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3D visualization of notesGraph

A 3D visualization of interconnected MDX notes, inspired by the Obsidian Graph View. Each node is a note, seamlessly connected to related notes, for an immersive and intuitive way to navigate the web of information.

Roadmap
3D graphType
Obsidian GraphInspiration
Three.js / Babylon.jsRender

The concept

Features

3D node graph

Each MDX note is a node, connected by edges to related notes in three-dimensional space.

Interactive navigation

Zoom, pan, rotate, plus node selection and tooltips for exploring relationships.

Search & filter

Find and highlight nodes by keyword and attributes.

Obsidian-inspired

Extends the familiar Obsidian Graph View into an immersive 3D space.

Build plan

Roadmap

The general roadmap outlining the key steps to create and deploy the KBVE 3D Graph:

  1. Project Planning and Requirements Gathering

    • Define the scope and objectives of the KBVE Graph project.
    • Identify key features and functionalities needed for the 3D graph.
    • Gather and organize the MDX notes data to be visualized.

  2. Technology Stack Selection

    • Choose a 3D rendering library (e.g., Three.js, Babylon.js).
    • Select a framework for building the application (e.g., React, Vue).
    • Decide on a backend technology for data management (e.g., Node.js, Python).

  3. Initial Setup

    • Set up the development environment.
    • Initialize the project with the chosen framework and libraries.
    • Configure version control with Git.

  4. Data Preparation

    • Parse and structure the MDX notes into a suitable format for visualization.
    • Create a schema for nodes and edges representing the notes and their connections.

  5. Graph Data Management

    • Develop or integrate a database to store and manage the graph data.
    • Implement APIs for retrieving and updating graph data.

  6. 3D Graph Visualization

    • Set up the 3D rendering context using the chosen library.
    • Implement the core functionality to render nodes and edges in 3D space.
    • Add interactivity features like zoom, pan, and rotation.

  7. Node and Edge Representation

    • Design visual representations for nodes and edges.
    • Implement different styles and colors to distinguish node types and connections.

  8. Interactivity and User Controls

    • Add user controls for navigating the 3D graph (e.g., mouse and keyboard controls).
    • Implement node selection and tooltip functionality for detailed information.

  9. Search and Filter Functionality

    • Develop features for searching and filtering nodes based on keywords and attributes.
    • Implement highlighting and focus mechanisms for search results.

  10. Performance Optimization

    • Optimize rendering performance for large graphs.
    • Implement lazy loading and level of detail (LOD) techniques.

  11. UI/UX Design

    • Design a user-friendly interface for interacting with the graph.
    • Add UI elements like menus, buttons, and information panels.

  12. Testing

    • Conduct unit tests and integration tests to ensure functionality.
    • Perform user testing to gather feedback and improve usability.

  13. Documentation

    • Create comprehensive documentation for users and developers.
    • Include setup guides, API documentation, and usage instructions.

  14. Deployment Preparation

    • Set up hosting for the application (e.g., AWS, Heroku).
    • Configure continuous integration and deployment pipelines.

  15. Initial Deployment

    • Deploy the application to a staging environment for final testing.
    • Conduct a thorough review and fix any issues identified.

  16. Launch

    • Deploy the application to the production environment.
    • Announce the launch and provide access to users.

  17. Post-Launch Monitoring

    • Monitor application performance and user feedback.
    • Address any bugs or issues that arise post-launch.

  18. Ongoing Maintenance

    • Regularly update the application with new features and improvements.
    • Maintain the backend and ensure data integrity.

  19. Community and Support

    • Build a community around the KBVE Graph project.
    • Provide support and gather feedback for continuous enhancement.

  20. Future Enhancements

    • Plan and implement advanced features like collaboration, real-time updates, and AI-driven insights.
    • Continuously improve the user experience based on feedback and technological advancements.

Feedback

Community

Questions

Frequently asked

What is the KBVE Graph?

The KBVE Graph is a 3D visualization of interconnected MDX notes, inspired by the Obsidian Graph View, where each node represents a note and edges represent connections between related notes.

What is the KBVE Graph inspired by?

It is inspired by the Obsidian Graph View, extending the traditional 2D graph into a dynamic three-dimensional space for a more immersive way to explore note relationships.

How will the KBVE Graph be built?

The roadmap outlines selecting a 3D rendering library such as Three.js or Babylon.js, parsing MDX notes into a node-and-edge schema, adding interactivity like zoom, pan, rotation, search, and filtering, then optimizing performance for large graphs.