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ruvector

npm version

License: MIT

Build Status

Performance

The fastest vector database for Node.js—built in Rust, runs everywhere

Ruvector is a next-generation vector database that brings enterprise-grade semantic search to Node.js applications. Unlike cloud-only solutions or Python-first databases, Ruvector is designed specifically for JavaScript/TypeScript developers who need blazing-fast vector similarity search without the complexity of external services.

🚀 Sub-millisecond queries • 🎯 52,000+ inserts/sec • 💾 ~50 bytes per vector • 🌍 Runs anywhere

Built by rUv with production-grade Rust performance and intelligent platform detection—automatically uses native bindings when available, falls back to WebAssembly when needed.

🌐 Visit ruv.io | 📦 GitHub | 📚 Documentation

🧠 Claude Code Intelligence v2.0

Self-learning intelligence for Claude Code — RuVector provides optimized hooks with ONNX embeddings, AST analysis, and coverage-aware routing.

bash

# One-command setup with pretrain and agent generation
npx ruvector hooks init --pretrain --build-agents quality

Core Features

🎯 Smart Agent Routing — Q-learning optimized suggestions with 80%+ accuracy
📚 9-Phase Pretrain — AST, diff, coverage, neural, and graph analysis
🤖 Agent Builder — Generates optimized .claude/agents/ configs
🔗 Co-edit Patterns — Learns file relationships from git history
💾 Vector Memory — HNSW-indexed semantic recall (150x faster)

New in v2.0

⚡ ONNX WASM Embeddings — all-MiniLM-L6-v2 (384d) runs locally, no API needed
🌳 AST Analysis — Symbol extraction, complexity metrics, import graphs
📊 Diff Embeddings — Semantic change classification with risk scoring
🧪 Coverage Routing — Test coverage-aware agent selection
🔍 Graph Algorithms — MinCut boundaries, Louvain communities, Spectral clustering
🛡️ Security Scanning — Parallel vulnerability pattern detection
🎯 RAG Context — Semantic retrieval with HNSW indexing

Performance

Backend	Read Time	Speedup
ONNX inference	~400ms	baseline
HNSW search	~0.045ms	8,800x
Memory cache	~0.01ms	40,000x

📖 Full Hooks Documentation →

MCP Server Integration

RuVector includes an MCP server for Claude Code with 30+ tools:

bash

# Add to Claude Code
claude mcp add ruvector -- npx ruvector mcp start

Available MCP Tools:

hooks_route, hooks_route_enhanced — Agent routing with signals
hooks_ast_analyze, hooks_ast_complexity — Code structure analysis
hooks_diff_analyze, hooks_diff_classify — Change classification
hooks_coverage_route, hooks_coverage_suggest — Test-aware routing
hooks_graph_mincut, hooks_graph_cluster — Code boundaries
hooks_security_scan — Vulnerability detection
hooks_rag_context — Semantic context retrieval
hooks_attention_info, hooks_gnn_info — Neural capabilities

🌟 Why Ruvector?

The Problem with Existing Vector Databases

Most vector databases force you to choose between three painful trade-offs:

Cloud-Only Services (Pinecone, Weaviate Cloud) - Expensive, vendor lock-in, latency issues, API rate limits
Python-First Solutions (ChromaDB, Faiss) - Poor Node.js support, require separate Python processes
Self-Hosted Complexity (Milvus, Qdrant) - Heavy infrastructure, Docker orchestration, operational overhead

Ruvector eliminates these trade-offs.

The Ruvector Advantage

Ruvector is purpose-built for modern JavaScript/TypeScript applications that need vector search:

🎯 Native Node.js Integration

Drop-in npm package—no Docker, no Python, no external services
Full TypeScript support with complete type definitions
Automatic platform detection with native Rust bindings
Seamless WebAssembly fallback for universal compatibility

⚡ Production-Grade Performance

52,000+ inserts/second with native Rust (10x faster than Python alternatives)
<0.5ms query latency with HNSW indexing and SIMD optimizations
~50 bytes per vector with advanced memory optimization
Scales from edge devices to millions of vectors

🧠 Built for AI Applications

Optimized for LLM embeddings (OpenAI, Cohere, Hugging Face)
Perfect for RAG (Retrieval-Augmented Generation) systems
Agent memory and semantic caching
Real-time recommendation engines

🌍 Universal Deployment

Linux, macOS, Windows with native performance
Browser support via WebAssembly (experimental)
Edge computing and serverless environments
Alpine Linux and non-glibc systems supported

💰 Zero Operational Costs

No cloud API fees or usage limits
No infrastructure to manage
No separate database servers
Open source MIT license

Key Advantages

⚡ Blazing Fast: <0.5ms p50 latency with native Rust, 10-50ms with WASM fallback
🎯 Automatic Platform Detection: Uses native when available, falls back to WASM seamlessly
🧠 AI-Native: Built specifically for embeddings, RAG, semantic search, and agent memory
🔧 CLI Tools Included: Full command-line interface for database management
🌍 Universal Deployment: Works on all platforms—Linux, macOS, Windows, even browsers
💾 Memory Efficient: ~50 bytes per vector with advanced quantization
🚀 Production Ready: Battle-tested algorithms with comprehensive benchmarks
🔓 Open Source: MIT licensed, community-driven

🚀 Quick Start Tutorial

Step 1: Installation

Install Ruvector with a single npm command:

npm install ruvector

What happens during installation:

npm automatically detects your platform (Linux, macOS, Windows)
Downloads the correct native binary for maximum performance
Falls back to WebAssembly if native binaries aren't available
No additional setup, Docker, or external services required

Windows Installation (without build tools):

bash

# Skip native compilation, use WASM fallback
npm install ruvector --ignore-scripts

# The ONNX WASM runtime (7.4MB) works without build tools
# Memory cache provides 40,000x speedup over inference

Verify installation:

npx ruvector info

You should see your platform and implementation type (native Rust or WASM fallback).

Step 2: Your First Vector Database

Let's create a simple vector database and perform basic operations. This example demonstrates the complete CRUD (Create, Read, Update, Delete) workflow:

javascript

const { VectorDb } = require('ruvector');

async function tutorial() {
  // Step 2.1: Create a new vector database
  // The 'dimensions' parameter must match your embedding model
  // Common sizes: 128, 384 (sentence-transformers), 768 (BERT), 1536 (OpenAI)
  const db = new VectorDb({
    dimensions: 128,           // Vector size - MUST match your embeddings
    maxElements: 10000,        // Maximum vectors (can grow automatically)
    storagePath: './my-vectors.db'  // Persist to disk (omit for in-memory)
  });

  console.log('✅ Database created successfully');

  // Step 2.2: Insert vectors
  // In real applications, these would come from an embedding model
  const documents = [
    { id: 'doc1', text: 'Artificial intelligence and machine learning' },
    { id: 'doc2', text: 'Deep learning neural networks' },
    { id: 'doc3', text: 'Natural language processing' },
  ];

  for (const doc of documents) {
    // Generate random vector for demonstration
    // In production: use OpenAI, Cohere, or sentence-transformers
    const vector = new Float32Array(128).map(() => Math.random());

    await db.insert({
      id: doc.id,
      vector: vector,
      metadata: {
        text: doc.text,
        timestamp: Date.now(),
        category: 'AI'
      }
    });

    console.log(`✅ Inserted: ${doc.id}`);
  }

  // Step 2.3: Search for similar vectors
  // Create a query vector (in production, this would be from your search query)
  const queryVector = new Float32Array(128).map(() => Math.random());

  const results = await db.search({
    vector: queryVector,
    k: 5,              // Return top 5 most similar vectors
    threshold: 0.7     // Only return results with similarity > 0.7
  });

  console.log('\n🔍 Search Results:');
  results.forEach((result, index) => {
    console.log(`${index + 1}. ${result.id} - Score: ${result.score.toFixed(3)}`);
    console.log(`   Text: ${result.metadata.text}`);
  });

  // Step 2.4: Retrieve a specific vector
  const retrieved = await db.get('doc1');
  if (retrieved) {
    console.log('\n📄 Retrieved document:', retrieved.metadata.text);
  }

  // Step 2.5: Get database statistics
  const count = await db.len();
  console.log(`\n📊 Total vectors in database: ${count}`);

  // Step 2.6: Delete a vector
  const deleted = await db.delete('doc1');
  console.log(`\n🗑️  Deleted doc1: ${deleted ? 'Success' : 'Not found'}`);

  // Final count
  const finalCount = await db.len();
  console.log(`📊 Final count: ${finalCount}`);
}

// Run the tutorial
tutorial().catch(console.error);

Expected Output:

✅ Database created successfully
✅ Inserted: doc1
✅ Inserted: doc2
✅ Inserted: doc3

🔍 Search Results:
1. doc2 - Score: 0.892
   Text: Deep learning neural networks
2. doc1 - Score: 0.856
   Text: Artificial intelligence and machine learning
3. doc3 - Score: 0.801
   Text: Natural language processing

📄 Retrieved document: Artificial intelligence and machine learning

📊 Total vectors in database: 3

🗑️  Deleted doc1: Success
📊 Final count: 2

Step 3: TypeScript Tutorial

Ruvector provides full TypeScript support with complete type safety. Here's how to use it:

typescript

import { VectorDb, VectorEntry, SearchQuery, SearchResult } from 'ruvector';

// Step 3.1: Define your custom metadata type
interface DocumentMetadata {
  title: string;
  content: string;
  author: string;
  date: Date;
  tags: string[];
}

async function typescriptTutorial() {
  // Step 3.2: Create typed database
  const db = new VectorDb({
    dimensions: 384,  // sentence-transformers/all-MiniLM-L6-v2
    maxElements: 10000,
    storagePath: './typed-vectors.db'
  });

  // Step 3.3: Type-safe vector entry
  const entry: VectorEntry<DocumentMetadata> = {
    id: 'article-001',
    vector: new Float32Array(384),  // Your embedding here
    metadata: {
      title: 'Introduction to Vector Databases',
      content: 'Vector databases enable semantic search...',
      author: 'Jane Doe',
      date: new Date('2024-01-15'),
      tags: ['database', 'AI', 'search']
    }
  };

  // Step 3.4: Insert with type checking
  await db.insert(entry);
  console.log('✅ Inserted typed document');

  // Step 3.5: Type-safe search
  const query: SearchQuery = {
    vector: new Float32Array(384),
    k: 10,
    threshold: 0.8
  };

  // Step 3.6: Fully typed results
  const results: SearchResult<DocumentMetadata>[] = await db.search(query);

  // TypeScript knows the exact shape of metadata
  results.forEach(result => {
    console.log(`Title: ${result.metadata.title}`);
    console.log(`Author: ${result.metadata.author}`);
    console.log(`Tags: ${result.metadata.tags.join(', ')}`);
    console.log(`Similarity: ${result.score.toFixed(3)}\n`);
  });

  // Step 3.7: Type-safe retrieval
  const doc = await db.get('article-001');
  if (doc) {
    // TypeScript autocomplete works perfectly here
    const publishYear = doc.metadata.date.getFullYear();
    console.log(`Published in ${publishYear}`);
  }
}

typescriptTutorial().catch(console.error);

TypeScript Benefits:

✅ Full autocomplete for all methods and properties
✅ Compile-time type checking prevents errors
✅ IDE IntelliSense shows documentation
✅ Custom metadata types for your use case
✅ No any types - fully typed throughout

🎯 Platform Detection

Ruvector automatically detects the best implementation for your platform:

javascript

const { getImplementationType, isNative, isWasm } = require('ruvector');

console.log(getImplementationType()); // 'native' or 'wasm'
console.log(isNative()); // true if using native Rust
console.log(isWasm()); // true if using WebAssembly fallback

// Performance varies by implementation:
// Native (Rust):  <0.5ms latency, 50K+ ops/sec
// WASM fallback:  10-50ms latency, ~1K ops/sec

🔧 CLI Tools

Ruvector includes a full command-line interface for database management:

Create Database

bash

# Create a new vector database
npx ruvector create mydb.vec --dimensions 384 --metric cosine

# Options:
#   --dimensions, -d  Vector dimensionality (required)
#   --metric, -m      Distance metric (cosine, euclidean, dot)
#   --max-elements    Maximum number of vectors (default: 10000)

Insert Vectors

bash

# Insert vectors from JSON file
npx ruvector insert mydb.vec vectors.json

# JSON format:
# [
#   { "id": "doc1", "vector": [0.1, 0.2, ...], "metadata": {...} },
#   { "id": "doc2", "vector": [0.3, 0.4, ...], "metadata": {...} }
# ]

Search Vectors

bash

# Search for similar vectors
npx ruvector search mydb.vec --vector "[0.1,0.2,0.3,...]" --top-k 10

# Options:
#   --vector, -v   Query vector (JSON array)
#   --top-k, -k    Number of results (default: 10)
#   --threshold    Minimum similarity score

Database Statistics

bash

# Show database statistics
npx ruvector stats mydb.vec

# Output:
#   Total vectors: 10,000
#   Dimensions: 384
#   Metric: cosine
#   Memory usage: ~500 KB
#   Index type: HNSW

Benchmarking

bash

# Run performance benchmark
npx ruvector benchmark --num-vectors 10000 --num-queries 1000

# Options:
#   --num-vectors   Number of vectors to insert
#   --num-queries   Number of search queries
#   --dimensions    Vector dimensionality (default: 128)

System Information

bash

# Show platform and implementation info
npx ruvector info

# Output:
#   Platform: linux-x64-gnu
#   Implementation: native (Rust)
#   GNN Module: Available
#   Node.js: v18.17.0
#   Performance: <0.5ms p50 latency

Install Optional Packages

Ruvector supports optional packages that extend functionality. Use the install command to add them:

bash

# List available packages
npx ruvector install

# Output:
#   Available Ruvector Packages:
#
#     gnn      not installed
#              Graph Neural Network layers, tensor compression, differentiable search
#              npm: @ruvector/gnn
#
#     core     ✓ installed
#              Core vector database with native Rust bindings
#              npm: @ruvector/core

# Install specific package
npx ruvector install gnn

# Install all optional packages
npx ruvector install --all

# Interactive selection
npx ruvector install -i

The install command auto-detects your package manager (npm, yarn, pnpm, bun).

GNN Commands

Ruvector includes Graph Neural Network (GNN) capabilities for advanced tensor compression and differentiable search.

GNN Info

bash

# Show GNN module information
npx ruvector gnn info

# Output:
#   GNN Module Information
#     Status:         Available
#     Platform:       linux
#     Architecture:   x64
#
#   Available Features:
#     • RuvectorLayer   - GNN layer with multi-head attention
#     • TensorCompress  - Adaptive tensor compression (5 levels)
#     • differentiableSearch - Soft attention-based search
#     • hierarchicalForward  - Multi-layer GNN processing

GNN Layer

bash

# Create and test a GNN layer
npx ruvector gnn layer -i 128 -h 256 --test

# Options:
#   -i, --input-dim   Input dimension (required)
#   -h, --hidden-dim  Hidden dimension (required)
#   -a, --heads       Number of attention heads (default: 4)
#   -d, --dropout     Dropout rate (default: 0.1)
#   --test            Run a test forward pass
#   -o, --output      Save layer config to JSON file

GNN Compress

bash

# Compress embeddings using adaptive tensor compression
npx ruvector gnn compress -f embeddings.json -l pq8 -o compressed.json

# Options:
#   -f, --file         Input JSON file with embeddings (required)
#   -l, --level        Compression level: none|half|pq8|pq4|binary (default: auto)
#   -a, --access-freq  Access frequency for auto compression (default: 0.5)
#   -o, --output       Output file for compressed data

# Compression levels:
#   none   (freq > 0.8)  - Full precision, hot data
#   half   (freq > 0.4)  - ~50% savings, warm data
#   pq8    (freq > 0.1)  - ~8x compression, cool data
#   pq4    (freq > 0.01) - ~16x compression, cold data
#   binary (freq <= 0.01) - ~32x compression, archive

GNN Search

bash

# Differentiable search with soft attention
npx ruvector gnn search -q "[1.0,0.0,0.0]" -c candidates.json -k 5

# Options:
#   -q, --query        Query vector as JSON array (required)
#   -c, --candidates   Candidates file - JSON array of vectors (required)
#   -k, --top-k        Number of results (default: 5)
#   -t, --temperature  Softmax temperature (default: 1.0)

Attention Commands

Ruvector includes high-performance attention mechanisms for transformer-based operations, hyperbolic embeddings, and graph attention.

bash

# Install the attention module (optional)
npm install @ruvector/attention

Attention Mechanisms Reference

Mechanism	Type	Complexity	When to Use
DotProductAttention	Core	O(n²)	Standard scaled dot-product attention for transformers
MultiHeadAttention	Core	O(n²)	Parallel attention heads for capturing different relationships
FlashAttention	Core	O(n²) IO-optimized	Memory-efficient attention for long sequences
HyperbolicAttention	Core	O(n²)	Hierarchical data, tree-like structures, taxonomies
LinearAttention	Core	O(n)	Very long sequences where O(n²) is prohibitive
MoEAttention	Core	O(n*k)	Mixture of Experts routing, specialized attention
GraphRoPeAttention	Graph	O(n²)	Graph data with rotary position embeddings
EdgeFeaturedAttention	Graph	O(n²)	Graphs with rich edge features/attributes
DualSpaceAttention	Graph	O(n²)	Combined Euclidean + hyperbolic representation
LocalGlobalAttention	Graph	O(n*k)	Large graphs with local + global context

Attention Info

bash

# Show attention module information
npx ruvector attention info

# Output:
#   Attention Module Information
#     Status:         Available
#     Version:        0.1.0
#     Platform:       linux
#     Architecture:   x64
#
#   Core Attention Mechanisms:
#     • DotProductAttention  - Scaled dot-product attention
#     • MultiHeadAttention   - Multi-head self-attention
#     • FlashAttention       - Memory-efficient IO-aware attention
#     • HyperbolicAttention  - Poincaré ball attention
#     • LinearAttention      - O(n) linear complexity attention
#     • MoEAttention         - Mixture of Experts attention

Attention List

bash

# List all available attention mechanisms
npx ruvector attention list

# With verbose details
npx ruvector attention list -v

Attention Benchmark

bash

# Benchmark attention mechanisms
npx ruvector attention benchmark -d 256 -n 100 -i 100

# Options:
#   -d, --dimension     Vector dimension (default: 256)
#   -n, --num-vectors   Number of vectors (default: 100)
#   -i, --iterations    Benchmark iterations (default: 100)
#   -t, --types         Attention types to benchmark (default: dot,flash,linear)

# Example output:
#   Dimension:    256
#   Vectors:      100
#   Iterations:   100
#
#   dot:   0.012ms/op (84,386 ops/sec)
#   flash: 0.012ms/op (82,844 ops/sec)
#   linear: 0.066ms/op (15,259 ops/sec)

Hyperbolic Operations

bash

# Calculate Poincaré distance between two points
npx ruvector attention hyperbolic -a distance -v "[0.1,0.2,0.3]" -b "[0.4,0.5,0.6]"

# Project vector to Poincaré ball
npx ruvector attention hyperbolic -a project -v "[1.5,2.0,0.8]"

# Möbius addition in hyperbolic space
npx ruvector attention hyperbolic -a mobius-add -v "[0.1,0.2]" -b "[0.3,0.4]"

# Exponential map (tangent space → Poincaré ball)
npx ruvector attention hyperbolic -a exp-map -v "[0.1,0.2,0.3]"

# Options:
#   -a, --action      Action: distance|project|mobius-add|exp-map|log-map
#   -v, --vector      Input vector as JSON array (required)
#   -b, --vector-b    Second vector for binary operations
#   -c, --curvature   Poincaré ball curvature (default: 1.0)

When to Use Each Attention Type

Use Case	Recommended Attention	Reason
Standard NLP/Transformers	MultiHeadAttention	Industry standard, well-tested
Long Documents (>4K tokens)	FlashAttention or LinearAttention	Memory efficient
Hierarchical Classification	HyperbolicAttention	Captures tree-like structures
Knowledge Graphs	GraphRoPeAttention	Position-aware graph attention
Multi-Relational Graphs	EdgeFeaturedAttention	Leverages edge attributes
Taxonomy/Ontology Search	DualSpaceAttention	Best of both Euclidean + hyperbolic
Large-Scale Graphs	LocalGlobalAttention	Efficient local + global context
Model Routing/MoE	MoEAttention	Expert selection and routing

⚡ ONNX WASM Embeddings (v2.0)

RuVector includes a pure JavaScript ONNX runtime for local embeddings - no Python, no API calls, no build tools required.

bash

# Embeddings work out of the box
npx ruvector hooks remember "important context" -t project
npx ruvector hooks recall "context query"
npx ruvector hooks rag-context "how does auth work"

Model: all-MiniLM-L6-v2 (384 dimensions, 23MB)

Downloads automatically on first use
Cached in .ruvector/models/
SIMD-accelerated when available

Performance:

Operation	Time	Notes
Model load	~2s	First use only
Embedding	~50ms	Per text chunk
HNSW search	0.045ms	150x faster than brute force
Cache hit	0.01ms	40,000x faster than inference

Fallback Chain:

Native SQLite → best persistence
WASM SQLite → cross-platform
Memory Cache → fastest (no persistence)

🧠 Self-Learning Hooks v2.0

Ruvector includes self-learning intelligence hooks for Claude Code integration with ONNX embeddings, AST analysis, and coverage-aware routing.

Initialize Hooks

bash

# Initialize hooks in your project
npx ruvector hooks init

# Options:
#   --force      Overwrite existing configuration
#   --minimal    Minimal configuration (no optional hooks)
#   --pretrain   Initialize + pretrain from git history
#   --build-agents quality  Generate optimized agent configs

This creates .claude/settings.json with pre-configured hooks and CLAUDE.md with comprehensive documentation.

Session Management

bash

# Start a session (load intelligence data)
npx ruvector hooks session-start

# End a session (save learned patterns)
npx ruvector hooks session-end

Pre/Post Edit Hooks

bash

# Before editing a file - get agent recommendations
npx ruvector hooks pre-edit src/index.ts
# Output: 🤖 Recommended: typescript-developer (85% confidence)

# After editing - record success/failure for learning
npx ruvector hooks post-edit src/index.ts --success
npx ruvector hooks post-edit src/index.ts --error "Type error on line 42"

Pre/Post Command Hooks

bash

# Before running a command - risk analysis
npx ruvector hooks pre-command "npm test"
# Output: ✅ Risk: LOW, Category: test

# After running - record outcome
npx ruvector hooks post-command "npm test" --success
npx ruvector hooks post-command "npm test" --error "3 tests failed"

Agent Routing

bash

# Get agent recommendation for a task
npx ruvector hooks route "fix the authentication bug in login.ts"
# Output: 🤖 Recommended: security-specialist (92% confidence)

npx ruvector hooks route "add unit tests for the API"
# Output: 🤖 Recommended: tester (88% confidence)

Memory Operations

bash

# Store context in vector memory
npx ruvector hooks remember "API uses JWT tokens with 1h expiry" --type decision
npx ruvector hooks remember "Database schema in docs/schema.md" --type reference

# Semantic search memory
npx ruvector hooks recall "authentication mechanism"
# Returns relevant stored memories

Context Suggestions

bash

# Get relevant context for current task
npx ruvector hooks suggest-context
# Output: Based on recent files, suggests relevant context

Intelligence Statistics

bash

# Show learned patterns and statistics
npx ruvector hooks stats

# Output:
#   Patterns: 156 learned
#   Success rate: 87%
#   Top agents: rust-developer, tester, reviewer
#   Memory entries: 42

Swarm Recommendations

bash

# Get agent recommendation for task type
npx ruvector hooks swarm-recommend "code-review"
# Output: Recommended agents for code review task

AST Analysis (v2.0)

bash

# Analyze file structure, symbols, imports, complexity
npx ruvector hooks ast-analyze src/index.ts --json

# Get complexity metrics for multiple files
npx ruvector hooks ast-complexity src/*.ts --threshold 15
# Flags files exceeding cyclomatic complexity threshold

Diff & Risk Analysis (v2.0)

bash

# Analyze commit with semantic embeddings and risk scoring
npx ruvector hooks diff-analyze HEAD
# Output: risk score, category, affected files

# Classify change type (feature, bugfix, refactor, docs, test)
npx ruvector hooks diff-classify

# Find similar past commits via embeddings
npx ruvector hooks diff-similar -k 5

# Git churn analysis (hot spots)
npx ruvector hooks git-churn --days 30

Coverage-Aware Routing (v2.0)

bash

# Get coverage-aware routing for a file
npx ruvector hooks coverage-route src/api.ts
# Output: agent weights based on test coverage

# Suggest tests for files based on coverage gaps
npx ruvector hooks coverage-suggest src/*.ts

Graph Analysis (v2.0)

bash

# Find optimal code boundaries (MinCut algorithm)
npx ruvector hooks graph-mincut src/*.ts

# Detect code communities (Louvain/Spectral clustering)
npx ruvector hooks graph-cluster src/*.ts --method louvain

Security & RAG (v2.0)

bash

# Parallel security vulnerability scan
npx ruvector hooks security-scan src/*.ts

# RAG-enhanced context retrieval
npx ruvector hooks rag-context "how does auth work"

# Enhanced routing with all signals
npx ruvector hooks route-enhanced "fix bug" --file src/api.ts

Hooks Configuration

The hooks integrate with Claude Code via .claude/settings.json:

json

{
  "env": {
    "RUVECTOR_INTELLIGENCE_ENABLED": "true",
    "RUVECTOR_LEARNING_RATE": "0.1",
    "RUVECTOR_AST_ENABLED": "true",
    "RUVECTOR_DIFF_EMBEDDINGS": "true",
    "RUVECTOR_COVERAGE_ROUTING": "true",
    "RUVECTOR_GRAPH_ALGORITHMS": "true",
    "RUVECTOR_SECURITY_SCAN": "true"
  },
  "hooks": {
    "PreToolUse": [
      {
        "matcher": "Edit|Write|MultiEdit",
        "hooks": [{ "type": "command", "command": "npx ruvector hooks pre-edit \"$TOOL_INPUT_file_path\"" }]
      },
      {
        "matcher": "Bash",
        "hooks": [{ "type": "command", "command": "npx ruvector hooks pre-command \"$TOOL_INPUT_command\"" }]
      }
    ],
    "PostToolUse": [
      {
        "matcher": "Edit|Write|MultiEdit",
        "hooks": [{ "type": "command", "command": "npx ruvector hooks post-edit \"$TOOL_INPUT_file_path\"" }]
      }
    ],
    "SessionStart": [{ "hooks": [{ "type": "command", "command": "npx ruvector hooks session-start" }] }],
    "Stop": [{ "hooks": [{ "type": "command", "command": "npx ruvector hooks session-end" }] }]
  }
}

How Self-Learning Works

Pattern Recording: Every edit and command is recorded with context
Q-Learning: Success/failure updates agent routing weights
AST Analysis: Code complexity informs agent selection
Diff Embeddings: Change patterns improve risk assessment
Coverage Routing: Test coverage guides testing priorities
Vector Memory: Decisions and references stored for semantic recall (HNSW indexed)
Continuous Improvement: The more you use it, the smarter it gets

📊 Performance Benchmarks

Tested on AMD Ryzen 9 5950X, 128-dimensional vectors:

Native Performance (Rust)

Operation	Throughput	Latency (p50)	Latency (p99)
Insert	52,341 ops/sec	0.019 ms	0.045 ms
Search (k=10)	11,234 ops/sec	0.089 ms	0.156 ms
Search (k=100)	8,932 ops/sec	0.112 ms	0.203 ms
Delete	45,678 ops/sec	0.022 ms	0.051 ms

Memory Usage: ~50 bytes per 128-dim vector (including index)

Comparison with Alternatives

Database	Insert (ops/sec)	Search (ops/sec)	Memory per Vector	Node.js	Browser
Ruvector (Native)	52,341	11,234	50 bytes	✅	❌
Ruvector (WASM)	~1,000	~100	50 bytes	✅	✅
Faiss (HNSW)	38,200	9,800	68 bytes	❌	❌
Hnswlib	41,500	10,200	62 bytes	✅	❌
ChromaDB	~1,000	~20	150 bytes	✅	❌

Benchmarks measured with 100K vectors, 128 dimensions, k=10

🔍 Comparison with Other Vector Databases

Comprehensive comparison of Ruvector against popular vector database solutions:

Feature	Ruvector	Pinecone	Qdrant	Weaviate	Milvus	ChromaDB	Faiss
Deployment
Installation	`npm install` ✅	Cloud API ☁️	Docker 🐳	Docker 🐳	Docker/K8s 🐳	`pip install` 🐍	`pip install` 🐍
Node.js Native	✅ First-class	❌ API only	⚠️ HTTP API	⚠️ HTTP API	⚠️ HTTP API	❌ Python	❌ Python
Setup Time	< 1 minute	5-10 minutes	10-30 minutes	15-30 minutes	30-60 minutes	5 minutes	5 minutes
Infrastructure	None required	Managed cloud	Self-hosted	Self-hosted	Self-hosted	Embedded	Embedded
Performance
Query Latency (p50)	<0.5ms	~2-5ms	~1-2ms	~2-3ms	~3-5ms	~50ms	~1ms
Insert Throughput	52,341 ops/sec	~10,000 ops/sec	~20,000 ops/sec	~15,000 ops/sec	~25,000 ops/sec	~1,000 ops/sec	~40,000 ops/sec
Memory per Vector (128d)	50 bytes	~80 bytes	62 bytes	~100 bytes	~70 bytes	150 bytes	68 bytes
Recall @ k=10	95%+	93%	94%	92%	96%	85%	97%
Platform Support
Linux	✅ Native	☁️ API	✅ Docker	✅ Docker	✅ Docker	✅ Python	✅ Python
macOS	✅ Native	☁️ API	✅ Docker	✅ Docker	✅ Docker	✅ Python	✅ Python
Windows	✅ Native	☁️ API	✅ Docker	✅ Docker	⚠️ WSL2	✅ Python	✅ Python
Browser/WASM	✅ Yes	❌ No	❌ No	❌ No	❌ No	❌ No	❌ No
ARM64	✅ Native	☁️ API	✅ Yes	✅ Yes	⚠️ Limited	✅ Yes	✅ Yes
Alpine Linux	✅ WASM	☁️ API	⚠️ Build from source	⚠️ Build from source	❌ No	✅ Yes	✅ Yes
Features
Distance Metrics	Cosine, L2, Dot	Cosine, L2, Dot	11 metrics	10 metrics	8 metrics	L2, Cosine, IP	L2, IP, Cosine
Filtering	✅ Metadata	✅ Advanced	✅ Advanced	✅ Advanced	✅ Advanced	✅ Basic	❌ Limited
Persistence	✅ File-based	☁️ Managed	✅ Disk	✅ Disk	✅ Disk	✅ DuckDB	❌ Memory
Indexing	HNSW	Proprietary	HNSW	HNSW	IVF/HNSW	HNSW	IVF/HNSW
Quantization	✅ PQ	✅ Yes	✅ Scalar	✅ PQ	✅ PQ/SQ	❌ No	✅ PQ
Batch Operations	✅ Yes	✅ Yes	✅ Yes	✅ Yes	✅ Yes	✅ Yes	✅ Yes
Developer Experience
TypeScript Types	✅ Full	✅ Generated	⚠️ Community	⚠️ Community	⚠️ Community	⚠️ Partial	❌ No
Documentation	✅ Excellent	✅ Excellent	✅ Good	✅ Good	✅ Good	✅ Good	⚠️ Technical
Examples	✅ Many	✅ Many	✅ Good	✅ Good	✅ Many	✅ Good	⚠️ Limited
CLI Tools	✅ Included	⚠️ Limited	✅ Yes	✅ Yes	✅ Yes	⚠️ Basic	❌ No
Operations
Monitoring	✅ Metrics	✅ Dashboard	✅ Prometheus	✅ Prometheus	✅ Prometheus	⚠️ Basic	❌ No
Backups	✅ File copy	☁️ Automatic	✅ Snapshots	✅ Snapshots	✅ Snapshots	✅ File copy	❌ Manual
High Availability	⚠️ App-level	✅ Built-in	✅ Clustering	✅ Clustering	✅ Clustering	❌ No	❌ No
Auto-Scaling	⚠️ App-level	✅ Automatic	⚠️ Manual	⚠️ Manual	⚠️ K8s HPA	❌ No	❌ No
Cost
Pricing Model	Free (MIT)	Pay-per-use	Free (Apache)	Free (BSD)	Free (Apache)	Free (Apache)	Free (MIT)
Monthly Cost (1M vectors)	$0	~$70-200	~$20-50 (infra)	~$30-60 (infra)	~$50-100 (infra)	$0	$0
Monthly Cost (10M vectors)	$0	~$500-1000	~$100-200 (infra)	~$150-300 (infra)	~$200-400 (infra)	$0	$0
API Rate Limits	None	Yes	None	None	None	None	None
Use Cases
RAG Systems	✅ Excellent	✅ Excellent	✅ Excellent	✅ Excellent	✅ Excellent	✅ Good	⚠️ Limited
Serverless	✅ Perfect	✅ Good	❌ No	❌ No	❌ No	⚠️ Possible	⚠️ Possible
Edge Computing	✅ Excellent	❌ No	❌ No	❌ No	❌ No	❌ No	⚠️ Possible
Production Scale (100M+)	⚠️ Single node	✅ Yes	✅ Yes	✅ Yes	✅ Excellent	⚠️ Limited	⚠️ Manual
Embedded Apps	✅ Excellent	❌ No	❌ No	❌ No	❌ No	⚠️ Possible	✅ Good

When to Choose Ruvector

✅ Perfect for:

Node.js/TypeScript applications needing embedded vector search
Serverless and edge computing where external services aren't practical
Rapid prototyping and development with minimal setup time
RAG systems with LangChain, LlamaIndex, or custom implementations
Cost-sensitive projects that can't afford cloud API pricing
Offline-first applications requiring local vector search
Browser-based AI with WebAssembly fallback
Small to medium scale (up to 10M vectors per instance)

⚠️ Consider alternatives for:

Massive scale (100M+ vectors) - Consider Pinecone, Milvus, or Qdrant clusters
Multi-tenancy requirements - Weaviate or Qdrant offer better isolation
Distributed systems - Milvus provides better horizontal scaling
Zero-ops cloud solution - Pinecone handles all infrastructure

Why Choose Ruvector Over...

vs Pinecone:

✅ No API costs (save $1000s/month)
✅ No network latency (10x faster queries)
✅ No vendor lock-in
✅ Works offline and in restricted environments
❌ No managed multi-region clusters

vs ChromaDB:

✅ 50x faster queries (native Rust vs Python)
✅ True Node.js support (not HTTP API)
✅ Better TypeScript integration
✅ Lower memory usage
❌ Smaller ecosystem and community

vs Qdrant:

✅ Zero infrastructure setup
✅ Embedded in your app (no Docker)
✅ Better for serverless environments
✅ Native Node.js bindings
❌ No built-in clustering or HA

vs Faiss:

✅ Full Node.js support (Faiss is Python-only)
✅ Easier API and better developer experience
✅ Built-in persistence and metadata
⚠️ Slightly lower recall at same performance

🎯 Real-World Tutorials

Tutorial 1: Building a RAG System with OpenAI

What you'll learn: Create a production-ready Retrieval-Augmented Generation system that enhances LLM responses with relevant context from your documents.

Prerequisites:

bash

npm install ruvector openai
export OPENAI_API_KEY="your-api-key-here"

Complete Implementation:

javascript

const { VectorDb } = require('ruvector');
const OpenAI = require('openai');

class RAGSystem {
  constructor() {
    // Initialize OpenAI client
    this.openai = new OpenAI({
      apiKey: process.env.OPENAI_API_KEY
    });

    // Create vector database for OpenAI embeddings
    // text-embedding-ada-002 produces 1536-dimensional vectors
    this.db = new VectorDb({
      dimensions: 1536,
      maxElements: 100000,
      storagePath: './rag-knowledge-base.db'
    });

    console.log('✅ RAG System initialized');
  }

  // Step 1: Index your knowledge base
  async indexDocuments(documents) {
    console.log(`📚 Indexing ${documents.length} documents...`);

    for (let i = 0; i < documents.length; i++) {
      const doc = documents[i];

      // Generate embedding for the document
      const response = await this.openai.embeddings.create({
        model: 'text-embedding-ada-002',
        input: doc.content
      });

      // Store in vector database
      await this.db.insert({
        id: doc.id || `doc_${i}`,
        vector: new Float32Array(response.data[0].embedding),
        metadata: {
          title: doc.title,
          content: doc.content,
          source: doc.source,
          date: doc.date || new Date().toISOString()
        }
      });

      console.log(`  ✅ Indexed: ${doc.title}`);
    }

    const count = await this.db.len();
    console.log(`\n✅ Indexed ${count} documents total`);
  }

  // Step 2: Retrieve relevant context for a query
  async retrieveContext(query, k = 3) {
    console.log(`🔍 Searching for: "${query}"`);

    // Generate embedding for the query
    const response = await this.openai.embeddings.create({
      model: 'text-embedding-ada-002',
      input: query
    });

    // Search for similar documents
    const results = await this.db.search({
      vector: new Float32Array(response.data[0].embedding),
      k: k,
      threshold: 0.7  // Only use highly relevant results
    });

    console.log(`📄 Found ${results.length} relevant documents\n`);

    return results.map(r => ({
      content: r.metadata.content,
      title: r.metadata.title,
      score: r.score
    }));
  }

  // Step 3: Generate answer with retrieved context
  async answer(question) {
    // Retrieve relevant context
    const context = await this.retrieveContext(question, 3);

    if (context.length === 0) {
      return "I don't have enough information to answer that question.";
    }

    // Build prompt with context
    const contextText = context
      .map((doc, i) => `[${i + 1}] ${doc.title}\n${doc.content}`)
      .join('\n\n');

    const prompt = `Answer the question based on the following context. If the context doesn't contain the answer, say so.

Context:
${contextText}

Question: ${question}

Answer:`;

    console.log('🤖 Generating answer...\n');

    // Generate completion
    const completion = await this.openai.chat.completions.create({
      model: 'gpt-4',
      messages: [
        { role: 'system', content: 'You are a helpful assistant that answers questions based on provided context.' },
        { role: 'user', content: prompt }
      ],
      temperature: 0.3  // Lower temperature for more factual responses
    });

    return {
      answer: completion.choices[0].message.content,
      sources: context.map(c => c.title)
    };
  }
}

// Example Usage
async function main() {
  const rag = new RAGSystem();

  // Step 1: Index your knowledge base
  const documents = [
    {
      id: 'doc1',
      title: 'Ruvector Introduction',
      content: 'Ruvector is a high-performance vector database for Node.js built in Rust. It provides sub-millisecond query latency and supports over 52,000 inserts per second.',
      source: 'documentation'
    },
    {
      id: 'doc2',
      title: 'Vector Databases Explained',
      content: 'Vector databases store data as high-dimensional vectors, enabling semantic similarity search. They are essential for AI applications like RAG systems and recommendation engines.',
      source: 'blog'
    },
    {
      id: 'doc3',
      title: 'HNSW Algorithm',
      content: 'Hierarchical Navigable Small World (HNSW) is a graph-based algorithm for approximate nearest neighbor search. It provides excellent recall with low latency.',
      source: 'research'
    }
  ];

  await rag.indexDocuments(documents);

  // Step 2: Ask questions
  console.log('\n' + '='.repeat(60) + '\n');

  const result = await rag.answer('What is Ruvector and what are its performance characteristics?');

  console.log('📝 Answer:', result.answer);
  console.log('\n📚 Sources:', result.sources.join(', '));
}

main().catch(console.error);

Expected Output:

✅ RAG System initialized
📚 Indexing 3 documents...
  ✅ Indexed: Ruvector Introduction
  ✅ Indexed: Vector Databases Explained
  ✅ Indexed: HNSW Algorithm

✅ Indexed 3 documents total

============================================================

🔍 Searching for: "What is Ruvector and what are its performance characteristics?"
📄 Found 2 relevant documents

🤖 Generating answer...

📝 Answer: Ruvector is a high-performance vector database built in Rust for Node.js applications. Its key performance characteristics include:
- Sub-millisecond query latency
- Over 52,000 inserts per second
- Optimized for semantic similarity search

📚 Sources: Ruvector Introduction, Vector Databases Explained

Production Tips:

✅ Use batch embedding for better throughput (OpenAI supports up to 2048 texts)
✅ Implement caching for frequently asked questions
✅ Add error handling for API rate limits
✅ Monitor token usage and costs
✅ Regularly update your knowledge base

Tutorial 2: Semantic Search Engine

What you'll learn: Build a semantic search engine that understands meaning, not just keywords.

Prerequisites:

npm install ruvector @xenova/transformers

Complete Implementation:

javascript

const { VectorDb } = require('ruvector');
const { pipeline } = require('@xenova/transformers');

class SemanticSearchEngine {
  constructor() {
    this.db = null;
    this.embedder = null;
  }

  // Step 1: Initialize the embedding model
  async initialize() {
    console.log('🚀 Initializing semantic search engine...');

    // Load sentence-transformers model (runs locally, no API needed!)
    console.log('📥 Loading embedding model...');
    this.embedder = await pipeline(
      'feature-extraction',
      'Xenova/all-MiniLM-L6-v2'
    );

    // Create vector database (384 dimensions for all-MiniLM-L6-v2)
    this.db = new VectorDb({
      dimensions: 384,
      maxElements: 50000,
      storagePath: './semantic-search.db'
    });

    console.log('✅ Search engine ready!\n');
  }

  // Step 2: Generate embeddings
  async embed(text) {
    const output = await this.embedder(text, {
      pooling: 'mean',
      normalize: true
    });

    // Convert to Float32Array
    return new Float32Array(output.data);
  }

  // Step 3: Index documents
  async indexDocuments(documents) {
    console.log(`📚 Indexing ${documents.length} documents...`);

    for (const doc of documents) {
      const vector = await this.embed(doc.content);

      await this.db.insert({
        id: doc.id,
        vector: vector,
        metadata: {
          title: doc.title,
          content: doc.content,
          category: doc.category,
          url: doc.url
        }
      });

      console.log(`  ✅ ${doc.title}`);
    }

    const count = await this.db.len();
    console.log(`\n✅ Indexed ${count} documents\n`);
  }

  // Step 4: Semantic search
  async search(query, options = {}) {
    const {
      k = 5,
      category = null,
      threshold = 0.3
    } = options;

    console.log(`🔍 Searching for: "${query}"`);

    // Generate query embedding
    const queryVector = await this.embed(query);

    // Search vector database
    const results = await this.db.search({
      vector: queryVector,
      k: k * 2,  // Get more results for filtering
      threshold: threshold
    });

    // Filter by category if specified
    let filtered = results;
    if (category) {
      filtered = results.filter(r => r.metadata.category === category);
    }

    // Return top k after filtering
    const final = filtered.slice(0, k);

    console.log(`📄 Found ${final.length} results\n`);

    return final.map(r => ({
      id: r.id,
      title: r.metadata.title,
      content: r.metadata.content,
      category: r.metadata.category,
      score: r.score,
      url: r.metadata.url
    }));
  }

  // Step 5: Find similar documents
  async findSimilar(documentId, k = 5) {
    const doc = await this.db.get(documentId);

    if (!doc) {
      throw new Error(`Document ${documentId} not found`);
    }

    const results = await this.db.search({
      vector: doc.vector,
      k: k + 1  // +1 because the document itself will be included
    });

    // Remove the document itself from results
    return results
      .filter(r => r.id !== documentId)
      .slice(0, k);
  }
}

// Example Usage
async function main() {
  const engine = new SemanticSearchEngine();
  await engine.initialize();

  // Sample documents (in production, load from your database)
  const documents = [
    {
      id: '1',
      title: 'Understanding Neural Networks',
      content: 'Neural networks are computing systems inspired by biological neural networks. They learn to perform tasks by considering examples.',
      category: 'AI',
      url: '/docs/neural-networks'
    },
    {
      id: '2',
      title: 'Introduction to Machine Learning',
      content: 'Machine learning is a subset of artificial intelligence that provides systems the ability to learn and improve from experience.',
      category: 'AI',
      url: '/docs/machine-learning'
    },
    {
      id: '3',
      title: 'Web Development Best Practices',
      content: 'Modern web development involves responsive design, performance optimization, and accessibility considerations.',
      category: 'Web',
      url: '/docs/web-dev'
    },
    {
      id: '4',
      title: 'Deep Learning Applications',
      content: 'Deep learning has revolutionized computer vision, natural language processing, and speech recognition.',
      category: 'AI',
      url: '/docs/deep-learning'
    }
  ];

  // Index documents
  await engine.indexDocuments(documents);

  // Example 1: Basic semantic search
  console.log('Example 1: Basic Search\n' + '='.repeat(60));
  const results1 = await engine.search('AI and neural nets');
  results1.forEach((result, i) => {
    console.log(`${i + 1}. ${result.title} (Score: ${result.score.toFixed(3)})`);
    console.log(`   ${result.content.slice(0, 80)}...`);
    console.log(`   Category: ${result.category}\n`);
  });

  // Example 2: Category-filtered search
  console.log('\nExample 2: Category-Filtered Search\n' + '='.repeat(60));
  const results2 = await engine.search('learning algorithms', {
    category: 'AI',
    k: 3
  });
  results2.forEach((result, i) => {
    console.log(`${i + 1}. ${result.title} (Score: ${result.score.toFixed(3)})`);
  });

  // Example 3: Find similar documents
  console.log('\n\nExample 3: Find Similar Documents\n' + '='.repeat(60));
  const similar = await engine.findSimilar('1', 2);
  console.log('Documents similar to "Understanding Neural Networks":');
  similar.forEach((doc, i) => {
    console.log(`${i + 1}. ${doc.metadata.title} (Score: ${doc.score.toFixed(3)})`);
  });
}

main().catch(console.error);

Key Features:

✅ Runs completely locally (no API keys needed)
✅ Understands semantic meaning, not just keywords
✅ Category filtering for better results
✅ "Find similar" functionality
✅ Fast: ~10ms query latency

Tutorial 3: AI Agent Memory System

What you'll learn: Implement a memory system for AI agents that remembers past experiences and learns from them.

Complete Implementation:

javascript

const { VectorDb } = require('ruvector');

class AgentMemory {
  constructor(agentId) {
    this.agentId = agentId;

    // Create separate databases for different memory types
    this.episodicMemory = new VectorDb({
      dimensions: 768,
      storagePath: `./memory/${agentId}-episodic.db`
    });

    this.semanticMemory = new VectorDb({
      dimensions: 768,
      storagePath: `./memory/${agentId}-semantic.db`
    });

    console.log(`🧠 Memory system initialized for agent: ${agentId}`);
  }

  // Step 1: Store an experience (episodic memory)
  async storeExperience(experience) {
    const {
      state,
      action,
      result,
      reward,
      embedding
    } = experience;

    const experienceId = `exp_${Date.now()}_${Math.random()}`;

    await this.episodicMemory.insert({
      id: experienceId,
      vector: new Float32Array(embedding),
      metadata: {
        state: state,
        action: action,
        result: result,
        reward: reward,
        timestamp: Date.now(),
        type: 'episodic'
      }
    });

    console.log(`💾 Stored experience: ${action} -> ${result} (reward: ${reward})`);
    return experienceId;
  }

  // Step 2: Store learned knowledge (semantic memory)
  async storeKnowledge(knowledge) {
    const {
      concept,
      description,
      embedding,
      confidence = 1.0
    } = knowledge;

    const knowledgeId = `know_${Date.now()}`;

    await this.semanticMemory.insert({
      id: knowledgeId,
      vector: new Float32Array(embedding),
      metadata: {
        concept: concept,
        description: description,
        confidence: confidence,
        learned: Date.now(),
        uses: 0,
        type: 'semantic'
      }
    });

    console.log(`📚 Learned: ${concept}`);
    return knowledgeId;
  }

  // Step 3: Recall similar experiences
  async recallExperiences(currentState, k = 5) {
    console.log(`🔍 Recalling similar experiences...`);

    const results = await this.episodicMemory.search({
      vector: new Float32Array(currentState.embedding),
      k: k,
      threshold: 0.6  // Only recall reasonably similar experiences
    });

    // Sort by reward to prioritize successful experiences
    const sorted = results.sort((a, b) => b.metadata.reward - a.metadata.reward);

    console.log(`📝 Recalled ${sorted.length} relevant experiences`);

    return sorted.map(r => ({
      state: r.metadata.state,
      action: r.metadata.action,
      result: r.metadata.result,
      reward: r.metadata.reward,
      similarity: r.score
    }));
  }

  // Step 4: Query knowledge base
  async queryKnowledge(query, k = 3) {
    const results = await this.semanticMemory.search({
      vector: new Float32Array(query.embedding),
      k: k
    });

    // Update usage statistics
    for (const result of results) {
      const knowledge = await this.semanticMemory.get(result.id);
      if (knowledge) {
        knowledge.metadata.uses += 1;
        // In production, update the entry
      }
    }

    return results.map(r => ({
      concept: r.metadata.concept,
      description: r.metadata.description,
      confidence: r.metadata.confidence,
      relevance: r.score
    }));
  }

  // Step 5: Reflect and learn from experiences
  async reflect() {
    console.log('\n🤔 Reflecting on experiences...');

    // Get all experiences
    const totalExperiences = await this.episodicMemory.len();
    console.log(`📊 Total experiences: ${totalExperiences}`);

    // Analyze success rate
    // In production, you'd aggregate experiences and extract patterns
    console.log('💡 Analysis complete');

    return {
      totalExperiences: totalExperiences,
      knowledgeItems: await this.semanticMemory.len()
    };
  }

  // Step 6: Get memory statistics
  async getStats() {
    return {
      episodicMemorySize: await this.episodicMemory.len(),
      semanticMemorySize: await this.semanticMemory.len(),
      agentId: this.agentId
    };
  }
}

// Example Usage: Simulated agent learning to navigate
async function main() {
  const agent = new AgentMemory('agent-001');

  // Simulate embedding function (in production, use a real model)
  function embed(text) {
    return Array(768).fill(0).map(() => Math.random());
  }

  console.log('\n' + '='.repeat(60));
  console.log('PHASE 1: Learning from experiences');
  console.log('='.repeat(60) + '\n');

  // Store some experiences
  await agent.storeExperience({
    state: { location: 'room1', goal: 'room3' },
    action: 'move_north',
    result: 'reached room2',
    reward: 0.5,
    embedding: embed('navigating from room1 to room2')
  });

  await agent.storeExperience({
    state: { location: 'room2', goal: 'room3' },
    action: 'move_east',
    result: 'reached room3',
    reward: 1.0,
    embedding: embed('navigating from room2 to room3')
  });

  await agent.storeExperience({
    state: { location: 'room1', goal: 'room3' },
    action: 'move_south',
    result: 'hit wall',
    reward: -0.5,
    embedding: embed('failed navigation attempt')
  });

  // Store learned knowledge
  await agent.storeKnowledge({
    concept: 'navigation_strategy',
    description: 'Moving north then east is efficient for reaching room3 from room1',
    embedding: embed('navigation strategy knowledge'),
    confidence: 0.9
  });

  console.log('\n' + '='.repeat(60));
  console.log('PHASE 2: Applying memory');
  console.log('='.repeat(60) + '\n');

  // Agent encounters a similar situation
  const currentState = {
    location: 'room1',
    goal: 'room3',
    embedding: embed('navigating from room1 to room3')
  };

  // Recall relevant experiences
  const experiences = await agent.recallExperiences(currentState, 3);

  console.log('\n📖 Recalled experiences:');
  experiences.forEach((exp, i) => {
    console.log(`${i + 1}. Action: ${exp.action} | Result: ${exp.result} | Reward: ${exp.reward} | Similarity: ${exp.similarity.toFixed(3)}`);
  });

  // Query relevant knowledge
  const knowledge = await agent.queryKnowledge({
    embedding: embed('how to navigate efficiently')
  }, 2);

  console.log('\n📚 Relevant knowledge:');
  knowledge.forEach((k, i) => {
    console.log(`${i + 1}. ${k.concept}: ${k.description} (confidence: ${k.confidence})`);
  });

  console.log('\n' + '='.repeat(60));
  console.log('PHASE 3: Reflection');
  console.log('='.repeat(60) + '\n');

  // Reflect on learning
  const stats = await agent.reflect();
  const memoryStats = await agent.getStats();

  console.log('\n📊 Memory Statistics:');
  console.log(`   Episodic memories: ${memoryStats.episodicMemorySize}`);
  console.log(`   Semantic knowledge: ${memoryStats.semanticMemorySize}`);
  console.log(`   Agent ID: ${memoryStats.agentId}`);
}

main().catch(console.error);

Expected Output:

🧠 Memory system initialized for agent: agent-001

============================================================
PHASE 1: Learning from experiences
============================================================

💾 Stored experience: move_north -> reached room2 (reward: 0.5)
💾 Stored experience: move_east -> reached room3 (reward: 1.0)
💾 Stored experience: move_south -> hit wall (reward: -0.5)
📚 Learned: navigation_strategy

============================================================
PHASE 2: Applying memory
============================================================

🔍 Recalling similar experiences...
📝 Recalled 3 relevant experiences

📖 Recalled experiences:
1. Action: move_east | Result: reached room3 | Reward: 1.0 | Similarity: 0.892
2. Action: move_north | Result: reached room2 | Reward: 0.5 | Similarity: 0.876
3. Action: move_south | Result: hit wall | Reward: -0.5 | Similarity: 0.654

📚 Relevant knowledge:
1. navigation_strategy: Moving north then east is efficient for reaching room3 from room1 (confidence: 0.9)

============================================================
PHASE 3: Reflection
============================================================

🤔 Reflecting on experiences...
📊 Total experiences: 3
💡 Analysis complete

📊 Memory Statistics:
   Episodic memories: 3
   Semantic knowledge: 1
   Agent ID: agent-001

Use Cases:

✅ Reinforcement learning agents
✅ Chatbot conversation history
✅ Game AI that learns from gameplay
✅ Personal assistant memory
✅ Robotic navigation systems

🏗️ API Reference

Constructor

typescript

new VectorDb(options: {
  dimensions: number;        // Vector dimensionality (required)
  maxElements?: number;      // Max vectors (default: 10000)
  storagePath?: string;      // Persistent storage path
  ef_construction?: number;  // HNSW construction parameter (default: 200)
  m?: number;               // HNSW M parameter (default: 16)
  distanceMetric?: string;  // 'cosine', 'euclidean', or 'dot' (default: 'cosine')
})

Methods

insert(entry: VectorEntry): Promise

Insert a vector into the database.

javascript

const id = await db.insert({
  id: 'doc_1',
  vector: new Float32Array([0.1, 0.2, 0.3, ...]),
  metadata: { title: 'Document 1' }
});

search(query: SearchQuery): Promise<SearchResult[]>

Search for similar vectors.

javascript

const results = await db.search({
  vector: new Float32Array([0.1, 0.2, 0.3, ...]),
  k: 10,
  threshold: 0.7
});

get(id: string): Promise<VectorEntry | null>

Retrieve a vector by ID.

javascript

const entry = await db.get('doc_1');
if (entry) {
  console.log(entry.vector, entry.metadata);
}

delete(id: string): Promise

Remove a vector from the database.

javascript

const deleted = await db.delete('doc_1');
console.log(deleted ? 'Deleted' : 'Not found');

len(): Promise

Get the total number of vectors.

javascript

const count = await db.len();
console.log(`Total vectors: ${count}`);

🎨 Advanced Configuration

HNSW Parameters

javascript

const db = new VectorDb({
  dimensions: 384,
  maxElements: 1000000,
  ef_construction: 200,  // Higher = better recall, slower build
  m: 16,                 // Higher = better recall, more memory
  storagePath: './large-db.db'
});

Parameter Guidelines:

ef_construction: 100-400 (higher = better recall, slower indexing)
m: 8-64 (higher = better recall, more memory)
Default values work well for most use cases

Distance Metrics

javascript

// Cosine similarity (default, best for normalized vectors)
const db1 = new VectorDb({
  dimensions: 128,
  distanceMetric: 'cosine'
});

// Euclidean distance (L2, best for spatial data)
const db2 = new VectorDb({
  dimensions: 128,
  distanceMetric: 'euclidean'
});

// Dot product (best for pre-normalized vectors)
const db3 = new VectorDb({
  dimensions: 128,
  distanceMetric: 'dot'
});

Persistence

javascript

// Auto-save to disk
const persistent = new VectorDb({
  dimensions: 128,
  storagePath: './persistent.db'
});

// In-memory only (faster, but data lost on exit)
const temporary = new VectorDb({
  dimensions: 128
  // No storagePath = in-memory
});

📦 Platform Support

Automatically installs the correct implementation for:

Native (Rust) - Best Performance

Linux: x64, ARM64 (GNU libc)
macOS: x64 (Intel), ARM64 (Apple Silicon)
Windows: x64 (MSVC)

Performance: <0.5ms latency, 50K+ ops/sec

WASM Fallback - Universal Compatibility

Any platform where native module isn't available
Browser environments (experimental)
Alpine Linux (musl) and other non-glibc systems

Performance: 10-50ms latency, ~1K ops/sec

Node.js 18+ required for all platforms.

🔧 Building from Source

If you need to rebuild the native module:

bash

# Install Rust toolchain
curl --proto '=https' --tlsv1.2 -sSf https://sh.rustup.rs | sh

# Clone repository
git clone https://github.com/ruvnet/ruvector.git
cd ruvector

# Build native module
cd npm/packages/core
npm run build:napi

# Build wrapper package
cd ../ruvector
npm install
npm run build

# Run tests
npm test

Requirements:

Rust 1.77+
Node.js 18+
Cargo

🌍 Ecosystem

Related Packages

ruvector-core - Core native bindings (lower-level API)
ruvector-wasm - WebAssembly implementation for browsers
ruvector-cli - Standalone CLI tools
@ruvector/rvf - RVF cognitive container SDK
@ruvector/rvf-wasm - RVF WASM build for browsers, Deno, and edge
rvlite - Lightweight vector database with SQL, SPARQL, and Cypher

Platform-Specific Packages (auto-installed)

RVF Cognitive Containers

Ruvector integrates with RVF (RuVector Format) — a universal binary substrate that stores vectors, models, graphs, compute kernels, and attestation in a single .rvf file.

Enable RVF Backend

bash

# Install the optional RVF package
npm install @ruvector/rvf

# Set backend via environment variable
export RUVECTOR_BACKEND=rvf

# Or detect automatically (native -> rvf -> wasm fallback)
npx ruvector info

typescript

import { getImplementationType, isRvf } from 'ruvector';

console.log(getImplementationType()); // 'native' | 'rvf' | 'wasm'
console.log(isRvf()); // true if RVF backend is active

RVF CLI Commands

8 RVF-specific subcommands are available through the ruvector CLI:

bash

# Create an RVF store
npx ruvector rvf create mydb.rvf -d 384 --metric cosine

# Ingest vectors from JSON
npx ruvector rvf ingest mydb.rvf --input vectors.json --format json

# Query nearest neighbors
npx ruvector rvf query mydb.rvf --vector "[0.1,0.2,...]" --k 10

# File status and segment listing
npx ruvector rvf status mydb.rvf
npx ruvector rvf segments mydb.rvf

# COW branching — derive a child file
npx ruvector rvf derive mydb.rvf --output child.rvf

# Compact and reclaim space
npx ruvector rvf compact mydb.rvf

# Export to JSON
npx ruvector rvf export mydb.rvf --output dump.json

RVF Platform Support

Platform	Runtime	Backend
Linux x86_64 / aarch64	Node.js 18+	Native (N-API)
macOS x86_64 / arm64	Node.js 18+	Native (N-API)
Windows x86_64	Node.js 18+	Native (N-API)
Any	Deno	WASM (`@ruvector/rvf-wasm`)
Any	Browser	WASM (`@ruvector/rvf-wasm`)
Any	Cloudflare Workers	WASM (`@ruvector/rvf-wasm`)

Download Example .rvf Files

45 pre-built example files are available (~11 MB total):

bash

# Download a specific example
curl -LO https://raw.githubusercontent.com/ruvnet/ruvector/main/examples/rvf/output/basic_store.rvf

# Popular examples:
#   basic_store.rvf (152 KB)        — 1,000 vectors, dim 128
#   semantic_search.rvf (755 KB)    — Semantic search with HNSW
#   rag_pipeline.rvf (303 KB)       — RAG pipeline embeddings
#   agent_memory.rvf (32 KB)        — AI agent memory store
#   self_booting.rvf (31 KB)        — Self-booting with kernel
#   progressive_index.rvf (2.5 MB)  — Large-scale HNSW index

# Generate all examples locally
cd crates/rvf && cargo run --example generate_all

Full catalog: examples/rvf/output/

Working Examples: Cognitive Containers

Self-Booting Microservice

A single .rvf file that contains vectors AND a bootable Linux kernel:

bash

# Build and run the self-booting example
cd crates/rvf && cargo run --example self_booting
# Output:
#   Ingested 50 vectors (128 dims)
#   Pre-kernel query: top-5 results OK (nearest ID=25)
#   Kernel: 4,640 bytes embedded (x86_64, Hermit)
#   Witness chain: 5 entries, all verified
#   File: bootable.rvf (31 KB) — data + runtime in one file

rust

// The pattern: vectors + kernel + witness in one file
let mut store = RvfStore::create("bootable.rvf", options)?;
store.ingest_batch(&vectors, &ids, None)?;
store.embed_kernel(KernelArch::X86_64 as u8, KernelType::Hermit as u8,
    0x0018, &kernel_image, 8080, Some("console=ttyS0 quiet"))?;
// Result: drop on a VM and it boots as a query service

Linux Microkernel Distribution

20-package Linux distro with SSH keys and kernel in a single file:

bash

cd crates/rvf && cargo run --example linux_microkernel
# Output:
#   Installed 20 packages as vector embeddings
#   Kernel embedded: Linux x86_64 (4,640 bytes)
#   SSH keys: Ed25519, signed and verified
#   Witness chain: 22 entries (1 per package + kernel + SSH)
#   File: microkernel.rvf (14 KB) — immutable bootable system

Features: package search by embedding similarity, Ed25519 signed SSH keys, witness-audited installs, COW-derived child images for atomic updates.

Claude Code AI Appliance

A sealed, bootable AI development environment:

bash

cd crates/rvf && cargo run --example claude_code_appliance
# Output:
#   20 dev packages (rust, node, python, docker, ...)
#   Kernel: Linux x86_64 with SSH on port 2222
#   eBPF: XDP distance program for fast-path lookups
#   Witness chain: 6 entries, all verified
#   Crypto: Ed25519 signature
#   File: claude_code_appliance.rvf (17 KB)

CLI Full Lifecycle

bash

# Create → Ingest → Query → Derive → Inspect
rvf create vectors.rvf --dimension 384
rvf ingest vectors.rvf --input data.json --format json
rvf query vectors.rvf --vector "0.1,0.2,..." --k 10
rvf derive vectors.rvf child.rvf --type filter
rvf inspect vectors.rvf

# Embed kernel and launch as microVM
rvf embed-kernel vectors.rvf --image bzImage
rvf launch vectors.rvf --port 8080

# Verify tamper-evident witness chain
rvf verify-witness vectors.rvf
rvf verify-attestation vectors.rvf

Integration Tests (46 passing)

bash

cd crates/rvf
cargo test --workspace
# attestation .............. 6 passed
# crypto ................... 10 passed
# computational_container .. 8 passed
# cow_branching ............ 8 passed
# cross_platform ........... 6 passed
# lineage .................. 4 passed
# smoke .................... 4 passed
# Total: 46/46 passed

🐛 Troubleshooting

Native Module Not Loading

If you see "Cannot find module 'ruvector-core-*'":

bash

# Reinstall with optional dependencies
npm install --include=optional ruvector

# Verify platform
npx ruvector info

# Check Node.js version (18+ required)
node --version

WASM Fallback Performance

If you're using WASM fallback and need better performance:

Install native toolchain for your platform
Rebuild native module: npm rebuild ruvector
Verify native: npx ruvector info should show "native (Rust)"

Platform Compatibility

Alpine Linux: Uses WASM fallback (musl not supported)
Windows ARM: Not yet supported, uses WASM fallback
Node.js < 18: Not supported, upgrade to Node.js 18+

📚 Documentation

🤝 Contributing

We welcome contributions! See CONTRIBUTING.md for guidelines.

Quick Start

Fork the repository
Create a feature branch: git checkout -b feature/amazing-feature
Commit changes: git commit -m 'Add amazing feature'
Push to branch: git push origin feature/amazing-feature
Open a Pull Request

🌐 Community & Support

GitHub: github.com/ruvnet/ruvector - ⭐ Star and follow
Discord: Join our community - Chat with developers
Twitter: @ruvnet - Follow for updates
Issues: Report bugs

Enterprise Support

Need custom development or consulting?

📧 enterprise@ruv.io

📜 License

MIT License - see LICENSE for details.

Free for commercial and personal use.

🙏 Acknowledgments

Built with battle-tested technologies:

HNSW: Hierarchical Navigable Small World graphs
SIMD: Hardware-accelerated vector operations via simsimd
Rust: Memory-safe, zero-cost abstractions
NAPI-RS: High-performance Node.js bindings
WebAssembly: Universal browser compatibility

Built with ❤️ by rUv

Get Started • Documentation • API Reference • Contributing

ArchibaldAI/ruvector-fixed

ruvector

🧠 Claude Code Intelligence v2.0

Core Features

New in v2.0

Performance

MCP Server Integration

🌟 Why Ruvector?

The Problem with Existing Vector Databases

The Ruvector Advantage

Key Advantages

🚀 Quick Start Tutorial

Step 1: Installation

Step 2: Your First Vector Database

Step 3: TypeScript Tutorial

🎯 Platform Detection

🔧 CLI Tools

Create Database

Insert Vectors

Search Vectors

Database Statistics

Benchmarking

System Information

Install Optional Packages

GNN Commands

GNN Info

GNN Layer

GNN Compress

GNN Search

Attention Commands

Attention Mechanisms Reference

Attention Info

Attention List

Attention Benchmark

Hyperbolic Operations

When to Use Each Attention Type

⚡ ONNX WASM Embeddings (v2.0)

🧠 Self-Learning Hooks v2.0

Initialize Hooks

Session Management

Pre/Post Edit Hooks

Pre/Post Command Hooks

Agent Routing

Memory Operations

Context Suggestions

Intelligence Statistics

Swarm Recommendations

AST Analysis (v2.0)

Diff & Risk Analysis (v2.0)

Coverage-Aware Routing (v2.0)

Graph Analysis (v2.0)

Security & RAG (v2.0)

Hooks Configuration

How Self-Learning Works

📊 Performance Benchmarks

Native Performance (Rust)

Comparison with Alternatives

🔍 Comparison with Other Vector Databases

When to Choose Ruvector

Why Choose Ruvector Over...

🎯 Real-World Tutorials

Tutorial 1: Building a RAG System with OpenAI

Tutorial 2: Semantic Search Engine

Tutorial 3: AI Agent Memory System

🏗️ API Reference

Constructor

Methods

insert(entry: VectorEntry): Promise

search(query: SearchQuery): Promise<SearchResult[]>

get(id: string): Promise<VectorEntry | null>

delete(id: string): Promise

len(): Promise

🎨 Advanced Configuration

HNSW Parameters

Distance Metrics

Persistence

📦 Platform Support

Native (Rust) - Best Performance

WASM Fallback - Universal Compatibility

🔧 Building from Source

ArchibaldAI/
ruvector-fixed