The Cabibbo angle is experimentally well established, but its origin remains a mystery (reference: Martinus Veltman – Facts and Mysteries in Elementary Particle Physics, Page 104, World Scientific Publishing, 2003. There is no mathematical explanation why its value is fixed at 12.7°. However, this prediction agrees with the experimental results for the probability transition of an up quark to a down quark in neutron decays. Therefore, it must be considered for the ideal cold fusion reaction of D + D ® Helium-4 + energy or equivalently, the quarks reaction is 3u3d + 3u3d ® 6u6d + energy. In spacetime charges reaction it is given by 3(5H+1H-) + 3(1H+3H-) + 3(5H+1H-) + 3(1H+3H-) ® 6(5H+1H-) + 6(1H+3H-) + energy.
The up quark in spacetime charge lattice structure forms an octahedral geometry while the down quark forms a tetrahedral geometry. It can be demonstrated by solving two simultaneous equations that the scalar coefficient of H- is approximately twice that of H+ for the proton-neutron spacetime charge lattices. Spherical approximations and using the inverse square law of force would then indicate that H+ is a sphere approximately half the radius of H-. Consequently, the 5H+1H- form an isosceles triangle where and when the tangent points of the spheres are connected. For the radii ratio of 1:2.02, the two equal base angles each have a value of 53.09°. On the other hand, the 1H+3H- forms an isosceles triangle with one base angle equal to 65.99° and 65.99 – 53.09 = 12.9° within 10% error of the experimental value 12.7°.


LinkBack URL
About LinkBacks
Reply With Quote


