On Dec 5, 2008, at 7:31 AM, Jones Beene wrote:

Horace Heffner writes,

> Say, it may be that CH gas is being momentarily created in the process. In any case, in CH or in other hydrocarbon forms, if the H is periodically in the deflated state then stimulation by polarized laser will greatly increase the probability of C+H fusion by imposing a magnetic gradient.

Well, I am still of the opinion that the mass difference between CH and 13C "should have" been noticed by the authors in the spectrometry, since it so very critical to their conclusion, and so obvious as an alternative ... should I say "alternative to the near- miraculous conclusion" which the propose; and efforts are underway to confirm this.

I think it is entirely possible that, except for trace amounts, *all* the 13C is actually CH. The only thing anomalous about the experiment so far, beyond any reasonable doubt, is the presence of gammas. The gammas are associated with the Pt catalyst heat, and that is because (unfortunately) the thermocouple was placed right up against the catalyst. The gammas and "excess heat" primarily materialize when the temperature of the cell is dropped. Though the numbers don't show it, I would expect the pressure in the cell to drop as temperature drops, and this would cause a maximal rate of hydrogen degassing, i.e. inter-site tunneling, which is conducive to fusion, or at least formation of high energy electron containing pre- fusion nuclei.

Under the inflation fusion model I would in fact expect that most of the "13C" is in fact CH, because the heat released and total gamma energy can not account for the actual fusion of so much 13C. Further, the C+p reaction is weak, and thus should have a very small cross section. Just because the deflated hydrogen can tunnel into the C nucleus with significant probability doesn't mean fusion actually occurs. The energy released by a slow process of "re- inflating" would in fact produce gammas, and the source for that energy is the zero point field. This is one reason I suggested using D instead of H. That should really increase the nuclear signature, and it should produce C14, which is readily assayed with great accuracy by liquid scintillation counting.

Actually, the above leads to an excellent suggestion that can still be done after the fact. Assay the residue for C14. Some of the hydrogen used was probably deuterium. It would cost a lot to obtain pure protium and no mention was made regarding the use of pure protium. It is possible some of the radiation came from a C+D reaction.

Best regards,

Horace Heffner
http://www.mtaonline.net/~hheffner/




Reply via email to