Turing Patterns
Labyrinthine patterns reminiscent of brain coral and organic mazes.
Price
$29.00
Shipping calculated at checkout
Each print is produced and shipped from the nearest facility in our global print network. Production normally takes 2–5 business days, then shipping follows Printful's live estimate for the destination. The ranges below are current standard-rate estimates and can vary by exact address, product, and carrier availability.
| Region | Countries | Est. delivery |
|---|---|---|
| United States | All 50 states + territories | 3 – 6 business days |
| United Kingdom | UK | 2 – 11 business days |
| Canada | Canada | 2 – 10 business days |
| Australia | Australia, New Zealand | 3 – 17 business days |
| European Union | Germany, France, Spain, Italy, Netherlands, Belgium, Austria, Sweden, Poland, Denmark, Finland, Ireland, Portugal, Czech Republic, Romania, Greece + more | 3 – 15 business days |
| Norway & Switzerland | NO, CH | 3 – 15 business days |
| Latin America | Brazil, Mexico, Chile, Colombia, Argentina, Peru + more | 5 – 25 business days |
| Asia Pacific | Japan, South Korea, Singapore, India, China, Hong Kong, Taiwan, Malaysia, Thailand, Philippines + more | 2 – 20 business days |
| Middle East | UAE, Saudi Arabia, Israel | 5 – 20 business days |
| Rest of world | Most supported countries and territories | 5 – 25 business days |
Note: Delivery times are estimates and not guaranteed. Exact rates are confirmed at checkout with Printful live shipping data. Shipping is unavailable for Russia, Belarus, Cuba, Iran, North Korea, and Syria.
Shipped worldwide · professionally printed and fulfilled
The mathematics
Turing patterns emerge from Alan Turing's 1952 reaction-diffusion mechanism: an initially uniform mixture of two chemicals spontaneously breaks symmetry into spots, stripes, or labyrinths simply because the chemicals diffuse at different rates. Turing proposed this as the explanation for the markings on animal coats — leopard spots, zebra stripes, fish patterns. Each image is the equilibrium state of a Turing simulation, the patterns self-organizing from random initial noise.
In the Turing Patterns collection
Turing patterns are the spatial structures that arise when two diffusing chemicals react at different rates. Alan Turing showed in 1952 that under the right conditions, an initially uniform mixture will spontaneously break symmetry and settle into stripes, spots, or labyrinths — purely as a consequence of diffusion rates and reaction kinetics, without any external template. The same mechanism is now believed to govern the markings on fish, the arrangement of hair follicles, and the branching of fingers in embryonic limbs. Each image in this collection is a Turing simulation run to equilibrium on a high-resolution grid. The patterns are not designed — they self-organize from random noise, the way they do on a leopard.
∂u/∂t = Du∇²u + f(u,v), ∂v/∂t = Dv∇²v + g(u,v)