The current Paper 47 benchmark does not claim that the exact measured SI value of the physical speed of light or the full Lorentz group has already been derived from first principles inside QGEFT. It does show that the repository now supports a coherent graph-mechanical interpretation of the light cone itself. On the verified Paper 21 warp benchmark, the unrewired graph crosses a realized topological distance of `4` in `4` sweeps, fixing the static baseline at `1.0` edge per sweep, while the same route is traversed in `1` sweep only after explicit geometric rewiring, yielding an effective `4.0c` relative to the original background. The verified Paper 34 bond benchmark then shows that dense local transport faces a rapidly growing rejection wall: the repulsion penalty rises from `2.0000` near the bond minimum at `d ≈ 1.0` to `7.6294` at `d = 0.8` and `42.8669` at `d = 0.6`. The defensible conclusion is therefore that QGEFT can already encode the speed of light as a static topological clock-speed limit, while subluminal matter transport emerges from collision-driven topological drag.
Yaniv Cohen (2026) studied this question.