Ported for Lean Pool: imports relocated and code adapted to Lean/Mathlib v4.34.0.
Concrete Stieltjes upper-contact estimate assembly #
Source-route assembly theorem for the concrete convex source-local Stieltjes slice family.
This packages the current state of the upper-contact estimate route: once first differentiability
a.e., the one-dimensional endpoint-control estimate, the Fubini estimate, and the scalar measure
constant comparison are supplied for the concrete Stieltjes slices, the abstract upper-contact
decomposition follows with the chosen dimensional constant from Cube.Maximal.
Source-route assembly theorem for the concrete convex source-local Stieltjes slice family,
with the finite-union measure constant supplied as the source-style real coefficient inequality
(n : ℝ) * Ccoord ≤ Cmeasure.
Source-route assembly from symmetric-remainder estimates for the concrete convex
source-local Stieltjes slice family. The one-dimensional endpoint constant is fixed to 2,
because the maximal non-bad estimate controls the symmetric interval mass by t * (2*h).
Source-route assembly from endpoint comparison bounds for the concrete convex source-local Stieltjes slice family.
Source-route assembly from exact endpoint identities for the concrete convex source-local Stieltjes slice family.
Source-route assembly for the concrete convex source-local Stieltjes slice family.
This is the current source-faithful cube wrapper: convexity supplies the one-dimensional Stieltjes endpoint-control input, so the remaining analytic assumptions are first differentiability a.e., the localized maximal estimate, the Fubini estimate for the coordinate maximal bad fibers, and the scalar finite-union constant comparison.
Shorter alias for the concrete convex source-local Stieltjes decomposition route.
Concrete convex source-local Stieltjes decomposition route after discharging the first-differentiability-a.e. input by Rademacher and local Lipschitz regularity of convex functions. The remaining analytic input is the coordinate Fubini estimate for the localized maximal bad fibers.
Concrete convex source-local Stieltjes decomposition route from the sharper transverse
Fubini boundary. This leaves the remaining Fubini work in the source-proof form: a product
measure estimate with transverse constant Ctrans, plus the scalar comparison
Ctrans * (2 * Cmax) <= Ccoord.
Concrete convex source-local Stieltjes decomposition route from measurability of the coordinate maximal bad sets. The canonical coordinate charts are already measure-preserving; this wrapper leaves only the genuine analytic measurability obligation plus scalar constants.
Concrete convex source-local Stieltjes decomposition route from measurability of the interval-average-exceeds set. This is the current sharp source-facing measurability input for the Fubini step.
Packaged upper-contact estimate from the concrete convex source-local Stieltjes route.
Convexity supplies the coordinate Stieltjes endpoint-control input. The remaining hypotheses are the first-differentiability-a.e. input, the localized maximal estimate, the coordinate Fubini estimate for the localized maximal bad fibers, and the scalar finite-union constant comparison.
Packaged upper-contact estimate from the concrete convex source-local Stieltjes route after discharging first differentiability a.e. The remaining analytic input is the coordinate Fubini estimate for the localized maximal bad fibers.
Packaged upper-contact estimate from the sharper transverse Fubini boundary.
Packaged upper-contact estimate from measurability of the concrete convex source-local Stieltjes maximal bad sets.
Packaged upper-contact estimate from measurability of the concrete convex source-local Stieltjes interval-average-exceeds sets.