Force Directed Graph

Force Directed Graph

This example pairs a force-directed node-link diagram with an adjacency matrix to explore network structure. The graph layout is computed using `d3.forceSimulation` with `d3.forceLink` and `d3.forceManyBody` forces, and users can drag nodes or zoom via `d3.zoom`. Clicking a node highlights its corresponding row and column in the matrix, and clicking a matrix cell highlights the linked edge. Node colors encode group membership, while edge thickness reflects link weight.

Force Directed Graph

This example combines a force-directed graph with an adjacency matrix to visualize network connections. The graph uses `d3.forceSimulation` with `forceLink`, `forceManyBody`, and `forceCenter` to position nodes, while links are drawn as SVG lines with widths proportional to edge values. Clicking a node highlights its corresponding row and column in the matrix, and both elements support zooming via `d3.zoom`. Node colors and radii encode group membership, with a legend showing the six group categories.

LLigoon

Force Directed Graph

This example pairs a force-directed graph with an adjacency matrix to explore node-link diagrams and network connectivity. The graph uses D3’s `d3.forceSimulation` and `d3.forceLink` to position nodes, while the matrix encodes edge weights as cell opacity. Clicking a node or matrix cell highlights the corresponding row, column, and connected links. The code also enables drag interactions via `d3.drag` and zooming with `d3.zoom`, rendering everything as SVG.

Yyixinxu2020

Force Directed Graph

This example pairs a force-directed graph with an adjacency matrix to explore node-link relationships. The graph uses `d3.forceSimulation` with `forceLink`, `forceManyBody`, and `forceCenter` to position nodes, while drag and zoom interactions are enabled. Clicking a node or matrix cell highlights its row and column in the matrix and emphasizes connected links. Data is loaded from a CSV edges file, and rendering uses SVG circles, lines, and rectangles.

Force Directed Graph

This example combines a force-directed graph with an adjacency matrix to visualize network connections. Users can click a node in the graph or a grid cell in the matrix to highlight corresponding links, with the matrix using cell opacity to represent edge weight. The graph is rendered with SVG elements driven by `d3.forceSimulation`, `d3.forceLink`, `d3.forceManyBody`, and `d3.forceCenter`, while the matrix is built from `d3.csv` data. Interactive features include drag-and-drop via `d3.drag` and zooming through `d3.zoom`.

Cchungmin-yu

Force Directed Graph

This example pairs a force-directed node-link diagram with an adjacency matrix to visualize network connections. The node-link view uses D3’s `forceSimulation`, `forceLink`, and `forceManyBody` to position nodes, while the matrix encodes edge weights as cell opacity. Clicking a node highlights its corresponding row and column in the matrix, and clicking a matrix cell highlights the matching link in the diagram. SVG rendering supports interactive dragging and zooming via D3’s `drag` and `zoom` behaviors.

Force Directed Graph

This example pairs a force-directed graph with an adjacency matrix. Users can click a node in the graph or a cell in the matrix to highlight all corresponding links, with the graph rendered as an SVG. The layout is computed using `d3.forceSimulation` with `forceLink`, `forceManyBody`, and `forceCenter`, while the matrix cells are drawn as SVG rects with fill opacity reflecting edge weight. Both views support zoom and pan, and the graph nodes are draggable via d3-drag.

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