The story
Rotations of 90° give the four arms. Brightness grows with the logarithm of how many points land on a pixel, so even faint trails stay visible beside the bright centre. Without the logarithm you would see only the core.
200 gsm enhanced matte
Printed on thick uncoated art paper at 300 DPI. Rich colour, razor-sharp lines, no glare.
Black or natural wood
Wooden frame, 22 mm deep, with plexiglass that is lighter and safer than glass. Arrives ready to hang.
Free shipping worldwide
Each print is made for you when you order and packed to arrive flawless, wherever you are.
The story
Rotations of 90° give the four arms. Brightness grows with the logarithm of how many points land on a pixel, so even faint trails stay visible beside the bright centre. Without the logarithm you would see only the core.
MATHEMATICS
Every piece is computed, not drawn. These are the real equations and numbers from the program that made this exact piece.
Read the guide: What is a fractal flame? →xₙ₊₁ = Fᵢ(xₙ)F(x) = Σ wⱼ·Vⱼ(Ax + b)L = log(1 + n) / log(1 + nₘₐₓ)
HISTORY
John Hutchinson describes iterated function systems: a fractal as a set of rules that repeat.
Michael Barnsley shows that a few rules and the chaos game draw ferns and clouds.
Scott Draves devises the fractal flame: non-linear variations, log density and colour from history.
The flame is one of the best-known forms of programmer art. Here every piece has its own rules and its own number.
The flame descends from Barnsley's fern of 1988: a few rules, picked at random, draw a leaf down to its last vein.