I am sure you are correct about the particles being irregular in shape.  The 
surface area is mainly what I am interested in and spheres of the average size 
would be on the low side, but not necessarily by much.  It is difficult to get 
an exact answer for the surface areas that are active, but I think it is better 
to give it a try instead of assuming that it can not be done.  One most likely 
can obtain a correction factor that accounts for the lack of perfection.


At the moment no one actually knows what proportion of the area is capable of 
LENR since we do not know exactly how the active regions are constructed.  I 
think that it is interesting that a quick calculation of the power output of a 
roughly Rossi sized collection of particles came within the ballpark of his 
claims using information obtained from Celani's experiment.  I envision this 
translation process as a tool to add to our understanding.  Would it not be 
great if a wire could be tested that has been processed in a known manner to 
determine how well it performs in the powdered form?  This type of process 
would eliminate many variables associated with a powder test such as the exact 
distribution of particle sizes within a powder and whether or not the 
individual particles were plated properly.  This type of test translation could 
save a lot of experimental time.


At the moment I am pretty excited about the possible applications of this 
concept.


Dave



-----Original Message-----
From: Jed Rothwell <[email protected]>
To: vortex-l <[email protected]>
Sent: Thu, Dec 6, 2012 2:36 pm
Subject: Re: [Vo]:Method of LENR Material Comparison


David Roberson <[email protected]> wrote:



I have found a way to calculate the area, volume, and number of spheres 
required to have any specified mass once a radius is chosen.


I believe the particles are irregular. Not very spherical. How would that 
affect your method?


- Jed



 

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