Smiley Face Part I

Smiley Face Part II

This example displays a grid of 18 smiley faces, each with randomized eye and mouth dimensions, producing a playful variety of expressions. The faces are constructed with React components for the background circle, eyes, and mouth, rendered as SVG elements. The mouth uses `d3.arc` with a fixed angle range to create a consistent smile, while JavaScript’s `Math.random` generates the per-face variations. D3’s `range` function supplies the array of 18 iterations, and the `FaceContainer` wraps each face in an SVG group.

FFulvio Vigilante

Smiley Face Part V

This example displays a grid of eighteen randomly generated smiley faces, each rendered as an independent React component. The faces vary in stroke width, eye position and radius, and mouth thickness and curvature. The visualization uses React with D3’s `arc` generator to create the mouth paths, while SVG circles compose the background and eyes. All faces share the same center point within a 160×160 viewport, and the code relies on `Math.random()` to produce each face’s unique attributes.

AAnthony Zornig

Smiley face. Part 1

This example shows a grid of 18 smiley faces, each with randomized facial features such as eye offset, eye radius, mouth width, and stroke thickness. The faces are rendered as SVG circles and paths using React components, with the mouth arc generated by the `d3.arc()` API. A shared `FaceContainer` translates the center point, while `BackgroundCircle`, `Eyes`, and `Mouth` compose each face. The data is generated procedurally with `d3.range()` and `Math.random()` in the top-level `App` component.

SSavenkov Igor

Smiley Face Part 1

A grid of randomly generated smiley faces is rendered, each face composed of a yellow background circle, black-stroked outline, two eyes, and a curved mouth. The faces vary in stroke width, eye offset, eye radius, and mouth dimensions, creating a playful array of distinct expressions. The React components structure the SVG elements, while the D3 arc generator (`d3.arc`) defines the mouth’s path. The code uses `ReactDOM.render` to display the faces, with each face’s properties computed from `Math.random()` within the `array.map` loop from `d3.range`.

11godfrey

Smiley Face Part #1

A grid of randomly generated smiley faces is displayed, each with animated variations in eye size, mouth width, and stroke thickness, rendered as SVG. The visualization uses React components to compose each face, while D3’s `arc` generator creates the curved mouth shape. Random values from D3’s `range` and `Math.random` drive the per-face parameters, producing playful diversity across the 18 faces.

GGul Jamal Zim

Smiley Face Part 1

This example displays a grid of 18 randomly generated smiley faces, each rendered as an SVG with a yellow background circle, two eyes, and a curved mouth. Using React components for the face parts and D3’s arc generator for the mouth path, the code applies random values to stroke width, eye offsets and radius, and mouth dimensions, creating varied expressions. The faces are composed via nested components like FaceContainer, BackgroundCircle, Eyes, and Mouth, all assembled and rendered through ReactDOM.

Ttmambrose

Smiley Face Part I

The example shows a grid of 18 randomly generated smiley faces, each rendered as a separate SVG element using React components. It demonstrates how D3’s `arc` API, imported from the `d3` library, constructs the mouth path, while React’s component-based structure modularizes the face into reusable parts like `BackgroundCircle`, `Eyes`, and `Mouth`. The `range` function from D3 generates the array of faces, and each face’s properties—such as stroke width, eye offset, and mouth radius—are randomized per instance, producing varied expressions.

RRajat Dangat

Smiley Face Part 6

This example displays a grid of eighteen smiley faces, each with randomized facial features such as eye position, eye radius, and mouth dimensions, generated using React components. The faces are rendered as SVG circles and arcs, with the mouth created using the d3.arc() API to compute a path. The code leverages React’s component structure with separate functions for the face, eyes, mouth, and background, and uses d3.range() to generate the array of faces. The rendering is purely client-side, with each face independently styled based on random values.

JJohn Jeevasaeyan