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Continuous Life

Generalization of Conway's Game of Life to continuous floating-point state space, exhibiting fluid-like organic self-replicating solitons.

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60 FPS Canvas 2D
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Live Parameters

Decay Rate 0.05
Entropy dissipation rate
ƒ

Mathematical Formulation

81 chars high
Analytical Equation
s^{t+\Delta t}(x,y) = \sigma\left( s^t(x,y), \iint K_{\text{outer}}(r) s^t(\mathbf{x}+\mathbf{r}) d\mathbf{r}, \iint K_{\text{inner}}(r) s^t(\mathbf{x}+\mathbf{r}) d\mathbf{r} \right)
Compact Formula
avg = (1/8) * Σ neighbors, s_{t+1} = (0.25 <= avg <= 0.45) ? s + 0.08 : s - 0.05
Renderer Logic
if (avg >= 0.25 && avg <= 0.45) {
  nextState[idx] = Math.min(1, current + 0.08);
} else {
  nextState[idx] = Math.max(0, current - 0.05);
}
Open in Playground Zero Dependencies • Standalone

Mathematical Tags

#cellular-automata #smoothlife #continuous #artificial-life #experimental #solitons
Author: Math Art Core Target: 60 FPS

Export & Embed: Continuous Life

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<iframe src="https://art.fazleyrabbi.xyz/embed/continuous-cellular-automata" width="500" height="500" frameborder="0" loading="lazy"></iframe>
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