Fractals, cellular automata and complex-plane sets — mathematical objects of infinite complexity, generated by a few lines of code. This category turns abstract mathematics into something you can see, touch and steer. Each interactive Mathematics model runs directly in your browser, so you can pan and zoom into the Mandelbrot set, rebuild a waveform from rotating Fourier circles, watch a Pythagoras tree grow, or trace prime numbers spiralling outward. You will learn how calculus, geometry, number theory and linear algebra connect, building genuine intuition that static textbook diagrams rarely give. Whether you are a curious beginner, a GCSE or A-Level student, or a university learner, these visualisations make the ideas behind the formulae tangible — and reveal why mathematics matters far beyond the classroom, from computer graphics to data science.
Simulations in development — stay tuned
Fractal geometry — objects of self-similar structure that repeat at every level of scale. The Mandelbrot set, Barnsley fern and Sierpinski triangle are generated by extremely simple iterative rules.
Fourier transforms, fractals, prime spirals, and calculus — animated
Mathematics simulations make abstract concepts tangible by animating equations in real time. The Fourier series visualiser constructs any periodic wave from a sum of rotating circles, directly showing how frequency components add. The Mandelbrot and Julia set explorers reveal the infinite complexity that emerges from a single quadratic iteration. Number spirals expose hidden prime-distribution patterns by arranging integers on an Archimedean spiral.
Each simulation is built on exact mathematical definitions — no approximations or artistic license. Exploring the parameter space of a fractal, watching a Pythagoras tree grow with angle controls, or decomposing a square wave into harmonics builds genuine mathematical intuition. These visualisations are used in undergraduate courses on complex analysis, signal processing, and discrete mathematics worldwide.
Mathematics simulations reveal the beauty hidden in abstract structures. The Mandelbrot set is computed from a one-line recurrence relation yet contains infinitely complex geometry at every scale. L-Systems produce realistic trees and ferns from symbol-rewriting rules that fit on a single line. Fourier analysis underpins every digital audio codec, image compression algorithm, and radio system on the planet. These visualisations make the abstract tangible.
Topics and algorithms you'll explore in this category
5 questions — fractals, Fourier, primes, and more
Common questions about this simulation category
Every Mathematics simulation in this collection runs free in your browser, with no installs or sign-ups. Use each interactive Mathematics model to learn Mathematics online at your own pace — zoom fractal boundaries, decompose signals with Fourier analysis, or explore prime patterns and topology. These same techniques power real-world applications such as JPEG image compression, MRI medical imaging, computer graphics and machine-learning algorithms, showing how the mathematics you visualise here underpins the technology you use every day. Bookmark the page and keep experimenting with the parameters to deepen your mathematical intuition.