Simley D3 and React Part VI

Simley Face Part Completed

A grid of eighteen yellow smiley faces fills the screen, each rendered as a separate React component with slight random variations in eye size, mouth width, and mouth radius. The faces are drawn using SVG circles and a d3.arc path for the mouth, positioned within a translated group. The code composes reusable React components like BackgroundCircle, Eyes, and Mouth, and uses d3.range to generate the repeated instances.

RRahul Gupta

93% match

Simley D3 and React Part VII

A grid of randomly generated cartoon faces fills the screen, each with a yellow circular head, black outline, two eyes, and a D3 arc-based mouth. The example demonstrates reusable React components—BackgroundCircle, Eyes, Mouth, and Face—composed within an SVG container. D3 v7 generates the mouth paths via `d3.arc()`, while React’s `range()` from D3 creates an array of 45 faces, each with randomized dimensions for stroke, eye position, and mouth size. Rendering is entirely SVG-based without external data.

92% match

Simley D3 and React Part IV

A yellow smiley face rendered in SVG, built with React components and D3’s arc generator. The code defines reusable React elements for the background circle and eyes, while the mouth uses `d3.arc` with inner and outer radii plus start and end angles. D3 v7 and React 17 are loaded via CDN, and the SVG is centered using a `<g>` transform. The example demonstrates a declarative React-D3 integration, producing a static visualization without interactivity or data binding.

92% match

Simley D3 and React Part III

This example shows a yellow smiley face rendered as an SVG using React components, with D3’s `arc` generator creating the mouth path. The face is drawn with circles for the eyes and a semicircular mouth, centered via a `<g>` transform, while fixed constants define dimensions like eye offset and mouth radius. React 17 manages the DOM, and D3 v7 supplies the arc geometry, with styles applied through SVG attributes. The code demonstrates a simple integration where React handles the markup and D3 computes shape paths.

92% match

Smiley Face Part III

A grid of five smiley faces rendered in SVG through React, each with a yellow circular background, two eyes, and an arc-shaped mouth. The faces are positioned horizontally across a 960x500 canvas using an array of center coordinates. The visualization uses d3's arc generator to define the mouth path, while React components structure the face parts. The SVG drawing relies on React’s declarative syntax, with circle elements for the head and eyes, and a path for the mouth.

NNita

Smiley face part I

A grid of eighteen smiley faces is rendered, each with a randomized eye radius, creating subtle variation across the repeated motif. The visualization shows how reusable React components compose layered SVG shapes: a yellow background circle, two eyes, and a d3.arc-generated mouth path. The code imports React, ReactDOM, and d3 v5, using d3’s `arc` for the mouth and `range` for generating the array, all rendered through SVG elements within a `g` transform.

Zzyniax

Smiley Face Part Six

A grid of identical yellow smiley faces renders in a React application, each face composed of SVG circles and a path arc. The faces are generated using `ReactDOM.render` and a `range` from d3.v7, which maps 18 iterations to create multiple copies. Facial features are modular React components: `BackgroundCircle` sets the yellow face with a black stroke, `Eyes` positions two circles, and `Mouth` uses `arc` from d3 to draw a smile. Each face receives randomized eye radius values, producing subtle variation across the grid.

YYiyang Feng

Simley D3 and React Part II

This example shows a static smiley face drawn as a yellow circle with two black eyes, rendered in SVG. The visualization demonstrates how to integrate D3-style SVG drawing with React by using reusable JavaScript variables for dimensions and offsets. It uses React and ReactDOM to render the SVG elements, with hardcoded values for the face radius, eye position, and stroke width. The code defines constants for width, height, and eye geometry rather than using external data or interactive features, focusing on a minimal component-based approach.