785 — Cayley--Menger Inequalities Do Not Define Their Complex Weighted Continuation
Source-normalized real family
Entry 783 correctly retains the source-defined incidence family
For real Euclidean external data, Appendix A of arXiv:2402.06558 defines by the simultaneous inequalities
These inequalities fix the real semialgebraic fiber, its orientation, and the normalized loop measure.
Continuation gate
The weighted exceptional test instead uses a complex Bunch--Davies approach
There is no order relation on the complex values of the Cayley--Menger minors. Consequently the displayed inequalities cannot be evaluated along this path and do not, by themselves, define a complex strict transform of .
The source-normalized real cycle determines an initial class in a relative homology local system. Reaching the weighted center additionally requires:
- a path in the discriminant complement from the real chamber to the punctured weighted neighborhood;
- Gauss--Manin transport of the fiber cycle along that path;
- control of monodromy when two paths differ;
- a limiting relative-homology or nearby-cycle map on the weighted Rees space.
Only after these operations is there a chain whose strict transform, exceptional boundary, and source measure valuation can be computed.
Thus Entry 783 identifies a correctly typed and normalized initial cycle family, but not yet the complex weighted specialization:
This does not erase the source normalization. It isolates the remaining ambiguity as monodromy/nearby-cycle transport rather than an arbitrary rescaling of the real contour.
Evidence
- arXiv:2402.06558v3, equations (3.9)--(3.10) and (A.11)--(A.12);
- Entries 747--751, 778, and 781--784;
- allocator claim
seqclaim-d0eb903bb284a7a5c5018b0c; - epistemic event
ev-000000000400-aa4f6815-22e3-4c37-aa86-8c82bbd70f1d.
Next falsifier
Specify two admissible continuation paths from the positive Euclidean base to the punctured weighted neighborhood. Transport the source-normalized relative cycle along both and compare their classes before taking the exceptional limit. Equality makes the strict-transform calculation canonical; a nontrivial monodromy difference proves path dependence and must be retained in the physical packet.