Infinite complexity from z² + c - zoom forever into mathematical beauty
Square a number, add a constant, repeat. That one rule draws the Mandelbrot set, and its edge never runs out of detail, however far you zoom.
Drag to pan and scroll to zoom into the boundary, or use the "Famous Locations" buttons to jump to the best spots. Look for tiny copies of the whole set.
Drag to pan, scroll to zoom. GPU-accelerated rendering allows smooth exploration of infinite fractal detail.
The Mandelbrot set is perhaps the most famous mathematical object in the world. Despite being defined by the simplest possible iteration - just squaring and adding - it contains infinite complexity at every scale.
Zoom in anywhere on the boundary, and you'll discover new patterns, spirals, and even tiny copies of the whole set nested infinitely deep.
This GPU-accelerated explorer renders the Mandelbrot set in real-time.
For each point c in the complex plane, we iterate:
Starting with z0 = 0. The Mandelbrot set is all points c where this sequence stays bounded (doesn't escape to infinity).
Inside the Set (Black): Points where the iteration never escapes. The sequence stays bounded forever, oscillating or converging.
Outside the Set (Colored): Points where the iteration escapes to infinity. Color indicates how quickly it escapes - smooth coloring creates the beautiful gradients.
One of the most remarkable features is self-similarity. Zoom into the boundary and you'll find:
The Mandelbrot set lies at the boundary between order and chaos. Points just inside behave very differently from points just outside - this sensitive dependence creates the intricate boundary.
The boundary has infinite length but encloses finite area. Its fractal dimension is exactly 2, meaning it's "as complicated as possible" while still being a 1D curve. This makes it a truly remarkable mathematical object.
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