εγδνθ Documentation

A decentralized knowledge management system for the post-quantum internet generation. This documentation covers installation, core concepts, and API references.

Get Started API Docs

Core Concepts

  • Decentralized Knowledge Graph Architecture
  • Post-Quantum Cryptographic Signing
  • Zero-Knowledge Proof Integration

// Sample εγδνθ node initialization
const node = new EGDNT({
  network: 'mainnet',
  proofLevel: 'quantum',
  storage: { type: 'ipfs' }
});

await node.bootstrap(['dnsaddr://bootnode1', 'dnsaddr://bootnode2']);
console.log(await node.getStatus());
                

Data Sovereignty Layer

Implements advanced cryptographic techniques to ensure your knowledge persists across quantum computing advancements while maintaining complete data ownership through decentralized storage integration.

  • Quantum-resistant key derivation
  • Decentralized trust verification

Knowledge Management Framework

Sophisticated knowledge graph system designed for post-singularity information architectures, incorporating temporal versioning, multi-dimensional categorization, and AI-assisted knowledge synthesis.

Concept graph visualization

API Reference

Node API

node.start()

Initializes the cryptographic protocols and connects to the network.

Returns: Promise<NodeStatus>
node.storeKnowledge()

Stores quantum-verified knowledge fragments with temporal metadata.

Arguments: { content: string, metadata: Object }
node.query()

Performs a zero-knowledge query across the distributed knowledge graph.

Arguments: { pattern: string, scope: string[] }

Utility Functions

egdnt.utils.hash()

Generates quantum-resistant hashes using lattice-based cryptography.

egdnt.utils.verify()

Verifies proofs from post-quantum cryptographic systems.

Frequently Asked Questions

Where is my data stored?

εγδνθ uses a hybrid storage model. Your knowledge is stored in IPFS with a quantum-resistant Merkle tree index in the εγδνθ network. All data remains under your control with cryptographic proofs for integrity verification.

What about quantum computers?

Our core infrastructure uses lattice-based cryptography (Kyber and Dilithium algorithms) which remains secure even against quantum attacks. All communications are protected through post-quantum TLS.

Can I contribute?

Absolutely! Check our GitHub for detailed contribution guidelines. We welcome implementations for new cryptographic primitives and knowledge synthesis algorithms.