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multi-agent-patterns

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What it does

Enables complex task solving by dynamically distributing work across specialized agents with isolated contexts for enhanced reasoning and parallelization.

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multi-agent-patterns

Installation

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npx skills add zpankz/mcp-skillset --skill multi-agent-patterns
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AddedFeb 4, 2026

Skill Details

SKILL.md

Design multi-agent architectures for complex tasks. Use when single-agent context limits are exceeded, when tasks decompose naturally into subtasks, or when specializing agents improves quality.

Overview

# Multi-Agent Architecture Patterns for Claude Code

Multi-agent architectures distribute work across multiple agent invocations, each with its own focused context. When designed well, this distribution enables capabilities beyond single-agent limits. When designed poorly, it introduces coordination overhead that negates benefits. The critical insight is that sub-agents exist primarily to isolate context, not to anthropomorphize role division.

Core Concepts

Multi-agent systems address single-agent context limitations through distribution. Three dominant patterns exist: supervisor/orchestrator for centralized control, peer-to-peer/swarm for flexible handoffs, and hierarchical for layered abstraction. The critical design principle is context isolationβ€”sub-agents exist primarily to partition context rather than to simulate organizational roles.

Effective multi-agent systems require explicit coordination protocols, consensus mechanisms that avoid sycophancy, and careful attention to failure modes including bottlenecks, divergence, and error propagation.

Why Multi-Agent Architectures

The Context Bottleneck

Single agents face inherent ceilings in reasoning capability, context management, and tool coordination. Multi-agent architectures address these limitations by partitioning work across multiple context windows.

The Parallelization Argument

Many tasks contain parallelizable subtasks that a single agent must execute sequentially. Multi-agent architectures assign each subtask to a dedicated agent with a fresh context.

The Specialization Argument

Different tasks benefit from different agent configurations. Multi-agent architectures enable specialization without combinatorial explosion.

Progressive Loading

L2 Content (loaded when architectural patterns and implementation details needed):

  • See: [references/patterns.md](./references/patterns.md)

L3 Content (loaded when memory systems and advanced coordination needed):

  • See: [references/memory-systems.md](./references/memory-systems.md)