Since Robin has not yet tuned-in from down-under with the hydrino
perspective...

...and since he calculated, IIRC that the energy derived is consistent with
maximum shrinkage of hydrino states, then it should be noted that the
di-hydrino would probably be expected to add the equivalent of two neutrons
to copper 63, and this would explain the preponderance of that isotope
balance: shifting to Cu65. 

That is, assuming Focardi got it right.

Usually when neutrons are absorbed singly, a rapid secondary reaction takes
place, but presumably with the di-hydrino end-reaction, since it is already
maximally depleted in energy, the secondary reaction is avoided and the new
isotope is stable. 

Of course, that is "new physics."

That does not mean it is wrong, since by now it is pretty obvious that we
are in new territory in either physics ... or practical magic <g>.



-----Original Message-----
From: Jones Beene 

Yes it makes no sense at all. 

More likely is that the Forcardi information is mistaken. 

The Swedes found there was no ratio difference using a proper technique, and
the technique use by Focardi is questionable for isotope determination.

Caveat: I have no expertise in this and am passing along comments from other
forums.

-----Original Message-----
From: Terry Blanton 

The natural isotope ratio of Cu63 to Cu65 is 2.235. The ratio that Rossi
-Focardi report in their paper is 1.6, which means that the ratio of Cu65 to
Cu63 has *increased* beyond natural, implying a preference for the formation
of Cu 65. 

This is strange because most Ni atoms are lighter than Cu63, so one
might reasonably expect that more Cu63 would form than Cu65, exaggerating
the
normal predominance of Cu63. Instead, they claim the opposite has occurred.

Hmm, could it be that somehow Cu63 has captured a H2 molecule?

T





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