this non-scientist:

 

I understand that you are saying that heat, above all else, is the required
product, and that any other products are of secondary importance when it
comes to asserting that the effect has been produced. 

 

Separately, you are saying that experimental design tends to search for one
product - heat, or nuclear emissions, or flashes, or noise - but that if
heat has not been verified any other product leaves one uncertain as to
whether the effect was produced to begin with.

 

Is this a fair summation? Is it generally accepted within the cf community?

 

On a practical level, as I understand it, heat is likely to be the useful
product, in any case, and the other products that are suggested are less
likely to prove of technological or commercial use, though they might well
be useful, along with the heat, in trying to formulate a theory of why the
effect is taking place.

 

Am I on the right track?

 

Lawry

 

 

 

  _____  

From: Jed Rothwell [mailto:[email protected]] 
Sent: Thursday, October 29, 2009 4:07 PM
To: [email protected]
Subject: Re: [Vo]:Heat is the principal signature of the reaction

 

Michel Jullian wrote:




Why?  Nuclear track counts in a _dry_ SSNTD as in the 2009 SPAWAR
paper http://www.lenr-canr.org/acrobat/MosierBosscharacteri.pdf , and
as Abd is planning now following Horace's advice, are much easier to
measure, much more sensitive, and much less disputable proofs of LENRs
than calorimetry aren't they?


Not in my opinion. I will not put words in Martin's mouth but I doubt this
is his opinion either, and it is his dictum.

Nuclear reactions were first discovered in the late 19th century because
they produce excess heat. For some purposes, sensitive calorimetry is still
the best way to detect them. I realize that for many purposes particle
detection is far more sensitive. But everyone knows that particles are
difficult to detect with cold fusion. I presume this is because the ratio of
neutrons to heat is 9 to 11 orders of magnitude lower than with conventional
fusion, and neutrons appear to be missing altogether in many cases. As far
as I know this is also true with co-deposition. I have not heard that the
SPAWAR technique boosts the number of neutrons per joule of heat, but only
that they have managed to detect the neutrons despite the inherent
difficulties. Their cells probably produce macroscopic heat, but they cannot
detect it because the equipment is optimized to detect neutrons.

The people at SPAWAR have already confirmed heat. They do not need to do
this. People starting out on this experiment do need to, in my opinion. Walk
before you run. Confirm that you have the effect first, then look for
particles. Otherwise you are probably fishing in a dry hole.

I do not think many people have been convinced by the SPAWAR results,
although of course I acknowledge these results are important. I am not
opposed to looking for neutrons! But before you look for them you should
confirm that you have a cold fusion reaction, and the one and only certain
method of doing this is to confirm excess heat.

Perhaps in the future particle detection will become the primary means of
detecting cold fusion but that is not how things are today.

Lomax suggested that audio noise or possibly light flashes may also be a
means of detecting cold fusion. Perhaps that is true. The way to find out is
to first confirm there is heat, then listen for audio noise with a
microphone. We know there is heat. We do not know if there is audible noise.
So look for what you know has to be there if the reaction is occurring, and
then look for what you suspect may also be there.

- Jed

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