Fork of Fork of Smiley Face Part II

Fork of Fork of Fork of Smiley Face Part II

A yellow smiley face is drawn on an SVG canvas using React components, with circles for the head and eyes, an arc path for the mouth, and a polygon for the nose. The visualization is generated entirely through code, using d3.arc to compute the mouth’s curved path from inner and outer radii and angular start/end points. React renders the SVG elements, while D3 v6 provides the arc generator, and a hardcoded set of dimensions and offsets positions each facial feature relative to a centered translation group.

AAnthoVDO

Fork of Fork of Smiley Face Part II

This visualization shows a simple smiley face composed of a yellow circle, two eyes, and a curved mouth, rendered as SVG elements centered on a 960 by 500 canvas. The React component uses D3’s `arc` generator to create the mouth path with specified inner and outer radii and angular extents. React 16 renders the SVG structure, while D3 v5 supplies the arc calculation, with all positioning handled through translation and fixed pixel offsets.

Aawarczak

Fork of Smiley Face Part II

This example shows a yellow smiley face composed of SVG shapes, including a circular head, two eyes, two angled eyebrows, and an arc-based mouth, all centered within a fixed viewport. The visualization is built with React, using both `react-dom` and `d3`’s `arc` function to generate the mouth’s path geometry. Rendering occurs entirely as SVG elements, with coordinates and dimensions defined as constants within the JavaScript code, and the face is drawn using straightforward geometric primitives rather than external data.

SSven

Fork of Smiley Face Part II dandy

This example shows a simple smiley face composed of a yellow circular face, two black eyes, and a smile-shaped mouth rendered as SVG elements. The face is centered on a white background, with the mouth drawn using a D3 arc path generator to create the curved smile. Built with React components for the face, eyes, and mouth, the visualization uses D3 v7 for the arc shape and ReactDOM to render the SVG into the page. The code defines fixed dimensions and offsets to position the features proportionally.

Ddwandrowec

Fork of Smiley Face Part 2

This example shows a smiley face rendered as a yellow circle with two black eyes and a curved mouth, all drawn using SVG shapes. The face is centered on a 960-by-500 canvas, with the mouth created using the `d3.arc()` API to generate a path with inner and outer radii. React manages the component structure, while D3 v7 handles the geometric calculations for the arc. The visualization uses fixed numeric values for positioning, including eye offsets and radii, with no interactive behavior or data binding.

DDan Bo

Fork of Smiley Face Part III

This example displays a yellow smiley face composed of SVG shapes, centered on a 960x500 canvas with a black outlined circular head, two eyes, and a curved mouth. The visualization is built using React and D3, leveraging D3's `arc` function to generate the mouth's path with defined inner and outer radii and angular bounds. The remaining shapes are drawn as standard SVG `circle` elements, with all coordinates and dimensions predefined as constants within the React component.

Kkarumanchimanasa

Fork of Smiley face part 12

This example shows a yellow smiley face drawn with SVG shapes, featuring two black eyes and a curved mouth. The face is centered on a 960x500 canvas, with the head as a yellow circle outlined in black, offset eye circles, and a mouth created using the d3 `arc` function. React renders the SVG elements, while D3 v6 computes the mouth’s path geometry. The code uses fixed pixel values for positioning and sizing, and the smiley is drawn entirely from code with no external data.

550f1AG

Fork of Smiley Face Part II

This example renders a yellow smiley face using React and D3 v7, with an SVG drawing of a circular head, two eyes, and a curved mouth. The face is built from primitive shapes: circles for the head and eyes, and a D3 `arc` generator for the mouth, which is positioned using an inner and outer radius with angular start and end points. The visualization is centered via an SVG `<g>` transform and uses static, hardcoded data, demonstrating a simple, declarative approach to combining React components with D3’s geometry utilities.

TTchea JiaWei