hive-mind-advanced

Coordinate queen-led multi-agent swarms with Byzantine consensus and shared memory.

Updated Aug 27, 2026
One-click install
npx skills add https://github.com/FreakyLetsFail/open-finance --skill hive-mind-advanced-freakyletsfail
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: hive-mind-advanced
Source: https://github.com/FreakyLetsFail/open-finance/tree/main/.claude/skills/hive-mind-advanced
Command: npx skills add https://github.com/FreakyLetsFail/open-finance --skill hive-mind-advanced-freakyletsfail

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill requires claude-flow.

What problem does it solve?

This Skill solves the challenge of complex multi-agent coordination, consensus-building, and shared memory management in AI systems. It eliminates the manual overhead and potential inconsistencies of orchestrating numerous specialized agents.

Core Features & Use Cases

  • Queen-Led Architecture: A strategic queen coordinator directs specialized worker agents.
  • Byzantine Consensus: Ensures robust decision-making even with faulty agents, requiring a 2/3 majority.
  • Collective Memory System: A shared, persistent knowledge base with LRU caching and SQLite persistence.
  • Use Case: Imagine you need to develop a complex microservices architecture. Use this Skill to spawn a Hive Mind swarm with a strategic queen and specialized workers (architects, coders, testers) to collaboratively design, implement, and validate the system, leveraging collective memory for shared knowledge and Byzantine consensus for critical decisions.

Quick Start

Spawn an advanced Hive Mind swarm to 'Build microservices architecture' with a strategic queen and Byzantine consensus.

Frequently Asked Questions about hive-mind-advanced

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

FAQPage Schema
How do I coordinate multiple AI agents to work together on complex projects?

Multi-agent coordination uses a queen-led architecture where a strategic coordinator directs specialized worker agents (researchers, coders, testers, architects) to collaborate on long-running projects. This Skill implements hierarchical queen coordination with Byzantine consensus to ensure robust decision-making across the swarm, enabling coordinated execution even when some agents fail or disagree.

What is Byzantine consensus and why do I need it for multi-agent systems?

Byzantine consensus is a fault-tolerant decision-making protocol that reaches agreement even when some agents are faulty or behave unpredictably, requiring a 2/3 majority to approve critical decisions. It protects swarm coordination from individual agent failures, ensuring robust outcomes in systems where perfect agent reliability cannot be guaranteed.

How do AI swarms maintain shared memory and context across sessions?

Collective memory systems use LRU caching layered with SQLite WAL persistence to store and retrieve shared knowledge persistently. This Skill provides memory types with configurable TTLs, search and association capabilities, and programmatic APIs so all agents access consistent, up-to-date context across distributed sessions without manual synchronization.

Can I use swarm intelligence for microservices architecture design and validation?

Yes. Spawn a queen-led swarm with specialized worker roles—architects for design, coders for implementation, testers for validation—to collaboratively develop and validate microservices systems. The swarm leverages Byzantine consensus for architectural decisions and collective memory to maintain shared design knowledge and integration points.

What happens if I need to scale the number of agents dynamically during execution?

This Skill includes auto-scaling controls that adjust the swarm size based on workload demands, allowing agents to spawn or retire as needed. Memory-based task assignment routes work to available agents dynamically, and the queen coordinator adapts consensus thresholds and worker allocation automatically.

Does this approach work for projects with mixed roles and long-running workflows?

Yes. It's designed for multi-role projects where specialized agents (researcher, coder, analyst, tester, architect, reviewer, optimizer, documenter) work together over extended periods. Shared memory with TTL-managed memory types, adaptive consensus, and dynamic task distribution enable agents to maintain state and coordinate complex workflows across multiple sessions.