yyz

Experimental generative art toolkit based on JSX and esbuild. Currently just a proof of concept! Don't rely on this for anything, but feel free to poke around and check out the code locally to test it.

git clone https://github.com/mattdesl/yyz.git

cd yyz
npm install
now run one of the sketches
node . sketches/DotSin.js
or...
node . sketches/RadialCircle.js
or...
node . sketches/Rings.js
or...
node . sketches/Random.js

Once it's running, open http://localhost:9966/, then you can edit the code in the selected

sketches/*.js

Cmd/Ctrl + S

See canvas-sketch for a similar toolkit (without JSX/esbuild) that is much more complete.

Sketches

Sketches are defined with JSX, like the following:

import { math, random } from "yyz";

export const settings = {
  dimensions: [1280, 1280],
  animate: true,
};
export default (props, { width, height, playhead }) => {
  const count = 20;
  const radius = 10;
  const margin = min(width, height) * 0.1;
  return math.range(count).map((i) => {
    const x = math.map(i, 0, count - 1, margin, width - margin);
    const offset = (sin((i / count) * 4 + playhead * PI * 2) * height) / 4;
    return ;
  });
};

Currently only a few basic builtins are included:

arc

rect

background

g

point

arcpath

segment

Components

You can define components just like in React et al, except the second argument is the "app state" i.e. width/height, current time in seconds, etc.

const CenteredArc = (props, { width, height }) => {
  // render something
  return 
};

export default () => {
  return 
}

Randomness

Each time you reload the page, you will get a fixed seeded randomness for the

yyz

Random.js

import { math, random } from "yyz";
import paperColors from "paper-colors";
import palettes from "nice-color-palettes";

export const settings = {
  dimensions: [1280, 1280],
};
export default (props, { width, height, playhead }) => {
  const count = 10;
  const points = [];
  const dim = Math.min(width, height);
  const margin = dim * 0.2;
  const background = random.pick(paperColors).hex;
  const palette = random.shuffle(random.pick(palettes)).slice(0, 3);
  for (let y = 0; y < count; y++) {
    for (let x = 0; x < count; x++) {
      const color = random.pick(palette);
      const px = math.mapRange(x, 0, count - 1, margin, width - margin);
      const py = math.mapRange(y, 0, count - 1, margin, height - margin);
      const radius = Math.abs(random.gaussian(0, dim * 0.02));
      const p = ;
      points.push(p);
    }
  }
  return {points};
};

Print Resolution Exports

Check the

settings

in

import { math, random } from "yyz";

export const settings = {
  units: "in",
  dimensions: [12, 12],
  pixelsPerInch: 300,
};
export default (props, { width, height, playhead }) => {
  const count = 10;
  const arcs = math.linspace(count).map((t) => {
    const x = math.mapRange(t, 0, 1, 0.25, 0.75 - 0.25 / 2) * width;
    const y = height / 2;
    const radius = math.mapRange(t, 0, 1, 0.05, 0.25) * width;
    const lineWidth = 0.005 * width;
    return (
      
    );
  });
  return {arcs};
};

More

This is very early stages, and might not go anywhere, or it might go somewhere. The main motivation here is modularization of generative art code, fast iterative development, agnostic render outputs (SVG, Canvas, WebGL, JSON, GLTF, etc), and eventual GUI and "no-code" wrappers with color pickers, sliders, component wiring, etc.

License

MIT, see LICENSE.md for details.