TODO:

• colour. start from 3 particles.

• Rishon I-Frame "spin"

  to describe how particles attract one another. related to proton-neutron stability. mention colour.

• Explanation of gravity (phase-locking)

• mass of muon in ratios (9 T particles)

• possible explanation for muon not decaying to e-:e+:e- is the particles are simply too closely bound together (in the I-Frame configuration). Lack of presence in the V domain means no stability there, thus the particle decays, but the probability of the constituent particles in the e-:e+:e- configuration being able to "escape" unscathed is negligeable. This probably sounds a lot better when described in terms of "phase transitions", of which there are a limited number. i.e. because phase transitions occur at the single-rishon level, the probability of three such phase transitions occurring simultaneously in order to allow the constituent particles to "jump out" (i.e phase-transition with other matter, the end result being a decay pattern with 2 electrons and one positron) is vanishingly small.

• The inverse of the difference between the muon's experimentally observed and theoretically predicted magnetic dipole moment is 857.69. This is suspiciously close to the half-life (in seconds) of a neutron.

• alternative perspective on how "gluons" aka virtual Pions come into existence, even for the ultra-brief durations of time needed for them to be part of a back-to-back (self-annihilating) matched pair of VT0 phase transforms: wave-based constructive interference diffraction patterns. simple as that. at a location - which should actually be quite easy to mathematically calculate based on relative position and 3 (6?) dimensional axis of rotation of two particles - the constructive interference of two wave fronts *should* combine to an amount of energy equal to that of the relevant particles of a Pion. in the correct phases, and everything.

• paragraph that needs some explanation and a place to put it... if anywhere.

  Why the neutrino-anti-neutrino pair come into existence itself requires some explanation. Examining the overall V-charge of the neutron the first hint as to why this could happen becomes clear. The V-charge of the neutron is +1. The sum total V-charge and T-charge of all particles in the universe respectively is zero. All surrounding particles are therefore balanced at zero charge. A stray neutron with a +1 V-charge is therefore hugely disruptive (effectively a V-ionic particle). Logically therefore a bare neutron would be more likely to influence the universe's continuous creation of particle-anti-particle pairs for a sufficient duration such that the paired phase-transitions can occur. This is just one possible explanation, however with further examples (the most elegant of which is the Pion phase-transition) we see more support for the above hypothesis.

* for cut/paste purposes:

VT0 $\overline{V}$T0 V $\overline{T}$0

up TVT

anti-up

$\overline{T}$ $\overline{V}$ $\overline{T}$

down $\overline{V}$ $\overline{T}$ $\overline{V}$

anti-down VTV

electron $\overline{T}$ $\overline{T}$ $\overline{T}$

anti-neutrino $\overline{V}$ $\overline{V}$ $\overline{V}$