Harry and Jones--

You two do what I would call out of the box thinking on this issue--I wonder 
where Axil is.  More thoughts:

1. There have been two different coupling experiments I seen--one where the 
balls are fused and the other where the balls are magnetically coupled.  They 
both represented a connected mostly Fe ferro-magnetic structure.  The rotation 
clearly creates a rotating magnetic field I think.  It also would cause a 
certain electric charge to be established in some pattern on the outer surfaces 
of the balls at an equal voltage.  At some point or points inside the metal 
surface the electric field should be 0.  A conduction sphere distributes 
charge--electrons for example--over its surface so as to create a null coulomb 
(electric) field inside the surface.  What happens when there are 2 conducting 
spheres attached together is another thing.  When you add a magnetic field and 
some apparent electric current or megaton currents, you have even a more 
complex condition.   

2. The magnetic field must be rotating with its own rotational energy and 
angular momentum/inertia.  What is this inertia and how does it add or subtract 
from the to the mass rotating inertia?  It seems the system must be coupled by 
this spinning.  It seems there is a collapse of the spin coupling when the 
spinning slows.  (There was  an abrupt stop as noted by the researcher that 
demonstrated the fused balls.)

3. What happens to the angular momentum of the rolling balls in the magnetic 
coupling experiment.  It seems to be converted to the angular momentum of the 
system of balls once they come together and it seems to happen pretty fast.  
The net angular of the two balls as they approach each other would be 
essentially 0 since the J vector points in an opposite direction for each ball. 
 

4. A high speed moving picture of this would be interesting and also something 
to monitor the change of the magnetic fields with time would be interesting.  
How fast are are the field changed?  Is there any other way to investigate the 
nuclear magnetic conditions in this system of rotating balls.  

5. What happens if the balls are gold instead of iron?  Or Pd?  Or Ni? 

6. What would happen if once the balls are rotating fast you put another 
conducting surface around to modify the magnetic fields.  

7. Is there a coupling to the Earth's magnetic or gravitational field that 
happens in steps or macroscopic quantum jumps considering the abrupt  stopping 
of the rotation.  Or is this merely a loss of energy via an abrupt change in 
the coeff. of friction?   

I think I have a good science fair project for a grandson. A little high tech 
monitoring equipment is all that is necessary.  Maybe NI would be interested in 
loaning the instruments.  A transient change in the temperature of the ball and 
the surface upon which they spin would be nice to know to understand the issue 
of friction changes.   An evacuated chamber would be warranted to eliminate the 
issue with loss of energy via   stirring the air around the rotating balls.

Bob

  ----- Original Message ----- 
  From: H Veeder 
  To: [email protected] 
  Sent: Saturday, March 22, 2014 10:56 PM
  Subject: Re: [Vo]:Hurricane balls, RAR and high-Q factor







  On Fri, Mar 21, 2014 at 9:47 AM, Jones Beene <[email protected]> wrote:

    From: H Veeder



    .two steel ball bearings welded together . are a metaphorical cooper-pair, 
so to speak... raising another weird question: is there something about 
spherical-pairing alone, which is special - at any level?

    http://www.youtube.com/watch?v=cvq8laPb498

    Nice.. two magnetic balls roll together and their linear motion is 
converted into rotational motion.



    http://www.youtube.com/watch?v=GIfTKBVI6ZQ



    Thank, Harry - this video is another good visual example of a larger 
phenomenon involving pairing - since we can better visualize how linear motion 
is converted to rotational naturally. This is somewhat along the lines of how 
Bob Cook wants to fashion the LENR reaction, with the conversion of kinetic 
energy of reactants being spin-coupled, in the end. 



    However, IMO - this process does not require actual fusion to be 
anomalously energetic. And coupling would never hide gamma rays, if there was a 
nuclear reaction, so essentially coupling cannot be related to permanent 
fusion, since the energies are too high. 





  Suppose the fusion energy which is normally expressed as gamma rays in a very 
high temperature plasma environment is divided between rotational kinetic 
energy and much lower energy rays in a condensed matter environment. Since not 
all the gamma energy would go into rotation the newly formed nucleus would be 
stable and the rotational kinetic energy of the nucleus would heat the lattice 
by way of its rotating fields.




    However, moderate excess energy - well above chemical but less than 
nuclear, requires only the same basic force which keeps electrons from 
interacting with protons to begin with. That force is the zero point field. 
Puthoff and associates have elegantly framed the details of this kind of energy 
transfer, but until recently, there was doubt that ZPE could be easily 
converted to energy at a macro scale. 



    The armchair theorist can imagine that the two balls are protons at a 
distance, and when they are accelerated together, say during the collapse of 
molecule of H2 due to electron degeneracy, Pauli exclusion keeps the two from 
fusing, and yet their linear motion is converted to spin. Extraordinary spin 
such as is the visual effect of the videos.



    In fact, just prior to this happening with protons, the two electrons of H2 
could have joined into a temporary cooper pair of electrons, which function to 
accelerate the electrons towards each other. Thus one cooper-pair starts the 
LENR reaction and another finishes it, but no permanent fusion takes place. The 
transient electron pairing only needs to happen for a femtosecond to set the 
stage for this form of LENR).



    This model serves to explain, to an large extent, why Ni-H LENR can be so 
robust with no permanent nuclear reaction at all - since all of the resultant 
high spin is coupled back to magnons - which are easier to couple within a 
ferromagnetic lattice than within an exciton. When the exciton is ferromagnetic 
itself, the reaction is boosted and ZPE is converted to thermal energy.



    Jones



    One further point about "pairing of spheres" being special or natural or 
favored at many levels of geometry. This goes beyond cooper pairs - to 
cosmology.



    In our solar system, out sun is a single star, and consequently humans are 
misled into thinking that most stars are singlets. 



    In fact that is not true - and only about 15% of stars in our galaxy are 
singlets. 85% of stars are found as binary or multiple arrangements.



    http://abyss.uoregon.edu/~js/ast122/lectures/lec10.html







  A stable pair of nucleons or a stable pair of stars both require energy to 
pull them apart. 


  Harry

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