Fork of Smiley Face Part IV

Fork of Smiley Face Part IV

A React component renders a yellow smiley face using SVG, with two eyes and a curved mouth drawn via a D3 arc path. The face’s circular background is a yellow circle with a black stroke, and the eyes are simple circles offset from the center. The code imports the `arc` function from D3 v5 to generate the mouth’s path, while React manages the component structure. Rendering occurs in an SVG container sized 960 by 500 pixels, with all elements positioned relative to the center.

Wwisdomseal

Fork of Smiley Face Part IV

A React component renders a classic smiley face as an SVG graphic, with a yellow circle for the head, black eyes, and an arched mouth. The visualization demonstrates how D3’s `arc` generator defines the mouth’s curved path, while the head and eyes are drawn as basic SVG circle elements. The code combines React’s declarative component structure with D3’s geometry utilities, using fixed pixel dimensions and coordinates to position each facial feature within a 960 by 500 viewport. The example highlights the integration of D3’s shape generation inside a React-rendered SVG.

Ssd2beatles

Fork of Smiley Face Part IV

A React component renders a yellow smiley face as SVG, with a filled circle for the head, two smaller circles for eyes, and a curved path for the mouth. The visualization uses D3's `arc` generator to compute the mouth’s path, while React manages the SVG elements and props. The code imports `arc` from `d3` and defines geometric constants for positioning. The face is centered within a 960 by 500 viewport, with the background circle’s radius and stroke width calculated to fit the frame. No external data is loaded; all shapes are defined programmatically.

AAvonlea Fisher

Fork of Smiley Face Part IV

A React component renders a yellow smiley face as an SVG graphic, with a black-outlined head, two eyes, and a smiling mouth. The visualization uses D3’s `arc` generator to create the mouth path, while React JSX defines the SVG elements, including a reusable BackgroundCircle component. All shapes are centered via a translated group, with fixed pixel dimensions for the canvas and explicit offsets for facial features.

JJasmine Ye Han

Fork of Smiley Face Part IV

A React component renders a yellow smiley face in SVG using D3's arc generator for the mouth. The face consists of a background circle with a thick black stroke, two eye circles, and a mouth path created by `d3.arc()` with specified inner and outer radii and start/end angles. Layout is computed manually with fixed dimensions and offsets, and React's JSX syntax defines each SVG element.

YYedrup

Fork of Smiley Face Part IV

This example shows a smiley face rendered as an SVG graphic using React and D3. The face is built from a yellow background circle, two dark eyes, and a mouth drawn as an arc path. React components structure the SVG elements, while the D3 `arc` generator defines the mouth’s shape with inner and outer radii and start/end angles. The code uses `react` and `react-dom` for rendering and `d3.arc` for path generation, with fixed dimensions and offsets positioning the facial features.

Ddvinubius

Fork of Smiley Face Part III

A React component renders a yellow smiley face as an SVG graphic. The face consists of a circle for the head, two circles for eyes, and a mouth drawn as an arc path. D3’s `arc()` generator creates the mouth shape with specified inner and outer radii and angles. The code uses React 16.9 for the UI and D3 v5 for the arc calculation, positioning all elements relative to a central transform. The SVG is fixed at 960 by 500 pixels with a black stroke around the head.

VVlad Tukhtarov

Fork of Smiley Face Part IV

This example shows a yellow smiley face with black-outlined eyes and a curved mouth, centered on a white background. The visualization is built using React 16.9 and D3 v5, with D3’s `arc()` function generating the mouth path. React components render the SVG elements, including circles for the eyes and an SVG `<path>` for the mouth, while D3 handles the arc geometry. The fixed dimensions and hardcoded offsets define the face’s layout without external data.

GGeekboxer