The six axes of resistance
RSI derives the coefficient 6 in the proton mass ratio from the six rotational axes a stable triple braid needs.
RSI holds that the proton's three-part braid can survive the Universal Mechanical Clamp only if it meets two strict topological conditions. Otherwise it would unzip back into the Rest-State. The first condition supplies the number 6 in the proton-to-electron mass ratio.
A single continuous torus, such as the electron, needs two rotational axes to hold its shape against the field. These are its toroidal rotation, around the ring's long circle, and its poloidal rotation, around the ring's tube.
A synchronized triple braid has three such rings. It therefore works on six primary axes: three toroidal rotations and three poloidal rotations. In RSI, this coefficient counts the exact number of structural directions needed to keep the escapement lock against the background tension. The escapement is the theory's term for the mechanism that keeps each matter-knot in step with the field's rhythm.
From the paper: Chapter IV, The Six Axes of Resistance (The Coefficient of 6). Read the full section
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