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Published online by Cambridge University Press: 20 November 2018
A domain   $\Omega $  is called a domain of injective holomorphy if there exists an injective holomorphic function
 $\Omega $  is called a domain of injective holomorphy if there exists an injective holomorphic function   $f\,:\,\Omega \,\to \,\mathbb{C}$  that is non-extendable. We give examples of domains that are domains of injective holomorphy and others that are not. In particular, every regular domain
 $f\,:\,\Omega \,\to \,\mathbb{C}$  that is non-extendable. We give examples of domains that are domains of injective holomorphy and others that are not. In particular, every regular domain   $(\overset{\multimap }{\mathop{\Omega }}\,\,=\,\Omega )$  is a domain of injective holomorphy, and every simply connected domain is a domain of injective holomorphy as well.
 $(\overset{\multimap }{\mathop{\Omega }}\,\,=\,\Omega )$  is a domain of injective holomorphy, and every simply connected domain is a domain of injective holomorphy as well.