As mentioned previously, the perfect cold fusion nuclear reaction is D + D ® He + energy. That is two deuterium atoms stripped off 2 electrons fused into a single Helium-4 nucleus and subsequently recaptured 2 electrons forming a neutral helium-4 atom plus excess energy. However, within the 40MK interior of the sun the process can be realized by 4 hydrogen nuclei plus 2 electrons.
Using space-time charges, hydrogen atoms can exist to two different quantum energy states: (12, 12) and (16, 16). On the other hand, helium atoms can exist in three quantum energy states: (38, 38), (46, 46), and (50, 50). To satisfy the abundance ratio of 3 to 1, these states can be combined into 6 distinct nuclear reactions: 1. (12, 12) ®(38, 38). 2. (12, 12) ® (46, 46). 3. (12, 12) ® (50, 50), 4. (16, 16) ®(38, 38). 5. (16, 16) ® (46, 46). 6. (16, 16) ® (50, 50). The space-time charge excess of the 1st is (2, 2), 2nd is (10, 10), 3rd is (14, 14). The 4th has a deficit of (10, 10), the 5th deficit of (2, 2). Finally, the 6th again has excess of (2, 2). The ratio of deficit to total reactions is 1/3; excess ratio is 2/3. Since the space-time charge configuration for a neutrino is (1, 1) and a photon is (4, 4), the best possible excited cold fusion reaction is the 3rd reaction with excess products of 3 photons and 2 neutrinos.
In this context, the meaning of the word ‘cold’ is absolute independence of temperature and density but not proximity. The concept of proximity is dependence only on the mean free path and the relaxation time between collisions that allow the grouping and formation for the 6 reactions among space-time charges. It remains to be seen whether a proximity theorem can be formulated awaiting empirical validation that the mean free paths are at most multiples of the Planck length and the relaxation times multiples of the Planck time. They are scales at which classical general relativity becomes ineffective and can be replaced by a quantum theory of gravity.


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