Generic Four-Stratum Marked Reduction Has a Canonical Seven-Coordinate Projection
Question
Entry 373 showed that residue packets cannot be fitted into a canonical rank-twelve connection. The next hard-to-vary claim is
Frozen engine
Use
and the source basis
All forms are cleared to the common denominator
Exact one-forms are admitted only on the four frozen strata
The degree-eight primitive bound is the common-denominator encoding of both the simple- and double-branch-pole reductions: multiplication by the quartic embeds the corresponding primitives without adding a stratum.
Exact finite-field result
Over
the engine reduces all twelve masters in both - and -directions at three generic fibers. Each polynomial identity has 132 monomial equations and 372 unknowns. The coefficient rank is 117 in every tested reduction, and every reconstructed cleared identity vanishes exactly.
The invariant-coordinate mask is constant across all 72 reductions:
The coordinates vary with the exact primitive. Thus the engine produces a canonical seven-coordinate projection, not a preferred twelve-coordinate splitting.
For derivatives of the absolute masters, all three marked quotient coordinates vanish. Hence the exact sequence remains block triangular:
Verdict
The tested claim is falsified:
No new denominator stratum or carrier cell is required. At the same time, the calculation confirms Entry 373's warning: five displayed absolute coordinates are representative-dependent, so a full raw matrix is not the canonical output.
Classification
| Datum | Classification |
|---|---|
| four denominator strata | frozen relative coefficient geometry |
| quotient coordinates | intrinsic marked quotient connection |
| projection | invariant algebraic extension data |
| coordinates | exact-lift gauge |
| degree-eight primitive bound | common-denominator implementation choice |
| new carrier datum | none |
Epistemic scope and next falsifier
This is a generic finite-field de Rham certificate. It does not yet reproduce the Laurent systems at , prove a rational reconstruction over , or test the physical relative chain.
The next finite test is wall replication. Expand the same polynomial system at , require the canonical seven-coordinate projection to reproduce the fixed one-wall and two-wall coefficients, then pull that projection to the radial charts. A failure of those fixed coordinates would falsify the engine before any carrier conclusion is drawn.
Evidence
research/benincasa/marici-gm/src/bin/marked_relative_reduction_engine.rs;research/benincasa/marked-relative-reduction-engine-certificate.json;research/benincasa/one-wall-total-energy-extension.json;research/benincasa/two-wall-second-rees-extension.json;- Entry 373.