Difference between revisions of "Julia set"
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| − | [[Julia set]] is set of values, that fall out from the range of holomorphism of some |
+ | [[Julia set]] is set of values inside of the range of holomorphism of some function, that fall out from the range of holomorphism of some integer [[iteration]] this function. Julia set is often defined with symbol $J$ or $\mathbb J$. The name of the function can be indicated either as the subscript or in the parenthesis immediately after this symbol. |
Let $f$ be holomorphic function defined at some $C\in \mathbb C$. |
Let $f$ be holomorphic function defined at some $C\in \mathbb C$. |
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$\mathbb J(f) = \{ z \in C : \exists ~ n\in \mathbb N_+ ~,~ f^n(z) \bar \in C\}$ |
$\mathbb J(f) = \{ z \in C : \exists ~ n\in \mathbb N_+ ~,~ f^n(z) \bar \in C\}$ |
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| + | where the upper subscript after the name of the function indicates the number of [[iteration]]. |
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| + | On this case, the number of iteration is supposed to be integer. |
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Revision as of 12:39, 10 July 2013
Julia set is set of values inside of the range of holomorphism of some function, that fall out from the range of holomorphism of some integer iteration this function. Julia set is often defined with symbol $J$ or $\mathbb J$. The name of the function can be indicated either as the subscript or in the parenthesis immediately after this symbol.
Let $f$ be holomorphic function defined at some $C\in \mathbb C$.
Then
$\mathbb J(f) = \{ z \in C : \exists ~ n\in \mathbb N_+ ~,~ f^n(z) \bar \in C\}$
where the upper subscript after the name of the function indicates the number of iteration. On this case, the number of iteration is supposed to be integer.