multi-agent-patterns

Design and implement multi-agent architectures with supervisor, peer-to-peer, and hierarchical patterns.

1|Updated Feb 10, 2026
One-click install
npx skills add https://github.com/fefogarcia/approved-skills --skill multi-agent-patterns-fefogarcia
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: multi-agent-patterns
Source: https://github.com/fefogarcia/approved-skills/tree/main/skills/multi-agent-patterns
Command: npx skills add https://github.com/fefogarcia/approved-skills --skill multi-agent-patterns-fefogarcia

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes scripts (resource) and references (resource) components.

What problem does it solve?

This Skill addresses the limitations of single-agent systems by enabling the design and implementation of sophisticated multi-agent architectures, allowing for the decomposition of complex tasks and efficient distribution of work.

Core Features & Use Cases

  • Architectural Patterns: Explore Supervisor/Orchestrator, Peer-to-Peer/Swarm, and Hierarchical patterns.
  • Context Isolation: Understand and implement strategies for managing context across multiple agents.
  • Coordination & Consensus: Learn mechanisms for effective communication, voting, and debate among agents.
  • Use Case: Building a research system where one agent searches for information, another analyzes it, and a third synthesizes a report, overcoming the context window limitations of a single agent.

Quick Start

Activate this skill to design a supervisor/orchestrator multi-agent architecture for a complex research task.

Frequently Asked Questions about multi-agent-patterns

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

FAQPage Schema
What is a multi-agent architecture and when do I need one for LLM systems?

A multi-agent architecture coordinates multiple specialized LLM agents to execute complex tasks. You need it when single-agent context window limitations restrict task scale or when parallel execution and distributed AI orchestration are required.

How do I design a supervisor or orchestrator pattern for AI agent coordination?

Design a supervisor multi-agent pattern by configuring a central orchestrator to route subtasks and manage context isolation across specialized worker agents. This enables hierarchical coordination, task decomposition, and structured failure handling.

What's the best way to manage context isolation across multiple AI agents?

Implement context isolation by structuring distributed AI architectures that segment working memory per agent, preventing cross-agent token overflow. This ensures focused processing, optimizes token economics, and maximizes parallelization benefits across the orchestrated swarm.

How do consensus mechanisms and voting work in peer-to-peer swarm AI systems?

Consensus mechanisms in peer-to-peer swarm systems enable distributed AI agents to communicate, debate, and vote on outputs. This coordination ensures aggregated results and fault tolerance when multiple agents collaborate on complex distributed tasks.

Does a hierarchical multi-agent pattern improve token economics over a single agent?

A hierarchical multi-agent pattern improves token economics by isolating context windows and parallelizing subtask execution. Distributing work across orchestrated sub-agents prevents context overflow and optimizes token usage compared to a single overloaded agent.

What are the limitations of using peer-to-peer swarm patterns for agent coordination?

Limitations of peer-to-peer swarm patterns include complex failure handling, consensus overhead, and potential communication bottlenecks. Without a central orchestrator, managing context isolation and ensuring reliable consensus across distributed agents becomes challenging.