Find Equation of Main Cardioid in Mandelbrot Set & Minibrot

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    Mandelbrot Set
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Discussion Overview

The discussion centers on finding the equation of the main cardioid in the Mandelbrot set and its representation in "minibrot" structures. Participants explore the mathematical relationships and equations that define these curves within the context of complex dynamics and fractals.

Discussion Character

  • Exploratory, Technical explanation, Mathematical reasoning

Main Points Raised

  • One participant proposes interpreting the imaginary axis in the complex plane as the output of a relation to find the equation of the curve bounding the main cardioid of the Mandelbrot set.
  • Another participant states that the Mandelbrot set is derived from the recursion relation z_{n+1} = z_n^2 + C and identifies the equations that describe the cardioid shape.
  • There is a request for a method to show or prove the equations that define the cardioid's boundary in the Mandelbrot set.
  • A link to an external resource on Mandelbrot orbits analysis is provided for further exploration.

Areas of Agreement / Disagreement

Participants present multiple viewpoints and approaches, with no consensus reached on the methods to derive or prove the equations for the cardioid in the Mandelbrot set or minibrot structures.

Contextual Notes

The discussion includes assumptions about the interpretation of the complex plane and the definitions of the equations presented, which may not be universally accepted or fully resolved.

pierce15
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Assuming that we could interpret the imaginary axis in the complex plane as the output of a relation, how would we find the equation of the curve that bounds the main cardioid of the M-set? Is there a way to find the equation of the main cardioid on a "minibrot" (e.g. if I zoom in on the fractal very deeply and find another quasi-similar M-set)?
 
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The Mandelbrot set is obtained from the recursion relation,

<br /> z_{n+1} = z_n^2 +C<br />

The kidney bean-shaped portion of the Mandelbrot set turns out to be bordered by a cardioid with equations1

<br /> 4x = 2 \cos(t) - \cos(2t)<br />
<br /> 4x = 2 \sin(t) - \sin(2t)<br />


1 http://mathworld.wolfram.com/MandelbrotSet.html
 
kreil said:
The Mandelbrot set is obtained from the recursion relation,

<br /> z_{n+1} = z_n^2 +C<br />

The kidney bean-shaped portion of the Mandelbrot set turns out to be bordered by a cardioid with equations1

<br /> 4x = 2 \cos(t) - \cos(2t)<br />
<br /> 4x = 2 \sin(t) - \sin(2t)<br />


1 http://mathworld.wolfram.com/MandelbrotSet.html

How would one show/prove that?
 

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