Fork of Let's Make a Face Part I

Fork of Let's Make a Face Part I

Eighteen identical smiley faces are rendered in a grid using React components. Each face is composed of a yellow background circle, two black eyes, and a mouth drawn with a D3 arc generator. The component structure separates the face into reusable parts: `FaceContainer`, `BackgroundCircle`, `Eyes`, and `Mouth`. While the overall layout is static, each eye’s radius is randomized, creating subtle variation across the repeated faces. The visualization relies on React for DOM rendering and D3’s `arc` API for the mouth path, with SVG used for all drawing.

Vvijaytayal

Fork of Let's Make a Face Part I

A grid of twenty small, static smiley faces renders in an SVG canvas. Each face consists of a yellow background circle with a black stroke, two circular eyes, and a mouth drawn with d3’s `arc` generator, creating a half-circle from inner and outer radii. The React application maps over a `d3.range(20)` array to produce these faces, with randomized eye radii for slight variation. The SVG is structured through reusable React components, including `FaceContainer` for the coordinate transform and `BackgroundCircle` for the base shape.

Ppornpat234

Fork of Let's Make a Face Part I

A grid of randomly generated smiley faces fills the screen, each face composed of a yellow circle, black eyes, and a mouth drawn as a half-circle arc. The code defines reusable React components—Face, Eyes, Mouth, and BackgroundCircle—that render SVG elements, while FaceContainer wraps the drawing in a translated group. Using d3.range to create fifteen face instances, each face varies in stroke width, eye offset, and eye radius through randomized properties. The mouth shape is generated with d3.arc, setting inner and outer radii and angle ranges to form a smile.

Ppfennig

Fork of Let's Make a Face Part I

This example shows a grid of fifteen smiley faces, each with randomized eye and mouth sizes, rendered as yellow SVG circles with black outlines. Built with React and D3 v7, the visualization uses reusable components like `FaceCircle`, `Eyes`, and `Mouth` to compose each face. The `Mouth` component leverages D3's `arc` generator to create a curved smile path, while the `FaceContainer` wraps the SVG elements and centers them via a translation transform.

JJulia

Fork of Let's Make a Face Part I

A grid of randomly generated smiley faces fills the viewport, each with a yellow circular head, black-outlined stroke, two eyes, and a curved mouth arc. The faces vary in stroke width, eye offset, eye radius, mouth width, and mouth radius, produced by a React app that maps over a `range(6*3)` array to render 18 `<Face>` components. Built with D3 v7’s `arc()` function for the mouth and SVG primitives like `<circle>` and `<path>`, the example uses React 17 and renders everything as SVG within a `FaceContainer` that translates each face to a centered position.

NNilsMar

Fork of Let's Make a Face Part I

A grid of eighteen yellow smiley faces, each with black outlines, eyes, and a curved mouth, is rendered as SVG. The faces are generated in React and D3 v7, using `arc()` from D3 to create the mouth shapes and `range()` to produce the array of components. Random eye radii vary the faces.

LLai Yi Ohlsen

Fork of Let's Make a Face Part II

This example shows a grid of eighteen randomly generated smiley faces, each rendered as an SVG composed of a yellow circular background, two eyes, a mouth, and teeth. The code uses React components for each facial feature and leverages the D3 arc generator to create the smiling mouth shapes. Faces vary in eye radius, mouth radius, smile width, and mouth width, producing a playful collection of distinct expressions. The visualization is built with React and D3 v7, with each face drawn using SVG elements within a transformed group.

Yyz830620

Fork of Let's Make a Face Part I

A grid of randomized smiley faces is generated using React components and rendered as SVG. Each face is composed of a yellow background circle, two eyes, and a mouth, with positions and sizes varying per face through JavaScript’s `Math.random()`. The visualization uses d3’s `arc` API to construct the mouth path and React’s `ReactDOM.render` to display the output. Faces are arranged via a `range` from d3, mapping over an array to produce multiple independent instances.

SShashwat Kumar