1. Faces

Face

A grid of eighteen identical cartoon faces fills the viewport, each composed of a yellow circular head with black outline, two small eyes, and a mouth. The faces are generated as React components, using D3's `arc` API to create the mouth shape from a set of radius and width parameters. The SVG rendering is driven by a `FaceContainer` that translates the coordinate system, and all visual properties are passed as explicit props.

8888Midas888

Face part 1

A grid of eighteen randomly generated cartoon faces, each composed of a yellow circular background, two black eyes, and an arc-shaped mouth, renders in a 3×6 layout. The faces are created using React components, with SVG circles for the head and eyes, and a D3 arc for the mouth. Feature sizes and positions vary per face through randomized parameters.

MMareno Demmers

Face1

A grid of thirty cartoon faces, each rendered as an independent SVG component, demonstrates how React composes reusable visualization elements. Each face uses D3’s `arc` generator to draw a mouth with a randomized arc angle and radius, while static SVG circles form the background, eyes, and outer stroke. The faces vary randomly in eye size, eye offset, mouth radius, and mouth width, all generated by `Math.random()` within fixed ranges. The code uses React 17, D3 v6, and SVG within a `FaceContainer` that translates a group to each face’s center.

TTung Pham

My Face

A grid of eighteen faces, each composed of SVG shapes, is rendered using React and D3. The face components, including a yellow background circle, black eyes, and a mouth arc, are drawn with randomized parameters for stroke width, eye radius, and mouth size. The mouth uses D3’s `arc` function to generate a path, while the layout is positioned via SVG transformations within a `FaceContainer` that sets the canvas dimensions.

SSnaglaGrobspit

SVG face w/ React

A grid of eighteen randomly generated cartoon faces fills the screen, each with a yellow head, two eyes, and an arc-shaped mouth. The example demonstrates reusable React functional components, including `Face`, `Eyes`, and `Mouth`, which render SVG elements. It uses the `d3.arc` API to define mouth paths, `d3.range` to generate the grid, and random values for each face's dimensions. The `FaceContainer` component structures the SVG scaling, while `ReactDOM.render` mounts the application without animation or interaction.

AAnthony Ynami

let's make a face

A grid of eighteen cartoon faces fills the screen, each rendered as a yellow SVG circle with black outlines, two eyes, and a curved mouth. The faces vary randomly in eye radius and mouth thickness, creating playful individual expressions. The example uses React components to compose each face from reusable parts, with the mouth path generated via `d3.arc` and the grid created by mapping over `d3.range`.

Bbdfee

React Face

Eighteen identical yellow cartoon faces form a grid, each rendered as a static SVG via React components. Each face uses D3’s `arc` generator to draw a smile, while eyes have randomized radii. The code defines reusable React components (`Face`, `Head`, `Eye`, `Mouth`) and passes fixed geometry constants from `index.js`, with `ReactDOM.render` placing the array of faces into the DOM.

Jjlin2002

First face

The visualization displays a grid of simplified cartoon faces, each composed of a yellow circular background, two eyes, and an arc-shaped mouth. The faces are rendered as SVG elements using React components, with each face receiving randomized values for stroke width, eye offset, eye radius, and mouth dimensions. The code leverages d3.arc to generate the mouth path, while React manages the component structure and rendering of the faces. The grid layout is produced by mapping over an array generated with d3.range.

GGulshan kumar