Ny Teknik: What results have you obtained from the analyses?
Kullander: Both measurements show that the pure nickel powder contains mainly nickel, and the used powder is different in that several elements are present, mainly 10 percent copper and 11 percent iron. The isotopic analysis through ICP-MS doesn’t show any deviation from the natural isotopic composition of nickel and copper.
Ny Teknik: How do you interpret the results?
Kullander: Provided that copper is not one of the additives used as catalyst, the copper isotopes 63 and 65 can only have been formed during the process. Their presence is therefore a proof that nuclear reactions took place in the process. However, it’s remarkable that nickel-58 and hydrogen can form copper-63 (70%) and copper-65 (30%). This means that in the process, the original nickel-58 should have grown by five and seven atomic mass-units, respectively, during the nuclear transmutation. However, there are two stable isotopes of nickel with low concentration, nickel-62 and nickel-64, which could conceivably contribute to copper production. According to Rossi copper is not among the additives. 100 grams of nickel had been used during 2.5 months of continuous heating with 10 kW output power. A straightforward calculation shows that a large proportion of the nickel must have been consumed if it was ‘burned’ in a nuclear process. It’s then somewhat strange that the isotopic composition doesn’t differ from the natural.