AgentDB Performance Optimization

Optimize AgentDB vector databases using quantization, HNSW indexing, caching, and batch operations.

1|Updated Jun 3, 2026
One-click install
npx skills add https://github.com/KentwareDemo/RuView --skill agentdb-performance-optimization-kentwaredemo
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: AgentDB Performance Optimization
Source: https://github.com/KentwareDemo/RuView/tree/main/.claude/skills/agentdb-optimization
Command: npx skills add https://github.com/KentwareDemo/RuView --skill agentdb-performance-optimization-kentwaredemo

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill requires agentdb, agentic-flow.

What problem does it solve? Vector databases consume excessive memory and deliver slow search at scale, making it hard to run AgentDB deployments with millions of embeddings on constrained hardware or latency-sensitive applications. ## Core Features & Use Cases - Quantization Strategies: Apply binary (32x), scalar (4x), or product (8-16x) quantization to reduce memory usage while controlling accuracy trade-offs. - HNSW Indexing & Caching: Configure HNSW parameters (M, efConstruction, efSearch) and in-memory LRU caches to achieve sub-100µs vector search. - Batch Operations & Pruning: Insert vectors in batches for up to 500x faster writes, and consolidate or prune low-quality patterns to keep the database lean. - Use Case: When your AgentDB instance grows past 100K vectors and search latency climbs to hundreds of milliseconds, apply binary quantization with tuned HNSW parameters to cut memory 32x and restore sub-millisecond queries. ## Quick Start Ask the AI to configure an AgentDB adapter with binary quantization, a 1000-entry cache, and HNSW indexing, then run the benchmark command to verify the performance gains.

Frequently Asked Questions about AgentDB Performance Optimization

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I reduce AgentDB memory usage for large vector datasets?

Enable quantization when creating the AgentDB adapter. Binary quantization reduces memory 32x with 95-98% accuracy, scalar reduces 4x with 98-99% accuracy, and product quantization reduces 8-16x for high-dimensional embeddings.

How to speed up vector search in AgentDB with HNSW?

AgentDB builds HNSW indices automatically, giving O(log n) search. Tune hnswM, hnswEfConstruction, and hnswEfSearch parameters: higher values improve recall but increase memory and latency, while lower values favor speed.

Which quantization type should I use for vector search?

Use binary quantization for 1M+ vectors or memory-constrained edge deployments, scalar for balanced production workloads needing high accuracy, and product quantization for high-dimensional embeddings. Use no quantization only for small datasets requiring maximum accuracy.

Does AgentDB quantization affect search accuracy?

Yes, each quantization type trades accuracy for compression. Binary loses roughly 2-5% accuracy, scalar loses 1-2%, and product loses 3-7%. You can recover recall by increasing hnswEfSearch at the cost of slower queries.

Why is my AgentDB search slow and how do I fix it?

Slow search usually comes from a small cache, high k values, or missing quantization. Increase cacheSize toward 2000 patterns, reduce the number of results requested, and enable scalar or binary quantization to shrink the search space.

What are the limitations of binary quantization in vector databases?

Binary quantization compresses each dimension to a single bit, so it loses 2-5% accuracy and works best on large datasets where HNSW recall compensates. It is not suitable when you need near-exact nearest neighbors on small datasets.