Fork of Let's Make a Face Part I

Fork of Let's Make a Face Part I

This example shows a stylized smiley face built from three reusable SVG components: a yellow background circle, a pair of eyes, and a mouth drawn as an arc. The face is positioned at the center of a 1060×500 SVG canvas using React components that receive geometry props for radii and offsets. The mouth path is generated with d3.arc(), while BackgroundCircle and Eyes render plain SVG circle elements. React 16.9 and D3 v7 work together, with all drawing handled declaratively through JSX.

Rrishyossarian

Fork of Let's Make a Face Part I

A stylized smiley face rendered with React and D3 v6, built from basic SVG shapes. The face features a yellow circle, two black eyes, and a mouth drawn using D3's `arc()` generator. A React component computes layout constants for the center, eye offsets, and dimensions, then transforms an SVG group to position the elements. The mouth arc uses inner and outer radii with a half-rotation, while the face circle is sized relative to the viewport height and stroke width.

VVladimirSharov

Fork of Let's Make a Face Part I

This example shows a stylized smiley face composed of a yellow circular background, two black eyes, and an arc-shaped mouth, all centered within an SVG viewport. The face is built from modular React components, with each part—such as the background circle, eyes, and mouth—defined in separate files and composed together. The mouth is generated using the D3 `arc` generator with specified inner and outer radii and angle extents. Rendering relies on React 18 and D3 v7, with SVG elements positioned by translating a group element to the center of the canvas.

Mmarouan-ben

Fork of Let's Make a Face Part I

This example shows a simplified smiley face drawn with SVG shapes: a yellow circle for the head, two black circles for eyes, and a curved mouth path. The mouth is created using the `d3.arc()` generator with inner and outer radii and start/end angles. The code uses React for component structure and rendering, while D3 v7 provides the arc calculation. The face is centered within a 960×500 viewport, with fixed positions for facial features based on defined offsets and dimensions.

NNayeer Bin Mahiuddin

Fork of Let's Make a Face Part I

A React component renders a stylized smiley face using SVG, with a yellow background circle, two black eyes, and a curved mouth drawn from an arc. The face is centered on a 960 by 500 canvas, with fixed eye offsets and mouth dimensions passed as props. The code uses React 16.7 and D3 v5's `arc` generator to create the mouth path, while the background and eyes are simple SVG circle elements.

Mmisstong

Fork of Let's Make a Face Part I

This example shows a stylized smiley face built with React and D3 v7, rendered as an SVG. It draws a yellow circle for the head, two black circles for eyes, and a mouth created using the D3 `arc` generator with specified radii and angles. The layout uses absolute positioning via `centerX`, `centerY`, and offset constants, while the SVG `circle` and `path` elements are generated declaratively through React components. The code demonstrates integration of D3’s shape utilities within a React rendering pipeline.

Bbhavani44

Fork of Let's Make a Face Part I

This example shows a simple smiley face constructed from nested SVG shapes, with a yellow circular head, two eyes, and a curved mouth arc, all centered on a 960×500 canvas. The face is built using React to render SVG elements, while D3’s `arc` generator creates the mouth path from angular start and end positions. Position and size values are defined as constants and applied via coordinate transforms. The code demonstrates a minimal integration of React and D3 for static geometric visualization.

SSimone

Fork of Fork of Let's Make a Face Part I

This example uses SVG to draw a stylized smiley face with yellow circular head, black outline, two eyes, and a mouth arc. Built with React and D3, it computes the face geometry through variables for center coordinates, offset distances, and radii. The D3 `arc` API constructs the mouth path by defining inner and outer radius along with start and end angles. All elements are positioned relative to a translated center coordinate system.

Bbhavani44