Fork of Smiley Face Part III

Fork of Smiley Face Part III

This visualization displays a classic yellow smiley face centered on an SVG canvas, constructed with React and D3.js. It shows a circular face with a thick black stroke, two offset eyes, and a curved mouth arc. The code uses `d3.arc` to generate the mouth’s path, computing angles and radii for the arc shape. React’s declarative syntax defines the SVG elements, while D3 provides the geometric calculations for the arc’s inner and outer radius and start/end angles. The rendering is static, with no animation or interaction visible in the provided source.

Mmuhuribiz

Fork of Smiley Face Part III

This visualization renders a classic yellow smiley face using React and D3. The face is drawn with SVG circles for the head and eyes, and a D3 arc generator for the mouth. The `arc()` function creates a smile-shaped path by specifying inner and outer radii, mouth width, and start and end angles in radians. All elements are positioned relative to a center point using translate, with the React component managing the SVG markup and D3 handling the path geometry.

EEugenio2192

Fork of Smiley Face Part III

A smiling face is rendered as a yellow circle with black outline, two eyes, and a curved mouth, all centered in an SVG canvas. The visualization demonstrates a React and D3 integration where D3’s `arc()` generator creates the mouth path, while React elements define the circles. The code uses React 16.9, D3 v5, and renders via SVG, with fixed dimensions of 960 by 500 pixels and computed positions based on center coordinates and offset constants.

Ssrzadran

Fork of Smiley Face Part III

This visualization renders a smiley face using React and D3, displaying a yellow circle with black stroke, two eyes, and a curved mouth. The code constructs the SVG elements by leveraging D3’s `arc` function to generate the mouth path, while React manages the component structure and rendering. It uses d3.v5 and React 16.9.0, with all shapes drawn directly in SVG coordinates.

JJean David

Fork of Smiley Face Part III

This example shows a classic smiley face rendered as a yellow circle with black stroke, two eyes, and a mouth arc. The visualization is built using React components that render SVG elements, with D3’s `arc()` function generating the mouth path. All geometry is computed from fixed pixel dimensions and offsets, and the SVG is centered on a 960-by-500 canvas. The code relies on React 16.9 and D3 v5, with no interactive or data-driven behavior.

Kkirukhin

Fork of Smiley Face Part III

A smiley face is drawn as a yellow circle with black stroke, two black eyes, and a mouth shaped as a thick arc, all rendered using React and D3.js. The face is centered within an SVG canvas, with the mouth created using d3.arc to define a path, while circles are placed using explicit coordinates. The visualization demonstrates a simple declarative approach, using React components for structure and D3 utilities for geometry.

BBjørnar Dalsnes

Fork of Smiley Face Part 3

This React and D3 visualization renders a smiley face as an SVG, built from a yellow background circle with a black stroke, two smaller circles for eyes, and a curved mouth path. The mouth is generated using D3’s `arc` API, which defines an annular sector with specified inner and outer radii and angular start and end points. The code explicitly sets the canvas dimensions, positions elements via a centered transform, and uses ReactDOM to render the SVG into the page. The static composition illustrates coordinate placement and D3’s geometric path generation within a React component.

Hhukbk

Fork of Smiley Face Part III

This visualization displays a classic smiley face rendered as a scalable vector graphic using React and D3 v7. The face consists of three circles—a yellow head with a black stroke and two black eyes—plus a mouth drawn as a D3 arc path. The code uses `d3.arc()` to generate the semicircular mouth and React’s `ReactDOM.render` to mount the SVG. All positions and radii are defined as JavaScript variables, making the face easily adjustable through constants like `eyeOffsetX` and `mouthRadius`.

AAmir