The Global Log Realization Is an Artin-Cone Kernel Not a Raw Span
Entry 543 rules out an ordinary raw-DNC equivalence preserving the physical connector. The correct logarithmic algebraic realization can nevertheless be assembled canonically from the fs monoidal data of Entries 426--429.
For each of the 215 loaded PC cells, let (P_{S,H}) be its fine saturated characteristic monoid and form the Artin cone
The 522 cellular incidences are strict face localizations. All 840 composable two-step routes induce the same target groupification, so the atlas cocycles commute strictly. The Artin cones therefore glue to a global logarithmic Artin-cone stack .
The full constructible category of is larger than the finite PC category because it includes nontrivial chart-torus inertia characters. The finite category is precisely the Kato-pulled sector with trivial inertia. Entry 428 proves that every operation used by the connector preserves this sector:
Correct type of the bridge
The normalization--conductor geometry has opposite geometric and coefficient variance, as Entry 432 proves. Consequently its global bridge is not a morphism of Artin stacks. It is the constructible bimodule kernel of Entries 433--435, hence an integral transform between the corresponding Kato sectors. Applying it to the distinguished sheet object gives the unique framed connector.
Thus the algebraic realization is
not a raw scheme span. External products and strict Cut face maps preserve trivial inertia, so Entry 542 propagates this realization to every even arity.
The raw DNC comparison remains the generic localization (X^{-1}). It is nonconservative and supplies the mandatory forgetting functor; it is not the physical realization.
Therefore
What remains outside this theorem is the larger nontrivial-inertia Artin category, any raw-scheme enhancement that does not preserve the supported class, and comparison with numerical amplitude or worldsheet formulas.
The executable audit is
research/voevodsky/check_global_log_artin_mixed_variance_realization.py.