multi-agent-coordination

Coordinate autonomous software development across multiple AI agents with task decomposition and artifact locks.

Updated Apr 20, 2026
One-click install
npx skills add https://github.com/thistleknot/skills --skill multi-agent-coordination-thistleknot
Or copy as Structured Prompt for Agent▼
Please help me install this Agent Skill.
Skill: multi-agent-coordination
Source: https://github.com/thistleknot/skills/tree/main/multi-agent-coordination
Command: npx skills add https://github.com/thistleknot/skills --skill multi-agent-coordination-thistleknot

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This Skill solves the problem of reliably coordinating multiple AI agents to execute a larger software task without context overflow, race conditions, or silently accepted conflicting results.

Core Features & Use Cases

  • Topology selection & orchestration patterns: Choose hub-and-spoke, pipeline, peer network, or hierarchical decomposition for the right workflow shape.
  • Plan-approval gates: Require the orchestrator to approve a worker sub-plan before execution to prevent drift and scope creep.
  • Shared task ownership with file-locking: Use a task registry with optimistic locking to ensure exactly one owner per task and prevent concurrent file writes.
  • Dynamic agent spawning with bounded context: Spawn specialist sub-agents when complexity is high, passing a bounded context slice and requiring structured results.
  • Conflict resolution & observability: Detect conflicts, escalate or vote per strategy, and log events to support debugging and stall recovery.
  • ActiveGraph substrate (event-sourced world state): Replace context-passing with an event-driven graph and enforce status transition rules across task/file/test/patch/review objects.

Quick Start

Use multi-agent-coordination to run a parallel plan for implementing a feature by assigning coding, testing, and review work to distinct agents with locked shared artifacts.

Frequently Asked Questions about multi-agent-coordination

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

FAQPage Schema
How do I coordinate multiple AI agents to work on the same software project without race conditions?▼

Multi-agent coordination prevents race conditions by using a shared task registry with optimistic locking to ensure exactly one owner per task and prevent concurrent file writes. An ActiveGraph substrate manages event-sourced state transitions to synchronize autonomous software development across distinct specialized work streams.

What is the best way to prevent scope creep when autonomous agents execute sub-plans?▼

Preventing scope creep in autonomous agents requires plan-approval gates where an orchestrator explicitly approves a worker sub-plan before execution. This topology-driven orchestration pattern stops drift by validating bounded context slices and structured results before allowing dynamic agent spawning to proceed.

How does an ActiveGraph state machine manage shared artifacts during parallel AI coding workflows?▼

An ActiveGraph state machine replaces context-passing with an event-driven graph that enforces status transition rules across task, file, test, patch, and review objects. It tracks shared ownership and artifact locks to maintain strict observability logging for task progress and conflict resolutions.

How do you resolve conflicts when multiple specialized AI agents attempt to modify the same files?▼

Conflict resolution for concurrent file modifications relies on file-locking and optimistic concurrency controls within a shared task registry. When overlapping work is detected, the system escalates or votes per a defined strategy, logging events to support debugging and stall recovery.

Can I dynamically spawn specialist sub-agents for complex coding tasks without causing context overflow?▼

Dynamic agent spawning avoids context overflow by passing a bounded context slice to each specialist sub-agent and requiring structured results. The orchestrator decomposes complex tasks into parallel specialized work streams, gating sub-plans to ensure peer verification and conflict-aware handoffs.

When should I use hierarchical decomposition instead of a peer network for agentic coding workflows?▼

Hierarchical decomposition suits workflows requiring strict plan-approval gates and bounded context delegation from an orchestrator to workers. Peer networks fit conflict-aware handoffs and peer verification between autonomous agents, while hub-and-spoke or pipeline patterns match simpler parallel specialized work streams.