Skip to main content
100%

Gist 3511545

✓ Published0🌍 Public
VVeronicaM
Last edited Aug 29, 2012
Created on Aug 29, 2012

This visualization shows the structure of an X3D skeletal animation system, displaying how a single bone node is defined with hierarchical children and a wide range of attributes. The code uses an XSLT stylesheet to transform XML definitions, leveraging XMTA custom types for 3D data such as vectors, rotations, and floating-point lists. It reveals the bone’s properties like translation, rotation, scale, and inverse kinematics limits, as well as skinning coordinates and weights. The rendering approach is not shown, but the data structure is explicit in the XSLT file.

AI-generated description

Similar vizzes

Loading thumbnail…

Gist 3511582

This example uses an XSLT stylesheet to define a skinned 3D model type, organizing bones, muscles, segments, sites, skeleton, and skin as structured XML elements. It specifies attributes for spatial transforms like translation, rotation, and scale, along with default values for rendering. The code leverages XML Schema definitions for the 3D node types, with no JavaScript libraries or rendering APIs involved, as it focuses solely on the schema and markup structure rather than data visualization.

VVeronicaM
85% match
Loading thumbnail…

Gist 3512045

This visualization maps the structure of X3D scene-graph definitions by rendering an XML schema as a network of nodes and links. It shows how complex types, elements, and attribute groups interconnect through references and inheritance. The code uses D3.js’s `forceSimulation` to compute node positions and SVG paths to draw links between schema components. Node sizes and colors encode type hierarchy, while the XSLT source file is parsed to extract these relationships. The rendering approach relies on standard SVG elements and D3’s data-binding to reflect the schema’s nested dependencies.

VVeronicaM
82% match
Loading thumbnail…

Gist 3511675

This visualization renders an X3D IndexedFaceSet schema definition as a structured diagram, showing the hierarchical relationships between the complexType and its child elements (color, coord, normal, texCoord) along with their attributes and default values. The code uses XSLT transformations to process the XML schema, likely converting it into a graphical node-and-link representation. It highlights the element declarations, attribute groups, and type definitions from the X3D specification, with the source data being the gistfile1.xslt file. The visualization emphasizes the schema’s structure, including optional attributes like ccw, solid, and coordIndex, without implying any interactive or dynamic behavior.

VVeronicaM
80% match
Loading thumbnail…

Gist 3511575

This visualization displays the hierarchical structure of an X3D scene graph, showing how SBSite nodes contain nested child elements with spatial properties like center, rotation, scale, and translation. The code defines an XML Schema complex type that specifies the data model for these 3D site nodes, using XSLT to process the structure. It relies on XML Schema definitions for SFVec3f and SFRotation data types to represent three-dimensional vectors and rotations, with DefUseGroup attributes allowing node reuse. The example demonstrates how the scene graph's composition and geometric transformations are formally specified through this schema, enabling validation and processing of X3D content.

VVeronicaM
80% match
Loading thumbnail…

Gist 3511433

This example renders an X3D MovieTexture schema definition as a visual data-flow diagram. The XSLT file transforms XML schema markup into a structured graphic, likely using D3.js to map element and attribute nodes into a network layout with `d3.forceSimulation` for positioning. It visualizes the hierarchical relationship between the `MovieTexture` element and its attributes like `loop`, `speed`, and `url`, plus the associated `IS` child element. The rendering approach uses SVG paths and computed geometry, with styling inferred from the schema’s type definitions rather than raw data values.

VVeronicaM
76% match
Loading thumbnail…

Gist 3511474

This example visualizes the hierarchical structure of an XML Schema Definition (XSD) file, showing how complex types and elements relate through nested appearance and material definitions. The rendering relies on an XSLT transformation (gistfile1.xslt) to process the XSD, while the visualization itself uses d3.forceSimulation for node layout and d3.geoPath for any map-based elements. The code explicitly references XML Schema types like AppearanceType and SFMaterialNodeType, indicating the data source is the XSD’s type hierarchy. The display emphasizes the composition of appearance-related nodes, with material, texture, and textureTransform as child groups.

VVeronicaM
74% match
Loading thumbnail…

Gist 3511536

This example defines an XML Schema for a 3D animation type, specifying virtual characters and animation controls such as loop, speed, start and stop times, and transition duration. It uses XSLT to process the schema, referencing X3D-like node groups and attributes from the `xmta` namespace. The code models animation behavior through typed attributes like `SFBool` for looping and `SFFloat` for speed, with a `DefUseGroup` for reusability, but does not include any concrete visualization or rendering library.

VVeronicaM
74% match
Loading thumbnail…

Gist 3512083

This example shows the XML schema definition for a 3D Transform node, specifying how position, rotation, and scale attributes are structured for hierarchical scene graphs. It renders the schema as a formal type declaration using XSLT, with nested child elements referencing the SF3DNodeType group. The code uses XSLT’s complexType and element declarations to define the Transform element, including optional attributes like translation and rotation with default values, while also referencing the DefUseGroup attribute group for reuse and identification.

VVeronicaM
74% match