Smiley Face Refractored

Smiley Face 1

A grid of eighteen randomly generated smiley faces fills the viewport, each face rendered through React components that assemble SVG circles for the head and eyes and a D3 arc path for the mouth. The `d3.arc()` API generates the mouth shape, while `Math.random()` varies each face’s stroke width, eye offset and radius, and mouth dimensions, resulting in a playful, diverse array of expressions. The SVG is composed in `FaceContainer`, which centers all elements via a translation group.

Kkizley

Smiley Face

A grid of eighteen smiley faces renders in React, each with randomized eye positions, eye radii, mouth widths, and stroke thicknesses. The faces are generated using D3 v7’s `arc()` generator for the mouth and SVG circles for the eyes and background. All components are React function components, with the overall layout using D3’s `range()` to create the array of faces. The SVG output is centered via a translation group.

DDrew Dudley

Smiley Face

A grid of 18 smiley faces renders in SVG via React, each with randomized eye positions, eye radii, and mouth dimensions. The faces are composed from modular components: a yellow background circle with a black stroke, two eyes, and a mouth drawn using the D3 `arc()` path generator. React's `range()` utility from D3 generates the face array, while each face receives identical width and height props but varying randomized parameters for its features. The visualization demonstrates composable, data-driven SVG generation through reusable React components and D3 shape helpers.

Tthe-birchman

Smiley Face

A grid of eighteen smiley faces renders in React, each with randomized eye and mouth dimensions. The visualization shows how reusable SVG components—BackgroundCircle, Eyes, and Mouth—compose with D3’s `arc()` generator to create the mouth path. A FaceContainer wraps the group with a centered translation, while the code uses the `range()` iterator from D3 to generate repeated faces. All geometry is drawn as SVG circles and paths, with yellow fill, black stroke, and variable stroke widths, highlighting component-driven parametric design in a static, non-interactive layout.

CChristopher Cleland

Smiley Faces

The visualization displays a grid of 18 randomly generated smiley faces rendered as SVG elements. Each face features a yellow circular head, black stroke outline, two eyes, and a mouth drawn using a d3 arc path. The code uses React components, d3 v7, and the `arc()` API to construct each facial feature. Slight random variations in stroke width, eye offset, eye radius, and mouth dimensions make every face subtly unique.

NNaoto Nishimura

Smiley Face

The visualization displays a grid of eighteen randomly generated smiley faces, each rendered as an SVG. Built with React and D3 v7, the code composes faces from separate components for the background circle, eyes, and mouth. The mouth uses D3's `arc()` to create a smile shape. Each face is generated with randomized values for stroke width, eye position and radius, and mouth dimensions, producing a playful variety of expressions.

IIverefiner

Smiley Face Part 1

A grid of 18 smiley faces, each a yellow SVG circle with black stroke, displays randomized eye and mouth sizes. Using React components for the face structure and D3’s arc generator to draw the smile, the faces are rendered in an SVG container. The code varies eye radius, mouth width, and mouth radius via `Math.random()` within each face's props.

NNajamQ

Smiley Face

A grid of eighteen smiley faces, each rendered as a yellow circle with black stroke, two eyes, and a curved mouth, shows randomized variation in facial feature size and position. Built with React and D3, the code uses the `arc` generator from D3 to create the mouth path, while SVG circles form the face and eyes. The `range` function from D3 generates the array for the grid, and each face is positioned via a transformed group within an SVG container.

Iikerson