06/20/2022, 01:01 AM
(06/20/2022, 12:40 AM)JmsNxn Wrote: Hey, Daniel--could you elaborate further on how you are constructing these graphs/the mathematical theory behind this?
I know you are using the fixed point formula \((-1)^{-1} = -1\) but could you elaborate further? Which branch of the exponential are you using particularly. I assume this is the Schroder iteration (your Bell matrix approach). But which branch of \((-1)^z\) are you choosing. Which is to mean: \((-1)^z = f_k(z) = e^{\pi i(2k+1) z}\) for some \(k \in \mathbb{Z}\). And each has a repelling fixed point at \(z=-1\) with multiplier \((2k+1)\pi i\). I assume that you are doing the entire iteration about these fixed points (every entire function about a repelling fixed point admits an entire iteration).
Just curious because this looks really interesting. I'm just interested to know more about the backstory of how these graphs are made!![]()
Please, elaborate!
Regards, James.
These fractals were made thirty years ago with FractInt, a versatile fractal generator with a programming language. As you can see in the code, the algorithms are simple that generated the fractals.
Tetration (exponential map) Mandelbrot set
Code:
TetrationM (XAXIS) {;
z = pixel:
z = pixel ^ z
|z| <= 100000
}Tetration (exponential map) Julia set
Code:
TetraJ (XAXIS) {;
z = pixel:
z = P1 ^ z
|z| <= 100000
}
Daniel

