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This skill unifies QE memory with AgentDB and HNSW for cross-domain search, enabling faster semantic retrieval and SONA-informed learning.

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---
name: "V3 QE Memory Unification"
description: "Unified memory system for QE with AgentDB, HNSW indexing (150x-12,500x faster search), and SONA learning integration."
version: "3.0.0"
---

# V3 QE Memory Unification

## Purpose

Guide the implementation of a unified memory system for all QE domains using AgentDB with HNSW indexing, providing 150x-12,500x faster semantic search and cross-domain knowledge sharing.

## Activation

- When consolidating QE memory systems
- When implementing cross-domain knowledge sharing
- When migrating from legacy memory (SQLite, markdown, in-memory)
- When optimizing search performance
- When integrating SONA learning patterns

## Architecture

```
┌─────────────────────────────────────────────────────────────┐
│                 V3 QE Unified Memory                         │
├─────────────────────────────────────────────────────────────┤
│                                                              │
│  ┌──────────────┐  ┌──────────────┐  ┌──────────────┐       │
│  │ test-suites  │  │  coverage    │  │   defects    │       │
│  │   (HNSW)     │  │   (HNSW)     │  │   (HNSW)     │       │
│  └──────────────┘  └──────────────┘  └──────────────┘       │
│                                                              │
│  ┌──────────────┐  ┌──────────────┐  ┌──────────────┐       │
│  │  quality     │  │  learning    │  │ coordination │       │
│  │   (HNSW)     │  │   (HNSW)     │  │   (HNSW)     │       │
│  └──────────────┘  └──────────────┘  └──────────────┘       │
│                                                              │
│  ┌─────────────────────────────────────────────────────┐    │
│  │              AgentDB Core Engine                     │    │
│  │  • 1536-dimension embeddings                        │    │
│  │  • HNSW M=16, efConstruction=200                    │    │
│  │  • Hybrid persistence (SQLite + File)               │    │
│  └─────────────────────────────────────────────────────┘    │
│                                                              │
└─────────────────────────────────────────────────────────────┘
```

## Quick Start

```bash
# Initialize unified memory
aqe-v3 memory init --unified --hnsw

# Migrate from legacy systems
aqe-v3 memory migrate --source sqlite --domain coverage-analysis
aqe-v3 memory migrate --source markdown --domain defect-patterns

# Enable SONA integration
aqe-v3 memory sona --enable --mode real-time

# Search across all domains
aqe-v3 memory search --query "authentication test patterns" --domains all
```

## Agent Workflow

```typescript
// Spawn memory specialist for unified operations
Task("Initialize unified memory", `
  Set up QE unified memory system:
  - Create AgentDB with HNSW indexes per domain
  - Configure embedding dimensions (1536)
  - Set up cross-domain sharing protocols
  - Enable SONA learning integration
`, "v3-qe-memory-specialist")

// Migrate legacy data
Task("Migrate coverage data", `
  Migrate coverage analysis data to unified system:
  - Export from SQLite/in-memory sources
  - Generate embeddings for all entries
  - Index in HNSW for fast search
  - Validate migration integrity
`, "v3-qe-memory-specialist")
```

## Unified Memory Implementation

### 1. QE Unified Memory Service

```typescript
// v3/src/memory/QEUnifiedMemory.ts
import { AgentDB, HNSWIndex } from '@agentdb/core';

export class QEUnifiedMemory {
  private readonly db: AgentDB;
  private readonly indexes: Map<string, HNSWIndex>;

  constructor(config: QEMemoryConfig) {
    this.db = new AgentDB({
      storagePath: config.storagePath || '.agentic-qe/memory',
      embeddingDimensions: 1536,
      persistenceStrategy: 'hybrid'
    });

    this.indexes = new Map();
    this.initializeIndexes(config);
  }

  private initializeIndexes(config: QEMemoryConfig): void {
    // Domain-specific HNSW configurations
    const domainConfigs: Record<string, HNSWConfig> = {
      'defect-patterns': { M: 32, efConstruction: 400, efSearch: 200 },
      'coverage-analysis': { M: 16, efConstruction: 200, efSearch: 100 },
      'test-suites': { M: 8, efConstruction: 100, efSearch: 50 },
      'learning-patterns': { M: 24, efConstruction: 300, efSearch: 150 },
      'quality-metrics': { M: 16, efConstruction: 200, efSearch: 100 },
      'coordination': { M: 8, efConstruction: 100, efSearch: 50 }
    };

    for (const [domain, hnswConfig] of Object.entries(domainConfigs)) {
      this.indexes.set(domain, new HNSWIndex(hnswConfig));
    }
  }

  // Store with automatic embedding and indexing
  async store(entry: QEMemoryEntry): Promise<string> {
    // 1. Generate embedding
    const embedding = await this.generateEmbedding(entry.content);

    // 2. Store in AgentDB
    const id = await this.db.store({
      id: entry.id || crypto.randomUUID(),
      namespace: entry.domain,
      data: entry.content,
      embedding,
      metadata: entry.metadata,
      ttl: entry.ttl
    });

    // 3. Index in HNSW for fast search
    const index = this.indexes.get(entry.domain);
    if (index) {
      await index.add(id, embedding);
    }

    return id;
  }

  // Semantic search across domains (O(log n) via HNSW)
  async search(query: string, options: SearchOptions = {}): Promise<SearchResult[]> {
    const queryEmbedding = await this.generateEmbedding(query);
    const domains = options.domains || Array.from(this.indexes.keys());
    const results: SearchResult[] = [];

    for (const domain of domains) {
      const index = this.indexes.get(domain);
      if (!index) continue;

      // O(log n) search via HNSW
      const candidates = await index.search(queryEmbedding, options.limit || 10);

      for (const { id, distance } of candidates) {
        const entry = await this.db.get(id);
        if (entry && distance < (options.threshold || 0.5)) {
          results.push({
            id,
            domain,
            content: entry.data,
            similarity: 1 - distance,
            metadata: entry.metadata
          });
        }
      }
    }

    return results
      .sort((a, b) => b.similarity - a.similarity)
      .slice(0, options.limit || 10);
  }

  // Cross-domain knowledge sharing
  async shareKnowledge(
    sourceDomain: string,
    targetDomains: string[],
    query: string
  ): Promise<void> {
    const sourceResults = await this.search(query, { domains: [sourceDomain] });

    for (const result of sourceResults) {
      for (const targetDomain of targetDomains) {
        await this.store({
          domain: targetDomain,
          content: result.content,
          metadata: {
            ...result.metadata,
            sharedFrom: sourceDomain,
            sharedAt: new Date().toISOString()
          }
        });
      }
    }
  }
}
```

### 2. Domain Migration Service

```typescript
// v3/src/memory/migration/QEMigrationService.ts
export class QEMigrationService {
  constructor(
    private readonly unifiedMemory: QEUnifiedMemory,
    private readonly embeddingProvider: EmbeddingProvider
  ) {}

  // Migrate from SQLite
  async migrateSQLite(config: SQLiteMigrationConfig): Promise<MigrationResult> {
    const { source, domain, preserveIds } = config;
    const sqlite = new SQLiteReader(source);
    const entries = await sqlite.readAll();

    let migrated = 0;
    let failed = 0;

    for (const entry of entries) {
      try {
        await this.unifiedMemory.store({
          id: preserveIds ? entry.id : undefined,
          domain,
          content: entry.data,
          metadata: {
            migratedFrom: 'sqlite',
            originalId: entry.id,
            migratedAt: new Date().toISOString()
          }
        });
        migrated++;
      } catch (error) {
        failed++;
        console.error(`Failed to migrate entry ${entry.id}:`, error);
      }
    }

    return { migrated, failed, total: entries.length };
  }

  // Migrate from markdown files
  async migrateMarkdown(config: MarkdownMigrationConfig): Promise<MigrationResult> {
    const { pattern, domain } = config;
    const files = await glob(pattern);

    let migrated = 0;
    let failed = 0;

    for (const file of files) {
      try {
        const content = await readFile(file, 'utf-8');
        const parsed = this.parseMarkdown(content);

        await this.unifiedMemory.store({
          domain,
          content: parsed,
          metadata: {
            migratedFrom: 'markdown',
            sourceFile: file,
            migratedAt: new Date().toISOString()
          }
        });
        migrated++;
      } catch (error) {
        failed++;
      }
    }

    return { migrated, failed, total: files.length };
  }

  // Migrate in-memory data
  async migrateInMemory(
    data: Map<string, unknown>,
    domain: string
  ): Promise<MigrationResult> {
    let migrated = 0;
    let failed = 0;

    for (const [key, value] of data.entries()) {
      try {
        await this.unifiedMemory.store({
          id: key,
          domain,
          content: value,
          metadata: {
            migratedFrom: 'in-memory',
            migratedAt: new Date().toISOString()
          }
        });
        migrated++;
      } catch (error) {
        failed++;
      }
    }

    return { migrated, failed, total: data.size };
  }
}
```

### 3. SONA Integration

```typescript
// v3/src/memory/sona/QESONAMemory.ts
export class QESONAMemory {
  constructor(
    private readonly unifiedMemory: QEUnifiedMemory,
    private readonly sonaProvider: SONAProvider
  ) {}

  // Enable SONA for pattern learning
  async enableSONAIntegration(config: SONAConfig): Promise<void> {
    await this.sonaProvider.initialize({
      mode: config.mode || 'real-time',
      adaptationTimeMs: config.adaptationTimeMs || 0.05,
      patternStorage: true
    });

    // Subscribe to memory events for pattern learning
    this.unifiedMemory.on('stored', async (entry) => {
      await this.learnFromEntry(entry);
    });

    this.unifiedMemory.on('searched', async (query, results) => {
      await this.learnFromSearch(query, results);
    });
  }

  private async learnFromEntry(entry: QEMemoryEntry): Promise<void> {
    if (entry.domain === 'learning-patterns') {
      await this.sonaProvider.adaptPattern({
        pattern: entry.content,
        source: entry.domain,
        timestamp: new Date()
      });
    }
  }

  private async learnFromSearch(
    query: string,
    results: SearchResult[]
  ): Promise<void> {
    if (results.length > 0) {
      await this.sonaProvider.reinforcePattern({
        query,
        topResults: results.slice(0, 3),
        timestamp: new Date()
      });
    }
  }

  // Get pattern recommendations
  async getRecommendations(context: string): Promise<PatternRecommendation[]> {
    const sonaPatterns = await this.sonaProvider.predictPatterns(context);
    const memoryPatterns = await this.unifiedMemory.search(context, {
      domains: ['learning-patterns'],
      limit: 5
    });

    return this.mergeRecommendations(sonaPatterns, memoryPatterns);
  }
}
```

## HNSW Configuration Reference

| Domain | M | efConstruction | efSearch | Use Case |
|--------|---|----------------|----------|----------|
| defect-patterns | 32 | 400 | 200 | High precision for prediction |
| coverage-analysis | 16 | 200 | 100 | Balanced for gap detection |
| test-suites | 8 | 100 | 50 | Fast lookup |
| learning-patterns | 24 | 300 | 150 | High recall for transfer |
| quality-metrics | 16 | 200 | 100 | Balanced |
| coordination | 8 | 100 | 50 | Fast agent state lookup |

## Performance Targets

| Operation | Target | Achieved Via |
|-----------|--------|--------------|
| Semantic search (10K entries) | <1ms | HNSW O(log n) |
| Semantic search (100K entries) | <2ms | HNSW O(log n) |
| Semantic search (1M entries) | <5ms | HNSW O(log n) |
| Memory usage | 50-75% reduction | Quantization |
| Cross-agent sharing | Real-time | Event-driven sync |
| Pattern adaptation | <0.05ms | SONA integration |

## CLI Commands

```bash
# Initialize unified memory
aqe-v3 memory init --unified --hnsw
aqe-v3 memory init --config memory-config.yaml

# Migration commands
aqe-v3 memory migrate --source sqlite --path ./data/coverage.db --domain coverage-analysis
aqe-v3 memory migrate --source markdown --pattern "docs/**/*.md" --domain defect-patterns
aqe-v3 memory migrate --source memory --domain test-suites

# Search operations
aqe-v3 memory search --query "authentication test patterns"
aqe-v3 memory search --query "sql injection vulnerabilities" --domains security-compliance
aqe-v3 memory search --query "flaky tests" --limit 20 --threshold 0.7

# SONA operations
aqe-v3 memory sona --enable --mode real-time
aqe-v3 memory sona --status
aqe-v3 memory sona --patterns --domain defect-patterns

# Cross-domain sharing
aqe-v3 memory share --from learning-patterns --to test-generation,coverage-analysis
aqe-v3 memory share --query "best practices" --targets all

# Statistics
aqe-v3 memory stats
aqe-v3 memory stats --domain coverage-analysis --detailed
```

## Implementation Checklist

- [ ] Implement QEUnifiedMemory with AgentDB
- [ ] Configure HNSW indexes per domain
- [ ] Create SQLite migration service
- [ ] Create markdown migration service
- [ ] Implement SONA integration
- [ ] Add cross-domain knowledge sharing
- [ ] Implement quantization for memory reduction
- [ ] Write performance benchmarks
- [ ] Add CLI commands

## Related Skills

- v3-qe-memory-system - Basic memory operations
- v3-qe-learning-optimization - Pattern learning
- v3-qe-agentic-flow-integration - SONA integration
- v3-memory-unification (claude-flow) - Reference implementation

## Related ADRs

- ADR-038: V3 QE Memory System Unification
- ADR-006: Unified Memory Service (claude-flow)
- ADR-009: Hybrid Memory Backend (claude-flow)

Overview

This skill implements a unified QE memory system that consolidates domain memories into AgentDB with HNSW indexing and SONA learning integration. It delivers large speedups for semantic search (150x–12,500x) and enables real-time cross-domain knowledge sharing and pattern adaptation. The implementation targets hybrid persistence, quantization for storage reduction, and domain-specific HNSW tuning for precision and recall.

How this skill works

The service creates an AgentDB core configured for 1,536-dimension embeddings and a hybrid SQLite+file persistence strategy. Each QE domain gets a tuned HNSW index (M, efConstruction, efSearch) to enable O(log n) approximate nearest-neighbor searches. Incoming entries are embedded, stored in AgentDB, indexed in the appropriate HNSW structure, and emitted as events for SONA to learn patterns and reinforce search behavior.

When to use it

  • Consolidating multiple QE memory sources (SQLite, markdown, in-memory) into a single searchable system
  • When you need sub-millisecond semantic search at 10K–1M scale with domain-specific precision/recall
  • Enabling cross-domain knowledge transfer (e.g., sharing defect patterns with test generation)
  • Adding online pattern learning or reinforcement via SONA for adaptive test intelligence
  • Migrating legacy storage while preserving IDs, metadata, and traceability

Best practices

  • Use domain-specific HNSW parameters: prioritize higher M/ef for precision domains (defect-patterns) and lower values for fast lookups (coordination).
  • Keep embeddings at 1536 dimensions and enable quantization to reduce memory usage without large accuracy loss.
  • Migrate incrementally: validate integrity per domain and preserve original IDs when traceability is required.
  • Expose events for 'stored' and 'searched' so SONA can adapt in real time and reinforce useful patterns.
  • Benchmark on representative datasets and tune efSearch/efConstruction per domain before full rollout.

Example use cases

  • Migrate coverage-analysis tables from SQLite into unified memory and run fast semantic queries across test-suites and defects.
  • Share learned defect patterns into test-generation and coverage-analysis to automatically seed new test cases.
  • Enable SONA to observe searches and storage events to adapt and recommend high-value testing patterns.
  • Run real-time agent coordination lookups with a lightweight coordination index for fast state resolution.
  • Perform large-scale semantic search across millions of entries with quantized embeddings to meet memory targets.

FAQ

What performance gains can I expect?

Typical semantic search speedups range from 150x to 12,500x versus linear scans, with sub-millisecond targets at 10K–100K entries using HNSW and tuned ef values.

How does SONA integration work here?

SONA subscribes to memory events (stored, searched) to adapt and reinforce patterns. It can run in real-time mode to continuously update recommendations and influence cross-domain sharing.