Smiley Face Part 1

Llupica.matthew@gmail.com

Smiley Face Part I

A grid of six-by-three smiley faces renders as SVG via React, with each face randomly varying eye radius, mouth radius, and mouth width. The face is built from composable components: a yellow background circle, two eye circles, and a d3.arc-generated mouth path. The d3 range function creates the 18 faces, while the FaceContainer translates each face’s coordinate system to its center.

Smiley Face Part 1

A grid of randomized smiley faces appears as a modular React component composition, using reusable parts like `Face`, `BackgroundCircle`, `Eyes`, and `Mouth`. Each face is generated from `d3.range` and laid out via SVG elements, varying attributes such as stroke width, eye offset, eye radius, and mouth dimensions. The `d3.arc` API defines the mouth’s curved path, while `FaceContainer` handles SVG coordinate translation. D3 v7 provides the arc and range utilities within the React rendering flow.

GGrace Valerie Anyango

Smiley Face Part I

A grid of twenty simple smiley faces, each rendered as an SVG circle with white-outlined eyes and a curved mouth. The example demonstrates reusable React components for the face, background, eyes, and mouth, composed within a container that centers each face. Random values for eye radius, mouth width, and mouth radius make every face slightly different. The code uses D3 v7’s `arc` generator to draw the mouth path, while React manages the component hierarchy and rendering.

GGUTHUBBERM

Smiley Face Part 1

A grid of 18 randomly generated smiley faces, each with unique eye positions, pupil offsets, mouth shapes, and RGB face colors, displays the compositional possibilities of a reusable React component. The code constructs each face using SVG primitives through React components like `BackgroundCircle`, `Eyes`, and `Mouth`, while `FaceContainer` handles the SVG coordinate translation. D3’s `arc` generates the mouth path, and `d3.range` produces the array that maps over to render each face instance.

KKevin McMorrow

Smiley Face Part 6

A grid of small SVG smiley faces is generated using React, with each face varying randomly in stroke width, eye size, and mouth width. The faces are composed of reusable components (`BackgroundCircle`, `Eyes`, `Mouth`) assembled within a `FaceContainer` that translates the center coordinates. The `Mouth` component uses D3's `arc()` function to create an arc path, while `range()` from D3 generates the array of faces. The rendering relies on React DOM to draw the scalable vector graphics.

Yyastika

Smiley Face Part 1

A grid of identical smiley faces renders in SVG via React, each composed of a yellow circle, two eyes, a red nose, and a D3 arc-based mouth. The `Face` component assembles the `BackGroundCircle`, `Eyes`, `Nose`, and `Mouth` subcomponents, with `d3.arc()` defining the mouth’s inner and outer radii and angles. The example uses d3.v6’s `range` to generate 18 faces, all sharing the same fixed parameters, demonstrating parameterized component reuse without variation.

RRenu

Smiley Face Part 1

A grid of fifteen randomly generated smiley faces demonstrates reusable React components for SVG visualization. Each face uses a yellow background circle with a radial gradient stroke, offset eyes, and an arc-based mouth drawn via d3.arc. The React components BackgroundCircle, Eyes, Mouth, and FaceContainer accept numeric props for controlling dimensions and positioning, while index.js generates random values using d3.range and Math.random. The faces render as SVG within a fixed-width viewport, showcasing composable visualization primitives.

AAustinSkrobar

Smiley Face Part 1

A grid of eighteen randomized smiley faces is rendered as SVG in React, each face composed of a yellow circle, two black eyes, and an arc-shaped mouth. The code uses React components like `Face`, `BackgroundCircle`, `Eyes`, and `Mouth`, with `FaceContainer` providing an SVG group. D3’s `arc` generator builds the mouth path, while `range` from D3 creates the array of faces. Random values for stroke width, eye offsets, eye radius, and mouth dimensions generate visual variation across the grid.

AALI Akbar SABZI