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Let $f$ be an holomorphica function and, holomorphic in $\mathbb{C}$, and$K(f)$ its non-escaping set :
$$K(f) = \{ z \in \mathbb{C} : f^{(k)}(z) \nrightarrow_{k \to \infty} \infty \} $$
Question : If $K(f)$ is connected, is it also contractible ?
Let $f$ be an holomorphic function and$K(f)$ its non-escaping set :
$$K(f) = \{ z \in \mathbb{C} : f^{(k)}(z) \nrightarrow_{k \to \infty} \infty \} $$
Question : If $K(f)$ is connected, is it also contractible ?
Let $f$ be a function, holomorphic in $\mathbb{C}$, and$K(f)$ its non-escaping set :
$$K(f) = \{ z \in \mathbb{C} : f^{(k)}(z) \nrightarrow_{k \to \infty} \infty \} $$
Question : If $K(f)$ is connected, is it also contractible ?
I've removed "Filled Julia set" because it's only for polynomial function, as said in comment.
Let $f$ be an holomorphic function and $K(f)$ its non-escaping set (also called the filled Julia set) :
$$K(f) = \{ z \in \mathbb{C} : f^{(k)}(z) \nrightarrow_{k \to \infty} \infty \} $$
Question : If $K(f)$ is connected, is it also contractible ?
Let $f$ be an holomorphic function and $K(f)$ its non-escaping set (also called the filled Julia set) :
$$K(f) = \{ z \in \mathbb{C} : f^{(k)}(z) \nrightarrow_{k \to \infty} \infty \} $$
Question : If $K(f)$ is connected, is it also contractible ?
Let $f$ be an holomorphic function and $K(f)$ its non-escaping set :
$$K(f) = \{ z \in \mathbb{C} : f^{(k)}(z) \nrightarrow_{k \to \infty} \infty \} $$
Question : If $K(f)$ is connected, is it also contractible ?
Contractibility of connected holomorphic dynamics?
Let $f$ be an holomorphic function and $K(f)$ its non-escaping set (also called the filled Julia set) :
$$K(f) = \{ z \in \mathbb{C} : f^{(k)}(z) \nrightarrow_{k \to \infty} \infty \} $$
Question : If $K(f)$ is connected, is it also contractible ?