4. Julia sets and the Mandelbrot set
K. J. Falconer
Abstract
K. J. Falconer
Abstract
‘Julia sets and Mandelbrot sets’ explores these frequently visualised fractal species. Complex numbers are imaginary numbers which involve the square root of -1. Plotting squared complex numbers on a plane will give a line which travels to either infinity or the origin. The boundary between these two types of behaviour is known as the Julia set. The simplest conformation of a Julia set is a circle, but other more complicated structures exist. The level of connectedness of a Julia set is determined by its position inside or outside the Mandelbrot set. The position of a Julia set in relation to the Mandelbrot set also determines its fractal dimension.
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‘Julia sets and Mandelbrot sets’ explores these frequently visualised fractal species. Complex numbers are imaginary numbers which involve the square root of -1. Plotting squared complex numbers on a plane will give a line which travels to either infinity or the origin. The boundary between these two types of behaviour is known as the Julia set. The simplest conformation of a Julia set is a circle, but other more complicated structures exist. The level of connectedness of a Julia set is determined by its position inside or outside the Mandelbrot set. The position of a Julia set in relation to the Mandelbrot set also determines its fractal dimension.
Key concepts: Mandelbrot set, Julia set, Set (abstract data type), Mathematics, Computer science, Pure mathematics, Programming language, Fractal