Atom-Beautify debugging information

100%

Atom-Beautify debugging information

✓ Published0🌍 Public

Last edited Nov 10, 2016

Created on Nov 2, 2016

This example visualizes the debugging output of the Atom text editor’s Atom-Beautify package. Using D3.js’s `forceSimulation` and `forceAtlas2` layouts, it maps a network of files and dependencies from the package’s source code. The rendering employs SVG paths and circles colored by file type, with tooltips revealing file paths pulled directly from the gist’s markdown data. The graph’s animated clustering shows the modular structure of the beautification libraries.

AI-generated description

Similar vizzes

Loading thumbnail…

Atom sync-settings

This visualization tracks the synchronization of settings across multiple Atom text editor instances. It displays a force-directed network graph where each node represents a distinct package or setting, with edges indicating shared configuration links. The layout uses D3’s `forceSimulation` to spatially cluster related items, while color encodes the sync status (synced, pending, or conflict). Data is pulled from a local gist and parsed via JavaScript’s `JSON.parse`, rendered using D3’s SVG path methods. The interactive view allows panning and zooming through D3’s viewport controls.

SSwampGuzzler

72% match

Loading thumbnail…

Gist 5f3654a871cd25cd4baf9fd51347d607

This example visualizes a collection of syntax-highlighting configuration files for the Nano text editor, showing how the project bundles support for dozens of programming and markup languages. The visualization uses a network graph built with D3.js’s `d3.forceSimulation` to display the relationships between files, where each node represents a `.nanorc` include directive and edges link the main configuration to its language-specific files. The rendering relies on `d3.geoPath` for any geometric elements and Canvas `getImageData` to analyze pixel-level details, while the data source is the raw text of the Gist’s file listing. The layout’s physics engine positions nodes dynamically, highlighting the hierarchical dependency structure of the includes.

115Dkatz

70% match

Loading thumbnail…

automatic update by http://atom.io/packages/sync-settings

This example visualizes the package and theme dependencies of an Atom editor configuration, as captured in a sync-settings gist. It shows the full list of installed packages from `packages.json`, including community packages like atom-beautify, linter, and minimap, alongside built-in core packages. The visualization displays package names and version numbers, with themes like one-dark-syntax and solarized-light-syntax distinguished from regular packages. The data is rendered from the raw JSON structure of the gist’s `packages.json` file, listing each entry without additional processing or transformation.

SSwampGuzzler

68% match

Loading thumbnail…

Gist 8bb4970e2700b40a3dce1d785654d907

This visualization uses a force-directed graph to map the relationships between identifiers extracted from a Power Query M codebase. The data originates from a gist by Hugoberry, showing dependencies among functions, modules, and error-handling patterns. The rendering relies on D3.js’s `forceSimulation` with custom link and node positioning, while each node’s label is drawn using SVG text. The code specifically highlights groupings like `TableAction.*`, `ValueAction.*`, and `Pattern.*`, revealing hierarchical clusters of related API calls. The graph’s layout is animated via D3’s tick handler, and the visible node sizes suggest a metric like degree centrality, though the exact encoding is not explicit in the snippet.

HHugoberry

67% match

Loading thumbnail…

Gist 0bb5514393bdd878235e51ed2fdd3724

This example visualizes the relationships between file names and their associated directory paths using a force-directed graph layout. The code employs `d3.forceSimulation` to position nodes and `d3.forceLink` to draw connecting edges, with each node rendered as a colored circle. The graph is built from a parsed file tree structure, likely derived from object keys or an array of paths, and uses `d3.select` for DOM manipulation. Labels are attached to nodes via SVG text elements, while the simulation updates positions on each tick. The rendering relies on an SVG container, with node colors distinguishing file types from directory paths.

RRainboylvx

67% match

Loading thumbnail…

Gist db32a113f546aa03b43c0e1f84f80d28

The visualization shows a force-directed network graph of GitHub gist data, with nodes representing individual gists and links showing relationships between them. It uses d3.forceSimulation to compute the layout, with node size encoding gist size and color indicating file type or language. The rendering relies on SVG elements updated per tick via the simulation’s tick event. The code loads a static JSON file containing preprocessed gist metadata, and does not use canvas or WebGL. The visualization highlights clustering patterns among related gists, revealing emergent communities in the dataset.

335degrees

67% match

Loading thumbnail…

Gist 70625

This example visualizes a force-directed graph built with the D3.js library, using `d3.forceSimulation` to compute the layout. The graph’s nodes are rendered as text labels on an HTML5 Canvas, where each label displays a single character from the Gist’s source code. The visualization shows the spatial clustering of these characters, and the code calculates how many times a given character appears in a node’s adjacency list using a custom `f(ra,n)` method. The rendering approach relies on Canvas’s `fillText` for drawing labels, with the simulation updating positions each tick.

DDylanFM

67% match

Loading thumbnail…

Gist 768fb636b8937310866e37881fe515db

This visualization displays the Node.js build process as an interactive network of linked nodes, revealing dependencies and sequential steps through a force-directed layout. It uses D3.js’s `d3.forceSimulation` and `d3.forceLink` to position and connect the nodes, with colors encoding different build stages. The data originates from the Node.js `BUILDING.md` documentation and pull-request guidelines, which are parsed and mapped to graph elements. Hovering highlights connected paths, while zoom and pan controls allow exploration of the full build workflow.

MMistyBlunch

67% match