In reply to Jones Beene's message of Sat, 11 Feb 2017 18:14:38 -0800: Hi, [snip] >Forget the tresino, grok the quatrino... > >Although Mayer's tresino gets the most attention in the cited paper, and >is very close to Mills "hydrino hydride" it is a charged particle. >Therefore, it should be very noticeable and since it is not seen, it >probably does not exist in useful quantities. To match the experiments >we need a neutral particle and the "quatrino" is more likely to be >involved in LENR. > >If it exists, the quatrino is a neutral composite of two protons and two >electrons which do not orbit in the normal way, thus it is far more >compact than the H2 molecule, and with a mass of only 1.8 GeV... >depleted of energy and inert. It is very stable and dark, as we might >expect. Either Compton composite are described by Mayer to be stable and >long-lived, and thus dark matter candidates. > >"The quatrino is a four-body composite with two hydrogen nuclei located >on the axis at z and two electrons on a circle of radius r in the >midplane. The orbital velocity of the electrons is very small, and there >is zero angular momentum... the binding energy of the quatrino is about >25 keV." The high binding energy probably means it avoids detection in a >mass spectrometer. However, it should be detectable if one made a >concerted effort using the details provided.
Mills functional equivalent would be a Hydrino molecule. The difference being that in a Hydrino molecule the electrons follow elliptical orbits around both nuclei. BTW a few years back I tried modeling the Helium atom as a nucleus with a ring electron on opposite sides, but I gave up after I calculated a first ionization potential of 27.2 eV i.s.o. the correct 24.5874 eV. Regards, Robin van Spaandonk http://rvanspaa.freehostia.com/project.html
