The successful initialization of cold fusion must takes into account the property of quantized spin of elementary particles. It is the fusion of these spins that properly named the process ‘cold’ otherwise ‘hot’ always connotes the random kinetic collisions of these charged particles of any plasma configuration. Its success is also dependent on a theory of proximity of the individual charged particles. The exact description is a theory of spin proximity: How close two quantized spin directions must become to be thermally effective at low temperature for the process of fusion to take place.
In the conventional two-step process, the probable high energy output of deuterons fusion into Helium-4 only has a branching ratio of 1 in a million. Although this probability is a lot better that the probability of winning any million dollars lottery, it is not practicable from an engineering standpoint of daily mass production. The nuclear reaction is given by D+D®He+24 MeV. D denotes a deuteron and He denotes a Helium-4 nucleus which in radioactive physics is also known as a single alpha particle. 24 MeV denotes the amount of energy released in millions of electron volts.
However, from the point of view of their quark constituents, D is 1 proton and 1 neutron or combined as 3 up quarks and 3 down quarks. Then 2D is a combination of 6 up quarks and 6 down quarks. Furthermore, the up quark is made from 5H+ and 1H- and the down quark is made from 1H+ and 3H-. Therefore, 2D is made of 36 H+ and 24 H-. This is a deficit of 12 H- for making 36H+ and 36 H- or an excess of 12 H+ for making 24 H+ and 24 H-. The difference spacetime charge configuration is 12 H+ and 12 H- which must be compensated by two zero-point vacuum energy of 6 H+ and 6 H- for the spin fusion to begin.


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