A fractal is a geometric object or set that can be subdivided into parts, each of which is a reduced-scale copy of the whole. This property is known as self-similarity, and fractals often have non-integer dimensions, existing between traditional one-dimensional, two-dimensional, or three-dimensional spaces.
Key figures include Gottfried Wilhelm Leibniz, who explored recursive patterns and infinite division; Carl Weierstrass, who created a continuous but non-differentiable function; Georg Cantor, who introduced the self-similar Cantor set; and Helge von Koch, who developed the Koch snowflake. Later, Benoit Mandelbrot popularized fractals with the Mandelbrot set.
The Koch snowflake is a fractal shape created by starting with an equilateral triangle and iteratively replacing the middle third of each side with an outward equilateral triangle. It demonstrates that an infinitely long boundary can enclose a finite area, challenging traditional notions of dimension and perimeter.
Fractals are abundant in nature, appearing in structures like tree branches, leaf veins, blood vessels, lungs, clouds, rivers, lightning bolts, and snowflakes. These patterns arise from processes like growth, erosion, and flow dynamics, showcasing nature's use of fractal geometry to create efficient and intricate structures.
The coastline paradox demonstrates that the length of a coastline is not a fixed measurement but depends on the scale of the measuring tool. As the measuring unit decreases, finer details are captured, making the coastline appear infinitely long. This occurs because coastlines are fractal-like, exhibiting self-similarity and irregularity at every scale.
The Mandelbrot set is a famous fractal created by Benoit Mandelbrot in 1980 using complex numbers and iterative formulas. It is known for its intricate, infinitely detailed boundary filled with spirals, swirls, and self-similar shapes. Its beauty and complexity brought fractals to public attention.
Fractals help explain the complexity and efficiency of natural structures, such as branching patterns in trees, blood vessels, and lungs. They arise from simple rules repeated over time, making them a powerful tool for modeling and understanding natural processes like growth, erosion, and flow dynamics.
Some of the most beautiful things in the world of mathematics are fractals.
Fractals are unique geometric objects that are both easy to comprehend and have complicated mathematics.
Moreover, fractals are not just a theoretical mathematical construction. Fractals can be found everywhere in nature, including trees, beaches, and even your own body.
Learn more about fractals, what they are, and how they work in this episode of Everything Everywhere Daily.
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