Inverse beta fusion
The traditional scientific method of detecting the existence of electron neutrinos was by the subatomic interactions known inverse beta-decay. This was first directly observed by Frederick Reines http://en.wikipedia.org/wiki/Frederick_Reines and Clyde Cowan http://en.wikipedia.org/wiki/Clyde_Cowan in 1956. Cowan died in 1974, so only Reines received the Nobel Prize for Physics in 1995, the Prize was never awarded posthumously. The subatomic interaction shows that an electron antineutrino interacts with a proton creating a neutron and a positron or in terms of quark: the electron antineutrino plus an up quark create a down quark plus a positron. However, this has extremely small collision cross-section and correspondingly the mean free path of collision in water for the electron antineutrino with collision energy of 1 million electron volts is about 1000 000 000 000 000 000 meters or approximately 50 light-years. This suggests that for all practical purposes the electron antineutrino has no desire to interact with anything where and when going at it all alone.
Since there are at least two more species of antineutrino: the muon’s and the tauon’s, it can be hypothesized that in order to speed up inverse beta-decay would require the involvement of these other neutrinos. So that each of these three neutrinos acts as a chromatode: one as a rode, one as a gode, and as a bode for color changing transformation of an up quark to a down quark for cold fusion. The hardest task is simply to get enough of all three neutrinos together into the interaction.


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