Weil domain

A special case of an analytic polyhedron. A bounded domain $ D $ in $ n $- dimensional space $ \mathbf C ^ {n} $ is said to be a Weil domain if there exist $ N \geq n $ functions $ f _ {i} ( z) $, $ i= 1 \dots N $, holomorphic in a fixed neighbourhood $ U ( \overline{D}\; ) $ of the closure $ \overline{D}\; $, such that

1) $ D= \{ {z } : {| f _ {i} ( z) | < 1, i = 1 \dots N, z \in U ( \overline{D}\; ) } \} $;

2) the faces of the Weil domain $ D $, i.e. the sets

$$ \sigma _ {i} = \{ {z \in D } : { | f _ {i} ( z) | = 1 ,\ | f _ {j} ( z) | \leq 1 ,\ j \neq i } \} , $$

have dimension $ 2n - 1 $;

3) the edges of the Weil domain $ D $, i.e. the intersections of any $ k $( $ 2 \leq k \leq n $) different faces, have dimension $ \leq 2n - k $.

The totality of all $ n $- dimensional edges of a Weil domain is called the skeleton of the domain. The Bergman–Weil representation applies to Weil domains. These domains are named for A. Weil [1], who obtained the first important results for these domains.

References

[1]	A. Weil, "L'intégrale de Cauchy et les fonctions de plusieurs variables" Math. Ann. , 111 (1935) pp. 178–182
[2]	B.V. Shabat, "Introduction of complex analysis" , 1–2 , Moscow (1976) (In Russian)
[3]	V.S. Vladimirov, "Methods of the theory of functions of several complex variables" , M.I.T. (1966) (Translated from Russian)

References

[a1]	B.A. Fuks, "Introduction to the theory of analytic functions of several complex variables" , Amer. Math. Soc. (1963) (Translated from Russian)
[a2]	G.M. [G.M. Khenkin] Henkin, J. Leiterer, "Theory of functions on complex manifolds" , Birkhäuser (1984)