Candidate actual obstruction/Frattini proof refinements #
This sidecar targets the two current Section 8 actual candidate packets
introduced in CandidateMiddleFrattiniActualProofs.lean:
centralCover_candidateActualMiddleRLiftObstructionMapData;centralCover_candidateActualFrattiniAffineFiberExactImageEquivData.
It intentionally does not import that file. Instead it proves route-ready replacement theorems from the smaller packets already isolated lower in the candidate exact-image stack:
- the middle exact-image
R-lift obstruction mapcentralCover_candidateMiddleRLiftObstructionMapData_residual; - the Frattini exact-image partition
centralCover_candidateFrattiniAffineFiberPartition_residual.
Thus the route below has no dependency on the two old actual packet axiom names. No routed/root file is edited here.
The two actual packet replacements #
Replacement for
centralCover_candidateActualMiddleRLiftObstructionMapData.
The obstruction map is the already-isolated middle exact-image R-lift
obstruction packet. This theorem keeps the old actual packet name out of the
closure while preserving the exact target type expected by downstream code.
Replacement for
centralCover_candidateActualFrattiniAffineFiberExactImageEquivData.
The lower packet provides the exact-image partition of top maps by unobstructed canonical affine fibres. The equivalence form required by the old actual packet is the partition's bijection.
Reassembly without the old actual packet axioms #
Reassemble the coherent middle/Frattini residual from the proven actual packet replacements above.
Canonical concrete proof data from a supplied quotient-frame map and the actual obstruction/Frattini replacements in this sidecar.
Candidate lift-partition data from a supplied quotient-frame map and the actual obstruction/Frattini replacements in this sidecar.
Route-ready final-branch hook #
Route form matching the current final nonterminal branch, with the candidate side routed through the actual obstruction/Frattini replacements above instead of the two old actual packet axioms.