Fork of Smiley Face Part V

Fork of Smiley Face Part VI

A grid of 18 randomly generated smiley faces, each with varied facial features, demonstrates reusable React components for scalable vector graphics. The code composes `FaceContainer`, `BackgroundCircle`, `Eyes`, and `Mouth` components, with the mouth drawn using the D3 `arc()` generator. Each face is rendered as an SVG element within the React tree, using ES6 modules and randomized parameters for stroke width, eye offset, eye radius, and mouth dimensions.

Bbart

Fork of Smiley Face Part V

A grid of procedurally generated smiley faces, each with randomized stroke width, eye offset, eye radius, and mouth dimensions, renders inside a React app. The code separates components into ES6 modules, including a reusable `Face` composed of `BackgroundCircle`, `Eyes`, and `Mouth`. D3’s `arc` API defines the mouth’s path, while the `range` function generates the array of faces. The SVG output is nested within a shared `FaceContainer`, demonstrating modular React composition with fragments and props.

FFloorNummer

Fork of Smiley Face Part V

A grid of 18 smiley faces, each with randomized eye and mouth sizes, renders as a React component tree. The code splits the visualization into separate ES6 modules, including `BackgroundCircle`, `Eyes`, `Mouth`, and `FaceContainer`, which wraps the faces in an SVG group. Using React Fragments, the `Eyes` component returns multiple circles, while `Mouth` builds an arc path with the `d3.arc()` API. The `index.js` file generates the grid with `d3.range()` and renders everything via `ReactDOM.render()`.

SS-Zins

Fork of Smiley Face Part V

A grid of smiling faces fills the screen, each with randomized eye size, eye spacing, and mouth radius. The visualization demonstrates modular React component composition, splitting the face into separate `BackgroundCircle`, `Eyes`, `Mouth`, and `FaceContainer` files using ES6 modules. It renders SVG via React and uses D3’s `arc` generator for the mouth path. Each face applies slight random variation to its features, creating a playful, varied array.

SSven

Fork of Smiley Face Part Iv

A grid of eighteen smiley faces is rendered, each with randomized eye radii while sharing identical positioning, stroke, and mouth parameters. The example demonstrates component composition in React, where `Face`, `BackgroundCircle`, `Eyes`, `Mouth`, and `FaceContainer` are assembled as reusable JSX components. D3’s `arc` generator creates the mouth path, while ReactDOM renders the SVG elements. Data originates from a `range(18)` array, and each face is generated with a `Math.random()` call for the eye size, producing subtle visual variation across the uniform grid.

Aadamacass

Fork of Smiley Face Part VI

A grid of eighteen randomly generated smiley faces renders in React, each with varied eye positions, mouth sizes, and stroke thickness. The faces are composed of reusable React components for the background circle, eyes, mouth, and face container, which uses an SVG group transform. D3's `arc` generator creates the mouth path, while React's `range` from D3 produces the array of faces. All rendering uses SVG within a React component hierarchy.

Ttvhorn

Fork of Smiley Face Part V

A grid of randomized smiley faces is rendered as SVG, each face using the same geometric layout but with independently varied dimensions for eyes, mouth, and stroke width. Built with React functional components split across multiple files, the code composes a `FaceContainer` that wraps `BackgroundCircle`, `Eyes`, and `Mouth` components. The mouth is drawn using D3’s `arc` generator, while `d3.range` generates the 6×3 array of faces. React Fragments group the eye circles, and each face is positioned via SVG transforms.

Pplusbeauxjours

Fork of Smiley Face Part V

A grid of eighteen smiley faces, each rendered as a separate React component, shows randomized eye radii and mouth sizes. The faces are composed of SVG circles and an arc-generated mouth path, with the `d3.arc` API computing the curved mouth shape. Each face uses React fragments to group its eyes, and the entire grid is generated by mapping over an array from `d3.range` within a React application.

JJasmine Ye Han