Explore a cellular automata simulator that allows you to create and customize complex patterns using simple rules. Discover mesmerizing worlds of order and chaos, experiment with transformations, and enjoy a therapeutic experience.






247+ iOS apps & games curated and reviewed
Looking for free cellular automata apps and games? 20 of our 247+ tracked titles are free to download — no subscription, no trial. The rest are premium picks worth paying for.
| # | App | Price | Rating | Ads | In-App Purchases | Updated |
|---|---|---|---|---|---|---|
| 1 | Free | 4.9★ (107) | No | Yes | Aug 2026 | |
| 2 | Free | 4.4★ (74) | No | No | Jul 2026 | |
| 3 | Free | 4.9★ (16) | No | No | May 2026 | |
| 4 | Free | 5.0★ (1) | No | No | May 2026 | |
| 5 | Free | 4.0★ (3) | No | No | May 2026 | |
| 6 | Free was $0.99 | 5.0★ (1) | No | Yes | May 2026 | |
| 7 | Free | 4.5★ (14) | No | No | May 2026 | |
| 8 | Free | 4.5★ (2) | No | No | May 2026 |






Explore a cellular automata simulator that allows you to create and customize complex patterns using simple rules. Discover mesmerizing worlds of order and chaos, experiment with transformations, and enjoy a therapeutic experience.






Explore John Conway's classic cellular automata simulation. Watch complex patterns emerge and evolve from simple rules on your iPhone or iPad.





Explore variations of virtual ant cellular automata on square or hexagonal grids. Create complex patterns and listen to musical sonifications of ant behavior mapped to MIDI voices or drum samples.


Explore the fascinating world of cellular automata with this app. It implements a variety of one-dimensional binary rules, allowing you to discover and compute them directly on your device. Dive into all 256 available rules or focus on your favorites.


Explore the "New Kind of Science" with this app, inspired by Stephen Wolfram's work on complexity. Generate intricate patterns and gain insights into the universe's underlying principles. Discover and create your own unique scientific patterns.


Explore the emergent complexity of simple rules with this implementation of Conway's Game of Life. Transform photos and text into evolving cellular grids, enhanced by audio-reactive generative art and high-performance GPU processing. Share your creations as high-resolution snapshots or animated GIFs.


Explore a newly discovered universe and compare its features to our own. This app aims to continuously expand knowledge and understanding of this new world over time.


Explore John Horton Conway's Game of Life with customizable resolutions and speeds. Features a built-in editor with copy-paste functionality for running patterns from online libraries.




Create and simulate your own pixel-based cellular automata. This intuitive editor lets you customize automata with various tools and shapes, offering a relaxing and engaging experience. Explore the fascinating world of cellular automation with ease.


Generate complex sound signals using a cellular automata field. Control parameters like pitch, filters, and effects through evolving cell states. Offers multiple modes for signal interpretation and a built-in sequencer for composition.


Explore complex ecological and epidemiological models through interactive simulations. This tool introduces cellular automaton models and allows hands-on manipulation of parameters to visualize spatial dynamics. It's designed for educational outreach and scientific exploration.


Explore the fascinating world of two-dimensional cellular automatons, including Conway's Game of Life. Discover emergent patterns and symmetries by setting initial conditions or using preset configurations. This app offers a vast array of possibilities for both beginners and experts.










Explore a fascinating cellular automaton simulation with customizable grids, drawing tools, and special patterns like glider guns. Observe the evolution of life based on simple rules and adjust simulation speed and cell appearance.




Experience Conway's Game of Life on your mobile device. Manually alter the grid by adding or removing cells, then observe how the simulation evolves.