Abstract

Complex geodesics are fundamental constructs for complex analysis and as such constitute one of the most vital research objects within this discipline. In this paper, we formulate a rigorous description, expressed in terms of geometric properties of a domain, of all complex geodesics in a convex tube domain in \({\mathbb {C}}^n\) containing no complex affine lines. Next, we illustrate the obtained result by establishing a set of formulas stipulating a necessary condition for extremal mappings with respect to the Lempert function and the Kobayashi–Royden metric in a large class of bounded, pseudoconvex, complete Reinhardt domains: for all of them in \({\mathbb {C}}^2\) and for those in \({\mathbb {C}}^n\) whose logarithmic image is strictly convex in the geometric sense.

Highlights

  • A non-empty open set D ⊂ Cn is a tube domain if for some domain ⊂ Rn one has that D = + iRn

  • The restriction to convex tube domains with no complex lines is made for several reasons, among which the most important is that it results in every holomorphic map with the image in such a domain admitting the boundary measure ([16, Observation 2.5])

  • In [16], we demonstrated an equivalent condition for a holomorphic map φ : D → D to be a complex geodesic in a convex tube domain D which is taut

Read more

Summary

Introduction

Given a convex domain D ⊂ Cn, we call a holomorphic map φ : D → D a complex geodesic for D if there exists a. The restriction to convex tube domains with no complex lines is made for several reasons, among which the most important is that it results in every holomorphic map with the image in such a domain admitting the boundary measure ([16, Observation 2.5]). In [16], we demonstrated an equivalent condition for a holomorphic map φ : D → D to be a complex geodesic in a convex tube domain D which is taut

Preliminaries
Domains in C2
Full Text
Published version (Free)

Talk to us

Join us for a 30 min session where you can share your feedback and ask us any queries you have

Schedule a call