Proposition 3.31 . [0518] Original official author HTML, exact retained edition. Historical TeX conversion verdicts remain unchanged. Cited-edition alignment and mathematical self-containment are not assessed.
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Proposition 3.31 .
In the above context, given any constants k − , k + ∈ ℝ k_{-},k_{+}\in\mathbb{R} with
(3.347)
k − − k + = k , k_{-}-k_{+}=k,
there exists a unique global Green’s current G P G_{P} for P P in Q Q such that the following properties hold:
(1)
G P G_{P} is of the form
(3.348)
G P = ψ ( z ) ∧ d z . G_{P}=\psi(z)\wedge dz.
Moreover, for each z ∈ ℝ z\in\mathbb{R} ,
ψ ( z ) \psi(z) is a closed real ( 1 , 1 ) (1,1) -current on D D .
(2)
For any nonnegative integer k ∈ ℕ k\in\mathbb{N} and for any δ ∈ ( 0 , 10 − 2 ) \delta\in(0,10^{-2}) ,
(3.349)
{ | ∇ k ( ψ ( z ) − ( k − z ) ⋅ ω D ) | = O ( e ( 1 − δ ) λ 1 z ) , z → − ∞ , | ∇ k ( ψ ( z ) − ( k + z ) ⋅ ω D ) | = O ( e − ( 1 − δ ) λ 1 z ) , z → ∞ , \displaystyle\begin{cases}|\nabla^{k}(\psi(z)-(k_{-}z)\cdot\omega_{D})|=O(e^{(1-\delta)\sqrt{\lambda_{1}}z}),&z\rightarrow-\infty,\\
|\nabla^{k}(\psi(z)-(k_{+}z)\cdot\omega_{D})|=O(e^{-(1-\delta)\sqrt{\lambda_{1}}z}),&z\rightarrow\infty,\end{cases}
where λ 1 > 0 \lambda_{1}>0 is the first eigenvalue of the Hodge Laplacian acting on closed real ( 1 , 1 ) (1,1) -forms on D D .