Force-Directed Graph new format

Force-Directed Graph click

This interactive visualization shows the character network from Les Misérables as a force-directed graph. Users can pan and zoom the SVG canvas, while hovering over nodes reveals character names and dragging nodes rearranges the layout dynamically. The graph uses d3.forceSimulation with forceLink and forceManyBody to position nodes, with link thickness and opacity scaled by connection weight via d3.scaleLinear. Node colors are randomly assigned per group, and the data comes from a text file parsed by a custom graphUtils function that extracts nodes, links, and weights from whitespace-separated values.

94% match

Force-Directed Graph

This interactive force-directed graph visualizes character co-appearance relationships from the *Les Misérables* dataset. Nodes represent characters and are colored by their assigned group, while black links connect characters that appear together. The visualization uses d3.forceSimulation with forceLink, forceManyBody, and forceCenter to compute physics-based layouts. Nodes and labels are rendered as SVG circles with drag functionality, and a zoom transform is applied via the d3 zoom controller.

93% match

Force Directed Graph

A force-directed graph displays character relationships from Les Misérables, with nodes colored by group affiliation and labeled with character names. The visualization uses d3.forceSimulation to position nodes and links, while a secondary label simulation keeps text labels readable. Hovering highlights a node's immediate neighbors by adjusting opacity. The SVG rendering includes zoom and drag interactions, and the data comes from the bundled data.json file.

KKarkG

92% match

Fork of Force-Directed Graph

This is an interactive force-directed graph that visualizes the network of characters from *Les Misérables*, based on the classic `miserables.json` dataset. Nodes are colored by their assigned group and can be dragged around the canvas, triggering the physics simulation to recalculate positions. Implemented with D3.js functions `forceSimulation`, `forceLink`, `forceManyBody`, `forceCenter`, and `drag`, the graph also supports zooming and panning via a `d3Zoom` handler, while node labels appear on hover. The SVG rendering displays nodes and links in full-screen, with node positions updated on each simulation tick.

92% match

Node2Vec Force-Directed Graph

This example visualizes the character co-occurrence network from Les Misérables as an interactive force-directed graph. Nodes represent characters, colored randomly by group affiliation, with labels and links showing relationships. The visualization uses d3.forceSimulation with forceLink, forceManyBody, and forceCenter to compute layout, while d3.drag and d3.zoom enable user interaction. Data loads from a remote JSON file containing the miserables dataset.

Force-Directed Graph

A force-directed graph visualizes character co-occurrence in *Les Misérables*, with nodes positioned so related characters cluster together. The simulation uses d3.forceSimulation with link, charge, and center forces, while nodes are draggable circles colored by cluster and links are lines with stroke-width scaled by co-occurrence value. The code loads data from a JSON file and renders everything as SVG.

MMNoichl

Force-Directed Graph

This force-directed graph visualizes character co-occurrence in *Les Miséables*, using a physical simulation to position related characters closer together. Based on data compiled by Donald Knuth, the layout applies charged-particle repulsion and spring-like link forces, with node color encoding community group and link thickness reflecting co-appearance frequency. The D3 v4 implementation precomputes the layout over 300 ticks, then renders static SVG circles and lines, with drag-and-drop interaction to explore the network.

GGerardoFurtado

Force-Directed Graph V3

This example shows a force-directed network graph of character interactions from the novel Les Misérables. The visualization displays nodes as unlabeled circles and links as straight lines, with the layout computed dynamically through a physics simulation. Using D3 v6 within a React framework, the code applies `d3.forceSimulation` with `forceManyBody`, `forceLink`, and `forceCenter` to position the 17 nodes and 14 links. The SVG elements update their coordinates on each simulation tick, though the data only includes a subset of the full character relationships.

Sschneich