swarm-advanced

Orchestrate distributed research, development, and testing workflows across mesh, hierarchical, star, and ring topologies.

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

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill requires claude-flow.

What problem does it solves? This Skill tackles the challenge of orchestrating AI agent swarms for complex, distributed tasks like deep research, full-stack development, or comprehensive testing. It provides advanced strategies to overcome coordination difficulties and maximize efficiency.

Core Features & Use Cases

  • Advanced Swarm Topologies: Supports Mesh, Hierarchical, Star, and Ring topologies for optimal coordination based on task type.
  • Adaptive Agent Strategies: Dynamically adjusts agent behavior and workload distribution based on task complexity.
  • Fault Tolerance & Memory Management: Ensures resilience and cross-session state persistence for continuous operations.
  • Use Case: Imagine you need to conduct deep research on a new technology. Use this Skill to initialize a 'mesh' topology research swarm with specialized agents (web researcher, academic researcher, data analyst) to parallelize information gathering, analyze findings, and synthesize a comprehensive report, all while learning from successful patterns.

Quick Start

Initialize a mesh swarm with 6 agents, spawn a 'researcher' agent, and orchestrate a task to 'research AI trends in 2025' using a distributed strategy.

Frequently Asked Questions about swarm-advanced

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

FAQPage Schema
How do I orchestrate multiple AI agents across distributed systems?

Orchestrating AI agents across distributed systems involves initializing a swarm topology (mesh, hierarchical, star, or ring), spawning specialized agents, and coordinating tasks via MCP APIs like swarm_init, agent_spawn, and task_orchestrate. This Skill provides templates and patterns to manage parallel workflows, fault tolerance, and cross-session memory persistence across agent networks.

What swarm topologies work best for complex research and development workflows?

Mesh, hierarchical, star, and ring topologies each optimize different workflows. Mesh topologies parallelize information gathering across independent agents; hierarchical topologies delegate tasks through a command chain; star topologies route all work through a central coordinator; ring topologies pass tasks sequentially. Choose based on your coordination complexity and task dependencies.

How do I manage memory and state across multiple agents in a swarm?

Memory management in agent swarms uses MCP APIs like memory_usage and workflow_execute to persist state across sessions and coordinate knowledge between agents. This Skill implements fault-tolerant mechanisms that ensure agents retain learned patterns and cross-agent insights, enabling continuous operations without losing context between tasks.

Can I use workflow automation with AI agents for testing and development?

Yes. This Skill applies workflow automation to distributed testing, research, and development by spawning task-specialized agents, orchestrating parallel and sequential execution, and monitoring results via swarm_status and task_orchestrate MCP APIs. Adaptive agent strategies dynamically adjust workload distribution based on task complexity.

What are the prerequisites for setting up a multi-agent swarm?

Prerequisites include the claude-flow dependency and an MCP tooling environment with CLI command access. You need to define your desired topology, prepare task specifications, and understand your system's agent capacity. The Skill handles initialization, lifecycle management, and mesh orchestration once these are in place.

What limitations should I consider when scaling agent swarms?

Swarm scale depends on memory management capacity, MCP API throughput, and task coordination overhead. Ring and mesh topologies scale differently; hierarchical topologies may bottleneck at the coordinator. Monitor swarm_status and memory_usage metrics to detect when agent count or task parallelism approaches your infrastructure limits.