CoarseDirichletEnergy #
Ported from scottnarmstrong/Superdiffusion at 7f20476385d4af418f110303085ad0740c9eba46. Module imports, support namespace and local option directives adapted for Lean Pool.
The Dirichlet energy right-hand side at the pin r = s/2 #
Nothing here claims the anchor or any source node.
What is proved #
CoarseGraining's dirichletEnergyWithRHSRHS — the right-hand side of the
general-data energy estimate, which BoundaryEnergyRebase puts on the
covering cube — read at the fidelity plan's pin r = s/2 and priced onto the
frozen clause's own legs:
dirichletEnergyWithRHSRHS C (□_{n+2}) ã (s/2) (−g(·+c)) v
≤ C (s/2)^{-3/2} √K √(σ_{n+3}^{-1}) · C_bg 3^{s(n+2)} C_gw [g]_{H^s(W')}
+ C (s/2)^{-1/2} √K √(σ_{n+3})
· ( √d 3^d ‖∇h‖_{L²(W')} + C_bg 3^{s(n+2)} C_gw [∇h]_{H^s(W')} ) .
The three legs on the right are the frozen clause's own [g], ‖∇h‖_{L²} and
[∇h]_{H^s} legs, at the exact shapes the CoarseAssemblyBudget regrouping
consumes.
Ingredients, all proved:
- the two
q = 2ellipticity caps at the pin's indicess/2ands/4(CoarseIndexBridges.ae_coveringCubeRatioCap_le); - the positive-Besov index conversion
[·]_{s/2} → [·]_s(CoarseIndexBridges; constant-free); - the force window transport
(
BoundaryTransports.besovVectorSeminormTwo_coveringCube_le_anchorWindow); - the two
∇hconversions (BoundaryGradH.besovVectorSeminormTwo_datumGrad_coveringCube_le_anchorWindowand...sqrt_vecNormSq_cubeAverageVec_coveringCube_le_anchorWindow).
References #
- CoarseGraining,
dirichletEnergyWithRHSRHS.
1. The two capped ellipticity factors #
2. The Dirichlet energy right-hand side, priced #
Dirichlet energy bound from covering-cube containment in the anchor window.
CoarseGraining's dirichletEnergyWithRHSRHS on the boundary covering
cube at the pin r = s/2, priced onto the frozen clause's three legs.
hlam and hLam are the two q = 2 ratio caps of
CoarseIndexBridges.ae_coveringCubeRatioCap_le at the indices s/4 and
s/2; hvgrad is the boundary-gradient identity carried by the produced
Dirichlet comparison of BoundaryEnergyRebase.