1870 — Multiplier Saturation Certifies the First Triple-Wall Quartic
Remaining gate from Entry 1869
Entry 1869 derives the nonsoft quartic
for
but leaves open whether one of the three wall multipliers vanishes identically on that divisor.
Normalization-free multiplier test
Let be the Kummer-equation multipliers for the three solved square variables, normalized only by
The routing-column equations imply
Using the source wall ordering, the three wall multipliers vanish precisely with
Instead of substituting the rational repeated root , the checker clears its denominator first. This produces three polynomial zero tests over , independent of the null-vector normalization.
Exact result
The rational field norm of each multiplier-zero polynomial is coprime to at the good prime . Together with Entry 1869's square-free and soft-branch tests, this proves that on the generic quartic locus:
- ;
- the routing Gram pivot remains a unit;
- all three source-ordered wall multipliers are nonzero.
Therefore
Updated finite bound
Since is coprime to Entry 1866's degree-83 polynomial, the certified Landau denominator bound becomes
This does not yet prove that the selected scalar period has nontrivial local monodromy at every root of ; numerator cancellation or trivial cycle pairing remains possible. It does prove that the source Landau geometry permits the divisor without lower-support contamination.
Next falsifier
Transport the pilot through every dihedral-equivalent occurrence and verify the orientation/unit packet. Then run the same elimination on the next geometric profile and compare its saturated factor with the degree-87 union.
Evidence
research/benincasa/marici-gm/src/bin/five_site_cyclic_triple_landau_pilot.rsresearch/benincasa/results/five-site-cyclic-triple-landau-pilot.json- Entries 1866 and 1869
- allocator claim:
seqclaim-a8f1bc5254d1fdf0845d5629