Function complex-differentiable at a point: Difference between revisions
(New page: ==Definition== ===In one dimension=== Let <math>U</math> be a domain in <math>\mathbb{C}</math> and <math>f:U \to \mathbb{C}</math> be a function. Let <math>z_0 \in U</math>. We say ...) |
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{{at-point function property|holomorphic function}} | |||
==Definition== | ==Definition== | ||
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===In several dimensions=== | ===In several dimensions=== | ||
==Relation with other properties== | |||
===Stronger properties=== | |||
* [[Function holomorphic at a point]] | |||
===Weaker properties=== | |||
* [[Function real-differentiable at a point]] | |||
* [[Function satisfying Cauchy-Riemann differential equations at a point]] | |||
* [[Function continuous at a point]] |
Latest revision as of 19:12, 18 May 2008
This article defines a property that can be evaluated for a function on a (particular kind of) set, and a point in that set. A function satisfying the property at every point, it is termed a holomorphic function
View other properties of functions at points
Definition
In one dimension
Let be a domain in and be a function. Let . We say that is complex-differentiable at if the complex differential of at is well-defined.