top of page
eidolon-gif.gif

Eidolon Mesh: AI Interface

Preview beta testing at 

vertjmf7fkjmf7fkjmf7.png
1000plus_edited.jpg

 

Distributed Knowledge Architechture

A self-organizing knowledge graph with emergent query capabilities.

Eidolon Mesh is a local-first knowledge management system that uses parallel resonance field querying to create coherent responses from fragmented information. Unlike traditional search, which returns isolated documents, Mesh synthesizes answers by combining semantically-related knowledge nodes weighted by connection strength and usage patterns.
 

Core Innovation: Resonance Field Querying

Traditional knowledge bases treat documents as independent units. Eidolon Mesh treats knowledge as an interconnected field where queries activate multiple resonance points simultaneously. The system:

  1. Propagates queries across semantic neighborhoods - Your question activates not just direct matches, but conceptually adjacent nodes.

  2. Weights responses by coherence decay - Frequently accessed connections strengthen; unused pathways naturally fade using biologically-inspired decay

  3. Synthesizes multi-node responses - Instead of returning documents, the system composes answers from the collective activation pattern.

MATH UI.png
MESH-Neurons566-Synapses67032.png

The Quorum Effect

When enough semantically-related nodes activate simultaneously, the system exhibits emergent behavior analogous to quorum sensing in distributed systems. This "quorum effect" enables:

  • Context-aware retrieval - The graph "remembers" previous queries through usage-weighted decay.

  • Self-organizing structure - High-coherence pathways strengthen automatically; noise attenuates.

  • Organic knowledge evolution - The graph topology adapts to your actual usage patterns, not predefined categories.

Technical Architecture

Knowledge Graph: Custom graph database using coherence-scored synaptic connections between semantic nodes (neurons). Each connection has:

  • Base coherence (semantic similarity).

  • Usage-based decay coefficient.

  • Last-access timestamp for fractal forgetting.

Query Engine: Parallel field activation with configurable strategies:

  • max-coherence: Strongest semantic matches.

  • max-connectivity: Most interconnected hubs.

  • diverse-hubs: Balanced coverage across domains.

  • balanced: Coherence + connectivity weighted.

Synthesis Layer: LLM-powered composition from activated node set, maintaining source attribution and coherence scoring.

meshcluster.png

Use Cases

Research & Academia: Build a living literature review that surfaces connections between papers automatically as you query. The graph learns your research domain's structure through usage.

Technical Documentation: Create self-organizing documentation archives where frequently-accessed pathways strengthen, while outdated information naturally attenuates.

Knowledge Work: Transform fragmented notes, articles, and documents into a queryable knowledge organism that provides synthesized answers rather than search results.

Enterprise Knowledge Management: Deploy organization-wide knowledge graphs that adapt to team usage patterns without manual curation.

Key Features

  • Local-first architecture - Your data stays on your machine. Full functionality without cloud dependencies.

  • Multi-repository support - Separate knowledge domains (work, research, personal) with independent graph topologies.

  • YAML-based storage - Human-readable, git-compatible knowledge units ("proteins").

  • Gemini API integration - Leverages modern LLMs for synthesis while maintaining local graph control.

  • Usage-based memory - Fractal decay system prevents information overload while preserving frequently-accessed pathways.

  • Visual graph explorer - WebGL-powered 3D visualization of your knowledge topology.

bottom of page