Green’s function for elliptic systems: existence and Delmotte–Deuschel bounds

This paper is divided into two parts: In the main deterministic part, we prove that for an open domain D ⊂ R d with d ≥ 2 , for every (measurable) uniformly elliptic tensor field a and for almost every point y ∈ D , there exists a unique Green’s function centred in y associated to the vectorial oper...

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Veröffentlicht in:Calculus of variations and partial differential equations 2017-12, Vol.56 (6), p.1-51, Article 163
Hauptverfasser: Conlon, Joseph G., Giunti, Arianna, Otto, Felix
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Giunti, Arianna
Otto, Felix
description This paper is divided into two parts: In the main deterministic part, we prove that for an open domain D ⊂ R d with d ≥ 2 , for every (measurable) uniformly elliptic tensor field a and for almost every point y ∈ D , there exists a unique Green’s function centred in y associated to the vectorial operator - ∇ · a ∇ in D . This result implies the existence of the fundamental solution for elliptic systems when d > 2 , i.e. the Green function for - ∇ · a ∇ in R d . In the second part, we introduce a shift-invariant ensemble ⟨ · ⟩ over the set of uniformly elliptic tensor fields, and infer for the fundamental solution G some pointwise bounds for ⟨ | G ( · ; x , y ) | ⟩ , ⟨ | ∇ x G ( · ; x , y ) | ⟩ and ⟨ | ∇ x ∇ y G ( · ; x , y ) | ⟩ . These estimates scale optimally in space and provide a generalisation to systems of the bounds obtained by Delmotte and Deuschel for the scalar case.
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subjects Analysis
Calculus of Variations and Optimal Control
Optimization
Control
Green's functions
Mathematical and Computational Physics
Mathematics
Mathematics and Statistics
Systems Theory
Theoretical
title Green’s function for elliptic systems: existence and Delmotte–Deuschel bounds
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