On Sat, Apr 14, 2012 at 2:49 PM, Eric Walker <[email protected]> wrote:

 This stuff is beyond my pay grade as well, but I'm willing to venture my
> own proto-theory: spin is central to LENR.  There are bosons (spin 1) and
> fermions (spin 1/2).  (I have no thoughts at this point on particles of
> more exotic spin.)  Fermions keep apart and bosons tend to glob together.
>  Fermions can be thought of as the constituents of matter and bosons as
> so-called "force carriers."  Electrons and protons are fermions, so they do
> not collapse into one another.  But if in the right circumstances you could
> somehow "rotate" the spin of the electron so that it was no longer 1/2, the
> electrostatic charges of the non-fermionic electron and the fermionic
> proton would cause them to be strongly attracted to one another; or, at
> least, not to be held apart if they should encounter one another.  From
> there you would get a neutron, possibly at a greatly discounted cost -- you
> could get a handful of them for 20 cents each instead of 100 dollars.  Any
> emitted gammas would bounce around hollow cavities in the cathode until
> they in turn bind together with a free electron and then reorient its spin,
> causing the reaction to continue.
>

I appreciate that it is reasonable to call this out as crackpot material.
 But I should at least elaborate on some of the observations that can
be accommodated by this explanation:

   - Nano powder Ni has been found to be a good cathode (lots of
   interstices).
   - High levels of hydrogen and deuterium loading are needed in order to
   yield a sufficient numbers of free protons.
   - Laser perturbation sometimes sets off a reaction.
   - Early experiments could run many hours before heat was observed.
   - There are observations of transmutations of heavier elements.
   - There are few to no observed gammas.
   - Impurities in the cathode have sometimes improved a reaction.
   - There are indications that the nuclear-active-area is in the vicinity
   of the surface of the cathode.

Some further questions to be explored:

   - What would you see in a cloud chamber?  Would you see beta particles
   or something like them?
   - Are there no gammas, or only low levels of gammas?
   - Is the nickel or palladium activated after the reaction?  What are the
   observed ratios of isotopes, before and after?
   - If you did monte carlo simulations on the flux of neutrons through a
   palladium or nickel system, what would happen?  Would the system be little
   changed, or would you get a lot of transmutations into something else? (My
   guess: not too much would happen.)

Eric

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